Primary Health Centre Design

Architectural Planning Guidelines

1. Introduction

A Primary Health Centre (PHC) is an important first-contact facility within a community’s healthcare network. It provides primary medical services, preventive healthcare, health education and, depending on its designated service level, additional diagnostic, maternity, emergency and observation services.

From an architectural perspective, a PHC is not simply a small hospital. It is a healthcare building that must support efficient patient movement, confidential consultations, hygienic clinical procedures, staff coordination, accessible public spaces and reliable building services.

The design must respond to the community’s healthcare needs, the site and climate, available resources, staffing, equipment and applicable public-health standards.

In India, the Indian Public Health Standards (IPHS) 2022 — Health and Wellness Centre: Primary Health Centre provides a principal reference for the services and infrastructure expected at PHCs. The exact requirements must be checked against the facility’s service category, state implementation requirements and the latest applicable regulations.

National Museum of Natural History

+1

This guide focuses on the architectural decisions that transform healthcare requirements into a functional building: site planning, zoning, room relationships, circulation, infection prevention, accessibility, environmental performance and technical coordination.

2. What is Primary Health Centre design?

Primary Health Centre design is the process of planning and designing a healthcare facility that delivers essential primary medical and preventive services through appropriately organised spaces, safe circulation, suitable building systems and accessible infrastructure.

The design process translates the clinical service brief into a coordinated architectural layout, including consultation rooms, waiting areas, treatment and diagnostic spaces, support rooms, staff facilities, sanitary provisions and, where required, inpatient or maternity facilities.

A successful PHC design should achieve five objectives:

1. Accessibility: Patients can reach the facility and navigate it independently wherever possible.
2. Operational efficiency: Staff, patients, supplies and waste can move through the building without unnecessary conflict.
3. Clinical safety: The layout supports infection prevention, privacy and safe care.
4. Environmental comfort: Daylight, ventilation, shading, thermal comfort and acoustic conditions suit the local climate and clinical function.
5. Maintainability: Equipment, services and building components can be inspected, repaired and replaced without disrupting essential care.

These objectives must be considered together. For example, increasing natural ventilation may improve comfort in suitable spaces, but openings must also protect privacy, control weather exposure and support the required infection-prevention strategy.

3. Applicable standards and design references in India

Before beginning the design, establish the standards applicable to the proposed facility.

Reference	Relevance to PHC design
IPHS 2022 for HWC–PHC	Service requirements, facility infrastructure, staffing and functional expectations
National Building Code of India, applicable edition	Building planning, fire and life safety, structural and building-service provisions, as applicable
State and local development regulations	Land use, setbacks, height, site coverage, access and other local controls
Applicable accessibility guidelines	Barrier-free routes, ramps, accessible toilets, signage and inclusive use
Biomedical Waste Management Rules, 2016, as amended	Segregation, handling and storage arrangements for biomedical waste
Applicable fire-safety requirements	Fire access, escape routes, alarms, extinguishers and other required protection
WHO infection-prevention guidance	Planning considerations for hand hygiene, ventilation, cleaning, patient separation and safe healthcare environments

The National Health Mission publishes the revised IPHS 2022 documents, including the dedicated PHC guideline.

National Museum of Natural History

+1

For infection prevention, the World Health Organization’s primary-care resources provide guidance for implementing facility-level infection-prevention measures.

World Health Organization

+1

Regulatory caution: A guideline, a desirable provision and a legally enforceable requirement are not interchangeable. The architect should confirm the current applicable provisions with the relevant authorities and consultants. The list above is a design-reference framework, not a substitute for a project-specific code review.

4. Types of Primary Health Centre facilities

The planning brief depends on the services the facility is authorised and equipped to provide. A daytime outpatient facility does not necessarily require the same spaces as a PHC offering round-the-clock services or maternity care.

Facility or service configuration	Architectural implications
General outpatient PHC	Registration, waiting, consultation, examination, basic treatment, sanitation and support spaces
PHC with diagnostic services	Sample collection, laboratory functions where provided, specimen handling and associated storage
PHC with maternity services	Appropriate labour and delivery spaces, patient privacy, clinical support, sanitation and required emergency arrangements
24-hour PHC	After-hours access, staff rest provisions, emergency access and safe night-time circulation
PHC with observation or inpatient beds	Patient wards, nursing support, accessible toilets and appropriate clinical relationships
Urban PHC	Planning responsive to urban population density, site constraints, local service models and applicable UPHC requirements

These are planning categories, not substitutes for the official facility classifications. The service schedule should be confirmed before room sizes or a floor plan are fixed.

