use std::collections::{HashMap, HashSet};
use std::time::{Duration, SystemTime};
use serde::{Serialize, Deserialize};
use crate::trait_explorer::TraitContext;

#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct CryptographicAnalyzer {
    algorithm_analyzer: CryptographicAlgorithmAnalyzer,
    key_management_analyzer: KeyManagementAnalyzer,
    side_channel_detector: SideChannelAttackDetector,
    protocol_analyzer: CryptographicProtocolAnalyzer,
    random_number_analyzer: RandomNumberGeneratorAnalyzer,
    hash_function_analyzer: HashFunctionAnalyzer,
    signature_analyzer: DigitalSignatureAnalyzer,
    encryption_analyzer: EncryptionAnalyzer,
    quantum_resistance_analyzer: QuantumResistanceAnalyzer,
    implementation_analyzer: CryptographicImplementationAnalyzer,
    compliance_checker: CryptographicComplianceChecker,
    vulnerability_scanner: CryptographicVulnerabilityScanner,
    analysis_config: CryptographicAnalysisConfig,
    analysis_cache: HashMap<String, CachedCryptographicAnalysis>,
}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct CryptographicAlgorithmAnalyzer {
    symmetric_analyzers: HashMap<String, SymmetricAlgorithmAnalyzer>,
    asymmetric_analyzers: HashMap<String, AsymmetricAlgorithmAnalyzer>,
    hash_analyzers: HashMap<String, HashAlgorithmAnalyzer>,
    mac_analyzers: HashMap<String, MacAlgorithmAnalyzer>,
    kdf_analyzers: HashMap<String, KdfAlgorithmAnalyzer>,
    algorithm_database: CryptographicAlgorithmDatabase,
    weakness_patterns: Vec<AlgorithmWeaknessPattern>,
    security_levels: HashMap<String, SecurityLevel>,
}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct KeyManagementAnalyzer {
    key_generation_analyzers: Vec<KeyGenerationAnalyzer>,
    key_storage_analyzers: Vec<KeyStorageAnalyzer>,
    key_distribution_analyzers: Vec<KeyDistributionAnalyzer>,
    key_rotation_analyzers: Vec<KeyRotationAnalyzer>,
    key_revocation_analyzers: Vec<KeyRevocationAnalyzer>,
    key_escrow_analyzers: Vec<KeyEscrowAnalyzer>,
    entropy_analyzers: Vec<EntropyAnalyzer>,
    key_lifecycle_analyzer: KeyLifecycleAnalyzer,
    key_derivation_analyzer: KeyDerivationAnalyzer,
    key_agreement_analyzer: KeyAgreementAnalyzer,
}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct SideChannelAttackDetector {
    timing_attack_detectors: Vec<TimingAttackDetector>,
    power_analysis_detectors: Vec<PowerAnalysisDetector>,
    electromagnetic_detectors: Vec<ElectromagneticAttackDetector>,
    acoustic_attack_detectors: Vec<AcousticAttackDetector>,
    cache_attack_detectors: Vec<CacheAttackDetector>,
    fault_injection_detectors: Vec<FaultInjectionDetector>,
    differential_power_analysis: DifferentialPowerAnalysis,
    simple_power_analysis: SimplePowerAnalysis,
    correlation_power_analysis: CorrelationPowerAnalysis,
    template_attack_detector: TemplateAttackDetector,
}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct CryptographicProtocolAnalyzer {
    tls_analyzer: TlsProtocolAnalyzer,
    ssh_analyzer: SshProtocolAnalyzer,
    ipsec_analyzer: IpsecProtocolAnalyzer,
    pgp_analyzer: PgpProtocolAnalyzer,
    oauth_analyzer: OAuthProtocolAnalyzer,
    saml_analyzer: SamlProtocolAnalyzer,
    kerberos_analyzer: KerberosProtocolAnalyzer,
    protocol_state_analyzer: ProtocolStateAnalyzer,
    message_flow_analyzer: MessageFlowAnalyzer,
    authentication_analyzer: AuthenticationProtocolAnalyzer,
}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct RandomNumberGeneratorAnalyzer {
    entropy_testers: Vec<EntropyTester>,
    statistical_testers: Vec<StatisticalRandomnessTester>,
    predictability_analyzers: Vec<PredictabilityAnalyzer>,
    seed_analyzers: Vec<SeedAnalyzer>,
    prng_analyzers: HashMap<String, PrngAnalyzer>,
    trng_analyzers: HashMap<String, TrngAnalyzer>,
    drbg_analyzers: HashMap<String, DrbgAnalyzer>,
    nist_test_suite: NistRandomnessTestSuite,
    diehard_test_suite: DiehardTestSuite,
    testU01_suite: TestU01Suite,
}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct HashFunctionAnalyzer {
    collision_resistance_testers: Vec<CollisionResistanceTester>,
    preimage_resistance_testers: Vec<PreimageResistanceTester>,
    second_preimage_testers: Vec<SecondPreimageResistanceTester>,
    avalanche_effect_testers: Vec<AvalancheEffectTester>,
    birthday_attack_analyzers: Vec<BirthdayAttackAnalyzer>,
    length_extension_analyzers: Vec<LengthExtensionAttackAnalyzer>,
    hash_family_analyzers: HashMap<String, HashFamilyAnalyzer>,
    merkle_damgard_analyzer: MerkleDamgardAnalyzer,
    sponge_function_analyzer: SpongeFunctionAnalyzer,
}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct DigitalSignatureAnalyzer {
    signature_scheme_analyzers: HashMap<String, SignatureSchemeAnalyzer>,
    verification_analyzers: Vec<SignatureVerificationAnalyzer>,
    forge_resistance_testers: Vec<ForgeResistanceTester>,
    existential_forgery_testers: Vec<ExistentialForgeryTester>,
    chosen_message_analyzers: Vec<ChosenMessageAttackAnalyzer>,
    blind_signature_analyzers: Vec<BlindSignatureAnalyzer>,
    multi_signature_analyzers: Vec<MultiSignatureAnalyzer>,
    threshold_signature_analyzers: Vec<ThresholdSignatureAnalyzer>,
