stellar-cyber-mcp-agents
Version:
Model Context Protocol (MCP) server for Stellar Cyber security operations with specialized multi-agent analysis capabilities
929 lines • 35.8 kB
JavaScript
import { BaseAgent } from '../core/base-agent.js';
import { AgentHealth } from '../types/agent.js';
export class NetworkAnalysisAgent extends BaseAgent {
config;
activeAnalyses = new Map();
analysisCache = new Map();
threatPatterns = new Map();
accessToken = null;
tokenExpiresAt = 0;
refreshPromise = null;
constructor(metadata, registry, channel, logger, metrics, config) {
super(metadata, registry, channel, logger, metrics);
this.config = {
analysisTimeout: 300000, // 5 minutes
maxConcurrentAnalysis: 10,
enableDeepPacketAnalysis: true,
...config
};
}
async onInitialize() {
this.logger.info('Initializing Network Analysis Agent');
// Initialize authentication
await this.refreshToken();
// Load threat patterns
await this.loadThreatPatterns();
this.logger.info('Network Analysis Agent initialized successfully');
}
async onStart() {
this.logger.info('Starting Network Analysis Agent');
// Start periodic pattern updates
this.startPatternUpdates();
this.logger.info('Network Analysis Agent started successfully');
}
async onStop() {
this.logger.info('Stopping Network Analysis Agent');
// Cancel any active analyses
await this.cancelActiveAnalyses();
this.logger.info('Network Analysis Agent stopped successfully');
}
async onDestroy() {
this.logger.info('Destroying Network Analysis Agent');
// Clear all state
this.activeAnalyses.clear();
this.analysisCache.clear();
this.threatPatterns.clear();
this.logger.info('Network Analysis Agent destroyed successfully');
}
async onHealthCheck() {
try {
// Check API connectivity
const response = await this.makeRequest('GET', '/connect/api/v1/health');
// Check active analyses
const activeCount = this.activeAnalyses.size;
if (!response.ok) {
return AgentHealth.DEGRADED;
}
if (activeCount > this.config.maxConcurrentAnalysis * 0.9) {
return AgentHealth.DEGRADED;
}
return AgentHealth.HEALTHY;
}
catch (error) {
this.logger.error('Health check failed', { error });
return AgentHealth.UNHEALTHY;
}
}
async handleRequest(request, context) {
const { capability, payload } = request;
this.logger.debug('Handling Network Analysis Agent request', {
capability,
requestId: request.id,
sourceAgent: request.sourceAgentId
});
switch (capability) {
case 'analyze_network_activity':
return await this.analyzeNetworkActivity(payload.caseId, payload.timeRange, payload.options);
case 'detect_lateral_movement':
return await this.detectLateralMovement(payload.caseId, payload.timeRange);
case 'analyze_data_exfiltration':
return await this.analyzeDataExfiltration(payload.caseId, payload.timeRange);
case 'detect_c2_communication':
return await this.detectC2Communication(payload.caseId, payload.indicators);
case 'analyze_traffic_patterns':
return await this.analyzeTrafficPatterns(payload.connections);
case 'get_network_topology':
return await this.getNetworkTopology(payload.caseId, payload.timeRange);
case 'analyze_protocol_anomalies':
return await this.analyzeProtocolAnomalies(payload.caseId, payload.protocols);
case 'hunt_network_threats':
return await this.huntNetworkThreats(payload.query, payload.timeRange);
case 'generate_network_timeline':
return await this.generateNetworkTimeline(payload.caseId, payload.timeRange);
case 'analyze_endpoint_behavior':
return await this.analyzeEndpointBehavior(payload.endpoint, payload.timeRange);
default:
throw new Error(`Unknown capability: ${capability}`);
}
}
async analyzeNetworkActivity(caseId, timeRange, options = {}) {
const analysisId = crypto.randomUUID();
this.logger.info('Starting network activity analysis', {
analysisId,
caseId,
timeRange
});
// Check cache
