mhurhangee/ep-ind-claims huggingface dataset:
An integrated circuit which, in operation, is configured to control a process of a radio communication terminal apparatus for transmitting an aperiodic sounding reference signal, A-SRS, the process comprising: receiving control information including a transmission request for the A-SRS and a transmission power control command, TPC command, for the A-SRS, controlling a transmission power value of the A-SRS using a first accumulation value updated with the received TPC command; and transmitting the A-SRS with said transmission power value, wherein said controlling includes using a second accumulation value instead of the first accumulation value, the second accumulation value being updated with a TPC command transmitted on a specific subframe and in a specific downlink control information, DCI, format. receiving control information including a transmission request for the A-SRS and a transmission power control command, TPC command, for the A-SRS, controlling a transmission power value of the A-SRS using a first accumulation value updated with the received TPC command; and transmitting the A-SRS with said transmission power value, wherein said controlling includes using a second accumulation value instead of the first accumulation value, the second accumulation value being updated with a TPC command transmitted on a specific subframe and in a specific downlink control information, DCI, format.
A construction machine comprising: a frame forming a frame structure; an engine mounted on the frame; and a partition wall that covers a front side of the engine, wherein the frame includes: a bottom plate; and a lateral plate that is positioned at a front lower side of the engine, extends in a left and right direction, and stands on the bottom plate, the partition wall includes: a partition plate (60, 62, 64) that is positioned on an upper side of the lateral plate and extends in the left and right direction; and a protruding plate, characterized in that the protruding plate protrudes forward from a lower end side of the partition plate (60, 62, 64) and then extends downward, and the lateral plate is fit between the partition plate (60, 62, 64) and the protruding plate so that a lower end side of the partition wall is fixed to the frame. a frame forming a frame structure; an engine mounted on the frame; and a partition wall that covers a front side of the engine, wherein the frame includes: a bottom plate; and a lateral plate that is positioned at a front lower side of the engine, extends in a left and right direction, and stands on the bottom plate, a bottom plate; and a lateral plate that is positioned at a front lower side of the engine, extends in a left and right direction, and stands on the bottom plate, the partition wall includes: a partition plate (60, 62, 64) that is positioned on an upper side of the lateral plate and extends in the left and right direction; and a protruding plate, characterized in that the protruding plate protrudes forward from a lower end side of the partition plate (60, 62, 64) and then extends downward, and the lateral plate is fit between the partition plate (60, 62, 64) and the protruding plate so that a lower end side of the partition wall is fixed to the frame. the protruding plate protrudes forward from a lower end side of the partition plate (60, 62, 64) and then extends downward, and the lateral plate is fit between the partition plate (60, 62, 64) and the protruding plate so that a lower end side of the partition wall is fixed to the frame.
A method for wireless communications, comprising: determining, at an apparatus, whether to cease transmissions from the apparatus during a period of time designated for a first node to transmit to a second node based on at least one parameter received at the apparatus and a calculated path loss between the apparatus and the second node, wherein the at least one parameter is a channel parameter related to a channel between the first and second nodes and further wherein the apparatus is not the first or second node; and wherein the path loss is calculated, at the apparatus, based on a preamble contained in at least one packet transmitted by the second node. determining, at an apparatus, whether to cease transmissions from the apparatus during a period of time designated for a first node to transmit to a second node based on at least one parameter received at the apparatus and a calculated path loss between the apparatus and the second node, wherein the at least one parameter is a channel parameter related to a channel between the first and second nodes and further wherein the apparatus is not the first or second node; and wherein the path loss is calculated, at the apparatus, based on a preamble contained in at least one packet transmitted by the second node.
A fuel injector, comprising: an injector body including a manifold and an inlet, the manifold configured for receiving fuel and the inlet configured for receiving air; a plurality of fuel vanes located within the injector body and positioned in a direction that is generally parallel with a longitudinal axis of the injector body to orient the air flowing from the inlet, the plurality of fuel vanes being fluidly connected to the manifold; a plurality of fuel pegs fluidly connected to the manifold and arranged within the plurality of fuel vanes and fluidly connected thereto, the plurality of fuel pegs each being spaced at a distance that is about equal between each of the plurality of fuel pegs; characterised in that the plurality of fuel vanes are fluidly connected to one another to create a hexagram configuration, wherein the hexagram configuration includes two equilateral triangles that intersect one another at a plurality of vertices, the plurality of vertices each being spaced at a distance that is about equal between each adjacent vertice. an injector body including a manifold and an inlet, the manifold configured for receiving fuel and the inlet configured for receiving air; a plurality of fuel vanes located within the injector body and positioned in a direction that is generally parallel with a longitudinal axis of the injector body to orient the air flowing from the inlet, the plurality of fuel vanes being fluidly connected to the manifold; a plurality of fuel pegs fluidly connected to the manifold and arranged within the plurality of fuel vanes and fluidly connected thereto, the plurality of fuel pegs each being spaced at a distance that is about equal between each of the plurality of fuel pegs; characterised in that the plurality of fuel vanes are fluidly connected to one another to create a hexagram configuration, wherein the hexagram configuration includes two equilateral triangles that intersect one another at a plurality of vertices, the plurality of vertices each being spaced at a distance that is about equal between each adjacent vertice.
