You're likely trying to solve a layout problem, not just buy a cabinet. Two benches need shared storage, a corridor is too tight, or a center island needs access from both sides without turning the room into a cluttered aisle maze. That's where double sided cabinets make sense. They give one cabinet body usable access from two directions, so you can reduce footprint waste and keep supplies where both work zones need them.
Summary box
What they do: Give storage access from both faces.
Why labs use them: They save floor space and keep shared items close to two workflows.
What matters most: Material, cleanability, load rating, door swing, and layout fit.
Where they fail: Tight corners, bad service routing, and poor clearance planning.
Best next move: Compare material options against the actual room, not just the catalog photo.
What a Double Sided Cabinet Does in a Lab
A double sided cabinet is a storage unit built for access from both directions, not just the front. In a lab, that usually means two benches, two rooms, or a bench run and a corridor can share the same storage footprint without forcing people to walk around a separate cabinet bank. The form is simple, but the planning benefit is real, because one cabinet can serve two sides of a workflow.
This idea is related to older freestanding storage furniture that later evolved into modern cabinet systems. In South Asia, the steel almirah was introduced by Godrej & Boyce in 1923, and the company patented a fire-resistant version in 1934. By the 1960s, it had become a household staple in India, showing how a storage form can move from niche use to broad adoption within roughly 40 years. Aureli Construction cabinet guide gives a useful look at how cabinet layout trends shift when storage has to serve a real room, not just a drawing.
For labs, the point is simpler than the history. A double sided unit works when you need shared access, less aisle clutter, and fewer separate cabinets taking up valuable floor area. If one side feeds clean supplies and the other side supports prep or storage, the cabinet becomes a shared service point instead of dead space.
Labs that already use island benches or pass-through storage often pair this concept with Labs USA lab storage solutions. That matters because the cabinet should support the room plan, not fight it.
Practical rule: If both sides of the room need the same supplies, one double sided cabinet is usually cleaner than two separate single-sided units.
Materials and Configurations Compared
Material choice drives almost everything. Cleanability, chemical resistance, weight, and long-term wear all change with the substrate. If you pick the wrong material first, you'll spend the rest of the project trying to work around it.
Here's the short version. Painted steel fits general lab storage and most budget-conscious projects. Stainless steel belongs in hygiene-focused spaces where wipe-down and corrosion resistance matter. Wood veneer works in low-hazard support areas where appearance matters more than chemical exposure. Phenolic resin is the better choice when chemical resistance and durability matter more than a finished-furniture look.
The configuration matters just as much. Enclosed double-sided base cabinets fit shared reagent or consumable storage. Open pass-through shelf units work better when the team needs quick visual access. Tall units make sense when vertical storage is the constraint. Mobile or adjustable-height units are useful when the room will change often, but they need a careful look at stability and service routing.
Material
Best Fit
Resists
Watch For
Painted Steel
General lab storage, support rooms
Mild wear and routine cleaning
Needs prompt care around corrosive spills
Stainless Steel
Sterile, hygienic, wipe-down spaces
Moisture and demanding cleaning routines
Higher upfront cost and visible finish care
Wood Veneer
Lower-hazard offices or non-chemical spaces
Everyday use in dry areas
Poor fit for wet or corrosive environments
Phenolic Resin
Teaching labs, chemical-heavy rooms
Many lab chemicals and frequent wipe-downs
Weight and appearance may not fit every project
If you're deciding between options, start with the room hazard first, then narrow the configuration. Don't waste time comparing finishes that won't survive the environment. If you need a stainless-focused build, Labs USA stainless steel cabinets are the right category to review first.
Specs That Actually Matter for Lab Use
Forget the glossy product language. The spec sheet is where the project gets won or lost. Load rating, shelf adjustability, cabinet geometry, and locking all affect how the unit performs once people start using it every day.
A heavy-duty side cabinet specification lists a 1.65-tonne total load capacity, drawer loads up to 110 kg, and galvanized shelves rated at 160 kg, optionally 200 kg, with shelf adjustment in 25 mm increments. That's a useful planning anchor because it shows the structure, not the doors, carries the working load. The traydon heavy-duty side cabinet specification makes that clear.
A hygienic stainless double-sided unit describes a fixed welded body, 5 height-adjustable shelves, T-handle/profile-cylinder locking on both sides, and chrome-nickel steel 18/10, 304 equivalent construction. It also uses a sloping roof on both sides with a center section 200 mm higher to reduce dirt traps and improve cleanability. That's the kind of detail that matters in sterile or washdown-sensitive spaces. The Mohn double-sided cabinet specification is a good model for what to ask vendors to document.
Labs USA lab cabinets should be reviewed with the same mindset. Ask for the numbers that affect field use, not just the finish name.
Planning question: How often will shelf heights change, and what will sit on the lowest shelf. If the answer is often, and the contents are dense, the cabinet needs more than a pretty face.
Before you approve a submittal, write down these must-haves:
Load per shelf and drawer: Confirm the cabinet can handle your heaviest stored items.
Shelf adjustability: Make sure pitch changes are practical for your inventory.
Locking method: Decide whether both sides need the same keying plan.
Door and hinge swing: Verify nothing collides with nearby benches or walls.
Sealing and finish: Match the cabinet to the cleaning routine and exposure level.
How Labs Use These Cabinets in Real Workflows
A university teaching lab usually needs shared storage between two student benches. In that setting, I'd pick phenolic or painted steel with locking doors and adjustable shelves. The point is flexibility between terms, when instructors change the lab layout and the supply list changes with it.
A pharmaceutical R&D or QC lab needs a different answer. A double sided cabinet inside a back-to-back island keeps reagents, glassware, and consumables within reach of both operators without stacking supplies on the bench. For that environment, stainless steel is the cleaner call because wipe-down and routine sanitation matter, and it supports the kind of room discipline teams expect when they want cleaner surfaces and less bench clutter. For planning reference, Labs USA also shows how shared-access work zones can be paired with lab workstations and tables.
A hospital or clinical lab has the strictest separation needs. A double sided unit can support a clean side and a soiled side while keeping one continuous wall line. The hygienic details from the stainless spec matter here, especially the sloping roof, sealed doors, and dual-side locking.
The real win is not the cabinet itself, it's what gets off the bench. That's where layout teams recover usable room and cleaner traffic paths.
That space recovery is where planning teams often see the payoff. When supplies move out of open bench zones and into a shared cabinet system, the room usually feels more open and less crowded. The exact result depends on the layout, but the directional gain is real enough that it should be part of the committee discussion.
A 5 Step Selection Checklist for Procurement Teams
Start with the workflow, not the SKU. Who opens each side, what do they grab, and how often do they need it. If both faces serve the same people, the cabinet can be simple. If each face supports a different process, the locking and internal arrangement need more thought.
Next, match the material to the environment. Use stainless where hygiene matters, phenolic where chemicals are tougher on surfaces, painted steel for general-purpose lab storage, and wood veneer only where the environment is dry and low hazard. Labs USA SEFA 8 casework checklist is a helpful baseline if you want a formal verification path.
Then lock the dimensions. Depth, shelf pitch, door swing, and clearances all need to fit the room. Don't assume a standard module will work in a non-square space, because corner offsets, fillers, and service chases often decide whether the cabinet installs cleanly.
After that, run the layout through CAD. Reserve room for electrical, data, plumbing, and maintenance access. The back side of a double sided cabinet often becomes a service corridor, so you need to protect that space early.
Finally, set delivery and installation early. If the project schedule is tight, waiting to confirm finish and hardware choices creates avoidable delay. A fixed site survey keeps the install sequence honest and gives the crew a real plan.
Layout, CAD and Services Integration
The cabinet is a consequence of the room, not the other way around. Place it on the lab grid where it supports bench runs, island work, or a shared corridor, then check how it lines up with nearby hoods, sinks, and utility routes. If the cabinet blocks service access, it's the wrong cabinet in the wrong place.
The back side often acts like a services corridor. That means pipes, valves, and future maintenance access need space, not guesswork. In shallow or odd-angle areas, a filler panel or custom end panel is usually smarter than forcing full depth storage into a bad opening.
CAD blocks should show the full footprint, hinge swing, door swing, and access clearance on both faces. Two people using opposite sides at the same time should not collide at the handles or corners. That's a layout failure, not a user behavior problem.
Use the room geometry to protect the usable gain. Projects that route services correctly and avoid dead space behind the cabinet usually preserve more of the storage benefit, because the layout isn't wasting room on hidden clearance gaps. That's where the planning work pays off.
Installation, Maintenance, Code and Cost
A clean install starts with a site survey, then leveling, anchoring, hardware checks, locking alignment, and turnover paperwork. For chemical, weight, or seismic conditions, use qualified installers and defer to your safety team. The cabinet may be simple, but the room conditions are not.
