BizIdea

SERVERLESS GPU CLOUD ai-infra Scan 2026-05-22 to 2026-05-22 Run 20260523000114

Broker for AI coding teams to run tests and generated code in signed, auditable sandboxes across fragmented cloud capacity.

As coding agents move from autocomplete to writing pull requests, they must run builds, integration tests, browser checks, and generated code inside real execution environments. Most enterprises piece this together with self-hosted CI runners, one runtime vendor, and brittle security reviews, which creates queue spikes, inconsistent environments, and real concern about letting untrusted agent-written code touch privileged systems.

Overall rating 4.2 / 5.0
  1. 4
    Market

    $1.1B TAM, $264.6M beachhead, and 19.7%-24.0% CAGR support a large market, though five mapped competitors make it competitive.

  2. 4
    Differentiation

    The wedge is a neutral, policy-aware broker for untrusted AI code across clouds; rivals mostly offer single-provider runtimes or faster runners.

  3. 4
    Execution

    A focused five-hire plan and clear 8-12 customer milestones pair with 69.9% gross margin, 9.9x LTV/CAC, and 7.2-month payback, despite three model flags.

  4. 5
    Timeliness

    Four recent signals in a one-day scan show AI coding is driving sandbox demand, capacity fragmentation, and fresh capital into the category.

Section

Why now

  1. Enterprise AI coding adoption is already creating a new class of runtime-intensive workloads rather than just more chat usage.
  2. Buyers now care about safe execution of AI-generated code, which makes isolated sandboxes a must-have primitive and not a nice-to-have feature.
  3. Acute capacity shortages and a 13-partner supply chain make multi-provider brokerage newly valuable because single-vendor dependence is already failing.
  4. The valuation re-rating around Modal shows capital markets expect the agent-runtime layer to become a large standalone category, leaving room for a focused neutral broker.

Catalyst. The same enterprise AI coding adoption that pushed Modal from $60M to $300M ARR and forced it to assemble 13 infrastructure partners is creating immediate pressure for buyers to add multi-provider, policy-safe execution before one vendor becomes a bottleneck.

Section

The idea

The product sits between coding agents and infrastructure providers as a control plane plus execution fabric. Developers or platform teams define approved base images, secrets boundaries, network policies, and cost ceilings, then the broker spins up each task in a signed sandbox on the best-fit provider based on latency, compliance, and live capacity. It caches build layers and test artifacts across providers so bursts are cheaper and faster than raw cloud failover. Every run produces a replayable trace showing what code executed, what tools it called, what secrets were exposed, and which provider hosted the workload. That makes the wedge valuable to both platform teams trying to scale agents and security teams trying to trust them.

What's different. CI vendors orchestrate trusted developer workflows on fixed runners, while serverless GPU clouds sell raw execution capacity. This company combines policy enforcement, reproducible sandbox packaging, and live capacity brokerage for untrusted AI-generated code, which is a different control problem than either CI or cloud provisioning alone. Over time it can build a proprietary reliability and pricing map of agent-runtime workloads across providers, making the routing layer smarter and harder to replace.

Startup thesis
Beachhead Series C+ B2B SaaS companies with 500-2,000 engineers that have approved internal coding agents for backend teams and now need every agent-generated pull request to run integration tests, browser checks, and ephemeral previews inside approved network boundaries
Wedge A policy-aware runtime broker that packages each agent task into a signed ephemeral sandbox, routes CPU and GPU steps across multiple approved clouds, and returns auditable execution traces with warm-cache reuse
Non-obvious insight The scarce asset in AI coding is not just GPU time; it is policy-approved, reproducible execution slots for untrusted agent-generated code. Modal proves the market is exploding and that safety primitives like sandboxes matter, which opens room for a neutral runtime broker that makes fragmented cloud capacity actually usable for enterprise coding workloads.
Venture-scale path Start with coding-agent builds and test execution, then expand into a general execution fabric for support agents, data agents, model-evaluation jobs, and regulated internal automations that all need isolated burst compute with policy and audit.
Target user
Primary user VP Platform Engineering or Head of AI Platform at a 500-2,000 engineer B2B software company rolling out internal coding agents
Secondary user Staff-level developer productivity engineers responsible for CI, preview environments, and policy enforcement
Economic buyer VP Platform Engineering or CIO-led internal AI platform owner
Go-to-market seed
First customer VP Platform Engineering at a 700-1,500 engineer vertical SaaS company that has formally rolled out Claude Code or similar internal coding agents to backend teams and is seeing agent-generated pull requests saturate CI queues
Buying trigger An internal agent rollout moves from pilot to multiple teams and suddenly creates test-queue delays, security-review friction, or burst compute overruns during release weeks
Current alternative Self-hosted GitHub Actions runners, single-cloud sandbox vendors, and manual policy reviews wrapped around status-quo CI pipelines
Switching reason The broker gives them burst capacity, auditable isolation, and provider redundancy without buying spare GPUs or rebuilding their CI and sandbox stack in-house.
Pricing hypothesis Usage-based pricing per sandbox minute and per cached artifact, with premium reserved-capacity and compliance-policy packages for large enterprises

Jobs to be done

Job Current alternative Success metric
When coding agents start generating pull requests across multiple teams, help platform leaders run every build and integration test inside approved sandboxes, so they can scale agent adoption without blowing up CI reliability or security reviews. Self-hosted runners and manually curated sandbox environments 50 percent lower queue time for agent-generated jobs with full audit coverage
When release weeks create bursty agent-runtime demand, help developer productivity teams route workloads across approved providers, so they can keep latency predictable without buying idle peak capacity. Overprovisioned single-cloud capacity and manual failover 30 percent lower burst-compute cost at target latency and policy compliance
Agent runtime burst broker
flowchart LR
  Buyer[VP Platform Engineering] --> Pain[Agent PRs overload CI and raise sandbox risk]
  Pain --> Product[Policy-aware burst runtime broker]
  Product --> Outcome[Faster agent rollout with auditable multi-cloud execution]
Idea scorecard — average4.6 / 5 · 5axes
Signal5/5Pain4/5Wedge5/5Defense4/5Scale5/5
  • Signal · 5/5Primary-source revenue and valuation data show a fast-growing, real workload category tied to enterprise AI coding.
  • Pain · 4/5Capacity bottlenecks and unsafe code execution are painful enough to block agent rollout, though some buyers still patch over them with existing CI.
  • Wedge · 5/5The first product is narrowly defined around sandboxed multi-provider execution for agent-generated builds, tests, and previews.
  • Defense · 4/5Cross-provider telemetry, policy integrations, and execution-history data can compound into a durable routing and trust advantage.
  • Scale · 5/5The beachhead can expand from coding agents into the broader market for enterprise agent runtimes and governed burst compute.
Business model canvas
Key partners
  • Serverless runtime providers
  • Cloud and GPU infrastructure partners
  • Coding-agent and CI ecosystem vendors
Key activities
  • Routing and scheduling workloads across providers
  • Maintaining secure sandbox templates and policy engines
  • Measuring performance, reliability, and cost by workload type
Key resources
  • Runtime orchestration control plane
  • Provider integrations and capacity telemetry
  • Sandbox image catalog and execution-trace data
Value propositions
  • Burst capacity for agent workloads without owning spare GPU and CPU pools
  • Signed, reproducible sandboxes with audit trails for every agent run
  • Multi-provider routing that reduces vendor lock-in and release-week bottlenecks
Customer relationships
  • High-touch implementation with policy templates
  • Land via one workflow then expand across agent use cases
  • Ongoing optimization reviews tied to cost and queue-time savings
Channels
  • Direct sales to platform engineering leaders
  • Partnerships with coding-agent vendors and cloud marketplaces
  • Design-partner pilots with AI-native software companies
Customer segments
  • Enterprise platform teams rolling out internal coding agents
  • Developer productivity teams managing CI and preview environments
  • Security teams approving execution policy for AI-written code
Cost structure
  • Cloud and provider pass-through costs
  • Security engineering and compliance operations
  • Enterprise sales and solutions engineering
Revenue streams
  • Usage fees per sandbox minute
  • Premium charges for reserved compliant burst pools
  • Annual enterprise contracts for policy packs and audit exports
Section

Market

Market sizing
TAMSAMSOM TAM · Total addressable $1.1B SAM · Serviceable available $264.6M SOM · Serviceable obtainable $7.9M
Market sizing overview
TAM $1.1B Est. 10,000 mid-to-large software teams globally × 750 engineers/team × 70% active AI-coding usage × about $210 annual governed runtime spend per active engineer (roughly 10 agent jobs/week × 20 minutes × blended about $0.02/min from published sandbox and runner prices). Cross-check: adjacent AI code tools market is projected to reach $12.6B by 2028.
SAM $264.6M Beachhead case of 2,000 North America and Europe B2B software companies in the 500-2,000 engineer band × 900 engineers × 70% active AI usage × about $210 annual spend.
SOM $7.9M Reachable Year-3 case of 45 customers × 900 engineers × 70% active AI usage × about $280 annual spend on higher-compliance, burst-heavy workflows.

Executive takeaways

  • AI coding is shifting infrastructure demand from static CI capacity toward governed execution environments for untrusted agent-written code.
  • The buyer gap is not raw compute alone; it is policy-approved burst capacity, provenance, and network-safe execution across multiple providers.
  • Existing vendors split across CI incumbents, point sandbox runtimes, and CI acceleration layers, leaving room for a neutral governance and routing broker.
  • The startup wins only if it sells security throughput and multi-cloud reliability, not a cheaper undifferentiated runner pool.

Market definition

Governed execution infrastructure for AI coding and agent workflows: the layer that packages, schedules, isolates, and proves builds, tests, browser checks, and generated-code tasks triggered by coding agents.

Customer and buyer

Primary user is the platform or AI infrastructure team that owns CI, runner policies, network boundaries, and secrets handling. The economic buyer is the VP Platform Engineering or equivalent internal AI platform owner, with security and compliance as co-approvers because the workload includes untrusted agent-generated code.

Buying triggers

  • When agent-generated pull requests start sharing runner pools with human-authored CI, platform teams feel queueing, orchestration, and cleanup become a reliability issue. [20][21][22][26][31]
  • Security reviews intensify once the workload involves untrusted agent-written code, because secrets, outbound networking, and host reuse become procurement blockers. [25][28][39][43][48]
  • Release weeks, eval batches, and multi-branch rollouts create burst demand that a single runner pool or single cloud is poorly suited to absorb. [1][2][31][35]

Willingness to pay

Direct substitutes already normalize usage-based spend for governed execution: E2B and Daytona publish about $0.000028 per second for a 2-vCPU sandbox, Depot publishes $0.004 per minute for a 2-vCPU GitHub Actions runner, and Modal bills per core and per GiB by the second. A broker is credible if it measurably cuts queueing, spare-capacity waste, and security-review labor on top of that baseline. [3][11][14][15]

Category dynamics

Growth signal 19.7%-24.0% CAGR across adjacent DevOps and AI code tools markets

Tailwinds

  • Developer AI adoption is now broad enough that more software work will be created, tested, and reviewed by agents rather than only by humans.
  • Coding-agent products increasingly market their ability to run tests, execute commands, and open pull requests, which makes execution infrastructure part of the product surface.
  • Provenance, attestations, and ephemeral build guidance create a strong narrative for a governed execution layer.

Headwinds

  • Trust, privacy, and code quality concerns still slow enterprise rollout of AI coding tools.
  • Platform teams are under pressure to consolidate tools, which raises the bar for any new control plane vendor.
  • Generic managed build services and hosted runners already solve enough of the problem for many buyers to delay a new purchase.

Validation signals

  • Modal says sandboxes drive more than a third of revenue and the platform has launched more than 1 billion sandboxes, showing real runtime demand beyond demos.
  • Claude Code is explicitly marketed to read code, run tests, and open pull requests, which makes execution infrastructure part of the agent product surface.
  • Codex applies the same sandbox boundary to spawned commands like git, package managers, and test runners, confirming that execution control is core to agentic coding products.
  • JetBrains’ 2026 AI Pulse found 90% of developers use at least one AI tool at work and 74% use specialist AI developer tools, expanding the future demand base.

Regulatory & technical constraints

  • Short-lived credentials and least-privilege access are table stakes once generated code touches cloud resources or internal systems.
  • Provenance and signed attestations are becoming the expected control surface for build artifacts and SBOMs.
  • Multi-tenant execution of untrusted code may require stronger isolation than default containers, especially for shared enterprise environments.
  • Ephemeral build environments are increasingly preferred over reused hosts to reduce contamination and reproducibility risk.
Agent runtime execution map
← Generic CI Purpose-built agent runtime → ← Single-provider execution Neutral governed brokerage → Q2 Q1 · winning zone Q3 Q4 Proposed startup GitHub Actions Depot Modal E2B Daytona
Section

Competition

Competition clusters into three camps: Git-centric CI incumbents, purpose-built sandbox runtimes, and CI acceleration vendors. The white space is a neutral governance layer that routes across those stacks instead of forcing a full rip-and-replace.

Competitor Stage Wedge Pricing Strength Weakness vs. us
GitHub Actions incumbent General-purpose CI/CD with hosted, larger, and self-hosted runners. Hosted usage billing plus storage; self-hosted runner software is free but infrastructure and ops are buyer-owned. Deep workflow embed, native GitHub integration, and broad developer familiarity. Still leaves buyers choosing between limited hosted capacity, paid larger runners, or self-hosted ARC complexity; no neutral multi-cloud brokerage by default.
Modal Sandboxes scale-up Serverless GPU and sandbox runtime for agent and reinforcement-learning workloads. Per-second CPU and memory billing with free monthly compute credits. Strong agent credibility, high-scale sandbox execution, and deep AI infrastructure depth. Provider-specific runtime rather than a neutral broker across approved clouds and incumbent CI estates.
E2B scale-up Firecracker-based AI sandboxes delivered through SDKs and open source. Free tier; Pro at $150/month plus usage, with default 2-vCPU pricing published per second. Fast integration path and strong brand with agent builders. Best for embedding a sandbox, not for enterprise policy orchestration, multi-provider routing, or cross-cloud audit controls at scale.
Daytona scale-up Stateful sandboxes and computer-use infrastructure for AI agents. Usage-based compute and memory pricing published per second, with large free credits. Very fast startup and a broader workspace/computer-use story than pure code execution. Focuses on runtime/workspace rather than neutral execution brokerage, provenance, and heterogeneous cloud capacity optimization.
Depot scale-up Faster GitHub Actions runners, remote builds, and agent-friendly CI on managed infrastructure. Subscription plans plus usage; GitHub Actions runners start at $0.004/min and agent sandboxes are separately metered. Clear CI speed ROI and low-friction migration from GitHub Actions. Optimizes a managed runner stack rather than arbitraging multiple execution providers under a unified policy layer.

Why incumbents do not win by default

  • Cloud build services. Hyperscaler build services reduce runner operations but remain provider-specific; they do not solve neutral multi-cloud routing or unified policy across existing CI estates by default.
  • Git-based CI platforms. GitHub-style CI is deeply embedded, but its runner model still leaves teams to choose between limited hosted capacity, larger paid runners, or self-hosted ARC complexity for bursty agent traffic.
  • Sandbox specialists. Point sandbox vendors solve secure execution well, but they are mostly provider-specific runtimes rather than neutral brokers across approved clouds, corporate networks, and existing CI controls.
  • CI acceleration vendors. Runner acceleration vendors show buyers will pay for faster execution, but they optimize a managed runner stack rather than policy-governed routing across heterogeneous execution providers.
Section

Business plan

Agent Runtime Burst Broker should start as a policy-governed overflow execution layer for 500-2,000 engineer B2B software companies that have already rolled out internal coding agents and are now seeing agent-generated pull requests saturate CI queues. The first product should not try to replace GitHub Actions, cloud build services, or a sandbox vendor; it should intercept agent-triggered builds, integration tests, browser checks, and selected generated-code tasks, package them into signed ephemeral sandboxes, and route them across approved providers with replayable audit traces. This beachhead is narrow on purpose because the buyer, trigger, and ROI are clearest when one platform team is already absorbing queue spikes, security-review friction, and burst-capacity overruns during release weeks. Research-backed sizing supports an estimated $1.1B TAM, $264.6M initial SAM, and $7.9M year-3 SOM if the company stays focused on mid-to-large software teams before expanding into broader agent-runtime workloads. The go-to-market should sell security throughput and burst reliability, not cheaper compute, using paid BYOC pilots that prove lower queue time, complete execution traces, and easier procurement. The company can win if it becomes the neutral governance and routing layer that incumbents do not naturally offer across existing CI estates and multiple clouds. The biggest disconfirming risks are that overflow-only deployment may not be enough to justify budget, that incumbents may bundle similar policy features, and that early buyers may demand GPU, browser, or VPC capabilities beyond the initial workload mix. The first 12 months therefore need to prove that buyers will pay for an agent-only execution pool, that BYOC meaningfully shortens security review, and that cross-provider routing beats a single-vendor baseline on latency, cost, or approval time.

