25269902277

Committed 02 May 2026 12:07PM UTC coverage: 89.376% (-0.003%) from 89.379%

Build # 25269902277

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push

github

Committed by

web-flow

Commit Message

Merge pull request #5561 from randombit/jack/add-missing-verify-end

Add some missing calls to BER_Decoder::verify_end

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107164 of 119903 relevant lines covered (89.38%)

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88.57

/src/lib/pubkey/pkcs8.cpp

/*
* PKCS #8
* (C) 1999-2010,2014,2018 Jack Lloyd
*
* Botan is released under the Simplified BSD License (see license.txt)
*/

#include <botan/pkcs8.h>

#include <botan/asn1_obj.h>
#include <botan/assert.h>
#include <botan/ber_dec.h>
#include <botan/der_enc.h>
#include <botan/pem.h>
#include <botan/pk_algs.h>
#include <botan/rng.h>
#include <botan/internal/fmt.h>
#include <botan/internal/scan_name.h>

#if defined(BOTAN_HAS_PKCS5_PBES2)
   #include <botan/internal/pbes2.h>
#endif

namespace Botan::PKCS8 {

namespace {

/*
* Get info from an EncryptedPrivateKeyInfo
*/
secure_vector<uint8_t> PKCS8_extract(DataSource& source, AlgorithmIdentifier& pbe_alg_id) {
   secure_vector<uint8_t> key_data;

   BER_Decoder(source, BER_Decoder::Limits::DER())
      .start_sequence()
      .decode(pbe_alg_id)
      .decode(key_data, ASN1_Type::OctetString)
      .verify_end();

   return key_data;
}

/*
* PEM decode and/or decrypt a private key
*/
secure_vector<uint8_t> PKCS8_decode(DataSource& source,
                                    const std::function<std::string()>& get_passphrase,
                                    AlgorithmIdentifier& pk_alg_id,
                                    bool is_encrypted) {
   AlgorithmIdentifier pbe_alg_id;
   secure_vector<uint8_t> key_data;
   secure_vector<uint8_t> key;

   try {
      if(ASN1::maybe_BER(source) && !PEM_Code::matches(source)) {
         if(is_encrypted) {
            key_data = PKCS8_extract(source, pbe_alg_id);
         } else {
            // todo read more efficiently
            while(auto b = source.read_byte()) {
               key_data.push_back(*b);
            }
         }
      } else {
         std::string label;
         key_data = PEM_Code::decode(source, label);

         // todo remove autodetect for pem as well?
         if(label == "PRIVATE KEY") {
            is_encrypted = false;
         } else if(label == "ENCRYPTED PRIVATE KEY") {
            DataSource_Memory key_source(key_data);
            key_data = PKCS8_extract(key_source, pbe_alg_id);
         } else {
            throw PKCS8_Exception(fmt("Unknown PEM label '{}'", label));
         }
      }

      if(key_data.empty()) {
         throw PKCS8_Exception("No key data found");
      }
   } catch(Decoding_Error& e) {
      throw Decoding_Error("PKCS #8 private key decoding", e);
   }

   try {
      if(is_encrypted) {
         if(pbe_alg_id.oid().to_formatted_string() != "PBE-PKCS5v20") {
            throw PKCS8_Exception(fmt("Unknown PBE type {}", pbe_alg_id.oid()));
         }

#if defined(BOTAN_HAS_PKCS5_PBES2)
         key = pbes2_decrypt(key_data, get_passphrase(), pbe_alg_id.parameters());
#else
         BOTAN_UNUSED(get_passphrase);
         throw Decoding_Error("Private key is encrypted but PBES2 was disabled in build");
#endif
      } else {
         key = key_data;
      }

      BER_Decoder(key, BER_Decoder::Limits::DER())
         .start_sequence()
         .decode_and_check<size_t>(0, "Unknown PKCS #8 version number")
         .decode(pk_alg_id)
         .decode(key, ASN1_Type::OctetString)
         .discard_remaining()
         .end_cons()
         .verify_end();
   } catch(std::exception& e) {
      throw Decoding_Error("PKCS #8 private key decoding", e);
   }
   return key;
}

