mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting acknowledgement information by a user equipment, UE, in a wireless communication system, the method comprising: receiving downlink control information scheduling 2 transmission blocks, TBs, each including one or more code block groups, CBGs; receiving first downlink data related to the 2 TBs based on the downlink control information; and transmitting CBG level acknowledgement, ACK, information regarding first ACK information related to a first TB and second ACK information related to a second TB in the received first downlink data, the UE determines a size of first payload for the first ACK information related to the first TB to be identical to a size of second payload for the second ACK information related to the second TB. receiving downlink control information scheduling 2 transmission blocks, TBs, each including one or more code block groups, CBGs; receiving first downlink data related to the 2 TBs based on the downlink control information; and transmitting CBG level acknowledgement, ACK, information regarding first ACK information related to a first TB and second ACK information related to a second TB in the received first downlink data, the UE determines a size of first payload for the first ACK information related to the first TB to be identical to a size of second payload for the second ACK information related to the second TB.
A wireless communication method, comprising: receiving, by a terminal device, first configuration information, the first configuration information comprising m pieces of resource indication information, wherein a resource indicated by the m pieces of resource indication information is used for performing sounding reference signal, SRS-based reference signal receiving power, RSRP, measurement and/or received signal strength indication, RSSI, measurement, and m is a positive integer greater than or equal to 1, wherein the measurement comprises cross-link interference, CLI, measurement; and performing, by the terminal device, the SRS-based RSRP measurement and/or the RSSI measurement on the resource indicated by the m pieces of resource indication information, characterized in that the first configuration information comprises bandwidth part BWP indication information, the BWP indication information being used for indicating a BWP corresponding to the resource indicated by the m pieces of resource indication information, wherein the first configuration information specifically includes m pieces of BWP indication information, a BWP indicated by i-th BWP indication information corresponds to a downlink BWP indicated by i-th resource indication information, 0<i≤m. receiving, by a terminal device, first configuration information, the first configuration information comprising m pieces of resource indication information, wherein a resource indicated by the m pieces of resource indication information is used for performing sounding reference signal, SRS-based reference signal receiving power, RSRP, measurement and/or received signal strength indication, RSSI, measurement, and m is a positive integer greater than or equal to 1, wherein the measurement comprises cross-link interference, CLI, measurement; and performing, by the terminal device, the SRS-based RSRP measurement and/or the RSSI measurement on the resource indicated by the m pieces of resource indication information, characterized in that the first configuration information comprises bandwidth part BWP indication information, the BWP indication information being used for indicating a BWP corresponding to the resource indicated by the m pieces of resource indication information, wherein the first configuration information specifically includes m pieces of BWP indication information, a BWP indicated by i-th BWP indication information corresponds to a downlink BWP indicated by i-th resource indication information, 0<i≤m.
A to radio-frequency identification (RFID) configuration detection system adapted to detect and/or to direct a configuration of a complex system having a set of one or more types of galvanic mateable components (12A, 12B), comprising: at least one RFID tag (16A, 16B) associated with each mateable component (12A, 12B) in the set of mateable components (12A, 12B), said at least one RFID tag (16A, 16B) having an integrated circuit C chip and an antenna electrically connected to the integrated circuit IC chip, the IC chip being adapted to store information that includes information relating to its associated mateable component (12A, 12B), and to communicate information regarding the mated status of the associated mateable component (12A, 12B) via at least one wireless RFID tag signal; at least one RFID reader adapted to receive an at least one RFID tag signal from each mated pair of components (12A, 12B); and an information processing system operably connected to the at least one RFID reader and adapted to receive therefrom and process said mated status information to determine the complex system configuration; characterised in that the mateable components (12A, 12B) are formed such that mating two mateable components (12A, 12B) causes the corresponding mateable RFID tags (16A, 16B) associated with the two mateable components (12A, 12B) to physically mate electrically with each other via contact members and to exchange information about their respective mateable component (12A, 12B) stored therein. at least one RFID tag (16A, 16B) associated with each mateable component (12A, 12B) in the set of mateable components (12A, 12B), said at least one RFID tag (16A, 16B) having an integrated circuit C chip and an antenna electrically connected to the integrated circuit IC chip, the IC chip being adapted to store information that includes information relating to its associated mateable component (12A, 12B), and to communicate information regarding the mated status of the associated mateable component (12A, 12B) via at least one wireless RFID tag signal; at least one RFID reader adapted to receive an at least one RFID tag signal from each mated pair of components (12A, 12B); and an information processing system operably connected to the at least one RFID reader and adapted to receive therefrom and process said mated status information to determine the complex system configuration; characterised in that the mateable components (12A, 12B) are formed such that mating two mateable components (12A, 12B) causes the corresponding mateable RFID tags (16A, 16B) associated with the two mateable components (12A, 12B) to physically mate electrically with each other via contact members and to exchange information about their respective mateable component (12A, 12B) stored therein.