Maintenance depends on the material. Phenolic tolerates routine wiping well. Stainless should be cleaned in the direction of the grain. Painted steel needs quick attention around spills, especially corrosive ones. Wood belongs in dry spaces and needs protection from moisture.
For code and approvals, lean on local code, EHS, and facility safety staff. If you need a planning baseline for casework performance, treat SEFA 8 as a verification reference, not a marketing slogan. If approvals are slowing the schedule, finding your way through approvals is a useful reminder that permits and signoff are part of the project, not an afterthought.
Price comes down to material, hardware, locking, and lead time. Rush orders near a deadline often cost more because the project loses scheduling flexibility. Locking the spec early keeps the budget cleaner and helps installation happen when the room is ready.
FAQs and Next Steps
What is a double sided cabinet? It's a storage cabinet that can be opened from both sides, so two work zones can share one footprint.
Which material should I pick for corrosive or sterile spaces? Use stainless for hygiene-focused areas and phenolic when chemical exposure is a bigger issue.
What load ratings matter most? Ask for shelf, drawer, and total cabinet load ratings, then compare them to the items you'll store.
How does layout affect installation? A bad layout creates hinge conflicts, service clashes, and wasted space behind the cabinet.
What does maintenance look like? It depends on the surface, but all materials need routine care and prompt attention after spills.
Do lead times affect project schedules? Yes. Delayed spec decisions usually push install timing and make procurement harder.
Can Labs USA help with planning? Yes, Labs USA can quote storage options, provide layouts, and help you compare cabinet types for the room.
If you're planning a lab build or renovation, compare options now so you can lock the layout before it gets expensive to change. Then request a quote or plan a layout with Labs USA, call 801-855-8560, or email Sales@Labs-USA.com.
You can get a lab renovation to look simple on paper, then watch it get complicated fast once utilities, storage, cleaning access, and future reconfiguration all land on the same drawing. Lab design casework sits right in the middle of that decision. If the cabinets, work surfaces, and support pieces are wrong, the rest of the room starts to fight back.
The good news is that casework is one of the most controllable parts of the project. You can match the material to the chemistry, the layout to the workflow, and the installation to the long-term maintenance plan. That is where a lot of hidden cost gets won or lost.
Practical rule: treat casework as lab infrastructure, not just furniture. It holds equipment, carries utilities, and shapes how people move through the room.
For a focused upper-storage workflow, use the wall cabinet configurator for labs to organize cabinet placement, wall support questions, and quote inputs before procurement.
What Lab Design Casework Includes and Why It Matters
A lab manager planning a remodel usually starts with one simple question, where do the cabinets go. That question quickly turns into a bigger one, because lab design casework affects storage, safety, cleaning, and how easily the room can change later. Base cabinets, wall cabinets, tall storage units, sink bases, fume hood bases, shelving, and specialty enclosures all work together as one system.
The scope matters because lab casework is not the same as commercial office furniture. Laboratory-grade systems are expected to handle chemicals, heavy instruments, utility runs, and frequent cleaning. Labs USA’s casework page shows how these pieces are planned as part of a full lab environment, not as stand-alone boxes, through lab casework solutions.
What makes it different from standard furniture
Standard furniture can look fine at delivery and still fail once a lab starts using solvents, water, heat, or heavy analyzers. Lab casework has to support load, cleaning, and service access while staying aligned with the room. That is why planning starts early, before the final equipment list gets locked in.
A useful setup guide from Herbilabs Labware also makes the same practical point, a lab works better when furniture, workflow, and utilities are planned together. That advice lines up with real project work. If the casework is placed after the equipment plan, the room often needs change orders.
Lab casework should be drawn around how the team works, not around whatever cabinet sizes happen to be easiest to order.
For a facility team, that means asking where spills may happen, where cleaning has to reach, and where future equipment may land. Getting those answers early prevents bottlenecks after install.
Comparing Casework Materials for Different Lab Environments
The material choice drives daily performance, but it also affects repair cycles, cleaning effort, and replacement planning. Four common options come up again and again, painted steel, stainless steel, wood, and phenolic resin. Each one can work well, but each one fits a different risk profile.
Material comparison
Material
Chemical Resistance
Load Capacity
Moisture Tolerance
Best Applications
Painted steel
Good for moderate exposure
Strong for general lab use
Moderate
General research labs, mixed-use spaces
Stainless steel
Excellent for cleaning and corrosion control
Strong and stable
High
Pharmaceutical, cleanroom, clinical, washdown areas
Painted steel often gives the best balance for many labs because it supports strong everyday use without the cost profile of specialty materials. Stainless steel fits spaces that need frequent sanitizing and better corrosion control. Wood can make sense in dry academic spaces where the lab won’t face constant chemical splash. Phenolic resin is a strong choice when moisture and aggressive cleaning are part of the job.
Sustainability and lifecycle trade-offs
The sustainability question is not just about recycled content. It is also about how often the system gets replaced, how much gets reused, and what happens at the end of life. A more durable system can lower replacement pressure over time, even if the upfront decision looks more expensive. That is why the hidden lifecycle cost matters as much as the purchase price.
Understanding SEFA Standards and Structural Specifications
Lab furniture fails in predictable ways when it is treated like ordinary millwork. Doors go out of line. Tops flex. Utility connections shift. SEFA-based specifications exist to reduce those problems, and the details matter because small structural shortcuts show up later as maintenance calls.
Why structure and testing matter
University guidance commonly points buyers toward SEFA-tested laboratory-grade wood or metal casework and explains why. Fixed systems should be anchored to the substrate, have closed toe kicks, continuous filler panels, and closed back panels. Those details reduce hidden cavities that can collect dust or pests and make cleaning harder. Scribing to adjacent construction also matters because clean joints are easier to maintain.
The structural side is just as important. University specifications often call for cold-rolled steel construction with different gauges for different parts, such as 20 gauge for drawer bodies and shelves, 18 gauge for ends, backs, case tops and bottoms, 16 gauge for rails and stretchers, and heavier gauge reinforcement where stress is higher. That is not overkill. It puts thicker metal where load transfer happens.
Practical rule: if a spec uses the same thin material everywhere, it is usually a sign the design was copied from office furniture.
Work surface stiffness is not just a technical note. University standards commonly set a 50 lb/sf benchmark and limit deflection to 1/180 of span length with a maximum of 1/4 inch. That limit helps preserve door and drawer alignment, protects utility connections, and reduces cracking or seal failure under repeated instrument loads. In plain terms, a rigid top stays serviceable longer.
When a spec leaves out these structural details, the project may still look complete at turnover. The trouble usually shows up after the first rounds of cleaning, equipment movement, and service work.
Five-Step Casework Selection Checklist
Choosing casework gets easier when the team works through the same order every time. That keeps design meetings focused and reduces the risk of skipping a key issue until it becomes a change order.
1. Map the workflow
Mark wet zones, dry zones, instrument areas, and traffic paths. Ask where people stand the longest, where carts need to pass, and where doors can open without conflict. A bad layout often starts with one cabinet blocking one movement path.
2. Match the material to the exposure
List the chemicals, cleaning methods, and moisture conditions in each zone. Then match the surface to that exposure instead of picking one finish for the whole room. A single cabinet run may need different material behavior than the next run over.
3. Verify code and safety requirements
Check SEFA, OSHA, NFPA, and local building rules with the facility safety team. Anchor points, ventilation clearances, and fire-related details can change the cabinet spec. If you are unsure, document the assumption and confirm it with the authority having jurisdiction.
4. Plan utility integration
Map electrical, plumbing, gas, data, and exhaust before final layout approval. Casework must allow access to service chases without creating hidden traps. Utility conflicts are easier to solve on drawings than in the field.
5. Set the procurement plan
Decide who owns the full package, what drawings are needed, and how lead times affect the schedule. Single-source responsibility often reduces finger-pointing during install. It also helps keep the project moving when the room has a tight turnover date.
A clean procurement file should show the layout, the finish schedule, the utility plan, and the installer’s scope before the order goes in.
If the team gets stuck, a free design review can save time. Labs USA provides casework support through its normal project process, which can help with layouts, specifications, and pricing without forcing a commitment.
Decision Scenarios for Different Laboratory Types
No single casework setup fits every lab. The right answer depends on contamination risk, cleaning frequency, equipment weight, and how often the room will change. These common scenarios show how the trade-offs play out.
Pharmaceutical and cleanroom spaces
Stainless steel makes sense when sanitization is frequent and corrosion resistance matters. Smooth finishes and easy-clean surfaces reduce the places where residue can hide. In these rooms, the goal is usually cleanability first, then serviceability.
University teaching labs
Wood or painted steel can work well when the budget is tighter and the room needs more flexibility than harsh-chemical resistance. If the curriculum changes often, modular pieces are easier to shift than fixed runs. That keeps the room useful without a full rebuild.
