mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for performing courier services using a wearable electronic device, the wearable electronic device comprising a depth camera for detecting object depths in a field of view, a bioacoustic sensor for decoding gesture inputs, a scanner for decoding visual codes located on objects, and a speaker for producing audible sounds in response to an electrical signal, the method comprising the following operations performed on one or more processors located within the wearable device: detecting a scanning event based on a first signal received from the bioacoustic sensor, the scanning event comprising a gesture input performed in proximity to a first surface; determining a scan region associated with the scanning event based on a location and depth of the gesture input; providing a second signal to the scanner causing the scanner to decode a visual code located within the scan region; generating scan data based on a third signal received from the scanner, the third signal reflecting information obtained from the visual code. detecting a scanning event based on a first signal received from the bioacoustic sensor, the scanning event comprising a gesture input performed in proximity to a first surface; determining a scan region associated with the scanning event based on a location and depth of the gesture input; providing a second signal to the scanner causing the scanner to decode a visual code located within the scan region; generating scan data based on a third signal received from the scanner, the third signal reflecting information obtained from the visual code.
An engine device comprising: a first case which removes particulate matters in exhaust gas of an engine; a second case which removes nitrogen oxides in the exhaust gas of the engine; and the second case being connected to the first case via a urea mixing pipe, wherein an exhaust gas inlet surface of the first case is joined to an exhaust gas outlet surface of the engine, a support base firmly fixed to the engine is provided, and the support base is partly brought into surface contact with the exhaust gas outlet surface of the engine, wherein left and right case fixing bodies (95, 96) and rear and front support frame bodies are connected like a quadrangular frame shape, wherein the case fixing bodies are firmly fixing the first case and the second case, characterized in that suspension members are firmly fixed to the case fixing bodies (95, 96), and wherein the suspension members are arranged at diagonal positions of the quadrangular frame of the left and right case fixing bodies (95, 96). a first case which removes particulate matters in exhaust gas of an engine; a second case which removes nitrogen oxides in the exhaust gas of the engine; and the second case being connected to the first case via a urea mixing pipe, wherein an exhaust gas inlet surface of the first case is joined to an exhaust gas outlet surface of the engine, a support base firmly fixed to the engine is provided, and the support base is partly brought into surface contact with the exhaust gas outlet surface of the engine, wherein left and right case fixing bodies (95, 96) and rear and front support frame bodies are connected like a quadrangular frame shape, wherein the case fixing bodies are firmly fixing the first case and the second case, characterized in that suspension members are firmly fixed to the case fixing bodies (95, 96), and wherein the suspension members are arranged at diagonal positions of the quadrangular frame of the left and right case fixing bodies (95, 96).
Rolling bearing having a permanently excited first generator, which is arranged in the intermediate space between two bearing rings which can be rotated with respect to one another, which first generator comprises a primary part and a secondary part and generates a first generator voltage during operation, wherein the secondary part has permanent magnets which are arranged with alternating polarity on the circumference of one of the bearing rings, at least in certain sections and wherein the rolling bearing comprises a second generator, and the first generator voltage serves to supply energy to a sensor system and/or actuator system which is integrated in the bearing, while the second generator supplies a voltage signal for determining the position and detecting the rotational speed, wherein the second generator is of the same design as the first generator, wherein the generators are claw-pole generators, characterized in that the second generator is electrically unloaded.