const cacheKey = `${caseId}-${JSON.stringify(timeRange)}`;
const cached = this.analysisCache.get(cacheKey);
if (cached) {
return cached;
}
// Check if analysis is already running
const existingAnalysis = this.activeAnalyses.get(cacheKey);
if (existingAnalysis) {
return await existingAnalysis;
}
// Start new analysis
const analysisPromise = this.performNetworkAnalysis(analysisId, caseId, timeRange, options);
this.activeAnalyses.set(cacheKey, analysisPromise);
try {
const result = await analysisPromise;
// Cache result
this.analysisCache.set(cacheKey, result);
// Cleanup
this.activeAnalyses.delete(cacheKey);
return result;
}
catch (error) {
this.activeAnalyses.delete(cacheKey);
throw error;
}
}
async performNetworkAnalysis(analysisId, caseId, timeRange, options) {
try {
// Fetch network data
const [connections, flows, alerts] = await Promise.all([
this.fetchNetworkConnections(caseId, timeRange),
this.fetchNetworkFlows(caseId, timeRange),
this.fetchNetworkAlerts(caseId, timeRange)
]);
// Analyze connections
const connectionAnalysis = await this.analyzeConnections(connections);
// Detect threats
const threats = await this.detectThreats(connections, flows, alerts);
// Generate findings
const findings = await this.generateNetworkFindings(connectionAnalysis, threats, flows, alerts);
// Build visualizations
const visualizations = await this.buildNetworkVisualizations(connections, threats, findings);
// Generate recommendations
const recommendations = this.generateNetworkRecommendations(findings, threats);
// Calculate summary
const summary = this.calculateNetworkSummary(connections, findings, threats);
const analysis = {
id: analysisId,
caseId,
timestamp: new Date().toISOString(),
summary,
findings,
connections: connections.slice(0, 100), // Limit for response size
threats,
recommendations,
visualizations
};
this.logger.info('Network activity analysis completed', {
analysisId,
caseId,
findingsCount: findings.length,
threatsCount: threats.length
});
return analysis;
}
catch (error) {
this.logger.error('Network activity analysis failed', {
analysisId,
caseId,
error
});
throw error;
}
}
async detectLateralMovement(caseId, timeRange) {
this.logger.info('Detecting lateral movement', { caseId, timeRange });
try {
const connections = await this.fetchNetworkConnections(caseId, timeRange);
// Analyze internal-to-internal connections
const internalConnections = connections.filter(conn => this.isInternalIP(conn.source.ip) && this.isInternalIP(conn.destination.ip));
// Look for suspicious patterns
const suspiciousPatterns = this.detectSuspiciousLateralPatterns(internalConnections);
// Identify pivot points
const pivotPoints = this.identifyPivotPoints(internalConnections);
// Build movement chains
const movementChains = this.buildMovementChains(internalConnections, pivotPoints);
const result = {
detected: movementChains.length > 0,
confidence: this.calculateLateralMovementConfidence(movementChains, suspiciousPatterns),
movementChains,
pivotPoints,
suspiciousPatterns,
recommendations: this.generateLateralMovementRecommendations(movementChains)
};
this.logger.info('Lateral movement detection completed', {
caseId,
detected: result.detected,
chainsFound: movementChains.length
});
return result;
}
catch (error) {
this.logger.error('Lateral movement detection failed', { caseId, error });
throw error;
}
}
async analyzeDataExfiltration(caseId, timeRange) {
this.logger.info('Analyzing data exfiltration', { caseId, timeRange });
try {
const connections = await this.fetchNetworkConnections(caseId, timeRange);
// Find large outbound transfers
const largeTransfers = connections.filter(conn => conn.bytesTransferred > 100 * 1024 * 1024 && // 100MB
!this.isInternalIP(conn.destination.ip));
// Analyze transfer patterns
