Surfaces and Finishes in Healthcare Facilities

Materials, Design Guidelines and Specifications

1. Introduction

Surfaces and finishes are important components of healthcare building design because they influence environmental hygiene, patient safety, durability, maintenance, acoustics and the overall experience of patients, visitors and healthcare personnel.

In hospitals and clinics, material selection must respond to the activities performed in each room. A reception area, inpatient bedroom, intensive care unit, operating room, laboratory and sanitary space do not have identical performance requirements. Each requires a considered combination of cleanability, moisture resistance, wear resistance, slip resistance, impact protection and compatibility with the cleaning products used by the facility.

Healthcare interiors must also support efficient clinical workflows. Floors need to accommodate beds, wheelchairs and medical trolleys. Wall finishes must withstand routine cleaning and, in circulation areas, impacts from moving equipment. Ceilings must provide suitable access to building services without compromising the environmental requirements of the room.

For architects, the objective is not simply to select attractive materials. It is to specify a coordinated interior system that performs reliably throughout the building’s operational life.

This guide explains the principal surface and finish types used in healthcare facilities, their architectural applications, material-selection criteria, construction details, room-specific requirements and practical specification methods.

2. What Are Surfaces and Finishes in Healthcare Facilities?

Surfaces and finishes in healthcare facilities are the exposed materials and protective treatments applied to floors, walls, ceilings, doors, worktops, built-in furniture and other building components. They are selected according to the functional, hygienic, safety, aesthetic and maintenance requirements of the healthcare environment.

A suitable healthcare finish should be compatible with the intended clinical activity, the cleaning and disinfection procedures, expected traffic, moisture exposure, impact loads and maintenance arrangements.

Why are healthcare finishes important?

Healthcare finishes contribute to several aspects of building performance:

• Environmental hygiene: Surfaces that can be cleaned effectively support environmental cleaning programmes.
• Patient and staff safety: Appropriate flooring can reduce slip hazards, while wall protection helps prevent damage from beds and equipment.
• Durability: Materials must withstand traffic, repeated cleaning, impacts and other foreseeable operational demands.
• Clinical functionality: Surface performance must suit the activities taking place in each room.
• Patient experience: Colour, texture, glare, acoustics and visual comfort affect the perception of healthcare interiors.
• Operational efficiency: Accessible details and repairable finishes can simplify routine maintenance.
• Life-cycle performance: Initial material costs should be considered alongside installation, cleaning, repair, replacement and downtime.

The CDC emphasizes appropriate environmental cleaning, with cleaning frequency and procedures determined by the surface, its use and the relevant healthcare protocols. Material selection should therefore be coordinated with the facility’s infection-prevention team rather than treated as an isolated interior-design decision.

3. Fundamental Principles of Healthcare Finish Selection

3.1 Cleanability

Cleanability is the ability of a surface to be cleaned effectively using the intended methods, equipment and cleaning agents.

Smooth, accessible surfaces with appropriately detailed joints are often easier to maintain than surfaces with deep texture, open seams or inaccessible recesses. However, a smooth appearance alone does not establish that a material is suitable for a clinical environment.

Architects should evaluate the complete installed assembly, including joints, edge trims, penetrations, skirtings, sealants and connections to fixtures.

3.2 Compatibility with cleaning and disinfecting agents

Hospital cleaning products can affect flooring, coatings, sealants, grout, laminates and other finishes differently.

The selected material must be compatible with the actual chemicals, concentrations, contact times, temperatures and cleaning procedures expected in the facility. Compatibility should be established through current manufacturer documentation and, where necessary, project-specific testing.

Do not assume that a product is suitable merely because it is described as hospital-grade or antimicrobial.

3.3 Moisture resistance

Bathrooms, sluice rooms, kitchens, laboratories, sterile-processing spaces and other wet or frequently cleaned environments require appropriate resistance to moisture.

The design must consider not only the exposed surface but also the substrate, joints, adhesives, waterproofing, floor drains and service penetrations. Water entering an inadequately detailed assembly can damage the substrate and create conditions that are difficult to inspect or maintain.

3.4 Slip resistance

Flooring must provide appropriate traction for the expected conditions, including dry walking, wet cleaning, spills, footwear and the movement of wheeled equipment.

Slip resistance should be selected for the actual use of the room. A highly textured finish may improve traction under some conditions but may also make cleaning more difficult. Conversely, a smooth surface may be easier to clean but unsuitable for a particular wet-use application.