Clinical pathology labs
Phenolic work surfaces and chemical-resistant storage are common choices when spills and disinfectants are part of daily use. The surfaces need to handle repeated cleaning without swelling or breaking down. Good storage also keeps supplies organized, which matters in a fast-moving clinical setting.
Industrial quality control labs
Heavy-duty steel casework with reinforced shelving suits large analyzers and dense sample handling. These rooms often need stable support more than fancy finishes. If the top flexes, the instrument setup usually pays for it.
Food and beverage testing labs
Moisture-resistant materials help in rooms where washdown, rinsing, and frequent cleanup are normal. Phenolic and stainless options usually fit better than materials that dislike water. That choice can cut long-term repair work.
Mixed-use renovation projects
Older buildings often need a hybrid layout, fixed casework in permanent utility zones and modular casework where reconfiguration is likely. That split is practical because it protects the areas that must stay put while leaving other zones adaptable. McGill’s guidance on planning for repurposing fits this approach well in laboratory casework standards for hospitals and clinical labs, even when the space is not a hospital.
Installation Planning and Long-Term Maintenance
The install should start with a clean scope and one accountable supplier. Yale and McGill both point to single-manufacturer responsibility for casework, which helps keep delivery, installation, and warranty lines clear. That matters when multiple trades are working in the same room.
Installation sequencing that avoids rework
First comes substrate prep. Then the utility rough-in. After that, the casework gets anchored and aligned, and the final fit-up happens only when adjacent finishes are ready. If the cabinets go in before the services are set, crews end up cutting around mistakes.
Maintenance starts on day one, not after a problem appears. Cleaning agents need to match the material finish. Hardware should be checked before doors begin to sag. Work surfaces should be inspected for chips, swelling, corrosion, or movement around service cutouts.
McGill’s guidance also gives a useful planning benchmark, casework should be planned for long-term use and repurposing, and the expected cost life should be at least 20 years. That kind of horizon helps a facility manager compare a lower-price cabinet with a more durable system that may hold value longer. The right choice is not always the cheapest purchase, it is the one that keeps the room usable.
For projects that need install coordination, Labs USA installation support can be part of the planning conversation alongside the trade schedule.
Common Questions About Lab Casework Planning
How do I prove SEFA compliance before I buy?
Ask for the product standard, test references, and submittal sheets before award. The spec should show performance details, not just a catalog photo. If the paperwork is thin, the cabinet spec is probably thin too.
Are modular systems as strong as fixed systems?
They can be, but only if the design and anchoring are done correctly. Modular casework is especially useful where future changes are likely, while fixed systems fit permanent utility zones better.
How do I think about total cost of ownership?
Look beyond purchase price. Include expected maintenance, cleaning effort, likely replacement timing, and the cost of moving or reconfiguring the room later. A cheaper system that fails early can cost more in the end.
What should I check around fume hood bases?
Confirm utility access, clearances, anchoring, and service routing before install. The base has to support the hood while leaving room for safe connections and maintenance access. If the hood and casework fight for the same space, the design needs revision.
How do I coordinate casework with HVAC and electrical trades?
Freeze the rough-in points early and share one coordinated layout. The cabinet shop, electrician, plumber, and HVAC contractor all need the same dimensions. A split set of drawings is a common cause of field delays.
Why do single-source procurement rules matter?
They keep responsibility clear. If delivery, installation, and the casework itself come from one manufacturer or one accountable source, it is easier to manage defects, fit issues, and warranty questions.
What is the main hidden cost people miss?
Future reconfiguration. If the room is likely to change, modular systems can reduce waste and make later work easier. A static layout can look fine on day one and still become expensive when the lab shifts.
Should I always choose the most chemical-resistant material?
No. Over-specifying can waste budget without adding real value. Match the material to the actual exposure, cleaning, and moisture conditions in each zone.
For teams building out a project list, Labs USA can help compare options, quote the scope, and develop a layout that fits the room instead of forcing the room to fit the product.
Laboratory casework affects more than storage. It shapes safety, cleaning, service access, and how well the room can adapt later. If you are planning a new build or a renovation, compare options early, then request a quote or plan a layout with Labs USA so the design, budget, and schedule all line up before procurement starts.
If you are planning a new lab or replacing older casework, lab cabinet fabrication, design, and sourcing decisions can slow the whole project. The hard part is not choosing a door style. It is matching storage, materials, countertops, layout, services, and installation conditions so the quote is accurate and the finished room works.
Good lab cabinets support safety, workflow, and long-term maintenance. The best results come from choosing the right material for the work, planning the cabinet layout around the room, and checking construction and standards before you approve the order.
Your Guide to Specifying Laboratory Cabinets
A project starts to slip when the room is roughed in, plumbing locations are fixed, and the cabinet request still says “standard.” In lab work, that usually means different things to different people. The result is familiar: sink bases that miss utility drops, wall cabinets that need extra backing, chemical storage that was never defined, and countertops that no longer fit the final layout.
Lab cabinets affect more than storage. They influence installation sequencing, service access, cleaning, and how smoothly staff can work once the room is live. If the specification is thin, the problems usually show up late, when changes cost more and lead times are harder to absorb.
Practical rule: Width and finish are only the starting point. A usable cabinet specification also covers exposure, load, mounting conditions, service access, and the way the room actually operates.
This guide focuses on the specification process, not just a list of cabinet types. The goal is to match materials, configurations, and layout details to the lab’s workflow, safety requirements, and budget so the first quote is close to the final order.
Quick summary
Match material to actual exposure: Dry labs, wet labs, healthcare rooms, and chemical work areas call for different cabinet construction.
Lay out cabinets around the work: Storage needs to support reach, circulation, equipment movement, and cleaning access.
Check standards and build quality: Buyers often look for SEFA, BIFMA, and UL compliance, with SEFA commonly used as a performance benchmark for safety, durability, and structural integrity.
Specify tops and accessories together: Cabinets, countertops, sinks, fillers, and hardware need to be selected as one system.
Send complete quote information: Utility locations, wall conditions, clearances, and special storage needs should be defined before pricing starts.
What Are Lab Cabinets?
Lab cabinets are purpose-built storage units made for laboratory work. They aren’t the same as office cabinetry or residential millwork. They’re used to store chemicals, glassware, tools, supplies, and equipment in spaces that often involve moisture, frequent cleaning, heavy loads, or hazardous materials.
Industry guidance describes laboratory casework as cabinetry, countertops, and storage systems designed specifically for chemical resistance, heavy loads, safety, and workflow efficiency. In practice, that means lab cabinets need to do more than look clean. They need to perform under daily lab conditions.
Some are simple base units under a bench. Others are wall cabinets, tall storage cabinets, sink cabinets, or specialty units tied to a hazard or process. The right choice depends on what the room does every day, not just how much storage you want.
Lab Cabinets vs. Laboratory Casework
A facility manager usually feels this distinction when the quote comes back wrong. The request says “lab cabinets,” but the room also needs tops, sink cutouts, service access, fillers, and support for utilities. At that point, the project is not just about cabinets. It is about casework.
Lab cabinets are individual units such as base, wall, tall, or sink cabinets. Laboratory casework is the full furniture system those units belong to, including countertops, end panels, shelving, supports, and the details that make the layout buildable. That difference affects how the job should be specified, priced, and installed.
In practical terms, cabinets can be selected one by one. Casework has to be coordinated as a system. A single replacement cabinet may only require matching width, depth, door swing, and material. A room package requires more. Bench lengths, countertop overhangs, sink locations, wall conditions, rough-ins, and access panels all have to work together before fabrication starts.
Specification discipline saves time. If the goal is an accurate first quote, define whether you are buying a few storage units or a full casework package. That changes the drawing detail, the material questions, and the installation scope. For a more technical planning reference, review these laboratory casework specifications.
The trade-off is simple. Ordering “cabinets” is faster at the start. Specifying casework correctly avoids field conflicts, change orders, and mismatched components later.
Common Lab Cabinet Configurations
Most labs use a mix of cabinet types. The right mix depends on what needs to be stored, how often it’s used, and whether the cabinet has to support a bench, a sink, or a safety function. If you want a broader overview of styles before you spec them, see this lab cabinets guide.
Base cabinets
Base cabinets sit below the work surface. They’re the backbone of many bench runs and island stations.
They work well for:
General storage: Supplies, small instruments, and boxed consumables
Drawer storage: Hand tools, pipette accessories, and frequently used items
Work surface support: Benchtops that need stable support below
In specification terms, base units do more than hold materials. They often support countertop spans, define knee space, and interact with plumbing or electrical rough-ins.
Wall cabinets
Wall cabinets keep supplies within reach while preserving floor space. They help in smaller rooms and in labs where bench depth is limited.