An inverter for converting DC to AC, comprising: one or more inputs for receiving one or more DC voltages; one or more outputs for outputting one or more AC voltages; a plurality of semiconductor arrangement modules, each module having one or more semiconductor devices thermally and electrically coupled to a heatsink, the heatsink being configured as a bus bar to electrically connect the one or more semiconductor devices together to transmit power between the one or more semiconductor devices and the heatsink comprising one or more heat exchanging elements to transfer the heat from the heatsink into the surrounding environment, the plurality of semiconductor arrangement modules being coupled to the one or more inputs and one or more outputs, and the semiconductor arrangement modules being mounted to a Printed Circuit Board, the PCB providing electrical connections between the semiconductor devices, the one or more inputs and the one or more outputs; and. a housing for housing the plurality of semiconductor arrangement modules in a chamber within the housing, the housing comprising inlet and outlet ports in fluid communication with the chamber respectively for receiving and outputting a dielectric cooling medium, wherein the chamber is flooded with the flowing cooling medium to cool the inverter, wherein the PCB and additional electrical and electronic components mounted on the PCB are located within the chamber and immersed in the flowing cooling medium. one or more inputs for receiving one or more DC voltages; one or more outputs for outputting one or more AC voltages; a plurality of semiconductor arrangement modules, each module having one or more semiconductor devices thermally and electrically coupled to a heatsink, the heatsink being configured as a bus bar to electrically connect the one or more semiconductor devices together to transmit power between the one or more semiconductor devices and the heatsink comprising one or more heat exchanging elements to transfer the heat from the heatsink into the surrounding environment, the plurality of semiconductor arrangement modules being coupled to the one or more inputs and one or more outputs, and the semiconductor arrangement modules being mounted to a Printed Circuit Board, the PCB providing electrical connections between the semiconductor devices, the one or more inputs and the one or more outputs; and. a housing for housing the plurality of semiconductor arrangement modules in a chamber within the housing, the housing comprising inlet and outlet ports in fluid communication with the chamber respectively for receiving and outputting a dielectric cooling medium, wherein the chamber is flooded with the flowing cooling medium to cool the inverter,
A control device-integrated rotary electric machine comprising: a rotor fixed to a rotor shaft; a stator formed by stacking electromagnetic steel sheets, and provided so as to be separated from the rotor and surround the rotor; a stator winding wound on the stator; a cylindrical member (3,30,31,32,33) provided in radial contact with the stator; a frame provided in radial contact with the cylindrical member (3,30,31,32,33) and retaining the stator; and a control device having a heat sink in contact with an inner side of the frame, and configured to supply power to the stator winding, wherein the cylindrical member (3,30,31,32,33) has a flange portion (18,18a) at an end thereof, and the flange portion (18,18a) is held between the frame and the heat sink so as to be fixed in the axial direction. a rotor fixed to a rotor shaft; a stator formed by stacking electromagnetic steel sheets, and provided so as to be separated from the rotor and surround the rotor; a stator winding wound on the stator; a cylindrical member (3,30,31,32,33) provided in radial contact with the stator; a frame provided in radial contact with the cylindrical member (3,30,31,32,33) and retaining the stator; and a control device having a heat sink in contact with an inner side of the frame, and configured to supply power to the stator winding, wherein the cylindrical member (3,30,31,32,33) has a flange portion (18,18a) at an end thereof, and the flange portion (18,18a) is held between the frame and the heat sink so as to be fixed in the axial direction.
A powder shaker apparatus to ensure dispensation of powder or granular materials from a container equally at a desired amount and rate, comprising; - a body to store and release the material to be dispensed, - an actuator to perform rotary motion using energy drawn from a connected power supply, - an upper cover disposed at the lower portion of the body, wherein powder or granular material is dispensed through holes formed on it, - a distributing element which moves and directs the material accumulated on the upper cover towards the holes formed on the upper cover, - a transmission shaft connecting the actuator to the distributing element, which transmits the rotary movement from the actuator to distributing element, and characterized in that: • a support member which is engaged to the transmission shaft and fixed between the upper cover and the body and disposed on the upper portion of the distributing element, • a spring positioned between the support member and the distributing element, which keeps the distributing element under pressure on the upper cover using the pressure applied by the support member. - a body to store and release the material to be dispensed, - an actuator to perform rotary motion using energy drawn from a connected power supply, - an upper cover disposed at the lower portion of the body, wherein powder or granular material is dispensed through holes formed on it, - a distributing element which moves and directs the material accumulated on the upper cover towards the holes formed on the upper cover, - a transmission shaft connecting the actuator to the distributing element, which transmits the rotary movement from the actuator to distributing element, • a support member which is engaged to the transmission shaft and fixed between the upper cover and the body and disposed on the upper portion of the distributing element, • a spring positioned between the support member and the distributing element, which keeps the distributing element under pressure on the upper cover using the pressure applied by the support member.
A motor drive device for electric power steering apparatus, including a motor having a stator iron core, a frame fixing the stator iron core, and a rotor iron core fixed to a shaft supported in a rotatable manner, and a motor drive control unit disposed coaxially with the shaft and combined with the motor into one piece, wherein the motor drive control unit includes a heat sink on which is mounted a switching element that controls driving of the motor and a housing connected to the heat sink so as to cover the switching element; characterized in that at least two screw holes for fixation to a gear (speed reducer) of the electric power steering apparatus are provided to the heat sink to fasten the heat sink to the gear side of the electric power steering apparatus; and in that let L1 be a maximum value of a distance between center points of the screw holes, and L2 be a distance between an end face of the stator iron core in an axial direction on a farther side from the gear and an attachment surface attached to a gear side, then a value of L1 is equal to or greater than a value of L2.
