Overview
Cath Lab System should be selected around the clinical work it must support, the room or mobile workflow, image documentation, safety requirements, service coverage, and long-term ownership cost.
This guide is written for radiology users, biomedical engineers, procurement teams, IT/PACS staff, facilities, and administrators who need practical requirements for cath lab system.
Original vendor-neutral diagram
Medical imaging information pathway
Clinical Applications
Coronary angiography, PCI, structural heart support, electrophysiology-adjacent workflows where applicable, peripheral vascular procedures, and emergency cardiac cases.
Procedure-room workflow with imaging, hemodynamics, injector, monitors, sterile setup, and recovery handover.
High-uptime services where room downtime directly affects emergency cardiac care.
Clinical and Department Workflow
A typical cath lab system workflow includes order or procedure review, patient preparation, positioning, image acquisition, image review, storage or reporting, cleaning, and handover.
During demonstration, the hospital should ask users to run real cases and verify image quality, ergonomics, dose or safety display where relevant, DICOM/export, and recovery from common errors.
The department should document who owns QA, who changes protocols or presets, who reviews image quality complaints, and how downtime is escalated.
Radiology User Considerations
Clinical users need image quality and controls that match coronary angiography, PCI, structural heart procedures, hemodynamics, dose management, and room uptime, not a generic demonstration workflow.
Radiographers, sonographers, or technologists need ergonomic positioning, clear controls, fast setup, predictable cleanup, and training that matches daily use.
Radiologists or procedural physicians need images that arrive correctly labeled, comparable, and ready for reporting or procedural documentation.
Safety staff should review radiation protection, infection control, patient comfort, or modality-specific risks before release.
Clinical Workflow
Review patient scheduling, preparation, acquisition, image reconstruction/review, DICOM transfer, reporting, archiving, repeat-image handling, cleaning, and downtime response.
Clinical and User Considerations
Radiology users should test positioning, protocol selection, image review, dose or safety indicators, report/export workflow, contrast workflow where applicable, and ergonomic impact during peak lists.
Run a scripted clinical workflow from patient selection to acquisition, image review, DICOM transfer, report/export, error handling, cleaning or shutdown, and dose/safety documentation where applicable.
Biomedical engineering should verify service menu access allowed under warranty, error log visibility, QA workflow, PM indicators, and escalation process.
Key Specifications
Use these fields as a starting point for the technical compliance sheet. Adapt final wording to local workload, site conditions, and procurement policy.
| Parameter | Specification Guidance | Procurement Reason |
|---|---|---|
| Clinical scope and workload | Clinical use should define modality-specific cases, patient volume, reporting workflow, emergency use, contrast workflow where relevant, and image storage/retrieval expectations. Review patient scheduling, preparation, acquisition, image reconstruction/review, DICOM transfer, reporting, archiving, repeat-image handling, cleaning, and downtime response. | Require a signed Cath Lab System user-requirement statement with the intended cases, workload, users, excluded uses, and downtime tolerance. |
| Cath Lab System performance configuration | Specify procedure mix, detector configuration, C-arm/table geometry, generator and tube duty, acquisition rates, subtraction/roadmap and 3D options, dose monitoring, hemodynamics, injector, ceiling displays, and DICOM/reporting integration. Image-chain configuration, clinical application package, dose or safety controls where relevant, workstation/reporting workflow, DICOM/PACS/RIS connectivity, cybersecurity, and site planning requirements should be specified. High-cost components such as tube, detector, probe, coil, workstation, injector head, chiller, software licenses, and service tools should have clear warranty and replacement pricing. | Request model-specific datasheets and manual references, a quoted bill of materials, declared deviations, and measurable acceptance values for the offered configuration. |
| Complete scope, accessories and consumables | Include patient table accessories, radiation shields, ceiling arms and displays, injector, hemodynamic recording, UPS, contrast accessories, sterile controls, intercom, workstation applications, and emergency-resuscitation interfaces. Price QA phantoms, positioning aids, probes/coils/detectors where applicable, injector accessories, software licenses, workstations, UPS/chiller items, DICOM licenses, and startup consumables. | Require an itemized Cath Lab System scope with quantities, compatibility, useful life or replacement interval, unit price, warranty status, and storage/cleaning requirements. |
