mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting a sounding reference signal, SRS, of a user equipment , UE, in an uplink Cooperative Multi-Point, CoMP, system, the method comprising: receiving parameters for transmitting the SRS from base stations, BSs, included in the same CoMP set, wherein the parameters include a first basis sequence and a first cyclic shift value for transmitting a first SRS to a first BS included in the CoMP set, and a second basis sequence and a second cyclic shift value for transmitting a second SRS to a second BS included in said CoMP set; and transmitting the first SRS to the first BS by using the first basis sequence and the first cyclic shift value, and the second SRS to the second BS by using the second basis sequence and the first cyclic shift value, wherein the first basis sequence and the second basis sequence are different from each other, and the first cyclic shift value and the second cyclic shift value are different from each other, and wherein the first SRS and the second SRS are transmitted at different time units, wherein the different time units are determined by applying timing control values for the second BS included in the CoMP set, wherein the timing control values are notified from the second BS to the first BS, and characterized in that when reception timing of the first SRS is aligned with reception timing of other UEs belonging to the first BS, reception timing of the second SRS is delayed based on the timing control values to align with reception timing of other UEs belonging to the second BS using the second basis sequence and the second cyclic shift value. receiving parameters for transmitting the SRS from base stations, BSs, included in the same CoMP set, wherein the parameters include a first basis sequence and a first cyclic shift value for transmitting a first SRS to a first BS included in the CoMP set, and a second basis sequence and a second cyclic shift value for transmitting a second SRS to a second BS included in said CoMP set; and transmitting the first SRS to the first BS by using the first basis sequence and the first cyclic shift value, and the second SRS to the second BS by using the second basis sequence and the first cyclic shift value, wherein the first basis sequence and the second basis sequence are different from each other, and the first cyclic shift value and the second cyclic shift value are different from each other, and wherein the first SRS and the second SRS are transmitted at different time units, wherein the different time units are determined by applying timing control values for the second BS included in the CoMP set, wherein the timing control values are notified from the second BS to the first BS, and characterized in that when reception timing of the first SRS is aligned with reception timing of other UEs belonging to the first BS, reception timing of the second SRS is delayed based on the timing control values to align with reception timing of other UEs belonging to the second BS using the second basis sequence and the second cyclic shift value.
Method of producing a tissue graft, comprising at least the following steps: - providing a gel, - seeding the gel with cells of a first type or cells of a first type and a second type, - culturing the cells of the first type or the cells of the first type and the second type in said gel until the formation of at least one first biostructure in said gel by the cells of the first type or the cells of the first type and the second type, wherein the first biostructure is a vascular structure, - wherein o the cells of the first type are stromal vascular fraction, SVF, cells, or o the cells of the first type are endothelial cells and the cells of the second type are fibroblasts, wherein the endothelial cells and the fibroblasts are co-cultured together in the gel for formation of the first biostructure, - wherein cells of a third type are seeded onto the gel after the at least one first biostructure has been formed in the gel by the cells of the first type or the cells of the first type and the second type, wherein the cells of the third type are selected from keratinocytes, - wherein after seeding of the cells of the third type the gel is cultured until the formation of at least one second biostructure on the gel, wherein the second biostructure is an epidermal structure, - and wherein after the seeding of the gel with the cells of the first type or the cells of the first type and the second type, the gel is compacted. - providing a gel, - seeding the gel with cells of a first type or cells of a first type and a second type, - culturing the cells of the first type or the cells of the first type and the second type in said gel until the formation of at least one first biostructure in said gel by the cells of the first type or the cells of the first type and the second type, wherein the first biostructure is a vascular structure, - wherein o the cells of the first type are stromal vascular fraction, SVF, cells, or o the cells of the first type are endothelial cells and the cells of the second type are fibroblasts, wherein the endothelial cells and the fibroblasts are co-cultured together in the gel for formation of the first biostructure, o the cells of the first type are stromal vascular fraction, SVF, cells, or o the cells of the first type are endothelial cells and the cells of the second type are fibroblasts, wherein the endothelial cells and the fibroblasts are co-cultured together in the gel for formation of the first biostructure, - wherein cells of a third type are seeded onto the gel after the at least one first biostructure has been formed in the gel by the cells of the first type or the cells of the first type and the second type, wherein the cells of the third type are selected from keratinocytes, - wherein after seeding of the cells of the third type the gel is cultured until the formation of at least one second biostructure on the gel, wherein the second biostructure is an epidermal structure, - and wherein after the seeding of the gel with the cells of the first type or the cells of the first type and the second type, the gel is compacted.
