mhurhangee/patent-ind-claim-en huggingface dataset:
A linear compressor comprising: a piston configured to reciprocate along an axial direction of the linear compressor; a resonance spring to elastically support the piston along the axial direction; a motor assembly to provide a driving force to the piston , the motor assembly comprising a magnet that is disposed radially outside the piston ; and a supporter configured to be coupled to the piston , the magnet , and the resonance spring , wherein the supporter comprises: a piston coupler coupled with the piston ; a magnet coupler coupled with the magnet ; and a spring coupler coupled with the resonance spring , and wherein the piston coupler , the magnet coupler , and the spring coupler are integrally formed, wherein the piston coupler has a circular flat plate shape that extends in a radial direction, characterized in that the linear compressor further comprises a magnet frame which has a hollow cylindrical shape that extends in the axial direction, the magnet being attached to an outer side of the magnet frame ; the magnet coupler is arranged to extend axially in a forward direction on an outer side of the piston coupler and is formed in a ring shape, the inner side of the magnet coupler has a size corresponding to the outer side of the magnet frame , and an end of the magnet frame is received inside the magnet coupler and is axially seated on the piston coupler . a piston configured to reciprocate along an axial direction of the linear compressor; a resonance spring to elastically support the piston along the axial direction; a motor assembly to provide a driving force to the piston , the motor assembly comprising a magnet that is disposed radially outside the piston ; and a supporter configured to be coupled to the piston , the magnet , and the resonance spring , wherein the supporter comprises: a piston coupler coupled with the piston ; a magnet coupler coupled with the magnet ; and a spring coupler coupled with the resonance spring , and wherein the piston coupler , the magnet coupler , and the spring coupler are integrally formed, a piston coupler coupled with the piston ; a magnet coupler coupled with the magnet ; and a spring coupler coupled with the resonance spring , and wherein the piston coupler , the magnet coupler , and the spring coupler are integrally formed, wherein the piston coupler has a circular flat plate shape that extends in a radial direction, characterized in that the linear compressor further comprises a magnet frame which has a hollow cylindrical shape that extends in the axial direction, the magnet being attached to an outer side of the magnet frame ; the magnet coupler is arranged to extend axially in a forward direction on an outer side of the piston coupler and is formed in a ring shape, the inner side of the magnet coupler has a size corresponding to the outer side of the magnet frame , and an end of the magnet frame is received inside the magnet coupler and is axially seated on the piston coupler .
Heating press with a loader for loading the heating press with a green tyre and with an unloader for unloading the vulcanized tyre, wherein the loader and the unloader each have a pivoting system with a pivoting arm arranged in a horizontally pivotable manner on a height-adjustable holding device , said pivoting arm having a tyre gripping device with a number of tyre grippers which are movable and adjustable by means of hydraulic cylinders, characterized in that the pivoting movement of a pivoting arm takes place either automatically via software by means of a servo motor with gears arranged on the holding device , wherein the holding device along with the servo motor and gears and also along with the pivoting arm is movable and adjustable in the vertical direction, or by means of a hydraulic cylinder engaging with the pivoting arm ', wherein the pivot angle is controlled by means of a path measuring system which determines the pivot angle and transmits signals to a control unit, so that the starting and stopping position is thereby determined. characterized in that the pivoting movement of a pivoting arm takes place either automatically via software by means of a servo motor with gears arranged on the holding device , wherein the holding device along with the servo motor and gears and also along with the pivoting arm is movable and adjustable in the vertical direction, or by means of a hydraulic cylinder engaging with the pivoting arm ', wherein the pivot angle is controlled by means of a path measuring system which determines the pivot angle and transmits signals to a control unit, so that the starting and stopping position is thereby determined.
A glenoid implant for replacing a native glenoid: an articulating surface configured to articulate with respect to a humeral head; a bone-facing surface opposite the articulating surface, the bone-facing surface having a first area configured to contact a paleoglenoid of the native glenoid; and an augment portion coupled to the bone-facing surface, the augment portion being configured to contact a neoglenoid of the native glenoid, characterized in that the augment portion is transitionable between a first configuration in which the augment portion has a first convexity and a second configuration in which the augment portion has a second convexity different than the first convexity. an articulating surface configured to articulate with respect to a humeral head; a bone-facing surface opposite the articulating surface, the bone-facing surface having a first area configured to contact a paleoglenoid of the native glenoid; and an augment portion coupled to the bone-facing surface, the augment portion being configured to contact a neoglenoid of the native glenoid, characterized in that the augment portion is transitionable between a first configuration in which the augment portion has a first convexity and a second configuration in which the augment portion has a second convexity different than the first convexity.
A method of determining an optimal target gemstone to be obtained from a rough gemstone , the method comprising: obtaining a first series of 2D images of the rough gemstone; providing a 3D model of a target gemstone to be obtained from the rough gemstone; generating a second series of 2D images of the target gemstone from the 3D model thereof; and comparing the first and second series of 2D images to determine an optimal transformation to be applied to the 3D model of the target gemstone. obtaining a first series of 2D images of the rough gemstone; providing a 3D model of a target gemstone to be obtained from the rough gemstone; generating a second series of 2D images of the target gemstone from the 3D model thereof; and comparing the first and second series of 2D images to determine an optimal transformation to be applied to the 3D model of the target gemstone.
A sealed closure for a device for cleaning inkjet printing heads by means of a cleaning liquid, which retains at least one printing head to said cleaning device by means of tightening, wherein it comprises: - a basin , comprising a first upper base , a first lower base , a first through slot connecting both first bases (21-22), wherein said first through slot comprises a chamfer with respect to the first upper base ; - a tightening sheet comprising a second upper base , a second lower base and at least one second through slot , wherein the sheet is configured to be attached to the basin by means of first connection means , the first upper base of the basin facing the second lower base of the sheet , and wherein the second through slot matches the first through slot of the basin ; and, - at least one O-ring , located between the first through slot of the sheet and the chamfer of the second through slot of the basin , configured to take the shape of the through slots (23 and 33); wherein, since the second through slot of the sheet and the first through slot of the basin are matching, they are configured to be inserted through the printing head in a manner perpendicular to the second upper base of the sheet ; and wherein the first upper base of the basin and the second lower base of the sheet are configured to stick to each other by means of the tightening of the first connection means ; and wherein the insertion of the printing head into the through slots (23 and 33) and the tightening of the first connection means create the elastic deformation of the O-ring , said O-ring exerting a tightening force on the side walls of said printing head, on the walls of the chamfer of the basin and on the second lower base of the sheet , ensuring airtightness between the printing head and the device for cleaning heads. - a basin , comprising a first upper base , a first lower base , a first through slot connecting both first bases (21-22), wherein said first through slot comprises a chamfer with respect to the first upper base ; - a tightening sheet comprising a second upper base , a second lower base and at least one second through slot , wherein the sheet is configured to be attached to the basin by means of first connection means , the first upper base of the basin facing the second lower base of the sheet , and wherein the second through slot matches the first through slot of the basin ; and, - at least one O-ring , located between the first through slot of the sheet and the chamfer of the second through slot of the basin , configured to take the shape of the through slots (23 and 33);
Neuregulin for use in a method of preventing, treating or delaying heart failure with preserved ejection fraction in a mammal, wherein the neuregulin consists of the amino acid sequence of SEQ ID NO: 1.
A method of controlling one or more elevators by an intelligent building system, the method comprising: receiving, by the intelligent building system comprising a processor coupled to a memory , one or more elevator calls initiated by one or more passengers, each elevator call comprising a passenger identification corresponding to a passenger initiating the elevator call ; procuring, by the intelligent building system in response to each of the one or more elevator calls, passenger information based on each passenger identification ; grouping, by the intelligent building system, the one or more passengers with respect to the passenger information to produce one or more passenger groups ; and controlling, by the intelligent building system, the one or more elevators to collect the one or more passenger groups ; characterized in that the passenger information is passenger preference information and the passenger preference information is procured from one or more social media sources based on a mining operation. receiving, by the intelligent building system comprising a processor coupled to a memory , one or more elevator calls initiated by one or more passengers, each elevator call comprising a passenger identification corresponding to a passenger initiating the elevator call ; procuring, by the intelligent building system in response to each of the one or more elevator calls, passenger information based on each passenger identification ; grouping, by the intelligent building system, the one or more passengers with respect to the passenger information to produce one or more passenger groups ; and controlling, by the intelligent building system, the one or more elevators to collect the one or more passenger groups ; characterized in that the passenger information is passenger preference information and the passenger preference information is procured from one or more social media sources based on a mining operation.
Method for identifying the fault location (F) of an unbalanced three-pole fault on a line of a three-phase electrical energy supply grid, in which - current and voltage values of the three phases (L1, L2, L3) of the line are measured at a measurement point (M) at a line end of the line ; and - following the occurrence of a fault on the line , the fault location (F) of said fault is determined using the measured current and voltage values; wherein - a reactance of the section of the line running to the fault location (F) is determined using the measured current and voltage values either of the three conductor-to-earth fault loops or of the three conductor-to-conductor fault loops, wherein the individual fault resistance of the individual phases (L1, L2, L3) is taken into account when determining the reactance, wherein the individual fault resistance is taken into account when determining the reactance by using a voltage correction variable that is adjusted according to the selected fault loop; and - the fault location (F) is identified by comparing the reactance with the total reactance of the line . - current and voltage values of the three phases (L1, L2, L3) of the line are measured at a measurement point (M) at a line end of the line ; and - following the occurrence of a fault on the line , the fault location (F) of said fault is determined using the measured current and voltage values; wherein - a reactance of the section of the line running to the fault location (F) is determined using the measured current and voltage values either of the three conductor-to-earth fault loops or of the three conductor-to-conductor fault loops, wherein the individual fault resistance of the individual phases (L1, L2, L3) is taken into account when determining the reactance, wherein the individual fault resistance is taken into account when determining the reactance by using a voltage correction variable that is adjusted according to the selected fault loop; and - the fault location (F) is identified by comparing the reactance with the total reactance of the line .
An airstream cooling assembly comprising: an evaporator having an outer surface and containing a primary cooling medium , the evaporator being configured to have a first airstream directed over the outer surface thereof and, when the first airstream is directed over the outer surface, to change the phase of the primary cooling medium from liquid to gas ; a passive condenser having an outer surface and being fluidly coupled to the evaporator , the passive condenser being configured to have a second airstream directed over the outer surface thereof; and a heat exchanger fluidly coupled to the evaporator and configured to accept a secondary cooling medium , wherein each of the passive condenser and the heat exchanger is configured to be selectively utilized and when one of the passive condenser and the heat exchanger is selectively utilized, the selected one of the passive condenser and the heat exchanger receives the primary cooling medium in the gas phase from the evaporator , transfer heat from the primary cooling medium , and change the phase of the primary cooling medium from gas to liquid , supply the primary cooling medium in the liquid phase to the evaporator , characterised in that the passive condenser and the heat exchanger are arranged in parallel relative to the flow of the primary cooling medium , and in that circulation of the primary cooling medium between the evaporator and at least one of the passive condenser and the heat exchanger is achieved by means of natural circulation and gravity. an evaporator having an outer surface and containing a primary cooling medium , the evaporator being configured to have a first airstream directed over the outer surface thereof and, when the first airstream is directed over the outer surface, to change the phase of the primary cooling medium from liquid to gas ; a passive condenser having an outer surface and being fluidly coupled to the evaporator , the passive condenser being configured to have a second airstream directed over the outer surface thereof; and a heat exchanger fluidly coupled to the evaporator and configured to accept a secondary cooling medium , wherein each of the passive condenser and the heat exchanger is configured to be selectively utilized and when one of the passive condenser and the heat exchanger is selectively utilized, the selected one of the passive condenser and the heat exchanger receives the primary cooling medium in the gas phase from the evaporator , transfer heat from the primary cooling medium , and change the phase of the primary cooling medium from gas to liquid , supply the primary cooling medium in the liquid phase to the evaporator , characterised in that the passive condenser and the heat exchanger are arranged in parallel relative to the flow of the primary cooling medium , and in that circulation of the primary cooling medium between the evaporator and at least one of the passive condenser and the heat exchanger is achieved by means of natural circulation and gravity.
Steering-column switch unit for a motor vehicle, having a driver part to which an actuating lever can be connected and which is mounted so as to be pivotable about a pivot axis between an initial position and an actuated position, wherein the driver part has an arm which extends perpendicular to the pivot axis , in particular in the direction of a steering spindle, and which projects from a main body of the driver part , wherein, on one side of the arm , there is arranged an electrical contact element which, in the actuated position, can be electrically coupled to a further contact element, and having a resetting device with a triggering element which is designed for resetting the driver part , and thus the actuating lever , from the actuated position into the initial position, wherein the triggering element is arranged on a side of the arm situated opposite the electrical contact element , characterized in that the steering-column switch unit has a printed circuit board on which the further contact element is arranged, and in that the arm is arranged between the printed circuit board at one side and the triggering element at the other side.
An actuator level detection system for an aircraft, the system comprising: an actuator containing fluid that defines a resistivity and including a first contact point and a second contact point ; a first contactor disposed about the actuator cooperating with the first contact point to define a first contact resistance that includes the resistivity; and sensor circuitry including a conductive path defining a conductive path resistance , between the first contact point and the second contact point, the sensor circuitry having a total resistance that includes the first contact resistance and the conductive path resistance, wherein the sensor circuitry is part of radiofrequency identification circuitry having an antenna , and wherein the radiofrequency identification circuitry includes a resistor having a resistor resistance based on an impedance of the antenna that defines a transmission distance of the radiofrequency identification circuitry, wherein the radiofrequency identification circuitry includes an identifier associated with the actuator, and further comprising reader circuitry having an impedance substantially equal to the total resistance, and wherein the reader circuitry is configured to energize the radiofrequency identification circuitry and receive the identifier. an actuator containing fluid that defines a resistivity and including a first contact point and a second contact point ; a first contactor disposed about the actuator cooperating with the first contact point to define a first contact resistance that includes the resistivity; and sensor circuitry including a conductive path defining a conductive path resistance , between the first contact point and the second contact point, the sensor circuitry having a total resistance that includes the first contact resistance and the conductive path resistance, wherein the sensor circuitry is part of radiofrequency identification circuitry having an antenna , and wherein the radiofrequency identification circuitry includes a resistor having a resistor resistance based on an impedance of the antenna that defines a transmission distance of the radiofrequency identification circuitry, wherein the radiofrequency identification circuitry includes an identifier associated with the actuator, and further comprising reader circuitry having an impedance substantially equal to the total resistance, and wherein the reader circuitry is configured to energize the radiofrequency identification circuitry and receive the identifier.
An elevator arrangement comprising a hoistway formed in a building ; an elevator car vertically movable in the hoistway along one or more guide rails (G) mounted to take lateral support from a hoistway wall (W); an elevator control system for controlling movement of the elevator car ; a sensing arrangement connected with the elevator control system , the sensing arrangement comprising a building-mounted sensing unit mounted on a stationary part (W) of the building , said stationary part (W) preferably being a hoistway wall (W) or the hoistway ceiling; at least one sensing unit mounted on the elevator car to travel therewith, wherein the building-mounted sensing unit is a counterpart for a sensing unit mounted on the elevator car ; and the elevator car is movable by the elevator control system to a first position, which is a reference position, and to a second position to place a sensing unit mounted on the elevator car to be level with the building-mounted sensing unit for triggering interaction between them, the first and second position being vertically displaced; wherein the elevator control system is configured to monitor vertical distance (d) between the first position and the second position by aid of the sensing arrangement , characterized in that the elevator control system is configured to perform one or more actions if the prevailing distance (d) meets one or more criteria; wherein a criterion for one or more actions is that the prevailing distance (d) has reached a threshold. a hoistway formed in a building ; an elevator car vertically movable in the hoistway along one or more guide rails (G) mounted to take lateral support from a hoistway wall (W); an elevator control system for controlling movement of the elevator car ; a sensing arrangement connected with the elevator control system , the sensing arrangement comprising a building-mounted sensing unit mounted on a stationary part (W) of the building , said stationary part (W) preferably being a hoistway wall (W) or the hoistway ceiling; at least one sensing unit mounted on the elevator car to travel therewith, wherein the building-mounted sensing unit is a counterpart for a sensing unit mounted on the elevator car ; and the elevator car is movable by the elevator control system to a first position, which is a reference position, and to a second position to place a sensing unit mounted on the elevator car to be level with the building-mounted sensing unit for triggering interaction between them, the first and second position being vertically displaced; wherein the elevator control system is configured to monitor vertical distance (d) between the first position and the second position by aid of the sensing arrangement , characterized in that the elevator control system is configured to perform one or more actions if the prevailing distance (d) meets one or more criteria; wherein a criterion for one or more actions is that the prevailing distance (d) has reached a threshold.