mhurhangee/ep-ind-claims huggingface dataset:
A capacitive tactile sensor comprising: a first substrate including a plurality of first electrodes; a second substrate including a plurality of second electrodes corresponding to the plurality of first electrodes, wherein the plurality of first electrodes matches the plurality of second electrodes and wherein a second electrode corresponding to a first electrode is disposed to face at least part of the first electrode; and a dielectric substance disposed between the first substrate and the second substrate; characterized in that a second electrode corresponding to any one of the first electrodes is offset from the any one of the first electrodes in one direction while a second electrode corresponding to another first electrode neighboring the any one of the first electrodes is offset from the another first electrode in a different direction, wherein the first electrodes and the second electrodes corresponding to each other only partially overlap, wherein a portion of the dielectric substance overlaps with the first electrodes or the second electrodes, and wherein the other portion of the dielectric substance that does not overlap with the first electrodes or the second electrodes, is formed as a cavity. a first substrate including a plurality of first electrodes; a second substrate including a plurality of second electrodes corresponding to the plurality of first electrodes, wherein the plurality of first electrodes matches the plurality of second electrodes and wherein a second electrode corresponding to a first electrode is disposed to face at least part of the first electrode; and a dielectric substance disposed between the first substrate and the second substrate; characterized in that a second electrode corresponding to any one of the first electrodes is offset from the any one of the first electrodes in one direction while a second electrode corresponding to another first electrode neighboring the any one of the first electrodes is offset from the another first electrode in a different direction, wherein the first electrodes and the second electrodes corresponding to each other only partially overlap, wherein a portion of the dielectric substance overlaps with the first electrodes or the second electrodes, and wherein the other portion of the dielectric substance that does not overlap with the first electrodes or the second electrodes, is formed as a cavity.
An information transmission method, comprising: determining a time domain density of a phase tracking reference signal, PTRS; determining a frequency domain density of the phase tracking reference signal, PTRS, based on an available bandwidth, or determining a frequency domain density of the phase tracking reference signal, PTRS, based on a scheduled resource block, RB; wherein the available bandwidth is a scheduled bandwidth that does not include preoccupied bandwidth, and wherein the scheduled bandwidth is bandwidth that is scheduled for a user equipment for transmitting a data service and a control signal of the user equipment, and the preoccupied bandwidth is bandwidth occupied by another signal; mapping the PTRS to one or more orthogonal frequency division multiplexing, OFDM, symbols based on the time domain density and the frequency domain density; and sending a signal that comprises the OFDM symbol to which the PTRS is mapped. determining a time domain density of a phase tracking reference signal, PTRS; determining a frequency domain density of the phase tracking reference signal, PTRS, based on an available bandwidth, or determining a frequency domain density of the phase tracking reference signal, PTRS, based on a scheduled resource block, RB; wherein the available bandwidth is a scheduled bandwidth that does not include preoccupied bandwidth, and wherein the scheduled bandwidth is bandwidth that is scheduled for a user equipment for transmitting a data service and a control signal of the user equipment, and the preoccupied bandwidth is bandwidth occupied by another signal; mapping the PTRS to one or more orthogonal frequency division multiplexing, OFDM, symbols based on the time domain density and the frequency domain density; and sending a signal that comprises the OFDM symbol to which the PTRS is mapped.
A method for transferring power between an electric power grid and an electric vehicle, the method comprising: maintaining, by electric vehicle station equipment (EVSE) separate from the electric vehicle and electrically coupled to the electric power grid, EVSE attributes, the EVSE attributes including a forward flow limit indicating the maximum allowable flow of power into the electric vehicle from the EVSE and a reverse flow limit indicating the maximum allowable flow of power into the EVSE from the electric vehicle, the method being characterised by: receiving, by the EVSE, a dynamic forward flow limit and a dynamic reverse flow limit; updating, on the basis of the received dynamic forward flow limit and dynamic reverse flow limit, the EVSE attributes; establishing, by the EVSE, communication with an electric vehicle equipment inside the electric vehicle; and transmitting, by the EVSE, the EVSE attributes to the EVE for use in controlling power flow between the electric vehicle and the electric power grid. receiving, by the EVSE, a dynamic forward flow limit and a dynamic reverse flow limit; updating, on the basis of the received dynamic forward flow limit and dynamic reverse flow limit, the EVSE attributes; establishing, by the EVSE, communication with an electric vehicle equipment inside the electric vehicle; and transmitting, by the EVSE, the EVSE attributes to the EVE for use in controlling power flow between the electric vehicle and the electric power grid.
