mhurhangee/ep-ind-claims huggingface dataset:
A method for helically winding a strand-shaped winding material, such as a continuously extruded tube made of plastic, onto a rotationally driven winding drum, wherein a) the winding material of the rotating winding drum is transferred via a guide mounted for an axial forth- and back-laying-movement which is set relative to the winding drum substantially in accordance with the winding progress; wherein the angular velocity of the winding drum being adjusted relative to the winding drum in a dependence on the axial setting position of the guide in the axial course of the helical winding of a winding material layer, and b) on reaching a turning position X o, a turning operation is performed in which: i) the guide arriving in a forth-laying-movement to the turning position X o is substantially removed away from the winding drum in a radial vertical direction; and ii) during or after the removal (i), the guide is further displaced forward in axial forth-laying-movement-direction relative to the winding drum by an axial subsequent-displacement-distance such that the turning position X o is traversed in axial forth- and back-laying- movement-direction. a) the winding material of the rotating winding drum is transferred via a guide mounted for an axial forth- and back-laying-movement which is set relative to the winding drum substantially in accordance with the winding progress; wherein the angular velocity of the winding drum being adjusted relative to the winding drum in a dependence on the axial setting position of the guide in the axial course of the helical winding of a winding material layer, and b) on reaching a turning position X o, a turning operation is performed in which: i) the guide arriving in a forth-laying-movement to the turning position X o is substantially removed away from the winding drum in a radial vertical direction; and ii) during or after the removal (i), the guide is further displaced forward in axial forth-laying-movement-direction relative to the winding drum by an axial subsequent-displacement-distance such that the turning position X o is traversed in axial forth- and back-laying- movement-direction. i) the guide arriving in a forth-laying-movement to the turning position X o is substantially removed away from the winding drum in a radial vertical direction; and ii) during or after the removal (i), the guide is further displaced forward in axial forth-laying-movement-direction relative to the winding drum by an axial subsequent-displacement-distance such that the turning position X o is traversed in axial forth- and back-laying- movement-direction.
A screw and collar assembly including a screw with a head, a shoulder, a threaded shaft (76, 78) and a fixation collar; the screw comprises the head, the shoulder beneath the head, a groove between the head and shoulder, and the threaded shaft (74,76) beneath the shoulder; and the fixation collar comprises a C-shaped fixation collar comprising a sidewall at least partially surrounding a void that is substantially in the center of the collar and extends along an axis that is parallel to the vertical axis of the fixation collar, the sidewall comprising a recessed top portion that forms a ridge a bottom portion that engages the groove when the screw is inside of the void, end regions that are partially flexible along an axis that is perpendicular to the vertical axis of the fixation collar, and a first end and second end defining a gap in communication with the void, each end comprising a second notch (86c,d) below the ridge; wherein the gap has a width slightly narrower than the inner diameter of the groove, and the void has a diameter narrower than the outer diameter of the shoulder such that the screw may not be moved axially through the fixation collar, at least higher than the shoulder, characterized in that: the bottom of the head sits on the ridge when the screw is inside of the void and each end of the fixation collar comprises a first notch (86a,b) above the ridge.
A fungicidal composition having a synergistic effect, comprising active ingredients A and B, wherein the active ingredient A is benzisothiazolinone, the active ingredient B is one selected from benthiavalicarb-isopropyl, zoxamide, prothioconazole, boscalid, fenamidone, fluopicolide, famoxadone, pyraclostrobin, picoxystrobin, or fluazinam, and the weight ratio of the two ingredients is from 1:50 to 50:1.
