BizIdea

TRUST INFRASTRUCTURE dev-tools Scan 2026-05-13 to 2026-05-13 Run 20260514160055

Identity and revocation control plane for autonomous coding agents touching GitHub, cloud, and SaaS tools.

Enterprises are rolling out coding and operations agents with live access to GitHub, cloud consoles, ticketing systems, and finance tools, but they still provision those agents like long-lived service accounts. Security teams cannot prove which agent acted, what delegation chain authorized the action, or whether privileges should be revoked after a model, tool, or workflow changes.

Overall rating 4.0 / 5.0
  1. 4
    Market

    $3.8B TAM and 13.1% category growth support a large market, but five mapped rivals and strong incumbents make it competitive.

  2. 4
    Differentiation

    Per-task attestations plus exploit-aware revocation across GitHub, cloud, and SaaS is a clear wedge, though adjacent vendors can copy parts.

  3. 4
    Execution

    Hiring and milestones are specific, with 76% gross margin, 13.2x LTV/CAC, and 6.3-month payback, but four model flags temper confidence.

  4. 4
    Timeliness

    Four same-day signals show agents gaining write access as trust standards form, but the catalyst still rests on a thin primary source base.

Section

Why now

  1. Autonomous agents are moving beyond read-only copilots and now touch code, APIs, financial tools, and customer data.
  2. Enterprises need a control layer because identity, scope, attestation, delegation, and revocation are emerging as separate operational problems.
  3. Security teams can no longer treat agent risk as generic AppSec because zero-day tracking is already being packaged for agent-specific vulnerabilities.
  4. An open Agent Trust Protocol and verification programs indicate a standards window where a control-plane vendor can become the default implementation.

Catalyst. As the cluster shows agent-specific exploit tracking and open trust protocols emerging at the same time agents gain access to code, APIs, financial tools, and customer data, security teams suddenly need a standard way to verify and revoke non-human actors.

Section

The idea

The product sits between the agent runtime and high-risk tools, creating a verifiable identity for every agent task before any write action is allowed. It binds each action to a delegation chain, policy scope, human owner, and revocation state, then emits an audit trail that security teams can inspect without stitching logs by hand. The system maps disclosed agent vulnerabilities to the identities, models, tools, and workflows they affect, so exposed agents can be downgraded, paused, or re-scoped automatically. Initial integrations would focus on GitHub, AWS, Okta, Jira, Slack, and internal agent orchestrators because that is where early write-capable agents create the sharpest risk.

What's different. Existing IAM, PAM, and secrets tools were built for humans, service accounts, and static workloads, not autonomous actors that delegate tasks across many tools in one workflow. Agent observability products tell teams what happened after the fact, while this product controls whether an agent should be trusted to act in the first place and can revoke that trust in real time when exploit conditions change. The defensible wedge is the combination of agent-native attestations, exploit-aware revocation, and deep integrations into the exact write surfaces where early agent deployments create risk.

Startup thesis
Beachhead Series B-E B2B software companies with 100-1,000 engineers that already run internal coding or IT automation agents with write access to GitHub, Jira, Slack, and at least one cloud environment.
Wedge An agent identity broker that issues per-task attestations, policy-bound delegated tokens, and one-click revocation across GitHub, cloud IAM, and SaaS admin tools.
Non-obvious insight The biggest new risk in agentic systems is not model output quality alone; it is the unmanaged non-human identity that persists across tools, delegated actions, and changing exploit conditions. As soon as agents can act across code, SaaS, and financial systems, enterprises need IAM-like lifecycle controls purpose-built for autonomous actors.
Venture-scale path Start with engineering and IT agents, then expand into finance, support, procurement, and partner-facing agents, becoming the trust, audit, and incident-response layer for autonomous work across the enterprise.
Target user
Primary user Security and platform engineers deploying autonomous coding and IT agents into production workflows.
Secondary user Identity architects and AppSec leaders at AI-native software companies.
Economic buyer CISO or VP of platform engineering.
Go-to-market seed
First customer A 300- to 2,000-person B2B software company whose platform team has already allowed internal coding agents to open PRs, modify infrastructure configs, or execute SaaS admin tasks.
Buying trigger A security review after enabling write-capable agents or after a new agent-specific vulnerability disclosure forces a temporary rollback.
Current alternative Manual approval gates plus shared service accounts, homegrown wrappers, and SIEM log stitching.
Switching reason The product gives task-scoped identity, delegated access, and instant revocation without slowing agent adoption or forcing a full internal rebuild.
Pricing hypothesis Annual platform fee plus usage-based pricing per active agent identity and protected action execution.

Jobs to be done

Job Current alternative Success metric
When we let internal coding agents touch production systems, help our platform team issue least-privilege credentials and prove who did what, so they can ship automation without failing security review. Shared service accounts plus manual log review. Time to approve a new write-capable agent falls below two weeks while every action has a verifiable delegation chain.
When a new vulnerability affects our agent stack, help our security team find exposed agents and revoke risky access immediately, so they can contain blast radius without disabling all automation. Global kill switch and spreadsheet-based access inventory. Exposure triage and revocation completes in under 30 minutes.
Agent trust control plane
flowchart LR
  Buyer[Security and platform team] --> Pain[Unverifiable agent actions and slow revocation]
  Pain --> Product[Agent attestation and delegation plane]
  Product --> Outcome[Faster agent rollout with auditable least privilege]
Idea scorecard — average4.6 / 5 · 5axes
Signal4/5Pain5/5Wedge5/5Defense4/5Scale5/5
  • Signal · 4/5The cluster captures a concrete launch around agent-specific zero-day tracking and trust protocols, though the evidence base is still a single fetched source.
  • Pain · 5/5Write-capable agents create security, compliance, and incident-response risk the moment they touch production systems.
  • Wedge · 5/5Per-task attestation, delegated access, and revocation for internal coding agents is a sharp first product and customer.
  • Defense · 4/5Deep workflow integrations, policy data, and exploit-to-identity mappings can compound into a hard-to-replace trust layer.
  • Scale · 5/5Every enterprise function adopting autonomous agents will eventually need trust, audit, and revocation infrastructure.
Business model canvas
Key partners
  • LLM platform vendors
  • Identity providers
  • Security consulting partners
Key activities
  • Building integrations
  • Maintaining attestation and revocation rules
  • Publishing exploit mappings for agent stacks
Key resources
  • Policy engine
  • Integrations with GitHub, cloud IAM, and SaaS admin tools
  • Agent vulnerability knowledge graph
Value propositions
  • Task-scoped identity and delegation for agents
  • Instant revocation tied to agent-specific vulnerability disclosures
  • Audit trail for every agent action
Customer relationships
  • High-touch design partner onboarding
  • Security review support
  • Expansion via new agent workflows
Channels
  • Direct sales to CISOs and platform leaders
  • Cloud and AI platform partners
  • Security consultancies and MSSPs
Customer segments
  • Series B-E software companies deploying internal coding agents
  • Enterprises giving AI agents write access to SaaS admin workflows
Cost structure
  • Engineering for integrations and policy engine
  • Security research and exploit analysis
  • Enterprise sales and customer success
Revenue streams
  • Annual platform subscription
  • Per active agent identity fee
  • Premium incident-response automation module
Section

