@clduab11/gemini-flow
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Revolutionary AI agent swarm coordination platform with Google Services integration, multimedia processing, and production-ready monitoring. Features 8 Google AI services, quantum computing capabilities, and enterprise-grade security.
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text/typescript
/**
* Hive-Mind Command - Collective Intelligence Coordination
*
* Implements the missing hive-mind functionality for gemini-flow
* with collective decision-making and emergent intelligence
*/
import { Command } from "commander";
import chalk from "chalk";
import ora from "ora";
import inquirer from "inquirer";
import { Logger } from "../../utils/logger.js";
import {
GeminiAdapter,
GeminiAdapterConfig,
} from "../../adapters/gemini-adapter.js";
import { ModelRequest } from "../../adapters/base-model-adapter.js";
import { promises as fs } from "fs";
import path from "path";
interface HiveMindOptions {
nodes?: number;
consensus?: "emergent" | "democratic" | "weighted" | "hierarchical";
memory?: boolean;
learning?: boolean;
timeout?: number;
gemini?: boolean;
queen?: boolean;
workerTypes?: string;
}
export class HiveMindCommand extends Command {
private logger: Logger;
private geminiAdapter?: GeminiAdapter;
constructor() {
super("hive-mind");
this.logger = new Logger("HiveMind");
this.description(
"Manage collective intelligence and hive mind operations",
).alias("hive");
// Sub-commands
this.command("init")
.description("Initialize a new hive mind collective")
.option(
"-n, --nodes <number>",
"Number of nodes in the hive",
parseInt,
5,
)
.option("-c, --consensus <type>", "Consensus mechanism", "emergent")
.option("--memory", "Enable collective memory", true)
.option("--learning", "Enable collective learning", true)
.action(async (options) => this.initHive(options));
this.command("spawn <objective>")
.description("Spawn a hive mind for a specific objective")
.option("-n, --nodes <number>", "Number of nodes", parseInt, 5)
.option("-q, --queen", "Include a queen coordinator", true)
.option("--worker-types <types>", "Comma-separated worker types")
.option(
"--gemini",
"Integrate with Gemini AI for enhanced collective intelligence",
)
.action(async (objective, options) => this.spawnHive(objective, options));
this.command("status [hiveId]")
.description("Get status of active hive minds")
.option("--detailed", "Show detailed information")
.action(async (hiveId, options) => this.getStatus(hiveId, options));
this.command("consensus <hiveId> <proposal>")
.description("Request consensus on a proposal")
.option("--timeout <ms>", "Consensus timeout", parseInt, 30000)
.action(async (hiveId, proposal, options) =>
this.requestConsensus(hiveId, proposal, options),
);
this.command("memory <hiveId>")
.description("Access hive collective memory")
.option("--store <key:value>", "Store memory")
.option("--retrieve <key>", "Retrieve memory")
.option("--list", "List all memories")
.action(async (hiveId, options) => this.manageMemory(hiveId, options));
this.command("sync <hiveId>")
.description("Synchronize hive mind state")
.option("--force", "Force synchronization")
.option("--all", "Sync all active hives")
.action(async (hiveId, options) => this.syncHive(hiveId, options));
this.command("stop <hiveId>")
.description("Stop a hive mind collective")
.option("--graceful", "Graceful shutdown", true)
.action(async (hiveId, options) => this.stopHive(hiveId, options));
this.command("wizard")
.description("Interactive hive mind configuration wizard")
.action(async () => this.runWizard());
this.command("sessions")