    ring_signature_analyzers: Vec<RingSignatureAnalyzer>,
}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct EncryptionAnalyzer {
    symmetric_encryption_analyzers: HashMap<String, SymmetricEncryptionAnalyzer>,
    asymmetric_encryption_analyzers: HashMap<String, AsymmetricEncryptionAnalyzer>,
    mode_of_operation_analyzers: HashMap<String, ModeOfOperationAnalyzer>,
    padding_scheme_analyzers: HashMap<String, PaddingSchemeAnalyzer>,
    authenticated_encryption_analyzers: Vec<AuthenticatedEncryptionAnalyzer>,
    chosen_plaintext_analyzers: Vec<ChosenPlaintextAttackAnalyzer>,
    chosen_ciphertext_analyzers: Vec<ChosenCiphertextAttackAnalyzer>,
    known_plaintext_analyzers: Vec<KnownPlaintextAttackAnalyzer>,
    differential_cryptanalysis: DifferentialCryptanalysis,
    linear_cryptanalysis: LinearCryptanalysis,
}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct QuantumResistanceAnalyzer {
    post_quantum_analyzers: HashMap<String, PostQuantumAnalyzer>,
    shor_algorithm_analyzer: ShorAlgorithmAnalyzer,
    grover_algorithm_analyzer: GroverAlgorithmAnalyzer,
    quantum_key_distribution_analyzer: QuantumKeyDistributionAnalyzer,
    lattice_based_analyzers: Vec<LatticeBasedAnalyzer>,
    code_based_analyzers: Vec<CodeBasedAnalyzer>,
    multivariate_analyzers: Vec<MultivariateAnalyzer>,
    hash_based_analyzers: Vec<HashBasedAnalyzer>,
    isogeny_analyzers: Vec<IsogenyAnalyzer>,
    quantum_threat_timeline: QuantumThreatTimeline,
}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct CryptographicImplementationAnalyzer {
    constant_time_analyzers: Vec<ConstantTimeAnalyzer>,
    memory_safety_analyzers: Vec<MemorySafetyAnalyzer>,
    secure_coding_analyzers: Vec<SecureCodingAnalyzer>,
    library_analyzers: HashMap<String, CryptographicLibraryAnalyzer>,
    hardware_security_analyzers: Vec<HardwareSecurityAnalyzer>,
    side_channel_countermeasures: Vec<SideChannelCountermeasure>,
    fault_tolerance_analyzers: Vec<FaultToleranceAnalyzer>,
    performance_security_analyzers: Vec<PerformanceSecurityAnalyzer>,
}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct CryptographicAnalysisResult {
    pub analysis_id: String,
    pub analysis_timestamp: SystemTime,
    pub algorithm_analysis: AlgorithmAnalysisResult,
    pub key_management_analysis: KeyManagementAnalysisResult,
    pub side_channel_analysis: SideChannelAnalysisResult,
    pub protocol_analysis: ProtocolAnalysisResult,
    pub random_number_analysis: RandomNumberAnalysisResult,
    pub hash_function_analysis: HashFunctionAnalysisResult,
    pub signature_analysis: SignatureAnalysisResult,
    pub encryption_analysis: EncryptionAnalysisResult,
    pub quantum_resistance_analysis: QuantumResistanceAnalysisResult,
    pub implementation_analysis: ImplementationAnalysisResult,
    pub overall_cryptographic_score: f64,
    pub security_recommendations: Vec<CryptographicRecommendation>,
    pub compliance_status: CryptographicComplianceStatus,
    pub vulnerability_report: CryptographicVulnerabilityReport,
    pub analysis_confidence: f64,
    pub analysis_metadata: HashMap<String, String>,
}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct AlgorithmAnalysisResult {
    pub symmetric_algorithm_results: HashMap<String, SymmetricAlgorithmResult>,
    pub asymmetric_algorithm_results: HashMap<String, AsymmetricAlgorithmResult>,
    pub hash_algorithm_results: HashMap<String, HashAlgorithmResult>,
    pub mac_algorithm_results: HashMap<String, MacAlgorithmResult>,
    pub kdf_algorithm_results: HashMap<String, KdfAlgorithmResult>,
    pub algorithm_compatibility_matrix: AlgorithmCompatibilityMatrix,
    pub security_level_assessment: SecurityLevelAssessment,
    pub deprecation_warnings: Vec<DeprecationWarning>,
    pub upgrade_recommendations: Vec<AlgorithmUpgradeRecommendation>,
}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct KeyManagementAnalysisResult {
    pub key_generation_assessment: KeyGenerationAssessment,
    pub key_storage_assessment: KeyStorageAssessment,
    pub key_distribution_assessment: KeyDistributionAssessment,
    pub key_rotation_assessment: KeyRotationAssessment,
    pub key_revocation_assessment: KeyRevocationAssessment,
    pub entropy_assessment: EntropyAssessment,
    pub key_lifecycle_assessment: KeyLifecycleAssessment,
    pub key_management_score: f64,
    pub key_management_risks: Vec<KeyManagementRisk>,
    pub key_management_recommendations: Vec<KeyManagementRecommendation>,
}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct SideChannelAnalysisResult {
    pub timing_attack_vulnerabilities: Vec<TimingAttackVulnerability>,
    pub power_analysis_vulnerabilities: Vec<PowerAnalysisVulnerability>,
    pub electromagnetic_vulnerabilities: Vec<ElectromagneticVulnerability>,
    pub acoustic_vulnerabilities: Vec<AcousticVulnerability>,
    pub cache_attack_vulnerabilities: Vec<CacheAttackVulnerability>,
    pub fault_injection_vulnerabilities: Vec<FaultInjectionVulnerability>,
    pub side_channel_countermeasures: Vec<SideChannelCountermeasure>,
    pub vulnerability_severity_scores: HashMap<String, f64>,
    pub mitigation_recommendations: Vec<SideChannelMitigationRecommendation>,
}