const transferPatterns = this.analyzeTransferPatterns(largeTransfers);
// Check for suspicious destinations
const suspiciousDestinations = await this.checkDestinationReputation(largeTransfers.map(c => c.destination));
// Detect encoding/encryption
const encodingAnalysis = this.detectDataEncoding(largeTransfers);
const result = {
suspiciousTransfers: largeTransfers.length,
totalDataTransferred: largeTransfers.reduce((sum, c) => sum + c.bytesTransferred, 0),
transferPatterns,
suspiciousDestinations,
encodingAnalysis,
riskLevel: this.calculateExfiltrationRisk(largeTransfers, suspiciousDestinations),
recommendations: this.generateExfiltrationRecommendations(largeTransfers)
};
this.logger.info('Data exfiltration analysis completed', {
caseId,
suspiciousTransfers: result.suspiciousTransfers,
riskLevel: result.riskLevel
});
return result;
}
catch (error) {
this.logger.error('Data exfiltration analysis failed', { caseId, error });
throw error;
}
}
async detectC2Communication(caseId, indicators) {
this.logger.info('Detecting C2 communication', { caseId, indicatorCount: indicators.length });
try {
const connections = await this.fetchNetworkConnections(caseId, {});
// Find connections matching indicators
const c2Connections = connections.filter(conn => indicators.includes(conn.destination.ip) ||
indicators.includes(conn.destination.hostname || ''));
// Analyze communication patterns
const patterns = this.analyzeC2Patterns(c2Connections);
// Detect beaconing behavior
const beaconing = this.detectBeaconing(c2Connections);
// Check for common C2 protocols
const protocolAnalysis = this.analyzeC2Protocols(c2Connections);
const result = {
detected: c2Connections.length > 0,
confidence: this.calculateC2Confidence(c2Connections, patterns, beaconing),
connections: c2Connections,
patterns,
beaconing,
protocolAnalysis,
recommendations: this.generateC2Recommendations(c2Connections)
};
this.logger.info('C2 communication detection completed', {
caseId,
detected: result.detected,
connectionsFound: c2Connections.length
});
return result;
}
catch (error) {
this.logger.error('C2 communication detection failed', { caseId, error });
throw error;
}
}
async analyzeTrafficPatterns(connections) {
this.logger.info('Analyzing traffic patterns', { connectionCount: connections.length });
const patterns = [];
// Apply threat patterns
for (const [patternId, pattern] of this.threatPatterns) {
const matches = this.matchPattern(connections, pattern);
if (matches.length > 0) {
patterns.push({
...pattern,
matchCount: matches.length
});
}
}
// Analyze temporal patterns
const temporalPatterns = this.analyzeTemporalPatterns(connections);
// Analyze volumetric patterns
const volumetricPatterns = this.analyzeVolumetricPatterns(connections);
// Analyze behavioral patterns
const behavioralPatterns = this.analyzeBehavioralPatterns(connections);
return {
patterns,
temporalPatterns,
volumetricPatterns,
behavioralPatterns,
anomalies: this.detectPatternAnomalies(connections),
summary: this.summarizePatterns(patterns)
};
}
async getNetworkTopology(caseId, timeRange) {
this.logger.info('Building network topology', { caseId, timeRange });
try {
const connections = await this.fetchNetworkConnections(caseId, timeRange);
// Build node map
const nodes = this.buildNetworkNodes(connections);
// Build edges
const edges = this.buildNetworkEdges(connections);
// Calculate node metrics
const nodeMetrics = this.calculateNodeMetrics(nodes, edges);
// Identify critical nodes
const criticalNodes = this.identifyCriticalNodes(nodeMetrics);
// Build topology visualization
const topology = {
nodes: Array.from(nodes.values()),
edges,
metrics: nodeMetrics,
criticalNodes,
clusters: this.identifyNetworkClusters(nodes, edges),
summary: {
totalNodes: nodes.size,
