mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a terminal in a wireless communication system, comprising: receiving data from a base station; selecting a beam candidate group including two or more beams in accordance with a result of a beam measurement process; transmitting, to the base station, a signal for indicating a negative acknowledgement, NACK, for the data, wherein the signal indicates a request of retransmission of the data using a plurality of transmission beams of the base station and information on the selected beam candidate group; receiving, from the base station, first data corresponding to the retransmission of the data by using a first reception beam and second data corresponding to the retransmission of the data by using a second reception beam simultaneously, wherein the first reception beam and the second reception beam belong to the beam candidate group; and processing the first data and the second data together, wherein the first reception beam is paired with a first transmission beam of the plurality of transmission beams and the second reception beam is paired with a second transmission beam of the plurality of transmission beams, and wherein the first data is at least partly equal to the second data. receiving data from a base station; selecting a beam candidate group including two or more beams in accordance with a result of a beam measurement process; transmitting, to the base station, a signal for indicating a negative acknowledgement, NACK, for the data, wherein the signal indicates a request of retransmission of the data using a plurality of transmission beams of the base station and information on the selected beam candidate group; receiving, from the base station, first data corresponding to the retransmission of the data by using a first reception beam and second data corresponding to the retransmission of the data by using a second reception beam simultaneously, wherein the first reception beam and the second reception beam belong to the beam candidate group; and processing the first data and the second data together, wherein the first reception beam is paired with a first transmission beam of the plurality of transmission beams and the second reception beam is paired with a second transmission beam of the plurality of transmission beams, and wherein the first data is at least partly equal to the second data.
A nonaqueous electrolytic solution for electric double layer capacitors prepared by dissolving a quaternary ammonium salt represented by the general formula (I): Q + X- (I) wherein Q + represents a quaternary ammonium cation, X - represents a counter ion selected from the group consisting of PF 6 - , BF 4 - , AsF 6 - , N(CF 3 SO 3 ) 2 - , SbF 6 - , and RfSO 3 - , wherein Rf is a fluoroalkyl group having 1 to 8 carbon atoms, as an electrolyte in a nonaqueous solvent, the quaternary ammonium salt excluding spiro quaternary ammonium tetrafluoroborate, characterized by the nonaqueous electrolytic solution having an alkali metal cation concentration of more than 10 ppm and not more than 30 ppm. wherein Q + represents a quaternary ammonium cation, X - represents a counter ion selected from the group consisting of PF 6 - , BF 4 - , AsF 6 - , N(CF 3 SO 3 ) 2 - , SbF 6 - , and RfSO 3 - , wherein Rf is a fluoroalkyl group having 1 to 8 carbon atoms, as an electrolyte in a nonaqueous solvent, the quaternary ammonium salt excluding spiro quaternary ammonium tetrafluoroborate, characterized by the nonaqueous electrolytic solution having an alkali metal cation concentration of more than 10 ppm and not more than 30 ppm.
Inertial sensor having the following features: a first body having a first electrode and a second electrode ; a second body which is mounted movably relative to the first body and has a third electrode and a fourth electrode , wherein the first electrode and the third electrode form a first capacitor with a variable first capacitance and the second electrode and the fourth electrode form a second capacitor with a variable second capacitance; a first interface for providing a drive signal at the first electrode and at the second electrode in order to cause a relative movement between the first body and the second body; and a second interface , to which a conversion device is connected, characterized in that the conversion device is designed to tap off a signal between the third electrode and the fourth electrode of the inertial sensor , wherein the signal is an electrical current flow resulting between the third electrode and the fourth electrode , wherein the electrical current flow is a measure of a change in a relative position of the first body with respect to the second body. a first body having a first electrode and a second electrode ; a second body which is mounted movably relative to the first body and has a third electrode and a fourth electrode , wherein the first electrode and the third electrode form a first capacitor with a variable first capacitance and the second electrode and the fourth electrode form a second capacitor with a variable second capacitance; a first interface for providing a drive signal at the first electrode and at the second electrode in order to cause a relative movement between the first body and the second body; and a second interface , to which a conversion device is connected, characterized in that the conversion device is designed to tap off a signal between the third electrode and the fourth electrode of the inertial sensor , wherein the signal is an electrical current flow resulting between the third electrode and the fourth electrode , wherein the electrical current flow is a measure of a change in a relative position of the first body with respect to the second body.
