Skip to content

How ContextForge Fits the Criteria for Selecting an Enterprise MCP Gateway

Draft - Work in Progress

This document is under active development. Information may not be 100% accurate and is subject to change. Please verify details independently before making decisions.

A practical framework for evaluating MCP gateways, and how ContextForge addresses each criterion.


Why an MCP Gateway?

Organizations deploying AI agents face fragmented tool ecosystems, inconsistent security controls, and no centralized governance across agent interactions. An MCP gateway provides the unified control plane: federating tools, enforcing policy, and delivering visibility across your AI infrastructure.

This framework outlines what to evaluate and why each criterion matters.


The MCP Gateway Landscape

The MCP gateway market has matured rapidly. Options range from managed SaaS platforms (Composio, MintMCP, Apigee MCP Gateway) to cloud-native solutions (Azure MCP Gateway, Docker MCP Gateway) to self-hosted open source (ContextForge, Lasso Security, Bifrost).

flowchart TB
    subgraph "MCP Gateway Options"
        direction TB
        subgraph managed["Managed SaaS"]
            composio["Composio"]
            mintmcp["MintMCP"]
            apigee["Apigee MCP Gateway"]
        end
        subgraph cloud["Cloud-Native"]
            azure["Azure MCP Gateway"]
            docker["Docker MCP Gateway"]
        end
        subgraph selfhosted["Self-Hosted Open Source"]
            contextforge["ContextForge"]
            lasso["Lasso Security"]
            bifrost["Bifrost"]
        end
    end

    managed --> |"Lower ops burden<br>Vendor dependency"| decision{Your Choice}
    cloud --> |"Ecosystem lock-in<br>Tight integration"| decision
    selfhosted --> |"Full control<br>Higher ops burden"| decision

Key market distinctions:

  • Managed platforms offer lower operational burden but introduce vendor dependency
  • Cloud-native solutions integrate tightly with specific ecosystems (Azure, Docker)
  • Self-hosted open source provides maximum control and customization

This framework applies regardless of which path you choose. ContextForge is used as a reference implementation to illustrate what "good" looks like for each criterion.

About ContextForge

Enterprise-Grade by Design

ContextForge was designed from the ground up for enterprise AI deployments, not retrofitted from a developer tool or proof-of-concept. Its architecture reflects lessons learned from operating AI infrastructure at scale within IBM, where it powers IBM Consulting Advantage serving 160,000+ users across regulated industries.

Design principles:

Principle Implementation
Security-first Zero-trust architecture, defense-in-depth, no implicit trust between components
Governance by default RBAC, audit trails, and policy enforcement enabled out of the box
Observable OpenTelemetry instrumentation throughout, not bolted on afterward
Scale-tested Rust-based HTTP server (Granian), connection pooling, multi-tier caching
Air-gap ready No telemetry, bundled assets, runs fully disconnected
Open standards MCP and A2A protocol compliance, no proprietary extensions
Enterprise Validation
  • Production-hardened through deployment in financial services, healthcare, and government contexts
  • Performance-optimized through iterative load testing (10k+ concurrent users)
  • Security-reviewed by IBM Security Research teams
  • Compliance-aligned with enterprise requirements (SOC2, HIPAA, FedRAMP patterns)

The criteria in this framework reflect what we've learned matters most when deploying MCP infrastructure at enterprise scale.


Risk & Governance Models

Why MCP Security Differs from Traditional API Security

Unlike traditional protocols, MCP places LLMs at the center of execution decisions. The "continuous token stream" nature of LLM processing means untrusted input (tool responses, schema descriptions, resource content) can alter execution flow. This eliminates traditional control/data plane separation and requires fundamentally different threat modeling.