Market

Market sizing
TAMSAMSOM TAM · Total addressable $3.8B SAM · Serviceable available $300M SOM · Serviceable obtainable $6.0M
Market sizing overview
TAM $3.8B Bottom-up estimate: 50,000 organizations have adopted GitHub Copilot; assume a fully developed market where those orgs average ~$75k annual spend for agent trust and revocation controls (50,000 × $75k = $3.75B). The ACV proxy is intentionally conservative versus a 250-seat Copilot Pro+ budget of ~$117k/year at list price ($39/user/month).
SAM $300M Beachhead constraint: assume ~10% of current Copilot-adopting organizations match the thesis profile (software-heavy firms with 100-1,000 engineers and live write-capable agents), or 5,000 accounts. Model ~$60k ACV for the initial GitHub-cloud-SaaS control plane footprint (5,000 × $60k = $300M).
SOM $6.0M Reachable year-3 share: 80 customers at ~$75k ACV, which is plausible for a focused design-partner motion in one wedge if the product becomes the default approval and revocation layer for internal coding agents. 80 × $75k = $6.0M.

Executive takeaways

  • The wedge is real because write-capable coding and IT agents are moving into production before enterprises have an agent-native identity, delegation, and revocation layer.
  • The near-term market sits at the overlap of non-human identity security, workload identity federation, and AI agent governance; it is early but crowded enough that focus on GitHub-cloud-SaaS write paths matters.
  • Buyer pain is visible in secrets sprawl, NHI overprivilege, and governance blind spots: GitGuardian, Entro, and Veza each show that machine credentials are proliferating faster than teams can inventory or rotate them.
  • Incumbents already own adjacent controls, so the startup wins only if it becomes the fastest path to task-scoped attestations, delegated tokens, and exploit-aware revocation across the exact tools early agent programs use.

Market definition

Agent trust control plane software that verifies non-human actors before they take write actions, issues task-scoped delegated access across developer and admin tools, and revokes or re-scopes trust when exploit conditions or workflow context change.

Customer and buyer

Primary users are security and platform engineers running internal coding or IT agents with GitHub, cloud, ticketing, and chat access. The economic buyer is typically the CISO or VP Platform Engineering because the purchase sits between identity, AppSec, and developer-platform budgets.

Buying triggers

  • A team enables asynchronous coding agents or automation bots with repository or cloud write access and immediately needs human-review, branch-protection, and token-scope guardrails around that rollout. [30][40]
  • A secrets or pipeline incident exposes how static credentials on runners, bots, or MCP-style integrations can turn a small compromise into broad infrastructure access. [115][13][97]
  • Identity sprawl reviews reveal that non-human identities now materially outnumber humans and that ownership, entitlement, and dormancy are poorly governed. [27][111]

Willingness to pay

Budget should exist when the control plane is framed as a prerequisite for scaling agentic development: GitHub already monetizes agent features in premium Copilot plans, while adjacent identity platforms such as Teleport and Okta sell recurring access-governance layers on top of core infrastructure. A reasonable willingness-to-pay proxy is a fraction of an existing AI coding or identity stack budget rather than a net-new standalone line item. [29][108]

Category dynamics

Growth signal 13.1% CAGR for machine identity management (2025-2033)

Tailwinds

  • Coding agents and agentic DevOps are moving from suggestion tools to delegated execution, increasing the need for task-scoped controls.
  • Secrets sprawl and AI-service credential leakage are getting worse, especially in pipelines and MCP-style configurations.
  • Cloud providers are normalizing workload federation and short-lived tokens, lowering implementation friction for a brokered control plane.
  • Startup and investor activity shows a widening budget narrative around NHI and AI-agent access governance.

Headwinds

  • A large part of the market still treats the problem as an extension of existing IAM/PAM rather than a standalone category.
  • Standards for agent identity, delegation, and MCP authorization are still evolving, which can slow buyer confidence in long-term architecture choices.
  • Posture and discovery vendors can satisfy initial buyer curiosity without forcing an immediate switch to inline enforcement.

Validation signals

  • GitHub has already shipped an asynchronous coding agent with explicit human approval, branch protections, and session logs—evidence that write-capable agent workflows are becoming mainstream enough to need controls.
  • GitGuardian found 28.65 million new hardcoded secrets on public GitHub in 2025 and documented 24,008 unique secrets in MCP-related configuration files, showing how fast agent-era credential sprawl can emerge.
  • Entro and Veza both show NHIs materially outnumbering humans and centralizing risky permissions, which supports the premise that unmanaged non-human access is already an enterprise-scale problem.
  • Oasis and Astrix have raised large rounds around NHI and AI-era identity security, and Lyrie is explicitly pitching an Agent Trust Protocol, indicating a real if still-forming category battle.

