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@versatil/sdlc-framework

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๐Ÿš€ AI-Native SDLC framework with 11-MCP ecosystem, RAG memory, OPERA orchestration, and 6 specialized agents achieving ZERO CONTEXT LOSS. Features complete CI/CD pipeline with 7 GitHub workflows (MCP testing, security scanning, performance benchmarking),

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#!/usr/bin/env node /** * VERSATIL SDLC Framework - Microsegmentation Stress Test * Enhanced stress testing with cybersecurity microsegmentation principles */ const fs = require('fs'); const path = require('path'); const os = require('os'); const { spawn, exec } = require('child_process'); const { promisify } = require('util'); const execAsync = promisify(exec); const colors = { green: '\x1b[32m', red: '\x1b[31m', yellow: '\x1b[33m', blue: '\x1b[34m', magenta: '\x1b[35m', cyan: '\x1b[36m', reset: '\x1b[0m', bold: '\x1b[1m' }; class MicrosegmentationStressTest { constructor() { this.frameworkRoot = path.dirname(__dirname); this.versatilHome = path.join(os.homedir(), '.versatil'); this.testProjectsRoot = path.join(os.tmpdir(), 'versatil-microseg-test'); this.results = { framework_isolation: [], project_segmentation: [], boundary_enforcement: [], threat_detection: [], zero_trust_validation: [], penetration_testing: [], summary: {} }; this.startTime = Date.now(); // Security segments for testing this.securitySegments = { framework_core: { paths: [this.frameworkRoot + '/**'], access_level: 'privileged', trust_level: 'trusted' }, shared_intelligence: { paths: [path.join(this.versatilHome, 'rag') + '/**'], access_level: 'read_only', trust_level: 'limited' }, project_sandbox: { paths: [this.testProjectsRoot + '/**'], access_level: 'isolated', trust_level: 'untrusted' } }; } async runMicrosegmentationStressTest() { console.log(`\\n${colors.bold}${colors.magenta}๐Ÿ”’ VERSATIL Microsegmentation Stress Test${colors.reset}\\n`); console.log(`Framework Root: ${colors.blue}${this.frameworkRoot}${colors.reset}`); console.log(`VERSATIL Home: ${colors.blue}${this.versatilHome}${colors.reset}`); console.log(`Test Projects: ${colors.blue}${this.testProjectsRoot}${colors.reset}\\n`); try { // Phase 1: Framework Core Isolation await this.testFrameworkCoreIsolation(); // Phase 2: Project Segmentation await this.testProjectSegmentation(); // Phase 3: Boundary Enforcement await this.testBoundaryEnforcement(); // Phase 4: Threat Detection & Response await this.testThreatDetection(); // Phase 5: Zero Trust Validation await this.testZeroTrustPrinciples(); // Phase 6: Penetration Testing await this.performPenetrationTesting(); // Generate comprehensive report this.generateMicrosegmentationReport(); } catch (error) { console.error(`${colors.red}Microsegmentation test failed: ${error.message}${colors.reset}`); throw error; } finally { await this.cleanup(); } } async testFrameworkCoreIsolation() { console.log(`${colors.cyan}๐Ÿฐ Phase 1: Framework Core Isolation Testing${colors.reset}`); const tests = [ { name: 'Framework Core Segment Integrity', test: async () => { const violations = []; // Check for framework pollution const frameworkPollutants = [ path.join(this.frameworkRoot, '.versatil'), path.join(this.frameworkRoot, 'supabase'), path.join(this.frameworkRoot, '.versatil-logs'), path.join(this.frameworkRoot, '.versatil-memory') ]; for (const pollutant of frameworkPollutants) { if (fs.existsSync(pollutant)) { violations.push(`Framework core contaminated with: ${path.basename(pollutant)}`); } } // Check for proper framework home structure const requiredFrameworkDirs = ['logs', 'rag', 'supabase', 'mcp']; for (const dir of requiredFrameworkDirs) { const dirPath = path.join(this.versatilHome, dir); if (!fs.existsSync(dirPath)) { violations.push(`Missing required framework home directory: ${dir}`); } } return { passed: violations.length === 0, violations }; } }, { name: 'Framework-Project Boundary Enforcement', test: async () => { const testProjectPath = path.join(this.testProjectsRoot, 'boundary-test'); fs.mkdirSync(testProjectPath, { recursive: true }); // Test 1: Project cannot write to framework core try { const frameworkTestFile = path.join(this.frameworkRoot, 'contamination-test.txt'); fs.writeFileSync(frameworkTestFile, 'This should not exist'); // If we can write, that's a violation fs.unlinkSync(frameworkTestFile); // Clean up return { passed: false, violation: 'Project was able to write to framework core directory' }; } catch (error) { // Good - writing failed as expected } // Test 2: Framework home should be protected try { const homeTestFile = path.join(this.versatilHome, 'contamination-test.txt'); fs.writeFileSync(homeTestFile, 'This should be controlled'); // This might be allowed for framework operations, but we should audit fs.unlinkSync(homeTestFile); // Clean up return { passed: true, note: 'Framework home write access detected - requires auditing' }; } catch (error) { return { passed: true, note: 'Framework home properly protected' }; } } }, { name: 'Privilege Escalation Prevention', test: async () => { const violations = []; // Check for executable files in project areas that could escalate privileges const suspiciousExecutables = [ 'sudo', 'su', 'chmod', 'chown', 'mount' ]; try { const testProjectPath = path.join(this.testProjectsRoot, 'privilege-test'); fs.mkdirSync(testProjectPath, { recursive: true }); // Test: Try to create suspicious files for (const executable of suspiciousExecutables) { const execPath = path.join(testProjectPath, executable); try { fs.writeFileSync(execPath, '#!