}  // namespace

/*
* PEM encode a PKCS #8 private key, unencrypted
*/
std::string PEM_encode(const Private_Key& key) {
   return PEM_Code::encode(key.private_key_info(), "PRIVATE KEY");
}

#if defined(BOTAN_HAS_PKCS5_PBES2)

namespace {

std::pair<std::string, std::string> choose_pbe_params(std::string_view pbe_algo, std::string_view key_algo) {
   if(pbe_algo.empty()) {
      /*
      * For algorithms where we are using a non-RFC format anyway, default to
      * SIV or GCM. For others (RSA, ECDSA, ...) default to something widely
      * compatible.
      */
      const bool nonstandard_pk = (key_algo == "McEliece" || key_algo == "XMSS");

      if(nonstandard_pk) {
   #if defined(BOTAN_HAS_AEAD_SIV) && defined(BOTAN_HAS_SHA2_64)
         return std::make_pair("AES-256/SIV", "SHA-512");
   #elif defined(BOTAN_HAS_AEAD_GCM) && defined(BOTAN_HAS_SHA2_64)
         return std::make_pair("AES-256/GCM", "SHA-512");
   #endif
      }

      // Default is something compatible with everyone else
      return std::make_pair("AES-256/CBC", "SHA-256");
   }

   const SCAN_Name request(pbe_algo);

   if(request.arg_count() != 2 || (request.algo_name() != "PBE-PKCS5v20" && request.algo_name() != "PBES2")) {
      throw Invalid_Argument(fmt("Unsupported PBE '{}'", pbe_algo));
   }

   return std::make_pair(request.arg(0), request.arg(1));
}

}  // namespace

#endif

/*
* BER encode a PKCS #8 private key, encrypted
*/
std::vector<uint8_t> BER_encode(const Private_Key& key,
                                RandomNumberGenerator& rng,
                                std::string_view pass,
                                std::chrono::milliseconds msec,
                                std::string_view pbe_algo) {
#if defined(BOTAN_HAS_PKCS5_PBES2)
   const auto pbe_params = choose_pbe_params(pbe_algo, key.algo_name());

   const std::pair<AlgorithmIdentifier, std::vector<uint8_t>> pbe_info =
      pbes2_encrypt_msec(PKCS8::BER_encode(key), pass, msec, nullptr, pbe_params.first, pbe_params.second, rng);

   std::vector<uint8_t> output;
   DER_Encoder der(output);
   der.start_sequence().encode(pbe_info.first).encode(pbe_info.second, ASN1_Type::OctetString).end_cons();

   return output;
#else
   BOTAN_UNUSED(key, rng, pass, msec, pbe_algo);
   throw Encoding_Error("PKCS8::BER_encode cannot encrypt because PBES2 was disabled in build");
#endif
}

/*
* PEM encode a PKCS #8 private key, encrypted
*/
std::string PEM_encode(const Private_Key& key,
                       RandomNumberGenerator& rng,
                       std::string_view pass,
                       std::chrono::milliseconds msec,
                       std::string_view pbe_algo) {
   if(pass.empty()) {
      return PEM_encode(key);
   }

   return PEM_Code::encode(PKCS8::BER_encode(key, rng, pass, msec, pbe_algo), "ENCRYPTED PRIVATE KEY");
}

/*
* BER encode a PKCS #8 private key, encrypted
*/
std::vector<uint8_t> BER_encode_encrypted_pbkdf_iter(const Private_Key& key,
                                                     RandomNumberGenerator& rng,
                                                     std::string_view pass,
                                                     size_t pbkdf_iterations,
                                                     std::string_view cipher,
                                                     std::string_view pbkdf_hash) {
#if defined(BOTAN_HAS_PKCS5_PBES2)
   const std::pair<AlgorithmIdentifier, std::vector<uint8_t>> pbe_info =
      pbes2_encrypt_iter(key.private_key_info(),
                         pass,
                         pbkdf_iterations,
                         cipher.empty() ? "AES-256/CBC" : cipher,
                         pbkdf_hash.empty() ? "SHA-256" : pbkdf_hash,
                         rng);

   std::vector<uint8_t> output;
   DER_Encoder der(output);
   der.start_sequence().encode(pbe_info.first).encode(pbe_info.second, ASN1_Type::OctetString).end_cons();

   return output;

