Mechanical Design Engineer

Bristol
17 hours ago
Create job alert

Mechanical Design Engineer

Location - Bristol

Hybrid & Flexible Working

Up to £53K + PackageMechanical Design Engineer

Progressive GE are partnered with a global engineering consultancy that deliver complex electromechanical product development for high regulation, high integrity industries. They work on systems where safety, reliability and technical rigour matter, taking products from concept through design, analysis, prototypes, testing and manufacture readiness. Due to continued growth and a strong pipeline into (Apply online only) they are recruiting a Mechanical Design Engineer for the Bristol office.

You will gain exposure across the full multi disciplinary process working alongside Electronics, Software and Human Factors teams. The work is varied, technically challenging and suits someone who enjoys solving real engineering problems rather than repetitive design tasks. You will also take ownership of technical work packages or small projects, contribute to larger proposals and take responsibility for your own development.

This Mechanical Design Engineer role is ideal for someone who wants full lifecycle involvement with genuine technical variety. You will work across concept generation, detailed mechanical design, CFD or FEA analysis, prototype builds, hands-on test activity and preparation for manufacture. Projects typically involve complex electromechanical assemblies used in regulated sectors so strong engineering judgement and a structured approach are essential.

What you will be doing as a Mechanical Design Engineer

Delivering mechanical design work across the full lifecycle from concept through design, analysis, prototype, testing and into manufacture

Capturing requirements clearly and translating them into design outputs

Producing 3D models and detailed drawings with strong DFM and DFA principles

Applying CFD or FEA to support and validate design decisions

Designing complex electromechanical assemblies including mechanisms and motor driven gearing

Supporting prototype builds followed by hands-on testing and refinement

Presenting work to clients and supporting junior colleagues

What We Are Looking for:

Degree in Mechanical Engineering or similar

Experience across the full mechanical design lifecycle including concept requirements capture, design, analysis using CFD or FEA, prototype work, testing and manufacture

Experience in working on and in multidiscplinary project teams (electronics, human factors, software)

Strong 3D CAD capability

Experience working to BS8888 / Geometric Tolerances / GD&T

Experience with complex assemblies, electromechanical systems, mechanisms or drivetrain assemblies

Comfortable working in a consultancy or SME style environment

Clear communicator with a structured, practical approach to problem solving

Salary & Key Benefits for the Mechanical Design Engineer Role:

Salary up to £53,000

Annual bonus scheme

Hybrid working with flexibility on hours

Private healthcare

Pension with salary exchange

Enhanced family leave

Cycle to Work and Electric Vehicle schemes

Location Recap and why this Mechanical Design Engineer Role may interest you?

This Mechanical Design Engineer role is based in Bristol and is commutable from Bristol, Bath, Weston super Mare, North Bristol, South Gloucestershire, Frome, Bridgwater, Swindon or Cheltenham or anywhere around a sixty minute drive.

This will suit someone who enjoys varied electromechanical design work, wants exposure to the full design lifecycle and prefers a project led environment with lots of technical variety.

If that sounds like you please apply below.

Mechanical Engineering, Mechanical Design, Design Engineering, Concept Design, 3D Design, Requirements Capture, Concept Development, 3D CAD Modelling, Detailed Design, GD&T, DFM, DFA, FEA, CFD, Mechanical Analysis, Electromechanical Design, Mechanism Design, Gear Systems, Motor-Driven Actuation, Kinematic Design, Tolerance Analysis, Prototype Build, Hands-On Testing, Test Rig Operation, Root-Cause Analysis, Design Iteration, Validation, Manufacturing Support, Manufacture Readiness, NPI, NPD, Multidisciplinary Collaboration, Electronics Integration, Software Integration, Human Factors Integration, Structured Problem Solving, Engineering Judgement, Failure Analysis, Documentation, Client Communication, Consultancy Experience, Work Package Ownership, Technical Delivery, Proposal Support, SME Environment Adaptability.

To find out more about Progressive please visit

Related Jobs

View all jobs

Mechanical Design Engineer

Mechanical Design Engineer

Mechanical Design Engineer

Mechanical Design Engineer

Mechanical Design Engineer

Mechanical Design Engineer

Subscribe to Future Tech Insights for the latest jobs & insights, direct to your inbox.

By subscribing, you agree to our privacy policy and terms of service.

Industry Insights

Discover insightful articles, industry insights, expert tips, and curated resources.

How Many Materials Science Tools Do You Need to Know to Get a Materials Science Job?

If you’re navigating the materials science job market, it can feel like the list of tools, techniques and platforms you should learn grows every week. One job advert mentions electron microscopy, another mentions X-ray diffraction, yet another wants experience with thermal analysis, spectroscopy, simulation software, statistical packages, manufacturing QA systems and more. With so many specialised methods and instruments, it’s easy to feel overwhelmed — and to start thinking you need to know everything just to be considered. Here’s the honest truth most materials science hiring managers won’t tell you directly: 👉 They don’t hire you because you know every piece of equipment or software. They hire you because you can use the tools you do know to answer real questions, make reliable measurements and communicate results clearly. Tools are essential — no question — but they are secondary to problem-solving ability, scientific reasoning and experimental rigour. So the real question is: how many materials science tools do you actually need to know to get a job? The precise number depends on the role you want, but for most job seekers the answer is far fewer than you think. This article breaks down what employers really value, which tools are core, which are role-specific, and how to focus your learning so your CV and interviews stand out for the right reasons.

What Hiring Managers Look for First in Materials Science Job Applications (UK Guide)

Materials science is a broad, interdisciplinary field that spans academia, industry, research, engineering and manufacturing. Whether you’re applying for roles in R&D, process development, quality assurance, failure analysis, nanomaterials or product scale-up, hiring managers make key decisions within the first few seconds of scanning your application. In competitive job markets, simply listing skills or qualifications isn’t enough. Hiring managers are looking for signals of relevance, technical depth, problem-solving capability and real-world impact — and they expect those signals to be clear right from the top of your CV or portfolio. This guide breaks down exactly what hiring managers typically look for first in materials science applications, why they look for it, and how you can optimise your CV, cover letter and portfolio so your application stands out and gets past the first filter.

The Skills Gap in Materials Science Jobs: What Universities Aren’t Teaching

Materials science sits at the heart of innovation — from sustainable energy and advanced manufacturing to aerospace, electronics, healthcare and beyond. It is an interdisciplinary field combining physics, chemistry, engineering and applied science to design and improve materials that power modern technology. Despite the clear strategic importance of materials science, employers across the UK report persistent challenges hiring graduates who are truly job-ready. Organisations need professionals who can contribute immediately to research, development, manufacturing, quality control and product scale-up — yet many recent graduates struggle to bridge the gap between academic preparation and workplace demands. This gap is not caused by a lack of intelligence or enthusiasm. It is a growing skills gap between what universities teach and what real materials science jobs require. This article explores the materials science skills gap in depth: what universities teach well, what they often miss, why the gap exists, what employers want, and how aspiring professionals can bridge the divide to build successful careers in this vital UK industry.