Abstract: A property of an insurance policy may be determined, at least in part, upon characteristics of a vehicle collision detection system. The characteristics may pertain to any capability, configuration, and/or operating state of the collision detection system (and/or vehicle). For example, a property of the insurance policy may be based upon whether the collision detection system is configured to take automatic collision avoidance actions in response to detecting a potential collision and/or whether the automatic collision avoidance actions can be overridden by the operator of the vehicle. The property of the insurance policy may be dynamic, and may be updated in response to changes to the collision detection system and/or the real-time operating state thereof. The coverage of particular events may be based upon characteristics of the collision detection system and/or vehicle at the time the event occurred.

Abstract: A property of an insurance policy may be determined, at least in part, upon characteristics of a vehicle collision detection system. The characteristics may pertain to any capability, configuration, and/or operating state of the collision detection system (and/or vehicle). For example, a property of the insurance policy may be based upon whether the collision detection system is configured to take automatic collision avoidance actions in response to detecting a potential collision and/or whether the automatic collision avoidance actions can be overridden by the operator of the vehicle. The property of the insurance policy may be dynamic, and may be updated in response to changes to the collision detection system and/or the real-time operating state thereof. The coverage of particular events may be based upon characteristics of the collision detection system and/or vehicle at the time the event occurred.

Abstract: Methods, devices, and systems for controlling an implantable pulse generator for activation of a nerve or receptor are provided. In particular, the method, devices, and systems embodying features of the present invention control the energy output of a battery in an implantable pulse generator for stimulation of the baroreflex system of the patient.

Abstract: Methods, devices, and systems for controlling an implantable pulse generator for activation of a nerve or receptor are provided. In particular, the method, devices, and systems embodying features of the present invention control the energy output of a battery in an implantable pulse generator for stimulation of the baroreflex system of the patient.

Abstract: An electrode assembly having homogeneous noble metal or blended alloy nanostructures for enhancement of capacitive charge injection. Applications can include stimulation of the baroreflex, neural stimulation and cardiac stimulation. In one embodiment, a matrix of substantially elongate nanocylinders or nanotubes are configured to deliver electrical charge to a target tissue, conducting charge substantially along the elongate axes of the nanostructures. The configuration enhances the real or effective area of the electrode to promote capacitive charge injection, and entraps solution for more complete recovery of electro-generated species. Certain embodiments may be configured to apply a suction through the electrode for temporary placement of the electrode for mapping the response of the electrode vs. positioning.

Abstract: A device positionable on a vascular structure for stimulating the vascular structure to elicit a physiologic response. The device includes a base having generally opposed inner and outer surfaces and a hydrophilic material presented on at least a portion of the inner surface presenting a lubricious surface for selectively positioning the device on the vascular structure. The device further includes an electrode structure presented with the base to provide stimulation to the vascular structure, wherein the base and electrodes are configured to conform to at least a portion of the vascular structure to maintain an intimate vascular structure-electrode interface.

Abstract: Methods and apparatus for generating an electric field inside a patient include at least a first electrode and a second electrode on a common implantable substrate. Each of the electrodes has a respective proximal end and a respective distal end. Electrical energy can be applied that causes electrical current to flow simultaneously through the first and second electrodes preferentially from the proximal end of one electrode to the distal end of the other electrode.

Abstract: Methods and apparatus for generating an electric field inside a patient include at least a first electrode and a second electrode on a common implantable substrate. Each of the electrodes has a respective proximal end and a respective distal end. Electrical energy can be applied that causes electrical current to flow simultaneously through the first and second electrodes preferentially from the proximal end of one electrode to the distal end of the other electrode.

Abstract: The production of mass spectra of chemical compounds of high molecular weights having a multiplicity of peaks is improved by generating an enhanced mass spectrum from the observed mass-to-charge spectrum. The intensity at each point within the enhanced spectrum is based upon a plurality of successive discrete peaks within the mass-to-charge spectrum. The intensities of the sequence of mass-to-charge peaks are combined to form a normalized product which is the new enhanced intensity at an assumed molecular weight. The intensities of the mass-to-charge spectrum at each integral fraction of the assumed molecular weight are included in the product. Only those intensities above a certain predetermined threshold, however, are included to avoid transfer of noise into the enhanced spectrum. Signal-to-noise ratio can in some applications be improved by including in the product all portions within the discrete peaks in the mass-to-charge spectrum which are contained within a window around each of the discrete peaks.