Product Design Engineer

Role Purpose & Context

Role Summary

The Product Design Engineer is responsible for taking conceptual product ideas and turning them into manufacturable designs, which directly impacts our ability to launch new, innovative products that customers actually want to buy. You'll work at the intersection of industrial design, engineering, and manufacturing, translating high-level requirements into detailed CAD models and technical drawings that our suppliers use to make physical parts. When this role is done well, we get robust, cost-effective products to market faster, giving us a real edge. When it's not, we face costly production delays, quality issues, and unhappy customers – nobody wants that. The challenge is often balancing the ideal engineering solution with real-world manufacturing constraints and tight deadlines. The reward is seeing a product you helped design sitting on a shelf, knowing you made it happen.

Reporting Structure

• Reports to: Senior Product Design Engineer
• Direct reports: 0
• Matrix relationships: Mechanical Design Engineer, R&D Engineer, Design & Development Engineer,

Key Stakeholders

Internal:

• Industrial Design Team (they come up with the pretty pictures, you make them real)
• Manufacturing Engineers (they tell you what's actually possible to make)
• Quality Assurance (they'll test your designs to breaking point, literally)
• Product Management (they set the requirements and deadlines)
• Procurement (they find the parts and materials, often with cost targets)

External:

• Component Suppliers (the folks making the custom bits for your designs)
• Contract Manufacturers (the factories assembling our products)
• Testing Houses (for specific certifications or environmental tests)

Organisational Impact

Scope: Your work directly influences the manufacturability, cost, and reliability of our products. Get it right, and we save money, reduce warranty claims, and build a great reputation. Get it wrong, and it's expensive rework, delays, and frustrated teams. It's a pretty critical link in the chain, honestly.

Performance Metrics

Quantitative Metrics

1. Metric: Drawing Error Rate
2. Desc: The number of errors or omissions found on your 2D manufacturing drawings during the first review by a Senior Engineer or Manufacturing.
3. Target: <2% on first-pass review
4. Freq: Per drawing package, reviewed weekly
5. Example: If you release 10 drawing packages in a month, and only one has a minor dimensioning error, that's a 10% error rate. We're aiming for fewer than that, ideally none.
6. Metric: On-Time Task Completion
7. Desc: The percentage of assigned design tasks (e.g., CAD model updates, drawing generation, simulation runs) that you complete by their agreed-upon due date in Jira.
8. Target: 90% of assigned Jira tickets completed by due date
9. Freq: Monthly review of Jira sprint reports
10. Example: If you had 20 tasks due in a month and finished 18 of them on time, that's 90%. We understand things happen, but consistent delays impact the whole team.
11. Metric: BOM Accuracy
12. Desc: The number of errors (e.g., wrong part numbers, incorrect quantities, missing components) found in your Bill of Materials (BOM) on initial release to Procurement or Manufacturing.
13. Target: <1 error per BOM on initial release
14. Freq: Per BOM release, reviewed by Procurement/Manufacturing
15. Example: You release a BOM for a new sub-assembly. If Procurement finds a part number that doesn't exist, or a quantity is off by one, that counts as an error. We want these spotless.
16. Metric: Simulation Interpretation Accuracy
17. Desc: How accurately you interpret the results of standard simulations (e.g., stress analysis, thermal distribution) and translate them into actionable design changes or recommendations.
18. Target: Consistent, correct interpretation leading to effective design iterations
19. Freq: Per simulation report, reviewed during design reviews
20. Example: You run a stress analysis, identify a high-stress point, and propose a rib feature to strengthen it. If that fix works in the next iteration, you've nailed it. If it makes things worse, we'll need to dig deeper.

