KMIPServer Class

Properties   Methods   Events   Config Settings   Errors  

The KMIPServer class provides server-side functionality for Key Management Interoperability Protocol (KMIP).

Syntax

secureblackbox.KMIPServer

Remarks

The Key Management Interoperability Protocol (KMIP) is an OASIS standard for communication between key management servers and clients. KMIP servers are typically responsible for managing cryptographic keys and providing access to them to remote client applications.

Property List


The following is the full list of the properties of the class with short descriptions. Click on the links for further details.

ActiveIndicates if the KMIP server is active and listening to incoming connections.
AllowKeepAliveEnables or disables keep-alive mode.
AuthRealmSpecifies authentication realm for digest and NTLM authentication.
AuthTypesDefines allowed HTTP authentication types.
BoundPortIndicates the bound listening port.
CACertificateThe default CA certificate.
CertificateContains the certificate that has just been generated or added.
CompressionLevelThe default compression level to use.
ExternalCryptoProvides access to external signing and DC parameters.
FIPSModeReserved.
HandshakeTimeoutSpecifies the handshake timeout in milliseconds.
HostSpecifies the host name of the KMIP server.
KeyContains the key that has just been generated or added.
PinnedClientPopulates the pinned client details.
PinnedClientChainContains the certificate chain of the pinned client.
PortA port to listen for connections on.
ReadOnlyToDo.
SessionTimeoutSpecifies the default session timeout value in milliseconds.
SocketSettingsManages network connection settings.
StorageFileNameA path to the KMIP object database.
TLSServerChainThe server's TLS certificates.
TLSSettingsManages TLS layer settings.
UseChunkedTransferEnables chunked transfer.
UseCompressionEnables or disables server-side compression.
UseHTTPToDo.
UsersA database of registered users.

Method List


The following is the full list of the methods of the class with short descriptions. Click on the links for further details.

ConfigThis method sets or retrieves a configuration setting.
DoActionPerforms an additional action.
DropClientTerminates a client connection.
GetClientCertPopulates the per-connection certificate object.
GetClientKeyPopulates the per-connection key object.
GetRequestHeaderReturns a request header value.
GetResponseHeaderReturns a response header value.
ListClientsEnumerates the connected clients.
PinClientTakes a snapshot of the connection's properties.
ProcessGenericRequestProcesses a generic HTTP request.
ResetResets the class settings.
SetClientBytesCommits a data buffer to the connection.
SetClientCertCommits the per-connection certificate object to the connection context.
SetClientKeyCommits the per-connection key object to the connection context.
SetResponseHeaderSets a response header.
StartStart the KMIP server.
StopStops the KMIP server.

Event List


The following is the full list of the events fired by the class with short descriptions. Click on the links for further details.

AcceptReports an incoming connection.
ActivateObjectNotifies the application about the object activation request.
AddPasses the certificate import request to the application.
AddKeyExpects the application to handle the key import request.
AfterAddNotifies the application about completion of the certificate import operation.
AfterAddKeyReports the completion of the key import procedure.
AfterBrowseKMIP server uses this event to notify the application about the completion of the browsing (attribute request) operation.
AfterDecryptNotifies the application about completion of the decryption call.
AfterDeriveKeyNotifies the application about completion of the key derivation request.
AfterEditNotifies the application of completion of the object editing operation.
AfterEncryptNotifies the application about the completion of the encryption call.
AfterGenerateSignifies completion of certificate generation.
AfterGenerateKeyNotifies the application of the completion of key generation procedure.
AfterGenerateKeyPairNotifies the application of the completion of keypair generation.
AfterHashNotifies the application about completion of the hashing call.
AfterListNotifies the application about completion of the list command.
AfterObtainLeaseReports the completion of lease allocation operation.
AfterReadObjectNotifies the application of the completion of the read operation on the object.
AfterReCertifyToDo.
AfterReKeyToDo.
AfterRekeyKeyPairToDo.
AfterRemoveObjectNotifies the application about completion of the object removal request.
AfterSignNotifies the application of completion of a signing operation.
AfterVerifyNotifies the application about completion of the Verify operation.
AfterVerifyHashNotifies the application about completion of the hash verification.
ArchiveObjectNotifies the application about the received object archival request.
AuthAttemptFires when a connected client makes an authentication attempt.
BeforeAddFires when a certificate import request is received from a client.
BeforeAddKeyFires when a key import request is received from the client.
BeforeBrowseNotifies the application about the browse request being received.
BeforeDecryptNotifies the application about the initiation of the decryption operation.
BeforeDeriveKeyFires when a derive key request is received.
BeforeEditNotifies the application about the start of the object editing operation.
BeforeEncryptNotifies the application about the initiation of an encryption operation.
BeforeGenerateFires when a certificate generation request is received.
BeforeGenerateKeyFires when a key generation request is received.
BeforeGenerateKeyPairFires when a key generation request is received.
BeforeHashNotifies the application about the initiation of the hashing operation.
BeforeListNotifies the application about the initiation of the list operation.
BeforeObtainLeaseNotifies the application about the client requesting an object lease.
BeforeReadObjectNotifies the application about the start of the object reading request.
BeforeReCertifyNotifies the application about a re-certification request.
BeforeReKeyNotifies the application about a re-key request received.
BeforeRekeyKeyPairNotifies the application about a keypair re-key request received.
BeforeRemoveObjectTBD.
BeforeSignNotifies the application about the initiation of a signing operation.
BeforeVerifyNotifies the application about the initiation of the verify operation.
BeforeVerifyHashNotifies the application about the initiation of the hash verification operation.
CancelReports a cancellation request received from the client.
CheckTBD.
ConnectReports an accepted connection.
DecryptTBD.
DeleteAttributeTBD.
DeriveKeyTBD.
DisconnectFires to report a disconnected client.
EncryptTBD.
ErrorInformation about errors during data delivery.
ExternalSignHandles remote or external signing initiated by the server protocol.
GenerateTBD.
GenerateKeyTBD.
GenerateKeyPairTBD.
GetUsageAllocationTBD.
HashTBD.
HeadersPreparedFires when the response headers have been formed and are ready to be sent to the server.
KMIPAuthAttemptFires when a connected client makes an authentication attempt.
ListTBD.
ListAttributesTBD.
NotificationThis event notifies the application about an underlying control flow event.
ObtainLeaseLets the application handle the lease request.
OperationAttemptFires when a request is received from the client.
PollTBD.
ReadAttributeTBD.
ReadObjectTBD.
ReCertifyTBD.
RecoverObjectTBD.
ReKeyTBD.
RekeyKeyPairTBD.
RemoveObjectTBD.
RequestTBD.
ResponseTBD.
RevokeObjectTBD.
RNGGenerateTBD.
RNGSeedTBD.
SetAttributeTBD.
SignTBD.
TLSCertValidateFires when a client certificate needs to be validated.
TLSEstablishedReports the setup of a TLS session.
TLSHandshakeFires when a newly established client connection initiates a TLS handshake.
TLSPSKRequests a pre-shared key for TLS-PSK.
TLSShutdownReports closure of a TLS session.
ValidateChainTBD.
VerifyTBD.
VerifyHashDelegates the hash verification operation to a custom handler.

Config Settings


The following is a list of config settings for the class with short descriptions. Click on the links for further details.

AuthBasicTurns on/off the basic authentication.
AuthDigestTurns on/off the digest authentication.
DualStackAllows the use of ip4 and ip6 simultaneously.
MajorProtocolVersionMajor protocol version on the KMIP server.
MinorProtocolVersionMinor protocol version on the KMIP server.
SSLModeWhether to establish a TLS-secured connection.
UseChunkedTransferWhether to use chunked encoding of the data.
UseCompressionWhether to use GZip compression.
CheckKeyIntegrityBeforeUseEnables or disable private key integrity check before use.
CookieCachingSpecifies whether a cookie cache should be used for HTTP(S) transports.
CookiesGets or sets local cookies for the class.
DefDeriveKeyIterationsSpecifies the default key derivation algorithm iteration count.
EnableClientSideSSLFFDHEEnables or disables finite field DHE key exchange support in TLS clients.
GlobalCookiesGets or sets global cookies for all the HTTP transports.
HttpUserAgentSpecifies the user agent name to be used by all HTTP clients.
LogDestinationSpecifies the debug log destination.
LogDetailsSpecifies the debug log details to dump.
LogFileSpecifies the debug log filename.
LogFiltersSpecifies the debug log filters.
LogFlushModeSpecifies the log flush mode.
LogLevelSpecifies the debug log level.
LogMaxEventCountSpecifies the maximum number of events to cache before further action is taken.
LogRotationModeSpecifies the log rotation mode.
MaxASN1BufferLengthSpecifies the maximal allowed length for ASN.1 primitive tag data.
MaxASN1TreeDepthSpecifies the maximal depth for processed ASN.1 trees.
OCSPHashAlgorithmSpecifies the hash algorithm to be used to identify certificates in OCSP requests.
StaticDNSSpecifies whether static DNS rules should be used.
StaticIPAddress[domain]Gets or sets an IP address for the specified domain name.
StaticIPAddressesGets or sets all the static DNS rules.
TagAllows to store any custom data.
TLSSessionGroupSpecifies the group name of TLS sessions to be used for session resumption.
TLSSessionLifetimeSpecifies lifetime in seconds of the cached TLS session.
TLSSessionPurgeIntervalSpecifies how often the session cache should remove the expired TLS sessions.
UseOwnDNSResolverSpecifies whether the client classes should use own DNS resolver.
UseSharedSystemStoragesSpecifies whether the validation engine should use a global per-process copy of the system certificate stores.
UseSystemOAEPAndPSSEnforces or disables the use of system-driven RSA OAEP and PSS computations.
UseSystemRandomEnables or disables the use of the OS PRNG.

Active Property (KMIPServer Class)

Indicates if the KMIP server is active and listening to incoming connections.

Syntax


public boolean isActive();


Default Value

False

Remarks

Check this property to find out if the KMIP server is in an active state. Use Start and Stop methods to launch and stop the server.

This property is read-only and not available at design time.

AllowKeepAlive Property (KMIPServer Class)

Enables or disables keep-alive mode.

Syntax


public boolean isAllowKeepAlive();


public void setAllowKeepAlive(boolean allowKeepAlive);

Default Value

True

Remarks

Use this property to enable or disable the keep-alive connection mode. If keep-alive is enabled, clients that choose to use it may stay connected for a while.

AuthRealm Property (KMIPServer Class)

Specifies authentication realm for digest and NTLM authentication.

Syntax


public String getAuthRealm();


public void setAuthRealm(String authRealm);

Default Value

"SecureBlackbox"

Remarks

Specifies authentication realm for digest and NTLM authentication types.

AuthTypes Property (KMIPServer Class)

Defines allowed HTTP authentication types.

Syntax


public int getAuthTypes();


public void setAuthTypes(int authTypes);

Default Value

0

Remarks

Use this property to define which authentication types the component should support or attempt to use by enabling the relevant bitmask flags:

haBasic0x01Basic authentication

haDigest0x02Digest authentication (RFC 2617)

haNTLM0x04Windows NTLM authentication

haKerberos0x08Kerberos (Negotiate) authentication

haOAuth20x10OAuth2 authentication

BoundPort Property (KMIPServer Class)

Indicates the bound listening port.

Syntax


public int getBoundPort();


Default Value

0

Remarks

Check this property to find out the port that has been allocated to the server by the system. The bound port always equals Port if it is provided, or is allocated dynamically if configured to fall in the range between PortRangeFrom and PortRangeTo constraints.

This property is read-only and not available at design time.

CACertificate Property (KMIPServer Class)

The default CA certificate.

Syntax


public Certificate getCACertificate();


public void setCACertificate(Certificate CACertificate);

Remarks

KMIP server uses this certificate to sign incoming certificate requests. All certificates generated by the KMIP server will be signed by this CA.

This property is not available at design time.

Please refer to the Certificate type for a complete list of fields.

Certificate Property (KMIPServer Class)

Contains the certificate that has just been generated or added.

Syntax


public Certificate getCertificate();


public void setCertificate(Certificate certificate);

Remarks

Use this property to access the certificate that has just been generated or added.

This property is not available at design time.

Please refer to the Certificate type for a complete list of fields.

CompressionLevel Property (KMIPServer Class)

The default compression level to use.

Syntax


public int getCompressionLevel();


public void setCompressionLevel(int compressionLevel);

Default Value

6

Remarks

Assign this property with the compression level (1 to 9) to apply for gzipped responses. 1 stands for the lightest but fastest compression, and 9 for the best but the slowest.

ExternalCrypto Property (KMIPServer Class)

Provides access to external signing and DC parameters.

Syntax


public ExternalCrypto getExternalCrypto();


Remarks

Use this property to tune-up remote cryptography settings. SecureBlackbox supports two independent types of external cryptography: synchronous (based on the ExternalSign event) and asynchronous (based on the DC protocol and the DCAuth signing component).

This property is read-only.

Please refer to the ExternalCrypto type for a complete list of fields.

FIPSMode Property (KMIPServer Class)

Reserved.

Syntax


public boolean isFIPSMode();


public void setFIPSMode(boolean FIPSMode);

Default Value

False

Remarks

This property is reserved for future use.

HandshakeTimeout Property (KMIPServer Class)

Specifies the handshake timeout in milliseconds.

Syntax


public int getHandshakeTimeout();


public void setHandshakeTimeout(int handshakeTimeout);

Default Value

20000

Remarks

Use this property to set the TLS handshake timeout.

Host Property (KMIPServer Class)

Specifies the host name of the KMIP server.

Syntax


public String getHost();


public void setHost(String host);

Default Value

""

Remarks

Use this property to specify the address of the KMIP server.

Key Property (KMIPServer Class)

Contains the key that has just been generated or added.

Syntax


public CryptoKey getKey();


public void setKey(CryptoKey key);

Remarks

Use this property to access the key that has just been generated or added.

This property is not available at design time.

Please refer to the CryptoKey type for a complete list of fields.

PinnedClient Property (KMIPServer Class)

Populates the pinned client details.

Syntax


public TLSConnectionInfo getPinnedClient();


Remarks

Use this property to access the details of the client connection previously pinned with PinClient method.

This property is read-only and not available at design time.

Please refer to the TLSConnectionInfo type for a complete list of fields.

PinnedClientChain Property (KMIPServer Class)

Contains the certificate chain of the pinned client.

Syntax


public CertificateList getPinnedClientChain();


Remarks

Use this property to access the certificate chain of the client connection pinned previously with a PinClient call.

This property is read-only and not available at design time.

Please refer to the Certificate type for a complete list of fields.

Port Property (KMIPServer Class)

A port to listen for connections on.

Syntax


public int getPort();


public void setPort(int port);

Default Value

5696

Remarks

Use this property to specify the listening port.

ReadOnly Property (KMIPServer Class)

ToDo.

Syntax


public boolean isReadOnly();


public void setReadOnly(boolean readOnly);

Default Value

False

Remarks

ToDo

This property is not available at design time.

SessionTimeout Property (KMIPServer Class)

Specifies the default session timeout value in milliseconds.

Syntax


public int getSessionTimeout();


public void setSessionTimeout(int sessionTimeout);

Default Value

360000

Remarks

Specifies the period of inactivity (in milliseconds) after which the connection will be terminated by the server.

SocketSettings Property (KMIPServer Class)

Manages network connection settings.

Syntax


public SocketSettings getSocketSettings();


Remarks

Use this property to tune up network connection parameters.

This property is read-only.

Please refer to the SocketSettings type for a complete list of fields.

StorageFileName Property (KMIPServer Class)

A path to the KMIP object database.

Syntax


public String getStorageFileName();


public void setStorageFileName(String storageFileName);

Default Value

""

Remarks

Assign the path to the database of objects managed by the KMIP server to this property.

TLSServerChain Property (KMIPServer Class)

The server's TLS certificates.

Syntax


public CertificateList getTLSServerChain();


public void setTLSServerChain(CertificateList TLSServerChain);

Remarks

Use this property to provide a list of TLS certificates for the server endpoint.

A TLS endpoint needs a certificate to be able to accept TLS connections. At least one of the certificates in the collection - the endpoint certificate - must have a private key associated with it.

The collection may include more than one endpoint certificate, and more than one chain. A typical usage scenario is to include two chains (ECDSA and RSA), to cater for clients with different cipher suite preferences.

This property is not available at design time.

Please refer to the Certificate type for a complete list of fields.

TLSSettings Property (KMIPServer Class)

Manages TLS layer settings.

Syntax


public TLSSettings getTLSSettings();


Remarks

Use this property to tune up the TLS layer parameters.

This property is read-only.

Please refer to the TLSSettings type for a complete list of fields.

UseChunkedTransfer Property (KMIPServer Class)

Enables chunked transfer.

Syntax


public boolean isUseChunkedTransfer();


public void setUseChunkedTransfer(boolean useChunkedTransfer);

Default Value

False

Remarks

Use this property to enable chunked content encoding.

UseCompression Property (KMIPServer Class)

Enables or disables server-side compression.

Syntax


public boolean isUseCompression();


public void setUseCompression(boolean useCompression);

Default Value

False

Remarks

Use this property to enable or disable server-side content compression.

UseHTTP Property (KMIPServer Class)

ToDo.

Syntax


public boolean isUseHTTP();


public void setUseHTTP(boolean useHTTP);

Default Value

False

Remarks

ToDo

This property is not available at design time.

Users Property (KMIPServer Class)

A database of registered users.

Syntax


public UserAccountList getUsers();


public void setUsers(UserAccountList users);

Remarks

Use this property to configure user authentication on the KMIP server.

This property is not available at design time.

Please refer to the UserAccount type for a complete list of fields.

Config Method (KMIPServer Class)

This method sets or retrieves a configuration setting.

Syntax

public String config(String configurationString);

Remarks

Config is a generic method available in every class. It is used to set and retrieve configuration settings for the class.

These settings are similar in functionality to properties, but they are rarely used. In order to avoid "polluting" the property namespace of the class, access to these internal properties is provided through the Config method.

To set a configuration setting named PROPERTY, you must call Config("PROPERTY=VALUE"), where VALUE is the value of the setting expressed as a string. For boolean values, use the strings "True", "False", "0", "1", "Yes", or "No" (case does not matter).

To read (query) the value of a configuration setting, you must call Config("PROPERTY"). The value will be returned as a string.

DoAction Method (KMIPServer Class)

Performs an additional action.

Syntax

public String doAction(String actionID, String actionParams);

Remarks

DoAction is a generic method available in every class. It is used to perform an additional action introduced after the product major release. The list of actions is not fixed, and may be flexibly extended over time.

The unique identifier (case insensitive) of the action is provided in the ActionID parameter.

ActionParams contains the value of a single parameter, or a list of multiple parameters for the action in the form of PARAM1=VALUE1;PARAM2=VALUE2;....

DropClient Method (KMIPServer Class)

Terminates a client connection.

Syntax

public void dropClient(long connectionId, boolean forced);

Remarks

Call this method to shut down a connected client. Forced indicates whether the connection should be closed in a graceful manner.

GetClientCert Method (KMIPServer Class)

Populates the per-connection certificate object.

Syntax

public void getClientCert(long connectionID);

Remarks

This method populates the certificate template/object received with the certificate generation request in Certificate property.

Call this method from your BeforeGenerate event handler to populate the certificate template, as received in the request. It is still not late to alter the details of the certificate on this stage.

