mhurhangee/patent-ind-claim-en huggingface dataset:
A method for installing a MEMS component package comprising a body having outer surfaces of electrically non-conductive material and a plurality of electrically conducting leads protruding from the body , the method comprising: - applying simultaneously at least one solder pad on at least one blind pad exposed on a printed circuit board surface and solder paste for electrically joining the leads to pin pads exposed on the printed circuit board surface, the at least one blind pad disposed at a location collocated with an intended location of the body , and the at least one solder pad collocated with the at least one blind pad on the surface of the printed circuit board ; - placing the MEMS component package on the printed circuit board surface, wherein the solder paste applied for joining the leads temporarily attaches the leads to the pin pads of the printed circuit board ; - subjecting the printed circuit board to controlled heat configured melt the solder paste to electrically couple the leads to the pin pads of the printed circuit board, and to simultaneously melt the at least one solder pad , wherein the melting is configured to transform the at least one solder pad into a solder bump that couples the body to the at least one blind pad on the printed circuit board , the solder bump attaching with a non-galvanic contact directly to a flat, electrically non-conductive plastic bottom of the body . - applying simultaneously at least one solder pad on at least one blind pad exposed on a printed circuit board surface and solder paste for electrically joining the leads to pin pads exposed on the printed circuit board surface, the at least one blind pad disposed at a location collocated with an intended location of the body , and the at least one solder pad collocated with the at least one blind pad on the surface of the printed circuit board ; - placing the MEMS component package on the printed circuit board surface, wherein the solder paste applied for joining the leads temporarily attaches the leads to the pin pads of the printed circuit board ; - subjecting the printed circuit board to controlled heat configured melt the solder paste to electrically couple the leads to the pin pads of the printed circuit board, and to simultaneously melt the at least one solder pad , wherein the melting is configured to transform the at least one solder pad into a solder bump that couples the body to the at least one blind pad on the printed circuit board , the solder bump attaching with a non-galvanic contact directly to a flat, electrically non-conductive plastic bottom of the body .
A method of transceiving signals in accordance with a frame structure of a cell in a wireless communication system , the method comprising: transceiving the signals using a plurality of carriers in accordance with the frame structure of the cell, wherein the frame structure of the cell supports the plurality of carriers , wherein a first carrier of the plurality of carriers comprises a fixed downlink assignment region , an uplink assignment region , and a dynamic downlink assignment region , wherein a size or a resource index of the dynamic downlink assignment region is indicated by the fixed downlink assignment region , wherein the size of the dynamic downlink assignment region is flexibly changeable, wherein a second carrier of the plurality of carriers comprises only the uplink assignment region . transceiving the signals using a plurality of carriers in accordance with the frame structure of the cell, wherein the frame structure of the cell supports the plurality of carriers , wherein a first carrier of the plurality of carriers comprises a fixed downlink assignment region , an uplink assignment region , and a dynamic downlink assignment region , wherein a size or a resource index of the dynamic downlink assignment region is indicated by the fixed downlink assignment region , wherein the size of the dynamic downlink assignment region is flexibly changeable, wherein a second carrier of the plurality of carriers comprises only the uplink assignment region .
A computer-implemented method for creating a digital representation of at least an object surface of a physical object ; wherein the method comprises: - obtaining input data, the input data including a plurality of captured images of the physical object and surface normal information of the object, the surface normal information representing object surface normals associated with respective parts of the object surface; - creating a digital 3D representation of at least the object surface; wherein creating the digital representation of the object surface is based on at least the obtained plurality of captured images and the obtained surface normal information and comprises: - obtaining an intermediate representation of the object surface, wherein the intermediate representation comprises a depth map indicative of distances from a reference position to respective positions on the object surface, the intermediate representation comprising a first part (S1) representing a first part of the object surface wherein the first part of the object surface comprises a hole in the depth map; - modifying the first part of the intermediate representation to obtain a modified representation; wherein modifying the first part of the intermediate representation comprises: - determining a second part (S2) of the object surface within a proximity of the first part of the object surface; - determining, from the obtained surface normal information, one or more object surface normals associated with the determined second part; - modifying the first part of the intermediate representation based at least in part on the determined one or more object surface normals; wherein modifying the first part of the intermediate representation comprises filling the hole. - obtaining input data, the input data including a plurality of captured images of the physical object and surface normal information of the object, the surface normal information representing object surface normals associated with respective parts of the object surface; - creating a digital 3D representation of at least the object surface; - obtaining an intermediate representation of the object surface, wherein the intermediate representation comprises a depth map indicative of distances from a reference position to respective positions on the object surface, the intermediate representation comprising a first part (S1) representing a first part of the object surface wherein the first part of the object surface comprises a hole in the depth map; - modifying the first part of the intermediate representation to obtain a modified representation; - determining a second part (S2) of the object surface within a proximity of the first part of the object surface; - determining, from the obtained surface normal information, one or more object surface normals associated with the determined second part; - modifying the first part of the intermediate representation based at least in part on the determined one or more object surface normals; wherein modifying the first part of the intermediate representation comprises filling the hole.