Regulatory & technical constraints

  • MCP authorization is optional and transport-dependent, so buyers will face inconsistent auth patterns across agent tools unless a broker normalizes them.
  • GitHub, AWS, Azure, GCP, and Vault all center on short-lived credentials, which means the product has to be highly reliable at issuing, renewing, and revoking tokens without introducing workflow outages.
  • Least privilege, prompt-injection resilience, and auditability are already core governance expectations in mainstream AI security frameworks.
  • SaaS/API ecosystems expose heterogeneous token, scope, and service-account models, so breadth of integrations is a technical moat but also a delivery burden.
Agent trust control plane map
← Broad IAM Agent-native control → ← Discovery/posture Inline enforcement → Q2 Q1 · winning zone Q3 Q4 Proposed startup CyberArk Teleport Astrix Oasis
Section

Competition

Competition is not a flat list. Aembit and Teleport come from workload identity and secretless access, Astrix and Oasis come from NHI discovery/governance and are moving toward agent security, and CyberArk brings incumbent machine-identity breadth. The startup only wins if it owns the cross-tool delegation graph for write-capable agents—especially GitHub, cloud IAM, Jira/Slack admin actions, and exploit-aware revocation—rather than becoming a generic NHI dashboard.

Competitor Stage Wedge Pricing Strength Weakness vs. us
Aembit scale-up IAM for agentic AI and software workloads with secretless, policy-based, short-lived access. Custom quote (no public list pricing on site). Strong runtime access-control story for agentic workloads and explicit positioning around continuous verification and per-task policy. Still broader workload IAM than exploit-aware agent trust broker; the proposed startup can differentiate with deeper GitHub/Jira/Slack delegation and vulnerability-linked revocation.
Astrix Security scale-up Discovery, remediation, and secure deployment of AI agents, MCP servers, and NHIs. Custom/demo-led pricing. Strong discovery narrative and customer proof around visibility, excessive privileges, and policy violations. Leans toward inventory and posture; the proposed startup can stay narrower and win on inline attestation, delegated tokens, and write-path controls for engineering agents.
Oasis Security scale-up Agentic Access Management and NHI governance across cloud, SaaS, and on-prem systems. Custom/demo-led pricing. Broad governance story, strong investor backing, and explicit AI-agent positioning across GitHub, cloud, and SaaS surfaces. Broad platform scope may leave room for a sharper GitHub-first trust broker that specializes in per-task attestations and exploit-aware pause/revoke workflows.
Teleport scale-up Machine and workload identity with SPIFFE-aligned short-lived identities and infrastructure access. Usage-based custom quote; machine/workload identities are a billable metric. Deep technical credibility in workload identity, SPIFFE, and infrastructure authentication. Primarily infrastructure and workload focused, not purpose-built for cross-SaaS agent delegation or exploit intelligence around coding agents.
CyberArk incumbent Full-spectrum machine identity security across secrets, certificates, workload identities, and SSH keys. Enterprise sales / custom pricing. Broad machine-identity coverage, automation, and incumbent enterprise relationships. Breadth can make it less opinionated about agent-native delegation chains and fast-moving coding-agent workflows; the startup can win on focus and product velocity.

Why incumbents do not win by default

  • Cloud platforms. AWS, Azure, and Google already issue short-lived workload credentials, but they stop at their own trust domains and do not unify GitHub-to-cloud-to-SaaS delegation chains or agent-specific revocation across mixed toolchains.
  • Dev platforms. GitHub can secure its own coding agent with branch protections, human approval, and built-in validation, but that still leaves cross-tool identity, SaaS admin access, and post-disclosure revocation outside GitHub-native workflows.
  • IAM and PAM suites. Okta and CyberArk already sell broad identity control planes, yet their economic center of gravity is workforce identity, secrets, and privileged access rather than per-task delegated authority for autonomous agents acting across many services.
  • Workload identity vendors. Teleport and Aembit prove buyers will adopt short-lived workload identity, but their core value is secretless access and SPIFFE/OIDC-style federation; neither is the default exploit-intelligence and delegation-history layer for coding agents.
Section

Business plan

Enterprises are deploying write-capable coding and IT agents into GitHub, cloud IAM, Jira, Slack, and finance systems while still provisioning those agents like long-lived service accounts with no task-scoped delegation, no verifiable attestation chain, and no fast revocation path when an exploit appears. The proposed product—a purpose-built agent identity broker—sits inline between the agent runtime and high-risk write surfaces, issues short-lived per-task attestations, enforces policy-bound delegation, and triggers revocation automatically when exploit conditions or workflow context change. The beachhead is Series B–E software companies with 100–1,000 engineers that already run internal coding or IT automation agents with GitHub and cloud write access, where a security review or a vulnerability disclosure creates the immediate buying trigger. The SAM is estimated at $300M (5,000 qualifying accounts at ~$60k ACV), and the year-3 reachable market is ~$6M from 80 design-partner style customers at ~$75k ACV; no independent customer-case study was available at research time, so these estimates are bottom-up proxies that require validation through design-partner pilots.

Problem

  • Autonomous coding and IT agents gain write access to GitHub, cloud consoles, Jira, Slack, and SaaS admin tools but are provisioned as shared long-lived service accounts, leaving no verifiable delegation chain.
  • Security teams cannot prove which agent acted, which human approved the delegation, or what scope was in effect—making audit, compliance, and incident response manual and slow.
  • When an agent-specific vulnerability is disclosed, the only containment option is a broad shutdown because there is no scoped revocation control plane.
  • Existing IAM, PAM, and secrets tools were built for humans and static workloads; they do not model per-task attestations, autonomous delegation graphs, or exploit-aware revocation for agents.