Qualitative Metrics

1. Metric: Proactive Problem Identification
2. Desc: You don't just solve the problem in front of you; you look ahead, spot potential issues, and flag them early. It's about thinking 'what could go wrong here?' before it does.
3. Evidence: You bring up potential manufacturing challenges during an early design review. You identify a material compatibility issue that wasn't explicitly asked about. You propose a design change to prevent a known failure mode from a previous product.
4. Metric: Collaboration with Manufacturing
5. Desc: How effectively you work with our manufacturing partners, seeing their feedback as crucial input rather than criticism. It's about designing *with* them, not just *for* them.
6. Evidence: Manufacturing engineers routinely comment on how easy your designs are to build. You proactively schedule meetings with them to get input on new designs. You incorporate their suggestions into your CAD models before formal reviews.
7. Metric: Documentation Quality and Clarity
8. Desc: Your technical reports, design justifications, and internal wiki entries are clear, concise, and easy for others to understand, even months later. No one should have to guess what you meant.
9. Evidence: New team members can pick up your documentation and understand a design without needing to ask you dozens of questions. Your design review presentations are well-structured and explain your decisions clearly. Your ECO justifications are always thorough and logical.
10. Metric: Learning and Application of New Techniques
11. Desc: You're always picking up new tricks, whether it's a new CAD feature, a different simulation approach, or a new material property. More importantly, you're putting it into practice.
12. Evidence: You've successfully applied a new surfacing technique you learned to a complex part. You've experimented with a different meshing strategy that improved simulation accuracy. You share tips and tricks you've discovered with the team.

Primary Traits

• Trait: Systematic Problem-Solver
• Manifestation: When a prototype fails, you don't just guess at a fix. You'll break down the problem, form a hypothesis, and design a test to prove or disprove it. You're the one methodically isolating variables, documenting every step, and not jumping to conclusions. It's like being a detective, but for broken widgets.
• Benefit: R&D is, by its nature, about solving problems that haven't been solved before. Without a structured, methodical approach, we'd spend ages chasing our tails, wasting time and money on fixes that don't address the real root cause. We need people who can cut through the noise and get to the bottom of things.
• Trait: Insatiably Curious
• Manifestation: You're the type who pulls apart a broken gadget just to see how it works, or spends a Saturday afternoon watching videos about a new additive manufacturing process. You're always asking 'why' – not to be annoying, but because you genuinely want to understand the underlying principles. You're not content with 'that's how we've always done it'.
• Benefit: This isn't just about incremental improvements; it's about finding genuinely novel solutions. That curiosity is what drives innovation. It's what helps us spot opportunities for a completely different design or a better material that no one else has considered. It's how we stay ahead.
• Trait: Uncompromisingly Precise
• Manifestation: You're the one who notices a 0.05mm tolerance error in a stack-up that everyone else missed, knowing it could cause a 10% failure rate down the line. You'll double-check every dimension on a drawing, every input into a simulation, and every line in a BOM. You know that 'close enough' usually isn't, especially in the physical world.
• Benefit: In product design, small errors have massive consequences. A tiny mistake in CAD can mean a £100,000 tooling rework, a product recall, or worse, a safety issue. We need people who are meticulous, who understand that precision in the design phase is absolutely critical to avoiding costly problems later on.

Supporting Traits

• Trait: Resilient
• Desc: You can dust yourself off after a prototype fails spectacularly during a demo, or when a design review tears your carefully crafted work to shreds. You see it as feedback, not failure, and you're ready to iterate.
• Trait: Pragmatic
• Desc: You understand that sometimes 'perfect' is the enemy of 'good enough'. You can make sensible trade-offs between design elegance, cost, and time-to-market, knowing when to stop optimising and get something shipped.
• Trait: Collaborative
• Desc: You actively seek out input from manufacturing, industrial design, and even sales. You see their perspectives as valuable pieces of the puzzle, not just obstacles to your own ideas. You're a team player, honestly.
• Trait: Visual Communicator
• Desc: You can grab a whiteboard marker and sketch out a complex mechanical concept in minutes, making it clear to anyone in the room. You know a picture (or a quick CAD model) is often worth a thousand words.

Primary Motivators

1. Motivator: Seeing Your Designs Become Reality
2. Daily: You get a real kick out of holding a physical prototype of a part you designed, or seeing a product you worked on launch to market. That tangible outcome is what keeps you going.
3. Motivator: Solving Tricky Technical Puzzles
4. Daily: You enjoy wrestling with a complex tolerance stack-up or figuring out how to get two parts to mate perfectly under specific conditions. The harder the problem, the more satisfying the solution.
5. Motivator: Continuous Learning and Improvement
6. Daily: You're always keen to learn a new CAD trick, understand a different material's properties, or get better at interpreting simulation results. Stagnation is your enemy.

Potential Demotivators

Honestly, this job isn't always sunshine and rainbows. There are definitely things that can get under your skin if you're not prepared for them.

