mhurhangee/ep-ind-claims huggingface dataset:
A patch for personal cosmetic skin treatment, said patch comprising: a substrate with a plurality of electrodes operative to couple RF voltage to skin when the patch is applied to a treated skin segment; and wherein the electrodes are coated by an electrically conductive adhesive, said adhesive enabling firm electrical and mechanical coupling of the patch and the electrodes to the treated skin segment; characterized in having an RF voltage supply that is configured to supply RF voltage to a predetermined pairs of electrodes to generate a linear sweeping heating wave effect and wherein heating at least a segment of skin between at least a first pair of electrodes. a substrate with a plurality of electrodes operative to couple RF voltage to skin when the patch is applied to a treated skin segment; and wherein the electrodes are coated by an electrically conductive adhesive, said adhesive enabling firm electrical and mechanical coupling of the patch and the electrodes to the treated skin segment; characterized in having an RF voltage supply that is configured to supply RF voltage to a predetermined pairs of electrodes to generate a linear sweeping heating wave effect and wherein heating at least a segment of skin between at least a first pair of electrodes.
Agricultural work vehicle in the form of an agricultural tractor, comprising: a lighting device which is assigned to a three-point linkage which is equipped with coupling points (30, 32) and is intended for attaching an implement to the work vehicle and whose position can be adjusted by an actuator (26, 28) which is activated by extraneous force, and a control device which is connected to the lighting device and to which information acquired by means of a sensor (86, 88) and relating to the position of the three-point linkage and/or information relating to a control signal which can be input with an operator control input device (54, 76, 78) and is intended for actuating the actuator (26, 28) can be fed, characterized in that the control device is configured to switch on the lighting device on the basis of an adjustment of the three-point linkage which is detected on the basis of the signal of the sensor (86, 88) and/or of the control signal, wherein the lighting device is configured in such a way that a light cone which is emitted thereby when the lighting device is switched on illuminates the three-point linkage and its coupling points (30, 32), and wherein the control device is configured to leave the lighting device switched on still for a predefined period after the detected end of the adjustment of the three-point linkage and then to switch off the lighting device. a lighting device which is assigned to a three-point linkage which is equipped with coupling points (30, 32) and is intended for attaching an implement to the work vehicle and whose position can be adjusted by an actuator (26, 28) which is activated by extraneous force, and a control device which is connected to the lighting device and to which information acquired by means of a sensor (86, 88) and relating to the position of the three-point linkage and/or information relating to a control signal which can be input with an operator control input device (54, 76, 78) and is intended for actuating the actuator (26, 28) can be fed, characterized in that the control device is configured to switch on the lighting device on the basis of an adjustment of the three-point linkage which is detected on the basis of the signal of the sensor (86, 88) and/or of the control signal, wherein the lighting device is configured in such a way that a light cone which is emitted thereby when the lighting device is switched on illuminates the three-point linkage and its coupling points (30, 32), and wherein the control device is configured to leave the lighting device switched on still for a predefined period after the detected end of the adjustment of the three-point linkage and then to switch off the lighting device.
A securing device for securing openings or the like, including at least one movable element, which is connected to a lock casing, which in turn is provided with a housing and rod-shaped locking elements guided therein, characterized in that the lock casing includes a base body for different embodiments, which is adapted to the housing and cooperates with a driving element (12, 22) with a toothing provided in the housing and with a transmission element (13, 21) disposed at one end of the toothing, wherein a round connecting element simultaneously passes through the driving element (12, 22) and the transmission element (13, 21) in such a way that the connecting element is entrained into a rotational movement during a translational movement of the driving element (12, 22) with the transmission element (13, 21), and in that guiding bushings are provided at the end-side of the connecting element, into which bushings the locking elements (14, 90) plunge, such that they are guided in terminal parts in such a way that a rotational movement with their simultaneous exiting from the terminal parts is caused, respectively in that a driving element is in connection with a hook locking in such a way that a locking hook is driven and pivoted by means of the rotation of the connecting element.
