mhurhangee/ep-ind-claims huggingface dataset:
A method for processing signals, the method comprising: selecting an input frequency range of operation at a voltage controlled oscillator based on a particular wireless band of operation in a system that handles a first wireless communication protocol and a second wireless communication protocol; generating an output signal for said particular wireless band of operation based on mixing; signals received from the voltage controlled oscillator and a first divider circuit using an image rejection mixer; and generating an in-phase and quadrature component of said generated output signal utilizing at least one quadrature network (330, 332); characterized by the step of communicating a first generated I component signal and a first generated Q component signal from said first divider circuit to said at least one image rejection mixer. selecting an input frequency range of operation at a voltage controlled oscillator based on a particular wireless band of operation in a system that handles a first wireless communication protocol and a second wireless communication protocol; generating an output signal for said particular wireless band of operation based on mixing; signals received from the voltage controlled oscillator and a first divider circuit using an image rejection mixer; and generating an in-phase and quadrature component of said generated output signal utilizing at least one quadrature network (330, 332);
Metering device for controlled receiving and/or delivery of a medium or several media, the device comprising one or more pump units and one or more control units, which have at least one signal input, having at least one sensor for detecting a user input and for converting the detected user input into one or more measured values, and one or more evaluation units for actuating the pump units on the basis of the measured value or values, the user input being a dynamic effect of a pressure change (Δp) brought about by a user, characterized in that the pressure change (Δp) is a change in the air pressure at the signal input.
A method for determining setting parameters for the running of a mechanical watch using an electronic device embedded in the mechanical watch, this electronic device comprising: - at least one measurement sensor designed to measure an environmental parameter from outside the mechanical watch, in particular the conditions in which the mechanical watch is used, to which the mechanical watch with the electronic device is subjected, and - a data transmission device designed to transmit the data provided by the measurement sensor to a device for receiving data from outside the mechanical watch, the method comprising, successively: - a step in which the value of the physical parameter to which the electronic device is subjected is periodically measured by the measuring sensor; - a step in which the data provided by the measurement sensor is transmitted to the data reception device; - a step in which the data transmitted to the data reception device is recorded and analysed to ascertain the conditions to which the electronic device is subjected, and - a step in which the setting parameters for the running of the mechanical watch are determined according to the conditions of use. - at least one measurement sensor designed to measure an environmental parameter from outside the mechanical watch, in particular the conditions in which the mechanical watch is used, to which the mechanical watch with the electronic device is subjected, and - a data transmission device designed to transmit the data provided by the measurement sensor to a device for receiving data from outside the mechanical watch, - a step in which the value of the physical parameter to which the electronic device is subjected is periodically measured by the measuring sensor; - a step in which the data provided by the measurement sensor is transmitted to the data reception device; - a step in which the data transmitted to the data reception device is recorded and analysed to ascertain the conditions to which the electronic device is subjected, and - a step in which the setting parameters for the running of the mechanical watch are determined according to the conditions of use.
An energy storage system having a charging cycle for providing thermal energy to a thermal storage, and a discharging cycle for generating electricity by retrieving the thermal energy from the thermal storage, the energy storage system comprising; a working fluid circuit for circulating a working fluid through a heat exchanger, a thermal storage medium circuit for circulating a thermal storage medium, the thermal storage medium circuit having at least one hot storage tank, one intermediate temperature storage tank and one cold storage tank connected together via the heat exchanger (16, 16a, 16b), and in the thermal storage medium circuit, means for dividing a stream of thermal storage medium, or for joining a stream of thermal storage medium from the intermediate temperature storage tank.
