Top 10 Skills in Materials Science According to LinkedIn & Indeed Job Postings
Materials science and engineering are foundational to innovation across industries—from aerospace and automotive to healthcare, energy, and electronics. In the UK, organisations are increasingly seeking experts who understand material properties, advanced characterisation, and how to translate them into commercial solutions.
But what specific skills are in demand today? By analysing job postings on LinkedIn and Indeed, this article presents the Top 10 materials science skills sought by UK employers in 2025. Alongside definitions, you’ll find guidance on showcasing these skills in your CV, acing interviews, and building a compelling portfolio.
Quick Summary: Top 10 Materials Science Skills Employers Want in 2025
Materials characterisation (XRD, SEM, TEM, FTIR, DSC)
Materials processing & synthesis (CVD, PVD, additive manufacturing)
Thermomechanical testing & mechanical properties
Computational materials science & modelling (DFT, FEA)
Polymer chemistry & processing
Metallurgy & alloy design
Surface engineering & coatings (thin films, corrosion resistance)
Materials selection & failure analysis
Quality assurance, safety & regulatory compliance
Communication & multidisciplinary collaboration
1) Materials Characterisation (XRD, SEM, TEM, FTIR, DSC)
Why it’s essential:
Characterisation techniques underpin understanding of structure–property relationships. Employers expect hands-on familiarity with X-ray diffraction (XRD), scanning/transmission electron microscopy (SEM/TEM), Fourier-transform infrared (FTIR), and differential scanning calorimetry (DSC).
What job ads often say:
“Experience with XRD/SEM/TEM”, “FTIR spectroscopy skills”, “thermal analysis via DSC”.
How to evidence it:
“Used SEM and EDS to characterise fracture surfaces, identifying failure mechanisms.”
“Performed DSC analysis to determine glass transition temperatures in polymer blends.”
Interview readiness:
Be ready to outline how you chose a method (e.g., XRD for phase identification) and interpreted results.
2) Materials Processing & Synthesis (CVD, PVD, Additive Manufacturing)
Why it matters:
Developing materials requires control over processing methods like chemical vapour deposition (CVD), physical vapour deposition (PVD), sintering, or 3D printing.
What job ads often say:
“CVD/PVD process experience”, “additive manufacturing of metals/polymers”, “sintering, melt processing”.
How to evidence it:
“Optimised CVD parameters to grow uniform graphene films on copper substrates.”
“Developed 3D-printed polymer scaffolds with controlled porosity using SLA technology.”
Interview readiness:
Expect to discuss how temperature, atmosphere, or deposition rate affect microstructure and properties.
3) Thermomechanical Testing & Mechanical Properties
Why it’s essential:
Employers expect engineers to assess mechanical performance—tensile, compressive, fatigue, creep, hardness—and understand temperature-dependent properties.
What job ads often say:
“Tensile/fatigue testing experience”, “creep testing at elevated temperatures”, “hardness and toughness measurement”.
How to evidence it:
“Conducted fatigue testing on aerospace alloy samples, identifying optimal heat treatment.”
“Performed creep tests at 500 °C for turbine blade materials, guided design decisions.”
Interview readiness:
Be ready to explain test setups, sample preparation, and how to interpret stress-strain curves.
4) Computational Materials Science & Modelling (DFT, FEA)
Why it matters:
Modelling materials—using density functional theory (DFT) or finite element analysis (FEA)—speeds innovation and reduces prototyping.
What job ads often say:
“DFT modelling experience”, “FEA for stress/thermal analysis”, “computational materials design”.
How to evidence it:
“Simulated alloy phase stability using DFT, guiding experimental composition choices.”
“Used FEA to model thermal gradients in composites under service load.”
Interview readiness:
Expect to explain boundary conditions, meshing, or how you validated your models experimentally.
5) Polymer Chemistry & Processing
Why it’s vital:
UK industries in packaging, automotive, and healthcare rely on polymer specialists who understand synthesis, processing (extrusion, injection moulding), and degradation.
What job ads often say:
“Polymer synthesis”, “extrusion/injection moulding”, “polymer degradation and additives”.
How to evidence it:
“Formulated biodegradable polymer blends with enhanced tensile strength for packaging.”
“Optimised hot-melt extrusion temperatures to reduce warpage in components by 25%.”
Interview readiness:
Be ready to discuss catalyst, chain length, or additive effects on polymer properties.
6) Metallurgy & Alloy Design
Why it matters:
Designing high-performance metal alloys for aerospace, energy, or medical applications is core to materials science.
What job ads often say:
“Alloy development”, “heat treatment metallurgy”, “phase diagram knowledge”.
How to evidence it:
“Developed corrosion-resistant aluminium alloy for marine application with targeted heat treatment.”
“Studied ternary phase diagram to stabilise gamma prime phase in superalloys.”
Interview readiness:
Be prepared to discuss how composition and heat treatment influence grain structure and performance.