Common Frustrations

1. The Physics vs. Marketing Conflict: You'll often be asked to design something that's smaller, lighter, cheaper, and more powerful, all at the same time. Sometimes, it feels like they want you to defy the laws of physics to meet a marketing brief. It's a constant battle to manage expectations.
2. The Last-Minute 'Simple' Change: An executive sees a prototype and decides they want a 'minor' aesthetic tweak – like moving a button by 2mm. That 'simple' change can, in reality, invalidate months of thermal analysis, force a complete internal redesign, and push back deadlines significantly. It's infuriating.
3. Simulation Purgatory: You'll spend 36 hours waiting for a complex CFD simulation to run, only to discover a fundamental error in your boundary conditions or mesh. Back to square one. It's a test of patience, for sure.
4. Procurement-Driven Failures: You carefully select a specific material or component for its performance. Then, Procurement, trying to save a few quid, swaps it for a 'cost-equivalent' alternative without proper consultation. That 'equivalent' part then fails catastrophically during validation testing, setting the project back weeks and making you look bad.
5. 'Over the Wall' Engineering: You've spent weeks perfecting a design, only to get feedback from the manufacturing team, late in the game, that your design is 'impossible to mold' or 'too expensive to machine'. It forces painful, public revisions that could have been avoided with earlier input.
6. ECO Paperwork Hell: You'll spend more time filling out forms, chasing signatures, and navigating the bureaucracy of an Engineering Change Order (ECO) to document a 2mm dimension change than it actually took you to make the change in CAD. It's tedious, but necessary.
7. The Render-to-Reality Gap: That sinking feeling when the first physical prototype arrives, and it looks and feels clunky and cheap compared to the stunning, photorealistic KeyShot render you presented to the team. It's a reminder that the real world is often less forgiving than the digital one.

What Role Doesn't Offer

1. If you need to see every single piece of your work make it to full production without any changes, you'll struggle here. Iteration and adaptation are constant.
2. If you prefer working entirely alone without much input from others, this role won't be a good fit. Collaboration is absolutely key.
3. If you're looking for a role where the requirements are always perfectly clear and never change, you'll be disappointed. Ambiguity is part of R&D.
4. If you can't handle constructive criticism or having your designs challenged, this might be a tough environment for you. It's all part of making things better.

ADHD Positives

1. The varied nature of design tasks and the constant problem-solving can be really engaging, keeping boredom at bay.
2. Hyperfocus can be a superpower when you're deep into a complex CAD model or debugging a simulation setup.
3. The need to quickly pivot between different design challenges can suit a mind that thrives on novelty.

ADHD Challenges and Accommodations

1. Documentation and ECO paperwork can feel incredibly tedious; breaking these into smaller chunks or using templates can help.
2. Maintaining focus on long, repetitive simulation runs might be difficult; using short breaks or pairing with a colleague for review could work.
3. We can offer noise-cancelling headphones for deep work, and flexible scheduling for tasks that require intense concentration.

Dyslexia Positives

1. The highly visual nature of CAD design, sketching, and interpreting technical drawings plays directly to visual-spatial strengths.
2. Problem-solving through 3D models and physical prototypes often bypasses heavy text-based analysis.
3. Strong conceptual thinking and ability to see the 'big picture' in complex assemblies are highly valued.

Dyslexia Challenges and Accommodations

1. Reading and writing detailed technical specifications, reports, and ECO justifications might be challenging; we encourage the use of dictation software, grammar checkers like Grammarly, and visual aids in reports.
2. Ensuring accuracy in BOMs and drawing notes is critical; peer review for documentation is standard practice, and we can provide specific tools for text-to-speech review.
3. We can provide templates for common documents to reduce the need for extensive free-form writing and offer additional time for documentation tasks.

Autism Positives

1. The logical, systematic nature of design engineering, especially in areas like GD&T and FEA, can be a great fit.
2. A strong preference for precision and attention to detail is absolutely essential in this role.
3. The ability to focus intensely on technical challenges without distraction is a huge asset.

Autism Challenges and Accommodations

1. Navigating informal social dynamics in design reviews or cross-functional meetings can be tricky; we aim for clear agendas and direct communication. We can also provide pre-meeting notes to help prepare.
2. Unexpected changes to design requirements or project scope might be unsettling; we'll try to communicate changes as clearly and early as possible, explaining the 'why' behind them.
3. We can offer a consistent workspace, clear expectations for communication (e.g., preference for email over impromptu chats), and a designated 'buddy' for initial onboarding to help with unspoken rules.