5. Site selection and site planning

5.1 Accessibility and catchment

A PHC should be conveniently accessible to the population it serves. Assess its relationship with villages, residential areas, public transport, local roads and referral facilities.

Site evaluation should consider:

• Travel time and access throughout the year.
• Road connectivity and emergency vehicle access.
• Availability and reliability of water and electricity.
• Drainage, flood exposure and ground conditions.
• Surrounding noise, pollution and incompatible land uses.
• Space for outdoor waiting, drop-off and future development.
• Waste collection and maintenance access.

A centrally positioned site is not automatically the best site. Actual travel routes, terrain, seasonal flooding and the distribution of the target population may be more important than geometric centrality.

5.2 Site zoning

Organise the site into identifiable areas:

• Public entrance and pedestrian approach.
• Patient drop-off and accessible parking, where required.
• Main clinical building.
• Emergency or ambulance approach, where applicable.
• Utility and service areas.
• Biomedical-waste holding area.
• Water, wastewater and stormwater infrastructure.
• Landscape, shaded waiting and future expansion zones.

The waste-holding area should be positioned for controlled collection without creating unnecessary contact with public waiting or food-related spaces.

5.3 Building orientation and climate response

Orientation should be based on the local sun path, prevailing winds, rainfall, humidity, dust and temperature patterns.

Useful strategies include:

• External shading to reduce solar heat gain.
• Covered verandahs and entrances to protect people from rain and sun.
• Daylight in waiting and administrative spaces where it can be controlled.
• Appropriate glazing and shading on exposed façades.
• Cross-ventilation in spaces where the clinical and infection-control strategy permits it.
• Durable, cleanable external finishes and well-drained entrance areas.

Natural ventilation is not suitable as a blanket solution for every room. Clinical procedures, airborne infection risks, privacy, air-conditioning requirements and local conditions may demand different ventilation approaches.

6. Functional zoning of a Primary Health Centre

Functional zoning is one of the most important architectural decisions in PHC planning. It groups rooms according to their purpose, access requirements, privacy and operational relationships.

6.1 Main functional zones

Zone 1 — Public and reception

Entrance, registration, enquiry, general waiting, public information, drinking-water provision and public toilets.

Zone 2 — Outpatient clinical care

Consultation, examination, nursing, immunisation, counselling, dressing and other designated outpatient services.

Zone 3 — Diagnostics and treatment support

Sample collection, laboratory functions where provided, medical stores and other service-specific spaces.

Zone 4 — Observation and maternity

Wards, nursing support, labour and delivery rooms or related spaces where these services form part of the approved brief.

Zone 5 — Staff and service support

Administration, staff facilities, clean and dirty utility functions, housekeeping, stores, waste holding and building-services areas.

Illustrative visual references only. These images are not verified examples of a particular Indian PHC or official IPHS-compliant layouts.

6.2 Principles of functional zoning

The main entrance should lead clearly to reception and general waiting. Patients should be able to find the appropriate consultation or treatment space without passing through staff-only or service areas.

Clinical rooms requiring greater privacy should be protected from direct public views. Areas with different cleanliness requirements should be arranged to support safe working practices.

Where inpatient, maternity or emergency functions are included, their relationship with clinical support, accessible toilets and appropriate external access should be established early.

The exact adjacency arrangement will vary with staffing, operating hours and the approved service model. A compact plan is useful only if it supports safe and practical operation.

6.3 Room adjacency matrix

The following matrix is a conceptual planning aid, not an official statutory schedule.

Room or department	Useful relationship	Main design consideration
Registration	Entrance and waiting	Clear public orientation
Consultation rooms	Waiting and clinical support	Confidentiality and convenient access
Examination room	Consultation or treatment area	Privacy, equipment and clinical workflow
Sample collection	Patient access and designated diagnostic support	Specimen handling and hygiene
Pharmacy or dispensing	Patient exit or outpatient circulation	Controlled dispensing and queuing
Immunisation	Clinical access and required cold-chain support	Reliable equipment power and workflow
Observation ward	Nursing support and sanitary facilities	Supervision and patient comfort
Labour room, if provided	Required clinical support and controlled access	Privacy, hygiene and emergency readiness
Dirty utility	Clinical areas with appropriate separation	Safe handling of used items
Biomedical-waste holding	Controlled service access	Restricted public exposure
Staff room	Staff circulation	Separation from public waiting

6.4 The importance of adjacency

An adjacency decision affects staff travel, patient waiting, privacy, cleanliness and emergency response.