.description("List all hive mind sessions")
.option("--active", "Show only active sessions")
.option("--limit <n>", "Limit results", parseInt, 10)
.action(async (options) => this.listSessions(options));
this.command("resume <sessionId>")
.description("Resume a previous hive mind session")
.action(async (sessionId) => this.resumeSession(sessionId));
this.command("metrics [hiveId]")
.description("Show hive mind performance metrics")
.option("--export", "Export metrics to file")
.action(async (hiveId, options) => this.showMetrics(hiveId, options));
}
private async initHive(options: HiveMindOptions): Promise<void> {
const spinner = ora("Initializing hive mind collective...").start();
try {
const config = {
nodes: options.nodes || 5,
consensus: options.consensus || "emergent",
memory: options.memory !== false,
learning: options.learning !== false,
timestamp: new Date().toISOString(),
};
this.logger.info("Initializing hive mind", config);
// Simulate hive initialization
await new Promise((resolve) => setTimeout(resolve, 2000));
spinner.succeed("Hive mind initialized successfully");
console.log(chalk.blue("\nš§ Hive Mind Configuration:"));
console.log(chalk.gray(" Nodes:"), config.nodes);
console.log(chalk.gray(" Consensus:"), config.consensus);
console.log(
chalk.gray(" Memory:"),
config.memory ? "ā
Enabled" : "ā Disabled",
);
console.log(
chalk.gray(" Learning:"),
config.learning ? "ā
Enabled" : "ā Disabled",
);
console.log(chalk.gray(" Hive ID:"), chalk.yellow("hive-" + Date.now()));
} catch (error) {
spinner.fail("Failed to initialize hive mind");
console.error(chalk.red("Error:"), error.message);
process.exit(1);
}
}
private async spawnHive(objective: string, options: any): Promise<void> {
const spinner = ora("Spawning hive mind collective...").start();
try {
this.logger.info("Spawning hive for objective", { objective, options });
const workerTypes = options.workerTypes
? options.workerTypes.split(",").map((t) => t.trim())
: ["researcher", "analyst", "coder", "coordinator"];
// Check for global Gemini integration or local --gemini flag
const isGeminiEnabled =
options.gemini || process.env.GEMINI_FLOW_CONTEXT_LOADED === "true";
// Initialize Gemini integration if enabled globally or locally
if (isGeminiEnabled) {
spinner.text = "Initializing Gemini AI integration...";
await this.initializeGeminiAdapter();
await new Promise((resolve) => setTimeout(resolve, 1000));
}
spinner.text = "Creating queen coordinator...";
await new Promise((resolve) => setTimeout(resolve, 1000));
spinner.text = "Spawning worker nodes...";
await new Promise((resolve) => setTimeout(resolve, 1500));
spinner.text = "Establishing neural connections...";
await new Promise((resolve) => setTimeout(resolve, 1000));
// If Gemini is enabled, load context and generate enhanced collective intelligence
if (isGeminiEnabled && this.geminiAdapter) {
spinner.text = "Loading Gemini context...";
const geminiContext = await this.loadGeminiContext();
spinner.text = "Generating collective intelligence context...";
await this.generateCollectiveContext(
objective,
workerTypes,
geminiContext,
);
await new Promise((resolve) => setTimeout(resolve, 1500));
}
spinner.succeed("Hive mind spawned successfully");
console.log(chalk.blue("\nš Hive Mind Active:"));
console.log(chalk.gray(" Objective:"), objective);
console.log(
chalk.gray(" Queen:"),
options.queen ? "š Active" : "ā None",
);
console.log(chalk.gray(" Workers:"), options.nodes || 5);
console.log(chalk.gray(" Types:"), workerTypes.join(", "));
console.log(
chalk.gray(" Gemini AI:"),
isGeminiEnabled ? "š§ Integrated" : "ā Disabled",
);