Key Responsibilities

Experience Levels Responsibilities

1. Level: Mid-Level Professional (Product Design Engineer)
2. Responsibilities: Take ownership of specific product sub-systems, like the enclosure, a particular mechanism, or a complex bracket, from concept through to detailed design and validation. You'll be the go-to person for those bits.
3. Independently create detailed 3D CAD models and 2D manufacturing drawings using SolidWorks, ensuring they meet our internal standards and manufacturing requirements (think GD&T, surface finishes, material call-outs).
4. Run standard Finite Element Analysis (FEA) and basic thermal simulations on your designs using ANSYS Mechanical. You'll interpret the results and use them to make informed design decisions, not just blindly trust the software.
5. Manage and update Bill of Materials (BOMs) within our PLM system (Teamcenter), making sure all part numbers, quantities, and revisions are spot on before release. Honestly, it's tedious, but critical.
6. Collaborate closely with our Industrial Design team to translate their aesthetic concepts into functional, manufacturable designs. You'll often be the bridge between 'looks good' and 'actually works'.
7. Participate in design reviews, presenting your work, explaining your design choices, and taking on feedback from senior engineers and cross-functional teams. You'll need to defend your decisions, but also know when to adapt.
8. Support the prototyping and testing phases by preparing CAD files for 3D printing (using tools like PreForm) and assisting with test fixture design and assembly. You'll be hands-on, getting your fingers dirty.
9. Supervision: You'll have weekly check-ins with your Senior Product Design Engineer to discuss progress, get feedback, and unblock any issues. For routine tasks, you'll work independently, but for novel or complex problems, you'll consult your supervisor.
10. Decision: You can make routine technical decisions within the scope of your assigned sub-systems, like choosing standard fasteners or minor dimension adjustments. For anything that impacts cost significantly (e.g., new material selection, complex manufacturing process) or project timelines, you'll need to consult your Senior Engineer. You're expected to identify potential issues and propose solutions, but major deviations require approval.
11. Success: You're consistently delivering accurate CAD models and drawings on time, with minimal errors. Your simulation interpretations are sound, leading to robust designs. You're proactively identifying potential issues and working well with other teams. Basically, you're a reliable pair of hands that can own a chunk of a product without constant hand-holding.

Decision-Making Authority

• Type: Component Selection (Standard parts)
• Entry: Proposes options, requires supervisor approval.
• Mid: Selects independently from approved vendor lists; consults on new vendors.
• Senior: Defines approved component lists, approves new vendors.
• Type: Design Changes (within sub-system)
• Entry: Executes changes under direct instruction.
• Mid: Independently makes changes for routine issues; consults on significant impact (cost/schedule).
• Senior: Approves all technical design changes within their module; leads complex ECOs.
• Type: Simulation Methodology
• Entry: Runs pre-defined templates with guidance.
• Mid: Chooses appropriate standard simulation types (e.g., static vs. thermal); consults on novel approaches.
• Senior: Defines and validates new simulation methodologies for specific problems.
• Type: Project Timeline Adjustments (minor)
• Entry: Escalates any potential delays immediately to supervisor.
• Mid: Informs supervisor of minor delays (1-2 days) and proposes recovery plan; escalates significant delays.
• Senior: Manages and approves minor timeline adjustments within their workstream; informs leadership of impacts.

Competency Requirements

Foundation Skills (Transferable)

Beyond the technical wizardry, a good Product Design Engineer needs a solid set of foundational skills. These are the human elements that make you effective, allowing you to collaborate, solve problems, and keep projects moving forward.

