mhurhangee/ep-ind-claims huggingface dataset:
A power receiving apparatus forming a pair with a power transmitting apparatus, said power-transmitting apparatus comprising a high-frequency voltage generator circuit, said high-frequency voltage generator circuit being configured to apply a frequency in the range of about 100 kHz to tens of MHz and being connected between a power transmitting apparatus side active electrode and a power transmitting apparatus side passive electrode, the power receiving apparatus comprising: a power receiving apparatus side active electrode that faces the power transmitting apparatus side active electrode in use; a power receiving apparatus side passive electrode that faces the power transmitting apparatus side passive electrode in use; a voltage step-down circuit that decreases a voltage generated between the power receiving apparatus side active electrode and the power receiving apparatus side passive electrode in use; and a load circuit that receives an output voltage of the voltage step-down circuit as a power supply voltage, characterized in that: the power receiving apparatus side active electrode that faces the power transmitting apparatus side active electrode in use and the power receiving apparatus side passive electrode that faces the power transmitting apparatus side passive electrode in use are not parallel with each other in terms of a positional relationship. a power receiving apparatus side active electrode that faces the power transmitting apparatus side active electrode in use; a power receiving apparatus side passive electrode that faces the power transmitting apparatus side passive electrode in use; a voltage step-down circuit that decreases a voltage generated between the power receiving apparatus side active electrode and the power receiving apparatus side passive electrode in use; and a load circuit that receives an output voltage of the voltage step-down circuit as a power supply voltage, characterized in that: the power receiving apparatus side active electrode that faces the power transmitting apparatus side active electrode in use and the power receiving apparatus side passive electrode that faces the power transmitting apparatus side passive electrode in use are not parallel with each other in terms of a positional relationship. the power receiving apparatus side active electrode that faces the power transmitting apparatus side active electrode in use and the power receiving apparatus side passive electrode that faces the power transmitting apparatus side passive electrode in use are not parallel with each other in terms of a positional relationship.
Method for producing a rotor for a reluctance motor, wherein - a number of rotor laminations, comprising magnetic fins arranged within an outer ring, which are separated from one another by non-magnetic arched hollows, are manufactured, - the rotor laminations are stacked one behind the other along an axis of rotation, - the outer rings of the individual rotor laminations are removed by turning and both ends of the arched hollows herewith open into the outer periphery of the rotor laminations, - the rotor laminations layered one above the other are pressed together and a liquid plastic is injected under pressure, - the hollows across the entire length of the rotor are filled with the liquid plastic so that all rotor laminations are connected to one another, wherein the plastic is solidified, - a form-fit connection with the plastic is produced via connecting elements which are embodied on the magnetic fins, - the connecting elements are embodied as bore holes in the fins, which are filled with the plastic. - a number of rotor laminations, comprising magnetic fins arranged within an outer ring, which are separated from one another by non-magnetic arched hollows, are manufactured, - the rotor laminations are stacked one behind the other along an axis of rotation, - the outer rings of the individual rotor laminations are removed by turning and both ends of the arched hollows herewith open into the outer periphery of the rotor laminations, - the rotor laminations layered one above the other are pressed together and a liquid plastic is injected under pressure, - the hollows across the entire length of the rotor are filled with the liquid plastic so that all rotor laminations are connected to one another, wherein the plastic is solidified, - a form-fit connection with the plastic is produced via connecting elements which are embodied on the magnetic fins, - the connecting elements are embodied as bore holes in the fins, which are filled with the plastic.
A polyamideimide copolymer, which is an imide of a polyamic acid resulting from copolymerizing an aromatic diamine monomer, an aromatic dianhydride monomer, and an aromatic dicarbonyl monomer, wherein the aromatic dicarbonyl monomer is contained in an amount of at least 60 mol% based on the total moles of the aromatic dianhydride monomer and the aromatic dicarbonyl monomer, and the aromatic dicarbonyl monomer consists of 10 to 40 mol% of isophthaloyl chloride and 60 to 90 mol% of terephthaloyl chloride.
