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An essential guide to help you be better informed when purchasing laboratory gloves, including when gloves are needed, how to identify the hazard, check chemical compatibility, understand markings and choose the right fit, thickness and construction. To view the PDF guide, click the cover image.
Gloves are one possible control measure for reducing hand contact with hazardous substances, biological contamination, sharp or rough objects and temperature extremes. They are not routinely required for every science activity. Use gloves where the risk assessment, relevant guidance, standard operating procedure or manufacturer’s instructions require them.
Start with the task, not the glove. First determine whether direct contact can be avoided through suitable equipment, safer methods or good technique. Where gloves are required, choose the exact glove product for the exact hazard and working conditions.
For chemical work, define the exact substance or mixture, concentration, temperature, contact type and expected duration. For other hazards, identify the relevant biological, mechanical, heat, cold or contamination risk and the level of protection the task requires.
Use this decision sequence before selecting a glove. It keeps the focus on the risk assessment and safer methods rather than treating gloves as the automatic first choice.

This task summary gives a starting point only. It does not replace the risk assessment, manufacturer instructions or product-specific compatibility data.
| Task | First Question | Product Features to Check |
|---|---|---|
| Routine school practical | Are gloves required by guidance or the risk assessment? | Exact hazard, fit and product suitability. |
| Chemical handling | What chemical or mixture, concentration and contact type are involved? | Compatibility data, degradation, overall glove length or required cuff coverage, and replacement guidance. |
| Biological work | What contamination or biological hazard exists? | Suitable barrier performance, glove changes between tasks, removal method and disposal route. |
| Cleaning | Which cleaning agent is used and how long could contact last? | Suitable single-use or reusable construction, compatibility, grip and required coverage. |
| Sharps or broken glass | Can direct handling be eliminated? | Tools first; then suitable mechanical protection if it is still required. |
| Hot or cold handling | What temperature and contact duration are expected? | Task-specific EN 407 or EN 511 performance and the manufacturer’s instructions. |
| Cryogenic work | Is the glove specifically intended for the procedure? | Product-specific cryogenic design, cuff coverage and the safe working method. |
| Latex allergy or skin sensitivity | Does the user need a non-latex or accelerator-free option? | Material formulation, fit, wear duration and any manufacturer skin-health information. |
This guide is intended for people selecting laboratory gloves, disposable gloves and specialist hand protection for education, science, preparation, cleaning and professional laboratory work.
Checking when gloves are required for classroom practicals and selecting suitable products where the risk assessment specifies hand protection.
Choosing gloves for preparation, chemical handling, cleaning, spill response, specimen work and practical setup.
Comparing product data, compliance documentation, size availability, allergy considerations and whole-life value before buying in bulk.
Selecting task-specific gloves for longer wear times, contamination control and more specialised substances or processes.
Reviewing risk assessments, conformity documentation, glove-use procedures, skin health, training and replacement arrangements.
Selecting reusable or disposable gloves for cleaning products, wet work, waste handling, spill response and maintenance.
Use the links below to jump directly to the section most relevant to your laboratory glove buying decision.
Laboratory gloves are items of personal protective equipment selected to reduce contact between the hands and specified hazards. Depending on their design and test performance, they may help protect against particular chemicals, micro-organisms, contamination, abrasion, cuts, heat or cold.
Gloves do not remove the hazard, and no glove protects against every substance or condition. They should be selected as part of a wider control system that may include substitution, smaller quantities, containment, ventilation, safe handling tools, eye protection, protective clothing, hygiene and suitable waste arrangements.
Common laboratory glove materials include nitrile, natural rubber latex, vinyl/PVC, neoprene, butyl rubber and specialist laminate or fluoropolymer materials. Cut-resistant, heat-resistant and cold-protective gloves serve different purposes and may not provide chemical protection unless specifically tested and marked for it.
Compare the following features only after the task and hazard have been defined.
Textured fingertips or palms can improve grip and control when handling glassware, instruments and wet equipment.
The palm is a key barrier area, but actual protection depends on the exact material, formulation, thickness, product design and relevant test data.
Common materials include nitrile, latex, vinyl/PVC, neoprene, butyl and specialist materials. Products made from the same nominal material can perform differently.
Thickness is commonly stated in mil for disposable gloves. It influences dexterity and durability but does not determine chemical suitability on its own.
Overall glove length is measured from the fingertips to the cuff edge. Choose enough length to cover the wrist or forearm area identified by the risk assessment.
The glove should allow secure handling and full finger movement without excessive tightness, looseness or surplus fingertip material.
