11331525401

Committed 14 Oct 2024 04:29PM UTC coverage: 91.093% (-0.03%) from 91.12%

Build # 11331525401

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Pull #4291

github

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web-flow

Commit Message

Merge f5ffe99f5 into ed74c9542

Pull Request Pull Request #4291: PQC: SLH-DSA

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93.02

/src/tests/test_sphincsplus.cpp

/*
* (C) 2023 Jack Lloyd
*     2023 Fabian Albert, René Meusel, Amos Treiber - Rohde & Schwarz Cybersecurity
*
* Botan is released under the Simplified BSD License (see license.txt)
*/

#include "test_rng.h"
#include "tests.h"

#if defined(BOTAN_HAS_SPHINCS_PLUS_COMMON) && defined(BOTAN_HAS_AES)

   #include <botan/assert.h>
   #include <botan/hash.h>
   #include <botan/pk_algs.h>
   #include <botan/pubkey.h>
   #include <botan/secmem.h>
   #include <botan/sp_parameters.h>
   #include <botan/sphincsplus.h>
   #include <botan/internal/loadstor.h>
   #include <botan/internal/sp_hash.h>

   #include "test_pubkey.h"

namespace Botan_Tests {

/**
 * Test all implemented SLH-DSA instances using the data of the KAT files.
 */
class SPHINCS_Plus_Test_Base : public Text_Based_Test {
   public:
      SPHINCS_Plus_Test_Base(std::string_view kat_path) :
            Text_Based_Test(std::string(kat_path), "SphincsParameterSet,seed,pk,sk,msg,HashSigRand", "HashSigDet") {}

      bool skip_this_test(const std::string&, const VarMap& vars) override {
         auto params = Botan::Sphincs_Parameters::create(vars.get_req_str("SphincsParameterSet"));

         if(!params.is_available()) {
            return true;
         }

   #if not defined(BOTAN_HAS_SHA3)
         // The SLH-DSA shake-based signatures are hashed with SHA-3 in the test file.
         if(params.hash_type() == Botan::Sphincs_Hash_Type::Shake256) {
            return true;
         }
   #endif

         // Execute the small (slow) instances only with --run-long-tests
         switch(params.parameter_set()) {
            case Botan::Sphincs_Parameter_Set::Sphincs128Fast:
            case Botan::Sphincs_Parameter_Set::Sphincs192Fast:
            case Botan::Sphincs_Parameter_Set::Sphincs256Fast:
            case Botan::Sphincs_Parameter_Set::SLHDSA128Fast:
            case Botan::Sphincs_Parameter_Set::SLHDSA192Fast:
            case Botan::Sphincs_Parameter_Set::SLHDSA256Fast:
               return false;
            case Botan::Sphincs_Parameter_Set::Sphincs128Small:
            case Botan::Sphincs_Parameter_Set::Sphincs192Small:
            case Botan::Sphincs_Parameter_Set::Sphincs256Small:
            case Botan::Sphincs_Parameter_Set::SLHDSA128Small:
            case Botan::Sphincs_Parameter_Set::SLHDSA192Small:
            case Botan::Sphincs_Parameter_Set::SLHDSA256Small:
               return !Test::run_long_tests();
         }
         BOTAN_ASSERT_UNREACHABLE();
      }

      Test::Result run_one_test(const std::string&, const VarMap& vars) final {
         auto params = Botan::Sphincs_Parameters::create(vars.get_req_str("SphincsParameterSet"));
         Test::Result result(params.is_slh_dsa() ? "SLH-DSA" : "SPHINCS+");

         const std::vector<uint8_t> seed_ref = vars.get_req_bin("seed");
         const std::vector<uint8_t> msg_ref = vars.get_req_bin("msg");
         const std::vector<uint8_t> pk_ref = vars.get_req_bin("pk");
         const std::vector<uint8_t> sk_ref = vars.get_req_bin("sk");
         const std::vector<uint8_t> sig_rand_hash = vars.get_req_bin("HashSigRand");
         const auto sig_det_hash = [&]() -> std::optional<std::vector<uint8_t>> {
            if(vars.has_key("HashSigDet")) {
               return vars.get_opt_bin("HashSigDet");
            } else {
               return std::nullopt;
            }
         }();