Solution

  • An agent identity broker that intercepts every write-capable agent action, issues a short-lived per-task attestation token binding the action to a delegation chain, policy scope, and human owner, then allows or blocks execution.
  • Exploit-aware revocation: the system maps disclosed agent vulnerabilities (MCP misconfigs, leaked secrets, vulnerable runtimes) to active identities and can downgrade, pause, or re-scope affected agents automatically.
  • Audit trail emitted per action without manual log stitching—SIEM-ready, covering agent identity, tool, action, outcome, and revocation state.
  • Initial integrations target GitHub, AWS IAM, Okta, Jira, Slack, and common agent orchestrators; built on existing OIDC/SPIFFE/workload-federation primitives rather than a proprietary runtime.

Why we win

  • Incumbents (Okta, CyberArk, Teleport, Aembit) stop at their own trust domains or broad workload identity—none deliver a unified cross-GitHub-cloud-SaaS delegation graph with exploit-aware revocation specific to coding agents.
  • Posture vendors (Astrix, Oasis) provide inventory and discovery; we provide inline enforcement at the moment of write action, which is the only control that can prevent—not merely report—unauthorized agent behavior.
  • The delegation graph (human owner → agent runtime → repository/job → issued token → downstream action → revocation outcome) compounds as a data moat with every integrated workflow, making displacement progressively harder.
  • Standards-friendly architecture (OAuth/OIDC, SPIFFE, MCP authorization) avoids proprietary runtime lock-in and lowers buyer fear of dead-end architecture choices.
  • Early design-partner focus on the GitHub-to-cloud write path creates proof-of-value (time-to-approve and time-to-revoke metrics) before incumbents can respond with equivalent agent-native depth.
Strategic choices
Beachhead Series B–E US software companies (100–1,000 engineers) that already run internal coding or IT automation agents with write access to GitHub and at least one cloud environment, and whose platform team faces a pending security review or vulnerability-triggered rollback.
Wedge rationale This slice has agents in production, a concrete security-review forcing function, and a platform team that can champion a tool that unblocks rather than slows automation adoption. Discovery-first or broad-enterprise plays require longer proof cycles; the inline attestation wedge produces a measurable time-to-approve and time-to-revoke metric in weeks, not quarters.
Sequencing Build GitHub-to-AWS delegation and revocation first because that is the highest-frequency write path for coding agents and the one where GitGuardian documents the fastest credential sprawl. Land with a design-partner security review, prove the metric, then expand integrations to Okta, Jira, Slack, and additional cloud targets. Hire integrations engineering before enterprise sales because buyer POCs gate on depth, not positioning.
Not yet Finance, procurement, and partner-facing agent workflows (deferred until GitHub-cloud wedge is proven). · On-prem and air-gapped enterprise deployments (deferred; adds delivery complexity before product-market fit). · Generalized posture/dashboard product competing with Astrix and Oasis (focus stays on inline enforcement). · MSSP or consulting-led OEM model (deferred until 20+ production customers validate the direct-sales motion).
Go-to-market
Wedge GitHub-to-cloud delegated token issuance and instant revocation for internal coding agents undergoing a platform security review.
Channels Direct outbound to security and platform engineering leads at Series B–E software companies already publicly shipping AI coding agent features. · Design-partner pipeline via developer security conferences and GitHub Copilot ecosystem partner events. · Co-sell referrals from GitHub, AWS, and Azure partner programs once 10+ production customers are live. · NHI and cloud-security consultancies as force multipliers for accounts discovering service-account sprawl.
Funnel targets Outbound to qualified pilot: 15–25%; pilot to annual contract: 50%+ (based on comparable identity-control-plane conversion benchmarks; unvalidated assumption).
Pricing Annual platform fee ($24k–$48k base) plus per-active-agent-identity fee (~$600–$1,200/agent-identity/year); usage-based component aligns cost with agent fleet size and keeps land ACVs accessible while expanding naturally as customers scale agent programs.
Product roadmap
MVP Inline attestation broker for GitHub-to-AWS write actions: per-task short-lived token issuance, delegation chain logging, policy enforcement, and one-click revocation dashboard; integrated via GitHub OIDC and AWS STS.
6 months Add Okta and Jira integrations; ship exploit-to-identity mapping for MCP and common agent frameworks; launch design-partner pilot program with 5–8 customers.
12 months Add Slack admin and GCP integrations; ship automated revocation triggered by vulnerability feed; reach 15–20 production customers and publish first time-to-revoke benchmark.
24 months Expand to finance and HR agent workflows; launch partner co-sell with GitHub and AWS Marketplace; build delegation-graph analytics layer for CISO reporting; target 60–80 customers.
Key bets OIDC/SPIFFE-native architecture means no new runtime for customers—attestations ride existing token plumbing. · Exploit-to-identity mapping is the defensible differentiator; invest in a continuously updated agent vulnerability knowledge graph. · Measurable time-to-approve and time-to-revoke metrics will be the primary conversion proof in pilots.
Business model
Revenue streams Annual platform subscription (base access, policy engine, audit trail). · Per-active-agent-identity fee (scales with customer's agent fleet growth). · Premium incident-response automation module (exploit-aware auto-revocation, tabletop simulation tooling).
Unit of value Active agent identity under management.
Target gross margin 75%
Expansion levers New integration surfaces: additional cloud, SaaS admin, and finance tools expand per-seat and per-identity count. · Agent fleet growth: as customers scale agent programs, active identity count and protected action volume grow automatically. · Incident-response module upsell triggered by exploit disclosures or tabletop exercises. · Expansion from engineering/IT agents to finance, support, and procurement agent workflows.
Strategy map
North-star metric Active agent identities under management with verified delegation chain.
Input metrics Number of write-capable agent integrations live per customer. · Median time-to-revoke from exploit disclosure to affected-identity scope reduction. · Pilot-to-production conversion rate. · Net revenue retention (expansion via new integrations and agent fleet growth).
Moats to build Cross-tool delegation graph linking human owner, agent runtime, repository, issued token, and revocation outcome. · Exploit-to-identity mapping dataset continuously updated for agent-specific CVEs, MCP misconfigs, and framework vulnerabilities. · Integration depth with GitHub, AWS, Okta, Jira, Slack: switching cost compounds with every workflow connected. · Time-to-revoke benchmark: first vendor to publish verifiable metrics owns the RFP evaluation criterion.
Kill criteria Fewer than 5 design partners convert to paid contracts within 12 months of product launch. · Median pilot time-to-revoke metric is not demonstrably better than existing PAM or vault-based approaches. · A major cloud or dev platform (GitHub, AWS, or Okta) ships native cross-tool agent delegation and revocation with comparable scope coverage. · Win rate against Aembit or Oasis in competitive evaluations falls below 40% after 10 qualified opportunities.

Milestones

0–12 months
  • Deliver GitHub-to-AWS attestation and revocation proof-of-concept (month 2).
  • Sign 3–5 paid design-partner pilots at $10k–$24k ACV each (months 4–7).
  • Demonstrate time-to-revoke under 30 minutes in at least 2 production pilot environments (month 8).
  • Ship Okta and Jira integrations; expand pilot customers to full platform subscription (months 9–12).
  • Close seed round based on pilot metrics and LOI pipeline (month 10–12).
12–24 months
  • Reach 20 paying production customers at average $60k ACV (~$1.2M ARR).
  • Launch exploit-aware automated revocation triggered by live vulnerability feed (month 14).
  • Add Slack admin and GCP integrations; list on GitHub Marketplace and AWS Marketplace (month 18).
  • Publish first public time-to-revoke benchmark establishing the product as the category reference metric.
  • Hire first enterprise AE and begin structured outbound to 200-person+ target account list.
24–36 months
  • Reach 80 paying customers at average $75k ACV (~$6M ARR, matching researched SOM).
  • Expand product to finance and HR agent workflows; launch delegation-graph analytics for CISO reporting.
  • Win/loss rate against Aembit, Oasis, Astrix ≥ 50% across documented competitive evaluations.
  • Evaluate Series A raise based on NRR, CAC payback, and pipeline coverage.
Strategy map
flowchart LR
  Beachhead["Series B-E coding agent teams\n(GitHub + cloud write access)"] --> Pilot["Design-partner pilot\n(GitHub-to-AWS attestation + revoke)"]
  Pilot --> Proof["Proof points\n(time-to-approve, time-to-revoke)"]
  Proof --> Expand["Integration expansion\n(Okta, Jira, Slack, GCP)"]
  Expand --> Graph["Delegation graph moat\n(cross-tool identity dataset)"]
  Graph --> Platform["Trust platform\n(finance, HR, partner agents)"]

Founding team

Role Start timing Rationale
Founding CEO / GTM lead Month 0 Enterprise security sales to CISOs requires a founder who can run design-partner discovery, negotiate LOIs, and build a trusted advisor relationship before the product is complete.
Founding engineer (identity/security infrastructure) Month 0 GitHub OIDC, AWS STS, and SPIFFE integration depth is the product's proof-of-value in pilots; needs deep workload identity and cloud IAM experience, not general full-stack.
Second engineer (integrations and policy engine) Month 3 Expanding from GitHub-to-AWS to Okta, Jira, and Slack connectors is the primary product milestone at months 4–9; a dedicated integrations engineer unblocks this without distracting the founding engineer from the core attestation and revocation primitives.
Head of security research (exploit-to-identity mapping) Month 9 The vulnerability knowledge graph is the durable differentiator; a dedicated security researcher is needed once the core product is in production with 10+ customers to prevent the knowledge graph from becoming stale.
Enterprise account executive Month 12 Hire only after the pilot-to-production conversion motion is documented and at least 5 paying customers are live; premature sales hiring without a repeatable proof-of-value wastes runway.

Experiment roadmap

Horizon Experiment Hypothesis Success metric Owner
0–90 days Design-partner discovery sprint Platform security leads at 8–10 Series B–E software companies will confirm that write-capable agent rollouts are blocked by identity/audit gaps, not by other factors. 6+ of 10 conversations confirm an active security-review blocker and willingness to engage in a paid pilot. Founding CEO / GTM lead
0–90 days GitHub-to-AWS attestation proof-of-concept OIDC-based per-task token issuance and revocation for a GitHub Actions coding-agent workflow can be built to demo quality in 60 days. Live demo showing end-to-end attestation, delegation-chain log, and one-click revocation for a synthetic write action. Founding engineer
90–180 days Paid pilot with 3 design partners Inline attestation reduces time-to-approve for new write-capable agent workflows and time-to-revoke on a simulated vulnerability from days to under 30 minutes. 3 signed pilot agreements at $10k–$24k each; measured time-to-revoke under 30 minutes in at least 2 pilots. Founding CEO + engineer
90–180 days Exploit-to-identity mapping prototype Mapping GitGuardian-style MCP misconfiguration patterns to active agent identities is technically feasible with publicly available vulnerability feeds and agent metadata. Prototype maps at least one real or synthetic MCP vulnerability disclosure to affected agent identities in a design-partner environment within 24 hours of disclosure. Founding engineer
180–270 days Competitive win/loss tracking GitHub-first depth and exploit-aware revocation speed wins over Aembit and Oasis in evaluations at companies with active coding agent deployments. Win rate ≥ 50% in first 10 qualified competitive evaluations. Founding CEO
270–365 days GitHub and AWS Marketplace co-sell motion Listing on GitHub Marketplace and AWS Marketplace accelerates inbound pipeline once 10+ production customers can be referenced. At least 2 inbound qualified leads per month attributable to marketplace listing within 90 days of launch. GTM lead + partnership

