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Overview

Orbits are the top-level orchestration constructs in OrbitAI that bring together agents, tasks, and processes into cohesive, executable workflows. An orbit manages the complete lifecycle of multi-agent execution, from initialization through task distribution to result aggregation.

Orchestration

Coordinates multiple agents and tasks

Lifecycle Management

Manages execution from start to finish

LLM Integration

Automatic LLM provider setup

Memory Systems

Shared and agent-specific memory

Context Flow

Manages data flow between tasks

Telemetry

Comprehensive metrics and monitoring

What is an Orbit?

An Orbit is a complete workflow system that:
  • Manages agents: Configures and coordinates AI agents
  • Executes tasks: Runs tasks according to process type
  • Handles state: Tracks execution progress and results
  • Provides infrastructure: LLM providers, memory, tools, knowledge bases
  • Monitors performance: Collects metrics and usage data
  • Ensures reliability: Error handling and recovery mechanisms
Think of an Orbit as a “project” or “workflow instance” that contains everything needed to execute a multi-agent system.

Key Characteristics

Orbits encapsulate all necessary components—agents, tasks, LLM providers, memory, and tools—making them portable and reusable.
Execution follows one of three process types (Sequential, Hierarchical, Flow-Based), providing predictable orchestration patterns.
Maintains execution context that flows through tasks, enabling agents to build upon previous work and share information.
Provides comprehensive visibility into execution through verbose logging, metrics, and telemetry integration.

Orbit Lifecycle

Understanding the orbit lifecycle helps you manage execution and handle edge cases effectively.
┌─────────────────────────────────────────────────────┐
│                   ORBIT LIFECYCLE                    │
└─────────────────────────────────────────────────────┘

1. INITIALIZATION
   ├─ Create Orbit instance
   ├─ Validate configuration
   ├─ Setup LLM providers
   ├─ Initialize memory systems
   └─ Register tools

2. READY
   ├─ Orbit configured and ready
   ├─ Waiting for start() call
   └─ All components initialized

3. RUNNING
   ├─ Executing tasks
   ├─ Agents processing work
   ├─ Context flowing
   └─ Metrics collecting

4. COMPLETING
   ├─ Final tasks finishing
   ├─ Aggregating results
   └─ Collecting final metrics

5. COMPLETED / FAILED
   ├─ OrbitOutput generated
   ├─ Resources cleaned up
   └─ Final state recorded

Lifecycle States

  • Initialization
  • Ready
  • Running
  • Completing
  • Completed/Failed
Phase: Orbit construction and setupActivities:
  • Validate required parameters
  • Create internal components
  • Setup LLM manager
  • Initialize memory systems
  • Register tools with ToolsHandler
  • Prepare knowledge bases
  • Validate agent configurations
  • Validate task configurations
Code Example:
// Initialization phase
let orbit = try await Orbit.create(
    name: "Data Analysis Pipeline",
    description: "Analyze customer data and generate insights",
    agents: [dataAgent, analysisAgent, reportAgent],
    tasks: [extractTask, analyzeTask, reportTask],
    process: .sequential,
    verbose: true,
    memory: true,
    usageMetrics: true
)
// Orbit is now in READY state
Common Errors:
  • Missing required parameters
  • Invalid agent configurations
  • LLM provider setup failures
  • Tool registration issues
Initialization errors are thrown immediately—catch and handle them before attempting execution.

Parameters and Configuration

Core Parameters

  • Required
  • Process & Execution
  • Memory & Knowledge
  • Monitoring & Output
  • Additional Config
ParameterTypeDescription
nameStringHuman-readable name for the orbit
agents[Agent]Array of agents available for task execution
tasks[ORTask]Array of tasks to execute
let orbit = try await Orbit.create(
    name: "Content Creation Workflow",
    agents: [researcher, writer, editor],
    tasks: [researchTask, writeTask, editTask]
)
These three parameters are the minimum required to create a functioning orbit.

