mhurhangee/patent-ind-claim-en huggingface dataset:
A robot control system comprising: plural robots ; a receiving unit configured to receive a robot dispatch request from a user ; a sensor that detects a state of the user who performs the robot dispatch request; and a controller configured to: determine priority on the robot dispatch request by specifying a task of the user based on the state of the user detected by the sensor ; dispatch the robot; and select, in a case where plural robot dispatch requests are received, a robot to be dispatched among the plural robots in order of the priority on the robot dispatch requests; characterised in that the controller is configured to select a robot having a high probability of being used in the task of the user who performs the robot dispatch request using a robot use probability conversion table that illustrates values respectively indicating a degree of the use probability for each type of the robots with respect to the content of the task performed by the user performing the robot dispatch request. plural robots ; a receiving unit configured to receive a robot dispatch request from a user ; a sensor that detects a state of the user who performs the robot dispatch request; and a controller configured to: determine priority on the robot dispatch request by specifying a task of the user based on the state of the user detected by the sensor ; dispatch the robot; and select, in a case where plural robot dispatch requests are received, a robot to be dispatched among the plural robots in order of the priority on the robot dispatch requests; characterised in that determine priority on the robot dispatch request by specifying a task of the user based on the state of the user detected by the sensor ; dispatch the robot; and select, in a case where plural robot dispatch requests are received, a robot to be dispatched among the plural robots in order of the priority on the robot dispatch requests; the controller is configured to select a robot having a high probability of being used in the task of the user who performs the robot dispatch request using a robot use probability conversion table that illustrates values respectively indicating a degree of the use probability for each type of the robots with respect to the content of the task performed by the user performing the robot dispatch request.
A hand tool with a buffering effect, wherein the hand tool comprises: a body being an elongated shaft and having a holding end disposed on one of two ends of the body ; and a connecting end disposed on the other one of the two ends of the body ; a working element connected to the connecting end of the body ; and the hand tool is characterized by further comprising: multiple shock-absorbing elements disposed on the body between the holding end and the connecting end , abutted each other, and being made of different materials, and the multiple shock-absorbing elements having a total length (L2) being larger than a half of a length (L1) of the body and being less than or equal to the length (L1) of the body ; wherein a shock-absorbing and buffering effect is provided by the multiple shock-absorbing elements when a user holds the body and uses the working element . a body being an elongated shaft and having a holding end disposed on one of two ends of the body ; and a connecting end disposed on the other one of the two ends of the body ; a holding end disposed on one of two ends of the body ; and a connecting end disposed on the other one of the two ends of the body ; a working element connected to the connecting end of the body ; and the hand tool is characterized by further comprising: multiple shock-absorbing elements disposed on the body between the holding end and the connecting end , abutted each other, and being made of different materials, and the multiple shock-absorbing elements having a total length (L2) being larger than a half of a length (L1) of the body and being less than or equal to the length (L1) of the body ; wherein a shock-absorbing and buffering effect is provided by the multiple shock-absorbing elements when a user holds the body and uses the working element . multiple shock-absorbing elements disposed on the body between the holding end and the connecting end , abutted each other, and being made of different materials, and the multiple shock-absorbing elements having a total length (L2) being larger than a half of a length (L1) of the body and being less than or equal to the length (L1) of the body ; wherein a shock-absorbing and buffering effect is provided by the multiple shock-absorbing elements when a user holds the body and uses the working element .
A food processing appliance comprising: a container having a rotational processing assembly that includes a follower rotor having a first magnetic feature ; a base having a drive system for providing a rotational drive force ; and a magnetic coupler having a drive rotor that selectively transfers the rotational drive force to the follower rotor , characterized in that the drive rotor includes a plurality of drive-magnetic members that form a generally cylindrical space that receives and surrounds the follower rotor in an engaged position , and wherein at least one of the drive and follower rotors includes a magnet configuration that directs a respective magnetic field of inner and outer magnetic fields in a direction of a gap defined between the drive and follower rotors . a container having a rotational processing assembly that includes a follower rotor having a first magnetic feature ; a base having a drive system for providing a rotational drive force ; and a magnetic coupler having a drive rotor that selectively transfers the rotational drive force to the follower rotor , characterized in that the drive rotor includes a plurality of drive-magnetic members that form a generally cylindrical space that receives and surrounds the follower rotor in an engaged position , and wherein at least one of the drive and follower rotors includes a magnet configuration that directs a respective magnetic field of inner and outer magnetic fields in a direction of a gap defined between the drive and follower rotors .
