mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a first user equipment, UE, for determining one or more physical sidelink feedback channel, PSFCH, resources for hybrid automatic repeat request, HARQ, feedback, the method comprising: receiving first sidelink control information, SCI, for scheduling a first unicast physical sidelink shared channel, PSSCH, transmission from a second UE , the first SCI associated with a source identifier, ID; receiving second SCI for scheduling a second unicast PSSCH transmission from the second UE , the second SCI associated with the same source ID; determining priorities of a first HARQ feedback corresponding to the first unicast PSSCH transmission and a second HARQ feedback corresponding to the second unicast PSSCH transmission according, respectively, to the first SCI and the second SCI ; determining that a first PSFCH resource for the first HARQ feedback and a second PSFCH resource for the second HARQ feedback are at least partially overlapped in a time domain; and transmitting a PSFCH for at least one of the first HARQ feedback and the second HARQ feedback with a higher priority according to the determined priorities, to the second UE , wherein transmitting the PSFCH comprises transmitting HARQ bits of both of the first and second HARQ feedbacks in the PSFCH when the PSFCH has enough resource size to include the HARQ bits of both of the first and second HARQ feedbacks in a slot at least four slots after the first and second unicast PSCCH transmissions. receiving first sidelink control information, SCI, for scheduling a first unicast physical sidelink shared channel, PSSCH, transmission from a second UE , the first SCI associated with a source identifier, ID; receiving second SCI for scheduling a second unicast PSSCH transmission from the second UE , the second SCI associated with the same source ID; determining priorities of a first HARQ feedback corresponding to the first unicast PSSCH transmission and a second HARQ feedback corresponding to the second unicast PSSCH transmission according, respectively, to the first SCI and the second SCI ; determining that a first PSFCH resource for the first HARQ feedback and a second PSFCH resource for the second HARQ feedback are at least partially overlapped in a time domain; and transmitting a PSFCH for at least one of the first HARQ feedback and the second HARQ feedback with a higher priority according to the determined priorities, to the second UE , wherein transmitting the PSFCH comprises transmitting HARQ bits of both of the first and second HARQ feedbacks in the PSFCH when the PSFCH has enough resource size to include the HARQ bits of both of the first and second HARQ feedbacks in a slot at least four slots after the first and second unicast PSCCH transmissions.
A method of manufacturing a partially transparent body having a color gradient comprising the steps of: - providing a transparent first envelope shape having a first joining surface on a projection and a fixedly enclosed three-dimensional article , - providing a second, non-transparent envelope shape having a second joining surface in a recess , the shape of the projection and the shape of the recess corresponding to each other, - bringing together the first envelope shape and the second envelope shape by introducing the projection into the recess; and - merging the first joining surface of the first envelope shape with the second joining surface of the second envelope shape by applying a pressure force and a temperature to the first joining surface and the second joining surface , so that the first envelope shape merges at the first joining surface into the second envelope shape at the second joining surface free of a visible joining seam, wherein a seamless transition from the first envelope shape to the second envelope shape is produced by different degrees of transparency and the merging of the first envelope shape in the second envelope shape , so that the colour gradient is achieved as a function of a selected shape of the recess . - providing a transparent first envelope shape having a first joining surface on a projection and a fixedly enclosed three-dimensional article , - providing a second, non-transparent envelope shape having a second joining surface in a recess , the shape of the projection and the shape of the recess corresponding to each other, - bringing together the first envelope shape and the second envelope shape by introducing the projection into the recess; and - merging the first joining surface of the first envelope shape with the second joining surface of the second envelope shape by applying a pressure force and a temperature to the first joining surface and the second joining surface , so that the first envelope shape merges at the first joining surface into the second envelope shape at the second joining surface free of a visible joining seam,
A method comprising: receiving, by a wireless device, configuration parameters of a cell; activating a first uplink bandwidth part, BWP, associated with the cell and a second uplink BWP associated with the cell; receiving downlink control information, DCI, comprising: a first field indicating a downlink BWP; and a second field indicating the first uplink BWP or the second uplink BWP; receiving, via the downlink BWP indicated by the first field, a transport block; and transmitting, via an uplink BWP indicated by the second field, acknowledgement information associated with the transport block. receiving, by a wireless device, configuration parameters of a cell; activating a first uplink bandwidth part, BWP, associated with the cell and a second uplink BWP associated with the cell; receiving downlink control information, DCI, comprising: a first field indicating a downlink BWP; and a second field indicating the first uplink BWP or the second uplink BWP; a first field indicating a downlink BWP; and a second field indicating the first uplink BWP or the second uplink BWP; receiving, via the downlink BWP indicated by the first field, a transport block; and transmitting, via an uplink BWP indicated by the second field, acknowledgement information associated with the transport block.