• Category: Communication & Collaboration
• Skills: Clear Technical Communication: You can explain complex mechanical concepts to non-technical people without making their eyes glaze over. This means good written reports, clear emails, and straightforward presentations.
• Active Listening: You're actually hearing what Industrial Design wants, what Manufacturing says is impossible, and what Product Management needs. You're not just waiting for your turn to speak.
• Cross-functional Teamwork: You work well with everyone – from the folks who dream up the product to the ones who actually build it. You see feedback as a gift, not a personal attack.
• Category: Problem-Solving & Critical Thinking
• Skills: Root Cause Analysis: When something breaks, you don't just patch it. You dig deep to find out *why* it broke, using logical steps and evidence, not just gut feelings.
• Structured Design Approach: You break down big design problems into smaller, manageable chunks. You know how to plan your work and execute it systematically.
• Trade-off Analysis: You can weigh up different design options – considering cost, performance, manufacturability, and aesthetics – and make a reasoned recommendation.
• Category: Adaptability & Resilience
• Skills: Dealing with Ambiguity: R&D often means working with incomplete information or changing requirements. You're comfortable navigating that uncertainty and can still make progress.
• Learning Agility: The tech and materials landscape is always changing. You're keen to pick up new tools, techniques, and knowledge, and apply them quickly.
• Bouncing Back from Setbacks: Prototypes fail, designs get criticised, deadlines shift. You can handle these bumps in the road, learn from them, and keep pushing forward.
• Category: Attention to Detail
• Skills: Meticulous Documentation: Your drawings, BOMs, and reports are accurate, complete, and leave no room for misinterpretation. You catch the small errors before they become big problems.
• Tolerance Management: You understand how small variations in individual parts can add up in an assembly, and you design to prevent fitment issues.

Functional Skills (Role-Specific Technical)

This is where the rubber meets the road. These are the specific engineering skills, tools, and knowledge you'll be using day-in, day-out to bring products to life. We're looking for someone who isn't just familiar with these, but can actually apply them effectively.

Technical Competencies

• Skill: Design for Manufacturing & Assembly (DFMA)
• Desc: You understand how parts are actually made – injection moulding, CNC machining, sheet metal forming, 3D printing. This means you design parts that are not only functional but also efficient and cost-effective to produce and assemble at scale. You're thinking about tool access, draft angles, and part count from the start.
• Level: Intermediate
• Skill: Geometric Dimensioning & Tolerancing (GD&T)
• Desc: You're comfortable applying ASME Y14.5 standards to your 2D drawings. You know your datums from your feature control frames, and you use them to precisely define allowable variations in geometry, ensuring parts fit and function correctly, every time. You know how to perform basic tolerance stack-up analysis.
• Level: Intermediate
• Skill: Finite Element Analysis (FEA) & CFD Fundamentals
• Desc: You understand the basic theory behind FEA and CFD. This means you know about meshing, boundary conditions, and material models. You can set up and run standard linear static stress or thermal simulations, and critically, you can interpret the results to inform your design decisions. You know when a simulation result looks 'off'.
• Level: Intermediate
• Skill: Failure Modes and Effects Analysis (FMEA)
• Desc: You can participate in and contribute to FMEA sessions. You can identify potential failure modes in a design, understand their causes and effects, and propose initial mitigation strategies. It's about being proactive and spotting problems before they happen.
• Level: Basic
• Skill: Materials Science & Selection
• Desc: You have a good grasp of common engineering materials – polymers, metals, composites. You know their basic properties (strength, stiffness, thermal conductivity) and can select appropriate materials for specific applications, considering factors like environment, cost, and manufacturing process.
• Level: Intermediate
• Skill: Rapid Prototyping Methodologies
• Desc: You know the pros and cons of different 3D printing techniques like FDM, SLA, and SLS. You can choose the right method for the fidelity, speed, and material properties required at different stages of development, and prepare your CAD files accordingly.
• Level: Intermediate

Digital Tools

• Tool: SolidWorks (or similar 3D CAD)
• Level: Intermediate
• Usage: Creating complex parts and assemblies, generating detailed 2D manufacturing drawings with GD&T, and managing design revisions. You're not just sketching; you're building robust, parametric models.
• Tool: ANSYS Mechanical/Fluent (or similar FEA/CFD)
• Level: Basic
• Usage: Running pre-defined simulation templates for linear static stress or thermal analysis on your designs. Interpreting simple pass/fail results and identifying areas for improvement.
• Tool: Siemens Teamcenter (or similar PLM/PDM)
• Level: User
• Usage: Checking documents in and out, navigating product structures, managing part revisions, and participating in Engineering Change Order (ECO) workflows. It's where all our design data lives.
• Tool: Altium Designer (Viewer/ECAD-MCAD Integration)
• Level: Basic
• Usage: Importing STEP files of PCBs into your mechanical assemblies to check for basic interference and ensure proper fit. You're making sure the electronics fit within your mechanical housing.
• Tool: KeyShot
• Level: User
• Usage: Applying basic materials and lighting to your CAD models to create simple, clear renders for internal design reviews or presentations. It's about making your designs look good.
• Tool: Jira & Confluence
• Level: User
• Usage: Updating your assigned design tickets, logging your time, commenting on tasks, and accessing design specifications and technical documentation. It's how we track our work and share knowledge.

