Head / Director of Engineering · Applied AI Leadership

I can lead your organisation’s AI engineering transformation.

I help engineering organisations turn AI adoption into a dependable way of delivering software. I bring the leadership to change team practices, the technical depth to connect agents with complex platforms, and experience taking a governed AI-DLC workflow through to production releases with human approval.

Strategy
to use cases
Build
with guardrails
Measure
and improve
Deploy
and enable
People
Process
AI
Outcomes
Sustainable
AI impact
at scale

At a glance

AI transformation, from discovery to delivery.

Engineering challenge
Turn individual AI use into a repeatable delivery practice across teams and complex platforms.
My leadership decisions
Discover useful work, build reusable skills, define MCP context needs and establish specialist agents for backend and platform development.
Experience I bring
An operating L3 AI-DLC workflow spanning specialist-agent development, testing and independent validation through to production releases with human approval. L4 implementation is underway.
What you can hire me to lead
AI engineering leadership or a transformation contract connecting team adoption, system context, specialist agents and governed delivery.

02 / AI engineering transformation

Transform the organisation.
Not just the tools.

I can help you choose where AI belongs, prepare the context and platform foundations, and change how your teams plan, implement and verify software. The goal is organisational capability: clear ownership, reusable practices and controlled delivery, not simply more AI-generated code.

Experience behind the capability

From discovering useful work to changing how it is delivered.

I bring experience across the transformation, beyond the choice of AI tools. These are the decisions I have led, from discovering useful work to establishing specialist-agent development and delivery automation.

  1. 01Use-case discovery

    Discover use cases. Build reusable skills.

    I started by discovering where AI could support engineering work and developing reusable skills around those use cases.

    My leadership decision

    Start with the work to be done, then define the skills that support it. A tool rollout alone is not enough.

  2. 02Context foundations

    Identify the context. Define MCP needs.

    I identified the MCP servers needed to feed agents the relevant context for those skills and use cases.

    My leadership decision

    Make context requirements explicit before expanding what agents are asked to do. MCP means Model Context Protocol.

  3. 03Development practice

    Require specialised development subagents.

    I began requiring specialised subagents for different areas of development, including backend and platform engineering.

    My leadership decision

    Move from general-purpose assistance to area-specific agent responsibilities within the development process.

  4. 04L3 operating · L4 underway

    Automate delivery through AI-DLC.

    I established an L3 AI-DLC workflow spanning specialist-agent development, testing and independent validation through to production releases with human approval. L4 implementation is underway.

    My leadership decision

    Bring specialist agent work into an operating delivery workflow, then build the next layer of automation on that foundation.

Experience to build onMy operating L3 AI-DLC workflow supports production releases with human approval. I bring that experience to defining the transformation path for your team and systems, with L4 implementation underway.

The organisational scope I can lead

01

People & leadership

Define engineering responsibilities, coach managers and teams, and build shared ownership across product, development, QA, security and operations. Transformation must change how people collaborate, not only which tools they use.

02

The delivery operating model

Connect intent, planning, implementation, verification and release through shared context and clear decision rights. Replace disconnected AI activity with repeatable, accountable ways of working.

03

Platforms & engineering foundations

Make repositories, service contracts, environments, permissions and recovery paths usable for controlled agent work. Distributed-system complexity is part of the transformation and must be understood by the agents.

04

Governance, adoption & value

Establish risk boundaries, evidence gates and cost ownership. Lead a bounded pilot, enable the teams, expand what works and measure accepted outcomes, stability, rework and operating effort.

Maturity journeyHow the team’s operating model evolves.

Delivery workflowHow each change is planned, validated and released.

The framework below helps shape a transformation mandate for your organisation. Select a stage to review its leadership actions, controls and progression criteria. It is a planning lens, not an independently assessed maturity rating.

From personal tool adoption to a shared engineering baseline.

Leadership work
Assess where AI is used, where the team loses time, and what work is unsafe to automate. Agree approved tools, data boundaries, ownership and baseline delivery measures.
Controls and ownership
Existing code review and CI remain in place. Protect credentials and private data, and make responsibility for generated changes explicit.
Evidence before progression
A baseline of lead time, review effort, escaped defects and operating cost, plus a bounded pilot with an accountable owner.

The boundaryAdoption and generated code volume are activity measures, not proof of better delivery.

My transformation playbook

Lead adoption from mandate to operating practice.

Align the organisation around a real business constraint, establish the foundation, prove the workflow and grow adoption where the evidence supports it.

  1. 01

    Assess the starting point

    Map tools, hand-offs, system constraints and team readiness. A company can have different maturity across teams and kinds of work.