| Site, utilities and integration | Confirm power, UPS policy, HVAC, shielding or MRI safety zoning, room size, control area, floor loading, delivery route, network drops, PACS/RIS readiness, and service clearance. | Request the site-planning guide, utility schedule, interface list, drawings, pre-installation checklist, cybersecurity responsibilities where relevant, and signed responsibility matrix. |
| Biomedical maintenance and serviceability | Biomedical should review QA/phantom requirements, calibration, service access, error logs, software versions, high-cost component warranty, remote service, and downtime escalation. PM should include image quality QA, safety checks, calibration, software/log review, cleaning, mechanical movement checks, cooling/HVAC review, DICOM test, and baseline performance documentation. | Require the PM procedure, test-equipment list, calibration method, service report, replaceable-parts schedule, error-log policy, local response path, and five-year parts/service prices. |
| Acceptance baseline | Acceptance should verify delivered configuration, software licenses, image quality baseline, dose or safety baseline where relevant, DICOM/PACS/RIS workflow, accessories, training, warranty, and PM schedule. | Link final payment and warranty activation to recorded Cath Lab System configuration, accessories, safety/function/performance results, training, documents, and biomedical handover. |
| Imaging system and detector | Specify C-arm geometry, detector size, image quality, fluoroscopy modes, DSA/roadmap if needed, and dose tools. | Cardiac and vascular procedures need reliable real-time imaging and dose control. |
| Hemodynamic integration | Define hemodynamic system interface, ECG/pressure workflow, report transfer, and responsibility matrix. | Cath lab documentation depends on imaging and hemodynamic data working together. |
| Room package | Request table, monitors, booms, injector, UPS, radiation protection, control room, and network scope. | A cath lab is a room package, not a C-arm only. |
| Service uptime | Specify response, restoration target, PM duration, tube/detector terms, and emergency escalation. | Downtime can cancel procedures and delay emergency treatment. |
Biomedical Engineering Considerations
Biomedical engineering should review service access, QA tools, error logs, spare parts, software support, calibration needs, and local service response.
Common faults should be trended by hardware, software, user workflow, environment, and IT cause so recurring problems are not treated as isolated calls.
The acceptance file should become the maintenance baseline, including serial numbers, software versions, accessories, QA results, and training evidence.
Service boundaries with IT, facilities, and third-party accessories should be written before award.
Core System Components
Core cath lab system components should be listed as a bill of materials with model numbers, software versions, licenses, accessories, and warranty terms.
The offer should identify which functions are standard, optional, licensed, or dependent on a separate workstation or interface.
Accessories and software should be checked against the clinical workflow rather than accepted as generic package names.
IT, PACS, RIS, and Connectivity Considerations
Confirm DICOM storage, modality worklist if required, PACS routing, reporting workflow, user access, cybersecurity updates, remote service, and backup/export policy.
IT should test the workflow with real accession numbers, images, reports or exports, and archive retrieval before clinical handover.
Integration responsibility should be written clearly when PACS, RIS, EMR, modality vendor, and hospital IT are separate parties.
Common Failure Modes and Troubleshooting
Common failures include image artifacts, detector or sensor faults, movement or positioning faults, software lockups, display problems, network/export failures, accessory damage, and environmental issues.
Basic troubleshooting should check power, network, user settings, accessories, cleaning condition, and recent software or room changes before escalation.
Repeated image-quality complaints should trigger QA review, not only a service call.
Lifecycle Cost and TCO Considerations
TCO includes purchase price, installation, room work, accessories, software, licenses, consumables, PM, corrective service, spare parts, downtime, training, and replacement planning.
The lowest capital price may be more expensive if accessories, software, service, QA tools, or IT integration are excluded.
Ask for five-year pricing before award, not after warranty ends.
Replacement Planning
Replacement should be considered when image quality declines, faults increase, parts become unavailable, cybersecurity updates stop, software cannot support workflow, or clinical demand exceeds capacity.
Upgrade may be enough for workstation or software gaps, but repeated hardware or support limitations need replacement planning.
Future Technology Trends
Relevant trends include better detector technology, automation, AI-assisted workflow, remote service, dose analytics where applicable, digital reporting, and cybersecurity improvements.
Future features should be selected only when they support a real department use case and can be maintained through the equipment life.
