Uses of Class java.security.InvalidKeyException

Constructs a new instance of SignedObject from a Serializable object.

Initializes this instance with the private key for signing purposes.

Initializes this instance with the private key and source of randomness for signing purposes.

Initializes this instance with the public key for verification purposes.

Translates the key from an unknown or untrusted provider into a key for this key factory.

Initializes this class with the private key for signing purposes.

Initializes this class with the private key and source of randomness for signing purposes.

Initializes this instance with the public key for verification purposes.

Verify a signature with a designated Certificate.

Translates the key from an unknown or untrusted provider into a key from this key factory.

Verifies the encapsulated digital signature by checking that it was generated by the owner of a designated public key.

Translates the key from an unknown or untrusted provider into a key for this key factory.

Initialises the algorithm with designated attributes.

Initialises the algorithm with designated attributes.

Initialize (or re-initialize) this instance.

Initialize (or re-initialize) this instance.

Translate a secret key into a different representation.

Verifies that this Certificate was properly signed with the PublicKey that corresponds to its private key.

Verifies that this CRL was properly signed with the PublicKey that corresponds to its private key.

Verifies that this Certificate was properly signed with the PublicKey that corresponds to its private key and uses the signature engine provided by the provider.

Verifies that this CRL was properly signed with the PublicKey that corresponds to its private key and uses the signature engine provided by the provider.

Initializes this instance with the designated algorithm specific attributes.

Initializes this instance with the designated algorithm specific attributes.

Do a phase in the key agreement.

Do a phase in the key agreement.

Generate the shared secret and return it as a SecretKey.

Return the length of the given key in bits.

For compatibility this method is not declared abstract, and the default implementation will throw an UnsupportedOperationException.

Initializes this cipher with an operation mode, key, parameters, and source of randomness.

Initializes this cipher with an operation mode, key, and source of randomness.

Initializes this cipher with an operation mode, key, parameters, and source of randomness.

Initialize this mechanism with a key.

Initialize this mechanism with a key and parameters.

Initialize this key agreement with a key and source of randomness.

Initialize this mechanism with a key and parameters.

Initialize (or re-initialize) this instance.

Initialize this key agreement with a key, parameters, and source of randomness.

Translate a secret key into a different representation.

Unwraps a previously-wrapped key.

For compatibility this method is not declared abstract, and the default implementation will throw an UnsupportedOperationException.

Wrap a key.

For compatibility this method is not declared abstract, and the default implementation will throw an UnsupportedOperationException.

Generate the shared secret and return it as an appropriate SecretKey.

Unseal and deserialize this sealed object with the specified key.

Unseal and deserialize this sealed object with the specified key, using a cipher from the named provider.

Initialize this cipher with the supplied key.

The cipher will be initialized for encryption, decryption, key wrapping, or key unwrapping, depending upon whether the opmode argument is ENCRYPT_MODE, DECRYPT_MODE, WRAP_MODE, or UNWRAP_MODE, respectively.

If this cipher requires any random bytes (for example for an initilization vector) than the SecureRandom with the highest priority is used as the source of these bytes.

A call to any of the init methods overrides the state of the instance, and is equivalent to creating a new instance and calling its init method.

Initialize this cipher with the supplied key and parameters.

The cipher will be initialized for encryption, decryption, key wrapping, or key unwrapping, depending upon whether the opmode argument is ENCRYPT_MODE, DECRYPT_MODE, WRAP_MODE, or UNWRAP_MODE, respectively.

If this cipher requires any random bytes (for example for an initilization vector) then the SecureRandom with the highest priority is used as the source of these bytes.

A call to any of the init methods overrides the state of the instance, and is equivalent to creating a new instance and calling its init method.

Initialize this cipher with the supplied key, parameters, and source of randomness.

The cipher will be initialized for encryption, decryption, key wrapping, or key unwrapping, depending upon whether the opmode argument is ENCRYPT_MODE, DECRYPT_MODE, WRAP_MODE, or UNWRAP_MODE, respectively.

A call to any of the init methods overrides the state of the instance, and is equivalent to creating a new instance and calling its init method.

Initialize this cipher with the supplied key and source of randomness.

The cipher will be initialized for encryption, decryption, key wrapping, or key unwrapping, depending upon whether the opmode argument is ENCRYPT_MODE, DECRYPT_MODE, WRAP_MODE, or UNWRAP_MODE, respectively.

A call to any of the init methods overrides the state of the instance, and is equivalent to creating a new instance and calling its init method.