A dispensing end effector suitable for dispensing underfill (110, 702) to components on a printed circuit board (104, 310) within an underfill chamber, comprising: an electromechanical connection, said electromechanical connection being connectable to at least one dispensing robot arm capable of physically situating the dispensing proximate to the circuit board (104, 310); a communicative connection, said communicative connection being connectable to a dispense controller (502, 502a, 502b) capable of communicatively controlling at least the dispensing; a dispenser which includes an underfill output port, which is capable of the dispensing, and which is removably mounted to the electromechanical connection; wherein, the dispensing end effector further comprises: a protective enclosure at least substantially about the dispenser, wherein the protective enclosure comprises heat shielding, characterized in that the protective enclosure comprises a laser distance sensor suitable to spatially orient the dispenser; and wherein the heat shielding is arranged in the path of light of the laser distance sensor and is opaque or transparent. an electromechanical connection, said electromechanical connection being connectable to at least one dispensing robot arm capable of physically situating the dispensing proximate to the circuit board (104, 310); a communicative connection, said communicative connection being connectable to a dispense controller (502, 502a, 502b) capable of communicatively controlling at least the dispensing; a dispenser which includes an underfill output port, which is capable of the dispensing, and which is removably mounted to the electromechanical connection; wherein, the dispensing end effector further comprises: a protective enclosure at least substantially about the dispenser, wherein the protective enclosure comprises heat shielding, characterized in that the protective enclosure comprises a laser distance sensor suitable to spatially orient the dispenser; and wherein the heat shielding is arranged in the path of light of the laser distance sensor and is opaque or transparent. a protective enclosure at least substantially about the dispenser, wherein the protective enclosure comprises heat shielding, characterized in that the protective enclosure comprises a laser distance sensor suitable to spatially orient the dispenser; and wherein the heat shielding is arranged in the path of light of the laser distance sensor and is opaque or transparent.
A radioisotope elution system, comprising: an auxiliary shield; a shield lid that includes a handle (80, 82; 122), wherein the shield lid is disposed in the auxiliary shield; and a radioisotope generator disposed in the auxiliary shield; wherein the radioisotope generator and the lid each comprise respective alignment structures (68, 76) configured to align them to each other within the auxiliary shield, thereby aligning the lid with the radioisotope generator via the auxiliary shield by reducing rotation of the lid about a vertical axis. an auxiliary shield; a shield lid that includes a handle (80, 82; 122), wherein the shield lid is disposed in the auxiliary shield; and a radioisotope generator disposed in the auxiliary shield; wherein the radioisotope generator and the lid each comprise respective alignment structures (68, 76) configured to align them to each other within the auxiliary shield, thereby aligning the lid with the radioisotope generator via the auxiliary shield by reducing rotation of the lid about a vertical axis.
A damper for reducing pulsation of a fluid flow, comprising: a casing; an elastic membrane accommodated in the casing; an outer chamber arranged between the elastic membrane and the casing; an inner chamber defined inside the elastic membrane; and an inlet port and an outlet port coupled to the inner chamber, wherein the elastic membrane is a balloon having an opening, wherein the elastic membrane forms at least partially the walls of the inner chamber, and wherein the inlet port and the outlet port are arranged such that propagation of a pulsation of fluid in the inner chamber from the inlet port to the outlet port is damped by absorption at the membrane, characterized in that the inlet port and the outlet port are combined to a connection member comprising an inner tube and a coaxially arranged outer tube, the inner tube protrudes a longer distance into the balloon than the outer tube. a casing; an elastic membrane accommodated in the casing; an outer chamber arranged between the elastic membrane and the casing; an inner chamber defined inside the elastic membrane; and an inlet port and an outlet port coupled to the inner chamber, wherein the elastic membrane is a balloon having an opening, wherein the elastic membrane forms at least partially the walls of the inner chamber, and wherein the inlet port and the outlet port are arranged such that propagation of a pulsation of fluid in the inner chamber from the inlet port to the outlet port is damped by absorption at the membrane, characterized in that the inlet port and the outlet port are combined to a connection member comprising an inner tube and a coaxially arranged outer tube, the inner tube protrudes a longer distance into the balloon than the outer tube.