A control method for adjusting fuel injection of an aero compression combustion drive assembly to compensate for variances in cetane in the worldwide diesel/jet fuel stream, the aero compression combustion drive assembly having an engine member, a transmission member and a propeller member, the control method comprising: sensing a peak cylinder pressure (Pmax) and a pressure rise per crank angle (dP/dt) in at least one compression chamber of the engine member; providing Pmax and dP/dt to a control system device for comparison to a normal peak cylinder pressure (Pmax n) and a normal pressure rise per crank angle (dPn/dt); providing a plurality of control programs to the control system device; and implementing a control strategy in the engine member via the control system device based on the comparison of Pmax to Pmax n and the comparison of dP/dt to dPn/dt, wherein: if Pmax is greater than Pmax n and dP/dt is greater than dPn/dt, the control strategy advances timing of a fuel injection and increases a pulse width of the fuel injection in the at least one compression chamber of the engine member where Pmax and dP/dt is sensed, to compensate for a longer lag in ignition and higher peak cylinder pressure characteristic of low cetane fuel. sensing a peak cylinder pressure (Pmax) and a pressure rise per crank angle (dP/dt) in at least one compression chamber of the engine member; providing Pmax and dP/dt to a control system device for comparison to a normal peak cylinder pressure (Pmax n) and a normal pressure rise per crank angle (dPn/dt); providing a plurality of control programs to the control system device; and implementing a control strategy in the engine member via the control system device based on the comparison of Pmax to Pmax n and the comparison of dP/dt to dPn/dt, wherein: if Pmax is greater than Pmax n and dP/dt is greater than dPn/dt, the control strategy advances timing of a fuel injection and increases a pulse width of the fuel injection in the at least one compression chamber of the engine member where Pmax and dP/dt is sensed, to compensate for a longer lag in ignition and higher peak cylinder pressure characteristic of low cetane fuel.
An electric vehicle, comprising: a non-isolated direct current to direct current (DC-DC) booster that boosts a first voltage of a charging station to a second voltage of a battery of the electric vehicle; a first insulation monitoring device comprising an active symmetrization circuit, a resistor (428, 438); and a switch (432, 436) that closes or opens to enable or disable the resistor (428, 438), and a first contactor on a positive connection and a second contactor on a negative connection, wherein the first IMD is communicatively coupled to a second IMD of the charging station through the first contactor and the second contactor, and receives data indicative of a fourth voltage on a negative side of insulation resistance of the charging station from the second IMD, wherein the first IMD adjusts a third voltage on a negative side of insulation resistance of the electric vehicle to the fourth voltage by opening or closing the switch (432, 436), and wherein the first contactor and second contactor close after the third voltage matches the fourth voltage. a non-isolated direct current to direct current (DC-DC) booster that boosts a first voltage of a charging station to a second voltage of a battery of the electric vehicle; a first insulation monitoring device comprising an active symmetrization circuit, a resistor (428, 438); and a switch (432, 436) that closes or opens to enable or disable the resistor (428, 438), and a first contactor on a positive connection and a second contactor on a negative connection, wherein the first IMD is communicatively coupled to a second IMD of the charging station through the first contactor and the second contactor, and receives data indicative of a fourth voltage on a negative side of insulation resistance of the charging station from the second IMD, wherein the first IMD adjusts a third voltage on a negative side of insulation resistance of the electric vehicle to the fourth voltage by opening or closing the switch (432, 436), and wherein the first contactor and second contactor close after the third voltage matches the fourth voltage.
A system for creating pharmaceutical products by additive manufacturing, comprising: a material supply module for receiving a set of printing materials for creating the pharmaceutical products; a flow distribution module comprising a flow distribution plate, wherein the material supply module is configured to transport a single flow corresponding to the set of printing materials to the flow distribution plate; wherein the flow distribution plate comprises: a plurality of channels for dividing the single flow into a plurality of flows; a plurality of nozzles; and one or more controllers for controlling the plurality of nozzles to dispense the plurality of flows based on a plurality of nozzle-specific parameters to create the pharmaceutical products, characterized in that the one or more controllers are configured to control the temperature at the plurality of nozzles, such that a temperature at the plurality of nozzles is higher than a temperature at the flow distribution plate, and such that the set of printing materials for creating the pharmaceutical products is at a first temperature in the flow distribution plate and at a second temperature higher than the first temperature in the plurality of nozzles. a material supply module for receiving a set of printing materials for creating the pharmaceutical products; a flow distribution module comprising a flow distribution plate, wherein the material supply module is configured to transport a single flow corresponding to the set of printing materials to the flow distribution plate; wherein the flow distribution plate comprises: a plurality of channels for dividing the single flow into a plurality of flows; wherein the material supply module is configured to transport a single flow corresponding to the set of printing materials to the flow distribution plate; wherein the flow distribution plate comprises: a plurality of channels for dividing the single flow into a plurality of flows; a plurality of nozzles; and one or more controllers for controlling the plurality of nozzles to dispense the plurality of flows based on a plurality of nozzle-specific parameters to create the pharmaceutical products, characterized in that the one or more controllers are configured to control the temperature at the plurality of nozzles, such that a temperature at the plurality of nozzles is higher than a temperature at the flow distribution plate, and such that the set of printing materials for creating the pharmaceutical products is at a first temperature in the flow distribution plate and at a second temperature higher than the first temperature in the plurality of nozzles. such that a temperature at the plurality of nozzles is higher than a temperature at the flow distribution plate, and such that the set of printing materials for creating the pharmaceutical products is at a first temperature in the flow distribution plate and at a second temperature higher than the first temperature in the plurality of nozzles.
A remotely operated vehicle deployed buoy system, comprising: a. a remotely operated vehicle cage; b. a buoy container pivotally connected to the ROV cage; c. a surface buoy selectively releasably disposed at least partially within the buoy container; d. an electrical power generator disposed at least partially within the surface buoy;and e. an umbilical comprising an electrical power pathway operatively disposed intermediate the surface buoy and the ROV cage, a first connector operatively in communication with the electrical power generator and the electrical power pathway, and a second connector adapted to be connected to an ROV and to provide electrical power to the ROV from the electrical power generator, the second connector operatively in communication with the electrical power generator and the electrical power pathway. a. a remotely operated vehicle cage; b. a buoy container pivotally connected to the ROV cage; c. a surface buoy selectively releasably disposed at least partially within the buoy container; d. an electrical power generator disposed at least partially within the surface buoy;and e. an umbilical comprising an electrical power pathway operatively disposed intermediate the surface buoy and the ROV cage, a first connector operatively in communication with the electrical power generator and the electrical power pathway, and a second connector adapted to be connected to an ROV and to provide electrical power to the ROV from the electrical power generator, the second connector operatively in communication with the electrical power generator and the electrical power pathway.
A suture comprising: a. a suture having a first end and second end and a length therebetween; b. a termination feature at the second end; and c. a plurality of retainers formed on the surface of said length of suture; characterised in that said termination feature comprises a coiled portion of said suture that has been subjected to an exertion of energy to weld the coiled portion into a stable anchor for said suture. a. a suture having a first end and second end and a length therebetween; b. a termination feature at the second end; and c. a plurality of retainers formed on the surface of said length of suture;
A method of aligning light emitting elements between a first electrode and a second electrode, comprising: applying a ground voltage to a first electrode and applying a first AC voltage to a second electrode spaced apart from the first electrode; and then applying a ground voltage to the first electrode and applying a second AC voltage to the second electrode, wherein the first AC voltage has an asymmetric waveform and the second AC voltage has a symmetric waveform. applying a ground voltage to a first electrode and applying a first AC voltage to a second electrode spaced apart from the first electrode; and then applying a ground voltage to the first electrode and applying a second AC voltage to the second electrode, wherein the first AC voltage has an asymmetric waveform and the second AC voltage has a symmetric waveform.
A therapy wrap (800a, 800b) comprising: a fluid bladder including an inlet, an outlet, and at least one fluidic channel connecting the inlet to the outlet, the fluid bladder having a first side adapted to contact a body part of a patient, the at least one fluidic channel comprising an inlet portion that is adjacent to the inlet, an outlet portion that is adjacent the outlet and an intermediate portion between the inlet portion and the outlet portion; and a thermal insulating member on the first side of the fluid bladder extending from a position directly adjacent the inlet along the inlet portion of the at least one fluidic channel, wherein the thermal insulating member does not cover the outlet portion. a fluid bladder including an inlet, an outlet, and at least one fluidic channel connecting the inlet to the outlet, the fluid bladder having a first side adapted to contact a body part of a patient, the at least one fluidic channel comprising an inlet portion that is adjacent to the inlet, an outlet portion that is adjacent the outlet and an intermediate portion between the inlet portion and the outlet portion; and a thermal insulating member on the first side of the fluid bladder extending from a position directly adjacent the inlet along the inlet portion of the at least one fluidic channel, wherein the thermal insulating member does not cover the outlet portion.
A sizing catheter including: a handle assembly; a catheter (34, 134) extending from the handle assembly; a distal sizer (40, 140) positioned on a distal end of the catheter (34, 134), wherein the distal sizer (40, 140) is configured to conform to a first portion of a lumen of a patient's anatomy; and a proximal sizer (38, 138) positioned on the catheter (34, 134) and adjustably spaced from the distal sizer (40, 140), wherein the proximal sizer (38, 138) is configured to conform to a second portion of the lumen; wherein the distal and proximal sizers (38, 40, 138, 140) are configured to determine first and second dimensions of the lumen at a selected distance between the distal and proximal sizers (38, 40, 138, 140). a handle assembly; a catheter (34, 134) extending from the handle assembly; a distal sizer (40, 140) positioned on a distal end of the catheter (34, 134), wherein the distal sizer (40, 140) is configured to conform to a first portion of a lumen of a patient's anatomy; and a proximal sizer (38, 138) positioned on the catheter (34, 134) and adjustably spaced from the distal sizer (40, 140), wherein the proximal sizer (38, 138) is configured to conform to a second portion of the lumen; wherein the distal and proximal sizers (38, 40, 138, 140) are configured to determine first and second dimensions of the lumen at a selected distance between the distal and proximal sizers (38, 40, 138, 140).