A plant cultivation device, including a cultivation frame body , a plurality of hydroponic bases , a soil cultivation base , a plurality of filter bases , a water storage base and a plurality of lights , a lower half portion of the cultivation frame body having a frame , left and right sides of a top surface of the frame of an upper half portion of the cultivation frame body each having a front rod extending upwardly and a rear rod extending uprightly, a connection rod being connected to respective top portions of the rear rods , respective top portions of the front rods being connected with the rear rods on the left and right sides of the cultivation frame body , a plurality of hold bases being distanced in interval and disposed between and on the front rods , a plurality of hold bases include a first hold base , a second hold base and a third hold base , a top portion of a first hold base having a first layer hydroponic base which is hollow and has a plurality of cultivation holes on a top face, right and left ends of the first layer hydroponic base being covered, a top portion of the second hold base having a second layer hydroponic base which is hollow and has a plurality of cultivation holes on a top face, right and left ends of the second layer hydroponic base being covered, a top portion of the third hold base having a third layer hydroponic base which is hollow and has a plurality of cultivation holes on a top face, right and left ends of the third layer hydroponic base being covered, each of the hold bases corresponding to one of the lights , the soil cultivation base , the plurality of filter bases and the water storage base being arranged in a top-to-down order within the lower half portion of the frame of the cultivation frame body , the soil cultivation base having a bell syphon with a drain tube disposed thereinside, the drain tube communicated with the top filter base , the water storage base having a submersible pump and an external inlet tube which is connected with the submersible pump , the external inlet tube communicated with the first layer hydroponic base which is on the top of the cultivation frame body , a plurality of fluid guide tubes respectively communicated one another with left and right sides of the second layer hydroponic base and third layer hydroponic base , an outlet tube communicated with the third layer hydroponic base and the soil cultivation base .
A process for the dehydrogenation of alkanes to the corresponding unsaturated alkenes and hydrogen (H 2 ), wherein the alkane is contacted with a catalyst comprising lead(II) sulfide (PbS) supported on a carrier, said catalyst being regenerated when needed.
A measuring method for measuring a relative position of a first mark formed on a first surface of a substrate and a second mark formed on a second surface opposite the first surface of the substrate by using a detection optical system that illuminates a mark formed on the substrate to detect an image of the mark, the method comprising: performing a first processing to detect an image of the first mark by using the detection optical system to illuminate the first mark from the first surface side of the substrate in a state where the first mark is within a field of view of the detection optical system; changing a relative position of the detection optical system in a direction perpendicular to an optical axis direction of the detection optical system and the substrate for a distance equal to or more than a half of a diameter of the field of view of the detection optical system, so that the first mark is arranged outside of the field of view of the detection optical system and the second mark is arranged within the field of view of the detection optical system; performing a second processing to detect an image of the second mark by using the detection optical system to illuminate the second mark from the first surface side of the substrate with light having a wavelength passing through the substrate in a state where the first mark is out of the field of view of the detection optical system and the second mark is within the field of view of the detection optical system; and calculating the relative position of the first mark and the second mark by using detection results of the first processing and the second processing. performing a first processing to detect an image of the first mark by using the detection optical system to illuminate the first mark from the first surface side of the substrate in a state where the first mark is within a field of view of the detection optical system; changing a relative position of the detection optical system in a direction perpendicular to an optical axis direction of the detection optical system and the substrate for a distance equal to or more than a half of a diameter of the field of view of the detection optical system, so that the first mark is arranged outside of the field of view of the detection optical system and the second mark is arranged within the field of view of the detection optical system; performing a second processing to detect an image of the second mark by using the detection optical system to illuminate the second mark from the first surface side of the substrate with light having a wavelength passing through the substrate in a state where the first mark is out of the field of view of the detection optical system and the second mark is within the field of view of the detection optical system; and calculating the relative position of the first mark and the second mark by using detection results of the first processing and the second processing.
In combination, an infectious agent and immunomodulator for use in a method of treating a solid or lymphatic tumor in an individual, wherein said method comprises: a) locally administering to the site of the tumor an effective amount of said infectious agent, wherein the infectious agent is an oncolytic virus; and b) locally administering to the site of the tumor said effective amount of an immunomodulator, wherein the immunomodulator is an inhibitor of PD-L1.
