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Engineering Leader Technology Strategist Systems Thinker

Engineering leader delivering complex technology systems at global scale — spanning software, electronics, telecommunications, and industrial platforms.

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CEng Chartered Engineer
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01

About Me

Chartered engineer and technical leader. I build and lead engineering organisations that deliver complex, safety-critical systems — from prototype to production, at scale, across seven industries and four continents.

My career has been defined less by titles and more by interfaces — where hardware meets software, where prototypes become products, where quality and safety matter, and where systems must work reliably in the real world. I've worked hands-on and at leadership level across the full lifecycle: from early concept and design, through development and certification, into manufacturing, deployment, and long-term operation.

I hold a BEng (Hons) in Digital Systems Engineering and an MSc (Oxon) in Software Engineering from the University of Oxford. That combination — formal grounding in both hardware and software — has shaped the way I think about systems ever since.

Professionally, I've led engineering teams delivering complex, regulated, and high-consequence systems across telecommunications, safety and life-critical products, industrial control, energy infrastructure, and modern sensor-driven platforms. I've worked directly with standards bodies, certification authorities, manufacturing partners, and global customers, translating requirements into dependable engineering outcomes.

What connects everything I've done is a persistent curiosity about how things work, and a drive to understand systems deeply enough to improve them. I remain as curious and hands-on now as at any point in my career — still learning, still building, still experimenting.

I specialise in environments where software, electronics, communications, and physical engineering intersect — exactly where many organisations struggle, and where integrated systems thinking creates the greatest value. At my best as CTO, Engineering Director, or Technical Strategist: shaping architecture, culture, and long-term technology direction.
Ian P Stokes
🎓 MSc (Oxon) Software Engineering
🎓 BEng (Hons) Digital Systems Engineering
⚙️ Chartered Engineer (CEng MIET)
📍 Bristol, United Kingdom
Download CV (PDF)
01.5

Career Impact

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Homes powered by DolWin3
North Sea offshore wind transmission connecting to mainland Europe via GE HVDC
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Engineers led
Scaled from 6 to 88 engineers across Malvern Panalytical's NanoMaterials Group
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Concurrent projects
Engineering programmes under simultaneous management at peak — Capgemini
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Agile coaches trained
Scrum Masters and coaches trained across global engineering organisations at Motorola
🏅
Beijing Olympics 2008
Motorola GSM communications infrastructure for the Games — managing half-city network coverage
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Hinkley Point C
Safety-critical software for the UK's next-generation nuclear power station
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$150K Microsoft funding
Secured for cloud infrastructure build-out of an IoT industrial sensor platform
Current Focus

Industrial IoT & Technology Strategy

Today my work sits at the intersection of embedded sensing systems, cloud infrastructure, and predictive analytics for industrial asset integrity — bringing the architecture, process maturity, and systems thinking that scales early-stage technology into deployable, production-ready platforms trusted by global energy majors.

Industrial IoT Embedded Sensing Cloud Architecture Predictive Maintenance Technology Strategy
02

Engineering Story

The Origins of My Engineering Mindset

Engineering has never been just a profession for me. It has always been part of my life.

I grew up surrounded by people who built, repaired, and understood how things worked. Engineering thinking was simply part of everyday conversation. My grandfathers, uncles, and father all had practical engineering instincts, and that environment shaped the way I approach problems today.

One of my grandfathers was a patent engineer — responsible for building the first prototypes of new ideas, long before they became finished products. He challenged my thinking from a young age, and conversations with him made me start seeing the world differently: not just looking at objects, but asking how they worked and why they were designed that way. He introduced me to photography, electronics, technology, and one of the earliest home computers I ever saw.

My father never had a formal engineering degree, but possessed remarkable practical wisdom and professional discipline that never left him. Working alongside him in precision manufacturing — making and repairing spectacles, glazing lenses, tinting glass, and maintaining the machinery that produced them — taught me something invaluable: engineering is not just about ideas. It is about craftsmanship and responsibility for the result.

