mhurhangee/patent-ind-claim-en huggingface dataset:
A user equipment, UE, for a wireless communication system having a plurality of Bandwidth Parts, BWPs, in a cell, the UE comprising: a processor ; and a communication module , wherein the processor is configured to: receive (S1602) downlink control information, DCI, including a resource indication value, RIV, wherein the RIV is defined to indicate a starting index and a length, with reference to a number N BWP1 of resource blocks, RBs, in a first BWP; and transmit or receive (S1604) a physical shared channel on a contiguous RB set corresponding to the RIV within a second BWP, wherein the second BWP is different from the first BWP and has a number N BWP2 of RBs, wherein, when N BWP2 > N BWP1 , a starting index S and a length L of the contiguous RB set have respectively one of the following values, based on the RIV: - the starting index S: {0, K, 2*K, ..., (N BWP1 -1)*K}, and - the length L: {K, 2*K, 3*K, ..., N BWP1 *K}, where K has a value within a set of {1, 2, ..., 2"}, based on N BWP2 /N BWP1 , and n represents a positive integer, and where S and L are expressed in unit of RB. a processor ; and a communication module , wherein the processor is configured to: receive (S1602) downlink control information, DCI, including a resource indication value, RIV, wherein the RIV is defined to indicate a starting index and a length, with reference to a number N BWP1 of resource blocks, RBs, in a first BWP; and transmit or receive (S1604) a physical shared channel on a contiguous RB set corresponding to the RIV within a second BWP, wherein the second BWP is different from the first BWP and has a number N BWP2 of RBs, wherein, when N BWP2 > N BWP1 , a starting index S and a length L of the contiguous RB set have respectively one of the following values, based on the RIV: - the starting index S: {0, K, 2*K, ..., (N BWP1 -1)*K}, and - the length L: {K, 2*K, 3*K, ..., N BWP1 *K}, where K has a value within a set of {1, 2, ..., 2"}, based on N BWP2 /N BWP1 , and n represents a positive integer, and where S and L are expressed in unit of RB. receive (S1602) downlink control information, DCI, including a resource indication value, RIV, wherein the RIV is defined to indicate a starting index and a length, with reference to a number N BWP1 of resource blocks, RBs, in a first BWP; and transmit or receive (S1604) a physical shared channel on a contiguous RB set corresponding to the RIV within a second BWP, wherein the second BWP is different from the first BWP and has a number N BWP2 of RBs, wherein, when N BWP2 > N BWP1 , a starting index S and a length L of the contiguous RB set have respectively one of the following values, based on the RIV: - the starting index S: {0, K, 2*K, ..., (N BWP1 -1)*K}, and - the length L: {K, 2*K, 3*K, ..., N BWP1 *K}, - the starting index S: {0, K, 2*K, ..., (N BWP1 -1)*K}, and - the length L: {K, 2*K, 3*K, ..., N BWP1 *K}, where K has a value within a set of {1, 2, ..., 2"}, based on N BWP2 /N BWP1 , and n represents a positive integer, and where S and L are expressed in unit of RB.
A method performed at a trusted authority , the method comprising: establishing a wireless communication session with a data authority , the data authority integrated in a nearby vehicle; performing a discovery process with the data authority, the discovery process informing the trusted authority of a plurality of data types that are available to the trusted authority, each of the plurality of data types being related to an attribute of the nearby vehicle, wherein an availability of at least one of the data types of the plurality of data types is controlled by the owner of the nearby vehicle; receiving information on a data type of interest, the data type of interest among the plurality of data types that are available; performing an access request process, the access request process determining the access rights granted by the data authority to the trusted authority for the data type of interest; requesting data corresponding to the data type of interest; receiving the data corresponding to the requested data type of interest; and presenting the data to a public official in the course of their official public duties in accordance with the access rights granted to the data. establishing a wireless communication session with a data authority , the data authority integrated in a nearby vehicle; performing a discovery process with the data authority, the discovery process informing the trusted authority of a plurality of data types that are available to the trusted authority, each of the plurality of data types being related to an attribute of the nearby vehicle, wherein an availability of at least one of the data types of the plurality of data types is controlled by the owner of the nearby vehicle; receiving information on a data type of interest, the data type of interest among the plurality of data types that are available; performing an access request process, the access request process determining the access rights granted by the data authority to the trusted authority for the data type of interest; requesting data corresponding to the data type of interest; receiving the data corresponding to the requested data type of interest; and presenting the data to a public official in the course of their official public duties in accordance with the access rights granted to the data.