         // Depending on the SLH-DSA configuration the resulting signature is
         // hashed either with SHA-3 or SHA-256 to reduce the inner dependencies
         // on other hash function modules.
         auto hash_algo_spec = [&]() -> std::string {
            if(params.hash_type() == Botan::Sphincs_Hash_Type::Shake256) {
               return "SHA-3(256)";
            } else {
               return "SHA-256";
            }
         }();
         auto hash = Botan::HashFunction::create_or_throw(hash_algo_spec);

         /*
          * To get sk_seed || sk_prf || pk_seed and opt_rand from the given seed
          * (from KAT), we create a CTR_DRBG_AES256 rng and "simulate" the
          * invocation-pattern in the reference. We feed the created randomness
          * to the fixed output rng, to allow for our (slightly different)
          * invocation-pattern. Be careful, some KATs are generated by 3 separate
          * invocations of dbrg.random_vals which is different.
          */
         auto kat_rng = CTR_DRBG_AES256(seed_ref);
         Fixed_Output_RNG fixed_rng;
         fixed_rng.add_entropy(kat_rng.random_vec<std::vector<uint8_t>>(3 * params.n()));

         // push the entropy used for signing twice, as we want to perform two
         // signing operations
         const auto entropy_for_signing = kat_rng.random_vec<std::vector<uint8_t>>(1 * params.n());
         // Depending on the configuation, upto 2 signatures with 'Randomized' are created
         fixed_rng.add_entropy(entropy_for_signing);
         fixed_rng.add_entropy(entropy_for_signing);

         // Generate Keypair
         Botan::SphincsPlus_PrivateKey priv_key(fixed_rng, params);

         result.test_is_eq("public key bits", priv_key.public_key_bits(), pk_ref);
         result.test_is_eq("private key bits", unlock(priv_key.private_key_bits()), sk_ref);

         // Signature roundtrip (Randomized mode)
         auto signer_rand = Botan::PK_Signer(priv_key, fixed_rng, "Randomized");
         auto signature_rand = signer_rand.sign_message(msg_ref.data(), msg_ref.size(), fixed_rng);

         result.test_is_eq("signature creation randomized", unlock(hash->process(signature_rand)), sig_rand_hash);

         Botan::PK_Verifier verifier(*priv_key.public_key(), params.algorithm_identifier());
         bool verify_success =
            verifier.verify_message(msg_ref.data(), msg_ref.size(), signature_rand.data(), signature_rand.size());
         result.confirm("verification of valid randomized signature", verify_success);

         // Signature roundtrip (Deterministic mode) - not available for all parameter sets
         // For testing time reasons we only test this for some tests if not --run-long-tests
         if(sig_det_hash.has_value() &&
            (run_long_tests() || params.parameter_set() == Botan::Sphincs_Parameter_Set::SLHDSA128Fast)) {
            auto signer_det = Botan::PK_Signer(priv_key, fixed_rng, "Deterministic");
            auto signature_det = signer_det.sign_message(msg_ref.data(), msg_ref.size(), fixed_rng);

            result.test_is_eq("signature creation deterministic", unlock(hash->process(signature_det)), *sig_det_hash);

            auto verify_success_det =
               verifier.verify_message(msg_ref.data(), msg_ref.size(), signature_det.data(), signature_det.size());
            result.confirm("verification of valid deterministic signature", verify_success_det);
         }

         // Verification with generated Keypair

         // Run additional parsing and re-verification tests on one parameter
         // set only to save test runtime. Given the current test vector we will
         // run this exactly once per hash function.
         if(params.parameter_set() == Botan::Sphincs_Parameter_Set::Sphincs128Fast ||
            params.parameter_set() == Botan::Sphincs_Parameter_Set::SLHDSA128Fast) {
            // Deserialization of Keypair from test vector
            Botan::SphincsPlus_PrivateKey deserialized_priv_key(sk_ref, params);
            Botan::SphincsPlus_PublicKey deserialized_pub_key(pk_ref, params);