A vehicle front passenger seat airbag device, comprising: a plurality of inflators (50, 51) each comprising a squib (50A, 51A, 50B); an airbag including: a front passenger seat airbag that is inflated and deployed on receipt of gas supplied from the plurality of the inflators (50, 51), and that is inflated and deployed at a vehicle front side of an occupant seated in a front passenger seat, and a center airbag that is inflated and deployed at a vehicle width direction center side of the front passenger seat airbag, and that includes a vehicle-rear-side end that projects out further toward a vehicle rear side when inflated and deployed than a rear end of the front passenger seat airbag when inflated and deployed; and a controller; characterized in that the controller is configured to control timings for igniting each squib (50A, 51A, 50B) included in the plurality of inflators (50, 51) such that a peak internal pressure of the airbag inflated and deployed when an oblique collision or small overlap collision has occurred is delayed, compared to a peak internal pressure of the airbag inflated and deployed when a head-on collision has occurred. a plurality of inflators (50, 51) each comprising a squib (50A, 51A, 50B); an airbag including: a front passenger seat airbag that is inflated and deployed on receipt of gas supplied from the plurality of the inflators (50, 51), and that is inflated and deployed at a vehicle front side of an occupant seated in a front passenger seat, and a center airbag that is inflated and deployed at a vehicle width direction center side of the front passenger seat airbag, and that includes a vehicle-rear-side end that projects out further toward a vehicle rear side when inflated and deployed than a rear end of the front passenger seat airbag when inflated and deployed; and a front passenger seat airbag that is inflated and deployed on receipt of gas supplied from the plurality of the inflators (50, 51), and that is inflated and deployed at a vehicle front side of an occupant seated in a front passenger seat, and a center airbag that is inflated and deployed at a vehicle width direction center side of the front passenger seat airbag, and that includes a vehicle-rear-side end that projects out further toward a vehicle rear side when inflated and deployed than a rear end of the front passenger seat airbag when inflated and deployed; and a controller; characterized in that the controller is configured to control timings for igniting each squib (50A, 51A, 50B) included in the plurality of inflators (50, 51) such that a peak internal pressure of the airbag inflated and deployed when an oblique collision or small overlap collision has occurred is delayed, compared to a peak internal pressure of the airbag inflated and deployed when a head-on collision has occurred.
A fuel cell system comprising: a fuel cell that generates electricity using a fuel gas and an oxidant gas; a fuel gas supply path through which a fuel gas to be supplied to an anode of the fuel cell flows; a recycle gas path through which an anode off-gas emitted from the anode of the fuel cell is returned to the fuel gas supply path; a water reservoir that holds water separated from the anode off-gas flowing through the recycle gas path; a drainage path through which water stored in the water reservoir is drained; a valve provided on the drainage path; and characterized in that a controller that determines a length of time for which the valve continues to be opened for draining the water stored in the water reservoir (i) on the basis of a history of a flow rate of the anode off-gas, and (ii) on the basis of any one of a history of an amount of electricity generated by the fuel cell, a history of a temperature of the anode off-gas, a history of an amount of water vapor that is contained in the anode off-gas, and a pressure of the anode off-gas at a time of opening of the valve. a fuel cell that generates electricity using a fuel gas and an oxidant gas; a fuel gas supply path through which a fuel gas to be supplied to an anode of the fuel cell flows; a recycle gas path through which an anode off-gas emitted from the anode of the fuel cell is returned to the fuel gas supply path; a water reservoir that holds water separated from the anode off-gas flowing through the recycle gas path; a drainage path through which water stored in the water reservoir is drained; a valve provided on the drainage path; and characterized in that a controller that determines a length of time for which the valve continues to be opened for draining the water stored in the water reservoir (i) on the basis of a history of a flow rate of the anode off-gas, and (ii) on the basis of any one of a history of an amount of electricity generated by the fuel cell, a history of a temperature of the anode off-gas, a history of an amount of water vapor that is contained in the anode off-gas, and a pressure of the anode off-gas at a time of opening of the valve. (i) on the basis of a history of a flow rate of the anode off-gas, and (ii) on the basis of any one of a history of an amount of electricity generated by the fuel cell, a history of a temperature of the anode off-gas, a history of an amount of water vapor that is contained in the anode off-gas, and a pressure of the anode off-gas at a time of opening of the valve.