impl CryptographicAnalyzer {
    pub fn new() -> Self {
        Self {
            algorithm_analyzer: CryptographicAlgorithmAnalyzer::new(),
            key_management_analyzer: KeyManagementAnalyzer::new(),
            side_channel_detector: SideChannelAttackDetector::new(),
            protocol_analyzer: CryptographicProtocolAnalyzer::new(),
            random_number_analyzer: RandomNumberGeneratorAnalyzer::new(),
            hash_function_analyzer: HashFunctionAnalyzer::new(),
            signature_analyzer: DigitalSignatureAnalyzer::new(),
            encryption_analyzer: EncryptionAnalyzer::new(),
            quantum_resistance_analyzer: QuantumResistanceAnalyzer::new(),
            implementation_analyzer: CryptographicImplementationAnalyzer::new(),
            compliance_checker: CryptographicComplianceChecker::new(),
            vulnerability_scanner: CryptographicVulnerabilityScanner::new(),
            analysis_config: CryptographicAnalysisConfig::default(),
            analysis_cache: HashMap::new(),
        }
    }

    pub fn analyze_cryptographic_security(&mut self, context: &TraitUsageContext) -> Result<CryptographicAnalysisResult, CryptographicAnalysisError> {
        let analysis_id = self.generate_analysis_id(context);

        if let Some(cached_result) = self.get_cached_analysis(&analysis_id) {
            if self.is_cache_valid(&cached_result) {
                return Ok(cached_result.result.clone());
            }
        }

        let algorithm_analysis = self.analyze_cryptographic_algorithms(context)?;
        let key_management_analysis = self.analyze_key_management(context)?;
        let side_channel_analysis = self.analyze_side_channel_vulnerabilities(context)?;
        let protocol_analysis = self.analyze_cryptographic_protocols(context)?;
        let random_number_analysis = self.analyze_random_number_generation(context)?;
        let hash_function_analysis = self.analyze_hash_functions(context)?;
        let signature_analysis = self.analyze_digital_signatures(context)?;
        let encryption_analysis = self.analyze_encryption_schemes(context)?;
        let quantum_resistance_analysis = self.analyze_quantum_resistance(context)?;
        let implementation_analysis = self.analyze_cryptographic_implementation(context)?;

        let overall_score = self.calculate_overall_cryptographic_score(
            &algorithm_analysis,
            &key_management_analysis,
            &side_channel_analysis,
            &protocol_analysis,
            &random_number_analysis,
            &hash_function_analysis,
            &signature_analysis,
            &encryption_analysis,
            &quantum_resistance_analysis,
            &implementation_analysis,
        )?;

        let security_recommendations = self.generate_security_recommendations(
            &algorithm_analysis,
            &key_management_analysis,
            &side_channel_analysis,
            &protocol_analysis,
            &random_number_analysis,
            &hash_function_analysis,
            &signature_analysis,
            &encryption_analysis,
            &quantum_resistance_analysis,
            &implementation_analysis,
        )?;

        let compliance_status = self.compliance_checker.check_compliance(context)?;
        let vulnerability_report = self.vulnerability_scanner.scan_vulnerabilities(context)?;
        let analysis_confidence = self.calculate_analysis_confidence()?;

        let result = CryptographicAnalysisResult {
            analysis_id: analysis_id.clone(),
            analysis_timestamp: SystemTime::now(),
            algorithm_analysis,
            key_management_analysis,
            side_channel_analysis,
            protocol_analysis,
            random_number_analysis,
            hash_function_analysis,
            signature_analysis,
            encryption_analysis,
            quantum_resistance_analysis,
            implementation_analysis,
            overall_cryptographic_score: overall_score,
            security_recommendations,
            compliance_status,
            vulnerability_report,
            analysis_confidence,
            analysis_metadata: self.generate_analysis_metadata(context),
        };

        self.cache_analysis(analysis_id, &result);
        Ok(result)
    }

    fn analyze_cryptographic_algorithms(&mut self, context: &TraitUsageContext) -> Result<AlgorithmAnalysisResult, CryptographicAnalysisError> {
        let mut symmetric_results = HashMap::new();
        let mut asymmetric_results = HashMap::new();
        let mut hash_results = HashMap::new();
        let mut mac_results = HashMap::new();
        let mut kdf_results = HashMap::new();

        for (name, analyzer) in &self.algorithm_analyzer.symmetric_analyzers {
            let result = analyzer.analyze_symmetric_algorithm(context)?;
            symmetric_results.insert(name.clone(), result);
        }

        for (name, analyzer) in &self.algorithm_analyzer.asymmetric_analyzers {
            let result = analyzer.analyze_asymmetric_algorithm(context)?;
            asymmetric_results.insert(name.clone(), result);
        }

        for (name, analyzer) in &self.algorithm_analyzer.hash_analyzers {
            let result = analyzer.analyze_hash_algorithm(context)?;
            hash_results.insert(name.clone(), result);
        }

        for (name, analyzer) in &self.algorithm_analyzer.mac_analyzers {
            let result = analyzer.analyze_mac_algorithm(context)?;
            mac_results.insert(name.clone(), result);
        }

        for (name, analyzer) in &self.algorithm_analyzer.kdf_analyzers {
            let result = analyzer.analyze_kdf_algorithm(context)?;
            kdf_results.insert(name.clone(), result);
        }

        let compatibility_matrix = self.build_algorithm_compatibility_matrix(&symmetric_results, &asymmetric_results)?;
        let security_level_assessment = self.assess_security_levels(&symmetric_results, &asymmetric_results)?;
        let deprecation_warnings = self.check_algorithm_deprecations(&symmetric_results, &asymmetric_results)?;
        let upgrade_recommendations = self.generate_algorithm_upgrade_recommendations(&deprecation_warnings)?;