A plasma drilling machine comprising: a cutting head (110; 210; 310; 500; 600; 700); a plurality of plasma torches (330; 510; 710) on the cutting head; a plurality of nozzles on the cutting head to provide a stream to cool an area while the plasma torches are active; one or more vacuum inlets to vacuum up spoils generated by the cutting head; and a tube (160, 290) to combine vacuum streams from the vacuum inlets to create a stream of spoils. a cutting head (110; 210; 310; 500; 600; 700); a plurality of plasma torches (330; 510; 710) on the cutting head; a plurality of nozzles on the cutting head to provide a stream to cool an area while the plasma torches are active; one or more vacuum inlets to vacuum up spoils generated by the cutting head; and a tube (160, 290) to combine vacuum streams from the vacuum inlets to create a stream of spoils.
Hybrid drive of a motor vehicle which comprises an automated change-speed gearbox (2.1, 2.2) with two input shafts (GE1, GE2) and a common output shaft, the first input shaft of which can be connected via a separating clutch to the drive shaft of an internal combustion engine and can be drive-connected to the output shaft via a first group of selectively shiftable gear sets (G1, G3, G5, R; Z3), the second input shaft of which is drive-connected to the rotor of an electric machine which can be operated as a motor and as a generator, and can be drive-connected to the output shaft via a second group of selectively shiftable gear sets (G2, G4; Z1, Z2), and the input shafts (GE1, GE2) of which can be coupled to one another via a coupling shift element which can be engaged and disengaged, characterized in that a second electric machine which can be operated as a motor and as a generator is provided, the rotor of which electric machine is drive-connected to the first input shaft, the second electric machine being configured as a starter generator which is of less powerful configuration than the first electric machine and can be operated only briefly as a motor.
A clothes processing machine, comprising: a tub which accommodates clothes, and a box which is fluid-connected to the tub and from which a liquid in the box is capable of flowing into the tub under gravity, wherein the tub is capable of accommodating a liquid used for clothes processing, the box is in communication with ambient atmosphere, a first end of a water delivery pipeline is in communication with an external clean water source through a water valve, and a second end is in fluid communication with the tub, wherein the water delivery pipeline comprises a constricted section, in which section the water delivery pipeline has a flow cross-section gradually reduced along a water flow direction, one end of a ventilation pipeline is fluid-connected to the constricted section of the water delivery pipeline or fluid-connected next to a down stream of the constricted section, and the other end of the ventilation pipeline is fluid-connected to the box, characterized in that the tub is connected to a heat exchange chamber, and the second end of the water delivery pipeline is in communication with the heat exchange chamber, to provide water used for cleaning and/or heat exchange, and wherein the water valve either provides a water flow having a first flow rate that is relatively large or a water flow having a second flow rate that is relatively small; the second end of the water delivery pipeline is connected to a water division device; a first water division pipe and a second water division pipe are connected between the water division device and the heat exchange chamber; and the water division device is arranged to guide the water flow having the first flow rate to the first water division pipe, and guide the water flow having the second flow rate to the second water division pipe according to different flow speeds from the water delivery pipeline.
Method for determining optimal projection images of an object, particularly an asymmetrical object, the method comprising the following steps: a) generating a three-dimensional surface reconstruction of the object from two or more bi-dimensional images of the object which have been obtained from different perspectives; b) receiving from a user indications for locating a segment of interest on the 3D reconstruction; c) determining a plane containing optimal view directions in terms of foreshortening for this segment of interest, wherein step b) comprises receiving from the user the position of a point or area of interest in at least one of the bi-dimensional images used for the three-dimensional reconstruction of the object as in step a), the method further comprising the steps of d) determining, on the three-dimensional surface, a 3D equivalent point of the point or area of interest; characterised in that the method further comprises the step of e) selecting among the optimal view directions as determined in step c) those going through the 3D equivalent point as defined in step d). a) generating a three-dimensional surface reconstruction of the object from two or more bi-dimensional images of the object which have been obtained from different perspectives; b) receiving from a user indications for locating a segment of interest on the 3D reconstruction; c) determining a plane containing optimal view directions in terms of foreshortening for this segment of interest, wherein step b) comprises receiving from the user the position of a point or area of interest in at least one of the bi-dimensional images used for the three-dimensional reconstruction of the object as in step a), the method further comprising the steps of d) determining, on the three-dimensional surface, a 3D equivalent point of the point or area of interest; characterised in that the method further comprises the step of e) selecting among the optimal view directions as determined in step c) those going through the 3D equivalent point as defined in step d).
