mhurhangee/patent-ind-claim-en huggingface dataset:
A discrete pressure sensor , comprising a detection circuit , a pressure sensing chip and a force concentration sensing board component that is bonded onto the pressure sensing chip , wherein the detection circuit is electrically connected to the pressure sensing chip ; the pressure sensing chip comprises a substrate and a sensing component disposed on the substrate, wherein the sensing component is disposed in alignment with a hollowed area ; the force concentration sensing board component has the hollowed area and cantilever structures, the hollowed area comprises a force concentration position and a plurality of cutout portions extending toward the force concentration position from the force concentration sensing board component , and one end of each of the plurality of cutout portions intersects at the force concentration position ; the cantilever structures are configured to concentrate a pressing force applied on the cantilever structures of the force sensing board component toward the force concentration position , and the force concentration position is disposed against the pressure sensing chip , the cantilever structures are formed by portions of the force concentration sensing board component that are defined by two adjacent cutout portions , an end of each of the portions is fixed to the force concentration sensing board component . wherein the detection circuit is electrically connected to the pressure sensing chip ; the pressure sensing chip comprises a substrate and a sensing component disposed on the substrate, wherein the sensing component is disposed in alignment with a hollowed area ; the force concentration sensing board component has the hollowed area and cantilever structures, the hollowed area comprises a force concentration position and a plurality of cutout portions extending toward the force concentration position from the force concentration sensing board component , and one end of each of the plurality of cutout portions intersects at the force concentration position ; the cantilever structures are configured to concentrate a pressing force applied on the cantilever structures of the force sensing board component toward the force concentration position , and the force concentration position is disposed against the pressure sensing chip , the cantilever structures are formed by portions of the force concentration sensing board component that are defined by two adjacent cutout portions , an end of each of the portions is fixed to the force concentration sensing board component .
An agricultural vehicle having a spreader system for spreading crop residue, comprising: a first spreader device including a plurality of first paddles configured to rotate about a first axis (A2), the rotation of the first paddles producing a first stream of crop residue (S); and a second spreader device including a plurality of second paddles configured to rotate about a second axis (A1), the rotation of the second paddles producing a second stream of crop residue (C); a chute into which the first stream of crop residue (S) and the second stream of crop residue (C) flow respectively from the first spreader device and the second spreader device , the first stream (S) and the second stream of crop residue (C) being combined in the chute , characterized in that the second spreader device and the first spreader device are positioned axially adjacent to each other. a first spreader device including a plurality of first paddles configured to rotate about a first axis (A2), the rotation of the first paddles producing a first stream of crop residue (S); and a second spreader device including a plurality of second paddles configured to rotate about a second axis (A1), the rotation of the second paddles producing a second stream of crop residue (C); a chute into which the first stream of crop residue (S) and the second stream of crop residue (C) flow respectively from the first spreader device and the second spreader device , the first stream (S) and the second stream of crop residue (C) being combined in the chute , characterized in that the second spreader device and the first spreader device are positioned axially adjacent to each other.
An electric power device including a plurality of electric power storage units (16, 16a to 16d) that are chargeable and dischargeable, the electric power device comprising: a state of charge calculation unit configured to calculate an overall state of charge (RSOC) of the plurality of electric power storage units, based on a sum (FCC) of full charge capacities of the respective electric power storage units and a sum (RC) of current charge capacities of the respective electric power storage units, characterized in that if any of the plurality of electric power storage units has a specification difference, the full charge capacity thereof is acquired based on a specification difference value set according to the specification difference. a state of charge calculation unit configured to calculate an overall state of charge (RSOC) of the plurality of electric power storage units, based on a sum (FCC) of full charge capacities of the respective electric power storage units and a sum (RC) of current charge capacities of the respective electric power storage units, characterized in that if any of the plurality of electric power storage units has a specification difference, the full charge capacity thereof is acquired based on a specification difference value set according to the specification difference.