        Ok(AlgorithmAnalysisResult {
            symmetric_algorithm_results: symmetric_results,
            asymmetric_algorithm_results: asymmetric_results,
            hash_algorithm_results: hash_results,
            mac_algorithm_results: mac_results,
            kdf_algorithm_results: kdf_results,
            algorithm_compatibility_matrix: compatibility_matrix,
            security_level_assessment,
            deprecation_warnings,
            upgrade_recommendations,
        })
    }

    fn analyze_key_management(&mut self, context: &TraitUsageContext) -> Result<KeyManagementAnalysisResult, CryptographicAnalysisError> {
        let key_generation_assessment = self.assess_key_generation(context)?;
        let key_storage_assessment = self.assess_key_storage(context)?;
        let key_distribution_assessment = self.assess_key_distribution(context)?;
        let key_rotation_assessment = self.assess_key_rotation(context)?;
        let key_revocation_assessment = self.assess_key_revocation(context)?;
        let entropy_assessment = self.assess_entropy_sources(context)?;
        let key_lifecycle_assessment = self.assess_key_lifecycle(context)?;

        let key_management_score = self.calculate_key_management_score(
            &key_generation_assessment,
            &key_storage_assessment,
            &key_distribution_assessment,
            &key_rotation_assessment,
            &key_revocation_assessment,
            &entropy_assessment,
            &key_lifecycle_assessment,
        )?;

        let key_management_risks = self.identify_key_management_risks(context)?;
        let key_management_recommendations = self.generate_key_management_recommendations(&key_management_risks)?;

        Ok(KeyManagementAnalysisResult {
            key_generation_assessment,
            key_storage_assessment,
            key_distribution_assessment,
            key_rotation_assessment,
            key_revocation_assessment,
            entropy_assessment,
            key_lifecycle_assessment,
            key_management_score,
            key_management_risks,
            key_management_recommendations,
        })
    }

    fn analyze_side_channel_vulnerabilities(&mut self, context: &TraitUsageContext) -> Result<SideChannelAnalysisResult, CryptographicAnalysisError> {
        let mut timing_vulnerabilities = Vec::new();
        let mut power_vulnerabilities = Vec::new();
        let mut electromagnetic_vulnerabilities = Vec::new();
        let mut acoustic_vulnerabilities = Vec::new();
        let mut cache_vulnerabilities = Vec::new();
        let mut fault_injection_vulnerabilities = Vec::new();

        for detector in &self.side_channel_detector.timing_attack_detectors {
            timing_vulnerabilities.extend(detector.detect_timing_vulnerabilities(context)?);
        }

        for detector in &self.side_channel_detector.power_analysis_detectors {
            power_vulnerabilities.extend(detector.detect_power_vulnerabilities(context)?);
        }

        for detector in &self.side_channel_detector.electromagnetic_detectors {
            electromagnetic_vulnerabilities.extend(detector.detect_electromagnetic_vulnerabilities(context)?);
        }

        for detector in &self.side_channel_detector.acoustic_attack_detectors {
            acoustic_vulnerabilities.extend(detector.detect_acoustic_vulnerabilities(context)?);
        }

        for detector in &self.side_channel_detector.cache_attack_detectors {
            cache_vulnerabilities.extend(detector.detect_cache_vulnerabilities(context)?);
        }

        for detector in &self.side_channel_detector.fault_injection_detectors {
            fault_injection_vulnerabilities.extend(detector.detect_fault_injection_vulnerabilities(context)?);
        }

        let side_channel_countermeasures = self.identify_applicable_countermeasures(context)?;
        let vulnerability_severity_scores = self.calculate_vulnerability_severity_scores(
            &timing_vulnerabilities,
            &power_vulnerabilities,
            &electromagnetic_vulnerabilities,
            &acoustic_vulnerabilities,
            &cache_vulnerabilities,
            &fault_injection_vulnerabilities,
        )?;

        let mitigation_recommendations = self.generate_side_channel_mitigation_recommendations(
            &timing_vulnerabilities,
            &power_vulnerabilities,
            &electromagnetic_vulnerabilities,
            &acoustic_vulnerabilities,
            &cache_vulnerabilities,
            &fault_injection_vulnerabilities,
        )?;

