mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing an insole (10, 11), comprising: a first step of forming a footprint resin portion having a footprint shape having a predetermined thickness using a thermoplastic resin which melts at a predetermined temperature; a second step of performing shrink processing such that the footprint resin portion is covered with a film, and thereafter vacuum packing the footprint resin portion covered with the film in a nylon polyethylene bag. wherein the film covers the whole surface of the footprint resin portion, and is shrunk while air is removed to seal the footprint resin portion; a third step of heating the insole (10, 11) manufactured through the first step and the second step at a predetermined temperature; and a fourth step of attaching the insole (10, 11) having the footprint resin portion melt by the third step to the inside of a shoe of a user, and hardening the footprint resin portion by leaving it stand for a predetermined time period while the user is wearing the shoe, wherein the method further comprises: a fifth step of peeling the film after the third step and the fourth step, and thereafter attaching a flexible sheet portion to a side of the footprint resin portion to be in contact with the user's sole. a first step of forming a footprint resin portion having a footprint shape having a predetermined thickness using a thermoplastic resin which melts at a predetermined temperature; a second step of performing shrink processing such that the footprint resin portion is covered with a film, and thereafter vacuum packing the footprint resin portion covered with the film in a nylon polyethylene bag. wherein the film covers the whole surface of the footprint resin portion, and is shrunk while air is removed to seal the footprint resin portion; a third step of heating the insole (10, 11) manufactured through the first step and the second step at a predetermined temperature; and a fourth step of attaching the insole (10, 11) having the footprint resin portion melt by the third step to the inside of a shoe of a user, and hardening the footprint resin portion by leaving it stand for a predetermined time period while the user is wearing the shoe, wherein the method further comprises: a fifth step of peeling the film after the third step and the fourth step, and thereafter attaching a flexible sheet portion to a side of the footprint resin portion to be in contact with the user's sole.
A Capsicum annuum pepper plant comprising within its genome at least one potyvirus resistance allele and at least one powdery mildew resistance allele, characterised in that said resistance alleles are present in cis configuration on chromosome 4, such that said two resistance alleles are in coupling phase, as a result of a recombination event between the potyvirus and PM resistant genes, and wherein the potyvirus resitance allele is the pvr1 gene resistance allele.
A beam monitor system comprising a collection electrode for detecting a charged particle beam passing therethrough, a signal processing device, and a beam monitor controller (8b2), wherein: the collection electrode includes a plurality of groups each of which is made up of a plurality of adjoining wire electrodes and divided into segments each including a plurality of adjoining wire electrodes, and each wire electrode in a segment in a group is connected to the signal processing device by using the same line as a wire electrode in a segment in each of the other groups, and the wire electrodes in each segment in each of the other groups are connected to the signal processing device by employing permutation connection varying from group to group so that no two adjoining channels are physically continuous, and the signal processing device rearranges detection signals outputted from the wire electrodes based on information related to a planned beam irradiation target position and information on the permutation connection and outputs the result of the rearrangement as a processing signal, and the beam monitor controller (8b2) calculates the beam position and the beam width of the charged particle beam that passed through the wire electrodes based on the processing signal outputted from the signal processing device. the collection electrode includes a plurality of groups each of which is made up of a plurality of adjoining wire electrodes and divided into segments each including a plurality of adjoining wire electrodes, and each wire electrode in a segment in a group is connected to the signal processing device by using the same line as a wire electrode in a segment in each of the other groups, and the wire electrodes in each segment in each of the other groups are connected to the signal processing device by employing permutation connection varying from group to group so that no two adjoining channels are physically continuous, and the signal processing device rearranges detection signals outputted from the wire electrodes based on information related to a planned beam irradiation target position and information on the permutation connection and outputs the result of the rearrangement as a processing signal, and the beam monitor controller (8b2) calculates the beam position and the beam width of the charged particle beam that passed through the wire electrodes based on the processing signal outputted from the signal processing device.
A light emission control device (40, 40a) comprising: a light emission controller which controls a light emitter and performs normal control and wake-up control, the normal control being control for causing the light emitter to emit light having a color temperature and luminance according to an instruction of a user, the wake-up control being control for causing the light emitter to emit light at increasing luminance over time to wake up the user who is sleeping, characterized in that maximum luminance of light emitted by the light emitter in the wake-up control is prohibited in the normal control and is greater than maximum luminance of light emitted by the light emitter in the normal control. a light emission controller which controls a light emitter and performs normal control and wake-up control, the normal control being control for causing the light emitter to emit light having a color temperature and luminance according to an instruction of a user, the wake-up control being control for causing the light emitter to emit light at increasing luminance over time to wake up the user who is sleeping, characterized in that maximum luminance of light emitted by the light emitter in the wake-up control is prohibited in the normal control and is greater than maximum luminance of light emitted by the light emitter in the normal control.
