Adversaries are harvesting encrypted network traffic today to decrypt it as quantum hardware matures—and enterprise banks, healthcare systems, and federal auditors now demand a Cryptographic Bill of Materials (CBOM) before signing contracts. QShield X-rays your source code, Docker images, and live TLS endpoints in 60 seconds, then writes the backwards-compatible Pull Requests for you.
Type your company’s domain below. Our compiled Rust engine sends a real TLS 1.3 Post-Quantum ClientHello packet and audits your X.509 certificate chain against the 2030 NIST deprecation cutoff.
X25519MLKEM768 (0x11EC) key share and decoding X.509 ASN.1 DER certificate chain...You don’t need to understand quantum mechanics to understand the business risk. Three forces are forcing every B2B software vendor, fintech, and enterprise to act right now:
Imagine a thief breaks into a bank today and steals a locked safe they can’t open yet—because they know a laser-cutter coming to market in 3 years will open that exact model in 10 seconds. State-sponsored groups are recording encrypted internet traffic and backups today. If your customer, healthcare, or financial data still matters in 3–5 years, it is already compromised unless upgraded now.
Just like the FDA requires a Nutrition Label on food, Fortune 500 procurement teams, banks, and healthcare networks now ask software vendors for a Cryptographic Bill of Materials (CBOM) before signing contracts. Answering “We don’t know what encryption is inside our containers” freezes enterprise deals for months. QShield generates your certified CBOM in 60 seconds.
The U.S. government finalized the official Post-Quantum standards (FIPS 203, 204, 205) and published NIST IR 8547, mandating the deprecation of classical RSA and ECDSA by 2030. Because SOC 2, PCI-DSS v4.0, and HIPAA point directly to NIST standards, waiting until 2029 means expensive emergency rewrites.
Used every time two computers connect over the internet to agree on a secret session key. Quantum computers use Shor’s Algorithm to pop old briefcases open and read every recorded conversation.
Proves a login token (JWT), software update, or SSL website certificate really came from you. Quantum computers can forge classical notary stamps to impersonate your servers or mint admin tokens.
Protects stored databases and files. Quantum computers (Grover’s Algorithm) don’t break vaults—they just cut their thickness in half. So 128-bit vaults drop to 64-bit, while 256-bit vaults stay quantum-proof!
No agents to install, no Docker daemon required, and zero source code uploaded to third-party servers. Hover or select any stage below to inspect the live telemetry pipeline:
Every cryptographic blind spot—from multi-statement Java & Rust builders to compiled container shared libraries and live network handshakes—unified in one deterministic platform:
Regex scanners drown teams in false alarms from comments while missing multi-line builders. QShield parses Go, Python, TypeScript/JS, Java (JCA/BC), Kotlin, and Rust into Abstract Syntax Trees—tracing constants, imports, and object receivers across scopes.
Clean source code still fails audits if your Docker base image bundles OpenSSL 1.1.1 or 3.0. QShield streams OCI tarballs and parses compiled ELF, Mach-O, and PE symbol tables directly via Rust goblin.
Crafts raw TCP ClientHello frames advertising IANA 0x11EC (X25519MLKEM768), detects HelloRetryRequest downgrades, and flags X.509 chains expiring past 2030.
Generates machine-readable .cdx.json Cryptographic Bills of Materials with exact ASN.1 OIDs, NIST Quantum Security Levels (1–5), and GitHub SARIF v2.1.0 feeds.
Never breaks production builds. Only 100% backwards-compatible hybrid upgrades trigger Tier-1 Auto-PRs, while token-size or PKI schema shifts route to Tier-2/3 human review.
Unlike SaaS scanners that clone your private repositories onto multi-tenant cloud servers, QShield compiles down to a single static Rust binary (pqc-scan). Execute inside GitHub Actions, GitLab CI, or air-gapped defense enclaves with zero runtime dependencies and zero source-code exfiltration.
Developers rarely write generate_rsa(2048) on a single line. They store key sizes in constants, initialize Java or Rust builders across separate statements, and ship apps inside Docker containers with hidden libssl.so binaries. Click any stack below to inspect QShield’s AST detection and unified Pull Request diff:
func NewLegacyTLSConfig() *tls.Config { return &tls.Config{ MinVersion: tls.VersionTLS12, CurvePreferences: []tls.CurveID{tls.CurveP256, tls.X25519}, }}--- a/services/gateway/tls_server.go+++ b/services/gateway/tls_server.go@@ -18,4 +18,5 @@- MinVersion: tls.VersionTLS12,- CurvePreferences: []tls.CurveID{tls.CurveP256, tls.X25519},+ MinVersion: tls.VersionTLS13,+ // QShield Auto-PR: Hybrid Post-Quantum ML-KEM-768 + X25519 (RFC 8446 / FIPS 203)+ CurvePreferences: []tls.CurveID{tls.X25519MLKEM768, tls.X25519, tls.CurveP256},Enterprise buyers and regulators ask the same underlying cryptographic question in five different compliance dialects. Select any detected finding below to trace how QShield automatically generates control evidence across all five frameworks at once:
112-bit classical RSA-2048 lacks lattice hardness; mandatory transition to ML-KEM-768 key encapsulation.