Use them for:
Lightweight storage: Glassware, PPE, small containers, and routine supplies
Zone organization: Keeping items close to a procedure area
Vertical space use: Adding storage without increasing the cabinet footprint below
Wall units need proper backing, support, and mounting conditions. That’s not a detail to leave until installation day.
Tall cabinets
Tall cabinets handle bulk storage, back stock, and larger items. They’re often placed on perimeter walls or in support zones.
They fit well for:
Large supply storage
Housekeeping or utility items
Dedicated project or department storage
Tall units can solve clutter problems quickly, but they can also create sightline and clearance issues if placed too close to doors, safety stations, or circulation paths.
Specialty cabinets
Specialty cabinets include sink cabinets, mobile units, and cabinets tied to a specific process or hazard. These require more coordination than standard storage units.
Common examples include:
Sink cabinets: Need plumbing access and moisture-aware construction
Chemical-adjacent cabinets: May need spill awareness and segregation planning
Secure storage cabinets: Used where controlled access matters
A cabinet line works best when every unit has a job. Extra cabinets that don’t support the workflow often become clutter zones.
Lab Cabinet Fabrication: From Approved Design to Installation
Lab cabinet fabrication turns an approved room plan and cabinet schedule into a coordinated casework package. It may include standard manufactured units, modified standard cabinets, or custom pieces for unusual walls, utilities, equipment, and storage needs. The sourcing team should know which parts are standard and which require project-specific fabrication before pricing is compared.
Installed lab casework shows why cabinet fabrication must coordinate drawer banks, knee spaces, sinks, work surfaces, and utility locations as one system.
What a lab cabinet fabricator needs before release
Cabinet schedule: Each base, wall, tall, sink, mobile, and specialty cabinet identified by location and function.
Material and finish: The selected substrate, finish system, hardware, and cleaning conditions.
Countertop scope: Work surface material, seams, backsplashes, overhangs, supports, sinks, and cutouts.
Utility coordination: Verified plumbing, power, data, gases, service chases, and access panels.
Field conditions: Wall backing, floor level, delivery route, installation sequence, and site constraints.
Lab cabinet fabrication checkpoints
Before production, review shop drawings against the architectural plan, equipment list, utility drawings, and countertop details. Check cabinet handing, filler locations, door and drawer clearance, wall-cabinet backing, sink-base access, and the support needed around equipment or cutouts. The project team should resolve conflicts in the drawings rather than leave them for the installer.
During fabrication and delivery, keep finishes, labels, and room groupings easy to verify. At installation, inspect alignment, anchorage, door and drawer operation, countertop fit, and access to service points. Final acceptance should follow the approved drawings and the manufacturer’s care instructions.
Lab Cabinet Sourcing and Supplier Services
Lab cabinet sourcing is the process of matching a qualified product and service team to the room, not just finding cabinets that fit a price list. A useful sourcing comparison covers design support, submittals, cabinet and countertop coordination, delivery, installation, closeout documents, and support after the order.
How to compare lab cabinet solutions
Start by giving each supplier the same scope. Include the plan, cabinet schedule, materials, work surfaces, sinks, utilities, installation needs, and required project documents. Then compare what is included, what is excluded, and what still depends on field verification. A low initial number is hard to compare when one proposal includes layout support and countertops while another covers cabinets only.
Sourcing decision
What to ask
Why it matters
Design support
Who checks the room plan, workflow, storage, equipment, and utility conflicts?
A coordinated design reduces late scope changes.
Fabrication approach
Which units are standard, modified standard, or custom?
The mix affects approvals, fit, and schedule planning.
Cabinets and countertops
Who owns measurements, seams, cutouts, sinks, supports, and final fit?
Clear ownership prevents gaps between trades.
Submittals
What drawings, finish samples, product data, and care documents are provided?
The approval record defines what will be supplied.
Delivery and installation
Who handles receiving, staging, anchorage, alignment, and final adjustments?
Site responsibilities must be clear before delivery.
Changes and support
How are drawing revisions, damage, shortages, and replacement parts handled?
A clear process protects the project after release.
Lab cabinet services to define in the quote
Ask whether the proposal includes site measurement, layout development, specification help, shop drawings, finish review, project management, freight coordination, installation, punch-list work, and care information. Do not assume every lab cabinet supplier includes the same services. Put responsibilities in writing so the owner, designer, contractor, supplier, countertop fabricator, and installer know who owns each task.
How to Specify Lab Cabinet Materials
Material choice drives durability, maintenance, cleanability, and cost expectations. It also affects how the cabinet behaves in wet areas, high-abuse teaching labs, and spaces that require frequent wipe-downs. If you’re comparing substrates in more detail, this lab casework materials article is a useful companion.
Painted steel
Painted steel is one of the most common choices for general laboratory casework. It’s easy to specify, durable in many teaching and research settings, and available in standard cabinet configurations.
It works well when you need:
Strong everyday durability
Consistent appearance across a full room
A practical option for dry or mixed-use labs
Steel specs for laboratory use often focus on construction quality, not just appearance. Buyers should look at body construction, reinforcement, finish quality, and whether the cabinet is built for laboratory service rather than generic commercial use.
Stainless steel
Stainless steel is often chosen when cleanability, corrosion resistance, and moisture handling are high priorities. It’s common in applications where frequent cleaning is expected or where wet processes are part of the room’s normal use.
This material is often a fit for:
Wet labs
Healthcare and clinical support spaces
Corrosion-prone or high-cleaning areas
If your room leans toward washdown, harsh cleaning protocols, or corrosion risk, compare stainless steel laboratory cabinets before locking in a painted finish.
Phenolic resin
Phenolic is often selected for harsh chemical or moisture conditions. It can make sense where exposure risks are greater and where the cabinet material itself needs a higher level of resistance than basic painted surfaces can offer.
It may be worth considering for:
Wet process spaces
Chemical-heavy applications
Rooms where moisture exposure is routine
Phenolic usually enters the discussion when performance needs outweigh the simplicity of a more standard cabinet material.
Wood
Wood laboratory casework still has a place in many facilities, especially where the exposure profile is less aggressive and aesthetics or budget matter. But wood for labs isn’t the same as generic millwork. Laboratory wood casework specs emphasize construction quality suitable for lab use.
Wood may fit when you need:
A warmer finish appearance
General storage in lower-exposure areas
An option aligned with specific project standards
The key is to match the wood construction and finish system to the room’s cleaning method, moisture level, and service intensity.
Material choice should follow the room’s exposure profile. Not the other way around.
Lab Cabinet Material Comparison
A side-by-side view helps narrow choices quickly. The table below keeps the comparison qualitative, which is the safest approach unless you’re reviewing a specific manufacturer’s tested product data.
Material
Best For
Chemical Resistance
Moisture Resistance
Relative Cost
Painted Steel
General research, teaching labs, many dry or mixed-use spaces
Lower-exposure labs, office-adjacent support areas, selected teaching spaces
Depends on finish and construction
Moderate, depends on protection
Moderate
The best comparison isn’t “which material is best.” It’s which material fits your cleaning, hazard, and budget conditions with the fewest compromises.
Laboratory Cabinet Design: Turn Room Needs Into a Buildable Plan
Laboratory cabinet design begins with the work performed in each zone. List the equipment, supplies, users, cleaning methods, hazards, and utilities before selecting cabinet sizes. Then assign base, wall, tall, mobile, sink, and specialty storage where it supports the process without blocking access.
A buildable laboratory cabinet design coordinates casework, countertops, utilities, sinks, equipment, circulation, and service access.
Design inputs that affect laboratory cabinetry
Room and laboratory size: Record wall lengths, ceiling conditions, columns, doors, fixed equipment, and available circulation space. Room size alone does not determine cabinet quantity.
Workflow: Place frequent-use supplies near the task and shared stock away from congested bench positions.
Equipment: Confirm footprint, operating clearance, lid or door swing, heat or ventilation needs, and service access.
Utilities: Coordinate sinks, faucets, power, data, gases, drains, and service chases before cabinet locations are approved.
Users: Plan standing and seated tasks, knee spaces, reach, hardware, and adjustable work areas where needed.
Safety and cleaning: Keep emergency equipment and exits clear, define hazard storage, and allow access for cleaning.
Lab Cabinets and Countertops: Size, Layout, and Storage
A cabinet schedule can look correct on paper and still fail the room. The usual problem is not cabinet count. It is a mismatch between storage type, bench use, equipment access, and the actual clearances staff need every day.
Lab cabinets and countertops should be sourced as one coordinated scope whenever possible. Cabinet runs establish support, knee spaces, sink locations, and equipment zones. Countertop material, seam placement, backsplash details, overhangs, cutouts, and edge profiles affect the cabinet layout in return. Review both together before fabrication.
