mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator comprising: a body formed at a lower portion thereof with a freezing compartment and formed at an upper portion thereof with a refrigerating compartment ; first and second cold air forming parts formed in the refrigerating compartment ; first and second evaporators installed in the first and second cold air forming parts , respectively; a plurality of doors rotatably installed in the refrigerating compartment and the freezing compartment , respectively; an ice making compartment formed in the door installed in the refrigerating compartment ; a cold air inlet/outlet duct having one side connected with the second cold air forming part and an opposite end portion exposed inside an inner wall or to a front surface of the refrigerating compartment ; and a connection member installed with a predetermined thickness at one side of the door of the refrigerating compartment to fill a gap between the opposite end portion of the cold air inlet/outlet duct and the ice making compartment when the door is closed, wherein cold air, which is formed inside the second cold air forming part through a heat exchange scheme when the second evaporator of the refrigerating compartment is operated, is guided to the ice making compartment of the door through the cold air inlet/outlet duct and the connection member characterized by a temperature sensor installed at the opposite end portion of the cold air inlet/outlet duct or at a peripheral portion of the connection member to detect an open and closed state of the door such that the cold air leaking to an outside can be controlled. a body formed at a lower portion thereof with a freezing compartment and formed at an upper portion thereof with a refrigerating compartment ; first and second cold air forming parts formed in the refrigerating compartment ; first and second evaporators installed in the first and second cold air forming parts , respectively; a plurality of doors rotatably installed in the refrigerating compartment and the freezing compartment , respectively; an ice making compartment formed in the door installed in the refrigerating compartment ; a cold air inlet/outlet duct having one side connected with the second cold air forming part and an opposite end portion exposed inside an inner wall or to a front surface of the refrigerating compartment ; and a connection member installed with a predetermined thickness at one side of the door of the refrigerating compartment to fill a gap between the opposite end portion of the cold air inlet/outlet duct and the ice making compartment when the door is closed, wherein cold air, which is formed inside the second cold air forming part through a heat exchange scheme when the second evaporator of the refrigerating compartment is operated, is guided to the ice making compartment of the door through the cold air inlet/outlet duct and the connection member characterized by a temperature sensor installed at the opposite end portion of the cold air inlet/outlet duct or at a peripheral portion of the connection member to detect an open and closed state of the door such that the cold air leaking to an outside can be controlled.
Emulation device for emulating an electric motor in order to mimic at least one property of the electric motor during a test of an electrical device , in particular a drive inverter , said emulation device comprising at least one emulation unit for providing an emulation function in order to carry out the emulation based on at least one motor parameter of the electric motor , wherein an identification unit for providing an identification function is integrated in the emulation device in order to carry out parameter identification of the at least one motor parameter at the electric motor .
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving only one downlink signal in a set of slots related to one transmission of acknowledgement/negative acknowledgement, A/N, information; generating an A/N codebook for the set of slots; and transmitting the A/N codebook, wherein based on that a specific condition including the following 1) to 3) is satisfied, the A/N codebook includes only A/N information for the one downlink signal, 1) an A/N codebook configuration scheme is set as a semi-static A/N codebook, 2) the downlink signal is received in a primary cell, PCell, and 3) the downlink signal is scheduled by a first downlink control information, DCI, format of plural DCI formats, and a specific 2-bit field of the first DCI format has a first value, and wherein the first DCI format includes the specific 2-bit field, regardless of the A/N codebook configuration scheme, and wherein based on the A/N codebook configuration scheme configured as a dynamic A/N codebook, the specific 2-bit field is used to indicate a counter-downlink assignment index, c-DAI, value. receiving only one downlink signal in a set of slots related to one transmission of acknowledgement/negative acknowledgement, A/N, information; generating an A/N codebook for the set of slots; and transmitting the A/N codebook, wherein based on that a specific condition including the following 1) to 3) is satisfied, the A/N codebook includes only A/N information for the one downlink signal, 1) an A/N codebook configuration scheme is set as a semi-static A/N codebook, 2) the downlink signal is received in a primary cell, PCell, and 3) the downlink signal is scheduled by a first downlink control information, DCI, format of plural DCI formats, and a specific 2-bit field of the first DCI format has a first value, and 1) an A/N codebook configuration scheme is set as a semi-static A/N codebook, 2) the downlink signal is received in a primary cell, PCell, and 3) the downlink signal is scheduled by a first downlink control information, DCI, format of plural DCI formats, and a specific 2-bit field of the first DCI format has a first value, and wherein the first DCI format includes the specific 2-bit field, regardless of the A/N codebook configuration scheme, and wherein based on the A/N codebook configuration scheme configured as a dynamic A/N codebook, the specific 2-bit field is used to indicate a counter-downlink assignment index, c-DAI, value.