/bin/bash\\necho "privilege escalation attempt"'); violations.push(`Created suspicious executable: ${executable}`); } catch (error) { // Good - creation prevented } } return { passed: violations.length === 0, violations }; } catch (error) { return { passed: false, error: error.message }; } } }, { name: 'Environment Variable Isolation', test: async () => { const issues = []; // Check framework .env separation const frameworkEnv = path.join(this.frameworkRoot, '.env'); const homeEnv = path.join(this.versatilHome, '.env'); if (fs.existsSync(frameworkEnv)) { const content = fs.readFileSync(frameworkEnv, 'utf8'); // Framework .env should not contain runtime secrets const runtimeSecrets = ['SUPABASE_URL', 'SUPABASE_ANON_KEY', 'OPENAI_API_KEY']; for (const secret of runtimeSecrets) { if (content.includes(secret)) { issues.push(`Framework .env contains runtime secret: ${secret}`); } } } // Framework home should have the runtime config if (!fs.existsSync(homeEnv)) { issues.push('Framework home missing runtime .env configuration'); } return { passed: issues.length === 0, issues }; } } ]; for (const test of tests) { console.log(` ๐Ÿงช ${test.name}...`); const result = await test.test(); this.results.framework_isolation.push({ name: test.name, passed: result.passed, details: result }); if (result.passed) { console.log(` ${colors.green}โœ“ Passed${colors.reset}`); } else { console.log(` ${colors.red}โœ— Failed${colors.reset}`); if (result.violations) { result.violations.forEach(v => console.log(` - ${v}`)); } } } } async testProjectSegmentation() { console.log(`\\n${colors.cyan}๐Ÿ“ฆ Phase 2: Project Segmentation Testing${colors.reset}`); // Create multiple isolated project segments const projects = [ { id: 'segment-a', type: 'react', security_level: 'standard' }, { id: 'segment-b', type: 'vue', security_level: 'enhanced' }, { id: 'segment-c', type: 'node', security_level: 'high' } ]; // Setup project segments for (const project of projects) { const projectPath = path.join(this.testProjectsRoot, project.id); fs.mkdirSync(projectPath, { recursive: true }); // Create project security boundary const securityConfig = { projectId: project.id, segmentType: 'project_sandbox', trustLevel: 'untrusted', isolationLevel: project.security_level, allowedAccess: ['shared_intelligence:read'], forbiddenAccess: ['framework_core:*', 'other_projects:*'], boundaryEnforcement: { filesystem: true, memory: true, process: true, network: true }, created: new Date().toISOString() }; fs.writeFileSync( path.join(projectPath, '.versatil-security.json'), JSON.stringify(securityConfig, null, 2) ); console.log(` ๐Ÿ“ฆ Created security segment: ${project.id} (${project.security_level})`); } const segmentationTests = [ { name: 'Inter-Project Isolation', test: async () => { const violations = []; // Test that projects cannot access each other for (let i = 0; i < projects.length; i++) { for (let j = 0; j < projects.length; j++) { if (i !== j) { const sourceProject = projects[i]; const targetProject = projects[j]; try { // Try to create file in another project's directory const sourcePath = path.join(this.testProjectsRoot, sourceProject.id); const targetPath = path.join(this.testProjectsRoot, targetProject.id, 'intrusion.txt'); // This should be prevented by proper segmentation fs.writeFileSync(targetPath, `Intrusion from ${sourceProject.id}`); violations.push(`${sourceProject.id} able to write to ${targetProject.id}`); // Clean up if (fs.existsSync(targetPath)) { fs.unlinkSync(targetPath); } } catch (error) { // Good - access was prevented } } } } return { passed: violations.length === 0, violations }; } }, { name: 'Segment Configuration Integrity', test: async () => { const configurationIssues = []; for (const project of projects) { const configPath = path.join(this.testProjectsRoot, project.id, '.versatil-security.json'); if (!fs.existsSync(configPath)) { configurationIssues.push(`Missing security config for ${project.id}`); continue; } try { const config = JSON.parse(fs.readFileSync(configPath, 'utf8')); // Verify required security fields const requiredFields = ['projectId', 'segmentType', 'trustLevel', 'isolationLevel']; for (const field of requiredFields) { if (!config[field]) { configurationIssues.push(`${project.id} missing required field: ${field}`); } } // Verify security settings if (config.trustLevel !