Tiered Threat Model (CoSAI Framework)

The CoSAI OASIS framework organizes MCP threats into three tiers:

Tier Category Example Threats
Tier 1 MCP-Specific Tool poisoning, schema poisoning, typosquatting, shadow MCP servers, overreliance on LLM safety
Tier 2 MCP-Contextualized Privilege escalation, consent fatigue, improper multitenancy, invisible agent activity
Tier 3 Conventional (Amplified) Credential theft, replay attacks, command injection, data exfiltration, supply chain compromise

Agentic System Risk Categories

MCP gateways must address risk vectors across three domains: identity and access, supply chain integrity, and operational governance. Each category demands specific mitigations that traditional API gateways do not provide.

Identity & Access Risks

Threat Vector Attack Pattern Gateway Mitigation
Prompt Injection Malicious instructions embedded in tool arguments or responses Payload inspection with safety schema validation; argument sanitization
Credential Theft Agents storing or leaking API keys and tokens Zero-trust secret injection: gateway manages credentials, agents receive scoped ephemeral tokens
Privilege Escalation Agents acquiring permissions beyond their scope Task-Based Access Control (TBAC): permissions bound to specific workflows and contexts
Session Hijacking Attackers intercepting agent-to-tool communication Mutual TLS, signed requests, and session binding with proof-of-possession tokens

Supply Chain Risks

Threat Vector Attack Pattern Gateway Mitigation
Tool Poisoning Compromised tools returning malicious responses Checksum verification, response validation, and behavioral anomaly detection
Tool Shadowing Rogue tools impersonating legitimate ones Centralized registry as single source of truth; agents discover only vetted tools
Dependency Confusion Typosquatted or substituted tool packages Package provenance verification, SBOM tracking, and namespace controls
Schema Manipulation Altered tool schemas that change expected behavior Schema pinning with cryptographic signatures and version control

Operational Risks

Threat Vector Attack Pattern Gateway Mitigation
Server Sprawl Unmanaged MCP servers proliferating across the organization Lifecycle management with automated discovery and shadow server detection
Configuration Drift Inconsistent security policies across deployments Centralized policy enforcement with GitOps-driven configuration
Audit Gaps Missing or incomplete logs of agent activities Mandatory structured logging with correlation IDs across the execution chain
Quota Exhaustion Runaway agents consuming excessive resources Per-agent rate limiting, budget controls, and circuit breakers

The Triple Gate Security Pattern

Defense-in-depth architecture requiring controls at three layers:

flowchart LR
    subgraph gate1["Gate 1: AI Layer"]
        direction TB
        client["AI Client"]
        intent["Intent Classification"]
        filter["Prompt Filtering"]
    end

    subgraph gate2["Gate 2: MCP Layer"]
        direction TB
        gateway["MCP Gateway"]
        authz["Tool Authorization"]
        validate["Argument Validation"]
    end

    subgraph gate3["Gate 3: API Layer"]
        direction TB
        backend["Backend APIs"]
        rate["Rate Limiting"]
        mtls["mTLS / IP Allow-list"]
    end

    client --> intent --> filter
    filter --> gateway
    gateway --> authz --> validate
    validate --> backend
    backend --> rate --> mtls

    style gate1 fill:#e3f2fd,stroke:#1976d2
    style gate2 fill:#fff3e0,stroke:#f57c00
    style gate3 fill:#e8f5e9,stroke:#388e3c
Gate Layer Focus Controls
Gate 1 AI Layer (Client) Intent classification Prompt filtering, malicious instruction prevention
Gate 2 MCP Layer (Gateway) Tool authorization "User A can call Tool B with Argument C"
Gate 3 API Layer (Backend) Network security Rate limiting, mTLS, IP allow-listing

ContextForge Addresses All Three Gates

  • Gate 1: Guardrail plugins for content inspection before tool execution
  • Gate 2: Full RBAC with team/tool/server scoping and argument validation
  • Gate 3: Backend auth passthrough, rate limiting, and network policy support
  • Human-in-the-Loop: MCP elicitation pass-through for server-side user confirmation on risky actions

1. Architecture & Protocol Support

What to Evaluate
  • Gateway role: proxy-only, registry, or full hosting capability
  • Transport support: HTTP, SSE, WebSocket, stdio, streamable HTTP
  • Protocol bridging: REST-to-MCP, gRPC-to-MCP translation
  • Session awareness and context propagation
  • Transport security: payload limits, mTLS, CORS/CSRF protections
  • Message integrity verification

Why It Matters

Enterprise environments have diverse backends: legacy REST APIs, gRPC services, and native MCP servers. A gateway that only proxies native MCP leaves significant integration work on the table.