A filter with an integrated heater configured for taking in a portion of a fluid of a rotary machine or an external fluid and generating a seal gas (SG) for performing sealing of the fluid in the rotary machine , the filter with an integrated heater comprising: a casing where a suction port and an ejection port are formed, the suction port configured for taking in the portion of the fluid or the external fluid from the rotary machine and the ejection port configured for ejecting the fluid or the external fluid; a filter main body disposed in the casing , the fluid or the external fluid from the suction port passing through the filter main body ; and a heater disposed between the filter main body and the ejection port in the casing , characterized in that the casing is provided with an opening-closing lid which allows an inner portion of the casing to be opened, the filter main body is fixed to the opening-closing lid by an attachment bracket , and the heater is detachably attached to the opening-closing lid by an attachment flange . a casing where a suction port and an ejection port are formed, the suction port configured for taking in the portion of the fluid or the external fluid from the rotary machine and the ejection port configured for ejecting the fluid or the external fluid; a filter main body disposed in the casing , the fluid or the external fluid from the suction port passing through the filter main body ; and a heater disposed between the filter main body and the ejection port in the casing , characterized in that the casing is provided with an opening-closing lid which allows an inner portion of the casing to be opened, the filter main body is fixed to the opening-closing lid by an attachment bracket , and the heater is detachably attached to the opening-closing lid by an attachment flange .
An electrical connecting device used for measuring an inspection object, the device comprising: an insulating probe including a tubular barrel , a bottom-side plunger having a proximal end part inserted to one end of the barrel , and a top-side plunger having a proximal end part inserted to another end of the barrel , the bottom-side plunger and the top-side plunger being electrically connected to each other inside the barrel , the bottom-side plunger and the top-side plunger being electrically insulated from the barrel ; and a probe head including a combined guide plate characterized in that the combined guide plate has a conductive region made of a conductive material and an insulating region made of an insulating material arranged adj acent to each other in a planar view, wherein a side surface of the conductive region and a side surface of the insulating region face each other and a top surface of the conductive region and a top surface of the insulating region are coplanar, the probe head holding the insulating probe in a state in which the barrel penetrates through the conductive region , wherein the barrel of the insulating probe is connected to a ground potential via the conductive region when the inspection object is measured. an insulating probe including a tubular barrel , a bottom-side plunger having a proximal end part inserted to one end of the barrel , and a top-side plunger having a proximal end part inserted to another end of the barrel , the bottom-side plunger and the top-side plunger being electrically connected to each other inside the barrel , the bottom-side plunger and the top-side plunger being electrically insulated from the barrel ; and a probe head including a combined guide plate characterized in that the combined guide plate has a conductive region made of a conductive material and an insulating region made of an insulating material arranged adj acent to each other in a planar view, wherein a side surface of the conductive region and a side surface of the insulating region face each other and a top surface of the conductive region and a top surface of the insulating region are coplanar, the probe head holding the insulating probe in a state in which the barrel penetrates through the conductive region , wherein the barrel of the insulating probe is connected to a ground potential via the conductive region when the inspection object is measured.
A method for an automated assembly or plug-in process of at least one first contact element connected to a first wire and at least one second contact element connected to a second wire , including the following steps: - gripping a first and a second wire with a gripping device, so that one of the two contact elements protrudes with respect to the other contact element in plug-in direction (S) and - plugging the two contact elements into contact chambers arranged next to one another through a respective mounting opening of a contact support , wherein, due to the protrusion with respect to the other contact element , one of the two contact elements advances ahead in plug-in direction (S), characterized in that the gripping device comprises a servo-electrically driven parallel gripper with two driven gripping fingers and a central web extending between the gripping fingers, and a wire is gripped, during the gripping, by a respective gripping finger and the central web. - gripping a first and a second wire with a gripping device, so that one of the two contact elements protrudes with respect to the other contact element in plug-in direction (S) and - plugging the two contact elements into contact chambers arranged next to one another through a respective mounting opening of a contact support , wherein, due to the protrusion with respect to the other contact element , one of the two contact elements advances ahead in plug-in direction (S), characterized in that the gripping device comprises a servo-electrically driven parallel gripper with two driven gripping fingers and a central web extending between the gripping fingers, and a wire is gripped, during the gripping, by a respective gripping finger and the central web.