Specify measurable performance requirements using an appropriate, recognized test method. Avoid relying on vague descriptions such as “anti-skid” without supporting technical evidence.

3.5 Durability and impact resistance

Hospital corridors, emergency departments and patient-transfer areas experience frequent movement of beds, stretchers, trolleys and equipment.

Finishes should resist foreseeable wear and impact. Wall protection systems, corner guards, door protection and suitable flooring can reduce recurring damage and repair costs.

3.6 Seam and junction detailing

A finish system performs only as well as its installation and detailing.

Architects should coordinate:

• Floor-to-wall junctions and skirting.
• Internal and external corners.
• Movement joints.
• Door thresholds and transitions between floor materials.
• Floor drains and waterproofing.
• Service penetrations.
• Built-in cabinets and worktops.
• Access panels and ceiling interfaces.

The objective is to avoid inaccessible dirt traps, prevent water ingress where relevant and maintain the required cleanability of the assembly.

3.7 Patient comfort and visual quality

Healthcare finishes should support a calm, legible and accessible environment. Appropriate colour contrast can assist wayfinding, while glare control, acoustic performance and visual simplicity can improve comfort.

These considerations must be balanced with maintenance, durability and clinical requirements. A decorative material appropriate for a public lobby may be unsuitable for an operating room or a frequently cleaned treatment space.

4. Classification of Healthcare Surface and Finish Materials

Healthcare finishes can be classified according to their location, function and performance.

Surface category	Common material options	Primary considerations
Flooring	Sheet vinyl, rubber, linoleum, resin systems, porcelain or ceramic tiles	Cleanability, slip resistance, wear, joints and repairability
Wall finishes	Healthcare-grade coatings, washable paints, sheet wall coverings, resin systems and selected tiles	Scrubbability, moisture resistance, impact resistance and joint details
Wall protection	Corner guards, crash rails, protective wall panels and door protection	Impact resistance, cleanability, replacement and compatibility
Ceilings	Sealed gypsum systems, cleanable ceiling panels and suitable monolithic systems	Dust control, service access, moisture, acoustic performance and cleaning
Worktops	Stainless steel, solid-surface materials and suitable compact laminates	Chemical resistance, cleanability, heat exposure and joint construction
Doors and frames	Durable coated metal, suitable laminates and sealed timber-based assemblies where permitted	Cleanability, impact resistance, hardware and durability
Wet-area finishes	Appropriate waterproofed flooring, resin systems and selected ceramic or porcelain finishes	Waterproofing, slip resistance, drainage and sealed junctions

These are material families rather than universal prescriptions. The correct choice depends on the room’s use, local regulations, product performance and the facility’s maintenance procedures.

5. Flooring in Healthcare Facilities

Flooring is one of the most important interior finish decisions because it affects patient movement, staff activity, equipment transport, cleaning, noise and long-term maintenance.

5.1 Sheet vinyl flooring

Sheet vinyl is a resilient flooring material supplied in rolls. Depending on the product and installation system, seams can be heat-welded and junctions detailed with compatible accessories.

Advantages

• Provides a relatively continuous surface when properly installed.
• Can be available in a wide range of colours and patterns.
• May support efficient cleaning and routine maintenance.
• Can provide a suitable resilient surface for patient-care environments.

Limitations

• Seams, adhesives and substrate preparation require careful execution.
• Incorrect cleaning products can damage the surface.
• Cuts, punctures or damaged seams may require specialist repair.
• Suitability for heavy loads, rolling equipment and specific disinfectants varies by product.

Typical applications: Patient rooms, clinical corridors, examination rooms and selected treatment areas where the specified product meets the performance requirements.

5.2 Rubber flooring

Rubber flooring is a resilient material used in some healthcare and institutional interiors.

Advantages

• Can offer good resistance to wear.
• May provide useful underfoot comfort and acoustic benefits.
• Is available in different surface textures and formats.

Limitations

• Some products are sensitive to particular cleaning chemicals.
• Surface texture, seam construction and installation influence cleanability.
• Initial cost and repair methods vary between systems.

Typical applications: Selected corridors, circulation areas, staff spaces and other locations where the manufacturer’s performance data supports the intended use.

5.3 Linoleum flooring

Linoleum is a resilient flooring material manufactured using linseed oil and other constituents, commonly including fillers, pigments and a backing such as jute.

Advantages

• Can be a useful option where renewable-content materials are part of the project strategy.
• Offers a range of colours and finishes.
• Can provide durable performance when properly installed and maintained.