An ejector for a cooling apparatus , comprising: a nozzle unit in which a first refrigerant moves; a suction unit which is formed to surround the nozzle unit and forms a suction path in which a second refrigerant moves between the nozzle unit and the suction unit; a mixing unit being in communication with the suction unit and configured to form a mixed fluid of the first refrigerant and the second refrigerant; and a diffuser unit which extends from the mixing unit in a direction of an ejector center axis passing through a center of the nozzle unit, the suction unit, and the mixing unit and is configured to convert kinetic energy of the mixed fluid discharged from the mixing unit into pressure energy, wherein the suction unit includes a suction port into which the second refrigerant is introduced into the suction unit, and a suction guide unit which has a guide curved surface having a curved inner surface and has a cross-sectional area of the suction path reduced in a flow direction of the first refrigerant, characterized in that the guide curved surface includes a concave guide curved surface configured to guide a flow of the second refrigerant so that the second refrigerant moves toward the ejector center axis, and a convex guide curved surface arranged at a more downstream side than the concave guide curved surface and provided to have a cross-sectional area of the suction path more gently reduced than that of the concave guide curved surface . a nozzle unit in which a first refrigerant moves; a suction unit which is formed to surround the nozzle unit and forms a suction path in which a second refrigerant moves between the nozzle unit and the suction unit; a mixing unit being in communication with the suction unit and configured to form a mixed fluid of the first refrigerant and the second refrigerant; and a diffuser unit which extends from the mixing unit in a direction of an ejector center axis passing through a center of the nozzle unit, the suction unit, and the mixing unit and is configured to convert kinetic energy of the mixed fluid discharged from the mixing unit into pressure energy, wherein the suction unit includes a suction port into which the second refrigerant is introduced into the suction unit, and a suction guide unit which has a guide curved surface having a curved inner surface and has a cross-sectional area of the suction path reduced in a flow direction of the first refrigerant, characterized in that the guide curved surface includes a concave guide curved surface configured to guide a flow of the second refrigerant so that the second refrigerant moves toward the ejector center axis, and a convex guide curved surface arranged at a more downstream side than the concave guide curved surface and provided to have a cross-sectional area of the suction path more gently reduced than that of the concave guide curved surface .
An organic light-emitting diode (OLED) display, comprising: a substrate having a flexible portion configured to bend or fold; a semiconductor on the substrate ; a gate insulating layer on the semiconductor and having two openings exposing at least parts of the semiconductor , wherein the gate insulating layer overlaps a central portion and an edge portion of the semiconductor ; an interlayer insulating layer comprising an organic insulating material on the gate insulating layer , wherein a portion of the interlayer insulating layer is within the openings ; a gate electrode between the gate insulating layer and the interlayer insulating layer and overlapping the semiconductor ; and a source electrode and a drain electrode on the interlayer insulating layer and connected to the semiconductor , wherein the source and drain electrodes do not directly contact the gate insulating layer , and the interlayer insulating layer has a contact hole positioned within each of the two openings and the source and drain electrodes are connected to the semiconductor through the contact holes . a substrate having a flexible portion configured to bend or fold; a semiconductor on the substrate ; a gate insulating layer on the semiconductor and having two openings exposing at least parts of the semiconductor , wherein the gate insulating layer overlaps a central portion and an edge portion of the semiconductor ; an interlayer insulating layer comprising an organic insulating material on the gate insulating layer , wherein a portion of the interlayer insulating layer is within the openings ; a gate electrode between the gate insulating layer and the interlayer insulating layer and overlapping the semiconductor ; and a source electrode and a drain electrode on the interlayer insulating layer and connected to the semiconductor , wherein the source and drain electrodes do not directly contact the gate insulating layer , and the interlayer insulating layer has a contact hole positioned within each of the two openings and the source and drain electrodes are connected to the semiconductor through the contact holes .
