Operating Theater Wall & Ceiling Systems Guide

The wall and ceiling system of a modular operating theater is more than an interior finish. It forms the visible clinical enclosure, supports integrated services, helps maintain room pressure, protects concealed building systems, and provides surfaces that must withstand repeated cleaning and daily impact.

A suitable system should be smooth, durable, cleanable, correctly sealed, and coordinated with doors, windows, medical gases, electrical outlets, cabinets, return-air grilles, surgical lights, ceiling pendants, fire protection, and ventilation terminals.

Material selection should not be based on appearance or panel thickness alone. The project team must evaluate the complete installed system, including its substrate, surface finish, joints, corners, penetrations, support structure, repair method, and compatibility with hospital cleaning procedures.

Quick Answer

A modular operating theater wall and ceiling system should provide:

Smooth, cleanable surfaces
Sealed and maintainable joints
Resistance to approved cleaning and disinfection chemicals
Suitable impact and scratch resistance
Low particle shedding
Moisture resistance appropriate to the location
Compliance with applicable fire and building requirements
Support or interfaces for integrated services
Controlled penetrations
Coordination with room-pressure and airflow requirements
Access for maintenance where necessary
A practical method for repair and future modification

Common wall finishes include coated steel, stainless steel, glass, and high-pressure laminate. The correct option depends on clinical use, impact risk, cleaning chemicals, fire requirements, appearance, radiation shielding, maintenance strategy, and budget.

Key Takeaways

Evaluate the complete wall or ceiling assembly—not only the visible finish.
“Antibacterial” claims do not replace cleanability, durability, and proper cleaning.
Thicker steel is not automatically better if the support system and joints are poorly designed.
Stainless steel is highly durable but is not required for every operating theater.
Glass can provide a smooth premium finish but requires careful detailing and replacement planning.
Panel joints must remain sealed while allowing practical installation and maintenance.
Heavy ceiling-mounted equipment requires independent engineered structural support.
Radiation shielding must remain continuous across joints, doors, windows, and service penetrations.
Return-air grilles and access panels should be integrated without creating dirt traps.
Material samples should be tested against the hospital’s actual cleaning products before approval.

What Is a Modular Operating Theater Wall System?

A modular operating theater wall system uses prefabricated or factory-processed components assembled around an engineered support structure.

Depending on the system, it may include:

Metal framing or subframes
Solid-backed or composite wall panels
Surface-finished metal cassettes
Glass panels
Laminate-faced panels
Insulation or acoustic infill
Joint profiles
Sealants
Internal and external corner details
Floor-to-wall coving
Door and window frames
Service panels
Integrated cabinets
Return-air grilles
Access panels

Some modular wall systems use self-supporting sandwich panels. Others use decorative or hygienic panels fixed to an independent framework or solid backing.

Buyers should therefore avoid treating “modular wall panel” as a single standardized product.

How Is an Operating Theater Wall System Different from a General Cleanroom Wall?

Both systems require cleanable surfaces, controlled joints, and coordination with ventilation and services. However, operating theaters often have additional requirements related to:

Frequent movement of beds and mobile equipment
Medical-gas integration
Electrical safety
Surgical-light and pendant coordination
Wall-mounted clinical equipment
Imaging systems
Radiation shielding
Higher impact risk
Repeated clinical cleaning
Patient and staff comfort
Maintenance during hospital operation
Architectural appearance

A pharmaceutical cleanroom panel designed primarily as a partition may not automatically provide the service integration, impact performance, or hospital-specific detailing required in an operating room.

For general cleanroom panel principles, see Cleanroom Wall Panels Explained: How to Choose the Right Wall System for Your Project.

Which Standards Apply?

Operating theater wall and ceiling requirements may come from:

National healthcare facility regulations
Hospital design guidance
Building codes
Fire regulations
Infection-prevention policies
Radiation-protection requirements
Structural codes
Electrical and medical-gas standards
Accessibility requirements
Owner specifications

The Facility Guidelines Institute’s application guidance describes healthcare surface expectations such as smooth, cleanable, scrubbable, non-absorptive, and chemical-resistant finishes for relevant clinical areas. Exact requirements depend on the room type and adopted edition.

NHS guidance also provides design and performance information for healthcare walls and ceilings. The applicable requirement should be confirmed for the project location rather than assumed from an international reference.

What Performance Requirements Should Be Defined?

