mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor device (20;20';20";20"') having a super junction structure, comprising: a plurality of first epitaxial layers stacked on a substrate, wherein the plurality of first epitaxial layers and the substrate have a first conductivity type, each of first epitaxial layer comprises at least one first doping region and at least one second doping region adjacent thereto, the first doping region has a second conductivity, and the second doping region has the first conductivity type; a second epitaxial layer disposed on the plurality of first epitaxial layers, having the first conductivity type, wherein the second epitaxial layer has a trench therein to expose the first doping region thereunder; a third doping region (212;212';212";212"') adjacent to a sidewall of the trench, having the second conductivity type, wherein the second epitaxial layer and the first, second and third doping regions (204a;204b; 212;212';212";212"') have a doping concentration greater than that of each first epitaxial layer; and a gate structure (228;230) disposed on the second epitaxial layer above the second doping region. a plurality of first epitaxial layers stacked on a substrate, wherein the plurality of first epitaxial layers and the substrate have a first conductivity type, each of first epitaxial layer comprises at least one first doping region and at least one second doping region adjacent thereto, the first doping region has a second conductivity, and the second doping region has the first conductivity type; a second epitaxial layer disposed on the plurality of first epitaxial layers, having the first conductivity type, wherein the second epitaxial layer has a trench therein to expose the first doping region thereunder; a third doping region (212;212';212";212"') adjacent to a sidewall of the trench, having the second conductivity type, wherein the second epitaxial layer and the first, second and third doping regions (204a;204b; 212;212';212";212"') have a doping concentration greater than that of each first epitaxial layer; and a gate structure (228;230) disposed on the second epitaxial layer above the second doping region.
A gateway device adapted to receive health related parameter measurements obtained by a measuring unit for obtaining measurements of the health related parameters of a patient and transmitted via a patient identification device separately and contemporaneously with a patient identification code, the gateway device comprising: a body-coupled communication unit adapted to receive the patient's measurement contemporaneously with the patient identification code of the patient using near-field body communication based on capacitive coupling when the patient closely approaches or touches the gateway device, the measurement and the patient identification code being sent separately, wherein the gateway device is configured to associate the measurement with the patient identification code. a body-coupled communication unit adapted to receive the patient's measurement contemporaneously with the patient identification code of the patient using near-field body communication based on capacitive coupling when the patient closely approaches or touches the gateway device, the measurement and the patient identification code being sent separately, wherein the gateway device is configured to associate the measurement with the patient identification code.
A motorized saw comprising: a work support surface; a cutting blade pivotably supported above the work support surface and defining a cutting plane extending through a center portion of the cutting blade; a light source configured to generate a beam of light; a first reflector aligned with a first path in which a first portion of the beam of light travels and configured to move along a first axis perpendicular to the cutting plane while remaining aligned with the first path; a second reflector aligned with a second path in which a second portion of the beam of light travels; a first carriage supporting the first reflector, the first carriage configured to move the first reflector along the first path; characterized by: the second reflector being configured to move along the first axis while remaining aligned with the second path; and a second carriage supporting the second reflector, the second carriage configured to move the second reflector along the second path. a work support surface; a cutting blade pivotably supported above the work support surface and defining a cutting plane extending through a center portion of the cutting blade; a light source configured to generate a beam of light; a first reflector aligned with a first path in which a first portion of the beam of light travels and configured to move along a first axis perpendicular to the cutting plane while remaining aligned with the first path; a second reflector aligned with a second path in which a second portion of the beam of light travels; a first carriage supporting the first reflector, the first carriage configured to move the first reflector along the first path; the second reflector being configured to move along the first axis while remaining aligned with the second path; and a second carriage supporting the second reflector, the second carriage configured to move the second reflector along the second path.
