mhurhangee/patent-ind-claim-en huggingface dataset:
A method of a User Equipment, UE, comprising: the UE is configured with a first Downlink, DL, Bandwidth Part, BWP, and a second DL BWP ; the UE receives and/or monitors a Downlink Control Information, DCI, in a scheduling Control Resource Set, CORESET, in the first DL BWP, and for determining a size of the DCI for decoding, the UE determines whether a Transmission Configuration Indication, TCI, field is present in the DCI or not based on a parameter of the scheduling CORESET before the UE decodes the DCI successfully ; and after the UE decodes successfully the DCI, the UE truncates or pads zero-bits to at least one field, preferably other than the TCI field, in the DCI based on a configuration of the second DL BWP, when a BWP indicator field in the DCI indicates the second DL BWP different from the first DL BWP ; characterized by : after the UE decodes successfully the DCI, the UE determines whether the TCI field is present in the DCI or not based on the parameter of the scheduling CORESET in the first DL BWP regardless of the parameter of one or more CORESETs in the second DL BWP or the configuration of the second DL BWP, when the BWP indicator field in the DCI indicates the second DL BWP different from the first DL BWP . the UE is configured with a first Downlink, DL, Bandwidth Part, BWP, and a second DL BWP ; the UE receives and/or monitors a Downlink Control Information, DCI, in a scheduling Control Resource Set, CORESET, in the first DL BWP, and for determining a size of the DCI for decoding, the UE determines whether a Transmission Configuration Indication, TCI, field is present in the DCI or not based on a parameter of the scheduling CORESET before the UE decodes the DCI successfully ; and after the UE decodes successfully the DCI, the UE truncates or pads zero-bits to at least one field, preferably other than the TCI field, in the DCI based on a configuration of the second DL BWP, when a BWP indicator field in the DCI indicates the second DL BWP different from the first DL BWP ; characterized by : after the UE decodes successfully the DCI, the UE determines whether the TCI field is present in the DCI or not based on the parameter of the scheduling CORESET in the first DL BWP regardless of the parameter of one or more CORESETs in the second DL BWP or the configuration of the second DL BWP, when the BWP indicator field in the DCI indicates the second DL BWP different from the first DL BWP .
A method for extending services of a user device, the method comprising: identifying a first application, which represents a core application, resident on the user device having a first service that utilizes a first data type; identifying a second application of a plurality of applications having a second service that utilizes a second data type; matching a compatibility of a selected one of the first service or the first data type of the first application with a respective one of the second service or the second data type of the second application; presenting, on a user interface, UI, the first application with a representation of a discovery agent for activating the identifying of the second application, wherein the first application provides a direct access point into an application store which only lists second applications having a matching compatibility to the respective first application, characterized by : extending functionality of the first application by providing UI and data extensions from the second application into the first application and presenting the functionality contextually in the first application where it is needed. identifying a first application, which represents a core application, resident on the user device having a first service that utilizes a first data type; identifying a second application of a plurality of applications having a second service that utilizes a second data type; matching a compatibility of a selected one of the first service or the first data type of the first application with a respective one of the second service or the second data type of the second application; presenting, on a user interface, UI, the first application with a representation of a discovery agent for activating the identifying of the second application, wherein the first application provides a direct access point into an application store which only lists second applications having a matching compatibility to the respective first application, characterized by : extending functionality of the first application by providing UI and data extensions from the second application into the first application and presenting the functionality contextually in the first application where it is needed.
Contact assembly for high-voltage switchgear, comprising at least one movable contact arm , which comprises at least two contact elements for making electrical contact with a mating contact piece , wherein the at least two contact elements are in each case arranged opposite one another and form a contact finger pair , and the contact elements are U-shaped, wherein the openings of the U shape of the contact elements of the contact finger pair are arranged so as to point towards one another, characterized in that the contact elements are in the form of bars having a U-shaped cross section, wherein opposite limbs of the U shape have the same length (L), and the contact arm comprises at least one profiled rod pair , which at least partially surrounds the contact finger pair . characterized in that the contact elements are in the form of bars having a U-shaped cross section, wherein opposite limbs of the U shape have the same length (L), and the contact arm comprises at least one profiled rod pair , which at least partially surrounds the contact finger pair .
A method for compensating a phase shift in a near field communication, NFC, system , the NFC system having a radio frequency, RF, transceiver 126 comprising a transmitter, TX, driver circuit , a TX clock generation circuit , and a phase adjustment circuit , and a receiver, RX, circuit , wherein: the TX driver circuit is capable to output a transmit signal based on the phase and the clock frequency provided by the TX clock generation circuit and the phase adjustment circuit , a receive signal path is coupled between the TX driver circuit and the RX circuit for monitoring the transmit signal by the RX circuit , the RX circuit is capable to serve maintaining a constant signal level by way of adjusting impedance, and a resistance value of the RX circuit based on the monitored transmit signal can be utilized in determining a phase shift of the transmit signal, the method comprising the steps of: - sweeping a TX, clock frequency over a frequency range; - generating by way of the TX driver circuit a transmit signal based on the TX clock generation circuit , wherein the signal is received at the RX circuit by way of the receive signal path coupled between the TX driver circuit and the RX circuit ; - sampling resistance values at the receiver, RX, circuit while sweeping the TX clock frequency over the frequency range; - determining a first frequency in the frequency range which corresponds to a maximum resistance value sampled at the RX circuit ; - using a look-up table, LUT, to determine a phase adjust value based on the first frequency; and - adjusting a phase of the TX clock based on the phase adjust value. - sweeping a TX, clock frequency over a frequency range; - generating by way of the TX driver circuit a transmit signal based on the TX clock generation circuit , wherein the signal is received at the RX circuit by way of the receive signal path coupled between the TX driver circuit and the RX circuit ; - sampling resistance values at the receiver, RX, circuit while sweeping the TX clock frequency over the frequency range; - determining a first frequency in the frequency range which corresponds to a maximum resistance value sampled at the RX circuit ; - using a look-up table, LUT, to determine a phase adjust value based on the first frequency; and - adjusting a phase of the TX clock based on the phase adjust value.
A display device comprising: a display panel (DP) including a first display area (DA1) and a second display area (DA2) that are adjacent to each other, the display panel (DP) including a first touch sensor (TS) disposed in the first display area (DA1); a sensor screen (SS) disposed on the display panel (DP), the sensor screen (SS) including a fingerprint sensor (FS) and a second touch sensor (TS1-TS4) at a location corresponding to the second display area (DA2) of the display panel (DP); a display touch integrated circuit (DTIC) configured to drive pixels of the first and second display areas (DA1, DA2) during a display period (Pd) included in one frame period to write input image data to the display panel (DP) and the first touch sensor (TS) during a touch period (Pt) included in the one frame period to obtain a first touch sensing value from the first touch sensor (TS); and a fingerprint touch IC (FTIC) configured to drive the fingerprint sensor (FTS) in a portion of the one frame period, in which the first touch sensor (TS) is not driven to obtain a fingerprint sensing value and adapted to drive the second touch sensor (TS1-TS4) in the portion of the one frame period, in which the first touch sensor (TS) is not driven, to obtain a second touch sensing value. a display panel (DP) including a first display area (DA1) and a second display area (DA2) that are adjacent to each other, the display panel (DP) including a first touch sensor (TS) disposed in the first display area (DA1); a sensor screen (SS) disposed on the display panel (DP), the sensor screen (SS) including a fingerprint sensor (FS) and a second touch sensor (TS1-TS4) at a location corresponding to the second display area (DA2) of the display panel (DP); a display touch integrated circuit (DTIC) configured to drive pixels of the first and second display areas (DA1, DA2) during a display period (Pd) included in one frame period to write input image data to the display panel (DP) and the first touch sensor (TS) during a touch period (Pt) included in the one frame period to obtain a first touch sensing value from the first touch sensor (TS); and a fingerprint touch IC (FTIC) configured to drive the fingerprint sensor (FTS) in a portion of the one frame period, in which the first touch sensor (TS) is not driven to obtain a fingerprint sensing value and adapted to drive the second touch sensor (TS1-TS4) in the portion of the one frame period, in which the first touch sensor (TS) is not driven, to obtain a second touch sensing value.