Problem

  • As internal coding agents move from suggestion to pull-request creation, agent-generated builds, integration tests, and browser checks collide with human CI workloads and create queue spikes that existing runner pools were not designed to absorb.
  • Security and compliance teams are reluctant to let untrusted agent-written code run against privileged systems unless execution is isolated, auditable, and bound to explicit network, secret, and provenance controls.

Solution

  • Insert a policy-aware control plane between coding agents and execution infrastructure so each agent task runs inside a signed ephemeral sandbox with approved base images, short-lived credentials, explicit egress rules, and replayable traces.
  • Route CPU, browser, and later GPU workloads across multiple approved providers with cache reuse and policy checks, landing first as an agent-only overflow pool that coexists with the customer's current CI workflow.

Why we win

  • GitHub Actions, cloud build services, and sandbox vendors each solve part of the workflow, but none naturally own neutral cross-provider governance, provenance, and routing across the customer's existing CI estate.
  • Every production run compounds differentiated data on workload shape, cold starts, failure modes, cache behavior, and policy outcomes across providers, which can make routing quality and audit posture improve faster than a single-provider runtime.
Strategic choices
Beachhead North American and European B2B software companies with 500-2,000 engineers, GitHub-centric CI, and a formal internal coding-agent rollout for backend teams that now generates enough PR and test volume to saturate runner capacity.
Wedge rationale An agent-only overflow execution pool creates faster proof than a full CI replacement because the buyer already feels a new burst problem, the deployment can sit beside existing workflows, and the security story is strongest when the workload is explicitly untrusted agent code rather than all software delivery.
Sequencing Start with BYOC, signed sandboxes, audit traces, and policy enforcement for CPU-heavy build and integration-test overflow because those controls answer procurement first and require less supply complexity than a broad multi-runtime platform. Add browser automation, limited GPU routing, and deeper provider optimization only after paid pilots prove that routing plus governance can clear security review and convert into recurring annual contracts.
Not yet Full CI/CD replacement for all developer jobs before the agent-only wedge converts repeatedly · General-purpose support-agent, data-agent, or back-office automation workloads before coding-agent execution is referenceable · Autonomous execution against production systems without explicit human and policy approval gates · A GPU-first product motion before pilot traces show that GPU-heavy workloads are material in the beachhead
Go-to-market
Wedge Sell an agent-only, policy-governed overflow pool that lets platform teams scale coding-agent adoption without rebuilding CI or asking security to trust a black-box sandbox vendor.
Channels Founder-led direct sales to VP Platform Engineering, head of AI platform, and developer productivity leaders at triggered target accounts · Design-partner pilots sourced through coding-agent adopters, platform-engineering networks, and reference-heavy outbound tied to CI saturation events · Integration and co-sell motions with coding-agent vendors, cloud marketplace listings, and selected security or DevOps consultancies once pilot proof exists
Funnel targets Target account→qualified discovery 15-25%, qualified discovery→paid pilot 20-30%, paid pilot→annual production 50%+, production→second workflow or team expansion 40%+ within 12 months.
Pricing Start with an 8-12 week paid pilot around $25k-$50k, then convert to an annual platform commitment plus usage-based billing on sandbox minutes and cache/storage, typically targeting $80k-$180k ARR in the beachhead because buyers are paying for governed throughput, auditability, and avoided spare-capacity spend rather than seats.
Product roadmap
MVP The MVP should support agent-triggered builds, integration tests, and selected browser checks as an overflow execution pool that plugs into an existing GitHub-centric workflow. It should include signed sandbox templates, policy configuration, short-lived credentialing, replayable execution traces, and routing across at least two approved CPU-oriented providers, while leaving human-authored CI and most production release logic untouched.
6 months Ship 2-3 paid BYOC pilots with GitHub-triggered agent-job interception, signed sandbox templates, audit logs, provider routing for CPU workloads, and cache reuse metrics that show queue-time and procurement value.
12 months Add browser automation support, VPC and static-egress options, policy templates for common enterprise controls, and limited GPU routing only for pilot accounts that show real demand, then convert at least 2 pilots into annual production contracts.
24 months Expand from agent-overflow execution into a broader governed runtime fabric for coding, evaluation, and adjacent internal agent workloads, with deeper routing intelligence, cross-provider benchmarking, and policy packs for regulated environments.
Key bets Overflow-only deployment converts faster than a rip-and-replace CI migration. · BYOC plus short-lived credentials is enough to clear early enterprise security review without a fully customer-hosted control plane. · Most early customer demand is CPU and browser heavy, allowing GPU support to follow after proof rather than drive the initial product. · Cross-provider routing and cache reuse can produce measurable queue-time or cost improvement over a single-provider baseline.
Business model
Revenue streams Annual platform subscription for policy engine, routing control plane, audit exports, and provider governance · Usage revenue on sandbox minutes, cache consumption, and premium burst capacity · Premium packages for BYOC deployment, compliance controls, and later private-network or regulated-environment features
Unit of value Policy-governed agent execution runs and sandbox minutes under management
Target gross margin 70%
Expansion levers More teams, repositories, and agent workflows inside the same customer · Premium controls for VPC attachment, static egress, provenance exports, and regulated deployment patterns · Expansion from coding-agent overflow into evaluation jobs, browser-heavy QA, and adjacent governed internal agent workloads
Strategy map
North-star metric Monthly agent-generated jobs executed in policy-approved sandboxes at production SLA
Input metrics Median queue-time reduction for agent-generated jobs · Pilot-to-production conversion rate · Percent of runs with complete provenance and policy evidence · Cache hit rate across routed workloads · Percent of production accounts using more than one approved provider · Expansion from first workflow to second workflow within 12 months
Moats to build Cross-provider telemetry graph covering cost, latency, failure rates, and cold-start behavior by workload class · Execution-trace dataset linking policy decisions, identity, provider choice, and audit outcomes · Reusable enterprise policy templates and onboarding patterns for agent-safe execution inside existing CI estates
Kill criteria If fewer than 3 of the first 10 qualified ICP accounts agree to a paid pilot for an overflow-only deployment, revisit the wedge or stop. · If the first 3 paid pilots fail to reduce agent-job queue time by at least 30% or cannot show a procurement advantage from BYOC and audit controls, pause expansion. · If more than half of pilot workloads require unsupported GPU, browser, or network features that materially change the architecture, narrow the ICP or re-sequence the roadmap.