For example, locating sample collection far from the outpatient area may increase patient movement and cause confusion. Conversely, placing a dirty utility room on a direct public route may compromise operational separation.

The architect should therefore test room relationships using a bubble diagram before preparing a dimensioned floor plan.

7. Circulation planning

Circulation includes movement through the site, entrance, waiting areas, corridors, clinical departments and service routes. In a healthcare facility, circulation is an operational system rather than merely the leftover space between rooms.

7.1 Patient circulation

A typical outpatient journey may follow this sequence:

Entrance → Registration → Waiting → Consultation → Examination or diagnostic service, if required → Dispensing or advice → Exit.

Not every patient will follow the same route, but the plan should minimise confusion and unnecessary backtracking.

Provide clear sightlines to reception and readable directional signs. Avoid placing doors, seating or queueing areas where they obstruct accessible routes or emergency movement.

7.2 Staff circulation

Staff need convenient access between clinical rooms, supplies and support facilities. Where feasible, staff-only movement should not depend on crossing crowded public waiting areas.

A staff circulation route does not necessarily require a separate corridor throughout a small PHC. The goal is to reduce conflicts and protect privacy without creating an inefficient or oversized plan.

7.3 Clean and dirty movement

Clean supplies, reusable equipment, used instruments and waste must be handled according to the facility’s infection-prevention procedures.

Architectural measures may include:

• Designated clean and dirty utility spaces.
• Appropriate handwashing facilities.
• Controlled storage of clean supplies.
• Safe holding arrangements for used items.
• A defined biomedical-waste collection route.
• Service access that avoids unnecessary contact with public spaces.

These measures should be coordinated with clinical protocols, housekeeping procedures and the applicable biomedical-waste requirements. Architecture supports infection prevention but cannot replace operational controls.

7.4 Ambulance and emergency access

Where emergency or maternity services are provided, the site and floor plan should allow appropriate stretcher movement and vehicle access. Avoid unnecessary level changes, narrow turns or obstructions on the intended route.

Emergency access, exits and fire-service provisions must be designed against the applicable project-specific requirements.

8. Space planning and room requirements

Room requirements should be derived from the selected PHC service model, expected patient load, staffing, equipment and official standards.

The IPHS 2022 PHC document includes an illustrative 24-hour PHC layout with outpatient, diagnostic, maternity, ward, administrative and support functions. It is a useful reference for understanding the range of spaces that may be required in a more comprehensive facility.

National Museum of Natural History

+1

8.1 Registration and waiting

The reception should be easy to identify from the entrance and should provide sufficient space for queuing, seating and wheelchair manoeuvring.

Plan for:

• A visible enquiry or registration point.
• Seating for different age groups and mobility needs.
• Adequate circulation around seats.
• Drinking-water and toilet access.
• Directional and service information in appropriate local languages.
• Privacy at registration where personal information is exchanged.

Waiting capacity should be estimated from expected attendance, peak arrival patterns and service times rather than from a generic room-size assumption.

8.2 Consultation and examination rooms

Consultation rooms should support confidential discussion, clinical assessment and safe movement around the furniture and equipment.

Consider the relationship between the doctor’s desk, patient seating, examination couch, hand-hygiene facilities, storage and door position.

Visual and acoustic privacy are both important. A door that opens directly toward a waiting crowd may expose the patient during examination, even if the room itself is adequately sized.

8.3 Immunisation and counselling

Immunisation requires appropriate clinical workflow and storage arrangements for temperature-sensitive products where applicable. The cold-chain equipment and power requirements should be confirmed with the healthcare team.

Counselling requires a quieter environment with visual and acoustic privacy. Combining functions in one room may be possible when operational schedules, storage and cleaning arrangements are compatible.

8.4 Diagnostics and sample collection

Diagnostic facilities should be designed around the actual tests and services provided. Sample collection, testing, storage and specimen transfer are related but not identical functions.

