mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a molded material, the molded material comprising a tubular body and a flange formed at an end portion of the body, the molded material being produced by performing at least two molding processes on a base metal sheet, wherein the at least two molding processes comprise at least one drawing-out process and at least one drawing process performed after the drawing-out process; wherein the drawing-out process is carried out using a mold that comprises a punch and a die having a pushing hole; wherein a width (w 311) of the punch on a rear end side is wider than a width (w 310) of the punch on a distal end side so that when the punch is pushed into the pushing hole of the die, a clearance (C 30-31) between the die and the punch is narrower on the rear end side than on the distal end side; wherein an ironing process is performed on only a region of the base material sheet corresponding to the flange of the molded material by pushing the base metal sheet together with the punch into the pushing hole in the drawing-out process; wherein the drawing process is carried out using a mold comprising a die and a drawing sleeve; and the method being characterized in that, in the drawing process, an ironing process is performed on a region of the base material sheet corresponding to the flange of the molded material subjected to the ironing process in the drawing-out process, while maintaining a constant mold gap between the die and the drawing sleeve.
A skin treatment apparatus for treating a skin surface, comprising: a hand-held base body; a rotor head, movably connected to the base body, and including at least one skin contacting element; a motor, operably connected to both the base body and the rotor head, and configured to rotatably drive the rotor head relative to the base body around a rotation axis; at least one motion sensor; and a control unit, operably connected to the at least one motion sensor and the motor, and configured to control the motor to rotatably drive the rotor head in dependence of the movement signal of the at least one motion sensor characterized in that the motion sensor includes a tracking device that is configured to generate a movement signal in accordance with movements across a skin surface detected via interaction therewith, wherein said movement signal represents a path of relative movement between the hand-held base body and the skin surface. a hand-held base body; a rotor head, movably connected to the base body, and including at least one skin contacting element; a motor, operably connected to both the base body and the rotor head, and configured to rotatably drive the rotor head relative to the base body around a rotation axis; at least one motion sensor; and a control unit, operably connected to the at least one motion sensor and the motor, and configured to control the motor to rotatably drive the rotor head in dependence of the movement signal of the at least one motion sensor characterized in that the motion sensor includes a tracking device that is configured to generate a movement signal in accordance with movements across a skin surface detected via interaction therewith, wherein said movement signal represents a path of relative movement between the hand-held base body and the skin surface.
An electric drive unit for a vehicle, with a receiving unit, wherein the receiving unit has a maximum number of receiving regions, each of which is designed to receive an electric machine, a number of electric machines, wherein each of these electric machines has a machine output shaft for providing a machine torque, and wherein each of these electric machines is introduced into a receiving region associated with it and is connected to the receiving unit, a common main shaft, via which the drive unit can provide a drive-unit torque on the output side, and a coupling element, via which the machine output shafts are in an operative connection on the drive side with the main shaft for feeding in the machine torques, characterised in that the introduced electric machines are designed to be structurally independent and in each case have an individually assigned actuating device, so that the drive unit is scalable, in that the number of introduced electric machines can be predetermined, namely dependent on a set value which can be preset in advance for an output-side characteristic quantity of the drive unit which is to be constructed, wherein the number of introduced electric machines lies between 1 and the maximum number.
An electromagnetic wave shielding material which comprises a transparent substrate and a a lattice-like fine line pattern formed thereon, wherein the fine line pattern comprises a metal plating film formed by a metal plating using a physically developed metal silver-thin film with a fine line as a catalytic nucleus, wherein the fine line pattern has a thickness of 15 μm or less and a line width of 40 μm or less; and wherein the electromagnetic wave shielding material has a total luminous transmittance of 50% or higher, and a surface resistance measured according to the measurement method of JIS K 7194 of 10 ohm/□ or less.