A camera module, the camera module comprising: - a printed circuit board, PCB, mounted with an image sensor ; - a lens unit installed at an upper side of the PCB and disposed at a position corresponding to that of the image sensor ; and - an actuator comprising a bobbin coupled with the lens unit and adapted for moving the lens unit to adjust a focus of an image, - wherein the bobbin comprises an inner peripheral surface facing an outer peripheral surface of the lens unit , - wherein the lens unit comprises a flange unit formed from the outer peripheral surface and a taper unit forming the bottom end of the flange unit , and - wherein the bobbin comprises a taper unit formed by being slanted to an optical axis direction (O) and formed on the inner peripheral surface facing the taper unit of the lens unit , - wherein a space is formed between the taper unit of the lens unit and the taper unit of the bobbin , characterized in that a groove is formed at the outer peripheral surface of the lens unit at an bottom end of the taper unit , wherein adhesive material is coated on an upper side of the flange unit and is penetrated and induced into the space and the groove to fix the bobbin and the lens unit , wherein the groove is formed at a position corresponding to that of the taper unit of the bobbin , and wherein the bobbin includes an upper end unit configured to form an upper end of the bobbin and to have a minor diameter same as or greater than an outer diameter of the flange unit , the taper unit of the bobbin formed by being extended from a lower side of the upper end unit and formed by being slanted to the optical axis direction (O), and a bottom end unit formed by being extended from a lower side of the taper unit and having a minor diameter same as or greater than an outer diameter of the lens unit . - a printed circuit board, PCB, mounted with an image sensor ; - a lens unit installed at an upper side of the PCB and disposed at a position corresponding to that of the image sensor ; and - an actuator comprising a bobbin coupled with the lens unit and adapted for moving the lens unit to adjust a focus of an image, - wherein the bobbin comprises an inner peripheral surface facing an outer peripheral surface of the lens unit , - wherein the lens unit comprises a flange unit formed from the outer peripheral surface and a taper unit forming the bottom end of the flange unit , and - wherein the bobbin comprises a taper unit formed by being slanted to an optical axis direction (O) and formed on the inner peripheral surface facing the taper unit of the lens unit , - wherein a space is formed between the taper unit of the lens unit and the taper unit of the bobbin ,
Phased array antenna, comprising: an array of radiating elements , whereas the radiating elements are arranged in planar subarrays which can be steered independently from each other, and each of the subarrays has a different normal vector , wherein a face of each subarray is squinting in a different direction, the antenna is configured as a dual-band antenna, with the radiating elements being capable of working at both an upper and lower operating band, the radiating elements are arranged at distances of half the wavelength or smaller for avoiding grating lobes with respect to the lower operating band, and the antenna comprises a built-in grating lobe mitigation according to which the grating lobes in the upper operation band point in different directions resulting in a suppression compared to grating lobes in a planar arrangement, while all subarrays are still able to focus on a same target, and the antenna is configured such that the signals of the individual subarrays add up coherently in order to form the beam of the antenna, wherein the main beams of the subarrays steered electronically so that their main beams are looking in the same direction α 0 , and the whole antenna is mounted on a mechanically steerable gimbals system to steer the whole antenna mechanically to a direction which is the center of an electronically scanned field of view. an array of radiating elements , whereas the radiating elements are arranged in planar subarrays which can be steered independently from each other, and each of the subarrays has a different normal vector , wherein a face of each subarray is squinting in a different direction, the antenna is configured as a dual-band antenna, with the radiating elements being capable of working at both an upper and lower operating band, the radiating elements are arranged at distances of half the wavelength or smaller for avoiding grating lobes with respect to the lower operating band, and the antenna comprises a built-in grating lobe mitigation according to which the grating lobes in the upper operation band point in different directions resulting in a suppression compared to grating lobes in a planar arrangement, while all subarrays are still able to focus on a same target, and the antenna is configured such that the signals of the individual subarrays add up coherently in order to form the beam of the antenna, wherein the main beams of the subarrays steered electronically so that their main beams are looking in the same direction α 0 , and the whole antenna is mounted on a mechanically steerable gimbals system to steer the whole antenna mechanically to a direction which is the center of an electronically scanned field of view.