Method for releasing a restraint device for a rider on a vehicle, in particular a two-wheeled or three-wheeled vehicle, - the restraint device having a connecting element, the rider and the vehicle being releasably connected to one another by means of the connecting element, - comprising the determination of an inclination angle and/or a pitch angle of the vehicle, characterized by - determination of a respective rotation rate (13, 14, 16) around a vehicle longitudinal axis and/or a vehicle transverse axis, - comparison of each determined rotation rate (13, 14, 16) with an associated critical rotation rate (9, 10, 12) dependent on the inclination angle and/or the pitch angle, - release of the connecting element if the determined rotation rate (13, 14, 16) and the associated critical rotation rate (9, 10, 12) are the same, and - transmission of an emergency signal containing an item of information or switching-on of at least one warning device, which is arranged on the vehicle and is perceptible to other road users, if the determined rotation rate (13, 14, 16) and the critical rotation rate (9, 10, 12) are the same or the determined rotation rate (13, 14, 16) is greater than the critical rotation rate (9, 10, 12). - the restraint device having a connecting element, - comprising the determination of an inclination angle and/or a pitch angle of the vehicle, - determination of a respective rotation rate (13, 14, 16) around a vehicle longitudinal axis and/or a vehicle transverse axis, - comparison of each determined rotation rate (13, 14, 16) with an associated critical rotation rate (9, 10, 12) dependent on the inclination angle and/or the pitch angle, - release of the connecting element if the determined rotation rate (13, 14, 16) and the associated critical rotation rate (9, 10, 12) are the same, and - transmission of an emergency signal containing an item of information or switching-on of at least one warning device, which is arranged on the vehicle and is perceptible to other road users, if the determined rotation rate (13, 14, 16) and the critical rotation rate (9, 10, 12) are the same or the determined rotation rate (13, 14, 16) is greater than the critical rotation rate (9, 10, 12).
A method to forward selected packets based upon packet flows within a network communication system, comprising: receiving, at an input packet buffer, input packets associated with packet flows within a network communication system; generating, by a hash generator, hash values for the input packets based upon fields within the input packets, the fields identifying packet flows for the input packets, wherein all packets in a given flow have the same hash value; receiving, by a packet processor, the hash values from the hash generator; selecting, by the packet processor, packets from the input packets, the selecting being based upon a comparison of the hash values to a mask, the mask determining a subset of the packet flows; forwarding, by the packet processor, said selected packets for further processing; and discarding, by the packet processor, non-selected packets. receiving, at an input packet buffer, input packets associated with packet flows within a network communication system; generating, by a hash generator, hash values for the input packets based upon fields within the input packets, the fields identifying packet flows for the input packets, wherein all packets in a given flow have the same hash value; receiving, by a packet processor, the hash values from the hash generator; selecting, by the packet processor, packets from the input packets, the selecting being based upon a comparison of the hash values to a mask, the mask determining a subset of the packet flows; forwarding, by the packet processor, said selected packets for further processing; and discarding, by the packet processor, non-selected packets.
An energy supply device for a battery management system of a battery system, in particular of a rechargeable lithium battery system, wherein the energy supply device comprises a preservation device for preserving an energy supply for the battery management system, wherein the preservation device comprises a control means for controlling, and the preservation device is connectable to the battery management system via the control means such that a preservation and an interruption of the energy supply by the battery management system can be actively carried out, characterized in that an activation device is provided for the pulse-like initiation of the energy supply of the battery management system, wherein the activation device has a timer in order to interrupt the pulse-like initiation of the energy supply after a predetermined time.
Process for storage and delivery of a gas, within a storage and delivery system comprised of a vessel containing a medium capable of storing a gas, and permitting delivery of said gas stored in said medium from said vessel, comprising the steps of: storing a gas having Lewis acidity in a reversibly reacted state within a liquid medium incorporating a liquid carrier and a reactive compound having Lewis basicity, wherein the Gibbs free energy of reaction for the reaction between the Lewis acid and the liquid medium is from about 1.3 to about -4.5 kcal/mole and wherein the liquid carrier has a vapor pressure below about 10 -2 Torr at 25 °C. storing a gas having Lewis acidity in a reversibly reacted state within a liquid medium incorporating a liquid carrier and a reactive compound having Lewis basicity, wherein the Gibbs free energy of reaction for the reaction between the Lewis acid and the liquid medium is from about 1.3 to about -4.5 kcal/mole and wherein the liquid carrier has a vapor pressure below about 10 -2 Torr at 25 °C.
A laminated film having a resin layer laminated on at least one surface of a base film, wherein: the base film is a semi-aromatic polyamide film that has been at least uniaxially stretched; the resin layer contains fine particles; a thermal shrinkage factor in a longitudinal direction S MD and a thermal shrinkage factor in a width direction S TD of the film when treated under conditions of 250°C × 5 min are each -1.0 to 1.5%; tensile elongations at break in the longitudinal direction and in the width direction are each 70% or more; and a haze is 3% or less. the base film is a semi-aromatic polyamide film that has been at least uniaxially stretched; the resin layer contains fine particles; a thermal shrinkage factor in a longitudinal direction S MD and a thermal shrinkage factor in a width direction S TD of the film when treated under conditions of 250°C × 5 min are each -1.0 to 1.5%; tensile elongations at break in the longitudinal direction and in the width direction are each 70% or more; and a haze is 3% or less.
