Radiography simulation cost guide
Short answer: there is no single price that applies to every radiography simulation lab. A physical X-ray teaching lab requires imaging equipment, room preparation, radiation shielding, installation, testing, maintenance, quality assurance, floor space and supervised access. A virtual radiography lab requires software licences, compatible VR or desktop hardware, implementation and support.
The useful comparison is not simply the purchase price. Universities should compare the total annual cost with the number of students served, the practice hours delivered and the educational evidence generated.
In this guide
Total cost of delivery
The International Atomic Energy Agency advises imaging services to consider more than equipment purchase price. Planning must also account for infrastructure, shielding, staff, maintenance, spare parts, software and hardware upgrades, quality assurance and long-term sustainability.1, 2
That principle also applies to teaching laboratories. Cost comparisons should include everything required to make meaningful student practice available, not just the equipment visible in the room.
On a smaller screen, scroll horizontally to read the full comparison.
| Cost or capability | Physical X-ray teaching lab | VMC virtual radiography lab |
|---|---|---|
| Capital requirement | X-ray equipment, detector, control area, room fit-out, phantom and supporting systems | Software licences and compatible VR headsets or desktop computers |
| Infrastructure | Dedicated room, shielding design, electrical and network services, installation and acceptance testing | Suitable teaching space, device management, connectivity and account deployment |
| Ongoing costs | Service contracts, repairs, quality control, physicist input, detector replacement, room costs and staff supervision | Licence renewal, device replacement, local support and implementation time |
| Student access | Limited by room opening, equipment bookings, group size and supervision | Can support scheduled classes, self-directed practice and out-of-hours learning, subject to institutional deployment |
| Scaling | Additional capacity usually requires more room time, equipment or facilities | Capacity can grow by adding learner licences and compatible devices across rooms or campuses |
| Feedback | Usually provided by an educator observing the session | Immediate simulation feedback plus educator review of learner activity and generated images |
| Learning evidence | Requires separate observation forms, recording or manual documentation | Activity, positioning, exposure choices and images can be retained in the learner portfolio |
| Physical realism | Provides contact with real local equipment, detectors, phantoms and room controls | Provides repeatable procedural and decision-making practice without radiation, but does not reproduce every tactile feature of a physical room |
Physical laboratory
A physical teaching room may use retired clinical equipment, a refurbished system or new imaging equipment. The price varies substantially by country, equipment specification, building condition and regulatory requirements. Any published headline figure is therefore likely to be misleading unless its assumptions are stated.
Design work, building alterations, protective barriers, doors, viewing panels, warning systems and verification before use.
X-ray tube, generator, stand, table, detector, workstation, image display and any required networking or storage.
Delivery, installation, electrical work, acceptance testing, commissioning and baseline quality-control measurements.
Service contracts, repair parts, detector replacement, routine performance testing, upgrades and eventual disposal.
Phantoms, positioning aids, markers, consumables, cleaning, room preparation and educator supervision.
The room has an opportunity cost and can serve only the learners who can physically attend during available sessions.
A static phantom is useful for tactile positioning and imaging practice. It is not a learning platform by itself. It does not independently guide the learner, provide feedback, retain every attempt or make the room available to a student at home.
Virtual laboratory
A virtual laboratory replaces some physical infrastructure requirements with software and computing requirements. The exact deployment depends on cohort size, the balance between VR and desktop access, the number of simultaneous users and the institution's existing hardware.
Licensing is aligned with the number of learners and the agreed access period.
Institutions can combine immersive VR with desktop access on supported Windows and macOS computers.
Account setup, device deployment, educator orientation and curriculum integration require planned staff time.
Headsets and computers still require management, support and eventual replacement.
Virtual delivery is not free, but it changes the cost structure. Capacity is less dependent on a single shielded room and can be distributed across devices, teaching spaces, campuses and, where permitted, learners' own study environments.
The overlooked cost variable
A laboratory that costs less to purchase may still be expensive per learner if access is scarce. Capacity, utilisation and student independence determine the educational value produced by the investment.
Scale across a cohort
Add concurrent devices and learner access without constructing another X-ray room.
Out-of-hours learning
Support evening, weekend and remote desktop practice where institutional access permits.
Self-directed repetition
Let learners repeat procedures and correct errors without requiring an educator beside every attempt.
Multi-campus consistency
Deliver the same scenarios, assessment expectations and feedback across locations.
More than a virtual room
Not every simulation platform includes the same curriculum coverage, image response, assessment or reporting. Procurement teams should verify each capability rather than assuming that any VR headset provides a complete radiography learning system.
On a smaller screen, scroll horizontally to read the full comparison.