A workbench system comprising: a workbench ; a multi-axis robot comprising an end effector for holding an object; a visible light projector ; a camera ; and a controller ; wherein the workbench and the robot are located in a common workspace; the controller is configured to: determine a movement operation for the robot; and, using the determined movement operation, control the visible light projector to project a visible light indication onto at least one of a surface of the workbench and a surface of the workspace; the visible light indication indicates a limited area of the workbench and/or workspace, the limited area corresponding to a limited volume of space; the movement operation is such that, if the robot performs the movement operation, the robot moves entirely within only the limited volume of space; characterised in that the controller is further configured to: control the robot such that the robot presents multiple different views of the object held by the end effector to the camera; control the camera to capture images of multiple different views of the object held by the end effector; and perform a validation process using the images captured by the camera. a workbench ; a multi-axis robot comprising an end effector for holding an object; a visible light projector ; a camera ; and a controller ; wherein the workbench and the robot are located in a common workspace; the controller is configured to: determine a movement operation for the robot; and, using the determined movement operation, control the visible light projector to project a visible light indication onto at least one of a surface of the workbench and a surface of the workspace; determine a movement operation for the robot; and, using the determined movement operation, control the visible light projector to project a visible light indication onto at least one of a surface of the workbench and a surface of the workspace; the visible light indication indicates a limited area of the workbench and/or workspace, the limited area corresponding to a limited volume of space; the movement operation is such that, if the robot performs the movement operation, the robot moves entirely within only the limited volume of space; characterised in that the controller is further configured to: control the robot such that the robot presents multiple different views of the object held by the end effector to the camera; control the camera to capture images of multiple different views of the object held by the end effector; and perform a validation process using the images captured by the camera. control the robot such that the robot presents multiple different views of the object held by the end effector to the camera; control the camera to capture images of multiple different views of the object held by the end effector; and perform a validation process using the images captured by the camera.
Batch feeder , comprising a feeder pit for stocking and gravity conveying of piece goods made of flat material, which comprises an upper opening for in particular batch-based feeding of the piece goods, a lower opening for extraction of the piece goods and in between at least two lateral pit delimitations , which are located opposite to one another, for guiding of the piece goods, wherein carrying structures for supporting the piece goods on one side, which are arranged on top of each other in a floor-shaped way and which protrude into the feeder pit, are formed in form of an essentially horizontally aligned toothing on one of the pit delimitations that are located opposite to one another, and wherein areas of the other pit delimitation , which are located respectively opposite to the carrying structures , are formed for smooth guiding of the piece goods characterized in that the toothing is formed in form of a horizontally continuous sawing tooth or a horizontally aligned row of sawing teeth with essentially horizontal upper tooth flanks.
A flat-plate filter for water treatment, comprising: a plate-shaped filtration member including a first support and a membrane formed on both surfaces of the first support ; and a support frame coupled to an edge of the filtration member so as to support the filtration member and collectively defining a flow path through which filtered water flows, wherein a portion of the filtration member is disposed in the flow path , characterised in that the membrane is removed from at least a portion on both sides of the portion of the filtration member disposed in the flow path such that the first support is exposed to the flow path , wherein an area of the portion from which the membrane is removed is larger than an area corresponding to a width of the first support , wherein the support frame includes a plurality of frames coupled to the edge of the filtration member ; and each of the plurality of frames includes a first plate and a pair of second plates extending from both end portions of the first plate so as to allow the edge of the filtration member to be inserted and to form the flow path . a plate-shaped filtration member including a first support and a membrane formed on both surfaces of the first support ; and a support frame coupled to an edge of the filtration member so as to support the filtration member and collectively defining a flow path through which filtered water flows, wherein a portion of the filtration member is disposed in the flow path , characterised in that the membrane is removed from at least a portion on both sides of the portion of the filtration member disposed in the flow path such that the first support is exposed to the flow path , wherein an area of the portion from which the membrane is removed is larger than an area corresponding to a width of the first support , wherein the support frame includes a plurality of frames coupled to the edge of the filtration member ; and each of the plurality of frames includes a first plate and a pair of second plates extending from both end portions of the first plate so as to allow the edge of the filtration member to be inserted and to form the flow path .
A heat pipe provided with: an inlet for filling a working fluid (C) into the heat pipe , and including a first outermost metal layer ; a second outermost metal layer ; an intermediate metal layer (62-65) interposed between the first and second outermost metal layers ; an inlet passage defined by opposing wall portions (621, 622; 631, 632; 641, 642; 651, 652) of the intermediate metal layer (62-65), and the first and second outermost metal layers ; and a porous body (600-602) provided at one or both of the wall portions (621, 622; 631, 632; 641, 642; 651, 652), characterized in that the porous body (600-602) includes a first bottomed hole (62x-65x) that caves in from one surface of the intermediate metal layer (62-65), a second bottomed hole (62y-65y) that caves in from the other surface of the intermediate metal layer (62-65), and a pore (62z-65z) formed by the first bottomed hole (62x-65x) that partially communicates with the second bottomed hole (62y-65y). a first outermost metal layer ; a second outermost metal layer ; an intermediate metal layer (62-65) interposed between the first and second outermost metal layers ; an inlet passage defined by opposing wall portions (621, 622; 631, 632; 641, 642; 651, 652) of the intermediate metal layer (62-65), and the first and second outermost metal layers ; and a porous body (600-602) provided at one or both of the wall portions (621, 622; 631, 632; 641, 642; 651, 652), characterized in that the porous body (600-602) includes a first bottomed hole (62x-65x) that caves in from one surface of the intermediate metal layer (62-65), a second bottomed hole (62y-65y) that caves in from the other surface of the intermediate metal layer (62-65), and a pore (62z-65z) formed by the first bottomed hole (62x-65x) that partially communicates with the second bottomed hole (62y-65y).