Milestones

0–12 months
  • Complete 20 ICP and security interviews, secure 5-8 design partners, and narrow the first workflow to agent-generated build, integration-test, and browser-check overflow.
  • Ship a signed-sandbox MVP with BYOC deployment, policy controls, audit exports, and routing across at least two approved providers.
  • Close at least 2 paid pilots and convert at least 1 to an annual production contract.
  • Establish a documented provider scorecard and workload taxonomy that informs the CPU versus browser versus GPU roadmap.
12–24 months
  • Reach 8-12 production customers in the beachhead with deployment under 45 days and at least two referenceable security reviews.
  • Launch browser support, selective GPU routing where required, and repeatable policy packs for private-network and provenance-sensitive buyers.
  • Prove account expansion into second workflows, teams, or provider configurations inside existing customers.
24–36 months
  • Expand from coding-agent overflow into a broader governed runtime fabric for adjacent internal agent workloads.
  • Build a defensible routing and audit dataset that improves win rate, gross margin, and provider bargaining power.
  • Establish a category position as the neutral governance layer for enterprise agent execution rather than a point sandbox or runner vendor.
Strategy map
flowchart LR
  Wedge[Agent-only overflow wedge] --> MVP[Signed sandbox MVP]
  MVP --> Proof[Queue and audit proof]
  Proof --> Expansion[Broader governed runtime]

Founding team

Role Start timing Rationale
Founder/CEO Month 0 Own design-partner sales, pricing, procurement navigation, and partner development because the primary risk is ICP and budget validation.
Founding eng Month 0 Build the control plane, provider adapters, signed sandbox templates, and audit-trace pipeline required for pilots.
Security / platform engineer Month 3-6 Productize OIDC, policy controls, provenance exports, and BYOC deployment patterns so security review does not stay founder-custom.
Product / solutions engineer Month 6-9 Turn pilot integrations, workload instrumentation, and customer onboarding into repeatable deployment templates.
GTM lead Month 9-12 Scale outbound and partner motions only after the company has referenceable paid pilots and a credible conversion story.

Experiment roadmap

Horizon Experiment Hypothesis Success metric Owner
0–90 days Interview 15 target platform leaders and 5 security stakeholders at companies already rolling out coding agents. The first budget opens when agent-generated workloads create queueing and procurement friction, not when teams merely experiment with AI coding. At least 10 target accounts describe an active trigger and at least 5 agree to share runner, queue, or security-review data. Founder/CEO
0–90 days Run a concierge pilot simulation that packages one customer's agent-generated jobs into signed sandboxes and measures baseline-versus-routed queue time. An overflow-only deployment can produce visible throughput improvement without forcing workflow replacement. One design partner validates the workflow and shows at least a 20% queue-time improvement in simulation or controlled production traffic. Founding eng
0–90 days Test three procurement packages combining BYOC, audit exports, and short-lived credentialing with early design partners. Procurement will move fastest when the product is framed as a governed execution layer inside the customer's cloud boundaries. At least 3 prospects identify a preferred security package and none require unmanaged long-lived secrets. Founder/CEO
90–180 days Convert 2-3 design partners into paid BYOC pilots on one live agent-generated workflow. Platform teams will pay for one overflow workflow before they fund broader runtime standardization. At least 2 paid pilots signed at $25k+ each and at least 1 hits a 30% queue-time reduction target in live use. Founder/CEO
90–180 days Instrument workload traces by CPU, browser, GPU, network, and residency requirements across pilot accounts. The initial roadmap can stay focused if CPU and browser jobs represent the majority of high-value demand. A pilot dataset covering at least 1,000 jobs shows the dominant workload mix and informs whether GPU support remains deferred. Product/eng lead
180–360 days Launch production routing across at least two approved providers with shared cache policy and provider scorecards. Cross-provider telemetry and cache placement improve reliability and burst efficiency enough to drive conversion and expansion. At least 2 production customers use two providers and report a measurable performance, resilience, or cost benefit over their prior single-provider setup. Product/eng lead
180–360 days Test one integration or co-sell channel with a coding-agent vendor, security consultancy, or cloud marketplace. A partner motion can generate higher-intent pipeline after the first referenceable pilot proof exists. At least 3 qualified opportunities sourced through one repeatable partner motion. GTM lead