7) Surface Engineering & Coatings
Why it’s essential:
Protective coatings—thin films, corrosion inhibitors, wear-resistant layers—are widely used across UK industries like manufacturing and energy.
What job ads often say:
“Thin film deposition”, “anticorrosion coatings”, “surface engineering for wear resistance”.
How to evidence it:
“Applied PVD coating to improve hardness and reduce wear in cutting tools by 30%.”
“Developed anti-corrosion primer for marine steel, passing salt-spray test at 1000 hours exposure.”
Interview readiness:
Expect questions on adhesion, coating thickness control, or corrosion mechanism.
8) Materials Selection & Failure Analysis
Why it’s critical:
Engineers must choose appropriate materials and diagnose failures effectively (fractography, root cause analysis).
What job ads often say:
“Materials selection experience”, “failure analysis and fractography”, “root cause investigation”.
How to evidence it:
“Performed failure analysis on pipeline section; identified stress-corrosion cracking and informed new alloy choice.”
“Used optical and SEM fractography to map crack initiation in gears.”
Interview readiness:
Be ready to walk through how you systematically analysed failure—including environmental and loading conditions.
9) Quality Assurance, Safety & Regulatory Compliance
Why it’s demanded:
Materials deployed in regulated environments—medical devices, aerospace, transportation—must meet standards (ISO, ASTM, REACH).
What job ads often say:
“QA/QC experience”, “familiarity with ISO/ASTM standards”, “compliance with REACH or RoHS”.
How to evidence it:
“Led QA in composite materials testing aligned with ISO 9001 and ASTM D638.”
“Ensured RoHS compliant material selection for electronics housing to meet EU regulations.”
Interview readiness:
Be ready to outline how you ensure traceability, documentation, or compliance in experimentation.
10) Communication & Multidisciplinary Collaboration
Why it gets you hired:
Materials scientists must collaborate with design engineers, process engineers, safety officers, and business stakeholders.
What job ads often say:
“Strong communicator”, “multi-disciplinary collaboration”, “translate material challenges to deliverables”.
How to evidence it:
“Coordinated with product engineering team to implement new polymer material, reducing part cost by 15%.”
“Prepared material specification report and presented to cross-functional team for regulatory approval.”
Interview readiness:
Expect scenario-based questions where you explain complex material issues to non-specialists.
Honorable Mentions
Biomaterials and tissue engineering
Sustainable and recyclable materials
Nanomaterials and nanocomposites
Magnetic and electronic functional materials
How to Prove These Skills
Portfolio: Lab reports, microscopy images, simulation results, protocol summaries (sanitised).
CV: Include metrics like improved wear resistance, cost savings, regulatory approvals.
ATS optimisation: Align with terms like “XRD”, “DFT”, “CVD”, “QA”, “failure analysis”.
Interview prep: Have project narratives ready—challenge, method, result, business implication.
UK-Specific Hiring Signals
Aerospace hubs (Bristol, Midlands) favour high-temperature alloys, composite manufacturing, and fatigue testing.
Energy and renewables (Scotland, North East) focus on corrosion-resistant materials and coatings.
Healthcare & medical devices (Cambridge, London) need expertise in biomaterials, polymers, and regulatory compliance.
Suggested 12-Week Learning Path
Weeks 1–3: Core characterisation methods + metallurgy basics
Weeks 4–6: Polymer processing + thin-film/coating techniques
Weeks 7–8: Computational modelling (DFT or FEA)
Weeks 9–10: Mechanical and failure analysis + QA/standards overview
Weeks 11–12: Capstone: integrated project combining characterisation, processing, and failure resolution—documented and presented
FAQs
What is the most in-demand materials science skill in the UK?
Materials characterisation (XRD, SEM/TEM) and processing techniques (CVD, additive manufacturing) are frequently required.
Do employers need computational modelling skills?
Yes—DFT and FEA are increasingly asked for in R&D roles.
Is QA and regulatory knowledge essential?
Absolutely—especially in aerospace, medical devices, and energy sectors with strict standard compliance.
Are soft skills important in materials science?
Yes—clear communication across disciplines and translating material insights to design or production are often cited.
Final Checklist
Headline & About: emphasise materials science expertise
CV: highlight impact — improved properties, failed parts analysed, new process implemented
Skills section: characterisation, processing, testing, modelling, coatings, QA, communication
Portfolio: images, analysis summaries, simulation results
Keywords: align with UK job postings — “SEM”, “CVD”, “DFT modelling”, “failure analysis”
Conclusion
To stand out in UK materials science roles in 2025, cultivate a blend of characterisation, materials processing, mechanical testing, modelling, quality assurance, and cross-functional clarity. Employers consistently seek individuals skilled in XRD/SEM, thin-film synthesis, mechanical property measurement, computational modelling, coating technologies, failure analysis, and regulatory alignment. Demonstrate these through projects and clear communication—and you’ll align perfectly with what LinkedIn and Indeed say makes materials science candidates in demand today and into the future.