Risk assessment

Business plan risks — 6 mapped
Impact →
High
R1
R2
Medium
R3 R4 R6
R5
Low
Low
Medium
High
Likelihood →
  1. R1Incumbent cloud or dev platform (GitHub, AWS, Okta) ships native cross-tool agent delegation and revocation that covers the GitHub-to-cloud path with comparable depth. · Mediumlikelihood / Highimpact — Accelerate integration breadth beyond GitHub-AWS (Jira, Slack, Okta, GCP) so the cross-vendor delegation graph is not replicable by any single platform; publish exploit-aware revocation benchmarks before incumbents enter.
  2. R2Well-funded competitors (Aembit, Oasis, Astrix) commoditize short-lived agent credentialing faster than the startup can build the delegation graph moat. · Highlikelihood / Highimpact — Focus pilot evaluations on the exploit-aware revocation metric and cross-tool delegation completeness, not generic NHI inventory—these are not on competitor near-term roadmaps per research.
  3. R3Write-capable agent deployments stay mostly read-only or in pilot stages through 2026–2027, shrinking the addressable base of buyers with urgent budget. · Mediumlikelihood / Mediumimpact — Target only companies with agents already in production (confirmed in discovery call); do not waste sales cycles on companies still evaluating agent tooling.
  4. R4Protocol fragmentation (MCP, SPIFFE, OpenID agent-identity work, vendor-specific token formats) makes a universal control plane interface technically costly to maintain. · Mediumlikelihood / Mediumimpact — Build on OIDC/OAuth standards-layer primitives; expose a plugin API for new runtimes rather than hardcoding each framework.
  5. R5Platform team latency or reliability concerns block adoption—buyers fear the attestation broker becomes a single point of failure for all agent automation. · Highlikelihood / Mediumimpact — Design for zero-additional-RTT hot path using OIDC token exchange; publish reliability SLA with 99.9% uptime guarantee and support async audit-only mode for latency-sensitive workflows.
  6. R6Security buyers deprioritize inline enforcement in favor of posture/discovery overlays, delaying conversion from pilot to production contract. · Mediumlikelihood / Mediumimpact — Package discovery and simulation modules as an on-ramp to inline enforcement; let buyers start with read-only visibility and escalate to enforcement after an internal tabletop exercise.
Risk Likelihood Impact Mitigation
Incumbent cloud or dev platform (GitHub, AWS, Okta) ships native cross-tool agent delegation and revocation that covers the GitHub-to-cloud path with comparable depth. Medium High Accelerate integration breadth beyond GitHub-AWS (Jira, Slack, Okta, GCP) so the cross-vendor delegation graph is not replicable by any single platform; publish exploit-aware revocation benchmarks before incumbents enter.
Well-funded competitors (Aembit, Oasis, Astrix) commoditize short-lived agent credentialing faster than the startup can build the delegation graph moat. High High Focus pilot evaluations on the exploit-aware revocation metric and cross-tool delegation completeness, not generic NHI inventory—these are not on competitor near-term roadmaps per research.
Write-capable agent deployments stay mostly read-only or in pilot stages through 2026–2027, shrinking the addressable base of buyers with urgent budget. Medium Medium Target only companies with agents already in production (confirmed in discovery call); do not waste sales cycles on companies still evaluating agent tooling.
Protocol fragmentation (MCP, SPIFFE, OpenID agent-identity work, vendor-specific token formats) makes a universal control plane interface technically costly to maintain. Medium Medium Build on OIDC/OAuth standards-layer primitives; expose a plugin API for new runtimes rather than hardcoding each framework.
Platform team latency or reliability concerns block adoption—buyers fear the attestation broker becomes a single point of failure for all agent automation. High Medium Design for zero-additional-RTT hot path using OIDC token exchange; publish reliability SLA with 99.9% uptime guarantee and support async audit-only mode for latency-sensitive workflows.
Security buyers deprioritize inline enforcement in favor of posture/discovery overlays, delaying conversion from pilot to production contract. Medium Medium Package discovery and simulation modules as an on-ramp to inline enforcement; let buyers start with read-only visibility and escalate to enforcement after an internal tabletop exercise.
First customer
Title Platform security lead at a Series B–E B2B software company.
Profile 300–2,000 person software company whose platform team has already enabled internal coding agents to open PRs, modify infrastructure configs, or execute SaaS admin tasks, and whose security team is blocking broader rollout pending audit controls.
Trigger A security review blocking further agent rollout, or a new agent-specific vulnerability disclosure that forces a temporary global rollback of automation.
Buyer CISO or VP Platform Engineering.
Initial contract $24k–$48k pilot ACV for GitHub-to-cloud attestation footprint, with expansion path to $75k–$120k as integrations and agent fleet grow; conversion from pilot to annual contract expected within 60–90 days of go-live.

What must be true

  • Write-capable coding and IT agents are already in production at enough Series B–E software companies in 2026 to generate active budget for inline identity controls, not just awareness.
  • Security and platform engineering teams will pay for a third-party broker rather than extend existing IAM/PAM or wait for cloud-native bundling, because integration breadth and exploit-aware revocation are not on vendor roadmaps within 12–18 months.
  • The delegation graph and exploit-to-identity dataset compound into a switching cost that makes displacement by a single-vendor bundle economically unattractive after 12–18 months of production use.
  • Time-to-revoke can be reduced from hours/days (spreadsheet + global kill switch) to under 30 minutes per the product's inline control plane, and customers will treat this metric as an RFP-qualifying criterion.
  • The startup can close 5+ paying design-partner contracts within 12 months of product launch using a direct outbound motion at pre-seed/seed scale, before requiring a scaled sales team.

