AGENT NATIVE · TEAM PROGRAM · SIX WEEKS, LIVE ONLINE · ONSITE INTENSIVE AVAILABLE
Make your engineering team agent-native in six weeks.
Twelve sessions, 36 facilitated hours, on your own backlog. Your team learns to specify outcomes, build environments coding agents can work in, verify results independently, and control what an agent can execute. It leaves with a change it shipped through an agent, a workflow that holds its permissions when the model is wrong, and the evidence to decide what to do next.
Teams that ship with coding agents, ship agents, or are about to do both.
Four team shapes book this program most. Each one arrives with a different problem and leaves with a different first deliverable, so the capstone variant and the transfer tasks are picked per team, not per catalogue.
Platform teams
Today
Every product team builds its own agent loop, tool wrappers and retry logic. Nothing is shared, nothing is observable across teams, and no repository is set up for an agent to work in.
After the program
A repository harness other teams can boot and verify, shared tool contracts with owners, and grader interfaces product teams build on instead of reinventing.
Harness · tools · evaluation
AI product teams
Today
The demo works and production does not. Cost and latency spike, quality regresses silently after a prompt change, and a confident model answer can trigger an action nobody authorised.
After the program
A controlled decision workflow that stays within its permissions when the model is wrong, a protected evaluation set, and a cost per accepted outcome the team can defend.
Policy · evals · economics
Forward-deployed teams
Today
Each customer deployment is bespoke. Hand-offs are undocumented and the same integration gets rebuilt for the next account.
After the program
Specification-driven changes with evidence packets, approvals bound to the exact action, and a repeatable pilot pattern for every new account.
Specs · approvals · pilots
Internal tooling and the CTO office
Today
Coding agents are used ad hoc, with no policy on what they may touch and no way to tell whether they help beyond a PR count.
After the program
Background coding agents in a bounded issue-to-review workflow, protected release conditions, and a 30, 60 and 90-day adoption plan with named owners.
Delivery · policy · adoption
[ 02 ]WHAT A GRADUATING TEAM CAN SHOW
Specify outcomes, create environments agents can work in, verify results independently, and control what can execute.
That is the whole program in one sentence. The differentiator is not a productivity multiplier we cannot prove. It is the quality of the work the team can demonstrate at the end, and every one of these five outcomes is demonstrated live, not asserted.
01A real change driven from a reviewed specification through a coding agent, with independent acceptance checks.
02A repository environment that agents can discover, boot, inspect and verify.
03A controlled decision workflow that stays within its permissions even when the model is wrong.
04A protected evaluation set and evidence for quality, failures, review burden and cost.
05A bounded pilot proposal with owners, rollback, and 30, 60 and 90-day decisions.
Two strands, one discipline
Engineering with agents
Coding agents inside your delivery process, with review gates and evidence.
Both strands share one engineering discipline: bounded authority and evidence of useful outcomes. The reference project connects them. Your engineers use coding agents to change an application, and the application contains a controlled agent workflow.
Twelve modules. Every lab has a seeded failure, and every session ends with evidence.
Each module is 180 minutes: 15 minutes retrieval and critique, 30 instruction, 15 demonstration, 90 lab, 30 evidence review. The lab changes are small enough to finish in the time. The starter already contains the environment, fixtures and infrastructure, so the session is spent on the engineering decision and its evidence, not on installing a platform.
M01Shared foundation
Agent-native work and evidence from the first hour
Choose between ordinary code, a fixed workflow and an agent, set a quality and effort baseline before changing anything, and make a runaway run stop on a budget.
Task selection and bounded autonomy
Outcome versus activity metrics
First code grader, trace and failure taxonomy
Step, time, tool and model-spend limits
Lab · Establish the baseline
Seeded failure · The model requests the same read tool again and again without reaching the task outcome.
M02Engineering with coding agents
Spec-driven delivery for new and existing systems
Write a proportionate change specification with acceptance examples and non-goals, and trace every requirement to a test, an implementation task and rollback evidence.