Industry Knowledge

• Area: Product Development Lifecycle (PDLC)
• Desc: You understand the typical stages of product development, from concept generation and feasibility studies through to detailed design, validation, and production launch. You know where your design work fits into the bigger picture.
• Area: Manufacturing Processes
• Desc: A solid understanding of common manufacturing techniques (e.g., injection moulding, CNC machining, sheet metal fabrication) and their associated design rules and limitations. This helps you design parts that are actually buildable.
• Area: Material Properties and Selection
• Desc: Knowledge of various engineering materials (plastics, metals, elastomers) and their mechanical, thermal, and chemical properties, enabling informed material choices for specific applications.

Regulatory Compliance Regulations

• Reg: CE Marking Directives (e.g., Low Voltage Directive, EMC Directive)
• Usage: Understanding that products need to meet certain European safety and electromagnetic compatibility standards, and how your design choices (e.g., enclosure design, component selection) can impact compliance. You'll work with QA to ensure compliance.
• Reg: RoHS (Restriction of Hazardous Substances)
• Usage: Knowing that certain hazardous materials are restricted in electronic and electrical equipment, and considering this during material and component selection. You'll check with Procurement and QA on this.

Essential Prerequisites

• A proven track record of creating detailed 3D CAD models and 2D manufacturing drawings for physical products.
• Experience with at least one major 3D CAD software package (SolidWorks, Inventor, Creo, CATIA) – we use SolidWorks, so familiarity there is a big plus.
• A foundational understanding of mechanical engineering principles, including statics, dynamics, and material strength.
• Experience participating in design reviews and incorporating feedback into your designs.
• Some exposure to manufacturing processes and how they impact design decisions (DFM/DFA).

Career Pathway Context

These aren't just a tick-box exercise; these are the foundational skills we expect you to walk in with. They're the building blocks upon which you'll grow into a truly impactful Product Design Engineer. If you've got these sorted, you're in a great starting position to really thrive here.

Qualifications & Credentials

Emerging Foundation Skills

• Skill: Advanced Generative Design & Optimisation
• Why: Generative design tools are becoming more powerful and accessible. They're not just for academic papers anymore; they're genuinely changing how we approach complex part design, especially for lightweighting and multi-physics optimisation. Competitors are already using this to create novel, high-performance parts faster than traditional methods.
• Concepts: [{'concept_name': 'Topology optimisation algorithms beyond basic stre', 'description': 'Topology optimisation algorithms beyond basic stress reduction'}, {'concept_name': 'Multi-objective optimisation (e.g., weight, stiffn', 'description': 'Multi-objective optimisation (e.g., weight, stiffness, thermal performance)'}, {'concept_name': 'Integration of generative design with advanced man', 'description': 'Integration of generative design with advanced manufacturing (e.g., additive manufacturing)'}, {'concept_name': 'Interpreting and validating AI-generated geometrie', 'description': 'Interpreting and validating AI-generated geometries'}, {'concept_name': 'Setting up complex design spaces and constraints f', 'description': 'Setting up complex design spaces and constraints for generative tools'}]
• Prepare: This week: Watch some advanced tutorials on generative design modules in SolidWorks or Fusion 360.
• This month: Experiment with a simple part, define its loads and constraints, and try to generate an optimised geometry.
• Month 2: Research case studies where generative design led to significant performance improvements or cost savings.
• Month 3: Propose a small internal project where generative design could be applied to an existing part for optimisation.
• Month 4: Present your findings and learnings to the team, highlighting potential benefits and challenges.
• QuickWin: Start playing around with the generative design features in your current CAD software (if available) on non-critical parts. It's a low-risk way to get familiar with the workflow and see what's possible.
• Skill: Digital Twin & Sensor Integration for Design Validation
• Why: Connecting physical prototypes and products with their digital models (digital twins) is becoming crucial. It allows us to get real-world performance data back into our design process, closing the loop faster and making our designs more robust. This means less guesswork and more data-driven iteration.
• Concepts: [{'concept_name': 'Basic IoT sensor types and data acquisition (e.g.,', 'description': 'Basic IoT sensor types and data acquisition (e.g., temperature, strain, vibration)'}, {'concept_name': 'Data visualisation and interpretation for physical', 'description': 'Data visualisation and interpretation for physical product performance'}, {'concept_name': 'Feedback loops from real-world data into CAD/CAE m', 'description': 'Feedback loops from real-world data into CAD/CAE models'}, {'concept_name': 'Understanding data security and privacy for connec', 'description': 'Understanding data security and privacy for connected products'}, {'concept_name': 'Basic programming for data handling (e.g., Python ', 'description': 'Basic programming for data handling (e.g., Python scripting for data analysis)'}]
• Prepare: This week: Read up on what 'digital twin' actually means in a product context.
• This month: Explore open-source IoT platforms (e.g., Arduino, Raspberry Pi) and basic sensor integration.
• Month 2: Think about one of our current products – where could we add a sensor to get valuable design feedback?
• Month 3: Learn some basic Python to ingest and visualise simple sensor data.
• Month 4: Propose a small-scale experiment to collect data from a prototype and feed it back into a design iteration.
• QuickWin: Find a simple, cheap sensor (like a temperature or humidity sensor) and connect it to an Arduino. Get some data flowing and displayed. It's a great way to learn the basics without needing a huge budget or complex setup.