A method of manufacturing an impregnated fibrous material comprising a fibrous material made of continuous fibers and at least one thermoplastic polymer matrix, characterized in that said impregnated fibrous material is produced as a single unidirectional ribbon or a plurality of unidirectional parallel ribbons and characterized in that said method comprises, a step of pre-impregnating said fibrous material while it is in the form of a roving or several parallel rovings with said thermoplastic material and at least one step of heating the thermoplastic matrix for melting, or maintaining in the molten state, said thermoplastic polymer after pre-impregnation, said at least one heating step being done using at least one non-heating and non-heat-conducting supporting part (E) and at least one heating system, with the exception a heating calender, said roving(s) being in contact with part or all of the surface of said at least one supporting part (E) and scrolling partially or wholly on the surface of said at least one supporting part (E) at the heating system, said at least one supporting part (E) being inside the heating system in its entirety, excluding any electrostatic method with deliberate charge, said method further comprising a step for shaping said roving or said parallel rovings of said impregnated fibrous material, by calendering using at least one heating calender in the form of a single unidirectional ribbon or a plurality of parallel unidirectional ribbons with, in the latter case, said heating calender including a plurality of calendering grooves , preferably up to 200 calendering grooves, in accordance with the number of said ribbons and with a pressure and/or separation between the rollers of said calender regulated by a governing system, a band press being present between the heating system and the calender and the porosity level in said pre-impregnated fibrous material being less than 10%, notably less than 5%, particularly less than 2%.
An envelope structure for a car body for a vehicle, comprising a first envelope structure element and a second envelope structure element , wherein - the first envelope structure element and the second envelope structure element each comprise an outer wall and an inner wall , - the first envelope structure element is provided with an extension extending between the outer wall and the inner wall in an insertion direction (E), - the second envelope structure element is provided with a receptacle opening between the outer wall and the inner wall in a direction opposite to the insertion direction (E) for inserting the extension , - the extension comprises a positive locking means , - the receptacle is filled with a filling material , - a positive locking is established by the extension accommodated in the receptacle and the filling material surrounding the positive locking means at least in sections, - the first envelope structure element and the second envelope structure element are connected to each other by a weld seam . - the first envelope structure element and the second envelope structure element each comprise an outer wall and an inner wall , - the first envelope structure element is provided with an extension extending between the outer wall and the inner wall in an insertion direction (E), - the second envelope structure element is provided with a receptacle opening between the outer wall and the inner wall in a direction opposite to the insertion direction (E) for inserting the extension , - the extension comprises a positive locking means , - the receptacle is filled with a filling material , - a positive locking is established by the extension accommodated in the receptacle and the filling material surrounding the positive locking means at least in sections, - the first envelope structure element and the second envelope structure element are connected to each other by a weld seam .
A salicyl fumarate having a general structural formula (A): wherein, in the structural formula (A), R 1 is one of H + , Na + , K + or NH4 + , and R 2 is ethyl, propyl, isopropyl, butyl, or tertbutyl.
A method for tracking voltage sag in a signal for powering industrial equipment (110-112), the method comprising: when in an initial state, monitoring for when the signal transitions to a sag state based at least on an output of a tracking filter , wherein the tracking filter comprises a dynamic band pass filter; in response to the signal transitioning to the sag state, increasing a bandwidth of the tracking filter; when in the sag state, monitoring for when the signal transitions to a recovering state , comprising: determining a space vector magnitude for the signal; and identifying a transition to the recovering state based on the space vector magnitude for the signal; and in response to the signal transitioning to the recovering state, decreasing the bandwidth of the tracking filter. when in an initial state, monitoring for when the signal transitions to a sag state based at least on an output of a tracking filter , wherein the tracking filter comprises a dynamic band pass filter; in response to the signal transitioning to the sag state, increasing a bandwidth of the tracking filter; when in the sag state, monitoring for when the signal transitions to a recovering state , comprising: determining a space vector magnitude for the signal; and identifying a transition to the recovering state based on the space vector magnitude for the signal; and determining a space vector magnitude for the signal; and identifying a transition to the recovering state based on the space vector magnitude for the signal; and in response to the signal transitioning to the recovering state, decreasing the bandwidth of the tracking filter.
A flat structure built up from at least two covering layers and a core arranged between them as a lightweight sandwich construction, consisting of the core formed from an expandable thermoplastic material, preferably polypropylene (EPP), polystyrene (EPS) or polyethylene (EPE) and the covering layer formed of a thermoplastic material and arranged adjacent to the core , characterised in that , the core is formed during the manufacturing process using a negative pressure device between the two adjacent covering layers by means of negative pressure acting on the core , and that the negative pressure influences the hardening and distribution of the partial volumes forming the core in such a way that the hardened flat structure has areas with different hardness or strength properties.