Call it from your AfterGenerate event handler to populate the certificate that has been generated.

GetClientKey Method (KMIPServer Class)

Populates the per-connection key object.

Syntax

public void getClientKey(long connectionID);

Remarks

This method populates the key template/object received with the key generation request in Key property.

Call this method from your BeforeGenerateKey event handler to populate the key template, as received in the request. It is still not late to alter the details of the key on this stage.

Call it from your AfterGenerateKey event handler to populate the key that has been generated.

GetRequestHeader Method (KMIPServer Class)

Returns a request header value.

Syntax

public String getRequestHeader(long connectionId, String headerName);

Remarks

Use this method to get the value of a request header. A good place to call this method is a request-marking event, such as GetRequest or PostRequest.

GetResponseHeader Method (KMIPServer Class)

Returns a response header value.

Syntax

public String getResponseHeader(long connectionId, String headerName);

Remarks

Use this method to get the value of a response header. A good place to call this method is HeadersPrepared event. Call the method with empty HeaderName to get the whole response header.

ListClients Method (KMIPServer Class)

Enumerates the connected clients.

Syntax

public String listClients();

Remarks

This method enumerates the connected clients. It returns a list of strings, with each string being of 'ConnectionID|Address|Port' format, and representing a single connection.

PinClient Method (KMIPServer Class)

Takes a snapshot of the connection's properties.

Syntax

public void pinClient(long connectionId);

Remarks

Use this method to take a snapshot of a connected client. The captured properties are populated in PinnedClient and PinnedClientChain properties.

ProcessGenericRequest Method (KMIPServer Class)

Processes a generic HTTP request.

Syntax

public byte[] processGenericRequest(long connectionId, byte[] requestBytes);

Remarks

This method processes a generic HTTP request and produces a response. Use it to generate HTTP responses for requests obtained externally, out of the default HTTP channel.

This method respects all current settings of the server object, and invokes the corresponding events to consult about the request and response details with the application. ConnectionId allows to identify the request in the events.

The method returns the complete HTTP response including HTTP headers.

Reset Method (KMIPServer Class)

Resets the class settings.

Syntax

public void reset();

Remarks

Reset is a generic method available in every class.

SetClientBytes Method (KMIPServer Class)

Commits a data buffer to the connection.

Syntax

public void setClientBytes(long connectionID, byte[] value);

Remarks

Use this method from your Response Encrypt AfterEncrypt Decrypt AfterDecrypt Sign AfterSign events handler to commit a new data to the server component.

SetClientCert Method (KMIPServer Class)

Commits the per-connection certificate object to the connection context.

Syntax

public void setClientCert(long connectionID);

Remarks

This method commits the certificate object stored in Certificate to the connection context.

SetClientKey Method (KMIPServer Class)

Commits the per-connection key object to the connection context.

Syntax

public void setClientKey(long connectionID);

Remarks

This method commits the key object stored in Key to the connection context.

SetResponseHeader Method (KMIPServer Class)

Sets a response header.

Syntax

public boolean setResponseHeader(long connectionId, String headerName, String value);

Remarks

Use this method to set a response header. A good place to call this method is a request-marking event, such as GetRequest or PostRequest.

Start Method (KMIPServer Class)

Start the KMIP server.

Syntax

public void start();

Remarks

Call this method to activate the KMIP server and start listening to incoming connections.

Stop Method (KMIPServer Class)

Stops the KMIP server.

Syntax

public void stop();

Remarks

Call this method to stop the KMIP server.

Accept Event (KMIPServer Class)

Reports an incoming connection.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void accept(KMIPServerAcceptEvent e) {}
  ...
}

public class KMIPServerAcceptEvent {
  public String remoteAddress;
  public int remotePort;
  public boolean accept; //read-write
}

Remarks

This event is fired when a new connection from RemoteAddress:RemotePort is ready to be accepted. Use the Accept parameter to accept or decline it.

Subscribe to Connect event to be notified of every connection that has been set up.

ActivateObject Event (KMIPServer Class)

Notifies the application about the object activation request.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void activateObject(KMIPServerActivateObjectEvent e) {}
  ...
}

public class KMIPServerActivateObjectEvent {
  public long connectionId;
  public String objectId;
  public int operationStatus; //read-write
}

Remarks

Subscribe to this event to get notified about object activation requests. The ObjectId parameter contain the unique identifier of the object being activated.

Object activation requests are handled in a simplified way, without using the three-step virtualization approach.

Add Event (KMIPServer Class)

Passes the certificate import request to the application.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void add(KMIPServerAddEvent e) {}
  ...
}

public class KMIPServerAddEvent {
  public long connectionId;
  public String group; //read-write
  public String certId; //read-write
  public int operationStatus; //read-write
}

Remarks

The server uses this event to allow the application to customize a certificate import request. This request fires after BeforeAdd if the Action parameter passed back to it was set to fraCustom.

The Group parameter indicates the shared name for the certificate elements (public key, private key, certificate). The CertId provides a unique identifier for the certificate object. Both can be adjusted by the application as required. Use the Certificate object to access the certificate parameters.

Upon completion of the processing, set the value of OperationStatus to match the result of the operation.

AddKey Event (KMIPServer Class)

Expects the application to handle the key import request.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void addKey(KMIPServerAddKeyEvent e) {}
  ...
}

public class KMIPServerAddKeyEvent {
  public long connectionId;
  public String group; //read-write
  public String keyId; //read-write
  public int operationStatus; //read-write
}

Remarks

Application uses this event to wiretap into the key import procedure. For this event to be invoked, the fraCustom action needs to be previously returned from the BeforeAddKey event.

The handler of this event should process the key data provided via the Key property, typically by storing the key object in a local database. The handler also should set the KeyId and, optionally, Group parameters to match the properties of the new key object. The result of the operation should be returned via the OperationStatus parameter.

See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

AfterAdd Event (KMIPServer Class)

Notifies the application about completion of the certificate import operation.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterAdd(KMIPServerAfterAddEvent e) {}
  ...
}

public class KMIPServerAfterAddEvent {
  public long connectionId;
  public String group; //read-write
  public String certId; //read-write
  public int operationStatus; //read-write
}

Remarks

The class fires this event upon completion of certificate import routine. The certificate object that has been generated can be read from the Certificate property.

The Group and CertId parameters contain the name of the group and the unique identifier assigned to the new certificate. The OperationStatus parameter contains the result of the operation. The application can adjust them as required.

AfterAddKey Event (KMIPServer Class)

Reports the completion of the key import procedure.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterAddKey(KMIPServerAfterAddKeyEvent e) {}
  ...
}

public class KMIPServerAfterAddKeyEvent {
  public long connectionId;
  public String group; //read-write
  public String keyId; //read-write
  public int operationStatus; //read-write
}

Remarks

The component uses the AfterAddKey event to notify the application about completion of the key import processing. The OperationStatus parameter returns the operation result. The KeyId and Group parameters are set to match the properties of the newly created key. The application can change them if required.

This event fires both for "normal" and "virtualized" requests, independently of the value of the Action parameter returned from the BeforeAddKey event. See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

AfterBrowse Event (KMIPServer Class)

KMIP server uses this event to notify the application about the completion of the browsing (attribute request) operation.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterBrowse(KMIPServerAfterBrowseEvent e) {}
  ...
}

public class KMIPServerAfterBrowseEvent {
  public long connectionID;
  public String objectId;
  public int operationStatus; //read-write
}

Remarks

The ConnectionID parameter identifies the client connection, and the ObjectId parameter specifies the unique ID of the object the attributes of which are being requested.

This event follows the three-step virtualization approach, and fires after the preceding BeforeBrowse and ReadAttribute events.

Check the operation status, and alter it, if needed, through the OperationStatus parameter:

ostOk1
ostNoSuchFile2
ostAccessDenied3
ostWriteProtect4
ostUnsupported5
ostInvalidParameter6
ostEOF7

See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

AfterDecrypt Event (KMIPServer Class)

Notifies the application about completion of the decryption call.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterDecrypt(KMIPServerAfterDecryptEvent e) {}
  ...
}

public class KMIPServerAfterDecryptEvent {
  public long connectionId;
  public String objectId;
  public byte[] decryptedData;
  public String correlationValue; //read-write
  public int operationStatus; //read-write
}

Remarks

The component uses this event to notify the application about completion of the decrypt request. The event parameters provide the details of the decryption operation. This event fires independently of whether the build-in or virtualized decryption is used.

The ObjectId parameter contains the unique identifier of the decryption key. DecryptedData contains the decryption result. The CorrelationValue string is a linking token that allows to associate several pieces of a multi-step decryption operation together. The OperationStatus contains the result of the operation.

See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

AfterDeriveKey Event (KMIPServer Class)

Notifies the application about completion of the key derivation request.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterDeriveKey(KMIPServerAfterDeriveKeyEvent e) {}
  ...
}

public class KMIPServerAfterDeriveKeyEvent {
  public long connectionId;
  public String newKeyId; //read-write
  public int operationStatus; //read-write
}

Remarks

Use this event to get notified about completion of key derivation requests. The OperationStatus parameter specifies the result of the key derivation operation. The NewKeyId contains the unique identifier of the new key. You can change both parameters if required.

See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

AfterEdit Event (KMIPServer Class)

Notifies the application of completion of the object editing operation.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterEdit(KMIPServerAfterEditEvent e) {}
  ...
}

public class KMIPServerAfterEditEvent {
  public long connectionID;
  public String objectId;
  public int operationStatus; //read-write
}

Remarks

The component fires this event to notify the application about completion of an edit operation. An edit operation consists of a number of individual attribute update requests.

The ObjectId parameter contains the unique identifier of the object that was edited. Use the OperationStatus parameter to check or update the result of the operation.

AfterEncrypt Event (KMIPServer Class)

Notifies the application about the completion of the encryption call.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterEncrypt(KMIPServerAfterEncryptEvent e) {}
  ...
}

public class KMIPServerAfterEncryptEvent {
  public long connectionId;
  public String objectId;
  public byte[] encryptedData;
  public String correlationValue; //read-write
  public int operationStatus; //read-write
}

Remarks

The component uses this event to notify the application about completion of the encrypt request. The event parameters provide the details of the encryption operation. This event fires independently of whether the build-in or virtualized decryption is used.

The ObjectId parameter contains the unique identifier of the encryption key. EncryptedData contains the encryption result. The CorrelationValue string is a linking token that allows to associate several pieces of a multi-step encryption operation together. The OperationStatus contains the result of the operation.

See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

AfterGenerate Event (KMIPServer Class)

Signifies completion of certificate generation.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterGenerate(KMIPServerAfterGenerateEvent e) {}
  ...
}

public class KMIPServerAfterGenerateEvent {
  public long connectionId;
  public String certId; //read-write
  public int operationStatus; //read-write
}

Remarks

The class fires this event upon completion of certificate generation routine. The generated certificate can be read from Certificate.

AfterGenerateKey Event (KMIPServer Class)

Notifies the application of the completion of key generation procedure.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterGenerateKey(KMIPServerAfterGenerateKeyEvent e) {}
  ...
}

public class KMIPServerAfterGenerateKeyEvent {
  public long connectionId;
  public String keyId; //read-write
  public int operationStatus; //read-write
}

Remarks

The component uses this event to notify the application about the completion of the key generation procedure. The KeyId parameter contains the ID of the new key object (and can be changed by the user code if required). The OperationStatus parameter reports the result of the operation.

This event is the third and conclusive in the sequence of BeforeGenerateKey, GenerateKey, and the AfterGenerateKey events. See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

AfterGenerateKeyPair Event (KMIPServer Class)

Notifies the application of the completion of keypair generation.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterGenerateKeyPair(KMIPServerAfterGenerateKeyPairEvent e) {}
  ...
}

public class KMIPServerAfterGenerateKeyPairEvent {
  public long connectionId;
  public String privateKeyId; //read-write
  public String publicKeyId; //read-write
  public int operationStatus; //read-write
}

Remarks

The component uses this event to notify the application about the completion of the keypair generation operation. The PrivateKeyId and PublicKeyId parameters contain the IDs of the new private and public keys respectively. The OperationStatus parameter returns the result of the operation.

See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

AfterHash Event (KMIPServer Class)

Notifies the application about completion of the hashing call.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterHash(KMIPServerAfterHashEvent e) {}
  ...
}

public class KMIPServerAfterHashEvent {
  public long connectionId;
  public String objectId;
  public byte[] hashData;
  public String correlationValue; //read-write
  public int operationStatus; //read-write
}

Remarks

Subscribe to this event to be notified about completion of the hashing request processing. The DataHash parameter contains the hash that has been calculated. The OperationStatus parameter contains the operation result. If the hashing operation was a MAC (keyed) operation, the ID of the key is passed to the ObjectId parameter.

See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

AfterList Event (KMIPServer Class)

Notifies the application about completion of the list command.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterList(KMIPServerAfterListEvent e) {}
  ...
}

public class KMIPServerAfterListEvent {
  public long connectionId;
  public int objectType;
  public int objectStatus;
  public boolean onlyFreshObjects;
  public String objectIds; //read-write
  public int operationStatus; //read-write
}

Remarks

The component uses this event to notify the application about the completion of the list command. The ObjectType, ObjectStatus, and OnlyFreshObjects contain the listing criteria. The ObjectIds contains a list of object unique identifiers, separated by newlines.

See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

AfterObtainLease Event (KMIPServer Class)

Reports the completion of lease allocation operation.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterObtainLease(KMIPServerAfterObtainLeaseEvent e) {}
  ...
}

public class KMIPServerAfterObtainLeaseEvent {
  public long connectionId;
  public String objectId;
  public int leaseTime; //read-write
  public String lastChangeDate; //read-write
  public int operationStatus; //read-write
}

Remarks

The component uses this event to notify the application about the completion of lease allocation operation. The ObjectId parameter specifies the identifier of the object a lease for each is allocated. The LeaseTime and LastChangeDate parameters specify parameters of the lease.

See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

AfterReadObject Event (KMIPServer Class)

Notifies the application of the completion of the read operation on the object.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterReadObject(KMIPServerAfterReadObjectEvent e) {}
  ...
}

public class KMIPServerAfterReadObjectEvent {
  public long connectionId;
  public String objectId;
  public int objectType;
  public int operationStatus; //read-write
}

Remarks

Use this event to be notified about completion of the read operation.

See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

AfterReCertify Event (KMIPServer Class)

ToDo.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterReCertify(KMIPServerAfterReCertifyEvent e) {}
  ...
}

public class KMIPServerAfterReCertifyEvent {
  public long connectionId;
  public String newCertId; //read-write
  public int operationStatus; //read-write
}

Remarks

ToDo

AfterReKey Event (KMIPServer Class)

ToDo.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterReKey(KMIPServerAfterReKeyEvent e) {}
  ...
}

public class KMIPServerAfterReKeyEvent {
  public long connectionId;
  public String newKeyId; //read-write
  public int operationStatus; //read-write
}

Remarks

ToDo

AfterRekeyKeyPair Event (KMIPServer Class)

ToDo.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterRekeyKeyPair(KMIPServerAfterRekeyKeyPairEvent e) {}
  ...
}

public class KMIPServerAfterRekeyKeyPairEvent {
  public long connectionId;
  public String newPrivateKeyId; //read-write
  public String newPublicKeyId; //read-write
  public int operationStatus; //read-write
}

Remarks

ToDo

AfterRemoveObject Event (KMIPServer Class)

Notifies the application about completion of the object removal request.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterRemoveObject(KMIPServerAfterRemoveObjectEvent e) {}
  ...
}

public class KMIPServerAfterRemoveObjectEvent {
  public long connectionId;
  public String objectId;
  public int operationStatus; //read-write
}

Remarks

Subscribe to this event to be notified about completion of an object removal request. The OperationStatus parameter contains the result of the operation.

See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

AfterSign Event (KMIPServer Class)

Notifies the application of completion of a signing operation.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterSign(KMIPServerAfterSignEvent e) {}
  ...
}

public class KMIPServerAfterSignEvent {
  public long connectionId;
  public String objectId;
  public boolean inputIsHash;
  public byte[] signatureData;
  public String correlationValue; //read-write
  public int operationStatus; //read-write
}

Remarks

The component uses this event to notify the application about the completion of a signing operation.

The ObjectId parameter contains the unique identifier of the signing key. SignatureData contains the signing result. The CorrelationValue string is a linking token that allows to associate several pieces of a multi-step signing operation together. The OperationStatus contains the result of the operation.

See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

AfterVerify Event (KMIPServer Class)

Notifies the application about completion of the Verify operation.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterVerify(KMIPServerAfterVerifyEvent e) {}
  ...
}

public class KMIPServerAfterVerifyEvent {
  public long connectionId;
  public String objectId;
  public boolean inputIsHash;
  public int validationResult; //read-write
  public String correlationValue; //read-write
  public int operationStatus; //read-write
}

Remarks

The component fires this event to notify the application of a completion of a verification operation. The ValidationResult parameter contains the validity status of the signature.

The ObjectId parameter contains the unique identifier of the verifying key. The OperationStatus parameter contains the result of the operation.

See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

AfterVerifyHash Event (KMIPServer Class)

Notifies the application about completion of the hash verification.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void afterVerifyHash(KMIPServerAfterVerifyHashEvent e) {}
  ...
}

public class KMIPServerAfterVerifyHashEvent {
  public long connectionId;
  public String objectId;
  public boolean isValid; //read-write
  public String correlationValue; //read-write
  public int operationStatus; //read-write
}

Remarks

The component uses this event to notify the application about hash verification result. The optional ObjectId parameter contains the unique identifier of the key object if HMAC algorithm is used.

The IsValid parameter contains the validity factor of the hash.

See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

ArchiveObject Event (KMIPServer Class)

Notifies the application about the received object archival request.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void archiveObject(KMIPServerArchiveObjectEvent e) {}
  ...
}

public class KMIPServerArchiveObjectEvent {
  public long connectionId;
  public String objectId;
  public int operationStatus; //read-write
}

Remarks

The component fires this event when it receives an object archival request from a connected client. The archival procedure go through a simplified handling route, without the three-step flow.

AuthAttempt Event (KMIPServer Class)

Fires when a connected client makes an authentication attempt.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void authAttempt(KMIPServerAuthAttemptEvent e) {}
  ...
}

public class KMIPServerAuthAttemptEvent {
  public long connectionID;
  public String HTTPMethod;
  public String URI;
  public String authMethod;
  public String username;
  public String password;
  public boolean allow; //read-write
}

Remarks

The class fires this event whenever a client attempts to authenticate itself. Use the Allow parameter to let the client through.

ConnectionID contains the unique session identifier for that client, HTTPMethod specifies the HTTP method (GET, POST, etc.) used to access the URI resource, AuthMethod specifies the authentication method, and Username and Password contain the professed credentials.

BeforeAdd Event (KMIPServer Class)

Fires when a certificate import request is received from a client.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeAdd(KMIPServerBeforeAddEvent e) {}
  ...
}

public class KMIPServerBeforeAddEvent {
  public long connectionId;
  public String group; //read-write
  public int action; //read-write
}

Remarks

The class fires this event when it receives a request from the client to import a certificate on to the server. The supplied certificate is available in Certificate object.

The Group parameter specifies a common identifier for objects related to the certificate being imported: the certificate, its public key, and its private key.