ContextForge delivers:

  • Full gateway/registry/proxy with tool hosting capabilities
  • All major transports: HTTP, JSON-RPC, WebSocket, SSE, stdio, streamable HTTP
  • Automatic REST-to-MCP virtualization with JSON Schema extraction
  • gRPC-to-MCP translation via server reflection
  • Session-aware routing with context propagation across multi-step workflows
flowchart LR
    subgraph clients["AI Clients"]
        claude["Claude"]
        openai["OpenAI"]
        custom["Custom Agents"]
    end

    subgraph transports["Transport Layer"]
        sse["SSE"]
        ws["WebSocket"]
        http["Streamable HTTP"]
    end

    gateway["ContextForge<br>Gateway"]

    subgraph backends["Backend Services"]
        mcp["Native MCP"]
        rest["REST APIs"]
        grpc["gRPC Services"]
        stdio["stdio Servers"]
    end

    clients --> transports --> gateway
    gateway --> backends

    style gateway fill:#1976d2,stroke:#0d47a1,color:#fff

2. Federation & Discovery

What to Evaluate
  • Multi-server aggregation into unified catalog
  • Health monitoring and automatic failover
  • Cross-region/cluster federation
  • Tool, resource, and prompt discovery
  • Auto-discovery mechanisms (mDNS, service mesh)

Why It Matters

Large organizations run tools across teams, regions, and cloud providers. Without federation, each agent needs direct configuration to every backend, creating sprawl and configuration drift.

ContextForge delivers:

  • Federation across multiple MCP and REST services into a single registry
  • Health monitoring with automatic endpoint failover
  • Redis-backed multi-cluster federation and caching
  • Unified discovery API for tools, resources, and prompts
  • Auto-discovery via mDNS for local deployments

3. Virtual Servers & Tool Composition

What to Evaluate
  • Ability to create curated tool bundles from multiple backends
  • Per-server authentication and authorization
  • Schema generation and validation
  • Tagging and metadata support

Why It Matters

Not every agent needs every tool. Virtual servers enable least-privilege access, exposing only what a specific team, application, or agent requires.

ContextForge delivers:

  • Virtual MCP servers composing tools from any registered backend
  • Per-server custom authentication flows
  • Automatic schema generation from composed tools
  • Tag-based organization and filtering

4. Identity & Access Control

What to Evaluate
  • Enterprise IdP integration (OIDC, SAML)
  • OAuth 2.0/2.1 support with PKCE
  • JWT authentication (symmetric and asymmetric)
  • Fine-grained RBAC: per tool, per server, per team
  • Service-to-service authentication
  • Dynamic Client Registration (DCR)
  • Token exchange (RFC 8693) vs token passthrough
  • Proof-of-possession mechanisms (RFC 9449) to prevent replay
  • End-to-end request traceability across execution chain

Why It Matters

Credential sprawl is a primary risk vector. Centralized authentication with proper scoping prevents unauthorized access and simplifies security audits.

ContextForge delivers:

  • SSO integration: GitHub, Google, Microsoft Entra ID, Okta, Keycloak, generic OIDC
  • OAuth 2.0 with Dynamic Client Registration (DCR) and PKCE
  • On-Behalf-Of (OBO) token exchange support
  • RFC 8707 OAuth Resource Indicators for A2A communication
  • JWT authentication supporting HS256 and RS256
  • Team-scoped RBAC with configurable role hierarchies
  • API key management with scoped permissions
  • Zero-trust secret injection: agents receive scoped tokens, never raw API keys
  • Just-in-time (JIT) access and temporary privilege elevation (roadmap)

5. Multi-Tenancy & Isolation

What to Evaluate
  • Tenant/team-scoped resources
  • Catalog isolation per tenant
  • Separate secrets and credential stores
  • External vault integration (HashiCorp Vault, Azure KeyVault, AWS Secrets Manager)
  • Quota and rate limit boundaries per tenant

Why It Matters

Platform teams serving multiple business units need strong isolation guarantees. Without it, one team's misconfiguration affects everyone.