Alongside that practical foundation, radio kits, electronic components to experiment with, and early computers to program gave me a childhood spent learning through doing. I was always taking things apart, trying to understand how they worked, and then trying to build something from the pieces. That curiosity has never left. I still approach engineering today the same way I did then: by asking questions, experimenting, and learning continuously.

Good engineering starts with curiosity, discipline, and a willingness to understand the whole system.

Engineering DNA

At the centre of my work is systems thinking — the ability to understand how software, hardware, mechanical design, communications, safety, and deployment all interact. Everything else connects to that core.

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Software Engineering

  • High-integrity and safety-critical systems
  • Embedded firmware and low-level development
  • Cloud platforms and distributed systems
  • Agile, DevOps, and CI/CD pipelines
  • Formal methods and verification
First commercial GSM system in Europe — developed and supported from Swindon R&D Lab

Systems Thinking

The thread connecting all disciplines. Understanding how decisions in one domain ripple through the entire system — from architecture to deployment.

Telecoms Life Safety HVAC Energy IoT Safety-Critical SW

Electronics & Communications

  • RF systems and radio integration
  • Embedded electronics and system validation
  • Telecommunications infrastructure
  • Low-power radio and standards compliance
  • Control systems and industrial platforms
Beijing Olympics — managed Motorola's half-city GSM communications infrastructure for the Games

Mechanical & Physical Engineering

  • CAD modelling and rapid prototyping
  • Additive manufacturing and 3D printing
  • Workshop fabrication and tooling
  • Design for manufacture and reliability
  • Thermal and enclosure engineering
BTS cabinet and radio platform development — from concept through to high-volume global production

Manufacturing & Deployment

  • Global supply chains and production
  • High-volume manufacturing environments
  • Certification and regulatory approvals
  • Factory integration and quality systems
  • Field deployment and customer operations
HVDC DolWin3 — offshore wind transmission system powering over 1 million German homes

Safety, Quality & Standards

  • Six Sigma engineering culture
  • CMM process maturity and SEI Level 5
  • Safety-critical software environments
  • International standards (ETSI, UL, EN)
  • Compliance-driven product development
Hinkley Point C — formal methods and safety verification for the UK's next nuclear generation
1M+ Homes powered via DolWin3 offshore HVDC wind transmission
300+ Agile coaches trained across global engineering organisations
96 Concurrent engineering projects under management at peak
300km/h GSM handover engineered for high-speed rail operations in China
SIL‑4 Highest safety integrity level — nuclear, air traffic control, defence

Engineering Leadership

Engineering leadership is not about hierarchy or titles. It is about responsibility — for the systems we build, the people who build them, and the customers who depend on them.

01

Technical Credibility

Engineers follow leaders who understand the work. I've remained hands-on across multiple disciplines, allowing me to relate to engineers at every level and translate complex technical issues into clear decisions.

02

Systems Thinking

Failure rarely happens because of a single mistake. It usually occurs because someone failed to understand how the whole system interacts. Good engineering leadership means seeing beyond individual disciplines.

03

Quality as Culture

Quality cannot be inspected into a product at the end. It must be designed into the architecture and embedded in the process. When quality becomes part of the culture, teams build products that customers can rely on.

04

Teams Are Built

The most successful teams I've led were not simply collections of talented individuals — they were environments where engineers were encouraged to grow, challenge ideas, and develop their own leadership capabilities.

05

Real-World Grounding

Engineering is not just about technology — it is about solving real problems for real customers. The most valuable lessons came from being on-site with customers and supporting live deployments under pressure.

06

Curiosity Never Stops

The best engineers never stop learning. Technology evolves constantly. I continue to build, experiment, and explore — whether in software, electronics, mechanical design, or the latest robotics and cloud technologies.

03

Career Journey

The Journey

A career defined by curiosity, depth, and the ability to apply engineering principles across disciplines and industries.