Initialize this cipher with the supplied key and parameters.

The cipher will be initialized for encryption, decryption, key wrapping, or key unwrapping, depending upon whether the opmode argument is ENCRYPT_MODE, DECRYPT_MODE, WRAP_MODE, or UNWRAP_MODE, respectively.

If this cipher requires any random bytes (for example for an initilization vector) then the SecureRandom with the highest priority is used as the source of these bytes.

A call to any of the init methods overrides the state of the instance, and is equivalent to creating a new instance and calling its init method.

Initialize this cipher with the supplied key, parameters, and source of randomness.

The cipher will be initialized for encryption, decryption, key wrapping, or key unwrapping, depending upon whether the opmode argument is ENCRYPT_MODE, DECRYPT_MODE, WRAP_MODE, or UNWRAP_MODE, respectively.

A call to any of the init methods overrides the state of the instance, and is equivalent to creating a new instance and calling its init method.

Initialize this cipher with the public key from the given certificate.

The cipher will be initialized for encryption, decryption, key wrapping, or key unwrapping, depending upon whether the opmode argument is ENCRYPT_MODE, DECRYPT_MODE, WRAP_MODE, or UNWRAP_MODE, respectively.

As per the Java 1.4 specification, if cert is an instance of an X509Certificate and its key usage extension field is incompatible with opmode then an InvalidKeyException is thrown.

If this cipher requires any random bytes (for example for an initilization vector) than the SecureRandom with the highest priority is used as the source of these bytes.

A call to any of the init methods overrides the state of the instance, and is equivalent to creating a new instance and calling its init method.

Initialize this cipher with the public key from the given certificate and the specified source of randomness.

The cipher will be initialized for encryption, decryption, key wrapping, or key unwrapping, depending upon whether the opmode argument is ENCRYPT_MODE, DECRYPT_MODE, WRAP_MODE, or UNWRAP_MODE, respectively.

As per the Java 1.4 specification, if cert is an instance of an X509Certificate and its key usage extension field is incompatible with opmode then an InvalidKeyException is thrown.

If this cipher requires any random bytes (for example for an initilization vector) than the SecureRandom with the highest priority is used as the source of these bytes.

A call to any of the init methods overrides the state of the instance, and is equivalent to creating a new instance and calling its init method.

Initialize this key agreement with a key.

Initialize this MAC with a key and no parameters.

Initialize this key agreement with a key and a source of randomness.

Initialize this key agreement with a key and parameters.

Initialize this MAC with a key and parameters.

Initialize this key agreement with a key, parameters, and source of randomness.

Translate a secret key into another form.

Unwrap a previously-wrapped key.

Wrap a key.

Initializes this cipher with an operation mode, key, parameters, and source of randomness.

Initializes this cipher with an operation mode, key, and source of randomness.

Initializes this cipher with an operation mode, key, parameters, and source of randomness.

Initialises the algorithm with designated attributes.

Initialises the algorithm with designated attributes.

Initialises the algorithm with designated attributes.

Initialising a UMAC instance consists of defining values for the following parameters:

1. Key Material: as the value of the attribute entry keyed by IMac.MAC_KEY_MATERIAL.

Checked exception thrown to indicate that a weak key has been generated and or specified instead of a valid non-weak value.

Initialises the algorithm with designated attributes.

Initialises the algorithm with designated attributes.

Expands a user-supplied key material into a session key for a designated block size.

Expands a user-supplied key material into a session key for a designated block size.

Expands a user-supplied key material into a session key for a designated block size.

Expands a user-supplied key material into a session key for a designated block size.

Expands a user-supplied key material into a session key for a designated block size.

Expands a user-supplied key material into a session key for a designated block size.

Computes the mac over this envelope's data.

Verifies this entry's payload.

Create a new DES key spec, copying the first 8 bytes from the byte array.

Create a new DES key spec, starting at offset in the byte array.

Create a new DES-EDE key spec, copying the first 24 bytes from the byte array.

Create a new DES-EDE key spec, starting at offset in the byte array.

Returns whether or not the given key is parity adjusted; i.e. every byte in the key has an odd number of "1" bits.

Returns whether or not the given key is parity adjusted; i.e. every byte in the key has an odd number of "1" bits.

Tests if the bytes between [offset, offset+7] constitute a weak or semi-weak DES key.

Initialises the chain for operation with specific characteristics.

Initialises the stage for operation with specific characteristics.

Verifies the signature of this certificate.

Verifies the signature of this certificate, using the specified security provider.