Writing a Strong Laboratory CV for Bioscience Jobs
A strong laboratory CV is not a list of everything you have ever done. In UK bioscience and clinical diagnostics, hiring managers scan for two things: what you can do at the bench right now, and the evidence that you have done it. Get those across clearly and you move from the "maybe" pile to the interview shortlist.
Read the person specification before you write a word
Most UK laboratory roles — NHS clinical scientist and biomedical scientist posts, biotech R&D technician roles, contract research organisation positions — are advertised with a person specification that separates essential from desirable criteria. Treat that document as your outline. Highlight every essential criterion, then check that each one is visible somewhere in your CV within the first two pages.
If the advert asks for experience of aseptic technique in a containment level 2 laboratory, do not bury it in a dense paragraph. Name it, and quantify it. Something like "Routine mammalian cell culture under aseptic conditions in a CL2 facility, maintaining 12 cell lines with weekly mycoplasma screening" tells a reviewer far more than "experienced in cell culture".
Get the structure right
UK laboratory CVs work best with a familiar, scannable shape. A workable order is:
- Contact details — name, professional email, phone, town or city, and any relevant registration number.
- Professional profile — three or four lines summarising your discipline, years of bench experience and one standout result.
- Technical skills — instruments, techniques, platforms and quality systems.
- Experience — paid roles first, then placements and substantial projects, most recent first.
- Education and qualifications — degree, modules worth flagging, relevant certifications.
- Publications, posters and presentations — reverse chronological, consistent citation style.
- References — usually two, with a line noting that they are available on request.
Two pages is the norm for early-career lab CVs in the UK. Academic or research-heavy CVs can run longer, but every extra page needs to earn its place. Keep to a single column with clear headings and consistent dates in Month Year format; tables, text boxes and graphics often confuse applicant tracking systems.
Make technical skills specific and honest
This section is where most CVs fall flat. "Good laboratory practice" and "team player" say nothing. Reviewers want named instruments, techniques and platforms, with a clear indication of your level of independence. Vague confidence invites awkward questions at interview; calibrated honesty invites respect.
- Molecular biology — nucleic acid extraction, qPCR, primer design, Sanger sequencing, library preparation.
- Cell biology — mammalian cell culture, aseptic technique, flow cytometry, viability and proliferation assays.
- Analytical — HPLC, GC-MS, spectrophotometry, method development and validation.
- Clinical diagnostics — sample reception and triage, LIMS data entry, ISO 15189 quality control, EQA submission, result authorisation.
- Quality and compliance — SOP writing, COSHH risk assessments, GLP and GCP documentation, audit and inspection preparation.
- Data and software — LIMS platforms, statistical packages, electronic laboratory notebooks, sequencing analysis pipelines.
Where competence varies, say so: "independent" for techniques you run unsupervised, "supervised" for those you have performed under guidance, and "familiar with" only where you genuinely understand the principles and limitations.
Turn projects into evidence, not descriptions
For each significant project, cover three things briefly: what the aim was, what you personally did, and what came out of it. Numbers do the heavy lifting. "Processed around 120 clinical samples per week with a 0.5% repeat rate" or "maintained internal quality control within ±2 standard deviations across a six-month validation" is far more persuasive than "responsible for sample processing".
Include troubleshooting stories. Tracing a contamination problem in a nested PCR assay to a shared reagent, or identifying a drift in a standard curve before it affected patient results, shows the diagnostic thinking that laboratory managers value most. If you have no paid lab experience yet, treat final-year projects, placement years, summer internships and voluntary lab work as experience in their own right — describe them with the same rigour.
Publications, posters and professional registration
Clinical and research laboratories care about professional evidence, so give it space. Note any IBMS registration portfolio work, HCPC registration, or membership of bodies such as the Royal Society of Biology or the Royal Society of Chemistry, with dates and membership numbers where relevant.
For publications, use a consistent style — Vancouver suits biomedical work — and list authors in full. Include conference posters, oral presentations, abstracts and preprints alongside journal papers, and state your contribution: "first author", "contributed assay development and statistical analysis", "presented poster at national meeting". If a manuscript is in preparation or under review, say so plainly rather than leaving it out.
Tailor, proofread and check the details
Adjust the CV for each application, mirroring the language of the person specification where it is accurate to do so. Then proofread properly: instrument names, units, dates and technique spellings all get scrutinised by readers who know the field well. Expand acronyms on first use, keep tenses consistent, and ask a technical colleague to read it for anything that sounds overstated or unclear.
Save as a PDF unless Word is requested, and name the file clearly — something like Surname_Firstname_CV_LabTechnician.pdf. A CV that is accurate, specific and easy to scan will always beat one that is simply long.

Polymerase chain reaction enables rapid pathogen detection. Learn primer design, thermal cycling and contamination controls for reliable molecular microbiology results.
Point-of-care testing brings diagnostics closer to patients. Explore device selection, training, quality assurance and connectivity challenges in community settings.
Cell culture supports many biomedical research projects. Learn aseptic handling, media selection, passaging and cryopreservation for reproducible experimental results.
Pharmacogenomics explores how genes affect drug response. This article covers key enzymes, testing approaches and implications for safer prescribing in UK healthcare.