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#ifndef AWS_CAL_SYMMETRIC_CIPHER_H #define AWS_CAL_SYMMETRIC_CIPHER_H /** * Copyright Amazon.com, Inc. or its affiliates. All Rights Reserved. * SPDX-License-Identifier: Apache-2.0. */ #include #include AWS_PUSH_SANE_WARNING_LEVEL #define AWS_AES_256_CIPHER_BLOCK_SIZE 16 #define AWS_AES_256_KEY_BIT_LEN 256 #define AWS_AES_256_KEY_BYTE_LEN (AWS_AES_256_KEY_BIT_LEN / 8) struct aws_symmetric_cipher; typedef struct aws_symmetric_cipher *(aws_aes_cbc_256_new_fn)(struct aws_allocator *allocator, const struct aws_byte_cursor *key, const struct aws_byte_cursor *iv); typedef struct aws_symmetric_cipher *(aws_aes_ctr_256_new_fn)(struct aws_allocator *allocator, const struct aws_byte_cursor *key, const struct aws_byte_cursor *iv); typedef struct aws_symmetric_cipher *(aws_aes_gcm_256_new_fn)(struct aws_allocator *allocator, const struct aws_byte_cursor *key, const struct aws_byte_cursor *iv, const struct aws_byte_cursor *aad); typedef struct aws_symmetric_cipher *(aws_aes_keywrap_256_new_fn)(struct aws_allocator *allocator, const struct aws_byte_cursor *key); enum aws_symmetric_cipher_state { AWS_SYMMETRIC_CIPHER_READY, AWS_SYMMETRIC_CIPHER_FINALIZED, AWS_SYMMETRIC_CIPHER_ERROR, }; AWS_EXTERN_C_BEGIN /** * Creates an instance of AES CBC with 256-bit key. * If key and iv are NULL, they will be generated internally. * You can get the generated key and iv back by calling: * * aws_symmetric_cipher_get_key() and * aws_symmetric_cipher_get_initialization_vector() * * respectively. * * If they are set, that key and iv will be copied internally and used by the cipher. * * Returns NULL on failure. You can check aws_last_error() to get the error code indicating the failure cause. */ AWS_CAL_API struct aws_symmetric_cipher *aws_aes_cbc_256_new( struct aws_allocator *allocator, const struct aws_byte_cursor *key, const struct aws_byte_cursor *iv); /** * Creates an instance of AES CTR with 256-bit key. * If key and iv are NULL, they will be generated internally. * You can get the generated key and iv back by calling: * * aws_symmetric_cipher_get_key() and * aws_symmetric_cipher_get_initialization_vector() * * respectively. * * If they are set, that key and iv will be copied internally and used by the cipher. * * Returns NULL on failure. You can check aws_last_error() to get the error code indicating the failure cause. */ AWS_CAL_API struct aws_symmetric_cipher *aws_aes_ctr_256_new( struct aws_allocator *allocator, const struct aws_byte_cursor *key, const struct aws_byte_cursor *iv); /** * Creates an instance of AES GCM with 256-bit key. * If key, iv are NULL, they will be generated internally. * You can get the generated key and iv back by calling: * * aws_symmetric_cipher_get_key() and * aws_symmetric_cipher_get_initialization_vector() * * respectively. * * If aad is set it will be copied and applied to the cipher. * * If they are set, that key and iv will be copied internally and used by the cipher. * * For decryption purposes tag can be provided via aws_symmetric_cipher_set_tag method. * Note: for decrypt operations, tag must be provided before first decrypt is called. * (this is a windows bcrypt limitations, but for consistency sake same limitation is extended to other platforms) * Tag generated during encryption can be retrieved using aws_symmetric_cipher_get_tag method * after finalize is called. * * Returns NULL on failure. You can check aws_last_error() to get the error code indicating the failure cause. */ AWS_CAL_API struct aws_symmetric_cipher *aws_aes_gcm_256_new( struct aws_allocator *allocator, const struct aws_byte_cursor *key, const struct aws_byte_cursor *iv, const struct aws_byte_cursor *aad); /** * Creates an instance of AES Keywrap with 256-bit key. * If key is NULL, it will be generated internally. * You can get the generated key back by calling: * * aws_symmetric_cipher_get_key() * * If key is set, that key will be copied internally and used by the cipher. * * Returns NULL on failure. You can check aws_last_error() to get the error code indicating the failure cause. */ AWS_CAL_API struct aws_symmetric_cipher *aws_aes_keywrap_256_new( struct aws_allocator *allocator, const struct aws_byte_cursor *key); /** * Cleans up internal resources and state for cipher and then deallocates it. */ AWS_CAL_API void aws_symmetric_cipher_destroy(struct aws_symmetric_cipher *cipher); /** * Encrypts the value in to_encrypt and writes the encrypted data into out. * If out is dynamic it will be expanded. If it is not, and out is not large enough to handle * the encrypted output, the call will fail. If you're trying to optimize to use a stack based array * or something, make sure it's at least as large as the size of to_encrypt + an extra BLOCK to account for * padding etc... * * returns AWS_OP_SUCCESS on success. Call aws_last_error() to determine the failure cause if it returns * AWS_OP_ERR; */ AWS_CAL_API int aws_symmetric_cipher_encrypt( struct aws_symmetric_cipher *cipher, struct aws_byte_cursor to_encrypt, struct aws_byte_buf *out); /** * Decrypts the value in to_decrypt and writes the decrypted data into out. * If out is dynamic it will be expanded. If it is not, and out is not large enough to handle * the decrypted output, the call will fail. If you're trying to optimize to use a stack based array * or something, make sure it's at least as large as the size of to_decrypt + an extra BLOCK to account for * padding etc... * * returns AWS_OP_SUCCESS on success. Call aws_last_error() to determine the failure cause if it returns * AWS_OP_ERR; */ AWS_CAL_API int aws_symmetric_cipher_decrypt( struct aws_symmetric_cipher *cipher, struct aws_byte_cursor to_decrypt, struct aws_byte_buf *out); /** * Encrypts any remaining data that was reserved for final padding, loads GMACs etc... and if there is any * writes any remaining encrypted data to out. If out is dynamic it will be expanded. If it is not, and * out is not large enough to handle the decrypted output, the call will fail. If you're trying to optimize * to use a stack based array or something, make sure it's at least as large as the size of 2 BLOCKs to account for * padding etc... * * After invoking this function, you MUST call aws_symmetric_cipher_reset() before invoking any encrypt/decrypt * operations on this cipher again. * * returns AWS_OP_SUCCESS on success. Call aws_last_error() to determine the failure cause if it returns * AWS_OP_ERR; */ AWS_CAL_API int aws_symmetric_cipher_finalize_encryption(struct aws_symmetric_cipher *cipher, struct aws_byte_buf *out); /** * Decrypts any remaining data that was reserved for final padding, loads GMACs etc... and if there is any * writes any remaining decrypted data to out. If out is dynamic it will be expanded. If it is not, and * out is not large enough to handle the decrypted output, the call will fail. If you're trying to optimize * to use a stack based array or something, make sure it's at least as large as the size of 2 BLOCKs to account for * padding etc... * * After invoking this function, you MUST call aws_symmetric_cipher_reset() before invoking any encrypt/decrypt * operations on this cipher again. * * returns AWS_OP_SUCCESS on success. Call aws_last_error() to determine the failure cause if it returns * AWS_OP_ERR; */ AWS_CAL_API int aws_symmetric_cipher_finalize_decryption(struct aws_symmetric_cipher *cipher, struct aws_byte_buf *out); /** * Resets the cipher state for starting a new encrypt or decrypt operation. Note encrypt/decrypt cannot be mixed on the * same cipher without a call to reset in between them. However, this leaves the key, iv etc... materials setup for * immediate reuse. * Note: GCM tag is not preserved between operations. If you intend to do encrypt followed directly by decrypt, make * sure to make a copy of tag before reseting the cipher and pass that copy for decryption. * * Warning: In most cases it's a really bad idea to reset a cipher and perform another operation using that cipher. * Key and IV should not be reused for different operations. Instead of reseting the cipher, destroy the cipher * and create new one with a new key/iv pair. Use reset at your own risk, and only after careful consideration. * * returns AWS_OP_SUCCESS on success. Call aws_last_error() to determine the failure cause if it returns * AWS_OP_ERR; */ AWS_CAL_API int aws_symmetric_cipher_reset(struct aws_symmetric_cipher *cipher); /** * Gets the current GMAC tag. If not AES GCM, this function will just return an empty cursor. * The memory in this cursor is unsafe as it refers to the internal buffer. * This was done because the use case doesn't require fetching these during an * encryption or decryption operation and it dramatically simplifies the API. * Only use this function between other calls to this API as any function call can alter the value of this tag. * * If you need to access it in a different pattern, copy the values to your own buffer first. */ AWS_CAL_API struct aws_byte_cursor aws_symmetric_cipher_get_tag(const struct aws_symmetric_cipher *cipher); /** * Sets the GMAC tag on the cipher. Does nothing for ciphers that do not support tag. */ AWS_CAL_API void aws_symmetric_cipher_set_tag(struct aws_symmetric_cipher *cipher, struct aws_byte_cursor tag); /** * Gets the original initialization vector as a cursor. * The memory in this cursor is unsafe as it refers to the internal buffer. * This was done because the use case doesn't require fetching these during an * encryption or decryption operation and it dramatically simplifies the API. * * Unlike some other fields, this value does not change after the inital construction of the cipher. * * For some algorithms, such as AES Keywrap, this will return an empty cursor. */ AWS_CAL_API struct aws_byte_cursor aws_symmetric_cipher_get_initialization_vector( const struct aws_symmetric_cipher *cipher); /** * Gets the original key. * * The memory in this cursor is unsafe as it refers to the internal buffer. * This was done because the use case doesn't require fetching these during an * encryption or decryption operation and it dramatically simplifies the API. * * Unlike some other fields, this value does not change after the inital construction of the cipher. */ AWS_CAL_API struct aws_byte_cursor aws_symmetric_cipher_get_key(const struct aws_symmetric_cipher *cipher); /** * Returns true if the state of the cipher is good, and otherwise returns false. * Most operations, other than aws_symmetric_cipher_reset() will fail if this function is returning false. * aws_symmetric_cipher_reset() will reset the state to a good state if possible. */ AWS_CAL_API bool aws_symmetric_cipher_is_good(const struct aws_symmetric_cipher *cipher); /** * Retuns the current state of the cipher. Ther state of the cipher can be ready for use, finalized, or has encountered * an error. if the cipher is in a finished or error state, it must be reset before further use. */ AWS_CAL_API enum aws_symmetric_cipher_state aws_symmetric_cipher_get_state(const struct aws_symmetric_cipher *cipher); AWS_EXTERN_C_END AWS_POP_SANE_WARNING_LEVEL #endif /* AWS_CAL_SYMMETRIC_CIPHER_H */