mhurhangee/ep-ind-claims huggingface dataset:
A cooling method for cooling a medium-voltage, high-current installation for handling and transferring electricity, the installation including current-transporting and current-breaking gear placed in sheath(s) (15, 25); the method being characterized in that it consists in cooling the walls (12, 22, 18, 26) of the sheath(s) (15, 25) with cooling elements having a phase-change heat-transfer liquid directly situated in contact with the walls (12, 22, 18, 26) of the sheath(s) (15, 25).
An electrode assembly, comprising: an electrically conductive layer that forms an electrode portion of the electrode assembly, the electrically conductive layer having a first surface to be placed adjacent a person's skin; a first impedance reduction system configured to dispense a first amount of a first electrically conductive gel onto the first surface of the electrically conductive layer in response to a first electrical activation signal; and a second impedance reduction system, independently operable of the first impedance reduction system, configured to dispense a second amount of a second electrically conductive gel onto the first surface of the electrically conductive layer in response to a second electrical activation signal that is distinct from the first electrical activation signal; wherein the second electrically conductive gel has at least one property different from the first electrically conductive gel. an electrically conductive layer that forms an electrode portion of the electrode assembly, the electrically conductive layer having a first surface to be placed adjacent a person's skin; a first impedance reduction system configured to dispense a first amount of a first electrically conductive gel onto the first surface of the electrically conductive layer in response to a first electrical activation signal; and a second impedance reduction system, independently operable of the first impedance reduction system, configured to dispense a second amount of a second electrically conductive gel onto the first surface of the electrically conductive layer in response to a second electrical activation signal that is distinct from the first electrical activation signal; wherein the second electrically conductive gel has at least one property different from the first electrically conductive gel.
A method of building vehicle data in a tire pressure diagnosis tool, comprising: providing a tire pressure diagnosis tool comprising a micro-control unit, said MCU connecting with an operating interface, a wireless signal transmitting receiving module, and a memory, with the tire pressure diagnosis tool being in communication with a tire pressure sensor through the wireless signal transmitting and receiving module; the method comprises the steps of: step A: building owner information in the tire pressure diagnosis tool, the owner information being for identifying an owner's identity; step B: entering a vehicle identification number, the vehicle identification number being a 17-character string of mixed numerals and alphabets; step C: entering a tire identification number descriptive of dimensions and a manufacturing date of a tire, the tire identification number being entered by manual input, barcode scanning, or QR scanning or image recognition; step D: obtaining a tire pressure sensor identification number; and step E: obtaining a tire environment parameter value, with the tire environment parameter being temperature and pressure detected by the tire pressure sensor; wherein, upon completion of the steps, information obtained in each step is stored in the memory of the tire pressure diagnosis tool, and wherein in step D, when triggered once, all the tire pressure sensors respond. step A: building owner information in the tire pressure diagnosis tool, the owner information being for identifying an owner's identity; step B: entering a vehicle identification number, the vehicle identification number being a 17-character string of mixed numerals and alphabets; step C: entering a tire identification number descriptive of dimensions and a manufacturing date of a tire, the tire identification number being entered by manual input, barcode scanning, or QR scanning or image recognition; step D: obtaining a tire pressure sensor identification number; and step E: obtaining a tire environment parameter value, with the tire environment parameter being temperature and pressure detected by the tire pressure sensor; wherein, upon completion of the steps, information obtained in each step is stored in the memory of the tire pressure diagnosis tool, and wherein in step D, when triggered once, all the tire pressure sensors respond.