BeforeAddKey Event (KMIPServer Class)

Fires when a key import request is received from the client.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeAddKey(KMIPServerBeforeAddKeyEvent e) {}
  ...
}

public class KMIPServerBeforeAddKeyEvent {
  public long connectionId;
  public String group; //read-write
  public int action; //read-write
}

Remarks

The class fires this event when it receives a request from the client to import a key on to the server. The supplied key is available in the Key parameter.

For keypairs, the Group parameter contains a common label that will be applied to both parts of that keypair (the public key object and the private key object).

BeforeBrowse Event (KMIPServer Class)

Notifies the application about the browse request being received.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeBrowse(KMIPServerBeforeBrowseEvent e) {}
  ...
}

public class KMIPServerBeforeBrowseEvent {
  public long connectionID;
  public String objectId;
  public int action; //read-write
}

Remarks

The component uses this event to notify the application about a browse request received for an object ObjectId.

BeforeDecrypt Event (KMIPServer Class)

Notifies the application about the initiation of the decryption operation.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeDecrypt(KMIPServerBeforeDecryptEvent e) {}
  ...
}

public class KMIPServerBeforeDecryptEvent {
  public long connectionId;
  public String objectId;
  public String correlationValue; //read-write
  public int action; //read-write
}

Remarks

The component fires this event to notify the application about the initiation of the decryption operation. The ObjectId parameter contains a reference to the decryption key. The optional CorrelationValue parameter can be used to link consecutive steps of multi-part decryption operation together.

Use the Action parameter to indicate the procedure you want to use for this request. See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

BeforeDeriveKey Event (KMIPServer Class)

Fires when a derive key request is received.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeDeriveKey(KMIPServerBeforeDeriveKeyEvent e) {}
  ...
}

public class KMIPServerBeforeDeriveKeyEvent {
  public long connectionId;
  public int objectType;
  public String objectIds;
  public String derivationMethod;
  public int action; //read-write
}

Remarks

The class fires this event when it receives a request from the client to derive a key. The supplied certificate is available in Key.

BeforeEdit Event (KMIPServer Class)

Notifies the application about the start of the object editing operation.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeEdit(KMIPServerBeforeEditEvent e) {}
  ...
}

public class KMIPServerBeforeEditEvent {
  public long connectionID;
  public String objectId;
  public int action; //read-write
}

Remarks

The editing operation consists of a sequence of attribute update requests. Each attribute is provided to the application via an individual SetAttribute call. When the list of supplied attributes has been exhausted, the AfterEdit event call follows.

The ObjectId parameter specifies the identifier of the object being edited.

BeforeEncrypt Event (KMIPServer Class)

Notifies the application about the initiation of an encryption operation.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeEncrypt(KMIPServerBeforeEncryptEvent e) {}
  ...
}

public class KMIPServerBeforeEncryptEvent {
  public long connectionId;
  public String objectId;
  public String correlationValue; //read-write
  public int action; //read-write
}

Remarks

The component fires this event to notify the application about the initiation of an encryption operation. The ObjectId parameter contains a reference to the encryption key. The optional CorrelationValue parameter can be used to link consecutive steps of multi-part encryption operation together.

Use the Action parameter to indicate the procedure you want to use for this request. See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

BeforeGenerate Event (KMIPServer Class)

Fires when a certificate generation request is received.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeGenerate(KMIPServerBeforeGenerateEvent e) {}
  ...
}

public class KMIPServerBeforeGenerateEvent {
  public long connectionId;
  public String publicKeyId;
  public int action; //read-write
}

Remarks

The class fires this event when it receives a request from the client to generate a certificate. The supplied certificate template is available in Certificate.

BeforeGenerateKey Event (KMIPServer Class)

Fires when a key generation request is received.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeGenerateKey(KMIPServerBeforeGenerateKeyEvent e) {}
  ...
}

public class KMIPServerBeforeGenerateKeyEvent {
  public long connectionId;
  public String keyAlgorithm; //read-write
  public int keyLength; //read-write
  public int action; //read-write
}

Remarks

The class fires this event when it receives a request from the client to generate a key. KeyAlgorithm and KeyLength parameters specify the requested key properties.

BeforeGenerateKeyPair Event (KMIPServer Class)

Fires when a key generation request is received.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeGenerateKeyPair(KMIPServerBeforeGenerateKeyPairEvent e) {}
  ...
}

public class KMIPServerBeforeGenerateKeyPairEvent {
  public long connectionId;
  public String keyAlgorithm; //read-write
  public int keyLength; //read-write
  public String scheme; //read-write
  public String schemeParams; //read-write
  public int action; //read-write
}

Remarks

The class fires this event when it receives a request from the client to generate a keypair. KeyAlgorithm, KeyLength, Scheme and SchemeParams parameters specify the requested key properties.

BeforeHash Event (KMIPServer Class)

Notifies the application about the initiation of the hashing operation.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeHash(KMIPServerBeforeHashEvent e) {}
  ...
}

public class KMIPServerBeforeHashEvent {
  public long connectionId;
  public String objectId;
  public String hashAlgorithm;
  public String correlationValue; //read-write
  public int action; //read-write
}

Remarks

The component fires this event to notify the application about the initiation of a hashing operation. The optional ObjectId parameter contains a reference to the hashing key if HMAC-based hashing is used. The optional CorrelationValue parameter can be used to link consecutive steps of multi-part hash operation together.

Use the Action parameter to indicate the procedure you want to use for this request. See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

BeforeList Event (KMIPServer Class)

Notifies the application about the initiation of the list operation.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeList(KMIPServerBeforeListEvent e) {}
  ...
}

public class KMIPServerBeforeListEvent {
  public long connectionId;
  public int objectType;
  public int objectStatus;
  public boolean onlyFreshObjects;
  public int action; //read-write
}

Remarks

The component uses this event to notify the application of the received list call. The ObjectType, ObjectStatus, and OnlyFreshObjects parameters provide the listing criteria.

BeforeObtainLease Event (KMIPServer Class)

Notifies the application about the client requesting an object lease.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeObtainLease(KMIPServerBeforeObtainLeaseEvent e) {}
  ...
}

public class KMIPServerBeforeObtainLeaseEvent {
  public long connectionId;
  public String objectId;
  public int action; //read-write
}

Remarks

Use this event to get notified about the connected client requesting an object lease.

BeforeReadObject Event (KMIPServer Class)

Notifies the application about the start of the object reading request.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeReadObject(KMIPServerBeforeReadObjectEvent e) {}
  ...
}

public class KMIPServerBeforeReadObjectEvent {
  public long connectionId;
  public String objectId;
  public int action; //read-write
}

Remarks

Object "reading" consists of a number of individual attribute requests. If fraCustom action is returned from this event handler, the component will fire ReadObject and ReadAttribute events repeatedly to request information about the object from your code.

BeforeReCertify Event (KMIPServer Class)

Notifies the application about a re-certification request.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeReCertify(KMIPServerBeforeReCertifyEvent e) {}
  ...
}

public class KMIPServerBeforeReCertifyEvent {
  public long connectionId;
  public String oldCertId;
  public int action; //read-write
}

Remarks

The component uses this event to notify the application about a re-certification request (a request to re-issue an existing certificate).

The OldCertId parameter indicates the unique identifier of the certificate object that needs to be re-issued.

This event provides a pre-notification for the operation. If your code sets the Action parameter to fraCustom, this event will be followed by a ReCertify call that will let you handle the actual request as required.

BeforeReKey Event (KMIPServer Class)

Notifies the application about a re-key request received.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeReKey(KMIPServerBeforeReKeyEvent e) {}
  ...
}

public class KMIPServerBeforeReKeyEvent {
  public long connectionId;
  public String oldKeyId;
  public int action; //read-write
}

Remarks

The component uses this event to notify the application about a key re-issue request received from the client. The OldKeyId parameter contains the unique identifier of the old key object.

BeforeRekeyKeyPair Event (KMIPServer Class)

Notifies the application about a keypair re-key request received.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeRekeyKeyPair(KMIPServerBeforeRekeyKeyPairEvent e) {}
  ...
}

public class KMIPServerBeforeRekeyKeyPairEvent {
  public long connectionId;
  public String oldPrivateKeyId;
  public int action; //read-write
}

Remarks

The component uses this event to notify the application about a keypair re-issue request received from the client. The OldPrivateKeyId parameter contains the unique identifier of the old private key object.

BeforeRemoveObject Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeRemoveObject(KMIPServerBeforeRemoveObjectEvent e) {}
  ...
}

public class KMIPServerBeforeRemoveObjectEvent {
  public long connectionId;
  public String objectId;
  public int action; //read-write
}

Remarks

TBD

BeforeSign Event (KMIPServer Class)

Notifies the application about the initiation of a signing operation.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeSign(KMIPServerBeforeSignEvent e) {}
  ...
}

public class KMIPServerBeforeSignEvent {
  public long connectionId;
  public String objectId;
  public String hashAlgorithm;
  public boolean inputIsHash;
  public String correlationValue; //read-write
  public int action; //read-write
}

Remarks

The component fires this event to notify the application about the initiation of the signing operation. The ObjectId parameter contains a reference to the signing key. The optional CorrelationValue parameter can be used to link consecutive steps of multi-part signing operation together.

Use the Action parameter to indicate the procedure you want to use for this request. See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

BeforeVerify Event (KMIPServer Class)

Notifies the application about the initiation of the verify operation.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeVerify(KMIPServerBeforeVerifyEvent e) {}
  ...
}

public class KMIPServerBeforeVerifyEvent {
  public long connectionId;
  public String objectId;
  public String hashAlgorithm;
  public boolean inputIsHash;
  public String correlationValue; //read-write
  public int action; //read-write
}

Remarks

The component fires this event to notify the application about the initiation of the verification operation. The ObjectId parameter contains a reference to the verification key.

Use the Action parameter to indicate the procedure you want to use for this request. See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

BeforeVerifyHash Event (KMIPServer Class)

Notifies the application about the initiation of the hash verification operation.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void beforeVerifyHash(KMIPServerBeforeVerifyHashEvent e) {}
  ...
}

public class KMIPServerBeforeVerifyHashEvent {
  public long connectionId;
  public String objectId;
  public String hashAlgorithm;
  public String correlationValue; //read-write
  public int action; //read-write
}

Remarks

The component fires this event to notify the application about the initiation of the hash verification operation. The ObjectId parameter contains a reference to the HMAC key, if MAC algorithm is used.

Use the Action parameter to indicate the procedure you want to use for this request. See the

Handling and overriding server operations using the Three-Step Virtualization

Most of the server components shipped with SecureBlackbox are highly customizable, allowing the user to override or alter the way the clients' requests are handled by default. The customization feature paves the way for creation of bespoke or virtualized server solutions that work over standardized protocols.

The possibility of customization is typically offered through a three-step virtualization model. Every customizable operation or request that can be handled by the server - say, RenameFile - is represented with a triple of events:

  • BeforeRenameFile
  • RenameFile
  • AfterRenameFile

The first event fires right after the respective request has been received from a client. It provides the details of the operation, such as the original and target file names, and, importantly, a by-reference (writable) Action parameter. The event handler can set the Action parameter to one of the three settings given below. The setting chosen defines the further operation flow:

  • fraAuto: the operation shall be handled automatically by the server: in this case, a file will be searched in the provided local directory and renamed.
  • fraCustom: indicates that the user wants to take care of the operation by themselves. If this setting is chosen, the server takes no action, and instead fires the RenameFile event shortly after BeforeRenameFile completes. The user is expected to handle RenameFile and perform the requested action - that is, rename the file - manually.
  • fraAbort: the operation should be aborted as not supported/allowed. Neither the server nor the user are expected to perform it.

The second event (RenameFile) only fires if Action was set to fraCustom in the earlier call to BeforeRenameFile. It lets the user handle the requested operation in the way they want. The user code must fulfil the operation (for example, rename a database entry, if building a virtualized server), and return the operation result as the event's OperationResult parameter.

If the Action parameter was set to fraAuto, RenameFile is not called. The server performs the operation automatically.

The third event, AfterRenameFile, fires upon completion of the operation, either in automatic or custom mode. The user code can check and/or adjust the result to be returned to the client.

To summarize:

  • If Action is set to fraAuto, the next call about this operation will be to AfterRenameFile.
  • If Action is set to fraCustom, the next call about the operation will be to RenameFile, and after that to AfterRenameFile.
  • If Action is set to fraAbort, the operation is rejected and no further calls about it are performed.
notes for more details about handling and virtualizing requests in SecureBlackbox servers.

Cancel Event (KMIPServer Class)

Reports a cancellation request received from the client.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void cancel(KMIPServerCancelEvent e) {}
  ...
}

public class KMIPServerCancelEvent {
  public long connectionId;
  public String asyncCorrelationValue;
  public int cancellationResult; //read-write
  public int operationStatus; //read-write
}

Remarks

The component uses this event to notify the application about the cancellation request received. TBD

Check Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void check(KMIPServerCheckEvent e) {}
  ...
}

public class KMIPServerCheckEvent {
  public long connectionId;
  public String objectId;
  public long usageLimitsCount; //read-write
  public int cryptographicUsageMask; //read-write
  public int leaseTime; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

Connect Event (KMIPServer Class)

Reports an accepted connection.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void connect(KMIPServerConnectEvent e) {}
  ...
}

public class KMIPServerConnectEvent {
  public long connectionID;
  public String remoteAddress;
  public int remotePort;
}

Remarks

The class fires this event to report that a new connection has been established. ConnectionId indicates the unique ID assigned to this connection. The same ID will be supplied to any other events related to this connection, such as GetRequest or AuthAttempt.

Decrypt Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void decrypt(KMIPServerDecryptEvent e) {}
  ...
}

public class KMIPServerDecryptEvent {
  public long connectionId;
  public String objectId;
  public byte[] data;
  public String IV;
  public boolean initIndicator;
  public boolean finalIndicator;
  public int blockCipherMode;
  public int tagLength;
  public int paddingMethod;
  public String correlationValue; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

DeleteAttribute Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void deleteAttribute(KMIPServerDeleteAttributeEvent e) {}
  ...
}

public class KMIPServerDeleteAttributeEvent {
  public long connectionId;
  public String objectId;
  public String attributeName;
  public String attributeValue; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

DeriveKey Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void deriveKey(KMIPServerDeriveKeyEvent e) {}
  ...
}

public class KMIPServerDeriveKeyEvent {
  public long connectionId;
  public int objectType;
  public String objectIds;
  public String derivationMethod;
  public byte[] initializationVector;
  public byte[] derivationData;
  public String newKeyId; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

Disconnect Event (KMIPServer Class)

Fires to report a disconnected client.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void disconnect(KMIPServerDisconnectEvent e) {}
  ...
}

public class KMIPServerDisconnectEvent {
  public long connectionID;
}

Remarks

The class fires this event when a connected client disconnects.

Encrypt Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void encrypt(KMIPServerEncryptEvent e) {}
  ...
}

public class KMIPServerEncryptEvent {
  public long connectionId;
  public String objectId;
  public byte[] data;
  public boolean initIndicator;
  public boolean finalIndicator;
  public int blockCipherMode;
  public int tagLength;
  public int paddingMethod;
  public boolean randomIV;
  public String IV; //read-write
  public String correlationValue; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

Error Event (KMIPServer Class)

Information about errors during data delivery.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void error(KMIPServerErrorEvent e) {}
  ...
}

public class KMIPServerErrorEvent {
  public long connectionID;
  public int errorCode;
  public boolean fatal;
  public boolean remote;
  public String description;
}

Remarks

The event is fired in case of exceptional conditions during message processing.

ErrorCode contains an error code and Description contains a textual description of the error. For a list of valid error codes and their descriptions, please refer to the HTTPS section.

ExternalSign Event (KMIPServer Class)

Handles remote or external signing initiated by the server protocol.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void externalSign(KMIPServerExternalSignEvent e) {}
  ...
}

public class KMIPServerExternalSignEvent {
  public long connectionID;
  public String operationId;
  public String hashAlgorithm;
  public String pars;
  public String data;
  public String signedData; //read-write
}

Remarks

Assign a handler to this event if you need to delegate a low-level signing operation to an external, remote, or custom signing engine. Depending on the settings, the handler will receive a hashed or unhashed value to be signed.

The event handler must pass the value of Data to the signer, obtain the signature, and pass it back to the class via the SignedData parameter.

OperationId provides a comment about the operation and its origin. It depends on the exact class being used, and may be empty. HashAlgorithm specifies the hash algorithm being used for the operation, and Pars contains algorithm-dependent parameters.

The class uses base16 (hex) encoding for the Data, SignedData, and Pars parameters. If your signing engine uses a different input and output encoding, you may need to decode and/or encode the data before and/or after the signing.

A sample MD5 hash encoded in base16: a0dee2a0382afbb09120ffa7ccd8a152 - lower case base16 A0DEE2A0382AFBB09120FFA7CCD8A152 - upper case base16

A sample event handler that uses the .NET RSACryptoServiceProvider class may look like the following: signer.OnExternalSign += (s, e) => { var cert = new X509Certificate2("cert.pfx", "", X509KeyStorageFlags.Exportable); var key = (RSACryptoServiceProvider)cert.PrivateKey; var dataToSign = e.Data.FromBase16String(); var signedData = key.SignHash(dataToSign, "2.16.840.1.101.3.4.2.1"); e.SignedData = signedData.ToBase16String(); };

Generate Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void generate(KMIPServerGenerateEvent e) {}
  ...
}

public class KMIPServerGenerateEvent {
  public long connectionId;
  public String publicKeyId;
  public String certId; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

GenerateKey Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void generateKey(KMIPServerGenerateKeyEvent e) {}
  ...
}

public class KMIPServerGenerateKeyEvent {
  public long connectionId;
  public String keyAlgorithm;
  public int keyLength;
  public String group;
  public String keyId; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

GenerateKeyPair Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void generateKeyPair(KMIPServerGenerateKeyPairEvent e) {}
  ...
}

public class KMIPServerGenerateKeyPairEvent {
  public long connectionId;
  public String keyAlgorithm;
  public int keyLength;
  public String scheme;
  public String schemeParams;
  public String group;
  public String privateKeyId; //read-write
  public String publicKeyId; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

GetUsageAllocation Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void getUsageAllocation(KMIPServerGetUsageAllocationEvent e) {}
  ...
}

public class KMIPServerGetUsageAllocationEvent {
  public long connectionId;
  public String objectId;
  public int usageLimitsCount;
  public int operationStatus; //read-write
}

Remarks

TBD

Hash Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void hash(KMIPServerHashEvent e) {}
  ...
}

public class KMIPServerHashEvent {
  public long connectionId;
  public String objectId;
  public String hashAlgorithm;
  public byte[] data;
  public boolean initIndicator;
  public boolean finalIndicator;
  public String correlationValue; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

HeadersPrepared Event (KMIPServer Class)

Fires when the response headers have been formed and are ready to be sent to the server.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void headersPrepared(KMIPServerHeadersPreparedEvent e) {}
  ...
}

public class KMIPServerHeadersPreparedEvent {
  public long connectionID;
}

Remarks

The class fires this event when the response headers are ready to be sent to the server. ConnectionID indicates the connection that processed the request.

Use GetResponseHeader method with an empty header name to get the whole response header.

