Talk to anyone running enterprise security conversations in 2026 and the same pattern comes up. The questions from customers, auditors and procurement have quietly outgrown the traditional control stack:

“Which devices — full-time, contractor, BYOD — can access sensitive repositories and secrets right now?”
“Are our self-hosted runners and build hosts hardened before they touch production artefacts?”
“Stolen tokens and PATs keep showing up in breach reports. What is our token loophole story?”
“How do we contain a supply-chain attack at build time instead of reading about it at forensics time?”
“What are our coding agents allowed to do on our machines, and how do we verify that at runtime?”
“When was our CI/CD pipeline last adversarially tested — by whom, against what adversary, how recently?”
“How do we put live evidence into Vanta or our trust centre, not screenshots re-assembled every quarter?”

Each of those questions points at the same place: the SDLC trust boundary — the moment something or someone is about to touch code or secrets. And the standard stack was never designed to continuously verify trust at that boundary.

EDR / XDR was built to detect and respond to compromise on devices. It runs after trust has already broken.
MDM / UEM was built to fleet-manage corporate devices. It operates a lockdown model that is hostile to BYOD, contractors and platform teams.
AppSec (SAST, DAST, SCA) was built to find vulnerabilities in code. It does not continuously verify the humans, runners or agents that touch the code.
SIEM / SOC was built to aggregate and triage logs. It is reactive, not continuous; and it has no native view of developer trust, runner trust or agent trust.
Vanta and other trust centres automate the compliance workflow, but they need live endpoint evidence — not re-assembled screenshots — to answer the deeper review questions that are now routine.

That is the gap. Every modern security review keeps hitting it. That is what this post is about.

A new category: the SDLC trust layer

The gap is not another feature for any of the tools above. It is a different layer. At EDAMAME we have been calling it, simply, the SDLC trust layer — a single SDLC trust agent whose only job is to continuously verify, at the SDLC boundary, that the people, machines and agents about to touch code and secrets are trustworthy at that moment.

Five design choices make that layer genuinely novel:

Actor-centric, not device-centric. The layer verifies every actor that writes, pulls, runs or agents against code: developer laptops, contractor / BYOD devices, CI/CD runners, self-hosted build hosts, coding-agent hosts. None of those neatly fit under one of the legacy control planes.
Reporting-only architecture. No remote wipe, no covert changes, no lockdown. Users see what is wrong on their own machine and fix it themselves; the organisation gets continuous posture proof. That is what makes the layer usable across BYOD, contractors and fast-moving engineering teams where MDM/UEM falls over.
Zero Trust at the Git layer — the token loophole, closed. Every push, pull and clone can be verified against identity + device posture + policy. A stolen token or PAT is no longer sufficient to move code, which is exactly where the “token loophole” has been burning enterprise incident-response teams for the last two years.
Supply-chain containment at build time. The same trust layer extends to the runners and build hosts that assemble production artefacts. Attackers who increasingly land and pivot on self-hosted runners run into continuous posture evidence instead of a generic pool of trusted machines.
MCP-aware runtime verification for coding agents. Coding agents with shells, package managers and MCP-connected services are new actors on the SDLC. The trust layer applies to the host they run on, and to the runtime policy that says what they are allowed to do — with observable drift between declared intent and observed system behavior.

Those five choices are why we say EDAMAME is the single SDLC trust agent — not another EDR, not another MDM, not an AppSec replacement. It is the layer that sits where none of those actually run. The clearest way to see it is to map how the legacy controls stop short of the SDLC trust boundary and EDAMAME starts.

EDR / XDR — built for post-compromise device response; silent on developer trust, runner trust, agent trust at the SDLC edge.
MDM / UEM — built for corporate device fleet management; hostile to BYOD, contractors, platform teams; no SDLC semantics.
AppSec (SAST/DAST/SCA) — built to find vulnerabilities in code; no continuous view of who or what is touching the code.
SIEM / SOC — built for log aggregation and triage; reactive, not continuous at the edge.
Vanta / trust centres — automate the compliance workflow; need live evidence to answer deeper review questions.
EDAMAME — SDLC trust layer. Continuous verification of every actor at the SDLC boundary. Complements the stack above, does not replace it.

The rising pressures that all land on the same layer

Why has the gap suddenly become the loudest one in enterprise reviews? Because several independent pressures have converged on the same trust boundary at the same time. The SDLC trust layer is not an answer to any one of them in isolation — it is the layer where all of them can actually be addressed.

1. The token loophole

GitHub tokens, PATs and CI secrets keep leaking — from phishing, compromised laptops, log exfiltration and third-party integrations. To GitHub, a stolen token looks perfectly legitimate; there is no MFA check, no device check. Zero Trust at the Git layer — verifying every operation against identity + device posture + policy — is the control that makes stolen tokens worthless in practice.

2. Self-hosted runner and build-host compromise

The modern attacker treats CI/CD runners as part of the production attack surface; there have been enough public incidents to make that point without citations. The trust layer extends posture evidence to the machines that actually assemble production artefacts, which is what “supply-chain containment at build time” looks like in practice — not a post-mortem framework, a live control.

3. Contractor, BYOD and mixed fleets

Enterprise engineering is now a mix of employees, contractors and BYOD devices, often with regulatory constraints about what can be installed. Lockdown tooling is the wrong shape for that reality. A reporting-only trust layer that users control locally is the shape that actually runs in those environments.