Equipment Components and Options
Typical components include acquisition hardware, patient table or probe/accessory set, console, workstation, software licenses, network interfaces, QA tools, power/HVAC support, and optional clinical packages.
Include patient table accessories, radiation shields, ceiling arms and displays, injector, hemodynamic recording, UPS, contrast accessories, sterile controls, intercom, workstation applications, and emergency-resuscitation interfaces.
Price QA phantoms, positioning aids, probes/coils/detectors where applicable, injector accessories, software licenses, workstations, UPS/chiller items, DICOM licenses, and startup consumables.
IT and Connectivity Considerations
Specify procedure mix, detector configuration, C-arm/table geometry, generator and tube duty, acquisition rates, subtraction/roadmap and 3D options, dose monitoring, hemodynamics, injector, ceiling displays, and DICOM/reporting integration.
Image-chain configuration, clinical application package, dose or safety controls where relevant, workstation/reporting workflow, DICOM/PACS/RIS connectivity, cybersecurity, and site planning requirements should be specified.
High-cost components such as tube, detector, probe, coil, workstation, injector head, chiller, software licenses, and service tools should have clear warranty and replacement pricing.
Confirm power, UPS policy, HVAC, shielding or MRI safety zoning, room size, control area, floor loading, delivery route, network drops, PACS/RIS readiness, and service clearance.
Review patient scheduling, preparation, acquisition, image reconstruction/review, DICOM transfer, reporting, archiving, repeat-image handling, cleaning, and downtime response.
Procurement Considerations
Procure the lab as one emergency procedural system with imaging, hemodynamics, injector, table, displays, radiation protection, anesthesia access, IT, backup power, acceptance physics, and guaranteed response/restoration terms.
Separate mandatory clinical applications from optional software packages. Require site-planning documents, high-cost component warranty, DICOM testing, and acceptance image-quality baseline before award.
Separate mandatory features from preferred and optional features, and ask vendors to price optional packages separately.
Require a full bill of materials, accessory list, software/license list, installation scope, service response, warranty table, training plan, and five-year ownership cost.
Demonstration should use the hospital's actual clinical scenarios and include radiology users, biomedical engineering, IT, and facilities where relevant.
Do not finalize award until site readiness, integration responsibility, warranty exclusions, and acceptance criteria are written.
Installation and Site Readiness
Confirm power, UPS policy, HVAC, shielding or MRI safety zoning, room size, control area, floor loading, delivery route, network drops, PACS/RIS readiness, and service clearance.
Site readiness should cover room size, access route, electrical supply, UPS policy, HVAC, shielding or safety controls where relevant, network, storage, cleaning area, and service clearance.
Facilities should confirm structural support, ventilation, heat load, ceiling or wall mounting, and room finishes before equipment delivery.
The vendor should provide site requirements and installation exclusions early enough for procurement and facilities review.
Accessories, Consumables, and Options
Accessories should include positioning aids, QA tools or phantoms where relevant, software licenses, storage/export tools, protective items, cleaning supplies, and required startup consumables.
Consumables and disposable items should be separated from capital accessories and priced for expected annual workload.
Items used during the demonstration should be checked against the formal quotation.
Accessories and Consumables
Include patient table accessories, radiation shields, ceiling arms and displays, injector, hemodynamic recording, UPS, contrast accessories, sterile controls, intercom, workstation applications, and emergency-resuscitation interfaces.
Price QA phantoms, positioning aids, probes/coils/detectors where applicable, injector accessories, software licenses, workstations, UPS/chiller items, DICOM licenses, and startup consumables.
Common Procurement Mistakes
Do not split accountability across imaging, hemodynamics, injector, displays, table, UPS, and integration without one responsibility matrix and end-to-end acceptance test.
Buying imaging equipment without PACS/RIS testing and site responsibility matrix.
Ignoring tube/probe/coil/detector warranty, software licenses, QA tools, HVAC, and room readiness.
WHO procurement baseline
WHO medical-device procurement guidance is used here as the baseline: Cath Lab System should be selected against health service need, transparent technical requirements, lifecycle affordability, and the hospital's ability to install, operate, maintain, document, and safely retire the technology.
- Start with health service need, workload, users, facility readiness, maintenance capacity, and budget reality before naming a technology or preferred vendor.
