mhurhangee/ep-ind-claims huggingface dataset:
A detection method using a capacitive sensor, the method comprising: preparing a capacitive sensor (5, 35) including a first electrode (5A, 41); and executing a first basic scan for determining which of a bare hand or a gloved hand the first electrode is manipulated with by executing a bare-hand scan for determining whether or not the first electrode of the capacitive sensor is manipulated with the bare hand and a gloved-hand scan for determining whether or not the first electrode is manipulated with the gloved hand, said executing the first basic scan comprising: executing one of the bare-hand scan and the gloved-hand scan; after said executing the one of the bare-hand scan and the gloved-hand scan, changing sensitivity of the capacitive sensor; and after said changing the sensitivity of the capacitive sensor, executing another of the bare-hand scan and the gloved-hand scan, characterized by subsequent to the first basic scan, executing at least once a second basic scan for determining which of the bare hand or the gloved hand the first electrode is manipulated with, by executing the bare-hand scan and the gloved-hand scan, determining finally that the first electrode is manipulated with the bare hand if determining, in all of said executing of the first basic scan and said executing of the at least one second basic scan, that the first electrode is manipulated with the bare hand; and determining finally that the first electrode is manipulated with the gloved hand if determining, in all of said executing of the first basic scan and said executing of the at least one second basic scan, that the first electrode is manipulated with the gloved hand. preparing a capacitive sensor (5, 35) including a first electrode (5A, 41); and executing a first basic scan for determining which of a bare hand or a gloved hand the first electrode is manipulated with by executing a bare-hand scan for determining whether or not the first electrode of the capacitive sensor is manipulated with the bare hand and a gloved-hand scan for determining whether or not the first electrode is manipulated with the gloved hand, executing one of the bare-hand scan and the gloved-hand scan; after said executing the one of the bare-hand scan and the gloved-hand scan, changing sensitivity of the capacitive sensor; and after said changing the sensitivity of the capacitive sensor, executing another of the bare-hand scan and the gloved-hand scan,
A method for applying a film to a plastic work piece that is to be cured, comprising the following steps: (a) providing an uncured plastic work piece, which is to be cured, and which is disposed on the surface of a base member in such a way that a free region of the surface of the base member remains around the plastic work piece, (b) providing an application frame having a frame housing, wherein the frame housing has a frame opening and a frame edge surrounding the frame opening, wherein the frame opening is dimensioned in such a way that the plastic work piece can be passed through the frame opening, (c) providing a film, which is suitable for covering a plastic work piece during the curing thereof, (d) applying the film on the frame edge, so that the frame opening is covered by the film, and the fastening of a lip region of the film to the frame edge, and (e) moving the application frame relative to the plastic work piece, so that the plastic work piece is passed through the frame opening until the frame edge, having the lip region of the film attached thereto, contacts the free region of the surface of the base member around the plastic work piece, wherein during this relative movement, the film is deformed by the plastic work piece and rests against this plastic work piece, characterized in that an adhesive joint is produced between the lip region of the film and the free region of the surface of the base member, which is contacted by the lip region, and that after the adhesive joint has been produced, the application frame is removed from the film. (a) providing an uncured plastic work piece, which is to be cured, and which is disposed on the surface of a base member in such a way that a free region of the surface of the base member remains around the plastic work piece, (b) providing an application frame having a frame housing, wherein the frame housing has a frame opening and a frame edge surrounding the frame opening, wherein the frame opening is dimensioned in such a way that the plastic work piece can be passed through the frame opening, (c) providing a film, which is suitable for covering a plastic work piece during the curing thereof, (d) applying the film on the frame edge, so that the frame opening is covered by the film, and the fastening of a lip region of the film to the frame edge, and (e) moving the application frame relative to the plastic work piece, so that the plastic work piece is passed through the frame opening until the frame edge, having the lip region of the film attached thereto, contacts the free region of the surface of the base member around the plastic work piece, wherein during this relative movement, the film is deformed by the plastic work piece and rests against this plastic work piece,