totalEdges: edges.length,
avgDegree: this.calculateAverageDegree(nodes, edges),
density: this.calculateNetworkDensity(nodes.size, edges.length)
}
};
this.logger.info('Network topology built', {
caseId,
nodeCount: topology.summary.totalNodes,
edgeCount: topology.summary.totalEdges
});
return topology;
}
catch (error) {
this.logger.error('Failed to build network topology', { caseId, error });
throw error;
}
}
async analyzeProtocolAnomalies(caseId, protocols) {
this.logger.info('Analyzing protocol anomalies', { caseId, protocols });
try {
const connections = await this.fetchNetworkConnections(caseId, {});
const analyses = [];
for (const protocol of protocols) {
const protocolConnections = connections.filter(c => c.protocol === protocol);
const analysis = {
protocol,
totalConnections: protocolConnections.length,
suspiciousConnections: 0,
anomalies: [],
risks: []
};
// Detect anomalies based on protocol
switch (protocol.toLowerCase()) {
case 'http':
case 'https':
analysis.anomalies.push(...this.detectHTTPAnomalies(protocolConnections));
break;
case 'dns':
analysis.anomalies.push(...this.detectDNSAnomalies(protocolConnections));
break;
case 'ssh':
analysis.anomalies.push(...this.detectSSHAnomalies(protocolConnections));
break;
case 'rdp':
analysis.anomalies.push(...this.detectRDPAnomalies(protocolConnections));
break;
}
analysis.suspiciousConnections = analysis.anomalies.reduce((sum, a) => sum + a.connections.length, 0);
analyses.push(analysis);
}
return {
analyses,
summary: this.summarizeProtocolAnomalies(analyses),
recommendations: this.generateProtocolRecommendations(analyses)
};
}
catch (error) {
this.logger.error('Protocol anomaly analysis failed', { caseId, error });
throw error;
}
}
async huntNetworkThreats(query, timeRange) {
this.logger.info('Hunting network threats', { query, timeRange });
try {
// Search for threat indicators
const connections = await this.searchConnections(query, timeRange);
// Apply threat hunting rules
const huntingResults = await this.applyHuntingRules(connections);
// Correlate with threat intelligence
const threatIntel = await this.correlateThreatIntel(connections);
// Generate hunt findings
const findings = this.generateHuntFindings(huntingResults, threatIntel);
return {
threatsFound: findings.length,
findings,
indicators: this.extractHuntIndicators(findings),
recommendations: this.generateHuntRecommendations(findings),
nextSteps: this.suggestNextHuntSteps(findings)
};
}
catch (error) {
this.logger.error('Network threat hunting failed', { error });
throw error;
}
}
async generateNetworkTimeline(caseId, timeRange) {
this.logger.info('Generating network timeline', { caseId, timeRange });
try {
const connections = await this.fetchNetworkConnections(caseId, timeRange);
// Build timeline events
const events = connections.map(conn => ({
timestamp: conn.timestamp,
type: 'connection',
description: `${conn.source.ip}:${conn.source.port} → ${conn.destination.ip}:${conn.destination.port}`,
protocol: conn.protocol,
severity: this.getConnectionSeverity(conn),
details: conn
}));
// Add network alerts
const alerts = await this.fetchNetworkAlerts(caseId, timeRange);
alerts.forEach(alert => {
events.push({
timestamp: alert.timestamp,
type: 'alert',
description: alert.description,
protocol: alert.protocol || 'unknown',
severity: alert.severity,
details: alert
});
});
// Sort chronologically
events.sort((a, b) => new Date(a.timestamp).getTime() - new Date(b.timestamp).getTime());
return {
events,
summary: {
totalEvents: events.length,
timespan: this.calculateTimespan(events),
severityBreakdown: this.calculateSeverityBreakdown(events)
}
};
}
catch (error) {
this.logger.error('Failed to generate network timeline', { caseId, error });
throw error;
}
}