Early Engineering Foundations

Precision optics manufacturing — making and repairing spectacles, glazing lenses, tinting glass, and maintaining production machinery. Working alongside family in the industry from a young age gave me a grounding in craftsmanship and precision that has never left. First exposure to electronics kits and early home computers sparked a lifelong fascination with how things work.

Precision Manufacturing Optics Early Computing

Electronics Apprenticeship & Industrial Engineering

Formal electronics training — PCB manufacture and population, component diagnostics, and TV servicing. Including making microwave amplifiers for satellite communications using gold etching techniques and precision PCB fabrication. Then a period in wood machining and precision furniture manufacturing, progressing to workshop supervisor managing a team building products still visible across the landscape today.

Electronics PCB Fabrication Satellite Communications Workshop Management

Engineering Education & Early Robotics

BEng (Hons) in Digital Systems Engineering at the University of the West of England — specialising in the intersection of electronics and software. Worked in the Bristol Robotics Lab during its early years at the former Dupont facility, developing maze-solving algorithms using early PlayStation development hardware. Involved in early internet services and web development before the web became mainstream.

BEng (Hons) Bristol Robotics Lab Embedded Software Early Web Development

Industrial IT, Software Systems & MSc Oxford

Enterprise systems work including transforming legacy VT100 terminal systems into modern web-enabled database platforms at Xerox, alongside electronics manufacturing and failure analysis. Completed an MSc in Software Engineering at the University of Oxford — working across agile methodologies, extreme programming, and disciplined software delivery, all of which I later embedded at scale in industry.

Web Systems Enterprise Integration MSc (Oxon) Agile Failure Analysis

Global Telecommunications at Scale — Motorola

Progressed from software engineer through to senior management, leading multidisciplinary teams across software, firmware, hardware, PCB design, and test for 2G, 3G, and 4G base transceiver station platforms. Led teams across the UK, China, Vietnam, Singapore, Poland, and the US. Championed Agile adoption — training over 300 engineers as Scrum Masters and coaches. Key achievement: managed Motorola's telecommunications infrastructure for the Beijing Olympics. Actively involved in ETSI standards committees as aide to the rapporteur. At peak, responsible for over 96 concurrent engineering projects across multiple countries.

GSM / 3G / 4G Global Teams ETSI Standards Agile Transformation Beijing Olympics

Life Safety & Industrial Systems — Eaton

Head of Engineering Centre of Excellence for fire, emergency lighting, and security systems across multiple UK and European sites. Led multidisciplinary teams developing safety-critical products through international certification bodies and regulatory authorities. Products ranged from EN54 fire panels to low-power radio devices, sounders, emergency way-guidance systems, and voice alarms. Actively involved in ETSI standards committees as aide to the rapporteur on EN300220 (low-power radio). UK representative on the BSIA (British Security Industry Association) committee, and attended Ofcom working groups in London on the use of frequency bands for low-power devices.

Fire Systems Life Safety EN54 ETSI EN300220 BSIA Committee Ofcom International Approvals

Group Engineering Leadership — Volution Group

Engineering leadership across a portfolio of 10 companies under the Volution Group — including Vent-Axia and other HVAC and motor technology businesses operating across Europe. Working directly with the CEO on acquisition evaluation, business development, and engineering strategy. Extensive European operations, fast-paced and commercially engaged at group level.

HVAC Technology M&A Support Portfolio Engineering European Operations

Energy Infrastructure at Scale — GE (HVDC)

Head of Controls, Protection and Software Engineering for GE's HVDC division — high-voltage direct current transmission systems linking national and international power grids. Led large engineering teams delivering multi-billion-dollar infrastructure projects across Europe (Dolwin 3 wind farm transmission), India, Brazil (Rio Madeira), and North America (Lower Churchill Falls, Newfoundland). Managing multiple international teams across multiple shifts, with 24/7 operational responsibility for live projects on several continents simultaneously.