A device for a distribution mast , wherein the device comprises: - a line , wherein the line has a mast line portion and a loose rotating line portion , wherein the rotating line portion is rotatably connected to the mast line portion , and - a line portion mounting , wherein the line portion mounting has a loose rotating holding element and a rotary bearing , wherein the rotating holding element holds the rotating line portion remote from the mast line portion , and wherein the rotary bearing is configured to be mounted by a mast segment for the distribution mast and for rotatably connecting the rotating holding element to the mast segment , - wherein the device comprises a rotary coupling being different from the rotating holding element and the rotary bearing , wherein the rotary coupling rotatably connects the rotating line portion to the mast line portion , characterized in that the rotary bearing defines a circle (KR), wherein the line runs through the circle (KR). - a line , wherein the line has a mast line portion and a loose rotating line portion , wherein the rotating line portion is rotatably connected to the mast line portion , and - a line portion mounting , wherein the line portion mounting has a loose rotating holding element and a rotary bearing , wherein the rotating holding element holds the rotating line portion remote from the mast line portion , and wherein the rotary bearing is configured to be mounted by a mast segment for the distribution mast and for rotatably connecting the rotating holding element to the mast segment , - wherein the device comprises a rotary coupling being different from the rotating holding element and the rotary bearing , wherein the rotary coupling rotatably connects the rotating line portion to the mast line portion ,
Exhaust system for an internal combustion engine of a vehicle, the exhaust system comprising an exhaust gas channel and an exhaust gas aftertreatment system , wherein at least one sensor for determining the exhaust gas composition is arranged in the exhaust gas channel , wherein a guide vane is arranged upstream of the sensor , which guide vane is designed to increase the flow velocity of the exhaust gas in a local flow cross section of the exhaust gas channel at the sensor , wherein an angle between the guide vane and the exhaust channel can be variably adjusted by tilting or straightening the guide vane , wherein the angle between the guide vane and the exhaust channel is adjusted depending on a flow velocity of the exhaust gas at the sensor , wherein the flow velocity is calculated via a model or measured by a flowmeter .
Riding-saddle motor vehicle comprising: - a front end frame extending along a longitudinal direction (Y-Y) having at least one front wheel ; - a rear axle frame having a pair of rear wheels mounted on opposite sides of a rear wheel axle , - a motor unit mounted on board said front end frame and adapted to provide a driving torque to said pair of rear wheels and / or to said front wheel , wherein said motor unit is connected to said rear wheel axis by means of an articulated transmission joint adapted to: - allowing a relative rotation, around said longitudinal direction (Y-Y), between said front end frame and said rear frame , and - transmitting a driving torque to said pair of rear wheels , characterized in that said pair of rear wheels comprises a transmission shaft adapted to provide a driving torque to the rear wheels , wherein said transmission shaft extends in a transverse direction (X-X) with respect to said longitudinal direction (Y-Y), wherein said transmission joint is a homokinetic joint having a sphere center (C) placed on the intersection between the transverse direction (X-X) passing through the transmission shaft and a direction parallel to the longitudinal direction (Y-Y). - a front end frame extending along a longitudinal direction (Y-Y) having at least one front wheel ; - a rear axle frame having a pair of rear wheels mounted on opposite sides of a rear wheel axle , - a motor unit mounted on board said front end frame and adapted to provide a driving torque to said pair of rear wheels and / or to said front wheel , - allowing a relative rotation, around said longitudinal direction (Y-Y), between said front end frame and said rear frame , and - transmitting a driving torque to said pair of rear wheels ,
An organic light-emitting device comprising an anode, a cathode, a light-emitting layer provided between the anode and the cathode, and a hole blocking layer provided in contact with a cathode side of the light-emitting layer, characterized in that the hole blocking layer comprises a hole blocking material that has a larger ionization potential than an ionization potential of the light-emitting layer and one kind or plural kinds of materials, which are different from the hole blocking material; wherein the one kind or plural kinds of materials comprise one kind or plural kinds of n-type organic semiconductors, wherein a value of an energy gap of each of the n-type organic semiconductors between a highest occupied molecular orbital level and a lowest unoccupied molecular orbital level is larger than a value of an energy gap of the light-emitting layer between a highest occupied molecular orbital level and a lowest unoccupied molecular orbital level.