KMIPAuthAttempt Event (KMIPServer Class)

Fires when a connected client makes an authentication attempt.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void KMIPAuthAttempt(KMIPServerKMIPAuthAttemptEvent e) {}
  ...
}

public class KMIPServerKMIPAuthAttemptEvent {
  public long connectionId;
  public String username;
  public String password;
  public boolean accept; //read-write
}

Remarks

The class fires this event whenever a client attempts to authenticate itself. Use the Accept parameter to let the client through.

Username and Password contain the professed credentials.

List Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void list(KMIPServerListEvent e) {}
  ...
}

public class KMIPServerListEvent {
  public long connectionId;
  public int objectType;
  public int objectStatus;
  public boolean onlyFreshObject;
  public int offsetItems;
  public int maximumItems;
  public String objectIds; //read-write
  public int locatedItems; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

ListAttributes Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void listAttributes(KMIPServerListAttributesEvent e) {}
  ...
}

public class KMIPServerListAttributesEvent {
  public long connectionId;
  public String objectId;
  public String attributeNames; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

Notification Event (KMIPServer Class)

This event notifies the application about an underlying control flow event.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void notification(KMIPServerNotificationEvent e) {}
  ...
}

public class KMIPServerNotificationEvent {
  public String eventID;
  public String eventParam;
}

Remarks

The class fires this event to let the application know about some event, occurrence, or milestone in the class. For example, it may fire to report completion of the document processing. The list of events being reported is not fixed, and may be flexibly extended over time.

The unique identifier of the event is provided in the EventID parameter. EventParam contains any parameters accompanying the occurrence. Depending on the type of the class, the exact action it is performing, or the document being processed, one or both may be omitted.

ObtainLease Event (KMIPServer Class)

Lets the application handle the lease request.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void obtainLease(KMIPServerObtainLeaseEvent e) {}
  ...
}

public class KMIPServerObtainLeaseEvent {
  public long connectionId;
  public String objectId;
  public int leaseTime; //read-write
  public String lastChangeDate; //read-write
  public int operationStatus; //read-write
}

Remarks

Subscribe to this event to react to object lease requests in virtualized mode.

The ObjectId parameter indicates the object a lease for which is requested. The LeaseTime and LastChangeDate specify the requested parameters of the lease. You can adjust them as required.

Set OperationStatus to indicate the intended operation result to the client.

OperationAttempt Event (KMIPServer Class)

Fires when a request is received from the client.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void operationAttempt(KMIPServerOperationAttemptEvent e) {}
  ...
}

public class KMIPServerOperationAttemptEvent {
  public long connectionId;
  public String operation;
  public String username;
  public boolean reject; //read-write
}

Remarks

The Operation parameter specifies the operation to perform, and Username the originator of the request. Use the Reject parameter to reject the request.

Poll Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void poll(KMIPServerPollEvent e) {}
  ...
}

public class KMIPServerPollEvent {
  public long connectionId;
  public String asyncCorrelationValue;
  public int operationStatus; //read-write
}

Remarks

TBD

ReadAttribute Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void readAttribute(KMIPServerReadAttributeEvent e) {}
  ...
}

public class KMIPServerReadAttributeEvent {
  public long connectionId;
  public String objectId;
  public String attributeName;
  public String attributeValue; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

ReadObject Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void readObject(KMIPServerReadObjectEvent e) {}
  ...
}

public class KMIPServerReadObjectEvent {
  public long connectionId;
  public String objectId;
  public int objectType; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

ReCertify Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void reCertify(KMIPServerReCertifyEvent e) {}
  ...
}

public class KMIPServerReCertifyEvent {
  public long connectionId;
  public String oldCertId;
  public int offset;
  public String group;
  public String newCertId; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

RecoverObject Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void recoverObject(KMIPServerRecoverObjectEvent e) {}
  ...
}

public class KMIPServerRecoverObjectEvent {
  public long connectionId;
  public String objectId;
  public int operationStatus; //read-write
}

Remarks

TBD

ReKey Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void reKey(KMIPServerReKeyEvent e) {}
  ...
}

public class KMIPServerReKeyEvent {
  public long connectionId;
  public String oldKeyId;
  public int offset;
  public String group;
  public String newKeyId; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

RekeyKeyPair Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void rekeyKeyPair(KMIPServerRekeyKeyPairEvent e) {}
  ...
}

public class KMIPServerRekeyKeyPairEvent {
  public long connectionId;
  public String oldPrivateKeyId;
  public int offset;
  public String group;
  public String newPrivateKeyId; //read-write
  public String newPublicKeyId; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

RemoveObject Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void removeObject(KMIPServerRemoveObjectEvent e) {}
  ...
}

public class KMIPServerRemoveObjectEvent {
  public long connectionId;
  public String objectId;
  public int operationStatus; //read-write
}

Remarks

TBD

Request Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void request(KMIPServerRequestEvent e) {}
  ...
}

public class KMIPServerRequestEvent {
  public long connectionId;
  public byte[] requestData;
}

Remarks

TBD

Response Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void response(KMIPServerResponseEvent e) {}
  ...
}

public class KMIPServerResponseEvent {
  public long connectionId;
  public byte[] responseData;
}

Remarks

TBD

RevokeObject Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void revokeObject(KMIPServerRevokeObjectEvent e) {}
  ...
}

public class KMIPServerRevokeObjectEvent {
  public long connectionId;
  public String objectId;
  public int reasonCode;
  public String reasonMessage;
  public int operationStatus; //read-write
}

Remarks

TBD

RNGGenerate Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void RNGGenerate(KMIPServerRNGGenerateEvent e) {}
  ...
}

public class KMIPServerRNGGenerateEvent {
  public long connectionId;
  public int dataLength;
  public int operationStatus; //read-write
}

Remarks

TBD

RNGSeed Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void RNGSeed(KMIPServerRNGSeedEvent e) {}
  ...
}

public class KMIPServerRNGSeedEvent {
  public long connectionId;
  public byte[] data;
  public int bytesUsed; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

SetAttribute Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void setAttribute(KMIPServerSetAttributeEvent e) {}
  ...
}

public class KMIPServerSetAttributeEvent {
  public long connectionId;
  public String objectId;
  public String attributeName;
  public String attributeValue;
  public int operationStatus; //read-write
}

Remarks

TBD

Sign Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void sign(KMIPServerSignEvent e) {}
  ...
}

public class KMIPServerSignEvent {
  public long connectionId;
  public String objectId;
  public String hashAlgorithm;
  public boolean inputIsHash;
  public byte[] data;
  public boolean initIndicator;
  public boolean finalIndicator;
  public String correlationValue; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

TLSCertValidate Event (KMIPServer Class)

Fires when a client certificate needs to be validated.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void TLSCertValidate(KMIPServerTLSCertValidateEvent e) {}
  ...
}

public class KMIPServerTLSCertValidateEvent {
  public long connectionID;
  public boolean accept; //read-write
}

Remarks

The class fires this event to notify the application of an authenticating client. Use the event handler to validate the certificate and pass your decision back to the server component via the Accept parameter.

TLSEstablished Event (KMIPServer Class)

Reports the setup of a TLS session.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void TLSEstablished(KMIPServerTLSEstablishedEvent e) {}
  ...
}

public class KMIPServerTLSEstablishedEvent {
  public long connectionID;
}

Remarks

Subscribe to this event to be notified about the setup of a TLS connection by a connected client.

TLSHandshake Event (KMIPServer Class)

Fires when a newly established client connection initiates a TLS handshake.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void TLSHandshake(KMIPServerTLSHandshakeEvent e) {}
  ...
}

public class KMIPServerTLSHandshakeEvent {
  public long connectionID;
  public String serverName;
  public boolean abort; //read-write
}

Remarks

Use this event to get notified about the initiation of the TLS handshake by the remote client. The ServerName parameter specifies the requested host from the client hello message.

TLSPSK Event (KMIPServer Class)

Requests a pre-shared key for TLS-PSK.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void TLSPSK(KMIPServerTLSPSKEvent e) {}
  ...
}

public class KMIPServerTLSPSKEvent {
  public long connectionID;
  public String identity;
  public String PSK; //read-write
  public String ciphersuite; //read-write
}

Remarks

The class fires this event to report that a client has requested a TLS-PSK negotiation. ConnectionId indicates the unique connection ID that requested the PSK handshake.

Use Identity to look up for the corresponding pre-shared key in the server's database, then assign the key to the PSK parameter. If TLS 1.3 PSK is used, you will also need to assign the Ciphersuite parameter with the cipher suite associated with that identity and their key.

TLSShutdown Event (KMIPServer Class)

Reports closure of a TLS session.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void TLSShutdown(KMIPServerTLSShutdownEvent e) {}
  ...
}

public class KMIPServerTLSShutdownEvent {
  public long connectionID;
}

Remarks

The class fires this event when a connected client closes their TLS session gracefully. This event is typically followed by a Disconnect, which marks the closure of the underlying TCP session.

ValidateChain Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void validateChain(KMIPServerValidateChainEvent e) {}
  ...
}

public class KMIPServerValidateChainEvent {
  public long connectionId;
  public String objectIds;
  public int validity; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

Verify Event (KMIPServer Class)

TBD.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void verify(KMIPServerVerifyEvent e) {}
  ...
}

public class KMIPServerVerifyEvent {
  public long connectionId;
  public String objectId;
  public String hashAlgorithm;
  public boolean inputIsHash;
  public byte[] data;
  public byte[] signatureData;
  public boolean initIndicator;
  public boolean finalIndicator;
  public int validationResult; //read-write
  public String correlationValue; //read-write
  public int operationStatus; //read-write
}

Remarks

TBD

VerifyHash Event (KMIPServer Class)

Delegates the hash verification operation to a custom handler.

Syntax

public class DefaultKMIPServerEventListener implements KMIPServerEventListener {
  ...
  public void verifyHash(KMIPServerVerifyHashEvent e) {}
  ...
}

public class KMIPServerVerifyHashEvent {
  public long connectionId;
  public String objectId;
  public String hashAlgorithm;
  public byte[] data;
  public byte[] hash;
  public boolean initIndicator;
  public boolean finalIndicator;
  public boolean isValid; //read-write
  public String correlationValue; //read-write
  public int operationStatus; //read-write
}

Remarks

This event allows the application to wiretap into the server's verification procedure. It is invoked if the Action parameter in the preceding BeforeVerify hash call was set to fraCustom.

KMIPServer uses this event to delegate both hash and MAC (keyed hash) verifications.

The ObjectId parameter contains the identifier of the key object that should be used to calculate the MAC code. This parameter is empty if a simple hashing operation is requested. The Data parameter contains the data that should be verified against the hash.

The Hash parameter contains the hash or MAC record. The Algorithm parameter specifies the hash algorithm.

In this handler, the application should calculate an Algorithm hash over Data, and verify that the result matches Hash. If the result does match, it should set the IsValid parameter to true. If the hashes do not match, or if any of the call parameters are malformed or not understood by the application, it should set IsValid to false.

Certificate Type

Encapsulates an individual X.509 certificate.

Remarks

This type keeps and provides access to X.509 certificate details.

Fields

Bytes
byte[] (read-only)

Default Value: ""

Returns the raw certificate data in DER format.

CA
boolean

Default Value: False

Indicates whether the certificate has a CA capability. For the certificate to be considered a CA, it must have its Basic Constraints extension set with the CA indicator enabled.

Set this field when generating a new certificate to have its Basic Constraints extension generated automatically.

CAKeyID
byte[] (read-only)

Default Value: ""

A unique identifier (fingerprint) of the CA certificate's cryptographic key.

Authority Key Identifier is a certificate extension which allows identification of certificates belonging to the same issuer, but with different public keys. It is a de-facto standard to include this extension in all certificates to facilitate chain building.

This setting cannot be set when generating a certificate as it always derives from another certificate property. CertificateManager generates this setting automatically if enough information is available to it: for self-signed certificates, this value is copied from the SubjectKeyID setting, and for lower-level certificates, from the parent certificate's subject key ID extension.

CertType
int (read-only)

Default Value: 0

Returns the type of the entity contained in the Certificate object.

A Certificate object can contain two types of cryptographic objects: a ready-to-use X.509 certificate, or a certificate request ("an unsigned certificate"). Certificate requests can be upgraded to full certificates by signing them with a CA certificate.

Use the CertificateManager class to load or create new certificate and certificate requests objects.

CRLDistributionPoints
String

Default Value: ""

Contains a list of locations of CRL distribution points used to check this certificate's validity. The list is taken from the respective certificate extension.

Use this field when generating a certificate to provide a list of CRL endpoints that should be made part of the new certificate.

The endpoints are provided as a list of CRLF-separated URLs. Note that this differs from the behaviour used in earlier product versions, where the "|" character was used as the location separator.

Curve
String

Default Value: ""

Specifies the elliptic curve associated with the certificate's public key. This setting only applies to certificates containing EC keys.

SB_EC_SECP112R1SECP112R1
SB_EC_SECP112R2SECP112R2
SB_EC_SECP128R1SECP128R1
SB_EC_SECP128R2SECP128R2
SB_EC_SECP160K1SECP160K1
SB_EC_SECP160R1SECP160R1
SB_EC_SECP160R2SECP160R2
SB_EC_SECP192K1SECP192K1
SB_EC_SECP192R1SECP192R1
SB_EC_SECP224K1SECP224K1
SB_EC_SECP224R1SECP224R1
SB_EC_SECP256K1SECP256K1
SB_EC_SECP256R1SECP256R1
SB_EC_SECP384R1SECP384R1
SB_EC_SECP521R1SECP521R1
SB_EC_SECT113R1SECT113R1
SB_EC_SECT113R2SECT113R2
SB_EC_SECT131R1SECT131R1
SB_EC_SECT131R2SECT131R2
SB_EC_SECT163K1SECT163K1
SB_EC_SECT163R1SECT163R1
SB_EC_SECT163R2SECT163R2
SB_EC_SECT193R1SECT193R1
SB_EC_SECT193R2SECT193R2
SB_EC_SECT233K1SECT233K1
SB_EC_SECT233R1SECT233R1
SB_EC_SECT239K1SECT239K1
SB_EC_SECT283K1SECT283K1
SB_EC_SECT283R1SECT283R1
SB_EC_SECT409K1SECT409K1
SB_EC_SECT409R1SECT409R1
SB_EC_SECT571K1SECT571K1
SB_EC_SECT571R1SECT571R1
SB_EC_PRIME192V1PRIME192V1
SB_EC_PRIME192V2PRIME192V2
SB_EC_PRIME192V3PRIME192V3
SB_EC_PRIME239V1PRIME239V1
SB_EC_PRIME239V2PRIME239V2
SB_EC_PRIME239V3PRIME239V3
SB_EC_PRIME256V1PRIME256V1
SB_EC_C2PNB163V1C2PNB163V1
SB_EC_C2PNB163V2C2PNB163V2
SB_EC_C2PNB163V3C2PNB163V3
SB_EC_C2PNB176W1C2PNB176W1
SB_EC_C2TNB191V1C2TNB191V1
SB_EC_C2TNB191V2C2TNB191V2
SB_EC_C2TNB191V3C2TNB191V3
SB_EC_C2ONB191V4C2ONB191V4
SB_EC_C2ONB191V5C2ONB191V5
SB_EC_C2PNB208W1C2PNB208W1
SB_EC_C2TNB239V1C2TNB239V1
SB_EC_C2TNB239V2C2TNB239V2
SB_EC_C2TNB239V3C2TNB239V3
SB_EC_C2ONB239V4C2ONB239V4
SB_EC_C2ONB239V5C2ONB239V5
SB_EC_C2PNB272W1C2PNB272W1
SB_EC_C2PNB304W1C2PNB304W1
SB_EC_C2TNB359V1C2TNB359V1
SB_EC_C2PNB368W1C2PNB368W1
SB_EC_C2TNB431R1C2TNB431R1
SB_EC_NISTP192NISTP192
SB_EC_NISTP224NISTP224
SB_EC_NISTP256NISTP256
SB_EC_NISTP384NISTP384
SB_EC_NISTP521NISTP521
SB_EC_NISTB163NISTB163
SB_EC_NISTB233NISTB233
SB_EC_NISTB283NISTB283
SB_EC_NISTB409NISTB409
SB_EC_NISTB571NISTB571
SB_EC_NISTK163NISTK163
SB_EC_NISTK233NISTK233
SB_EC_NISTK283NISTK283
SB_EC_NISTK409NISTK409
SB_EC_NISTK571NISTK571
SB_EC_GOSTCPTESTGOSTCPTEST
SB_EC_GOSTCPAGOSTCPA
SB_EC_GOSTCPBGOSTCPB
SB_EC_GOSTCPCGOSTCPC
SB_EC_GOSTCPXCHAGOSTCPXCHA
SB_EC_GOSTCPXCHBGOSTCPXCHB
SB_EC_BRAINPOOLP160R1BRAINPOOLP160R1
SB_EC_BRAINPOOLP160T1BRAINPOOLP160T1
SB_EC_BRAINPOOLP192R1BRAINPOOLP192R1
SB_EC_BRAINPOOLP192T1BRAINPOOLP192T1
SB_EC_BRAINPOOLP224R1BRAINPOOLP224R1
SB_EC_BRAINPOOLP224T1BRAINPOOLP224T1
SB_EC_BRAINPOOLP256R1BRAINPOOLP256R1
SB_EC_BRAINPOOLP256T1BRAINPOOLP256T1
SB_EC_BRAINPOOLP320R1BRAINPOOLP320R1
SB_EC_BRAINPOOLP320T1BRAINPOOLP320T1
SB_EC_BRAINPOOLP384R1BRAINPOOLP384R1
SB_EC_BRAINPOOLP384T1BRAINPOOLP384T1
SB_EC_BRAINPOOLP512R1BRAINPOOLP512R1
SB_EC_BRAINPOOLP512T1BRAINPOOLP512T1
SB_EC_CURVE25519CURVE25519
SB_EC_CURVE448CURVE448

Fingerprint
String (read-only)

Default Value: ""

Contains the fingerprint (a hash imprint) of this certificate.

While there is no formal standard defining what a fingerprint is, a SHA1 hash of the certificate's DER-encoded body is typically used.

FriendlyName
String (read-only)

Default Value: ""

Contains an associated alias (friendly name) of the certificate. The friendly name is not a property of a certificate: it is maintained by the certificate media rather than being included in its DER representation. Windows certificate stores are one example of media that does support friendly names.

HashAlgorithm
String

Default Value: ""

Provides means to set the hash algorithm to be used in the subsequent operation on the certificate (such as generation or key signing). It is not a property of a certificate; use SigAlgorithm to find out the hash algorithm that is part of the certificate signature.