A leadless cardiac pacemaker configured to sense cardiac activity and to deliver pacing therapy to a ventricle of a patient's heart, the LCP comprising: a housing having a proximal end and a distal end; a first electrode secured relative to the housing and exposed to the environment outside of the housing; a second electrode secured relative to the housing and exposed to the environment outside of the housing; a sensing module disposed within the housing, the sensing module configured to detect an atrial artifact during passive ventricular filling and identify an atrial event based, at least in part, on the detected artifact; and circuitry in the housing operatively coupled to the first electrode and the second electrode, and also operatively coupled to the sensing module, the circuitry configured to deliver a ventricular pacing therapy to the patient' s heart via the first electrode and the second electrode, wherein the ventricular pacing therapy is time dependent, at least in part, on the identified atrial event; characterized in that the sensing module is configured to detect the atrial artefact by sensing at least one of a pressure, impedance, strain, and flow. a housing having a proximal end and a distal end; a first electrode secured relative to the housing and exposed to the environment outside of the housing; a second electrode secured relative to the housing and exposed to the environment outside of the housing; a sensing module disposed within the housing, the sensing module configured to detect an atrial artifact during passive ventricular filling and identify an atrial event based, at least in part, on the detected artifact; and circuitry in the housing operatively coupled to the first electrode and the second electrode, and also operatively coupled to the sensing module, the circuitry configured to deliver a ventricular pacing therapy to the patient' s heart via the first electrode and the second electrode, wherein the ventricular pacing therapy is time dependent, at least in part, on the identified atrial event; characterized in that the sensing module is configured to detect the atrial artefact by sensing at least one of a pressure, impedance, strain, and flow.
Linear motor for short strokes, comprising a primary part having a coil carrier (1.1) and at least one coil (1.2) arranged therein, and a secondary part movable relative to the primary part, which has magnet carriers (2.1) having magnets (2.2) arranged on both sides of the coil carrier (1.1), which are separated from one another by spacers (2.3), so that the coil carrier (1.1) is movable between the two magnet carriers (2.1), characterized in that the spacers (2.2) are guided through openings (1.3) in the primary part.
Use of an aromatic amine in a lubricating composition for providing spark timing advance of a spark-ignited internal combustion engine wherein the lubricating composition comprises (i) base oil and (ii) from 3 to 20 wt% of the aromatic amine, wherein the aromatic amine is selected from aniline and alkyl- substituted aniline compounds, 1,2,3,4- tetrahydroquinoline, diphenylamine and alkyl-substituted diphenylamine compounds, 2-ethylhexyl-4-(dimethylamino)benzoate, indoline, N,N-dimethyl-1,4-phenylenediamine, o-toluidine, p-toluidine, p-anisidine, p-phenetidine, and mixtures thereof.
A method, performed by a terminal, of determining an embedded universal integrated circuit card, eUICC, version in a wireless communication system wherein the eUICC is a UICC that is fixed to or is not fixed to the terminal, the method comprising: establishing a hypertext transfer protocol over secure socket layer, HTTPS, connection with a server; transmitting eUICC information comprising information about the eUICC version to the server through the HTTPS connection; and receiving, from the server, server information corresponding to the eUICC information and comprising eUICC specification version supported by the server, and performing an authentication process with the server based on the server information corresponding to the eUICC information, wherein the information about the eUICC version comprises a minimum eUICC specification version and a maximum eUICC specification version that are supported by the eUICC of the terminal. establishing a hypertext transfer protocol over secure socket layer, HTTPS, connection with a server; transmitting eUICC information comprising information about the eUICC version to the server through the HTTPS connection; and receiving, from the server, server information corresponding to the eUICC information and comprising eUICC specification version supported by the server, and performing an authentication process with the server based on the server information corresponding to the eUICC information, wherein the information about the eUICC version comprises a minimum eUICC specification version and a maximum eUICC specification version that are supported by the eUICC of the terminal.
Method of mounting a flexible, profiled hollow cylinder onto a cylindrical element, which comprises at least the following temporally sequential steps: (a) elongating the hollow cylinder by axial stretching by 1% to 30% along its longitudinal axis such that the smallest inner diameter of the hollow cylinder increases, (b) inserting the cylindrical element into the hollow cylinder elongated in this way, and finally, (c) relaxing the hollow cylinder. (a) elongating the hollow cylinder by axial stretching by 1% to 30% along its longitudinal axis such that the smallest inner diameter of the hollow cylinder increases, (b) inserting the cylindrical element into the hollow cylinder elongated in this way, and finally, (c) relaxing the hollow cylinder.