Method for the interference-compensated determination of the material application or material removal during a wet chemical surface treatment of a workpiece in a process solution by means of a sensor device, which comprises a surface treatment sensor having a sensor rod, which is excited to vibrate in a controlled manner in a longitudinal natural vibration mode, and having a test specimen detachably connected to an end region of the sensor rod immersed in the process solution, on which a surface treatment is carried out in the same manner as to the workpiece, wherein a frequency shift of the longitudinal natural vibration mode of the sensor rod, which occurs during the surface treatment, is detected and from the frequency shift the dimension of the test specimen, which changes during the surface treatment due to deposition or removal, is determined, wherein by means of an interference-influence sensor device frequency shifts, which are caused by temporal temperature gradients in the process solution as interference variables, are detected in addition to the frequency shift caused by the dimensional change, characterised in that - the sensor rod is immersed into the process solution parallel to the workpiece to be treated, - by means of the interference-influence sensor device the frequency shifts, which are caused by further interference variables, comprising gas bubbles in the process solution, are additionally detected, and - in real time the frequency shift is corrected for the influence of the interference variables, by subtracting one portion caused by the interference variables from the frequency shift, before the change in dimension is determined from the corrected frequency shift. - the sensor rod is immersed into the process solution parallel to the workpiece to be treated, - by means of the interference-influence sensor device the frequency shifts, which are caused by further interference variables, comprising gas bubbles in the process solution, are additionally detected, and - in real time the frequency shift is corrected for the influence of the interference variables, by subtracting one portion caused by the interference variables from the frequency shift, before the change in dimension is determined from the corrected frequency shift.
A charging control apparatus for judging conformity of a charging cable to standards, the charging cable having a power feed unit (C1, C2, C3, C5) for supplying power to a vehicle from an external power supply provided outside the vehicle and a control unit for generating a control signal and outputting the control signal to the vehicle, the charging control apparatus comprising: a control signal detection section that detects the control signal; a power detection section that detects the power; and a judgment section that judges conformity of the charging cable to SAE standards on the basis of the control signal detected by the control signal detection section and the power detected by the power detection section after the charging cable is connected to a charging inlet of the vehicle until a main switch (E5, E6) of a power feed line on the vehicle side is switched ON. a control signal detection section that detects the control signal; a power detection section that detects the power; and a judgment section that judges conformity of the charging cable to SAE standards on the basis of the control signal detected by the control signal detection section and the power detected by the power detection section after the charging cable is connected to a charging inlet of the vehicle until a main switch (E5, E6) of a power feed line on the vehicle side is switched ON.
A method of operating a media gateway supporting location based services, the method comprising: receiving, from a mobile device of a user, topological information identifying one or more electronic devices in a premise environment; receiving, from the mobile device for transmission to a server, a message identifying content for delivery by the server to the mobile device; receiving, from the server, the content identified in the message; determining whether the received content contains information identifying user selectable media content; modifying the content received from the server to cause display at the mobile device of one or more graphical objects representing electronic devices in the premise environment capable of reproducing the selectable media content; transmitting the modified content to the mobile device for display; receiving, from the mobile device, an indication of user selection of a graphical object representing one of the one or more electronic devices capable of reproducing the media content; sending to the server a request for delivery of the media content to the media gateway; and directing received media content to the one of the one or more electronic devices corresponding to the selected graphical object. receiving, from a mobile device of a user, topological information identifying one or more electronic devices in a premise environment; receiving, from the mobile device for transmission to a server, a message identifying content for delivery by the server to the mobile device; receiving, from the server, the content identified in the message; determining whether the received content contains information identifying user selectable media content; modifying the content received from the server to cause display at the mobile device of one or more graphical objects representing electronic devices in the premise environment capable of reproducing the selectable media content; transmitting the modified content to the mobile device for display; receiving, from the mobile device, an indication of user selection of a graphical object representing one of the one or more electronic devices capable of reproducing the media content; sending to the server a request for delivery of the media content to the media gateway; and directing received media content to the one of the one or more electronic devices corresponding to the selected graphical object.