SB_HASH_ALGORITHM_SHA1SHA1
SB_HASH_ALGORITHM_SHA224SHA224
SB_HASH_ALGORITHM_SHA256SHA256
SB_HASH_ALGORITHM_SHA384SHA384
SB_HASH_ALGORITHM_SHA512SHA512
SB_HASH_ALGORITHM_MD2MD2
SB_HASH_ALGORITHM_MD4MD4
SB_HASH_ALGORITHM_MD5MD5
SB_HASH_ALGORITHM_RIPEMD160RIPEMD160
SB_HASH_ALGORITHM_CRC32CRC32
SB_HASH_ALGORITHM_SSL3SSL3
SB_HASH_ALGORITHM_GOST_R3411_1994GOST1994
SB_HASH_ALGORITHM_WHIRLPOOLWHIRLPOOL
SB_HASH_ALGORITHM_POLY1305POLY1305
SB_HASH_ALGORITHM_SHA3_224SHA3_224
SB_HASH_ALGORITHM_SHA3_256SHA3_256
SB_HASH_ALGORITHM_SHA3_384SHA3_384
SB_HASH_ALGORITHM_SHA3_512SHA3_512
SB_HASH_ALGORITHM_BLAKE2S_128BLAKE2S_128
SB_HASH_ALGORITHM_BLAKE2S_160BLAKE2S_160
SB_HASH_ALGORITHM_BLAKE2S_224BLAKE2S_224
SB_HASH_ALGORITHM_BLAKE2S_256BLAKE2S_256
SB_HASH_ALGORITHM_BLAKE2B_160BLAKE2B_160
SB_HASH_ALGORITHM_BLAKE2B_256BLAKE2B_256
SB_HASH_ALGORITHM_BLAKE2B_384BLAKE2B_384
SB_HASH_ALGORITHM_BLAKE2B_512BLAKE2B_512
SB_HASH_ALGORITHM_SHAKE_128SHAKE_128
SB_HASH_ALGORITHM_SHAKE_256SHAKE_256
SB_HASH_ALGORITHM_SHAKE_128_LENSHAKE_128_LEN
SB_HASH_ALGORITHM_SHAKE_256_LENSHAKE_256_LEN

Issuer
String (read-only)

Default Value: ""

The common name of the certificate issuer (CA), typically a company name. This is part of a larger set of credentials available via IssuerRDN.

IssuerRDN
String

Default Value: ""

A list of Property=Value pairs that uniquely identify the certificate issuer.

Example: /C=US/O=Nationwide CA/CN=Web Certification Authority

KeyAlgorithm
String

Default Value: "0"

Specifies the public key algorithm of this certificate.

SB_CERT_ALGORITHM_ID_RSA_ENCRYPTIONrsaEncryption
SB_CERT_ALGORITHM_MD2_RSA_ENCRYPTIONmd2withRSAEncryption
SB_CERT_ALGORITHM_MD5_RSA_ENCRYPTIONmd5withRSAEncryption
SB_CERT_ALGORITHM_SHA1_RSA_ENCRYPTIONsha1withRSAEncryption
SB_CERT_ALGORITHM_ID_DSAid-dsa
SB_CERT_ALGORITHM_ID_DSA_SHA1id-dsa-with-sha1
SB_CERT_ALGORITHM_DH_PUBLICdhpublicnumber
SB_CERT_ALGORITHM_SHA224_RSA_ENCRYPTIONsha224WithRSAEncryption
SB_CERT_ALGORITHM_SHA256_RSA_ENCRYPTIONsha256WithRSAEncryption
SB_CERT_ALGORITHM_SHA384_RSA_ENCRYPTIONsha384WithRSAEncryption
SB_CERT_ALGORITHM_SHA512_RSA_ENCRYPTIONsha512WithRSAEncryption
SB_CERT_ALGORITHM_ID_RSAPSSid-RSASSA-PSS
SB_CERT_ALGORITHM_ID_RSAOAEPid-RSAES-OAEP
SB_CERT_ALGORITHM_RSASIGNATURE_RIPEMD160ripemd160withRSA
SB_CERT_ALGORITHM_ID_ELGAMALelGamal
SB_CERT_ALGORITHM_SHA1_ECDSAecdsa-with-SHA1
SB_CERT_ALGORITHM_RECOMMENDED_ECDSAecdsa-recommended
SB_CERT_ALGORITHM_SHA224_ECDSAecdsa-with-SHA224
SB_CERT_ALGORITHM_SHA256_ECDSAecdsa-with-SHA256
SB_CERT_ALGORITHM_SHA384_ECDSAecdsa-with-SHA384
SB_CERT_ALGORITHM_SHA512_ECDSAecdsa-with-SHA512
SB_CERT_ALGORITHM_ECid-ecPublicKey
SB_CERT_ALGORITHM_SPECIFIED_ECDSAecdsa-specified
SB_CERT_ALGORITHM_GOST_R3410_1994id-GostR3410-94
SB_CERT_ALGORITHM_GOST_R3410_2001id-GostR3410-2001
SB_CERT_ALGORITHM_GOST_R3411_WITH_R3410_1994id-GostR3411-94-with-GostR3410-94
SB_CERT_ALGORITHM_GOST_R3411_WITH_R3410_2001id-GostR3411-94-with-GostR3410-2001
SB_CERT_ALGORITHM_SHA1_ECDSA_PLAINecdsa-plain-SHA1
SB_CERT_ALGORITHM_SHA224_ECDSA_PLAINecdsa-plain-SHA224
SB_CERT_ALGORITHM_SHA256_ECDSA_PLAINecdsa-plain-SHA256
SB_CERT_ALGORITHM_SHA384_ECDSA_PLAINecdsa-plain-SHA384
SB_CERT_ALGORITHM_SHA512_ECDSA_PLAINecdsa-plain-SHA512
SB_CERT_ALGORITHM_RIPEMD160_ECDSA_PLAINecdsa-plain-RIPEMD160
SB_CERT_ALGORITHM_WHIRLPOOL_RSA_ENCRYPTIONwhirlpoolWithRSAEncryption
SB_CERT_ALGORITHM_ID_DSA_SHA224id-dsa-with-sha224
SB_CERT_ALGORITHM_ID_DSA_SHA256id-dsa-with-sha256
SB_CERT_ALGORITHM_SHA3_224_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-sha3-224
SB_CERT_ALGORITHM_SHA3_256_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-sha3-256
SB_CERT_ALGORITHM_SHA3_384_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-sha3-384
SB_CERT_ALGORITHM_SHA3_512_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-sha3-512
SB_CERT_ALGORITHM_SHA3_224_ECDSAid-ecdsa-with-sha3-224
SB_CERT_ALGORITHM_SHA3_256_ECDSAid-ecdsa-with-sha3-256
SB_CERT_ALGORITHM_SHA3_384_ECDSAid-ecdsa-with-sha3-384
SB_CERT_ALGORITHM_SHA3_512_ECDSAid-ecdsa-with-sha3-512
SB_CERT_ALGORITHM_SHA3_224_ECDSA_PLAINid-ecdsa-plain-with-sha3-224
SB_CERT_ALGORITHM_SHA3_256_ECDSA_PLAINid-ecdsa-plain-with-sha3-256
SB_CERT_ALGORITHM_SHA3_384_ECDSA_PLAINid-ecdsa-plain-with-sha3-384
SB_CERT_ALGORITHM_SHA3_512_ECDSA_PLAINid-ecdsa-plain-with-sha3-512
SB_CERT_ALGORITHM_ID_DSA_SHA3_224id-dsa-with-sha3-224
SB_CERT_ALGORITHM_ID_DSA_SHA3_256id-dsa-with-sha3-256
SB_CERT_ALGORITHM_BLAKE2S_128_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-blake2s128
SB_CERT_ALGORITHM_BLAKE2S_160_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-blake2s160
SB_CERT_ALGORITHM_BLAKE2S_224_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-blake2s224
SB_CERT_ALGORITHM_BLAKE2S_256_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-blake2s256
SB_CERT_ALGORITHM_BLAKE2B_160_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-blake2b160
SB_CERT_ALGORITHM_BLAKE2B_256_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-blake2b256
SB_CERT_ALGORITHM_BLAKE2B_384_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-blake2b384
SB_CERT_ALGORITHM_BLAKE2B_512_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-blake2b512
SB_CERT_ALGORITHM_BLAKE2S_128_ECDSAid-ecdsa-with-blake2s128
SB_CERT_ALGORITHM_BLAKE2S_160_ECDSAid-ecdsa-with-blake2s160
SB_CERT_ALGORITHM_BLAKE2S_224_ECDSAid-ecdsa-with-blake2s224
SB_CERT_ALGORITHM_BLAKE2S_256_ECDSAid-ecdsa-with-blake2s256
SB_CERT_ALGORITHM_BLAKE2B_160_ECDSAid-ecdsa-with-blake2b160
SB_CERT_ALGORITHM_BLAKE2B_256_ECDSAid-ecdsa-with-blake2b256
SB_CERT_ALGORITHM_BLAKE2B_384_ECDSAid-ecdsa-with-blake2b384
SB_CERT_ALGORITHM_BLAKE2B_512_ECDSAid-ecdsa-with-blake2b512
SB_CERT_ALGORITHM_BLAKE2S_128_ECDSA_PLAINid-ecdsa-plain-with-blake2s128
SB_CERT_ALGORITHM_BLAKE2S_160_ECDSA_PLAINid-ecdsa-plain-with-blake2s160
SB_CERT_ALGORITHM_BLAKE2S_224_ECDSA_PLAINid-ecdsa-plain-with-blake2s224
SB_CERT_ALGORITHM_BLAKE2S_256_ECDSA_PLAINid-ecdsa-plain-with-blake2s256
SB_CERT_ALGORITHM_BLAKE2B_160_ECDSA_PLAINid-ecdsa-plain-with-blake2b160
SB_CERT_ALGORITHM_BLAKE2B_256_ECDSA_PLAINid-ecdsa-plain-with-blake2b256
SB_CERT_ALGORITHM_BLAKE2B_384_ECDSA_PLAINid-ecdsa-plain-with-blake2b384
SB_CERT_ALGORITHM_BLAKE2B_512_ECDSA_PLAINid-ecdsa-plain-with-blake2b512
SB_CERT_ALGORITHM_ID_DSA_BLAKE2S_224id-dsa-with-blake2s224
SB_CERT_ALGORITHM_ID_DSA_BLAKE2S_256id-dsa-with-blake2s256
SB_CERT_ALGORITHM_EDDSA_ED25519id-Ed25519
SB_CERT_ALGORITHM_EDDSA_ED448id-Ed448
SB_CERT_ALGORITHM_EDDSA_ED25519_PHid-Ed25519ph
SB_CERT_ALGORITHM_EDDSA_ED448_PHid-Ed448ph
SB_CERT_ALGORITHM_EDDSAid-EdDSA
SB_CERT_ALGORITHM_EDDSA_SIGNATUREid-EdDSA-sig

Use the KeyBits, Curve, and PublicKeyBytes fields to get more details about the key the certificate contains.

KeyBits
int (read-only)

Default Value: 0

Returns the length of the public key in bits.

This value indicates the length of the principal cryptographic parameter of the key, such as the length of the RSA modulus or ECDSA field. The key data returned by the PublicKeyBytes or PrivateKeyBytes field would typically contain auxiliary values, and therefore be longer.

KeyFingerprint
String (read-only)

Default Value: ""

Returns a SHA1 fingerprint of the public key contained in the certificate.

Note that the key fingerprint is different from the certificate fingerprint accessible via the Fingerprint field. The key fingeprint uniquely identifies the public key, and so can be the same for multiple certificates containing the same key.

KeyUsage
int

Default Value: 0

Indicates the purposes of the key contained in the certificate, in the form of an OR'ed flag set.

This value is a bit mask of the following values:

ckuUnknown0x00000Unknown key usage

ckuDigitalSignature0x00001Digital signature

ckuNonRepudiation0x00002Non-repudiation

ckuKeyEncipherment0x00004Key encipherment

ckuDataEncipherment0x00008Data encipherment

ckuKeyAgreement0x00010Key agreement

ckuKeyCertSign0x00020Certificate signing

ckuCRLSign0x00040Revocation signing

ckuEncipherOnly0x00080Encipher only

ckuDecipherOnly0x00100Decipher only

ckuServerAuthentication0x00200Server authentication

ckuClientAuthentication0x00400Client authentication

ckuCodeSigning0x00800Code signing

ckuEmailProtection0x01000Email protection

ckuTimeStamping0x02000Timestamping

ckuOCSPSigning0x04000OCSP signing

ckuSmartCardLogon0x08000Smartcard logon

ckuKeyPurposeClientAuth0x10000Kerberos - client authentication

ckuKeyPurposeKDC0x20000Kerberos - KDC

Set this field before generating the certificate to propagate the key usage flags to the new certificate.

KeyValid
boolean (read-only)

Default Value: False

Returns True if the certificate's key is cryptographically valid, and False otherwise.

OCSPLocations
String

Default Value: ""

Locations of OCSP services that can be used to check this certificate's validity in real time, as recorded by the CA.

Set this field before calling the certificate manager's Generate method to propagate it to the new certificate.

The OCSP locations are provided as a list of CRLF-separated URLs. Note that this differs from the behaviour used in earlier product versions, where the "|" character was used as the location separator.

OCSPNoCheck
boolean

Default Value: False

Accessor to the value of the certificate's ocsp-no-check extension.

Origin
int (read-only)

Default Value: 0

Returns the location that the certificate was taken or loaded from.

PolicyIDs
String

Default Value: ""

Contains identifiers (OIDs) of the applicable certificate policies.

The Certificate Policies extension identifies a sequence of policies under which the certificate has been issued, and which regulate its usage.

Set this field when generating a certificate to propagate the policies information to the new certificate.

The policies are provided as a list of CRLF-separated entries. Note that this differs from the behaviour used in earlier product versions, where the "|" character was used as the policy element separator.

PrivateKeyBytes
byte[] (read-only)

Default Value: ""

Returns the certificate's private key in DER-encoded format. It is normal for this field to be empty if the private key is non-exportable, which, for example, is typical for certificates originating from hardware security devices.

PrivateKeyExists
boolean (read-only)

Default Value: False

Indicates whether the certificate has a usable private key associated with it. If it is set to True, the certificate can be used for private key operations, such as signing or decryption.

This field is independent from PrivateKeyBytes, and can be set to True even if the former is empty. This would imply that the private key is non-exportable, but still can be used for cryptographic operations.

PrivateKeyExtractable
boolean (read-only)

Default Value: False

Indicates whether the private key is extractable (exportable).

PublicKeyBytes
byte[] (read-only)

Default Value: ""

Contains the certificate's public key in DER format.

This typically would contain an ASN.1-encoded public key value. The exact format depends on the type of the public key contained in the certificate.

Qualified
boolean (read-only)

Default Value: False

Indicates whether the certificate is qualified.

This property is set to True if the certificate is confirmed by a Trusted List to be qualified.

QualifiedStatements
int

Default Value: 0

Returns a simplified qualified status of the certificate.

Qualifiers
String (read-only)

Default Value: ""

A list of qualifiers.

Contains a comma-separated list of qualifier aliases for the certificate, for example QCP-n-qscd,QCWithSSCD.

SelfSigned
boolean (read-only)

Default Value: False

Indicates whether the certificate is self-signed (root) or signed by an external CA.

SerialNumber
byte[]

Default Value: ""

Returns the certificate's serial number.

The serial number is a binary string that uniquely identifies a certificate among others issued by the same CA. According to the X.509 standard, the (issuer, serial number) pair should be globally unique to facilitate chain building.

SigAlgorithm
String (read-only)

Default Value: ""

Indicates the algorithm that was used by the CA to sign this certificate.

A signature algorithm typically combines hash and public key algorithms together, such as sha256WithRSAEncryption or ecdsa-with-SHA256.

Source
int (read-only)

Default Value: 0

Returns the source (location or disposition) of a cryptographic primitive entity, such as a certificate, CRL, or OCSP response.

Subject
String (read-only)

Default Value: ""

The common name of the certificate holder, typically an individual's name, a URL, an e-mail address, or a company name. This is part of a larger set of credentials available via SubjectRDN.

SubjectAlternativeName
String

Default Value: ""

Returns or sets the value of the Subject Alternative Name extension of the certificate.

Subject alternative names are used to provide additional names that are impractical to store in the main SubjectRDN field. For example, it is often used to store all the domain names that a TLS certificate is authorized to protect.

The alternative names are provided as a list of CRLF-separated entries. Note that this differs from the behaviour used in earlier product versions, where the "|" character was used as the element separator.

SubjectKeyID
byte[]

Default Value: ""

Contains a unique identifier of the certificate's cryptographic key.

Subject Key Identifier is a certificate extension which allows a specific public key to be associated with a certificate holder. Typically, subject key identifiers of CA certificates are recorded as respective CA key identifiers in the subordinate certificates that they issue, which facilitates chain building.

The SubjectKeyID and CAKeyID fields of self-signed certificates typically contain identical values, as in that specific case, the issuer and the subject are the same entity.

SubjectRDN
String

Default Value: ""

A list of Property=Value pairs that uniquely identify the certificate holder (subject).

Depending on the purpose of the certificate and the policies of the CA that issued it, the values included in the subject record may differ drastically and contain business or personal names, web URLs, email addresses, and other data.

Example: /C=US/O=Oranges and Apples, Inc./OU=Accounts Receivable/1.2.3.4.5=Value with unknown OID/CN=Margaret Watkins.

Valid
boolean (read-only)

Default Value: False

Indicates whether or not the signature over the certificate or the request is valid and matches the public key contained in the CA certificate/request.

ValidFrom
String

Default Value: ""

The time point at which the certificate becomes valid, in UTC.

ValidTo
String

Default Value: ""

The time point at which the certificate expires, in UTC.

Constructors

public Certificate( bytes,  startIndex,  count,  password);

Loads the X.509 certificate from a memory buffer. Bytes is a buffer containing the raw certificate data. StartIndex and Count specify the starting position and number of bytes to be read from the buffer, respectively. Password is a password encrypting the certificate.

public Certificate( certBytes,  certStartIndex,  certCount,  keyBytes,  keyStartIndex,  keyCount,  password);

Loads the X.509 certificate from a memory buffer. CertBytes is a buffer containing the raw certificate data. CertStartIndex and CertCount specify the starting position and number of bytes to be read from the buffer, respectively. KeyBytes is a buffer containing the private key data. KeyStartIndex and KeyCount specify the starting position and number of bytes to be read from the buffer, respectively. Password is a password encrypting the certificate.

public Certificate( bytes,  startIndex,  count);

Loads the X.509 certificate from a memory buffer. Bytes is a buffer containing the raw certificate data. StartIndex and Count specify the starting position and number of bytes to be read from the buffer, respectively.

public Certificate( path,  password);

Loads the X.509 certificate from a file. Path specifies the full path to the file containing the certificate data. Password is a password encrypting the certificate.

public Certificate( certPath,  keyPath,  password);

Loads the X.509 certificate from a file. CertPath specifies the full path to the file containing the certificate data. KeyPath specifies the full path to the file containing the private key. Password is a password encrypting the certificate.

public Certificate( path);

Loads the X.509 certificate from a file. Path specifies the full path to the file containing the certificate data.

public Certificate( stream);

Loads the X.509 certificate from a stream. Stream is a stream containing the certificate data.

public Certificate( stream,  password);

Loads the X.509 certificate from a stream. Stream is a stream containing the certificate data. Password is a password encrypting the certificate.

public Certificate( certStream,  keyStream,  password);

Loads the X.509 certificate from a stream. CertStream is a stream containing the certificate data. KeyStream is a stream containing the private key. Password is a password encrypting the certificate.

public Certificate();

Creates a new object with default field values.

CryptoKey Type

This container represents a cryptographic key.

Remarks

This type is a universal placeholder for cryptographic keys.

Fields

Algorithm
String

Default Value: ""

The algorithm of the cryptographic key. A cryptokey object may hold either symmetric, MAC, or public key. Public key algorithms: RSA, ECDSA, Elgamal, DH.

