mhurhangee/ep-ind-claims huggingface dataset:
An electric assist system usable for an electric assist vehicle including a pedal, the electric assist system comprising: a crankshaft rotatable by human power of a rider applied to the pedal; a torque sensor outputting a torque signal in accordance with a magnitude of a torque generated at the crankshaft; an electric motor generating assist power assisting the human power of the rider; an acceleration sensor outputting an acceleration signal in accordance with a current acceleration in a travel direction (x) of the electric assist vehicle; and a control device receiving the torque signal and the acceleration signal and determining a magnitude of the assist power to be generated by the electric motor, wherein the control device calculates a target acceleration from the torque signal based on a rule prepared in advance, and determines the magnitude of the assist power to be generated by the electric motor such that a deviation between the target acceleration and the current acceleration is decreased, characterized in that, during a time period in which the rider rotates the pedal to make one rotation of the crankshaft, the torque sensor and the acceleration sensor respectively output a torque signal and an acceleration signal continuously, and the control device determines the magnitude of the assist power to be generated by the electric motor temporally continuously. a crankshaft rotatable by human power of a rider applied to the pedal; a torque sensor outputting a torque signal in accordance with a magnitude of a torque generated at the crankshaft; an electric motor generating assist power assisting the human power of the rider; an acceleration sensor outputting an acceleration signal in accordance with a current acceleration in a travel direction (x) of the electric assist vehicle; and a control device receiving the torque signal and the acceleration signal and determining a magnitude of the assist power to be generated by the electric motor, wherein the control device calculates a target acceleration from the torque signal based on a rule prepared in advance, and determines the magnitude of the assist power to be generated by the electric motor such that a deviation between the target acceleration and the current acceleration is decreased, characterized in that, during a time period in which the rider rotates the pedal to make one rotation of the crankshaft, the torque sensor and the acceleration sensor respectively output a torque signal and an acceleration signal continuously, and the control device determines the magnitude of the assist power to be generated by the electric motor temporally continuously.
A method for regulating power, the method comprising: detecting within a network adapter chip a change in a network activity level of an Ethernet link that couples said network adapter chip to a network; waiting a delay period having a duration selected to filter out periods of spurious activity or inactivity of the Ethernet link; performing a verification within said network adapter chip, that the network activity level at or after an end of the delay period is the same as at the time of detecting the change in the network activity level; and upon verification being successful, adjusting within said network adapter chip, power supplied to said network adapter chip; the method being characterized in that it further comprises resetting said network adapter chip when said power is supplied to said network adapter chip when it is in a reduced power state, thereby bringing the network adapter chip to a known active state. detecting within a network adapter chip a change in a network activity level of an Ethernet link that couples said network adapter chip to a network; waiting a delay period having a duration selected to filter out periods of spurious activity or inactivity of the Ethernet link; performing a verification within said network adapter chip, that the network activity level at or after an end of the delay period is the same as at the time of detecting the change in the network activity level; and upon verification being successful, adjusting within said network adapter chip, power supplied to said network adapter chip; the method being characterized in that it further comprises resetting said network adapter chip when said power is supplied to said network adapter chip when it is in a reduced power state, thereby bringing the network adapter chip to a known active state.