Laser pulse detector device being configured for determining a temporal relationship of a first laser pulse and a second laser pulse, comprising - a beam combiner device being arranged for overlapping the first and second laser pulses (A, B) on a common beam path, - a non-linear crystal device being arranged for creating a first signal pulse and a second signal pulse by optically non-linear interactions of the first and second laser pulses (A, B) along the common beam path, wherein an intensity difference of the first and second signal pulses (C, D) depends on the temporal relationship of the first and second laser pulses (A, B), wherein the first and second signal pulses (C, D) have different spectral properties and a centre wavelength of the first signal pulse differs from a centre wavelength of the second signal pulse, - a sensor device including two sensor units (31, 32) each being arranged in a different sensor beam path (1A, 1B) for detecting one of the first and second signal pulses (C, D), wherein the sensor device is adapted for providing a sensor signal output determined by the intensity difference of the first and second signal pulses (C, D), and - a spectrally selective beam separator device is arranged between the non-linear crystal device and the two sensor units (31, 32) of the sensor device, wherein - the spectrally selective beam separator device is arranged for spectrally separating the first and second signal pulses (C, D) in dependency on the centre wavelengths thereof and directing the spectrally separated first and second signal pulses onto the different sensor beam paths (1A, 1B). - a beam combiner device being arranged for overlapping the first and second laser pulses (A, B) on a common beam path, - a non-linear crystal device being arranged for creating a first signal pulse and a second signal pulse by optically non-linear interactions of the first and second laser pulses (A, B) along the common beam path, wherein an intensity difference of the first and second signal pulses (C, D) depends on the temporal relationship of the first and second laser pulses (A, B), wherein the first and second signal pulses (C, D) have different spectral properties and a centre wavelength of the first signal pulse differs from a centre wavelength of the second signal pulse, - a sensor device including two sensor units (31, 32) each being arranged in a different sensor beam path (1A, 1B) for detecting one of the first and second signal pulses (C, D), wherein the sensor device is adapted for providing a sensor signal output determined by the intensity difference of the first and second signal pulses (C, D), and - a spectrally selective beam separator device is arranged between the non-linear crystal device and the two sensor units (31, 32) of the sensor device, wherein - the spectrally selective beam separator device is arranged for spectrally separating the first and second signal pulses (C, D) in dependency on the centre wavelengths thereof and directing the spectrally separated first and second signal pulses onto the different sensor beam paths (1A, 1B).
Medicament delivery device comprising a housing, which housing is arranged to accommodate a medicament container; - a power unit comprising: - a spring drive force element, - an actuation unit (90, 102) operably connected to said spring drive force element; which actuation unit (90, 102) is movable, upon activation of said spring drive force element, for expelling a dose of medicament from said medicament container; - a monitoring unit provided with an electrical power source for operating said monitoring unit; the medicament delivery device further comprising an activation element operably connected to said actuation unit (90, 102), to said monitoring unit and to said electrical power source, wherein said activation element is arranged to allow connection between said electrical power source and said monitoring unit when said actuation unit (98, 102) is moved by said spring drive force element, characterised in that said activation element comprises a flexible elongated member in the form of a band attached with a first end to said actuation unit (98, 102) and with a second end to said monitoring unit. - a power unit comprising: - a spring drive force element, - an actuation unit (90, 102) operably connected to said spring drive force element; which actuation unit (90, 102) is movable, upon activation of said spring drive force element, for expelling a dose of medicament from said medicament container; - a spring drive force element, - an actuation unit (90, 102) operably connected to said spring drive force element; which actuation unit (90, 102) is movable, upon activation of said spring drive force element, for expelling a dose of medicament from said medicament container; - a monitoring unit provided with an electrical power source for operating said monitoring unit;
A dauber applicator, comprising: a container cap 101; a dauber metal applicator wire 104, wherein the metal applicator wire 104 comprises a first end 302 and a second end 304, the first end 302 is shaped to hold a cotton blob 105, characterized in that the second end 304 is shaped into a pattern selected from a zig-zag pattern, a sinuous, a tilt, a wave, a S-shaped, a crooked structure, and angular bend, wherein a holding means 103 is moulded over the second end 304, and wherein the holding means 103 is shaped for fitting in a cavity 102 within the container cap 101. a container cap 101; a dauber metal applicator wire 104, wherein the metal applicator wire 104 comprises a first end 302 and a second end 304, the first end 302 is shaped to hold a cotton blob 105, characterized in that the second end 304 is shaped into a pattern selected from a zig-zag pattern, a sinuous, a tilt, a wave, a S-shaped, a crooked structure, and angular bend, wherein a holding means 103 is moulded over the second end 304, and wherein the holding means 103 is shaped for fitting in a cavity 102 within the container cap 101.