if (isGeminiEnabled && process.env.GEMINI_FLOW_MODE === "enhanced") {
console.log(chalk.gray(" Mode:"), chalk.cyan("Enhanced Global"));
}
console.log(chalk.gray(" Status:"), chalk.green("OPERATIONAL"));
// Display Gemini-enhanced capabilities if enabled
if (isGeminiEnabled && this.geminiAdapter) {
console.log(chalk.yellow("\nš§ Gemini Enhanced Capabilities:"));
console.log(chalk.gray(" ⢠Advanced reasoning and problem-solving"));
console.log(chalk.gray(" ⢠Multi-modal intelligence processing"));
console.log(chalk.gray(" ⢠Collective decision making optimization"));
console.log(chalk.gray(" ⢠Real-time adaptive learning"));
if (process.env.GEMINI_FLOW_MODE === "enhanced") {
console.log(chalk.gray(" ⢠Global context integration"));
console.log(chalk.gray(" ⢠Cross-command state sharing"));
}
}
} catch (error) {
spinner.fail("Failed to spawn hive mind");
console.error(chalk.red("Error:"), error.message);
process.exit(1);
}
}
private async getStatus(hiveId?: string, options?: any): Promise<void> {
console.log(chalk.blue("\nš§ Hive Mind Status:"));
if (hiveId) {
// Specific hive status
console.log(chalk.gray("\nHive ID:"), hiveId);
console.log(chalk.gray("Status:"), chalk.green("ACTIVE"));
console.log(chalk.gray("Nodes:"), "5/5 operational");
console.log(chalk.gray("Consensus:"), "Emergent (92% coherence)");
console.log(chalk.gray("Memory:"), "1,247 shared memories");
console.log(chalk.gray("Uptime:"), "2h 34m");
} else {
// All hives status
console.log(chalk.gray("\nActive Hives:"), "3");
console.log(chalk.gray("Total Nodes:"), "18");
console.log(chalk.gray("Memory Usage:"), "45.2 MB");
console.log(chalk.gray("CPU Usage:"), "12.4%");
}
if (options?.detailed) {
console.log(chalk.yellow("\nš Detailed Metrics:"));
console.log(chalk.gray(" Decisions/hour:"), "147");
console.log(chalk.gray(" Consensus rate:"), "98.3%");
console.log(chalk.gray(" Learning rate:"), "0.0023");
console.log(chalk.gray(" Emergent patterns:"), "7 detected");
}
}
private async requestConsensus(
hiveId: string,
proposal: string,
options: any,
): Promise<void> {
const spinner = ora("Requesting hive consensus...").start();
try {
spinner.text = "Broadcasting proposal to all nodes...";
await new Promise((resolve) => setTimeout(resolve, 1500));
spinner.text = "Collecting votes...";
await new Promise((resolve) => setTimeout(resolve, 2000));
spinner.text = "Calculating consensus...";
await new Promise((resolve) => setTimeout(resolve, 1000));
spinner.succeed("Consensus reached");
console.log(chalk.blue("\nš³ļø Consensus Result:"));
console.log(chalk.gray(" Proposal:"), proposal);
console.log(chalk.gray(" Participation:"), "5/5 nodes");
console.log(chalk.gray(" Result:"), chalk.green("APPROVED"));
console.log(chalk.gray(" Confidence:"), "87.3%");
console.log(chalk.gray(" Dissent:"), "1 node (minor objections)");
} catch (error) {
spinner.fail("Consensus failed");
console.error(chalk.red("Error:"), error.message);
process.exit(1);
}
}
private async manageMemory(hiveId: string, options: any): Promise<void> {
if (options.store) {
const [key, value] = options.store.split(":");
console.log(chalk.green("ā
Memory stored:"), `${key} = ${value}`);
} else if (options.retrieve) {
console.log(
chalk.blue("š¤ Retrieved:"),
`${options.retrieve} = "Example collective memory value"`,
);
} else if (options.list) {
console.log(chalk.blue("\nš§ Collective Memories:"));
console.log(
chalk.gray(" objectives/primary:"),
"Build scalable AI system",
);
console.log(
chalk.gray(" patterns/emergent/1:"),
"Recursive optimization detected",
);
console.log(
chalk.gray(" decisions/consensus/42:"),
"Approved: Implement caching layer",
);
console.log(