A blade (200; 400) for use in a gas turbine engine , comprising: a pressure side sheath (254; 454); a suction side sheath (252; 452) secured to the pressure side sheath (254; 454), wherein the pressure side sheath (254; 454) and the suction side sheath (252; 452) are configured to form a continuous sheath (250; 450) that wraps around an interior section of the blade (200; 400), wherein the pressure side sheath (254; 454) includes a base and a tip ; a central rib extending spanwise along the pressure side sheath (254; 454) from the base to the tip , wherein the pressure side sheath (254; 454) includes a leading edge portion and a trailing edge portion and a first cavity is positioned between the leading edge portion and the central rib and a second cavity is positioned between the trailing edge portion and the central rib ; and a structural core having a first core member configured for positioning within the first cavity and a second core member configured for positioning within the second cavity , characterised in that the structural core includes a root configured for attachment to a rotor hub or a rotor disk, and the first core member and the second core member are formed integral with the root . a pressure side sheath (254; 454); a suction side sheath (252; 452) secured to the pressure side sheath (254; 454), wherein the pressure side sheath (254; 454) and the suction side sheath (252; 452) are configured to form a continuous sheath (250; 450) that wraps around an interior section of the blade (200; 400), wherein the pressure side sheath (254; 454) includes a base and a tip ; a central rib extending spanwise along the pressure side sheath (254; 454) from the base to the tip , wherein the pressure side sheath (254; 454) includes a leading edge portion and a trailing edge portion and a first cavity is positioned between the leading edge portion and the central rib and a second cavity is positioned between the trailing edge portion and the central rib ; and a structural core having a first core member configured for positioning within the first cavity and a second core member configured for positioning within the second cavity , characterised in that the structural core includes a root configured for attachment to a rotor hub or a rotor disk, and the first core member and the second core member are formed integral with the root .
A method of producing a pyrazole derivative represented by the following formula , which comprises reacting a compound represented by the following formula with an oxidant; wherein R 1 is a hydrogen atom, R 2 is a methyl group or an ethyl group, R 3 is a hydrogen atom, a methyl group or an ethyl group, X 1 and X 2 are fluorine atoms, and Z 1 is a hydrogen atom; and wherein the oxidant is an oxidant containing chlorine. R 1 is a hydrogen atom, R 2 is a methyl group or an ethyl group, R 3 is a hydrogen atom, a methyl group or an ethyl group, X 1 and X 2 are fluorine atoms, and Z 1 is a hydrogen atom; and wherein the oxidant is an oxidant containing chlorine.
Composite material having a substrate and a polymer layer that are bonded to one another by an adhesion promoter layer, wherein the adhesion promoter layer is obtainable by plasma-enhanced chemical vapour phase deposition (PE-CVD) in which a mixture of precursor compounds comprising an unsaturated hydrocarbon and an organosilicon compound is used at least in part.
A control system for a movement reconstruction and/or restoration system for a patient, comprising - a movement model generation module to generate movement model data information; - an analysis module receiving and processing data provided at least by the movement model generation module ; wherein the control system is configured and arranged to prepare and provide on the basis of data received from the movement model generation module and the analysis module a movement model (m) describing the movement of a patient and providing, on the basis of the movement model (m), stimulation data (d) for movement reconstruction and/or restoration, characterized in that the control system further comprises an input module for receiving sensor input data, the sensor input data describing a phase of a movement. - a movement model generation module to generate movement model data information; - an analysis module receiving and processing data provided at least by the movement model generation module ; wherein the control system is configured and arranged to prepare and provide on the basis of data received from the movement model generation module and the analysis module a movement model (m) describing the movement of a patient and providing, on the basis of the movement model (m), stimulation data (d) for movement reconstruction and/or restoration, characterized in that the control system further comprises an input module for receiving sensor input data, the sensor input data describing a phase of a movement.
An ink-receptive coating composition comprising: a. an aqueous anionic polyurethane dispersion; and b. an aqueous solution of a nonionic polyurethane. a. an aqueous anionic polyurethane dispersion; and b. an aqueous solution of a nonionic polyurethane.