Risk assessment

Business plan risks — 4 mapped
Impact →
High
R1 R4
R2
Medium
R3
Low
Low
Medium
High
Likelihood →
  1. R1GitHub, Modal, Depot, or a hyperscaler bundles enough policy and burst-routing capability into existing products to shrink the broker wedge. · Mediumlikelihood / Highimpact — Focus on neutral cross-provider governance, existing-CI coexistence, and audit portability that single-provider offerings are structurally weaker at providing.
  2. R2Security teams reject a third-party routing layer even in BYOC mode because provenance, secrets, or network controls are seen as insufficient. · Highlikelihood / Highimpact — Lead with BYOC, short-lived credentials, explicit egress policy, replayable traces, and customer-requested proof artifacts from the first pilot cohort.
  3. R3The real early workload mix is too GPU-heavy, browser-heavy, or network-constrained for the planned MVP architecture. · Mediumlikelihood / Mediumimpact — Instrument pilot traces early, keep the ICP narrow, and defer broad promises until the workload taxonomy is measured rather than assumed.
  4. R4Platform teams optimize current GitHub or self-hosted runner setups instead of buying a new control layer. · Mediumlikelihood / Highimpact — Sell only into triggered accounts with visible queue and procurement pain, require paid pilots, and quantify ROI against both runner spend and security-review effort.
Risk Likelihood Impact Mitigation
GitHub, Modal, Depot, or a hyperscaler bundles enough policy and burst-routing capability into existing products to shrink the broker wedge. Medium High Focus on neutral cross-provider governance, existing-CI coexistence, and audit portability that single-provider offerings are structurally weaker at providing.
Security teams reject a third-party routing layer even in BYOC mode because provenance, secrets, or network controls are seen as insufficient. High High Lead with BYOC, short-lived credentials, explicit egress policy, replayable traces, and customer-requested proof artifacts from the first pilot cohort.
The real early workload mix is too GPU-heavy, browser-heavy, or network-constrained for the planned MVP architecture. Medium Medium Instrument pilot traces early, keep the ICP narrow, and defer broad promises until the workload taxonomy is measured rather than assumed.
Platform teams optimize current GitHub or self-hosted runner setups instead of buying a new control layer. Medium High Sell only into triggered accounts with visible queue and procurement pain, require paid pilots, and quantify ROI against both runner spend and security-review effort.
First customer
Title VP Platform Engineering at a 900-engineer vertical SaaS company
Profile A GitHub-centric B2B software company that has rolled out Claude Code or a similar internal coding agent to backend teams and now sees agent-generated PR checks and integration tests saturate release-week runner capacity.
Trigger An agent rollout expands from pilot to multiple teams and causes CI backlogs, cloud overages, or a security review over how generated code is executed.
Buyer VP Platform Engineering
Initial contract An 8-12 week paid BYOC pilot for one agent-generated workflow at about $25k-$50k, creditable toward an $80k-$180k annual production contract with usage-based overage once queue-time and audit targets are met.

What must be true

  • At least 30% of qualified beachhead accounts are willing to buy an agent-only overflow execution layer without replacing their existing CI stack.
  • The first 3 paid pilots can reduce median queue time for agent-generated jobs by at least 30% while maintaining complete execution traceability.
  • Security and procurement teams accept BYOC, short-lived credentials, and audit exports as sufficient control boundaries for third-party routing.
  • Most early workloads can be served by CPU and browser-oriented execution so the company can defer GPU-heavy architecture without missing the buying trigger.
  • At least half of paid pilots convert into annual contracts above $80k ARR because the product is seen as a control layer, not a commodity runner pool.

Open diligence questions

  • How often does the first buyer want overflow-only deployment versus a broader CI and sandbox migration?
  • What proof artifact most often unlocks procurement: attestation, network trace, secret-access log, or customer-cloud deployment?
  • Which workload classes dominate the first 90 days of usage: integration tests, browser checks, generated-code execution, or GPU jobs?
  • How much of the incumbent alternative is GitHub Actions optimization, a point sandbox vendor, or internal platform engineering?
  • Does the budget come from developer productivity, AI platform, cloud infrastructure, or security tooling in the first deal?
Investor verdict
Call Meet / investigate further
Conviction Strong why-now and a coherent enterprise wedge, but conviction depends on proving that buyers fund overflow governance before incumbents bundle it.
Why believe AI coding adoption is creating a real execution bottleneck, and the proposed product targets the specific gap between embedded CI, point sandboxes, and multi-provider governance.
Why doubt The company still has to show that a neutral broker can win budget and trust in a crowded category before GitHub, Modal, or hyperscalers close enough of the feature gap.
Next diligence Verify with paid BYOC pilots that overflow-only deployment shortens queue time, clears procurement, and converts into six-figure annual contracts.
Section

Financial model

3-year totals
Year 1 revenue $66K EBITDA $-920K · Cash EOP $2.28M
Year 2 revenue $865K EBITDA $-1.11M · Cash EOP $1.17M
Year 3 revenue $3.02M EBITDA $-283K · Cash EOP $883K
Unit economics
ARPU (annual) $153K
Gross margin 70%
CAC $64K Payback 7.2 months
LTV / CAC 9.9x LTV $636K
Funding ask
Round seed · $3.2M
Runway 18 months
Milestone Reach 8 production customers, 2 referenceable annual contracts, and repeatable BYOC security review artifacts by Q2Y2, then hold 6 months of buffer.