Problem framing and observable user outcomes
Lightweight bug contracts versus full feature specifications
Characterising existing behaviour and delta specifications
Spec Kit, OpenSpec and Kiro as optional workflow implementations
Lab · From ambiguous ticket to executable agreement
Seeded failure · A late constraint contradicts the first plan, and an acceptance test initially verifies the wrong behaviour.
M03Engineering with coding agents
Harness engineering and repository legibility
Build a repository entry point and environment an agent can discover, boot, inspect and verify, and turn a recurring architecture rule into a mechanical check.
Execution harness versus the surrounding engineering environment
Short repository maps, ownership and progressive context loading
Boot, build, test, browser and telemetry access
Structural checks, useful error messages and documentation maintenance
Lab · Repair the environment, then rerun the agent
Seeded failure · The agent follows a stale build command and imports a prohibited layer despite a prose rule.
Draws on: Agentic Software Factories
M04Shared foundation
Context, tools, skills and interoperability
Choose between direct functions, CLI tools, MCP and skills for a given integration, and design bounded tool contracts with task-relevant context retrieval.
Schemas, semantic validation, concise errors and pagination
MCP 2026-07-28 and an explicit legacy compatibility profile
Skills as packaged procedures; CLI and programmatic composition
Task-scoped retrieval, provenance, context budgets and progressive discovery
Lab · Give the agent a reliable verification tool
Seeded failure · A legacy client requests an unsupported extension, and an ambiguous tool argument points at another tenant.
M05Engineering with coding agents
Background coding agents and reviewable delivery
Run a bounded issue-to-review workflow in isolation, with an evidence packet a reviewer can trust and no way for the agent to change its own release conditions.
Isolated worktrees or environments and task-scoped credentials
Deterministic orchestration around agent steps
Fast local checks, CI feedback, review queues and repair limits
Preview, browser evidence, protected paths and ownership
Lab · Deliver a change with an evidence packet
Seeded failure · The agent tries to disable a failing test, or edit the CI policy, so that its own change passes.
Draws on: Agentic Software Factories
M06Engineering agent applications
Deterministic policy, semantic decisions and Jev
Separate semantic prediction from business logic and authorisation, compare a decision model against a rules baseline, and pick an abstention threshold from held-out evidence.
Code for exact facts; decision models for ambiguous input
Jev Choice, Score and Noul; confidence versus correctness
Versioned policy in ordinary code, CEL, OPA or Cedar
Calibration, asymmetric error costs, coverage and provider failure
Lab · A decision model inside a controlled workflow
Seeded failure · A plausible, high-confidence prediction suggests an action the authenticated principal cannot perform.
M07Shared foundation
Evaluation rigour, adversarial verification and test integrity
Tell scaffolding checks, capability evals, regression evals and production monitoring apart, report repeated runs honestly, and protect acceptance evidence from reward hacking.
End-state, trajectory and user-experience evidence
Development versus protected holdout sets
Human-calibrated judges, disagreement analysis and adversarial cases
Mutation tests, simulation fidelity and uncertainty reporting
Lab · Catch a convincing but incorrect success
Seeded failure · The builder learns the visible tests, weakens one assertion and persuades an uncalibrated judge to approve.
M08Engineering agent applications
Durable execution, state and memory
Resume a workflow without repeating consequential effects, and design approval expiry, reconciliation and deletion behaviour across a restart.
Recorded nondeterministic results and deterministic orchestration
Idempotency, retries, receipts, compensation and unknown outcomes
Memory provenance, TTL, scope and conflicting evidence
Version changes in paused runs
Lab · Crash after the effect
Seeded failure · A timeout leaves it unknown whether a credit was committed, and the next run also finds an expired approval.
Draws on: Agentic SaaS Playbook in 2026
M09Shared foundation
Security, identity and delegated authority
Threat-model data and authority across the whole tool path, and enforce action constraints independently of prompts and model-based detection.