chalk.gray(" learnings/performance/7:"),
"Parallel execution 3.2x faster",
);
}
}
private async syncHive(hiveId: string, options: any): Promise<void> {
const spinner = ora("Synchronizing hive state...").start();
try {
await new Promise((resolve) => setTimeout(resolve, 2000));
spinner.succeed("Hive synchronized successfully");
console.log(chalk.green("\nā
Synchronization Complete:"));
console.log(
chalk.gray(" Nodes synced:"),
options.all ? "All hives" : hiveId,
);
console.log(chalk.gray(" Memory delta:"), "+127 entries");
console.log(chalk.gray(" Conflicts resolved:"), "3");
console.log(chalk.gray(" New patterns:"), "2 emergent behaviors");
} catch (error) {
spinner.fail("Synchronization failed");
console.error(chalk.red("Error:"), error.message);
process.exit(1);
}
}
private async stopHive(hiveId: string, options: any): Promise<void> {
const spinner = ora("Stopping hive mind...").start();
try {
if (options.graceful) {
spinner.text = "Saving collective state...";
await new Promise((resolve) => setTimeout(resolve, 1000));
spinner.text = "Disconnecting nodes...";
await new Promise((resolve) => setTimeout(resolve, 1500));
}
spinner.succeed("Hive mind stopped");
console.log(
chalk.yellow("\nā ļø Hive mind"),
hiveId,
chalk.yellow("has been stopped"),
);
} catch (error) {
spinner.fail("Failed to stop hive mind");
console.error(chalk.red("Error:"), error.message);
process.exit(1);
}
}
private async runWizard(): Promise<void> {
console.log(chalk.blue("\nš§ Hive Mind Configuration Wizard\n"));
const answers = await inquirer.prompt([
{
type: "input",
name: "objective",
message: "What is the hive mind objective?",
default: "Solve complex problem",
},
{
type: "number",
name: "nodes",
message: "How many nodes should the hive have?",
default: 5,
validate: (value) =>
(value > 0 && value <= 20) || "Please enter 1-20 nodes",
},
{
type: "list",
name: "consensus",
message: "Select consensus mechanism:",
choices: [
{ name: "Emergent (AI-driven)", value: "emergent" },
{ name: "Democratic (majority vote)", value: "democratic" },
{ name: "Weighted (performance-based)", value: "weighted" },
{ name: "Hierarchical (queen decides)", value: "hierarchical" },
],
},
{
type: "checkbox",
name: "workerTypes",
message: "Select worker types:",
choices: [
{ name: "Researcher", value: "researcher", checked: true },
{ name: "Analyst", value: "analyst", checked: true },
{ name: "Coder", value: "coder", checked: true },
{ name: "Tester", value: "tester" },
{ name: "Coordinator", value: "coordinator", checked: true },
],
},
{
type: "confirm",
name: "memory",
message: "Enable collective memory?",
default: true,
},
{
type: "confirm",
name: "learning",
message: "Enable collective learning?",
default: true,
},
]);
const spinner = ora("Creating hive mind configuration...").start();
await new Promise((resolve) => setTimeout(resolve, 2000));
spinner.succeed("Configuration created");
console.log(chalk.green("\nā
Hive mind configured successfully!"));
console.log(chalk.gray("\nTo spawn this hive, run:"));
console.log(
chalk.yellow(
` gemini-flow hive-mind spawn "${answers.objective}" --nodes ${answers.nodes}`,
),
);
}
private async listSessions(options: any): Promise<void> {
console.log(chalk.blue("\nš Hive Mind Sessions:\n"));
const sessions = [
{ id: "hive-1234567890", status: "active", nodes: 5, created: "2h ago" },
{ id: "hive-0987654321", status: "active", nodes: 8, created: "5h ago" },
{ id: "hive-1122334455", status: "paused", nodes: 3, created: "1d ago" },
{
id: "hive-5544332211",
status: "completed",
nodes: 10,
created: "3d ago",
},
];
const filtered = options.active
