mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for treating mass-produced parts, the installation comprising: a supporting structure with a supporting element , a basket carrier for at least two centrifuge baskets , a main drive device attached to the supporting structure and having a main drive and a longitudinal shaft , wherein the longitudinal shaft is mounted rotatably about a main axis (A) with respect to the supporting element and is drivable rotatably about the main axis (A) by the main drive , wherein the basket carrier is held suspended on the longitudinal shaft and is connected to the longitudinal shaft in a rotationally fixed manner, and a secondary drive device with at least one motor and, for each centrifuge basket , a drivetrain for rotating the centrifuge basket about a basket axis (K) radially distanced from the main axis (A), wherein the at least one motor of the secondary drive device is arranged on the basket carrier , characterised in that that the drivetrain respectively comprises a reduction gear with a gear housing which is fixed to the basket carrier , an input shaft which is rotatably drivable by the at least one motor , and an output element coaxial with the basket axis (K), wherein a transmission ratio between an input speed of the input shaft and an output speed of the output element is greater than one. a supporting structure with a supporting element , a basket carrier for at least two centrifuge baskets , a main drive device attached to the supporting structure and having a main drive and a longitudinal shaft , wherein the longitudinal shaft is mounted rotatably about a main axis (A) with respect to the supporting element and is drivable rotatably about the main axis (A) by the main drive , wherein the basket carrier is held suspended on the longitudinal shaft and is connected to the longitudinal shaft in a rotationally fixed manner, and a secondary drive device with at least one motor and, for each centrifuge basket , a drivetrain for rotating the centrifuge basket about a basket axis (K) radially distanced from the main axis (A), wherein the at least one motor of the secondary drive device is arranged on the basket carrier , characterised in that that the drivetrain respectively comprises a reduction gear with a gear housing which is fixed to the basket carrier , an input shaft which is rotatably drivable by the at least one motor , and an output element coaxial with the basket axis (K), wherein a transmission ratio between an input speed of the input shaft and an output speed of the output element is greater than one.
A clamping and holding ring for being placed in a cylindrical housing made in the base of a part desired to be immobilised with respect to a body, this clamping ring being formed of a series of successive adjacent cylindrical and/or pseudo-cylindrical elements which are connected to each other and whose base surface is omega-shaped and thus includes a vertex and two branches , 7c), the vertices of these elements being alternately disposed on the exterior and on the interior of the clamping ring and forming respectively an outer element and an inner element , the branches connecting two adjacent elements being common, wherein the outer elements and the inner elements form "shells" whose thickness is between 10% and 25% of the width (a) of the vertices of the outer elements , the interior face of the walls of the inner or outer elements having a vertex as a base having an extra thickness .
A diamond die comprising a diamond provided with a hole for drawing a wire material, the diamond being a CVD single-crystal diamond , the diamond having an upper surface and a lower surface, and the hole of the die extending from the upper surface to the lower surface, said hole being formed perpendicular to the upper surface and the lower surface, an axis of the hole being inclined relative to a normal direction of a crystal plane of the diamond , characterised in that upper and lower surfaces of the diamond are surfaces inclined relative to a plane by 0.1° to 15°.
A photoelectric conversion device comprising: a first conductive layer ; a second conductive layer ; a photoelectric conversion layer between the first conductive layer and the second conductive layer; an electron blocking layer between the photoelectric conversion layer and the first conductive layer; and a hole blocking layer between the photoelectric conversion layer and the second conductive layer, wherein the electron blocking layer comprises a first perovskite compound represented by Formula 1, and the hole blocking layer comprises a second perovskite compound represented by Formula 2: A 1 B 1 X 1 3 − n Y 1 n wherein, in Formula 1, A 1 is at least one monovalent organic cation, at least one monovalent inorganic cation, or any combination thereof, B 1 is at least one divalent inorganic cation, X 1 and Y 1 are each independently at least one monovalent anion, and n is a real number satisfying 0 ≤ n ≤ 3, and A 2 B 2 X 2 3 − m Y 2 m wherein, in Formula 2, A 2 is at least one monovalent organic cation, at least one monovalent inorganic cation, or any combination thereof, B 2 is at least one divalent inorganic cation, X 2 and Y 2 are each independently at least one monovalent anion, and m is a real number satisfying 0 ≤ m ≤ 3; and characterised in that the electron blocking layer further comprises a polar polymer in an amount of 5 parts to 60 parts by weight with respect to 100 parts by weight of the first perovskite compound represented by Formula 1. a first conductive layer ; a second conductive layer ; a photoelectric conversion layer between the first conductive layer and the second conductive layer; an electron blocking layer between the photoelectric conversion layer and the first conductive layer; and a hole blocking layer between the photoelectric conversion layer and the second conductive layer, wherein the electron blocking layer comprises a first perovskite compound represented by Formula 1, and the hole blocking layer comprises a second perovskite compound represented by Formula 2: A 1 B 1 X 1 3 − n Y 1 n wherein, in Formula 1, A 1 is at least one monovalent organic cation, at least one monovalent inorganic cation, or any combination thereof, B 1 is at least one divalent inorganic cation, X 1 and Y 1 are each independently at least one monovalent anion, and n is a real number satisfying 0 ≤ n ≤ 3, and A 2 B 2 X 2 3 − m Y 2 m wherein, in Formula 2, A 2 is at least one monovalent organic cation, at least one monovalent inorganic cation, or any combination thereof, B 2 is at least one divalent inorganic cation, X 2 and Y 2 are each independently at least one monovalent anion, and m is a real number satisfying 0 ≤ m ≤ 3; and characterised in that the electron blocking layer further comprises a polar polymer in an amount of 5 parts to 60 parts by weight with respect to 100 parts by weight of the first perovskite compound represented by Formula 1.
A system for use in determining a capacity of a storage bin , the system comprising: a storage bin ; a plurality of sensors positioned within the storage bin , wherein each sensor is configured to: determine a used capacity within a portion of the storage bin ; and generate a voltage output based on the determined used capacity, wherein the plurality of sensors is configured to generate an aggregate voltage output based on the voltage output of each sensor ; and a controller in communication with the plurality of sensors , the controller configured to: receive the aggregate voltage output from the plurality of sensors ; determine a minimum voltage output and a maximum voltage output of the plurality of sensors ; and determine a total used capacity of the storage bin as a function of the aggregate voltage output, the minimum voltage output, and the maximum voltage output. a storage bin ; a plurality of sensors positioned within the storage bin , wherein each sensor is configured to: determine a used capacity within a portion of the storage bin ; and generate a voltage output based on the determined used capacity, wherein the plurality of sensors is configured to generate an aggregate voltage output based on the voltage output of each sensor ; and determine a used capacity within a portion of the storage bin ; and generate a voltage output based on the determined used capacity, wherein the plurality of sensors is configured to generate an aggregate voltage output based on the voltage output of each sensor ; and a controller in communication with the plurality of sensors , the controller configured to: receive the aggregate voltage output from the plurality of sensors ; determine a minimum voltage output and a maximum voltage output of the plurality of sensors ; and determine a total used capacity of the storage bin as a function of the aggregate voltage output, the minimum voltage output, and the maximum voltage output. receive the aggregate voltage output from the plurality of sensors ; determine a minimum voltage output and a maximum voltage output of the plurality of sensors ; and determine a total used capacity of the storage bin as a function of the aggregate voltage output, the minimum voltage output, and the maximum voltage output.
A heat storage system comprising a storage space , a heat storage medium in the storage space , a heating device for heating the heat storage medium and an extraction device for extracting heat from the heat storage medium, the extraction device comprising a first solid body arrangement contacting the heat storage medium and a second solid body arrangement , wherein a solid body contact between the first solid body arrangement and the second solid body arrangement can be modified thereby increasing or decreasing a heat flow from the first solid body arrangement to the second solid body arrangement , characterized in that the solid body contact between the first solid body arrangement and the second solid body arrangement can be eliminated and is or can be established indirectly by interposing one or more solid bodies .
An arrangement comprising a manhole and an electronic device assembly , fastened in the manhole , wherein the electronic device assembly comprises: an electronic device that is an electronic communications device, namely an access device, wherein a base material of a housing of the electronic device is a first metal; a grounding device , electrically connected to the housing; and at least two anode members , electrically connected to the housing, wherein a base material of the anode members is a second metal, and a metal potential of the second metal is less than a metal potential of the first metal, the grounding device and the anode member are electrically connected to a ground point of the electronic device by using a split cable or a conversion bracket, wherein there are at least two rod members , each of the anode members is sleeved on one of the rod members , each of the rod members comprises end parts protruding from the respective anode member , and the at least two rod members are mutually fastened by using the end parts, the at least two rod members are placed in parallel, and extension directions of the rod members are consistent, and two oppositely disposed respective end parts of each of the rod members are fixedly connected to a fastener , or wherein the at least two rod members are distributed radially by using a same fastening point as a center, one end part of each of the rod members is fastened at a location of the fastening point, and the other end part of each of the rod members is a free end. an electronic device that is an electronic communications device, namely an access device, wherein a base material of a housing of the electronic device is a first metal; a grounding device , electrically connected to the housing; and at least two anode members , electrically connected to the housing, wherein a base material of the anode members is a second metal, and a metal potential of the second metal is less than a metal potential of the first metal, the grounding device and the anode member are electrically connected to a ground point of the electronic device by using a split cable or a conversion bracket, wherein there are at least two rod members , each of the anode members is sleeved on one of the rod members , each of the rod members comprises end parts protruding from the respective anode member , and the at least two rod members are mutually fastened by using the end parts, the at least two rod members are placed in parallel, and extension directions of the rod members are consistent, and two oppositely disposed respective end parts of each of the rod members are fixedly connected to a fastener , or wherein the at least two rod members are distributed radially by using a same fastening point as a center, one end part of each of the rod members is fastened at a location of the fastening point, and the other end part of each of the rod members is a free end.
A genetic construct comprising a first nucleic acid sequence (effector) encoding cytokinin biosynthetic isopentenyl-transferase enzyme 7 (IPT7) operable linked to a second nucleic acid sequence (promoter) allowing expression of said first nucleic acid sequence in cambial cells, said first nucleic acid sequence being selected from the group of a) a nucleic acid sequence comprising SEQ ID NO: 1; b) a nucleic acid sequence encoding SEQ ID NO: 2; c) a nucleic acid sequence encoding an amino acid sequence showing at least 80% identity to SEQ ID NO: 2; and said second nucleic acid being a cambial specific promoter; wherein the expression of IPT7 in cambial cells results in enhanced stem volume growth. a) a nucleic acid sequence comprising SEQ ID NO: 1; b) a nucleic acid sequence encoding SEQ ID NO: 2; c) a nucleic acid sequence encoding an amino acid sequence showing at least 80% identity to SEQ ID NO: 2; and
A method for monitoring physical exercise performance, the method being carried out by a processor and comprising: obtaining , by utilizing measurements performed by one or more cardiac activity sensors, cardiac output power data on a user; obtaining , by utilizing measurements performed by one or more sensors, kinetic data characterizing physical exercise intensity of the physical exercise performed by the user; detecting that a measured cardiac output power exceeds a first threshold or that physical exercise intensity changes according to a rate exceeding a second threshold; characterized by : upon said detecting , determining a synthetic heart rate based at least partly on the kinetic data, wherein the synthetic heart rate indicates a value that is greater than a maximum heart rate of the user; and outputting the synthetic heart rate. obtaining , by utilizing measurements performed by one or more cardiac activity sensors, cardiac output power data on a user; obtaining , by utilizing measurements performed by one or more sensors, kinetic data characterizing physical exercise intensity of the physical exercise performed by the user; detecting that a measured cardiac output power exceeds a first threshold or that physical exercise intensity changes according to a rate exceeding a second threshold; characterized by : upon said detecting , determining a synthetic heart rate based at least partly on the kinetic data, wherein the synthetic heart rate indicates a value that is greater than a maximum heart rate of the user; and outputting the synthetic heart rate. upon said detecting , determining a synthetic heart rate based at least partly on the kinetic data, wherein the synthetic heart rate indicates a value that is greater than a maximum heart rate of the user; and outputting the synthetic heart rate.
A control system for a motor vehicle comprising: means for detecting a side-slope (Angle_SS) condition in which said vehicle is traversing a side-slope; means for detecting a trailing axle slip angle (Angle_TAS) exceeding a threshold value (Angle_TASt); and means for controlling an amount of torque applied to one or more wheels to induce a turning moment on said vehicle, the system being configured to, in response to detecting said side slope, proactively cause a first turning moment (MTVB) to be induced in a direction opposing side-slip of a trailing axle in a down-slope direction relative to a leading axle (FA); and the system being configured to, in response to detecting said trailing axle slip angle exceeding said threshold value (Angle_TASt), cause a second turning moment (MTV) to be induced in a direction to reduce the trailing axle slip angle. means for detecting a side-slope (Angle_SS) condition in which said vehicle is traversing a side-slope; means for detecting a trailing axle slip angle (Angle_TAS) exceeding a threshold value (Angle_TASt); and means for controlling an amount of torque applied to one or more wheels to induce a turning moment on said vehicle, the system being configured to, in response to detecting said side slope, proactively cause a first turning moment (MTVB) to be induced in a direction opposing side-slip of a trailing axle in a down-slope direction relative to a leading axle (FA); and the system being configured to, in response to detecting said trailing axle slip angle exceeding said threshold value (Angle_TASt), cause a second turning moment (MTV) to be induced in a direction to reduce the trailing axle slip angle.
A flow booster for optimizing flow of a fuel passing into an aircraft via a refueling unit being operable to continuously adjust a flow of fuel into the aircraft in real time during refueling, the refueling unit comprising a fuel circuit , the flow booster comprising: a fuel intake fluidly coupled to the fuel circuit , the fuel intake comprising a housing and a piston , the piston comprising a piston head slidably movable in the housing to define a variable fuel inlet to receive the fuel therethrough and into the fuel circuit , wherein the fuel has a fuel force applied to the piston ; an intake tuner operatively connected to the fuel intake , the intake tuner having a tuning force applied to the piston against the fuel force; a trigger coupled to the intake tuner to selectively vary the tuning force applied by the intake tuner ; and a flow regulator operatively coupled to sensors configured to capture fuel measurements, the fuel measurements comprising at least one of a nozzle pressure (S6-PNA) measured at a nozzle configured to fluidly couple with the aircraft , and a simulated nozzle pressure (S5-PNS) measured at the fuel circuit , and operatively coupled to the trigger to selectively activate the trigger in response to the fuel measurements, whereby the flow of fuel into the aircraft is continuously adjustable during refueling, such that in response to a captured fuel measurement, the flow regulator selectively activates the trigger to apply the tuning force and thereby increase one or more of the fuel measurements resulting in an increased flow rate of the fuel entering the aircraft and thereby compensating a backpressure within the refueling unit . a fuel intake fluidly coupled to the fuel circuit , the fuel intake comprising a housing and a piston , the piston comprising a piston head slidably movable in the housing to define a variable fuel inlet to receive the fuel therethrough and into the fuel circuit , wherein the fuel has a fuel force applied to the piston ; an intake tuner operatively connected to the fuel intake , the intake tuner having a tuning force applied to the piston against the fuel force; a trigger coupled to the intake tuner to selectively vary the tuning force applied by the intake tuner ; and a flow regulator operatively coupled to sensors configured to capture fuel measurements, the fuel measurements comprising at least one of a nozzle pressure (S6-PNA) measured at a nozzle configured to fluidly couple with the aircraft , and a simulated nozzle pressure (S5-PNS) measured at the fuel circuit , and operatively coupled to the trigger to selectively activate the trigger in response to the fuel measurements, whereby the flow of fuel into the aircraft is continuously adjustable during refueling, such that in response to a captured fuel measurement, the flow regulator selectively activates the trigger to apply the tuning force and thereby increase one or more of the fuel measurements resulting in an increased flow rate of the fuel entering the aircraft and thereby compensating a backpressure within the refueling unit .
Vehicle , preferably a commercial vehicle, comprising a) a support frame comprising two longitudinal beams (1b 1 , 1b 2 ) spaced apart from each other and connected to each other by a plurality of cross beams (1a 1 , 1a 2 , 1a 3 ); and b) a battery holder (2.1; 2.2; 2.3) for receiving at least one traction battery, wherein the battery holder (2.1; 2.2; 2.3) is arranged between the longitudinal beams (1b 1 , 1b 2 ) of the carrier frame ; wherein the battery holder (2.1; 2.2; 2.3) is connected to the carrier frame by means of a -3-point mounting (3.1; 3.2; 3.3), wherein the -3-point mounting (3.1; 3.2; 3.3) has three bearing points each with a joint. a) a support frame comprising two longitudinal beams (1b 1 , 1b 2 ) spaced apart from each other and connected to each other by a plurality of cross beams (1a 1 , 1a 2 , 1a 3 ); and b) a battery holder (2.1; 2.2; 2.3) for receiving at least one traction battery, wherein the battery holder (2.1; 2.2; 2.3) is arranged between the longitudinal beams (1b 1 , 1b 2 ) of the carrier frame ;
A magnetic bearing device, comprising: a magnetic bearing that has first and second electromagnets opposed to each other with an object to be supported interposed therebetween and supports the object to be supported in a noncontact manner by means of a composite electromagnetic force (F) of the first and second electromagnets ; and a controller that controls a first current (i1) and a second current (i2) so that equations 1 and 2 i 1 = g 0 − ax g 0 i b + i d i 2 = g 0 + ax g 0 i b − i d hold, where i 1 is the first current (i1) flowing to the first electromagnet , i 2 is the second current (i2) flowing to the second electromagnet , i d is a control current (id) corresponding to a current component varying according to a displacement of the object to be supported in the opposed direction of the first and second electromagnets , i b is a bias current (ib) corresponding to a current component indicating a predetermined current value, g 0 is a reference gap length corresponding to a gap length between the object to be supported and the first and second electromagnets at the time when the object to be supported lies at a center position between the first and second electromagnets , x is a displacement amount (x) of the object to be supported with respect to the center position in the opposed direction of the first and second electromagnets , and a is a predetermined correction coefficient (a), wherein the correction coefficient (a) is set to a value except zero. a magnetic bearing that has first and second electromagnets opposed to each other with an object to be supported interposed therebetween and supports the object to be supported in a noncontact manner by means of a composite electromagnetic force (F) of the first and second electromagnets ; and a controller that controls a first current (i1) and a second current (i2) so that equations 1 and 2 i 1 = g 0 − ax g 0 i b + i d i 2 = g 0 + ax g 0 i b − i d hold, where i 1 is the first current (i1) flowing to the first electromagnet , i 2 is the second current (i2) flowing to the second electromagnet , i d is a control current (id) corresponding to a current component varying according to a displacement of the object to be supported in the opposed direction of the first and second electromagnets , i b is a bias current (ib) corresponding to a current component indicating a predetermined current value, g 0 is a reference gap length corresponding to a gap length between the object to be supported and the first and second electromagnets at the time when the object to be supported lies at a center position between the first and second electromagnets , x is a displacement amount (x) of the object to be supported with respect to the center position in the opposed direction of the first and second electromagnets , and a is a predetermined correction coefficient (a), wherein the correction coefficient (a) is set to a value except zero.