A light unit for a power tool having a tool housing , a switch , and an output member that extends along an axis X, said light unit comprising: a light unit housing removably coupleable to the tool housing ; a light disposed in the light unit housing ; and a battery disposed within the light unit housing , and configured to provide electrical power to the light ; and characterized in that the light unit further includes a sensor disposed in the light unit housing and configured to sense movement of the switch , which actuates the power tool to perform an operation; and a controller coupled to each of the sensor , the battery , and the light , and wherein the controller is configured to discharge power from the battery thereby causing the light to turn ON when the sensor senses movement of the switch of the power tool . a light unit housing removably coupleable to the tool housing ; a light disposed in the light unit housing ; and a battery disposed within the light unit housing , and configured to provide electrical power to the light ; and characterized in that the light unit further includes a sensor disposed in the light unit housing and configured to sense movement of the switch , which actuates the power tool to perform an operation; and a controller coupled to each of the sensor , the battery , and the light , and wherein the controller is configured to discharge power from the battery thereby causing the light to turn ON when the sensor senses movement of the switch of the power tool .
A compressor with a housing that forms a flow chamber within which a compressor impeller is rotatably mounted, and an inlet channel which connects an inlet of the compressor to the flow chamber, wherein the transition between the flow chamber and the inlet channel is situated exclusively in an inlet plane of the compressor impeller , and wherein a tubular flow guide element by which at least a portion of the inlet channel is sub-divided into a central flow region and a peripheral flow region is arranged exclusively in the inlet channel , and wherein the peripheral flow region is designed so as to not be closable, characterized in that the largest cross-sectional dimension and the smallest cross-sectional dimension of the peripheral flow region , as well as the largest cross-sectional dimension of the central flow region , respectively reduce in size starting from the inlet-side end to the impeller-side end of the flow guide element , wherein the extent of the reduction of the largest cross-sectional dimension of the peripheral flow region is greater than that of the smallest cross-sectional dimension of the peripheral flow region , and even greater than that of the central flow region .
A silk fibroin glycerol membrane matrix prepared in the presence of formic acid, wherein the membrane: (a) includes silk fibroin in an amount ranging from about 0.1% to about 20% (wt %) of the total wet weight of the membrane (b) includes about 5% (w/w) to 60% (w/w) glycerol (c) transmits sound waves between 20 Hz and 20 KHz to the middle ear in vivo (d) has a tensile strength between 10 MPa to 100 MPa; and (e) the membrane is fabricated from a glycerol and silk protein complex solution prepared in the presence of formic acid. (a) includes silk fibroin in an amount ranging from about 0.1% to about 20% (wt %) of the total wet weight of the membrane (b) includes about 5% (w/w) to 60% (w/w) glycerol (c) transmits sound waves between 20 Hz and 20 KHz to the middle ear in vivo (d) has a tensile strength between 10 MPa to 100 MPa; and (e) the membrane is fabricated from a glycerol and silk protein complex solution prepared in the presence of formic acid.
A method, comprising: receiving, by a mobile device that travels with a material handler , a wireless signal from an emitter ; calculating, by the mobile device , a distance between the mobile device and the emitter based on the wireless signal ; determining, by the mobile device , that the mobile device is located at a stocking location associated with a storage area based on the distance between the mobile device and the emitter , a known location of the emitter , and a comparison of the distance with a threshold distance to determine that the distance is below the threshold distance, wherein the threshold distance is configurable based on a density of storage bins in the storage area ; and sending a notification, by the mobile device , indicating that the mobile device is at the stocking location for the storage area in response to determining that the mobile device is located at the stocking location ; characterized in that the method comprises determining, by the mobile device , that the material handler is located at the stocking location for a predetermined period of time before sending the notification. receiving, by a mobile device that travels with a material handler , a wireless signal from an emitter ; calculating, by the mobile device , a distance between the mobile device and the emitter based on the wireless signal ; determining, by the mobile device , that the mobile device is located at a stocking location associated with a storage area based on the distance between the mobile device and the emitter , a known location of the emitter , and a comparison of the distance with a threshold distance to determine that the distance is below the threshold distance, wherein the threshold distance is configurable based on a density of storage bins in the storage area ; and sending a notification, by the mobile device , indicating that the mobile device is at the stocking location for the storage area in response to determining that the mobile device is located at the stocking location ; characterized in that the method comprises determining, by the mobile device , that the material handler is located at the stocking location for a predetermined period of time before sending the notification.
