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CryptoComply Cryptography Software

Key Capabilities

Entropy

Extended Support

FIPS 140

Cryptography Compliance

Post-Quantum Cryptography

Industries

Use Cases





Node.js FIPS 140-3 Implementation with CryptoComply Core 


Deploy Node.js with a FIPS 140-3 validated cryptographic foundation without turning your runtime, build pipeline, and compliance evidence into a custom engineering effort.

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Developer Summary:

What it is: Node.js built so TLS and cryptographic operations rely on a FIPS 140-3 validated cryptographic software foundation (OpenSSL-compatible).

What changes?  Build/link Node.js against the validated OpenSSL-compatible foundation and constrain TLS policies to approved suites/groups.

How to verify: Check the OpenSSL version at runtime and confirm FIPS mode/configuration expectations in staging.

What you get:  Validation artifacts, build provenance, and configuration guidance for audit workflows.

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Quickstart: Build Node.js FIPS with CryptoComply Core

This workflow builds Node.js from source and links it against a validated OpenSSL-compatible cryptographic software foundation.

Prerequisites

  • Node.js source (official tarball or GitHub repo)
  • CryptoComply Core binaries (from the SafeLogic Customer Portal)
  • Build tools: C/C++ toolchain, Python, and Make/Ninja
  • Docker (optional, if you use container-based build/test workflows)
nodejs-FIPS-Who-is-it-for

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Set environment variables


export OPENSSL_DIR=/usr/local
export LD_LIBRARY_PATH=/usr/local/lib:$LD_LIBRARY_PATH
export CPPFLAGS="-I/usr/local/include"
export LDFLAGS="-L/usr/local/lib"


Update the dynamic linker


export OPENSSL_CONF=/usr/local/ssl/openssl.cnf
echo "/usr/local/lib" > /etc/ld.so.conf.d/openssl.conf
ldconfig


Configure and build Node.js


./configure --shared-openssl \
            --shared-openssl-includes=/usr/local/include \
            --shared-openssl-libpath=/usr/local/lib

make -j$(nproc)
make install


Verify the build

Check the OpenSSL version used by Node.js


node -p "process.versions.openssl"


This should reflect the CryptoComply OpenSSL version (not the system OpenSSL version).

Check that FIPS mode is enabled


node -e "const c=require('crypto'); console.log('FIPS:', c.getFips && c.getFips())"


A successful build should output FIPS: 1.

Want the Automated Scripts?

SafeLogic provides OS-specific automated build scripts (Debian/RHEL) in the portal-delivered use case package to perform the same steps and ensure OpenSSL configuration enables the FIPS provider.

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Technical Overview

Validated cryptographic foundation, negotiated algorithms, and evidence requirements

Note: TLS is negotiated. Node.js may use different cipher suites and groups depending on peer support and configuration. This table reflects what regulated programs commonly require teams to constrain or enforce.

Component / Area Default Behavior (standard Node.js) SafeLogic-Approved Approach Notes / Compliance Impact

Cryptographic Foundation

Node.js typically links against a standard OpenSSL build

 CryptoComply Core (FIPS 140-3 validated cryptographic software for OpenSSL applications; OpenSSL-compatible foundation) Standardizes the engine behind Node.js TLS and cryptographic operations that rely on the OpenSSL layer on a validated foundation.

Symmetric Encryption (TLS AEAD)

Negotiates TLS 1.3 AEAD suites (AES-GCM and/or ChaCha20-Poly1305 depending on peers/configuration)

 Constrained to approved suites per policy (commonly AES-GCM 128/256 where required) Avoids negotiating disallowed suites in regulated contexts; keeps configurations consistent across environments.

Key Exchange Groups

Often includes modern groups such as X25519 where supported

Constrained to approved groups per policy (e.g., NIST P-256 / P-384 where required) Keeps the handshake within program-approved boundaries; the exact allowed set depends on your compliance program and environment.

Authentication / Signatures

RSA/ECDSA/Ed25519 may be used depending on certificates and peer support

 Constrain to approved signature algorithms per policy (e.g., ECDSA on NIST curves and/or RSA ≥ 2048 where required) Prevents identity verification from relying on disallowed signature schemes; aligns the certificate policy to regulated requirements.

Hashing, HMAC, Key Derivation

Uses OpenSSL-backed hashing/HMAC implementations for common paths

Use validated implementations provided by the cryptographic software foundation Ensures hashing, HMAC, and key derivation functions used by TLS and application cryptography are backed by the validated foundation.