Model sanity

  • Revenue engine. Base-case revenue comes from growing from 4 paying accounts at Y1 exit to 30 by Q4Y3 while blended annual ARPU rises from pilot-equivalent $36K to $165K as contracts convert and expand.
  • Must go right. BYOC plus short-lived credentials must clear security review on time, because the sales-cycle sensitivity is the largest driver of both Y3 revenue and cash risk.
  • Model breaks if. The model gets stressed if procurement slips by a quarter and gross margin stalls near 65-68%, which pushes the cash low point toward zero before the next raise.
  • Next-round proof. The next financing is justified once the company reaches roughly 8-12 production customers with repeatable deployments, referenceable security reviews, and visible second-workflow expansion.
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 — $3.2M seed
Engineering · 43.8% GTM · 28.1% G&A · 12.5% Buffer (6 mo) · 15.6%
Headcount build by role — peak10 FTE
Q1Y12Q2Y13Q3Y14Q4Y15Q1Y25Q2Y25Q3Y25Q4Y28Q1Y38Q2Y38Q3Y38Q4Y310
  • Founder / CEO
  • Founding engineer
  • Security / platform engineer
  • Product / solutions engineer
  • GTM lead
  • Customer success / solutions architect
  • Account executive
  • Platform / infrastructure engineer
  • Senior engineer
  • Second GTM / AE
Year-3 scenarios — base / downside / upside
Y3 revenueY3 EBITDACash low pointDescription
Downside$2.10M-$830K$120KProcurement drags by one quarter and lower initial workload expansion caps the company at 22 customers by Q4Y3.
Base$3.02M-$283K$762KBase case ties hiring to proof points, reaches 12 customers by Q4Y2, and exits Y3 at 30 customers with $165K exit ARPU.
Upside$3.94M$180K$1.05MStronger queue-time ROI and partner-sourced pipeline accelerate expansion to 36 customers by Q4Y3.
Sensitivity — Y3 cash and revenue impact, sorted by magnitude
VariableDownsideUpsideCash impactRevenue impact
sales cycle9-month pilot-to-production cycle4-5 month pilot-to-production cycle-$480K-$620K
CAC$80K fully loaded CAC$55K fully loaded CAC-$410K-$180K
hiring paceAdd infra + GTM hires two quarters earlierDelay final GTM hire until Q1Y4-$255K$0K
ARPU$150K Y3 exit ARPU$175K Y3 exit ARPU-$225K-$302K
churn2.0% monthly logo churn1.0% monthly logo churn-$165K-$230K
gross margin65% Y3 gross margin72% Y3 gross margin-$151K$0K

Scenarios

Scenario Y3 revenue Y3 EBITDA Cash low point Description Key changes
Downside $2.10M $-830K $120K Procurement drags by one quarter and lower initial workload expansion caps the company at 22 customers by Q4Y3.
  • Y2 exits at 9 customers and Y3 exits at 22 instead of 30 because security review and procurement push conversions out by roughly one quarter.
  • Exit ARPU reaches only $145K instead of $165K as fewer accounts expand to a second workflow.
  • Gross margin tops out near 68% because browser and support-heavy jobs arrive before routing efficiency matures.
Base $3.02M $-283K $762K Base case ties hiring to proof points, reaches 12 customers by Q4Y2, and exits Y3 at 30 customers with $165K exit ARPU.
  • Customer count follows the modeled 4 -> 12 -> 30 ramp across Y1 to Y3.
  • ARPU climbs from pilot-equivalent pricing to $165K exit ARR per customer as annual contracts and usage revenue take hold.
  • Gross margin reaches 70% in Y3 while headcount grows only to 10 FTE by Q4Y3.
Upside $3.94M $180K $1.05M Stronger queue-time ROI and partner-sourced pipeline accelerate expansion to 36 customers by Q4Y3.
  • Y2 exits at 14 customers and Y3 exits at 36 as paid pilots convert faster and partner referrals improve win rate.
  • Exit ARPU reaches $175K as more accounts add a second workflow and premium controls.
  • Gross margin reaches 72% and the final GTM hire is delayed until the revenue base is clearer.