Before selecting a material, the project team should establish measurable requirements.

Cleanability

The surface should tolerate the hospital’s approved cleaning method without:

Softening
Swelling
Delaminating
Staining
Losing gloss excessively
Corroding
Cracking
Releasing particles
Allowing liquid to enter joints

Chemical resistance

The design team should obtain the actual list of cleaning and disinfection products, including:

Product name
Active ingredient
Concentration
Contact time
Application method
Cleaning frequency
Rinsing requirements

A generic statement such as “resistant to hospital disinfectants” is too broad.

Impact resistance

The wall system may be exposed to:

Patient beds
Mobile imaging equipment
Instrument carts
Anesthesia equipment
Waste carts
Portable monitors
Cleaning machines

Impact performance depends on the surface material, backing, panel thickness, fixing spacing, subframe, and protective details.

Fire performance

Fire requirements may apply to:

Surface spread of flame
Smoke production
Core material
Insulation
Cavities
Sealants
Penetration seals
Complete wall or ceiling assemblies

A certificate for one sheet material does not necessarily establish the fire performance of the completed assembly.

Moisture resistance

Materials should be evaluated for:

Routine wet cleaning
Plumbing-adjacent locations
Condensation risk
Sealant failure
Water leakage
Humid climates
Construction moisture

Maintainability

The system should allow:

Local panel replacement
Sealant renewal
Access to concealed services
Addition or relocation of outlets
Damage repair
Cleaning around integrated components

Which Wall Finish Materials Are Commonly Used?

Coated Steel Wall Panels

Coated steel is widely used in modular operating theater systems.

The assembly may use galvanized, electro-galvanized, or other suitably protected steel with a factory-applied or site-applied finish.

Potential advantages

Good dimensional consistency
Durable surface
Suitable for factory fabrication
Integration with service openings
Wide range of colors
Easier coordination with metal subframes
Local panel replacement may be possible
Can provide a professional seamless appearance

Potential limitations

Surface coating can be scratched
Cut edges require proper protection
Poor preparation can lead to corrosion
Site-applied finishes require controlled workmanship
Dents may be difficult to repair invisibly
Chemical resistance depends on the coating system

What should buyers specify?

Buyers should confirm:

Steel type
Nominal steel thickness
Surface preparation
Coating type
Coating thickness where relevant
Color and gloss
Chemical-resistance data
Backing construction
Edge protection
Repair method
Panel replacement method

A thicker face sheet does not compensate for an inadequate frame or unsupported panel area.

Stainless Steel Wall Panels

Stainless steel may be selected for areas requiring high durability, frequent cleaning, corrosion resistance, or a specific clinical appearance.

Potential advantages

Strong resistance to impact
Good moisture resistance
Durable surface
Suitable for demanding service areas
No painted coating to peel

Potential limitations

Higher cost
Visible fingerprints and cleaning marks
Scratches may remain visible
Reflections may affect visual comfort
Poor fabrication can create distortion
Grade selection matters
Chloride-containing chemicals can cause damage to unsuitable grades

Stainless steel should be selected by grade, finish, thickness, fabrication quality, and cleaning compatibility—not simply by the words “stainless steel.”

Glass Wall Panels

Glass can provide a smooth, non-porous, modern finish.

It may be back-painted, printed, laminated, or combined with protective and decorative layers.

Potential advantages

Smooth and easy-to-wipe surface
High resistance to many stains
Premium appearance
Stable color
Can integrate graphics or color coding
Good scratch resistance under normal use

Potential limitations

Edge and corner vulnerability
Replacement can be expensive
Openings require precise fabrication
Changes after manufacture are difficult
Reflections may cause glare
Joints require careful sealing
Breakage behavior must be considered

The glass type and safety construction should comply with applicable requirements. Ordinary annealed decorative glass should not be assumed suitable.

High-Pressure Laminate Wall Panels

High-pressure laminate, or HPL, may be used as a finish on a suitable backing panel.

Potential advantages

Wide range of colors and patterns
Warm and less industrial appearance
Good general cleanability
Relatively straightforward fabrication
Suitable for selected hospital areas

Potential limitations

Edge detailing is critical
Moisture can affect unsuitable substrates
Chemical resistance varies
Deep scratches may not be repairable
Joints can become visually prominent
Fire performance depends on the complete assembly

HPL suitability should be verified specifically for operating theater use and the hospital’s cleaning chemicals.