A computing device comprising: a support plate ; a first hinge coupled to a first end of the support plate ; a second hinge coupled to a second end of the support plate ; a first display coupled to the first hinge , and includes a cavity configured behind the first display to receive at least the support plate; a physical keyboard coupled to the second hinge ; and a second display coupled to the second hinge , the physical keyboard and the second display rotatable about the second hinge , wherein the first display is coupled to the support plate at a first location, and the physical keyboard is coupled to the support plate at a second location, the second location closer to the second display than the first location; and wherein the physical keyboard is rotatable about the second hinge to be movable between a stowed position and a deployed position, where in the stowed position, the physical keyboard is rotated to be received, together with the support plate, in the cavity of the first display, and in the deployed position, the physical keyboard is rotated from the stowed position to be disposed at least partially on the second display. a support plate ; a first hinge coupled to a first end of the support plate ; a second hinge coupled to a second end of the support plate ; a first display coupled to the first hinge , and includes a cavity configured behind the first display to receive at least the support plate; a physical keyboard coupled to the second hinge ; and a second display coupled to the second hinge , the physical keyboard and the second display rotatable about the second hinge , wherein the first display is coupled to the support plate at a first location, and the physical keyboard is coupled to the support plate at a second location, the second location closer to the second display than the first location; and wherein the physical keyboard is rotatable about the second hinge to be movable between a stowed position and a deployed position, where in the stowed position, the physical keyboard is rotated to be received, together with the support plate, in the cavity of the first display, and in the deployed position, the physical keyboard is rotated from the stowed position to be disposed at least partially on the second display.
A lateral flow device for sampling at least one analyte of interest in a liquid, including: - a reception zone for the liquid, including a first absorbent material capable of collecting the liquid, - at least one liquid migration zone extending between a first end and a second end, each migration zone including a draining material in fluid continuity with the first absorbent material, the draining material being capable of collecting the liquid absorbed by the reception zone and of draining the liquid from the first end thereof to the second end thereof, - at least one reservoir zone , including a second absorbent material , in contact with the draining material at the second end of each migration zone, the second absorbent material being capable of absorbing the liquid drained by the draining material, - detection means between the reception zone and the reservoir zone, allowing determining the presence or absence of said analyte(s) of interest in the sample, characterized in that at least one of said migration zones also includes at least one capture zone , the device further comprising a capture element applied on each capture zone , against the draining material between the first and second ends thereof, each capture element including a nanoporous or mesoporous silicon material and being capable of capturing an analyte of interest present in the liquid and in that each capture element is capable of being separated from the draining material . - a reception zone for the liquid, including a first absorbent material capable of collecting the liquid, - at least one liquid migration zone extending between a first end and a second end, each migration zone including a draining material in fluid continuity with the first absorbent material, the draining material being capable of collecting the liquid absorbed by the reception zone and of draining the liquid from the first end thereof to the second end thereof, - at least one reservoir zone , including a second absorbent material , in contact with the draining material at the second end of each migration zone, the second absorbent material being capable of absorbing the liquid drained by the draining material, - detection means between the reception zone and the reservoir zone, allowing determining the presence or absence of said analyte(s) of interest in the sample,
A wireless power transmission apparatus for induction heating and for wirelessly transmitting power to a target object comprising: a working coil configured to induction-heat the target object and to wirelessly transmit power to the target object depending on a selected mode; an inverter configured to be operated based on an operation frequency for providing power to the working coil ; and a controller configured to change the mode depending on selection of a user, to control the operation frequency depending on the mode, and to detect the target object and to determine whether the target object belongs to a first group including a small home appliance having a reception coil or whether the target object is an induction heating target object, wherein the controller is configured to read an input current applied to the inverter in a target object detection mode, to perform an integration the input current, and to determine the target object based on an integrated value of the input current. a working coil configured to induction-heat the target object and to wirelessly transmit power to the target object depending on a selected mode; an inverter configured to be operated based on an operation frequency for providing power to the working coil ; and a controller configured to change the mode depending on selection of a user, to control the operation frequency depending on the mode, and to detect the target object and to determine whether the target object belongs to a first group including a small home appliance having a reception coil or whether the target object is an induction heating target object, wherein the controller is configured to read an input current applied to the inverter in a target object detection mode, to perform an integration the input current, and to determine the target object based on an integrated value of the input current.
A spatio-temporal topology learning system for detection of suspicious access control behavior in a physical access control system (PACS) , the spatio-temporal topology learning system comprising: an access pathways learning module configured to determine a set of spatio-temporal properties associated with a resource in the PACS; an inconsistency detection module in operable communication with the access pathways learning module, the inconsistencies detection module configured to analyze a plurality of historical access control events and identify an inconsistency with regard to the set of spatio-temporal properties; and if an inconsistency is detected , at least one of the events is flagged as potentially suspicious access control behavior; characterized in that ; the spatio-temporal properties comprise a reachability graph , and the spatio-temporal topology learning system further comprises refining the reachability graph based on an initial estimate of the notional distance between readers determined as the minimum difference between access event time stamps at two connected readers. an access pathways learning module configured to determine a set of spatio-temporal properties associated with a resource in the PACS; an inconsistency detection module in operable communication with the access pathways learning module, the inconsistencies detection module configured to analyze a plurality of historical access control events and identify an inconsistency with regard to the set of spatio-temporal properties; and if an inconsistency is detected , at least one of the events is flagged as potentially suspicious access control behavior; characterized in that ; the spatio-temporal properties comprise a reachability graph , and the spatio-temporal topology learning system further comprises refining the reachability graph based on an initial estimate of the notional distance between readers determined as the minimum difference between access event time stamps at two connected readers.
A base station (21-24; 31-34) that performs wireless communication with a mobile station using a plurality of cells configured to be grouped so as to comprise a plurality of groups of cells, the base station comprising: wireless communication circuitry configured to transmit a first control signal that is a Timing Advanced Command, TAC, including a first field and a second field, the first field comprising first information indicating an amount of adjustment that causes the mobile station to adjust a transmission timing of the mobile station for a Timing Advance Group, TAG, having one or more cells, the second field configured to store second information identifying the TAG among the plurality of groups of cells, and transmit a second control signal that is a Radio Resource Control, RRC, message including third information indicating whether the second information to be applied to the mobile station is set in the second field of the first control signal; and a controller configured to adjust the transmission timing of the mobile station for the one or more cells belonging to the TAG specified by the second information, using the first information obtained from the first control signal, when a unique identifier for the TAG having the one or more cells is set in the third information. wireless communication circuitry configured to transmit a first control signal that is a Timing Advanced Command, TAC, including a first field and a second field, the first field comprising first information indicating an amount of adjustment that causes the mobile station to adjust a transmission timing of the mobile station for a Timing Advance Group, TAG, having one or more cells, the second field configured to store second information identifying the TAG among the plurality of groups of cells, and transmit a second control signal that is a Radio Resource Control, RRC, message including third information indicating whether the second information to be applied to the mobile station is set in the second field of the first control signal; and transmit a first control signal that is a Timing Advanced Command, TAC, including a first field and a second field, the first field comprising first information indicating an amount of adjustment that causes the mobile station to adjust a transmission timing of the mobile station for a Timing Advance Group, TAG, having one or more cells, the second field configured to store second information identifying the TAG among the plurality of groups of cells, and transmit a second control signal that is a Radio Resource Control, RRC, message including third information indicating whether the second information to be applied to the mobile station is set in the second field of the first control signal; and a controller configured to adjust the transmission timing of the mobile station for the one or more cells belonging to the TAG specified by the second information, using the first information obtained from the first control signal, when a unique identifier for the TAG having the one or more cells is set in the third information.
A soft-pack battery module , comprising at least two battery stack layers (Q) stacked in a thickness direction (Z) of battery cells , wherein each battery stack layer (Q) comprises a plurality of battery cells and connecting pieces connected to tabs of the battery cells , each connecting piece comprises a first section and a second section , the first section is connected to the tab, the second section is connected to the first section , the second section covers at least a part of the large surface of the battery cell , and an insulating material is provided on a side of the second section away from the large surface of the battery cell .
A method comprising: combining a control signal of a voltage regulator circuit of an apparatus with pseudo-random noise; using the control signal to provide an output voltage signal as attenuated by a power supply rejection ratio, PSRR, of an analog mixed-signal, AMS, circuit of the apparatus ; self-testing the AMS circuit by cross-correlating a signal indicative of the output voltage signal from the AMS circuit with the pseudo-random noise and, in response, assessing results of the cross-correlation relative to a known threshold indicative of a performance level of the AMS circuit ; characterized by passing the pseudo-random noise through a software-implemented model of the AMS circuit ; and subtracting from an output signal of the AMS circuit the pseudo-random noise. combining a control signal of a voltage regulator circuit of an apparatus with pseudo-random noise; using the control signal to provide an output voltage signal as attenuated by a power supply rejection ratio, PSRR, of an analog mixed-signal, AMS, circuit of the apparatus ; self-testing the AMS circuit by cross-correlating a signal indicative of the output voltage signal from the AMS circuit with the pseudo-random noise and, in response, assessing results of the cross-correlation relative to a known threshold indicative of a performance level of the AMS circuit ; characterized by passing the pseudo-random noise through a software-implemented model of the AMS circuit ; and subtracting from an output signal of the AMS circuit the pseudo-random noise.
A device for determining a haemodynamic state of an individual from a magnitude of a first signal, wherein the first signal is a perfusion signal or a signal which is a measure of a volume of blood in the thoracic cavity of the individual, wherein the device is configured to: receive the first signal and a signal representative of the heart rate from the individual; divide the first signal into frames, wherein a frame length is determined from an oscillation period of the heart rate signal; combine at least two frames of the divided first signal; and determine a magnitude of the oscillation of the combined first signal from at least two frames. receive the first signal and a signal representative of the heart rate from the individual; divide the first signal into frames, wherein a frame length is determined from an oscillation period of the heart rate signal; combine at least two frames of the divided first signal; and determine a magnitude of the oscillation of the combined first signal from at least two frames.
A computer system comprising a plurality of processor units (A, B) that are synchronous and that access resources in non-concurrent manner in order to execute a harmonic set of tasks that are numbered ( i ), and that are ordered in such a manner that the shorter the period of a task, the higher its priority, the system being characterized in that it comprises a task interrupt switch device having an input for receiving a common time base, outputs (12.A, 12.B) each connected to a respective one of the processor units (A, B), registers (13.A, 13.B) each corresponding to a respective output, reinitializable counters (14.A, 14.B) each corresponding to a respective output, and a control unit arranged: to reissue each task interrupt to the output (12.A, 12.B) for which the register (13.A, 13.B) has the greatest value, and in the event of equality, to the output (12.A, 12.B) for which the counter (14.A, 14.B) has the smallest value; to store in each register the number ( i ) of the task currently executing on the processor unit (A, B) connected to the corresponding output; and each time a task interrupt is reissued on one of the outputs (12.A, 12.B), to increment the corresponding counter (14.A, 14.B) by 1.