Introducing custom Benchmarks by runloop

Measure & improve your agent's ability to solve the problems you care about.

MicroVM Isolation
Credential Gateway
Tool-Level Access Control
SOC 2 Type II
HIPAA-Eligible
BYOC
MicroVM Isolation
Credential Gateway
Tool-Level Access Control
SOC 2 Type II
HIPAA-Eligible
BYOC
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CREDENTIAL SECURITY

A Unified Execution Model for AI Workflows

Runloop provides a consistent way to execute AI workloads where environments, state, and results are always explicit.

This allows teams to iterate, evaluate, and scale AI systems without changing how their workflows are structured or introducing environment-specific logic.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

# Before: direct API access (insecure)
client = anthropic.Anthropic(
    api_key="sk-ant-real-key-here"
)

# After: via Credential Gateway (secure)
client = anthropic.Anthropic(
    base_url="https://gateway.runloop.ai",
    api_key=os.environ["RL_ANTHROPIC"]
)

# That's it. Two-line change for complete credential protection.
TOOL ACCESS CONTROL

A Unified Execution Model for AI Workflows

Runloop provides a consistent way to execute AI workloads where environments, state, and results are always explicit.

This allows teams to iterate, evaluate, and scale AI systems without changing how their workflows are structured or introducing environment-specific logic.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

# Define tool permissions with pattern matching
mcp_config = client.mcp_configs.create(
    name="github-readonly",
    endpoint="https://github-mcp.example.com",
    allowed_tools=[
        "github.search_*",    # All search operations
        "github.get_*",       # All read operations
        "github.list_*"       # All list operations
        # Note: github.delete_*, github.merge_* NOT allowed
    ]
)

# Attach to Devbox with specific credentials
devbox = client.devboxes.create(
    blueprint_id="bp_xxx",
    mcp_configs=[{
        "secret": "github-pat-token",
        "config": mcp_config.id
    }]
)
ISOLATION MODEL

A Unified Execution Model for AI Workflows

Runloop provides a consistent way to execute AI workloads where environments, state, and results are always explicit.

This allows teams to iterate, evaluate, and scale AI systems without changing how their workflows are structured or introducing environment-specific logic.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

NETWORK SECURITY

A Unified Execution Model for AI Workflows

Runloop provides a consistent way to execute AI workloads where environments, state, and results are always explicit.

This allows teams to iterate, evaluate, and scale AI systems without changing how their workflows are structured or introducing environment-specific logic.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

# Create network policy with lifecycle awareness
policy = client.network_policies.create(
    name="runtime-locked",
    egress={
        "allowed_hostnames": [
            "api.anthropic.com",      # LLM provider
            "api.openai.com",          # Alternate provider
            "*.github.com"             # Source control (wildcard)
        ]
    }
)

# Attach policy to Devbox
devbox = client.devboxes.create(
    blueprint_id="bp_xxx",
    network_policy_id=policy.id
)
SECURE INGRESS

A Unified Execution Model for AI Workflows

Runloop provides a consistent way to execute AI workloads where environments, state, and results are always explicit.

This allows teams to iterate, evaluate, and scale AI systems without changing how their workflows are structured or introducing environment-specific logic.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

# Create authenticated tunnel for production API
tunnel = client.tunnels.create(
    devbox_id="dvb_xxx",
    port=8080,
    mode="authenticated"
)
# Returns: https://abc123.tunnels.runloop.ai
# Requires: Authorization: Bearer <token>

# Create open tunnel for webhook receiver
webhook_tunnel = client.tunnels.create(
    devbox_id="dvb_xxx",
    port=3000,
    mode="open"
)
# Returns: https://xyz789.tunnels.runloop.ai
# No authentication required
DEPLOYMENT MODELS

A Unified Execution Model for AI Workflows

Runloop provides a consistent way to execute AI workloads where environments, state, and results are always explicit.

This allows teams to iterate, evaluate, and scale AI systems without changing how their workflows are structured or introducing environment-specific logic.

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration
Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

Predictable Iteration

Changes can be tested in isolation and compared across runs, making progress measurable instead of anecdotal.

COMPLIANCE

Enterprise compliance for production AI deployments

Performance

Run 10k+ parallel sandboxes
10GB image startup time in <2s
All with leading reliability guarantees

Request our SOC 2 report
Scalability

Get comprehensive monitoring, rich logging & first class support with interactive shells and robust UI

Contact sales for BAA
Observability

Get comprehensive monitoring, rich logging & first class support with interactive shells and robust UI

Request DPA
Observability

Get comprehensive monitoring, rich logging & first class support with interactive shells and robust UI