Prompt injection, tool-output and memory poisoning
Principal, agent, workload and tenant identity
Sandbox and egress boundaries; secret and skill supply chains
Risk-based review, immutable evidence, incident response and current OWASP mappings
Lab · Keep the useful action; block the injected one
Seeded failure · A valid approval is replayed for altered arguments, and a forged tool result claims elevated privileges.
Draws on: OpenClaw Agents: Automate and Scale Operations
M10Shared foundation
Orchestration, routing and economics
Choose single-agent, parallel-worker or coordinator patterns from measured need, bound aggregate spend, and prove whether an extra agent earns its cost.
Decomposition and dependency-aware execution
Isolated workers, result contracts and integration ownership
Budget reservations, cancellation and fan-out limits
Model routing, caching, escalation and cost per accepted outcome
Lab · Prove that the extra agent earns its cost
Seeded failure · Parallel workers each assume they own the full budget and propose conflicting edits to the same file.
M11Team delivery and operations
Production adoption and the engineering operating model
Design a staged rollout with stop conditions, measure team outcomes without mistaking generated code or token use for productivity, and assign enduring ownership.
Shadow mode, limited pilots, canaries, rollback and drift
Observable run metadata and versioned OTel mapping
Review load, rework, lead time and quality-adjusted economics
Platform versus product ownership and 30, 60 and 90-day adoption
Lab · Make the launch decision
Seeded failure · PR counts double while review queues and escaped defects grow, and a moving model alias changes behaviour.
Draws on: AgentOps: The Playbook For Businesses
M12Integrated assessment
Capstone defence and transfer to the team's work
Deliver a bounded change through a documented agent workflow with independent acceptance evidence, defend a decision boundary against an unseen failure, and hand over a pilot plan.
Live acceptance demonstration
Unseen failure and change request
Individual technical defence
Evidence-based rollout decision
Lab · Ship the evidence, defend the decisions
Seeded failure · The assessor picks an unseen combination of authorisation, stale context, changed spec or partial failure.
The six weeks
Two modules a week, then one application to the team's own work before the next pair.
Week
Sessions
Team application
01
M01 Baselines; M02 Specifications
Select and specify the team's bounded backlog change.
02
M03 Harnesses; M04 Tools and context
Make the selected repository reproducible and agent-readable.
03
M05 Background delivery; M06 Policy and Jev
Produce a supervised change and a controlled decision workflow.
04
M07 Evaluation rigour; M08 Durable state
Challenge the implementation and test recovery.
05
M09 Security; M10 Orchestration economics
Exercise authority boundaries and compare operating choices.
06
M11 Adoption; M12 Capstone defence
Make an evidence-based limited-pilot decision.
Capstone
Capstone: one variant, one standard, defended live
A team chooses one variant before the program starts. All four keep the same verification and authority standard. Company code is welcome but optional: the reference project is a valid substitute when access restrictions would slow the team down. In session twelve the team demonstrates the change and the workflow, answers an unseen challenge without weakening its protected acceptance criteria, and every engineer explains one decision and diagnoses an unfamiliar trace.
Session twelve runs as 15 minutes briefing, 90 challenge work, 45 demonstrations and defences, 30 handover. With more than four capstone teams we add an assessment session or a second assessor.
Four variants, one standard
Product feature
Product engineering
Specify and deliver a real feature, verify its user behaviour, and exercise the reference controlled workflow.
Brownfield repair or migration
Platform and mature application teams
Characterise existing behaviour, make a bounded change, and demonstrate compatibility and rollback.
Agent application
Teams shipping agent features
Implement a useful tool or decision workflow with evaluation, authority checks and recovery, and show how coding agents delivered a change.
Delivery automation
Teams without an AI product
Classify or triage change requests while deterministic policy owns protected paths, permissions and release decisions.
Six weeks for the whole curriculum. Three days or twelve hours for a smaller, honest outcome.
The flagship is the program. The two shorter formats exist for teams that need a start now, and each states exactly what it does and does not cover. All three are scoped and quoted per cohort after an intake call, not per seat.
