mhurhangee/patent-ind-claim-en huggingface dataset:
A fastener assembly for detachably coupling two structures together, the fastener assembly comprising: a stud configured to couple to a first structure such that the stud extends from the first structure when the stud is coupled to the first structure, a body configured to pivotally couple to a second structure different than the first structure, the body pivotable between a closed position in which the body is positioned adjacent the stud when coupled to the first structure and an open position in which the body is positioned aside from the first structure, the body defining at least one aperture for receiving the stud when the body is in the closed position, a fastener configured to detachably couple to the stud and force the body against the first structure when the body is in the closed position to detachably couple the first structure to the second structure, characterised by at least one gasket extending between the first structure and the second structure when the first structure is coupled to the second structure, wherein the body is defined by a top side and a bottom side, the fastener assembly further comprising a protrusion extending from the bottom side of the body, the protrusion configured to substantially align with the at least one gasket when the body is in the closed position. a stud configured to couple to a first structure such that the stud extends from the first structure when the stud is coupled to the first structure, a body configured to pivotally couple to a second structure different than the first structure, the body pivotable between a closed position in which the body is positioned adjacent the stud when coupled to the first structure and an open position in which the body is positioned aside from the first structure, the body defining at least one aperture for receiving the stud when the body is in the closed position, a fastener configured to detachably couple to the stud and force the body against the first structure when the body is in the closed position to detachably couple the first structure to the second structure, characterised by at least one gasket extending between the first structure and the second structure when the first structure is coupled to the second structure, wherein the body is defined by a top side and a bottom side, the fastener assembly further comprising a protrusion extending from the bottom side of the body, the protrusion configured to substantially align with the at least one gasket when the body is in the closed position.
A method for receiving a demodulation reference signal, DMRS, by a user equipment, UE, in a wireless communication system, the method comprising: Receiving (S1501) a synchronization signal/physical broadcast channel, SS/PBCH, block; acquiring (S1503) information related to control resource set, CORESET #0 from a PBCH included in the SS/PBCH block; receiving (S1505) a physical downlink control channel, PDCCH, for scheduling a physical downlink shared channel, PDSCH, in a search space #0 of the CORESET #0, wherein the search space #0 is a common search space configured by the PBCH; and receiving (S1507) the PDSCH and the DMRS for the PDSCH, wherein, when the PDCCH is addressed to a system information-radio network temporary identifier, SI-RNTI, a reference point for resource mapping of the DMRS on a frequency domain is subcarrier #0 of a resource block, RB having a lowest number among RB s included in the CORESET #0. Receiving (S1501) a synchronization signal/physical broadcast channel, SS/PBCH, block; acquiring (S1503) information related to control resource set, CORESET #0 from a PBCH included in the SS/PBCH block; receiving (S1505) a physical downlink control channel, PDCCH, for scheduling a physical downlink shared channel, PDSCH, in a search space #0 of the CORESET #0, wherein the search space #0 is a common search space configured by the PBCH; and receiving (S1507) the PDSCH and the DMRS for the PDSCH, wherein, when the PDCCH is addressed to a system information-radio network temporary identifier, SI-RNTI, a reference point for resource mapping of the DMRS on a frequency domain is subcarrier #0 of a resource block, RB having a lowest number among RB s included in the CORESET #0.
A process for the preparation of a compound of formula (A) or a pharmaceutically acceptable salt or solvate thereof, wherein R 1 is selected from the group consisting of H, PG 1 and R A with R A being and wherein R 2 is selected from the group consisting of H, PG 2 and R B with R B being and wherein PG 1 and PG 2 are, independently of each other, suitable protecting groups, and wherein n is 0 or 1, the process comprising (a) providing a compound of formula (II) wherein R E is selected from the group consisting of H, alkyl, aryl, alkylaryl, heteroaryl, cycloalkyl and heterocycloalkyl 1, (b) reacting the compound of formula (II) with a base and optionally reducing the compound to give the compound of formula (A). (a) providing a compound of formula (II) wherein R E is selected from the group consisting of H, alkyl, aryl, alkylaryl, heteroaryl, cycloalkyl and heterocycloalkyl 1, (b) reacting the compound of formula (II) with a base and optionally reducing the compound to give the compound of formula (A).
A pharmaceutical composition for use in treating cancer, comprising sorafenib or a pharmaceutically acceptable salt thereof and 3-(3,5-Dibromo-4-hydroxy-benzylidene)-5-iodo-1,3-dihydro-indol-2-one or a pharmaceutically acceptable salt thereof.