Limitations

• Requires appropriate substrate preparation and installation.
• Seams and moisture exposure need careful consideration.
• Cleaning methods and chemical compatibility must follow the product specification.

Typical applications: Selected healthcare circulation, administrative and patient-care spaces where the particular product is approved for the intended conditions.

5.4 Resin and epoxy flooring

Resin flooring systems may use epoxy or other resin chemistries. They can be designed to provide a durable, relatively continuous surface, subject to the selected system and installation details.

Advantages

• Can offer strong wear and chemical resistance.
• Can be detailed with suitable coves and drainage interfaces.
• Can provide a continuous finish over a correctly prepared substrate.

Limitations

• Performance depends on substrate condition, moisture and installation quality.
• Some systems may be hard or uncomfortable underfoot.
• Repairs can be visually apparent.
• Chemical resistance, slip resistance and cure time differ by formulation.

Typical applications: Selected laboratories, service rooms, technical areas, wet-use spaces and other locations where the system is compatible with the operational requirements.

5.5 Ceramic and porcelain tiles

Ceramic and porcelain tiles are hard surface materials available in a wide range of formats and finishes.

Advantages

• Good wear resistance can be achieved with appropriate products.
• Individual damaged tiles can sometimes be replaced.
• Selected products are suitable for wet and frequently cleaned environments.

Limitations

• Grout joints introduce additional maintenance requirements.
• Tile and grout selection must consider chemical exposure and moisture.
• Uneven installation can create trip hazards or cleaning difficulties.
• Slip performance varies considerably by surface finish.

Typical applications: Selected public areas, toilets, kitchens and other suitable spaces where the full tiled assembly meets hygiene, safety and maintenance requirements.

5.6 Concrete and terrazzo finishes

Polished or treated concrete and terrazzo may be appropriate in selected public, circulation or support areas.

Their suitability depends on the finish, porosity, sealing system, joint layout, slip performance and cleaning requirements. They should not be specified for clinical use based solely on appearance or durability.

5.7 Carpet and textile flooring

Carpet can improve acoustic comfort in some nonclinical settings, but it is difficult to maintain where frequent liquid spills, intensive cleaning or contamination are anticipated.

Avoid carpet in areas where the applicable healthcare guidance or operational requirements prohibit it, and assess any proposed use in administrative, counselling or other nonclinical spaces carefully.

6. Wall Finishes and Wall Protection

Wall finishes must balance cleanability, durability, moisture resistance, appearance and the expected level of physical contact.

6.1 Washable wall coatings

Healthcare-appropriate coatings may be used in patient rooms, consultation spaces, offices and other areas where the selected system meets the cleaning and durability requirements.

The specification should identify the coating system, substrate preparation, required finish, chemical compatibility and repair procedure.

Ordinary decorative paint should not automatically be assumed suitable for repeated scrubbing or exposure to disinfectants.

6.2 Sheet wall coverings and protective panels

Sheet wall coverings and protective panels can provide a durable, cleanable finish in selected clinical and circulation areas.

Their performance depends on joint design, corner details, adhesives, edge sealing and compatibility with cleaning products. The system should not introduce open joints or inaccessible cavities that undermine maintenance.

6.3 Ceramic and porcelain wall tiles

Tiles may be suitable in toilets, wash areas, kitchens and selected clinical spaces.

The design should consider grout selection, waterproofing, junctions, impact resistance and cleaning. A tile specification is incomplete without the associated grout, adhesive and substrate requirements.

6.4 Stainless steel and specialist wall finishes

Stainless steel may be appropriate around selected equipment, work areas or locations requiring specific durability or hygiene characteristics. Specialist resin or other protective systems may be used in particular clinical and technical environments.

These materials should be specified only where their performance, detailing and maintenance advantages justify their use.

6.5 Wall protection in circulation areas

Beds and wheeled equipment can damage walls at corners, doorways and corridor junctions.

Useful design measures include:

• Crash rails at locations identified by the equipment and circulation study.
• Corner guards at vulnerable external corners.
• Durable door leaves, frames and protective plates.
• Replaceable wall protection panels.
• Sufficient clearance around equipment routes.

Protection should be coordinated with handrails, accessibility requirements, electrical outlets and clinical equipment.

7. Ceilings in Healthcare Facilities

Ceilings accommodate lighting, air distribution, medical services where required, fire protection, detection systems and maintenance access. Their design must respond to both clinical performance and building-services coordination.