A method of optimising an orientation error for a smartphone device carried by a user, the orientation error being the difference between an estimated orientation calculated from signals from one or more sensors of the device providing information about the motion of the device and the real orientation, the method comprising: receiving acceleration and orientation signals from sensors responsive to the acceleration and orientation of the device , classifying the motion of the device as a symmetrical motion mode or an asymmetrical motion mode, where a symmetrical motion mode has similar periodic acceleration signals with a period corresponding to a single step of the user, and an asymmetrical motion mode has similar periodic orientation patterns with a period corresponding to two steps of the user, obtaining a set of vector values of the acceleration of the device from the acceleration signals for an interval of one or more whole periods of a single step, or two steps, of the user, according to the classification of the motion of the device as a symmetrical motion mode or an asymmetrical motion mode, and optimising the orientation error using the set of acceleration values subject to physical constraints on the motion of the device that apply during the interval, wherein the physical constraints include that the velocity and height of the mobile device are the same after each step or double step, and that the orientation error is constant during the interval. receiving acceleration and orientation signals from sensors responsive to the acceleration and orientation of the device , classifying the motion of the device as a symmetrical motion mode or an asymmetrical motion mode, where a symmetrical motion mode has similar periodic acceleration signals with a period corresponding to a single step of the user, and an asymmetrical motion mode has similar periodic orientation patterns with a period corresponding to two steps of the user, obtaining a set of vector values of the acceleration of the device from the acceleration signals for an interval of one or more whole periods of a single step, or two steps, of the user, according to the classification of the motion of the device as a symmetrical motion mode or an asymmetrical motion mode, and optimising the orientation error using the set of acceleration values subject to physical constraints on the motion of the device that apply during the interval, wherein the physical constraints include that the velocity and height of the mobile device are the same after each step or double step, and that the orientation error is constant during the interval.
A glass body support assembly (350; 400; 500) that supports a glass container body in an upright position, the glass body support assembly (350; 400; 500) comprising: a collet body (352; 402; 502), wherein the collet body (352; 402; 502) has an outwardly tapered surface (381; 428; 528); clamping fingers (358; 436; 552) configured to clamp onto a necked-down portion of the glass container body , the collet body (352; 402; 502) having a gas purge passageway (362; 416; 518) extending therethrough to deliver pressurized gas to an interior of the glass container body; and a collet closer (376; 408; 508) having an inwardly tapered surface (378; 430; 530) that engages the outwardly tapered surface (381; 428; 528) of the collet body (352; 402; 502) to apply a radial force to the clamping fingers (358; 436; 552) through the collet body (352; 402; 502). a collet body (352; 402; 502), wherein the collet body (352; 402; 502) has an outwardly tapered surface (381; 428; 528); clamping fingers (358; 436; 552) configured to clamp onto a necked-down portion of the glass container body , the collet body (352; 402; 502) having a gas purge passageway (362; 416; 518) extending therethrough to deliver pressurized gas to an interior of the glass container body; and a collet closer (376; 408; 508) having an inwardly tapered surface (378; 430; 530) that engages the outwardly tapered surface (381; 428; 528) of the collet body (352; 402; 502) to apply a radial force to the clamping fingers (358; 436; 552) through the collet body (352; 402; 502).
Measurement device for measuring the oxidation stability and/or the thermal stability of a fuel, said measurement system comprising fuel supply means , a microfluidic or millifluidic chip which comprises at least one channel for the flow of the fuel, means for circulating said fuel in said microfluidic or millifluidic chip, and means for measuring the oxidation stability and/or the thermal stability of said fuel, characterized in that said means for measuring the oxidation stability and/or the thermal stability of said fuel comprise coupled measurement means connected to said chip and able to measure the variation in heat capacity of said fuel and the fluorescence of said fuel .
A server device (1; 30) operating a piece of software for controlling a function of a rail transport safety system, wherein the software (11, 12, 13; 31, 32, 33) operates at least two processes (11a-11b; 12a-12b; 13a-13b; 31a-31c; 32a-32c; 33a-33c) physically separated from one another, the results of which are compared to one another in order to perform control of the function, characterized in that the software (11, 12, 13; 31, 32, 33) is operated on a virtual operating platform of the server device (1; 30), in that the server device (1; 30) comprises at least two physically separate server clusters (SC1, SC2, SC3), wherein each of the server clusters (SC1, SC2, SC3) of the server device (1; 30) comprises at least two individual servers (SRV-1-1, SRV-1-2, SRV-2-1, SRV-2-2, SRV-3-1, SRV-3-2) which between them allow for a migration of processes (11a-11b; 12a-12b; 13a-13b; 31a-31c; 32a-32c; 33a-33c) in the event that an individual server (SRV-1-1, SRV-1-2, SRV-2-1, SRV-2-2, SRV-3-1, SRV-3-2) fails, wherein the at least two processes (11a-11b; 12a-12b; 13a-13b; 31a-31c; 32a-32c; 33a-33c) run on virtual machines (VM), and in that the software (11, 12, 13; 31, 32, 33) comprises at least two parts that are installed on different server clusters of the at least two server clusters (SC1, SC2, SC3), so that the at least two processes (11a-11b; 12a-12b; 13a-13b; 31a-31c; 32a-32c; 33a-33c) are operated on different server clusters of the at least two server clusters (SC1, SC2, SC3).