A lens moving apparatus comprising: a housing; a bobbin disposed in the housing; a magnet disposed at the housing; a first coil disposed at the bobbin, the first coil being moved in an optical-axis direction via interaction with the magnet; an elastic member (150, 160) coupled both to the bobbin and to the housing; a second coil, to which a first drive signal is applied, the second coil moving the housing in a direction perpendicular to the optical-axis direction via the interaction with the magnet; a position sensor for detecting an intensity of a magnetic field of the magnet depending on movement of the housing; and a third coil, to which a second drive signal is applied and which is disposed so as to correspond to the position sensor, characterized in that a part of the position sensor overlaps with the second coil in the optical-axis direction, and in that at least part of the third coil overlaps the position sensor in the optical-axis direction and at least part of the third coil overlaps the second coil in the optical-axis direction, and in that a first magnetic field of the second coil, which is generated in response to the first drive signal, and a second magnetic field of the third coil, which is generated in response to the second drive signal, are directed so as to counteract each other. a housing; a bobbin disposed in the housing; a magnet disposed at the housing; a first coil disposed at the bobbin, the first coil being moved in an optical-axis direction via interaction with the magnet; an elastic member (150, 160) coupled both to the bobbin and to the housing; a second coil, to which a first drive signal is applied, the second coil moving the housing in a direction perpendicular to the optical-axis direction via the interaction with the magnet; a position sensor for detecting an intensity of a magnetic field of the magnet depending on movement of the housing; and a third coil, to which a second drive signal is applied and which is disposed so as to correspond to the position sensor, characterized in that a part of the position sensor overlaps with the second coil in the optical-axis direction, and in that at least part of the third coil overlaps the position sensor in the optical-axis direction and at least part of the third coil overlaps the second coil in the optical-axis direction, and in that a first magnetic field of the second coil, which is generated in response to the first drive signal, and a second magnetic field of the third coil, which is generated in response to the second drive signal, are directed so as to counteract each other. characterized in that a part of the position sensor overlaps with the second coil in the optical-axis direction, and in that at least part of the third coil overlaps the position sensor in the optical-axis direction and at least part of the third coil overlaps the second coil in the optical-axis direction, and in that a first magnetic field of the second coil, which is generated in response to the first drive signal, and a second magnetic field of the third coil, which is generated in response to the second drive signal, are directed so as to counteract each other.
A tamping unit having tamping levers which, at a lower end, are connected to tamping tines and are movable towards one another in pairs about a pivot axis in a squeezing motion, wherein said tamping levers are connected at an upper end to a hydraulic squeezing drive designed for carrying out the squeezing motion and a vibration superimposed thereon, characterized in that a first pressure chamber for producing the squeezing motion, a second pressure chamber for producing an opening motion directed opposite to the squeezing motion, and a third pressure chamber for producing vibrations are arranged in a hydraulic cylinder - having a squeezing piston with a piston rod - of the squeezing drive.
A system for recommending footwear, the system comprising: a plurality of markers configured to be attached to a human; a video camera configured to record, via the markers, lower body movement of the human in an unloaded state and a loaded state; a memory and one or more processors; a controller communicatively coupled to the video camera, wherein the controller is configured to, using one or more processors: receive data detected by the video camera, wherein the data relates to lower body movement of the human in the unloaded state and the loaded state; characterize the lower body movement of the human in the unloaded state and the loaded state; characterized in that the controller is further configured to, using the one or more processors: determine a trend corresponding to a change in the lower body movement from the unloaded state to the loaded state; and recommend footwear based on the trend, wherein the footwear is configured to counteract trends away from the lower body movement in the unloaded state. a plurality of markers configured to be attached to a human; a video camera configured to record, via the markers, lower body movement of the human in an unloaded state and a loaded state; a memory and one or more processors; a controller communicatively coupled to the video camera, wherein the controller is configured to, using one or more processors: receive data detected by the video camera, wherein the data relates to lower body movement of the human in the unloaded state and the loaded state; characterize the lower body movement of the human in the unloaded state and the loaded state; characterized in that the controller is further configured to, using the one or more processors: determine a trend corresponding to a change in the lower body movement from the unloaded state to the loaded state; and recommend footwear based on the trend, wherein the footwear is configured to counteract trends away from the lower body movement in the unloaded state. receive data detected by the video camera, wherein the data relates to lower body movement of the human in the unloaded state and the loaded state; characterize the lower body movement of the human in the unloaded state and the loaded state; characterized in that the controller is further configured to, using the one or more processors: determine a trend corresponding to a change in the lower body movement from the unloaded state to the loaded state; and recommend footwear based on the trend, wherein the footwear is configured to counteract trends away from the lower body movement in the unloaded state. determine a trend corresponding to a change in the lower body movement from the unloaded state to the loaded state; and recommend footwear based on the trend, wherein the footwear is configured to counteract trends away from the lower body movement in the unloaded state.