SB_SYMMETRIC_ALGORITHM_RC4RC4
SB_SYMMETRIC_ALGORITHM_DESDES
SB_SYMMETRIC_ALGORITHM_3DES3DES
SB_SYMMETRIC_ALGORITHM_RC2RC2
SB_SYMMETRIC_ALGORITHM_AES128AES128
SB_SYMMETRIC_ALGORITHM_AES192AES192
SB_SYMMETRIC_ALGORITHM_AES256AES256
SB_SYMMETRIC_ALGORITHM_IDENTITYIdentity
SB_SYMMETRIC_ALGORITHM_BLOWFISHBlowfish
SB_SYMMETRIC_ALGORITHM_CAST128CAST128
SB_SYMMETRIC_ALGORITHM_IDEAIDEA
SB_SYMMETRIC_ALGORITHM_TWOFISHTwofish
SB_SYMMETRIC_ALGORITHM_TWOFISH128Twofish128
SB_SYMMETRIC_ALGORITHM_TWOFISH192Twofish192
SB_SYMMETRIC_ALGORITHM_TWOFISH256Twofish256
SB_SYMMETRIC_ALGORITHM_CAMELLIACamellia
SB_SYMMETRIC_ALGORITHM_CAMELLIA128Camellia128
SB_SYMMETRIC_ALGORITHM_CAMELLIA192Camellia192
SB_SYMMETRIC_ALGORITHM_CAMELLIA256Camellia256
SB_SYMMETRIC_ALGORITHM_SERPENTSerpent
SB_SYMMETRIC_ALGORITHM_SERPENT128Serpent128
SB_SYMMETRIC_ALGORITHM_SERPENT192Serpent192
SB_SYMMETRIC_ALGORITHM_SERPENT256Serpent256
SB_SYMMETRIC_ALGORITHM_SEEDSEED
SB_SYMMETRIC_ALGORITHM_RABBITRabbit
SB_SYMMETRIC_ALGORITHM_SYMMETRICGeneric
SB_SYMMETRIC_ALGORITHM_GOST_28147_1989GOST-28147-1989
SB_SYMMETRIC_ALGORITHM_CHACHA20ChaCha20
SB_HASH_ALGORITHM_SHA1SHA1
SB_HASH_ALGORITHM_SHA224SHA224
SB_HASH_ALGORITHM_SHA256SHA256
SB_HASH_ALGORITHM_SHA384SHA384
SB_HASH_ALGORITHM_SHA512SHA512
SB_HASH_ALGORITHM_MD2MD2
SB_HASH_ALGORITHM_MD4MD4
SB_HASH_ALGORITHM_MD5MD5
SB_HASH_ALGORITHM_RIPEMD160RIPEMD160
SB_HASH_ALGORITHM_CRC32CRC32
SB_HASH_ALGORITHM_SSL3SSL3
SB_HASH_ALGORITHM_GOST_R3411_1994GOST1994
SB_HASH_ALGORITHM_WHIRLPOOLWHIRLPOOL
SB_HASH_ALGORITHM_POLY1305POLY1305
SB_HASH_ALGORITHM_SHA3_224SHA3_224
SB_HASH_ALGORITHM_SHA3_256SHA3_256
SB_HASH_ALGORITHM_SHA3_384SHA3_384
SB_HASH_ALGORITHM_SHA3_512SHA3_512
SB_HASH_ALGORITHM_BLAKE2S_128BLAKE2S_128
SB_HASH_ALGORITHM_BLAKE2S_160BLAKE2S_160
SB_HASH_ALGORITHM_BLAKE2S_224BLAKE2S_224
SB_HASH_ALGORITHM_BLAKE2S_256BLAKE2S_256
SB_HASH_ALGORITHM_BLAKE2B_160BLAKE2B_160
SB_HASH_ALGORITHM_BLAKE2B_256BLAKE2B_256
SB_HASH_ALGORITHM_BLAKE2B_384BLAKE2B_384
SB_HASH_ALGORITHM_BLAKE2B_512BLAKE2B_512
SB_HASH_ALGORITHM_SHAKE_128SHAKE_128
SB_HASH_ALGORITHM_SHAKE_256SHAKE_256
SB_HASH_ALGORITHM_SHAKE_128_LENSHAKE_128_LEN
SB_HASH_ALGORITHM_SHAKE_256_LENSHAKE_256_LEN

Bits
int (read-only)

Default Value: 0

The length of the key in bits.

Curve
String

Default Value: ""

This property specifies the name of the curve the EC key is built on.

Exportable
boolean (read-only)

Default Value: False

Returns True if the key is exportable (can be serialized into an array of bytes), and False otherwise.

Fingerprint
String (read-only)

Default Value: ""

Contains the fingerprint (a hash imprint) of this key.

ID
byte[]

Default Value: ""

Provides access to a storage-specific key identifier. Key identifiers are used by cryptographic providers to refer to a particular key and/or distinguish between different keys. They are typically unique within a storage, but there is no guarantee that a particular cryptoprovider will conform to that (or will assign any key IDs at all).

IV
byte[]

Default Value: ""

The initialization vector (IV) of a symmetric key. This is normally a public part of a symmetric key, the idea of which is to introduce randomness to the encrypted data and/or serve as a first block in chaining ciphers.

Key
byte[] (read-only)

Default Value: ""

The byte array representation of the key. This may not be available for non-Exportable keys.

Nonce
byte[]

Default Value: ""

A nonce value associated with a key. It is similar to IV, but its only purpose is to introduce randomness.

Private
boolean (read-only)

Default Value: False

Returns True if the object hosts a private key, and False otherwise.

Public
boolean (read-only)

Default Value: False

Returns True if the object hosts a public key, and False otherwise.

Subject
byte[]

Default Value: ""

Returns the key subject. This is a cryptoprovider-dependent value, which normally aims to provide some user-friendly insight into the key owner.

Symmetric
boolean (read-only)

Default Value: False

Returns True if the object contains a symmetric key, and False otherwise.

Valid
boolean (read-only)

Default Value: False

Returns True if this key is valid. The term Valid highly depends on the kind of the key being stored. A symmetric key is considered valid if its length fits the algorithm being set. The validity of an RSA key also ensures that the RSA key elements (primes, exponents, and modulus) are consistent.

Constructors

public CryptoKey();

Creates an empty crypto key object.

ExternalCrypto Type

Specifies the parameters of external cryptographic calls.

Remarks

External cryptocalls are used in a Distributed Cryptography (DC) subsystem, which allows the delegation of security operations to the remote agent. For instance, it can be used to compute the signature value on the server, while retaining the client's private key locally.

Fields

AsyncDocumentID
String

Default Value: ""

Specifies an optional document ID for SignAsyncBegin() and SignAsyncEnd() calls.

Use this property when working with multi-signature DCAuth requests and responses to uniquely identify documents signed within a larger batch. On the completion stage, this value helps the signing component identify the correct signature in the returned batch of responses.

If using batched requests, make sure to set this property to the same value on both the pre-signing (SignAsyncBegin) and completion (SignAsyncEnd) stages.

CustomParams
String

Default Value: ""

Custom parameters to be passed to the signing service (uninterpreted).

Data
String

Default Value: ""

Additional data to be included in the async state and mirrored back by the requestor.

ExternalHashCalculation
boolean

Default Value: False

Specifies whether the message hash is to be calculated at the external endpoint. Please note that this mode is not supported by the DCAuth class.

If set to true, the class will pass a few kilobytes of to-be-signed data from the document to the OnExternalSign event. This only applies when SignExternal() is called.

HashAlgorithm
String

Default Value: "SHA256"

Specifies the request's signature hash algorithm.

SB_HASH_ALGORITHM_SHA1SHA1
SB_HASH_ALGORITHM_SHA224SHA224
SB_HASH_ALGORITHM_SHA256SHA256
SB_HASH_ALGORITHM_SHA384SHA384
SB_HASH_ALGORITHM_SHA512SHA512
SB_HASH_ALGORITHM_MD2MD2
SB_HASH_ALGORITHM_MD4MD4
SB_HASH_ALGORITHM_MD5MD5
SB_HASH_ALGORITHM_RIPEMD160RIPEMD160
SB_HASH_ALGORITHM_CRC32CRC32
SB_HASH_ALGORITHM_SSL3SSL3
SB_HASH_ALGORITHM_GOST_R3411_1994GOST1994
SB_HASH_ALGORITHM_WHIRLPOOLWHIRLPOOL
SB_HASH_ALGORITHM_POLY1305POLY1305
SB_HASH_ALGORITHM_SHA3_224SHA3_224
SB_HASH_ALGORITHM_SHA3_256SHA3_256
SB_HASH_ALGORITHM_SHA3_384SHA3_384
SB_HASH_ALGORITHM_SHA3_512SHA3_512
SB_HASH_ALGORITHM_BLAKE2S_128BLAKE2S_128
SB_HASH_ALGORITHM_BLAKE2S_160BLAKE2S_160
SB_HASH_ALGORITHM_BLAKE2S_224BLAKE2S_224
SB_HASH_ALGORITHM_BLAKE2S_256BLAKE2S_256
SB_HASH_ALGORITHM_BLAKE2B_160BLAKE2B_160
SB_HASH_ALGORITHM_BLAKE2B_256BLAKE2B_256
SB_HASH_ALGORITHM_BLAKE2B_384BLAKE2B_384
SB_HASH_ALGORITHM_BLAKE2B_512BLAKE2B_512
SB_HASH_ALGORITHM_SHAKE_128SHAKE_128
SB_HASH_ALGORITHM_SHAKE_256SHAKE_256
SB_HASH_ALGORITHM_SHAKE_128_LENSHAKE_128_LEN
SB_HASH_ALGORITHM_SHAKE_256_LENSHAKE_256_LEN

KeyID
String

Default Value: ""

The ID of the pre-shared key used for DC request authentication.

Asynchronous DCAuth-driven communication requires that parties authenticate each other with a secret pre-shared cryptographic key. This provides an extra protection layer for the protocol and diminishes the risk of the private key becoming abused by foreign parties. Use this property to provide the pre-shared key identifier, and use KeySecret to pass the key itself.

The same KeyID/KeySecret pair should be used on the DCAuth side for the signing requests to be accepted.

Note: The KeyID/KeySecret scheme is very similar to the AuthKey scheme used in various Cloud service providers to authenticate users.

Example: signer.ExternalCrypto.KeyID = "MainSigningKey"; signer.ExternalCrypto.KeySecret = "abcdef0123456789";

KeySecret
String

Default Value: ""

The pre-shared key used for DC request authentication. This key must be set and match the key used by the DCAuth counterpart for the scheme to work.

Read more about configuring authentication in the KeyID topic.

Method
int

Default Value: 0

Specifies the asynchronous signing method. This is typically defined by the DC server capabilities and setup.

Available options:

asmdPKCS10
asmdPKCS71

Mode
int

Default Value: 0

Specifies the external cryptography mode.

Available options:

ecmDefaultThe default value (0)
ecmDisabledDo not use DC or external signing (1)
ecmGenericGeneric external signing with the OnExternalSign event (2)
ecmDCAuthDCAuth signing (3)
ecmDCAuthJSONDCAuth signing in JSON format (4)

PublicKeyAlgorithm
String

Default Value: ""

Provide the public key algorithm here if the certificate is not available on the pre-signing stage.

SB_CERT_ALGORITHM_ID_RSA_ENCRYPTIONrsaEncryption
SB_CERT_ALGORITHM_MD2_RSA_ENCRYPTIONmd2withRSAEncryption
SB_CERT_ALGORITHM_MD5_RSA_ENCRYPTIONmd5withRSAEncryption
SB_CERT_ALGORITHM_SHA1_RSA_ENCRYPTIONsha1withRSAEncryption
SB_CERT_ALGORITHM_ID_DSAid-dsa
SB_CERT_ALGORITHM_ID_DSA_SHA1id-dsa-with-sha1
SB_CERT_ALGORITHM_DH_PUBLICdhpublicnumber
SB_CERT_ALGORITHM_SHA224_RSA_ENCRYPTIONsha224WithRSAEncryption
SB_CERT_ALGORITHM_SHA256_RSA_ENCRYPTIONsha256WithRSAEncryption
SB_CERT_ALGORITHM_SHA384_RSA_ENCRYPTIONsha384WithRSAEncryption
SB_CERT_ALGORITHM_SHA512_RSA_ENCRYPTIONsha512WithRSAEncryption
SB_CERT_ALGORITHM_ID_RSAPSSid-RSASSA-PSS
SB_CERT_ALGORITHM_ID_RSAOAEPid-RSAES-OAEP
SB_CERT_ALGORITHM_RSASIGNATURE_RIPEMD160ripemd160withRSA
SB_CERT_ALGORITHM_ID_ELGAMALelGamal
SB_CERT_ALGORITHM_SHA1_ECDSAecdsa-with-SHA1
SB_CERT_ALGORITHM_RECOMMENDED_ECDSAecdsa-recommended
SB_CERT_ALGORITHM_SHA224_ECDSAecdsa-with-SHA224
SB_CERT_ALGORITHM_SHA256_ECDSAecdsa-with-SHA256
SB_CERT_ALGORITHM_SHA384_ECDSAecdsa-with-SHA384
SB_CERT_ALGORITHM_SHA512_ECDSAecdsa-with-SHA512
SB_CERT_ALGORITHM_ECid-ecPublicKey
SB_CERT_ALGORITHM_SPECIFIED_ECDSAecdsa-specified
SB_CERT_ALGORITHM_GOST_R3410_1994id-GostR3410-94
SB_CERT_ALGORITHM_GOST_R3410_2001id-GostR3410-2001
SB_CERT_ALGORITHM_GOST_R3411_WITH_R3410_1994id-GostR3411-94-with-GostR3410-94
SB_CERT_ALGORITHM_GOST_R3411_WITH_R3410_2001id-GostR3411-94-with-GostR3410-2001
SB_CERT_ALGORITHM_SHA1_ECDSA_PLAINecdsa-plain-SHA1
SB_CERT_ALGORITHM_SHA224_ECDSA_PLAINecdsa-plain-SHA224
SB_CERT_ALGORITHM_SHA256_ECDSA_PLAINecdsa-plain-SHA256
SB_CERT_ALGORITHM_SHA384_ECDSA_PLAINecdsa-plain-SHA384
SB_CERT_ALGORITHM_SHA512_ECDSA_PLAINecdsa-plain-SHA512
SB_CERT_ALGORITHM_RIPEMD160_ECDSA_PLAINecdsa-plain-RIPEMD160
SB_CERT_ALGORITHM_WHIRLPOOL_RSA_ENCRYPTIONwhirlpoolWithRSAEncryption
SB_CERT_ALGORITHM_ID_DSA_SHA224id-dsa-with-sha224
SB_CERT_ALGORITHM_ID_DSA_SHA256id-dsa-with-sha256
SB_CERT_ALGORITHM_SHA3_224_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-sha3-224
SB_CERT_ALGORITHM_SHA3_256_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-sha3-256
SB_CERT_ALGORITHM_SHA3_384_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-sha3-384
SB_CERT_ALGORITHM_SHA3_512_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-sha3-512
SB_CERT_ALGORITHM_SHA3_224_ECDSAid-ecdsa-with-sha3-224
SB_CERT_ALGORITHM_SHA3_256_ECDSAid-ecdsa-with-sha3-256
SB_CERT_ALGORITHM_SHA3_384_ECDSAid-ecdsa-with-sha3-384
SB_CERT_ALGORITHM_SHA3_512_ECDSAid-ecdsa-with-sha3-512
SB_CERT_ALGORITHM_SHA3_224_ECDSA_PLAINid-ecdsa-plain-with-sha3-224
SB_CERT_ALGORITHM_SHA3_256_ECDSA_PLAINid-ecdsa-plain-with-sha3-256
SB_CERT_ALGORITHM_SHA3_384_ECDSA_PLAINid-ecdsa-plain-with-sha3-384
SB_CERT_ALGORITHM_SHA3_512_ECDSA_PLAINid-ecdsa-plain-with-sha3-512
SB_CERT_ALGORITHM_ID_DSA_SHA3_224id-dsa-with-sha3-224
SB_CERT_ALGORITHM_ID_DSA_SHA3_256id-dsa-with-sha3-256
SB_CERT_ALGORITHM_BLAKE2S_128_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-blake2s128
SB_CERT_ALGORITHM_BLAKE2S_160_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-blake2s160
SB_CERT_ALGORITHM_BLAKE2S_224_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-blake2s224
SB_CERT_ALGORITHM_BLAKE2S_256_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-blake2s256
SB_CERT_ALGORITHM_BLAKE2B_160_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-blake2b160
SB_CERT_ALGORITHM_BLAKE2B_256_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-blake2b256
SB_CERT_ALGORITHM_BLAKE2B_384_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-blake2b384
SB_CERT_ALGORITHM_BLAKE2B_512_RSA_ENCRYPTIONid-rsassa-pkcs1-v1_5-with-blake2b512
SB_CERT_ALGORITHM_BLAKE2S_128_ECDSAid-ecdsa-with-blake2s128
SB_CERT_ALGORITHM_BLAKE2S_160_ECDSAid-ecdsa-with-blake2s160
SB_CERT_ALGORITHM_BLAKE2S_224_ECDSAid-ecdsa-with-blake2s224
SB_CERT_ALGORITHM_BLAKE2S_256_ECDSAid-ecdsa-with-blake2s256
SB_CERT_ALGORITHM_BLAKE2B_160_ECDSAid-ecdsa-with-blake2b160
SB_CERT_ALGORITHM_BLAKE2B_256_ECDSAid-ecdsa-with-blake2b256
SB_CERT_ALGORITHM_BLAKE2B_384_ECDSAid-ecdsa-with-blake2b384
SB_CERT_ALGORITHM_BLAKE2B_512_ECDSAid-ecdsa-with-blake2b512
SB_CERT_ALGORITHM_BLAKE2S_128_ECDSA_PLAINid-ecdsa-plain-with-blake2s128
SB_CERT_ALGORITHM_BLAKE2S_160_ECDSA_PLAINid-ecdsa-plain-with-blake2s160
SB_CERT_ALGORITHM_BLAKE2S_224_ECDSA_PLAINid-ecdsa-plain-with-blake2s224
SB_CERT_ALGORITHM_BLAKE2S_256_ECDSA_PLAINid-ecdsa-plain-with-blake2s256
SB_CERT_ALGORITHM_BLAKE2B_160_ECDSA_PLAINid-ecdsa-plain-with-blake2b160
SB_CERT_ALGORITHM_BLAKE2B_256_ECDSA_PLAINid-ecdsa-plain-with-blake2b256
SB_CERT_ALGORITHM_BLAKE2B_384_ECDSA_PLAINid-ecdsa-plain-with-blake2b384
SB_CERT_ALGORITHM_BLAKE2B_512_ECDSA_PLAINid-ecdsa-plain-with-blake2b512
SB_CERT_ALGORITHM_ID_DSA_BLAKE2S_224id-dsa-with-blake2s224
SB_CERT_ALGORITHM_ID_DSA_BLAKE2S_256id-dsa-with-blake2s256
SB_CERT_ALGORITHM_EDDSA_ED25519id-Ed25519
SB_CERT_ALGORITHM_EDDSA_ED448id-Ed448
SB_CERT_ALGORITHM_EDDSA_ED25519_PHid-Ed25519ph
SB_CERT_ALGORITHM_EDDSA_ED448_PHid-Ed448ph
SB_CERT_ALGORITHM_EDDSAid-EdDSA
SB_CERT_ALGORITHM_EDDSA_SIGNATUREid-EdDSA-sig

Constructors

public ExternalCrypto();

Creates a new ExternalCrypto object with default field values.