A method of controlling an electronic device having a display moveable relative to a keyboard, between a first position in which the keyboard is exposed for use and a second position in which the keyboard is not exposed, the method comprising: in response to detecting initiation of control of a position of an adjustable setting within a range and wherein the detecting comprises detecting a touch at a location on the display, entering a control mode at the electronic device; in response to detecting movement of the display relative to the keyboard of the electronic device, adjusting the position of the adjustable setting within the range, the method characterized in that: the position of the adjustable setting within the range is dependent on the location of the display relative to the keyboard of the electronic device. in response to detecting initiation of control of a position of an adjustable setting within a range and wherein the detecting comprises detecting a touch at a location on the display, entering a control mode at the electronic device; in response to detecting movement of the display relative to the keyboard of the electronic device, adjusting the position of the adjustable setting within the range, the method characterized in that: the position of the adjustable setting within the range is dependent on the location of the display relative to the keyboard of the electronic device.
A lifting mechanism comprising: a lifting unit which lifts and lowers in an apparatus height direction and on which a roll-shaped medium is placed; a position adjustment unit configured to adjust a position of the lifting unit in the apparatus height direction; and a base unit that includes an insertion portion (62, 92) through which a shaft member supporting the base unit is inserted, the insertion portion (62, 92) includes an inner circumferential portion facing an outer circumferential portion of the shaft member, and characterized by: the base unit supporting the lifting unit and the position adjustment unit a plurality of rolling elements is disposed in the inner circumferential portion of the insertion portion (62, 92), and the plurality of rolling elements protrudes from the inner circumferential portion of the insertion portion (62, 92) when viewed in an axial direction in which the shaft member extends. a lifting unit which lifts and lowers in an apparatus height direction and on which a roll-shaped medium is placed; a position adjustment unit configured to adjust a position of the lifting unit in the apparatus height direction; and a base unit that includes an insertion portion (62, 92) through which a shaft member supporting the base unit is inserted, the insertion portion (62, 92) includes an inner circumferential portion facing an outer circumferential portion of the shaft member, and characterized by: the base unit supporting the lifting unit and the position adjustment unit a plurality of rolling elements is disposed in the inner circumferential portion of the insertion portion (62, 92), and the plurality of rolling elements protrudes from the inner circumferential portion of the insertion portion (62, 92) when viewed in an axial direction in which the shaft member extends. the base unit supporting the lifting unit and the position adjustment unit a plurality of rolling elements is disposed in the inner circumferential portion of the insertion portion (62, 92), and the plurality of rolling elements protrudes from the inner circumferential portion of the insertion portion (62, 92) when viewed in an axial direction in which the shaft member extends.
A hybrid-electric powertrain for an aircraft, the hybrid-electric powertrain comprising: a gas turbine propulsion engine including a first propulsor and a gas turbine engine to drive the first propulsor to produce thrust; a generator operably coupled to a drive shaft of the gas turbine engine; and an electric propulsion unit including a second propulsor and an electric motor to drive the second propulsor to produce thrust, wherein the hybrid-electric powertrain is configured such that, during a first mode of operation, the gas turbine propulsion engine and the electric propulsion unit are activated to produce thrust, and, during the first mode of operation, the generator is driven by the gas turbine engine to produce electrical power to power the electric propulsion unit, and during a second mode of operation, the gas turbine propulsion engine is activated to produce thrust and the electric propulsion unit is deactivated; wherein the gas turbine engine includes an inter-turbine burner; and wherein the hybrid-electric powertrain is configured such that, during the first mode of operation, the inter-turbine burner is activated to increase power output of the gas turbine engine; and, during the second mode of operation, the inter-turbine burner is deactivated. a gas turbine propulsion engine including a first propulsor and a gas turbine engine to drive the first propulsor to produce thrust; a generator operably coupled to a drive shaft of the gas turbine engine; and an electric propulsion unit including a second propulsor and an electric motor to drive the second propulsor to produce thrust, wherein the hybrid-electric powertrain is configured such that, during a first mode of operation, the gas turbine propulsion engine and the electric propulsion unit are activated to produce thrust, and, during the first mode of operation, the generator is driven by the gas turbine engine to produce electrical power to power the electric propulsion unit, and during a second mode of operation, the gas turbine propulsion engine is activated to produce thrust and the electric propulsion unit is deactivated; during a first mode of operation, the gas turbine propulsion engine and the electric propulsion unit are activated to produce thrust, and, during the first mode of operation, the generator is driven by the gas turbine engine to produce electrical power to power the electric propulsion unit, and during a second mode of operation, the gas turbine propulsion engine is activated to produce thrust and the electric propulsion unit is deactivated; wherein the gas turbine engine includes an inter-turbine burner; and wherein the hybrid-electric powertrain is configured such that, during the first mode of operation, the inter-turbine burner is activated to increase power output of the gas turbine engine; and, during the second mode of operation, the inter-turbine burner is deactivated.