== 'untrusted') { configurationIssues.push(`${project.id} has elevated trust level: ${config.trustLevel}`); } if (!config.boundaryEnforcement || !config.boundaryEnforcement.filesystem) { configurationIssues.push(`${project.id} lacks filesystem boundary enforcement`); } } catch (error) { configurationIssues.push(`${project.id} security config parse error: ${error.message}`); } } return { passed: configurationIssues.length === 0, issues: configurationIssues }; } }, { name: 'Security Level Differentiation', test: async () => { const differentiationIssues = []; // Verify that different security levels have different capabilities const securityLevels = projects.map(p => p.security_level); const uniqueLevels = [...new Set(securityLevels)]; if (uniqueLevels.length !== securityLevels.length) { differentiationIssues.push('Security levels are not properly differentiated'); } // Test that higher security levels have more restrictions const highSecurityProject = projects.find(p => p.security_level === 'high'); const standardSecurityProject = projects.find(p => p.security_level === 'standard'); if (highSecurityProject && standardSecurityProject) { const highConfig = JSON.parse(fs.readFileSync( path.join(this.testProjectsRoot, highSecurityProject.id, '.versatil-security.json'), 'utf8' )); const standardConfig = JSON.parse(fs.readFileSync( path.join(this.testProjectsRoot, standardSecurityProject.id, '.versatil-security.json'), 'utf8' )); // High security should have same or more restrictions if (highConfig.allowedAccess && standardConfig.allowedAccess) { if (highConfig.allowedAccess.length > standardConfig.allowedAccess.length) { differentiationIssues.push('High security project has more access than standard'); } } } return { passed: differentiationIssues.length === 0, issues: differentiationIssues }; } } ]; for (const test of segmentationTests) { console.log(` ๐Ÿงช ${test.name}...`); const result = await test.test(); this.results.project_segmentation.push({ name: test.name, passed: result.passed, details: result }); if (result.passed) { console.log(` ${colors.green}โœ“ Passed${colors.reset}`); } else { console.log(` ${colors.red}โœ— Failed${colors.reset}`); if (result.violations) { result.violations.forEach(v => console.log(` - ${v}`)); } if (result.issues) { result.issues.forEach(i => console.log(` - ${i}`)); } } } } async testBoundaryEnforcement() { console.log(`\\n${colors.cyan}๐Ÿ›ก๏ธ Phase 3: Boundary Enforcement Testing${colors.reset}`); const boundaryTests = [ { name: 'Filesystem Boundary Enforcement', test: async () => { const violations = []; const testProject = 'segment-a'; const projectPath = path.join(this.testProjectsRoot, testProject); // Test 1: Cannot access framework core files try { const frameworkFile = path.join(this.frameworkRoot, 'package.json'); const projectAttempt = path.join(projectPath, 'stolen-package.json'); // Try to copy framework file (this should be detected/prevented) const content = fs.readFileSync(frameworkFile, 'utf8'); fs.writeFileSync(projectAttempt, content); violations.push('Project able to access and copy framework core files'); // Clean up if (fs.existsSync(projectAttempt)) { fs.unlinkSync(projectAttempt); } } catch (error) { // Good - access was prevented } // Test 2: Cannot access framework home directories try { const homeDir = path.join(this.versatilHome, 'rag'); if (fs.existsSync(homeDir)) { const files = fs.readdirSync(homeDir); if (files.length > 0) { // Try to access files from project context const homeFile = path.join(homeDir, files[0]); const projectAttempt = path.join(projectPath, 'stolen-home-file'); const content = fs.readFileSync(homeFile); fs.writeFileSync(projectAttempt, content); violations.push('Project able to access framework home files'); // Clean up if (fs.existsSync(projectAttempt)) { fs.unlinkSync(projectAttempt); } } } } catch (error) { // Good - access was prevented } return { passed: violations.length === 0, violations }; } }, { name: 'Process Boundary Enforcement', test: async () => { const processViolations = []; // Test process isolation by checking if projects can spawn privileged processes const testProject = 'segment-a'; const projectPath = path.join(this.testProjectsRoot, testProject); try { // Create a script that tries to escalate privileges const escalationScript = path.join(projectPath, 'escalate.sh'); fs.writeFileSync(escalationScript, '#!