async analyzeEndpointBehavior(endpoint, timeRange) {
this.logger.info('Analyzing endpoint behavior', { endpoint, timeRange });
try {
// Get all connections for endpoint
const connections = await this.fetchEndpointConnections(endpoint, timeRange);
// Analyze communication patterns
const communicationPatterns = this.analyzeEndpointCommunication(connections);
// Detect anomalous behavior
const anomalies = this.detectEndpointAnomalies(connections);
// Profile endpoint
const profile = this.profileEndpoint(connections);
// Risk assessment
const riskAssessment = this.assessEndpointRisk(profile, anomalies);
return {
endpoint,
profile,
communicationPatterns,
anomalies,
riskAssessment,
recommendations: this.generateEndpointRecommendations(riskAssessment)
};
}
catch (error) {
this.logger.error('Endpoint behavior analysis failed', { endpoint, error });
throw error;
}
}
// Helper methods
async refreshToken() {
if (this.refreshPromise) {
return this.refreshPromise;
}
this.refreshPromise = this.performTokenRefresh();
try {
await this.refreshPromise;
}
finally {
this.refreshPromise = null;
}
}
async performTokenRefresh() {
const response = await fetch(`${this.config.apiUrl}/connect/api/v1/access_token`, {
method: 'POST',
headers: {
'Authorization': `Bearer ${this.config.apiToken}`,
'Content-Type': 'application/json'
}
});
if (!response.ok) {
throw new Error(`Token refresh failed: ${response.status}`);
}
const data = await response.json();
this.accessToken = data.access_token;
this.tokenExpiresAt = Date.now() + (data.exp * 1000);
}
async getAccessToken() {
if (this.accessToken && Date.now() < this.tokenExpiresAt - 30000) {
return this.accessToken;
}
await this.refreshToken();
return this.accessToken;
}
async makeRequest(method, endpoint, body) {
const token = await this.getAccessToken();
const options = {
method,
headers: {
'Authorization': `Bearer ${token}`,
'Content-Type': 'application/json',
}
};
if (body) {
options.body = JSON.stringify(body);
}
const response = await fetch(`${this.config.apiUrl}${endpoint}`, options);
return response;
}
async loadThreatPatterns() {
// Load default threat patterns
const defaultPatterns = [
{
id: 'port-scan',
name: 'Port Scanning',
description: 'Multiple connections to different ports from same source',
indicators: ['multiple_ports', 'short_duration', 'failed_connections'],
matchCount: 0,
severity: 'HIGH',
recommendation: 'Block source IP and investigate for compromise'
},
{
id: 'data-exfil',
name: 'Data Exfiltration',
description: 'Large outbound data transfers to external IPs',
indicators: ['large_transfer', 'external_destination', 'off_hours'],
matchCount: 0,
severity: 'CRITICAL',
recommendation: 'Immediately investigate and potentially block transfers'
},
{
id: 'c2-beacon',
name: 'C2 Beaconing',
description: 'Regular periodic connections to external hosts',
indicators: ['periodic', 'consistent_size', 'external_destination'],
matchCount: 0,
severity: 'CRITICAL',
recommendation: 'Isolate infected host and block C2 infrastructure'
}
];
defaultPatterns.forEach(pattern => {
this.threatPatterns.set(pattern.id, pattern);
});
}
async fetchNetworkConnections(caseId, timeRange) {
// Simulate fetching network connections
return [];
}
async fetchNetworkFlows(caseId, timeRange) {
return [];
}
async fetchNetworkAlerts(caseId, timeRange) {
return [];
}
async analyzeConnections(connections) {
return {
totalAnalyzed: connections.length,
suspicious: connections.filter(c => c.classification === 'suspicious').length,
malicious: connections.filter(c => c.classification === 'malicious').length
};
}
async detectThreats(connections, flows, alerts) {
return [];
}
async generateNetworkFindings(connectionAnalysis, threats, flows, alerts) {
return [];
}
async buildNetworkVisualizations(connections, threats, findings) {