Sensitivity

Variable Downside Base Upside
ARPU $150K Y3 exit ARPU $165K Y3 exit ARPU $175K Y3 exit ARPU
CAC $80K fully loaded CAC $64K fully loaded CAC $55K fully loaded CAC
churn 2.0% monthly logo churn 1.4% monthly logo churn 1.0% monthly logo churn
sales cycle 9-month pilot-to-production cycle 6-month pilot-to-production cycle 4-5 month pilot-to-production cycle
gross margin 65% Y3 gross margin 70% Y3 gross margin 72% Y3 gross margin
hiring pace Add infra + GTM hires two quarters earlier Tie hires to customer-proof milestones Delay final GTM hire until Q1Y4
Key assumptions (18)
ID Name Value Unit Source
A1 Model start month 2026-06 YYYY-MM [BP date 2026-05-23] the model starts the month after the business-plan date so the seed round can fund the first hires.
A2 Opening cash from seed round 3200.0 USDK [BP fundingAsk.targetFundingRangeUsd $3-5M] base case uses a $3.2M seed, inside the stated range and sized to reach the first repeatable production milestone with a 6-month buffer.
A3 Customer unit in the model active paying enterprise account definition [BP investorMemo.firstCustomer.initialContract][BP market.som] customersEop counts paid pilot or production accounts; expansion is reflected through rising ARPU rather than separate seat counts.
A4 Starting customers (M1) 0 count [BP milestones 0–12 months] the company starts before any paid pilot is live.
A5 Y1 new paying customers by month [0, 0, 0, 0, 1, 0, 1, 0, 0, 1, 0, 1] count [BP product.sixMonth 2-3 paid BYOC pilots][BP milestones 0–12 months close at least 2 paid pilots and convert at least 1 to annual] base case lands four paying accounts across H2Y1 with one early production conversion embedded in the ARPU ramp.
A6 Y2 quarter-end customers [6, 8, 10, 12] customers EoP [BP milestones 12–24 months reach 8-12 production customers] base case exits Y2 at the top of the stated milestone range.
A7 Y3 quarter-end customers [15, 19, 24, 30] customers EoP [Research market.som 45 reachable year-3 customers][BP market.som $7.9M] base case ends Y3 at 30 customers, leaving room below the research SOM to stay conservative for a security-heavy enterprise sale.
A8 ARPU ladder Y1 annualized ARPU M5-M8 $36K, M9-M10 $48K, M11-M12 $60K; Y2 quarterly $90K, $100K, $110K, $120K; Y3 quarterly $135K, $145K, $155K, $165K annual USDK per customer [BP gtm.pricing paid pilot $25k-$50k and production $80k-$180k ARR][Research market.som about $176k average annual spend] pilots start near the midpoint and production contracts expand with usage, but the base case still exits below the research SOM ARPU.
A9 Revenue recognition policy average active customers in the period multiplied by annualized ARPU formula Startup-finance heuristic for enterprise pilots and production deployments that usually go live mid-period on average.
A10 Gross margin ramp Y1 paid months 45-55%; Y2 60%, 63%, 66%, 68%; Y3 69%, 70%, 70%, 70% gross margin percent [BP businessModel.targetGrossMarginPct 70][Research sensitivityCases runtime pricing compresses] early pilots carry support and provider-overhead drag before the model reaches the plan target around Y3.
A11 Loaded salary bands Founder 170; founding engineer 185; security/platform 180; product/solutions 165; GTM lead 180; customer success 140; account executive 190; platform/infra engineer 175; senior engineer 175; second GTM/AE 185 annual USDK per FTE [BP team roles] plus startup-finance heuristic for a U.S./Europe seed-stage infrastructure company including payroll tax and benefits load.
A12 Hire schedule Founder and founding engineer M1; security/platform engineer M4; product/solutions engineer M7; GTM lead M10; customer success M15; AE M18; platform/infra engineer M24; senior engineer M28; second GTM/AE M32 timing [BP team startTiming Month 0, Month 3-6, Month 6-9, Month 9-12] plus startup-finance heuristic that later hires wait for pilot proof and production conversion rather than front-loading cost.
A13 Payroll allocation policy Founder 60% S&M / 40% G&A; founding engineer 100% R&D; security/platform 90% R&D / 10% G&A; product/solutions 35% S&M / 50% R&D / 15% G&A; GTM and AE 100% S&M; customer success 60% S&M / 20% R&D / 20% G&A; infrastructure and senior engineers 100% R&D policy [BP gtm][BP operations][BP team rationales] reflects founder-led sales, implementation-heavy pilots, and a product-first org through Y2.
A14 Non-payroll operating expense ramp S&M $6K/mo in H1Y1 rising to $26K/mo in Q4Y3; R&D $12K/mo in H1Y1 rising to $32K/mo in Q4Y3; G&A $7K/mo in H1Y1 rising to $16K/mo in Q4Y3 USDK per month [BP operations][BP fundingAsk.useOfFundsSummary] plus startup-finance heuristic for cloud spend, sandbox-provider costs not in COGS, travel, legal, compliance, and enterprise onboarding tooling.
A15 Steady-state monthly churn 1.4 percent Startup-finance heuristic: annual infrastructure contracts with measurable queue-time ROI should retain well, but the new category and bundling risk keep churn above best-in-class infrastructure retention.
A16 Blended CAC per new customer 64.13 USDK Calculated from modeled Y2-Y3 sales and marketing spend of $1.667M divided by 26 new customers; consistent with a technical, founder-assisted enterprise sale.
A17 Funding sizing rule reach the next fundable milestone and hold six months of buffer policy [Developer instruction][BP fundingAsk.runwayMonths 18] the round is sized to reach 8 production customers, referenceable security reviews, and repeatable deployment before needing another raise.
A18 Cash flow simplification ending cash equals opening cash plus cumulative EBITDA formula Startup-finance heuristic: the model assumes negligible capex, debt service, taxes, and working-capital distortion at this stage.
unit economics flow
flowchart LR
  Leads[Triggered platform teams] --> Pilots[Paid BYOC pilots]
  Pilots --> Customers[Production customers]
  Customers --> Revenue[Subscription plus usage revenue]
  Revenue --> GrossProfit[Gross profit]
  GrossProfit --> Cash[Cash runway]

Flags: Y1 revenue is only $65.5K against $919.5K of EBITDA burn, so the company must stay disciplined until annual production contracts start compounding. · The rule-of-40 output looks exceptionally high because Y3 growth is measured off a sub-$1M Y2 base rather than mature scale. · The model assumes BYOC clears security review without forcing a customer-hosted control plane; if that fails, both sales cycle and services burden worsen materially.

Section

Top risks

  • Incumbent bundling. A cloud runtime vendor or hyperscaler could add enough policy and routing features to narrow the differentiation gap. Mitigation: Focus on neutral multi-provider governance, cross-vendor audit, and workload portability that single providers are structurally weak at offering.
  • Adoption pacing. If enterprises keep coding agents in limited pilots, workload volume may not justify a new runtime layer soon enough. Mitigation: Start with customers already seeing CI saturation and price around immediate queue-time and capacity savings instead of long-term transformation promises.
  • Security proof burden. Buyers may hesitate to trust a new intermediary with untrusted code execution and sensitive build contexts. Mitigation: Offer signed sandbox templates, strict secret-scoping, replayable traces, and third-party security attestations from the first design-partner deployments.
Section

Evidence

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