Creating and Configuring Orbits

Basic Creation

1

Define Agents

Create agents with appropriate roles and capabilities:
let researcher = Agent(
    role: "Research Analyst",
    purpose: "Conduct thorough research on topics",
    context: "Expert researcher with analytical skills",
    tools: ["web_search", "data_analyzer"]
)

let writer = Agent(
    role: "Content Writer",
    purpose: "Create engaging, well-written content",
    context: "Professional writer with storytelling skills",
    tools: ["content_optimizer", "grammar_checker"]
)
2

Define Tasks

Create tasks with clear descriptions and expected outputs:
let researchTask = ORTask(
    description: "Research current trends in AI for healthcare",
    expectedOutput: "Comprehensive research report with sources",
    agent: researcher.id
)

let writingTask = ORTask(
    description: "Write article based on research: {task_0_output}",
    expectedOutput: "1500-word article in markdown",
    agent: writer.id,
    context: [researchTask.id]
)
3

Create Orbit

Bring agents and tasks together:
let orbit = try await Orbit.create(
    name: "Article Creation Pipeline",
    description: "Research and write articles on AI topics",
    agents: [researcher, writer],
    tasks: [researchTask, writingTask],
    process: .sequential,
    verbose: true
)
4

Execute

Start the orbit and get results:
let result = try await orbit.start()

// Access outputs
for (index, output) in result.taskOutputs.enumerated() {
    print("Task \(index): \(output.rawOutput)")
}

// Check metrics
print("Total tokens: \(result.usageMetrics.totalTokens)")
print("Execution time: \(result.executionTime)s")

Advanced Configuration

  • Custom LLM Setup
  • Memory Configuration
  • Knowledge Sources
  • Tool Registration
Configure specific LLM providers:
// Create orbit
let orbit = try await Orbit.create(
    name: "Custom LLM Workflow",
    agents: agents,
    tasks: tasks
)

// Add primary provider
let openAIProvider = try OpenAIProvider(
    model: .gpt4o,
    apiKey: openAIKey
)
await orbit.configureLLMProvider(
    openAIProvider,
    asDefault: true
)

// Add fallback provider
let anthropicProvider = AnthropicProvider(
    model: .claude35Sonnet,
    apiKey: anthropicKey
)
await orbit.configureLLMProvider(anthropicProvider)

// Execute with configured providers
let result = try await orbit.start()

Execution Process

Execution Flow

  • Sequential
  • Hierarchical
  • Flow-Based
orbit.start()

Initialize LLM Manager

Load Knowledge Sources

Setup Memory Systems

Create Task Execution Engine

Execute Task 1 (Agent A)

Update Context with Output 1

Execute Task 2 (Agent B)

Update Context with Output 2

Execute Task 3 (Agent C)

Update Context with Output 3

Aggregate Results

Calculate Metrics

Return OrbitOutput
Characteristics:
  • Strict linear execution
  • Each task waits for previous
  • Context builds sequentially
  • Predictable timing

Execution Context

The execution context flows through tasks:
public struct TaskExecutionContext: Sendable {
    // Previous task outputs
    public var taskOutputs: [TaskOutput]

    // Orbit-level inputs
    public var inputs: Metadata

    // Shared memory
    public var memory: MemoryStorage?

    // Knowledge base access
    public var knowledgeBase: KnowledgeBase?

    // Available tools
    public var availableTools: [String]
}
Context Flow Example:
// Task 1 executes
let output1 = TaskOutput(rawOutput: "Research findings...")

// Context updated
context.taskOutputs.append(output1)

// Task 2 receives context with output1
// Can reference via {task_0_output}

// Task 2 executes
let output2 = TaskOutput(rawOutput: "Article based on research...")

// Context updated again
context.taskOutputs.append(output2)

// Task 3 receives both outputs
// Can reference {task_0_output} and {task_1_output}

Inputs and Interpolation

OrbitInput

Provide dynamic inputs to orbits:
  • Basic Usage
  • Typed Inputs
  • Complex Inputs
  • Default Values
// Define task with placeholders
let task = ORTask(
    description: """
    Analyze {industry} market for {product} in {region}.
    Focus on {timeframe} trends.
    """,
    expectedOutput: "Market analysis report"
)

let orbit = try await Orbit.create(
    name: "Market Analysis",
    agents: [analyst],
    tasks: [task]
)

// Provide inputs at runtime
let inputs = OrbitInput(Metadata([
    "industry": .string("healthcare"),
    "product": .string("AI diagnostics"),
    "region": .string("North America"),
    "timeframe": .string("2024 Q4")
]))

let result = try await orbit.start(inputs: inputs)
// Task description becomes:
// "Analyze healthcare market for AI diagnostics in North America.
//  Focus on 2024 Q4 trends."