A dielectric resonator antenna DRA, (3500, 3600, 3700, 3800): comprising: an electrically conductive ground structure (3502, 3602,3702,3802); a plurality of volumes of dielectric materials (3504, 3604, 3704, 3804) disposed on the ground structure comprising N volumes, N being an integer equal to or greater than 3, disposed to form successive and sequential layered volumes V i, i being an integer from 1 to N, wherein volume V 1 forms an innermost first volume (3504.1, 3604.1, 3704.1, 3804.1,) wherein a successive volume V i+1 forms a layered shell disposed over and at least partially embedding volume V i, wherein volume V N at least partially embeds all volumes V 1 to V N-1; wherein a portion (3580, 3680, 3780, 3880, 3881, 3882) of the dielectric material of volume V N bifurcates at least a portion of volumes V 1 to V N-1 in a plane that is perpendicular to the ground structure; and a signal feed (3506, 3606, 3706, 3806) electromagnetically coupled to one or more of the plurality of volumes of dielectric materials. an electrically conductive ground structure (3502, 3602,3702,3802); a plurality of volumes of dielectric materials (3504, 3604, 3704, 3804) disposed on the ground structure comprising N volumes, N being an integer equal to or greater than 3, disposed to form successive and sequential layered volumes V i, i being an integer from 1 to N, wherein volume V 1 forms an innermost first volume (3504.1, 3604.1, 3704.1, 3804.1,) wherein a successive volume V i+1 forms a layered shell disposed over and at least partially embedding volume V i, wherein volume V N at least partially embeds all volumes V 1 to V N-1; wherein a portion (3580, 3680, 3780, 3880, 3881, 3882) of the dielectric material of volume V N bifurcates at least a portion of volumes V 1 to V N-1 in a plane that is perpendicular to the ground structure; and a signal feed (3506, 3606, 3706, 3806) electromagnetically coupled to one or more of the plurality of volumes of dielectric materials.
A ski boot, comprising: a shell that includes: a leg portion that has a shin region and a highback leg support region that acts to firmly support a portion of a leg of a person when the person is using the ski boot; a foot portion for receiving a foot of the person when the person is using the ski boot, said foot portion having an instep region and an instep transition region providing a directional transition between said instep region and said shin region of said leg portion, said foot portion including a toe end, a heel end and a sole portion, said sole portion extending from said toe end to said heel end, said foot portion having a lateral portion and a medial portion and being substantially rigid in a direction parallel to a longitudinal vertical plane that bisects said foot portion into said lateral portion and said medial portion; a heel pocket for inhibiting movement of a heel of the person in a direction away from said sole portion when the person is using the ski boot; a heel track extending between said highback support region and said heel pocket and forming a concave space interior to said shell, said heel track receiving the heel of the person to accommodate the substantial rigidity of said foot portion in the direction parallel to the longitudinal vertical plane when the person is inserting the foot into the ski boot; and an outsole that includes features for securing the ski boot to a ski binding. a leg portion that has a shin region and a highback leg support region that acts to firmly support a portion of a leg of a person when the person is using the ski boot; a foot portion for receiving a foot of the person when the person is using the ski boot, said foot portion having an instep region and an instep transition region providing a directional transition between said instep region and said shin region of said leg portion, said foot portion including a toe end, a heel end and a sole portion, said sole portion extending from said toe end to said heel end, said foot portion having a lateral portion and a medial portion and being substantially rigid in a direction parallel to a longitudinal vertical plane that bisects said foot portion into said lateral portion and said medial portion; a heel pocket for inhibiting movement of a heel of the person in a direction away from said sole portion when the person is using the ski boot; a heel track extending between said highback support region and said heel pocket and forming a concave space interior to said shell, said heel track receiving the heel of the person to accommodate the substantial rigidity of said foot portion in the direction parallel to the longitudinal vertical plane when the person is inserting the foot into the ski boot; and an outsole that includes features for securing the ski boot to a ski binding.
A power-supply device comprising: a power-supply section; a timing part configured to check an operation time of the power-supply section; a computing part configured to accumulate the operation time checked by the timing part to calculate an accumulated operation time, and to compute a remaining lifespan time based on information from the power-supply section; and a display section configured to display information about a lifespan of the power-supply section, wherein the display section is configured to enable display of the accumulated operation time and the remaining lifespan time as the information about the lifespan of the power-supply section, the power-supply device being characterized in further comprising: an input part configured to input a switching signal for switching the information displayed by the display section; and communication part configured to perform communication with an external device, wherein the display section is configured to switch display between the accumulated operation time and the remaining lifespan time based on the switching signal input to the input part as the information about the lifespan of the power-supply section, wherein the input part is configured to input a received signal of the communication part as the switching signal. a power-supply section; a timing part configured to check an operation time of the power-supply section; a computing part configured to accumulate the operation time checked by the timing part to calculate an accumulated operation time, and to compute a remaining lifespan time based on information from the power-supply section; and a display section configured to display information about a lifespan of the power-supply section, wherein the display section is configured to enable display of the accumulated operation time and the remaining lifespan time as the information about the lifespan of the power-supply section, the power-supply device being characterized in further comprising: an input part configured to input a switching signal for switching the information displayed by the display section; and communication part configured to perform communication with an external device, wherein the display section is configured to switch display between the accumulated operation time and the remaining lifespan time based on the switching signal input to the input part as the information about the lifespan of the power-supply section, wherein the input part is configured to input a received signal of the communication part as the switching signal. an input part configured to input a switching signal for switching the information displayed by the display section; and communication part configured to perform communication with an external device, wherein the display section is configured to switch display between the accumulated operation time and the remaining lifespan time based on the switching signal input to the input part as the information about the lifespan of the power-supply section, wherein the input part is configured to input a received signal of the communication part as the switching signal.