HVDC Power Transmission Controls Engineering Global Programme Delivery

Building Engineering Organisations — Malvern Panalytical

Joined as the sole software engineer for Frontier Analytics — a mothership-funded internal startup within Malvern Panalytical, established in a new Bristol office. Designed and built the first 6-person Agile sprint team from scratch, then replicated the model to scale to 36 engineers across multiple Bristol teams. That success earned an expanded remit to lead the NanoMaterials Group across the entire Malvern Panalytical organisation — 88 engineers developing Zetasizer (laser diffraction), X-ray and fluorescence scientific instrumentation platforms. Introduced Azure cloud infrastructure, SaaS platforms, DevOps pipelines and Agile Scrum across the group.

Malvern Panalytical Team Scaling (6 → 88) Scientific Instrumentation Azure & DevOps Agile Transformation

High-Integrity Software Leadership — Capgemini (Bath)

Leading a safety-integrity-level-4 software engineering organisation. Teams working on formal verification for the UK's next generation of nuclear power (Hinkley Point C), air traffic control systems for Northern Europe, satellite communications platforms, and defence applications. Deep involvement in formal methods, safety cases, and security-cleared development environments.

SIL-4 Software Nuclear (Hinkley C) Air Traffic Control Formal Methods Defence

// Global Footprint

40+ locations. Eight employers. Four continents.

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Engineering organisations led

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Industries & Projects

A career spanning seven major engineering domains — real systems, real scale, real outcomes.

Global Telecommunications

GSM · 3G · 4G Infrastructure

First commercial GSM in Europe through to managing communications for the Beijing Olympics. Base station platforms delivered at national scale across the UK, China, Vietnam, and beyond.

Motorola Nokia Siemens ETSI 2G / 3G / 4G
Fire & Life Safety

EN54 Systems · Emergency Lighting · Voice Alarm

Engineering leadership across fire detection, security, and emergency systems. Products certified to EN54 and international standards, deployed in commercial and industrial buildings worldwide.

Eaton EN54 ETSI EN300220 Life Safety
Electronics & Embedded Systems

PCB Design · Firmware · RF Hardware

Hands-on electronics from microwave amplifier fabrication through to mass-production base station hardware. Embedded systems spanning RF design, firmware, and factory integration.

Embedded RF Systems PCB Fabrication Firmware
Energy Infrastructure & HVDC

High-Voltage Direct Current · Offshore Wind · Hydro Power

Head of Controls, Protection and Software Engineering for GE's HVDC division. Delivered multi-billion-dollar power transmission projects across Europe, India, Brazil, and North America — including DolWin3, the offshore wind system now powering over one million German homes with clean energy.

GE HVDC DolWin3 Lower Churchill Falls Rio Madeira 1M+ Homes
IoT, Sensors & Robotics

Wireless Sensors · Drone Integration · Asset Inspection

Integrating ultrasonic sensor platforms with robotic and drone deployment systems for global energy asset integrity monitoring. Cloud-connected inspection for critical infrastructure at scale.

Inductosense IoT Robotics Shell / BP / Total
HVAC & Building Technology

Ventilation · Motors · Building Controls

Engineering leadership across a portfolio of 10 HVAC and motor technology companies under Volution Group, including Vent-Axia. Products spanning domestic and industrial ventilation deployed across Europe.

Volution Group Vent-Axia HVAC European Markets
Safety-Critical Software

SIL-4 · Formal Methods · Nuclear & ATC

High-integrity software engineering for Hinkley Point C nuclear verification, Northern European air traffic control, and defence applications. Where software failure is simply not an option.

SIL-4 Hinkley Point C Air Traffic Control Formal Methods
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Expertise

💻 Software Engineering

  • Embedded & Firmware Systems
  • High-Integrity & Safety-Critical Software
  • Cloud Platforms (Azure, AWS, Firebase)
  • DevOps, CI/CD & Build Pipelines
  • Agile & Extreme Programming
  • Multi-Language (C, C++, Python, Java, and more)

📡 Electronics & Communications

  • RF & Radio Systems
  • PCB Design & Electronics Manufacturing
  • Telecommunications (2G / 3G / 4G)
  • IoT & Sensor Integration
  • Industrial Control Systems
  • Cybersecurity Engineering