| VMC capability | What the learner does | Why it matters |
|---|---|---|
| More than 130 projections | Practises examinations across a broad undergraduate radiography curriculum | Extends practice beyond a small set of phantom positions |
| More than 60 virtual rooms | Works through different examination rooms and patient cases | Adds variety without physically rebuilding the teaching lab |
| Anatomical patient model | Positions an anatomically modelled patient containing the complete skeletal system | Connects surface positioning decisions with underlying anatomy |
| Equipment interaction | Positions the patient, tube and detector and adjusts centring, collimation, SID and OID | Develops procedural and spatial reasoning rather than passive recall |
| Exposure-factor response | Changes kVp, mAs, SID, AEC and focal spot settings | Shows how technical decisions affect the resulting radiographic image |
| Image generation and critique | Produces and evaluates images, including the effect of positioning, exposure and image noise | Completes the learning loop from setup to image appraisal |
| Immediate feedback and repetition | Identifies errors, adjusts the procedure and repeats it immediately | Makes practice active and consequence-based |
| More than 1,000 assessment questions | Completes peer-reviewed questions covering positioning, imaging physics, dose, anatomy, pathology and image evaluation | Links procedural practice with knowledge and clinical reasoning |
| Analytics and educator reporting | Builds a record of activity, positioning, exposure choices and generated images | Allows educators to review progress and identify areas requiring support |
| VR and desktop delivery | Uses immersive VR for embodied practice or desktop simulation where a headset is unavailable | Supports classroom, laboratory, independent and remote learning models |
Current platform capabilities are described on the VMC radiography simulation page. Institutions should confirm the modules, deployment options and reporting functions included in their proposed licence.
Educational evidence
Cost only matters when the learning activity is useful. A 2025 systematic review found that VR can provide advantages over traditional skills training in assessed equipment and patient positioning, as well as confidence with equipment positioning, exposure-factor selection and radiation safety. The authors also cautioned that effective implementation depends on factors such as room size, tutorials, session length, realism, system feedback and patient interaction.4
A separate 2024 systematic review reported benefits across proficiency, patient positioning, equipment knowledge, equipment handling and radiographic technique, while noting variability in study quality.5
Research using Virtual Medical Coaching has also evaluated the learner experience and transfer into clinical assessment. O'Connor and colleagues reported positive student perceptions of VMC's immersive radiography simulation.6 A later study found that first-year students who received seven hours of VMC practice performed better across 20 of 22 clinical assessment criteria, with statistically significant differences in patient positioning, exposure-factor selection and image appraisal.7
Evidence-based conclusion: VR should not be purchased simply because it appears modern or inexpensive. It should be evaluated by curriculum coverage, learner access, feedback quality, assessment, reporting, implementation and evidence of educational value.
Procurement method
Cost reporting in healthcare simulation research is often incomplete. Hippe and colleagues found wide variation in how costs were measured and reported, reinforcing the need for institutions to use a transparent local model.3
Formula 1
Annualised capital and fit-out + annual operating costs
Operating costs should include maintenance, quality assurance, space, staffing, consumables, licences, support and replacement provisions.
Formula 2
Annualised total cost ÷ completed learner practice hours
Use completed practice hours rather than theoretical capacity. A system creates value only when learners can access and use it.
On a smaller screen, scroll horizontally to complete the worksheet.
| Worksheet item | Physical lab | Virtual lab |
|---|---|---|
| Annualised equipment and fit-out | Enter local amount | Enter local amount |
| Annual maintenance, QA and support | Enter local amount | Enter local amount |
| Annual room and space cost | Enter local amount | Enter local amount |
| Annual teaching and supervision time | Enter local amount | Enter local amount |
| Annual consumables and replacements | Enter local amount | Enter local amount |
| Annual software licences | Enter if applicable | Enter quoted amount |
| Students with access | Enter actual number | Enter actual number |
| Completed practice hours | Enter measured hours | Enter measured hours |
Balanced curriculum design
No. Virtual simulation is best used to expand preparation, repetition and assessment. Students still need supervised contact with real imaging equipment, real patients, local workflows and the tactile and interpersonal demands of clinical practice.
The strongest model is usually blended. Learners first develop procedural understanding and confidence through repeatable simulation, then use scarce physical laboratory and clinical time for equipment-specific, tactile, communication and patient-care learning.
Frequently asked questions
There is no reliable universal figure. The total depends on the room, shielding, local regulations, equipment specification, detector and workstation requirements, installation, testing, maintenance, quality assurance, staffing and useful life. Institutions should obtain local quotes and state every assumption.
Is VR radiography simulation cheaper than a physical lab?It can require less dedicated infrastructure and can expand learner access more easily, but the result depends on licences, hardware, implementation, support, utilisation and local physical-lab costs. Compare annualised total cost and cost per completed learner practice hour rather than purchase price alone.
Can VMC support more students without another X-ray room?Yes. Capacity can be expanded by adding learner licences and compatible VR or desktop devices. The number of simultaneous users depends on the institution's hardware, rooms, networking and deployment model.
Can students practise outside scheduled laboratory hours?VMC supports VR and desktop simulation. Depending on the institution's deployment and access policies, students can use the desktop version for independent, evening, weekend or remote practice rather than relying entirely on booked access to one physical laboratory.
Does VMC provide student analytics?Yes. The platform records learner activity, positioning performance, exposure-parameter choices and generated radiographic images. Educators can review progress and performance through the educator portal, while activity and images are retained in the student portfolio during the training programme.
Does virtual simulation replace clinical education?No. It prepares students for physical laboratory and clinical learning by providing safe, repeatable practice. Real equipment handling, patient care, communication, local procedures and supervised clinical judgement remain essential.
What should a VMC quotation include?The quotation should identify learner numbers, licence duration, included modules, VR and desktop access, implementation, educator access, reporting, support and any hardware requirements. This allows the institution to compare like with like.
Virtual Medical Coaching can demonstrate the radiography platform and help your institution identify the licences, devices and implementation model required for your programme.
Book a radiography simulation demoExplore VMC radiography simulation | Review the published evidence
Content reviewed: 19 August 2026. Product capabilities should be confirmed against the current VMC proposal supplied to your institution.