#else
   BOTAN_UNUSED(key, rng, pass, pbkdf_iterations, cipher, pbkdf_hash);
   throw Encoding_Error("PKCS8::BER_encode_encrypted_pbkdf_iter cannot encrypt because PBES2 disabled in build");
#endif
}

/*
* PEM encode a PKCS #8 private key, encrypted
*/
std::string PEM_encode_encrypted_pbkdf_iter(const Private_Key& key,
                                            RandomNumberGenerator& rng,
                                            std::string_view pass,
                                            size_t pbkdf_iterations,
                                            std::string_view cipher,
                                            std::string_view pbkdf_hash) {
   return PEM_Code::encode(PKCS8::BER_encode_encrypted_pbkdf_iter(key, rng, pass, pbkdf_iterations, cipher, pbkdf_hash),
                           "ENCRYPTED PRIVATE KEY");
}

/*
* BER encode a PKCS #8 private key, encrypted
*/
std::vector<uint8_t> BER_encode_encrypted_pbkdf_msec(const Private_Key& key,
                                                     RandomNumberGenerator& rng,
                                                     std::string_view pass,
                                                     std::chrono::milliseconds pbkdf_msec,
                                                     size_t* pbkdf_iterations,
                                                     std::string_view cipher,
                                                     std::string_view pbkdf_hash) {
#if defined(BOTAN_HAS_PKCS5_PBES2)
   const std::pair<AlgorithmIdentifier, std::vector<uint8_t>> pbe_info =
      pbes2_encrypt_msec(key.private_key_info(),
                         pass,
                         pbkdf_msec,
                         pbkdf_iterations,
                         cipher.empty() ? "AES-256/CBC" : cipher,
                         pbkdf_hash.empty() ? "SHA-256" : pbkdf_hash,
                         rng);

   std::vector<uint8_t> output;
   DER_Encoder(output)
      .start_sequence()
      .encode(pbe_info.first)
      .encode(pbe_info.second, ASN1_Type::OctetString)
      .end_cons();

   return output;
#else
   BOTAN_UNUSED(key, rng, pass, pbkdf_msec, pbkdf_iterations, cipher, pbkdf_hash);
   throw Encoding_Error("BER_encode_encrypted_pbkdf_msec cannot encrypt because PBES2 disabled in build");
#endif
}

/*
* PEM encode a PKCS #8 private key, encrypted
*/
std::string PEM_encode_encrypted_pbkdf_msec(const Private_Key& key,
                                            RandomNumberGenerator& rng,
                                            std::string_view pass,
                                            std::chrono::milliseconds pbkdf_msec,
                                            size_t* pbkdf_iterations,
                                            std::string_view cipher,
                                            std::string_view pbkdf_hash) {
   return PEM_Code::encode(
      PKCS8::BER_encode_encrypted_pbkdf_msec(key, rng, pass, pbkdf_msec, pbkdf_iterations, cipher, pbkdf_hash),
      "ENCRYPTED PRIVATE KEY");
}

namespace {

/*
* Extract a private key (encrypted/unencrypted) and return it
*/
std::unique_ptr<Private_Key> load_key(DataSource& source,
                                      const std::function<std::string()>& get_pass,
                                      bool is_encrypted) {
   AlgorithmIdentifier alg_id;
   secure_vector<uint8_t> pkcs8_key = PKCS8_decode(source, get_pass, alg_id, is_encrypted);

   const std::string alg_name = alg_id.oid().human_name_or_empty();
   if(alg_name.empty()) {
      throw PKCS8_Exception(fmt("Unknown algorithm OID {}", alg_id.oid()));
   }

   return load_private_key(alg_id, pkcs8_key);
}

}  // namespace

/*
* Extract an encrypted private key and return it
*/
std::unique_ptr<Private_Key> load_key(DataSource& source, const std::function<std::string()>& get_pass) {
   return load_key(source, get_pass, true);
}

std::unique_ptr<Private_Key> load_key(std::span<const uint8_t> source,
                                      const std::function<std::string()>& get_passphrase) {
   Botan::DataSource_Memory ds(source);
   return load_key(ds, get_passphrase);
}

std::unique_ptr<Private_Key> load_key(std::span<const uint8_t> source, std::string_view pass) {
   Botan::DataSource_Memory ds(source);
   return load_key(ds, pass);
}

std::unique_ptr<Private_Key> load_key(std::span<const uint8_t> source) {
   Botan::DataSource_Memory ds(source);
   return load_key(ds);
}