An acoustic absorption cell comprising an acoustically opaque bottom wall an acoustically porous inlet wall , an enclosure extending in an axial direction (D A ) between a first axial end integral with the bottom wall and a second axial end integral with the inlet wall , and a first acoustic horn extending inside the enclosure between a first opening of the first horn and a second opening of the first horn that is smaller than said first opening of the first horn , the first opening facing said inlet wall , characterized in that it comprises at least one second horn extending inside the enclosure between a first opening of the second horn and a second opening of the second horn that is smaller than said first opening of the second horn , the second opening of the second horn being arranged facing said bottom wall , and either the first opening of the second horn is arranged facing the second opening of the first horn , either the first horn and the second horn are coaxial and the first horn is inserted at least partially in the second horn .
Method for producing a decorative surface of a component, in particular of a decorative vehicle component, wherein in at least one method step , at least one base body (14a; 14b; 14c) of the component (10a; 10b; 10c), which is produced from a galvanizable material, is galvanized with at least one metallic layer (16a, 18a, 20a, 22a, 24a, 26a; 16b, 18b, 20b, 22b, 24b, 26b; 16c, 18c, 20c, 22c, 24c, 26c), in particular at least one chromium layer, wherein in at least one method step , at least one surface (28a; 28b; 28c) of the metallic layer (26a; 26b; 26c) is treated by means of a laser, as a result of which at least one optical property at least of the surface (28a; 28b; 28c) of the metallic layer (26a; 26b; 26c) is changed, characterised in that in at least one method step , the laser is moved uniformly, in at least substantially mutually parallel aligned lines (52a; 52b; 52c), over the surface (28a; 28b; 28c) of the metallic layer (26a; 26b; 26c), wherein a minimum spacing (54a; 54b; 54c) of the lines is at most 0.12 mm, wherein for the treatment of the surface of the metallic layer (26a; 26b; 26c), the laser is moved at a constant speed relative to the surface of the metallic layer (26a; 26b; 26c), and wherein, during the treatment of the surface of the metallic layer (26a; 26b; 26c), the laser is moved at an at least substantially constant distance from the surface of the metallic layer (26a; 26b; 26c). wherein in at least one method step , at least one base body (14a; 14b; 14c) of the component (10a; 10b; 10c), which is produced from a galvanizable material, is galvanized with at least one metallic layer (16a, 18a, 20a, 22a, 24a, 26a; 16b, 18b, 20b, 22b, 24b, 26b; 16c, 18c, 20c, 22c, 24c, 26c), in particular at least one chromium layer, wherein in at least one method step , at least one surface (28a; 28b; 28c) of the metallic layer (26a; 26b; 26c) is treated by means of a laser, as a result of which at least one optical property at least of the surface (28a; 28b; 28c) of the metallic layer (26a; 26b; 26c) is changed, characterised in that in at least one method step , the laser is moved uniformly, in at least substantially mutually parallel aligned lines (52a; 52b; 52c), over the surface (28a; 28b; 28c) of the metallic layer (26a; 26b; 26c), wherein a minimum spacing (54a; 54b; 54c) of the lines is at most 0.12 mm, wherein for the treatment of the surface of the metallic layer (26a; 26b; 26c), the laser is moved at a constant speed relative to the surface of the metallic layer (26a; 26b; 26c), and wherein, during the treatment of the surface of the metallic layer (26a; 26b; 26c), the laser is moved at an at least substantially constant distance from the surface of the metallic layer (26a; 26b; 26c).
An isolated monoclonal, humanized antibody that specifically binds HtrA1, wherein the antibody comprises a heavy chain variable (VH) domain comprising the amino acid sequence of SEQ ID NO: 21 and a light chain variable (VL) domain comprising the amino acid sequence of SEQ ID NO: 22.