SocketSettings Type

A container for the socket settings.

Remarks

This type is a container for socket-layer parameters.

Fields

DNSMode
int

Default Value: 0

Selects the DNS resolver to use: the component's (secure) built-in one, or the one provided by the system.

dmAuto0
dmPlatform1
dmOwn2
dmOwnSecure3

DNSPort
int

Default Value: 0

Specifies the port number to be used for sending queries to the DNS server.

DNSQueryTimeout
int

Default Value: 0

The timeout (in milliseconds) for each DNS query. The value of 0 indicates an infinite timeout.

DNSServers
String

Default Value: ""

The addresses of DNS servers to use for address resolution, separated by commas or semicolons.

DNSTotalTimeout
int

Default Value: 0

The timeout (in milliseconds) for the whole resolution process. The value of 0 indicates an infinite timeout.

IncomingSpeedLimit
int

Default Value: 0

The maximum number of bytes to read from the socket, per second.

LocalAddress
String

Default Value: ""

The local network interface to bind the socket to.

LocalPort
int

Default Value: 0

The local port number to bind the socket to.

OutgoingSpeedLimit
int

Default Value: 0

The maximum number of bytes to write to the socket, per second.

Timeout
int

Default Value: 60000

The maximum period of waiting, in milliseconds, after which the socket operation is considered unsuccessful.

If Timeout is set to 0, a socket operation will expire after the system-default timeout (2 hrs 8 min for TCP stack).

UseIPv6
boolean

Default Value: False

Enables or disables IP protocol version 6.

Constructors

public SocketSettings();

Creates a new SocketSettings object.

TLSConnectionInfo Type

Contains information about a network connection.

Remarks

Use this property to check various details of the network connection. These include the total amounts of data transferred, the availability of TLS, and its parameters.

Fields

AEADCipher
boolean (read-only)

Default Value: False

Indicates whether the encryption algorithm used is an AEAD cipher.

ChainValidationDetails
int (read-only)

Default Value: 0

The details of a certificate chain validation outcome. They may often suggest the reasons that contributed to the overall validation result.

Returns a bit mask of the following options:

cvrBadData0x0001One or more certificates in the validation path are malformed

cvrRevoked0x0002One or more certificates are revoked

cvrNotYetValid0x0004One or more certificates are not yet valid

cvrExpired0x0008One or more certificates are expired

cvrInvalidSignature0x0010A certificate contains a non-valid digital signature

cvrUnknownCA0x0020A CA certificate for one or more certificates has not been found (chain incomplete)

cvrCAUnauthorized0x0040One of the CA certificates are not authorized to act as CA

cvrCRLNotVerified0x0080One or more CRLs could not be verified

cvrOCSPNotVerified0x0100One or more OCSP responses could not be verified

cvrIdentityMismatch0x0200The identity protected by the certificate (a TLS endpoint or an e-mail addressee) does not match what is recorded in the certificate

cvrNoKeyUsage0x0400A mandatory key usage is not enabled in one of the chain certificates

cvrBlocked0x0800One or more certificates are blocked

cvrFailure0x1000General validation failure

cvrChainLoop0x2000Chain loop: one of the CA certificates recursively signs itself

cvrWeakAlgorithm0x4000A weak algorithm is used in one of certificates or revocation elements

cvrUserEnforced0x8000The chain was considered invalid following intervention from a user code

ChainValidationResult
int (read-only)

Default Value: 0

The outcome of a certificate chain validation routine.

Available options:

cvtValid0The chain is valid

cvtValidButUntrusted1The chain is valid, but the root certificate is not trusted

cvtInvalid2The chain is not valid (some of certificates are revoked, expired, or contain an invalid signature)

cvtCantBeEstablished3The validity of the chain cannot be established because of missing or unavailable validation information (certificates, CRLs, or OCSP responses)

Use the ValidationLog property to access the detailed validation log.

Ciphersuite
String (read-only)

Default Value: ""

The cipher suite employed by this connection.

For TLS connections, this property returns the ciphersuite that was/is employed by the connection.

ClientAuthenticated
boolean (read-only)

Default Value: False

Specifies whether client authentication was performed during this connection.

ClientAuthRequested
boolean (read-only)

Default Value: False

Specifies whether client authentication was requested during this connection.

ConnectionEstablished
boolean (read-only)

Default Value: False

Indicates whether the connection has been established fully.

ConnectionID
byte[] (read-only)

Default Value: ""

The unique identifier assigned to this connection.

DigestAlgorithm
String (read-only)

Default Value: ""

The digest algorithm used in a TLS-enabled connection.

EncryptionAlgorithm
String (read-only)

Default Value: ""

The symmetric encryption algorithm used in a TLS-enabled connection.

Exportable
boolean (read-only)

Default Value: False

Indicates whether a TLS connection uses a reduced-strength exportable cipher.

ID
long (read-only)

Default Value: -1

The client connection's unique identifier. This value is used throughout to refer to a particular client connection.

KeyExchangeAlgorithm
String (read-only)

Default Value: ""

The key exchange algorithm used in a TLS-enabled connection.

KeyExchangeKeyBits
int (read-only)

Default Value: 0

The length of the key exchange key of a TLS-enabled connection.

NamedECCurve
String (read-only)

Default Value: ""

The elliptic curve used in this connection.

PFSCipher
boolean (read-only)

Default Value: False

Indicates whether the chosen ciphersuite provides perfect forward secrecy (PFS).

PreSharedIdentity
String

Default Value: ""

Specifies the identity used when the PSK (Pre-Shared Key) key-exchange mechanism is negotiated.

PreSharedIdentityHint
String (read-only)

Default Value: ""

A hint professed by the server to help the client select the PSK identity to use.

PublicKeyBits
int (read-only)

Default Value: 0

The length of the public key.

RemoteAddress
String (read-only)

Default Value: ""

The client's IP address.

RemotePort
int (read-only)

Default Value: 0

The remote port of the client connection.

ResumedSession
boolean (read-only)

Default Value: False

Indicates whether a TLS-enabled connection was spawned from another TLS connection

SecureConnection
boolean (read-only)

Default Value: False

Indicates whether TLS or SSL is enabled for this connection.

ServerAuthenticated
boolean (read-only)

Default Value: False

Indicates whether server authentication was performed during a TLS-enabled connection.

SignatureAlgorithm
String (read-only)

Default Value: ""

The signature algorithm used in a TLS handshake.

SymmetricBlockSize
int (read-only)

Default Value: 0

The block size of the symmetric algorithm used.

SymmetricKeyBits
int (read-only)

Default Value: 0

The key length of the symmetric algorithm used.

TotalBytesReceived
long (read-only)

Default Value: 0

The total number of bytes received over this connection.

TotalBytesSent
long (read-only)

Default Value: 0

The total number of bytes sent over this connection.

ValidationLog
String (read-only)

Default Value: ""

Contains the server certificate's chain validation log. This information may be very useful in investigating chain validation failures.

Version
String (read-only)

Default Value: ""

Indicates the version of SSL/TLS protocol negotiated during this connection.

Constructors

public TLSConnectionInfo();

Creates a new TLSConnectionInfo object.

TLSSettings Type

A container for TLS connection settings.

Remarks

The TLS (Transport Layer Security) protocol provides security for information exchanged over insecure connections such as TCP/IP.

Fields

AutoValidateCertificates
boolean

Default Value: True

Specifies whether server-side TLS certificates should be validated automatically using internal validation rules.

BaseConfiguration
int

Default Value: 0

Selects the base configuration for the TLS settings. Several profiles are offered and tuned up for different purposes, such as high security or higher compatibility.

stpcDefault0
stpcCompatible1
stpcComprehensiveInsecure2
stpcHighlySecure3

Ciphersuites
String

Default Value: ""

A list of ciphersuites separated with commas or semicolons. Each ciphersuite in the list may be prefixed with a minus sign (-) to indicate that the ciphersuite should be disabled rather than enabled. Besides the specific ciphersuite modifiers, this property supports the all (and -all) aliases, allowing all ciphersuites to be blanketly enabled or disabled at once.

Note: the list of ciphersuites provided to this property alters the baseline list of ciphersuites as defined by BaseConfiguration. Remember to start your ciphersuite string with -all; if you need to only enable a specific fixed set of ciphersuites. The list of supported ciphersuites is provided below:

  • NULL_NULL_NULL
  • RSA_NULL_MD5
  • RSA_NULL_SHA
  • RSA_RC4_MD5
  • RSA_RC4_SHA
  • RSA_RC2_MD5
  • RSA_IDEA_MD5
  • RSA_IDEA_SHA
  • RSA_DES_MD5
  • RSA_DES_SHA
  • RSA_3DES_MD5
  • RSA_3DES_SHA
  • RSA_AES128_SHA
  • RSA_AES256_SHA
  • DH_DSS_DES_SHA
  • DH_DSS_3DES_SHA
  • DH_DSS_AES128_SHA
  • DH_DSS_AES256_SHA
  • DH_RSA_DES_SHA
  • DH_RSA_3DES_SHA
  • DH_RSA_AES128_SHA
  • DH_RSA_AES256_SHA
  • DHE_DSS_DES_SHA
  • DHE_DSS_3DES_SHA
  • DHE_DSS_AES128_SHA
  • DHE_DSS_AES256_SHA
  • DHE_RSA_DES_SHA
  • DHE_RSA_3DES_SHA
  • DHE_RSA_AES128_SHA
  • DHE_RSA_AES256_SHA
  • DH_ANON_RC4_MD5
  • DH_ANON_DES_SHA
  • DH_ANON_3DES_SHA
  • DH_ANON_AES128_SHA
  • DH_ANON_AES256_SHA
  • RSA_RC2_MD5_EXPORT
  • RSA_RC4_MD5_EXPORT
  • RSA_DES_SHA_EXPORT
  • DH_DSS_DES_SHA_EXPORT
  • DH_RSA_DES_SHA_EXPORT
  • DHE_DSS_DES_SHA_EXPORT
  • DHE_RSA_DES_SHA_EXPORT
  • DH_ANON_RC4_MD5_EXPORT
  • DH_ANON_DES_SHA_EXPORT
  • RSA_CAMELLIA128_SHA
  • DH_DSS_CAMELLIA128_SHA
  • DH_RSA_CAMELLIA128_SHA
  • DHE_DSS_CAMELLIA128_SHA
  • DHE_RSA_CAMELLIA128_SHA
  • DH_ANON_CAMELLIA128_SHA
  • RSA_CAMELLIA256_SHA
  • DH_DSS_CAMELLIA256_SHA
  • DH_RSA_CAMELLIA256_SHA
  • DHE_DSS_CAMELLIA256_SHA
  • DHE_RSA_CAMELLIA256_SHA
  • DH_ANON_CAMELLIA256_SHA
  • PSK_RC4_SHA
  • PSK_3DES_SHA
  • PSK_AES128_SHA
  • PSK_AES256_SHA
  • DHE_PSK_RC4_SHA
  • DHE_PSK_3DES_SHA
  • DHE_PSK_AES128_SHA
  • DHE_PSK_AES256_SHA
  • RSA_PSK_RC4_SHA
  • RSA_PSK_3DES_SHA
  • RSA_PSK_AES128_SHA
  • RSA_PSK_AES256_SHA
  • RSA_SEED_SHA
  • DH_DSS_SEED_SHA
  • DH_RSA_SEED_SHA
  • DHE_DSS_SEED_SHA
  • DHE_RSA_SEED_SHA
  • DH_ANON_SEED_SHA
  • SRP_SHA_3DES_SHA
  • SRP_SHA_RSA_3DES_SHA
  • SRP_SHA_DSS_3DES_SHA
  • SRP_SHA_AES128_SHA
  • SRP_SHA_RSA_AES128_SHA
  • SRP_SHA_DSS_AES128_SHA
  • SRP_SHA_AES256_SHA
  • SRP_SHA_RSA_AES256_SHA
  • SRP_SHA_DSS_AES256_SHA
  • ECDH_ECDSA_NULL_SHA
  • ECDH_ECDSA_RC4_SHA
  • ECDH_ECDSA_3DES_SHA
  • ECDH_ECDSA_AES128_SHA
  • ECDH_ECDSA_AES256_SHA
  • ECDHE_ECDSA_NULL_SHA
  • ECDHE_ECDSA_RC4_SHA
  • ECDHE_ECDSA_3DES_SHA
  • ECDHE_ECDSA_AES128_SHA
  • ECDHE_ECDSA_AES256_SHA
  • ECDH_RSA_NULL_SHA
  • ECDH_RSA_RC4_SHA
  • ECDH_RSA_3DES_SHA
  • ECDH_RSA_AES128_SHA
  • ECDH_RSA_AES256_SHA
  • ECDHE_RSA_NULL_SHA
  • ECDHE_RSA_RC4_SHA
  • ECDHE_RSA_3DES_SHA
  • ECDHE_RSA_AES128_SHA
  • ECDHE_RSA_AES256_SHA
  • ECDH_ANON_NULL_SHA
  • ECDH_ANON_RC4_SHA
  • ECDH_ANON_3DES_SHA
  • ECDH_ANON_AES128_SHA
  • ECDH_ANON_AES256_SHA
  • RSA_NULL_SHA256
  • RSA_AES128_SHA256
  • RSA_AES256_SHA256
  • DH_DSS_AES128_SHA256
  • DH_RSA_AES128_SHA256
  • DHE_DSS_AES128_SHA256
  • DHE_RSA_AES128_SHA256
  • DH_DSS_AES256_SHA256
  • DH_RSA_AES256_SHA256
  • DHE_DSS_AES256_SHA256
  • DHE_RSA_AES256_SHA256
  • DH_ANON_AES128_SHA256
  • DH_ANON_AES256_SHA256
  • RSA_AES128_GCM_SHA256
  • RSA_AES256_GCM_SHA384
  • DHE_RSA_AES128_GCM_SHA256
  • DHE_RSA_AES256_GCM_SHA384
  • DH_RSA_AES128_GCM_SHA256
  • DH_RSA_AES256_GCM_SHA384
  • DHE_DSS_AES128_GCM_SHA256
  • DHE_DSS_AES256_GCM_SHA384
  • DH_DSS_AES128_GCM_SHA256
  • DH_DSS_AES256_GCM_SHA384
  • DH_ANON_AES128_GCM_SHA256
  • DH_ANON_AES256_GCM_SHA384
  • ECDHE_ECDSA_AES128_SHA256
  • ECDHE_ECDSA_AES256_SHA384
  • ECDH_ECDSA_AES128_SHA256
  • ECDH_ECDSA_AES256_SHA384
  • ECDHE_RSA_AES128_SHA256
  • ECDHE_RSA_AES256_SHA384
  • ECDH_RSA_AES128_SHA256
  • ECDH_RSA_AES256_SHA384
  • ECDHE_ECDSA_AES128_GCM_SHA256
  • ECDHE_ECDSA_AES256_GCM_SHA384
  • ECDH_ECDSA_AES128_GCM_SHA256
  • ECDH_ECDSA_AES256_GCM_SHA384
  • ECDHE_RSA_AES128_GCM_SHA256
  • ECDHE_RSA_AES256_GCM_SHA384
  • ECDH_RSA_AES128_GCM_SHA256
  • ECDH_RSA_AES256_GCM_SHA384
  • PSK_AES128_GCM_SHA256
  • PSK_AES256_GCM_SHA384
  • DHE_PSK_AES128_GCM_SHA256
  • DHE_PSK_AES256_GCM_SHA384
  • RSA_PSK_AES128_GCM_SHA256
  • RSA_PSK_AES256_GCM_SHA384
  • PSK_AES128_SHA256
  • PSK_AES256_SHA384
  • PSK_NULL_SHA256
  • PSK_NULL_SHA384
  • DHE_PSK_AES128_SHA256
  • DHE_PSK_AES256_SHA384
  • DHE_PSK_NULL_SHA256
  • DHE_PSK_NULL_SHA384
  • RSA_PSK_AES128_SHA256
  • RSA_PSK_AES256_SHA384
  • RSA_PSK_NULL_SHA256
  • RSA_PSK_NULL_SHA384
  • RSA_CAMELLIA128_SHA256
  • DH_DSS_CAMELLIA128_SHA256
  • DH_RSA_CAMELLIA128_SHA256
  • DHE_DSS_CAMELLIA128_SHA256
  • DHE_RSA_CAMELLIA128_SHA256
  • DH_ANON_CAMELLIA128_SHA256
  • RSA_CAMELLIA256_SHA256
  • DH_DSS_CAMELLIA256_SHA256
  • DH_RSA_CAMELLIA256_SHA256
  • DHE_DSS_CAMELLIA256_SHA256
  • DHE_RSA_CAMELLIA256_SHA256
  • DH_ANON_CAMELLIA256_SHA256
  • ECDHE_ECDSA_CAMELLIA128_SHA256
  • ECDHE_ECDSA_CAMELLIA256_SHA384
  • ECDH_ECDSA_CAMELLIA128_SHA256
  • ECDH_ECDSA_CAMELLIA256_SHA384
  • ECDHE_RSA_CAMELLIA128_SHA256
  • ECDHE_RSA_CAMELLIA256_SHA384
  • ECDH_RSA_CAMELLIA128_SHA256
  • ECDH_RSA_CAMELLIA256_SHA384
  • RSA_CAMELLIA128_GCM_SHA256
  • RSA_CAMELLIA256_GCM_SHA384
  • DHE_RSA_CAMELLIA128_GCM_SHA256
  • DHE_RSA_CAMELLIA256_GCM_SHA384
  • DH_RSA_CAMELLIA128_GCM_SHA256
  • DH_RSA_CAMELLIA256_GCM_SHA384
  • DHE_DSS_CAMELLIA128_GCM_SHA256
  • DHE_DSS_CAMELLIA256_GCM_SHA384
  • DH_DSS_CAMELLIA128_GCM_SHA256
  • DH_DSS_CAMELLIA256_GCM_SHA384
  • DH_anon_CAMELLIA128_GCM_SHA256
  • DH_anon_CAMELLIA256_GCM_SHA384
  • ECDHE_ECDSA_CAMELLIA128_GCM_SHA256
  • ECDHE_ECDSA_CAMELLIA256_GCM_SHA384
  • ECDH_ECDSA_CAMELLIA128_GCM_SHA256
  • ECDH_ECDSA_CAMELLIA256_GCM_SHA384
  • ECDHE_RSA_CAMELLIA128_GCM_SHA256
  • ECDHE_RSA_CAMELLIA256_GCM_SHA384
  • ECDH_RSA_CAMELLIA128_GCM_SHA256
  • ECDH_RSA_CAMELLIA256_GCM_SHA384
  • PSK_CAMELLIA128_GCM_SHA256
  • PSK_CAMELLIA256_GCM_SHA384
  • DHE_PSK_CAMELLIA128_GCM_SHA256
  • DHE_PSK_CAMELLIA256_GCM_SHA384
  • RSA_PSK_CAMELLIA128_GCM_SHA256
  • RSA_PSK_CAMELLIA256_GCM_SHA384
  • PSK_CAMELLIA128_SHA256
  • PSK_CAMELLIA256_SHA384
  • DHE_PSK_CAMELLIA128_SHA256
  • DHE_PSK_CAMELLIA256_SHA384
  • RSA_PSK_CAMELLIA128_SHA256
  • RSA_PSK_CAMELLIA256_SHA384
  • ECDHE_PSK_CAMELLIA128_SHA256
  • ECDHE_PSK_CAMELLIA256_SHA384
  • ECDHE_PSK_RC4_SHA
  • ECDHE_PSK_3DES_SHA
  • ECDHE_PSK_AES128_SHA
  • ECDHE_PSK_AES256_SHA
  • ECDHE_PSK_AES128_SHA256
  • ECDHE_PSK_AES256_SHA384
  • ECDHE_PSK_NULL_SHA
  • ECDHE_PSK_NULL_SHA256
  • ECDHE_PSK_NULL_SHA384
  • ECDHE_RSA_CHACHA20_POLY1305_SHA256
  • ECDHE_ECDSA_CHACHA20_POLY1305_SHA256
  • DHE_RSA_CHACHA20_POLY1305_SHA256
  • PSK_CHACHA20_POLY1305_SHA256
  • ECDHE_PSK_CHACHA20_POLY1305_SHA256
  • DHE_PSK_CHACHA20_POLY1305_SHA256
  • RSA_PSK_CHACHA20_POLY1305_SHA256
  • AES128_GCM_SHA256
  • AES256_GCM_SHA384
  • CHACHA20_POLY1305_SHA256
  • AES128_CCM_SHA256
  • AES128_CCM8_SHA256

ClientAuth
int

Default Value: 0

Enables or disables certificate-based client authentication.