Other Wall Finishes

Projects may also consider:

Solid-surface materials
Resin or hygienic cladding
Vinyl wall protection
Factory-coated composite boards
Specialist impact-resistant panels

Any proposed material should be assessed against the same performance criteria rather than accepted because it carries a “medical” or “antimicrobial” description.

How Should Different Wall Materials Be Compared?

Criterion	Coated steel	Stainless steel	Glass	HPL
Cleanability	Good with suitable coating	Very good	Very good	Good when properly detailed
Impact resistance	Good; depends on backing	High	Requires impact assessment	Moderate to good
Scratch visibility	Coating-dependent	Scratches may remain visible	Generally resistant	Deep damage may be visible
Chemical resistance	Coating-dependent	Grade and chemical-dependent	Generally good	Product-dependent
Design flexibility	High	Moderate	High before fabrication	High
Future modification	Relatively practical	Possible but specialist	More difficult	Possible with panel replacement
Relative cost	Moderate	High	Moderate to high	Moderate
Key risk	Coating damage or corrosion	Cost and visible marks	Edge damage or breakage	Joint and substrate durability

This table is a general comparison. Actual performance depends on the specified product and installed system.

What Are Wall Panel Cores and Backings?

The visible finish is only one part of the assembly.

Possible backings or cores include:

Gypsum-based boards
Calcium silicate boards
Magnesium oxide boards
Aluminum honeycomb
Paper honeycomb
Rock mineral wool
Polyurethane or PIR foam
Composite boards
Solid metal cassette constructions

The correct choice depends on:

Fire performance
Impact resistance
Acoustic requirements
Thermal requirements
Moisture exposure
Panel weight
Support spacing
Local material availability
Required service openings
Applicable regulations

Honeycomb cores

Honeycomb cores can provide panel stiffness at relatively low weight. However, buyers should confirm:

Core material
Bonding method
Moisture sensitivity
Fire performance
Edge closure
Local reinforcement for fixtures

Mineral-wool cores

Mineral wool may provide useful fire and acoustic properties, but performance depends on density, containment, and the complete panel assembly.

Foam cores

Foam cores may offer insulation and low weight. Their use should be evaluated carefully against the project’s fire and smoke requirements.

Board-backed systems

Board-backed systems can provide a solid substrate and useful acoustic or fire properties, but total weight and moisture resistance should be considered.

There is no universally superior core. Selection should follow tested system performance and project requirements.

For further comparison of cleanroom panel cores, see Cleanroom Sandwich Panels Explained: Types, Materials and Selection Guide.

How Should Wall Joints Be Designed?

Wall joints should be:

Smooth
Sealed
Cleanable
Visually consistent
Resistant to routine movement
Repairable
Compatible with cleaning chemicals

Common approaches include:

Sealant-filled recessed joints
Flush metal cover profiles
Gasketed joints
Overlapping panel edges
Welded or filled seamless systems

Sealant joints

Sealants should be selected for:

Adhesion
Movement capability
Chemical resistance
Mold resistance where relevant
Color stability
Cleanability
Expected service life

A joint that initially looks seamless may fail if the sealant is incompatible with the panel coating or cannot accommodate building movement.

Metal profiles

Profiles can create consistent joints and protect panel edges, but protruding profiles may form ledges or interfere with cleaning.

Seamless finishing

Filled and painted joints can produce a monolithic appearance. However, they depend heavily on substrate stability, workmanship, curing, and control of movement.

Joint samples should be reviewed before full production.

How Should Corners and Floor Junctions Be Detailed?

Sharp internal corners can be more difficult to clean and seal.

Possible details include:

Integral coved corners
Formed metal corner pieces
Radius profiles
Sealed flush corners

External corners may require increased impact resistance.

Floor-to-wall junctions should coordinate with:

Resilient flooring
Resin flooring
Integral coving
Wall panel termination
Moisture sealing
Cleaning method

The floor cove should meet the wall system without creating an open seam, step, or trapped cavity.

What Should Be Considered for the Ceiling System?

The operating theater ceiling must coordinate multiple systems within limited space.