A process for providing the compound of formula (I), comprising the step of: (i) reacting a compound of formula VII with a base in the presence of an alkaline- or alkaline earth metal salt, wherein LG is a leaving group. (i) reacting a compound of formula VII with a base in the presence of an alkaline- or alkaline earth metal salt, wherein LG is a leaving group.
A combination of at least one marker (50; 50a; 100) with a stent insertable within vasculature of a patient, comprising: the stent including a strut (32; 52; 102) extending between at least two supports; the marker including an elongated body (60; 160) formed of a biocompatible radiopaque material that enhances locating the marker when using at least one imaging technique, the body having a first end (62; 162), a second end (64; 164), an inner surface (66; 166), an outer surface (68; 168), and at least two opposing edges (70, 72; 170, 172) extending between the first and second ends and establishing a boundary between the inner surface and the outer surface; the inner surface of the body defining a passageway (74; 174) extending between the first and second ends; in a first condition, the body defines a gap (76; 176) between the at least two opposing edges, the gap enabling unobstructed communication of the passageway with the outer surface of the body and enabling insertion of the strut into the passageway; and in a second condition, the gap being obstructed to substantially prevent communication of the passageway with the outer surface of the body and to prevent unintended removal of the marker from the stent, thereby securing the marker to the stent such that the strut securely carries the marker, characterised in that the marker (50; 50a; 100) is positioned between two projections (34, 36; 134, 136) which restrict longitudinal movement of the marker. the stent including a strut (32; 52; 102) extending between at least two supports; the marker including an elongated body (60; 160) formed of a biocompatible radiopaque material that enhances locating the marker when using at least one imaging technique, the body having a first end (62; 162), a second end (64; 164), an inner surface (66; 166), an outer surface (68; 168), and at least two opposing edges (70, 72; 170, 172) extending between the first and second ends and establishing a boundary between the inner surface and the outer surface; the inner surface of the body defining a passageway (74; 174) extending between the first and second ends; in a first condition, the body defines a gap (76; 176) between the at least two opposing edges, the gap enabling unobstructed communication of the passageway with the outer surface of the body and enabling insertion of the strut into the passageway; and in a second condition, the gap being obstructed to substantially prevent communication of the passageway with the outer surface of the body and to prevent unintended removal of the marker from the stent, thereby securing the marker to the stent such that the strut securely carries the marker, characterised in that the marker (50; 50a; 100) is positioned between two projections (34, 36; 134, 136) which restrict longitudinal movement of the marker.
An unbonded flexible pipe having a length and a longitudinal axis and comprising, from the inside and out, a carcass made from an electrically conductive material, an internal pressure sheath made from an extruded polymer, at least one external armour layer and an outer sheath , the carcass being adapted for connection to an electric power source for conducting an electric current, at least a part of the external armour layer being electrically conductive, the carcass and the external armour layer allowing a difference in electric potential to be established partly or fully over the internal pressure sheath , characterised in that the internal pressure sheath is partly or fully covered by a conforming cover layer made from a material which is electrically conductive and having a bulk resistance larger than the specific resistance of the electrically conductive material of the carcass and wherein the conforming cover layer is applied on the outside of the internal pressure sheath and wherein the bulk resistance is determined as the resistance measured on a portion of material having the size 1x1x1 m, which has not been compressed to a pore-free condition and the specific resistance is defined as the resistance measured on a portion of material having the size 1x1x1 m, which is pore-free. a carcass made from an electrically conductive material, an internal pressure sheath made from an extruded polymer, at least one external armour layer and an outer sheath , the carcass being adapted for connection to an electric power source for conducting an electric current, at least a part of the external armour layer being electrically conductive, the carcass and the external armour layer allowing a difference in electric potential to be established partly or fully over the internal pressure sheath , characterised in that the internal pressure sheath is partly or fully covered by a conforming cover layer made from a material which is electrically conductive and having a bulk resistance larger than the specific resistance of the electrically conductive material of the carcass and wherein the conforming cover layer is applied on the outside of the internal pressure sheath and wherein the bulk resistance is determined as the resistance measured on a portion of material having the size 1x1x1 m, which has not been compressed to a pore-free condition and the specific resistance is defined as the resistance measured on a portion of material having the size 1x1x1 m, which is pore-free.