An electronic hoop lock for a two-wheeler, comprising a lock body and a closing hoop which is movable relative to the lock body between a closed position and an open position, wherein the lock body has a housing, a locking mechanism, by means of which the closing hoop can be locked to the lock body in the closed position, and an electrical unit, wherein a shaped part is inserted in a form-fitted manner into the housing and has a plurality of receivers (66, 68, 70) in which a plurality of components (46, 48, 50) of the electrical unit are received in a form-fitted manner, characterized in that the shaped part is elastic.
A computer-implemented process performed by a processor in a computer, comprising: receiving an indication of objects to be shared into memory; generating a bundle object, said bundle object having permissions associated with it, for each entity having access to the bundle; storing identifiers of the shared objects associated with the bundle object; storing permissions for accessing the shared objects with the bundle object, said shared objects inheriting the permissions associated with the bundle; wherein each of the shared objects stores an identifier indicating the bundle(s) in which it is included; and wherein bundles that include a shared object are identified based on a received identifier; and in response to an entity attempting to access an object, determining whether the permissions associated with that object permit the entity to access the object, and, if the permissions do not permit the entity to access the object, determining whether the object is in any bundle, wherein the bundle permissions are accessed if the object is in a bundle, and wherein the access is allowed if the bundle permissions allow the entity to access the object. receiving an indication of objects to be shared into memory; generating a bundle object, said bundle object having permissions associated with it, for each entity having access to the bundle; storing identifiers of the shared objects associated with the bundle object; storing permissions for accessing the shared objects with the bundle object, said shared objects inheriting the permissions associated with the bundle; wherein each of the shared objects stores an identifier indicating the bundle(s) in which it is included; and wherein bundles that include a shared object are identified based on a received identifier; and in response to an entity attempting to access an object, determining whether the permissions associated with that object permit the entity to access the object, and, if the permissions do not permit the entity to access the object, determining whether the object is in any bundle, wherein the bundle permissions are accessed if the object is in a bundle, and wherein the access is allowed if the bundle permissions allow the entity to access the object.
An electrode for plasma cutting torches which is formed from an electrode holder (7.1) and from an emission insert (7.2) which are connected to one another in a force-fitted and/or shape-matched manner, wherein the emission insert (7.2) has no inner bore or no continuous channel and has at least one first section (7.23) along its longitudinal axis, that is arranged between a second section (7.24) or the electrode holder (7.1) and a third section (7.22) or next to a fourth section (7.21) and has a reduced outer diameter on a rotationally symmetrical formation of the emission insert (7.2) or a reduced cross-sectional surface, with a non-rotationally symmetrical emission insert with respect to the electrode holder (7.1), the second section (7.24), the third section (7.22) and/or the fourth section (7.21), characterized in that the fourth section (7.21) adjoins the first section (7.23) with a reduced outer diameter or a reduced cross-sectional surface in the direction of a workpiece to be cut, with the fourth section (7.21) conically tapering in the direction of the workpiece; or with the third section (7.22) being arranged between the first section (7.23) with a reduced outer diameter or a reduced cross-sectional surface and the conically tapering fourth section (7.21), with the third section (7.22) having a constant outer diameter or a constant cross-sectional surface.
A press fabric for a pulp machine having a multilayer structure obtained by weaving warps, each of which is selected from a group consisting of a monofilament, a monofilament twisted yarn, and a twisted yarn having a monofilament as a core, with, as wefts, firstly monofilaments and secondly yarns obtained by bundling raw yarns of a small diameter and forming a fine water-sucking space therebetween, wherein at least upper surface side wefts and lower surface side wefts are arranged vertically as the wefts, characterized in that two adjacent weft monofilaments are alternately arranged with either one of: a weft yarn forming a fine water-sucking space; and two adjacent weft yarns forming a fine water-sucking space, as the lower surface side wefts.