These may include:

HEPA or ultraclean airflow canopy
Surgical lights
Ceiling pendants
General lighting
Fire detection
Sprinklers
Cameras
Speakers
Medical services
Access panels
Structural supports
Ceiling-mounted imaging equipment

Ceiling surface requirements

The visible ceiling should normally be:

Smooth
Cleanable
Sealed
Suitable for the cleaning chemicals
Resistant to particle passage
Properly coordinated around penetrations

Perforated acoustic ceilings may be unsuitable within restricted surgical environments unless specifically permitted and engineered for that application.

Ceiling panels are not structural supports

A modular ceiling finish should not be expected to carry:

Surgical lights
Medical pendants
Imaging equipment
Heavy service booms
Structural maintenance loads

These items require independent supports designed by qualified structural engineers.

The modular ceiling should interface neatly with those supports while maintaining the required environmental seal.

How Should the Ventilation Canopy Be Integrated?

The HEPA or ultraclean airflow canopy may occupy a large part of the operating room ceiling.

Coordination should confirm:

Canopy dimensions
Filter arrangement
Surgical-table position
Surgical-light positions
Pendant positions
Support structure
Service access
Test access
Seal between canopy and ceiling
Return-air grille positions

Unplanned gaps between the ventilation canopy and modular ceiling can create:

Air leakage
Particle entry
Cleaning difficulties
Poor appearance
Testing problems

For detailed airflow coordination, see Operating Theater Ventilation Design: Airflow, Pressure, Filtration and Testing.

How Should Services Be Integrated into the Walls?

Operating theater walls may contain:

Medical-gas outlets
Electrical sockets
Data outlets
Control panels
Pressure displays
Temperature and humidity displays
Clocks and timers
Nurse call
Image-viewing screens
Storage cabinets
Writing boards
Return-air grilles
Access panels

Flush integration

Flush-mounted components reduce projections and can improve cleanability. However, “flush” installation still requires:

Sealed edges
Removable access where needed
Suitable fixing
Cable and pipe coordination
Fire stopping
Medical-gas testing
Maintenance clearance

Future modifications

The system should allow selected services to be added or changed without removing large areas of the operating room.

Coordination drawings should distinguish between:

User-accessible panels
Maintenance-access panels
Permanently sealed panels
Removable wall modules

How Should Cabinets Be Integrated?

Built-in cabinets can reduce floor-standing furniture and improve space use.

They should be designed with:

Flush faces where practical
Cleanable interiors
Sealed perimeter joints
Durable hinges and hardware
Suitable shelves
Clear loading capacity
Safe door opening
Appropriate locking
No conflict with airflow
No inaccessible voids

Cabinets should not be installed merely to fill unused wall space. Their contents, dimensions, frequency of access, and effect on clinical workflow should be defined.

How Should Low-Level Return-Air Grilles Be Integrated?

Low-level return-air grilles are common in some operating theater ventilation designs.

Their location and construction should consider:

Required airflow
Cleanability
Removal for cleaning
Protection from impact
Access to dampers where required
Noise
Sealing to ductwork
Coordination with cabinets
Avoidance of equipment parking

A visually attractive grille is ineffective if staff routinely park mobile equipment in front of it.

The wall layout should reserve clear zones around critical air terminals.

How Is Radiation Shielding Integrated?

Operating rooms used for fluoroscopy, hybrid imaging, cardiac procedures, vascular procedures, orthopedics, or neurosurgery may require radiation shielding.

Shielding design should be prepared or verified by an appropriately qualified radiation-protection specialist.

It may affect:

Wall construction
Doors
Windows
Ceiling
Floor
Duct penetrations
Medical-gas penetrations
Electrical boxes
Structural supports
Access panels
Control-room interfaces

Lead-lined walls

Where lead sheet is used, the design should define:

Required lead equivalence
Sheet thickness
Overlaps
Joint construction
Fixing method
Continuity around openings
Protection from damage
Verification method

Openings and penetrations

Shielding can be compromised by small unprotected gaps.

Particular attention is required at:

Door frames
Window frames
Electrical boxes
Wall control panels
Ducts
Pipe penetrations
Panel joints
Ceiling supports
Access hatches

A lead-lined wall alone does not create a complete radiation-protection barrier.

What About Acoustic Performance?

Operating theaters contain alarms, equipment, conversations, and mechanical noise.

Wall and ceiling assemblies may need to support:

Speech privacy
Reduced disturbance to adjacent rooms
Effective communication within the room
Control of mechanical equipment noise
Reduced sound transmission through ceiling voids

Acoustic performance depends on:

Panel mass
Core material
Frame design
Seals
Doors
Windows
Penetrations
Ceiling construction
Ductwork

A wall with good laboratory acoustic performance may perform poorly after numerous service penetrations are installed.