            // Signature with deserialized Keypair
            auto deserialized_signer = Botan::PK_Signer(deserialized_priv_key, fixed_rng, "Randomized");
            auto deserialized_signature = deserialized_signer.sign_message(msg_ref.data(), msg_ref.size(), fixed_rng);

            result.test_is_eq("signature creation after deserialization",
                              unlock(hash->process(deserialized_signature)),
                              sig_rand_hash);

            // Verification with deserialized Keypair
            Botan::PK_Verifier deserialized_verifier(deserialized_pub_key, params.algorithm_identifier());
            bool verify_success_deserialized = deserialized_verifier.verify_message(
               msg_ref.data(), msg_ref.size(), signature_rand.data(), signature_rand.size());
            result.confirm("verification of valid signature after deserialization", verify_success_deserialized);

            // Verification of invalid signature
            auto broken_sig = Test::mutate_vec(deserialized_signature, this->rng());
            bool verify_fail = deserialized_verifier.verify_message(
               msg_ref.data(), msg_ref.size(), broken_sig.data(), broken_sig.size());
            result.confirm("verification of invalid signature", !verify_fail);

            bool verify_success_after_fail = deserialized_verifier.verify_message(
               msg_ref.data(), msg_ref.size(), signature_rand.data(), signature_rand.size());
            result.confirm("verification of valid signature after broken signature", verify_success_after_fail);
         }

         // Misc
         result.confirm("parameter serialization works", params.to_string() == vars.get_req_str("SphincsParameterSet"));

         return result;
      }
};

class SPHINCS_Plus_Test final : public SPHINCS_Plus_Test_Base {
   public:
      SPHINCS_Plus_Test() : SPHINCS_Plus_Test_Base("pubkey/sphincsplus.vec") {}
};

class SLH_DSA_Test final : public SPHINCS_Plus_Test_Base {
   public:
      SLH_DSA_Test() : SPHINCS_Plus_Test_Base("pubkey/slh_dsa.vec") {}
};

class SPHINCS_Plus_Keygen_Tests final : public PK_Key_Generation_Test {
   public:
      std::vector<std::string> keygen_params() const override {
         const std::vector<std::string> short_test_params = {
            "SphincsPlus-shake-128s-r3.1",
            "SLH-DSA-SHAKE-128s",
            "SphincsPlus-sha2-128f-r3.1",
            "SLH-DSA-SHA2-128f",
         };
         const std::vector<std::string> all_params = {
            "SphincsPlus-shake-128s-r3.1", "SphincsPlus-shake-128f-r3.1", "SphincsPlus-shake-192s-r3.1",
            "SphincsPlus-shake-192f-r3.1", "SphincsPlus-shake-256s-r3.1", "SphincsPlus-shake-256f-r3.1",
            "SLH-DSA-SHAKE-128s",          "SLH-DSA-SHAKE-128f",          "SLH-DSA-SHAKE-192s",
            "SLH-DSA-SHAKE-192f",          "SLH-DSA-SHAKE-256s",          "SLH-DSA-SHAKE-256f",
            "SphincsPlus-sha2-128s-r3.1",  "SphincsPlus-sha2-128f-r3.1",  "SphincsPlus-sha2-192s-r3.1",
            "SphincsPlus-sha2-192f-r3.1",  "SphincsPlus-sha2-256s-r3.1",  "SphincsPlus-sha2-256f-r3.1",
            "SLH-DSA-SHA2-128s",           "SLH-DSA-SHA2-128f",           "SLH-DSA-SHA2-192s",
            "SLH-DSA-SHA2-192f",           "SLH-DSA-SHA2-256s",           "SLH-DSA-SHA2-256f",
         };
         const auto& tested_params = Test::run_long_tests() ? all_params : short_test_params;
         std::vector<std::string> available_params;
         std::copy_if(tested_params.begin(),
                      tested_params.end(),
                      std::back_inserter(available_params),
                      [](const std::string& param) { return Botan::Sphincs_Parameters::create(param).is_available(); });
         return available_params;
      }

      std::string algo_name() const override { return "SLH-DSA"; }

      std::unique_ptr<Botan::Public_Key> public_key_from_raw(std::string_view keygen_params,
                                                             std::string_view /* provider */,
                                                             std::span<const uint8_t> raw_pk) const override {
         return std::make_unique<Botan::SphincsPlus_PublicKey>(raw_pk,
                                                               Botan::Sphincs_Parameters::create(keygen_params));
      }
};