A method for producing a 3D item by means of fused deposition modelling, the method comprising a 3D printing stage, wherein the 3D printing stage comprises layer-wise depositing 3D printable material to provide the 3D item comprising 3D printed material on a receiver item, wherein: - during at least part of the 3D printing stage the 3D printable material comprises core material and 3D printable shell material; wherein the 3D item comprises a core-shell layer of the 3D printed material, wherein the core-shell layer comprises (i) a core comprising core material and (ii) a shell comprising 3D printed shell material; wherein the shell at least partly encloses the core; - the core material is one or more of (i) reflective, (ii) transmissive, (iii) absorbing, and (iv) luminescent for light having a wavelength in the visible wavelength range; - the 3D printable shell material is transmissive for the wavelength in the visible wavelength range; - the core-shell layer has a layer width and a layer height and a first aspect ratio AR 1, wherein ARi=W/H, wherein ARi>1; - the core-shell layer has a cross-sectional plane, wherein the cross-sectional plane comprises the layer width and the layer height, and the core has a core cross-section, wherein the core cross-section has a first dimension (A 1), which is the longest dimension of the core cross-section, and a second dimension (A 2), perpendicular to the first dimension (A 1), providing a second aspect ratio AR 2, wherein AR 2 =A 1 /A 2, wherein 2≤AR 2 ≤10,000; and wherein AR 2 /AR 1 ≥1.5, wherein the core comprises two or more strip-like elements, wherein each of the two or more strip-like elements has an element length (L E) individually selected from the range of at least the layer width, wherein L E ≥3*A 1, and wherein the spacing distance between two neighboring strip-like elements S≤10*L E. - during at least part of the 3D printing stage the 3D printable material comprises core material and 3D printable shell material; wherein the 3D item comprises a core-shell layer of the 3D printed material, wherein the core-shell layer comprises (i) a core comprising core material and (ii) a shell comprising 3D printed shell material; wherein the shell at least partly encloses the core; - the core material is one or more of (i) reflective, (ii) transmissive, (iii) absorbing, and (iv) luminescent for light having a wavelength in the visible wavelength range; - the 3D printable shell material is transmissive for the wavelength in the visible wavelength range; - the core-shell layer has a layer width and a layer height and a first aspect ratio AR 1, wherein ARi=W/H, wherein ARi>1; - the core-shell layer has a cross-sectional plane, wherein the cross-sectional plane comprises the layer width and the layer height, and the core has a core cross-section, wherein the core cross-section has a first dimension (A 1), which is the longest dimension of the core cross-section, and a second dimension (A 2), perpendicular to the first dimension (A 1), providing a second aspect ratio AR 2, wherein AR 2 =A 1 /A 2, wherein 2≤AR 2 ≤10,000; and wherein AR 2 /AR 1 ≥1.5,
A burring processing method of a sheet-like member, comprising: a punching process of performing punching processing of the sheet-like member; a hole expansion process of performing hole expansion processing of a punched hole formed by the punching process while fixing the sheet-like member to a die by a holder; a re-punching process of performing punching processing again on a portion surrounding the punched hole expanded by force in the hole expansion process; and a burring process of pushing a portion surrounding a re-punched hole that is a punched hole formed by the re-punching process and forming a vertical wall. a punching process of performing punching processing of the sheet-like member; a hole expansion process of performing hole expansion processing of a punched hole formed by the punching process while fixing the sheet-like member to a die by a holder; a re-punching process of performing punching processing again on a portion surrounding the punched hole expanded by force in the hole expansion process; and a burring process of pushing a portion surrounding a re-punched hole that is a punched hole formed by the re-punching process and forming a vertical wall.
A method performed by an electrostatic discharge, ESD, protection circuit (302 through 602), which comprises a silicon controlled rectifier, SCR,, wherein the SCR includes a PNP transistor coupled to an NPN transistor such that a collector of the PNP transistor is connected to a base of the NPN transistor, a collector of the NPN transistor is connected to a base of the PNP transistor, an emitter of the PNP transistor functions as an anode of the SCR, and an emitter of the NPN transistor functions as a cathode of the SCR, for redirecting an ESD current from a pad, characterized by: coupling the anode of the SCR to the pad; coupling a series of at least one triggering PN junction diode in a forward conduction direction from the anode of the SCR to an NPN trigger gate of the SCR, including coupling the series of at least one triggering PN junction diode directly to the anode of the SCR and coupling the series of at least one triggering PN junction diode directly to the NPN trigger gate, wherein the NPN trigger gate is coupled to the base of the NPN transistor; triggering the SCR to turn on, wherein the triggering includes applying a triggering voltage across a series combination of the pad, the series of at least one triggering PN junction diode, the NPN trigger gate of the SCR, and the cathode of the SCR; and shunting the ESD current from the pad through the anode of the SCR in response to the triggering, whereby the ESD current flows from the anode of the SCR to the cathode of the SCR. coupling the anode of the SCR to the pad; coupling a series of at least one triggering PN junction diode in a forward conduction direction from the anode of the SCR to an NPN trigger gate of the SCR, including coupling the series of at least one triggering PN junction diode directly to the anode of the SCR and coupling the series of at least one triggering PN junction diode directly to the NPN trigger gate, wherein the NPN trigger gate is coupled to the base of the NPN transistor; triggering the SCR to turn on, wherein the triggering includes applying a triggering voltage across a series combination of the pad, the series of at least one triggering PN junction diode, the NPN trigger gate of the SCR, and the cathode of the SCR; and shunting the ESD current from the pad through the anode of the SCR in response to the triggering, whereby the ESD current flows from the anode of the SCR to the cathode of the SCR.