        Ok(SideChannelAnalysisResult {
            timing_attack_vulnerabilities: timing_vulnerabilities,
            power_analysis_vulnerabilities: power_vulnerabilities,
            electromagnetic_vulnerabilities,
            acoustic_vulnerabilities,
            cache_attack_vulnerabilities: cache_vulnerabilities,
            fault_injection_vulnerabilities,
            side_channel_countermeasures,
            vulnerability_severity_scores,
            mitigation_recommendations,
        })
    }

    fn analyze_cryptographic_protocols(&mut self, context: &TraitUsageContext) -> Result<ProtocolAnalysisResult, CryptographicAnalysisError> {
        let tls_analysis = self.protocol_analyzer.tls_analyzer.analyze_tls_usage(context)?;
        let ssh_analysis = self.protocol_analyzer.ssh_analyzer.analyze_ssh_usage(context)?;
        let ipsec_analysis = self.protocol_analyzer.ipsec_analyzer.analyze_ipsec_usage(context)?;
        let pgp_analysis = self.protocol_analyzer.pgp_analyzer.analyze_pgp_usage(context)?;
        let oauth_analysis = self.protocol_analyzer.oauth_analyzer.analyze_oauth_usage(context)?;
        let saml_analysis = self.protocol_analyzer.saml_analyzer.analyze_saml_usage(context)?;
        let kerberos_analysis = self.protocol_analyzer.kerberos_analyzer.analyze_kerberos_usage(context)?;

        let protocol_state_analysis = self.protocol_analyzer.protocol_state_analyzer.analyze_protocol_states(context)?;
        let message_flow_analysis = self.protocol_analyzer.message_flow_analyzer.analyze_message_flows(context)?;
        let authentication_analysis = self.protocol_analyzer.authentication_analyzer.analyze_authentication_protocols(context)?;

        let protocol_vulnerabilities = self.identify_protocol_vulnerabilities(context)?;
        let protocol_recommendations = self.generate_protocol_recommendations(&protocol_vulnerabilities)?;

        Ok(ProtocolAnalysisResult {
            tls_analysis,
            ssh_analysis,
            ipsec_analysis,
            pgp_analysis,
            oauth_analysis,
            saml_analysis,
            kerberos_analysis,
            protocol_state_analysis,
            message_flow_analysis,
            authentication_analysis,
            protocol_vulnerabilities,
            protocol_recommendations,
        })
    }

    fn analyze_random_number_generation(&mut self, context: &TraitUsageContext) -> Result<RandomNumberAnalysisResult, CryptographicAnalysisError> {
        let entropy_test_results = self.run_entropy_tests(context)?;
        let statistical_test_results = self.run_statistical_randomness_tests(context)?;
        let predictability_analysis = self.analyze_predictability(context)?;
        let seed_analysis = self.analyze_seed_quality(context)?;

        let prng_analysis = self.analyze_prng_implementations(context)?;
        let trng_analysis = self.analyze_trng_implementations(context)?;
        let drbg_analysis = self.analyze_drbg_implementations(context)?;

        let nist_test_results = self.random_number_analyzer.nist_test_suite.run_tests(context)?;
        let diehard_test_results = self.random_number_analyzer.diehard_test_suite.run_tests(context)?;
        let testu01_results = self.random_number_analyzer.testU01_suite.run_tests(context)?;

        let randomness_quality_score = self.calculate_randomness_quality_score(
            &entropy_test_results,
            &statistical_test_results,
            &nist_test_results,
            &diehard_test_results,
            &testu01_results,
        )?;

        let randomness_recommendations = self.generate_randomness_recommendations(
            &entropy_test_results,
            &predictability_analysis,
            &seed_analysis,
        )?;

        Ok(RandomNumberAnalysisResult {
            entropy_test_results,
            statistical_test_results,
            predictability_analysis,
            seed_analysis,
            prng_analysis,
            trng_analysis,
            drbg_analysis,
            nist_test_results,
            diehard_test_results,
            testu01_results,
            randomness_quality_score,
            randomness_recommendations,
        })
    }

    fn analyze_hash_functions(&mut self, context: &TraitUsageContext) -> Result<HashFunctionAnalysisResult, CryptographicAnalysisError> {
        let collision_resistance_results = self.test_collision_resistance(context)?;
        let preimage_resistance_results = self.test_preimage_resistance(context)?;
        let second_preimage_results = self.test_second_preimage_resistance(context)?;
        let avalanche_effect_results = self.test_avalanche_effect(context)?;
        let birthday_attack_analysis = self.analyze_birthday_attack_vulnerability(context)?;
        let length_extension_analysis = self.analyze_length_extension_vulnerability(context)?;

        let hash_family_analysis = self.analyze_hash_families(context)?;
        let merkle_damgard_analysis = self.hash_function_analyzer.merkle_damgard_analyzer.analyze(context)?;
        let sponge_function_analysis = self.hash_function_analyzer.sponge_function_analyzer.analyze(context)?;

        let hash_security_score = self.calculate_hash_security_score(
            &collision_resistance_results,
            &preimage_resistance_results,
            &second_preimage_results,
            &avalanche_effect_results,
        )?;

        let hash_recommendations = self.generate_hash_function_recommendations(
            &collision_resistance_results,
            &birthday_attack_analysis,
            &length_extension_analysis,
        )?;

        Ok(HashFunctionAnalysisResult {
            collision_resistance_results,
            preimage_resistance_results,
            second_preimage_results,
            avalanche_effect_results,
            birthday_attack_analysis,
            length_extension_analysis,
            hash_family_analysis,
            merkle_damgard_analysis,
            sponge_function_analysis,
            hash_security_score,
            hash_recommendations,
        })
    }

    fn analyze_digital_signatures(&mut self, context: &TraitUsageContext) -> Result<SignatureAnalysisResult, CryptographicAnalysisError> {
        let mut signature_scheme_results = HashMap::new();
        let mut verification_results = Vec::new();
        let mut forge_resistance_results = Vec::new();
        let mut existential_forgery_results = Vec::new();

        for (name, analyzer) in &self.signature_analyzer.signature_scheme_analyzers {
            let result = analyzer.analyze_signature_scheme(context)?;
            signature_scheme_results.insert(name.clone(), result);
        }

        for analyzer in &self.signature_analyzer.verification_analyzers {
            verification_results.extend(analyzer.analyze_signature_verification(context)?);
        }