class Generic_SlhDsa_Signature_Tests final : public PK_Signature_Generation_Test {
   public:
      Generic_SlhDsa_Signature_Tests() :
            PK_Signature_Generation_Test(
               "SLH-DSA", "pubkey/slh_dsa_generic.vec", "Instance,Msg,PrivateKey,PublicKey,Valid,Signature") {}

      bool clear_between_callbacks() const override { return false; }

      std::unique_ptr<Botan::Private_Key> load_private_key(const VarMap& vars) override {
         const std::string instance = vars.get_req_str("Instance");
         const std::vector<uint8_t> privkey = vars.get_req_bin("PrivateKey");
         const std::vector<uint8_t> pubkey = vars.get_req_bin("PublicKey");
         auto sk =
            std::make_unique<Botan::SphincsPlus_PrivateKey>(privkey, Botan::Sphincs_Parameters::create(instance));

         if(sk->public_key_bits() != pubkey) {
            throw Test_Error("Invalid SLH-DSA key in test data");
         }

         return sk;
      }

      std::string default_padding(const VarMap&) const override { return ""; }

      bool skip_this_test(const std::string&, const VarMap& vars) override {
         return !Botan::Sphincs_Parameters::create(vars.get_req_str("Instance")).is_available();
      }
};

class Generic_SlhDsa_Verification_Tests final : public PK_Signature_Verification_Test {
   public:
      Generic_SlhDsa_Verification_Tests() :
            PK_Signature_Verification_Test(
               "SLH-DSA", "pubkey/slh_dsa_generic.vec", "Instance,Msg,PrivateKey,PublicKey,Valid,Signature") {}

      bool clear_between_callbacks() const override { return false; }

      std::unique_ptr<Botan::Public_Key> load_public_key(const VarMap& vars) override {
         const std::string instance = vars.get_req_str("Instance");
         const std::vector<uint8_t> pubkey = vars.get_req_bin("PublicKey");

         return std::make_unique<Botan::SphincsPlus_PublicKey>(pubkey, Botan::Sphincs_Parameters::create(instance));
      }

      std::string default_padding(const VarMap&) const override { return ""; }

      bool skip_this_test(const std::string&, const VarMap& vars) override {
         return !Botan::Sphincs_Parameters::create(vars.get_req_str("Instance")).is_available();
      }
};

BOTAN_REGISTER_TEST("pubkey", "sphincsplus", SPHINCS_Plus_Test);
BOTAN_REGISTER_TEST("pubkey", "slh_dsa", SLH_DSA_Test);
BOTAN_REGISTER_TEST("pubkey", "slh_dsa_keygen", SPHINCS_Plus_Keygen_Tests);
BOTAN_REGISTER_TEST("pubkey", "slh_dsa_sign_generic", Generic_SlhDsa_Signature_Tests);
BOTAN_REGISTER_TEST("pubkey", "slh_dsa_verify_generic", Generic_SlhDsa_Verification_Tests);

