Healthcare Workbenches

Healthcare casework can be constructed from powder-coated steel, stainless steel, or laminate-faced wood or engineered-wood components. The material and construction affect how the cabinets tolerate moisture, disinfectants, frequent cleaning, and long-term daily use.

Steel and stainless-steel casework avoid the exposed wood-based cores associated with traditional millwork. Stainless steel is particularly useful where frequent cleaning and moisture resistance are priorities. With laminate-faced cabinetry, seams, edges, and damaged areas require more attention because moisture can reach the underlying substrate if the protective surface is compromised.

Cleanability should therefore be evaluated across the entire cabinet—not just the visible finish—including seams, edges, hardware, joints, and compatibility with the facility’s approved cleaning products.

Learn more about materials for clinical environments in Workbench Materials Compared: How to Choose the Right Worksurface and Frame.

Start with surfaces and furniture construction that match the diagnostics area’s cleaning procedures, chemicals, moisture exposure, and daily workload. Nonporous worksurfaces such as phenolic resin or stainless steel can be strong starting points for many clinical applications, but compatibility should be verified against the facility’s actual disinfectants, reagents, and procedures.

Look beyond the worksurface as well. Storage, shelving, seating, hardware, seams, edges, and frequently touched components should be easy to access for cleaning and durable enough for repeated use. The workstation also needs to support the actual workflow, including instruments, specimen handling, supplies, power, storage, and waste processes.

Explore lab workstation solutions for clinical and diagnostic environments.

Furniture used in a clinical workspace should support the facility’s infection-control and cleaning protocols. Important considerations include nonporous or appropriately finished surfaces, compatibility with approved disinfectants, accessible surfaces for routine cleaning, and construction that minimizes difficult-to-clean seams, gaps, exposed cores, and other areas where contamination can collect.

Furniture layout matters too. Staff need sufficient clearance to clean around and beneath workstations, while storage should keep necessary supplies organized without unnecessarily cluttering the worksurface. Damaged surfaces, edges, coatings, and seals should be repaired because deterioration can make consistent cleaning more difficult.

Furniture does not create an infection-control program by itself. Materials and configurations should be selected to support the healthcare facility’s established cleaning, disinfection, and infection-prevention requirements.

Explore furniture solutions for healthcare environments.

Clinical lab casework should be planned around workflow, storage, cleaning requirements, utilities, equipment, and how permanent each part of the space needs to be. Start by identifying what will be stored, where staff need access to it, which instruments require dedicated locations, and where sinks, power, plumbing, or other utilities constrain the layout.

Material selection should reflect the lab’s disinfectants, chemicals, moisture, and frequency of cleaning. Construction details such as seams, edges, hardware, and exposed substrates also affect long-term cleanability and maintenance.

Facilities should also consider how the lab may change. Fixed casework can make sense for stable perimeter storage and permanent utility areas, while modular casework or workstations can provide greater flexibility in areas where equipment or workflows may evolve. Depending on the system, replaceable components can also make future repair, maintenance, and expansion easier.

Learn how to balance permanent and adaptable furniture in Modular Workbenches vs. Fixed Casework: How to Choose the Right Workspace.

Clinical lab furniture should follow the movement of specimens, supplies, staff, and information through the space. Start by mapping the sequence of work—from receiving and preparation through testing, analysis, storage, and disposal—then position workstations, instruments, supplies, and storage around that sequence.

Frequently used supplies should be accessible near the point of use, while equipment should have enough worksurface, clearance, power, and supporting storage for the task. Layouts should also avoid unnecessary crossing between clean supplies, specimens, waste, and high-traffic circulation wherever the facility’s procedures require separation.

The goal is to reduce unnecessary walking, reaching, searching, and specimen movement while preserving enough clearance for staff to work and for surfaces and equipment areas to be cleaned properly.

Explore healthcare workspace solutions.

Healthcare and diagnostic labs often prioritize repeatable clinical workflows, specimen throughput, frequent cleaning and disinfection, and dependable access to instruments and supplies. Furniture needs to support standardized processes that may operate continuously or across multiple shifts, while materials must tolerate the facility’s established cleaning procedures.

Research labs can have more variability as instruments, researchers, grants, and experimental processes change. That often places greater emphasis on modularity and reconfiguration. Clinical environments still benefit from flexibility, but changes need to be balanced with consistent workflows, cleanability, equipment placement, and operational continuity.

In both settings, furniture should be specified around the actual process rather than the room label. The difference is often the degree of workflow standardization, cleaning frequency, throughput, and frequency of change.

Explore furniture solutions for healthcare and clinical environments.

Stainless steel and phenolic resin are strong starting points for many clinical environments because both provide nonporous, cleanable surfaces. Stainless steel is well suited to frequent cleaning and moisture exposure, while phenolic resin provides a practical laboratory surface with good moisture resistance and compatibility with many chemicals.

The best material still depends on the facility’s actual disinfectants, concentrations, contact times, cleaning frequency, chemicals, and equipment. Stainless steel can react with certain chemicals, and phenolic performance also varies by substance. Powder-coated steel can be durable for frames and cabinetry, but damaged coatings should be repaired.

Rather than relying on a general “easy-to-clean” or “chemical-resistant” claim, compare the material against the facility’s approved cleaning products and procedures before specifying it.

Compare clinical worksurface and furniture materials in Workbench Materials Compared: How to Choose the Right Worksurface and Frame.

Start by determining whether the lab can close during renovation or whether testing must continue throughout the project. For hospitals and clinical labs that need to remain operational, furniture removal, construction, delivery, installation, utility connections, equipment moves, and temporary work areas may need to be coordinated in phases.

Each phase should define which area will be taken out of service, where affected work will temporarily move, how staff and materials will circulate around the work area, and when the completed space can return to operation. Installation access, staging, noise, dust, utilities, cleaning requirements, and downtime should also be considered as part of the plan.

Breaking the project into coordinated phases can allow completed areas to return to service before work begins in the next area, helping reduce the amount of laboratory space that is unavailable at one time. Furniture and installation planning should therefore be coordinated with the facility’s operating schedule from the beginning—not after the new layout has already been finalized.

Review installation requirements when planning a phased lab project.