Start with workflow. Map what needs to stay at the point of use, what can move to shared storage, and what requires segregation because of height, weight, moisture, or housekeeping needs. That process usually produces a better quote than starting with standard cabinet widths and trying to force the room to fit them later.
Best practices for lab cabinet specifications often call for all-welded cabinet bodies, reinforced frames, flush surfaces, and wall units with adequate hanging rail support. Those details matter during layout because cabinet construction affects span support, anchorage, and how well the run handles repeated loading over time.
Doors, drawers, and access
Choose the storage style by task, not by appearance.
Drawers suit pipettes, small instruments, consumables, and items staff reach for all day
Door cabinets fit taller bottles, janitorial supplies, traps, and under-sink storage
Mixed base cabinets usually make the best use of linear bench space because they handle both frequent-access items and bulky storage in the same run
Depth matters as much as width. Deep storage at an active workstation often turns into wasted space because staff stack small items in front of each other. Upper cabinets can create the same problem if they become the default location for heavy or frequently used supplies.
Clearance and support
A workable layout has to account for use, service, and installation conditions at the same time.
Instrument footprint: Leave room for cords, ventilation space, lid swing, and maintenance access
User movement: Protect aisle width and avoid crowding at shared benches or near sinks
Countertop support: Coordinate base cabinet runs with top spans, sink locations, and cutouts
Open storage needs: Use adjustable lab shelves where staff need quick visibility and access instead of enclosed storage
Renovation work needs another level of checking. Verify wall conditions, floor level, column locations, and utility rough-ins before finalizing cabinet widths. I have seen a filler panel solve a drafting problem and create an installation problem because the wall was out of square or the plumbing landed two inches off center.
Plan your laboratory cabinetry with the full scope in view.
A cabinet line can match the drawing, the budget, and the finish schedule and still fail in use. Performance review is where specification gets real, because this is the point where you confirm the cabinet will hold weight, resist the chemicals used in the room, and stay aligned after years of doors, drawers, washdowns, and equipment movement.
Buyers usually ask about standards such as BIFMA, SEFA, and UL because those benchmarks help separate true lab-grade construction from products adapted from office or institutional furniture. The goal is not to collect labels. The goal is to verify that the cabinet you are pricing is built and tested for the conditions your lab will see.
What to verify before approval
For example, industry specifications often require details like material thicknesses, full-depth bottoms, reinforced rails, and hardware suited for repeated use under load. Those details affect service life, drawer alignment, door sag, and resistance to impact and chemical exposure. I tell facility teams to review the construction sheet the same way they review the floor plan. Small specification gaps are what usually create change orders, warranty disputes, or early replacement.
Check these points before you release the order:
Construction details: Confirm body construction, reinforcement, joinery, front rail design, and edge protection
Finish suitability: Match the finish to your cleaning methods, splash conditions, humidity, and expected chemical contact
Top coordination: Make sure the cabinet line is designed to support the selected laboratory work surfaces at sink cutouts, equipment zones, and long spans
Application fit: Verify that the manufacturer designed the cabinet for laboratory use and can provide model-specific performance data
Load capacity and chemical resistance vary by model, even within the same material category. A steel cabinet with light-duty slides does not perform like one built for heavy glassware or dense instrumentation, and a resin or laminate-faced unit may be acceptable in one room and a poor choice in another.
Durability is a specification decision, not a finish-color decision. If the room will see strong disinfectants, frequent wipe-downs, rolling carts, or wet service, the cabinet, hardware, and top support package all need to be selected as a system.
Planning for Safety, Accessibility, and Workflow
A cabinet layout can look efficient on a plan and still create daily problems once the lab is occupied. I see this most often when teams size storage first and check reach, clearance, and hazard separation later. By then, the room may already be fighting the people who use it.
Cabinet selection is part of the specification process, not a finish decision at the end. The right mix of cabinets supports code compliance, hazard segregation, spill control, and day-to-day access. The wrong mix creates blocked paths, awkward reaches, and storage habits that drift away from the original safety plan.
Accessibility and reach
Accessibility affects cabinet height, depth, hardware, and the amount of open space below the work surface. In shared labs, that usually means planning some stations with knee space and avoiding a layout that forces every user to work from standing-height storage.
Check these points during layout review:
Knee space: Leave open access below selected work areas where seated use is expected
Reach range: Place high-use supplies where staff can access them without step stools or repeated bending
Hardware: Choose pulls and handles that are easy to grip with gloves and easy to clean
Door swing: Make sure open doors and drawers do not block adjacent work positions or aisles
Workflow and egress
Storage has to support the sequence of work. Glassware near wash areas, consumables near points of use, and shared supplies in predictable locations reduce extra travel and cross-traffic. That sounds simple, but it is one of the main reasons accurate cabinet specifications produce better quotes. The layout, cabinet type, and storage assignment need to be decided together.
Safety clearance matters just as much.
Review these items before finalizing the cabinet schedule:
Emergency access: Keep exits, eyewash units, showers, and fire equipment clear during normal use and when cabinet doors are open
Hazard separation: Store incompatible materials according to your safety plan and code requirements, not wherever space is available
Cleaning access: Leave enough room to clean around, under, or behind cabinets in areas with spill risk or strict housekeeping protocols
Traffic flow: Protect aisle width for staff movement, carts, sample transfer, and service access
Good cabinet planning shows up in daily operation. Staff can reach what they need, emergency equipment stays accessible, and the room keeps working the way it was intended to work.
5-Step Checklist for Specifying Lab Cabinets
This is the shortest path to a useful cabinet specification and a cleaner quote process.
1. Assess your application and hazards
Map the room use: Identify whether the space is dry, wet, chemical-intensive, instructional, clinical, or mixed-use.
Review storage contents: List what will go inside the cabinets, including bulky items, chemicals, glassware, or shared supplies.
Confirm safety input: Check with EHS, SDS guidance, and local code requirements before deciding on general storage near hazards.
2. Select the right materials and finishes
Match exposure to substrate: Choose steel, stainless, phenolic, or wood based on cleaning, moisture, and chemical conditions.
Check finish compatibility: Make sure cleaning products and daily use won’t shorten cabinet life.
Coordinate with the countertop: Cabinet material and top material should be reviewed together.
3. Develop a functional layout and configuration
Choose the right cabinet mix: Base, wall, tall, sink, and specialty units each solve different problems.
Plan for utilities: Account for plumbing, outlets, data, and service access before final sizing.
Protect circulation: Leave room for users, carts, equipment doors, and maintenance access.
4. Verify performance and compliance standards
Ask for laboratory-grade specs: Look at construction details, not just finish and dimensions.
Check standard references: Confirm the standards and approvals required for the project.
Review mounting and support: Wall cabinets and benchtop support need real coordination.
5. Prepare complete information for an accurate quote
Share room details: Include plans, dimensions, utility locations, and photos where possible.
Flag special conditions: Note existing walls, uneven floors, limited delivery access, or phased install needs.
Define timeline early: Standard sizes can move faster than fully custom layouts, but availability still needs to be confirmed.
Lab Cabinet Scenarios by Facility Type
A cabinet package that works in one lab can create daily friction in another. The right specification starts with how the room operates. Who uses it, what gets stored, how often surfaces are cleaned, and where staff need to move all change the cabinet mix.
University teaching labs
Teaching labs usually need a specification that is durable, repeatable, and easy to maintain across multiple rooms. Metal cabinets are often a practical choice because they hold up well to frequent use, simplify replacement planning, and keep finishes consistent from lab to lab.
Storage should support instruction, not compete with it. Place shared supplies where students can reach them without crowding aisles or taking over bench space.
Pharmaceutical research labs
Pharmaceutical labs often put more pressure on cleanability, controlled storage, and process flow than on raw storage volume. Material choice depends on what the room handles. Wet work, aggressive cleaning, and chemical exposure can justify stainless steel or other specialty surfaces, while lower-exposure support spaces may not need that level of specification.
Cabinet placement matters as much as material. Keep routine supplies near the point of use so staff are not crossing active work zones for everyday items.
Healthcare and clinical labs
Clinical labs usually benefit from cabinets that are easy to wipe down, easy to organize, and easy to work around during busy shifts. Sink runs, specimen handling areas, and support zones should be planned as working spaces first, with storage fitted around those tasks.
A uniform cabinet package is not always the best answer here. Enclosed base cabinets, selective wall cabinets, and open access at key stations often produce a better result than using the same cabinet type everywhere.
Industrial QC labs
QC labs tend to revolve around instruments, sample flow, and repeat procedures. In many of these rooms, the cabinet problem is not storage capacity. It is service clearance, utility coordination, and keeping supplies close to the equipment without blocking access.
That changes the specification. A good layout leaves room for instrument doors, calibration work, maintenance access, and the utility runs that support the bench.