return [];
}
generateNetworkRecommendations(findings, threats) {
const recommendations = [];
if (findings.some(f => f.type === 'data_exfiltration')) {
recommendations.push('Implement DLP controls on network perimeter');
recommendations.push('Review and restrict outbound traffic policies');
}
if (findings.some(f => f.type === 'lateral_movement')) {
recommendations.push('Implement network segmentation');
recommendations.push('Deploy EDR on all endpoints');
}
if (threats.length > 0) {
recommendations.push('Update IDS/IPS signatures');
recommendations.push('Conduct threat hunting exercises');
}
return recommendations;
}
calculateNetworkSummary(connections, findings, threats) {
const uniqueIPs = new Set([
...connections.map(c => c.source.ip),
...connections.map(c => c.destination.ip)
]);
const protocols = connections.reduce((acc, conn) => {
acc[conn.protocol] = (acc[conn.protocol] || 0) + 1;
return acc;
}, {});
const dataTransferred = connections.reduce((acc, conn) => {
if (this.isInternalIP(conn.source.ip) && !this.isInternalIP(conn.destination.ip)) {
acc.outbound += conn.bytesTransferred;
}
else if (!this.isInternalIP(conn.source.ip) && this.isInternalIP(conn.destination.ip)) {
acc.inbound += conn.bytesTransferred;
}
return acc;
}, { inbound: 0, outbound: 0 });
const riskLevel = this.calculateOverallRiskLevel(findings, threats);
return {
totalConnections: connections.length,
uniqueIPs: uniqueIPs.size,
suspiciousConnections: connections.filter(c => c.classification === 'suspicious').length,
dataTransferred,
protocols,
riskLevel
};
}
calculateOverallRiskLevel(findings, threats) {
if (findings.some(f => f.severity === 'CRITICAL') || threats.some(t => t.severity === 'CRITICAL')) {
return 'CRITICAL';
}
if (findings.some(f => f.severity === 'HIGH') || threats.some(t => t.severity === 'HIGH')) {
return 'HIGH';
}
if (findings.some(f => f.severity === 'MEDIUM') || threats.some(t => t.severity === 'MEDIUM')) {
return 'MEDIUM';
}
return 'LOW';
}
isInternalIP(ip) {
return ip.startsWith('10.') ||
ip.startsWith('172.') ||
ip.startsWith('192.168.');
}
detectSuspiciousLateralPatterns(connections) {
return [];
}
identifyPivotPoints(connections) {
return [];
}
buildMovementChains(connections, pivotPoints) {
return [];
}
calculateLateralMovementConfidence(chains, patterns) {
return 0.8;
}
generateLateralMovementRecommendations(chains) {
return ['Implement network segmentation', 'Deploy EDR solutions'];
}
analyzeTransferPatterns(transfers) {
return {};
}
async checkDestinationReputation(endpoints) {
return [];
}
detectDataEncoding(transfers) {
return {};
}
calculateExfiltrationRisk(transfers, suspicious) {
return 'HIGH';
}
generateExfiltrationRecommendations(transfers) {
return ['Implement DLP controls', 'Monitor large outbound transfers'];
}
analyzeC2Patterns(connections) {
return {};
}
detectBeaconing(connections) {
return {};
}
analyzeC2Protocols(connections) {
return {};
}
calculateC2Confidence(connections, patterns, beaconing) {
return 0.85;
}
generateC2Recommendations(connections) {
return ['Block C2 infrastructure', 'Isolate infected systems'];
}
matchPattern(connections, pattern) {
return [];
}
analyzeTemporalPatterns(connections) {
return {};
}
analyzeVolumetricPatterns(connections) {
return {};
}
analyzeBehavioralPatterns(connections) {
return {};
}
detectPatternAnomalies(connections) {
return [];
}
summarizePatterns(patterns) {
return {};
}
buildNetworkNodes(connections) {
return new Map();
}
buildNetworkEdges(connections) {
return [];
}
calculateNodeMetrics(nodes, edges) {
return {};
}
identifyCriticalNodes(metrics) {
return [];
}
identifyNetworkClusters(nodes, edges) {
return [];
}
calculateAverageDegree(nodes, edges) {
return 0;
}
calculateNetworkDensity(nodeCount, edgeCount) {