Cutting machine for cutting a glass sheet, the machine comprising: - at least one support table (15, 16) for resting the sheet to be cut, - incision means for making at least one incision line on the sheet; and - at least one thrust bridge (23,24) for thrusting the sheet against the support table (15,16); said thrust bridge (23,24) comprising a rigid cross member (25,26) facing said support table, and at least one flexible hollow body integrally connected to said rigid cross member (25,26) and delimiting at least one sealed chamber that can be pressurized by a pressurized fluid and extends for the entire length of said rigid cross member (25,26); characterized in that said flexible hollow body is stably connected to a wall of said thrust bridge (23,24) and in a position facing said support table (15,16) so as to generate a thrust directly on said sheet. - at least one support table (15, 16) for resting the sheet to be cut, - incision means for making at least one incision line on the sheet; and - at least one thrust bridge (23,24) for thrusting the sheet against the support table (15,16); said thrust bridge (23,24) comprising a rigid cross member (25,26) facing said support table, and at least one flexible hollow body integrally connected to said rigid cross member (25,26) and delimiting at least one sealed chamber that can be pressurized by a pressurized fluid and extends for the entire length of said rigid cross member (25,26);
An apparatus comprising: an electrode configured to be coupled to a body of a user (240; 720; 820) and configured to receive a first signal through the body when the electrode is coupled to the body, the first signal based on an environmental electromagnetic interference signal emitted by an electronic device (210; 710; 810) that is external to the apparatus, the apparatus being configured to directly communicate with the electronic device over a communication channel; a memory storing at least one instruction; and one or more processors configured to execute the at least one instruction stored in the memory, wherein the one or more processors are further configured to execute the at least one instruction to: detect a frequency of the first signal; compare the detected frequency to one or more frequencies of an electromagnetic interference signal characteristic of the electronic device (210; 710; 810); determine an interaction between the user and the electronic device based on the comparison; and transmit over the communication channel a second signal to the electronic device to provide functionality at the electronic device based on the determined interaction. an electrode configured to be coupled to a body of a user (240; 720; 820) and configured to receive a first signal through the body when the electrode is coupled to the body, the first signal based on an environmental electromagnetic interference signal emitted by an electronic device (210; 710; 810) that is external to the apparatus, the apparatus being configured to directly communicate with the electronic device over a communication channel; a memory storing at least one instruction; and one or more processors configured to execute the at least one instruction stored in the memory, wherein the one or more processors are further configured to execute the at least one instruction to: detect a frequency of the first signal; compare the detected frequency to one or more frequencies of an electromagnetic interference signal characteristic of the electronic device (210; 710; 810); determine an interaction between the user and the electronic device based on the comparison; and transmit over the communication channel a second signal to the electronic device to provide functionality at the electronic device based on the determined interaction. detect a frequency of the first signal; compare the detected frequency to one or more frequencies of an electromagnetic interference signal characteristic of the electronic device (210; 710; 810); determine an interaction between the user and the electronic device based on the comparison; and transmit over the communication channel a second signal to the electronic device to provide functionality at the electronic device based on the determined interaction.
A method of drilling a part, in particular a turbine engine part, by means of a pulse laser generator comprising a cavity in which there is mounted a solid laser pulse generator bar, the method comprising a step consisting in determining the values of a plurality of operating parameters of the laser generator for forming orifices of predetermined diameter in the part, and the method being characterized in that it consists in determining a setpoint value for the cavity temperature of the laser generator as a function of characteristics of the orifices to be made and/or of the material of the part to be drilled, and in servo-controlling the cavity temperature to this setpoint value while drilling the orifices.
An apparatus for generating images, comprising: an imaging apparatus configured to generate illumination; and a sample stage configured to hold a sample to be illuminated by the illumination, the sample stage configured to move the sample to a plurality of positions during the imaging process; the apparatus characterized by further comprising a vibration mechanism coupled with the sample stage, the vibration mechanism configured to vibrate the stage after the stage moves the sample for a vibration period. an imaging apparatus configured to generate illumination; and a sample stage configured to hold a sample to be illuminated by the illumination, the sample stage configured to move the sample to a plurality of positions during the imaging process; the apparatus characterized by further comprising a vibration mechanism coupled with the sample stage, the vibration mechanism configured to vibrate the stage after the stage moves the sample for a vibration period.