Advancing Technical Skills

• Skill: Advanced GD&T and Tolerance Analysis
• Why: As product complexity increases and manufacturing tolerances tighten, a deeper understanding of GD&T is vital. You'll move beyond basic application to mastering complex tolerance stack-ups and understanding how to optimise tolerances for both function and cost.
• Concepts: [{'concept_name': 'Advanced datum schemes for complex parts', 'description': 'Advanced datum schemes for complex parts'}, {'concept_name': 'Statistical tolerance analysis (e.g., RSS method)', 'description': 'Statistical tolerance analysis (e.g., RSS method)'}, {'concept_name': 'Functional gauging and inspection principles', 'description': 'Functional gauging and inspection principles'}, {'concept_name': 'Tolerance optimisation for manufacturing processes', 'description': 'Tolerance optimisation for manufacturing processes'}, {'concept_name': 'Impact of GD&T on assembly variation', 'description': 'Impact of GD&T on assembly variation'}]
• Prepare: This week: Review ASME Y14.5 standard, focusing on less common callouts.
• This month: Take an online course on advanced GD&T or tolerance stack-up analysis.
• Month 2: Apply statistical tolerance analysis to one of your current sub-assemblies.
• Month 3: Lead a GD&T review session for a new design with a Senior Engineer.
• QuickWin: Pick a complex assembly you're working on and manually calculate a worst-case tolerance stack-up for a critical interface. You'll quickly see where the challenges lie.
• Skill: Multi-Physics Simulation & Optimisation
• Why: Products are rarely just mechanical or just thermal; they're usually a combination. Moving towards multi-physics simulations (e.g., thermal-stress, fluid-structure interaction) will allow you to design more integrated and robust systems, anticipating coupled behaviours.
• Concepts: [{'concept_name': 'Coupled field analysis (e.g., thermal-mechanical, ', 'description': 'Coupled field analysis (e.g., thermal-mechanical, fluid-thermal)'}, {'concept_name': 'Non-linear material models and large deformation a', 'description': 'Non-linear material models and large deformation analysis'}, {'concept_name': 'Transient analysis for time-dependent phenomena', 'description': 'Transient analysis for time-dependent phenomena'}, {'concept_name': 'Optimisation algorithms within simulation software', 'description': 'Optimisation algorithms within simulation software'}, {'concept_name': 'Validation of complex simulation results against t', 'description': 'Validation of complex simulation results against test data'}]
• Prepare: This week: Read introductory material on multi-physics simulation concepts.
• This month: Explore tutorials for coupled-field analysis in ANSYS or COMSOL.
• Month 2: Identify a current design problem that could benefit from a multi-physics approach.
• Month 3: Work with a Senior Engineer to set up and run a basic coupled-field simulation.
• QuickWin: Take a simple part that experiences both heat and load. Try to set up a basic thermal-stress simulation in your current FEA software. Even if it's simplified, it'll give you a feel for the workflow.