  2. 02

    Prove one bounded workflow

    Choose a useful change with a baseline, a sponsor and acceptance criteria. Establish context, validation and recovery before increasing scope.

  3. 03

    Change the operating model

    Clarify roles, review capacity, permissions and release ownership. Coach the team and keep product, security and operations involved.

  4. 04

    Scale the pattern, not the hype

    Expand where evidence supports it. Compare accepted outcomes, rework, stability and full cost; keep autonomy limited where the controls are not ready.

Platform ownership is the foundation, not a separate story.

Agents working across services need understandable contracts, data ownership, permissions, environments and recovery paths. My ownership of a three-brand distributed platform grounds this transformation approach in real engineering complexity, not only agent tooling.

Explore the platform case study ↗Continue to the delivery workflow ↓

03 / Operating model

AI needs an operating model.

A useful agent can complete a task. A delivery system must also control context, permissions, validation, deployment, QA, and the final decision.

01

Governed context

The right repository knowledge, commands, and permissions reach the right agent.

02

Independent validation

The agent that changes code never approves its own work.

03

Controlled deployment

Every release returns test, security, deployment, and rollback evidence.

04

Evidence-based decisions

Human authority remains explicit at the final decision gate.

Evidence

Designed for a 30-repository engineering landscape

One cloud workspace. Clear role boundaries. Human authority at the decision gate.

04 / Delivery roadmap

A practical path from assisted coding to governed delivery.

A focused path to real outcomes, with clear separation of agent execution and human judgment at every stage.

Exit evidence

One governed cloud workspace with versioned context and approved commands.

The principle

Agents execute. Humans set intent, risk, and the final GO / NO-GO.

Explore the architecture

Conceptual architecture

No agent approves its own output.

Intent and risk determine the approved context for a bounded implementation role. A separate validator returns PASS, FAIL, or ESCALATE with evidence. An accountable person keeps the final release decision.

  1. 01Intent
  2. 02Classify risk
  3. 03Approve context
  4. 04Implement
  5. 05Validate independently
  6. 06Deploy + evidence
  7. 07Human GO / NO-GO
PASSFAIL WITH EVIDENCEESCALATE

05 / Delivery records

Records that make delivery reviewable.

The workflow I can establish makes intent, risk and release decisions reviewable. A delivery contract, risk classification and traceable evidence record give engineering, security and business stakeholders a shared basis for deciding what can move forward.

01

Delivery contract

Versioned intent, approved context, permissions, acceptance criteria and an accountable human owner.

Requirement · context · permissions · owner
02

Risk classification

A change-level decision about autonomy, validation depth, escalation and release authority.

Risk tier · controls · validator · decision gate
03

Evidence record

One trace from requirement through implementation, independent verdict, deployment and rollback proof.

Tests · evaluation · security · deploy · rollback
Portfolio source

The public source includes the Docker build, Cloudflare Worker configuration, Terraform and this portfolio. It is not the implementation source for the organisation’s AI delivery automation.

View source repository

06 / Direct answers

Questions an AI delivery leader should be able to answer.

Clear definitions make the operating model easier to review, compare and challenge.

01

What is AI-DLC?

AI-DLC is a human-led operating model for using AI across software delivery. It separates implementation from independent validation and keeps deployment authority, audit evidence and risk acceptance with accountable people.

02

How is AI-DLC different from a traditional SDLC?

It extends the existing SDLC with governed AI context, generated-change provenance, model and prompt evaluation, independent validation and explicit decision gates. The engineering lifecycle remains; the controls expand for AI-assisted work.

03

Where does human validation happen?

People define intent and risk boundaries, approve the plan, review independent validation evidence and authorize release. Agents can execute bounded work, but they do not approve their own output or make the final GO / NO-GO decision.

04

What delivery evidence does AI-DLC produce?

Each change should connect the requirement, implementation, tests, evaluations, security results, reviewer verdict, deployment result and rollback path. That evidence makes speed auditable rather than anecdotal.

05

How should a company start?

Start with a bounded pilot, baseline lead time and defect measures, define approved context and permissions, separate implementation from validation, then compare evidence before deciding what should scale.

07 / Leadership conversation

If AI is entering your SDLC, I can lead the system around it.

Let’s discuss a permanent engineering or Applied AI leadership role, or a contract to lead your transformation. Based in Switzerland, open to remote teams across Europe. Tell me the delivery challenge, platform complexity and team mandate you need someone to own.

Your leadership prioritySelect the mandate that matters most
Review the evidence