A membrane separation method, comprising: a) loading a fluid containing a retention component and a permeation component at a separation side of a separation membrane; b) exerting a driving force on the fluid to allow at least part of permeation component passing through the separation membrane and arriving at a permeation side of the separation membrane, thereby a retention component-enriched concentration polarization layer is formed at the separation side of said separation membrane; and c) removing at least part of the concentration polarization layer from the separation side by using a drawer with a hollow structure having a plurality of openings forming a section with openings of the hollow structure which substantially matches with the surface of the specific separation membrane, the at least one opening being positioned inside the concentration polarization layer and allowing at least a part of the concentration polarization layer to pass through said opening to obtain concentrated retention components; wherein the driving force is produced by a pressure difference and the driving force produced by the pressure difference generates a transmembrane pressure ranging from 0.005MPa to 10MPa, preferably from 0.01MPa to 4MPa; and the concentration polarization layer is removed by an intermittent drawing operation manner, wherein when the transmembrane pressure or the permeation flux or thickness of the concentration polarization layer reaches a first predetermined value, the drawing of the concentration polarization layer is initiated; when the transmembrane pressure or the permeation flux or thickness of the concentration polarization layer reaches a second predetermined value, the drawing operation stops; and these two steps are performed repeatedly. a) loading a fluid containing a retention component and a permeation component at a separation side of a separation membrane; b) exerting a driving force on the fluid to allow at least part of permeation component passing through the separation membrane and arriving at a permeation side of the separation membrane, thereby a retention component-enriched concentration polarization layer is formed at the separation side of said separation membrane; and c) removing at least part of the concentration polarization layer from the separation side by using a drawer with a hollow structure having a plurality of openings forming a section with openings of the hollow structure which substantially matches with the surface of the specific separation membrane, the at least one opening being positioned inside the concentration polarization layer and allowing at least a part of the concentration polarization layer to pass through said opening to obtain concentrated retention components;
Device for generating a liquid film of a liquid medium in a film bag, with - two accumulating surfaces (5, 7) spaced apart by an accumulating distance, between which the film bag can be arranged and transported along a transport direction, - a braking element arranged downstream of the accumulating surfaces (5, 7) in the transport direction, which braking element is arranged to brake the film bag, and with - a running surface which is convexly curved in the transport direction and is set up and arranged in such a way that the film bag braked by the braking element can be spanned on the running surface behind the braking element, wherein - at least a first accumulating surface of the two accumulating surfaces (5, 7) is formed at least in regions by a driven first conveyor belt which is set up to convey the film bag in the transport direction, wherein - the device has, downstream of the braking element in the transport direction, a controllable tensioning element which is set up to span the film bag on the running surface between the braking element and the tensioning element, and wherein - the first conveyor belt or a belt drive for the first conveyor belt can be controlled independently of the controllable tensioning element. - two accumulating surfaces (5, 7) spaced apart by an accumulating distance, between which the film bag can be arranged and transported along a transport direction, - a braking element arranged downstream of the accumulating surfaces (5, 7) in the transport direction, which braking element is arranged to brake the film bag, and with - a running surface which is convexly curved in the transport direction and is set up and arranged in such a way that the film bag braked by the braking element can be spanned on the running surface behind the braking element, wherein - at least a first accumulating surface of the two accumulating surfaces (5, 7) is formed at least in regions by a driven first conveyor belt which is set up to convey the film bag in the transport direction, wherein - the device has, downstream of the braking element in the transport direction, a controllable tensioning element which is set up to span the film bag on the running surface between the braking element and the tensioning element, and wherein - the first conveyor belt or a belt drive for the first conveyor belt can be controlled independently of the controllable tensioning element.
A biomolecule analyzer comprising: a first buffer solution tank; a second buffer solution tank that is disposed above the first buffer solution tank; a separation unit in which a separation medium is stored, having a first opening that opens within the first buffer solution tank and a second opening that opens within the second buffer solution tank, and standing up in a substantially vertical direction; an arm part that retains a transfer membrane disposed at a position opposing the first opening; wherein the arm part is connected with a drive unit, characterized in that the drive unit is under the first buffer solution tank, and the arm part passes along outer sides of side walls of the first buffer solution tank, wraps around upper ends of the side walls, and links at inner sides of the side walls. a first buffer solution tank; a second buffer solution tank that is disposed above the first buffer solution tank; a separation unit in which a separation medium is stored, having a first opening that opens within the first buffer solution tank and a second opening that opens within the second buffer solution tank, and standing up in a substantially vertical direction; an arm part that retains a transfer membrane disposed at a position opposing the first opening; wherein the arm part is connected with a drive unit, characterized in that the drive unit is under the first buffer solution tank, and the arm part passes along outer sides of side walls of the first buffer solution tank, wraps around upper ends of the side walls, and links at inner sides of the side walls.