- Write requirements so bidders can respond transparently against internationally accepted procurement practice: measurable clauses, documentary evidence, declared deviations, and comparable pricing.
- Evaluate value for money across the device lifecycle, not only purchase price. Include accessories, consumables, installation, training, maintenance, spare parts, downtime, and end-of-support risk.
- Plan equipment management before delivery: inventory record, acceptance baseline, safety/performance inspection, preventive maintenance, corrective maintenance, service reporting, and user training.
Buying guide from a biomedical engineering perspective
Evaluate cath lab system against the department's actual cases, peak workload, staffing, infrastructure, cleaning or decontamination process, connectivity, and tolerance for downtime. During demonstration and acceptance, require evidence for the offered configuration rather than assuming that a product-family brochure describes the quoted system.
Translate the findings below into measurable compliance fields, an itemized scope of supply, site responsibilities, acceptance records, and priced lifecycle obligations. Any clause that cannot be verified objectively should be rewritten before tender release.
Total cost of ownership discussion
Cath-lab TCO includes tube/detector and cooling risk, hemodynamic/injector service, ceiling mechanics, application licenses, contrast and sterile consumables, radiation QA, HVAC/power, uptime support, and cancelled procedure cost.
TCO includes high-cost components, room works, power/HVAC, QA tools, software licenses, service contract, tube/probe/coil/detector risk, downtime, upgrades, and PACS storage.
Replace when image-chain or mechanical failures recur, dose performance or application support is inadequate, hemodynamic/injector integration is obsolete, cybersecurity support ends, or service downtime jeopardizes emergency PCI coverage.
Replace when image quality, dose/safety, software security, parts support, PACS compatibility, or workflow no longer meets clinical service needs.
Trends include robotic positioning, cone-beam CT, physiology and intravascular imaging integration, AI workflow support, advanced dose tracking, and multimodality fusion.
Relevant trends include AI reconstruction, dose reduction, automated workflow, cybersecurity patching, remote service, structured reporting, and improved detector/probe technology.
TCO includes purchase price, installation, room work, accessories, software, licenses, consumables, PM, corrective service, spare parts, downtime, training, and replacement planning.
The lowest capital price may be more expensive if accessories, software, service, QA tools, or IT integration are excluded.
Ask for five-year pricing before award, not after warranty ends.
Practical RFQ guidance
State the clinical use cases, workload, required specifications, accessories, software, DICOM/export workflow, site requirements, warranty, service, and acceptance testing for Cath Lab System.
Provide a complete bill of materials and list all exclusions, optional items, and separately licensed features.
Submit five-year pricing for accessories, consumables, software, PM, corrective service, spare parts, labor, travel, and post-warranty support.
Describe demonstration, acceptance testing, QA baseline, user training, biomedical handover, and documentation.
Common mistakes to avoid
Do not split accountability across imaging, hemodynamics, injector, displays, table, UPS, and integration without one responsibility matrix and end-to-end acceptance test.
Buying imaging equipment without PACS/RIS testing and site responsibility matrix.
Ignoring tube/probe/coil/detector warranty, software licenses, QA tools, HVAC, and room readiness.
Buying a base system without the accessories, software, and integration needed for actual workflow.
Ignoring site readiness and IT integration until delivery.
Accepting demo features that are not included in the quotation.
Skipping acceptance testing, QA baseline, training records, or warranty review.
Procurement advice
Procure the lab as one emergency procedural system with imaging, hemodynamics, injector, table, displays, radiation protection, anesthesia access, IT, backup power, acceptance physics, and guaranteed response/restoration terms.
Separate mandatory clinical applications from optional software packages. Require site-planning documents, high-cost component warranty, DICOM testing, and acceptance image-quality baseline before award.
Separate mandatory features from preferred and optional features, and ask vendors to price optional packages separately.
Clinical users need image quality and controls that match coronary angiography, PCI, structural heart procedures, hemodynamics, dose management, and room uptime, not a generic demonstration workflow.
Radiographers, sonographers, or technologists need ergonomic positioning, clear controls, fast setup, predictable cleanup, and training that matches daily use.
Confirm DICOM storage, modality worklist if required, PACS routing, reporting workflow, user access, cybersecurity updates, remote service, and backup/export policy.