Method for analyzing rock property changes resulting from a treatment, the method being characterized by comprising: • extracting a sub-sample portion from a rock sample ; • capturing pre-treatment computed tomography (CT) images of the rock sample and the sub-sample portion extracted from the rock sample , wherein the pre-treatment CT images of the sub-sample are captured while the rock sample and the sub-sample portion are physically separated; • applying the treatment to the rock sample and the sub-sample , wherein the treatment comprises increasing or decreasing a permeability or porosity, the treatment being applied while the rock sample and the sub-sample portion are rejoined together • capturing post-treatment CT images of the rock sample and the sub-sample portion, wherein the post-treatment CT images of the sub-sample are captured while the rock sample and the sub-sample are physically separated; • comparing the pre-treatment CT images with post-treatment CT images after alignment by using natural or man-made markers; and • generating a report that describes a treatment's effect, the report being based on said comparison. • extracting a sub-sample portion from a rock sample ; • capturing pre-treatment computed tomography (CT) images of the rock sample and the sub-sample portion extracted from the rock sample , wherein the pre-treatment CT images of the sub-sample are captured while the rock sample and the sub-sample portion are physically separated; • applying the treatment to the rock sample and the sub-sample , wherein the treatment comprises increasing or decreasing a permeability or porosity, the treatment being applied while the rock sample and the sub-sample portion are rejoined together • capturing post-treatment CT images of the rock sample and the sub-sample portion, wherein the post-treatment CT images of the sub-sample are captured while the rock sample and the sub-sample are physically separated; • comparing the pre-treatment CT images with post-treatment CT images after alignment by using natural or man-made markers; and • generating a report that describes a treatment's effect, the report being based on said comparison.
A switchgear, comprising: a housing having a top plate , a floor plate , and a side wall , and having an aperture portion comprising a floor face aperture portion provided in the floor plate and a side face aperture portion provided in the side wall ; a cover member detachably attached to the housing so as to cover the aperture portion ; and a terminal disposed in an interior of the housing and configured to be connected to an external cable , wherein one portion of the floor face aperture portion comprises a draw-in portion having an opening to pass through the external cable in a state in which the cover member is attached, the side face aperture portion is provided in the side wall forming a front face side of the housing , and characterised in that the cover member includes an L-form frame detachably attached to a lower portion of the side wall , a cover provided on a floor face side of the housing so as to overlap with one portion of the L-form frame , and a front face panel provided on an upper portion of the L-form frame on the front face side of the housing , and a ground bus is attached to the L-form frame in a place on an inner side of the housing in a state in which the L-form frame is attached to the housing . a housing having a top plate , a floor plate , and a side wall , and having an aperture portion comprising a floor face aperture portion provided in the floor plate and a side face aperture portion provided in the side wall ; a cover member detachably attached to the housing so as to cover the aperture portion ; and a terminal disposed in an interior of the housing and configured to be connected to an external cable , wherein one portion of the floor face aperture portion comprises a draw-in portion having an opening to pass through the external cable in a state in which the cover member is attached, the side face aperture portion is provided in the side wall forming a front face side of the housing , and characterised in that the cover member includes an L-form frame detachably attached to a lower portion of the side wall , a cover provided on a floor face side of the housing so as to overlap with one portion of the L-form frame , and a front face panel provided on an upper portion of the L-form frame on the front face side of the housing , and a ground bus is attached to the L-form frame in a place on an inner side of the housing in a state in which the L-form frame is attached to the housing .
A mobile terminal , comprising: a middle frame ; a main board disposed in the middle frame ; a display screen module connected to the main board ; and a back plate ; the middle frame comprising a front side face , a back side face facing away from the front side face , a left side face and a right side face disposed opposite to each other, and a top face ; the display screen module being disposed on the front side face of the middle frame , the back plate being disposed on the back side face of the middle frame ; wherein a receiving groove is defined on the top of the middle frame , the receiving groove is defined by the top face of the middle frame , the display screen module , and the back plate ; the receiving groove extends in a left-right direction, and two opposite ends of the receiving groove extend to the left side face and the right side face of the middle frame respectively; the mobile terminal further comprises a mounting box slideably received in the receiving groove , a first camera connected to the main board is disposed at a side face of the mounting box that faces the display screen module , the mounting box is configured to extend out of or retract into the receiving groove so that the first camera is exposed out of or hidden into the receiving groove . a middle frame ; a main board disposed in the middle frame ; a display screen module connected to the main board ; and a back plate ; the middle frame comprising a front side face , a back side face facing away from the front side face , a left side face and a right side face disposed opposite to each other, and a top face ; the display screen module being disposed on the front side face of the middle frame , the back plate being disposed on the back side face of the middle frame ; wherein a receiving groove is defined on the top of the middle frame , the receiving groove is defined by the top face of the middle frame , the display screen module , and the back plate ; the receiving groove extends in a left-right direction, and two opposite ends of the receiving groove extend to the left side face and the right side face of the middle frame respectively; the mobile terminal further comprises a mounting box slideably received in the receiving groove , a first camera connected to the main board is disposed at a side face of the mounting box that faces the display screen module , the mounting box is configured to extend out of or retract into the receiving groove so that the first camera is exposed out of or hidden into the receiving groove .