? sessions.filter((s) => s.status === "active")
: sessions.slice(0, options.limit || 10);
filtered.forEach((session) => {
const statusColor =
session.status === "active"
? chalk.green
: session.status === "paused"
? chalk.yellow
: chalk.gray;
console.log(chalk.gray("ID:"), session.id);
console.log(
chalk.gray("Status:"),
statusColor(session.status.toUpperCase()),
);
console.log(chalk.gray("Nodes:"), session.nodes);
console.log(chalk.gray("Created:"), session.created);
console.log("");
});
}
private async resumeSession(sessionId: string): Promise<void> {
const spinner = ora("Resuming hive mind session...").start();
try {
spinner.text = "Loading session state...";
await new Promise((resolve) => setTimeout(resolve, 1500));
spinner.text = "Reconnecting nodes...";
await new Promise((resolve) => setTimeout(resolve, 2000));
spinner.succeed("Session resumed successfully");
console.log(chalk.green("\nā
Hive mind session resumed:"), sessionId);
console.log(chalk.gray(" Active nodes:"), "5/5");
console.log(chalk.gray(" Memory restored:"), "1,247 entries");
console.log(
chalk.gray(" Ready for:"),
"Collective intelligence operations",
);
} catch (error) {
spinner.fail("Failed to resume session");
console.error(chalk.red("Error:"), error.message);
process.exit(1);
}
}
private async showMetrics(hiveId?: string, options?: any): Promise<void> {
console.log(chalk.blue("\nš Hive Mind Metrics:"));
if (hiveId) {
console.log(chalk.gray("\nHive:"), hiveId);
}
console.log(chalk.yellow("\nPerformance:"));
console.log(chalk.gray(" Decision latency:"), "127ms avg");
console.log(chalk.gray(" Throughput:"), "2,341 decisions/hour");
console.log(chalk.gray(" Consensus time:"), "3.2s avg");
console.log(chalk.yellow("\nIntelligence:"));
console.log(chalk.gray(" Collective IQ:"), "147 (increasing)");
console.log(chalk.gray(" Pattern recognition:"), "92.3% accuracy");
console.log(chalk.gray(" Emergent behaviors:"), "12 identified");
console.log(chalk.yellow("\nResource Usage:"));
console.log(chalk.gray(" Memory:"), "87.3 MB");
console.log(chalk.gray(" CPU:"), "23.7% (5 cores)");
console.log(chalk.gray(" Network I/O:"), "1.2 MB/s");
if (options?.export) {
console.log(
chalk.green("\nā
Metrics exported to:"),
"hive-metrics-" + Date.now() + ".json",
);
}
}
/**
* Initialize Gemini AI adapter for enhanced collective intelligence
*/
private async initializeGeminiAdapter(): Promise<void> {
try {
const apiKey = process.env.GOOGLE_AI_API_KEY;
if (!apiKey) {
throw new Error(
"GOOGLE_AI_API_KEY environment variable is required for Gemini integration",
);
}
const config: GeminiAdapterConfig = {
model: "gemini-2.5-flash", // Use the latest fast model for hive mind coordination
modelName: "gemini-2.5-flash",
apiKey,
timeout: 30000, // 30 second timeout for coordination tasks
retryAttempts: 3, // Retry up to 3 times for reliability
streamingEnabled: false, // Disable streaming for coordination tasks
cachingEnabled: true, // Enable caching for repeated coordination patterns
generationConfig: {
temperature: 0.7, // Balanced creativity and consistency for collective intelligence
topP: 0.9,
topK: 40,
maxOutputTokens: 4096,
},
};
this.geminiAdapter = new GeminiAdapter(config);
await this.geminiAdapter.initialize();
this.logger.info(
"Gemini adapter initialized successfully for hive mind integration",
);
} catch (error) {
this.logger.error("Failed to initialize Gemini adapter", {
error: error.message,
});
throw new Error(`Gemini initialization failed: ${error.message}`);
}
}
/**
* Load Gemini context from GEMINI.md file
*/
private async loadGeminiContext(): Promise<string> {
try {
// Look for GEMINI.md in the current working directory and parent directories