        for tester in &self.signature_analyzer.forge_resistance_testers {
            forge_resistance_results.extend(tester.test_forge_resistance(context)?);
        }

        for tester in &self.signature_analyzer.existential_forgery_testers {
            existential_forgery_results.extend(tester.test_existential_forgery(context)?);
        }

        let chosen_message_analysis = self.analyze_chosen_message_attacks(context)?;
        let blind_signature_analysis = self.analyze_blind_signatures(context)?;
        let multi_signature_analysis = self.analyze_multi_signatures(context)?;
        let threshold_signature_analysis = self.analyze_threshold_signatures(context)?;
        let ring_signature_analysis = self.analyze_ring_signatures(context)?;

        let signature_security_score = self.calculate_signature_security_score(
            &signature_scheme_results,
            &verification_results,
            &forge_resistance_results,
        )?;

        let signature_recommendations = self.generate_signature_recommendations(
            &forge_resistance_results,
            &existential_forgery_results,
            &chosen_message_analysis,
        )?;

        Ok(SignatureAnalysisResult {
            signature_scheme_results,
            verification_results,
            forge_resistance_results,
            existential_forgery_results,
            chosen_message_analysis,
            blind_signature_analysis,
            multi_signature_analysis,
            threshold_signature_analysis,
            ring_signature_analysis,
            signature_security_score,
            signature_recommendations,
        })
    }

    fn analyze_encryption_schemes(&mut self, context: &TraitUsageContext) -> Result<EncryptionAnalysisResult, CryptographicAnalysisError> {
        let symmetric_encryption_analysis = self.analyze_symmetric_encryption(context)?;
        let asymmetric_encryption_analysis = self.analyze_asymmetric_encryption(context)?;
        let mode_of_operation_analysis = self.analyze_modes_of_operation(context)?;
        let padding_scheme_analysis = self.analyze_padding_schemes(context)?;
        let authenticated_encryption_analysis = self.analyze_authenticated_encryption(context)?;

        let chosen_plaintext_analysis = self.analyze_chosen_plaintext_attacks(context)?;
        let chosen_ciphertext_analysis = self.analyze_chosen_ciphertext_attacks(context)?;
        let known_plaintext_analysis = self.analyze_known_plaintext_attacks(context)?;

        let differential_cryptanalysis_results = self.encryption_analyzer.differential_cryptanalysis.analyze(context)?;
        let linear_cryptanalysis_results = self.encryption_analyzer.linear_cryptanalysis.analyze(context)?;

        let encryption_security_score = self.calculate_encryption_security_score(
            &symmetric_encryption_analysis,
            &asymmetric_encryption_analysis,
            &authenticated_encryption_analysis,
        )?;

        let encryption_recommendations = self.generate_encryption_recommendations(
            &chosen_plaintext_analysis,
            &chosen_ciphertext_analysis,
            &mode_of_operation_analysis,
            &padding_scheme_analysis,
        )?;

        Ok(EncryptionAnalysisResult {
            symmetric_encryption_analysis,
            asymmetric_encryption_analysis,
            mode_of_operation_analysis,
            padding_scheme_analysis,
            authenticated_encryption_analysis,
            chosen_plaintext_analysis,
            chosen_ciphertext_analysis,
            known_plaintext_analysis,
            differential_cryptanalysis_results,
            linear_cryptanalysis_results,
            encryption_security_score,
            encryption_recommendations,
        })
    }

    fn analyze_quantum_resistance(&mut self, context: &TraitUsageContext) -> Result<QuantumResistanceAnalysisResult, CryptographicAnalysisError> {
        let mut post_quantum_results = HashMap::new();

        for (name, analyzer) in &self.quantum_resistance_analyzer.post_quantum_analyzers {
            let result = analyzer.analyze_post_quantum_security(context)?;
            post_quantum_results.insert(name.clone(), result);
        }

        let shor_algorithm_impact = self.quantum_resistance_analyzer.shor_algorithm_analyzer.analyze_impact(context)?;
        let grover_algorithm_impact = self.quantum_resistance_analyzer.grover_algorithm_analyzer.analyze_impact(context)?;
        let quantum_key_distribution_analysis = self.quantum_resistance_analyzer.quantum_key_distribution_analyzer.analyze(context)?;

        let lattice_based_analysis = self.analyze_lattice_based_cryptography(context)?;
        let code_based_analysis = self.analyze_code_based_cryptography(context)?;
        let multivariate_analysis = self.analyze_multivariate_cryptography(context)?;
        let hash_based_analysis = self.analyze_hash_based_cryptography(context)?;
        let isogeny_analysis = self.analyze_isogeny_based_cryptography(context)?;

        let quantum_threat_assessment = self.assess_quantum_threat_timeline(context)?;
        let migration_strategy = self.develop_quantum_migration_strategy(context)?;

        let quantum_resistance_score = self.calculate_quantum_resistance_score(
            &post_quantum_results,
            &shor_algorithm_impact,
            &grover_algorithm_impact,
        )?;

        let quantum_recommendations = self.generate_quantum_resistance_recommendations(
            &quantum_threat_assessment,
            &migration_strategy,
        )?;