Vendor Evaluation Checklist
Vendor evaluation checklist
- Clinical users need image quality and controls that match coronary angiography, PCI, structural heart procedures, hemodynamics, dose management, and room uptime, not a generic demonstration workflow.
- Radiographers, sonographers, or technologists need ergonomic positioning, clear controls, fast setup, predictable cleanup, and training that matches daily use.
- Confirm DICOM storage, modality worklist if required, PACS routing, reporting workflow, user access, cybersecurity updates, remote service, and backup/export policy.
- Site readiness should cover room size, access route, electrical supply, UPS policy, HVAC, shielding or safety controls where relevant, network, storage, cleaning area, and service clearance.
- Separate mandatory features from preferred and optional features, and ask vendors to price optional packages separately.
- Require a full bill of materials, accessory list, software/license list, installation scope, service response, warranty table, training plan, and five-year ownership cost.
Technical and lifecycle review
- Confirm the offered configuration matches the department workflow and site conditions.
- Review service response, spare parts availability, training scope, and documentation access.
- Separate capital price from accessories, consumables, software, licenses, installation, and post-warranty support.
- Require written acceptance testing and handover deliverables before final payment.
Practical Checklists
Use these role-based checks during user review, technical evaluation, site planning, IT integration, and acceptance.
Radiology users
- Clinical users need image quality and controls that match coronary angiography, PCI, structural heart procedures, hemodynamics, dose management, and room uptime, not a generic demonstration workflow.
- Radiographers, sonographers, or technologists need ergonomic positioning, clear controls, fast setup, predictable cleanup, and training that matches daily use.
- Radiologists or procedural physicians need images that arrive correctly labeled, comparable, and ready for reporting or procedural documentation.
- Safety staff should review radiation protection, infection control, patient comfort, or modality-specific risks before release.
Biomedical engineering
- Biomedical engineering should review service access, QA tools, error logs, spare parts, software support, calibration needs, and local service response.
- Common faults should be trended by hardware, software, user workflow, environment, and IT cause so recurring problems are not treated as isolated calls.
- The acceptance file should become the maintenance baseline, including serial numbers, software versions, accessories, QA results, and training evidence.
- Service boundaries with IT, facilities, and third-party accessories should be written before award.
Procurement
- Separate mandatory features from preferred and optional features, and ask vendors to price optional packages separately.
- Require a full bill of materials, accessory list, software/license list, installation scope, service response, warranty table, training plan, and five-year ownership cost.
- Demonstration should use the hospital's actual clinical scenarios and include radiology users, biomedical engineering, IT, and facilities where relevant.
- Do not finalize award until site readiness, integration responsibility, warranty exclusions, and acceptance criteria are written.
IT, PACS, and RIS
- Confirm DICOM storage, modality worklist if required, PACS routing, reporting workflow, user access, cybersecurity updates, remote service, and backup/export policy.
- IT should test the workflow with real accession numbers, images, reports or exports, and archive retrieval before clinical handover.
- Integration responsibility should be written clearly when PACS, RIS, EMR, modality vendor, and hospital IT are separate parties.
Facilities and site readiness
- Site readiness should cover room size, access route, electrical supply, UPS policy, HVAC, shielding or safety controls where relevant, network, storage, cleaning area, and service clearance.
- Facilities should confirm structural support, ventilation, heat load, ceiling or wall mounting, and room finishes before equipment delivery.
- The vendor should provide site requirements and installation exclusions early enough for procurement and facilities review.
Acceptance testing
- Verify the delivered cath lab system configuration against the accepted offer.
- Acceptance should verify delivered configuration, accessories, safety checks, image quality baseline, DICOM/PACS/RIS or export workflow, user training, biomedical handover, warranty start date, and PM schedule.
- For radiation-emitting equipment, dose or radiation-safety checks should follow local policy and qualified-person involvement.
- The hospital should not release equipment for routine use until documentation, training, and acceptance evidence are complete.
Clinical users
- Confirm intended use, workload, patient/sample group, and daily workflow for cath lab system.
- Radiology users should test positioning, protocol selection, image review, dose or safety indicators, report/export workflow, contrast workflow where applicable, and ergonomic impact during peak lists.