Set this property to true to tune up the client authentication type:

ccatNoAuth0
ccatRequestCert1
ccatRequireCert2

ECCurves
String

Default Value: ""

Defines the elliptic curves to enable.

Extensions
String

Default Value: ""

Provides access to TLS extensions.

ForceResumeIfDestinationChanges
boolean

Default Value: False

Whether to force TLS session resumption when the destination address changes.

PreSharedIdentity
String

Default Value: ""

Defines the identity used when the PSK (Pre-Shared Key) key-exchange mechanism is negotiated.

PreSharedKey
String

Default Value: ""

Contains the pre-shared key for the PSK (Pre-Shared Key) key-exchange mechanism, encoded with base16.

PreSharedKeyCiphersuite
String

Default Value: ""

Defines the ciphersuite used for PSK (Pre-Shared Key) negotiation.

RenegotiationAttackPreventionMode
int

Default Value: 2

Selects the renegotiation attack prevention mechanism.

The following options are available:

crapmCompatible0TLS 1.0 and 1.1 compatibility mode (renegotiation indication extension is disabled).
crapmStrict1Renegotiation attack prevention is enabled and enforced.
crapmAuto2Automatically choose whether to enable or disable renegotiation attack prevention.

RevocationCheck
int

Default Value: 1

Specifies the kind(s) of revocation check to perform.

Revocation checking is necessary to ensure the integrity of the chain and obtain up-to-date certificate validity and trustworthiness information.

crcNone0No revocation checking
crcAuto1Automatic mode selection. Currently this maps to crcAnyOCSPOrCRL, but it may change in the future.
crcAllCRL2Check all provided CRL endpoints for all chain certificates.
crcAllOCSP3Check all provided OCSP endpoints for all chain certificates.
crcAllCRLAndOCSP4Check all CRL and OCSP endpoints for all chain certificates.
crcAnyCRL5At least one CRL check for every certificate in the chain must succeed.
crcAnyOCSP6At least one OCSP check for every certificate in the chain must succeed.
crcAnyCRLOrOCSP7At least one CRL or OCSP check for every certificate in the chain must succeed. CRL endpoints are checked first.
crcAnyOCSPOrCRL8At least one CRL or OCSP check for every certificate in the chain must succeed. OCSP endpoints are checked first.

This setting controls the way the revocation checks are performed. Typically certificates come with two types of revocation information sources: CRL (certificate revocation lists) and OCSP responders. CRLs are static objects periodically published by the CA at some online location. OCSP responders are active online services maintained by the CA that can provide up-to-date information on certificate statuses in near real time.

There are some conceptual differences between the two. CRLs are normally larger in size. Their use involves some latency because there is normally some delay between the time when a certificate was revoked and the time the subsequent CRL mentioning that is published. The benefits of CRL is that the same object can provide statuses for all certificates issued by a particular CA, and that the whole technology is much simpler than OCSP (and thus is supported by more CAs).

This setting lets you adjust the validation course by including or excluding certain types of revocation sources from the validation process. The crcAnyOCSPOrCRL setting (give preference to the faster OCSP route and only demand one source to succeed) is a good choice for most typical validation environments. The "crcAll*" modes are much stricter, and may be used in scenarios where bulletproof validity information is essential.

SSLOptions
int

Default Value: 16

Various SSL (TLS) protocol options, set of

cssloExpectShutdownMessage0x001Wait for the close-notify message when shutting down the connection

cssloOpenSSLDTLSWorkaround0x002(DEPRECATED) Use a DTLS version workaround when talking to very old OpenSSL versions

cssloDisableKexLengthAlignment0x004Do not align the client-side PMS by the RSA modulus size. It is unlikely that you will ever need to adjust it.

cssloForceUseOfClientCertHashAlg0x008Enforce the use of the client certificate hash algorithm. It is unlikely that you will ever need to adjust it.

cssloAutoAddServerNameExtension0x010Automatically add the server name extension when known

cssloAcceptTrustedSRPPrimesOnly0x020Accept trusted SRP primes only

cssloDisableSignatureAlgorithmsExtension0x040Disable (do not send) the signature algorithms extension. It is unlikely that you will ever need to adjust it.

cssloIntolerateHigherProtocolVersions0x080(server option) Do not allow fallback from TLS versions higher than currently enabled

cssloStickToPrefCertHashAlg0x100Stick to preferred certificate hash algorithms

cssloNoImplicitTLS12Fallback0x200Disable implicit TLS 1.3 to 1.2 fallbacks

cssloUseHandshakeBatches0x400Send the handshake message as large batches rather than individually

TLSMode
int

Default Value: 0

Specifies the TLS mode to use.

smDefault0
smNoTLS1Do not use TLS
smExplicitTLS2Connect to the server without any encryption and then request an SSL session.
smImplicitTLS3Connect to the specified port, and establish the SSL session at once.
smMixedTLS4Connect to the specified port, and establish the SSL session at once, but allow plain data.

UseExtendedMasterSecret
boolean

Default Value: False

Enables the Extended Master Secret Extension, as defined in RFC 7627.

UseSessionResumption
boolean

Default Value: False

Enables or disables the TLS session resumption capability.

Versions
int

Default Value: 16

The SSL/TLS versions to enable by default.

csbSSL20x01SSL 2

csbSSL30x02SSL 3

csbTLS10x04TLS 1.0

csbTLS110x08TLS 1.1

csbTLS120x10TLS 1.2

csbTLS130x20TLS 1.3

Constructors

public TLSSettings();

Creates a new TLSSettings object.

UserAccount Type

A container for user account information.

Remarks

UserAccount objects are used to store user account information, such as logins and passwords.

Fields

AssociatedData
byte[]

Default Value: ""

Contains the user's Associated Data when SSH AEAD (Authenticated Encryption with Associated Data) algorithm is used.

BasePath
String

Default Value: ""

Base path for this user in the server's file system.

Certificate
byte[]

Default Value: ""

Contains the user's certificate.

Data
String

Default Value: ""

Contains uninterpreted user-defined data that should be associated with the user account, such as comments or custom settings.

Email
String

Default Value: ""

The user's email address.

HashAlgorithm
String

Default Value: ""

Specifies the hash algorithm used to generate TOTP (Time-based One-Time Passwords) passwords for this user. Three HMAC algorithms are supported, with SHA-1, SHA-256, and SHA-512 digests:

SB_MAC_ALGORITHM_HMAC_SHA1SHA1
SB_MAC_ALGORITHM_HMAC_SHA256SHA256
SB_MAC_ALGORITHM_HMAC_SHA512SHA512

IncomingSpeedLimit
int

Default Value: 0

Specifies the incoming speed limit for this user. The value of 0 (zero) means "no limitation".

OtpAlgorithm
int

Default Value: 0

The algorithm used to generate one-time passwords (OTP) for this user, either HOTP (Hash-based OTP) or TOTP (Time-based OTP). In the former case, a value of a dedicated counter is used to generate a unique password, while in the latter the password is generated on the basis of the current time value.

oaHmac0
oaTime1

OTPLen
int

Default Value: 0

Specifies the length of the user's OTP password.

OtpValue
int

Default Value: 0

The user's time interval (TOTP) or Counter (HOTP).

OutgoingSpeedLimit
int

Default Value: 0

Specifies the outgoing speed limit for this user. The value of 0 (zero) means "no limitation".

Password
String

Default Value: ""

The user's authentication password.

SharedSecret
byte[]

Default Value: ""

Contains the user's secret key, which is essentially a shared secret between the client and server.

Shared secrets can be used in TLS-driven protocols, as well as in OTP (where it is called a 'key secret') for generating one-time passwords on one side, and validate them on the other.

SSHKey
byte[]

Default Value: ""

Contains the user's SSH key.

Username
String

Default Value: ""

The registered name (login) of the user.

Constructors

public UserAccount();

Creates a new UserAccount object.

Config Settings (KMIPServer Class)

The class accepts one or more of the following configuration settings. Configuration settings are similar in functionality to properties, but they are rarely used. In order to avoid "polluting" the property namespace of the class, access to these internal properties is provided through the Config method.

KMIPServer Config Settings

AuthBasic:   Turns on/off the basic authentication.

When switched on, connecting clients can use the basic authentication.

AuthDigest:   Turns on/off the digest authentication.

When switched on, connecting clients can use the digest authentication.

DualStack:   Allows the use of ip4 and ip6 simultaneously.

This setting specifies a socket can use ip4 and ip6 simultaneously.

MajorProtocolVersion:   Major protocol version on the KMIP server.

Use this property to specify the major version of KMIP used on the server.

MinorProtocolVersion:   Minor protocol version on the KMIP server.

Use this property to specify the minor version of KMIP used on the server.

SSLMode:   Whether to establish a TLS-secured connection.

When SSLMode is True, the class establishes a TLS session and encrypts the data.

UseChunkedTransfer:   Whether to use chunked encoding of the data.

Set this property to true to generate chunked responses to the clients.

UseCompression:   Whether to use GZip compression.

Use this property to tell the class that it should use data compression when generating responses.

Base Config Settings

CheckKeyIntegrityBeforeUse:   Enables or disable private key integrity check before use.

This global property enables or disables private key material check before each signing operation. This slows down performance a bit, but prevents a selection of attacks on RSA keys where keys with unknown origins are used.

You can switch this property off to improve performance if your project only uses known, good private keys.

CookieCaching:   Specifies whether a cookie cache should be used for HTTP(S) transports.

Set this property to enable or disable cookies caching for the class.

Supported values are:

offNo caching (default)
localLocal caching
globalGlobal caching

Cookies:   Gets or sets local cookies for the class.

Use this property to get cookies from the internal cookie storage of the class and/or restore them back between application sessions.

DefDeriveKeyIterations:   Specifies the default key derivation algorithm iteration count.

This global property sets the default number of iterations for all supported key derivation algorithms. Note that you can provide the required number of iterations by using properties of the relevant key generation component; this global setting is used in scenarios where specific iteration count is not or cannot be provided.

EnableClientSideSSLFFDHE:   Enables or disables finite field DHE key exchange support in TLS clients.

This global property enables or disables support for finite field DHE key exchange methods in TLS clients. FF DHE is a slower algorithm if compared to EC DHE; enabling it may result in slower connections.

This setting only applies to sessions negotiated with TLS version 1.3.

GlobalCookies:   Gets or sets global cookies for all the HTTP transports.

Use this property to get cookies from the GLOBAL cookie storage or restore them back between application sessions. These cookies will be used by all the classes that have its CookieCaching property set to "global".

HttpUserAgent:   Specifies the user agent name to be used by all HTTP clients.

This global setting defines the User-Agent field of the HTTP request provides information about the software that initiates the request. This value will be used by all the HTTP clients including the ones used internally in other classes.

LogDestination:   Specifies the debug log destination.

Contains a comma-separated list of values that specifies where debug log should be dumped.

Supported values are:

fileFile
consoleConsole
systemlogSystem Log (supported for Android only)
debuggerDebugger (supported for VCL for Windows and .Net)

LogDetails:   Specifies the debug log details to dump.

Contains a comma-separated list of values that specifies which debug log details to dump.

Supported values are:

timeCurrent time
levelLevel
packagePackage name
moduleModule name
classClass name
methodMethod name
threadidThread Id
contenttypeContent type
contentContent
allAll details

LogFile:   Specifies the debug log filename.

Use this property to provide a path to the log file.

LogFilters:   Specifies the debug log filters.

Contains a comma-separated list of value pairs ("name:value") that describe filters.

Supported filter names are:

exclude-packageExclude a package specified in the value
exclude-moduleExclude a module specified in the value
exclude-classExclude a class specified in the value
exclude-methodExclude a method specified in the value
include-packageInclude a package specified in the value
include-moduleInclude a module specified in the value
include-classInclude a class specified in the value
include-methodInclude a method specified in the value

LogFlushMode:   Specifies the log flush mode.

Use this property to set the log flush mode. The following values are defined:

noneNo flush (caching only)
immediateImmediate flush (real-time logging)
maxcountFlush cached entries upon reaching LogMaxEventCount entries in the cache.

LogLevel:   Specifies the debug log level.

Use this property to provide the desired debug log level.

Supported values are:

noneNone (by default)
fatalSevere errors that cause premature termination.
errorOther runtime errors or unexpected conditions.
warningUse of deprecated APIs, poor use of API, 'almost' errors, other runtime situations that are undesirable or unexpected, but not necessarily "wrong".
infoInteresting runtime events (startup/shutdown).
debugDetailed information on flow of through the system.
traceMore detailed information.

LogMaxEventCount:   Specifies the maximum number of events to cache before further action is taken.

Use this property to specify the log event number threshold. This threshold may have different effects, depending on the rotation setting and/or the flush mode.

The default value of this setting is 100.

LogRotationMode:   Specifies the log rotation mode.

Use this property to set the log rotation mode. The following values are defined:

noneNo rotation
deleteolderDelete older entries from the cache upon reaching LogMaxEventCount
keepolderKeep older entries in the cache upon reaching LogMaxEventCount (newer entries are discarded)

MaxASN1BufferLength:   Specifies the maximal allowed length for ASN.1 primitive tag data.

This global property limits the maximal allowed length for ASN.1 tag data for non-content-carrying structures, such as certificates, CRLs, or timestamps. It does not affect structures that can carry content, such as CMS/CAdES messages. This is a security property aiming at preventing DoS attacks.

MaxASN1TreeDepth:   Specifies the maximal depth for processed ASN.1 trees.

This global property limits the maximal depth of ASN.1 trees that the component can handle without throwing an error. This is a security property aiming at preventing DoS attacks.

OCSPHashAlgorithm:   Specifies the hash algorithm to be used to identify certificates in OCSP requests.

This global setting defines the hash algorithm to use in OCSP requests during chain validation. Some OCSP responders can only use older algorithms, in which case setting this property to SHA1 may be helpful.

StaticDNS:   Specifies whether static DNS rules should be used.

Set this property to enable or disable static DNS rules for the class. Works only if UseOwnDNSResolver is set to true.

Supported values are:

noneNo static DNS rules (default)
localLocal static DNS rules
globalGlobal static DNS rules

StaticIPAddress[domain]:   Gets or sets an IP address for the specified domain name.

Use this property to get or set an IP address for the specified domain name in the internal (of the class) or global DNS rules storage depending on the StaticDNS value. The type of the IP address (IPv4 or IPv6) is determined automatically. If both addresses are available, they are devided by the | (pipe) character.

StaticIPAddresses:   Gets or sets all the static DNS rules.

Use this property to get static DNS rules from the current rules storage or restore them back between application sessions. If StaticDNS of the class is set to "local", the property returns/restores the rules from/to the internal storage of the class. If StaticDNS of the class is set to "global", the property returns/restores the rules from/to the GLOBAL storage. The rules list is returned and accepted in JSON format.

Tag:   Allows to store any custom data.

Use this config property to store any custom data.

TLSSessionGroup:   Specifies the group name of TLS sessions to be used for session resumption.

Use this property to limit the search of chached TLS sessions to the specified group. Sessions from other groups will be ignored. By default, all sessions are cached with an empty group name and available to all the classes.

TLSSessionLifetime:   Specifies lifetime in seconds of the cached TLS session.

Use this property to specify how much time the TLS session should be kept in the session cache. After this time, the session expires and will be automatically removed from the cache. Default value is 300 seconds (5 minutes).

TLSSessionPurgeInterval:   Specifies how often the session cache should remove the expired TLS sessions.

Use this property to specify the time interval of purging the expired TLS sessions from the session cache. Default value is 60 seconds (1 minute).

UseOwnDNSResolver:   Specifies whether the client components should use own DNS resolver.

Set this global property to false to force all the client components to use the DNS resolver provided by the target OS instead of using own one.

UseSharedSystemStorages:   Specifies whether the validation engine should use a global per-process copy of the system certificate stores.

Set this global property to false to make each validation run use its own copy of system certificate stores.

UseSystemOAEPAndPSS:   Enforces or disables the use of system-driven RSA OAEP and PSS computations.

This global setting defines who is responsible for performing RSA-OAEP and RSA-PSS computations where the private key is stored in a Windows system store and is exportable. If set to true, SBB will delegate the computations to Windows via a CryptoAPI call. Otherwise, it will export the key material and perform the computations using its own OAEP/PSS implementation.

This setting only applies to certificates originating from a Windows system store.

UseSystemRandom:   Enables or disables the use of the OS PRNG.

Use this global property to enable or disable the use of operating system-driven pseudorandom number generation.

Trappable Errors (KMIPServer Class)

KMIPServer Errors

1048577   Invalid parameter (SB_ERROR_INVALID_PARAMETER)
1048578   Invalid configuration (SB_ERROR_INVALID_SETUP)
1048579   Invalid state (SB_ERROR_INVALID_STATE)
1048580   Invalid value (SB_ERROR_INVALID_VALUE)
1048581   Private key not found (SB_ERROR_NO_PRIVATE_KEY)
1048582   Cancelled by the user (SB_ERROR_CANCELLED_BY_USER)
1048583   The file was not found (SB_ERROR_NO_SUCH_FILE)
1048584   Unsupported feature or operation (SB_ERROR_UNSUPPORTED_FEATURE)
1048585   General error (SB_ERROR_GENERAL_ERROR)
20971521   KMIP request failed (SB_ERROR_KMIP_REQUEST_FAILED)
20971522   The input file does not exist (SB_ERROR_KMIP_INPUTFILE_NOT_EXISTS)
20971523   Unsupported key algorithm (SB_ERROR_KMIP_UNSUPPORTED_KEY_ALGORITHM)
20971524   Invalid key (SB_ERROR_KMIP_INVALID_KEY)