A network connecting method comprising: first storing at which a first electronic device (1, 100) stores first configuration information of the first electronic device (1, 100) collected by a tamper-resistant chip mounted on the first electronic device (1, 100) and approved by a third-party device (3, 300) in a portable medium (4, 30); second storing at which a second electronic device (2, 200) stores second configuration information of the second electronic device collected by a tamper-resistant chip mounted on the second electronic device (2, 200) and approved by a third-party device (3, 300) in the portable medium (4, 30); acquiring at which the second electronic device acquires the first configuration information from the portable medium (4, 30); transmitting at which the first electronic device (1, 100) transmits the first configuration information of the first electronic device (1, 100) and the second configuration information of the second electronic device that is acquired from the portable medium (4, 30) to the second electronic device (2, 200) over a long-distance network (5, 50); and controlling at which the second electronic device (2, 200) controls connection between the first electronic device (1, 100) and the second electronic device (2, 200) over the long-distance network (5, 50) based on the first configuration information and the second configuration information received from the first electronic device (1, 100). first storing at which a first electronic device (1, 100) stores first configuration information of the first electronic device (1, 100) collected by a tamper-resistant chip mounted on the first electronic device (1, 100) and approved by a third-party device (3, 300) in a portable medium (4, 30); second storing at which a second electronic device (2, 200) stores second configuration information of the second electronic device collected by a tamper-resistant chip mounted on the second electronic device (2, 200) and approved by a third-party device (3, 300) in the portable medium (4, 30); acquiring at which the second electronic device acquires the first configuration information from the portable medium (4, 30); transmitting at which the first electronic device (1, 100) transmits the first configuration information of the first electronic device (1, 100) and the second configuration information of the second electronic device that is acquired from the portable medium (4, 30) to the second electronic device (2, 200) over a long-distance network (5, 50); and controlling at which the second electronic device (2, 200) controls connection between the first electronic device (1, 100) and the second electronic device (2, 200) over the long-distance network (5, 50) based on the first configuration information and the second configuration information received from the first electronic device (1, 100).
Method for using a storage device intended for a thermal energy production installation functioning intermittently, comprising a first system for storing via sensitive or latent heat intended to be connected continuously to said installation and a second thermochemical storage system intended to be connected, at least intermittently, to said installation and connected to the first storage system to ensure its preheating, said method comprising: - a step of charging the first and the second storage systems via the installation when it is functioning, - a step of discharging the first storage system, - a step of determining the temperature of the first storage system at the end of the step of discharging this first storage system, - a step of determining the average temperature of the first storage system, after stopping the installation and before it is restarted, and - a step of discharging the second storage system, when the difference between the temperatures T1 and T2 is greater than a threshold value, this discharging step occurring before restarting the installation to ensure the preheating of the first storage system. - a step of charging the first and the second storage systems via the installation when it is functioning, - a step of discharging the first storage system, - a step of determining the temperature of the first storage system at the end of the step of discharging this first storage system, - a step of determining the average temperature of the first storage system, after stopping the installation and before it is restarted, and - a step of discharging the second storage system, when the difference between the temperatures T1 and T2 is greater than a threshold value, this discharging step occurring before restarting the installation to ensure the preheating of the first storage system.