Permeation, degradation and breakthrough results relate to a specified glove product, chemical and test condition. They are not universal ratings for the material.
Look for the standards and markings relevant to the hazard, then read the detailed performance code, exact edition and manufacturer documentation.
Glove features help with comparison, but the final choice must still be based on the exact hazard and product data.
The table below compares common categories without assigning a universal chemical-resistance score. Suitability depends on the exact product and task.
| Glove Type | Typical Strengths | Important Limitations | Buying Check |
|---|---|---|---|
| Nitrile Gloves | Latex-free options, useful dexterity and good durability for many disposable-glove tasks. | Not compatible with every solvent or chemical. Some products contain accelerators associated with skin sensitivity. | Check the exact product’s compatibility data, thickness, standard markings and formulation. |
| Latex Gloves | Good elasticity, fit and tactile sensitivity. | Natural-rubber-latex allergy and sensitisation risk; performance varies by chemical. Powdered latex presents additional concerns. | Use only where suitable alternatives do not provide the required protection; specify low-protein, powder-free products where latex is justified. |
| Vinyl Gloves | Low cost and easy donning for some brief, low-risk tasks. | Generally looser fitting and less durable than many nitrile products; not a default chemical-protective glove. | Restrict use to tasks for which the product information confirms suitability. |
| Neoprene Gloves | Available as flexible reusable chemical-protective gloves with longer cuffs. | Compatibility still varies by chemical, concentration and product construction. | Check the manufacturer’s chemical-specific test data and expected contact duration. |
| Butyl Rubber Gloves | Specialist products may perform well against selected chemicals and gases. | Higher cost, reduced dexterity and no universal protection against all solvents. | Buy only against verified product-specific data for the exact substance and task. |
| PVC Gloves | Reusable options can be durable for selected cleaning, wet-work and industrial tasks. | May reduce dexterity; chemical suitability depends on the product and substance. | Check chemical data, lining, cuff length, grip and reuse instructions. |
| Cut-Resistant Gloves | Designed for specified mechanical hazards such as abrasion or cuts. | Not automatically puncture-resistant, needlestick-resistant or chemical-resistant. | Match the EN 388 performance code and glove design to the exact mechanical hazard. |
| Thermal or Cold-Protective Gloves | Designed for specified hot or cold contact conditions. | May not protect against chemicals, liquid ingress or every temperature exposure. | Confirm the stated temperature application, relevant standard, contact time and manufacturer instructions. |
| Specialist Barrier or Fluoropolymer Gloves | Designed for selected high-hazard chemicals or unusual exposure conditions. | Can be expensive, less dexterous and difficult to size; performance remains chemical-specific. | Use specialist supplier or manufacturer advice supported by test data. |

Start with the task and exposure, then narrow the choice to a specific product. The best glove is the one that provides the required protection without creating a new handling problem.
| Application | What to Look For | Do Not Assume |
|---|---|---|
| School practical where gloves are not required | Use the stated method, equipment and other control measures. | That wearing gloves automatically makes the practical safer. |
| Brief contamination-control task | Suitable barrier performance, powder-free construction, good fit and a clear change procedure. | That a medical or examination glove is automatically chemical-resistant. |
| Chemical splash risk | Verified compatibility with the exact chemical or mixture, concentration and temperature, plus suitable cuff coverage and replacement guidance. | That “nitrile”, “neoprene” or “chemical resistant” is sufficiently specific. |
| Prolonged contact or immersion | A product tested for the exposure, with suitable construction, overall length and safe-use guidance. | That a thicker disposable glove is automatically suitable for immersion. |
| Biological work | Barrier suitability for the procedure, correct changing between tasks, safe removal and the appropriate disposal route. | That one glove type is suitable for every biological procedure. |
| Repeated cleaning or wet work | Compatibility with the cleaning product, comfort, grip, required coverage, inspection and storage instructions. | That one reusable glove suits every cleaning chemical. |
| Broken glass or blades | Eliminate hand contact using tools and containers; select tested mechanical protection only where it is still required. | That a cut-resistant glove protects against needles, every puncture or chemicals. |
| Hot, cold or cryogenic handling | Purpose-designed protection for the stated temperature and procedure, with suitable cuff coverage and handling tools. | That ordinary disposable gloves provide useful heat or cryogenic protection. |
School glove purchasing should begin with the practical guidance and risk assessments used by the department. Stock should support identified tasks rather than encourage routine glove use where it is unnecessary.
Check the relevant CLEAPSS or local guidance. Do not automatically issue gloves to every student for routine work.