Lab renovation projects
Renovation work exposes weak assumptions fast. Existing plumbing, uneven floors, wall conditions, and electrical rough-ins can all affect cabinet widths, filler requirements, and final fit.
This is why I push for a measured layout before pricing is finalized. Common adjustments include shifting a sink base, resizing a cabinet run, adding fillers, or revising a work surface to clear an outlet, pipe, or column. Suppliers can provide casework, related lab furniture, and planning support to coordinate those revisions before orders are released.
School science labs
K-12 and community lab projects usually need to balance budget, durability, supervision, and future replacement. Standard base and wall cabinet layouts often make sense because they are easier to purchase, easier to match later, and easier for facilities teams to maintain.
Specialty storage should be specified only when the curriculum and hazard profile support it. Otherwise, standard cabinets usually give the room more flexibility at a lower cost.
Questions to Ask Before Requesting a Quote
A faster quote usually starts with better project information. If key details are missing, the proposal may need revisions later.
Have answers ready for these questions:
What are the room dimensions? Include wall lengths, ceiling height, doors, and fixed obstructions.
Where are plumbing and electrical connections? This matters most for sink cabinets, islands, and renovation work.
What will the cabinets store? General supplies, corrosives, glassware, equipment, and bulk items don’t all need the same configuration.
What cleaning and exposure conditions apply? Daily wipe-downs, wet use, and chemical contact affect material choice.
Do you need lab cabinets and countertops together? If yes, both should be quoted as a coordinated package.
What is the project timeline? Standard cabinet sizes may move faster, but final timing depends on availability and project scope.
How will the product reach the room? Delivery access, stairs, elevators, and installation sequencing all matter.
Are there drawings or photos? Even simple site photos can help flag utility conflicts and field issues early.
The most accurate quote usually comes from a simple room plan, a storage list, and a clear note about utilities and schedule.
Frequently Asked Questions About Lab Cabinets
Are lab cabinets different from regular commercial cabinets?
Yes. Laboratory cabinets are part of laboratory casework and are designed for conditions such as chemical exposure, frequent cleaning, heavy loads, and workflow demands that go beyond ordinary office or residential use.
How do I know which cabinet material is right for my lab?
Start with the room’s exposure profile. Look at moisture, chemical use, cleaning methods, and abuse level. Then compare steel, stainless, phenolic, or wood against those conditions and confirm product specs before ordering.
Are metal lab cabinets a good choice for general labs?
Often, yes. Metal lab cabinets are a practical option for many teaching and research spaces because they are durable and easy to specify. The final choice still depends on the work being done and the finish system offered on the product.
Do wall cabinets need special support?
Yes. Wall-mounted laboratory cabinets should be coordinated with wall conditions and mounting details. Reinforced hanging rails or similar support features are commonly part of proper lab cabinet construction.
Should lab cabinets and countertops be specified together?
Yes, in most projects they should. Cabinets and countertops affect support, sink placement, overhangs, utility cutouts, and cleaning performance. Treating them as one package usually reduces errors.
What maintenance do laboratory cabinets need?
Maintenance depends on the cabinet material and finish. In general, labs should follow the manufacturer’s cleaning guidance, wipe spills promptly, inspect hardware, and avoid using cleaners that aren’t compatible with the finish.
How should I compare lab cabinet sourcing options?
Give each supplier the same plan, cabinet schedule, material, countertop, utility, delivery, installation, and document requirements. Compare included services, exclusions, field-verification needs, and how changes or shortages are handled.
What information does a lab cabinet fabricator need?
Provide an approved room plan, cabinet schedule, material and finish selections, countertop details, utility locations, equipment requirements, wall conditions, delivery constraints, and installation scope. Resolve drawing conflicts before production release.
Get a Free Layout and Quote for Your Lab Cabinets
A quote goes off track fast when the cabinet list is built before the room, utilities, and workflow are confirmed. The better approach is to start with how the lab will operate, then match cabinet materials, storage types, and layout constraints so pricing reflects the actual scope.
If you’re planning a new lab or updating an existing room, send the basics first. Floor plan, rough dimensions, utility locations, preferred cabinet construction, and any known compliance requirements are usually enough to produce a layout review and a more accurate quote. Regional buyers can also review Utah lab cabinet solutions during early planning.
Early coordination cuts down on change orders, mismatched clearances, and rework during installation.
Request a quote, ask for a layout review, or contact Labs USA directly at (801) 855-8560 or Sales@Labs-USA.com.
Related Products & Resources
laboratory casework: Steel, stainless steel, and wood laboratory casework and cabinets
A thoughtful lab bench configuration is the foundation of a safe, efficient laboratory. The right layout directly impacts workflow, sample throughput, and staff hygiene. Proper planning ensures your space, equipment, and utilities work together without issues.
Getting the design right from the start avoids costly installation problems. It also creates a workspace that is functional today and adaptable for the future. This guide uses a real project to show how Labs USA helps clients plan every detail, from bench dimensions and sink placement to custom solutions for angled walls. We configure lab workstations and tables and technical workstations to support specific tasks, making every inch of your lab productive.
Key Steps for Lab Bench Configuration
Plan for Workflow: Design C-shape and L-shape benches to match specific tasks like sample processing or blood bank analysis.
Verify Dimensions: Use live measurements of instruments to set bench lengths and depths, not just spec sheets.
Integrate Utilities: Place sinks, DI water spigots, power, and data ports strategically during the drawing phase.
Use Field-Fit Solutions: For angled walls or obstructions, plan to cut countertops on-site for a perfect fit without project delays.
Select Materials Wisely: Choose non-porous surfaces and use integral backsplashes only where needed to control costs and maximize usable space.
1. Area 3 — C-Shape Bench for Sample Processing
For a high-volume sample processing area, a C-shape bench offers an efficient and contained workspace. This layout keeps everything within reach and creates a clear workflow path. A recent project required a custom C-shape configuration that balanced standard tasks with the needs of larger equipment.
Footprint and Depth
The final footprint was a 9 ft by 9 ft by 9 ft C-shape. The side benches were planned at a 24-inch depth, which is ideal for standard tasks where technicians need close access. The back run of the bench was specified at a 36-inch depth. This extra space comfortably accommodates larger instruments and allows for cable management behind them.
Sink Plan and Modularity
A single-bowl sink was placed in the center of the back run. This divided the workspace into a 4-foot surface on the right and a 3-foot surface on the left, specifically for a urine sample workflow. The faucet was chosen to help reduce odors from the drain, a small detail that improves the work environment.
To maintain structural rigidity, the bench was built by combining 3-foot and 4-foot lab workstations and tables. This modular approach creates a strong, unified structure.
Backsplash and Work Surfaces
An integral 4-inch backsplash was included only at the sink area to contain splashes. It is important to note that an integral backsplash reduces the usable depth of a work surface by about one inch. Limiting the backsplash to wet areas preserves the full depth of other surfaces for equipment. To learn more about material options, it is helpful to understand how to choose the right lab work surface to complete your project.
2. Area 2 — Compact DI Sink and Instrument Line
In another area, a long run of analytical instruments required a dedicated deionized (DI) water source. This is a common need in labs performing sensitive procedures where water purity is critical. The design had to integrate a specialized sink and a precise bench length to fit specific equipment.
Compact Sink Design
To save counter space, a compact 2 ft by 2 ft sink was specified. It was equipped with both a standard faucet and a DI spigot. This dual-faucet setup provides flexibility for different tasks without cluttering the workspace. Proper integration of DI plumbing is a key feature of well-planned technical workstations and tables.
Instrument Verification
The initial plan allocated a 7-foot bench for a key analyzer based on the manufacturer’s spec sheet. However, a live measurement of the actual instrument on-site revealed it required exactly 78 inches. This revision was critical. Adjusting the bench length before fabrication ensured a perfect fit and avoided workflow issues.
A consistent 3-foot depth was used for the entire instrument run. This provides ample clearance for cables and service lines behind the equipment. It also creates a uniform and organized appearance.
3. Area 7 — Blood Bank L-Bench with Lighting and Shelves
Blood bank workflows require organized, well-lit spaces. For this project, an L-shaped bench was designed for a room with an angled wall. This situation required a custom solution to ensure a seamless installation without delaying the project timeline.
Layout, Lighting, and Rails
The L-bench layout measured 8 ft by 9 ft with a standard 24-inch depth. The longer 9-foot side was equipped with integrated lighting, uprights, and two shelves. The shelves were 12 inches deep to provide accessible storage for supplies while maintaining adequate headroom for technicians. This type of integrated storage is a core component of modern laboratory casework.
Angled Wall Solution
The room’s corner was not a standard 90-degree angle. One wall had a straight section of 81 inches that transitioned to a 24-inch angled section. Prefabricating a countertop for this unique angle would be risky and expensive.