An air floating belt conveyor apparatus comprising: a conveyor main body (Cm) including an endless conveyor belt and configured to convey conveyed materials (F), placed on a conveyance surface of the conveyor belt , in a predetermined direction; a carrier route belt supporting body supporting a carrier route portion of the conveyor belt from below and including a plurality of air outlets through which air for making the conveyor belt float flows out to between an upper surface of the carrier route belt supporting body and a non-conveyance surface of the conveyor belt ; at least one air supply header including a header chamber communicating with the plurality of air outlets , the at least one air supply header being provided at a lower portion of the carrier route belt supporting body ; a blower configured to supply the air to the air supply header ; a duct forming a discharge passage , the discharge passage connecting an inlet and an outlet , the inlet being open at the header chamber , characterised by the outlet being open on the upper surface of the carrier route belt supporting body and located higher than the conveyance surface of the conveyor belt , dust accumulated in the header chamber being introduced by the discharge passage from the inlet to the outlet ; and an opening/closing device configured to open and close the discharge passage . a conveyor main body (Cm) including an endless conveyor belt and configured to convey conveyed materials (F), placed on a conveyance surface of the conveyor belt , in a predetermined direction; a carrier route belt supporting body supporting a carrier route portion of the conveyor belt from below and including a plurality of air outlets through which air for making the conveyor belt float flows out to between an upper surface of the carrier route belt supporting body and a non-conveyance surface of the conveyor belt ; at least one air supply header including a header chamber communicating with the plurality of air outlets , the at least one air supply header being provided at a lower portion of the carrier route belt supporting body ; a blower configured to supply the air to the air supply header ; a duct forming a discharge passage , the discharge passage connecting an inlet and an outlet , the inlet being open at the header chamber , characterised by the outlet being open on the upper surface of the carrier route belt supporting body and located higher than the conveyance surface of the conveyor belt , dust accumulated in the header chamber being introduced by the discharge passage from the inlet to the outlet ; and an opening/closing device configured to open and close the discharge passage .
A computer implemented method comprising: receiving software code written in a high-level language, the software code comprising multiple components including an operating system and one or more applications; compiling the software code to create assembly language code corresponding to the software code; receiving a high-level specification including one or more functions used by the software code translating the high-level specification into a low-level specification; verifying that an output of the assembly language code does not provide information about secret data, the secret data comprising one or more private keys; verifying that the assembly language code behaves in accordance with the low-level specification to perform the one or more functions specified by the high-level specification; and providing an indication that the assembly language has been verified as conforming to the specification; wherein the step of verifying that the output does not provide information about secret data comprises analyzing multiple executions of the assembly language code and compare the outputs thereof using different secret data such that if all outputs are the same the assembly language code does not provide information about the secret data. receiving software code written in a high-level language, the software code comprising multiple components including an operating system and one or more applications; compiling the software code to create assembly language code corresponding to the software code; receiving a high-level specification including one or more functions used by the software code translating the high-level specification into a low-level specification; verifying that an output of the assembly language code does not provide information about secret data, the secret data comprising one or more private keys; verifying that the assembly language code behaves in accordance with the low-level specification to perform the one or more functions specified by the high-level specification; and providing an indication that the assembly language has been verified as conforming to the specification; wherein the step of verifying that the output does not provide information about secret data comprises analyzing multiple executions of the assembly language code and compare the outputs thereof using different secret data such that if all outputs are the same the assembly language code does not provide information about the secret data.