Display shelf for storage and presentation of goods for sale with a frame and one or more shelf boards stored therein with, on the upper side of the shelf boards, a storage space provided for receiving the goods, wherein, at least at one end face of the shelf boards, the display shelf has a display side at which the customers can remove the goods for sale, the shelf boards have one or more conveyor belts, which are provided above the storage surface on the upper side of the shelf boards and are transported in an endless loop over the end faces and the underside of the shelf boards, wherein the display shelf is open at at least one end face of the shelf boards, with this side forming the display side, where the customers can remove the goods for sale, and wherein, at the display side of the display shelf, a stop bar is provided, which is spaced apart from the shelf board and which defines a gap between it and the shelf board, through which gap the conveyor belt is transported, and the conveyor belt has one or different surfaces, which, at the side facing the shelf board, facilitate simple gliding on the shelf board and, at the side facing the goods, taking along of the goods and simultaneous gliding of the goods on the surface, characterised by the fact that at the side opposite the display side is located a fall-off guard for the goods, such that the fall-off guard is removable for the purpose of loading the shelf from the rear.
A method for printing plastic containers, wherein the containers are transported along a specified transport path, and the outer surface of the containers is printed at least temporarily by means of at least one printing unit (4, 6, 7), wherein a controller (14, 16, 17) controls the printing of the containers by means of the at least one printing unit (4, 6, 7) on the basis of at least one printing parameter, characterized in that at least one plastic container to be printed is printed with at least one test marking in order to ascertain the printing parameter, and this plastic container provided with the test marking is then inspected by means of at least one inspection device, which is suitable and intended for detecting at least one defect of the test marking and the printing parameter is derived from a result of the inspection, wherein the printing of the plastic container with the test marking takes place in the context of a test mode of the apparatus and the test marking is a special test marking or a special test image, which is particularly suitable for evaluation and for correction or for ascertaining the printing parameters and which is known to the inspection device, wherein in the working operation of the apparatus a marking or the print which is to be applied to the containers, is checked, wherein for this checking a different inspection device is used from the inspection device which is used for the test mode, wherein the inspection device which is used in the working operation meets different criteria than the inspection device which is used in the test operation.
An electromagnetic sensing apparatus of a touch screen including a display and a soft key, the electromagnetic sensing apparatus comprising: a Printed Circuit Board, PCB, including a display area corresponding to the display and a sub-area corresponding to the soft key; a controller including a plurality of channels (Ch #1, Ch #2, Ch #3), for controlling electromagnetic sensing of the electromagnetic sensing apparatus; and a plurality of loop units that extend from the plurality of channels for outputting current induced by an electromagnetic field, characterized in that at least one of the plurality of loop units includes a first sub-loop arranged in the display area and a second sub-loop arranged in the sub-area, and wherein at least one of the plurality of loop units includes a first sub-loop arranged in the display area and does not include a second sub-loop. a Printed Circuit Board, PCB, including a display area corresponding to the display and a sub-area corresponding to the soft key; a controller including a plurality of channels (Ch #1, Ch #2, Ch #3), for controlling electromagnetic sensing of the electromagnetic sensing apparatus; and a plurality of loop units that extend from the plurality of channels for outputting current induced by an electromagnetic field, characterized in that at least one of the plurality of loop units includes a first sub-loop arranged in the display area and a second sub-loop arranged in the sub-area, and wherein at least one of the plurality of loop units includes a first sub-loop arranged in the display area and does not include a second sub-loop.
