Attack
Our offensive team finds the class, not just one instance, and maps every place it lives across your codebase and infrastructure.
Powered by our pentesting & red team practiceSecurity Engineering
Findings are temporary. Controls are permanent. We spent years breaking systems; now we build the controls that make entire classes of vulnerability impossible, shipped alongside your developers.
T1 · Untrusted IngressSTRIDE: Spoofing → mTLS + WAF
T2 · Auth BoundaryTampering → signed JWT, short TTL
T3 · Data at RestDisclosure → KMS envelope crypto
// The Principle
A pentest hands you a list of instances: this endpoint, that parameter, this one repo. We go after the class. Fix the instance and it returns next sprint. Kill the class and the entire category of bug stops being possible. Findings are temporary, controls are permanent, so we build the controls and ship them alongside your developers, where the secure path becomes the default path.
Fix the instance, it comes back. Kill the class, it's gone.
// The Closed Loop
Most firms stop at the finding. We run the whole loop. Our offensive team proves a class is exploitable, our engineers build the control that erases it, then we turn the same playbook back on the control to prove the category is dead. The people who can break it are the ones who sign off that it's fixed.
Our offensive team finds the class, not just one instance, and maps every place it lives across your codebase and infrastructure.
Powered by our pentesting & red team practiceWe engineer the control that makes the class impossible: a CI/CD gate, a paved road, a safe-by-default library. Then we backfill the existing instances.
The work on this pageWe run the original offensive playbook against the new control to prove the category is gone, and the gate keeps it gone on every future commit.
Validated, not assumed// Case Studies
Real engagements, real numbers, each one framed by the category of bug it took off the board for good.
Fast-growing tech company (1,200+ employees)
Problem
Hardcoded secrets scattered across 500+ repos. Cleanup was endless whack-a-mole because nothing stopped the next one from landing.
Solution
Drano framework: a commit-time gate that blocks secrets before they ever reach the remote.
How we built it
GitLab CI plus a server-side pre-receive hook. Detection layers regex signatures, Shannon-entropy scoring, and live credential verification (the scanner calls the provider to confirm a key is active), holding false positives under ~2%. A blocked push auto-opens a remediation MR. Polyglot coverage across JS/TS, Python, Go, and Java.
“Cleaning up backwards doesn't work unless you prevent it forward.”
// By the numbers
0
New hardcoded secrets in 18 months
100%
Commits scanned before merge
500+
Repos protected
Enterprise tech company (20,000 employees)
AWS privileged access took 3 to 5 business days, so developers built workarounds and standing access piled up.
Self-service just-in-time access with automated, tag-routed approvals.
How we built it
A Slack-native request bot brokers short-lived, scoped credentials through AWS IAM Identity Center and STS, with 15 to 60 minute TTLs and approvals routed by resource tag. Shipped as Terraform modules so every new account inherits JIT by default, with a full audit trail streamed to the SIEM.
3-5d → 5m
Access provisioning time
90%
Reduction in standing privileges
0
Productivity loss for engineers
“Developers stopped working around controls because they didn't need to.”
B2B SaaS platform
Account takeovers using credentials from public breaches, with no signal at the auth layer to catch them.
Real-time breached-credential screening wired into the login and password-set flows.
How we built it
k-anonymity range queries against a HaveIBeenPwned-style breached-hash corpus (only a 5-character SHA-1 prefix ever leaves the perimeter), backed by an internal bloom filter of org-specific leaks. A Go service behind edge middleware adds under 100ms at p95.
15,000+
Compromised credentials blocked (month 1)
73%
Reduction in ATO attempts
<100ms
Added latency (zero friction)
“We blocked more compromised credentials in month one than we expected in a year.”
Cloud-native tech company
400+ ad-hoc IAM roles with wildcard actions. No one could say who had access to what.
Usage-mined permission bundles, codified and gated so sprawl can't return.
How we built it
We mined 90 days of CloudTrail with IAM Access Analyzer and Access Advisor to compute least-privilege policies, collapsed 400+ roles into 12 permission-set bundles, and codified them in Terraform. Policy-as-code gates (OPA/Conftest) now fail any PR that introduces a wildcard action.
400+ → 12
Roles consolidated to bundles
85%
Reduction in over-privileged access
Auto
Access reviews & compliance
“We finally know who has access to what, and can prove it to auditors.”
