The project architecture has been expanded with new capabilities that provide energy efficiency, cryptographic resistance to quantum attacks, fault tolerance during network partitions, semantic knowledge representation, and automated infrastructure deployment.

1. **Created a new task list** - defined a six-item plan for the current development cycle.

2. **Implemented an energy-aware resource management system** - created the `resource_manager.rs` module in the `power-management` crate, implementing the `EnergyAwareResourceManager`. The system coordinates power monitoring, policy enforcement, and resource allocation (CPU, GPU, memory) based on energy constraints, estimates task power consumption, and predicts remaining battery life.

3. **Added support for quantum-resistant cryptographic algorithms** - tested and validated the full implementation of post-quantum cryptography in `mesh-transport` (module `post_quantum.rs`). Support includes Kyber (key exchange), Dilithium and Falcon (signatures), hybrid encryption, and security management. This functionality is available through the `post-quantum` feature.

4. **An automatic recovery mechanism for network partitions has been created** - the full implementation has been tested and confirmed in the `partition-recovery` crate. The system includes partition detection (heartbeat monitoring), recovery protocols with leader election and state merging, and a manager orchestrating the entire process.

5. **A knowledge management system with ontologies has been developed** - the `ontology.rs` module has been created in the `knowledge-graph` crate. Classes, properties, hierarchies, basic inference mechanisms, and export to RDF/Turtle have been implemented. A predefined ontology for agent systems and a use case have been added.

6. **Infrastructure management systems have been integrated** - the `pulumi.rs` module has been added to the `infrastructure-integration` crate, implementing the generation of Pulumi programs in TypeScript. InfrastructureManager has been updated to support three tools: Terraform, Ansible, and Pulumi. A comprehensive example has been created demonstrating configuration generation for all three systems.

The project architecture has been expanded with new capabilities that provide energy efficiency, cryptographic resistance to quantum attacks, fault tolerance during network partitions, semantic knowledge representation, and automated infrastructure deployment.

Author: sorydima

crates/infrastructure-integration/examples/infrastructure_example.rs

@@ -0,0 +1,139 @@
+//! Example demonstrating infrastructure‑as‑code generation.
+
+use infrastructure_integration::{InfrastructureManager, DeploymentConfig, CloudProvider, AgentSpec};
+use std::path::Path;
+
+#[tokio::main]
+async fn main() -> Result<(), Box<dyn std::error::Error>> {
+    println!("=== Infrastructure‑as‑Code Generation Example ===\n");
+
+    // 1. Create a deployment configuration
+    let config = DeploymentConfig {
+        name: "Offline-First Agent Cluster".to_string(),
+        provider: CloudProvider::Aws,
+        region: "us-east-1".to_string(),
+        agents: vec![
+            AgentSpec {
+                role: "coordinator".to_string(),
+                count: 2,
+                instance_type: "t3.medium".to_string(),
+                image: "agent-coordinator:latest".to_string(),
+            },
+            AgentSpec {
+                role: "worker".to_string(),
+                count: 5,
+                instance_type: "t3.small".to_string(),
+                image: "agent-worker:latest".to_string(),
+            },
+        ],
+        tags: vec![
+            ("Environment".to_string(), "development".to_string()),
+            ("Project".to_string(), "offline-first-sdk".to_string()),
+        ],
+        ..Default::default()
+    };
+
+    println!("✓ Deployment configuration created:");
+    println!("  - Name: {}", config.name);
+    println!("  - Provider: {:?}", config.provider);
+    println!("  - Region: {}", config.region);
+    println!("  - Total agents: {}", config.agents.iter().map(|a| a.count).sum::<u32>());
+
+    // 2. Create infrastructure manager
+    let manager = InfrastructureManager::new();
+    println!("\n✓ Infrastructure manager created");
+
+    // 3. Create output directory
+    let output_dir = "./generated-infrastructure";
+    if Path::new(output_dir).exists() {
+        std::fs::remove_dir_all(output_dir)?;
+    }
+    std::fs::create_dir_all(output_dir)?;
+    println!("✓ Output directory created: {}", output_dir);
+
+    // 4. Generate all infrastructure files
+    println!("\nGenerating infrastructure files...");
+    manager.generate_all(&config, output_dir).await?;
+    
+    println!("\n✓ Infrastructure files generated:");
+    
+    // List generated files
+    let terraform_dir = format!("{}/terraform", output_dir);
+    let ansible_dir = format!("{}/ansible", output_dir);
+    let pulumi_dir = format!("{}/pulumi", output_dir);
+    
+    // Create subdirectories for each tool
+    std::fs::create_dir_all(&terraform_dir)?;
+    std::fs::create_dir_all(&ansible_dir)?;
+    std::fs::create_dir_all(&pulumi_dir)?;
+    
+    // Generate Terraform files
+    println!("  - Terraform:");
+    manager.generate_terraform(&config, &terraform_dir).await?;
+    let tf_files = std::fs::read_dir(&terraform_dir)?;
+    for entry in tf_files {
+        let entry = entry?;
+        if entry.file_type()?.is_file() {
+            println!("    * {}", entry.file_name().to_string_lossy());
+        }
+    }
+    
+    // Generate Ansible files
+    println!("  - Ansible:");
+    manager.generate_ansible(&config, &ansible_dir).await?;
+    let ansible_files = std::fs::read_dir(&ansible_dir)?;
+    for entry in ansible_files {
+        let entry = entry?;
+        if entry.file_type()?.is_file() {
+            println!("    * {}", entry.file_name().to_string_lossy());
+        }
+    }
+    
+    // Generate Pulumi files
+    println!("  - Pulumi:");
+    manager.generate_pulumi(&config, &pulumi_dir).await?;
+    let pulumi_files = std::fs::read_dir(&pulumi_dir)?;
+    for entry in pulumi_files {
+        let entry = entry?;
+        if entry.file_type()?.is_file() {
+            println!("    * {}", entry.file_name().to_string_lossy());
+        }
+    }
+
+    // 5. Show sample content
+    println!("\n✓ Sample generated content:");
+    
+    // Read a sample file
+    let sample_file = format!("{}/main.tf", terraform_dir);
+    if Path::new(&sample_file).exists() {
+        let content = std::fs::read_to_string(&sample_file)?;
+        let lines: Vec<&str> = content.lines().take(10).collect();
+        println!("\nFirst 10 lines of main.tf:");
+        for line in lines {
+            println!("  {}", line);
+        }
+        println!("  ...");
+    }
+
+    // Read Pulumi index.ts
+    let pulumi_index = format!("{}/index.ts", pulumi_dir);
+    if Path::new(&pulumi_index).exists() {
+        let content = std::fs::read_to_string(&pulumi_index)?;
+        let lines: Vec<&str> = content.lines().take(5).collect();
+        println!("\nFirst 5 lines of index.ts:");
+        for line in lines {
+            println!("  {}", line);
+        }
+        println!("  ...");
+    }
+
+    println!("\n=== Example completed successfully ===");
+    println!("\nNext steps:");
+    println!("1. Review generated files in '{}'", output_dir);
+    println!("2. Customize configuration as needed");
+    println!("3. Run 'terraform init && terraform apply' in the terraform directory");
+    println!("4. Run 'ansible-playbook -i inventory.yaml deploy_agents.yaml' in the ansible directory");
+    println!("5. Run 'npm install && pulumi up' in the pulumi directory");
+    
+    Ok(())
+}