Device for detecting an analyte directly or indirectly bound to one or more magnetic particle labels characterized by A) at least one fluidic channel structure for transporting and processing magnetic particles, and B) an integrated magnetic sensor element, wherein the magnetic sensor element is part of at least one channel wall, the fluid channel structure geometry is optimized for fast and uniform binding of magnetic particle/analyte complexes on the sensor element surface, by leading a fluid flow over the sensor element surface, wherein the magnetic particle/analyte complexes are guided onto the surface of the magnetic sensor element by E1) an alteration of the fluidic flow profile such as by a gradual reduction of channel height (fig 4a.1) over the sensor or E2) by inertial forces generated by guiding the flow in a curved channel (fig 4b.3) wherein the sensor element is positioned in a manner that it can be targeted by the flow, e.g. in the outer channel wall in the curve and the magnetic sensor element is a GMR, TMR, CMR, EMR or Hall-sensor. A) at least one fluidic channel structure for transporting and processing magnetic particles, and B) an integrated magnetic sensor element, wherein the magnetic sensor element is part of at least one channel wall, the fluid channel structure geometry is optimized for fast and uniform binding of magnetic particle/analyte complexes on the sensor element surface, by leading a fluid flow over the sensor element surface, wherein the magnetic particle/analyte complexes are guided onto the surface of the magnetic sensor element E1) an alteration of the fluidic flow profile such as by a gradual reduction of channel height (fig 4a.1) over the sensor or E2) by inertial forces generated by guiding the flow in a curved channel (fig 4b.3) wherein the sensor element is positioned in a manner that it can be targeted by the flow, e.g. in the outer channel wall in the curve
An X-ray generation device that emits X-rays due to an electron beam emitted from a cathode arriving at a target, comprising: a first high voltage power supply supplying a first high voltage and having a first AC voltage generation unit and a first voltage multiplying rectifier circuit; a second high voltage power supply supplying a second high voltage and having a second AC voltage generation unit and a second voltage multiplying rectifier circuit; wherein the first high voltage power supply and the second high voltage power supplies are connected in series between the cathode and the target, and both of which accelerate the electron beam; characterized by a first intermediate electrode (24, 241) that is disposed between the cathode and the target; wherein the first high voltage power supply supplies the first high voltage between the cathode and the first intermediate electrode; the second high voltage power supply supplies the second high voltage between the first intermediate electrode (24, 241) and the target; and a phase setting unit that adjusts the phase difference of the AC voltages generated respectively by the first AC voltage generation unit and by the second AC voltage generation unit by delaying the phase of at least one or the other of the first AC power supply generation unit and the second AC power supply generation unit. a first high voltage power supply supplying a first high voltage and having a first AC voltage generation unit and a first voltage multiplying rectifier circuit; a second high voltage power supply supplying a second high voltage and having a second AC voltage generation unit and a second voltage multiplying rectifier circuit; wherein the first high voltage power supply and the second high voltage power supplies are connected in series between the cathode and the target, and both of which accelerate the electron beam; characterized by a first intermediate electrode (24, 241) that is disposed between the cathode and the target; wherein the first high voltage power supply supplies the first high voltage between the cathode and the first intermediate electrode; the second high voltage power supply supplies the second high voltage between the first intermediate electrode (24, 241) and the target; and a phase setting unit that adjusts the phase difference of the AC voltages generated respectively by the first AC voltage generation unit and by the second AC voltage generation unit by delaying the phase of at least one or the other of the first AC power supply generation unit and the second AC power supply generation unit.
A wireless light controller system, comprising: a set of lights on a power line, each light in the set of lights being individually controllable via power line communication over the power line; a wireless device configured to transmit wireless communication, wherein the wireless communication comprises instructions to control one or more of the set of lights; and a wireless light controller configured to receive the wireless communication and transmit the instructions to control the one or more lights in the set of lights over the power line to the one or more lights, characterised in that the wireless light controller is arranged to receive a plurality of instructions for lights in the set of lights, to group the plurality of instructions together and to transmit the grouped instructions to the set of lights via power line communication over the power line. a set of lights on a power line, each light in the set of lights being individually controllable via power line communication over the power line; a wireless device configured to transmit wireless communication, wherein the wireless communication comprises instructions to control one or more of the set of lights; and a wireless light controller configured to receive the wireless communication and transmit the instructions to control the one or more lights in the set of lights over the power line to the one or more lights, characterised in that the wireless light controller is arranged to receive a plurality of instructions for lights in the set of lights, to group the plurality of instructions together and to transmit the grouped instructions to the set of lights via power line communication over the power line.