An electro-conductive member for electrophotography, comprising: an electro-conductive mandrel; and an electro-conductive layer provided on a periphery thereof, wherein the electro-conductive layer contains a binder resin having, in a molecule thereof, an alkylene oxide structure, and a sulfo group or a quaternary ammonium group as an ion exchange group, and an ion having polarity opposite to polarity of the ion exchange group, a water content of the electro-conductive layer under an environment of a temperature of 30°C and a relative humidity of 80% is 10 mass% or less, and a spin-spin relaxation time T2 of the electro-conductive layer is 200 μsec or more, which is determined by pulse NMR measurement under an environment of a relative humidity of 10%,wherein the spin-spin relaxation time T2 is measured using a measurement cell obtainable by shaving off by 0.5 g of the electro-conductive layer of an electro-conductive roller, which was left to stand for 48 hours under the L/L environment, and sealing in a measurement cell; for the measurement, the value of the relaxation time T2 is determined from an echo intensity obtainable through use of a solid echo method with a hydrogen core being a measurement core by pulse NMR measurement; conditions for the measurement are as follows: measurement frequency: 20 MHz; 90° pulse width: 2.0 μsec; pulse interval: 12 μsec; temperature: 15°C; and cumulative number: 128. an electro-conductive mandrel; and an electro-conductive layer provided on a periphery thereof, wherein the electro-conductive layer contains a binder resin having, in a molecule thereof, an alkylene oxide structure, and a sulfo group or a quaternary ammonium group as an ion exchange group, and an ion having polarity opposite to polarity of the ion exchange group, a water content of the electro-conductive layer under an environment of a temperature of 30°C and a relative humidity of 80% is 10 mass% or less, and a spin-spin relaxation time T2 of the electro-conductive layer is 200 μsec or more, which is determined by pulse NMR measurement under an environment of a relative humidity of 10%,wherein the spin-spin relaxation time T2 is measured using a measurement cell obtainable by shaving off by 0.5 g of the electro-conductive layer of an electro-conductive roller, which was left to stand for 48 hours under the L/L environment, and sealing in a measurement cell; for the measurement, the value of the relaxation time T2 is determined from an echo intensity obtainable through use of a solid echo method with a hydrogen core being a measurement core by pulse NMR measurement; conditions for the measurement are as follows: measurement frequency: 20 MHz; 90° pulse width: 2.0 μsec; pulse interval: 12 μsec; temperature: 15°C; and cumulative number: 128.
A skin contacting member for a shaving razor assembly comprising: a main body having a plurality of lubricant reservoir cavities, and a plurality of tiltable lid elements at least partially covering one or more of the plurality of lubricant reservoir cavities, wherein the tiltable lid element has a tilt axis which divides the tiltable lid element in a first portion on a first side of the tilt axis and a second portion on a second side of the tilt axis which opposes the first side, characterized in that the tiltable lid element is configured as a scale such that, upon external force being exerted on a tiltable lid element during a shaving operation, a torque moment acts on the tiltable lid element which tilts the first portion toward a respective lubricant reservoir cavity whereby the second portion is lifted up from the main body in an opposing direction. a main body having a plurality of lubricant reservoir cavities, and a plurality of tiltable lid elements at least partially covering one or more of the plurality of lubricant reservoir cavities, wherein the tiltable lid element has a tilt axis which divides the tiltable lid element in a first portion on a first side of the tilt axis and a second portion on a second side of the tilt axis which opposes the first side, characterized in that the tiltable lid element is configured as a scale such that, upon external force being exerted on a tiltable lid element during a shaving operation, a torque moment acts on the tiltable lid element which tilts the first portion toward a respective lubricant reservoir cavity whereby the second portion is lifted up from the main body in an opposing direction.
A speed change device comprising: an inner race (106, 108) having an outer surface and defining an axis; an outer race having an inner surface and coaxial with the inner race; a set of orbital rollers including inner rollers (90, 94) in geared contact with the outer surface of the inner race and outer rollers in geared contact with the inner surface of the outer race, each and every inner roller being in geared contact with two outer rollers, and each and every outer roller being in geared contact with two inner rollers; characterised in that: at least one of the outer surface of the inner race and the inner surface of the outer race being formed of two angled gear surfaces having different helix angle, wherein the two angled gear surfaces are positioned on axially adjacent components; and an input gear (96, 104) formed of two axially adjacent components each having a respective input angled gear surface, the respective input angled gear surfaces having different helix angles, the input gear being coaxial with the inner race and outer race and in geared contact with the inner rollers. an inner race (106, 108) having an outer surface and defining an axis; an outer race having an inner surface and coaxial with the inner race; a set of orbital rollers including inner rollers (90, 94) in geared contact with the outer surface of the inner race and outer rollers in geared contact with the inner surface of the outer race, each and every inner roller being in geared contact with two outer rollers, and each and every outer roller being in geared contact with two inner rollers; at least one of the outer surface of the inner race and the inner surface of the outer race being formed of two angled gear surfaces having different helix angle, wherein the two angled gear surfaces are positioned on axially adjacent components; and an input gear (96, 104) formed of two axially adjacent components each having a respective input angled gear surface, the respective input angled gear surfaces having different helix angles, the input gear being coaxial with the inner race and outer race and in geared contact with the inner rollers.