Open diligence questions

  • Have you spoken with 10+ platform security leads at Series B–E software companies to confirm an active budget line for agent identity controls in 2026, separate from existing IAM/PAM spend?
  • In competitive evaluations, what is the win/loss record against Aembit, Oasis, and Astrix, and what is the primary decision criterion that drives each outcome?
  • Do buyers prefer an inline token broker or a posture/discovery layer first, and how does that preference affect time-to-close and initial ACV?
  • What is the technical depth of the GitHub-to-AWS delegation path today: is it demo-ready, pilot-ready, or production-ready, and how many engineering months separate those stages?
  • Has the exploit-to-identity mapping dataset generated any customer proof of faster triage or revocation versus a baseline vault or PAM workflow?
  • What is the founding team's prior experience in identity, security infrastructure, or enterprise SaaS, and how does that affect the ability to win CISO-level deals within the first year?
Investor verdict
Call Meet / investigate further
Conviction High pain intensity and wedge clarity, but thin public evidence base and strong adjacent-vendor competition require design-partner validation before conviction on timing.
Why believe Write-capable agents are moving into production before enterprises have a control plane, and no existing IAM or posture vendor delivers unified cross-GitHub-cloud-SaaS delegation with exploit-aware revocation.
Why doubt Aembit, Oasis, and Astrix are well-funded and repositioning aggressively; if cloud platforms bundle adequate native controls, the startup's pricing power may compress before it builds a delegation-graph moat.
Next diligence Conduct 8–10 design-partner discovery calls with platform security leads at Series B–E software companies to confirm willingness to pay for inline attestation before write-capable agent deployments reach critical mass.
Section

Financial model

3-year totals
Year 1 revenue $144K EBITDA $-855K · Cash EOP $2.55M
Year 2 revenue $840K EBITDA $-1.41M · Cash EOP $1.14M
Year 3 revenue $3.56M EBITDA $-31K · Cash EOP $1.10M
Unit economics
ARPU (annual) $75K
Gross margin 76%
CAC $30K Payback 6.3 months
LTV / CAC 13.2x LTV $396K
Funding ask
Round seed · $3.4M
Runway 30 months
Milestone Reach 20 production customers, ~$1.2M ARR run-rate, and live exploit-aware revocation with 6 months of buffer before a Series A process.

Model sanity

  • Revenue engine. Base-case revenue is driven by reaching 20 production customers by Q4Y2 and then scaling to 80 customers at ~$75K ACV by Q4Y3.
  • Must go right. The GitHub-to-AWS wedge has to convert design partners into annual contracts before the second AE and later hiring ramp fully hit the P&L.
  • Model breaks if. If sales cycles drift toward 9 months or mature ACV stays closer to $65K, downside cash goes negative before the company earns a strong next-round narrative.
  • Next-round proof. The next financing case is 20 production customers, a ~$1.2M ARR run-rate, and live exploit-aware revocation that proves the product is more than a pilot tool.
Revenue, cash, and EBITDA — 12-month Y1 + 8-quarter Y2/Y3
$0K$1.00M$2.00M$3.00M$4.00MM1M4M7M10Q1Y2Q4Y2Q3Y3Q4Y3
  • Revenue (line, area)
  • Cash EOP (dashed)
  • EBITDA (bars, gray = loss)
Use of funds — $3.4M seed
Engineering · 41.2% GTM · 25% G&A · 13.8% Buffer (6 mo) · 20%
Headcount build by role — peak10 FTE
Q1Y12Q2Y13Q3Y13Q4Y15Q1Y25Q2Y25Q3Y25Q4Y28Q1Y38Q2Y38Q3Y38Q4Y310
  • GTM / Founder
  • Engineering
  • Security Research
  • Sales
  • Solutions / Success
  • G&A / Ops
Year-3 scenarios — base / downside / upside
Y3 revenueY3 EBITDACash low pointDescription
Downside$2.51M-$640K-$120KPilot conversion slows, Y3 logo growth ends at 65 customers, and ACV plateaus around $65K as buyers buy a narrower control layer.
Base$3.56M-$31K$777KModel matches the operating plan: 8 customers in Y1, 20 in Y2, 80 in Y3, with ARPU stepping from pilots to $75K mature ACV.
Upside$4.51M$420K$920KDesign-partner references and co-sell pull forward demand, pushing the company to 90 customers and faster premium-module attach by Y3.
Sensitivity — Y3 cash and revenue impact, sorted by magnitude
VariableDownsideUpsideCash impactRevenue impact
sales cycle9-month pilot-to-production cycle4-month pilot-to-production cycle-$540K-$620K
ARPU$65K mature ACV$85K mature ACV-$360K-$475K
CAC$40K fully loaded CAC$24K fully loaded CAC-$320K$0K
hiring paceSecond AE and fourth engineer hired 2 quarters earlyBack-office hire delayed until revenue exceeds $3M-$250K-$120K
churn1.8% monthly0.8% monthly-$240K-$315K
gross margin72% steady-state GM78% steady-state GM-$200K$0K

Scenarios

Scenario Y3 revenue Y3 EBITDA Cash low point Description Key changes
Downside $2.51M $-640K $-120K Pilot conversion slows, Y3 logo growth ends at 65 customers, and ACV plateaus around $65K as buyers buy a narrower control layer.
  • Y3 customers exit at 65 instead of 80.
  • Steady-state ACV is $65K instead of $75K.
  • Gross margin stalls near 72% because onboarding and integration support remain manual.
Base $3.56M $-31K $777K Model matches the operating plan: 8 customers in Y1, 20 in Y2, 80 in Y3, with ARPU stepping from pilots to $75K mature ACV.
  • No changes versus assumptions A1-A24.
Upside $4.51M $420K $920K Design-partner references and co-sell pull forward demand, pushing the company to 90 customers and faster premium-module attach by Y3.
  • Y3 customers exit at 90 instead of 80.
  • Steady-state ACV reaches $85K with faster expansion into incident-response automation.
  • Gross margin reaches 78% as integrations and onboarding become more repeatable.