Technicians may need different gloves for chemical preparation, cleaning, spill response, specimen work and mechanical tasks.
Where a disposable glove is required, powder-free nitrile can be a useful stock category, subject to exact product compatibility and user needs.
Keep task-specific reusable gloves where the risk assessment requires greater durability, longer cuffs or prolonged-contact protection.
Stock appropriate sizes and consider non-latex or accelerator-free options where justified. Poor fit and prolonged sweating can create problems.
Record the exact manufacturer, product code, size, approved task, issue date and replacement or expiry information.
The hazard and exposure conditions determine whether gloves are required and what performance is needed. Establish the details below before comparing glove products.
| Question | What to Establish |
|---|---|
| What is the hazard? | Chemical, biological, mechanical, heat, cold or contamination. |
| What is the exact substance? | Chemical name, mixture and concentration. |
| What type of contact is possible? | Incidental splash, repeated contact or immersion. |
| How long could contact last? | Seconds, minutes, repeated handling or continuous use. |
| What are the working conditions? | Temperature, wet or dry work, abrasion and movement. |
| Can contact be avoided? | Tongs, forceps, trays, bottle carriers or other suitable equipment and methods. |
| Who will wear the glove? | Size, allergies, skin sensitivity and dexterity requirements. |
Record the exact chemical or mixture, concentration, physical form, temperature, quantity, splash or immersion and expected contact time.
Consider the organism or sample, route of exposure, contamination control, glove changes, waste route and hand hygiene.
Use safer methods and tools to avoid hand contact. Distinguish cuts, punctures and needlestick hazards before selecting additional protection.
Define the surface or substance temperature, contact time, splash risk and need for grip, dexterity or liquid resistance.
Material is one selection factor, not the final answer. Use it to create a shortlist, then verify the exact glove product against the exposure.
Commonly used for disposable laboratory gloves because it is latex-free and available in many thicknesses and formulations.
Check: chemical-specific test data, accelerator content, thickness, cuff length and relevant markings.
Offers good stretch and tactile sensitivity, but can cause sensitisation or allergic reactions and is not suitable for every chemical.
Check: whether a non-latex alternative gives the required protection. Where latex is justified, choose low-protein, powder-free products.
Thin vinyl gloves may suit selected short, low-risk tasks. Thicker reusable PVC gloves can serve different cleaning or industrial applications.
Check: the specific product type, chemical data, fit, dexterity and intended use.
Available in reusable chemical-protective designs with useful flexibility and cuff coverage.
Check: exact chemical, concentration, contact duration, temperature and manufacturer test results.
A specialist material used for selected chemical or gas exposures where product data demonstrates suitable performance.
Check: permeation, degradation, dexterity, glove thickness and task compatibility.
Laminate, fluoropolymer/FKM-type and other specialist gloves may be required for particular high-hazard chemicals or unusual conditions.
Check: manufacturer or specialist supplier advice supported by data for the exact product and exposure.
The material overview should be used to create a shortlist, not as proof of chemical compatibility.
A glove can appear undamaged while a chemical is passing through the material at molecular level. For chemical work, compatibility must be checked using current data for the exact glove product and exposure conditions.
A splash lands on the outside of the glove. If a suitable glove is being worn, rinse, wipe or remove it as instructed and replace it if contaminated.
A chemical passes through a physical defect such as a hole, seam, tear or other imperfection.
The movement of a chemical through the glove material at molecular level, even when no damage is visible.
A damaging physical change such as swelling, softening, hardening, cracking, shrinking or loss of strength, flexibility or integrity.
| Information | Why It Matters |
|---|---|
| Exact substance or mixture | Compatibility can differ substantially between chemicals and mixtures. |
| Concentration | Different concentrations may give different protection requirements or test results. |
| Temperature | Higher temperature can increase permeation or degradation. |
| Splash, brief contact, repeated contact or immersion | The contact type affects the protection level, construction and cuff coverage required. |
| Expected duration and frequency | A glove suitable for a brief accidental splash may not suit prolonged or repeated contact. |
| Exact glove manufacturer, product code and thickness | Products made from the same nominal material can perform very differently. |
Use the manufacturer’s current documentation for the exact glove product. Generic material charts or broad breakthrough claims are not enough.