ContextForge delivers:

  • Full multi-tenant architecture with team scoping
  • Isolated catalogs per team
  • Tenant-scoped API keys and secrets
  • Per-team rate limits and quota enforcement
  • Resource visibility controls

6. AI Guardrails & Content Policy

What to Evaluate
  • PII detection and redaction
  • Content filtering (deny lists, regex patterns)
  • Integration with moderation models
  • Policy engine for custom rules
  • Request/response inspection
  • Secrets detection in tool arguments
  • URL reputation checking

Why It Matters

AI agents interacting with tools can inadvertently expose or transmit sensitive data. Runtime guardrails provide defense-in-depth beyond model-level safety.

ContextForge delivers:

  • PII detection with automatic redaction (SSN, credit cards, emails, medical data)
  • Content deny lists and regex-based filters
  • LlamaGuard and Granite Guardian integration
  • OPA and Cedar policy engine integration
  • Configurable request/response inspection hooks
  • Plugin-based guardrail system for custom security logic
  • Secrets detection plugin (AWS keys, API keys, tokens)
  • URL reputation plugin (malicious URL detection, VirusTotal integration)

7. Security Logging & Audit

What to Evaluate
  • Immutable audit trails (cryptographically verifiable)
  • What/who/when logging: AgentID, UserID, Tool, Params, Timestamp
  • Configurable redaction in logs (PII removal before persistence)
  • SIEM export compatibility
  • Compliance support (SOC2, GDPR)

Why It Matters

Incident response and compliance require knowing exactly what happened, when, and by whom. Gaps in audit logging create regulatory and operational risk.

ContextForge delivers:

  • Structured audit logging with correlation IDs
  • Full request/response logging with configurable redaction
  • Identity attribution across all operations
  • Export-ready for SIEM integration
  • Retention policy support
  • Compliance report generator for FedRAMP/HIPAA/SOC2 (roadmap)

Compliance Considerations

Some managed gateways (e.g., MintMCP) hold SOC 2 Type II certification. Self-hosted solutions like ContextForge require organizations to manage their own compliance posture.


8. Reliability & Resiliency

What to Evaluate
  • Retry policies per backend
  • Timeout configuration
  • Circuit breakers and bulkhead isolation
  • Rate limiting and burst control
  • Backpressure handling
  • Performance characteristics (latency overhead, RPS capacity)
  • Graceful degradation under partial availability
  • Chaos engineering validation

Why It Matters

Agent workflows can trigger tool storms. Without proper controls, one runaway agent can exhaust backend capacity or blow through API quotas.

ContextForge delivers:

  • Configurable retry policies per gateway/backend
  • Per-tool timeout settings
  • Built-in rate limiting with burst control
  • Request throttling per user/team/tool
  • Connection pooling and backpressure handling
  • Production-tested at scale (powers IBM Consulting Advantage serving 160,000+ users)

Performance architecture:

Component Implementation Impact
HTTP Server Granian (Rust-based) 10x latency reduction vs Gunicorn
JSON Serialization orjson (Rust-based) 5-6x faster message processing
Connection Pooling PgBouncer compatible Handles thundering herd scaling
Caching L1 (memory) + L2 (Redis) Sub-millisecond tool schema lookups

Benchmark Targets for Evaluation

Metric Enterprise Requirement
Gateway Latency <10ms (p95)
Throughput >350 RPS per instance
Concurrent Users 10,000+ per deployment

9. Observability

What to Evaluate
  • Distributed tracing with W3C Trace Context propagation
  • Metrics export (Prometheus, OTLP)
  • LLM-specific metrics: token usage, prompt latency, tool error rates
  • Dashboard integration
  • Log aggregation with search
  • Health endpoints

Why It Matters

Agent-tool interactions are opaque without observability. Tracing and metrics convert black-box AI workflows into debuggable, optimizable systems.

