18      * Step-1 Generate Integrity Data for the packet, using the implemented API  in TEST()
23     // Hardcoded Session Integrity Key  in TEST()
27     auto algoPtr = std::make_unique<cipher::integrity::AlgoSHA1>(sik);  in TEST()
31     // Generate the Integrity Data  in TEST()
35                      cipher::integrity::AlgoSHA1::SHA1_96_AUTHCODE_LENGTH));  in TEST()
38      * Step-2 Generate Integrity data using OpenSSL SHA1 algorithm  in TEST()
45     // Generated K1 for the integrity algorithm with the additional key keyed  in TEST()
62         FAIL() << "Generating integrity data failed";  in TEST()
65     output.resize(cipher::integrity::AlgoSHA1::SHA1_96_AUTHCODE_LENGTH);  in TEST()
68      * Step-3 Check if the integrity data we generated using the implemented API  in TEST()
78      * Step-1 Generate Integrity data using OpenSSL SHA1 algorithm  in TEST()
84     // Hardcoded Session Integrity Key  in TEST()
93     // Generated K1 for the integrity algorithm with the additional key keyed  in TEST()
110         FAIL() << "Generating integrity data failed";  in TEST()
113     output.resize(cipher::integrity::AlgoSHA1::SHA1_96_AUTHCODE_LENGTH);  in TEST()
116      * Step-2 Insert the integrity data into the packet  in TEST()
121     // Point to the integrity data in the packet  in TEST()
129     auto algoPtr = std::make_unique<cipher::integrity::AlgoSHA1>(sik);  in TEST()
142      * Step-1 Add hardcoded Integrity data to the packet  in TEST()
148     std::vector<uint8_t> integrity = {1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12};  in TEST()  local
150     packet.insert(packet.end(), integrity.begin(), integrity.end());  in TEST()
152     // Point to the integrity data in the packet  in TEST()
154     std::advance(integrityIter, integrity.size());  in TEST()
160     // Hardcoded Session Integrity Key  in TEST()
164     auto algoPtr = std::make_unique<cipher::integrity::AlgoSHA1>(sik);  in TEST()
168     // Verify the Integrity Data  in TEST()
179      * Step-1 Generate Integrity Data for the packet, using the implemented API  in TEST()
184     // Hardcoded Session Integrity Key  in TEST()
189     auto algoPtr = std::make_unique<cipher::integrity::AlgoSHA256>(sik);  in TEST()
193     // Generate the Integrity Data  in TEST()
198                cipher::integrity::AlgoSHA256::SHA256_128_AUTHCODE_LENGTH));  in TEST()
201      * Step-2 Generate Integrity data using OpenSSL SHA256 algorithm  in TEST()
208     // Generated K1 for the integrity algorithm with the additional key keyed  in TEST()
225         FAIL() << "Generating integrity data failed";  in TEST()
228     output.resize(cipher::integrity::AlgoSHA256::SHA256_128_AUTHCODE_LENGTH);  in TEST()
231      * Step-3 Check if the integrity data we generated using the implemented API  in TEST()
241      * Step-1 Generate Integrity data using OpenSSL SHA256 algorithm  in TEST()
247     // Hardcoded Session Integrity Key  in TEST()
257     // Generated K1 for the integrity algorithm with the additional key keyed  in TEST()
274         FAIL() << "Generating integrity data failed";  in TEST()
277     output.resize(cipher::integrity::AlgoSHA256::SHA256_128_AUTHCODE_LENGTH);  in TEST()
280      * Step-2 Insert the integrity data into the packet  in TEST()
285     // Point to the integrity data in the packet  in TEST()
293     auto algoPtr = std::make_unique<cipher::integrity::AlgoSHA256>(sik);  in TEST()
306      * Step-1 Add hardcoded Integrity data to the packet  in TEST()
312     std::vector<uint8_t> integrity = {1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12};  in TEST()  local
314     packet.insert(packet.end(), integrity.begin(), integrity.end());  in TEST()
316     // Point to the integrity data in the packet  in TEST()
318     std::advance(integrityIter, integrity.size());  in TEST()
324     // Hardcoded Session Integrity Key  in TEST()
329     auto algoPtr = std::make_unique<cipher::integrity::AlgoSHA256>(sik);  in TEST()
333     // Verify the Integrity Data  in TEST()
349     // Hardcoded Session Integrity Key  in TEST()
422     // Hardcoded Session Integrity Key  in TEST()