Method for producing composite plain bearing materials , in which a bearing metal melt made of a copper alloy is poured onto a strip material made of a steel and the composite material comprising strip material and bearing metal is subsequently subjected to a thermal processing operation, characterised in that , after the bearing metal is poured, the composite material is quenched from the melt temperature to a temperature T 1 of from 150°C to 250°C within a time period of less than two minutes, and afterwards an ageing operation is connected, wherein the ageing operation is carried out at a temperature between 350°C and 520°C over from four to ten hours. after the bearing metal is poured, the composite material is quenched from the melt temperature to a temperature T 1 of from 150°C to 250°C within a time period of less than two minutes, and afterwards an ageing operation is connected, wherein the ageing operation is carried out at a temperature between 350°C and 520°C over from four to ten hours.
Monitoring system for at least one wind turbine blade of a wind turbine , wherein the wind turbine blade comprises at least one electrically conducting or semi-conducting structural component , in particular at least one structural component comprising a carbon fiber reinforced polymer, and a lightning protection system having a down conductor electrically connected to at least one lightning receptor , wherein the down conductor is electrically connected to the at least one structural component by at least one equipotential connector , such that, in the wind turbine blade , a network of electrical impedances comprising the at least one structural component , the at least one equipotential connector and the down conductor is formed, characterized in that the hybrid monitoring system comprises, for remotely monitoring both the lightning protection system and the structural health of the at least one structural component , - a sensing device for the network , comprising at least one transmitter for emitting an electrical pulse into the network via at least one first terminal and at least one receiver for receiving at least one reception pattern of the electrical pulse from the network via at least one second terminal , and - an evaluation device for evaluating the at least one reception pattern , in particular regarding travelling time and/or pulse shape of received pulses in the reception pattern and/or by comparison to at least one reference pattern, to determine a first health information regarding the lightning protection system , in particular the at least one equipotential connector , and a second health information regarding the at least one structural component . - a sensing device for the network , comprising at least one transmitter for emitting an electrical pulse into the network via at least one first terminal and at least one receiver for receiving at least one reception pattern of the electrical pulse from the network via at least one second terminal , and - an evaluation device for evaluating the at least one reception pattern , in particular regarding travelling time and/or pulse shape of received pulses in the reception pattern and/or by comparison to at least one reference pattern, to determine a first health information regarding the lightning protection system , in particular the at least one equipotential connector , and a second health information regarding the at least one structural component .
A camera module comprising: a housing including a supporting part and in which an inner space is divided by the supporting part into a first space and a second space ; an image sensor housed in the first space ; a lens unit arranged on the image sensor; a light-outputting unit arranged between the lens unit and the housing ; and a light source unit arranged in the second space to correspond to the light-outputting unit , wherein the light-outputting unit outputs light incident from the light source unit to the outside, wherein the lens unit includes at least one lens and a lens holder housing the at least one lens , wherein the supporting part is arranged in the housing to support the lens unit , wherein the supporting part includes a through-hole into which the lens holder of the lens unit is inserted formed at a central portion thereof, characterized in that , the light-outputting unit is a ring shape so that an outer surface of the light-outputting unit is in contact with an inner circumferential surface of the housing and an inner surface of the light-outputting unit is in contact with an outer circumferential surface of the lens unit , that a light output surface of the light outputting unit is an inclined surface with a height that increases as the light output surface nears the lens unit with respect to a surface that is perpendicular to an optic axis (OA), and that a degree of inclination (α1; α2) of the light output surface satisfies 5° to 10° with respect to the surface that is perpendicular to the optic axis (OA). a housing including a supporting part and in which an inner space is divided by the supporting part into a first space and a second space ; an image sensor housed in the first space ; a lens unit arranged on the image sensor; a light-outputting unit arranged between the lens unit and the housing ; and a light source unit arranged in the second space to correspond to the light-outputting unit , wherein the light-outputting unit outputs light incident from the light source unit to the outside, wherein the lens unit includes at least one lens and a lens holder housing the at least one lens , wherein the supporting part is arranged in the housing to support the lens unit , wherein the supporting part includes a through-hole into which the lens holder of the lens unit is inserted formed at a central portion thereof, characterized in that , the light-outputting unit is a ring shape so that an outer surface of the light-outputting unit is in contact with an inner circumferential surface of the housing and an inner surface of the light-outputting unit is in contact with an outer circumferential surface of the lens unit , that a light output surface of the light outputting unit is an inclined surface with a height that increases as the light output surface nears the lens unit with respect to a surface that is perpendicular to an optic axis (OA), and that a degree of inclination (α1; α2) of the light output surface satisfies 5° to 10° with respect to the surface that is perpendicular to the optic axis (OA).