A method of repairing a compressor outlet housing comprising the steps of: (a) obtaining a damaged compressor outlet housing having a radially outer volute , a radially inwardly extending finger extending to an axially extending ledge , a radially inwardly extending web extending radially inwardly from said ledge, a radially inner bearing support defining a bore ; (b) identifying a damaged section within at least one of said bearing support, said web, and said ledge; and (c) removing at least said bearing support and said web leaving a remaining part ; (d) inserting an insert having at least a replacement bearing support and a replacement web into the remaining part after step (c); and (e) welding said insert to said remaining part to provide a repaired compressor housing ; and characterised in that the removal of step (c) includes removing said ledge such that said remaining part has said finger to provide a radial datum surface. (a) obtaining a damaged compressor outlet housing having a radially outer volute , a radially inwardly extending finger extending to an axially extending ledge , a radially inwardly extending web extending radially inwardly from said ledge, a radially inner bearing support defining a bore ; (b) identifying a damaged section within at least one of said bearing support, said web, and said ledge; and (c) removing at least said bearing support and said web leaving a remaining part ; (d) inserting an insert having at least a replacement bearing support and a replacement web into the remaining part after step (c); and (e) welding said insert to said remaining part to provide a repaired compressor housing ; and characterised in that the removal of step (c) includes removing said ledge such that said remaining part has said finger to provide a radial datum surface.
Piston ring made of a fiber composite material with fibers and a matrix, wherein the matrix comprises carbide and a free carbon phase with a proportion of at least about 5% by volume.
A method for providing access to identity information stored in an electronic chip associated with an animal, said animal being tagged with said electronic chip and provided with a transponder configured to read said electronic chip and to receive and respond to information request messages from a first device , the method comprising: reading an identity code from said electronic chip using said transponder ; storing the identity code in memory in said transponder ; receiving, in said transponder , an instruction from the first device to activate a beacon signal; transmitting said identity code as a beacon signal that can be received by one or more second devices in the vicinity of the transponder . reading an identity code from said electronic chip using said transponder ; storing the identity code in memory in said transponder ; receiving, in said transponder , an instruction from the first device to activate a beacon signal; transmitting said identity code as a beacon signal that can be received by one or more second devices in the vicinity of the transponder .
A method for fertilising a plant group, characterised in that the plant group comprises crop plants and weeds, and a fertiliser for plants which have already started to shoot containing at least 50 ppm hordenine is supplied once the crop plants have already started to shoot but the weeds have not yet started to shoot.
A method for regulating the activity of Cas13 protein, comprising a step of treating a first fragment containing the N-terminal segment of Cas13 protein and a first regulatory protein; and a second fragment containing a second regulatory protein and the C-terminal segment of Cas13 protein with a compound or light irradiation, wherein the compound treatment or light irradiation induces dimerization of the first regulatory protein and the second regulatory protein; and wherein the dimerization occurs between the segment from the N-terminus to the 272nd amino acid according to SEQ. ID. NO: 1 and the segment from the 273rd amino acid to the C-terminus according to SEQ. ID. NO: 2; the segment from the N-terminus to the 286th amino acid according to SEQ. ID. NO: 3 and the segment from the 287th amino acid to the C-terminus according to SEQ. ID. NO: 4; the segment from the N-terminus to the 351st amino acid according to SEQ. ID. NO: 5 and the segment from the 352nd amino acid to the C-terminus according to SEQ. ID. NO: 6; the segment from the N-terminus to the 480th amino acid according to SEQ. ID. NO: 7 and the segment from the 481st amino acid to the C-terminus according to SEQ. ID. NO: 8; or the segment from the N-terminus to the 928th amino acid according to SEQ. ID. NO: 15 and the segment from the 929th amino acid to the C-terminus according to SEQ. ID. NO: 16. wherein the dimerization occurs between the segment from the N-terminus to the 272nd amino acid according to SEQ. ID. NO: 1 and the segment from the 273rd amino acid to the C-terminus according to SEQ. ID. NO: 2; the segment from the N-terminus to the 286th amino acid according to SEQ. ID. NO: 3 and the segment from the 287th amino acid to the C-terminus according to SEQ. ID. NO: 4; the segment from the N-terminus to the 351st amino acid according to SEQ. ID. NO: 5 and the segment from the 352nd amino acid to the C-terminus according to SEQ. ID. NO: 6; the segment from the N-terminus to the 480th amino acid according to SEQ. ID. NO: 7 and the segment from the 481st amino acid to the C-terminus according to SEQ. ID. NO: 8; or the segment from the N-terminus to the 928th amino acid according to SEQ. ID. NO: 15 and the segment from the 929th amino acid to the C-terminus according to SEQ. ID. NO: 16.