7.1 Cleanable ceilings

Ceiling surfaces in patient and staff areas should be capable of being maintained with the cleaning methods appropriate to their location.

The selection should consider surface texture, moisture exposure, dust accumulation and access to concealed services.

7.2 Suspended ceiling systems

Suspended ceilings can provide access to electrical, mechanical and other services. However, not every suspended ceiling system is appropriate for every healthcare room.

In spaces with specific environmental or infection-prevention requirements, the design must establish whether a lay-in system is acceptable, whether access panels need seals, and whether joints or penetrations require particular treatment.

7.3 Monolithic ceiling systems

Monolithic ceilings can reduce exposed joints and provide a continuous surface in rooms where the relevant guidelines or clinical risk assessment require this approach.

Such systems must be coordinated with light fittings, diffusers, medical service outlets and maintenance access. The need for a continuous ceiling should be determined by the room’s function and applicable requirements rather than applied indiscriminately throughout the facility.

7.4 Lighting and service penetrations

Recessed fittings, diffusers, access panels and other penetrations must be detailed in coordination with the ceiling system.

Where the room requires a sealed or continuous assembly, fittings and openings must preserve that performance. The ceiling design should also permit necessary inspection and maintenance without avoidable damage.

8. Worktops, Cabinets, Doors and Other Contact Surfaces

8.1 Worktops

Worktops in clinical, laboratory, medication-preparation and utility spaces require selection according to the actual work performed.

Possible materials include stainless steel, suitable solid-surface products and appropriate compact laminates. Selection criteria include resistance to the expected chemicals, heat exposure, impact, staining and cleaning procedures.

Junctions between worktops and walls should be designed to avoid inaccessible dirt traps. Where required, sealed or integral upstands may simplify cleaning.

8.2 Cabinets and built-in furniture

Cabinet finishes should withstand routine cleaning and anticipated contact with equipment or supplies.

Designers should consider:

• Smooth, accessible external surfaces.
• Durable edge treatments.
• Sealed junctions where necessary.
• Accessible cleaning beneath and around units.
• Hardware that can withstand the operating environment.
• Replaceable components where damage is likely.

Cabinet placement should not obstruct cleaning access or required clinical workflows.

8.3 Doors and frames

Doors and frames are frequently touched and may be exposed to impact from trolleys and beds.

Specify finishes that tolerate the cleaning products and physical demands of the location. Pay attention to door edges, kick plates, handles, hinges, seals and frame-to-wall junctions.

8.4 Handrails and other frequently touched components

Handrails, door handles, switches and similar components require cleaning strategies appropriate to their contact frequency.

The material and finish should be compatible with the approved cleaning procedure. Decorative textures and complex profiles should be avoided where they make routine cleaning unnecessarily difficult.

9. Room-by-Room Finish Selection

Different healthcare rooms require different combinations of surface performance.

Healthcare space	Flooring considerations	Wall and ceiling considerations
Reception and public waiting	Durable, maintainable, appropriately slip-resistant flooring	Durable, visually comfortable finishes; cleanable ceiling
Consultation and examination rooms	Cleanable, wear-resistant flooring suitable for clinical use	Washable walls; cleanable ceiling and accessible service coordination
Inpatient rooms	Resilient, cleanable flooring suitable for beds and equipment	Washable walls, impact protection where needed, appropriate acoustic performance
Intensive care units	Flooring suitable for frequent cleaning and clinical equipment movement	Finish systems and ceiling details coordinated with clinical risk and services
Operating rooms	Flooring meeting applicable operating-room requirements	Wall and ceiling assemblies appropriate to the room’s infection-prevention and cleaning requirements
Emergency departments	Durable flooring for heavy movement and frequent cleaning	Impact-resistant, cleanable walls and durable door finishes
Toilets and bathing areas	Wet-area slip performance, drainage and waterproofing	Moisture-resistant finishes and properly sealed junctions
Laboratories	Chemical and process-specific flooring requirements	Worktops and walls selected for the actual laboratory activity
Sterile-processing areas	Cleanable, durable flooring suited to the process	Surfaces compatible with cleaning, disinfection and required environmental controls
Kitchens and food-service areas	Suitable moisture, grease and cleaning resistance	Washable, moisture-resistant finishes and hygienic junctions
Offices and administrative rooms	Durable, maintainable finishes appropriate to office use	Standard interior finishes selected for comfort and maintenance

This table is a preliminary selection guide, not a compliance schedule. Each room should be checked against its clinical brief, applicable regulations and the current edition of the relevant healthcare design guidance.