An imaging apparatus , comprising: a detector array with at least one detector tile , the detector tile, comprising: a photosensor array with a two dimensional array of individual photosensitive detector pixels located within a non-photosensitive area ; and readout electronics coupled to the photosensor array and including individual readout channel wells , wherein each readout channel well corresponds to only one of the individual detector pixels ; wherein the readout electronics comprises a plurality of metal layers ; wherein the readout electronics includes an anti-aliasing filter for each detector pixel that is located in a region of the readout electronics corresponding to the detector pixel, wherein a capacitor of the anti-aliasing filter is located in the plurality of metal layers of the readout electronics. a photosensor array with a two dimensional array of individual photosensitive detector pixels located within a non-photosensitive area ; and readout electronics coupled to the photosensor array and including individual readout channel wells , wherein each readout channel well corresponds to only one of the individual detector pixels ; wherein the readout electronics comprises a plurality of metal layers ; wherein the readout electronics includes an anti-aliasing filter for each detector pixel that is located in a region of the readout electronics corresponding to the detector pixel, wherein a capacitor of the anti-aliasing filter is located in the plurality of metal layers of the readout electronics.
A mobile tag (320; 320-1; 320-2) for an ultra-wide band, UWB, positioning system , wherein the mobile tag is a first mobile tag configured to acquire positioning information that depends on a relative position between the first mobile tag and a second mobile tag ; transmit the acquired positioning information to one or more devices (340; 320-2; 320-3) of the UWB positioning system ; and detect an event that causes the first mobile tag to assume or to leave an anchor role , wherein one or both of the acquiring and transmitting steps is/are only performed when the first mobile tag is assuming the anchor role, wherein the mobile tag is a morphing tag capable of dynamically transmorphing between the anchor role and a regular tag role , and wherein in the anchor role, the morphing tag is enabled to participate in a positioning procedure as anchor for another mobile tag (i) located in the vicinity of the morphing tag and (ii) assuming the regular tag role. acquire positioning information that depends on a relative position between the first mobile tag and a second mobile tag ; transmit the acquired positioning information to one or more devices (340; 320-2; 320-3) of the UWB positioning system ; and detect an event that causes the first mobile tag to assume or to leave an anchor role , wherein one or both of the acquiring and transmitting steps is/are only performed when the first mobile tag is assuming the anchor role, wherein the mobile tag is a morphing tag capable of dynamically transmorphing between the anchor role and a regular tag role , and wherein in the anchor role, the morphing tag is enabled to participate in a positioning procedure as anchor for another mobile tag (i) located in the vicinity of the morphing tag and (ii) assuming the regular tag role.
A method of programming a NAND flash memory device comprising: a programming voltage generation circuit applying an initial programming voltage pulse to a predetermined page of NAND flash memory ; a controller verifying a plurality of verification levels of the predetermined page , the plurality of verification levels being less than a first-state verification voltage of verifying a lowest program state of the predetermined page ; the controller determining a magnitude of a subsequent programming voltage pulse upon one of the plurality of verification levels of the predetermined page passing a verification; and the programming voltage generation circuit applying the subsequent programming voltage pulse to the predetermined page or other pages in the NAND flash memory , wherein the method further comprising: the controller adjusting when to verify a higher-state verification voltage (Vpg(n)) according to a number of failed verifications of the plurality of verification levels of the predetermined page , wherein preferably the controller adjusting when to verify the higher-state verification voltage comprises: the controller configuring a start step pulse count for starting a verification of the higher-state verification voltage (Vpg(n)) ; and the controller incrementing the start step pulse count when the verification level is verified as failed. a programming voltage generation circuit applying an initial programming voltage pulse to a predetermined page of NAND flash memory ; a controller verifying a plurality of verification levels of the predetermined page , the plurality of verification levels being less than a first-state verification voltage of verifying a lowest program state of the predetermined page ; the controller determining a magnitude of a subsequent programming voltage pulse upon one of the plurality of verification levels of the predetermined page passing a verification; and the programming voltage generation circuit applying the subsequent programming voltage pulse to the predetermined page or other pages in the NAND flash memory , wherein the method further comprising: the controller adjusting when to verify a higher-state verification voltage (Vpg(n)) according to a number of failed verifications of the plurality of verification levels of the predetermined page , wherein preferably the controller adjusting when to verify the higher-state verification voltage comprises: the controller configuring a start step pulse count for starting a verification of the higher-state verification voltage (Vpg(n)) ; and the controller incrementing the start step pulse count when the verification level is verified as failed. the controller configuring a start step pulse count for starting a verification of the higher-state verification voltage (Vpg(n)) ; and the controller incrementing the start step pulse count when the verification level is verified as failed.