A method for compensating stray magnetic fields (SF) in a magnetic resonance imaging system with two or more examination areas (M1, M2, M3, M4, M5, M6), comprising the steps: - providing a value for a predefined first magnetic field (G Z1 ) to be applied in a first examination area (M1), in addition to a basic magnetic field (B0), - providing information defining a predefined sequence control pulse (G Z2 ) to be applied in a second examination area, characterised in that the method further comprises the following steps: - determining a stray magnetic field (SF) in the second examination area (M2) for the case that the first magnetic field (G Z1 ) is applied in the first examination area (M1), - calculating a compensated sequence control pulse (CG) for the second examination area (M2) from the predefined sequence control pulse (G Z2 ) and the determined stray magnetic field (SF), - applying the compensated sequence control pulse (CG) to the second examination area (M2) during an application of the first magnetic field (G Z1 ) in the first examination area - providing a value for a predefined first magnetic field (G Z1 ) to be applied in a first examination area (M1), in addition to a basic magnetic field (B0), - providing information defining a predefined sequence control pulse (G Z2 ) to be applied in a second examination area, - determining a stray magnetic field (SF) in the second examination area (M2) for the case that the first magnetic field (G Z1 ) is applied in the first examination area (M1), - calculating a compensated sequence control pulse (CG) for the second examination area (M2) from the predefined sequence control pulse (G Z2 ) and the determined stray magnetic field (SF), - applying the compensated sequence control pulse (CG) to the second examination area (M2) during an application of the first magnetic field (G Z1 ) in the first examination area
An in vitro method for determining the distinctive disease related nutritional requirements of a subject suffering from a disease characterized by distinctive nutritional requirements in the diseased subject over a healthy subject comprising the steps: a. Determining in a sample of a subject suffering from the disease a profile of statuses of direct and indirect markers indicating the nutritional profile of said subject, wherein a direct marker indicates the amount of a macronutrient or micronutrient, and an indirect marker is derived from said direct marker and is a metabolite or a catabolite of said macronutrient or micronutrient, and wherein the status of at least 10 markers is determined, b. Determining in a sample of a healthy subject a profile of the statuses of the same markers determined in step a., c. Comparing the profiles determined in step a. and b., and thereby determining the distinctive nutritional requirements for nutrients in a patient suffering from the disease, wherein the nutrients are macronutrients and micronutrients. a. Determining in a sample of a subject suffering from the disease a profile of statuses of direct and indirect markers indicating the nutritional profile of said subject, wherein a direct marker indicates the amount of a macronutrient or micronutrient, and an indirect marker is derived from said direct marker and is a metabolite or a catabolite of said macronutrient or micronutrient, and wherein the status of at least 10 markers is determined, b. Determining in a sample of a healthy subject a profile of the statuses of the same markers determined in step a., c. Comparing the profiles determined in step a. and b., and thereby determining the distinctive nutritional requirements for nutrients in a patient suffering from the disease, wherein the nutrients are macronutrients and micronutrients.
Vehicle wheel having spokes , on which cover elements are provided for spaces (W) between the spokes, which deform according to the temperature in such a way that, at higher temperatures, a passage of air through a region of the respective space (W) between the spokes is possible, which is covered by the cover element at lower temperatures, characterized in that the cover elements do not entirely cover the respective spaces (W) between the spokes, and a rigid cap element is provided per intermediate space (W) in addition to a cover element deforming according to the temperature, which continuously covers the region of the space between spokes associated with it.
A pharmaceutical compound comprising methotrexate as a first component and cholesterol as a second component, wherein the first component is covalently conjugated to the second component having a structure represented by the following chemical formula (I): wherein the double lines indicate the bond that connects the first part of formula (I) to the second part, wherein the α carboxyl group of methotrexate is conjugated to cholesterol using spermidine as a linker, and a pharmaceutically acceptable salt thereof.
