An apparatus for powering an implant for a human patient comprising an implantable energy source for providing energy to the implant. The apparatus comprises an energy provider connected to the implantable energy source and connected to an energy consuming part of the implant, the energy provider being configured to store energy to provide a burst of energy to the energy consuming part. The energy provider is configured to be charged by the implantable energy source and to provide the energy consuming part with electrical power at least during startup of the energy consuming part.

An implant for implanting in a patient comprising a controller connected to or comprised in the implant. The controller comprising a sensor; and a processor having a sleep mode and an active mode. The sensor is configured to measure a physiological parameter of the patient or a parameter of the implant, and the controller is further configured to, in response to a sensor measurement having a value outside of a predetermined interval, set the processor in the active mode.

A computing device includes signal generation circuitry and also includes a location on the computing device that is operative to couple a signal generated by the signal generation circuitry into a user. For example, the computing device includes signal generation circuitry that generates a signal that includes information corresponding to a user and/or an application that is operative within the computing device. The signal generation circuitry couples the signal into the user from a location on the computing device based on a bodily portion of the user being in contact with or within sufficient proximity to the location on the computing device that facilitates coupling of the signal into the user. Also, the signal may be coupled via the user to another computing device that includes a touchscreen display that is operative to detect and receive the signal.

The present disclosure relates to a method of communicating instructions from an external device to an implant implanted in a patient. The present disclosure further relates to an associated implant, a computer program product and a system. The method comprising combining a first set of instructions with a previously transmitted set of instructions, forming a first combined set of instructions, transmitting the first combined set of instructions to the implant, verifying the authenticity of the first combined set of instructions by extracting the previously transmitted set of instructions from the first combined set of instructions, comparing the extracted previously transmitted set of instructions with previously received instructions stored in the implant, and running the first set of instructions at the implant and storing at least the first set of instructions in the implant, to be used as previously received instructions for verifying a subsequent received set of instructions.

A method for updating a control program of an internal computing unit comprised in an implant. The implant is adapted for communication with a first external device and a second external device. The method comprising: receiving, by the internal computing unit, an update, configuration or instruction to the control program from the first external device, wherein the update, configuration or instruction is received using a first communication channel. The method further comprises installing, by the internal computing unit, the update configuration or instruction; and transmitting, by the internal computing unit, logging data relating to the receipt of the update or configuration and/or logging data relating to an installation of the update to the second external device using the second communication channel. The first and the second communication channels are different communication channels.

A system and method for transmitting data ultrasonically through biological tissue employs a network of a plurality of nodes, at least a portion of the nodes implantable within the biological tissue. At least one implanted node includes a transmitter having an orthogonal frequency division multiplex signal generator to encode an ultrasonic signal for transmission through the biological tissue to an ultrasonic receiver at another node.

An apparatus that includes a partial power source including a first material and a second material, the partial power source configured to generate, upon contact with a conducting medium, a potential difference between the first material and the second material to provide power to a control device, and generate, using the first material and the second material, a current flow within the conducting medium, the current flow including information encoded based on a variable conductance between the first material and the second material.

A computing device includes signal generation circuitry and also includes a location on the computing device that is operative to couple a signal generated by the signal generation circuitry into a user. For example, the computing device includes signal generation circuitry that generates a signal that includes information corresponding to a user and/or an application that is operative within the computing device. The signal generation circuitry couples the signal into the user from a location on the computing device based on a bodily portion of the user being in contact with or within sufficient proximity to the location on the computing device that facilitates coupling of the signal into the user. Also, the signal may be coupled via the user to another computing device that includes a touchscreen display that is operative to detect and receive the signal.

Disclosed are a human body communication receiver and an operating method thereof, which may effectively remove low frequency noise. The human body communication receiver according to the present disclosure includes a receiving electrode, a virtual electrode, a filter circuit that is connected between the receiving electrode and the virtual electrode, and removes low frequency noise from a signal received through the receiving electrode to generate a high frequency signal, a low frequency reconstruction circuit that is connected to a rear end of the filter circuit and reconstructs a low frequency baseband signal by rectifying the high frequency signal, and an amplifying circuit that is connected to a rear end of the low frequency reconstruction circuit, and amplifies the low frequency baseband signal.

A communication interference rejection system, comprising a dual data rate (DDR) receiver operatively connected to a device connected to a body of a user. The DDR receiver is configured to receive a signal transmitted through the body of the user, with the signal comprising a relatively substantially small constant amplitude component and a relatively large sinusoidal or modulated interference component, said interference component due to human body antenna effect. The receiver integrates the signal and sample at a sampling time, with the sampling time defined as T.sub.s=n/F.sub.interference, wherein F.sub.interference is the frequency of the modulated interference component and n is an integer.