Variable Interpolation

Reference previous task outputs:
let task1 = ORTask(
    description: "Research AI trends",
    expectedOutput: "Research report"
)

let task2 = ORTask(
    description: """
    Write article based on:
    {task_0_output}
    """,
    expectedOutput: "Article",
    context: [task1.id]
)

let task3 = ORTask(
    description: """
    Edit article for publication.
    Original research: {task_0_output}
    Article draft: {task_1_output}
    """,
    expectedOutput: "Final article",
    context: [task1.id, task2.id]
)
Variable Format:
  • {task_0_output} - First task
  • {task_1_output} - Second task
  • {task_N_output} - Nth task
Reference orbit-level inputs:
let inputs = OrbitInput(Metadata([
    "company": .string("TechCorp"),
    "year": .int(2024),
    "quarter": .string("Q4")
]))

let task = ORTask(
    description: """
    Analyze {company} performance for {year} {quarter}.
    """,
    expectedOutput: "Performance report"
)

let result = try await orbit.start(inputs: inputs)
// "Analyze TechCorp performance for 2024 Q4."
Use conditional values:
let inputs = OrbitInput(Metadata([
    "mode": .string("detailed"),
    "include_charts": .bool(true)
]))

let task = ORTask(
    description: """
    Generate report in {mode} mode.
    {if include_charts}Include visualizations and charts.{endif}
    {if mode=detailed}Provide comprehensive analysis with examples.{endif}
    """,
    expectedOutput: "Report"
)
Conditional interpolation is processed before task execution.

Outputs

OrbitOutput Structure

public struct OrbitOutput: Codable, Sendable {
    // Task execution results
    public let taskOutputs: [TaskOutput]

    // Aggregated usage metrics
    public let usageMetrics: UsageMetrics

    // Total execution time
    public let executionTime: TimeInterval

    // Orbit metadata
    public let orbitId: OrbitAIID
    public let orbitName: String

    // Completion timestamp
    public let completedAt: Date
}

Accessing Results

  • Basic Access
  • Structured Outputs
  • Error Results
  • Exporting Results
let result = try await orbit.start()

// Access task outputs
print("Total tasks: \(result.taskOutputs.count)")

for (index, output) in result.taskOutputs.enumerated() {
    print("\n=== Task \(index) ===")
    print("Output: \(output.rawOutput)")
    print("Agent: \(output.agentId)")
    print("Tokens: \(output.usageMetrics.totalTokens)")
}

// Access metrics
print("\n=== Metrics ===")
print("Total tokens: \(result.usageMetrics.totalTokens)")
print("Execution time: \(result.executionTime)s")

Monitoring and Telemetry

Real-Time Monitoring

  • Execution Status
  • Agent Metrics
  • Task Progress
  • Custom Telemetry
// Monitor orbit execution
let orbit = try await Orbit.create(
    name: "Long-Running Workflow",
    agents: agents,
    tasks: tasks,
    verbose: true
)

// Start execution in background
Task {
    do {
        let result = try await orbit.start()
        print("Orbit completed!")
    } catch {
        print("Orbit failed: \(error)")
    }
}

// Monitor progress
while await orbit.isRunning() {
    let status = await orbit.getExecutionStatus()

    print("Status Update:")
    print("  Queued: \(status.queuedTasks)")
    print("  Active: \(status.activeTasks)")
    print("  Completed: \(status.completedTasks)")
    print("  Failed: \(status.failedTasks)")
    print("  Progress: \(status.completionPercentage)%")

    try await Task.sleep(for: .seconds(5))
}

Metrics Collection

// Enable metrics collection
let orbit = try await Orbit.create(
    name: "Tracked Workflow",
    agents: agents,
    tasks: tasks,
    usageMetrics: true  // Default: true
)

let result = try await orbit.start()

// Access aggregated metrics
let metrics = result.usageMetrics

print("Token Usage:")
print("  Prompt: \(metrics.promptTokens)")
print("  Completion: \(metrics.completionTokens)")
print("  Total: \(metrics.totalTokens)")

print("\nAPI Calls:")
print("  Successful: \(metrics.successfulRequests)")
print("  Total: \(metrics.totalRequests)")
print("  Success rate: \((Double(metrics.successfulRequests) / Double(metrics.totalRequests)) * 100)%")