Adjusting device for furniture, having an adjusting element and a threaded part which is held in a sleeve on the adjusting element, and having a holder which bears against the threaded part, the adjusting element being adjustable in the axial direction relative to the holder by rotation of the threaded part, wherein the sleeve and/or the threaded part are/is resiliently elastic in the radial direction and the thread of the threaded part slips through on the sleeve when an axial end position is reached and when the threaded part slips through, an engagement element on the sleeve is elastically displaced from the thread in the radial direction.
A modular impact absorption system, the modular impact absorption system comprising: a first component formed from an impact absorbing material, the first component having a first axis extending along the first component in a first direction, the first component comprising a plurality of triangle components varying in thickness formed in a first repeating pattern along the first axis; and a second component formed from the impact absorbing material, the second component having a first axis extending along the second component in a first direction, wherein the first axis of the second component is parallel to the first axis of the first component, the second component comprising a plurality of triangle components varying in thickness formed in the first repeating pattern along the first axis of the second component, wherein each triangle component comprises a plurality of triangle subcomponents (312, 314), and each triangle component is structurally supported and reinforced by a lattice structure that comprises three spokes extending radially from an interior center of the triangle component, wherein a plurality of gaps are provided in the overall structure of the first component and its subcomponents, and wherein triangle component is formed from a total of four smaller triangle components, three of which correspond to the apexes of triangle component and a fourth triangle subcomponent occupying the interior of triangle component. wherein each triangle component comprises a plurality of triangle subcomponents (312, 314), and each triangle component is structurally supported and reinforced by a lattice structure that comprises three spokes extending radially from an interior center of the triangle component, wherein a plurality of gaps are provided in the overall structure of the first component and its subcomponents, and wherein triangle component is formed from a total of four smaller triangle components, three of which correspond to the apexes of triangle component and a fourth triangle subcomponent occupying the interior of triangle component.
A hopper spreader assembly comprising: a first dual-wall hopper module having a first liquid chamber defined between a first inner surface portion and a first outer surface portion; a second dual-wall hopper module having a second liquid chamber defined between a second inner surface portion and a second outer surface portion; a fluid conduit for filling or draining a liquid into or out of said first and second liquid chambers; a liquid pump (92a-b) in fluid communication with said first and second liquid chambers for drawing the liquid from said first and second liquid chambers; a selector valve in fluid communication with said fluid pump (92a-b) for directing the liquid drawn from said first and second liquid chambers; and a liquid dispenser (112, 150) in fluid communication with said selector valve for distributing the liquid onto an application area; wherein said first inner surface portion cooperates with said second inner surface portion to define a receptacle for receiving and storing solid material such that said first and second hopper modules (18a, 18b) to form a hopper that is sized and shaped to be received on a bed of a truck or support vehicle; characterized in that each first and second hopper module (18a, 18b) comprises a pair of side walls, and each side wall includes a flange (48a-c) with a plurality of openings for receiving fasteners to removably secure each first and second hopper module (18a, 18b) to a respective adjacent hopper module.. a first dual-wall hopper module having a first liquid chamber defined between a first inner surface portion and a first outer surface portion; a second dual-wall hopper module having a second liquid chamber defined between a second inner surface portion and a second outer surface portion; a fluid conduit for filling or draining a liquid into or out of said first and second liquid chambers; a liquid pump (92a-b) in fluid communication with said first and second liquid chambers for drawing the liquid from said first and second liquid chambers; a selector valve in fluid communication with said fluid pump (92a-b) for directing the liquid drawn from said first and second liquid chambers; and a liquid dispenser (112, 150) in fluid communication with said selector valve for distributing the liquid onto an application area; wherein said first inner surface portion cooperates with said second inner surface portion to define a receptacle for receiving and storing solid material such that said first and second hopper modules (18a, 18b) to form a hopper that is sized and shaped to be received on a bed of a truck or support vehicle; characterized in that each first and second hopper module (18a, 18b) comprises a pair of side walls, and each side wall includes a flange (48a-c) with a plurality of openings for receiving fasteners to removably secure each first and second hopper module (18a, 18b) to a respective adjacent hopper module..