A clipping mechanism for fastening a substrate for a surface treatment of the substrate, comprising: - a clipping bracket, and - an actuation unit comprising an actuation spindle, wherein the clipping bracket comprises in a cross-section a first arm and a second arm, wherein the first arm is moveable relative to the second arm to a receiving position for the substrate with a receiving distance between the first arm and the second arm and to a fastening position for the substrate with a fastening distance between the first arm and the second arm, wherein the fastening distance is smaller than the receiving distance, wherein the actuation unit is at least partially surrounded by the clipping bracket, wherein at least a portion of the actuation spindle comprises in a cross-section a cam and a second portion comprises a second cam, wherein the actuation spindle is rotatable relative to the clipping bracket, wherein the cam is in cooperation with the clipping bracket to move the first arm in the receiving position or the fastening position when the actuation spindle is rotated, wherein the second cam is in cooperation with the clipping bracket to move the second arm in the receiving position or the fastening position when the actuation spindle is rotated, and wherein the cam is moveable independently of the second cam. - a clipping bracket, and - an actuation unit comprising an actuation spindle, wherein the clipping bracket comprises in a cross-section a first arm and a second arm, wherein the first arm is moveable relative to the second arm to a receiving position for the substrate with a receiving distance between the first arm and the second arm and to a fastening position for the substrate with a fastening distance between the first arm and the second arm, wherein the fastening distance is smaller than the receiving distance, wherein the actuation unit is at least partially surrounded by the clipping bracket, wherein at least a portion of the actuation spindle comprises in a cross-section a cam and a second portion comprises a second cam, wherein the actuation spindle is rotatable relative to the clipping bracket, wherein the cam is in cooperation with the clipping bracket to move the first arm in the receiving position or the fastening position when the actuation spindle is rotated, wherein the second cam is in cooperation with the clipping bracket to move the second arm in the receiving position or the fastening position when the actuation spindle is rotated, and wherein the cam is moveable independently of the second cam.
A disposable device for culturing and harvesting plant tissue and/or cells comprising a non-rigid container having a volume of at least 400 liters and being configured with gas exchange ports and a harvesting port enabling said device to be used continuously for at least two consecutive culturing/harvesting cycles, wherein the gas exchange ports include a plurality of gas inlet ports positioned on a surface of the container within the bottom one half of a height of the container configured to mix and aerate medium in the container, wherein the device has neither mechanical mixing of the medium in the container nor a sparger to distribute gas when medium is present therein and wherein the device is designed and constructed for maintaining oxygen saturation and shear forces suitable for culturing said plant tissue and/or cells.
Method for manufacturing nanoparticles in a metal oxide comprising a step of adding a water-soluble polymer to a dispersion of said nanoparticles, and a step of lyophilisation of the dispersion obtained, and optionally comprising a step of manufacturing a dispersion of said nanoparticles, before the step of adding a water-soluble polymer to this dispersion nanoparticles, characterised in that: - the dispersion of nanoparticles is an aqueous dispersion of nanoparticles selected from nanoparticles of alumina (Al 2 O 3), of zinc oxide (ZnO), of titanium oxide (TiO 2), of silica (SiO 2) and of beryllium oxide (BeO), - the water-soluble polymer is selected from polyvinyl alcohols, polyethylene glycols and polyvinylpyrrolidones, polyoxazolines, starches, and mixtures of two or more thereof, and - it further comprises, after said step of adding a water-soluble polymer to a dispersion of said nanoparticles, and before the step of lyophilisation of the dispersion obtained, a step of thermal quenching of said dispersion. - the dispersion of nanoparticles is an aqueous dispersion of nanoparticles selected from nanoparticles of alumina (Al 2 O 3), of zinc oxide (ZnO), of titanium oxide (TiO 2), of silica (SiO 2) and of beryllium oxide (BeO), - the water-soluble polymer is selected from polyvinyl alcohols, polyethylene glycols and polyvinylpyrrolidones, polyoxazolines, starches, and mixtures of two or more thereof, and - it further comprises, after said step of adding a water-soluble polymer to a dispersion of said nanoparticles, and before the step of lyophilisation of the dispersion obtained, a step of thermal quenching of said dispersion.