// Calculate costs (example for OpenAI)
let inputCost = Double(metrics.promptTokens) * 0.00001  // $0.01 per 1K
let outputCost = Double(metrics.completionTokens) * 0.00003  // $0.03 per 1K
let totalCost = inputCost + outputCost

print("\nEstimated Cost: $\(String(format: "%.4f", totalCost))")
let result = try await orbit.start()

print("Performance Metrics:")
print("  Total execution: \(result.executionTime)s")

// Per-task timing
for (index, output) in result.taskOutputs.enumerated() {
    if let task = orbit.tasks[safe: index] {
        print("  Task \(index): \(task.executionTime ?? 0)s")
    }
}

// Identify bottlenecks
let sortedTasks = result.taskOutputs.enumerated().sorted {
    guard let time1 = orbit.tasks[safe: $0.offset]?.executionTime,
          let time2 = orbit.tasks[safe: $1.offset]?.executionTime else {
        return false
    }
    return time1 > time2
}

print("\nSlowest tasks:")
for (index, _) in sortedTasks.prefix(3) {
    if let task = orbit.tasks[safe: index] {
        print("  \(task.description): \(task.executionTime ?? 0)s")
    }
}
let result = try await orbit.start()

// Aggregate tool usage across all tasks
var toolStats: [String: (count: Int, totalTime: TimeInterval)] = [:]

for output in result.taskOutputs {
    for toolUsage in output.toolsUsed {
        if var stats = toolStats[toolUsage.toolName] {
            stats.count += 1
            stats.totalTime += toolUsage.executionTime
            toolStats[toolUsage.toolName] = stats
        } else {
            toolStats[toolUsage.toolName] = (1, toolUsage.executionTime)
        }
    }
}

print("Tool Usage Statistics:")
for (tool, stats) in toolStats.sorted(by: { $0.value.count > $1.value.count }) {
    let avgTime = stats.totalTime / Double(stats.count)
    print("  \(tool): \(stats.count) calls, avg \(String(format: "%.2f", avgTime))s")
}

Error Handling

Error Types

Configuration Errors

When: During orbit creation
do {
    let orbit = try await Orbit.create(
        name: "Test",
        agents: [],  // Empty!
        tasks: []    // Empty!
    )
} catch OrbitAIError.configuration(let msg) {
    print("Config error: \(msg)")
}
Common Causes:
  • Missing required parameters
  • Invalid agent configurations
  • Empty agents or tasks arrays

Execution Errors

When: During orbit.start()
do {
    let result = try await orbit.start()
} catch OrbitAIError.taskExecutionFailed(let msg) {
    print("Execution failed: \(msg)")
}
Common Causes:
  • Task execution failures
  • Agent errors
  • Tool failures
  • Timeout exceeded

LLM Errors

When: LLM provider issues
do {
    let result = try await orbit.start()
} catch OrbitAIError.llmRateLimitExceeded(let msg) {
    print("Rate limited: \(msg)")
    // Implement backoff
} catch OrbitAIError.llmRequestFailed(let msg) {
    print("LLM error: \(msg)")
}
Common Causes:
  • Rate limits
  • API key issues
  • Provider unavailability
  • Token limits exceeded

Resource Errors

When: Resource constraints
do {
    let result = try await orbit.start()
} catch OrbitAIError.memoryExhausted {
    print("Out of memory")
} catch OrbitAIError.timeout {
    print("Execution timeout")
}
Common Causes:
  • Memory constraints
  • Timeout limits
  • Disk space issues

Error Recovery Strategies

  • Retry Logic
  • Fallback Providers
  • Partial Results
  • Graceful Degradation
func executeOrbitWithRetry(
    orbit: Orbit,
    maxRetries: Int = 3
) async throws -> OrbitOutput {
    var lastError: Error?