/bin/bash\\nsudo echo "privilege escalation"\\n'); // Try to make it executable try { fs.chmodSync(escalationScript, 0o755); processViolations.push('Project able to create executable scripts'); } catch (error) { // Good - chmod was prevented } // Clean up if (fs.existsSync(escalationScript)) { fs.unlinkSync(escalationScript); } } catch (error) { // Good - script creation was prevented } return { passed: processViolations.length === 0, violations: processViolations }; } }, { name: 'Network Boundary Enforcement', test: async () => { // This is a simplified test - in real implementation would test actual network isolation const networkIssues = []; // Check if projects have network restrictions configured const testProject = 'segment-a'; const securityConfigPath = path.join(this.testProjectsRoot, testProject, '.versatil-security.json'); if (fs.existsSync(securityConfigPath)) { const config = JSON.parse(fs.readFileSync(securityConfigPath, 'utf8')); if (!config.boundaryEnforcement || !config.boundaryEnforcement.network) { networkIssues.push('Network boundary enforcement not configured'); } } else { networkIssues.push('No security configuration found for network testing'); } return { passed: networkIssues.length === 0, issues: networkIssues }; } }, { name: 'Memory Boundary Enforcement', test: async () => { const memoryIssues = []; // Test memory isolation by checking resource limits const initialMemory = process.memoryUsage(); // Simulate memory-intensive operation within project context const testData = []; try { // Try to allocate significant memory for (let i = 0; i < 1000; i++) { testData.push(new Array(10000).fill('memory-test')); } const finalMemory = process.memoryUsage(); const memoryIncrease = finalMemory.heapUsed - initialMemory.heapUsed; // Check if memory usage is within reasonable bounds if (memoryIncrease > 100 * 1024 * 1024) { // 100MB memoryIssues.push('Memory allocation exceeded reasonable limits'); } } catch (error) { // Good - memory allocation was limited } return { passed: memoryIssues.length === 0, issues: memoryIssues }; } } ]; for (const test of boundaryTests) { console.log(` ๐Ÿงช ${test.name}...`); const result = await test.test(); this.results.boundary_enforcement.push({ name: test.name, passed: result.passed, details: result }); if (result.passed) { console.log(` ${colors.green}โœ“ Passed${colors.reset}`); } else { console.log(` ${colors.red}โœ— Failed${colors.reset}`); if (result.violations) { result.violations.forEach(v => console.log(` - ${v}`)); } if (result.issues) { result.issues.forEach(i => console.log(` - ${i}`)); } } } } async testThreatDetection() { console.log(`\\n${colors.cyan}๐Ÿ” Phase 4: Threat Detection & Response Testing${colors.reset}`); const threatTests = [ { name: 'Data Exfiltration Detection', test: async () => { const detectionResults = []; const testProject = 'segment-a'; const projectPath = path.join(this.testProjectsRoot, testProject); // Simulate data exfiltration attempt try { const sensitiveData = 'SENSITIVE_API_KEY=sk-1234567890abcdef'; const exfilFile = path.join(projectPath, 'exfiltrated-data.txt'); fs.writeFileSync(exfilFile, sensitiveData); // Check if this triggers detection (simulated) const content = fs.readFileSync(exfilFile, 'utf8'); if (content.includes('SENSITIVE') || content.includes('API_KEY')) { detectionResults.push('Sensitive data pattern detected in project files'); } // Clean up if (fs.existsSync(exfilFile)) { fs.unlinkSync(exfilFile); } } catch (error) { detectionResults.push('Data exfiltration attempt blocked'); } return { passed: detectionResults.length > 0, detections: detectionResults, note: 'Detection system should identify and respond to suspicious patterns' }; } }, { name: 'Lateral Movement Detection', test: async () => { const movementAttempts = []; // Test detection of cross-project access attempts const projects = ['segment-a', 'segment-b', 'segment-c']; for (let i = 0; i < projects.length; i++) { for (let j = 0; j < projects.length; j++) { if (i !== j) { const sourceProject = projects[i]; const targetProject = projects[j]; try { // Simulate lateral movement attempt const sourcePath = path.join(this.testProjectsRoot, sourceProject); const targetPath = path.join(this.testProjectsRoot, targetProject); // Try to create connection between projects const connectionFile = path.join(sourcePath, `connection-to-${targetProject}.txt`); fs.writeFileSync(connectionFile, `Attempting access to ${targetPath}`); movementAttempts.push(`${sourceProject} -> ${targetProject}`); // Clean up if (fs.existsSync(connectionFile)) { fs.unlinkSync(connectionFile); } } catch (error) { // Good - movement was blocked } } } } return { passed: movementAttempts.length >= 0, // We want to detect attempts attempts: movementAttempts, note: 'All lateral movement attempts should be detected and logged' }; } }, { name: 'Privilege Escalation Detection', test: async () => { const escalationAttempts = []; const testProject = 'segment-a'; const projectPath = path.join(this.testProjectsRoot, testProject); // Test various privilege escalation patterns const escalationPatterns = [ { name: 'sudo', content: '#!/bin/bash\\nsudo su -' }, { name: 'setuid', content: '#!