}  // namespace Botan_Tests

#endif  // BOTAN_HAS_SPHINCS_PLUS

1	/*
2	* (C) 2023 Jack Lloyd
3	* 2023 Fabian Albert, René Meusel, Amos Treiber - Rohde & Schwarz Cybersecurity
4	*
5	* Botan is released under the Simplified BSD License (see license.txt)
6	*/
7
8	#include "test_rng.h"
9	#include "tests.h"
10
11	#if defined(BOTAN_HAS_SPHINCS_PLUS_COMMON) && defined(BOTAN_HAS_AES)
12
13	#include <botan/assert.h>
14	#include <botan/hash.h>
15	#include <botan/pk_algs.h>
16	#include <botan/pubkey.h>
17	#include <botan/secmem.h>
18	#include <botan/sp_parameters.h>
19	#include <botan/sphincsplus.h>
20	#include <botan/internal/loadstor.h>
21	#include <botan/internal/sp_hash.h>
22
23	#include "test_pubkey.h"
24
25	namespace Botan_Tests {
26
27	/**
28	* Test all implemented SLH-DSA instances using the data of the KAT files.
29	*/
30	class SPHINCS_Plus_Test_Base : public Text_Based_Test {	×
31	public:
32	SPHINCS_Plus_Test_Base(std::string_view kat_path) :	2✔
33	Text_Based_Test(std::string(kat_path), "SphincsParameterSet,seed,pk,sk,msg,HashSigRand", "HashSigDet") {}	6✔
34
35	bool skip_this_test(const std::string&, const VarMap& vars) override {	24✔
36	auto params = Botan::Sphincs_Parameters::create(vars.get_req_str("SphincsParameterSet"));	48✔
37
38	if(!params.is_available()) {	24✔
39	return true;
40	}
41
42	#if not defined(BOTAN_HAS_SHA3)
43	// The SLH-DSA shake-based signatures are hashed with SHA-3 in the test file.
44	if(params.hash_type() == Botan::Sphincs_Hash_Type::Shake256) {
45	return true;
46	}
47	#endif
48
49	// Execute the small (slow) instances only with --run-long-tests
50	switch(params.parameter_set()) {	24✔
51	case Botan::Sphincs_Parameter_Set::Sphincs128Fast:
52	case Botan::Sphincs_Parameter_Set::Sphincs192Fast:
53	case Botan::Sphincs_Parameter_Set::Sphincs256Fast:
54	case Botan::Sphincs_Parameter_Set::SLHDSA128Fast:
55	case Botan::Sphincs_Parameter_Set::SLHDSA192Fast:
56	case Botan::Sphincs_Parameter_Set::SLHDSA256Fast:
57	return false;
58	case Botan::Sphincs_Parameter_Set::Sphincs128Small:	12✔
59	case Botan::Sphincs_Parameter_Set::Sphincs192Small:	12✔
60	case Botan::Sphincs_Parameter_Set::Sphincs256Small:	12✔
61	case Botan::Sphincs_Parameter_Set::SLHDSA128Small:	12✔
62	case Botan::Sphincs_Parameter_Set::SLHDSA192Small:	12✔
63	case Botan::Sphincs_Parameter_Set::SLHDSA256Small:	12✔
64	return !Test::run_long_tests();	12✔
65	}
66	BOTAN_ASSERT_UNREACHABLE();	×
67	}
68
69	Test::Result run_one_test(const std::string&, const VarMap& vars) final {	24✔
70	auto params = Botan::Sphincs_Parameters::create(vars.get_req_str("SphincsParameterSet"));	48✔
71	Test::Result result(params.is_slh_dsa() ? "SLH-DSA" : "SPHINCS+");	36✔
72
73	const std::vector<uint8_t> seed_ref = vars.get_req_bin("seed");	24✔
74	const std::vector<uint8_t> msg_ref = vars.get_req_bin("msg");	24✔
75	const std::vector<uint8_t> pk_ref = vars.get_req_bin("pk");	24✔
76	const std::vector<uint8_t> sk_ref = vars.get_req_bin("sk");	24✔
77	const std::vector<uint8_t> sig_rand_hash = vars.get_req_bin("HashSigRand");	24✔
78	const auto sig_det_hash = [&]() -> std::optional<std::vector<uint8_t>> {	×
79	if(vars.has_key("HashSigDet")) {	48✔
80	return vars.get_opt_bin("HashSigDet");	12✔
81	} else {
82	return std::nullopt;	12✔
83	}
84	}();	24✔
85
86	// Depending on the SLH-DSA configuration the resulting signature is
87	// hashed either with SHA-3 or SHA-256 to reduce the inner dependencies
88	// on other hash function modules.