An energy source system, comprising: - an energy storage device configured to store and release energy; - an ultracapacitor; characterized by - a first switching device coupled to the energy storage device and configured to selectively connect and disconnect the energy storage device to a load; - a second switching device coupled to the ultracapacitor and configured to selectively connect and disconnect the ultracapacitor to the load; and - a current sensor configured to sense the current draw at the load, wherein the first switching device is configured to be activated to connect the energy storage device to the load when a rate of change of the current draw at the load is below a preset threshold and the second switching device is configured to be activated to connect the ultracapacitor to the load when the rate of change of the current draw at the load is greater than or equal to the preset threshold. - an energy storage device configured to store and release energy; - an ultracapacitor; characterized by - a first switching device coupled to the energy storage device and configured to selectively connect and disconnect the energy storage device to a load; - a second switching device coupled to the ultracapacitor and configured to selectively connect and disconnect the ultracapacitor to the load; and - a current sensor configured to sense the current draw at the load, wherein the first switching device is configured to be activated to connect the energy storage device to the load when a rate of change of the current draw at the load is below a preset threshold and the second switching device is configured to be activated to connect the ultracapacitor to the load when the rate of change of the current draw at the load is greater than or equal to the preset threshold.
A procedure for the coating of an item, characterised in that it comprises the following stages: - application of adhesive to the item; - spraying cleaned, dried, crushed olive stones on the adhesive, in order to affix the olive stones to the item; and - drying of the adhesive. - application of adhesive to the item; - spraying cleaned, dried, crushed olive stones on the adhesive, in order to affix the olive stones to the item; and - drying of the adhesive.
A secondary battery which comprises an electrode assembly having an electrode tab extended from an electrode current collector, wherein the electrode tab is provided with an insulation coating layer containing an inorganic filler and a binder, the binder has an electrolyte uptake more than 0% and less than 50%, and the electrolyte uptake is determined by the method including the steps of: preparing an electrolyte including an organic solvent containing a mixture of ethylene carbonate, propylene carbonate and diethyl carbonate, and a lithium salt; molding the binder into a film shape, cutting the film into a predetermined size, weighing the binder before dipping, dipping the film in the electrolyte at room temperature for 1 hour and removing the film from the electrolyte, and weighing the binder after dipping; and calculating the electrolyte uptake by using the following Formula 1: Weight after dipping − Weight before dipping Weight before dipping × 100 % wherein the electrode tab is provided with an insulation coating layer containing an inorganic filler and a binder, the binder has an electrolyte uptake more than 0% and less than 50%, and the electrolyte uptake is determined by the method including the steps of: preparing an electrolyte including an organic solvent containing a mixture of ethylene carbonate, propylene carbonate and diethyl carbonate, and a lithium salt; molding the binder into a film shape, cutting the film into a predetermined size, weighing the binder before dipping, dipping the film in the electrolyte at room temperature for 1 hour and removing the film from the electrolyte, and weighing the binder after dipping; and calculating the electrolyte uptake by using the following Formula 1: Weight after dipping − Weight before dipping Weight before dipping × 100 % preparing an electrolyte including an organic solvent containing a mixture of ethylene carbonate, propylene carbonate and diethyl carbonate, and a lithium salt; molding the binder into a film shape, cutting the film into a predetermined size, weighing the binder before dipping, dipping the film in the electrolyte at room temperature for 1 hour and removing the film from the electrolyte, and weighing the binder after dipping; and calculating the electrolyte uptake by using the following Formula 1: Weight after dipping − Weight before dipping Weight before dipping × 100 %
A seal assembly comprising: a first carbon ring comprising a tab extending axially from the first carbon ring relative a center axis of the seal assembly; a second carbon ring disposed adjacent to the first carbon ring and coaxial with the first carbon ring, the second carbon ring comprising a slot that extends axially into the second carbon ring; characterized in that the tab of the first carbon ring mates with the slot of the second carbon ring such that the first and second carbon rings (66, 68) do not rotate relative to one another about the center axis more than ten degrees. a first carbon ring comprising a tab extending axially from the first carbon ring relative a center axis of the seal assembly; a second carbon ring disposed adjacent to the first carbon ring and coaxial with the first carbon ring, the second carbon ring comprising a slot that extends axially into the second carbon ring; characterized in that the tab of the first carbon ring mates with the slot of the second carbon ring such that the first and second carbon rings (66, 68) do not rotate relative to one another about the center axis more than ten degrees.
Valve top having a head piece, which is axially penetrated by a control piston, via which a valve cone can be axially actuated, wherein the valve cone is connected to a valve piston axially movably arranged within a second cylinder chamber, which has a first cylinder chamber on its side facing away from the valve cone, into which the control piston can be moved displacing a fluid volume located in the first cylinder chamber, by which volume displacement an overpressure is formed in the first cylinder chamber, whereby the valve piston is movable.