/*
* Extract an encrypted private key and return it
*/
std::unique_ptr<Private_Key> load_key(DataSource& source, std::string_view pass) {
   return load_key(
      source, [pass]() { return std::string(pass); }, true);
}

/*
* Extract an unencrypted private key and return it
*/
std::unique_ptr<Private_Key> load_key(DataSource& source) {
   auto fail_fn = []() -> std::string {
      throw PKCS8_Exception("Internal error: Attempt to read password for unencrypted key");
   };

   return load_key(source, fail_fn, false);
}

}  // namespace Botan::PKCS8

1	/*
2	* PKCS #8
3	* (C) 1999-2010,2014,2018 Jack Lloyd
4	*
5	* Botan is released under the Simplified BSD License (see license.txt)
6	*/
7
8	#include <botan/pkcs8.h>
9
10	#include <botan/asn1_obj.h>
11	#include <botan/assert.h>
12	#include <botan/ber_dec.h>
13	#include <botan/der_enc.h>
14	#include <botan/pem.h>
15	#include <botan/pk_algs.h>
16	#include <botan/rng.h>
17	#include <botan/internal/fmt.h>
18	#include <botan/internal/scan_name.h>
19
20	#if defined(BOTAN_HAS_PKCS5_PBES2)
21	#include <botan/internal/pbes2.h>
22	#endif
23
24	namespace Botan::PKCS8 {
25
26	namespace {
27
28	/*
29	* Get info from an EncryptedPrivateKeyInfo
30	*/
31	secure_vector<uint8_t> PKCS8_extract(DataSource& source, AlgorithmIdentifier& pbe_alg_id) {	501✔
32	secure_vector<uint8_t> key_data;	501✔
33
34	BER_Decoder(source, BER_Decoder::Limits::DER())	1,002✔
35	.start_sequence()	501✔
36	.decode(pbe_alg_id)	501✔
37	.decode(key_data, ASN1_Type::OctetString)	501✔
38	.verify_end();	501✔
39
40	return key_data;	501✔
41	}	×
42
43	/*
44	* PEM decode and/or decrypt a private key
45	*/
46	secure_vector<uint8_t> PKCS8_decode(DataSource& source,	4,947✔
47	const std::function<std::string()>& get_passphrase,
48	AlgorithmIdentifier& pk_alg_id,
49	bool is_encrypted) {
50	AlgorithmIdentifier pbe_alg_id;	4,947✔
51	secure_vector<uint8_t> key_data;	4,947✔
52	secure_vector<uint8_t> key;	4,947✔
53
54	try {	4,947✔
55	if(ASN1::maybe_BER(source) && !PEM_Code::matches(source)) {	4,947✔
56	if(is_encrypted) {	2,173✔
57	key_data = PKCS8_extract(source, pbe_alg_id);	510✔
58	} else {
59	// todo read more efficiently
60	while(auto b = source.read_byte()) {	1,205,860✔
61	key_data.push_back(*b);	1,203,942✔
62	}	1,203,942✔
63	}
64	} else {
65	std::string label;	2,773✔
66	key_data = PEM_Code::decode(source, label);	5,484✔
67
68	// todo remove autodetect for pem as well?
69	if(label == "PRIVATE KEY") {	2,711✔
70	is_encrypted = false;
71	} else if(label == "ENCRYPTED PRIVATE KEY") {	274✔
72	DataSource_Memory key_source(key_data);	336✔
73	key_data = PKCS8_extract(key_source, pbe_alg_id);	492✔
74	} else {	246✔
75	throw PKCS8_Exception(fmt("Unknown PEM label '{}'", label));	28✔
76	}
77	}	2,773✔
78
79	if(key_data.empty()) {	4,856✔
80	throw PKCS8_Exception("No key data found");	×
81	}
82	} catch(Decoding_Error& e) {	91✔
83	throw Decoding_Error("PKCS #8 private key decoding", e);	83✔
84	}	83✔
85
86	try {	4,856✔
87	if(is_encrypted) {	4,856✔
88	if(pbe_alg_id.oid().to_formatted_string() != "PBE-PKCS5v20") {	501✔