A system, comprising: first electrode configured to be located within a septal wall ; second electrode configured to be located outside of the septal wall always in the same location; an impedance circuit configured to measure impedance along an impedance monitoring (IM) vector between the first and second electrodes , wherein the IM vector is a straight path between the first electrode and the second electrode where impedance measurements are obtained; memory configured to store program instructions; one or more processors that, when executing the program instructions, are configured to: obtain impedance data indicative of an impedance along the IM vector with the first electrode located at different depths within the septal wall , the impedance data including a set of data values associated with different depths of the first electrode within the septal wall ; and determine when the first electrode is located at a target depth within the septal wall based on the impedance data, characterized in that the IM vector continuously changes in real-time as the first electrode is advanced through the septal wall and the distance between the first electrode and second electrode continues to change. first electrode configured to be located within a septal wall ; second electrode configured to be located outside of the septal wall always in the same location; an impedance circuit configured to measure impedance along an impedance monitoring (IM) vector between the first and second electrodes , wherein the IM vector is a straight path between the first electrode and the second electrode where impedance measurements are obtained; memory configured to store program instructions; one or more processors that, when executing the program instructions, are configured to: obtain impedance data indicative of an impedance along the IM vector with the first electrode located at different depths within the septal wall , the impedance data including a set of data values associated with different depths of the first electrode within the septal wall ; and determine when the first electrode is located at a target depth within the septal wall based on the impedance data, characterized in that the IM vector continuously changes in real-time as the first electrode is advanced through the septal wall and the distance between the first electrode and second electrode continues to change. obtain impedance data indicative of an impedance along the IM vector with the first electrode located at different depths within the septal wall , the impedance data including a set of data values associated with different depths of the first electrode within the septal wall ; and determine when the first electrode is located at a target depth within the septal wall based on the impedance data, characterized in that the IM vector continuously changes in real-time as the first electrode is advanced through the septal wall and the distance between the first electrode and second electrode continues to change.
A panel for attenuating noise, comprising: a perforated first skin ; a second skin ; an array of corrugations comprising a first corrugation and a second corrugation , each of the corrugations including a baffle and a septum ; a first channel formed by the baffle of the first corrugation , the septum of the first corrugation and the first skin ; a second channel formed by the baffle of the second corrugation , the septum of the first corrugation and the second skin ; a plurality of first sidewalls dividing the first channel into a plurality of first chambers ; and a plurality of second sidewalls dividing the second channel into a plurality of second chambers , wherein a first of the second chambers is fluidly coupled with a subset of the first chambers through perforations in the septum of the first corrugation ; characterised in that an adjacent pair of the first sidewalls are longitudinally separated by a first distance , and an adjacent pair of the second sidewalls are longitudinally separated by a second distance that is greater than the first distance, and the subset of the first chambers includes a plurality of the first chambers . a perforated first skin ; a second skin ; an array of corrugations comprising a first corrugation and a second corrugation , each of the corrugations including a baffle and a septum ; a first channel formed by the baffle of the first corrugation , the septum of the first corrugation and the first skin ; a second channel formed by the baffle of the second corrugation , the septum of the first corrugation and the second skin ; a plurality of first sidewalls dividing the first channel into a plurality of first chambers ; and a plurality of second sidewalls dividing the second channel into a plurality of second chambers , wherein a first of the second chambers is fluidly coupled with a subset of the first chambers through perforations in the septum of the first corrugation ; characterised in that an adjacent pair of the first sidewalls are longitudinally separated by a first distance , and an adjacent pair of the second sidewalls are longitudinally separated by a second distance that is greater than the first distance, and the subset of the first chambers includes a plurality of the first chambers .
A method of welding a high tensile strength steel and a thick plate using a torch and a flux cored wire, wherein the torch has a suction nozzle between a contact tip and a shield nozzle, the suction nozzle is arranged so as to surround a periphery of the contact tip and the flux cored wire supplied from a tip end of the contact tip, and the shield nozzle is arranged so as to surround a periphery of the suction nozzle, the flux cored wire has a flux filled inside a steel outer casing, and a seam portion where both ends of a metal in a width direction of the steel outer casing are butted or overlapped in a longitudinal direction of the flux cored wire, a shielding gas is supplied to a tip body and is further supplied from the tip body to a space between the shield nozzle and the suction nozzle via an orifice to protect an arc and a weld metal, and a gas in a space between the suction nozzle and the contact tip is sucked by a negative pressure via a suction gas path different from the shielding gas supply formed in the tip body, and during welding a distance d t-b along a longitudinal direction of the flux cored wire between the tip end of the contact tip in the torch and a base material of the plate and a distance D t-k along the longitudinal direction of the flux cored wire from the tip end of the contact tip to a tip end of the suction nozzle satisfy relationships D t − k mm ≥ 0.3 × D t − b mm and D t − k mm ≤ D t − b mm − 8 . the torch has a suction nozzle between a contact tip and a shield nozzle, the suction nozzle is arranged so as to surround a periphery of the contact tip and the flux cored wire supplied from a tip end of the contact tip, and the shield nozzle is arranged so as to surround a periphery of the suction nozzle, the flux cored wire has a flux filled inside a steel outer casing, and a seam portion where both ends of a metal in a width direction of the steel outer casing are butted or overlapped in a longitudinal direction of the flux cored wire, a shielding gas is supplied to a tip body and is further supplied from the tip body to a space between the shield nozzle and the suction nozzle via an orifice to protect an arc and a weld metal, and a gas in a space between the suction nozzle and the contact tip is sucked by a negative pressure via a suction gas path different from the shielding gas supply formed in the tip body, and during welding a distance d t-b along a longitudinal direction of the flux cored wire between the tip end of the contact tip in the torch and a base material of the plate and a distance D t-k along the longitudinal direction of the flux cored wire from the tip end of the contact tip to a tip end of the suction nozzle satisfy relationships D t − k mm ≥ 0.3 × D t − b mm and D t − k mm ≤ D t − b mm − 8 .