ContextForge delivers:

  • Native OpenTelemetry (OTLP) with W3C Trace Context propagation
  • Backend support: Phoenix (LLM-focused), Jaeger, Zipkin, Arize, DataDog
  • LLM metrics: token usage, prompt latency, tool error rates
  • Prometheus metrics export with Grafana dashboard templates
  • Structured logging with correlation IDs
  • Real-time log viewer in Admin UI
  • Health and readiness endpoints
flowchart LR
    subgraph cf["ContextForge"]
        otel["OpenTelemetry<br>Instrumentation"]
        prom["Prometheus<br>Metrics"]
        logs["Structured<br>Logs"]
    end

    subgraph backends["Observability Backends"]
        jaeger["Jaeger"]
        phoenix["Phoenix"]
        grafana["Grafana"]
        datadog["DataDog"]
    end

    otel --> jaeger
    otel --> phoenix
    otel --> datadog
    prom --> grafana
    logs --> grafana

    style cf fill:#fff3e0,stroke:#f57c00

10. Extensibility

What to Evaluate
  • Plugin architecture for custom logic
  • Hooks for auth, transforms, policy, telemetry
  • Hot-reload capability
  • SDK/API for programmatic management

Why It Matters

Every enterprise has unique requirements. A closed system forces workarounds; an extensible one adapts to existing infrastructure.

ContextForge delivers:

  • Production-ready plugin framework
  • Extensible hooks: caching, compliance, guardrails, middleware
  • Hot-reload for plugin updates without restart
  • Full REST API with OpenAPI documentation
  • CLI tooling for automation
  • Webhook plugin for event delivery with retry logic and HMAC signatures
  • Tool versioning with history and rollback support
  • Configuration versioning and rollback

11. Semantic Discovery & AI-Assisted Operations

What to Evaluate
  • Semantic tool search beyond keyword matching
  • AI-assisted tool recommendations
  • Natural language tool discovery
  • Tool usage analytics for relevance ranking

Why It Matters

As tool catalogs grow to hundreds or thousands of tools, keyword search becomes inadequate. Semantic discovery helps agents and operators find the right tools efficiently.

ContextForge Roadmap

  • Tool embedding index and semantic search service
  • Conversational tool discovery interface
  • Tool recommendation engine based on usage patterns
  • Natural language direct tool execution
  • Tool usage analytics for search ranking optimization
  • Tool chain templates and workflow automation

12. Agent-to-Agent (A2A) Integration

What to Evaluate
  • Support for external AI agent integration
  • Agent orchestration capabilities
  • Cross-agent workflow support
  • Agent capability discovery

Why It Matters

Multi-agent architectures are becoming standard for complex workflows. A gateway that only handles tools misses the broader orchestration picture.

ContextForge delivers:

  • A2A protocol support for external AI agents
  • Integration with OpenAI, Anthropic, and custom agents
  • Agent registration and discovery
  • Multi-agent workflow orchestration

13. Deployment Flexibility

What to Evaluate
  • Local/container deployment options
  • Kubernetes native support (Helm, HPA)
  • Cloud provider compatibility
  • Serverless deployment options
  • Database flexibility (SQLite, PostgreSQL)
  • Air-gapped deployment support
  • Sandboxing beyond containers (gVisor, Kata Containers, SELinux)
  • Trusted Execution Environment (TEE) support (Intel TDX, AMD-SEV/SNP)

Why It Matters

Infrastructure requirements vary. A gateway locked to one deployment model creates friction with existing platform standards.