Thickness and overall glove length affect dexterity, durability and coverage, but neither proves that a glove is chemically compatible. Always verify the exact product data.
| Feature | Typical Description | Selection Point | Important Limitation |
|---|---|---|---|
| Thin disposable construction | Approximately 2–4 mil | Prioritises tactile sensitivity for suitable short tasks. | Lower durability and potentially limited chemical protection time. |
| General-purpose disposable range | Approximately 5–8 mil | Useful balance of dexterity and durability where the exact product is suitable. | Still not appropriate for every chemical or prolonged contact. |
| Heavier disposable or reusable construction | Often 8+ mil; many reusable products may also be specified in millimetres | More demanding tasks, repeated handling or longer coverage where product data supports use. | Thicker does not automatically mean chemically suitable. |
| Typical standard length | Approximately 9–10 in (about 230–250 mm) | General hand and wrist coverage for suitable tasks. | May leave part of the wrist or forearm exposed. |
| Extended length | Approximately 12–16 in (about 300–400 mm), with longer specialist products also available | Greater wrist and forearm coverage where the risk assessment requires it. | Length must still suit the expected exposure area and interface correctly with protective clothing. |
Proper fit supports dexterity and can reduce tear risk. Gloves should fit securely without restricting movement or leaving excessive loose material.
May restrict movement, increase fatigue, stretch the material and make tearing or difficult donning more likely.
May reduce grip and tactile sensitivity, create folds and interfere with precise handling.
Should allow full finger movement and secure handling without excessive tightness, looseness or surplus fingertip material.
Manufacturer sizing methods vary. Depending on the product, the chart may use palm width, hand circumference or another specified measurement.
Use the sizing chart for the exact manufacturer and product. Size bands and measuring methods are not universal.
Powder-free gloves are generally preferred in laboratory environments because loose powder can increase contamination risk. Powdered gloves are now rarely selected for laboratory work because of potential sample contamination and allergy or sensitisation concerns.
Usually the appropriate starting point for laboratory, school, specimen and contamination-sensitive work where gloves are required, subject to the task and exact product requirements.
May be easier to don in some circumstances, but are generally a poor choice for laboratory environments where contamination or skin-health concerns matter.
Many laboratories need both categories. The choice should reflect contamination control, contact duration, durability, overall glove length, cleaning arrangements and product-specific compatibility.

Standards and markings help show what a glove has been tested for, but no single standard proves that a product is suitable for every task. Check the exact product data, full performance code, standard designation and edition, manufacturer instructions and Declaration of Conformity where applicable.
| Standard or Marking | What It Relates To | What the Buyer Should Check |
|---|---|---|
| ISO / EN ISO 374-1 | Protective gloves tested against dangerous chemicals. | The exact edition, chemical code letters or classification shown, permeation and degradation information, and current manufacturer data for the exact glove. |
| ISO / EN ISO 374-5 | Protection against micro-organisms. | The exact edition and product marking, including whether an additional virus claim is shown where relevant. |
| EN 388 | Mechanical risks such as abrasion, blade cut, tear and puncture. | The complete performance code and whether the test result matches the actual mechanical hazard. |
| EN 407 | Heat and flame or thermal risks. | The individual performance levels relevant to the task. Ordinary disposable laboratory gloves are not heat-protection gloves. |
| EN 511 | Cold hazards. | Convective cold, contact cold and water penetration performance, plus the manufacturer’s stated use conditions. |
| EN 455 series | Medical gloves for single use. | The parts actually claimed by the product. EN 455 is not a substitute for chemical-protection testing. |
| CE / UKCA and product documentation | Product conformity information where applicable. | Manufacturer identity, product code, relevant marking, Declaration of Conformity, instructions and the standards and editions claimed. |
Read the exact standard designation, edition and performance code shown on the product. A pictogram or standard number alone is not proof of suitability.

Once the required protection has been established, these practical features can help refine the product choice.
Can improve grip and control where the task involves wet, smooth or precision items.
Ambidextrous designs are common for single-use gloves, while some reusable and specialist products are shaped for the left and right hands.
Colour can support separation of clean and dirty areas or different workflows, but it does not identify glove material, chemical compatibility or protection level.
Accelerator-free nitrile may be worth considering where skin sensitivity is a concern, provided the exact product still meets the protection requirement.
Routine glove use can be unnecessary and may create contamination, dexterity or snagging problems. Start with the risk assessment and safer methods.
Colour, “nitrile” or “neoprene” does not identify the product’s thickness, formulation, chemical compatibility or performance level.
Low unit cost is poor value if gloves tear, fit badly, lack the required documentation or are replaced more often than expected.
Thickness can affect durability, but an incompatible material or formulation remains unsuitable for that chemical.
Chemical compatibility can change with concentration, temperature and contact type. Do not use generic material claims in place of exact product data.