A method of manufacturing an electronic device (10; 30; 50; 60) comprising forming at least a first portion (18; 38; 54; 64) and a second portion (16; 40; 56; 66) based on a metal oxide by a sol-gel method, heating the first portion up to a temperature higher than a first temperature so that the first portion becomes semiconductor and heating the second portion up to a temperature lower than a second temperature, the second temperature being lower than the first temperature, so that the second portion becomes electrically insulating.
Work vehicle comprising an internal combustion engine for driving the work vehicle , a hydraulic circuit having a hydraulic pump , wherein the hydraulic pump can be coupled or is coupled to the internal combustion engine such that the hydraulic pump is driven by the internal combustion engine , and comprising a hydraulically driven work apparatus which is connected to the hydraulic circuit by means of a work valve assembly , wherein a flow resistor which can be activated as required is arranged in the hydraulic circuit , and wherein the flow resistor is arranged downstream or upstream of the work valve assembly , characterised in that the flow resistor is designed as an orifice plate having a fixed diameter, wherein the diameter is smaller than the diameter of hydraulic lines arranged upstream and downstream, and in that a 2-port/2-way valve is arranged in the hydraulic circuit , said valve, in its first switching position, guiding the hydraulic fluid past the flow resistor and, in its second switching position, guiding the hydraulic fluid to the flow resistor . an internal combustion engine for driving the work vehicle , a hydraulic circuit having a hydraulic pump , wherein the hydraulic pump can be coupled or is coupled to the internal combustion engine such that the hydraulic pump is driven by the internal combustion engine , and comprising a hydraulically driven work apparatus which is connected to the hydraulic circuit by means of a work valve assembly , a flow resistor which can be activated as required is arranged in the hydraulic circuit , and wherein the flow resistor is arranged downstream or upstream of the work valve assembly , characterised in that the flow resistor is designed as an orifice plate having a fixed diameter, wherein the diameter is smaller than the diameter of hydraulic lines arranged upstream and downstream, and in that a 2-port/2-way valve is arranged in the hydraulic circuit , said valve, in its first switching position, guiding the hydraulic fluid past the flow resistor and, in its second switching position, guiding the hydraulic fluid to the flow resistor .
An Automated External Defibrillator (AED) device comprising: a high voltage capacitor (HV Cap) configured to store the energy required to deliver a defibrillation shock to a patient; one or more batteries configured to charge the HV Cap; a DC/DC converter circuit comprising a high voltage transformer (HV XFMR), a field effect transistor (FET) switch with associated driver, and a rectifying diode; an H-bridge circuit configured to transform energy released from the HV Cap into a bi-phasic pulse; memory configured to store computer-executable instructions; and at least one microprocessor configured to access the memory and execute the computer-executable instructions to continuously monitor and adjust the rate at which the one or more batteries charge the HV Cap; wherein the AED device is configured to simultaneously monitor discharge current and temperature of the one or more batteries in order to charge the HV Cap at the maximum rate possible with available power from the one or more batteries, while not exceeding either a maximum temperature or a maximum discharge rate of the one or more batteries. a high voltage capacitor (HV Cap) configured to store the energy required to deliver a defibrillation shock to a patient; one or more batteries configured to charge the HV Cap; a DC/DC converter circuit comprising a high voltage transformer (HV XFMR), a field effect transistor (FET) switch with associated driver, and a rectifying diode; an H-bridge circuit configured to transform energy released from the HV Cap into a bi-phasic pulse; memory configured to store computer-executable instructions; and at least one microprocessor configured to access the memory and execute the computer-executable instructions to continuously monitor and adjust the rate at which the one or more batteries charge the HV Cap;