The solution was to plan for field cutting. A slightly oversized countertop was sent to the site, where installers cut it to match the wall’s exact angle. This practical approach ensures a perfect fit. For guidance on these types of configuration choices, it is helpful to review details on laboratory casework.
4. Materials, Sinks, and Hygiene
Choosing the right materials is essential for maintaining a clean and durable lab environment. Work surfaces must withstand daily cleaning and potential chemical exposure.
How to Choose Materials and Features
Assess Chemical Resistance: Identify all chemicals used in your workflow. Select a non-porous work surface material like epoxy resin or phenolic resin that can tolerate them.
Evaluate Hygiene Needs: Choose smooth, seamless surfaces that are easy to decontaminate. An integral backsplash is ideal for wet areas around sinks.
Plan for Splashes: Place integral backsplashes only at sinks. This controls costs and preserves maximum usable depth on dry work surfaces.
Specify Sink and Faucet: Select sink bowl sizes that accommodate your largest glassware or equipment. Choose faucet types, like gooseneck or sprayer models, that match your sample handling needs.
Confirm Durability: Consider the physical demands of your lab. Will surfaces need to resist scratches, heat, or heavy impacts? Choose a material that meets these requirements.
Successful lab design depends on precise measurements and careful integration of all equipment. Relying on actual dimensions instead of spec sheets is a critical step.
Key Integration Practices
Use Actual Dimensions: Always measure your instruments before finalizing bench spans and depths. This prevents spacing issues and ensures a perfect fit.
Maintain Standard Depths: Use a consistent depth for mobile tables and fixed benches whenever possible. This helps maintain proper clearances and ensures ADA accessibility.
Confirm Utilities Early: Finalize the locations of DI lines, power outlets, and accessory rails in the drawing phase. This avoids costly changes during installation.
Well-planned lab workstations and tables include integrated options for power and accessories, creating a clean and organized workspace.
6. Photos, Drawings, Approvals, and Release
A structured approval process is key to keeping a laboratory installation on schedule, especially for new facilities. Clear communication and phased fabrication prevent delays.
The Approval Sequence
Client Photos: The client provides photos of any non-standard areas, such as the angled wall in Area 7.
Drawing Updates: Labs USA updates the drawings with precise details based on the photos and final measurements.
Client Approval: The client reviews and approves the final drawings, which releases the components for fabrication.
Fabrication can begin on confirmed areas while details for custom sections are finalized. For this project, the client’s payment triggered an immediate order for all materials. This proactive approach ensures the project meets its target schedule. Proper management of laboratory casework from design to installation is crucial. This coordination ensures all casework components arrive ready for a smooth installation.
7. Quick Spec Table
Area
Geometry
Depth
Key Features
Area 3
C-shape, 9′ x 9′ x 9′
24″ sides, 36″ back
Center single-bowl sink; 4′ right, 3′ left; selective backsplash
Area 2
Straight run with compact sink
36″ typical
2′ x 2′ sink, faucet plus DI spigot; bench length set to 78″
Area 7
L-shape, 8′ x 9′ with angle
24″
Lighting on 9′ side with uprights; two 12″ shelves; field-cut top for 24″ angle
Conclusion
Careful planning is the key to a successful lab bench configuration. Early verification of equipment dimensions, targeted use of backsplashes, and smart field-fit solutions ensure a smooth installation that aligns with real-world workflows. Labs USA coordinates every step, from drawings and material selection to fabrication release, to meet the strict timelines of new facilities. This detailed approach results in a workspace that is efficient, safe, and built to last.
1. What is the standard depth for a lab bench?
The standard depth is typically 24 inches for manual tasks like pipetting or microscopy. For benches holding larger instruments, a depth of 30 or 36 inches is common to provide space for cables and ventilation.
2. How do you handle an angled wall or column in a lab design?
We use a method called field cutting. A countertop is cut on-site to perfectly match the angle of the wall or fit around a column. This provides a custom fit without the high cost and long lead time of a fully custom-fabricated top.
3. Should I put a backsplash on all my lab benches?
An integral backsplash is most useful in wet areas, such as around a sink, to contain splashes. On dry benches, forgoing a backsplash maximizes the usable work surface depth and offers more flexibility for placing equipment.
4. Can I mix different bench depths in the same room?
Yes. Mixing depths is a smart way to optimize a layout. For example, you can use 24-inch deep benches for general work and a 36-inch deep section for a line of instruments, all within a single C-shape or L-shape configuration.
5. How are utilities like DI water integrated into casework?
Utilities like DI water, gas, and power are planned during the drawing phase. Lines are typically routed through the casework or a dedicated utility chase. Fixtures are mounted on the benchtop or service panels for easy access. Confirming these locations early is critical.
6. How do I choose the right work surface material?
The best material depends on the chemicals and processes used in your lab. Non-porous surfaces like epoxy resin and phenolic resin are popular choices due to their high chemical resistance and durability. Always refer to chemical resistance charts to match the material to your needs.
7. How long does the design and fabrication process take?
The timeline varies based on project complexity. A typical project involves a few weeks for design and drawing approvals, followed by a standard fabrication lead time. We can start fabricating confirmed areas while finalizing custom details to keep the project on schedule.
8. Do you provide installation services?
Yes, Labs USA coordinates with experienced laboratory furniture contractors to provide professional installation services across the country, ensuring your lab is set up correctly and safely.
Need Help Designing Your Lab?
Our laboratory design specialists provide free consultations, 3D lab layouts, and competitive pricing.
Choosing the right lab countertop is a significant decision. It directly affects lab safety, your team’s efficiency, and the long-term budget. The choice often comes down to two leading materials: epoxy resin and phenolic resin.
Epoxy resin offers high chemical and heat resistance for demanding environments. In contrast, phenolic resin is a highly durable, more cost-effective option for general-purpose labs. The specific tasks your team performs will decide which material is the right investment.
TL;DR: Epoxy vs Phenolic Countertops
Epoxy Resin: Best for labs with extreme chemical exposure and high heat. It is a premium, monolithic material that is highly durable and repairable.
Phenolic Resin: A budget-friendly workhorse ideal for general, clinical, and educational labs. It offers excellent moisture and biological resistance.
The Decision: Your choice depends on your lab's specific chemical use, heat exposure, and budget. Epoxy is for harsh conditions, while phenolic is for moderate needs.
What Are Epoxy Resin Countertops?
Epoxy resin countertops are monolithic surfaces. This means they are cast and cured as a single, solid piece. The material is a mixture of resin, silica, hardeners, and other fillers. This process creates a uniform, non-porous surface from top to bottom.
This seamless quality is important in demanding lab environments. Because there are no seams or pores, the countertop will not absorb chemicals. This simplifies cleaning and reduces the risk of cross-contamination.
Core Properties and Performance
When comparing epoxy vs phenolic lab countertops, epoxy has superior chemical and heat resistance. These traits make it the standard for labs where performance is essential.
Here is what makes it stand out:
Superior Chemical Resistance: Epoxy can handle a wide spectrum of acids, solvents, and bases without damage.
Exceptional Heat Resistance: It is built to endure continuous high temperatures from equipment like hot plates.
High Durability: The dense, solid material is extremely tough, resisting scratches and impacts.
This robust nature is why epoxy is the go-to choice for pharmaceutical labs, biotech research, and industrial R&D centers. For a complete workspace, it is critical to pair the surface with a quality lab bench.
Lifecycle and Maintenance
Another advantage of epoxy resin is its long life and repairability. Since the material is solid all the way through, minor damage like scratches can often be fixed. The surface can be sanded and refinished on-site, restoring its original function.
This repairability pushes the countertop's lifespan to 20 years or more. This delivers a strong return on investment despite a higher upfront cost. You can learn more about the growing use of epoxy resins in industrial applications. This longevity ensures that labs can maintain safety and operate smoothly for decades.
What Are Phenolic Resin Countertops?
Phenolic resin countertops are built by layering natural kraft papers saturated with phenolic resin. These layers are fused under intense heat and pressure. This creates a solid, durable, and lightweight composite material. A protective surface layer is added to boost its performance in a lab setting.
This layered construction is a key difference from epoxy. It gives phenolic resin unique properties, making it a strong contender when budget and specific needs drive the decision.
Core Properties and Performance
Phenolic resin offers a balanced set of features that make it a practical choice for many laboratories. Its performance is often sufficient for a wide range of common applications.
Here are its key characteristics:
Good Chemical Resistance: Phenolic holds up well against many common lab chemicals but is less robust than epoxy with highly corrosive agents.
Excellent Moisture Resistance: Its non-porous surface is highly resistant to moisture, making it a great pick for humid areas.
Biological Resistance: The surface naturally resists the growth of fungi and bacteria, a critical feature for clinical and biological labs.