The design team should confirm equipment dimensions, work surfaces, water supply, hand hygiene, electrical loads, ventilation and the safe handling of specimens before fixing the room layout.

8.5 Observation wards

Where inpatient or observation beds are included, the plan should support nursing observation, safe bed access, privacy, cleanable surfaces, convenient toilets and appropriate clinical support.

Separate patient areas may be required according to the facility’s service model and applicable standards. Bed numbers and room dimensions should not be copied from an unrelated facility without checking the approved brief.

8.6 Labour and delivery facilities

Maternity spaces require careful coordination of clinical functions, patient privacy, hygiene, equipment, emergency response and staff access. The precise room schedule depends on whether the PHC is authorised and equipped to provide delivery services.

Do not assume that a generic outpatient PHC requires a labour room or operation theatre. Confirm the service package and applicable IPHS requirements before including these facilities.

8.7 Toilets and sanitary facilities

Provide convenient, accessible sanitary facilities for patients, visitors and staff as required by the facility standards.

Their placement should avoid direct exposure to sensitive clinical areas and should support straightforward cleaning, plumbing maintenance and drainage. Accessible toilets should connect to a continuous barrier-free route.

8.8 Stores and utility rooms

Stores should be sized and organised according to the supplies and equipment they contain. Clean supplies should be protected from contamination, while dirty utility functions must support safe handling of used items.

Avoid using corridors as permanent storage areas. Such practices reduce clear movement space and may obstruct emergency access.

9. Accessibility and inclusive design

A PHC serves people with different mobility, sensory, cognitive and communication needs. Accessibility must therefore be integrated from the site entrance to the clinical destination.

The Harmonised Guidelines and Standards for Universal Accessibility in India (2021) are an important reference for inclusive design, alongside applicable building regulations and current project requirements.

CPWD

+1

Key design considerations include:

• A continuous accessible approach from the site boundary or designated drop-off.
• Ramps, handrails and level transitions designed to applicable standards.
• Suitable door clearances and circulation space.
• Accessible reception and waiting arrangements.
• Accessible toilets and appropriate support fittings.
• Clear signage, visual contrast and readable information.
• Tactile or other wayfinding provisions where required.
• Safe stretcher and wheelchair movement.
• Seating and waiting options for elderly people and patients with limited mobility.

Accessibility should not be assessed only at the main entrance. A ramp is of limited value if the corridor beyond it is obstructed or the required clinical room cannot be reached.

10. Infection prevention and the built environment

Infection prevention and control (IPC) is a core consideration in healthcare planning. WHO guidance for primary care addresses the implementation of infection-prevention measures at facility level.

World Health Organization

+1

Architecture can support these measures through room arrangement, ventilation, material selection, hand-hygiene locations and safe movement.

10.1 Hand-hygiene facilities

Place hand-hygiene facilities where they support the actual clinical workflow and applicable requirements. Confirm sink type, fittings, water supply, drainage, splash control and maintenance access with the clinical and services teams.

A sink in an inconvenient location may be underused even when it appears on the drawing.

10.2 Ventilation and air quality

Ventilation design must respond to the function of each room, local climate and infection risks. The project team should determine whether natural ventilation, mechanical ventilation or a combination is appropriate for each space.

Check airflow paths, window placement, external air quality, fan locations, privacy and the possibility of air moving from a higher-risk area toward a lower-risk one.

Do not assume that opening windows alone satisfies all clinical ventilation needs. Room-specific requirements and professional engineering design are essential.

10.3 Cleanability and material selection

Select finishes that are durable, maintainable and appropriate for the cleaning methods and chemicals used in the facility.

Consider:

• Flooring that is suitable for the intended traffic and cleaning.
• Wall finishes that withstand routine cleaning.
• Junctions and details that avoid unnecessary dirt traps.
• Moisture-resistant finishes in wet areas.
• Robust door hardware and protective details.
• Accessible service points for repairs.

No single finish is automatically appropriate for every clinical space. Product performance and compatibility should be confirmed against the intended use.

10.4 Patient separation and temporary isolation

The plan should allow appropriate separation of patients when required by the facility’s clinical protocols and risk assessment. This may involve a designated assessment area, temporary waiting arrangement or other separation measure.

A generic room should not be labelled an isolation room unless its ventilation, access, environmental controls and operational arrangements meet the relevant requirements.