A method for warming a combined-cycle steam turbine for quick starting the combined-cycle steam turbine wherein the method comprises steps: step S1, operating a gas turbine and a steam turbine (HP, IP, LP) in a turned state; step S2, increasing a rotational speed of the gas turbine to and keeping at m rpm; step S3, introducing warming steam into the steam turbine (HP, IP, LP), increasing the rotational speed of the steam turbine (HP, IP, LP) to and keeping at n rpm, where n<m; step S4, decreasing the rotational speed of the gas turbine, thus a synchro-self-shifting clutch is automatically meshed when the rotational speed of the gas turbine is decreased to n rpm and the rotational speed of the steam turbine (HP, IP, LP) tends to exceed the rotational speed of the gas turbine, step S5, utilizing the steam turbine (HP, IP, LP) to drive the gas turbine and a generator to rotate, so as to start warming up, the steam turbine drives the gas turbine and the generator to keep their rotational speed at p rpm, where p<n; step S6, stopping the introducing warming steam and finishing the warming up when the temperature of an intermediate pressure rotor of the steam turbine reaches a preset temperature, or a warming time reaches a preset time, and then restoring the gas turbine and the steam turbine to the turned state. step S1, operating a gas turbine and a steam turbine (HP, IP, LP) in a turned state; step S2, increasing a rotational speed of the gas turbine to and keeping at m rpm; step S3, introducing warming steam into the steam turbine (HP, IP, LP), increasing the rotational speed of the steam turbine (HP, IP, LP) to and keeping at n rpm, where n<m; step S4, decreasing the rotational speed of the gas turbine, thus a synchro-self-shifting clutch is automatically meshed when the rotational speed of the gas turbine is decreased to n rpm and the rotational speed of the steam turbine (HP, IP, LP) tends to exceed the rotational speed of the gas turbine, step S5, utilizing the steam turbine (HP, IP, LP) to drive the gas turbine and a generator to rotate, so as to start warming up, the steam turbine drives the gas turbine and the generator to keep their rotational speed at p rpm, where p<n; step S6, stopping the introducing warming steam and finishing the warming up when the temperature of an intermediate pressure rotor of the steam turbine reaches a preset temperature, or a warming time reaches a preset time, and then restoring the gas turbine and the steam turbine to the turned state.
A method for catalytic pyrolysis of 1,2-DCE to prepare VCM, comprising: introducing a 1,2-DCE-containing feed gas into a reactor filled with a catalyst, and allowing the 1,2-DCE-containing feed gas to contact the catalyst and be subjected to a reaction to obtain the VCM, wherein the catalyst is at least one selected from the group consisting of the catalyst for pyrolysis of 1,2-DCE to prepare VCM comprising a silicon-aluminum molecular sieve, characterized in that the silicon-aluminum molecular sieve comprises at least one selected from the group consisting of an X-type silicon-aluminum molecular sieve, a Y-type silicon-aluminum molecular sieve, and a USY-type silicon-aluminum molecular sieve; the silicon-aluminum molecular sieve has a silicon-aluminum ratio SiO 2:Al 2 O 3 of 2 to 9.2. wherein the catalyst is at least one selected from the group consisting of the catalyst for pyrolysis of 1,2-DCE to prepare VCM comprising a silicon-aluminum molecular sieve, characterized in that the silicon-aluminum molecular sieve comprises at least one selected from the group consisting of an X-type silicon-aluminum molecular sieve, a Y-type silicon-aluminum molecular sieve, and a USY-type silicon-aluminum molecular sieve; the silicon-aluminum molecular sieve has a silicon-aluminum ratio SiO 2:Al 2 O 3 of 2 to 9.2.