The standard number alone does not tell you whether the glove has the performance needed for the exact hazard.
Single-use gloves should not be washed and reused. Replace them after the task or sooner if contaminated, damaged or degraded.
Contaminated gloves can transfer material to phones, pens, door handles, keyboards and clean equipment.

Gloves are normally one part of a wider safe-working arrangement. The items below may reduce exposure or provide protection for other parts of the body.
Useful where the risk assessment requires additional splash protection for the body.
View ApronsSuitable storage and organisation can reduce unnecessary handling and exposure.
View StorageHelp avoid direct hand contact with specimens, broken glass, hot items or contaminated materials.
View Handling ToolsNo. Gloves are not routinely required for every practical. Follow the relevant CLEAPSS guidance and task-specific risk assessment. Unnecessary gloves can reduce dexterity, spread contamination or introduce snagging risks.
There is no universal best glove. Where a disposable glove is required, a suitable powder-free nitrile product is often a practical stock option, but its exact compatibility, size, markings and formulation must match the task.
Neither material is automatically better for every task. Nitrile avoids natural-rubber latex and is available in many laboratory products. Latex can provide good fit and tactile sensitivity but presents allergy concerns. Select the exact product using the hazard and test data.
Some vinyl gloves may suit brief, low-risk tasks where product information confirms suitability. They should not be treated as a default chemical-protective glove.
No. Nitrile products vary, and some chemicals can permeate or degrade them quickly. Check the manufacturer’s data for the exact glove, chemical, concentration, temperature and contact conditions.
It is a laboratory test result showing when permeation reaches a defined rate under specified conditions. Use it with degradation data, the task, temperature and manufacturer guidance; do not treat it as a universal safe-wear time.
Powder-free products are generally preferred because powder can contaminate samples, equipment and surfaces. Powdered latex gloves also present additional sensitisation and airborne exposure concerns.
Choose thickness after confirming chemical and task suitability. Thinner gloves can improve dexterity, while thicker products may improve durability. Thickness alone does not make an incompatible glove safe.
Ordinary disposable laboratory gloves are not a substitute for purpose-designed heat-protective gloves or suitable handling tools. Check the stated thermal performance of the exact product.
Ordinary disposable gloves are not suitable cryogenic protection. Use purpose-designed cold-protective equipment and follow the risk assessment, manufacturer instructions and local cryogenic procedures.
No. Single-use gloves should not be washed and reused. Replace them after the task, or sooner if contaminated, damaged, degraded or otherwise compromised.
They should allow full movement and secure handling without excessive tightness, looseness or surplus fingertip material. Use the size chart for the exact product.
The relevant standards depend on the hazard. These may include ISO / EN ISO 374 for chemical or micro-organism protection, EN 388 for mechanical risks, EN 407 for heat, EN 511 for cold or the EN 455 series for medical gloves. Check the exact standard designation and edition, full performance marking, current manufacturer data and Declaration of Conformity where applicable.
Select a suitable non-latex product that provides the required protection. Remember that non-latex gloves can still contain accelerators or other ingredients associated with dermatitis.
Double-gloving means wearing two glove layers where a defined procedure or risk assessment requires it. It does not make an incompatible product suitable and does not automatically double its breakthrough time.
Change them at the interval defined by the risk assessment and manufacturer, and immediately after contamination, damage, visible degradation, suspected permeation, task completion or movement from a dirty task to a clean one.
They may reduce selected cut risks but do not make hand collection safe. Use forceps, tongs, a brush and pan or another suitable method so fragments are not picked up by hand.
Before purchasing, confirm the points below for the actual tasks, users and glove products you intend to use.
Better Equipped supplies laboratory gloves, PPE and practical science equipment for schools, colleges, laboratories and professional environments.
Before ordering, identify the task and hazard and gather any chemical compatibility or conformity information needed to compare products properly.
View Laboratory Gloves Contact Us for AdviceThis guide was written and reviewed by Better Equipped's technical team, drawing on experience supplying laboratory gloves, PPE and practical science equipment to schools, colleges, laboratories and science departments throughout the UK.
Its selection framework is designed around task-specific risk assessment, relevant laboratory guidance, manufacturer compatibility data and current product documentation. It is general buying guidance and does not replace a task-specific risk assessment, safety data sheet, manufacturer compatibility chart or your organisation’s procedures.
Our technical team are here to support schools, colleges and laboratories across the UK. If you have feedback on this guide, click the contact button above.
Last reviewed and updated: August 2026