mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: determining an estimated speed and estimated alignment of a rotor based, at least in part, on signals obtained from at least one sensor of a plurality of sensors (100, 102 and 104); determining an alignment offset based, at least in part, on the estimated rotor speed and alignment of the rotor ; wherein the determining the alignment offset further comprises: determining a timing window corresponding to a time at which a rotor tooth is expected to be detected by a sensor of the plurality of sensors (100, 102 and 104); and incrementing an error count responsive to a determination that the rotor tooth is not detected by the sensor of the plurality of sensors (100, 102 and 104) in the determined timing window; and transmitting one or more current pulses to one or more coil windings of a stator based, at least in part, on the alignment offset. determining an estimated speed and estimated alignment of a rotor based, at least in part, on signals obtained from at least one sensor of a plurality of sensors (100, 102 and 104); determining an alignment offset based, at least in part, on the estimated rotor speed and alignment of the rotor ; wherein the determining the alignment offset further comprises: determining a timing window corresponding to a time at which a rotor tooth is expected to be detected by a sensor of the plurality of sensors (100, 102 and 104); and incrementing an error count responsive to a determination that the rotor tooth is not detected by the sensor of the plurality of sensors (100, 102 and 104) in the determined timing window; and transmitting one or more current pulses to one or more coil windings of a stator based, at least in part, on the alignment offset. determining a timing window corresponding to a time at which a rotor tooth is expected to be detected by a sensor of the plurality of sensors (100, 102 and 104); and incrementing an error count responsive to a determination that the rotor tooth is not detected by the sensor of the plurality of sensors (100, 102 and 104) in the determined timing window; and transmitting one or more current pulses to one or more coil windings of a stator based, at least in part, on the alignment offset.
A method for making a dry powder composition which comprises an active substance in an amount of 0.01 to 10% by weight of the composition, magnesium stearate in an amount of at least 0.5% by weight of the composition and a carrier material, said method comprising the consecutive steps of: (i) in a first step, blending magnesium stearate with a carrier material in a powder blender for a period of less than 30 minutes to form a mixture; (ii) in a second step, mixing a small portion of the mixture of step (i) with the active substance to form a concentrated powder mix for a period not exceeding one hour; and (iii) in a third step, mixing the remaining amount of the mixture of step (i) with the concentrated powder mix of step (ii) in a powder blender for a period not exceeding one hour. (i) in a first step, blending magnesium stearate with a carrier material in a powder blender for a period of less than 30 minutes to form a mixture; (ii) in a second step, mixing a small portion of the mixture of step (i) with the active substance to form a concentrated powder mix for a period not exceeding one hour; and (iii) in a third step, mixing the remaining amount of the mixture of step (i) with the concentrated powder mix of step (ii) in a powder blender for a period not exceeding one hour.
A composition comprising a Punica extract containing punicalagins and ellagic acid and a Lamiaceae extract containing the phenolic diterpenes carnosic acid and carnosol, wherein a majority of the volatile oil components have been removed from the Lamiaceae extract.
A method of uplink transmission, performed by a User Equipment, UE, in a wireless communication network that includes two or more Transmission and Receiving Points, TRPs, each associated with a spatial relation or a Transmission Configuration Indication, TCI, state, the method comprising: • receiving , from a base station in the wireless communication network, a configuration of a first spatial relation and a second spatial relation or a configuration of a first TCI state and a second TCI state for an uplink channel resource, and an indication of N transmission repetitions of the uplink channel, wherein: ∘ N is an integer greater than one; and ∘ the first spatial relation and the second spatial relation or the first TCI state and the second TCI state are configured to form a mapping pattern over the transmission repetitions of the uplink channel, wherein the mapping pattern is cyclic mapping or sequential mapping; • receiving a Downlink, DL, Control Information, DCI, that indicates the uplink channel resource used for the transmission repetitions of the uplink channel; and • transmitting the uplink channel in N consecutive sub-slots in the uplink channel resource, and according to the mapping pattern, applying the first spatial relation or the first TCI state to the uplink channel transmission repetitions in a first subset of the sub-slots and applying the second spatial relation or the second TCI state to the uplink channel transmission repetitions in a second subset of the sub-slots. • receiving , from a base station in the wireless communication network, a configuration of a first spatial relation and a second spatial relation or a configuration of a first TCI state and a second TCI state for an uplink channel resource, and an indication of N transmission repetitions of the uplink channel, wherein: ∘ N is an integer greater than one; and ∘ the first spatial relation and the second spatial relation or the first TCI state and the second TCI state are configured to form a mapping pattern over the transmission repetitions of the uplink channel, wherein the mapping pattern is cyclic mapping or sequential mapping; ∘ N is an integer greater than one; and ∘ the first spatial relation and the second spatial relation or the first TCI state and the second TCI state are configured to form a mapping pattern over the transmission repetitions of the uplink channel, wherein the mapping pattern is cyclic mapping or sequential mapping; • receiving a Downlink, DL, Control Information, DCI, that indicates the uplink channel resource used for the transmission repetitions of the uplink channel; and • transmitting the uplink channel in N consecutive sub-slots in the uplink channel resource, and according to the mapping pattern, applying the first spatial relation or the first TCI state to the uplink channel transmission repetitions in a first subset of the sub-slots and applying the second spatial relation or the second TCI state to the uplink channel transmission repetitions in a second subset of the sub-slots.
A single valve prosthesis configured for deployment within or near the mitral and aortic valves of the heart, the single valve prosthesis comprising: a stent structure for positioning adjacent to, near or within the aortic valve; and an annular frame for positioning adjacent to or near the mitral valve, wherein the annular frame has a profile of a flat washer and wherein when the prosthesis is in an expanded configuration the annular frame laterally extends from the stent structure. a stent structure for positioning adjacent to, near or within the aortic valve; and an annular frame for positioning adjacent to or near the mitral valve, wherein the annular frame has a profile of a flat washer and wherein when the prosthesis is in an expanded configuration the annular frame laterally extends from the stent structure.
A heat compression molding process for the manufacturing of composite material articles, said process comprising the steps of: i) Providing a mold in which the negative shape of an article to be manufactured is formed; ii) Inserting into said mold an SMC semi-finished product comprising one or more sheets of composite material comprising a matrix of a heat-hardening resin and carbon fibers, the mold being pre-heated at a temperature suitable to allow the cure of said heat-hardening resin; iii) Closing the mold and carrying out a compression cycle in an autoclave according to a predefined time-pressure law; and iv) Extracting the article , wherein the amount of SMC semi-finished product inserted in the mold is calculated by weighing on the basis of the volume of the article to be manufactured, and wherein the size of the surfaces of the SMC semi-finished product intended to contact the surfaces of the shape are calculated so as to cover said surfaces in a percentage higher than 80% and less than or equal to 99% of the whole development of the surfaces of the shape . i) Providing a mold in which the negative shape of an article to be manufactured is formed; ii) Inserting into said mold an SMC semi-finished product comprising one or more sheets of composite material comprising a matrix of a heat-hardening resin and carbon fibers, the mold being pre-heated at a temperature suitable to allow the cure of said heat-hardening resin; iii) Closing the mold and carrying out a compression cycle in an autoclave according to a predefined time-pressure law; and iv) Extracting the article ,
System for placement of a supply of poultry front halves in a processing line equipped with a train of movable carriers for the poultry front halves , which system comprises a train of receptacles provided and movable in a conveyor line , wherein the receptacles are equipped to receive the front halves at an input station of the system, and the conveyor line is equipped to move the receptacles with the poultry front halves received therein from the input station towards and along the processing line with the carriers , and wherein the receptacles are equipped to transfer the poultry front halves onto the carriers in the processing line , characterized in that each receptacle is equipped with a breast support plate , a bottom plate and upstanding inserts rising up from the bottom plate distant from the breast support plate and defining a first slot between the inserts for receiving a backbone of the poultry front half received in the receptacle , and wherein between each of the inserts and the breast support plate second slots are provided to provide room for breast meat of the poultry front half received in the receptacle .
A rotator arrangement for providing a rotating movement between a crane arm or the like and a hydraulic tool, the rotator arrangement comprising: - a first attachment piece arranged to be attached to the crane arm or the like, - a second attachment piece arranged to be attached to the tool implement, - a casing joining the first attachment piece to the second attachment piece , which casing is arranged to carry the loads of the hydraulic tool and includes a bearing or the like allowing a first part of the casing to rotate with respect to a second part of the casing , and - a hydraulic rotation motor arranged to provide a rotational movement between the first and second attachment pieces around an axis of rotation (A), the motor comprising a stator and a rotor , the rotor being arranged inside the stator so as to rotate with respect to the stator around the same axis of rotation (A) as the first and second attachment pieces, whereby hydraulic couplings to provide the hydraulic tool with hydraulic fluid are arranged facing the first attachment piece and substantially parallel to the axis of rotation (A) via or through the rotor of the motor , the rotor being arranged at least partly inside said casing , characterised in that a torque transmission unit is arranged to transmit a rotational movement provided by the motor between the first and second attachment pieces , the torque transmission unit transmitting said rotational movement without transmitting substantial axial and radial loads. - a first attachment piece arranged to be attached to the crane arm or the like, - a second attachment piece arranged to be attached to the tool implement, - a casing joining the first attachment piece to the second attachment piece , which casing is arranged to carry the loads of the hydraulic tool and includes a bearing or the like allowing a first part of the casing to rotate with respect to a second part of the casing , and - a hydraulic rotation motor arranged to provide a rotational movement between the first and second attachment pieces around an axis of rotation (A), the motor comprising a stator and a rotor , the rotor being arranged inside the stator so as to rotate with respect to the stator around the same axis of rotation (A) as the first and second attachment pieces, whereby hydraulic couplings to provide the hydraulic tool with hydraulic fluid are arranged facing the first attachment piece and substantially parallel to the axis of rotation (A) via or through the rotor of the motor , the rotor being arranged at least partly inside said casing , characterised in that a torque transmission unit is arranged to transmit a rotational movement provided by the motor between the first and second attachment pieces , the torque transmission unit transmitting said rotational movement without transmitting substantial axial and radial loads.
A vertical conduction integrated electronic device comprising: - a semiconductor body ; - a trench that extends through part of the semiconductor body and delimits a portion of the semiconductor body, said portion of semiconductor body forming a first conduction region having a first type of conductivity and a body region having a second type of conductivity, which is arranged on top of the first conduction region; - a gate region of conductive material, which extends within the trench; - an insulation region of dielectric material, which extends within the trench and is arranged between the gate region and the body region; and - a second conduction region , arranged on top of the body region; the second conduction region being made of a non-doped conductor; wherein the insulation region is delimited by a vertical surface (S c1 ), which contacts the body region ; said device being characterized in that it further comprises a spacer of dielectric material, which coats a top portion of said vertical surface and contacts a peripheral portion of the body region arranged under the spacer, said spacer further surrounding a portion of the second conduction region arranged in contact with a central portion of the body region. - a semiconductor body ; - a trench that extends through part of the semiconductor body and delimits a portion of the semiconductor body, said portion of semiconductor body forming a first conduction region having a first type of conductivity and a body region having a second type of conductivity, which is arranged on top of the first conduction region; - a gate region of conductive material, which extends within the trench; - an insulation region of dielectric material, which extends within the trench and is arranged between the gate region and the body region; and - a second conduction region , arranged on top of the body region; the second conduction region being made of a non-doped conductor; wherein the insulation region is delimited by a vertical surface (S c1 ), which contacts the body region ; said device being characterized in that it further comprises a spacer of dielectric material, which coats a top portion of said vertical surface and contacts a peripheral portion of the body region arranged under the spacer, said spacer further surrounding a portion of the second conduction region arranged in contact with a central portion of the body region.
A tow bar assembly for a vehicle, said tow bar assembly being adapted to carry a towing hook, said tow bar assembly comprising at least one vehicle connection portion comprising a vehicle facing surface arranged to be positioned adjacent to an opposing vehicle surface after being mounted to said vehicle , said vehicle connection portion being connectable to said vehicle at a plurality of connection points , the vehicle connection portion comprising a plurality of distinct spacers adapted to provide a distance between said vehicle facing surface of said vehicle connection portion and said opposing vehicle surface , wherein the spacers are arranged in the vicinity of said connection points , said spacers are arranged between said vehicle facing surface and said opposing vehicle surface in a longitudinal direction of said vehicle , characterized in that said spacers are formed by a rigid material, and said spacers are washers welded or glued to the vehicle connection portion , milled out of the connection portion or stamped out of the vehicle connection portion . the vehicle connection portion comprising a plurality of distinct spacers adapted to provide a distance between said vehicle facing surface of said vehicle connection portion and said opposing vehicle surface , wherein the spacers are arranged in the vicinity of said connection points , said spacers are arranged between said vehicle facing surface and said opposing vehicle surface in a longitudinal direction of said vehicle , characterized in that said spacers are formed by a rigid material, and said spacers are washers welded or glued to the vehicle connection portion , milled out of the connection portion or stamped out of the vehicle connection portion .
A method for spatially tagging nucleic acids of a biological specimen comprising: (a) providing a solid substrate on which multiple species of capture probes are immobilized such that each species occupies a distinct position on the solid substrate, wherein each capture probe of the multiple species is a primer for an extension reaction and wherein the capture probe comprises a nucleic acid molecule comprising: (i) a cleavage domain for releasing the capture probe from the solid substrate, (ii) a positional domain that corresponds to the position of the capture probe on the solid substrate, and (iii) a capture domain; (b) contacting the solid substrate with a biological specimen; and (c) simultaneously releasing the capture probe from the solid substrate under conditions that allow a nucleic acid of the biological specimen to hybridise to the capture domain of the capture probe and extending the capture probe using the nucleic acid hybridised to the capture probe as an extension template to produce an extended capture probe, wherein step (c) comprises contacting said solid substrate with an aqueous reaction mixture comprising: (i) a polymerase enzyme capable of extending the capture probe using the nucleic acid hybridised to the capture probe as the extension template to produce the extended capture probe; and (ii) a means for releasing the capture probe from the solid substrate. (a) providing a solid substrate on which multiple species of capture probes are immobilized such that each species occupies a distinct position on the solid substrate, wherein each capture probe of the multiple species is a primer for an extension reaction and wherein the capture probe comprises a nucleic acid molecule comprising: (i) a cleavage domain for releasing the capture probe from the solid substrate, (ii) a positional domain that corresponds to the position of the capture probe on the solid substrate, and (iii) a capture domain; (i) a cleavage domain for releasing the capture probe from the solid substrate, (ii) a positional domain that corresponds to the position of the capture probe on the solid substrate, and (iii) a capture domain; (b) contacting the solid substrate with a biological specimen; and (c) simultaneously releasing the capture probe from the solid substrate under conditions that allow a nucleic acid of the biological specimen to hybridise to the capture domain of the capture probe and extending the capture probe using the nucleic acid hybridised to the capture probe as an extension template to produce an extended capture probe, wherein step (c) comprises contacting said solid substrate with an aqueous reaction mixture comprising: (i) a polymerase enzyme capable of extending the capture probe using the nucleic acid hybridised to the capture probe as the extension template to produce the extended capture probe; and (ii) a means for releasing the capture probe from the solid substrate. (i) a polymerase enzyme capable of extending the capture probe using the nucleic acid hybridised to the capture probe as the extension template to produce the extended capture probe; and (ii) a means for releasing the capture probe from the solid substrate.
A method for cooling a room with a cooling element (1, 1', 1") that is arranged on a ceiling or a wall of the room to be cooled, with a heat-insulating base plate (2, 2', 2") comprising capillary tubes (3, 3") that are fixed on its surface facing the room and through which a cooling medium can be conveyed, and with a layer that covers the surface of the base plate (2, 2', 2") with the capillary tubes (3, 3"), wherein the base plate (2, 2', 2") is made of a hygroscopic material, characterized in that the cooling temperature falls short of the dew point and the thusly produced condensate is absorbed by the base plate and the covering layer and once again released when the cooling system is switched off.
A method for use with a pump , the method comprising: (A) placing liquid in a tube that is coupled to the pump ; (B) creating an air bubble in the tube by injecting air into the tube (a) in a manner that does not increase pressure within the tube , and (b) such that there is a predetermined volume of liquid between the air bubble and the pump ; (C) using the pump to advance the air bubble along the tube to a bubble detector of the pump ; (D) using the pump , assessing accuracy of the pump by automatically measuring the volume of liquid pumped to advance the air bubble to the bubble detector ; (E) using the pump to continue advancing the air bubble along the tube , past the bubble detector and using the pump to measure a volume of the air bubble ; the method further comprising: (F) subsequently, occluding the tube downstream of the air bubble ; (G) using the pump to increase pressure within the tube by pumping a volume of liquid; (H) using the pump to measure the volume of liquid pumped to increase pressure within the tube ; (I) assessing the increase in pressure within the tube based on (a) the measured volume of liquid pumped to increase the pressure within the tube and (b) the measured volume of the air bubble ; (J) using a sensor of the pump , measuring a sensed increase in pressure in the tube in response to the pumping of the volume of liquid; and (K) assessing accuracy of the sensor based on the assessed increase in pressure and the sensed increase in pressure. (A) placing liquid in a tube that is coupled to the pump ; (B) creating an air bubble in the tube by injecting air into the tube (a) in a manner that does not increase pressure within the tube , and (b) such that there is a predetermined volume of liquid between the air bubble and the pump ; (C) using the pump to advance the air bubble along the tube to a bubble detector of the pump ; (D) using the pump , assessing accuracy of the pump by automatically measuring the volume of liquid pumped to advance the air bubble to the bubble detector ; (E) using the pump to continue advancing the air bubble along the tube , past the bubble detector and using the pump to measure a volume of the air bubble ; (F) subsequently, occluding the tube downstream of the air bubble ; (G) using the pump to increase pressure within the tube by pumping a volume of liquid; (H) using the pump to measure the volume of liquid pumped to increase pressure within the tube ; (I) assessing the increase in pressure within the tube based on (a) the measured volume of liquid pumped to increase the pressure within the tube and (b) the measured volume of the air bubble ; (J) using a sensor of the pump , measuring a sensed increase in pressure in the tube in response to the pumping of the volume of liquid; and (K) assessing accuracy of the sensor based on the assessed increase in pressure and the sensed increase in pressure.