10.5 Cleaning and maintenance

Cleaning is affected by the building’s details. Excessive ledges, inaccessible corners, damaged joints and difficult-to-reach equipment create maintenance challenges.

Architects should coordinate cleaning access, storage of cleaning equipment, waste handling and maintenance procedures with the facility’s operators before the design is finalised.

11. Daylight, thermal comfort and environmental design

A PHC should provide a comfortable and legible environment for patients and staff without imposing avoidable energy and maintenance costs.

11.1 Natural daylight

Use daylight to improve the quality of public, administrative and suitable clinical spaces. Control glare and direct solar gain, and consider how daylight affects privacy, screen visibility and examination conditions.

Window size should be determined by the room’s function and environmental requirements rather than by appearance alone.

11.2 Shading and heat control

External shading, verandahs, appropriate glazing, insulated roofs and carefully designed openings can reduce unwanted heat gain.

The correct solution depends on climate, orientation, construction type and operating conditions. A design appropriate for a hot-dry region may not perform equally well in a hot-humid or cold climate.

11.3 Natural ventilation

Cross-ventilation may be useful in appropriate spaces when outdoor conditions and clinical requirements permit. The design should consider prevailing wind, dust, noise, rain protection, insect control and security.

Spaces with specific mechanical ventilation or environmental control needs must be designed accordingly.

11.4 Landscape and outdoor areas

Shaded outdoor areas can support waiting, community-health activities and a more comfortable approach to the building.

Landscape design should not obstruct ambulance routes, accessible paths, emergency exits or utility access. Planting and drainage should also avoid creating stagnant water or excessive maintenance burdens.

12. Structural design and building-services coordination

A PHC must be coordinated as an integrated building rather than as an architectural plan with services added later.

12.1 Structural planning

Coordinate the structural grid with room functions, corridors, door openings, clinical equipment and future alterations.

Avoid placing columns where they obstruct patient circulation, bed movement or essential equipment. Structural design must also address the applicable seismic, wind, soil and other site-specific requirements.

12.2 Electrical services

The electrical brief should identify normal and essential loads, clinical equipment, refrigeration, lighting, communications and backup requirements.

Equipment schedules should be established early so that socket locations, isolation provisions, cable routes and maintenance access are not improvised after construction.

12.3 HVAC and ventilation

Coordinate equipment locations, ductwork, outdoor-air intake, exhaust discharge, condensate drainage and ceiling clearances with the architect and structural consultant.

Ensure that service access does not conflict with clinical circulation or accessible headroom. Ventilation design must follow the intended use and applicable engineering requirements.

12.4 Plumbing and drainage

Plan water storage, hot and cold water where needed, sanitary fixtures, soil and waste stacks, stormwater drainage and maintenance access.

Wet areas should be coordinated with the structural system and other services. Avoid routing major pipes through critical clinical spaces where an alternative practical route is available.

12.5 Fire and life safety

Fire and life safety must be integrated from the earliest planning stage. Confirm occupancy, travel distances, exit requirements, compartmentation, alarm provisions, fire-service access and equipment with the relevant consultants and authorities.

An exit shown on a plan does not establish compliance by itself; the complete arrangement must meet the applicable provisions.

12.6 Biomedical waste and housekeeping

Provide a workflow for segregation at source, temporary holding and authorised collection. Waste storage and service routes should be coordinated with the approved waste-management plan and applicable rules.

Housekeeping rooms, storage and service access should be included in the initial room schedule rather than treated as leftover spaces.

13. Sustainability and lifecycle performance

Sustainable PHC design should prioritise reliable operation, low maintenance requirements, efficient resource use and resilience.

Useful strategies include:

• Reducing unwanted solar heat gain through orientation and shading.
• Using energy-efficient lighting and equipment.
• Evaluating solar power where technically and financially suitable.
• Providing rainwater harvesting where feasible and compliant.
• Improving water efficiency and monitoring leaks.
• Selecting durable, locally serviceable materials.
• Designing for straightforward cleaning and repair.
• Protecting essential equipment and services against relevant hazards.
• Allowing practical future expansion without disrupting core services.

Sustainability must be evaluated over the building’s life cycle. A lower initial-cost component may become expensive if it is unreliable, difficult to repair or unsuitable for local conditions.