36h
THE PROGRAM
Six-week team program
6 WEEKS, 12 SESSIONS, 36 FACILITATED HOURS
Twelve 180-minute sessions over six weeks, two a week, so the team applies each week's modules to its own work before the next session. Every session is short instruction, a long lab, and a review of the evidence the lab produced.
FORMAT
8-16 ENGINEERS, WORKING IN PAIRS · LIVE ONLINE, YOUR TIMEZONE
Twelve live sessions of 180 minutes, two per week for six weeks
About three hours of pre-work: environment check, vocabulary, constraints and one candidate change
12-18 hours of guided application to your own backlog between sessions
A second facilitator for teams above eight
Team capstone with an instructor-held challenge, and an individual defence per engineer
Assessment against the published rubric, with a written competency profile for the team
Decision reviews at 30, 60 and 90 days after the last session
Honest outcome
All twelve modules, the team capstone and an individual defence for every engineer.
Quoted per cohort · Invoice on booking · PO accepted
18h
Onsite intensive
3 CONSECUTIVE DAYS, 18 FACILITATED HOURS
Three consecutive days at your office, 18 facilitated hours. It covers the accelerator's four blocks, adds the recovery and security labs, and ends with a supervised change from your own backlog. The full competency assessment needs additional application time afterwards.
FORMAT
8-16 ENGINEERS, WORKING IN PAIRS · AT YOUR OFFICE
Three consecutive days at your office, 18 facilitated hours
Baseline and specification, then harness and independent verification
Deterministic policy plus the semantic-decision comparison exercise
Recovery and security labs: crash after the effect; keep the useful action, block the injected one
A supervised change from your own backlog, delivered with a review packet
Pilot proposal with owners, rollback and 30, 60 and 90-day decisions
Honest outcome
The accelerator plus deeper recovery and security work and a supervised backlog change. Additional application time is required for the full competency assessment.
Quoted per cohort · Invoice on booking · PO accepted
12h
Team accelerator
12 FACILITATED HOURS, FOUR BLOCKS
Twelve facilitated hours in four blocks: baseline plus specification, harness plus independent verification, deterministic policy plus the semantic-decision comparison, and bounded delivery plus a pilot decision. It uses substantial scaffolding and does not cover the full flagship competencies.
FORMAT
8-16 ENGINEERS, WORKING IN PAIRS · LIVE ONLINE, YOUR TIMEZONE
Block 1: baseline plus specification
Block 2: harness plus independent verification
Block 3: deterministic policy plus the Jev comparison exercise
Block 4: bounded delivery plus a pilot decision
Starter repository and fixtures prepared for every lab
A pilot proposal the team can take to leadership
Honest outcome
A specification, a repository harness improvement, a controlled workflow exercise and a baseline plus pilot proposal, with substantial scaffolding.
Quoted per cohort · Invoice on booking · PO accepted
SIX-WEEK TEAM PROGRAM
36 facilitated hours
6 weeks, 12 sessions, 36 facilitated hours
ONSITE INTENSIVE
18 facilitated hours
3 consecutive days, 18 facilitated hours
TEAM ACCELERATOR
12 facilitated hours
12 facilitated hours, four blocks
Best fit
The full curriculum, applied to your own backlog week by week
Three days at your office for a team that needs a supervised change now
Four curated blocks for a team that wants the core moves fast
Time
6 weeks, 12 sessions, 36 facilitated hours
3 consecutive days, 18 facilitated hours
12 facilitated hours, four blocks
Sessions
12 x 180 minutes, two per week
3 x 6 hours, consecutive days
4 x 3 hours, scheduled to suit the team
Where
Live online, your timezone
At your office
Live online, your timezone
Group
8-16 engineers, working in pairs
8-16 engineers, working in pairs
8-16 engineers, working in pairs
Capstone
The full capstone: one of four variants, defended against an unseen failure case in session twelve.