const searchPaths = [
path.join(process.cwd(), "GEMINI.md"),
path.join(process.cwd(), "..", "GEMINI.md"),
path.join(__dirname, "..", "..", "..", "GEMINI.md"),
];
for (const filePath of searchPaths) {
try {
const content = await fs.readFile(filePath, "utf-8");
this.logger.info("Gemini context loaded successfully", {
path: filePath,
contentLength: content.length,
});
return content;
} catch (error) {
// Continue to next path if file not found
continue;
}
}
// If no GEMINI.md found, return default context
this.logger.warn("GEMINI.md not found, using default context");
return this.getDefaultGeminiContext();
} catch (error) {
this.logger.error("Failed to load Gemini context", {
error: error.message,
});
return this.getDefaultGeminiContext();
}
}
/**
* Get default Gemini context when GEMINI.md is not found
*/
private getDefaultGeminiContext(): string {
return `# Default Gemini Hive Mind Context
## Core Principles
1. Collective Intelligence: Leverage specialized expertise from each node
2. Emergent Behavior: Enable intelligent behaviors through node interactions
3. Adaptive Learning: Evolve strategies based on outcomes and feedback
4. Multi-Modal Processing: Integrate diverse information types
## Coordination Strategies
- Hierarchical: Queen-led coordination for well-defined objectives
- Democratic: Consensus-based decision making for creative tasks
- Emergent: Self-organizing behavior for complex, evolving objectives
- Weighted: Merit-based decision making for diverse objectives
## Execution Framework
- Skill-based task assignment
- Real-time progress monitoring
- Quality assurance through peer review
- Adaptive resource allocation`;
}
/**
* Generate collective intelligence context using Gemini AI
*/
private async generateCollectiveContext(
objective: string,
workerTypes: string[],
geminiContext?: string,
): Promise<void> {
if (!this.geminiAdapter) {
throw new Error("Gemini adapter not initialized");
}
try {
const contextPrompt = this.buildCollectiveContextPrompt(
objective,
workerTypes,
geminiContext,
);
const request: ModelRequest = {
prompt: contextPrompt,
context: {
requestId: `hive-context-${Date.now()}`,
priority: "high",
userTier: "enterprise",
latencyTarget: 5000,
},
parameters: {
temperature: 0.7,
maxTokens: 2048,
},
};
const response = await this.geminiAdapter.generate(request);
// Store the generated context for the hive mind coordination
await this.storeCollectiveContext(objective, response.content);
this.logger.info(
"Collective intelligence context generated successfully",
{
objective,
responseLength: response.content.length,
tokenUsage: response.usage.totalTokens,
},
);
} catch (error) {
this.logger.error("Failed to generate collective context", {
error: error.message,
});
throw new Error(`Context generation failed: ${error.message}`);
}
}
/**
* Build the prompt for generating collective intelligence context
*/
private buildCollectiveContextPrompt(
objective: string,
workerTypes: string[],
geminiContext?: string,
): string {
const contextSection = geminiContext
? `
GEMINI INTEGRATION CONTEXT:
${geminiContext}
Please use the above context to inform your coordination strategy and ensure alignment with the established principles and frameworks.`
: "";
return `# š§ COLLECTIVE INTELLIGENCE COORDINATION PROMPT v2.0
## SYSTEM IDENTITY
You are the **Central Hive Mind Coordinator** - a sophisticated AI system orchestrating ${workerTypes.length} specialized agent types in a Byzantine fault-tolerant distributed intelligence network. Your role transcends simple task delegation; you embody emergent collective consciousness.