Evidence & Provenance

Self-asserted “standard build” with limited traceability

 Validation artifacts + build provenance + configuration guidance Provides the verifiable trail commonly required for regulated procurement and audit workflows.

The Compliance Gap with Standard Node.js

Node.js is widely used for TLS termination, service-to-service encryption, and application-layer cryptography. Standard Node.js builds are secure for many environments, but regulated programs often require FIPS 140 validation evidence for the underlying cryptographic implementation and a verifiable build-and-configuration trail. Closing that gap typically requires standardizing validated cryptographic software for the OpenSSL layer and enforcing approved algorithm configurations across environments.

How SafeLogic closes the gap: CryptoComply Core provides a FIPS 140-3 validated, OpenSSL-compatible cryptographic software foundation for Node.js, so TLS and cryptographic operations can run on a validated implementation. SafeLogic also provides verification steps and an evidence bundle (validation artifacts, build provenance, configuration guidance).

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Access, Rollout, and Evidence

nodejs-fips-140-access-rollout-evidence

 

How Customers Access it

Customers access required build artifacts through SafeLogic’s Customer Portal and integrate them into internal artifact repositories and CI/CD pipelines.

  • Delivery formats: pre-built artifacts and/or build toolchain integration (based on workflow)
  • Supported platforms (OS/architectures): Portal-provided builds across operating systems and CPU architectures (customers see what they're licensed for)
  • Selecting the right build: locate artifacts by product/version/operating system/architecture and pull into internal repositories/pipelines

Need the exact OS/architecture matrix for your environment?

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Typical Rollout

Proof of Concept

Identify where Node.js terminates TLS or performs cryptographic operations; map compliance requirements and target platforms

Integration

Adopt the validated cryptographic software foundation approach and integrate into CI/CD and runtime baselines 

Verification

Validate approved configurations and assemble required evidence

Production

Deploy through standard rollout/monitoring with repeatable build/release pipelines

Evidence for Auditors

  • Security policy / validation artifacts for the underlying validated cryptographic implementation (as applicable)
  • Guidance on approved configuration/operation (program-dependent)
  • Integration notes mapping runtime versions and configuration to the validated foundation
  • Build provenance details supporting a repeatable, auditable build process

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Frequently Asked Questions

Is this interoperable with standard Node.js clients and servers?

Generally, yes—Node.js remains Node.js and TLS remains standard. Interoperability depends on the approved algorithm and configuration constraints you enforce for regulated environments; peers must support the allowed suites and groups.

What changes operationally?

Most teams keep the same service architecture, but add:

  • A standardized, validated cryptographic software foundation for the Node.js OpenSSL layer (where applicable) 
  • Release governance around runtime versions/configuration for evidence
  • A repeatable evidence workflow (artifacts + provenance) for audits/procurement
How does this affect my node_modules?

Since most Node.js crypto (including crypto and tls modules) calls down into the OpenSSL layer, standardizing that layer on a validated foundation secures the majority of your dependency tree. However, pure-JS crypto libraries (like some legacy JWT or hashing libs) may bypass this—SafeLogic helps you identify and redirect those paths to the validated foundation.

Does Node.js "come FIPS validated"?

Not typically. FIPS 140 validation applies to the underlying cryptographic implementation. A “FIPS-ready Node.js” deployment means cryptographic operations are performed by validated implementations and you can produce the evidence auditors expect.

Does this meet FIPS 140-3 requirements?

CryptoComply provides FIPS 140-3 validated cryptographic software for OpenSSL applications, which teams can use as a validated foundation. Whether your overall deployment “meets FIPS” still depends on your program definition and how the system is built/configured/operated.

For certificates in your company’s name, SafeLogic positions RapidCert to accelerate timelines and MaintainCert to keep certifications current.

What is the impact of the September 2026 FIPS deadline?

NIST will move all FIPS 140-2 certificates to the "Historical List" on September 21, 2026. For Node.js teams, this means any new procurement or major FedRAMP updates must use FIPS 140-3 validated cryptographic software. SafeLogic’s approach is designed to bridge this transition seamlessly.

What performance impact should we expect?

Performance depends on workload and platform. Enforcing certain suites/groups can change behavior, so benchmark during POC with your expected configuration and load.

What artifacts do we get for auditors?

Typically:

  • Security policy/validation artifacts (as applicable)
  • Build provenance and repeatable build description
  • Configuration guidance aligned to your program
  • Integration notes mapping runtime/configuration to the validated foundation

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Ready to Run Node.js in Regulated Environments?

Get guidance on runtime baselines, approved configuration constraints, supported platforms, and the evidence your program requires. Call us at 844-436-2797 or complete the form below.