Reactance ballast device, in particular for an arc furnace, with an induction coil and with a free-standing on-load tap changer, the on-load tap changer being formed and designed to set the reactance of the induction coil on load.
A computer-implemented method for modelling the alignment of an orthopaedic implant for a joint of a patient, the method comprising the steps of: - receiving patient specific information data which is being indicative of one or more dynamic and/or kinematic characteristics; - segmenting and filtering the patient specific information data to remove data that represents non-essential tissues in the joint of the patient; - deriving patient data based on the patient specific information data which has been filtered; - generating a virtual prediction comprising joint kinematics data, joint loading data, and joint articulation behaviour data in response to particular movements, patient specific loads, moment arms, contact stresses, external forces, and muscle forces, the virtual prediction being based on at least one model from a library of available predetermined ideal simulation models derived from other patients; and - providing 3D model data of the joint using the patient data, such that the 3D model data shows the orthopaedic implant virtually implanted on the joint and provides data associated with an alignment configuration based on the virtual prediction. - receiving patient specific information data which is being indicative of one or more dynamic and/or kinematic characteristics; - segmenting and filtering the patient specific information data to remove data that represents non-essential tissues in the joint of the patient; - deriving patient data based on the patient specific information data which has been filtered; - generating a virtual prediction comprising joint kinematics data, joint loading data, and joint articulation behaviour data in response to particular movements, patient specific loads, moment arms, contact stresses, external forces, and muscle forces, the virtual prediction being based on at least one model from a library of available predetermined ideal simulation models derived from other patients; and - providing 3D model data of the joint using the patient data, such that the 3D model data shows the orthopaedic implant virtually implanted on the joint and provides data associated with an alignment configuration based on the virtual prediction.
A negative pressure wound closure device, the wound closure device comprising: a wound filler material that is positionable within a wound opening, the wound filler material being configured to contract preferentially along at least a first direction relative to a second direction upon application of a negative pressure to the wound filler material; a fluid drainage device in fluid communication with the wound filler material of the wound closure device such that fluid is drained from the fluid drain device through the wound filler material upon application of negative pressure to the wound filler material, and a pad positioned, in use, under the fluid drainage device between an abdominal cavity and a fascia (909, 911), the pad providing for lateral movement of fascia tissue (909, 911) overlying the pad. a wound filler material that is positionable within a wound opening, the wound filler material being configured to contract preferentially along at least a first direction relative to a second direction upon application of a negative pressure to the wound filler material; a fluid drainage device in fluid communication with the wound filler material of the wound closure device such that fluid is drained from the fluid drain device through the wound filler material upon application of negative pressure to the wound filler material, and a pad positioned, in use, under the fluid drainage device between an abdominal cavity and a fascia (909, 911), the pad providing for lateral movement of fascia tissue (909, 911) overlying the pad.
An apparatus, comprising: a processing resource operatively coupled to a memory resource; a frame determination component operatively coupled to the processing resource and the memory resource, wherein the frame determination component is to cause: a counter corresponding to a particular station, STA, associated to the apparatus to be stored in the memory resource, the counter to be incremented in response to receipt of a transmission frame from the particular STA, containing an invalid starting sequence number, SEN; a block acknowledgement request to be transmitted to the particular station in response to receipt of a threshold number of transmission frames from the particular STA, containing the invalid SEN; and the transmission frame failure counter to be incremented in response to receipt of a transmission frame, from the particular station, containing a valid SEN subsequent to transmission of the block acknowledgement request. a processing resource operatively coupled to a memory resource; a frame determination component operatively coupled to the processing resource and the memory resource, wherein the frame determination component is to cause: a counter corresponding to a particular station, STA, associated to the apparatus to be stored in the memory resource, the counter to be incremented in response to receipt of a transmission frame from the particular STA, containing an invalid starting sequence number, SEN; a block acknowledgement request to be transmitted to the particular station in response to receipt of a threshold number of transmission frames from the particular STA, containing the invalid SEN; and the transmission frame failure counter to be incremented in response to receipt of a transmission frame, from the particular station, containing a valid SEN subsequent to transmission of the block acknowledgement request. a counter corresponding to a particular station, STA, associated to the apparatus to be stored in the memory resource, the counter to be incremented in response to receipt of a transmission frame from the particular STA, containing an invalid starting sequence number, SEN; a block acknowledgement request to be transmitted to the particular station in response to receipt of a threshold number of transmission frames from the particular STA, containing the invalid SEN; and the transmission frame failure counter to be incremented in response to receipt of a transmission frame, from the particular station, containing a valid SEN subsequent to transmission of the block acknowledgement request.