- Test setup, operation, alarms or status messages, cleaning, documentation, and training needs.
- Confirm the supplied accessories match routine clinical practice.
Procurement and administration
- Procure the lab as one emergency procedural system with imaging, hemodynamics, injector, table, displays, radiation protection, anesthesia access, IT, backup power, acceptance physics, and guaranteed response/restoration terms.
- Separate mandatory requirements, preferred features, and optional priced items.
- Require compliance evidence, deviations, complete bill of materials, service terms, and five-year TCO.
- Tie final payment to acceptance testing, documentation, training, and biomedical handover.
Installation and site readiness
- Confirm power, UPS policy, HVAC, shielding or MRI safety zoning, room size, control area, floor loading, delivery route, network drops, PACS/RIS readiness, and service clearance.
- Confirm utilities, space, access route, environmental limits, storage, cleaning area, interface requirements, and service clearance for cath lab system.
- Attach a responsibility matrix for civil, electrical, plumbing, gas, IT, safety, installation, and commissioning work.
Preventive maintenance
- PM should include image quality QA, safety checks, calibration, software/log review, cleaning, mechanical movement checks, cooling/HVAC review, DICOM test, and baseline performance documentation.
- Confirm PM frequency, required test equipment, calibration evidence, spare parts, cleaning checks, service report format, and escalation process.
- Review first-year failures and user complaints before warranty expiry.
Vendor evaluation
- Vendor can demonstrate full patient-to-PACS workflow, QA process, error-log/service process, software licenses, high-cost component coverage, and uptime response.
- Vendor response includes itemized pricing, compliance evidence, warranty exclusions, local service response, spare-parts lead times, and post-warranty rates.
RFQ questions to include
- 1State the clinical use cases, workload, required specifications, accessories, software, DICOM/export workflow, site requirements, warranty, service, and acceptance testing for Cath Lab System.
- 2Provide a complete bill of materials and list all exclusions, optional items, and separately licensed features.
- 3Submit five-year pricing for accessories, consumables, software, PM, corrective service, spare parts, labor, travel, and post-warranty support.
- 4Describe demonstration, acceptance testing, QA baseline, user training, biomedical handover, and documentation.
Acceptance Testing
Acceptance should verify delivered configuration, accessories, safety checks, image quality baseline, DICOM/PACS/RIS or export workflow, user training, biomedical handover, warranty start date, and PM schedule.
For radiation-emitting equipment, dose or radiation-safety checks should follow local policy and qualified-person involvement.
The hospital should not release equipment for routine use until documentation, training, and acceptance evidence are complete.
Acceptance Checklist
Use this before clinical release and before final payment approval. The acceptance file should become the baseline for warranty and future PM.
Cath Lab System acceptance readiness
0 of 18 checks marked complete
Cath Lab System acceptance focus
WHO specification completeness
Delivery and configuration
Installation and safety
Performance and workflow
Training and handover
Maintenance and Service Support
PM should include physical inspection, safety checks, image-quality or performance verification, calibration where required, software review, DICOM/export test, cleaning review, and documentation.
Biomedical teams should trend faults, user complaints, QA results, and downtime after installation.
PM records should refer back to the acceptance baseline so image quality or performance drift can be recognized.
Service Contract Guidance
Biomedical should review QA/phantom requirements, calibration, service access, error logs, software versions, high-cost component warranty, remote service, and downtime escalation.
PM should include image quality QA, safety checks, calibration, software/log review, cleaning, mechanical movement checks, cooling/HVAC review, DICOM test, and baseline performance documentation.
Review warranty by component, including main unit, detector or image chain, tube or source where relevant, workstation, software, accessories, batteries, and third-party interfaces.
Clarify response time, restoration target, PM visits, labor, travel, software updates, exclusions, and post-warranty rates.
Ask whether service includes post-repair QA or image-quality verification.
Warranty Review
For Cath Lab System, warranty exposure should follow its actual ownership risks: Cath-lab TCO includes tube/detector and cooling risk, hemodynamic/injector service, ceiling mechanics, application licenses, contrast and sterile consumables, radiation QA, HVAC/power, uptime support, and cancelled procedure cost.
Review warranty by component, including main unit, detector or image chain, tube or source where relevant, workstation, software, accessories, batteries, and third-party interfaces.