A dual limb circuit comprising: an inspiratory limb configured to deliver respiratory gases to a patient, the inspiratory limb comprising a first segment having a first heater wire circuit and a second segment having a second heater wire circuit, the second segment being closer to the patient than the first segment; and, an expiratory limb configured to transport exhaled gases away from the patient and comprising an expiratory heater wire circuit; characterized in that, the first heater wire circuit, the second heater wire circuit, and the expiratory heater wire circuit are connected in use to at least one controller controlling power provided to the heater wire circuits (206a, 206b, 212) such that, in a first mode, power is provided to the first heater wire circuit and to an entire length of heater wire of the expiratory heater wire circuit, and no power is provided to the second heater wire circuit. an inspiratory limb configured to deliver respiratory gases to a patient, the inspiratory limb comprising a first segment having a first heater wire circuit and a second segment having a second heater wire circuit, the second segment being closer to the patient than the first segment; and, an expiratory limb configured to transport exhaled gases away from the patient and comprising an expiratory heater wire circuit; characterized in that, the first heater wire circuit, the second heater wire circuit, and the expiratory heater wire circuit are connected in use to at least one controller controlling power provided to the heater wire circuits (206a, 206b, 212) such that, in a first mode, power is provided to the first heater wire circuit and to an entire length of heater wire of the expiratory heater wire circuit, and no power is provided to the second heater wire circuit.
A planar element, comprising - at least one support substrate, in particular at least one support plate, said support substrate being made of real glass, and - at least one coating arranged on at least one area or side of the support substrate, characterized in that the coating's area or side averted from the support substrate is repeatedly sealed. - at least one support substrate, in particular at least one support plate, said support substrate being made of real glass, and - at least one coating arranged on at least one area or side of the support substrate,
A method of controlling an electromechanical actuator of a winder of a screen, the winder being able to be rotated by the actuator to drive the screen between an end position in a first movement direction or a first end of usage stroke position in the first movement direction and at least a second end of usage stroke position in a second movement direction opposite the first movement direction, the first end of usage stroke position being located between the end position in the first movement direction and the second end of usage stroke position, wherein the method comprises: - usage phases, during which a control unit of the actuator responds to instructions for complete or partial movement in the first movement direction or in the second movement direction by controlling the actuator so as to move the screen between the first end of usage stroke position and the second end of usage stroke position, but without moving the screen in the first movement direction beyond the first end of usage stroke position; and - maintenance phases separating the usage phases, and during which the control unit of the actuator responds to a complete movement instruction in the first movement direction, by controlling the actuator so as to drive the screen to the end position in the first movement direction, detecting reaching of the end position in the first movement direction and then, in response to detection of reaching of the end position in the first movement direction, by moving the screen in the second movement direction before stopping it in the first end of usage stroke position or a position closer to the first end of usage stroke position than the end position in the first movement direction. - usage phases, during which a control unit of the actuator responds to instructions for complete or partial movement in the first movement direction or in the second movement direction by controlling the actuator so as to move the screen between the first end of usage stroke position and the second end of usage stroke position, but without moving the screen in the first movement direction beyond the first end of usage stroke position; and - maintenance phases separating the usage phases, and during which the control unit of the actuator responds to a complete movement instruction in the first movement direction, by controlling the actuator so as to drive the screen to the end position in the first movement direction, detecting reaching of the end position in the first movement direction and then, in response to detection of reaching of the end position in the first movement direction, by moving the screen in the second movement direction before stopping it in the first end of usage stroke position or a position closer to the first end of usage stroke position than the end position in the first movement direction.
A panaxdiol-type ginsenoside derivative, having the structure shown in formula I or formula II: in formula I and formula II, R 1 is R 2 has the structure shown in formula III: in formula III, n=0, 1 or 2, R 4 is methyl or ethyl, R 5 is one of a hydrogen atom, a substituted or unsubstituted C1-C5 alkyl, a substituted or unsubstituted benzyl and a C4-C9 heterocycloalkyl; or R 2 is in formula I and formula II, R 1 is R 2 has the structure shown in formula III: in formula III, n=0, 1 or 2, R 4 is methyl or ethyl, R 5 is one of a hydrogen atom, a substituted or unsubstituted C1-C5 alkyl, a substituted or unsubstituted benzyl and a C4-C9 heterocycloalkyl; or R 2 is
A data sending method, comprising: receiving, by a first microwave device, a common public radio interface, CPRI, frame, and obtaining a control word, CW, and a first antenna-carrier, AxC, from the CPRI frame; modulating, by the first microwave device, the CW to obtain in-phase/quadrature, I/Q, data of the CW; determining, by the first microwave device, a first timeslot, wherein the first timeslot is a timeslot in which the first AxC does not carry antenna-carrier I/Q data; writing, by the first microwave device, a preset synchronization sequence, first information, and a random number in the first timeslot to generate a second AxC, wherein the first information comprises at least one of a preset channel estimate or a preset radio frequency weighted matrix of the first microwave device; and combining, by the first microwave device, the second AxC with the I/Q data of the CW to generate a microwave air interface frame, and sending the microwave air interface frame in a time division multiplexing manner. receiving, by a first microwave device, a common public radio interface, CPRI, frame, and obtaining a control word, CW, and a first antenna-carrier, AxC, from the CPRI frame; modulating, by the first microwave device, the CW to obtain in-phase/quadrature, I/Q, data of the CW; determining, by the first microwave device, a first timeslot, wherein the first timeslot is a timeslot in which the first AxC does not carry antenna-carrier I/Q data; writing, by the first microwave device, a preset synchronization sequence, first information, and a random number in the first timeslot to generate a second AxC, wherein the first information comprises at least one of a preset channel estimate or a preset radio frequency weighted matrix of the first microwave device; and combining, by the first microwave device, the second AxC with the I/Q data of the CW to generate a microwave air interface frame, and sending the microwave air interface frame in a time division multiplexing manner.