A scheduling method carried out by a network element, characterised in that it comprises the following steps: obtaining a fifth state information set based on fourth state information sets of K to-be-scheduled terminal devices and a state information set of a system, wherein K is an integer greater than or equal to 1, a dimension of a fourth state information set of any to-be-scheduled terminal device in the K to-be-scheduled terminal devices is L, L is an integer greater than or equal to 1, and a fourth state information set of any to-be-scheduled terminal device comprises state information of the any to-be-scheduled terminal device and state association data between the any to-be-scheduled terminal device and another to-be-scheduled terminal device; inputting the fifth state information set into a third neural network model to determine a weight set, wherein the third neural network model is determined based on L, and a quantity of weights comprised in the weight set is the same as L; determining a scheduled weight of each to-be-scheduled terminal device in the K to-be-scheduled terminal devices based on the weight set, to obtain K scheduled weights; and determining a scheduling result based on the K scheduled weights, wherein the scheduling result indicates a scheduled terminal device. obtaining a fifth state information set based on fourth state information sets of K to-be-scheduled terminal devices and a state information set of a system, wherein K is an integer greater than or equal to 1, a dimension of a fourth state information set of any to-be-scheduled terminal device in the K to-be-scheduled terminal devices is L, L is an integer greater than or equal to 1, and a fourth state information set of any to-be-scheduled terminal device comprises state information of the any to-be-scheduled terminal device and state association data between the any to-be-scheduled terminal device and another to-be-scheduled terminal device; inputting the fifth state information set into a third neural network model to determine a weight set, wherein the third neural network model is determined based on L, and a quantity of weights comprised in the weight set is the same as L; determining a scheduled weight of each to-be-scheduled terminal device in the K to-be-scheduled terminal devices based on the weight set, to obtain K scheduled weights; and determining a scheduling result based on the K scheduled weights, wherein the scheduling result indicates a scheduled terminal device.
A voltage multiplier comprising a series of multiplier stages (12a, 12b, 12c, 12d), wherein each multiplier stage comprises a first input, a second input, a first output and second output, the first and second outputs of a preceding multiplier stage interconnected with first and second inputs of a subsequent multiplier stage; wherein each multiplier stage comprises two series connected diode elements (D5, D6) having the same current conducting direction, the two series connected diode elements (D5, d6) interconnecting the first input and the first output and the second output being coupled between the two series connected diode elements (D5, D6); wherein each multiplier stage comprises a buffer capacitor interconnecting the respective first input and the respective first output; wherein at least some multiplier stages comprise a push-pull capacitor interconnecting the respective second input and the respective second output; wherein the first input of a first multiplier stage and the first output of a last multiplier stage provide outputs for a load; wherein the second input of the first multiplier stage provides an input for an AC voltage source; wherein the buffer capacitor of the first multiplier stage comprises two series connected buffer capacitor parts (C3a, C3b); wherein an input for the AC voltage source is provided between the two buffer capacitor parts (C3a, C3b).
