Abstract: A system for operating a semi-closed loop and/or a closed loop resuscitation of a burn patient in view of patient information and other physiological data gathered by the system. The system in at least one embodiment includes an urine sensor, an infusion pump and a processor that controls the operation of the infusion pump at least in part from a signal received from the urine sensor.

Abstract: Novel fluid delivery systems are disclosed to improve the delivery of bio-compatible fluids to a patient. The systems can include a housing having a bladder pressurized by a pressurization unit so that fluid flow rate can be controlled, changed and/or monitored. The systems can also include a scale and/or a flow control unit.

Abstract: A system for operating a semi-closed loop and/or a closed loop resuscitation of a burn patient in view of patient information and other physiological data gathered by the system. The system in at least one embodiment includes an urine sensor, an infusion pump and a processor that controls the operation of the infusion pump at least in part from a signal received from the urine sensor.

Abstract: The present invention provides a system and method for controlling resuscitation in a patient. In at least one embodiment, the invention includes a fluid rate measurer, a controller electrically coupled to the fluid rate measurer, and a pump. The controller is adapted to receive signals from a physiological monitor and controls the pump.

Abstract: A system for operating a semi-closed loop and/or a closed loop resuscitation of a burn patient in view of patient information and other physiological data gathered by the system. The system in at least one embodiment includes an urine sensor, an infusion pump and a processor that controls the operation of the infusion pump at least in part from a signal received from the urine sensor.

Abstract: A method for providing decision-assist to medical staff resuscitating a burn patient includes receiving patient information, calculating an infusion rate, outputting the infusion rate, obtaining a urinary output, calculating a new infusion rate using infusion rate model based constants, and outputting the new infusion rate. In some embodiments, the method includes notifying medical staff when problems arise, displaying information regarding the resuscitation, and setting limits regarding the infusion rates.

Abstract: Novel fluid delivery systems are disclosed to improve the delivery of bio-compatible fluids to a patient. The systems can include a housing having a bladder pressurized by a pressurization unit so that fluid flow rate can be controlled, changed and/or monitored. The systems can also include a scale and/or a flow control unit.

Abstract: The present invention provides a system and method for controlling resuscitation in a patient. In at least one embodiment, the invention includes a fluid rate measurer, a controller electrically coupled to the fluid rate measurer, and a pump. The controller is adapted to receive signals from a physiological monitor and controls the pump.

Abstract: The present invention provides a system and method for controlling resuscitation in a patient. In at least one embodiment, the invention includes a fluid rate measurer, a controller electrically coupled to the fluid rate measurer, and a pump. The controller is adapted to receive signals from a physiological monitor and controls the pump.

Abstract: A system for operating a semi-closed loop and/or a closed loop resuscitation of a burn patient in view of patient information and other physiological data gathered by the system. The system in at least one embodiment includes an urine sensor, an infusion pump and a processor that controls the operation of the infusion pump at least in part from a signal received from the urine sensor.

Abstract: A method for providing decision-assist to medical staff resuscitating a burn patient includes receiving patient information, calculating an infusion rate, outputting the infusion rate, obtaining a urinary output, calculating a new infusion rate using infusion rate model based constants, and outputting the new infusion rate. In some embodiments, the method includes notifying medical staff when problems arise, displaying information regarding the resuscitation, and setting limits regarding the infusion rates.

Abstract: A method and system for operating a semi-closed loop and/or a closed loop resuscitation of a burn patient in view of patient information and other physiological data gathered as part of the method and/or by the system. The method in at least one embodiment includes receiving patient information, calculating an infusion rate based at least on part on a portion of the received patient information, outputting the infusion rate to an infusion pump, obtaining a urinary output, calculating a new infusion rate using infusion rate model based constants, and outputting the new infusion rate to an infusion pump. In some embodiments, the method includes notifying medical staff when problems arise, displaying information regarding the resuscitation, and setting limits regarding the infusion rates.

Abstract: A method and system for operating a semi-closed loop and/or a closed loop resuscitation of a burn patient in view of patient information and other physiological data gathered as part of the method and/or by the system. The method in at least one embodiment includes receiving patient information, calculating an infusion rate based at least on part on a portion of the received patient information, outputting the infusion rate to an infusion pump, obtaining a urinary output, calculating a new infusion rate using infusion rate model based constants, and outputting the new infusion rate to an infusion pump. In some embodiments, the method includes notifying medical staff when problems arise, displaying information regarding the resuscitation, and setting limits regarding the infusion rates.

Abstract: Novel fluid delivery systems are disclosed to improve the delivery of bio-compatible fluids to a patient. The systems can include a housing having a bladder pressurized by a pressurization unit so that fluid flow rate can be controlled, changed and/or monitored. The systems can also include a scale and/or a flow control unit.

Abstract: A method for providing decision-assist to medical staff resuscitating a burn patient includes receiving patient information, calculating an infusion rate, outputting the infusion rate, obtaining a urinary output, calculating a new infusion rate using infusion rate model based constants, and outputting the new infusion rate. In some embodiments, the method includes notifying medical staff when problems arise, displaying information regarding the resuscitation, and setting limits regarding the infusion rates.

Abstract: A method and system for operating a semi-closed loop and/or a closed loop resuscitation of a burn patient in view of patient information and other physiological data gathered as part of the method and/or by the system. The method in at least one embodiment includes receiving patient information, calculating an infusion rate based at least on part on a portion of the received patient information, outputting the infusion rate to an infusion pump, obtaining a urinary output, calculating a new infusion rate using infusion rate model based constants, and outputting the new infusion rate to an infusion pump. In some embodiments, the method includes notifying medical staff when problems arise, displaying information regarding the resuscitation, and setting limits regarding the infusion rates.

Abstract: The present invention provides a system and method for controlling resuscitation in a patient. In at least one embodiment, the invention includes a fluid rate measurer, a controller electrically coupled to the fluid rate measurer, and a pump. The controller is adapted to receive signals from a physiological monitor and controls the pump.

Abstract: The medical monitoring system provides for the gathering of signals from a variety of medical monitoring equipment that is attached to a patient either human or animal by a medical monitor. The medical monitor passes the gathered signals to a signal distribution system for conditioning, filtering, and multiplexing/switching. The signal distribution system then passes the signals to a computer for analysis, storing, and monitoring. The computer may be located at a central location or hub and be receiving information and signals from multiple medical monitors over a network that may be wireless and/or wired. The computer may instead be connected to just one medical monitor. Depending upon the exact implementation, the exact location of these three components will be dictated.