Sensitivity

Variable Downside Base Upside
ARPU $65K mature ACV $75K mature ACV $85K mature ACV
CAC $40K fully loaded CAC $30K fully loaded CAC $24K fully loaded CAC
churn 1.8% monthly 1.2% monthly 0.8% monthly
sales cycle 9-month pilot-to-production cycle 6-month pilot-to-production cycle 4-month pilot-to-production cycle
gross margin 72% steady-state GM 76% steady-state GM 78% steady-state GM
hiring pace Second AE and fourth engineer hired 2 quarters early Hiring follows A17 Back-office hire delayed until revenue exceeds $3M
Key assumptions (24)
ID Name Value Unit Source
A1 Opening cash from seed close at model start 3400.0 USDK [BP fundingAsk targetFundingRangeUsd $3–5M] + startup-finance heuristic: use midpoint-low end that still covers next milestone plus 6 months of buffer.
A2 Starting customers (M1) 0 count [BP product + milestones] pre-revenue at founding; customer acquisition begins after MVP and pilot setup.
A3 Y1 customer ramp 8 customers by M12 count [BP milestones 0–12 months] 3–5 paid pilots by months 4–7, then conversions and follow-on wins by months 9–12; monthly interpolation heuristic.
A4 Y2 customer ramp 20 customers by Q4Y2 count [BP milestones 12–24 months] explicit target of 20 paying production customers; quarterly interpolation heuristic to 11, 14, 17, 20.
A5 Y3 customer ramp 80 customers by Q4Y3 count [BP market SOM + milestones 24–36 months] explicit target of 80 customers; quarterly interpolation heuristic to 32, 46, 62, 80.
A6 Pilot ARPU 24.0 annualK [BP gtm pricing + investorMemo firstCustomer] low end of initial contract range for paid design partners.
A7 Production ARPU in Y2 60.0 annualK [BP market SAM + milestones 12–24 months] 20 customers at ~$60k ACV implies $1.2M ARR run-rate.
A8 Mature ARPU in Y3 75.0 annualK [BP market SOM + businessModel expansionLevers] 80 customers at ~$75k ACV implies ~$6.0M ARR run-rate.
A9 Gross margin ramp 72.5% in Y1, 75.0% in Y2, 76.3% in Y3 percent [BP businessModel targetGrossMarginPct 75] + startup-finance heuristic: early white-glove onboarding depresses margin before integrations stabilize.
A10 Monthly logo churn for unit economics 1.2 percent [BP strategicChoices beachhead + enterprise annual contracts] + startup-finance heuristic for seed-stage enterprise security SaaS retention.
A11 Founding CEO loaded compensation 220.0 annualK [BP team Founding CEO / GTM lead] + startup-finance heuristic: sub-market founder cash comp with ~20% burden.
A12 Engineer loaded compensation 210.0 annualK [BP team Founding engineer / Second engineer] + startup-finance heuristic: US security infrastructure engineer cash comp plus payroll burden.
A13 Security research lead loaded compensation 220.0 annualK [BP team Head of security research] + startup-finance heuristic for senior security-research hire.
A14 Enterprise AE loaded compensation 240.0 annualK [BP team Enterprise account executive] + startup-finance heuristic for seed-stage enterprise security AE OTE and burden.
A15 Solutions / success loaded compensation 180.0 annualK Startup-finance heuristic: first technical onboarding / success hire for enterprise security SaaS.
A16 G&A / ops loaded compensation 160.0 annualK Startup-finance heuristic: first finance / ops hire added only after repeatable revenue motion is visible.
A17 Hiring schedule Second engineer M4; security research M10; first AE M12; second AE M16; solutions M18; third engineer M20; fourth engineer M28; ops M31 timing [BP team startTiming + sequencingRationale] integrations engineering comes before enterprise sales; later hires smoothed quarterly.
A18 Y1 non-payroll opex 20–35K per month USDK [BP operations + experimentRoadmap] + startup-finance heuristic for cloud, security tooling, legal, compliance, travel, and pilot onboarding.
A19 Y2 non-payroll opex 115–168K per quarter USDK [BP operations + product roadmap] + startup-finance heuristic as integrations, incident-response dataset, and customer onboarding expand.
A20 Y3 non-payroll opex 178–210K per quarter USDK [BP product twentyFourMonth + operations] + startup-finance heuristic for larger cloud footprint, compliance, partner motion, and support.
A21 Revenue recognition method Average active customers in period × stage ARPU formula [BP pricing + milestones] + modeling convention to reconcile revenue with customer counts without separate cohort tables.
A22 Steady-state CAC 30.0 USDK [BP gtm direct outbound + design-partner motion] + startup-finance heuristic for founder-led then 1-AE enterprise security sales.
A23 Funding ask sizing rule Reach Q4Y2 milestone plus 6 months of buffer policy [BP fundingAsk runwayMonths 20 + milestone target] adjusted upward by the explicit 6-month buffer requirement in this financial model.
A24 Cash flow simplification Ending cash = opening cash + cumulative EBITDA formula Startup-finance heuristic: assume minimal working-capital swings, capex, and debt for a software-only seed company.
unit economics flow
flowchart LR
  Leads["Target accounts"] --> Pilots["Paid pilots"]
  Pilots --> Customers["Production customers"]
  Customers --> Expansion["More identities + integrations"]
  Customers --> Revenue["Subscription revenue"]
  Expansion --> Revenue
  Revenue --> GrossProfit["Gross profit"]
  GrossProfit --> Cash["Cash / runway"]

Flags: The jump from 20 customers at Q4Y2 to 80 at Q4Y3 requires a much more repeatable sales motion than the model has yet proven. · Gross margin improvement depends on reducing white-glove integration and onboarding work even while connector breadth expands. · Rule-of-40 is not a useful quality signal until the company grows beyond the sub-$1M annual revenue base in Y2. · Cash never goes negative in the base case only because the seed round is assumed to close at model start; any financing delay would tighten runway materially.

Section

Top risks

  • Protocol fragmentation. Multiple agent frameworks and trust standards could emerge, making one control-plane interface hard to universalize. Mitigation: Support several runtimes early and anchor the product on policy enforcement and revocation outcomes rather than any single protocol.
  • Incumbent expansion. Large IAM, PAM, or cloud-security vendors could extend existing products into agent identity and narrow the wedge. Mitigation: Win the earliest write-capable coding-agent workflows with faster integrations, richer delegation context, and exploit-aware controls incumbents do not yet offer.
  • Market timing. Some enterprises may still be piloting agents, delaying budget until write-capable deployments become common. Mitigation: Target design partners that already have internal coding or IT agents in production and position the product as the blocker-clearing layer for security approval.
Section

Evidence

Cited sources (31)

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