ContextForge delivers:

  • Run via PyPI, Docker, or Podman
  • Multi-architecture containers: amd64, arm64, s390x, ppc64le
  • Red Hat UBI 10 base image with regular security updates
  • Full air-gapped deployment with bundled UI assets
  • Helm charts with HPA autoscaling
  • OpenShift and ArgoCD GitOps support
  • Kubernetes Operator (Helm-based Operator SDK - roadmap)
  • Session affinity for stateful MCP workflows
  • AWS, Azure, GCP, IBM Cloud compatibility
  • Serverless on Fargate, Cloud Run, Code Engine, Fly.io
  • SQLite for development, PostgreSQL for production

14. Developer Experience

What to Evaluate
  • API documentation quality
  • Admin UI for management
  • Local development ergonomics
  • CLI tools and SDKs
  • Testing and sandbox support

Why It Matters

Adoption depends on developer friction. Complex setup or poor documentation kills platform adoption regardless of capability.

ContextForge delivers:

  • OpenAPI-documented REST API with interactive Swagger UI
  • Built-in Admin UI (HTMX + Alpine.js) for visual management
  • One-command local startup (uvx --from mcp-contextforge-gateway mcpgateway)
  • Docker Compose configurations for local development with Redis, PostgreSQL, and observability stack
  • CLI tools for token generation, server management, and stdio-to-HTTP translation
  • MCP Inspector compatibility for interactive testing and debugging
  • Desktop application (React + Electron) for local gateway management
  • TypeScript SDK auto-generation via @hey-api/openapi-ts
  • Comprehensive documentation site with tutorials and API reference
  • Internationalization framework (i18n - roadmap)

15. Privacy & Telemetry

What to Evaluate
  • Data collection practices
  • Phone-home behavior
  • Air-gapped operation capability
  • Data residency requirements

Why It Matters

Enterprises in regulated industries need confidence that gateway software doesn't transmit sensitive data externally.

ContextForge Privacy Commitment

  • No telemetry: zero phone-home or data collection
  • Designed for fully air-gapped operation
  • All data stays within your infrastructure
  • If analytics are ever added, commitment to opt-in only

16. MCP Server Security Posture & Supply Chain

What to Evaluate
  • Pre-deployment security scanning
  • Container vulnerability assessment
  • SBOM generation and tracking
  • Supply chain attack detection
  • Trust tiers and curation
  • Code signing and binary authorization
  • Dependency pinning with hash verification
  • Shadow server detection
  • Forced upgrades for vulnerable servers

Why It Matters

MCP servers execute code on behalf of agents. The CoSAI framework emphasizes that supply chain governance must span acquisition, deployment, maintenance, and operations phases.

ContextForge delivers (current + roadmap):

  • Container vulnerability scanning (Trivy/Grype integration)
  • SBOM generation (CycloneDX/SPDX format)
  • Source code scanning (Semgrep/Bandit integration)
  • Supply chain attack detection (typosquatting, dependency confusion)
  • Curated secure MCP server catalog with trust tiers
  • MCP-specific security rules (custom Semgrep/CodeQL patterns)
  • Centralized inventory of deployed servers
  • Automated shadow deployment detection
  • Version tracking with deprecation policies

17. Project Health & Sustainability

What to Evaluate
  • Codebase size and quality
  • Test coverage
  • Release cadence
  • Contributor diversity
  • Backing organization
  • Long-term viability

Why It Matters

Betting on unmaintained or under-resourced projects creates technical debt. Project health signals long-term supportability.

ContextForge project health:

Metric Value
GitHub Stars 3,100+
Forks 480+
Contributors 109+
Lines of Code 700,000+
Test Functions 6,100+ across 400+ test files
Source Files 1,946
CI Checks 50+ (build, test, security, lint, deploy)
GitHub Community Health 100%
Releases Monthly (v0.7.0 → v0.8.0 → v0.9.0 → v1.0.0-BETA)
Helm Charts Production-ready with HPA, ingress, and RBAC
Container Images Multi-arch: amd64, arm64, s390x, ppc64le
MCP Protocol Support 2024-11-05 through 2025-03-26
Python Version 3.11+ (3.12 recommended)

Enterprise Backing

Developed by teams at IBM Technology, Consulting, and Security Research. Powers IBM Consulting Advantage (160,000+ users).