Education Requirements

• Level: Minimum
• Req: A Bachelor's degree (BEng or BSc) in Mechanical Engineering, Product Design Engineering, or a closely related discipline from a recognised university.
• Alts: We're pragmatic. If you've got an HNC/HND in a relevant engineering field plus significant, demonstrable industry experience (5+ years) in a similar role, we'd still be keen to chat. Practical capability often trumps a piece of paper, honestly.

Experience Requirements

You'll need roughly 2-5 years of hands-on experience in product design or mechanical engineering, ideally within a Research & Development environment. This isn't your first rodeo; you've been through a few design cycles, seen products go from concept to production, and probably made a few mistakes (and learned from them!). We're looking for someone who has independently owned and delivered design work for specific sub-systems or components, not just assisted on larger projects.

Preferred Certifications

• Cert: Certified SolidWorks Professional (CSWP)
• Prod: Dassault Systèmes
• Usage: Demonstrates a high level of proficiency in our primary CAD software, meaning you'll be able to hit the ground running with our existing models and standards.
• Cert: ASME GD&T Professional Certification (GDTP)
• Prod: ASME
• Usage: Shows you've got a deep, formal understanding of GD&T, which is absolutely critical for creating clear, unambiguous manufacturing drawings and ensuring part quality.

Recommended Activities

• Attending industry webinars or online courses on advanced manufacturing techniques (e.g., metal additive manufacturing, advanced moulding techniques).
• Participating in local engineering meetups or professional bodies like the IMechE to network and learn from peers.
• Taking courses on specific simulation software modules (e.g., non-linear FEA, advanced thermal analysis) to deepen your technical expertise.
• Engaging in internal knowledge-sharing sessions, perhaps presenting a new tool or technique you've explored.

Career Progression Pathways

Entry Paths to This Role

• Path: Associate Product Design Engineer (L1)
• Time: 2-3 years
• Path: Junior Mechanical Engineer (from another industry)
• Time: 2-4 years
• Path: Graduate Engineer (with relevant internship experience)
• Time: 2-3 years

Career Progression From This Role

• Pathway: Senior Product Design Engineer (L3)
• Time: 3-5 years in role

Long Term Vision Potential Roles

• Title: Staff Product Design Engineer (L4)
• Time: 8-12 years experience
• Title: Principal Product Design Engineer (L5)
• Time: 12-16 years experience
• Title: Director, Product Design (L6)
• Time: 16-20 years experience

How Zavmo Delivers This Role's Development

DISCOVER Phase: Skills Gap Analysis

Zavmo maps your current competencies against all requirements in this job description through conversational assessment. We evaluate your foundation skills (communication, strategic thinking), functional skills (CRM expertise, negotiation), and readiness for career progression.

Output: Personalised skills gap heat map showing strengths and priorities, estimated time to competency, neurodiversity accommodations.

DISCUSS Phase: Personalised Learning Pathway

Based on your DISCOVER results, Zavmo creates a personalised learning plan prioritised by impact: foundation skills first, then functional skills. We adapt to your learning style, pace, and neurodiversity needs (ADHD, dyslexia, autism).

Output: Week-by-week schedule, each module linked to specific job responsibilities, checkpoints and milestones.

DELIVER Phase: Conversational Learning

Learn through conversation, not boring modules. Zavmo uses 10 conversation types (Socratic dialogue, role-play, coaching, case studies) to build competence. Practice difficult QBR presentations, negotiate tough renewals, and handle churn conversations in a safe AI environment before facing real clients.

Example: "For 'Stakeholder Mapping', Zavmo will guide you through analysing a complex enterprise account, identifying key decision-makers, and building an engagement strategy."

DEMONSTRATE Phase: Competency Assessment

Zavmo automatically builds your evidence portfolio as you learn. Every conversation, practice scenario, and application example is captured and mapped to NOS performance criteria. When ready, your portfolio supports OFQUAL qualification claims and demonstrates competence to employers.

Output: Competency matrix, evidence portfolio (downloadable), qualification readiness, career progression score.