An apparatus configured to model a three-dimensional modeled object, comprising: a carrier configured to carry a modeling material; an energy applying unit configured to apply laser energy to a surface of a modeled object; and a flying unit configured to fly, using laser light, the modeling material carried on the carrier toward the surface of the modeled object while the energy is being applied to the surface, characterized in that the energy applying unit is configured to heat the modelling material until the modelling material flying to the surface of the modeled object reaches the surface of the modeled object. a carrier configured to carry a modeling material; an energy applying unit configured to apply laser energy to a surface of a modeled object; and a flying unit configured to fly, using laser light, the modeling material carried on the carrier toward the surface of the modeled object while the energy is being applied to the surface, characterized in that the energy applying unit is configured to heat the modelling material until the modelling material flying to the surface of the modeled object reaches the surface of the modeled object.
A stent delivery system (10; 100; 200) comprising: an elongate catheter shaft (12; 112; 260) having a distal end region and a proximal end region; a self-expanding stent (16; 116; 250) having a proximal end region (20; 120; 254), a distal end region (18; 118; 252), and a length extending therebetween, the stent (16; 116; 250) disposed about the distal end region of the elongate catheter shaft (12; 112; 260); and a delivery sheath (21; 121; 208; 300) disposed over the elongate catheter shaft (12; 112; 260) and the stent (16; 116; 250), the delivery sheath (21; 121; 208; 300) comprising: an outer sheath (22; 122; 240) having a proximal end region and a distal end region; and an inner sheath (26; 126; 244) slidably disposed within the outer sheath (22; 122; 240), the inner sheath (26; 126; 244) having a proximal end region and a distal end region, characterised in that the outer sheath (22; 122; 240) and the inner sheath (26; 126; 244) are connected to each other through a sliding element and a slit. an elongate catheter shaft (12; 112; 260) having a distal end region and a proximal end region; a self-expanding stent (16; 116; 250) having a proximal end region (20; 120; 254), a distal end region (18; 118; 252), and a length extending therebetween, the stent (16; 116; 250) disposed about the distal end region of the elongate catheter shaft (12; 112; 260); and a delivery sheath (21; 121; 208; 300) disposed over the elongate catheter shaft (12; 112; 260) and the stent (16; 116; 250), the delivery sheath (21; 121; 208; 300) comprising: an outer sheath (22; 122; 240) having a proximal end region and a distal end region; and an inner sheath (26; 126; 244) slidably disposed within the outer sheath (22; 122; 240), the inner sheath (26; 126; 244) having a proximal end region and a distal end region, characterised in that the outer sheath (22; 122; 240) and the inner sheath (26; 126; 244) are connected to each other through a sliding element and a slit. an outer sheath (22; 122; 240) having a proximal end region and a distal end region; and an inner sheath (26; 126; 244) slidably disposed within the outer sheath (22; 122; 240), the inner sheath (26; 126; 244) having a proximal end region and a distal end region, characterised in that the outer sheath (22; 122; 240) and the inner sheath (26; 126; 244) are connected to each other through a sliding element and a slit.
A method comprising the following steps executed by a wireless device: transmitting a first scheduling request, SR, based on a buffer status reporting procedure; triggering, in response to initiating a beam failure recovery, a second SR; transmitting the second SR via an uplink control channel resource configured for the second SR; after transmitting the first SR and the second SR, receiving, via a downlink control channel, first downlink control information as a response to the second SR; and based on the receiving the first downlink control information: keeping the first SR pending; and cancelling the second SR for the beam failure recovery. transmitting a first scheduling request, SR, based on a buffer status reporting procedure; triggering, in response to initiating a beam failure recovery, a second SR; transmitting the second SR via an uplink control channel resource configured for the second SR; after transmitting the first SR and the second SR, receiving, via a downlink control channel, first downlink control information as a response to the second SR; and based on the receiving the first downlink control information: keeping the first SR pending; and cancelling the second SR for the beam failure recovery. keeping the first SR pending; and cancelling the second SR for the beam failure recovery.