Device for joining sheet metal shells (12, 13) to a housing of a workpiece by means of folds at the edges of the sheet metal shells (12, 13), the device comprising a tool with a stationary tool lower part and a tool upper part movable towards the former, wherein a workpiece receptacle (7, 47, 57) is provided on the tool lower part and wherein a displaceably mounted workholder (4, 44, 54, 64) of the workpiece receptacle (7, 47, 57) is arranged opposite and wherein a device having inclined surfaces is provided for preparing the sections to be folded at the edges of the sheet metal shells (12, 13), characterised in that the workpiece receptacle (7, 47, 57) is displaceable perpendicular to the tool lower part and has at its upper end a recess (14, 42, 52), in which the workpiece is accommodated, and in that furthermore a device for supporting the edges of the sheet metal shells (12, 13) is provided on one side of a joining plane and a device for bending (3, 3*, 43, 43*, 53, 53*) is provided on the other side.
Surgical handpiece (100; 200; 300; 400; 500; 600; 700; 800) for driving a surgical tool, with a housing (102; 202; 302; 402; 502; 602; 702; 802), in which there are arranged a drive (106; 206; 306; 406; 506; 606; 706; 806) in the form of a compressed air motor (108; 208; 308; 408; 508; 608; 708; 808) and at least one bearing or gear part (118; 218; 318; 418; 518; 618; 718; 818) cooperating with the drive (106; 206; 306; 406; 506; 606; 706; 806) on the output side, which handpiece (100; 200; 300; 400; 500; 600; 700; 800) comprises at least one lubricant spray connection (148, 150; 248, 250; 348; 448, 450; 548, 550; 648, 650; 748, 750; 848, 850) for coupling to a lubricant spray source and at least one lubricant spray connection conduit (278; 378; 478; 578; 678; 778; 878) for forming a fluidic connection between the at least one lubricant spray connection (248; 348; 448; 548; 648; 748; 850) and the at least one bearing or gear part (118; 218; 318; 418; 518; 618; 718; 818), which lubricant spray connection (148, 150; 248, 250; 348; 448, 450; 548, 550; 648, 650; 748, 750; 848, 850) is in fluidic connection with the at least one bearing or gear part (118; 218; 318; 418; 518; 618; 718; 818), wherein the at least one lubricant spray connection (150; 248, 250; 348; 448, 450; 548, 550; 648, 650; 748, 750; 848, 850) is arranged or configured on the proximal side of the drive (206; 306; 406; 506; 606; 706; 806), characterized in that the at least one lubricant spray connection conduit (278; 878) is arranged or configured laterally past the drive (206; 806).
An electromagnetic field analysis method for an anisotropic conductive material, wherein the electromagnetic field analysis method uses a finite-difference time-domain method, wherein an analysis grid having a first side and a second side that are orthogonal to each other is used to analyze an electromagnetic property of an anisotropic conductive material in which conductivity in a first direction is different from conductivity in a second direction, the electromagnetic property being a current density, wherein one or both of the first direction and the second direction are parallel to a direction different from either one of the first side and the second side of the analysis grid, and characterized in that one electromagnetic field component located on the first side and extending along the second side is calculated based on electromagnetic field components that are located on the second sides surrounding the one electromagnetic field component and that extend along the second sides, wherein the one electromagnetic field component is calculated as an average value of the electromagnetic field components.
A regenerated energy display device for a vehicle capable of collecting regenerated energy, the regenerated energy display device comprising: a display unit that is capable of displaying a momentary power (Ma) of the regenerated energy; and a control unit that is configured to control the display unit such that it is possible to maintain a state in which information that shows a maximum value of the momentary power of the regenerated energy is displayed, wherein the control unit has a peak-hold control mode for controlling the state in which the information that shows the maximum value of the momentary power is displayed and is configured to control the display unit such that the maximum value of the momentary power and the momentary power of the regenerated energy are capable of being displayed simultaneously. a display unit that is capable of displaying a momentary power (Ma) of the regenerated energy; and a control unit that is configured to control the display unit such that it is possible to maintain a state in which information that shows a maximum value of the momentary power of the regenerated energy is displayed, wherein the control unit has a peak-hold control mode for controlling the state in which the information that shows the maximum value of the momentary power is displayed and is configured to control the display unit such that the maximum value of the momentary power and the momentary power of the regenerated energy are capable of being displayed simultaneously.