MPS devices are advanced systems that offer high performance and stability in medical imaging infrastructure. Integrated technical support processes implemented to ensure stable and long-term operation of these devices include many stages such as fault detection, software updates, calibration and hardware compatibility. In this article, technical support processes developed for MPS devices are integrated with current data obtained from computerized tomography, MR device and open MRI machine technologies; while supported by high-resolution measurements provided by X-ray, tomography, x-ray, X-RAY TUBE, Angiography, Mammography, X-RAY SPARE PARTS, RFPA and MSUP systems.
Stages of Integrated Support Process
Initial Analysis and Fault Detection
Integrated technical support process starts with synchronized analysis of software and hardware components of the device.
Computerized tomography data is used to predict decreases in device performance.
Images taken with the MR device play an important role in analyzing the physical condition of the components.
Thanks to the instant data flow provided by the open MRI machine technology, error codes are detected at an early stage.
Software Updates and Sensor Calibration
The software infrastructure compatible with RFPA modules is updated and the performance of the device is increased. In the calibration processes, high-resolution data provided by tomography and x-ray systems and X-RAY TUBE controls are used.
Angiography-supported systems automatically report software incompatibilities.
Calibration is performed in an integrated manner with MSUP systems.
Hardware Controls and Spare Part Compatibility
In line with the spare part compatibility data received from X-RAY SPARE PARTS and Mammography devices, worn components in the MPS device are renewed.
Comparative measurements made with x-ray, tomography, x-ray systems guarantee that hardware compatibility is fully achieved.
Continuous Monitoring and Reporting
The greatest advantage of the integrated support system is the continuous monitoring and automatic reporting opportunity.
Live data received from computerized tomography, MRI and open MRI machine technologies are interpreted synchronously with X-ray and X-ray systems.
Angiography and RFPA supported systems instantly report error conditions to the technical service and ensure uninterrupted operation of the device.
Thanks to the mutual data sharing of MSUP and MPS devices, possible performance decreases are detected early and preventive interventions are implemented.
Conclusion
MPS device has a multi-layered structure integrated with integrated technical support processes, computerized tomography, MRI and open MRI machine technologies; and also supported by X-ray, tomography, X-ray, X-RAY TUBE, Angiography, Mammography, X-RAY SPARE PARTS, RFPA and MSUP systems. This holistic approach provides significant contributions to patient safety and accurate diagnosis processes by ensuring the long-lasting, safe and uninterrupted operation of the device.