A job processing apparatus comprising: holding means for holding a job subjected to execution; detecting means for detecting a pressing of a predetermined key by a user for canceling execution of the job held in the holding means; and controlling means for performing control characterized by, displaying, on a display, a screen for allowing the user to select whether to cancel the job or not upon detecting by the detecting means the pressing of the predetermined key, wherein, upon detecting by the detecting means pressing of the predetermined key in a state in which the screen is displayed, when the job held in the holding means is of a first type, the job is not canceled and when the job held in the holding means is of a second type different from the first type, the job is canceled and wherein when the job held in the holding means is of the first type but the pressing of the predetermined key is detected by the detecting means a certain number of times or more, the job is canceled. holding means for holding a job subjected to execution; detecting means for detecting a pressing of a predetermined key by a user for canceling execution of the job held in the holding means; and controlling means for performing control characterized by, displaying, on a display, a screen for allowing the user to select whether to cancel the job or not upon detecting by the detecting means the pressing of the predetermined key, wherein, upon detecting by the detecting means pressing of the predetermined key in a state in which the screen is displayed, when the job held in the holding means is of a first type, the job is not canceled and when the job held in the holding means is of a second type different from the first type, the job is canceled and wherein when the job held in the holding means is of the first type but the pressing of the predetermined key is detected by the detecting means a certain number of times or more, the job is canceled.
A control method for gear detection of a speed reducer, comprising: during a gear self-learning process, controlling a driving motor of the speed reducer to drive a shifting fork of the speed reducer to move towards a gear hard-stop point according to a preset first voltage value, and detecting whether the shifting fork reaches the gear hard-stop point; the method further comprises the following steps: reducing a control voltage of the driving motor from the preset first voltage value to a preset second voltage value, when it is detected that the shifting fork reaches the gear hard-stop point, reducing the control voltage to 0 after continuing for a preset first time, and after reducing the control voltage to 0 recording a current first pulse value as a pulse number of the gear hard-stop point; or gradually reducing the control voltage from the first voltage value to 0, when it is detected that the shifting fork reaches the gear hard-stop point, and after reducing the control voltage to 0 recording a current second pulse value as a pulse number of the gear hard-stop point. during a gear self-learning process, controlling a driving motor of the speed reducer to drive a shifting fork of the speed reducer to move towards a gear hard-stop point according to a preset first voltage value, and detecting whether the shifting fork reaches the gear hard-stop point; the method further comprises the following steps: reducing a control voltage of the driving motor from the preset first voltage value to a preset second voltage value, when it is detected that the shifting fork reaches the gear hard-stop point, reducing the control voltage to 0 after continuing for a preset first time, and after reducing the control voltage to 0 recording a current first pulse value as a pulse number of the gear hard-stop point; or gradually reducing the control voltage from the first voltage value to 0, when it is detected that the shifting fork reaches the gear hard-stop point, and after reducing the control voltage to 0 recording a current second pulse value as a pulse number of the gear hard-stop point. reducing a control voltage of the driving motor from the preset first voltage value to a preset second voltage value, when it is detected that the shifting fork reaches the gear hard-stop point, reducing the control voltage to 0 after continuing for a preset first time, and after reducing the control voltage to 0 recording a current first pulse value as a pulse number of the gear hard-stop point; or gradually reducing the control voltage from the first voltage value to 0, when it is detected that the shifting fork reaches the gear hard-stop point, and after reducing the control voltage to 0 recording a current second pulse value as a pulse number of the gear hard-stop point.