A sheet-shaped covering to be attached to a body surface (BS), the sheet-shaped covering comprising: a transparent section configured to cover an insertion opening in the body surface (BS) for a tubular member to be inserted into a body through the body surface (BS) so that a distal end of the tubular member may be placed inside the body; a temperature sensitive section that is positioned near the transparent section in the extending direction (B) of the sheep-shaped covering in the plane of the sheet when viewing the sheet-shaped covering from a thickness direction (A), which is configured to contact the body surface (BS), and changes color in accordance with temperature of the body surface (BS); and a transparent resin sheet connecting the transparent section and the temperature sensitive section , characterized in that the resin sheet forms one layer, in a thickness direction (A) of the sheet-shaped covering , of each of the temperature sensitive section and the transparent section , and the temperature sensitive section includes the resin sheet and a temperature sensitive sheet that changes color in accordance with temperature and is layered onto a side of a display surface of the temperature sensitive section with respect to the resin sheet, the display surface positioned at an opposite side from a contact surface that is configured to contact the body surface (BS) with respect to the resin sheet. a transparent section configured to cover an insertion opening in the body surface (BS) for a tubular member to be inserted into a body through the body surface (BS) so that a distal end of the tubular member may be placed inside the body; a temperature sensitive section that is positioned near the transparent section in the extending direction (B) of the sheep-shaped covering in the plane of the sheet when viewing the sheet-shaped covering from a thickness direction (A), which is configured to contact the body surface (BS), and changes color in accordance with temperature of the body surface (BS); and a transparent resin sheet connecting the transparent section and the temperature sensitive section , characterized in that the resin sheet forms one layer, in a thickness direction (A) of the sheet-shaped covering , of each of the temperature sensitive section and the transparent section , and the temperature sensitive section includes the resin sheet and a temperature sensitive sheet that changes color in accordance with temperature and is layered onto a side of a display surface of the temperature sensitive section with respect to the resin sheet, the display surface positioned at an opposite side from a contact surface that is configured to contact the body surface (BS) with respect to the resin sheet.
A method of controlling a refrigeration system having a compressor , a condenser , an evaporator , and a variable speed condenser fan , the method comprising: determining if a change in an ambient temperature or a compressor suction pressure is greater than a predetermined threshold; determining a near-optimal condensing pressure/temperature if the change in the ambient temperature or the compressor suction pressure is above the predetermined threshold; setting a condensing pressure setpoint based on the determined near-optimal condensing pressure/temperature; and setting a speed of the variable speed condenser fan based on the condensing pressure setpoint; characterized in that the step of determining the near-optimal condensing pressure/temperature comprises: determining the ambient temperature; determining a saturation temperature leaving the evaporator; determining a compressor speed; and determining the near-optimal condensing pressure/temperature based on the determined ambient temperature, saturation temperature leaving the evaporator, and compressor speed. determining if a change in an ambient temperature or a compressor suction pressure is greater than a predetermined threshold; determining a near-optimal condensing pressure/temperature if the change in the ambient temperature or the compressor suction pressure is above the predetermined threshold; setting a condensing pressure setpoint based on the determined near-optimal condensing pressure/temperature; and setting a speed of the variable speed condenser fan based on the condensing pressure setpoint; characterized in that the step of determining the near-optimal condensing pressure/temperature comprises: determining the ambient temperature; determining a saturation temperature leaving the evaporator; determining a compressor speed; and determining the near-optimal condensing pressure/temperature based on the determined ambient temperature, saturation temperature leaving the evaporator, and compressor speed. determining the ambient temperature; determining a saturation temperature leaving the evaporator; determining a compressor speed; and determining the near-optimal condensing pressure/temperature based on the determined ambient temperature, saturation temperature leaving the evaporator, and compressor speed.
A aerial workpiece manipulation system to provide high-precision manipulation of a workpiece , the aerial workpiece manipulation system comprising: an airframe ; a plurality of rotor booms extending radially from the airframe ; a plurality of propulsors, each of said plurality of propulsors positioned at a distal end of one of said plurality of rotor booms and being electrically coupled to an electronic speed controller (ESC) that is controlled by an aircraft processor ; a lifting mechanism coupled to the airframe , wherein the lifting mechanism includes one or more joint actuators to extend or retract the lifting mechanism relative to the airframe ; an end-effector coupled to the lifting mechanism, wherein the end-effector includes an end-effector actuator to control an operation of the end-effector to manipulate the workpiece ; and a second processor communicatively coupled with the aircraft processor and configured to control operation of the end-effector actuator and the one or more joint actuators , characterized in that the lifting mechanism is a four-bar linkage having four linkage bars connected in a loop by four linkage joints. an airframe ; a plurality of rotor booms extending radially from the airframe ; a plurality of propulsors, each of said plurality of propulsors positioned at a distal end of one of said plurality of rotor booms and being electrically coupled to an electronic speed controller (ESC) that is controlled by an aircraft processor ; a lifting mechanism coupled to the airframe , wherein the lifting mechanism includes one or more joint actuators to extend or retract the lifting mechanism relative to the airframe ; an end-effector coupled to the lifting mechanism, wherein the end-effector includes an end-effector actuator to control an operation of the end-effector to manipulate the workpiece ; and a second processor communicatively coupled with the aircraft processor and configured to control operation of the end-effector actuator and the one or more joint actuators , characterized in that the lifting mechanism is a four-bar linkage having four linkage bars connected in a loop by four linkage joints.