A film capacitor, comprising: a body including a core body formed of an insulating material and a metalized film (3a, 3b) which is wound around the core body; and first and second terminal electrodes (6a, 6b) disposed on both end surfaces in an axial direction of the body, respectively, a cross section perpendicular to an axial direction of the core body having an oval outer periphery having a major axis and a minor axis, and an inner periphery defining a slit extending along the major axis, characterized in that the core body is configured so that a thickness in a direction of the major axis between the outer periphery and the slit is smaller than a thickness in a direction of the minor axis between the outer periphery and the slit. a body including a core body formed of an insulating material and a metalized film (3a, 3b) which is wound around the core body; and first and second terminal electrodes (6a, 6b) disposed on both end surfaces in an axial direction of the body, respectively, a cross section perpendicular to an axial direction of the core body having an oval outer periphery having a major axis and a minor axis, and an inner periphery defining a slit extending along the major axis, characterized in that the core body is configured so that a thickness in a direction of the major axis between the outer periphery and the slit is smaller than a thickness in a direction of the minor axis between the outer periphery and the slit.
Electrical protection component having a short-circuiting device having - a surge arrester having side electrodes (5, 7) arranged on an end side and a central electrode, - a thermal short-circuiting device, which comprises a clip, the first section of which is snapped onto the surge arrester and the second section of which has a short-circuiting link that extends between the side electrodes (5, 7) across the central electrode, wherein the short-circuiting link of the clip is spaced apart from at least one of the electrodes (3, 5, 7) by means of a fusible element and the short-circuiting link electrically conductively connects two of the electrodes (3, 5, 7) to one another when the fusible element melts, characterized in that the fusible element has a melting point of at least 300 degrees Celsius, and in that the fusible element is clamped between the surge arrester and the short-circuiting link. - a surge arrester having side electrodes (5, 7) arranged on an end side and a central electrode, - a thermal short-circuiting device, which comprises a clip, the first section of which is snapped onto the surge arrester and the second section of which has a short-circuiting link that extends between the side electrodes (5, 7) across the central electrode,
An ice melting device for a wind turbine blade, comprising: a first heating portion; a first electrode and a second electrode, wherein the first electrode and the second electrode are arranged at two ends of the first heating portion in a length direction, respectively; a connecting conductor, wherein the connection conductor extends in the length direction, a first end of the connecting conductor is connected to the second electrode, and a second end of the connecting conductor and the first electrode are located at a same side; and the first heating portion comprises a glass fiber cloth and carbon fiber strands, and the carbon fiber strands are sewn on the glass fiber cloth or the carbon fiber strands are interwoven with glass fibers of the glass fiber cloth, to be integrated with the glass fiber cloth, and the carbon fiber strands are conductively connected to the first electrode and the second electrode; characterized in that, the connecting conductor is a current-conducting sheet, the connecting conductor is sewn on the glass fiber cloth or arranged to run through the glass fiber cloth, and the connecting conductor is insulated from the first electrode and the carbon fiber strands. a first heating portion; a first electrode and a second electrode, wherein the first electrode and the second electrode are arranged at two ends of the first heating portion in a length direction, respectively; a connecting conductor, wherein the connection conductor extends in the length direction, a first end of the connecting conductor is connected to the second electrode, and a second end of the connecting conductor and the first electrode are located at a same side; and the first heating portion comprises a glass fiber cloth and carbon fiber strands, and the carbon fiber strands are sewn on the glass fiber cloth or the carbon fiber strands are interwoven with glass fibers of the glass fiber cloth, to be integrated with the glass fiber cloth, and the carbon fiber strands are conductively connected to the first electrode and the second electrode; characterized in that, the connecting conductor is a current-conducting sheet, the connecting conductor is sewn on the glass fiber cloth or arranged to run through the glass fiber cloth, and the connecting conductor is insulated from the first electrode and the carbon fiber strands.
Process for producing a composition comprising at least one surface-modified silica, characterized in that a) a hydrophilic silica b) is first brought into contact with from 5 to 40 parts by weight per 100 parts by weight of hydrophilic silica of an α,ω-hydroxy-terminated oligodimethylsiloxane with an average molar mass of from 166 to 800 g/mol, where the contact takes place at temperatures of from - 10°C to 50°C, and c) then allowing the resultant reaction mixture to stand for at least 3 days at temperatures of from -10°C to 50°C. a) a hydrophilic silica b) is first brought into contact with from 5 to 40 parts by weight per 100 parts by weight of hydrophilic silica of an α,ω-hydroxy-terminated oligodimethylsiloxane with an average molar mass of from 166 to 800 g/mol, where the contact takes place at temperatures of from - 10°C to 50°C, and c) then allowing the resultant reaction mixture to stand for at least 3 days at temperatures of from -10°C to 50°C.