    for attempt in 1...maxRetries {
        do {
            return try await orbit.start()
        } catch let error as OrbitAIError {
            lastError = error

            switch error {
            case .llmRateLimitExceeded:
                // Exponential backoff
                let delay = pow(2.0, Double(attempt))
                print("Rate limited, retrying in \(delay)s...")
                try await Task.sleep(for: .seconds(delay))

            case .taskExecutionFailed(let msg) where msg.contains("timeout"):
                // Increase timeout for retry
                print("Timeout, increasing limits for retry...")
                // Would need to recreate orbit with higher limits

            default:
                // Other errors - don't retry
                throw error
            }
        }
    }

    throw lastError ?? OrbitAIError.taskExecutionFailed("Max retries exceeded")
}

Best Practices

Orbit Design

Appropriate Scope

Do: Create focused orbits for specific workflows
// Good: Focused workflow
let contentOrbit = Orbit.create(
    name: "Content Creation",
    agents: [researcher, writer, editor],
    tasks: [research, write, edit]
)
Don’t: Create monolithic orbits
// Bad: Too many responsibilities
let everythingOrbit = Orbit.create(
    name: "Everything",
    agents: [50 different agents],
    tasks: [100 different tasks]
)

Agent Specialization

Do: Assign specialized agents to relevant tasks
let codeAgent = Agent(
    role: "Senior Developer",
    purpose: "Write production code",
    context: "Expert in Swift",
    tools: ["code_generator", "linter"]
)

let codeTask = ORTask(
    description: "Implement authentication",
    agent: codeAgent.id
)
Don’t: Use generic agents for everything
let genericAgent = Agent(
    role: "Helper",
    purpose: "Do stuff"
)

Memory Management

Do: Enable memory only when needed
// Conversational: needs memory
let chatOrbit = Orbit.create(
    name: "Chat",
    agents: [chatAgent],
    tasks: chatTasks,
    memory: true
)

// One-off: no memory needed
let reportOrbit = Orbit.create(
    name: "Report",
    agents: [reportAgent],
    tasks: [reportTask],
    memory: false
)

Error Boundaries

Do: Implement proper error handling
do {
    let result = try await orbit.start()
    await processSuccess(result)
} catch {
    await handleFailure(error)
    await notifyStakeholders(error)
    await cleanupResources()
}
Don’t: Ignore errors
// Bad
try? await orbit.start()

Performance Optimization

1

Choose Appropriate Process

// Sequential: for linear workflows
let simpleWorkflow = Orbit.create(
    process: .sequential
)

// Hierarchical: for complex coordination
let complexWorkflow = Orbit.create(
    process: .hierarchical,
    manager: coordinator
)

// Flow-based: for parallel opportunities
let parallelWorkflow = Orbit.create(
    process: .flowBased  // Not a real enum, just for illustration
)
// Use TaskFlow for flow-based execution
2

Optimize Task Granularity

// Good: Balanced task size
let tasks = [
    extractDataTask,      // ~30s
    transformDataTask,    // ~45s
    analyzeDataTask,      // ~60s
    reportTask           // ~20s
]

// Bad: Too granular (high overhead)
let tooManyTasks = [
    loadFile1, loadFile2, loadFile3,  // Each 1s
    parseFile1, parseFile2, parseFile3,
    // ... 50 more tiny tasks
]

// Bad: Too coarse (long blocking)
let tooFewTasks = [
    doEverythingTask  // 30 minutes
]
3

Configure Concurrency

// Set appropriate limits
let orbit = Orbit.create(
    name: "Parallel Processing",
    agents: agents,
    tasks: tasks,
    maxConcurrentTasks: 5  // Balance parallelism vs resources
)

// Consider:
// - API rate limits (e.g., 60 req/min)
// - Memory constraints
// - CPU availability
4

Monitor and Tune

let result = try await orbit.start()

// Analyze performance
print("Total time: \(result.executionTime)s")

// Identify bottlenecks
for (index, output) in result.taskOutputs.enumerated() {
    if let task = orbit.tasks[safe: index] {
        let time = task.executionTime ?? 0
        if time > 60 {  // Tasks over 1 minute
            print("Slow task: \(task.description) (\(time)s)")
        }
    }
}

// Optimize based on findings

Troubleshooting

Symptoms: Errors during Orbit.create()Common Causes:
  • Missing required parameters
  • Invalid agent/task configurations
  • LLM provider setup failure
Solutions:
do {
    let orbit = try await Orbit.create(
        name: "Test Orbit",
        agents: agents,
        tasks: tasks
    )
} catch OrbitAIError.configuration(let message) {
    print("Configuration error: \(message)")

    // Check specific issues
    if agents.isEmpty {
        print("Error: No agents provided")
    }
    if tasks.isEmpty {
        print("Error: No tasks provided")
    }