89	throw PKCS8_Exception(fmt("Unknown PBE type {}", pbe_alg_id.oid()));	×
90	}
91
92	#if defined(BOTAN_HAS_PKCS5_PBES2)
93	key = pbes2_decrypt(key_data, get_passphrase(), pbe_alg_id.parameters());	1,503✔
94	#else
95	BOTAN_UNUSED(get_passphrase);
96	throw Decoding_Error("Private key is encrypted but PBES2 was disabled in build");
97	#endif
98	} else {
99	key = key_data;	4,355✔
100	}
101
102	BER_Decoder(key, BER_Decoder::Limits::DER())	11,268✔
103	.start_sequence()	3,709✔
104	.decode_and_check<size_t>(0, "Unknown PKCS #8 version number")	7,352✔
105	.decode(pk_alg_id)	3,643✔
106	.decode(key, ASN1_Type::OctetString)	3,638✔
107	.discard_remaining()	3,638✔
108	.end_cons()	3,638✔
109	.verify_end();	3,638✔
110	} catch(std::exception& e) {	1,556✔
111	throw Decoding_Error("PKCS #8 private key decoding", e);	1,556✔
112	}	1,556✔
113	return key;	6,600✔
114	}	6,594✔
115
116	} // namespace
117
118	/*
119	* PEM encode a PKCS #8 private key, unencrypted
120	*/
121	std::string PEM_encode(const Private_Key& key) {	60✔
122	return PEM_Code::encode(key.private_key_info(), "PRIVATE KEY");	180✔
123	}
124
125	#if defined(BOTAN_HAS_PKCS5_PBES2)
126
127	namespace {
128
129	std::pair<std::string, std::string> choose_pbe_params(std::string_view pbe_algo, std::string_view key_algo) {	470✔
130	if(pbe_algo.empty()) {	470✔
131	/*
132	* For algorithms where we are using a non-RFC format anyway, default to
133	* SIV or GCM. For others (RSA, ECDSA, ...) default to something widely
134	* compatible.
135	*/
136	const bool nonstandard_pk = (key_algo == "McEliece" \|\| key_algo == "XMSS");	26✔
137
138	if(nonstandard_pk) {	26✔
139	#if defined(BOTAN_HAS_AEAD_SIV) && defined(BOTAN_HAS_SHA2_64)
140	return std::make_pair("AES-256/SIV", "SHA-512");	×
141	#elif defined(BOTAN_HAS_AEAD_GCM) && defined(BOTAN_HAS_SHA2_64)
142	return std::make_pair("AES-256/GCM", "SHA-512");
143	#endif
144	}
145
146	// Default is something compatible with everyone else
147	return std::make_pair("AES-256/CBC", "SHA-256");	26✔
148	}
149
150	const SCAN_Name request(pbe_algo);	444✔
151
152	if(request.arg_count() != 2 \|\| (request.algo_name() != "PBE-PKCS5v20" && request.algo_name() != "PBES2")) {	444✔
153	throw Invalid_Argument(fmt("Unsupported PBE '{}'", pbe_algo));	×
154	}
155
156	return std::make_pair(request.arg(0), request.arg(1));	888✔
157	}	444✔
158
159	} // namespace
160
161	#endif
162
163	/*
164	* BER encode a PKCS #8 private key, encrypted
165	*/
166	std::vector<uint8_t> BER_encode(const Private_Key& key,	470✔
167	RandomNumberGenerator& rng,
168	std::string_view pass,
169	std::chrono::milliseconds msec,
170	std::string_view pbe_algo) {
171	#if defined(BOTAN_HAS_PKCS5_PBES2)
172	const auto pbe_params = choose_pbe_params(pbe_algo, key.algo_name());	470✔
173
174	const std::pair<AlgorithmIdentifier, std::vector<uint8_t>> pbe_info =	470✔
175	pbes2_encrypt_msec(PKCS8::BER_encode(key), pass, msec, nullptr, pbe_params.first, pbe_params.second, rng);	470✔
176
177	std::vector<uint8_t> output;	470✔
178	DER_Encoder der(output);	470✔
179	der.start_sequence().encode(pbe_info.first).encode(pbe_info.second, ASN1_Type::OctetString).end_cons();	470✔