A supervised backlog change with an evidence packet, in your environment and under NDA.
A controlled workflow exercise on the reference project, not a full capstone.
Individual defence
Competency assessment
Full assessment against the rubric
Partial; completed with additional application time
Not included; the accelerator is scoped smaller
After the last session
30, 60 and 90-day decision reviews
Written pilot proposal and a 30-day check-in
Written pilot proposal
Leadership briefing
90 MINUTES
Decisions on task selection, ownership, review capacity, investment and the evidence a rollout should produce. For the leaders who will sponsor the program, or for a leadership team that has to decide what to fund.
Before a program, or on its own
Enterprise extension
6-12 ADDITIONAL FACILITATED HOURS
Chosen after intake: identity integration, fleet migrations, evidence retention or organisation-specific governance. Extends the flagship for teams inside a defined trust boundary.
Added to the flagship program
[ 05 ]STARTUP TO ENTERPRISE
Same quality bar, different first scope.
Headcounts are planning heuristics. Risk, coupling, existing platform capability and review capacity matter more than organisation size. A startup may simplify infrastructure; it does not get to skip authorisation, independent verification or accountability. Enterprise requirements are an extension of the same executable controls.
Design choice
Startup, roughly 2-10 engineers
Growth organisation, roughly 11-100
Enterprise, roughly 100+
First scope
One repo, one useful task class
Reusable workflow across two teams
Representative pilot within a defined trust boundary
Harness
Existing coding agent, scripts and CI
Shared starter environments and verifier interfaces
Multiple build systems, controlled environments and fleet inventory
Specifications
Short change contracts
Interface owners and dependency agreements
Migration stages, compatibility and policy ownership
Policy
Small, explicit code functions
Versioned rules and shadow rollout
Independent policy administration and enforcement
Evaluation
Small representative set with disclosed limits
Domain-owned labels and shared grader interfaces
Protected evaluation administration, workload strata and assurance evidence
Ownership
A lead may hold several roles
Small enabling team plus product owners
Federated product ownership, centralised identity and policy distribution
Adoption
One bounded pilot with a rollback route
Expand after a second team can reproduce the result
Expand in waves with auditable change control
Avoid
Building a platform before a workflow works
A template that nobody maintains
A central approval queue for every harmless agent step
[ 06 ]ASSESSMENT
A published rubric, an unseen challenge, and a credential that says exactly what it means.
Each dimension is scored 0-4: absent, asserted, partly demonstrated, demonstrated and reproducible in the stated environment, or demonstrated under the assessment challenge with clear limits and maintenance ownership.
Dimension
Weight
Evidence
Specification and traceability
15
Requirement-to-test-to-artifact links; explicit non-goals and decisions
Harness and reviewable delivery
15
Reproducible environment, bounded job, protected checks and review packet
Independent verification
20
Hidden behavioural challenge, useful failure analysis and an honest evaluation report
Policy, identity and security
15
Enforcement independent of model output; valid approval and scope checks
Recovery and state
10
Crash and timeout handling, reconciliation and current authorisation
Operations and economics
10
Versioned run evidence, meaningful costs, stop conditions and rollback
Individual understanding and transfer
15
Each learner diagnoses an unfamiliar trace; owner and pilot plan are explicit
Total
100
Weighted score is the sum of weight times dimension score over four
Pass rule
A pass is 75 out of 100, with at least 3 of 4 in independent verification and in policy and security, and a successful individual defence. Tampering with protected acceptance criteria, unauthorised execution or fabricated evidence is a critical failure regardless of the average. Remediation and reassessment are available.
What the credential says
The credential says demonstrated course competencies. It does not claim production certification, professional licensure or a measured improvement in your business results.
Evidence modes
Every result is labelled with its evidence mode: deterministic contract and replay, live task evaluation, independent behavioural check, or limited production observation. Fixture-only participation earns completion evidence; the full competency credential needs a supervised live coding-agent task and independent functional evidence.