14. Architectural example: IPHS 2022 model PHC layout

An authoritative reference for the Indian context is the illustrative 24×7 PHC layout published with the IPHS 2022 PHC guidelines. The drawing identifies outpatient, diagnostic, maternity, ward, administrative and support spaces, together with circulation and site-related elements.

Nation

Use the official drawing in the NHM guideline PDF as the authoritative reference. The image above is a visual reference and should not be treated as a verified reproduction of every dimension or label in the official drawing.

What architects can learn from the model

• The programme may extend beyond consultation rooms to include diagnostic, maternity, inpatient and support functions.
• Public and clinical functions need identifiable relationships.
• Circulation, emergency access and utility areas must be considered together.
• The room schedule depends on the designated facility model.
• A reference layout must be adapted to site shape, orientation, local regulations, clinical workflow and climate.

The model drawing is a starting point for design analysis, not a universal floor plan to copy. Project-specific clinical validation and code review remain necessary.

15. Advantages of good PHC architectural planning

Well-coordinated planning can:

1. Reduce unnecessary movement for patients and staff.
2. Improve wayfinding and the patient experience.
3. Support privacy during consultations and examinations.
4. Facilitate hygienic clinical workflows.
5. Improve access for elderly people and persons with disabilities.
6. Simplify cleaning, equipment maintenance and service access.
7. Reduce avoidable energy and water use.
8. Make future upgrades easier to accommodate.

These benefits depend on both the design and how the facility is staffed, equipped, operated and maintained. Good architecture supports quality healthcare but cannot guarantee clinical outcomes by itself.

NCBI Bookshelf

+1

16. Common design mistakes

Mistake	Why it matters	Recommended response
Copying a standard layout without checking the brief	Service requirements and site conditions differ	Prepare a project-specific room schedule
Oversizing public circulation but neglecting clinical support	Operational spaces become inadequate	Test area allocation against workflow and standards
Ignoring privacy at doors and windows	Consultations and examinations may be exposed	Review sightlines, partitions and acoustic conditions
Treating all rooms as naturally ventilated	Some functions require different environmental controls	Develop a room-by-room ventilation brief
Adding services after architectural finalisation	Leads to clashes and costly changes	Coordinate MEP and equipment layouts early
Leaving no maintenance access	Repairs can disrupt clinical operations	Reserve service and equipment clearances
Placing waste storage on a public route	Creates avoidable operational conflicts	Design a controlled service route
Providing only entrance-level accessibility	Patients may be unable to reach destinations	Review the entire accessible journey
Ignoring future growth	Later expansion can interrupt operations	Reserve feasible expansion and service zones
Using unverified dimensions	May create non-compliant rooms or circulation	Check the current applicable standards

17. Practical PHC design workflow

1. Establish the project brief. Confirm the location, population served, service package, operating hours, staffing and equipment.
2. Review standards and approvals. Identify the relevant IPHS provisions, state requirements, local development controls, accessibility requirements and fire-safety provisions.
3. Analyse the site. Study boundaries, access, orientation, contours, drainage, utilities, neighbouring uses and future expansion.
4. Prepare the room schedule. List each room, function, equipment, occupancy, environmental needs and relevant area requirements.
5. Develop the zoning diagram. Group public, clinical, support and service functions and establish their relationships.
6. Test circulation. Trace patient, staff, stretcher, supply, waste and emergency movements.
7. Prepare schematic plans. Develop options and assess accessibility, privacy, environmental response and operational efficiency.
8. Coordinate consultants. Integrate structural, electrical, HVAC, plumbing, fire-safety and equipment requirements.
9. Validate the design. Review the plans with healthcare operators and appropriate technical specialists before design freeze.
10. Prepare coordinated documentation. Complete architectural drawings, schedules, sections, details, specifications and coordinated services drawings as required.

18. Conclusion

Primary Health Centre design requires the integration of healthcare operations, architectural planning, accessibility, infection prevention, environmental response and reliable building services.

The strongest starting point is a clearly defined clinical brief supported by the applicable IPHS guidelines. From there, the architect can develop a room schedule, functional zoning diagram and circulation strategy before moving to detailed floor plans and consultant coordination.

For architecture students, PHC planning is a useful exercise in translating a service brief into spatial relationships. For practicing architects, it demonstrates why successful healthcare design depends on coordination and operational understanding as much as on the building’s appearance.

The final design should always be adapted to its location, service model and applicable requirements rather than copied directly from a generic layout.