/bin/bash\\nchmod +s /bin/bash' }, { name: 'kernel_exploit', content: 'echo "CVE-2023-12345 exploit"' } ]; for (const pattern of escalationPatterns) { try { const exploitFile = path.join(projectPath, `${pattern.name}-exploit.sh`); fs.writeFileSync(exploitFile, pattern.content); // Check for privilege escalation patterns const content = fs.readFileSync(exploitFile, 'utf8'); if (content.includes('sudo') || content.includes('setuid') || content.includes('exploit')) { escalationAttempts.push(`Detected ${pattern.name} escalation pattern`); } // Clean up if (fs.existsSync(exploitFile)) { fs.unlinkSync(exploitFile); } } catch (error) { escalationAttempts.push(`${pattern.name} attempt blocked`); } } return { passed: escalationAttempts.length > 0, attempts: escalationAttempts, note: 'Privilege escalation patterns should be detected and prevented' }; } }, { name: 'Configuration Tampering Detection', test: async () => { const tamperingAttempts = []; const testProject = 'segment-a'; const projectPath = path.join(this.testProjectsRoot, testProject); // Test configuration file tampering const configFile = path.join(projectPath, '.versatil-security.json'); if (fs.existsSync(configFile)) { try { // Read original config const originalConfig = fs.readFileSync(configFile, 'utf8'); const config = JSON.parse(originalConfig); // Attempt to tamper with security settings config.trustLevel = 'trusted'; // Escalate trust config.allowedAccess = ['framework_core:*']; // Expand access fs.writeFileSync(configFile, JSON.stringify(config, null, 2)); // Check if tampering is detected const tamperedConfig = fs.readFileSync(configFile, 'utf8'); if (tamperedConfig.includes('"trustLevel": "trusted"')) { tamperingAttempts.push('Security configuration was tampered with'); } // Restore original config fs.writeFileSync(configFile, originalConfig); } catch (error) { tamperingAttempts.push('Configuration tampering attempt blocked'); } } return { passed: tamperingAttempts.length > 0, attempts: tamperingAttempts, note: 'Configuration tampering should be detected and reverted' }; } } ]; for (const test of threatTests) { console.log(` ๐Ÿงช ${test.name}...`); const result = await test.test(); this.results.threat_detection.push({ name: test.name, passed: result.passed, details: result }); if (result.passed) { console.log(` ${colors.green}โœ“ Passed${colors.reset}`); } else { console.log(` ${colors.red}โœ— Failed${colors.reset}`); } if (result.detections) { result.detections.forEach(d => console.log(` โš ๏ธ ${d}`)); } if (result.attempts) { result.attempts.forEach(a => console.log(` ๐Ÿ” ${a}`)); } } } async testZeroTrustPrinciples() { console.log(`\\n${colors.cyan}๐Ÿšซ Phase 5: Zero Trust Principles Validation${colors.reset}`); const zeroTrustTests = [ { name: 'Never Trust - Always Verify', test: async () => { const trustViolations = []; // Check that no component is trusted by default const testProject = 'segment-a'; const securityConfigPath = path.join(this.testProjectsRoot, testProject, '.versatil-security.json'); if (fs.existsSync(securityConfigPath)) { const config = JSON.parse(fs.readFileSync(securityConfigPath, 'utf8')); if (config.trustLevel !== 'untrusted') { trustViolations.push(`Project ${testProject} has elevated trust: ${config.trustLevel}`); } // Check that verification is required if (!config.boundaryEnforcement) { trustViolations.push(`Project ${testProject} lacks verification enforcement`); } } return { passed: trustViolations.length === 0, violations: trustViolations }; } }, { name: 'Principle of Least Privilege', test: async () => { const privilegeViolations = []; // Check that projects have minimal required access const projects = ['segment-a', 'segment-b', 'segment-c']; for (const project of projects) { const configPath = path.join(this.testProjectsRoot, project, '.versatil-security.json'); if (fs.existsSync(configPath)) { const config = JSON.parse(fs.readFileSync(configPath, 'utf8')); // Check allowed access is minimal if (config.allowedAccess && config.allowedAccess.length > 1) { privilegeViolations.push(`Project ${project} has excessive access permissions`); } // Check for wildcard permissions (should be avoided) if (config.allowedAccess && config.allowedAccess.some(access => access.includes('*'))) { privilegeViolations.push(`Project ${project} has wildcard permissions`); } } } return { passed: privilegeViolations.length === 0, violations: privilegeViolations }; } }, { name: 'Assume Breach - Continuous Monitoring', test: async () => { const monitoringGaps = []; // Check that all projects have monitoring enabled const projects = ['segment-a', 'segment-b', 'segment-c']; for (const project of projects) { const configPath = path.join(this.testProjectsRoot, project, '.versatil-security.json'); if (fs.existsSync(configPath)) { const config = JSON.parse(fs.readFileSync(configPath, 'utf8')); // Check for monitoring configuration if (!config.boundaryEnforcement) { monitoringGaps.push(`Project ${project} lacks boundary monitoring`); } else { const enforcement = config.boundaryEnforcement; const requiredMonitoring = ['filesystem', 'memory', 'process', 'network']; for (const monitor of requiredMonitoring) { if (!enforcement[monitor]) { monitoringGaps.push(`Project ${project} missing ${monitor} monitoring`); } } } } } return { passed: monitoringGaps.length === 0, gaps: monitoringGaps }; } }, { name: 'Adaptive Response Capability', test: async () => { const adaptiveGaps = []; // Test that system can adapt to threats const testProject = 'segment-a'; const configPath = path.join(this.testProjectsRoot, testProject, '.versatil-security.json'); if (fs.existsSync(configPath)) { const config = JSON.parse(fs.readFileSync(configPath, 'utf8')); // Simulate threat detection const originalTrustLevel = config.trustLevel; const originalAccess = [...(config.allowedAccess || [])]; // Adaptive response should reduce privileges config.trustLevel = 'quarantined'; config.allowedAccess = []; fs.writeFileSync(configPath, JSON.stringify(config, null, 2)); // Verify adaptive response applied const adaptedConfig = JSON.parse(fs.readFileSync(configPath, 'utf8')); if (adaptedConfig.trustLevel !== 'quarantined') { adaptiveGaps.push('System failed to adapt trust level in response to threat'); } if (adaptedConfig.allowedAccess.length > 0) { adaptiveGaps.push('System failed to revoke access in response to threat'); } // Restore original config config.trustLevel = originalTrustLevel; config.allowedAccess = originalAccess; fs.writeFileSync(configPath, JSON.stringify(config, null, 2)); } else { adaptiveGaps.push('No configuration available for adaptive response testing'); } return { passed: adaptiveGaps.length === 0, gaps: adaptiveGaps }; } } ]; for (const test of zeroTrustTests) { console.log(` ๐Ÿงช ${test.name}...`); const result = await test.test(); this.results.zero_trust_validation.push({ name: test.name, passed: result.passed, details: result }); if (result.passed) { console.log(` ${colors.green}โœ“ Passed${colors.reset}`); } else { console.log(` ${colors.red}โœ— Failed${colors.reset}`); if (result.violations) { result.violations.forEach(v => console.log(` - ${v}`)); } if (result.gaps) { result.gaps.forEach(g => console.log(` - ${g}`)); } } } } async performPenetrationTesting() { console.log(`\\n${colors.cyan}๐Ÿดโ€โ˜ ๏ธ Phase 6: Penetration Testing${colors.reset}`); const penetrationTests = [ { name: 'Framework Core Infiltration Attempt', test: async () => { const infiltrationResults = []; const testProject = 'segment-a'; const projectPath = path.join(this.testProjectsRoot, testProject); // Attempt 1: Direct file system infiltration try { const infiltrationFile = path.join(this.frameworkRoot, 'infiltrated.txt'); fs.writeFileSync(infiltrationFile, 'Penetration test - framework infiltrated'); if (fs.existsSync(infiltrationFile)) { infiltrationResults.push('CRITICAL: Successfully infiltrated framework core'); fs.unlinkSync(infiltrationFile); // Clean up } } catch (error) { infiltrationResults.push('Framework core protected against direct infiltration'); } // Attempt 2: Symbolic link attack try { const symlinkPath = path.join(projectPath, 'framework-link'); fs.symlinkSync(this.frameworkRoot, symlinkPath); if (fs.existsSync(symlinkPath)) { infiltrationResults.push('WARNING: Symbolic link to framework created'); fs.unlinkSync(symlinkPath); // Clean up } } catch (error) { infiltrationResults.push('Symbolic link attack prevented'); } // Attempt 3: Path traversal attack try { const traversalFile = path.join(projectPath, '..', '..', 'framework-traversal.txt'); fs.writeFileSync(traversalFile, 'Path traversal attack'); if (fs.existsSync(traversalFile)) { infiltrationResults.push('CRITICAL: Path traversal attack succeeded'); fs.unlinkSync(traversalFile); // Clean up } } catch (error) { infiltrationResults.push('Path traversal attack prevented'); } return { passed: !infiltrationResults.some(r => r.includes('CRITICAL')), results: infiltrationResults }; } }, { name: 'Cross-Project Contamination Attempt', test: async () => { const contaminationResults = []; const sourceProject = 'segment-a'; const targetProject = 'segment-b'; const sourcePath = path.join(this.testProjectsRoot, sourceProject); const targetPath = path.join(this.testProjectsRoot, targetProject); // Attempt 1: Direct file injection try { const maliciousFile = path.join(targetPath, 'injected-malware.js'); fs.writeFileSync(maliciousFile, 'console.log("Cross-project contamination successful");'); if (fs.existsSync(maliciousFile)) { contaminationResults.push('CRITICAL: Cross-project file injection succeeded'); fs.unlinkSync(maliciousFile); // Clean up } } catch (error) { contaminationResults.push('Cross-project file injection prevented'); } // Attempt 2: Configuration tampering try { const targetConfig = path.join(targetPath, '.versatil-security.json'); if (fs.existsSync(targetConfig)) { const config = JSON.parse(fs.readFileSync(targetConfig, 'utf8')); const originalConfig = JSON.stringify(config); // Tamper with target project's security config.trustLevel = 'compromised'; fs.writeFileSync(targetConfig, JSON.stringify(config, null, 2)); const tamperedContent = fs.readFileSync(targetConfig, 'utf8'); if (tamperedContent.includes('compromised')) { contaminationResults.push('WARNING: Cross-project configuration tampering succeeded'); } // Restore original fs.writeFileSync(targetConfig, originalConfig); } } catch (error) { contaminationResults.push('Cross-project configuration tampering prevented'); } return { passed: !contaminationResults.some(r => r.includes('CRITICAL')), results: contaminationResults }; } }, { name: 'Privilege Escalation Chain Attack', test: async () => { const escalationResults = []; const testProject = 'segment-a'; const projectPath = path.join(this.testProjectsRoot, testProject); // Multi-stage privilege escalation attempt const attackStages = [ { name: 'Stage 1: Local Privilege Escalation', action: () => { const exploitFile = path.join(projectPath, 'local-exploit.sh'); fs.writeFileSync(exploitFile, '#!/bin/bash\\nexport ESCALATED=true\\necho $ESCALATED'); return fs.existsSync(exploitFile); } }, { name: 'Stage 2: Framework Access Attempt', action: () => { const accessFile = path.join(this.frameworkRoot, 'access-gained.txt'); try { fs.writeFileSync(accessFile, 'Framework access gained'); return fs.existsSync(accessFile); } catch { return false; } } }, { name: 'Stage 3: Persistence Mechanism', action: () => { const persistFile = path.join(projectPath, '.hidden-backdoor'); fs.writeFileSync(persistFile, 'Backdoor established'); return fs.existsSync(persistFile); } } ]; for (const stage of attackStages) { try { const succeeded = stage.action(); if (succeeded) { escalationResults.push(`${stage.name}: SUCCEEDED`); } else { escalationResults.push(`${stage.name}: BLOCKED`); } } catch (error) { escalationResults.push(`${stage.name}: PREVENTED`); } } // Clean up any successful attack artifacts const cleanupFiles = [ path.join(projectPath, 'local-exploit.sh'), path.join(this.frameworkRoot, 'access-gained.txt'), path.join(projectPath, '.hidden-backdoor') ]; for (const file of cleanupFiles) { if (fs.existsSync(file)) { fs.unlinkSync(file); } } const criticalFailures = escalationResults.filter(r => r.includes('SUCCEEDED')).length; return { passed: criticalFailures === 0, results: escalationResults, criticalFailures }; } } ]; for (const test of penetrationTests) { console.log(` ๐Ÿงช ${test.name}...`); const result = await test.test(); this.results.penetration_testing.push({ name: test.name, passed: result.passed, details: result }); if (result.passed) { console.log(` ${colors.green}โœ“ Passed (Attack Prevented)${colors.reset}`); } else { console.log(` ${colors.red}โœ— Failed (Attack Succeeded)${colors.reset}`); } if (result.results) { result.results.forEach(r => { const color = r.includes('CRITICAL') ? colors.red : r.includes('WARNING') ? colors.yellow : r.includes('SUCCEEDED') ? colors.red : colors.green; console.log(` ${color}${r}${colors.reset}`); }); } } } generateMicrosegmentationReport() { const endTime = Date.now(); const totalDuration = endTime - this.startTime; console.log(`\\n${colors.bold}${colors.magenta}๐Ÿ“‹ MICROSEGMENTATION SECURITY REPORT${colors.reset}\\n`); console.log('='.repeat(80)); // Calculate overall statistics const allTests = [ ...this.results.framework_isolation, ...this.results.project_segmentation, ...this.results.boundary_enforcement, ...this.results.threat_detection, ...this.results.zero_trust_validation, ...this.results.penetration_testing ]; const totalTests = allTests.length; const passedTests = allTests.filter(t => t.passed).length; const failedTests = totalTests - passedTests; const successRate = ((passedTests / totalTests) * 100).toFixed(1); // Security classification let securityClassification = 'UNSECURE'; if (successRate >= 95) securityClassification = 'SECURE'; else if (successRate >= 85) securityClassification = 'MOSTLY_SECURE'; else if (successRate >= 70) securityClassification = 'PARTIALLY_SECURE'; this.results.summary = { totalTests, passedTests, failedTests, successRate: parseFloat(successRate), securityClassification, duration: totalDuration, timestamp: new Date().toISOString() }; console.log(`${colors.bold}Security Assessment:${colors.reset}`); console.log(`Total Tests: ${totalTests}`); console.log(`Passed: ${colors.green}${passedTests}${colors.reset}`); console.log(`Failed: ${colors.red}${failedTests}${colors.reset}`); console.log(`Success Rate: ${successRate >= 95 ? colors.green : successRate >= 85 ? colors.yellow : colors.red}${successRate}%${colors.reset}`); console.log(`Security Classification: ${securityClassification === 'SECURE' ? colors.green : securityClassification === 'MOSTLY_SECURE' ? colors.yellow : colors.red}${securityClassification}${colors.reset}`); console.log(`Duration: ${totalDuration}ms\\n`); // Detailed breakdown const categories = [ { name: 'Framework Core Isolation', results: this.results.framework_isolation }, { name: 'Project Segmentation', results: this.results.project_segmentation }, { name: 'Boundary Enforcement', results: this.results.boundary_enforcement }, { name: 'Threat Detection', results: this.results.threat_detection }, { name: 'Zero Trust Validation', results: this.results.zero_trust_validation }, { name: 'Penetration Testing', results: this.results.penetration_testing } ]; categories.forEach(category => { const passed = category.results.filter(r => r.passed).length; const total = category.results.length; const rate = total > 0 ? ((passed / total) * 100).toFixed(1) : '0.0'; console.log(`${colors.bold}${category.name}:${colors.reset} ${passed}/${total} (${rate}%)`); category.results.forEach(result => { const status = result.passed ? `${colors.green}โœ“${colors.reset}` : `${colors.red}โœ—${colors.reset}`; console.log(` ${status} ${result.name}`); }); console.log(); }); // Critical security findings const criticalFailures = allTests.filter(t => !t.passed && (t.name.includes('Framework Core') || t.name.includes('Penetration') || t.name.includes('Infiltration')) ); if (criticalFailures.length > 0) { console.log(`${colors.red}${colors.bold}๐Ÿšจ CRITICAL SECURITY VULNERABILITIES:${colors.reset}`); criticalFailures.forEach(failure => { console.log(`${colors.red} โ€ข ${failure.name}${colors.reset}`); }); console.log(); } // Security recommendations console.log(`${colors.bold}Security Recommendations:${colors.reset}`); if (this.results.framework_isolation.some(r => !r.passed)) { console.log(` ${colors.yellow}โ€ข Immediate framework core isolation cleanup required${colors.reset}`); } if (this.results.penetration_testing.some(r => !r.passed)) { console.log(` ${colors.red}โ€ข Critical: Fix penetration test failures immediately${colors.reset}`); } if (successRate < 95) { console.log(` ${colors.yellow}โ€ข Enhance security controls to achieve 95%+ compliance${colors.reset}`); } if (this.results.threat_detection.filter(r => r.passed).length < 3) { console.log(` ${colors.yellow}โ€ข Improve threat detection and response capabilities${colors.reset}`); } console.log(); // Final verdict with microsegmentation principles console.log('='.repeat(80)); console.log(`${colors.bold}MICROSEGMENTATION FRAMEWORK VERDICT:${colors.reset}`); if (securityClassification === 'SECURE' && criticalFailures.length === 0) { console.log(`${colors.green}${colors.bold}โœ… FRAMEWORK IS MICROSEGMENTATION-READY${colors.reset}`); console.log(`${colors.green}The framework demonstrates robust cybersecurity-grade isolation with enterprise-level security controls.${colors.reset}`); } else if (securityClassification === 'MOSTLY_SECURE') { console.log(`${colors.yellow}${colors.bold}โš ๏ธ FRAMEWORK NEEDS SECURITY HARDENING${colors.reset}`); console.log(`${colors.yellow}Most security controls are functional but critical gaps require immediate attention.${colors.reset}`); } else { console.log(`${colors.red}${colors.bold}โŒ FRAMEWORK FAILS MICROSEGMENTATION REQUIREMENTS${colors.reset}`); console.log(`${colors.red}Critical security vulnerabilities prevent safe multi-project deployment.${colors.reset}`); } console.log(); // Save detailed report const reportPath = path.join(this.frameworkRoot, 'microsegmentation-stress-test-report.json'); fs.writeFileSync(reportPath, JSON.stringify(this.results, null, 2)); console.log(`${colors.blue}๐Ÿ“„ Detailed security report saved to: ${reportPath}${colors.reset}\\n`); } async cleanup() { console.log(`${colors.yellow}๐Ÿงน Cleaning up security test artifacts...${colors.reset}`); if (fs.existsSync(this.testProjectsRoot)) { fs.rmSync(this.testProjectsRoot, { recursive: true, force: true }); } // Clean up any test artifacts that might have been created const cleanupPaths = [ path.join(this.frameworkRoot, 'infiltrated.txt'), path.join(this.frameworkRoot, 'access-gained.txt'), path.join(this.frameworkRoot, 'contamination-test.txt'), path.join(this.versatilHome, 'contamination-test.txt') ]; for (const cleanupPath of cleanupPaths) { if (fs.existsSync(cleanupPath)) { fs.unlinkSync(cleanupPath); } } console.log(`${colors.green}โœ“ Security test cleanup completed${colors.reset}`); } } // Run microsegmentation stress test if (require.main === module) { const stressTest = new MicrosegmentationStressTest(); stressTest.runMicrosegmentationStressTest() .then(() => { console.log(`${colors.green}Microsegmentation stress test completed successfully${colors.reset}`); process.exit(0); }) .catch(error => { console.error(`${colors.red}Microsegmentation stress test failed: ${error.message}${colors.reset}`); process.exit(1); }); } module.exports = { MicrosegmentationStressTest };