mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a user equipment, UE , said method comprising: receiving resource allocation, first partition information, and a first numerology, including sub carrier spacing and symbol duration, for a first partition corresponding to a first Radio Access Technology, RAT, of a plurality of RATs of a unified RAT with flexible air interface for a 5G system used by a base station, wherein the unified RAT has configurable numerologies, wherein a second partition corresponding to a second RAT of the unified RAT uses second sub carrier spacing and symbol duration different from the first partition corresponding to the first RAT, wherein a Transmission Time Interval, TTI, boundary alignment exists between the first and second RATs, wherein the TTI is the smallest unit of time in which a UE can be scheduled in any UE for uplink or downlink transmission, wherein a first TTI for a first RAT is different from a second TTI for a second RAT; receiving a first physical downlink control channel, PDCCH, in the first RAT including scheduling information from the base station ; switching to the second RAT; receiving a second PDCCH in the second RAT including further scheduling information from the base station; wherein the sub carrier spacing of each of the configurable numerologies is a different integer multiple of 15kHz, including 30kHz and 60kHz. receiving resource allocation, first partition information, and a first numerology, including sub carrier spacing and symbol duration, for a first partition corresponding to a first Radio Access Technology, RAT, of a plurality of RATs of a unified RAT with flexible air interface for a 5G system used by a base station, wherein the unified RAT has configurable numerologies, wherein a second partition corresponding to a second RAT of the unified RAT uses second sub carrier spacing and symbol duration different from the first partition corresponding to the first RAT, wherein a Transmission Time Interval, TTI, boundary alignment exists between the first and second RATs, wherein the TTI is the smallest unit of time in which a UE can be scheduled in any UE for uplink or downlink transmission, wherein a first TTI for a first RAT is different from a second TTI for a second RAT; receiving a first physical downlink control channel, PDCCH, in the first RAT including scheduling information from the base station ; switching to the second RAT; receiving a second PDCCH in the second RAT including further scheduling information from the base station; wherein the sub carrier spacing of each of the configurable numerologies is a different integer multiple of 15kHz, including 30kHz and 60kHz.
A gap blocking system for an amusement park ride, comprising: a loading platform having a gap separating a first portion of the loading platform from a second portion of the loading platform , the first portion of the loading platform being movable in respect to the second portion of the loading platform ; a ride vehicle coupled to a transport extending through the gap, wherein the transport is configured to propel the ride vehicle along a loading path (3 6) of the loading platform ; a panel assembly coupled to the first portion of the loading platform and comprising a plurality of panels , wherein each panel of the plurality of panels is coupled to a respective biasing mechanism coupled to the first portion of the loading platform and configured to bias each panel towards a closed configuration in which each panel extends radially away from the first portion of the loading platform in order to block access to the gap; and a stationary post coupled to the loading platform and positioned within the gap , wherein the stationary post is configured to contact and exert an opposing force on at least one individual panel of the plurality of panels to overcome a biasing force of the biasing mechanism and to move the at least one individual panel out of the closed configuration into an open configuration to expose a portion of the gap to permit entry of the ride vehicle into the exposed portion of the gap . a loading platform having a gap separating a first portion of the loading platform from a second portion of the loading platform , the first portion of the loading platform being movable in respect to the second portion of the loading platform ; a ride vehicle coupled to a transport extending through the gap, wherein the transport is configured to propel the ride vehicle along a loading path (3 6) of the loading platform ; a panel assembly coupled to the first portion of the loading platform and comprising a plurality of panels , wherein each panel of the plurality of panels is coupled to a respective biasing mechanism coupled to the first portion of the loading platform and configured to bias each panel towards a closed configuration in which each panel extends radially away from the first portion of the loading platform in order to block access to the gap; and a stationary post coupled to the loading platform and positioned within the gap , wherein the stationary post is configured to contact and exert an opposing force on at least one individual panel of the plurality of panels to overcome a biasing force of the biasing mechanism and to move the at least one individual panel out of the closed configuration into an open configuration to expose a portion of the gap to permit entry of the ride vehicle into the exposed portion of the gap .
A control method for an internal combustion engine structured to vary a mechanical compression ratio (ε) by varying a range of slide of a piston with respect to a cylinder bore , the control method comprising: - acquiring a temperature (Tw) correlating with a cylinder bore wall temperature; - fixing the mechanical compression ratio (ε) to a preset compression ratio point, in response to a condition that the acquired temperature (Tw) is lower than a preset temperature point (Twth); and - setting the preset temperature point (Twth) higher than a point corresponding to a point of the cylinder bore wall temperature at which condensed water occurs in the cylinder bore . - acquiring a temperature (Tw) correlating with a cylinder bore wall temperature; - fixing the mechanical compression ratio (ε) to a preset compression ratio point, in response to a condition that the acquired temperature (Tw) is lower than a preset temperature point (Twth); and - setting the preset temperature point (Twth) higher than a point corresponding to a point of the cylinder bore wall temperature at which condensed water occurs in the cylinder bore .
A copolycarbonate comprising: an aromatic polycarbonate-based first repeating unit; and one or more aromatic polycarbonate-based second repeating units having siloxane bonds, wherein the copolycarbonate has a melt index (MI) of 3 to 10g/10min as measured in accordance with ASTM D1238 (300°C, 1.2 kg conditions), and a transparency of 87 to 91% as measured in accordance with ASTM D1003 (layer thickness of 3 mm), and wherein the second repeating unit comprises a repeating unit represented by the following Chemical Formula 2 and a repeating unit represented by the following Chemical Formula 3: in the Chemical Formula 2, each of X 1 is independently C 1-10 alkylene, each of R 5 is independently hydrogen; C 1-15 alkyl unsubstituted or substituted with oxiranyl, oxiranyl-substituted C 1-10 alkoxy, or C 6-20 aryl; halogen; C 1-10 alkoxy; allyl; C 1-10 haloalkyl; or C 6-20 aryl, and n is an integer of 10 to 200, in the Chemical Formula 3, each of X 2 is independently C 1-10 alkylene, each of Y 1 is independently hydrogen, C 1-6 alkyl, halogen, hydroxy, C 1-6 alkoxy, or C 6-20 aryl, each of R 6 is independently hydrogen; or C 1-15 alkyl unsubstituted or substituted with oxiranyl, oxiranyl-substituted C 1-10 alkoxy, or C 6-20 aryl; halogen; C 1-10 alkoxy; allyl; C 1-10 haloalkyl; or C 6-20 aryl, and m is an integer of 10 to 200. each of X 1 is independently C 1-10 alkylene, each of R 5 is independently hydrogen; C 1-15 alkyl unsubstituted or substituted with oxiranyl, oxiranyl-substituted C 1-10 alkoxy, or C 6-20 aryl; halogen; C 1-10 alkoxy; allyl; C 1-10 haloalkyl; or C 6-20 aryl, and n is an integer of 10 to 200, each of X 2 is independently C 1-10 alkylene, each of Y 1 is independently hydrogen, C 1-6 alkyl, halogen, hydroxy, C 1-6 alkoxy, or C 6-20 aryl, each of R 6 is independently hydrogen; or C 1-15 alkyl unsubstituted or substituted with oxiranyl, oxiranyl-substituted C 1-10 alkoxy, or C 6-20 aryl; halogen; C 1-10 alkoxy; allyl; C 1-10 haloalkyl; or C 6-20 aryl, and m is an integer of 10 to 200.
Fluid conducting device for a motor vehicle transmission , having at least one fluid gap surface (30-40) which, in cross section, is of circular-arc-shaped form in relation to a longitudinal axis such that a fluid gap can be formed between the fluid gap surface (30-40) and an associated toothed gear of a motor vehicle transmission , wherein the fluid conducting device has at least one axially extending channel (84; 94) which can be filled with fluid from above and which is designed to conduct received fluid in an axial direction, and wherein the channel has at least one axial flow outlet (88; 98), wherein the channel (84; 94) is inclined relative to the longitudinal axis such that fluid received therein flows to the axial flow outlet (88; 98), characterized in that at least one circular-arc-shaped inner surface of the fluid conducting device transitions, at at least one circumferential end, into an oblique flow outlet from which fluid is conducted directly in a radially outward direction.
A focusing method, comprising: controlling an imaging apparatus to employ a contrast-detection autofocus mode to focus on a target object to be captured; obtaining a current focus value and a current offset value of the imaging apparatus correspondingly each time the imaging apparatus is driven to move; wherein the offset value is a jitter value, i.e., a moving offset value or a rotation value of the imaging apparatus caused by external interference when the imaging apparatus employs the contrast-detection autofocus mode to focus on the target object to be captured; characterised in that when the current offset value is larger than a preset offset value, determining that a focus value corresponding to the current offset value has no validity, and filtering out the focus value of invalidity; when the current offset value is not larger than the preset offset value, determining that a focus value corresponding to the current offset value has validity, and reserving the focus value of validity; obtaining all the focus values of validity successively during a process of driving the imaging apparatus; and determining a maximum value from the plurality of focus values of validity. controlling an imaging apparatus to employ a contrast-detection autofocus mode to focus on a target object to be captured; obtaining a current focus value and a current offset value of the imaging apparatus correspondingly each time the imaging apparatus is driven to move; wherein the offset value is a jitter value, i.e., a moving offset value or a rotation value of the imaging apparatus caused by external interference when the imaging apparatus employs the contrast-detection autofocus mode to focus on the target object to be captured; characterised in that when the current offset value is larger than a preset offset value, determining that a focus value corresponding to the current offset value has no validity, and filtering out the focus value of invalidity; when the current offset value is not larger than the preset offset value, determining that a focus value corresponding to the current offset value has validity, and reserving the focus value of validity; obtaining all the focus values of validity successively during a process of driving the imaging apparatus; and determining a maximum value from the plurality of focus values of validity.
A compound selected from the group consisting of the following compounds: and or a pharmaceutically acceptable salt or solvate thereof.
A thermoelectric element comprising: a first substrate ; a first insulating layer disposed on the first substrate; a plurality of first electrodes disposed on the first insulating layer ; a plurality of thermoelectric legs ) disposed on the plurality of first electrodes and including P type and N type semiconductors; a plurality of second electrodes disposed on the plurality of thermoelectric legs ; a second insulating layer disposed on the plurality of second electrodes ; and a second substrate disposed on the second insulating layer , wherein the first substrate includes a first region in which the plurality of first electrodes and the plurality of second electrodes are vertically overlapped, wherein the first substrate includes a first outer periphery (S1), a second outer periphery (S2), a third outer periphery (S3) perpendicular to the first outer periphery (S1) and a fourth outer periphery (S4) parallel to the first outer periphery (S1), characterised in that at least one of the plurality of first electrodes includes an extension portion extending from the first region toward a first outer periphery (S1) of the first substrate , wherein a shortest distance (d1) between the first region and the first outer periphery (S1) is 1.2 to 2.5 times a shortest distance (A1, A2) between an end of the extension portion and the first outer periphery (S1). a first substrate ; a first insulating layer disposed on the first substrate; a plurality of first electrodes disposed on the first insulating layer ; a plurality of thermoelectric legs ) disposed on the plurality of first electrodes and including P type and N type semiconductors; a plurality of second electrodes disposed on the plurality of thermoelectric legs ; a second insulating layer disposed on the plurality of second electrodes ; and a second substrate disposed on the second insulating layer , wherein the first substrate includes a first region in which the plurality of first electrodes and the plurality of second electrodes are vertically overlapped, wherein the first substrate includes a first outer periphery (S1), a second outer periphery (S2), a third outer periphery (S3) perpendicular to the first outer periphery (S1) and a fourth outer periphery (S4) parallel to the first outer periphery (S1), characterised in that at least one of the plurality of first electrodes includes an extension portion extending from the first region toward a first outer periphery (S1) of the first substrate , wherein a shortest distance (d1) between the first region and the first outer periphery (S1) is 1.2 to 2.5 times a shortest distance (A1, A2) between an end of the extension portion and the first outer periphery (S1).
A wearable device comprising: a data collection module configured to collect health data of a user; a connection establishing module configured to establish a wireless connection with a home media playing device; a data sending module configured to send the health data to the home media playing device through the wireless connection, to enable the home media playing device to receive and display the health data, characterized in that the wearable device further comprises: a first detection module configured to detect whether a turn-off trigger condition is reached; and a first sending module configured to send a turn-off instruction to the home media playing device if the turn-off trigger condition is reached, the turn-off instruction instructing the home media playing device to enter a sleep state or a shutdown state after receiving the turn-off instruction; wherein the turn-off trigger condition comprises: a first designated time of day is reached. a data collection module configured to collect health data of a user; a connection establishing module configured to establish a wireless connection with a home media playing device; a data sending module configured to send the health data to the home media playing device through the wireless connection, to enable the home media playing device to receive and display the health data, characterized in that the wearable device further comprises: a first detection module configured to detect whether a turn-off trigger condition is reached; and a first sending module configured to send a turn-off instruction to the home media playing device if the turn-off trigger condition is reached, the turn-off instruction instructing the home media playing device to enter a sleep state or a shutdown state after receiving the turn-off instruction; a first detection module configured to detect whether a turn-off trigger condition is reached; and a first sending module configured to send a turn-off instruction to the home media playing device if the turn-off trigger condition is reached, the turn-off instruction instructing the home media playing device to enter a sleep state or a shutdown state after receiving the turn-off instruction; wherein the turn-off trigger condition comprises: a first designated time of day is reached.
Support template for moulds for sports helmets, in particular cycling helmets, provided with at least one frame , the frame comprising: at least one support portion , placed on a first side of the frame , for the support of at least one component (C1, C2) of a helmet to be obtained by a moulding or co-moulding process, the support portion being configured to keep the respective component (C1, C2) of the helmet to be obtained according to a predetermined position inside a respective mould; at least one centring portion placed on the first side of the frame and arranged to engage a respective centring seat made on the respective mould so as to ensure the alignment of the latter with the support template and keep the centred positioning of the component (C1, C2) of the helmet to be obtained according to a predetermined configuration; at least one grip portion to allow manual engagement of the support template by an operator; characterised by the support portion of the frame comprising at least one support surface , preferably two support surfaces placed in a mirror-like manner with respect to a median plane of the frame , the support surface being provided with corresponding support projections , in particular comprising corresponding support blocks, for the rest of a first component (C1) of the helmet to be obtained, preferably a lower ring of the helmet, optionally according to a position that is spaced apart from the respective support surface . at least one support portion , placed on a first side of the frame , for the support of at least one component (C1, C2) of a helmet to be obtained by a moulding or co-moulding process, the support portion being configured to keep the respective component (C1, C2) of the helmet to be obtained according to a predetermined position inside a respective mould; at least one centring portion placed on the first side of the frame and arranged to engage a respective centring seat made on the respective mould so as to ensure the alignment of the latter with the support template and keep the centred positioning of the component (C1, C2) of the helmet to be obtained according to a predetermined configuration; at least one grip portion to allow manual engagement of the support template by an operator; characterised by the support portion of the frame comprising at least one support surface , preferably two support surfaces placed in a mirror-like manner with respect to a median plane of the frame , the support surface being provided with corresponding support projections , in particular comprising corresponding support blocks, for the rest of a first component (C1) of the helmet to be obtained, preferably a lower ring of the helmet, optionally according to a position that is spaced apart from the respective support surface .
A method of performing speech recognition by an electronic device including a first speech recognition device comprising a processor operating with low power and a second speech recognition device comprising a high performance processor, the method comprising: when an audio signal is not output from a speaker of the electronic device, receiving a first speech by the first speech recognition device ; when an audio signal is output from the speaker of the electronic device, receiving the first speech by the second speech recognition device of the electronic device; when the first speech is received by the first speech recognition device and the first speech recognition device recognizes a predetermined command in the first speech, transferring a received second speech to an external electronic device and recognizing the received second speech through the external electronic device; and when the first speech is received by the second speech recognition device and the second speech recognition device recognizes the predetermined command in the first speech, recognizing a second command in the received second speech, and performing an operation based on the recognized second command. when an audio signal is not output from a speaker of the electronic device, receiving a first speech by the first speech recognition device ; when an audio signal is output from the speaker of the electronic device, receiving the first speech by the second speech recognition device of the electronic device; when the first speech is received by the first speech recognition device and the first speech recognition device recognizes a predetermined command in the first speech, transferring a received second speech to an external electronic device and recognizing the received second speech through the external electronic device; and when the first speech is received by the second speech recognition device and the second speech recognition device recognizes the predetermined command in the first speech, recognizing a second command in the received second speech, and performing an operation based on the recognized second command.
A method for predicting the usefulness of a protein expressed by cancer cells for anticancer immunotherapy of a patient, wherein said protein comprises an MHC class I binding peptide comprising a cancer- associated neo-epitope comprising a cancer specific somatic mutation, the method comprising ascertaining an existing antibody response to the protein, wherein the antibody response is ascertained using a computer-based analytical process, wherein an existing antibody response of the patient to the protein indicates that the protein is useful for immunotherapy of the cancer patient. wherein said protein comprises an MHC class I binding peptide comprising a cancer- associated neo-epitope comprising a cancer specific somatic mutation, ascertaining an existing antibody response to the protein, wherein the antibody response is ascertained using a computer-based analytical process, wherein an existing antibody response of the patient to the protein indicates that the protein is useful for immunotherapy of the cancer patient.