⚙️ Mechanical & Physical Engineering

  • CAD (Fusion 360, SolidWorks, Inventor)
  • Additive Manufacturing & 3D Printing
  • Prototype Development
  • Design for Manufacture
  • Industrial Machinery
  • Workshop Fabrication

🏛️ Safety, Standards & Compliance

  • EN54 Fire & Life Safety
  • ETSI Standards (EN300220, GSM)
  • UL & International Approvals
  • SIL-4 / Formal Methods
  • Six Sigma & CMM / SEI Level 5
  • Multi-Country Regulatory Compliance

🌍 Engineering Leadership

  • Global Team Leadership
  • Technical Strategy & Roadmapping
  • Engineering Centre of Excellence
  • M&A Technical Due Diligence
  • Startup Scaling
  • Cross-Discipline Integration

🤖 Emerging Technologies

  • Robotics & Autonomous Systems
  • Industrial IoT Platforms
  • Cloud-Connected Sensor Systems
  • AI & Generative Technologies
  • Energy & Asset Integrity Technology
  • Predictive Maintenance
05

Beyond Work

The best engineers never stop building. Here's what I do when I'm not in the office.

🚴

Cycling

Daily Commuter • Weekend Rider

Cycling is a constant. I ride to work most days and cover serious distance at weekends — over 12,000km in a year, including 8,000 miles in the six months from September. Come rain, wind, or ice, the bike goes out.

12,000+ km / year Daily commuter All weather
🖨️

3D Print Lab

Personal Workshop • Bambu P1S

Running four 3D printers for rapid prototyping, mechanical design projects, and creative experiments. Thousands of hours generating and refining models — from functional engineering parts to artistic pieces.

Bambu P1S Multi-colour 24/7 Operation
⚙️

Making & Building

Workshop • Furniture • Fabrication

Still building physical things with my hands — from custom school furniture to workshop projects. Skills carried forward from decades of hands-on engineering, from industrial wood machining to precision electronics.

🚴 Cycling 🎬 Cinema ✈️ Travel 🤖 Robotics & AI 📚 Continuous Learning
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Get in Touch

Let's Connect

Whether you're looking for strategic technology advice, exploring partnership opportunities, or just want to talk engineering — I'd love to hear from you.

⚙️

Thinking in Systems

Across every industry I've worked in, the same pattern emerges: complex systems that fail in ways that weren't obvious at design time. Finding those failure modes early — before they become expensive — is where the real engineering value is.

"Finding a bug while you're writing the code is the cheapest time to find it. The same is true of systems architecture, product design, and anything built at scale."

I've applied this across telecoms, life safety, energy, and IoT — moving between industries and recognising the same failure patterns in different clothes. The skill isn't domain knowledge. It's knowing how to model what you can't see yet.

350 kph → drop zone handoff window collapses at speed
Motorola · Global Telecoms

GSM handoff at 350 kph

GSM wasn't designed for trains above 250 kph. At 350 kph, the handoff window between cells collapses. You can't put a real railway network in a test lab — so the failure has to be found by modelling how the system behaves at the edge of its design envelope, before a single metre of track is laid.

Found at: modelling & design phase ✓
+65 more RDCs GW ! saturated cloud data gaps — no alarm raised
Industrial IoT · Sensor Networks

The gateway that failed silently

A prototype product worked fine at small scale. As deployment grew, a fixed scheduling model caused the gateway to silently drop readings — no error, no alarm. The application reported healthy sensor counts. The data had never arrived. Visible only by modelling the timing behaviour at scale, before the product reached that deployment size.

Found at: design review ✓

The IoT problem, step by step

Watch how a healthy system silently becomes a failure — and how the diagnosis leads to a fix

The system at launch
At launch, everything works. Five field devices, one gateway, readings arriving cleanly every minute. The product ships.
Readings / min
Gateway load
Queue depth
FIXED
Scheduling
// Ask SIGNAL about this