Pneumatic vehicle tyre with a maximum nominal tyre cross-sectional height of 100 mm, comprising a tread, a ply structure and a radial carcass, which, from axially inside to axially outside, extends around bead cores in bead regions and is made to extend back under the ply structure, and also with sidewall regions, which are formed by three rubber components, a wing rubber (9, 9', 9'', 9'''), which extends from laterally of the tread in the direction of the bead region, a sidewall rubber (10, 10', 10'', 10''') and a rim protection rubber (11, 11', 11'', 11'''), which extends from the bead region in the direction of the wing rubber (9, 9', 9'', 9'''), characterized in that the wing rubber (9, 9', 9'', 9''') is the only rubber component extending up to the tread and running in contact with the carcass in the radially outer part of the sidewall region and it covers with its radially inner end portion the strip-shaped sidewall rubber (10, 10', 10'', 10''') adjoining in the direction of the bead region, which in the covered region has an end portion which narrows in the direction of the tread and the end of which is at a distance (h 2) from a base-line (B L) that is between 45% and 70% of the cross-sectional height determined from the baseline (B L), the baseline (B L) running in the axial direction and being the line that is in contact with the outer end of the rim radius on a standard rim corresponding to the respective tyre size.
Method for controlling a wire electrical discharge machining (WEDM) process, in which the wire traveling speed (V W) is adapted in-process, characterized in that the method comprises the following steps: a. determining the position (z Di, Z Li) of a plurality of discharges along the engagement line of a wire and a work piece, b. determining the size of a crater provoked at the wire by said plurality of discharges, c. creating a real time wire wearing model based on i. the position of said plurality of discharges along the engagement line of the wire and the work piece, and ii. the size of the crater occurring at each said determined position along the engagement line of a wire and a work piece, and iii. the current wire traveling speed, d. continuously comparing the wire wearing model with one or more wire wearing limits, and e. adjusting the wire traveling speed according to the comparison of the actual wire wearing model and the one or more wire wearing limits. a. determining the position (z Di, Z Li) of a plurality of discharges along the engagement line of a wire and a work piece, b. determining the size of a crater provoked at the wire by said plurality of discharges, c. creating a real time wire wearing model based on i. the position of said plurality of discharges along the engagement line of the wire and the work piece, and ii. the size of the crater occurring at each said determined position along the engagement line of a wire and a work piece, and iii. the current wire traveling speed, i. the position of said plurality of discharges along the engagement line of the wire and the work piece, and ii. the size of the crater occurring at each said determined position along the engagement line of a wire and a work piece, and iii. the current wire traveling speed, d. continuously comparing the wire wearing model with one or more wire wearing limits, and e. adjusting the wire traveling speed according to the comparison of the actual wire wearing model and the one or more wire wearing limits.
A device for preparing a liner to be installed in a pipe, the device comprising a top part having a main top roller and two auxiliary top rollers (112r, 113r) on different sides of the main top roller, the top rollers (111r, 112r, 113r) extending between a first top side and a second top side and having a top belt arranged on the top rollers (111r, 112r, 113r), the device further comprising a bottom part having a main bottom roller, an auxiliary bottom roller and a pulley roller, said auxiliary bottom roller and the pulley roller being located on different sides of the main bottom roller, the bottom rollers (211r, 212r, 213r) extending between a first bottom side and a second bottom side and having a bottom belt arranged on the bottom rollers (211r, 212r, 213r), where the pulley roller is configured to drive the bottom belt when rotated, characterized in that one auxiliary top roller rotates about a shaft having its ends in slots of the top sides (101, 102), wherein said shaft ends are accessible through cavities for moving the shaft and thereby moving said auxiliary top roller towards and away from the other auxiliary top roller, and the auxiliary bottom roller rotates about a shaft having its ends in slots of the bottom sides (201, 202), wherein said shaft ends are accessible through cavities for moving the shaft and thereby moving said auxiliary bottom roller towards and away from the pulley roller.