180
181	return output;	940✔
182	#else
183	BOTAN_UNUSED(key, rng, pass, msec, pbe_algo);
184	throw Encoding_Error("PKCS8::BER_encode cannot encrypt because PBES2 was disabled in build");
185	#endif
186	}	940✔
187
188	/*
189	* PEM encode a PKCS #8 private key, encrypted
190	*/
191	std::string PEM_encode(const Private_Key& key,	242✔
192	RandomNumberGenerator& rng,
193	std::string_view pass,
194	std::chrono::milliseconds msec,
195	std::string_view pbe_algo) {
196	if(pass.empty()) {	242✔
197	return PEM_encode(key);	×
198	}
199
200	return PEM_Code::encode(PKCS8::BER_encode(key, rng, pass, msec, pbe_algo), "ENCRYPTED PRIVATE KEY");	726✔
201	}
202
203	/*
204	* BER encode a PKCS #8 private key, encrypted
205	*/
206	std::vector<uint8_t> BER_encode_encrypted_pbkdf_iter(const Private_Key& key,	48✔
207	RandomNumberGenerator& rng,
208	std::string_view pass,
209	size_t pbkdf_iterations,
210	std::string_view cipher,
211	std::string_view pbkdf_hash) {
212	#if defined(BOTAN_HAS_PKCS5_PBES2)
213	const std::pair<AlgorithmIdentifier, std::vector<uint8_t>> pbe_info =	48✔
214	pbes2_encrypt_iter(key.private_key_info(),	48✔
215	pass,
216	pbkdf_iterations,
217	cipher.empty() ? "AES-256/CBC" : cipher,	48✔
218	pbkdf_hash.empty() ? "SHA-256" : pbkdf_hash,	48✔
219	rng);	96✔
220
221	std::vector<uint8_t> output;	48✔
222	DER_Encoder der(output);	48✔
223	der.start_sequence().encode(pbe_info.first).encode(pbe_info.second, ASN1_Type::OctetString).end_cons();	48✔
224
225	return output;	48✔
226
227	#else
228	BOTAN_UNUSED(key, rng, pass, pbkdf_iterations, cipher, pbkdf_hash);
229	throw Encoding_Error("PKCS8::BER_encode_encrypted_pbkdf_iter cannot encrypt because PBES2 disabled in build");
230	#endif
231	}	48✔
232
233	/*
234	* PEM encode a PKCS #8 private key, encrypted
235	*/
236	std::string PEM_encode_encrypted_pbkdf_iter(const Private_Key& key,	24✔
237	RandomNumberGenerator& rng,
238	std::string_view pass,
239	size_t pbkdf_iterations,
240	std::string_view cipher,
241	std::string_view pbkdf_hash) {
242	return PEM_Code::encode(PKCS8::BER_encode_encrypted_pbkdf_iter(key, rng, pass, pbkdf_iterations, cipher, pbkdf_hash),	24✔
243	"ENCRYPTED PRIVATE KEY");	48✔
244	}
245
246	/*
247	* BER encode a PKCS #8 private key, encrypted
248	*/
249	std::vector<uint8_t> BER_encode_encrypted_pbkdf_msec(const Private_Key& key,	20✔
250	RandomNumberGenerator& rng,
251	std::string_view pass,
252	std::chrono::milliseconds pbkdf_msec,
253	size_t* pbkdf_iterations,
254	std::string_view cipher,
255	std::string_view pbkdf_hash) {
256	#if defined(BOTAN_HAS_PKCS5_PBES2)
257	const std::pair<AlgorithmIdentifier, std::vector<uint8_t>> pbe_info =	20✔
258	pbes2_encrypt_msec(key.private_key_info(),	20✔
259	pass,
260	pbkdf_msec,
261	pbkdf_iterations,
262	cipher.empty() ? "AES-256/CBC" : cipher,	20✔
263	pbkdf_hash.empty() ? "SHA-256" : pbkdf_hash,	20✔
264	rng);	40✔
265
266	std::vector<uint8_t> output;	20✔
267	DER_Encoder(output)	40✔
268	.start_sequence()	20✔
269	.encode(pbe_info.first)	20✔
270	.encode(pbe_info.second, ASN1_Type::OctetString)	20✔
