Surgical Robotics Research in Cardiovascular Disease

Pohost, Gerald M ; Guthrie, Barton L ; Steiner, Charles

关键词: ACTUATORS;    BLOOD;    BRAIN;    CARDIOVASCULAR DISEASES;    DECISION MAKING;    MAGNETIC RESONANCE;    MEDICAL ESTABLISHMENTS;    METABOLISM;    MUSCLES;    MYOCARDIUM;    PATIENTS;    PHOSPHATES;    PHOSPHOCREATINE;    PHOSPHORUS 31;    PROBES;    SPECTROSCOPY;    STIMULATION;    SURGERY;    TRAINING robotics;    cardiovascular;    neurosurgical;   

DOI  :  10.2172/924449
RP-ID  :  DOE ER63847
PID  :  OSTI ID: 924449
Others  :  TRN: US0806094

美国|英语

来源: SciTech Connect

【 摘 要 】

This grant is to support a research in robotics at three major medical centers: the University of Southern California-USC- (Project 1); the University of Alabama at Birmingham-UAB-(Project 2); and the Cleveland Clinic Foundation-CCF-(Project 3). Project 1 is oriented toward cardiovascular applications, while projects 2 and 3 are oriented toward neurosurgical applications. The main objective of Project 1 is to develop an approach to assist patients in maintaining a constant level of stress while undergoing magnetic resonance imaging or spectroscopy. The specific project is to use handgrip to detect the changes in high energy phosphate metabolism between rest and stress. The high energy phosphates, ATP and phosphocreatine (PCr) are responsible for the energy of the heart muscle (myocardium) responsible for its contractile function. If the blood supply to the myocardium in insufficient to support metabolism and contractility during stress, the high energy phosphates, particularly PCr, will decrease in concentration. The high energy phosphates can be tracked using phosphorus-31 magnetic resonance spectroscopy ({sup 31}P MRS). In Project 2 the UAB Surgical Robotics project focuses on the use of virtual presence to assist with remote surgery and surgical training. The goal of this proposal was to assemble a pilot system for proof of concept. The pilot project was completed successfully and was judged to demonstrate that the concept of remote surgical assistance as applied to surgery and surgical training was feasible and warranted further development. The main objective of Project 3 is to develop a system to allow for the tele-robotic delivery of instrumentation during a functional neurosurgical procedure (Figure 3). Instrumentation such as micro-electrical recording probes or deep brain stimulation leads. Current methods for the delivery of these instruments involve the integration of linear actuators to stereotactic navigation systems. The control of these delivery devices utilizes an open-loop configuration involving a team consisting of neurosurgeon, neurologist and neurophysiologist all present and participating in the decision process of delivery. We propose the development of an integrated system which provides for distributed decision making and tele-manipulation of the instrument delivery system.