        Ok(QuantumResistanceAnalysisResult {
            post_quantum_results,
            shor_algorithm_impact,
            grover_algorithm_impact,
            quantum_key_distribution_analysis,
            lattice_based_analysis,
            code_based_analysis,
            multivariate_analysis,
            hash_based_analysis,
            isogeny_analysis,
            quantum_threat_assessment,
            migration_strategy,
            quantum_resistance_score,
            quantum_recommendations,
        })
    }

    fn analyze_cryptographic_implementation(&mut self, context: &TraitUsageContext) -> Result<ImplementationAnalysisResult, CryptographicAnalysisError> {
        let constant_time_analysis = self.analyze_constant_time_implementation(context)?;
        let memory_safety_analysis = self.analyze_memory_safety(context)?;
        let secure_coding_analysis = self.analyze_secure_coding_practices(context)?;
        let library_analysis = self.analyze_cryptographic_libraries(context)?;
        let hardware_security_analysis = self.analyze_hardware_security_features(context)?;

        let side_channel_countermeasures_analysis = self.analyze_side_channel_countermeasures(context)?;
        let fault_tolerance_analysis = self.analyze_fault_tolerance(context)?;
        let performance_security_analysis = self.analyze_performance_security_tradeoffs(context)?;

        let implementation_security_score = self.calculate_implementation_security_score(
            &constant_time_analysis,
            &memory_safety_analysis,
            &secure_coding_analysis,
            &hardware_security_analysis,
        )?;

        let implementation_recommendations = self.generate_implementation_recommendations(
            &constant_time_analysis,
            &memory_safety_analysis,
            &side_channel_countermeasures_analysis,
        )?;

        Ok(ImplementationAnalysisResult {
            constant_time_analysis,
            memory_safety_analysis,
            secure_coding_analysis,
            library_analysis,
            hardware_security_analysis,
            side_channel_countermeasures_analysis,
            fault_tolerance_analysis,
            performance_security_analysis,
            implementation_security_score,
            implementation_recommendations,
        })
    }
}

impl CryptographicAlgorithmAnalyzer {
    pub fn new() -> Self {
        Self {
            symmetric_analyzers: Self::initialize_symmetric_analyzers(),
            asymmetric_analyzers: Self::initialize_asymmetric_analyzers(),
            hash_analyzers: Self::initialize_hash_analyzers(),
            mac_analyzers: Self::initialize_mac_analyzers(),
            kdf_analyzers: Self::initialize_kdf_analyzers(),
            algorithm_database: CryptographicAlgorithmDatabase::new(),
            weakness_patterns: Self::initialize_weakness_patterns(),
            security_levels: Self::initialize_security_levels(),
        }
    }

    fn initialize_symmetric_analyzers() -> HashMap<String, SymmetricAlgorithmAnalyzer> {
        let mut analyzers = HashMap::new();
        analyzers.insert("AES".to_string(), SymmetricAlgorithmAnalyzer::new_aes());
        analyzers.insert("ChaCha20".to_string(), SymmetricAlgorithmAnalyzer::new_chacha20());
        analyzers.insert("Salsa20".to_string(), SymmetricAlgorithmAnalyzer::new_salsa20());
        analyzers.insert("3DES".to_string(), SymmetricAlgorithmAnalyzer::new_3des());
        analyzers.insert("Blowfish".to_string(), SymmetricAlgorithmAnalyzer::new_blowfish());
        analyzers.insert("Twofish".to_string(), SymmetricAlgorithmAnalyzer::new_twofish());
        analyzers
    }

    fn initialize_asymmetric_analyzers() -> HashMap<String, AsymmetricAlgorithmAnalyzer> {
        let mut analyzers = HashMap::new();
        analyzers.insert("RSA".to_string(), AsymmetricAlgorithmAnalyzer::new_rsa());
        analyzers.insert("ECDSA".to_string(), AsymmetricAlgorithmAnalyzer::new_ecdsa());
        analyzers.insert("EdDSA".to_string(), AsymmetricAlgorithmAnalyzer::new_eddsa());
        analyzers.insert("DH".to_string(), AsymmetricAlgorithmAnalyzer::new_dh());
        analyzers.insert("ECDH".to_string(), AsymmetricAlgorithmAnalyzer::new_ecdh());
        analyzers.insert("DSA".to_string(), AsymmetricAlgorithmAnalyzer::new_dsa());
        analyzers
    }

    fn initialize_hash_analyzers() -> HashMap<String, HashAlgorithmAnalyzer> {
        let mut analyzers = HashMap::new();
        analyzers.insert("SHA-256".to_string(), HashAlgorithmAnalyzer::new_sha256());
        analyzers.insert("SHA-3".to_string(), HashAlgorithmAnalyzer::new_sha3());
        analyzers.insert("BLAKE2".to_string(), HashAlgorithmAnalyzer::new_blake2());
        analyzers.insert("SHA-1".to_string(), HashAlgorithmAnalyzer::new_sha1());
        analyzers.insert("MD5".to_string(), HashAlgorithmAnalyzer::new_md5());
        analyzers
    }

    fn initialize_mac_analyzers() -> HashMap<String, MacAlgorithmAnalyzer> {
        let mut analyzers = HashMap::new();
        analyzers.insert("HMAC".to_string(), MacAlgorithmAnalyzer::new_hmac());
        analyzers.insert("Poly1305".to_string(), MacAlgorithmAnalyzer::new_poly1305());
        analyzers.insert("GMAC".to_string(), MacAlgorithmAnalyzer::new_gmac());
        analyzers
    }

    fn initialize_kdf_analyzers() -> HashMap<String, KdfAlgorithmAnalyzer> {
        let mut analyzers = HashMap::new();
        analyzers.insert("PBKDF2".to_string(), KdfAlgorithmAnalyzer::new_pbkdf2());
        analyzers.insert("Argon2".to_string(), KdfAlgorithmAnalyzer::new_argon2());
        analyzers.insert("scrypt".to_string(), KdfAlgorithmAnalyzer::new_scrypt());
        analyzers.insert("bcrypt".to_string(), KdfAlgorithmAnalyzer::new_bcrypt());
        analyzers
    }