Quality Assurance Practices
  • Doctest coverage for core transport modules (documentation examples are executable tests)
  • Pre-commit hooks enforcing code quality standards
  • Security scanning via Bandit, CodeQL, and dependency review
  • Continuous integration with 14 automated workflows

18. Licensing & Commercial Model

What to Evaluate
  • License type and restrictions
  • "Open core" limitations (if any)
  • Commercial support availability
  • Pricing model (if applicable)
  • Vendor lock-in risk

Why It Matters

Lock-in risk is real. Understanding the commercial model upfront prevents surprises.

ContextForge licensing:

Aspect Details
License Apache 2.0
Open Core? No. Fully functional, no feature paywalls
Commercial Features None held back; commercial offerings are extensions, not restrictions
Telemetry None

Commercial support options:

Option Description
Community Support GitHub Issues, Discussions, Discord (best effort response)
IBM Elite Support Professional support for v1.0.0-GA+ with SLAs (details)
Consulting Services Custom integrations, architecture reviews, deployment assistance
Product Inclusion ContextForge included in IBM products with respective support terms

Support Policy

  • Only the latest release is supported (no backports to older versions)
  • Active dependency updates and security patching on latest release
  • Upgrade path documentation provided for major versions
Open Source Philosophy
  • The open source project is fully functional, not a limited "community edition"
  • Core features are not held back or paywalled
  • Community and commercial users share the same codebase
  • Any differentiated commercial offerings are provided as extensions, not limitations

Managed vs. Self-Hosted Trade-offs

Factor Managed (SaaS) Self-Hosted
Operational burden Lower Higher
Customization Limited Full
Data residency Vendor-dependent Your control
Compliance certification Vendor provides You manage
Cost model Subscription/usage Infrastructure only
Vendor dependency Higher Lower
Time to production Faster Slower
  • Rapid prototyping and MVPs
  • Teams without infrastructure expertise
  • Compliance requirements satisfied by vendor certifications
  • Data sovereignty requirements
  • Deep customization needs
  • Cost optimization at scale
  • Air-gapped environments
  • Multi-cloud or hybrid deployments

Evaluation Checklist

Use this sequence when evaluating gateways:

flowchart TD
    A["1. Architecture Fit"] --> B["2. Security Baseline"]
    B --> C["3. Governance Controls"]
    C --> D["4. Operational Readiness"]
    D --> E["5. Scale Requirements"]
    E --> F["6. Extensibility"]
    F --> G["7. Project Health"]
    G --> H["8. Commercial Model"]

    A -.- a1["Transport & backend support"]
    B -.- b1["IdP, RBAC, isolation, audit"]
    C -.- c1["Policy, catalog, change control"]
    D -.- d1["Observability, monitoring, runbooks"]
    E -.- e1["Rate limits, caching, multi-cluster"]
    F -.- f1["Plugins, API, integrations"]
    G -.- g1["Release cadence, contributors"]
    H -.- h1["License, support, viability"]

    style A fill:#e3f2fd,stroke:#1976d2
    style B fill:#ffebee,stroke:#c62828
    style C fill:#fff3e0,stroke:#f57c00
    style D fill:#e8f5e9,stroke:#388e3c
    style E fill:#f3e5f5,stroke:#7b1fa2
    style F fill:#e0f7fa,stroke:#00838f
    style G fill:#fce4ec,stroke:#c2185b
    style H fill:#ede7f6,stroke:#512da8
  1. Architecture fit: Does it support your transports and backend types?
  2. Security baseline: IdP integration, RBAC, tenant isolation, audit logging
  3. Governance controls: Policy enforcement, catalog management, change control
  4. Operational readiness: Observability stack, health monitoring, runbooks
  5. Scale requirements: Rate limits, caching, quotas, multi-cluster support
  6. Extensibility: Plugin support, API completeness, integration options
  7. Project health: Release cadence, contributor base, backing organization
  8. Commercial model: License terms, support options, long-term viability

Additional Resources