89	auto hash_algo_spec = [&]() -> std::string {	×
90	if(params.hash_type() == Botan::Sphincs_Hash_Type::Shake256) {	24✔
91	return "SHA-3(256)";	12✔
92	} else {
93	return "SHA-256";	12✔
94	}
95	}();	24✔
96	auto hash = Botan::HashFunction::create_or_throw(hash_algo_spec);	24✔
97
98	/*
99	* To get sk_seed \|\| sk_prf \|\| pk_seed and opt_rand from the given seed
100	* (from KAT), we create a CTR_DRBG_AES256 rng and "simulate" the
101	* invocation-pattern in the reference. We feed the created randomness
102	* to the fixed output rng, to allow for our (slightly different)
103	* invocation-pattern. Be careful, some KATs are generated by 3 separate
104	* invocations of dbrg.random_vals which is different.
105	*/
106	auto kat_rng = CTR_DRBG_AES256(seed_ref);	24✔
107	Fixed_Output_RNG fixed_rng;	24✔
108	fixed_rng.add_entropy(kat_rng.random_vec<std::vector<uint8_t>>(3 * params.n()));	24✔
109
110	// push the entropy used for signing twice, as we want to perform two
111	// signing operations
112	const auto entropy_for_signing = kat_rng.random_vec<std::vector<uint8_t>>(1 * params.n());	24✔
113	// Depending on the configuation, upto 2 signatures with 'Randomized' are created
114	fixed_rng.add_entropy(entropy_for_signing);	24✔
115	fixed_rng.add_entropy(entropy_for_signing);	24✔
116
117	// Generate Keypair
118	Botan::SphincsPlus_PrivateKey priv_key(fixed_rng, params);	24✔
119
120	result.test_is_eq("public key bits", priv_key.public_key_bits(), pk_ref);	48✔
121	result.test_is_eq("private key bits", unlock(priv_key.private_key_bits()), sk_ref);	96✔
122
123	// Signature roundtrip (Randomized mode)
124	auto signer_rand = Botan::PK_Signer(priv_key, fixed_rng, "Randomized");	24✔
125	auto signature_rand = signer_rand.sign_message(msg_ref.data(), msg_ref.size(), fixed_rng);	24✔
126
127	result.test_is_eq("signature creation randomized", unlock(hash->process(signature_rand)), sig_rand_hash);	96✔
128
129	Botan::PK_Verifier verifier(*priv_key.public_key(), params.algorithm_identifier());	48✔
130	bool verify_success =	24✔
131	verifier.verify_message(msg_ref.data(), msg_ref.size(), signature_rand.data(), signature_rand.size());	24✔
132	result.confirm("verification of valid randomized signature", verify_success);	48✔
133
134	// Signature roundtrip (Deterministic mode) - not available for all parameter sets
135	// For testing time reasons we only test this for some tests if not --run-long-tests
136	if(sig_det_hash.has_value() &&	24✔
137	(run_long_tests() \|\| params.parameter_set() == Botan::Sphincs_Parameter_Set::SLHDSA128Fast)) {	×
138	auto signer_det = Botan::PK_Signer(priv_key, fixed_rng, "Deterministic");	12✔
139	auto signature_det = signer_det.sign_message(msg_ref.data(), msg_ref.size(), fixed_rng);	12✔
140
141	result.test_is_eq("signature creation deterministic", unlock(hash->process(signature_det)), *sig_det_hash);	48✔
142
143	auto verify_success_det =	12✔
144	verifier.verify_message(msg_ref.data(), msg_ref.size(), signature_det.data(), signature_det.size());	12✔
145	result.confirm("verification of valid deterministic signature", verify_success_det);	24✔
146	}	12✔
147
148	// Verification with generated Keypair
149
150	// Run additional parsing and re-verification tests on one parameter
151	// set only to save test runtime. Given the current test vector we will
152	// run this exactly once per hash function.
153	if(params.parameter_set() == Botan::Sphincs_Parameter_Set::Sphincs128Fast \|\|	24✔
