Remote Monitoring Infrastructure for Proton Beam Therapy Systems
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Solution Overview
Problem
Conventional proton beam therapy systems require on-site servicing by technicians, leading to increased costs and complexity, as well as reduced system uptime due to the need for co-located monitoring and control equipment and personnel, limiting the deployment of these systems across geographic areas.
Innovation Solution
A remote monitoring and control infrastructure that allows technicians to diagnose and manage proton beam emitting and delivery systems from a distant location using dedicated communication channels and hardware interconnects, reducing the need for on-site personnel and equipment.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If on-site servicing and co-located monitoring equipment are used, then system reliability and safety are improved, but device complexity and operational costs increase significantly
Solution Approach 1:
A remote service system acts as an intermediary between the proton beam therapy system and technicians, enabling remote monitoring and control through communication networks. This mediator allows service functions to be performed without physical co-location, reducing on-site infrastructure complexity while maintaining system reliability through continuous remote oversight.
Solution Approach 2:
The patent replaces physical mechanical presence of technicians and co-located monitoring equipment with electronic communication systems. Data transmission, fault diagnostics, and control signals are exchanged through digital networks rather than requiring physical proximity, substituting mechanical infrastructure with information-based systems.
2Reliability
If technicians are co-located with each proton beam therapy system, then system safety and reliability are improved, but operational costs and infrastructure requirements increase dramatically
Solution Approach 1:
The remote service system provides universal monitoring and control capabilities that can serve multiple proton beam therapy systems simultaneously. A single centralized platform can manage several systems across different locations, eliminating the need for dedicated co-located technician teams at each site while maintaining safety through comprehensive remote oversight.
Solution Approach 2:
The remote service system acts as an intermediary that enables safe operation without physical presence. Through secure communication channels and remote interface systems, technicians can monitor system status, diagnose faults, and perform control functions from distant locations, maintaining safety protocols while eliminating the need for costly co-located infrastructure.
3Ease of repair
If on-site technician presence is required, then fault diagnosis and system control are improved, but system uptime decreases due to servicing interruptions
Solution Approach 1:
The remote monitoring system continuously collects and analyzes system data in advance, enabling early detection of potential faults before they cause system failures. By monitoring trends and parameters remotely, the system can predict issues and prepare diagnostic actions beforehand, allowing fault diagnosis without interrupting system operation and maintaining continuous uptime.
Solution Approach 2:
Physical presence of technicians for fault diagnosis is replaced with automated remote monitoring and diagnostic systems. Sensors and communication interfaces transmit real-time data to remote analysis systems that can identify faults, retrieve error codes, and guide repair actions without requiring physical access to the system, enabling continuous operation during diagnostic phases.
4Adaptability or versatility
If multiple proton beam therapy systems are deployed across geographic boundaries, then treatment accessibility is improved, but servicing complexity and costs increase exponentially
Solution Approach 1:
The remote service infrastructure provides a universal platform that can manage multiple proton beam therapy systems across different geographic locations through a single centralized system. This multi-functional approach allows one service infrastructure to support many distributed systems, enabling broad treatment accessibility without proportional increases in servicing complexity at each location.
Solution Approach 2:
The service model transitions from a horizontal dimension of physical co-location to a vertical dimension of remote hierarchical management. Instead of having service infrastructure at the same geographic level as each system, the service function is elevated to a higher organizational level that can oversee multiple systems remotely, reducing the complexity burden on individual deployment locations.
Data Source
AI summary
A remote diagnostic monitoring and control of physical components of a particle accelerator system has a particle emitting system located at a first physical site and includes one or more particle emitting system components to operate the particle emitting system, a particle delivery system located at the first physical site and including one or more particle delivery system components to operate the particle delivery system, a particle system gateway located at the first physical site and operatively coupled to the particle emitting system components and the particle delivery system components by a first network interface, and a diagnostic monitoring system located at a second physical site remote from the first physical site, operatively coupled to the particle system gateway by a second network interface, and operable to monitor one or more first operating states corresponding to one or more of the particle emitting system components and one or more second operating states corresponding to one or more of the particle delivery system components, and a diagnostic control system located at the second physical site, operatively coupled to the particle system gateway by a third network interface, and operable to modify one or more of the first operating states of the one or more particle emitting system components and the second operating states the one or more particle delivery system components.