High Impact Strength: This material is very durable and handles routine bumps and scrapes without chipping easily.
Ideal Applications and Use Cases
Because of its affordability and specific resistances, phenolic resin is a popular choice for certain facilities. It performs well in environments where biological contamination is a top concern. You can read more about why phenolic resin is important for laboratory work surfaces here.
Common facilities that benefit from phenolic countertops include:
K-12 and university science labs
Product testing facilities
Healthcare and clinical laboratories
General-purpose R&D labs
Epoxy vs Phenolic: A Head-to-Head Comparison
Choosing between epoxy and phenolic is about which is the right tool for your specific job. To make the right call, you need to weigh their performance against your lab's operations and budget.
Chemical Resistance
When it comes to harsh chemicals, epoxy resin is the clear winner. Its monolithic, non-porous structure is the best defense against a wide range of corrosive substances. This is why it is the default choice for wet chemistry and pharmaceutical research labs.
Phenolic resin offers solid chemical resistance against most general lab agents. It provides enough protection for many applications. However, it can show wear when exposed to high concentrations of certain acids. For school or clinical labs, phenolic is a suitable and cost-effective option.
Heat Resistance
Epoxy resin also leads in heat resistance. It is engineered to handle continuous high temperatures from equipment like hot plates without damage. In labs where high-heat experiments are common, this thermal stability is a necessary safety feature.
Phenolic resin provides good heat resistance for general use. However, it has limits. It can be damaged by sustained temperatures above 350°F (176°C). We do not recommend it for work surfaces where high-heat equipment is used regularly.
Durability and Cost
Both materials are built to last, but they differ in repairability and cost. Epoxy's solid body makes it very resistant to scratches. Minor surface damage is often easy to fix by sanding and refinishing the area.
Phenolic resin is also tough, with high impact strength. The potential downside is that a deep gouge could expose the inner core, which is difficult to repair seamlessly.
In terms of cost, phenolic resin is the more budget-friendly choice. It often costs less than epoxy, making it attractive for large projects. Epoxy requires a bigger initial investment. But its long lifespan and repairability can result in a lower total cost of ownership over time. Explore our lineup of chemical resistant lab tables for more options.
Epoxy vs Phenolic Countertops Comparison Table
Factor
Epoxy Resin
Phenolic Resin
Best Fit Application
Chemical Resistance
Excellent. Superior resistance to strong acids, solvents, and corrosives.
Good. Resistant to most general lab chemicals but vulnerable to high concentrations.
Epoxy for wet chemistry and pharma labs. Phenolic for educational and clinical labs.
Heat Resistance
Excellent. Withstands continuous high heat without damage.
Good. Resists moderate heat but will scorch above 350°F (176°C).
Epoxy for high-temperature work zones. Phenolic is not recommended for high-heat areas.
Durability
Very High. Extremely hard and scratch-resistant. Monolithic build allows for repairs.
High. Very durable and impact-resistant. Deep gouges are hard to repair.
Both are highly durable. Epoxy is easier to repair seamlessly.
Cost
Higher. Premium initial investment for superior performance.
Lower. A budget-friendly option, especially for large-scale installations.
Phenolic for tight budgets. Epoxy where long-term return on investment is the priority.
Maintenance
Low. Non-porous surface is easy to clean. Can be sanded and refinished.
Low. Easy to clean, but deep damage is difficult to repair perfectly.
Both are low-maintenance. Epoxy offers better long-term repairability.
5 Decision Scenarios for Your Lab
To make the epoxy vs phenolic comparison practical, let's review common lab environments. These scenarios help you picture how each material would perform in your facility.
1. The University Chemistry Lab
University labs need durable countertops. Spills are common, and surfaces are exposed to various chemicals and hot plates. Budgets are often tight.
Recommendation: Phenolic Resin. It provides a robust, budget-friendly solution that handles most chemicals used in educational labs. It offers excellent durability for the price.
2. The Pharmaceutical Research Lab
Pharmaceutical R&D labs operate under strict protocols. Contamination control is critical. Technicians work with aggressive solvents and strong acids.
Recommendation: Epoxy Resin. Its non-porous surface is the best defense against chemical absorption and microbial growth. It is a necessary investment for safety and compliance.
3. The Clinical Diagnostics Lab
Clinical labs focus on analyzing biological samples. Surfaces must be easy to clean, disinfect, and resistant to stains and bacteria.
Recommendation: Phenolic Resin. Its non-porous surface resists moisture and prevents microbial growth. It also stands up well to dyes and reagents common in diagnostics.
4. The Electronics and Engineering Lab
In electronics labs, the main concerns are static, durability, and a smooth surface. Chemical exposure is usually minimal.
Recommendation: Phenolic Resin. It provides a hard, smooth surface that resists scratches. It is also available in electrostatic dissipative (ESD) variants to protect sensitive components.
5. The High-Heat Materials Science Lab
Materials science labs use high-temperature furnaces and hot plates. The work surface must handle this thermal stress without failing.
Recommendation: Epoxy Resin. It is engineered to handle sustained high temperatures. Its thermal stability ensures a safe and reliable work surface for demanding applications.
How to Choose Your Lab Countertop: A 5-Step Checklist
Use this checklist to determine if epoxy or phenolic resin is the right fit. Answering these questions will streamline the selection process and help you get ahead of project timelines.
1. Assess Chemical Exposure
List all chemicals you use, including concentrations and frequency.
High Exposure: If you use strong acids or solvents, epoxy resin is the necessary choice.
Moderate Exposure: For general reagents and cleaning agents, phenolic resin offers enough protection.
2. Evaluate Heat Requirements
Identify where hot plates or other high-temperature equipment will be used.
High Heat: For continuous temperatures above 350°F (176°C), you must use epoxy resin.
Low Heat: If your benches will see only ambient temperatures, phenolic resin is a suitable option.
3. Consider Physical Wear and Tear
Think about the physical demands of your lab.
Repairability:Epoxy is a solid material, so scratches can be sanded out and refinished.
Impact Resistance:Phenolic resin has excellent impact resistance, but deep gouges are hard to repair perfectly.
4. Define Your Budget and Scope
Know your required square footage and price limit.
Premium Investment:Epoxy has a higher upfront cost but can offer a lower total cost of ownership in harsh environments.
Budget-Friendly:Phenolic is more affordable, making it a good choice for large projects or tight budgets.
5. Plan for Installation and Long-Term Use
Consider installation logistics and long-term maintenance. A well-chosen countertop should integrate perfectly with your other furniture. You can learn more about our complete lab workstations and tables.
Frequently Asked Questions (FAQs)
Here are answers to common questions about epoxy and phenolic countertops. For specific safety questions, always consult the material's Safety Data Sheet (SDS) and your facility's EHS guidelines.
Can epoxy and phenolic countertops be repaired?
Yes, but the process is different. Minor scratches on epoxy can often be sanded and refinished by a professional. This makes it very maintainable. Phenolic is harder to repair seamlessly if a deep gouge exposes the inner core.
How much more does epoxy cost than phenolic?
Epoxy countertops typically cost 25% to 40% more than phenolic resin. This reflects its more complex manufacturing and superior resistance. However, in harsh labs, epoxy's durability can make it more economical long-term.
Are both materials available in different colors?
Yes, but options vary. Epoxy usually comes in neutral colors like black, gray, and white. Phenolic offers a wider range of colors and patterns, providing more design flexibility.
Which countertop is better for resisting bacteria?
Both are excellent. Epoxy and phenolic resin have non-porous surfaces that do not support bacterial growth. With standard cleaning, both materials are effective at preventing contamination.
Can I get custom sizes and cutouts?
Absolutely. Both materials are fabricated to your project's specifications. They can be cut to precise dimensions with cutouts for sinks and fixtures. Providing detailed drawings ensures a clean, professional finish.
Which countertop is heavier?
Epoxy is significantly heavier than phenolic resin. Its density contributes to its durability but also makes it more difficult to handle and install. Phenolic is lighter, which can sometimes simplify installation.
Conclusion
The choice between epoxy and phenolic countertops depends on your lab's daily activities, performance needs, and budget. Epoxy is the best choice for demanding environments with harsh chemicals or high heat. Phenolic resin is a durable, cost-effective solution for a wide range of general-purpose labs.
By understanding your lab's needs, you can choose a material that provides the best combination of safety, durability, and value. Planning your selection now is a smart move. It helps secure project timelines and avoid potential delays, leading to a faster installation and a more predictable schedule.
Ready to find the perfect laboratory work surfaces for your facility? Our specialists can help you compare options and design a functional layout.
Call us today at 801-855-8560 or email Sales@Labs-USA.com to request a quote and plan your project.
Who This Is For
Our epoxy vs phenolic lab countertops solutions are ideal for:
