mhurhangee/patent-ind-claim-en huggingface dataset:
A circuit for transposing a matrix, the circuit comprising: reversal circuitry configured to: receive, for each of one or more diagonals of the matrix, elements of the diagonal of the matrix in a first vector, and generate, for each of the one or more diagonals of the matrix, a second vector that includes the elements of the diagonal of the matrix in an order that is a reverse of an order of the elements of the diagonal of the matrix in the first vector; and rotation circuitry configured to: determine, for each of the one or more diagonals of the matrix, a number of positions by which to rotate the elements of the diagonal of the matrix in the second vector, receive, for each of the one or more diagonals of the matrix, the second vector of elements of the diagonal of the matrix, and generate, for each of the one or more diagonals of the matrix, a third vector that includes the elements of the diagonal of the matrix in the second vector in an order that is a rotation of the elements of the diagonal of the matrix in the second vector by the determined number of positions. reversal circuitry configured to: receive, for each of one or more diagonals of the matrix, elements of the diagonal of the matrix in a first vector, and generate, for each of the one or more diagonals of the matrix, a second vector that includes the elements of the diagonal of the matrix in an order that is a reverse of an order of the elements of the diagonal of the matrix in the first vector; and receive, for each of one or more diagonals of the matrix, elements of the diagonal of the matrix in a first vector, and generate, for each of the one or more diagonals of the matrix, a second vector that includes the elements of the diagonal of the matrix in an order that is a reverse of an order of the elements of the diagonal of the matrix in the first vector; and rotation circuitry configured to: determine, for each of the one or more diagonals of the matrix, a number of positions by which to rotate the elements of the diagonal of the matrix in the second vector, receive, for each of the one or more diagonals of the matrix, the second vector of elements of the diagonal of the matrix, and generate, for each of the one or more diagonals of the matrix, a third vector that includes the elements of the diagonal of the matrix in the second vector in an order that is a rotation of the elements of the diagonal of the matrix in the second vector by the determined number of positions. determine, for each of the one or more diagonals of the matrix, a number of positions by which to rotate the elements of the diagonal of the matrix in the second vector, receive, for each of the one or more diagonals of the matrix, the second vector of elements of the diagonal of the matrix, and generate, for each of the one or more diagonals of the matrix, a third vector that includes the elements of the diagonal of the matrix in the second vector in an order that is a rotation of the elements of the diagonal of the matrix in the second vector by the determined number of positions.
A shovel comprising: a lower traveling structure ; an upper swing structure swingably mounted on the lower traveling structure ; an attachment attached to the upper swing structure ; an actuator configured to drive the attachment ; an engine mounted on the upper swing structure ; a hydraulic pump configured to be driven by the engine to discharge hydraulic oil; a hydraulic circuit configured to circulate the hydraulic oil discharged by the hydraulic pump to the actuator ; a negative control pressure sensor provided in the hydraulic circuit to detect a pressure of the hydraulic oil at a predetermined position in the hydraulic circuit; and a control device configured to decrease a flow rate of the hydraulic oil discharged by the hydraulic pump to a standby flow rate based on the pressure detected by the negative control pressure sensor , characterized in that the control device is configured to limit an increase in the flow rate of the hydraulic oil discharged by the hydraulic pump to a predetermined value or less, in a case of increasing the flow rate from the standby flow rate in response to a decrease in the detected pressure, the decrease being caused by supplying the hydraulic oil to the actuator in response to the actuator being operated. a lower traveling structure ; an upper swing structure swingably mounted on the lower traveling structure ; an attachment attached to the upper swing structure ; an actuator configured to drive the attachment ; an engine mounted on the upper swing structure ; a hydraulic pump configured to be driven by the engine to discharge hydraulic oil; a hydraulic circuit configured to circulate the hydraulic oil discharged by the hydraulic pump to the actuator ; a negative control pressure sensor provided in the hydraulic circuit to detect a pressure of the hydraulic oil at a predetermined position in the hydraulic circuit; and a control device configured to decrease a flow rate of the hydraulic oil discharged by the hydraulic pump to a standby flow rate based on the pressure detected by the negative control pressure sensor , characterized in that the control device is configured to limit an increase in the flow rate of the hydraulic oil discharged by the hydraulic pump to a predetermined value or less, in a case of increasing the flow rate from the standby flow rate in response to a decrease in the detected pressure, the decrease being caused by supplying the hydraulic oil to the actuator in response to the actuator being operated.
Methylpolysiloxane mixture, comprising methylpolysiloxanes having Me 3 Si chain end groups (M) und Me 2 SiO units (D), wherein the molar M:D ratio in the methylpolysiloxane mixture is from 1:5.5 to 1:15 and the sum total of the proportions of all cyclic methylpolysiloxanes is 25 to 55% by mass.
An apparatus for the generation of spots on an inclined surface, comprising: one or more optical elements positionable in a beam scanning system prior to an objective lens oriented at an oblique angle relative to a surface of a sample, wherein the optical axis of the lens is perpendicular to a first direction on a plane defined by the surface, wherein the one or more optical elements are configured to: split a beam into two or more offset beams, wherein the two or more offset beams are separated in at least a second direction, wherein the second direction is perpendicular to the first direction, and modify the phase characteristics of the two or more offset beams such that the two or more offset beams are simultaneously in focus on the surface during a scan; wherein the one or more optical elements include one or more diffractive optical elements, wherein the one or more optical elements includes a diffractive optical element comprising a grating with period T and further comprising defocus wavefront modification of amplitude A, wherein the diffractive optical element splits an incident beam into two or more diffracted orders K separated in the second direction, wherein the two or more diffracted orders K are simultaneously in focus on the surface, wherein the diffractive optical element introduces a phase delay of K*[2*π*x/T + A(x^2 + y^2)], where K = 0, ±1, ±2, ...., y corresponds to the first direction and x corresponds to the second direction. one or more optical elements positionable in a beam scanning system prior to an objective lens oriented at an oblique angle relative to a surface of a sample, wherein the optical axis of the lens is perpendicular to a first direction on a plane defined by the surface, wherein the one or more optical elements are configured to: split a beam into two or more offset beams, wherein the two or more offset beams are separated in at least a second direction, wherein the second direction is perpendicular to the first direction, and modify the phase characteristics of the two or more offset beams such that the two or more offset beams are simultaneously in focus on the surface during a scan; wherein the one or more optical elements include one or more diffractive optical elements, split a beam into two or more offset beams, wherein the two or more offset beams are separated in at least a second direction, wherein the second direction is perpendicular to the first direction, and modify the phase characteristics of the two or more offset beams such that the two or more offset beams are simultaneously in focus on the surface during a scan; wherein the one or more optical elements include one or more diffractive optical elements, wherein the diffractive optical element splits an incident beam into two or more diffracted orders K separated in the second direction, wherein the two or more diffracted orders K are simultaneously in focus on the surface, wherein the diffractive optical element introduces a phase delay of K*[2*π*x/T + A(x^2 + y^2)], where K = 0, ±1, ±2, ...., y corresponds to the first direction and x corresponds to the second direction.
A method for user equipment, UE, cooperation in a wireless network, the method comprising: receiving, at a helping UE, a data packet intended for a target UE from a base station of the wireless network, the data packet including data encoded with a rateless code at a higher network layer than a media access control, MAC, layer; decoding the data packet; transmitting, from the helping UE to the base station, a hybrid automatic repeat request, HARQ, acknowledgment, ACK, message at the MAC layer; and transmitting, from the helping UE, the decoded data packet to the target UE only if the helping UE successfully decodes the data packet, wherein the helping UE and the target UE are associated with a UE group for joint reception and to decode the data packet jointly. receiving, at a helping UE, a data packet intended for a target UE from a base station of the wireless network, the data packet including data encoded with a rateless code at a higher network layer than a media access control, MAC, layer; decoding the data packet; transmitting, from the helping UE to the base station, a hybrid automatic repeat request, HARQ, acknowledgment, ACK, message at the MAC layer; and transmitting, from the helping UE, the decoded data packet to the target UE only if the helping UE successfully decodes the data packet, wherein the helping UE and the target UE are associated with a UE group for joint reception and to decode the data packet jointly.
A composition comprising a recombinant variant alpha-2-macroglobulin (A2M) polypeptide comprising a non-natural bait region comprising a plurality of protease recognition sequences, wherein: (i) the non-natural bait region comprises a sequence with at least 92% identity to a sequence selected from the group consisting of SEQ ID NOs 6-30, (ii) the recombinant variant A2M polypeptide comprises at least 80% sequence identity to SEQ ID NO 3, (iii) the recombinant variant A2M polypeptide comprises at least 500 amino acids, (iv) the recombinant variant A2M polypeptide is characterized by an enhanced inhibition of a protease selected from the group consisting of a serine protease, a threonine protease, a cysteine protease, an aspartate protease, a metalloprotease, a glutamic acid protease, and combinations thereof, compared to an inhibition of the protease by a wild-type A2M protein; and (v) the non-natural bait region has a sequence that does not comprise a sequence selected from the group consisting of SEQ ID NOs 84-143. (i) the non-natural bait region comprises a sequence with at least 92% identity to a sequence selected from the group consisting of SEQ ID NOs 6-30, (ii) the recombinant variant A2M polypeptide comprises at least 80% sequence identity to SEQ ID NO 3, (iii) the recombinant variant A2M polypeptide comprises at least 500 amino acids, (iv) the recombinant variant A2M polypeptide is characterized by an enhanced inhibition of a protease selected from the group consisting of a serine protease, a threonine protease, a cysteine protease, an aspartate protease, a metalloprotease, a glutamic acid protease, and combinations thereof, compared to an inhibition of the protease by a wild-type A2M protein; and (v) the non-natural bait region has a sequence that does not comprise a sequence selected from the group consisting of SEQ ID NOs 84-143.
A patient interface assembly comprising a patient interface , a connector for connecting the patient interface to a conduit , the conduit being joined to the connector in a non-releasable manner, the patient interface comprising a first connection formation and the connector comprising a second connection formation, the first connection formation comprising a slot for receiving at least a portion of the second connection formation, wherein the slot extends in a direction which requires insertion of the second connection formation into the slot in a direction which is substantially orthogonal to a longitudinal axis of the conduit , the patient interface and the connector being connectable such that, in a connected configuration, the first connection formation and the second connection formation are engageable with each other, with a snap fit, to provide a non-releasable connection, and wherein a nasal region of the patient interface extends forwardly of the remainder of the patient interface , thereby defining a nasal shelf , and the slot is formed in the mask body 108 slightly above the shelf , the slot being defined by at least one internal wall of the patient interface and the nasal shelf wall of the patient interface .
A heat source unit comprising: a plurality of compressors ; and a controller , characterized in that , when an operating current of any one of the compressors is abnormally increased, the controller is configured to execute release control for reducing capacity of the compressor in which the operating current is abnormally increased, when release control for reducing capacity of any one of the compressors is executed, the controller configured to increase capacity of one or more of the compressors except the compressor subjected to the release control by an amount of the capacity reduced by the release control, and the controller is configured to distribute an amount of the capacity of the compressor subjected to the release control reduced by the release control proportionally among one or more of the compressors except the compressor subjected to the release control, and increase capacity of one or more of the compressors except the compressor subjected to the release control by the distributed amounts of the capacity. a plurality of compressors ; and a controller , characterized in that , when an operating current of any one of the compressors is abnormally increased, the controller is configured to execute release control for reducing capacity of the compressor in which the operating current is abnormally increased, when release control for reducing capacity of any one of the compressors is executed, the controller configured to increase capacity of one or more of the compressors except the compressor subjected to the release control by an amount of the capacity reduced by the release control, and the controller is configured to distribute an amount of the capacity of the compressor subjected to the release control reduced by the release control proportionally among one or more of the compressors except the compressor subjected to the release control, and increase capacity of one or more of the compressors except the compressor subjected to the release control by the distributed amounts of the capacity.
Setting tool for driving fastening elements into a substrate, in particular a hand-held setting tool, comprising a holder, which is provided for holding a fastening element, a drive-in element, which is provided for transferring a fastening element held in the holder into the substrate along a setting axis by a setting energy E kin of at least 30 J and at most 600 J, a drive, which is provided for driving the drive-in element toward the fastening element along the setting axis, wherein the drive comprises an electrical capacitor, a squirrel-cage rotor arranged on the drive-in element and an excitation coil, which during discharge of the capacitor is flowed through by current and generates a magnetic field that accelerates the drive-in element toward the fastening element, wherein the drive-in element has a piston diameter d K and a piston mass m K , characterized in that , for the piston diameter d K , 3 2 a + b E kin n ≤ d K ≤ 4 3 a + b E kin n where a = 33 mm, b = 6 mmJ -n and n = 1/3 and/or, for the piston mass m K , 2 3 c + d E kin n ≤ m K ≤ 5 3 c + d E kin n where c = 20 g, d = 30 gJ -n and n = 1/3. characterized in that , for the piston diameter d K , 3 2 a + b E kin n ≤ d K ≤ 4 3 a + b E kin n where a = 33 mm, b = 6 mmJ -n and n = 1/3 and/or, for the piston mass m K , 2 3 c + d E kin n ≤ m K ≤ 5 3 c + d E kin n where c = 20 g, d = 30 gJ -n and n = 1/3.
An apparatus for measuring bio-information, comprising: a pulse wave measurer configured to measure a pulse wave signal from a first region of an object; a contact pressure extractor comprising a touch screen (31; 850) and configured to obtain a contact pressure signal, indicating a contact pressure between the first region and the pulse wave measurer, based on touch data that is generated based on a second region of the object being in contact with the touch screen (31; 850); and a processor configured to measure bio-information of the object based on the pulse wave signal and the contact pressure signal, wherein the bio-information comprises a blood pressure, wherein the processor is further configured to determine a characteristic point based on the pulse wave signal and the contact pressure signal and measure the bio-information using the characteristic point and a blood pressure measurement model, wherein the processor is further configured to extract a feature for measuring the blood pressure based on the characteristic point, wherein the bio-information is measured by inputting the extracted feature to the blood pressure measurement model, wherein the processor is further configured to determine the characteristic point based on two or more pulse wave signals having different wavelengths, the two or more pulse wave signals being measured in a transition period of the contact pressure signal. a pulse wave measurer configured to measure a pulse wave signal from a first region of an object; a contact pressure extractor comprising a touch screen (31; 850) and configured to obtain a contact pressure signal, indicating a contact pressure between the first region and the pulse wave measurer, based on touch data that is generated based on a second region of the object being in contact with the touch screen (31; 850); and a processor configured to measure bio-information of the object based on the pulse wave signal and the contact pressure signal, wherein the bio-information comprises a blood pressure, wherein the processor is further configured to determine a characteristic point based on the pulse wave signal and the contact pressure signal and measure the bio-information using the characteristic point and a blood pressure measurement model, wherein the processor is further configured to extract a feature for measuring the blood pressure based on the characteristic point, wherein the bio-information is measured by inputting the extracted feature to the blood pressure measurement model, wherein the processor is further configured to determine the characteristic point based on two or more pulse wave signals having different wavelengths, the two or more pulse wave signals being measured in a transition period of the contact pressure signal.
Backfeeding system, comprising: - an energy-optimised backfeeding installation comprising: - at least one compressor between a gas network at a first pressure and a gas network at a second pressure higher than the first pressure, the compressor being driven by an electric motor ; - a programmable logic controller for controlling the operation of each compressor; - at least one sensor for checking the quality compliance of the gas circulating in the compressor; - at least one meter for metering a flow rate of gas circulating in the compressor; - at least one filter for filtering the gas circulating in the compressor; - a gas expander for expanding gas initially at the second pressure in order to supply the gas network at the first pressure; - a generator driven by the gas expander; and - a heat and electrical power cogeneration unit, the heat being used to heat the gas during expansion, the electricity outlet of the generator being connected to the electricity outlet of the cogeneration unit. - an energy-optimised backfeeding installation comprising: - at least one compressor between a gas network at a first pressure and a gas network at a second pressure higher than the first pressure, the compressor being driven by an electric motor ; - a programmable logic controller for controlling the operation of each compressor; - at least one sensor for checking the quality compliance of the gas circulating in the compressor; - at least one meter for metering a flow rate of gas circulating in the compressor; - at least one filter for filtering the gas circulating in the compressor; - a gas expander for expanding gas initially at the second pressure in order to supply the gas network at the first pressure; - a generator driven by the gas expander; and - at least one compressor between a gas network at a first pressure and a gas network at a second pressure higher than the first pressure, the compressor being driven by an electric motor ; - a programmable logic controller for controlling the operation of each compressor; - at least one sensor for checking the quality compliance of the gas circulating in the compressor; - at least one meter for metering a flow rate of gas circulating in the compressor; - at least one filter for filtering the gas circulating in the compressor; - a gas expander for expanding gas initially at the second pressure in order to supply the gas network at the first pressure; - a generator driven by the gas expander; and - a heat and electrical power cogeneration unit, the heat being used to heat the gas during expansion, the electricity outlet of the generator being connected to the electricity outlet of the cogeneration unit.