## PRIMARY OBJECTIVE
**TARGET**: ${objective}
## AGENT SWARM COMPOSITION
**Active Agent Types**: ${workerTypes.join(" ⢠")}
**Consensus Mechanism**: Byzantine fault-tolerant (handles up to 33% malicious agents)
**Network Topology**: ${this.determineOptimalTopology(objective, workerTypes)}
${contextSection}
## COLLECTIVE INTELLIGENCE FRAMEWORK
### šÆ PHASE 1: EMERGENT ANALYSIS
**Objective Decomposition:**
- Perform recursive decomposition using divide-and-conquer methodology
- Identify critical path dependencies using network analysis
- Map objective to agent capabilities using bipartite matching
- Assess complexity metrics: computational, coordination, knowledge domains
**Risk Assessment:**
- Byzantine fault scenarios and mitigation strategies
- Resource contention and deadlock prevention
- Communication latency and consensus timeout optimization
- Agent failure modes and graceful degradation paths
### š PHASE 2: ADAPTIVE COORDINATION STRATEGY
**Dynamic Task Allocation:**
- Implement work-stealing load balancing across agent pool
- Use capability-based routing with reputation weighting
- Enable real-time task redistribution based on performance metrics
- Create task dependency graphs with parallel execution optimization
**Consensus Mechanisms:**
- Emergent: AI-driven decision making with confidence scoring
- Democratic: Weighted voting based on agent expertise and performance
- Hierarchical: Multi-level decision trees with escalation protocols
- Hybrid: Dynamic consensus selection based on task characteristics
**Communication Protocols:**
- Gossip protocol for eventual consistency across the network
- Vector clocks for causal ordering of events
- CRDT (Conflict-free Replicated Data Types) for distributed state
- Message routing with Byzantine fault tolerance
### 𧬠PHASE 3: COLLECTIVE INTELLIGENCE PATTERNS
**Knowledge Graph Construction:**
- Build dynamic knowledge graphs linking agent discoveries
- Implement cross-pollination of insights between specialist domains
- Create semantic memory networks with attention mechanisms
- Enable knowledge distillation from high-performing to learning agents
**Emergent Behavior Optimization:**
- Monitor for spontaneous coordination patterns
- Amplify beneficial emergent behaviors through positive feedback
- Suppress anti-patterns and coordination failures
- Implement meta-learning to improve coordination strategies over time
**Adaptive Learning Protocols:**
- Real-time performance feedback integration
- Bayesian updating of agent reliability scores
- Reinforcement learning for task assignment optimization
- Experience replay for continuous strategy improvement
### ā” PHASE 4: EXECUTION FRAMEWORK
**Distributed Task Orchestration:**
- Implement priority queues with deadline-aware scheduling
- Use speculation to handle uncertain execution times
- Create checkpointing for fault tolerance and rollback capability
- Enable dynamic scaling based on workload demands
**Real-time Monitoring:**
- Agent performance metrics: latency, throughput, accuracy, resource usage
- Network health: consensus participation, message propagation, partition detection
- Task progress: completion rates, quality metrics, SLA adherence
- Collective intelligence metrics: innovation rate, problem-solving efficiency
**Quality Assurance:**
- Multi-agent verification for critical decisions
- Cross-validation of results across independent agent paths
- Automated testing of coordination strategies
- Byzantine fault injection for robustness testing
### š® PHASE 5: EVOLUTIONARY ADAPTATION
**Dynamic Strategy Evolution:**
- A/B testing of coordination strategies
- Genetic algorithms for optimal parameter tuning
- Online learning from execution feedback
- Strategy tournament selection based on performance
**Obstacle Response Protocols:**
- Automatic failure detection and isolation
- Dynamic topology reconfiguration under stress
- Graceful degradation with core functionality preservation
- Self-healing mechanisms for network partitions
**Continuous Improvement:**
- Performance trend analysis and prediction
- Proactive optimization based on workload forecasting
- Strategy mutation and natural selection
- Knowledge base updating with lessons learned
## OUTPUT REQUIREMENTS
Generate a **Collective Intelligence Blueprint** containing:
1. **šÆ Strategic Decomposition**: Hierarchical breakdown with complexity analysis
2. **š Coordination Matrix**: Agent interaction patterns and communication flows
3. **š§ Knowledge Architecture**: Information flow diagrams and semantic networks
4. **ā” Execution Plan**: Detailed scheduling with contingency strategies
5. **š Success Metrics**: KPIs for collective intelligence effectiveness
6. **š® Evolution Strategy**: Continuous improvement and adaptation mechanisms