Fails national security vendor baseline requiring ML-KEM-1024 / ML-DSA-87 trajectory for confidential workloads.
Mandates an annually reviewed cryptographic cipher & key-strength register with proactive deprecation remediation.
Enterprise buyers & auditors request evidence that customer vault keys are protected against HNDL key recovery.
Requires financial entities & ICT providers to maintain a cryptographic key lifecycle & post-quantum transition policy.
Select a leadership role below to see the exact operational and financial problem QShield solves for each decision-maker:
Tier-1 banks, healthcare networks, and federal buyers now demand a Cryptographic Bill of Materials (CBOM) and NIST Post-Quantum Roadmap during procurement. QShield turns a 6-week engineering stall into a 60-second certified export.
| TECHNICAL CAPABILITY | DEPENDABOT / CVE SCANNERS | BASIC REGEX / GREP SCRIPTS | QSHIELD SOVEREIGN PLATFORM |
|---|---|---|---|
| Source Code Analysis | None (lockfiles only) | Naive keyword match (high false-positive noise) | Tree-Sitter Compiler AST + Multi-Statement Variable & Receiver Dataflow |
| Polyglot Language Coverage | Manifests only | 1–2 scripting languages | Go, Python, TypeScript/JS, Java (JCA/BC), Kotlin, and Rust |
| OCI Containers & Compiled Binaries | CVE lookup only | Completely blind to binaries | Daemonless OCI Tarball + ELF / Mach-O / PE `libssl.so` Symbol & Banner X-Ray |
| Live Network Wire Verification | None | None | RFC 8446 Raw TCP `X25519MLKEM768` (`0x11EC`) Handshake & X.509 2030 Audit |
| Remediation Execution | Package version bump only | Static warning list only | 3-Tier Safe Auto-PR Engine with Unified Code Diffs & Rollout Blueprints |
External boutique cryptography consultancies charge $45,000–$120,000 for a single manual CBOM assessment. Configure your repository and container footprint below to calculate your immediate first-year savings:
Instant API key generation, standalone Rust CLI binary, and GitHub Action gatekeeper included on every tier.
For Seed–Series A SaaS teams responding to bank or enterprise security questionnaires.
Full polyglot code, daemonless Docker container binary X-ray, and automated Pull Requests.
For banks, healthcare networks, defense contractors, and multi-cloud engineering orgs.
Every technical acronym translated into simple everyday language—plus how to explain it in the boardroom:
In Simple Terms: Imagine a thief steals a locked safe from your office today because they know a laser-cutter coming out in 3 years will pop it open in 10 seconds.
In the Boardroom: Adversaries are intercepting and storing encrypted TLS network traffic and backups today so they can decrypt confidential financial, healthcare, and IP records once quantum hardware scales.
In Simple Terms: An FDA-style "Nutrition & Ingredients Label" that lists every digital padlock, certificate, and encryption library used inside your software.
In the Boardroom: A machine-readable CycloneDX v1.6 JSON inventory of all cryptographic algorithms, ASN.1 Object Identifiers (OIDs), key lengths, and NIST security levels across your repositories and containers.
In Simple Terms: Putting BOTH the best classic padlock AND the new government-approved quantum padlock on the same door—so even if one fails, the door stays locked.
In the Boardroom: Combining classical elliptic-curve Diffie-Hellman (X25519) with NIST FIPS 203 lattice key encapsulation (ML-KEM-768) in a single TLS 1.3 handshake for zero-regression backwards compatibility.
In Simple Terms: Reading the entire recipe book to see how ingredients are actually combined, instead of just doing a "Ctrl+F" word search.
In the Boardroom: Parsing source code into an Abstract Syntax Tree and tracing variable constants and object receivers across multiple lines so indirect RSA/ECDSA initializations are caught with zero false alarms.
In Simple Terms: Using an X-ray machine to look inside a sealed shipping container to check if an outdated lock was welded inside.
In the Boardroom: Streaming Docker/OCI container tarballs and parsing compiled Linux (ELF) and macOS (Mach-O) binaries to detect linked OpenSSL versions (e.g., 1.1.1 vs 3.5+) without running a container daemon.
In Simple Terms: The official U.S. government rulebooks naming the new quantum-safe locks and setting the 2025–2030 deadline to switch.
In the Boardroom: Finalized federal standards for Post-Quantum Key Encapsulation (ML-KEM) and Digital Signatures (ML-DSA / SLH-DSA) that flow directly into SOC 2, PCI-DSS v4.0, HIPAA, and enterprise vendor mandates.
Key questions asked by CTOs, CISOs, and procurement teams before deploying QShield: