Secure SDLC
SAST and DAST in CI on every PR, dependency audits with signed provenance, container images verified at admission. The build pipeline is a defense surface, not just a delivery one.
- Semgrep
- CodeQL
- Sigstore
- SLSA L3
Engineered defense for the systems we build.
Security isn't a feature, it's a discipline. We don't bolt it on; we ship from a secure baseline. The cost of fixing a finding at design time is two orders of magnitude cheaper than fixing it in production after an audit catches it, and most studios know that and still don't behave like they do.
We engineer with attackers in the room. STRIDE at design review, SAST + dependency audits at every PR, infrastructure that assumes breach. The threat model is a living document, not a kickoff deliverable that sits in a wiki until the next compliance audit.
Compliance is the floor, not the ceiling. SOC 2, ISO 27001, GDPR, HIPAA, we ship inside all of them by construction. The audit log isn't an afterthought, it's the architecture. Every privileged action carries the principal, the resource, and the rule that fired.
SAST and DAST in CI on every PR, dependency audits with signed provenance, container images verified at admission. The build pipeline is a defense surface, not just a delivery one.
STRIDE at architecture review, attack-tree analysis at design time, PASTA where the regulatory surface warrants it. Threats named in advance, mitigations shipped with the feature.
IAM scoped to the least privilege the workload actually needs, secrets in KMS-backed stores, network posture audited continuously. Infrastructure assumes breach so the application doesn't have to.
RBAC enforced at every boundary, MFA on every administrative path, append-only audit logs cryptographically chained. Every privileged action attributable to a human or a service identity, never to a shared account.
Playbooks rehearsed before they're needed, tabletops on a quarterly cadence, simulated breaches against the production-equivalent. When an advisory drops, the response is muscle memory.
LLMs in production need their own threat model. Prompt isolation, tool-permission scoping, deterministic gates over load-bearing outputs, runtime auditing of every model call. The agent's confused-deputy property is the new attack surface.
Reach internal services without a valid credential, often by forging a token or exploiting a weak verification path at the edge.
Identity is misrepresented. An attacker poses as a known user, service, or device to bypass authentication boundaries.
Authentication overhaul for , replaced shared-secret JWT with KMS-signed RS256; the audit ledger captured every cross-service hop.
Most teams bolting on LLM guardrails treat prompt injection as a 'validate the input' problem. It isn't. The user input IS the instruction context; there's no input-control separation to validate against. The model holds attacker-controlled text and trusted capabilities in the same context, and the prompt convinces it to combine them.
Every LLM in production is a confused deputy. When the prompt overrides the system instruction, the deputy carries out the attacker's intent with the system's authority. The mitigation isn't filtering, it's containment. Tool-permission scoping, deterministic gates, runtime audit, defense in depth.
The deterministic gate is the only honest mitigation for hallucination as a security risk. Verum's own architecture is the proof: load-bearing decisions live in code, the LLM contributes extracted facts and synthesis texture, and the production loop runs unchanged whether the model is right, wrong, or made-up. Hallucination becomes non-load-bearing texture instead of a critical-path failure.
An attacker writes a prompt that overrides system instructions, jailbreaking the model into ignoring its alignment, leaking the system prompt, or executing attacker-controlled instructions inside a privileged context.
Pre-launch threat model for a , closed seventeen prompt-injection vectors via prompt isolation and structured-output validation.
A pen-test report doesn't make you secure. A red-team engagement reveals what your detection actually catches, what your runbooks actually contain, and what your team actually does at three in the morning.
We don't write findings to a PDF and disappear. We work alongside your blue team to close, verify, and re-test until the chain is broken. The first engagement maps your kill chain end-to-end; each subsequent engagement measures the delta and quantifies operational improvement.
We engage on a rolling cadence rather than a one-shot annual assessment. Tabletops quarterly, simulated breaches semi-annually, full kill-chain walkthroughs annually. Security operations is a muscle; we exercise it.
Passive and active info gathering. The attacker's first move is to learn what's there.
First foothold. Phishing, credential abuse, known-but-unpatched CVE exploitation.
Establish presence. Persistence mechanisms survive reboots, credential rotations, and IR's first sweep.
Gain higher access. Local privilege first, then domain or cloud-tenant elevation.
Move through the environment. Service accounts, RBAC traversal, network pivots.
Extract data. The objective the previous five stages were enabling.
Stay invisible. Log tampering, timestamp manipulation, runbook reconnaissance.
Engagement with Pharma, 14-day red team, 9 P1 findings, all resolved within SLA.
Hover or focus the bar to reveal · client identity protected