A method for transmitting symbols, by a transmitter in a communication system, the method comprising: identifying at least one Orthogonal Frequency Division Multiplexing, OFDM, symbol to be used for control channel transmission within a predetermined maximum number of OFDM symbols available for control channel transmission among total OFDM symbols of a subframe; mapping a reference signal onto resources for the reference signal in the subframe; mapping (920, 1020, 1120, 1302) control symbols onto resources for control symbols in the identified at least one OFDM symbol to be used for the control channel transmission; and mapping (930, 1030, 1040, 1130, 1140, 1303) data symbols onto resources for data symbols in at least one scheduled resource block in remaining OFDM symbols other than the identified at least one OFDM symbol; and transmitting information related to the at least one OFDM symbol to be used for control channel transmission, through a predetermined control channel; and transmitting the mapped reference signal, the mapped control symbols, and the mapped data symbols, wherein the resources for the reference signal in the subframe are not overlapped with the resources for control symbols in the identified at least one OFDM symbol to be used for the control channel transmission and the resources for data symbols in at least one scheduled resource block in remaining OFDM symbols, wherein data symbols are defined based on an output value from a determined start value in a circular buffer. identifying at least one Orthogonal Frequency Division Multiplexing, OFDM, symbol to be used for control channel transmission within a predetermined maximum number of OFDM symbols available for control channel transmission among total OFDM symbols of a subframe; mapping a reference signal onto resources for the reference signal in the subframe; mapping (920, 1020, 1120, 1302) control symbols onto resources for control symbols in the identified at least one OFDM symbol to be used for the control channel transmission; and mapping (930, 1030, 1040, 1130, 1140, 1303) data symbols onto resources for data symbols in at least one scheduled resource block in remaining OFDM symbols other than the identified at least one OFDM symbol; and transmitting information related to the at least one OFDM symbol to be used for control channel transmission, through a predetermined control channel; and transmitting the mapped reference signal, the mapped control symbols, and the mapped data symbols, wherein the resources for the reference signal in the subframe are not overlapped with the resources for control symbols in the identified at least one OFDM symbol to be used for the control channel transmission and the resources for data symbols in at least one scheduled resource block in remaining OFDM symbols, wherein data symbols are defined based on an output value from a determined start value in a circular buffer.
Fin-stabilized full-calibre training projectile that can be fired from the barrel of a weapon, comprising a solid head part and a tubular fin body adjoining the rear side of the head part, the training projectile being provided circumferentially with a sealing system, characterized by the following features: a) the tubular fin body is partially formed in a sub-calibre manner in such a way that the propellant gases produced upon firing the training projectile also act on the outer side of the side wall of the tubular fin body, b) the tubular fin body has circumferentially a number of guiding elements that are uniformly spaced apart from one another and take the form of webs, and c) the sealing system is arranged in the region of the head part of the training projectile. a) the tubular fin body is partially formed in a sub-calibre manner in such a way that the propellant gases produced upon firing the training projectile also act on the outer side of the side wall of the tubular fin body, b) the tubular fin body has circumferentially a number of guiding elements that are uniformly spaced apart from one another and take the form of webs, and c) the sealing system is arranged in the region of the head part of the training projectile.
An organic light emitting display unit comprising: a first substrate; a display region having a plurality of sub-pixels disposed on the first substrate; a pad portion disposed on the first substrate outside of the display region for electrical connection to an external device; a plurality of lines (155c, 155d, 155e) disposed between the pad portion and the display region for transmitting a signal or power; an insulation layer disposed on the display region and on a portion of the lines (155c, 155d, 155e) outside of the display region, wherein the insulation layer includes a first region covering a portion of the lines (155c, 155d, 155e) adjacent to the display region and a second region covering a portion of the lines (155c, 155d, 155e) adjacent to the pad portion, wherein the first region and the second region of the insulation layer are spaced apart from each other, and a moisture-transmission delay layer formed of an organic material and spaced apart from the insulation layer for forming a moisture-transmission delay space, wherein the moisture-transmission delay layer includes a plurality of patterns covering corresponding exposed edges of the plurality of lines (155c, 155d, 155e) exposed by the insulation layer and also covering a portion of the first substrate. a first substrate; a display region having a plurality of sub-pixels disposed on the first substrate; a pad portion disposed on the first substrate outside of the display region for electrical connection to an external device; a plurality of lines (155c, 155d, 155e) disposed between the pad portion and the display region for transmitting a signal or power; an insulation layer disposed on the display region and on a portion of the lines (155c, 155d, 155e) outside of the display region, wherein the insulation layer includes a first region covering a portion of the lines (155c, 155d, 155e) adjacent to the display region and a second region covering a portion of the lines (155c, 155d, 155e) adjacent to the pad portion, wherein the first region and the second region of the insulation layer are spaced apart from each other, and a moisture-transmission delay layer formed of an organic material and spaced apart from the insulation layer for forming a moisture-transmission delay space, wherein the moisture-transmission delay layer includes a plurality of patterns covering corresponding exposed edges of the plurality of lines (155c, 155d, 155e) exposed by the insulation layer and also covering a portion of the first substrate.