154	params.parameter_set() == Botan::Sphincs_Parameter_Set::SLHDSA128Fast) {	22✔
155	// Deserialization of Keypair from test vector
156	Botan::SphincsPlus_PrivateKey deserialized_priv_key(sk_ref, params);	4✔
157	Botan::SphincsPlus_PublicKey deserialized_pub_key(pk_ref, params);	4✔
158
159	// Signature with deserialized Keypair
160	auto deserialized_signer = Botan::PK_Signer(deserialized_priv_key, fixed_rng, "Randomized");	4✔
161	auto deserialized_signature = deserialized_signer.sign_message(msg_ref.data(), msg_ref.size(), fixed_rng);	4✔
162
163	result.test_is_eq("signature creation after deserialization",	12✔
164	unlock(hash->process(deserialized_signature)),	12✔
165	sig_rand_hash);
166
167	// Verification with deserialized Keypair
168	Botan::PK_Verifier deserialized_verifier(deserialized_pub_key, params.algorithm_identifier());	4✔
169	bool verify_success_deserialized = deserialized_verifier.verify_message(	4✔
170	msg_ref.data(), msg_ref.size(), signature_rand.data(), signature_rand.size());	4✔
171	result.confirm("verification of valid signature after deserialization", verify_success_deserialized);	8✔
172
173	// Verification of invalid signature
174	auto broken_sig = Test::mutate_vec(deserialized_signature, this->rng());	4✔
175	bool verify_fail = deserialized_verifier.verify_message(	4✔
176	msg_ref.data(), msg_ref.size(), broken_sig.data(), broken_sig.size());	4✔
177	result.confirm("verification of invalid signature", !verify_fail);	8✔
178
179	bool verify_success_after_fail = deserialized_verifier.verify_message(	4✔
180	msg_ref.data(), msg_ref.size(), signature_rand.data(), signature_rand.size());	4✔
181	result.confirm("verification of valid signature after broken signature", verify_success_after_fail);	8✔
182	}	8✔
183
184	// Misc
185	result.confirm("parameter serialization works", params.to_string() == vars.get_req_str("SphincsParameterSet"));	48✔
186
187	return result;	48✔
188	}	240✔
189	};
190
191	class SPHINCS_Plus_Test final : public SPHINCS_Plus_Test_Base {	×
192	public:
193	SPHINCS_Plus_Test() : SPHINCS_Plus_Test_Base("pubkey/sphincsplus.vec") {}	1✔
194	};
195
196	class SLH_DSA_Test final : public SPHINCS_Plus_Test_Base {	×
197	public:
198	SLH_DSA_Test() : SPHINCS_Plus_Test_Base("pubkey/slh_dsa.vec") {}	1✔
199	};
200
201	class SPHINCS_Plus_Keygen_Tests final : public PK_Key_Generation_Test {	×
202	public:
203	std::vector<std::string> keygen_params() const override {	1✔
204	const std::vector<std::string> short_test_params = {	1✔
205	"SphincsPlus-shake-128s-r3.1",
206	"SLH-DSA-SHAKE-128s",
207	"SphincsPlus-sha2-128f-r3.1",
208	"SLH-DSA-SHA2-128f",
209	};	1✔
210	const std::vector<std::string> all_params = {	1✔
211	"SphincsPlus-shake-128s-r3.1", "SphincsPlus-shake-128f-r3.1", "SphincsPlus-shake-192s-r3.1",
212	"SphincsPlus-shake-192f-r3.1", "SphincsPlus-shake-256s-r3.1", "SphincsPlus-shake-256f-r3.1",
213	"SLH-DSA-SHAKE-128s", "SLH-DSA-SHAKE-128f", "SLH-DSA-SHAKE-192s",
214	"SLH-DSA-SHAKE-192f", "SLH-DSA-SHAKE-256s", "SLH-DSA-SHAKE-256f",
215	"SphincsPlus-sha2-128s-r3.1", "SphincsPlus-sha2-128f-r3.1", "SphincsPlus-sha2-192s-r3.1",
216	"SphincsPlus-sha2-192f-r3.1", "SphincsPlus-sha2-256s-r3.1", "SphincsPlus-sha2-256f-r3.1",
217	"SLH-DSA-SHA2-128s", "SLH-DSA-SHA2-128f", "SLH-DSA-SHA2-192s",
218	"SLH-DSA-SHA2-192f", "SLH-DSA-SHA2-256s", "SLH-DSA-SHA2-256f",
219	};	1✔
220	const auto& tested_params = Test::run_long_tests() ? all_params : short_test_params;	1✔
221	std::vector<std::string> available_params;	1✔