4. Coding agents with tools

Coding agents with shell access, package-manager access, file-system access and 20+ MCP-connected services are not chatbots — they are deputies with hands. The trust layer covers the host they run on and the runtime policy that constrains what they can do. Observability of the gap between an agent's declared intent and its observed system behavior is exactly what makes this different from traditional app security. Recent research keeps reinforcing the urgency: coding assistants can hallucinate packages that attackers then register; repository-scale benchmarks show secure code generation is still hard; prompt-injection and tool-poisoning attacks are realistic against agentic assistants. These are not reasons to slow adoption — they are reasons the SDLC trust layer has to be in place while adoption continues.

5. Audit, evidence and questionnaire fatigue

Enterprise buyers are tired of assembling SOC 2 and ISO/IEC 27001 evidence by hand, and enterprise reviewers are tired of reading policy text where live evidence would be more credible. A trust layer that emits continuous, scoped evidence into Vanta and similar trust centres is how that fatigue actually gets relieved.

Across all five pressures, the common thread is the same: the SDLC has no continuous trust layer yet. It has a collection of adjacent controls. EDAMAME is purpose-built for that layer.

Why the partnership — continuous evidence, proven under attack

Continuous evidence is powerful. It is also not enough on its own. Continuous evidence tells you what you believe to be true about your controls. Attacker-informed validation tells you what actually holds when pressure is applied. Enterprise-grade SDLC trust needs both.

That is why today we are formalising a partnership with Silent Breach. Silent Breach is an established offensive security, source-code review, CI/CD attack simulation, managed detection and response, compliance / governance and security-research firm. The pairing is simple:

EDAMAME — the SDLC trust layer. Continuous verification for every actor that touches code and secrets: developer / contractor / BYOD workstation, self-hosted runner and build host, coding-agent host. Zero Trust at the Git layer. Posture evidence into Vanta. Single SDLC trust agent.
Silent Breach — adversarial validation. Offensive testing, source-code review, CI/CD attack simulation, MDR and compliance support. Continuously proves the trust layer holds, and gives enterprises an incident-response partner when something in the build chain goes sideways.

Pair the two and the SDLC trust story becomes defensible in a real enterprise review: continuous posture evidence plus documented adversarial validation, scoped to the same SDLC boundary.

How it lands in a security review

The pattern that keeps working with enterprise buyers is to run the review questions from the top of this post straight through the trust layer, and end at the adversarial validation that closes each one.

“Which devices can access sensitive repositories and secrets right now?” → Continuous posture on all of them (including BYOD and contractors), reporting-only, developer-first. Scoped evidence exportable into Vanta.
“Are runners and build hosts hardened?” → Same trust layer, applied to runners and self-hosted build hosts. Silent Breach CI/CD attack simulation validates that the hardening actually holds.
“What is our token loophole story?” → Zero Trust at the Git layer: every push / pull / clone verified against identity + device posture + policy. Silent Breach red-team engagements stress-test the control end-to-end.
“What can our coding agents do?” → Trust layer on the host, runtime policy on the agent, observable divergence between declared and observed behavior. Silent Breach labs validate the controls against indirect prompt injection, tool poisoning and memory poisoning.
“Is it tested?” → Silent Breach offensive work on cadence, with findings mapped back into EDAMAME remediation and Vanta evidence.
“Can you put live evidence into Vanta?” → Yes — continuous attestations, not screenshots. Compliance language stays scoped (“supports SOC 2 readiness”, “helps prepare for ISO/IEC 27001”).

None of this is accidental. It is what the SDLC trust layer is built to answer, and what adversarial validation is built to prove.

Developer-first stays the ground rule

A common objection sounds like “this means more controls on developers.” The design principle is the opposite. EDAMAME is explicitly developer-first, with no remote wipe, no covert changes and no lockdown mentality. Posture is reported, remediation is guided, the user keeps their workflow. Silent Breach's offensive work is scoped, announced and measured. The DORA community and platform-engineering practice have made the same point for years: strong SDLC security only holds up when it respects developer usability. The trust layer is built on that bar, not against it.

What we're announcing

On 2026-04-29, edamame.tech and silentbreach.com are announcing a joint motion built around the SDLC trust layer and its adversarial validation:

EDAMAME — the single SDLC trust agent. Continuous verification for developers, runners and coding agents; Zero Trust at the Git layer; MCP-aware runtime verification for coding agents; scoped, live evidence into Vanta and other trust centres.
Silent Breach — adversarial validation partner. Offensive testing, source-code review, CI/CD attack simulation, MDR and compliance support on top of that trust layer.

Together, the motion is designed for exactly the questions modern enterprise security reviews now ask — AI and coding agents included, but tokens, runners, supply chain, BYOD and audit fatigue each landing on the same trust layer.

Next steps

Read the full partnership announcement on the EDAMAME newsroom on 2026-04-29.
See how the trust layer shows up in Vanta workflows on EDAMAME's compliance page.
See the token-loophole side on EDAMAME's Zero Trust for GitHub page.
See the coding-agent runtime side on EDAMAME's agents page.
Want to talk it through for your own SDLC? Talk to our team — or book a slot directly on our calendar.
For the offensive and validation side, reach out to Silent Breach.

Editor's note: This post is embargoed until the newsroom announcement is live. Do not publish before 2026-04-29. Before publish, all hub.edamame.tech, portal.edamame.tech and www.edamame.tech links must carry utm_source=edamame_blog, utm_medium=organic, utm_campaign=silentbreach_partnership, utm_content=<hero|mid|footer>. The headline and opening two sections must lead with the SDLC-trust-layer / rising-review-questions frame, not AI.