[ 07 ]HOW IT WORKS
From an intake call to a pilot decision in five steps.
Pre-work is about three hours per engineer. The six-week team program adds 12-18 hours of application to the team's own work between sessions; that application is where the transfer happens, so it is scheduled, not hoped for.
01
Intake call
30 minutes with the engineering lead. We confirm the team, the format, candidate dates, the capstone variant and what should be true 90 days after the program. You get a written proposal within one business day.
02
Pre-work
About three hours per participant: an environment check, Git, testing and agent-loop vocabulary, data and provider constraints, and one candidate change from the backlog. A short foundation bridge is offered to engineers without model or API experience.
03
Sessions
Twelve 180-minute sessions over six weeks, two a week. Each one is 15 minutes of retrieval and critique, 30 of instruction, 15 of demonstration, 90 of lab and 30 of evidence review. Between sessions the team applies the modules to its own work, 12-18 hours in total.
04
Capstone and defence
Session twelve. The team demonstrates its change and workflow, answers an unseen challenge without weakening its protected acceptance criteria, and every engineer defends one decision and diagnoses an unfamiliar trace. Scored against the published rubric.
05
30, 60 and 90 days
Decision reviews after the last session: continue, narrow or stop the pilot at day 30; expand only if quality and operational burden hold at day 60; continue, change or retire the investment at day 90.
Decisions after the program
Proposed follow-up reviews. Each one looks for specific evidence and ends in a decision, including the decision to stop.
When
Evidence sought
Decision
End of program
Capstone artifacts and the individual defences
Is the team ready for the proposed limited pilot?
Day 30
One workflow used in the team's environment; observed failures and review effort
Continue, narrow or stop the pilot
Day 60
Repeatability, ownership and a second task class or adopting team where justified
Expand only if quality and operational burden remain acceptable
Day 90
Outcomes, total cost, incidents and maintained controls
Continue the investment, change the approach or retire it
[ 08 ]ELECTIVES
After the common foundation, only where there is a real need.
Each elective has an entry condition. If the team does not meet it, the elective is not sold. An emerging topic becomes a core requirement only when it solves a recurring learner problem, can be evaluated, has a usable fallback and can be taught in the time available.
Local and open-weight inference
Entry · Residency, offline or volume requirement
Outcome · A local-versus-hosted quality and total-cost comparison
Cross-agent interoperability with A2A
Entry · A real independent-agent boundary
Outcome · A versioned interaction contract with authentication and failure handling
Programmatic tool execution
Entry · Large tool catalogue or expensive intermediate context
Outcome · Measured benefit while preserving sandbox and authorisation boundaries
Enterprise identity and ACS mapping
Entry · Existing identity and policy architecture
Outcome · A runtime control map and an experimentally validated adapter
Large migrations
Entry · Existing service inventory and lineage
Outcome · A scoped rollout with dependency-aware verification
Self-improving harnesses
Entry · Stable evals and protected policies
Outcome · A proposed harness change evaluated on untouched cases and reviewed before adoption
[ 09 ]FAQ
Who is this for?
Engineering teams inside companies, from startups to enterprises, that are shipping with coding agents, shipping agent features, or about to do both: platform teams, AI product teams, forward-deployed and solutions teams, internal tooling teams and the CTO office. It is company-sponsored team training. We do not run open-enrolment cohorts for individuals.
What does the team actually leave with?
Five things it can demonstrate: a real change driven from a reviewed specification through a coding agent with independent acceptance checks; a repository environment agents can discover, boot, inspect and verify; a controlled decision workflow that stays within its permissions when the model is wrong; a protected evaluation set with evidence for quality, failures, review burden and cost; and a bounded pilot proposal with owners, rollback and 30, 60 and 90-day decisions.
Do we need prior LLM experience?
No machine-learning background is assumed. Participants should be able to read and modify a small service and use Git and tests. Engineers without model or API experience get a short foundation bridge before session one. Labs run in Python and TypeScript, and the team picks its track.