A defibrillator which is configured to operate while communicating with a Cardio Pulmonary Resuscitation assisting device, wherein said Cardio Pulmonary Resuscitation assisting device comprises a sound outputting unit, and is configured to stop a guidance sound output from said sound outputting unit after a communication connection with the defibrillator is established, the defibrillator comprising: a communicating unit which is configured to establish a communication connection with the Cardio Pulmonary Resuscitation assisting device to communicate with the Cardio Pulmonary Resuscitation assisting device; a controlling unit which is configured to control the defibrillator; and a sound outputting unit which is configured to perform a sound output in accordance with a control of the controlling unit and, when, after the communicating unit establishes the communication connection with the Cardio Pulmonary Resuscitation assisting device and a guidance sound output of the Cardio Pulmonary Resuscitation assisting device is stopped, the controlling unit controls the sound outputting unit of the defibrillator to output guidance sounds. a communicating unit which is configured to establish a communication connection with the Cardio Pulmonary Resuscitation assisting device to communicate with the Cardio Pulmonary Resuscitation assisting device; a controlling unit which is configured to control the defibrillator; and a sound outputting unit which is configured to perform a sound output in accordance with a control of the controlling unit and, when, after the communicating unit establishes the communication connection with the Cardio Pulmonary Resuscitation assisting device and a guidance sound output of the Cardio Pulmonary Resuscitation assisting device is stopped, the controlling unit controls the sound outputting unit of the defibrillator to output guidance sounds.
Rotorcraft equipped with a lifting rotor, said rotorcraft being provided with a wing which extends from a first end having a first pusher propeller towards a second end having a second pusher propeller, said rotorcraft comprising an undercarriage and a tail assembly, characterised in that said rotorcraft is provided with two fuselages (51, 52) rigidly connected to said wing between said first and second pusher propellers (21, 22) such that there is an inter-fuselage space, free of propellers, between said fuselages (51, 52), each fuselage (51, 52) comprising at least one landing gear (31, 32) of said undercarriage.
A method of solubilizing an insoluble active material through formation of an oligomer composite, the method comprising: a first operation of preparing an oligomer composite having a cavity structure formed therein by mixing and dissolving oligomers derived from two types of hydrophilic natural polymers in water; a second operation of adding an insoluble material to the oligomer composite to encapsulate the insoluble material in the hydrophobic cavity structure of the oligomer composite; a third operation of removing a residual insoluble material unencapsulated in the oligomer composite by filtration or centrifugation of a reaction solution; and a fourth operation of removing water and an organic solvent (when used) from the reaction solution having the residual material removed therefrom to dry; wherein the oligomers derived from the natural polymers are two selected from the group consisting of xanthan gum, acacia gum, guar gum, arabic gum, agar, alginic acid, pectin, carboxyalkylcellulose, maltodextrin, and dextrin; and wherein the insoluble material is any one selected from the group consisting of polyphenols, oily fatty acids, salicylic acid, caffeine, tocopherol, and natural extracts containing a ginkgo biloba leaf extract, a red ginseng extract, and polyphenols. a first operation of preparing an oligomer composite having a cavity structure formed therein by mixing and dissolving oligomers derived from two types of hydrophilic natural polymers in water; a second operation of adding an insoluble material to the oligomer composite to encapsulate the insoluble material in the hydrophobic cavity structure of the oligomer composite; a third operation of removing a residual insoluble material unencapsulated in the oligomer composite by filtration or centrifugation of a reaction solution; and a fourth operation of removing water and an organic solvent (when used) from the reaction solution having the residual material removed therefrom to dry; wherein the oligomers derived from the natural polymers are two selected from the group consisting of xanthan gum, acacia gum, guar gum, arabic gum, agar, alginic acid, pectin, carboxyalkylcellulose, maltodextrin, and dextrin; and wherein the insoluble material is any one selected from the group consisting of polyphenols, oily fatty acids, salicylic acid, caffeine, tocopherol, and natural extracts containing a ginkgo biloba leaf extract, a red ginseng extract, and polyphenols.
High-temperature material based on alloyed intermetallic NiAl, characterized by the following chemical composition (amounts in % by weight): 26-30 Al, 1-6 Ta, 0.1-3 Fe, 0.1-1.5 Hf, 0.01-0.2 B, 0-1 Ti, 0.1-5 Pd, remainder Ni and production-related impurities. 1-6 Ta, 0.1-3 Fe, 0.1-1.5 Hf, 0.01-0.2 B, 0-1 Ti, 0.1-5 Pd,
Device for ion generation for examination by means of surface analysis, comprising at least one desorption electrospray ionization source with at least one sprayer and one sprayer tip, as well as a sample stage for receiving a sample on its upper side, characterized in that the sample stage has at least one contact region with at least one opening, through which a spray can pass from the underside of the sample stage through the sample stage to a sample located on the upper side of the sample stage, wherein the sprayer is arranged below the underside of the sample stage and the sprayer tip is thereby aligned in the direction of the contact region, so that the sprayer can spray a sample with a spray through the contact region of the sample stage.