Do Antimicrobial Coatings Improve Infection Control?

Some wall finishes contain antimicrobial additives or make antibacterial claims.

These products may have specific tested properties, but buyers should examine:

Test standard
Test organism
Contact time
Laboratory conditions
Durability
Effect of cleaning
Regulatory status
Scope of claim
Relevance to real operating conditions

An antimicrobial coating does not eliminate the need for:

Environmental cleaning
Disinfection
Hand hygiene
Sterile technique
Ventilation
Maintenance
Damage repair

Cleanability, joint integrity, and operational discipline are generally more important than marketing terminology alone.

How Should Colors and Gloss Be Selected?

Operating theater colors should support clinical function and visual comfort.

The design should consider:

Light reflectance
Glare
Staff visual fatigue
Surgical-light conditions
Video and imaging use
Wayfinding
Color consistency
Stain visibility
Repair matching

Very glossy surfaces may create reflections from surgical lights and monitors. Very dark surfaces may reduce brightness and reveal dust or cleaning marks.

Color samples should be evaluated under actual or representative room lighting.

How Should Wall-Mounted Equipment Be Supported?

Wall-mounted items may include:

Monitors
Cabinets
Clocks
Control panels
Diagnostic displays
Computer arms
Equipment rails
Protective bumpers

The panel face alone may not provide sufficient support.

The design should define:

Equipment weight
Dynamic load
Mounting position
Reinforcement
Subframe connection
Fasteners
Service routes
Sealing
Future removal

Reinforcement should be installed before wall closure. Unplanned site drilling can damage coatings, hidden services, fire barriers, or radiation shielding.

How Should Maintenance Access Be Provided?

Concealed services may require inspection and repair.

Access options include:

Removable full-height panels
Local access doors
Service corridors
Ceiling access panels
Rear-access cabinets
Demountable profiles

Access panels should:

Be clearly identified
Remain sealed during normal use
Match surrounding finishes
Allow safe maintenance
Avoid unnecessary projections
Be included in cleaning procedures

A completely inaccessible wall cavity may look cleaner initially but create major operational disruption when a valve, cable, or connection fails.

How Should Materials Be Tested and Approved?

Material approval should include more than a small color sample.

The review should consider:

Product datasheet
Material composition
Fire test documentation
Chemical-resistance data
Impact performance
Cleaning instructions
Warranty
Installation method
Joint sample
Corner sample
Penetration detail
Repair method
Reference installations

Cleaning-product compatibility test

Where possible, expose the proposed surface and sealant to the hospital’s actual products using representative:

Concentration
Contact time
Frequency
Application method

Inspect for:

Color change
Gloss change
Softening
Cracking
Swelling
Loss of adhesion
Corrosion
Sealant deterioration

What Should Be Checked During Installation?

Installation inspections should verify:

Correct panel type and finish
Subframe alignment
Wall plumb and flatness
Joint width and consistency
Sealant adhesion
Corner quality
Floor-junction sealing
Door and window interfaces
Service penetrations
Cabinet integration
Return-air grille sealing
Ceiling perimeter seal
Damage to coatings
Radiation-shield continuity
Fire stopping
Cleanliness before closure

Damage should be recorded and repaired using an approved method. Informal touch-up painting may not provide the same durability or appearance as the original finish.

How Should Completed Walls and Ceilings Be Accepted?

Final acceptance may include:

Visual inspection
Dimensional inspection
Joint inspection
Surface-cleanability review
Door and window interface inspection
Seal verification
Access-panel testing
Cabinet operation
Review of material certificates
Fire-documentation review
Radiation-shielding verification
Room pressure testing
Airflow testing
Cleaning inspection
As-built drawing review

Air leakage can occur through wall and ceiling interfaces even when individual panels appear satisfactory. The room enclosure and ventilation system should therefore be assessed together.

Buyer’s Checklist for Wall and Ceiling Systems

Surface material

Surface material and thickness are specified.
Finish type, color, and gloss are approved.
Cleaning-product compatibility is confirmed.
Chemical-resistance evidence is available.
Impact and scratch risks have been evaluated.
Repair and replacement methods are defined.