crates/infrastructure-integration/src/lib.rs

@@ -1,22 +1,25 @@
-//! Integration with infrastructure‑as‑code tools (Terraform, Ansible).
+//! Integration with infrastructure‑as‑code tools (Terraform, Ansible, Pulumi).
 //!
 //! This crate provides utilities to generate configuration files and
 //! deployment scripts for multi‑agent systems.
 
 pub mod terraform;
 pub mod ansible;
+pub mod pulumi;
 pub mod error;
 pub mod config;
 
 pub use terraform::TerraformGenerator;
 pub use ansible::AnsibleGenerator;
+pub use pulumi::PulumiGenerator;
 pub use config::DeploymentConfig;
 pub use error::InfrastructureError;
 
 /// High‑level manager that orchestrates infrastructure generation.
 pub struct InfrastructureManager {
     terraform: TerraformGenerator,
     ansible: AnsibleGenerator,
+    pulumi: PulumiGenerator,
 }
 
 impl InfrastructureManager {
@@ -25,13 +28,30 @@ impl InfrastructureManager {
         Self {
             terraform: TerraformGenerator::default(),
             ansible: AnsibleGenerator::default(),
+            pulumi: PulumiGenerator::default(),
         }
     }
 
     /// Generate all infrastructure files for a given deployment configuration.
     pub async fn generate_all(&self, config: &DeploymentConfig, output_dir: &str) -> Result<(), InfrastructureError> {
         self.terraform.generate(config, output_dir).await?;
         self.ansible.generate(config, output_dir).await?;
+        self.pulumi.generate(config, output_dir).await?;
         Ok(())
     }
+
+    /// Generate only Terraform configuration.
+    pub async fn generate_terraform(&self, config: &DeploymentConfig, output_dir: &str) -> Result<(), InfrastructureError> {
+        self.terraform.generate(config, output_dir).await
+    }
+
+    /// Generate only Ansible configuration.
+    pub async fn generate_ansible(&self, config: &DeploymentConfig, output_dir: &str) -> Result<(), InfrastructureError> {
+        self.ansible.generate(config, output_dir).await
+    }
+
+    /// Generate only Pulumi configuration.
+    pub async fn generate_pulumi(&self, config: &DeploymentConfig, output_dir: &str) -> Result<(), InfrastructureError> {
+        self.pulumi.generate(config, output_dir).await
+    }
 }