    fn initialize_weakness_patterns() -> Vec<AlgorithmWeaknessPattern> {
        vec![
            AlgorithmWeaknessPattern {
                pattern_name: "Weak Key Sizes".to_string(),
                description: "Algorithm uses key sizes that are considered weak".to_string(),
                detection_criteria: vec!["key_size < 128".to_string()],
                severity: WeaknessSeverity::High,
            },
            AlgorithmWeaknessPattern {
                pattern_name: "Deprecated Algorithms".to_string(),
                description: "Algorithm is deprecated or broken".to_string(),
                detection_criteria: vec!["algorithm in [MD5, SHA1, DES]".to_string()],
                severity: WeaknessSeverity::Critical,
            },
        ]
    }

    fn initialize_security_levels() -> HashMap<String, SecurityLevel> {
        let mut levels = HashMap::new();
        levels.insert("AES-128".to_string(), SecurityLevel::new(128, SecurityStrength::High));
        levels.insert("AES-256".to_string(), SecurityLevel::new(256, SecurityStrength::VeryHigh));
        levels.insert("RSA-2048".to_string(), SecurityLevel::new(112, SecurityStrength::Medium));
        levels.insert("RSA-3072".to_string(), SecurityLevel::new(128, SecurityStrength::High));
        levels.insert("ECDSA-P256".to_string(), SecurityLevel::new(128, SecurityStrength::High));
        levels.insert("ECDSA-P384".to_string(), SecurityLevel::new(192, SecurityStrength::VeryHigh));
        levels
    }
}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub enum CryptographicAnalysisError {
    AlgorithmAnalysisError(String),
    KeyManagementError(String),
    SideChannelAnalysisError(String),
    ProtocolAnalysisError(String),
    RandomnessAnalysisError(String),
    ImplementationAnalysisError(String),
    ConfigurationError(String),
    DataError(String),
}

impl std::fmt::Display for CryptographicAnalysisError {
    fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {
        match self {
            CryptographicAnalysisError::AlgorithmAnalysisError(msg) => write!(f, "Algorithm analysis error: {}", msg),
            CryptographicAnalysisError::KeyManagementError(msg) => write!(f, "Key management error: {}", msg),
            CryptographicAnalysisError::SideChannelAnalysisError(msg) => write!(f, "Side channel analysis error: {}", msg),
            CryptographicAnalysisError::ProtocolAnalysisError(msg) => write!(f, "Protocol analysis error: {}", msg),
            CryptographicAnalysisError::RandomnessAnalysisError(msg) => write!(f, "Randomness analysis error: {}", msg),
            CryptographicAnalysisError::ImplementationAnalysisError(msg) => write!(f, "Implementation analysis error: {}", msg),
            CryptographicAnalysisError::ConfigurationError(msg) => write!(f, "Configuration error: {}", msg),
            CryptographicAnalysisError::DataError(msg) => write!(f, "Data error: {}", msg),
        }
    }
}

impl std::error::Error for CryptographicAnalysisError {}

#[derive(Debug, Clone, Serialize, Deserialize)]
pub struct CryptographicAnalysisConfig {
    pub algorithm_analysis_depth: AnalysisDepth,
    pub side_channel_analysis_enabled: bool,
    pub quantum_resistance_analysis_enabled: bool,
    pub compliance_standards: Vec<String>,
    pub cache_duration: Duration,
    pub analysis_confidence_threshold: f64,
}

impl Default for CryptographicAnalysisConfig {
    fn default() -> Self {
        Self {
            algorithm_analysis_depth: AnalysisDepth::Moderate,
            side_channel_analysis_enabled: true,
            quantum_resistance_analysis_enabled: true,
            compliance_standards: vec!["FIPS-140-2".to_string(), "Common Criteria".to_string()],
            cache_duration: Duration::from_secs(3600),
            analysis_confidence_threshold: 0.8,
        }
    }
}

macro_rules! define_crypto_supporting_types {
    () => {
        #[derive(Debug, Clone, Serialize, Deserialize)]
        pub enum AnalysisDepth {
            Surface,
            Moderate,
            Deep,
            Comprehensive,
        }

        #[derive(Debug, Clone, Serialize, Deserialize)]
        pub enum WeaknessSeverity {
            Low,
            Medium,
            High,
            Critical,
        }

        #[derive(Debug, Clone, Serialize, Deserialize)]
        pub enum SecurityStrength {
            VeryLow,
            Low,
            Medium,
            High,
            VeryHigh,
        }

        #[derive(Debug, Clone, Serialize, Deserialize)]
        pub struct SecurityLevel {
            pub bits_of_security: u32,
            pub strength: SecurityStrength,
        }

        impl SecurityLevel {
            pub fn new(bits: u32, strength: SecurityStrength) -> Self {
                Self {
                    bits_of_security: bits,
                    strength,
                }
            }
        }

        #[derive(Debug, Clone, Serialize, Deserialize)]
        pub struct AlgorithmWeaknessPattern {
            pub pattern_name: String,
            pub description: String,
            pub detection_criteria: Vec<String>,
            pub severity: WeaknessSeverity,
        }

        #[derive(Debug, Clone, Serialize, Deserialize)]
        pub struct CachedCryptographicAnalysis {
            pub result: CryptographicAnalysisResult,
            pub cache_timestamp: SystemTime,
            pub cache_ttl: Duration,
        }
    };
}

define_crypto_supporting_types!();

pub fn create_cryptographic_analyzer() -> CryptographicAnalyzer {
    CryptographicAnalyzer::new()
}

pub fn analyze_cryptographic_security(context: &TraitUsageContext) -> Result<CryptographicAnalysisResult, CryptographicAnalysisError> {
    let mut analyzer = CryptographicAnalyzer::new();
    analyzer.analyze_cryptographic_security(context)
}