Series B startup scaling fast
No security program, ad-hoc vuln handling, and auditors starting to ask hard questions.
A full AppSec program: governance, SDLC integration, and triage that runs itself.
How we built it
SAST with custom Semgrep rulesets, SCA and SBOM via Syft and Grype, DAST in staging, and secret scanning, all wired as required CI gates. Severity-routed triage opens tickets with SLAs, and per-service threat-model templates make design review repeatable.
6 mo
To SOC 2 Type II
Weeks → 48h
Critical vuln resolution
Enabler
Security became, not blocker
“Security went from 'that thing we need to do' to a competitive advantage.”
// The Catalog
Named, repeatable engagements that map to our offensive-plus-build DNA. Each one comes with a problem it solves, what we build, and the proof it worked.
Our flagship. The thesis, productized.
Own the build side before competitors do.
Problem
You're shipping LLM and agentic features faster than anyone can secure them.
Build
LLM guardrail frameworks for prompt-injection and output filtering, least-privilege tool and sandbox design for agents, RAG pipelines hardened against retrieval injection and data poisoning, and continuous AI red-team harnesses run as code.
Proof
Guardrails with test coverage, an agent permission model, and a red-team harness that re-runs on every model or prompt change.
Post-xz, post-SolarWinds catnip.
Problem
A dependency or build server is your softest path straight to production.
Build
SLSA-style provenance, artifact signing with Sigstore and cosign, SBOM pipelines, hermetic and reproducible builds, and dependency-confusion defenses.
Proof
Signed, verifiable artifacts, an SBOM for every release, and a build you can prove was never tampered with.
Platform engineering meets security.
Problem
Security depends on every engineer remembering to do the right thing.
Build
Secure-by-default service templates, a scaffolder so the secure path is the default path, and policy-as-code gates that fail the build on deviation.
Proof
Every new service is born compliant. Staying secure is automatic; deviating takes deliberate effort.
Standing access is your widest blast radius.
Problem
Standing privilege and password sprawl still own your largest attack surface.
Build
Workload identity with SPIFFE and SPIRE, passwordless authentication, and standing-privilege elimination, run as a recurring program instead of a one-off.
Proof
Short-lived workload credentials, fewer standing roles every quarter, and an access trail auditors trust.
The defensive expression of our offensive tooling.
Problem
You have alerts, but no proof they fire on a real attack.
Build
Detections written as version-controlled code, mapped to MITRE ATT&CK, and validated by running our own offensive tools (Hawk, Spoofy) as the adversary inside CI.
Proof
Every detection ships with a test that a real attack triggers it, and coverage is tracked against ATT&CK.
// How We Engage
It comes down to one decision: do you have a defined project, or an ongoing capability gap?
2 to 8 weeks, typical
Pick a program from the catalog or bring your own scope. Fixed objectives, clear acceptance criteria, and your team owns it when we leave.
3 to 12 months
A senior security engineer joins your team, learns your stack, and ships alongside your developers. Pick the archetype that fits the gap.
AppSec Lead
SDLC gates, threat modeling, triage.
Cloud / Platform Security
IAM, IaC, Kubernetes hardening.
Detection & Response
Detection-as-code, purple automation.
AI Security Engineer
Guardrails, agent and RAG hardening.
A typical first 90 days
Map the stack, the threat model, and the highest-leverage class to kill first.
Ship the first controls and gates, and backfill the worst existing instances.
Hand off paved roads and runbooks so your team runs it without us.
Embedded engineer vs. hiring an FTE
Cost figures are illustrative market ranges, not a quote. Verify before publishing.
Need to stand up an entire platform-security org, not fill one seat?
See our Platform Security practice// Open Source
Domain Spoofing Assessment
Evaluate SPF and DMARC weaknesses at scale; identify spoofable domains and prioritize remediation.
View on GitHubRed Team Credential Simulation
Demonstrates credential exposure and persistence risks; used in offensive engagements to validate detection gaps.
View on GitHub// From our blog
A guide to building an application security program from the ground up: team structure, roles, and KPIs.
Read02Core principles of security engineering: integrating protection into every layer of the architecture.
Read03Key updates in NIST CSF 2.0: supply chain security, emerging tech risks, and governance tiers.
ReadTell us which category of bug keeps coming back, or where security is slowing your engineers down. We'll design the control that makes the secure path the easy path, and ship it with your team.