10. Construction Details and Junction Design

Material selection should be developed alongside construction details. A suitable material can underperform if its junctions are poorly designed or installed.

10.1 Floor-to-wall junctions

An integral coved skirting can create a curved transition between a floor and wall, reducing the sharp internal corner where dirt may accumulate.

Where required by the relevant guidance or room specification, the floor, cove and wall finish should form a compatible assembly. The detail must account for the flooring type, substrate, adhesives, movement and installation tolerances.

A coved detail is not a substitute for correct waterproofing or installation.

10.2 Movement joints

Movement joints accommodate movement in the building structure or finish assembly.

They should not simply be covered over without understanding their function. Specify compatible joint systems that maintain the required cleanability and moisture performance while allowing the movement for which they are designed.

10.3 Service penetrations

Pipes, conduits, ducts and other services can create gaps in finished surfaces.

Coordinate penetration details with the relevant architectural, mechanical, electrical, plumbing and fire-stopping requirements. Sealing materials must be compatible with the adjacent construction and the room’s cleaning conditions.

10.4 Thresholds and transitions

Transitions between different flooring materials should be durable, safe and accessible.

The design should avoid abrupt changes in level, vulnerable exposed edges and profiles that obstruct wheeled equipment. Threshold details should also coordinate with doors, movement joints and any required water containment.

10.5 Substrate preparation

Flooring and wall finish failures frequently arise from unsuitable substrates or inadequate preparation.

Specifications should address substrate flatness, moisture conditions, curing, surface strength, cleanliness and the manufacturer’s installation requirements. These checks should be incorporated into inspection and quality-control procedures.

11. Cleaning, Disinfection and Maintenance

Finish selection should be developed with the people responsible for operating the facility.

The CDC distinguishes frequently touched surfaces from surfaces with lower hand contact and recommends cleaning and disinfection practices appropriate to the surface, contamination risk and healthcare protocol.

11.1 High-touch surfaces

High-touch surfaces include bed rails, door handles, light switches, handrails and other frequently contacted components.

Their selection should consider cleanability, durability, chemical compatibility and the frequency of cleaning.

11.2 Routine housekeeping surfaces

Floors, walls, ceilings and other housekeeping surfaces require maintenance appropriate to their exposure and function. Cleaning frequencies should follow the facility’s policies and applicable guidance rather than a single universal schedule.

11.3 Antimicrobial coatings and materials

Antimicrobial or antimicrobial-impregnated products should not automatically be treated as substitutes for effective environmental cleaning.

Any proposed product should be assessed against credible evidence, the specific intended application, applicable regulatory requirements and the manufacturer’s documented claims. Routine cleaning and disinfection remain essential.

11.4 Maintenance planning

Before approving a finish, establish:

• The recommended cleaning products and methods.
• Any restrictions on disinfectants or cleaning equipment.
• Expected maintenance frequency.
• Repair and replacement methods.
• Availability of matching replacement materials.
• Installation and curing requirements.
• Access requirements for concealed services.
• Potential disruption to clinical operations during repair.

These considerations should inform both material selection and the project’s maintenance budget.

12. Sustainability and Life-Cycle Cost

A low initial material cost does not necessarily produce the lowest overall cost.

Life-cycle assessment should consider purchase, installation, cleaning, repair, replacement, service life and the disruption associated with maintenance.

Sustainability considerations include:

• Product durability and realistic replacement intervals.
• Recycled or renewable content where appropriately documented.
• Indoor emissions and relevant product certifications.
• Cleaning chemical and water requirements.
• Repairability and availability of replacement components.
• Material waste during installation and refurbishment.
• End-of-life reuse or recycling options where feasible.

Environmental claims should be supported by product-specific documentation. A material should not be described as sustainable solely because it is natural, recycled or marketed as environmentally friendly.

13. Common Mistakes in Healthcare Finish Design

13.1 Applying one finish throughout the hospital

Different spaces have different clinical, operational and environmental requirements. A single finish specification can result in unsuitable materials or unnecessary costs.

13.2 Selecting materials by appearance alone

A visually attractive product may be unsuitable for the cleaning regime, expected traffic or clinical activities. Performance documentation must support the intended use.

13.3 Ignoring joints and edges

Poorly detailed joints, exposed edges and inaccessible corners can undermine cleaning and moisture performance. Review the complete installed assembly, not just the product sample.