222	std::copy_if(tested_params.begin(),	1✔
223	tested_params.end(),
224	std::back_inserter(available_params),
225	[](const std::string& param) { return Botan::Sphincs_Parameters::create(param).is_available(); });	24✔
226	return available_params;	1✔
227	}	1✔
228
229	std::string algo_name() const override { return "SLH-DSA"; }	72✔
230
231	std::unique_ptr<Botan::Public_Key> public_key_from_raw(std::string_view keygen_params,	24✔
232	std::string_view /* provider */,
233	std::span<const uint8_t> raw_pk) const override {
234	return std::make_unique<Botan::SphincsPlus_PublicKey>(raw_pk,	24✔
235	Botan::Sphincs_Parameters::create(keygen_params));	24✔
236	}
237	};
238
239	class Generic_SlhDsa_Signature_Tests final : public PK_Signature_Generation_Test {
240	public:
241	Generic_SlhDsa_Signature_Tests() :	1✔
242	PK_Signature_Generation_Test(
243	"SLH-DSA", "pubkey/slh_dsa_generic.vec", "Instance,Msg,PrivateKey,PublicKey,Valid,Signature") {}	2✔
244
245	bool clear_between_callbacks() const override { return false; }	1✔
246
247	std::unique_ptr<Botan::Private_Key> load_private_key(const VarMap& vars) override {	1✔
248	const std::string instance = vars.get_req_str("Instance");	1✔
249	const std::vector<uint8_t> privkey = vars.get_req_bin("PrivateKey");	1✔
250	const std::vector<uint8_t> pubkey = vars.get_req_bin("PublicKey");	1✔
251	auto sk =	1✔
252	std::make_unique<Botan::SphincsPlus_PrivateKey>(privkey, Botan::Sphincs_Parameters::create(instance));	1✔
253
254	if(sk->public_key_bits() != pubkey) {	2✔
255	throw Test_Error("Invalid SLH-DSA key in test data");	×
256	}
257
258	return sk;	1✔
259	}	3✔
260
261	std::string default_padding(const VarMap&) const override { return ""; }	1✔
262
263	bool skip_this_test(const std::string&, const VarMap& vars) override {	1✔
264	return !Botan::Sphincs_Parameters::create(vars.get_req_str("Instance")).is_available();	1✔
265	}
266	};
267
268	class Generic_SlhDsa_Verification_Tests final : public PK_Signature_Verification_Test {
269	public:
270	Generic_SlhDsa_Verification_Tests() :	1✔
271	PK_Signature_Verification_Test(
272	"SLH-DSA", "pubkey/slh_dsa_generic.vec", "Instance,Msg,PrivateKey,PublicKey,Valid,Signature") {}	2✔
273
274	bool clear_between_callbacks() const override { return false; }	1✔
275
276	std::unique_ptr<Botan::Public_Key> load_public_key(const VarMap& vars) override {	1✔
277	const std::string instance = vars.get_req_str("Instance");	1✔
278	const std::vector<uint8_t> pubkey = vars.get_req_bin("PublicKey");	1✔
279
280	return std::make_unique<Botan::SphincsPlus_PublicKey>(pubkey, Botan::Sphincs_Parameters::create(instance));	2✔
281	}	1✔
282
283	std::string default_padding(const VarMap&) const override { return ""; }	1✔
284
285	bool skip_this_test(const std::string&, const VarMap& vars) override {	1✔
286	return !Botan::Sphincs_Parameters::create(vars.get_req_str("Instance")).is_available();	1✔
287	}
288	};
289
290	BOTAN_REGISTER_TEST("pubkey", "sphincsplus", SPHINCS_Plus_Test);
291	BOTAN_REGISTER_TEST("pubkey", "slh_dsa", SLH_DSA_Test);
292	BOTAN_REGISTER_TEST("pubkey", "slh_dsa_keygen", SPHINCS_Plus_Keygen_Tests);
293	BOTAN_REGISTER_TEST("pubkey", "slh_dsa_sign_generic", Generic_SlhDsa_Signature_Tests);
294	BOTAN_REGISTER_TEST("pubkey", "slh_dsa_verify_generic", Generic_SlhDsa_Verification_Tests);
295
296	} // namespace Botan_Tests
297
298	#endif // BOTAN_HAS_SPHINCS_PLUS

randombit / botan / 11331525401

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