Six weeks, three days or twelve hours: which should we pick?
The six-week program is the full curriculum: twelve modules, the team capstone and an individual defence, applied to your own backlog week by week. The onsite intensive is three days at your office: the accelerator's four blocks plus the recovery and security labs and a supervised change from your backlog, with the full competency assessment completed through additional application time. The team accelerator is twelve facilitated hours in four blocks with substantial scaffolding; it produces a specification, a harness improvement, a controlled workflow exercise and a pilot proposal, and it is deliberately not sold as covering the flagship competencies.
How many people can join, and how do they work?
Eight to sixteen engineers, in pairs, with a second facilitator above eight. Pairs rotate driver, reviewer and incident-diagnosis roles, and every learner has to explain and challenge an agent's work rather than submit its output. Materials are keyboard-accessible, sessions have captions and transcripts, and there are alternatives to live camera participation.
Do you work on our codebase?
Your code is welcome and optional. The capstone has four variants, chosen before the program: a product feature, a brownfield repair or migration, an agent application, or delivery automation for teams whose product contains no AI. Labs run on a reference project, a small SaaS service with tickets, tenant-scoped users and a credit ledger, and the reference project is a valid capstone substitute when access restrictions would slow the team down. Work on your own systems stays in your environment, under NDA.
How is the team assessed, and what does the credential say?
The capstone is scored 0-4 on seven weighted dimensions: specification and traceability, harness and reviewable delivery, independent verification, policy and security, recovery and state, operations and economics, and individual understanding. A pass is 75 of 100 with at least 3 of 4 in independent verification and in policy and security, plus a successful individual defence. The credential says demonstrated course competencies. It does not claim production certification, licensure or a measured business result.
Will this make the team ten times faster?
We do not make that claim, because the evidence does not support it. The program teaches the team to measure what matters: accepted outcomes, review and correction effort, rework, escaped defects, unauthorised-action attempts, and all-in cost per accepted outcome including failed attempts. A no-change decision can be the right result, and the day 30, 60 and 90 reviews are designed to tell you honestly whether to continue.
How current is the material?
The curriculum was refreshed against public engineering accounts and specifications with a research cutoff of 26 September 2026: the final MCP release of 28 July 2026, the 2026 OWASP LLM and agentic resources, Spec Kit, OpenSpec and Kiro, and Jev as the current case study for semantic decisions inside deterministic control flow. Every module and source has an owner, there is a monthly editorial review, and a technical freeze at least 14 days before each delivery pins a runnable release with a change log.
How do pricing and invoicing work?
Pricing is per cohort, not per seat, and is quoted after the intake call in EUR plus VAT where applicable. We invoice on booking and accept purchase orders. Travel for the onsite intensive is billed at cost.
What if we need more, or less, than a program?
A 90-minute leadership briefing covers task selection, ownership, review capacity, investment and rollout evidence, before a program or on its own. An enterprise extension adds six to twelve facilitated hours after intake for identity integration, fleet migrations, evidence retention or organisation-specific governance. After the program, the Software Factory builds and runs agent workflows with your team, and the pilot proposal is scoped so it can pick that up.
[ 10 ]REQUEST A PROPOSAL
Tell us about the team. We reply within one business day.
The more you say about what the team is building, which capstone variant fits, and what should be true 90 days after the program, the more specific the proposal. Three lines is enough to start.
What happens after you submit
01You get a confirmation email straight away, and a written proposal with dates and a recommended format within one business day.
02If it looks like a fit, we hold a 30-minute intake call with the engineering lead.
03Booking is confirmed on invoice, and pre-work goes out to the team two weeks before session one.
We use what you submit to reply to this request and prepare a proposal. We only send marketing email if you tick the box above, and you can unsubscribe from it at any time. See Terms and Privacy.
Ready when your team is
Six weeks now beats a year of every team learning it alone.
Request a proposal and we will come back with dates, a format recommendation and a capstone suggestion. Or book a call and we will tell you straight if a program is not the right next step.