return 0;
}
detectHTTPAnomalies(connections) {
return [];
}
detectDNSAnomalies(connections) {
return [];
}
detectSSHAnomalies(connections) {
return [];
}
detectRDPAnomalies(connections) {
return [];
}
summarizeProtocolAnomalies(analyses) {
return {};
}
generateProtocolRecommendations(analyses) {
return [];
}
async searchConnections(query, timeRange) {
return [];
}
async applyHuntingRules(connections) {
return {};
}
async correlateThreatIntel(connections) {
return {};
}
generateHuntFindings(huntingResults, threatIntel) {
return [];
}
extractHuntIndicators(findings) {
return [];
}
generateHuntRecommendations(findings) {
return [];
}
suggestNextHuntSteps(findings) {
return [];
}
getConnectionSeverity(connection) {
if (connection.classification === 'malicious')
return 'CRITICAL';
if (connection.classification === 'suspicious')
return 'HIGH';
return 'LOW';
}
calculateTimespan(events) {
return '24 hours';
}
calculateSeverityBreakdown(events) {
return {};
}
async fetchEndpointConnections(endpoint, timeRange) {
return [];
}
analyzeEndpointCommunication(connections) {
return {};
}
detectEndpointAnomalies(connections) {
return [];
}
profileEndpoint(connections) {
return {};
}
assessEndpointRisk(profile, anomalies) {
return {};
}
generateEndpointRecommendations(riskAssessment) {
return [];
}
startPatternUpdates() {
// Skip background timers in MCP mode to prevent EPIPE errors
if (process.env.MCP_MODE === 'true')
return;
setInterval(() => {
this.updateThreatPatterns().catch(error => {
this.logger.error('Failed to update threat patterns', { error });
});
}, 3600000); // Update every hour
}
async updateThreatPatterns() {
// Update threat patterns from threat intelligence sources
}
async cancelActiveAnalyses() {
// Cancel any running analyses
this.activeAnalyses.clear();
}
}
export function createNetworkAnalysisAgentMetadata() {
const capabilities = [
{
name: 'analyze_network_activity',
description: 'Comprehensive network activity analysis',
inputSchema: {
type: 'object',
properties: {
caseId: { type: 'string' },
timeRange: { type: 'object' },
options: { type: 'object' }
},
required: ['caseId']
},
outputSchema: {
type: 'object',
properties: {
summary: { type: 'object' },
findings: { type: 'array' },
threats: { type: 'array' },
recommendations: { type: 'array' }
}
}
},
{
name: 'detect_lateral_movement',
description: 'Detect lateral movement in network',
inputSchema: {
type: 'object',
properties: {
caseId: { type: 'string' },
timeRange: { type: 'object' }
},
required: ['caseId']
},
outputSchema: {
type: 'object',
properties: {
detected: { type: 'boolean' },
confidence: { type: 'number' },
movementChains: { type: 'array' }
}
}
},
{
name: 'analyze_data_exfiltration',
description: 'Analyze potential data exfiltration',
inputSchema: {
type: 'object',
properties: {
caseId: { type: 'string' },
timeRange: { type: 'object' }
},
required: ['caseId']
},
outputSchema: {
type: 'object',
properties: {
suspiciousTransfers: { type: 'number' },
totalDataTransferred: { type: 'number' },
riskLevel: { type: 'string' }
}
}
},
{
name: 'detect_c2_communication',
description: 'Detect command and control communication',
inputSchema: {
type: 'object',
properties: {
caseId: { type: 'string' },
indicators: { type: 'array' }
},
required: ['caseId']
},
outputSchema: {
type: 'object',
properties: {
detected: { type: 'boolean' },
confidence: { type: 'number' },
connections: { type: 'array' }
}
}
}
];
return {
id: {
type: 'network',
instance: 'primary',
uuid: crypto.randomUUID()
},
name: 'Network Analysis Agent',
description: 'Advanced network traffic analysis and threat detection',
version: '1.0.0',
capabilities,
dependencies: [],
resources: {
memory: 1024,
cpu: 2
}
};
}
//# sourceMappingURL=network-agent.js.map