Abstract: A cranial shunt implantable into a patient, the cranial shunt may comprise a first catheter, a second catheter and a valve assembly operatively coupled with the first and second catheters, the valve assembly comprising an inlet and a microcontroller, wherein the first catheter transfers cerebrospinal fluid (CSF) to the inlet. The cranial shunt may also comprise a pressure sensor configured to provide intracranial pressure (ICP) of the patient to the microcontroller, and a tilt sensor configured to provide an angle of orientation relative to gravity of a cranium of the patient to the microcontroller, where the valve assembly passes or blocks the CSF flow to the second catheter based on instructions from the microcontroller.

Abstract: A bite block provides a pair of bilateral jaw spacers positioned between the patient's posterior teeth to separate an interincisal distance between the jaw. A connecting bridge behind the patient's incisors joins the bilateral spacers at opposite sides of the jaw. The bilateral jaw spacers are positioned between the patient's upper and lower posterior teeth to transfer the forces against the bite block when the patient bites down to the stronger and wider posterior teeth that can withstand larger stresses. The posterior teeth have large, flat surfaces which can stably receive the bilateral jaw spacers without unwanted displacement.

Abstract: The present invention provides a cerebrospinal fluid shunt system that monitors the intracranial pressures over a portion of a monitoring cycle to calculate short intervals of drainage for every monitoring cycle necessary to produce the desired pressure correction. The system operates to significantly reduce the time during which draining occurs allowing tissue surrounding the catheter to rebound from the catheter holes returning to its normal position for a sufficient amount of time to recover its normal shape.

Abstract: The present invention provides a cerebrospinal fluid shunt system that monitors the intracranial pressures over a portion of a monitoring cycle to calculate short intervals of drainage for every monitoring cycle necessary to produce the desired pressure correction. The system operates to significantly reduce the time during which draining occurs allowing tissue surrounding the catheter to rebound from the catheter holes returning to its normal position for a sufficient amount of time to recover its normal shape.

Abstract: The present invention operates to significantly reduce over or under drainage of cerebrospinal fluid (CSF) from the brain or spinal cord using an extraventricular drain (EVD) in the brain or lumbar drainage device (LDD) and automated intracranial pressure (ICP) monitoring. The present invention attaches the drainage catheter of the EVD to a flow controller or valve which controls the flow of CSF from the drainage catheter and is electronically controlled by a stepper motor communicating with a pressure transducer receiving pressure signals indicating an ICP without the need for constant manual re-leveling.

Abstract: The present invention provides a cerebrospinal fluid shunt system that monitors the intracranial pressures over a portion of a monitoring cycle to calculate short intervals of drainage for every monitoring cycle necessary to produce the desired pressure correction. The system operates to significantly reduce the time during which draining occurs allowing tissue surrounding the catheter to rebound from the catheter holes returning to its normal position for a sufficient amount of time to recover its normal shape.

Abstract: The present invention provides a cerebrospinal fluid shunt system that monitors the intracranial pressures over a portion of a monitoring cycle to calculate short intervals of drainage for every monitoring cycle necessary to produce the desired pressure correction. The system operates to significantly reduce the time during which draining occurs allowing tissue surrounding the catheter to rebound from the catheter holes returning to its normal position for a sufficient amount of time to recover its normal shape.

Abstract: The present invention provides a cerebrospinal fluid shunt system that monitors the intracranial pressures over a portion of a monitoring cycle to calculate short intervals of drainage for every monitoring cycle necessary to produce the desired pressure correction. The system operates to significantly reduce the time during which draining occurs allowing tissue surrounding the catheter to rebound from the catheter holes returning to its normal position for a sufficient amount of time to recover its normal shape.

Abstract: Media, methods, and systems provide a platform for monitoring patient health and recommending treatment in a protocolized manner. The protocol is customizable to fit patient and physician needs and the platform is capable of alerting medical staff when treatment is needed, precluding traditional practices of intensive-monitoring.

Abstract: Media, methods, and systems provide a platform for monitoring patient health and recommending treatment in a protocolized manner. The protocol is customizable to fit patient and physician needs and the platform is capable of alerting medical staff when treatment is needed, precluding traditional practices of intensive-monitoring.

Abstract: A microwave hyperthermia treatment system employs a set of antennas individually controllable to provide different phase and amplitude outputs and controlled to cycle through different sets of phases and amplitudes over time to minimize the effect of hotspots formed by any given set of phases and amplitudes and creating limiting high temperatures outside of a desired treatment area.

Abstract: A microwave hyperthermia treatment system employs a set of antennas individually controllable to provide different phase and amplitude outputs and controlled to cycle through different sets of phases and amplitudes over time to minimize the effect of hotspots formed by any given set of phases and amplitudes and creating limiting high temperatures outside of a desired treatment area.

Abstract: A method for reconstructing images from a set of acquired projection views weights the value backprojected into each image voxel depending on whether the backprojected raysum passes through a highly attenuating region in the subject of the image. If the raysum exceeds an attenuation threshold value, the backprojected values are weighted to substantially reduce the contribution of that raysum to the reconstructed image and to thereby reduce streak artifacts otherwise produced by high attenuation objects such as metal surgical clips.

Abstract: Shunts (valves) (100) for controlled flow of bodily fluids, such as cerebrospinal fluid, include a valve actuating member (114) (such as a piston (120)) between inlet (108) and outlet (110) ports. The valve actuating member is biased toward a state wherein the valve is closed, and it includes a face adjacent the upstream side of the valve (and preferably isolated from the downstream side of the valve) whereby fluid pressure in the upstream side exerts an opening force on the face to urge the valve toward an open state. When the opening force on the valve exceeds the closing force by some amount, the valve actuating member moves the valve to the open state, allowing fluid flow through the fluid passage between the inlet and outlet ports.

Abstract: A helical scan is performed with a fan beam or cone beam CT system to acquire a first set of sinogram data sets. The subject is injected with a contrast agent and the identical helical scan is performed to acquire a second set of sinogram data sets. Corresponding projection views are subtracted in the two data sets and a number of different images are reconstructed from the difference data set. One image is a tomographic image produced using a filtered backprojection method and a second image is a topograph produced by selecting and displaying projection views acquired at the same view angle in successive sinogram data sets.