271	.end_cons();	20✔
272
273	return output;	20✔
274	#else
275	BOTAN_UNUSED(key, rng, pass, pbkdf_msec, pbkdf_iterations, cipher, pbkdf_hash);
276	throw Encoding_Error("BER_encode_encrypted_pbkdf_msec cannot encrypt because PBES2 disabled in build");
277	#endif
278	}	20✔
279
280	/*
281	* PEM encode a PKCS #8 private key, encrypted
282	*/
283	std::string PEM_encode_encrypted_pbkdf_msec(const Private_Key& key,	4✔
284	RandomNumberGenerator& rng,
285	std::string_view pass,
286	std::chrono::milliseconds pbkdf_msec,
287	size_t* pbkdf_iterations,
288	std::string_view cipher,
289	std::string_view pbkdf_hash) {
290	return PEM_Code::encode(	4✔
291	PKCS8::BER_encode_encrypted_pbkdf_msec(key, rng, pass, pbkdf_msec, pbkdf_iterations, cipher, pbkdf_hash),	4✔
292	"ENCRYPTED PRIVATE KEY");	8✔
293	}
294
295	namespace {
296
297	/*
298	* Extract a private key (encrypted/unencrypted) and return it
299	*/
300	std::unique_ptr<Private_Key> load_key(DataSource& source,	4,947✔
301	const std::function<std::string()>& get_pass,
302	bool is_encrypted) {
303	AlgorithmIdentifier alg_id;	4,947✔
304	secure_vector<uint8_t> pkcs8_key = PKCS8_decode(source, get_pass, alg_id, is_encrypted);	4,947✔
305
306	const std::string alg_name = alg_id.oid().human_name_or_empty();	3,300✔
307	if(alg_name.empty()) {	3,300✔
308	throw PKCS8_Exception(fmt("Unknown algorithm OID {}", alg_id.oid()));	×
309	}
310
311	return load_private_key(alg_id, pkcs8_key);	6,511✔
312	}	8,247✔
313
314	} // namespace
315
316	/*
317	* Extract an encrypted private key and return it
318	*/
319	std::unique_ptr<Private_Key> load_key(DataSource& source, const std::function<std::string()>& get_pass) {	11✔
320	return load_key(source, get_pass, true);	11✔
321	}
322
323	std::unique_ptr<Private_Key> load_key(std::span<const uint8_t> source,	×
324	const std::function<std::string()>& get_passphrase) {
325	Botan::DataSource_Memory ds(source);	×
326	return load_key(ds, get_passphrase);	×
327	}	×
328
329	std::unique_ptr<Private_Key> load_key(std::span<const uint8_t> source, std::string_view pass) {	×
330	Botan::DataSource_Memory ds(source);	×
331	return load_key(ds, pass);	×
332	}	×
333
334	std::unique_ptr<Private_Key> load_key(std::span<const uint8_t> source) {	14✔
335	Botan::DataSource_Memory ds(source);	14✔
336	return load_key(ds);	14✔
337	}	14✔
338
339	/*
340	* Extract an encrypted private key and return it
341	*/
342	std::unique_ptr<Private_Key> load_key(DataSource& source, std::string_view pass) {	524✔
343	return load_key(	524✔
344	source, [pass]() { return std::string(pass); }, true);	1,539✔
345	}
346
347	/*
348	* Extract an unencrypted private key and return it
349	*/
350	std::unique_ptr<Private_Key> load_key(DataSource& source) {	4,412✔
351	auto fail_fn = []() -> std::string {	4,412✔
352	throw PKCS8_Exception("Internal error: Attempt to read password for unencrypted key");	×
353	};
354
355	return load_key(source, fail_fn, false);	7,088✔
356	}
357
358	} // namespace Botan::PKCS8

randombit / botan / 25269902277

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