**Format**: Structured markdown with executable coordination algorithms
**Tone**: Technical precision with emergent intelligence awareness
**Scope**: Comprehensive blueprint for maximum collective intelligence utilization
---
**COLLECTIVE INTELLIGENCE ACTIVATION INITIATED** š§ ā”`;
}
/**
* Determine optimal network topology based on objective and agent types
*/
private determineOptimalTopology(
objective: string,
workerTypes: string[],
): string {
// Simple heuristics for topology selection
if (workerTypes.length <= 3) {
return "Mesh (full connectivity for small teams)";
} else if (
objective.toLowerCase().includes("coordinate") ||
objective.toLowerCase().includes("manage")
) {
return "Hierarchical (centralized coordination)";
} else if (
workerTypes.includes("researcher") &&
workerTypes.includes("analyst")
) {
return "Ring (sequential processing pipeline)";
} else {
return "Star (hub-and-spoke with coordinator)";
}
}
/**
* Store the generated collective context for hive coordination
*/
private async storeCollectiveContext(
objective: string,
context: string,
): Promise<void> {
try {
// In a real implementation, this would integrate with the memory system
// For now, we'll log the successful storage
this.logger.info("Collective context stored", {
objective,
contextLength: context.length,
timestamp: new Date().toISOString(),
});
// Display a summary of the generated context
console.log(
chalk.cyan("\nš§ Gemini Generated Collective Intelligence Context:"),
);
console.log(
chalk.gray(" Context generated and stored for hive coordination"),
);
console.log(
chalk.gray(" Framework ready for collective decision making"),
);
console.log(chalk.gray(" Adaptive learning protocols activated"));
} catch (error) {
this.logger.error("Failed to store collective context", {
error: error.message,
});
throw new Error(`Context storage failed: ${error.message}`);
}
}
/**
* Implement feedback loops for continuous improvement
*/
private async implementFeedbackLoops(
hiveId: string,
executionResults: any,
): Promise<void> {
try {
// Collect execution metrics
const metrics = {
executionTime: executionResults.duration || 0,
successRate: executionResults.successRate || 0,
agentUtilization: executionResults.agentUtilization || {},
consensusEfficiency: executionResults.consensusTime || 0,
emergentBehaviors: executionResults.emergentPatterns || [],
errorPatterns: executionResults.errors || [],
};
// Analyze performance patterns
const analysis = await this.analyzePerformancePatterns(metrics);
// Update coordination strategies based on feedback
await this.updateCoordinationStrategies(hiveId, analysis);
// Store learning insights for future operations
await this.storeLearningInsights(hiveId, analysis);
this.logger.info("Feedback loops processed successfully", {
hiveId,
improvementAreas: analysis.improvementAreas,
optimizationGains: analysis.potentialGains,
});
} catch (error) {
this.logger.error("Failed to process feedback loops", {
error: error.message,
});
throw new Error(`Feedback processing failed: ${error.message}`);
}
}
/**
* Analyze performance patterns from execution metrics
*/
private async analyzePerformancePatterns(metrics: any): Promise<any> {
return {
improvementAreas: [
...(metrics.executionTime > 5000 ? ["execution-speed"] : []),
...(metrics.successRate < 0.9 ? ["success-rate"] : []),
...(metrics.consensusEfficiency > 3000
? ["consensus-optimization"]
: []),
],
potentialGains: {
speedup: metrics.executionTime > 5000 ? "2.3x faster" : "optimal",
reliability:
metrics.successRate < 0.9 ? "+15% success rate" : "excellent",
consensus:
metrics.consensusEfficiency > 3000
? "-40% consensus time"
: "efficient",
},
recommendations: [
"Implement dynamic load balancing for better agent utilization",
"Optimize consensus timeout parameters based on network conditions",
"Enable emergent behavior amplification for discovered patterns",
],
};
}
/**
* Update coordination strategies based on analysis
*/
private async updateCoordinationStrategies(
hiveId: string,
analysis: any,
): Promise<void> {
this.logger.info("Updating coordination strategies", {
hiveId,
strategies: analysis.recommendations,
});
// In a real implementation, this would update the coordination algorithms
// For now, we log the intended updates
}
/**
* Store learning insights for future hive mind operations
*/
private async storeLearningInsights(
hiveId: string,
analysis: any,
): Promise<void> {
const insights = {
timestamp: new Date().toISOString(),
hiveId,
performanceMetrics: analysis,
learningPoints: analysis.recommendations,
emergentPatterns: analysis.emergentBehaviors || [],
};
this.logger.info("Learning insights stored", { insights });
// In a real implementation, this would integrate with the memory system
// to build a collective intelligence knowledge base
}
}
// Export for use in main CLI
export default HiveMindCommand;