Complete assembly

Core or backing material is specified.
Subframe design is documented.
Fire performance applies to the required assembly.
Acoustic requirements are addressed.
Moisture risks are assessed.
Panel spans and fixing intervals are suitable.

Joints and interfaces

Joint details are approved.
Sealant compatibility is verified.
Corners are smooth and cleanable.
Floor coving is coordinated.
Door and window interfaces are sealed.
Ceiling perimeter details are complete.

Integrated services

Medical-gas and electrical openings are coordinated.
Equipment reinforcement is installed.
Cabinets are sealed and accessible.
Return-air grilles remain unobstructed.
Maintenance access is provided.
Future modification requirements are considered.

Specialist requirements

Radiation shielding is designed by a qualified specialist.
Shielding continuity is verified.
Heavy ceiling equipment has independent support.
HEPA canopy interfaces are sealed.
Fire stopping is documented.
As-built drawings show concealed services.

Common Misconceptions

“Stainless steel is always the best wall finish.”

Stainless steel is durable, but coated steel, glass, or other systems may offer better value or appearance for a particular project. Selection should be performance-based.

“A thicker panel is always stronger.”

Strength depends on face-sheet thickness, core or backing, subframe, fixings, panel span, and reinforcement.

“Antibacterial panels prevent surgical-site infections.”

Surface additives do not replace cleaning, ventilation, sterile practice, hand hygiene, and infection-control procedures.

“Fewer joints always mean better hygiene.”

Reducing joints can help, but long seamless finishes may crack if movement is not controlled. A well-designed sealed joint can be more durable and maintainable.

“The modular ceiling supports surgical lights.”

The visible ceiling finish is normally not the structural support. Surgical lights and pendants require independent engineered support.

“Lead-lined wall panels are enough for radiation protection.”

Shielding must remain continuous through doors, windows, ceilings, floors, joints, and service penetrations.

“All hospital disinfectants are safe for all wall finishes.”

Chemical compatibility varies by surface coating, concentration, contact time, and cleaning frequency.

Expert Tip

Approve a full-scale wall and ceiling interface mock-up before mass production.

The mock-up should include:

Wall joint
Internal and external corner
Floor cove
Ceiling junction
Door frame
Window frame
Medical-gas or electrical outlet
Cabinet edge
Return-air grille
Access panel

Then clean it using the hospital’s actual products and inspect it under representative lighting. This single exercise can reveal joint, glare, color, access, and chemical-resistance problems before they are repeated throughout the project.

Frequently Asked Questions

What is the best wall material for a modular operating theater?

There is no universal best material. The correct choice depends on chemical resistance, impact risk, fire requirements, appearance, radiation shielding, maintenance strategy, local standards, and budget.

Is coated steel suitable for operating theater walls?

Yes, when the steel, coating, backing, joints, edge protection, and installation are suitable for the required clinical environment.

Is stainless steel required in every operating room?

No. It may be preferred in high-impact or demanding areas, but other compliant finishes can be appropriate.

Can glass be used for operating theater walls?

Yes, provided the glass is a suitable safety construction and its edges, joints, openings, glare, impact risk, and replacement method are properly addressed.

What panel thickness should be specified?

Panel thickness alone does not determine performance. The complete assembly—including face sheets, core, subframe, supports, and equipment reinforcement—should be evaluated.

Can medical equipment be fixed directly to a wall panel?

Only when the panel system includes suitable reinforcement and the fixing has been designed for the equipment load. The decorative face sheet alone may not be sufficient.

How are damaged panels repaired?

The method depends on the finish and extent of damage. Options may include approved coating repair, local refinishing, replacement of a panel module, or replacement of a glass or laminate face.

Can operating theater walls include radiation shielding?

Yes. Lead sheet or another approved shielding material may be integrated, but the design must ensure continuity across joints, doors, windows, ceilings, floors, and penetrations.

Conclusion

Modular operating theater walls and ceilings should be selected as complete engineered systems rather than decorative finishes.

The visible surface must be cleanable and durable, but long-term performance also depends on the backing, subframe, joints, corners, service penetrations, structural supports, radiation shielding, fire stopping, and maintenance access.

Coated steel, stainless steel, glass, and HPL can all be appropriate when correctly specified. No material is automatically superior in every project.

The best system is the one that meets the applicable healthcare requirements, supports the intended clinical workflow, integrates safely with building services, tolerates the hospital’s cleaning practices, and can be maintained throughout its service life.