A method of generating an assistance force to assist a user to stand-up using an assistance device , the method comprising: measuring a pressure applied to a knee of the user; acquiring torque information corresponding to the measured pressure; and generating an assistance force based on the torque information, characterized in that: the step of measuring the pressure comprises measuring a magnitude of the pressure applied to the knee by the user; the step of acquiring torque information comprises acquiring torque information proportional to the measured magnitude of the pressure applied to the knee by the user; and the step of generating the assistance force based on the torque information comprises generating a force corresponding to a magnitude of the torque information. measuring a pressure applied to a knee of the user; acquiring torque information corresponding to the measured pressure; and generating an assistance force based on the torque information, characterized in that: the step of measuring the pressure comprises measuring a magnitude of the pressure applied to the knee by the user; the step of acquiring torque information comprises acquiring torque information proportional to the measured magnitude of the pressure applied to the knee by the user; and the step of generating the assistance force based on the torque information comprises generating a force corresponding to a magnitude of the torque information. the step of measuring the pressure comprises measuring a magnitude of the pressure applied to the knee by the user; the step of acquiring torque information comprises acquiring torque information proportional to the measured magnitude of the pressure applied to the knee by the user; and the step of generating the assistance force based on the torque information comprises generating a force corresponding to a magnitude of the torque information.
A terminal apparatus comprising: a transmitter configured to transmit a Physical Uplink Control Channel, PUCCH, and a shortened Physical Uplink Shared Channel, sPUSCH, in an identical subframe, a receiver configured to receive a Physical Downlink Control Channel, PDCCH, and the transmitter further configured to stop a transmission of the PUCCH within the subframe in a case that the receiver detects the PDCCH with downlink control information corresponding to the sPUSCH in the subframe in a primary cell and the transmitter already starts the transmission of the PUCCH in the subframe in the primary cell, wherein the sPUSCH is used to transmit an uplink shared channel and mapped to a shortened Transmission Time Interval, sTTI, in the subframe, the sTTI comprises two, three or seven SC-FDMA symbols, and the subframe comprises fourteen SC-FDMA symbols. a transmitter configured to transmit a Physical Uplink Control Channel, PUCCH, and a shortened Physical Uplink Shared Channel, sPUSCH, in an identical subframe, a receiver configured to receive a Physical Downlink Control Channel, PDCCH, and the transmitter further configured to stop a transmission of the PUCCH within the subframe in a case that the receiver detects the PDCCH with downlink control information corresponding to the sPUSCH in the subframe in a primary cell and the transmitter already starts the transmission of the PUCCH in the subframe in the primary cell, wherein the sPUSCH is used to transmit an uplink shared channel and mapped to a shortened Transmission Time Interval, sTTI, in the subframe, the sTTI comprises two, three or seven SC-FDMA symbols, and the subframe comprises fourteen SC-FDMA symbols.
A power supply of a pulsed laser system comprising: a DC power source with a source voltage and a source current; an energy accumulator in electrical communication with the DC power source ; a charging DC to DC converter coupled between the DC power source and accumulator and operative to charge the accumulator with a desired energy; and a second discharging DC to DC converter operative to discharge the accumulator while periodically supplying a diode current with a peak value, which is greater than the source current, to at least one laser diode emitting pump light pulses, characterized in that the second DC to DC converter has a feedback circuitry operative to read the diode current at an input of the laser diode , compare the read diode current to a reference value and regulate the diode current so as to match the diode current with the reference value. a DC power source with a source voltage and a source current; an energy accumulator in electrical communication with the DC power source ; a charging DC to DC converter coupled between the DC power source and accumulator and operative to charge the accumulator with a desired energy; and a second discharging DC to DC converter operative to discharge the accumulator while periodically supplying a diode current with a peak value, which is greater than the source current, to at least one laser diode emitting pump light pulses, characterized in that the second DC to DC converter has a feedback circuitry operative to read the diode current at an input of the laser diode , compare the read diode current to a reference value and regulate the diode current so as to match the diode current with the reference value.