A wound or incision closure apparatus comprising: a first panel for placement laterally adjacent a first lateral side of a wound or incision, the first panel comprising a first bottom adhesive layer, a first medial substrate layer, and a first upper load distribution layer; a second panel for placement laterally adjacent a second lateral side of the wound or incision, the second panel comprising a second bottom adhesive layer, a second medial substrate layer, and a second upper load distribution layer connectable to the first upper load distribution layer; and a sensory or therapeutic element in a pocket (113a,115a,116a) in one or more of the first or second panels (102,104); characterised in that the sensory or therapeutic element comprises a motion sensor configured to detect a range of motion of a patient's joint; and in that the apparatus is arranged to transmit data from the sensory or therapeutic element to an external device. a first panel for placement laterally adjacent a first lateral side of a wound or incision, the first panel comprising a first bottom adhesive layer, a first medial substrate layer, and a first upper load distribution layer; a second panel for placement laterally adjacent a second lateral side of the wound or incision, the second panel comprising a second bottom adhesive layer, a second medial substrate layer, and a second upper load distribution layer connectable to the first upper load distribution layer; and a sensory or therapeutic element in a pocket (113a,115a,116a) in one or more of the first or second panels (102,104); characterised in that the sensory or therapeutic element comprises a motion sensor configured to detect a range of motion of a patient's joint; and in that the apparatus is arranged to transmit data from the sensory or therapeutic element to an external device.
A method for preparing an aromatic di-ester comprising: combining an aromatic di-acid and a linear or branched C4-C13 alcohol to form a mixture; heating the mixture from a first temperature to a second temperature without a catalyst present in the mixture; combining a titanium catalyst with the mixture after the mixture is at the second temperature; increasing pressure from a first pressure to a second pressure after the mixture is at the second temperature; and increasing the temperature of the mixture from the second temperature to a third temperature while maintaining the second pressure. combining an aromatic di-acid and a linear or branched C4-C13 alcohol to form a mixture; heating the mixture from a first temperature to a second temperature without a catalyst present in the mixture; combining a titanium catalyst with the mixture after the mixture is at the second temperature; increasing pressure from a first pressure to a second pressure after the mixture is at the second temperature; and increasing the temperature of the mixture from the second temperature to a third temperature while maintaining the second pressure.
Battery comprising at least one battery cell having a housing, in which an electrode arrangement is arranged, a first temperature sensor, which is arranged outside the battery cell housing, a second temperature sensor, which is arranged in the interior of the battery cell housing, characterized in that the temperature dynamic range (ΔT/dt) of the second temperature sensor is higher than the temperature dynamic range of the first temperature sensor, wherein output signals of the second temperature sensor are passed out of the battery cell by means of current collectors of the electrode arrangement.
A computer-implemented method comprising: receiving, by a computing device, a total amount of time that a user wears a wearable device during a plurality of time periods, wherein the wearable device includes at least one of a back brace, a knee brace, an ankle brace, a sling, a removable cast, a posture device, and a post-surgical stabilization device; characterized by comparing the total amount of time that the user wore the wearable device for each of the plurality of time periods to a threshold amount of time for each of the plurality of time periods; displaying on a user interface a remaining amount of time for the user to wear the wearable device for a present time period based upon, at least in part, comparing the total amount of time that the user wore the wearable device during the present time period to the threshold amount of time for the present time period, alternatively displaying a surplus amount of time above the threshold amount of time for each time period of a historical subset of the plurality of time periods that the user wore the wearable device, applying at least a portion of the surplus amount of time above the threshold amount of time for each of the plurality of time periods to a past time period of the plurality of time periods that the user wore the wearable device below the threshold amount of time, and displaying a total amount of surplus time as well as surplus time that has been applied. receiving, by a computing device, a total amount of time that a user wears a wearable device during a plurality of time periods, wherein the wearable device includes at least one of a back brace, a knee brace, an ankle brace, a sling, a removable cast, a posture device, and a post-surgical stabilization device; characterized by comparing the total amount of time that the user wore the wearable device for each of the plurality of time periods to a threshold amount of time for each of the plurality of time periods; displaying on a user interface a remaining amount of time for the user to wear the wearable device for a present time period based upon, at least in part, comparing the total amount of time that the user wore the wearable device during the present time period to the threshold amount of time for the present time period, alternatively displaying a surplus amount of time above the threshold amount of time for each time period of a historical subset of the plurality of time periods that the user wore the wearable device, applying at least a portion of the surplus amount of time above the threshold amount of time for each of the plurality of time periods to a past time period of the plurality of time periods that the user wore the wearable device below the threshold amount of time, and displaying a total amount of surplus time as well as surplus time that has been applied.