A plasma applicator, comprising: a plasma discharge tube in which plasma can be generated, the plasma discharge tube having a process gas inlet for allowing a plasma process gas to enter the plasma discharge tube, the plasma discharge tube having a longitudinal axis; a microwave cavity at least partially surrounding a portion of the plasma discharge tube; and a coupling iris at which microwave energy can be coupled to the microwave cavity such that the microwave energy can generate a plasma in the portion of the plasma discharge tube; wherein the microwave cavity has three orthogonal dimensions including a length, a width and a height, at least two of the orthogonal dimensions being selected such that the microwave energy in the microwave cavity propagates in a transverse electric mode, the dimensions of the microwave cavity being such that primary electric fields are generated in the microwave cavity that are connected by a partial field, and wherein the coupling iris is positioned laterally opposite to the partial field of the microwave energy such that the primary electric fields generated from the microwave energy combine with an evanescent electric field generated from the coupling iris to form a combined electric field in the microwave cavity that is substantially uniform along the longitudinal axis of the plasma discharge tube. a plasma discharge tube in which plasma can be generated, the plasma discharge tube having a process gas inlet for allowing a plasma process gas to enter the plasma discharge tube, the plasma discharge tube having a longitudinal axis; a microwave cavity at least partially surrounding a portion of the plasma discharge tube; and a coupling iris at which microwave energy can be coupled to the microwave cavity such that the microwave energy can generate a plasma in the portion of the plasma discharge tube; the microwave cavity has three orthogonal dimensions including a length, a width and a height, at least two of the orthogonal dimensions being selected such that the microwave energy in the microwave cavity propagates in a transverse electric mode, the dimensions of the microwave cavity being such that primary electric fields are generated in the microwave cavity that are connected by a partial field, and wherein the coupling iris is positioned laterally opposite to the partial field of the microwave energy such that the primary electric fields generated from the microwave energy combine with an evanescent electric field generated from the coupling iris to form a combined electric field in the microwave cavity that is substantially uniform along the longitudinal axis of the plasma discharge tube.
A fuel cell layer of a multi-layer fuel cell, comprising: a cathode; an anode; an electrolyte disposed between the anode and the cathode; a support layer disposed at the anode opposite the electrolyte; a separator plate disposed at the support layer opposite the anode, the separator plate configured to contact the cathode of an adjacent fuel cell layer, the separator plate defining a plurality of anode flow channels configured to deliver a fuel therethrough and a plurality of cathode flow channels configured to deliver an air flow therethrough; wherein the separator plate is formed from a bulk metallic glass material and characterized in that the anode flow channels and the cathode flow channels at least partially overlap along a stacking axis direction of the multilayer fuel cell. a cathode; an anode; an electrolyte disposed between the anode and the cathode; a support layer disposed at the anode opposite the electrolyte; a separator plate disposed at the support layer opposite the anode, the separator plate configured to contact the cathode of an adjacent fuel cell layer, the separator plate defining a plurality of anode flow channels configured to deliver a fuel therethrough and a plurality of cathode flow channels configured to deliver an air flow therethrough; wherein the separator plate is formed from a bulk metallic glass material and characterized in that the anode flow channels and the cathode flow channels at least partially overlap along a stacking axis direction of the multilayer fuel cell.
A method implemented in a mobile network and comprising: defining network slices as a function of user equipment, UE, types, wherein UEs in a mobile network are associated with said network slices according to said UE types; defining network slice specific tracking areas as groups of one or more mobile base stations according to said network slices; receiving a signal from a given UE from among said UEs at a receiving mobile base station from among said one or more mobile base stations; and paging said given UE in a network slice specific tracking area from among said network slice specific tracking areas, wherein said receiving mobile base station is in said network slice specific tracking area, and said given UE is associated with said network slice specific tracking area according to an associated UE type from among said UE types. defining network slices as a function of user equipment, UE, types, wherein UEs in a mobile network are associated with said network slices according to said UE types; defining network slice specific tracking areas as groups of one or more mobile base stations according to said network slices; receiving a signal from a given UE from among said UEs at a receiving mobile base station from among said one or more mobile base stations; and paging said given UE in a network slice specific tracking area from among said network slice specific tracking areas, wherein said receiving mobile base station is in said network slice specific tracking area, and said given UE is associated with said network slice specific tracking area according to an associated UE type from among said UE types.