A drag braking system for a model vehicle comprising: a transmitter comprising a throttle input; a motor control device (112, 112A, 112B) comprising: a user activated operation set selector; and a memory for storing at least two braking profiles, characterised in that: a first or second of the at least two braking profiles is selectable via operation of the operation set selector; and a motor of the model vehicle is configured to apply a braking force when the throttle input is in a neutral position according to the first or second of the at least two braking profiles selected. a transmitter comprising a throttle input; a motor control device (112, 112A, 112B) comprising: a user activated operation set selector; and a memory for storing at least two braking profiles, a user activated operation set selector; and a memory for storing at least two braking profiles, characterised in that: a first or second of the at least two braking profiles is selectable via operation of the operation set selector; and a motor of the model vehicle is configured to apply a braking force when the throttle input is in a neutral position according to the first or second of the at least two braking profiles selected. a first or second of the at least two braking profiles is selectable via operation of the operation set selector; and a motor of the model vehicle is configured to apply a braking force when the throttle input is in a neutral position according to the first or second of the at least two braking profiles selected.
A refrigeration cycle device comprising: a casing that configures an outer contour of an outdoor machine, has a first chamber and a second chamber formed therewithin, and has formed an introduction hole for introducing outside air into the first chamber; a partition that partitions the interior of the casing so as to demarcate the first chamber and the second chamber; a refrigeration cycle circuit, of which at least a portion is disposed in the first chamber, and through which a combustible refrigerant circulates; a blower disposed in the second chamber that sends out the outside air introduced from the introduction hole through a blow-through hole and outside the casing from a blow-out opening formed in the second chamber; and a controller that includes a plurality of electronic components used to control the refrigeration cycle circuit and the blower, and an electronic component housing that houses the electronic components; wherein the electronic component housing is disposed in a top part inside the first chamber, and the introduction hole is formed at a position lower than the electronic component housing; a height of a top edge of the introduction hole is the same height as a height of a bottom edge of the electronic component housing; characterized in that the partition has formed in a bottom part thereof the blow-through hole connecting from the first chamber to the second chamber; wherein a tubular bell mouth is attached on an inner side of the blow-out opening, and the blow-through hole is covered by the bell mouth so as to not be exposed from the blow-out opening. a casing that configures an outer contour of an outdoor machine, has a first chamber and a second chamber formed therewithin, and has formed an introduction hole for introducing outside air into the first chamber; a partition that partitions the interior of the casing so as to demarcate the first chamber and the second chamber; a refrigeration cycle circuit, of which at least a portion is disposed in the first chamber, and through which a combustible refrigerant circulates; a blower disposed in the second chamber that sends out the outside air introduced from the introduction hole through a blow-through hole and outside the casing from a blow-out opening formed in the second chamber; and a controller that includes a plurality of electronic components used to control the refrigeration cycle circuit and the blower, and an electronic component housing that houses the electronic components; wherein the electronic component housing is disposed in a top part inside the first chamber, and the introduction hole is formed at a position lower than the electronic component housing; a height of a top edge of the introduction hole is the same height as a height of a bottom edge of the electronic component housing; characterized in that the partition has formed in a bottom part thereof the blow-through hole connecting from the first chamber to the second chamber; wherein a tubular bell mouth is attached on an inner side of the blow-out opening, and the blow-through hole is covered by the bell mouth so as to not be exposed from the blow-out opening.
A method for producing an ultrafine-crystalline alloy ribbon having a structure in which ultrafine crystal grains having an average grain size of 1 to 30 nm are dispersed at a ratio of 5 to 30% by volume in an amorphous matrix, characterized by comprising the steps of ejecting an alloy melt onto a rotating cooling roll to quench it; forming a ribbon having a structure, in which ultrafine crystal grains having an average grain size of 0 to 20 nm are dispersed at a ratio of 0 to 4% by volume in an amorphous matrix, and/or having a thickness of 2 μm or more smaller than a target thickness after the start of winding, thus having such a toughness that is not fractured when bent to a bending radius of 1 mm or less, before the start of winding around a reel; and changing the forming conditions of said ribbon after the start of winding around a reel, to obtain a structure in which ultrafine crystal grains having an average grain size of 1 to 30 nm are dispersed at a ratio of 5 to 30% by volume in an amorphous matrix, by making the amount of a paddle on said cooling roll larger after the start of winding than before the start of winding, and/or by making a temperature of stripping said ultrafine-crystalline alloy ribbon from said cooling roll higher after the start of winding than before the start of winding, wherein said alloy melt has a composition represented by the general formula of Fe 100-x-y-z A x B y X z, wherein A is Cu and/or Au, X is at least one element selected from the group consisting of Si, S, C, P, Al, Ge, Ga and Be, and x, y and z are numbers (atomic %) meeting the conditions of 0 < x ≤ 5, 4 ≤ y ≤ 22, 0 ≤ z ≤ 10, and x + y + z ≤ 25.