13.4 Overlooking disinfectant compatibility

A finish can deteriorate when exposed to cleaning agents that were not considered during selection. Obtain written compatibility information for the actual cleaning regime.

13.5 Using vague specification language

Terms such as “hospital-grade,” “hygienic” and “antibacterial” do not adequately define performance.

Specifications should state measurable requirements, applicable test methods, installation details and acceptance criteria.

13.6 Neglecting coordination with building services

Ceiling penetrations, wall outlets, floor drains and equipment connections can affect the integrity and maintainability of the finished assembly. Coordinate these details before construction.

13.7 Ignoring repairs and future replacement

A material that is difficult to repair or unavailable in matching finishes may create avoidable downtime and maintenance costs.

13.8 Confusing material selection with infection control

No single finish can guarantee infection prevention. Effective environmental cleaning, appropriate clinical practices, building design, maintenance and operational management work together.

14. Practical Checklist for Architects

Before approving the healthcare finish schedule, confirm the following:

• Each room has a defined clinical function and finish requirement.
• Flooring meets the intended wear, cleaning and slip-resistance requirements.
• Wall finishes meet the required washability and impact-resistance criteria.
• Ceiling types and access arrangements are appropriate for the room.
• Worktops, cabinets, doors and frequently touched components are specified.
• Cleaning agents and disinfection procedures are compatible with the materials.
• Floor-to-wall junctions and other critical interfaces are detailed.
• Waterproofing, drainage and service penetrations are coordinated.
• Substrate preparation and installation requirements are documented.
• Product technical data and relevant test evidence have been reviewed.
• Maintenance procedures and replacement strategies are established.
• The specification has been reviewed with relevant clinical and infection-prevention personnel.
• Applicable building regulations and healthcare design guidance have been checked.

15. Preparing a Healthcare Finish Schedule

A finish schedule should identify the required material and performance for each room and building component.

A useful schedule may include the following fields:

Field	Information to record
Room identification	Room name, number and department
Floor finish	Product type, finish, colour and performance requirements
Wall finish	Coating or covering system and required durability
Skirting	Type, height where specified, cove and junction details
Ceiling finish	System, surface treatment and access requirements
Worktop and cabinetry	Material, edge treatment and junction details
Doors and frames	Finish, protection and hardware requirements
Cleaning compatibility	Approved products and maintenance restrictions
Installation requirements	Substrate, adhesives, joints and curing
Reference documents	Product data, drawings and relevant room requirements

For coordinated healthcare projects, this schedule should be aligned with room data sheets (RDS), room layout sheets (RLS), architectural specifications, reflected ceiling plans and the relevant MEP drawings.

The architect should coordinate the finish schedule with the clinical team, infection-prevention personnel, facilities management and other relevant consultants before final approval.

16. Conclusion

Surfaces and finishes in healthcare facilities must be selected as part of an integrated architectural and operational strategy. Flooring, walls, ceilings, worktops, doors and protective systems each contribute to cleanability, durability, safety, patient comfort and maintenance.

The most appropriate material is not necessarily the most expensive, the smoothest or the one marketed specifically for hospitals. It is the material system whose verified performance, installation details and maintenance requirements match the intended use of the room.

For architects, the essential steps are to define the clinical function, establish measurable performance requirements, compare suitable materials, coordinate junctions and services, verify cleaning compatibility and document the final selection in the finish schedule.

A well-developed finish strategy supports a healthcare environment that is functional, maintainable, comfortable and appropriate to the clinical services it accommodates.

References

1. Centers for Disease Control and Prevention (CDC). Considerations for Reducing Risk: Surfaces in Healthcare Facilities. https://www.cdc.gov/healthcare-associated-infections/hcp/infection-control/index.html
2. Centers for Disease Control and Prevention (CDC). Environmental Infection Control Guidelines. https://www.cdc.gov/infection-control/hcp/environmental-control/
3. NHS England. Health Building Notes. https://www.england.nhs.uk/estates/health-building-notes/
4. NHS England. Health Building Note 00-09: Infection Control in the Built Environment. https://www.england.nhs.uk/publication/infection-control-in-the-built-environment-hbn-00-09/
5. Facility Guidelines Institute (FGI). Application Guidance. https://fgiguidelines.org/application-guidance/
6. Facility Guidelines Institute (FGI). The FGI Code/Guidelines Documents and Editions. https://fgiguidelines.org/codes/editions/

Always consult the current, applicable edition of healthcare design guidance, relevant local building regulations and the product manufacturer’s technical documentation before finalizing a project specification.