Clarify response time, restoration target, PM visits, labor, travel, software updates, exclusions, and post-warranty rates.
Ask whether service includes post-repair QA or image-quality verification.
Maintenance Checklist
Use this during biomedical handover, PM planning, warranty review, and first-year service evaluation. Mark checks as completed while reviewing the vendor file.
Cath Lab System maintenance readiness
0 of 19 checks marked complete
Cath Lab System practical PM checks
WHO technical specification record
Asset record and risk level
User checks and cleaning
Preventive maintenance scope
Service reporting and escalation
FAQs
What should hospitals check before buying Cath Lab System?
Check clinical workflow, image quality needs, required accessories, site readiness, IT/PACS integration, warranty, service response, acceptance testing, and five-year TCO.
What is commonly missed in Cath Lab System procurement?
Hospitals often miss software licenses, accessories, site work, IT integration, QA tools, warranty exclusions, training, and post-warranty costs.
How should Cath Lab System acceptance testing be done?
Verify delivered configuration, safety, image quality or performance baseline, connectivity/export, accessories, documentation, training, warranty start, and PM schedule.
Who should review a Cath Lab System purchase?
Clinical users, biomedical engineering, procurement, IT/PACS, facilities, safety or medical physics where relevant, and hospital administration should review the purchase.
When should Cath Lab System be replaced?
Consider replacement when parts or software support end, image quality declines, faults increase, downtime affects care, cybersecurity updates stop, or workflow no longer matches clinical demand.
What is Cath Lab System used for in hospitals?
Coronary angiography, PCI, structural heart support, electrophysiology-adjacent workflows where applicable, peripheral vascular procedures, and emergency cardiac cases.; Procedure-room workflow with imaging, hemodynamics, injector, monitors, sterile setup, and recovery handover.; High-uptime services where room downtime directly affects emergency cardiac care.
What specifications matter most when buying Cath Lab System?
For cath lab system, compare Clinical scope and workload; Cath Lab System performance configuration; Complete scope, accessories and consumables. The final specification should be measurable, vendor-neutral, and linked to clinical workflow and acceptance testing.
What should be included in a Cath Lab System RFQ?
State the clinical use cases, workload, required specifications, accessories, software, DICOM/export workflow, site requirements, warranty, service, and acceptance testing for Cath Lab System.; Provide a complete bill of materials and list all exclusions, optional items, and separately licensed features.; Submit five-year pricing for accessories, consumables, software, PM, corrective service, spare parts, labor, travel, and post-warranty support.
What accessories or consumables are commonly missed for Cath Lab System?
Core cath lab system components should be listed as a bill of materials with model numbers, software versions, licenses, accessories, and warranty terms.; The offer should identify which functions are standard, optional, licensed, or dependent on a separate workstation or interface.; Accessories and software should be checked against the clinical workflow rather than accepted as generic package names.
What site readiness checks are needed before installing Cath Lab System?
Confirm power, UPS policy, HVAC, shielding or MRI safety zoning, room size, control area, floor loading, delivery route, network drops, PACS/RIS readiness, and service clearance.; Site readiness should cover room size, access route, electrical supply, UPS policy, HVAC, shielding or safety controls where relevant, network, storage, cleaning area, and service clearance.; Facilities should confirm structural support, ventilation, heat load, ceiling or wall mounting, and room finishes before equipment delivery.
What should biomedical engineering review for Cath Lab System?
Biomedical should review QA/phantom requirements, calibration, service access, error logs, software versions, high-cost component warranty, remote service, and downtime escalation.; PM should include image quality QA, safety checks, calibration, software/log review, cleaning, mechanical movement checks, cooling/HVAC review, DICOM test, and baseline performance documentation.; Review warranty by component, including main unit, detector or image chain, tube or source where relevant, workstation, software, accessories, batteries, and third-party interfaces.
What should be tested during Cath Lab System acceptance testing?
Acceptance should verify delivered configuration, accessories, safety checks, image quality baseline, DICOM/PACS/RIS or export workflow, user training, biomedical handover, warranty start date, and PM schedule.; For radiation-emitting equipment, dose or radiation-safety checks should follow local policy and qualified-person involvement.; The hospital should not release equipment for routine use until documentation, training, and acceptance evidence are complete.