A method for providing a component with a coating system comprising the steps of: providing an air cooled component having a substrate; applying a metallic bondcoat to said substrate; and depositing a layer of an yttria-stabilized zirconia thermal barrier coating on the bondcoat, wherein said air cooled component comprises a nozzle segment selected from the group consisting of a singlet, a doublet and a triplet, wherein said metallic bondcoat has a composition consisting of 1.0 to 18 wt % cobalt, 3.0 to 18 wt % chromium, 5.0 to 15 wt % aluminum, 0.01 to 1.0 wt % yttrium, 0.01 to 0.6 wt % hafnium, 0.0 to 0.3 wt % silicon, 0.1 to 1.0 wt % zirconium, 0.0 to 10 wt % tantalum, 0.0 to 9.0 wt % tungsten, 0.0 to 10 wt % molybdenum, 0.0 to 43.0 wt % platinum, and the balance nickel. providing an air cooled component having a substrate; applying a metallic bondcoat to said substrate; and depositing a layer of an yttria-stabilized zirconia thermal barrier coating on the bondcoat, wherein said air cooled component comprises a nozzle segment selected from the group consisting of a singlet, a doublet and a triplet, wherein said metallic bondcoat has a composition consisting of 1.0 to 18 wt % cobalt, 3.0 to 18 wt % chromium, 5.0 to 15 wt % aluminum, 0.01 to 1.0 wt % yttrium, 0.01 to 0.6 wt % hafnium, 0.0 to 0.3 wt % silicon, 0.1 to 1.0 wt % zirconium, 0.0 to 10 wt % tantalum, 0.0 to 9.0 wt % tungsten, 0.0 to 10 wt % molybdenum, 0.0 to 43.0 wt % platinum, and the balance nickel.
A method for indicating a channel location, comprising: sending (2b01), by a network-side device, at least one piece of indication information, wherein the method is implemented in a 5 th generation new radio, 5G NR, system, wherein the at least one piece of indication information is configured to indicate an offset of a frequency-domain starting location and/or a frequency-domain ending location of a frequency-domain resource of a data channel relative to a frequency-domain starting location of a search space of a first control channel, and the first control channel is a channel for scheduling the data channel. sending (2b01), by a network-side device, at least one piece of indication information, wherein the method is implemented in a 5 th generation new radio, 5G NR, system, wherein the at least one piece of indication information is configured to indicate an offset of a frequency-domain starting location and/or a frequency-domain ending location of a frequency-domain resource of a data channel relative to a frequency-domain starting location of a search space of a first control channel, and the first control channel is a channel for scheduling the data channel.
Method for depositing an electrically conductive metal on at least part of the inner surface of an inner cavity of a waveguide , this method consisting in: - preparing a suspension (S) which contains at least one liquid and at least one precursor of the electrically conductive metal in suspension in the at least one liquid so that, in the suspension (S), the at least one liquid represents between 6 and 12% by mass of the suspension (S) and the precursor of the electrically conductive metal represents between 88 and 94% by mass of the suspension (S), and so the at least one liquid and the precursor of the electrically conductive metal represent 100% by mass of this suspension (S); - coating at least part of the inner surface of the inner cavity of the waveguide with the suspension (S); - heat treating at least the part of the inner surface of the inner cavity of the waveguide coated with the suspension (S) by heating at least this part of the inner surface and/or this suspension (S) to a temperature greater than or equal to the melting temperature of the at least one precursor of the electrically conductive metal . - preparing a suspension (S) which contains at least one liquid and at least one precursor of the electrically conductive metal in suspension in the at least one liquid so that, in the suspension (S), the at least one liquid represents between 6 and 12% by mass of the suspension (S) and the precursor of the electrically conductive metal represents between 88 and 94% by mass of the suspension (S), and so the at least one liquid and the precursor of the electrically conductive metal represent 100% by mass of this suspension (S); - coating at least part of the inner surface of the inner cavity of the waveguide with the suspension (S); - heat treating at least the part of the inner surface of the inner cavity of the waveguide coated with the suspension (S) by heating at least this part of the inner surface and/or this suspension (S) to a temperature greater than or equal to the melting temperature of the at least one precursor of the electrically conductive metal .