A multiband antenna decoupling network (700; 1092; 1146) comprising: a first reconfigurable element having a reactance, an antenna-side end, and a system-side end; a second reconfigurable element having a reactance, an antenna-side end, and a system-side end; and a third reconfigurable element having a susceptance that is connected in shunt between the system-side ends of the first and second reconfigurable elements, wherein the multiband antenna decoupling network is reconfigurable to decouple at least two antennas at a plurality of distinct communication frequency bands, and wherein each of the first, second, and third reconfigurable elements comprises a respective tunable lumped component and a respective additional reactive component , characterized in that the respective lumped component and the respective additional reactive component are configured to be switchably connected into or out of a signal path to a first antenna or a second antenna of the at least two antennas such that when the tunable lumped component is switched into the signal path, the additional reactive component is switched out of the signal path, and when the additional reactive component is switched into the signal path, the tunable lumped component is switched out of the signal path. a first reconfigurable element having a reactance, an antenna-side end, and a system-side end; a second reconfigurable element having a reactance, an antenna-side end, and a system-side end; and a third reconfigurable element having a susceptance that is connected in shunt between the system-side ends of the first and second reconfigurable elements, wherein the multiband antenna decoupling network is reconfigurable to decouple at least two antennas at a plurality of distinct communication frequency bands, and wherein each of the first, second, and third reconfigurable elements comprises a respective tunable lumped component and a respective additional reactive component , characterized in that the respective lumped component and the respective additional reactive component are configured to be switchably connected into or out of a signal path to a first antenna or a second antenna of the at least two antennas such that when the tunable lumped component is switched into the signal path, the additional reactive component is switched out of the signal path, and when the additional reactive component is switched into the signal path, the tunable lumped component is switched out of the signal path.
A method for creating an elevator shaft of an elevator system, wherein the elevator shaft is mainly vertically aligned and forms a travelway for a car of the elevator system , which car is moved at a nominal speed within the travelway in normal operation of the elevator system , and the method has the following method steps: - placing multiple base modules on each other, - closing the elevator shaft upwards by mounting a top module , - providing an intermediate element , and - arranging the selected intermediate element , between an uppermost base module and the top module , characterized in that , the intermediate element comprising an intermediate element height (h1, h3, h4, h5) dependent on the mentioned nominal speed of the car . wherein the elevator shaft is mainly vertically aligned and forms a travelway for a car of the elevator system , which car is moved at a nominal speed within the travelway in normal operation of the elevator system , and the method has the following method steps: - placing multiple base modules on each other, - closing the elevator shaft upwards by mounting a top module , - providing an intermediate element , and - arranging the selected intermediate element , between an uppermost base module and the top module , - placing multiple base modules on each other, - closing the elevator shaft upwards by mounting a top module , - providing an intermediate element , and - arranging the selected intermediate element , between an uppermost base module and the top module , characterized in that , the intermediate element comprising an intermediate element height (h1, h3, h4, h5) dependent on the mentioned nominal speed of the car .
An apparatus for performing alignment functions on a printer having an array of inkjet heads, comprising: at least one printed pattern of arrays of dots generated by said printer inkjet heads using specific nozzles; a vision system for capturing printed pattern information produced by said printer inkjet heads, said vision system comprising: an enclosure configured to mount in said printer; and said enclosure containing within: a camera and lens module; a light source ; a control and processing software module configured to interface with one or more printers; and a shutter assembly configured to protect said light source and camera lens when not in use; and a pattern recognition module configured to analyze said printed pattern information captured by said vision system and further configured to generate control signals for performing multiple alignment functions on said inkjet heads of said printer based on said analysis of said printed pattern information automatically and in sequence until optimal printer alignment is achieved, said multiple alignment functions comprising at least two selected from: dot size, shape, and integrity; physical position and straightness of jet packs; flatness of platen or media belt; mapping imperfections in rods and rails of guiding systems; and checking jet alignments from a reference jet to all other jet packs; wherein said pattern recognition module automatically generates adjustment values after printing and analyzing said printed pattern information. at least one printed pattern of arrays of dots generated by said printer inkjet heads using specific nozzles; a vision system for capturing printed pattern information produced by said printer inkjet heads, said vision system comprising: an enclosure configured to mount in said printer; and said enclosure containing within: a camera and lens module; a light source ; a control and processing software module configured to interface with one or more printers; and a shutter assembly configured to protect said light source and camera an enclosure configured to mount in said printer; and said enclosure containing within: a camera and lens module; a light source ; a control and processing software module configured to interface with one or more printers; and a camera and lens module; a light source ; a control and processing software module configured to interface with one or more printers; and dot size, shape, and integrity; physical position and straightness of jet packs; flatness of platen or media belt; mapping imperfections in rods and rails of guiding systems; and checking jet alignments from a reference jet to all other jet packs;