A method of hopping a code by a base station in a wireless communication system using a plurality of slots, each slot comprising a plurality of symbol blocks in a time domain, the method comprising: transmitting a resource index to a terminal, wherein the resource index is used for determining a first code being hopped on a symbol block-by-symbol block basis and on a slot-by-slot basis, the first code being used for a transmission of an uplink signal in the terminal; wherein the resource index is further used for determining a second code being hopped on a slot-by-slot basis, the second code being used for the transmission of the uplink signal in the terminal; and receiving from the terminal the uplink signal by using the first code and the second code of a corresponding symbol block of a corresponding slot in at least some symbol blocks among the plurality of slots, wherein the plurality of symbol blocks of each slot includes a first symbol block, a second symbol block, a third symbol block, a fourth symbol block, a fifth symbol block, a sixth symbol block, and a seventh symbol block that are sequentially arranged in a time domain, wherein the first, second, sixth and seventh symbol blocks are used to carry a control signal in the uplink signal, and wherein the third, fourth and fifth symbol blocks are used to carry a reference signal in the uplink signal. transmitting a resource index to a terminal, wherein the resource index is used for determining a first code being hopped on a symbol block-by-symbol block basis and on a slot-by-slot basis, the first code being used for a transmission of an uplink signal in the terminal; wherein the resource index is further used for determining a second code being hopped on a slot-by-slot basis, the second code being used for the transmission of the uplink signal in the terminal; and receiving from the terminal the uplink signal by using the first code and the second code of a corresponding symbol block of a corresponding slot in at least some symbol blocks among the plurality of slots, wherein the plurality of symbol blocks of each slot includes a first symbol block, a second symbol block, a third symbol block, a fourth symbol block, a fifth symbol block, a sixth symbol block, and a seventh symbol block that are sequentially arranged in a time domain, wherein the first, second, sixth and seventh symbol blocks are used to carry a control signal in the uplink signal, and wherein the third, fourth and fifth symbol blocks are used to carry a reference signal in the uplink signal.
A transmission method comprising: coding video and audio content for advanced Broadband Satellite transmission; configuring, at a transmission apparatus, one or more second transfer units that include the coded video and audio content; and transmitting the one or more second transfer units as a transmission signal through broadcast, the transmission signal including first control information, second control information, and the one or more second transfer units, and the second control information being provided in each of the one or more second transfer units, wherein, in at least one second transfer unit among the one or more second transfer units, the second control information of the at least one second transfer unit contains first reference clock information that indicates time for reproduction of the video and audio content, wherein information indicating that the first reference clock information is contained within a header of the at least one second transfer unit is stored in the first control information, and wherein a first protocol stack layer of a protocol stack for transmission using an advanced Broadcast Satellite transfer scheme includes the first control information, the second control information, and the one or more second transfer units, and a second protocol stack layer that is different from the first protocol stack layer includes second reference clock information that indicates time for reproduction of the audio and video content. coding video and audio content for advanced Broadband Satellite transmission; configuring, at a transmission apparatus, one or more second transfer units that include the coded video and audio content; and transmitting the one or more second transfer units as a transmission signal through broadcast, the transmission signal including first control information, second control information, and the one or more second transfer units, and the second control information being provided in each of the one or more second transfer units, wherein, in at least one second transfer unit among the one or more second transfer units, the second control information of the at least one second transfer unit contains first reference clock information that indicates time for reproduction of the video and audio content, wherein information indicating that the first reference clock information is contained within a header of the at least one second transfer unit is stored in the first control information, and wherein a first protocol stack layer of a protocol stack for transmission using an advanced Broadcast Satellite transfer scheme includes the first control information, the second control information, and the one or more second transfer units, and a second protocol stack layer that is different from the first protocol stack layer includes second reference clock information that indicates time for reproduction of the audio and video content.
A composition comprising a silicone hydrogel and at least one non-reactive hydrophilic polymer having a polydispersity of 1.5 or less, comprising in said polymer's backbone, a hydrophilic segment having a degree of polymerization of 300 to 10,000, and a linear silicone segment on at least one terminal end of said non-reactive hydrophilic polymer, wherein said silicone segment comprises between 6 and 20 siloxy units, and said non-reactive hydrophilic polymer is associated, via the linear silicone block with said silicone hydrogel; wherein "non-reactive" means that the polymer is incapable of forming significant covalent bonding, and wherein "associated" means that the polymer is retained in the silicone hydrogel without covalent bonding.
A stretchable cable comprising: a sheet-shaped base material exhibiting elasticity; and a wiring formed on one surface of the base material and exhibiting elasticity, wherein the wiring is made of a conductive composition containing elastomer and a conductive filler filling the elastomer wherein the conductive filler in the conductive composition is in the range between 30 to 95% by weight, characterized in that the conductive filler is a coil-shaped conductive filler selected from either a small metal coil comprising a natural helical structure on which metal is plated or a small metal spring, wherein the small metal coil is obtainable by applying metal plating to alga spirulina and the small spring is obtainable by processing a wire rod having a conductor diameter (a wire diameter) of equal to or smaller than 30 μm into a coil shape. a sheet-shaped base material exhibiting elasticity; and a wiring formed on one surface of the base material and exhibiting elasticity, wherein the wiring is made of a conductive composition containing elastomer and a conductive filler filling the elastomer wherein the conductive filler in the conductive composition is in the range between 30 to 95% by weight, characterized in that the conductive filler is a coil-shaped conductive filler selected from either a small metal coil comprising a natural helical structure on which metal is plated or a small metal spring, wherein the small metal coil is obtainable by applying metal plating to alga spirulina and the small spring is obtainable by processing a wire rod having a conductor diameter (a wire diameter) of equal to or smaller than 30 μm into a coil shape.