Method (100A-C) for determining at least one spatial coordinate of a measurement point of an object with a coordinate measuring machine, the method comprising • providing nominal design data, particularly a computer aided design model, of the object, • capturing at least a first image of the object, the object being positioned in a measuring volume of the coordinate measuring machine, • determining edges in the at least first image by identifying points in the at least first image, at which points the image brightness has discontinuities, • identifying the object based on the determined edges and on the nominal design data, • defining, based on the determined edges, a measurement path for a probe head of the coordinate measuring machine for approaching the measurement point with the probe head, and • driving the probe head along the measurement path. • providing nominal design data, particularly a computer aided design model, of the object, • capturing at least a first image of the object, the object being positioned in a measuring volume of the coordinate measuring machine, • determining edges in the at least first image by identifying points in the at least first image, at which points the image brightness has discontinuities, • identifying the object based on the determined edges and on the nominal design data, • defining, based on the determined edges, a measurement path for a probe head of the coordinate measuring machine for approaching the measurement point with the probe head, and • driving the probe head along the measurement path.
A cooling arrangement realised to cool stator windings of the stator of a generator, which cooling arrangement comprises - a plurality of axial winding channels, wherein an axial winding channel extends along a gap (G 10) between adjacent stator windings in a direction essentially parallel to an axis of rotation of the generator; and - an airflow guiding means (12, 13F, 13R, 14, 15, 25) realised to guide a cooling airflow along the axial winding channels and subsequently into an interior cavity of the stator. - a plurality of axial winding channels, wherein an axial winding channel extends along a gap (G 10) between adjacent stator windings in a direction essentially parallel to an axis of rotation of the generator; and - an airflow guiding means (12, 13F, 13R, 14, 15, 25) realised to guide a cooling airflow along the axial winding channels and subsequently into an interior cavity of the stator.
A panel bottom member structure for a display device, the panel bottom member structure comprising: a panel bottom member including: a light absorbing member; a top bonding layer disposed on the light absorbing member; an acoustic vibration element which is disposed beneath the light absorbing member and is configured to generate a vibration in response to an acoustic signal; and a buffer member disposed beneath the light absorbing member and non-overlapping the acoustic vibration element; and an element circuit board (VFPC) connected to the acoustic vibration element for transmitting the acoustic signal to the acoustic vibration element. a light absorbing member; a top bonding layer disposed on the light absorbing member; an acoustic vibration element which is disposed beneath the light absorbing member and is configured to generate a vibration in response to an acoustic signal; and a buffer member disposed beneath the light absorbing member and non-overlapping the acoustic vibration element; and an element circuit board (VFPC) connected to the acoustic vibration element for transmitting the acoustic signal to the acoustic vibration element.
Endoscope comprising - a mount, rotatably mounted in a rotatably mounted bracket, comprising a digital camera, wherein the bracket is radially rotatably arranged such that the axes of rotation of the bracket and the mount are mutually perpendicular, - a thrust crank at least in regions of a tubular support element of the bracket for pivoting the mount comprising the digital camera, - a first rotary and annular stepper motor, wherein both the stator and the rotor of the stepper motor are annular in the form of an electric motor, for the tubular support element and thus the bracket and - a second translational stepper motor, coupled to the thrust crank, for the mount, wherein the translational stepper motor is coupled to the thrust crank and the tubular support element is coupled to the rotor of the first rotary and annular stepper motor, the connecting cable for the digital camera is located, at least in regions, in the thrust crank and thus inside the endoscope, and the stepper motors (7, 11) are connected to a control means such that the positions of the bracket and of the mount can be determined and the position of the image field of the digital camera can be determined therefrom, and - a cover, made of a material that is transparent to visible light, for the rotatably mounted bracket including the mount comprising the digital camera, wherein the dimensions of the endoscope shaft are not changed. - a mount, rotatably mounted in a rotatably mounted bracket, comprising a digital camera, wherein the bracket is radially rotatably arranged such that the axes of rotation of the bracket and the mount are mutually perpendicular, - a thrust crank at least in regions of a tubular support element of the bracket for pivoting the mount comprising the digital camera, - a first rotary and annular stepper motor, wherein both the stator and the rotor of the stepper motor are annular in the form of an electric motor, for the tubular support element and thus the bracket and - a second translational stepper motor, coupled to the thrust crank, for the mount, wherein the translational stepper motor is coupled to the thrust crank and the tubular support element is coupled to the rotor of the first rotary and annular stepper motor, the connecting cable for the digital camera is located, at least in regions, in the thrust crank and thus inside the endoscope, and the stepper motors (7, 11) are connected to a control means such that the positions of the bracket and of the mount can be determined and the position of the image field of the digital camera can be determined therefrom, and - a cover, made of a material that is transparent to visible light, for the rotatably mounted bracket including the mount comprising the digital camera, wherein the dimensions of the endoscope shaft are not changed.