    // Validate agent configs
    for agent in agents {
        if agent.role.isEmpty {
            print("Error: Agent missing role")
        }
    }
}
Symptoms: Orbit starts but tasks don’t runCommon Causes:
  • Agent assignment issues
  • Missing tools
  • LLM provider not configured
Solutions:
// Verify agents have necessary tools
for agent in agents {
    let tools = await agent.getToolNames()
    print("\(agent.role) tools: \(tools)")
}

// Verify LLM provider
let llmManager = await orbit.getLLMManager()
let providers = await llmManager.getAvailableProviders()
print("Available providers: \(providers)")

if providers.isEmpty {
    // Configure provider
    let provider = try OpenAIProvider.fromEnvironment(
        model: .gpt4o
    )
    await orbit.configureLLMProvider(provider, asDefault: true)
}

// Enable verbose logging
let orbit = try await Orbit.create(
    name: "Debug Orbit",
    agents: agents,
    tasks: tasks,
    verbose: true  // See what's happening
)
Symptoms: {variable} appears literally in outputsCommon Causes:
  • Missing context declaration
  • Wrong variable names
  • Inputs not provided
Solutions:
// Ensure context is declared
let task = ORTask(
    description: "Process: {task_0_output}",
    expectedOutput: "Result",
    context: [previousTask.id]  // Required!
)

// Provide orbit inputs
let inputs = OrbitInput(Metadata([
    "variable": .string("value")
]))
let result = try await orbit.start(inputs: inputs)

// Verify variable names match
// Description: "Analyze {industry}"
// Input key must be: "industry"
Symptoms: Memory consumption growing excessivelyCommon Causes:
  • Memory enabled unnecessarily
  • Large outputs accumulating
  • Knowledge bases loaded but not needed
Solutions:
// Disable unnecessary memory
let orbit = Orbit.create(
    name: "Lightweight Orbit",
    agents: agents,
    tasks: tasks,
    memory: false,           // Disable if not needed
    longTermMemory: false,
    entityMemory: false
)

// Configure memory limits
let memoryConfig = MemoryConfiguration(
    maxMemoryItems: 50,      // Limit storage
    compressionEnabled: true, // Auto-summarize
    pruneOldItems: true      // Remove old entries
)

// Extract only needed data
let summaryTask = ORTask(
    description: "Summarize key points from research",
    expectedOutput: "5 bullet points"  // Compact output
)
Symptoms: Orbit takes much longer than expectedCommon Causes:
  • Sequential execution when parallel possible
  • Large context windows
  • Inefficient tool usage
  • No concurrency limits set
Solutions:
// Use flow-based for parallelization
let taskFlow = TaskFlow(
    tasks: independentTasks
)

let engine = TaskExecutionEngine(
    agentExecutor: executor,
    maxConcurrentTasks: 5  // Enable parallelism
)

// Optimize context
let task = ORTask(
    description: "Use summary: {task_1_output}",
    context: [summaryTask.id]  // Reference specific task, not all
)

// Enable context window management
let agent = Agent(
    role: "Agent",
    purpose: "Process efficiently",
    context: "...",
    respectContextWindow: true  // Auto-prune context
)

// Profile execution
let result = try await orbit.start()
for (i, output) in result.taskOutputs.enumerated() {
    if let task = orbit.tasks[safe: i] {
        print("Task \(i): \(task.executionTime ?? 0)s")
    }
}
Symptoms: Different outputs for same inputsCommon Causes:
  • High temperature settings
  • Non-deterministic tools
  • Memory state differences
  • Random LLM sampling
Solutions:
// Lower temperature for consistency
let agent = Agent(
    role: "Data Processor",
    purpose: "Process data consistently",
    context: "Deterministic processing",
    temperature: 0.0  // Fully deterministic
)

// Use structured outputs
struct ProcessingResult: Codable, Sendable {
    let status: String
    let count: Int
}

let task = ORTask.withStructuredOutput(
    description: "Process data",
    expectedType: ProcessingResult.self,
    agent: agent.id
)

// Disable memory for stateless execution
let orbit = Orbit.create(
    name: "Stateless Orbit",
    agents: [agent],
    tasks: [task],
    memory: false  // No state
)

Next Steps

For additional support, consult the GitHub Discussions or check the Issue Tracker.