A tool for stretching a sensor network film, comprising: a first rod that extends along a first axis and moves perpendicular to the first axis and along a second axis; a first sliding guide that moves along the first axis on the first rod; a second rod that extends parallel to the second axis and moves perpendicular to the second axis and parallel to the first axis; a second sliding guide that moves along the second axis on the second rod; a third rod that extends along a third axis and moves perpendicular to the third axis and parallel to the second axis; a third sliding guide that moves along the third axis on the third rod; a fourth rod that extends along a fourth axis and moves perpendicular to the fourth axis and parallel to the first axis; and a fourth sliding guide that moves along the fourth axis on the fourth rod; where the first axis and the third axis are parallel, and the second axis and the fourth axis are parallel; characterised in that: the sensor network film is attached at its periphery to each of the first, second, third and fourth rods (204, 218, 230, 242); and the tool comprises a motor that simultaneously moves each of the first, second, third and fourth rods (204, 218, 230, 242) and the first, second, third and fourth sliding guides (214, 228, 238, 252) to stretch the sensor network film. a first rod that extends along a first axis and moves perpendicular to the first axis and along a second axis; a first sliding guide that moves along the first axis on the first rod; a second rod that extends parallel to the second axis and moves perpendicular to the second axis and parallel to the first axis; a second sliding guide that moves along the second axis on the second rod; a third rod that extends along a third axis and moves perpendicular to the third axis and parallel to the second axis; a third sliding guide that moves along the third axis on the third rod; a fourth rod that extends along a fourth axis and moves perpendicular to the fourth axis and parallel to the first axis; and a fourth sliding guide that moves along the fourth axis on the fourth rod; where the first axis and the third axis are parallel, and the second axis and the fourth axis are parallel; characterised in that: the sensor network film is attached at its periphery to each of the first, second, third and fourth rods (204, 218, 230, 242); and the tool comprises a motor that simultaneously moves each of the first, second, third and fourth rods (204, 218, 230, 242) and the first, second, third and fourth sliding guides (214, 228, 238, 252) to stretch the sensor network film. the sensor network film is attached at its periphery to each of the first, second, third and fourth rods (204, 218, 230, 242); and the tool comprises a motor that simultaneously moves each of the first, second, third and fourth rods (204, 218, 230, 242) and the first, second, third and fourth sliding guides (214, 228, 238, 252) to stretch the sensor network film.
A rail vehicle axle comprising: a chemical composition consisting of, in mass%, C: 0.20 to 0.35%, Si: 0.20 to 0.65%, Mn: 0.40 to 1.20%, P: 0.020% or less, S: 0.020% or less, Cu: 0 to 0.30%, Ni: 0 to 0.30%, Cr: 0 to 0.30%, Mo: 0 to 0.08%, Al: 0 to 0.100%, N: 0.0200% or less, V: 0 to 0.060%, and Ti: 0 to 0.020%, with the balance being Fe and impurities, and satisfying Formulae and: 0.58 ≤ C + Si / 8 + Mn / 5 + Cu / 10 + Cr / 4 + V ≤ 0.67 Si + 0.9 ⁢ Cr ≥ 0.60 where each element symbol in Formulae and is substituted by the content (mass%) of a corresponding element, and wherein the tensile strength is 590 to 650 MPa. a chemical composition consisting of, in mass%, C: 0.20 to 0.35%, Si: 0.20 to 0.65%, Mn: 0.40 to 1.20%, P: 0.020% or less, S: 0.020% or less, Cu: 0 to 0.30%, Ni: 0 to 0.30%, Cr: 0 to 0.30%, Mo: 0 to 0.08%, Al: 0 to 0.100%, N: 0.0200% or less, V: 0 to 0.060%, and Ti: 0 to 0.020%, with the balance being Fe and impurities, and satisfying Formulae and: 0.58 ≤ C + Si / 8 + Mn / 5 + Cu / 10 + Cr / 4 + V ≤ 0.67 Si + 0.9 ⁢ Cr ≥ 0.60
Method of manufacturing a strip of rubber for vehicle tyres, characterized in that: - a strip of rubber is formed; - said strip is cooled with water; - residual water on the surface of the strip is heated from the exterior of the strip and/or this water is replaced by hotter water; and - the water present on the surface of the strip is eliminated. - a strip of rubber is formed; - said strip is cooled with water; - residual water on the surface of the strip is heated from the exterior of the strip and/or this water is replaced by hotter water; and - the water present on the surface of the strip is eliminated.
Ball for a ball sport, comprising at least one heating element, characterized in that the ball further comprises a regulator which is suitable for regulating the electricity for heating the heating element in such a manner that a temperature of the ball substantially takes a predetermined value.