Charging socket for , an electric vehicle, comprising at least two electrical energy lines for the transmission of a charging current, at least two signal lines for the transmission of control signals during the charging operation, a housing and a contact carrier , which is connected to said housing and forms the plug-in region for a charging plug-in connector, characterized in that the at least two signal lines are provided with an overmoulding and are thereby bundled. at least two electrical energy lines for the transmission of a charging current, at least two signal lines for the transmission of control signals during the charging operation, a housing and a contact carrier , which is connected to said housing and forms the plug-in region for a charging plug-in connector, characterized in that the at least two signal lines are provided with an overmoulding and are thereby bundled.
Hotplate apparatus, particularly for a hotplate having a cover plate which comprises at least two heating zones (10a-10d), having a cooking utensil sensor unit which has at least one bridging detection unit which is provided in order to detect at least one bridging of the at least two heating zones (10a-10d) by means of at least one cooking utensil element , characterised in that the bridging detection unit is provided in order to detect transference of energy from one of the heating zones (10a-10d) to another of the heating zones (10a-10d).
A method of monitoring oscillations that are liable to interact in an electrical power network , in dependence on measurement of AC waveforms in the electrical power network , the method comprising: receiving first waveform data corresponding to an electrical quantity in each phase of at least two phases of three-phase AC waveforms at a location in the electrical power network ; and applying a transformation to the first waveform data to provide therefrom second waveform data corresponding to an electrical quantity at the location in a single phase representation, the second waveform data depending on the at least two phases; characterized in that the method further comprises determining whether or not there is a fault condition reflected in the first waveform data comprising determining whether or not there is an asymmetric fault condition, only of an asymmetric fault condition and a symmetric fault condition. receiving first waveform data corresponding to an electrical quantity in each phase of at least two phases of three-phase AC waveforms at a location in the electrical power network ; and applying a transformation to the first waveform data to provide therefrom second waveform data corresponding to an electrical quantity at the location in a single phase representation, the second waveform data depending on the at least two phases; characterized in that the method further comprises determining whether or not there is a fault condition reflected in the first waveform data comprising determining whether or not there is an asymmetric fault condition, only of an asymmetric fault condition and a symmetric fault condition.
A method for detecting a spoofing jammer for GNSS signals, wherein GNSS signals being available at a receiving position are known and the method comprises the following acts: - receiving radio signals from a GNSS by means of an array antenna with N antenna elements and front end circuitry forming N receiver chains, each outputting digital data of the received radio signals, - coarsely acquiring GNSS signals contained in the received radio signals by processing the outputted digital data with a receiver reference signal, - determining a measure of the direction of arrival for each acquired GNSS signal by means of a steering vector evaluated for each elevation and azimuth in order to cover the hemisphere, - detecting a spoofing jammer from the determined measure of the direction of arrival, and characterised in the further step of - locating a spoofing jammer by determining the distance between the array antenna and the spoofing jammer from an acquired GNSS signal detected as being transmitted from the spoofing jammer by means of a code synchronization of the receiver reference signal with the acquired GNSS signal from the spoofing jammer. - receiving radio signals from a GNSS by means of an array antenna with N antenna elements and front end circuitry forming N receiver chains, each outputting digital data of the received radio signals, - coarsely acquiring GNSS signals contained in the received radio signals by processing the outputted digital data with a receiver reference signal, - determining a measure of the direction of arrival for each acquired GNSS signal by means of a steering vector evaluated for each elevation and azimuth in order to cover the hemisphere, - detecting a spoofing jammer from the determined measure of the direction of arrival, and characterised in the further step of - locating a spoofing jammer by determining the distance between the array antenna and the spoofing jammer from an acquired GNSS signal detected as being transmitted from the spoofing jammer by means of a code synchronization of the receiver reference signal with the acquired GNSS signal from the spoofing jammer.