A welding work data accumulation device comprising: a measurement unit that measures a welding motion and a welding phenomenon when a welding operator grips a welding torch and performs welding on a welded body; a data analysis unit that extracts an appropriate combination of a welding motion feature amount and a welding phenomenon feature amount in correlation with time or coordinates based on data acquired by the measurement unit; and a data accumulation unit that creates a database based on an extraction result of the data analysis unit, characterized in that further comprising a welding work environment input unit that receives information regarding a welding work environment, wherein the data analysis unit analyzes the welding motion feature amount and the welding phenomenon feature amount based on the information regarding the welding work environment and the data acquired by the measurement unit, further comprising a measurement instrument, that measures a shape of the welded portion, being connected to the work environment input unit and the shape of the portion to be welded measured by the measurement instrument is input to the work environment input unit. a measurement unit that measures a welding motion and a welding phenomenon when a welding operator grips a welding torch and performs welding on a welded body; a data analysis unit that extracts an appropriate combination of a welding motion feature amount and a welding phenomenon feature amount in correlation with time or coordinates based on data acquired by the measurement unit; and a data accumulation unit that creates a database based on an extraction result of the data analysis unit, characterized in that further comprising a welding work environment input unit that receives information regarding a welding work environment, wherein the data analysis unit analyzes the welding motion feature amount and the welding phenomenon feature amount based on the information regarding the welding work environment and the data acquired by the measurement unit, further comprising a measurement instrument, that measures a shape of the welded portion, being connected to the work environment input unit and the shape of the portion to be welded measured by the measurement instrument is input to the work environment input unit.
Surface elastic wave device comprising a stack comprising at least: - a thin film made of a piezoelectric first material; - a substrate made from a second material; - excitation means for generating at least one surface acoustic wave propagation mode at the piezoelectric film; wherein: - the first material is a single-crystal material and the second material is a crystalline material, - the thickness of the thin film of piezoelectric first material being between 1 and 20 μm; - the first material and the second material having viscoelastic coefficients less than or equal to those of quartz for the propagation mode induced by the excitation means; - the first material is one of the following materials: quartz, GaPO 4, doped SiO 2, langasite (LGS - La 3 Ga 5 SiO 14), langatate (LGT - La 3 Ga 5.5 Ta 0.5 O 14), langanite (LGN - La 3 Ga 5.5 Nb 0.5 O 14), Sr 3 NbGa 3 Si 2 O 14 (SNGS), Ca 3 NbGa 3 Si 2 O 14 (CNGS), Ca 3 TaGa 3 Si 2 O 14 (CTGS), Sr 3 TaGa 3 Si 2 O 14 (STGS) or Ca 3 TaAl 3 Si 2 O 14 (CTAS); - the second material is one of the following materials: sapphire, lithium niobate or lithium tantalate. - a thin film made of a piezoelectric first material; - a substrate made from a second material; - excitation means for generating at least one surface acoustic wave propagation mode at the piezoelectric film; wherein: - the first material is a single-crystal material and the second material is a crystalline material, - the thickness of the thin film of piezoelectric first material being between 1 and 20 μm; - the first material and the second material having viscoelastic coefficients less than or equal to those of quartz for the propagation mode induced by the excitation means; - the first material is one of the following materials: quartz, GaPO 4, doped SiO 2, langasite (LGS - La 3 Ga 5 SiO 14), langatate (LGT - La 3 Ga 5.5 Ta 0.5 O 14), langanite (LGN - La 3 Ga 5.5 Nb 0.5 O 14), Sr 3 NbGa 3 Si 2 O 14 (SNGS), Ca 3 NbGa 3 Si 2 O 14 (CNGS), Ca 3 TaGa 3 Si 2 O 14 (CTGS), Sr 3 TaGa 3 Si 2 O 14 (STGS) or Ca 3 TaAl 3 Si 2 O 14 (CTAS); - the second material is one of the following materials: sapphire, lithium niobate or lithium tantalate.