A hygiene-compliant display and control device for arrangement on a mounting plate , wherein the display and control device comprises a front plate and a sealing element , which sealing element is arranged between the front plate and the mounting plate in a compressed state of the display and control device on the mounting plate , wherein a number of clamping arrangements, each having a pressing element , are provided on the display and control device distributed around the periphery, wherein each pressing element engages with an axial end with a fixing frame , which abuts the mounting plate , or with the mounting plate , wherein a peripheral groove is provided on the outer edge of the front plate , which groove is open on the outer peripheral surface of the front plate , wherein the sealing element is fitted in the peripheral groove , characterized in that the outer peripheral surface of the sealing element is arranged flush with the outer peripheral surface of the front plate .
A beater bar configured for use within a beverage machine , the beater bar comprising: a shaft configured to rotate in a direction of rotation ; a plurality of arms extending radially away from the shaft; a plurality of end caps , with an end cap of the plurality of end caps extending behind each arm of the plurality of arms relative to the direction of rotation; and a scraper blade secured to the plurality of arms by engagement with the plurality of end caps respectively secured to the plurality of arms. a shaft configured to rotate in a direction of rotation ; a plurality of arms extending radially away from the shaft; a plurality of end caps , with an end cap of the plurality of end caps extending behind each arm of the plurality of arms relative to the direction of rotation; and a scraper blade secured to the plurality of arms by engagement with the plurality of end caps respectively secured to the plurality of arms.
An image processing device comprising: an acquisition unit that acquires a shape of an insertion part to be inserted into a subject in an endoscope ; a storage unit in which a predetermined shape is stored; a determination unit that determines whether or not the shape of the insertion part includes the predetermined shape stored in the storage unit ; and characterised by a display controller that controls a display unit to display a first shape image in a case where the determination unit determines that the shape of the insertion part does not include the predetermined shape, and controls the display unit to display the first shape image and a second shape image in a case where the determination unit determines that the shape of the insertion part includes the predetermined shape, the first shape image representing the shape of the insertion part in a first viewpoint direction, the second shape image including a portion corresponding to the predetermined shape of the insertion part in a second viewpoint direction different from the first viewpoint direction. an acquisition unit that acquires a shape of an insertion part to be inserted into a subject in an endoscope ; a storage unit in which a predetermined shape is stored; a determination unit that determines whether or not the shape of the insertion part includes the predetermined shape stored in the storage unit ; and characterised by a display controller that controls a display unit to display a first shape image in a case where the determination unit determines that the shape of the insertion part does not include the predetermined shape, and controls the display unit to display the first shape image and a second shape image in a case where the determination unit determines that the shape of the insertion part includes the predetermined shape, the first shape image representing the shape of the insertion part in a first viewpoint direction, the second shape image including a portion corresponding to the predetermined shape of the insertion part in a second viewpoint direction different from the first viewpoint direction.
Tracer charge for tracer ammunition being able to be fired from a barrelled weapon comprising a projectile accommodating the tracer charge (1-1"'), wherein the tracer charge (1-1"') comprises a bowl-shaped housing (2-2"), wherein the tracer charge (1-1''') comprises an electrical energy supply device arranged at the bottom in the bowl-shaped housing (2-2"), a circuit device and an illuminant arrangement , wherein the illuminant arrangement is able to be supplied with electrical voltage from the energy supply device with the aid of the circuit device , and wherein an optical unit for focusing the light emitted by the illuminant arrangement arranged at the illuminant arrangement in the region of the rear-side opening of the bowl-shaped housing (2-2") is provided, wherein the circuit device is an electronic switching device which is embodied in such a way that it automatically transitions from an open to a closed state on account of the high firing acceleration of the projectile containing the respective tracer charge (1-1''') and then electrically connects the energy supply device with the illuminant arrangement , characterized in that the electronic circuit device is connected to a sensor for detecting the firing of the projectile that is connectable to the tracer charge (1-1'''), and in that the sensor is a piezoceramic, the first surface of which is supported on the electrical energy supply device and the second surface of which is supported on the electronic circuit device , or the sensor is a piezoceramic that is arranged between the base of the bowl-shaped housing (2") and the adjacent wall of the projectile .