A spinning machine comprising: draft roller pairs (21, 22, 23, 24) configured to draft a fiber bundle; a guiding unit (27, 28) configured to regulate a width of the fiber bundle drafted by the draft roller pairs (21, 22, 23, 24) and guide the fiber bundle; a spinning unit configured to produce a spun yarn by twisting the fiber bundle drafted by the draft roller pairs (21, 22, 23, 24); a movable base unit to which the guiding unit (27, 28) and the spinning unit are mounted; a driving unit configured to move the movable base unit in parallel with respect to a rotating axis of the draft roller pairs (21, 22, 23, 24) characterized by a detecting unit configured to detect a position of at least one of the guiding unit (27, 28), the spinning unit, and the movable base unit; and a control unit configured to transmit a positional command signal to the driving unit based on a detection signal from the detecting unit and control a position of the movable base unit, thereby adjusting a relative positional relation of the guiding unit (27, 28) and the spinning unit with respect to the draft roller pairs (21, 22, 23, 24) and changing a holding position of the fiber bundle held by the draft roller pairs (21, 22, 23, 24), to avoid that the fibers constituting the fiber bundle fall off from the draft roller pairs (21, 22, 23, 24) while the guiding unit (27, 28) is moving. draft roller pairs (21, 22, 23, 24) configured to draft a fiber bundle; a guiding unit (27, 28) configured to regulate a width of the fiber bundle drafted by the draft roller pairs (21, 22, 23, 24) and guide the fiber bundle; a spinning unit configured to produce a spun yarn by twisting the fiber bundle drafted by the draft roller pairs (21, 22, 23, 24); a movable base unit to which the guiding unit (27, 28) and the spinning unit are mounted; a driving unit configured to move the movable base unit in parallel with respect to a rotating axis of the draft roller pairs (21, 22, 23, 24) characterized by a detecting unit configured to detect a position of at least one of the guiding unit (27, 28), the spinning unit, and the movable base unit; and a control unit configured to transmit a positional command signal to the driving unit based on a detection signal from the detecting unit and control a position of the movable base unit, thereby adjusting a relative positional relation of the guiding unit (27, 28) and the spinning unit with respect to the draft roller pairs (21, 22, 23, 24) and changing a holding position of the fiber bundle held by the draft roller pairs (21, 22, 23, 24), to avoid that the fibers constituting the fiber bundle fall off from the draft roller pairs (21, 22, 23, 24) while the guiding unit (27, 28) is moving.
Method for obtaining a backscatter modulated receive signal in an RFID system, comprising the steps: providing a carrier wave (V LO) by a local oscillator; generating a transmit signal (V T) based on the carrier wave (V LO) and an input signal (V I); transmitting said transmit signal (V T); receiving a backscatter modulated receive signal (V R) in response to the transmit signal (V T); and combining the receive signal (V R) with a cancel signal (V C) to obtain a corrected receive signal (V D); wherein the method further comprises the step of determining a phase shift and an amplitude adjust from the corrected receive signal (V D); characterized in that the determined phase shift is applied as a phase rotation when generating the transmit signal (V T); and in that the cancel signal (V C) is based on the un-shifted carrier wave (V LO) and the determined amplitude adjust. providing a carrier wave (V LO) by a local oscillator; generating a transmit signal (V T) based on the carrier wave (V LO) and an input signal (V I); transmitting said transmit signal (V T); receiving a backscatter modulated receive signal (V R) in response to the transmit signal (V T); and combining the receive signal (V R) with a cancel signal (V C) to obtain a corrected receive signal (V D); wherein the method further comprises the step of determining a phase shift and an amplitude adjust from the corrected receive signal (V D); characterized in that the determined phase shift is applied as a phase rotation when generating the transmit signal (V T); and in that the cancel signal (V C) is based on the un-shifted carrier wave (V LO) and the determined amplitude adjust.