mhurhangee/ep-ind-claims huggingface dataset:
Current collector for a rail vehicle with a swing arm and with a collector shoe, which is fastened to the swing arm, wherein the collector shoe is provided to cover a stationary busbar, wherein a predetermined breaking point of the current collector is formed between the collector shoe and the swing arm, and with a closed measuring chamber, wherein the measuring chamber is located in the or adjacent to the predetermined breaking point, wherein the closed measuring chamber is opened when the predetermined breaking point is destroyed, and with a pressure sensor, wherein the closed measuring chamber is coupled with the pressure sensor, wherein the pressure sensor is designed to transmit an electrical output variable as a measurement for the measured pressure to a signal receiver, characterised in that the pressure sensor is connected via a flexible line of the current collector to the measuring chamber, wherein the swing arm has a profile, in which the flexible line is embedded, so that it does not project outside of a housing of the current collector beyond the profile, wherein the flexible line is arranged in a channel in the swing arm and wherein the channel is open to the lower side of the swing arm in the transition to a collector shoe holder, via which the collector shoe is connected to the swing arm and wherein an angle connection is arranged in the channel for the connection of the measuring chamber to the line.
Method for determining and/or eliminating the twisting of a cable harness in a wind turbine, comprising a nacelle mounted rotatably with respect to a tower and comprising at least one cable harness, wherein the cable harness has a fixed end region and, at a distance therefrom, a movable end region that rotates together with the nacelle and wherein the cable harness is increasingly or decreasingly twisted, at least in certain portions, during a rotation of the nacelle, wherein a twisting of the cable harness is transformed into a movement of a mass element, wherein the twisting of the cable harness is transformed into the movement of the mass element by means of a flexible pulling element, characterized in that the pulling element is wound onto a first rolling element, which is arranged surrounding the cable harness, wherein the pulling element is rolled up or unrolled during a rotation of the nacelle, wherein an increase in the twisting leads to an upward movement of the mass element and to an increase in the potential energy and wherein a downward movement leads to a decrease in the twisting and to a decrease in the potential energy, wherein, to determine the twisting, the movement of the mass element is evaluated.
A radio frequency, RF, coil assembly for a magnetic resonance imaging, MRI, system, comprising: a loop portion surrounding a central area and comprising distributed capacitance conductors; a coupling electronics portion including a pre-amplifier; and a disposable material encasing at least the loop portion and the central area, the disposable material comprising one or more of paper, plastic, and cloth, wherein the coupling electronics portion is removably coupled to the loop portion, wherein the distributed capacitance conductors comprise two parallel conductors encapsulated and separated by a dielectric material, the two parallel conductors maintained separate by the dielectric material along an entire length of the loop portion between terminating ends thereof. a loop portion surrounding a central area and comprising distributed capacitance conductors; a coupling electronics portion including a pre-amplifier; and a disposable material encasing at least the loop portion and the central area, the disposable material comprising one or more of paper, plastic, and cloth, wherein the coupling electronics portion is removably coupled to the loop portion, wherein the distributed capacitance conductors comprise two parallel conductors encapsulated and separated by a dielectric material, the two parallel conductors maintained separate by the dielectric material along an entire length of the loop portion between terminating ends thereof.
Clutch plate with an annular sheet metal part having a U-shaped profile, and with a multilayer sheet metal packing inserted into the U-shaped profile, wherein a friction face is formed by narrow sides of individual sheet metal layers (7, 8).
Apparatus for cutting a web material into a number of part-webs by longitudinally cutting and spreading the part-webs, comprising a dispensing device for providing the web material, at least one cutting device configured to create at least one longitudinal cut in the web material, and at least one spreading device by means of which the part-webs (10,10b,10c) obtained following the at least one longitudinal cut are deflected at least in part transversely to the conveying direction thereof, and are spaced apart from one another by the deflection, wherein provision is made for a first control circuit by means of which the position of the web material transversely to the conveying direction thereof is controlled prior to feeding to the cutting device, and that provision is made of at least one second control circuit which interacts with the spreading device and by means of which the deflection of at least two part-webs (10a,10c) transversely to the conveying direction thereof is controlled, and wherein the first control circuit comprises at least one sensor unit (21, 21') for detecting the position of the web material transversely to the conveying direction thereof, a control unit, and an actuator, by means of which the position of the web material transversely to the conveying direction thereof can be changed, wherein the second control circuit comprises at least one sensor unit for detecting the position of a part-web (10a, 10c) transversely to the conveying direction thereof, at least one control unit, and at least one actuator, which interacts with the spreading device, and, by way of this interaction, influences the amount of the deflection of the part-web (10a, 10c) transversely to the conveying direction thereof, characterised in that the spreading device comprises means for compensating for the path difference between part-webs (10a, 10b, 10c), which run through path stretches which are of different lengths relative to one another, and that a third control circuit is provided, which interacts with the means for compensating for the path difference, and which actuates these means in such a way that the part-webs (10a, 10b, 10c) run at least partially through path stretches of equal length, and wherein, by means of the one control arrangement for the deflection of the at least two part-webs (10a, 10c) transversely to the conveying direction thereof, the deflection of the two outer part-webs (10a, 10c) takes place, wherein no such control arrangement is provided for the part-web arranged between them.
Assembly consisting of one gas-evolving electrode and one porous separator diaphragm wherein: - said separator diaphragm comprises inorganic hydrophilic particulates dispersed in a porous network; - said gas-evolving electrode is a mesoporous or microporous body in form of a flexible carbon web with a pore size below 50 nm comprising a conductive matrix having an electrocatalyst dispersed therein; - said gas-evolving electrode having a surface in direct contact without penetration with said separator diaphragm. - said separator diaphragm comprises inorganic hydrophilic particulates dispersed in a porous network; - said gas-evolving electrode is a mesoporous or microporous body in form of a flexible carbon web with a pore size below 50 nm comprising a conductive matrix having an electrocatalyst dispersed therein; - said gas-evolving electrode having a surface in direct contact without penetration with said separator diaphragm.
Electrically operated food processor comprising a cooking vessel and a lid for the cooking vessel, it being possible to lock the lid to the cooking vessel in the closed position, the cooking vessel further comprising a cooking vessel base and a vessel wall extending upwards from the cooking vessel base, the vessel wall transitions into a radially projecting vessel edge, the lid comprises a lid edge which overlaps the vessel edge in the closed position, the locking mechanism is formed by a locking element provided to overlap the lid, which locking element can be moved from a release position into the locking position and vice versa by means of rotation about an axis (y), and the locking element is formed in an elongate manner in the extension direction of the axis (y) and engages under the vessel edge and overlaps the lid edge in the locking position, characterised in that the lid comprises an edge portion projecting downwards in cross section, which edge portion radially overlaps the projecting vessel edge on the outside in the locking state, in that the axis (y) is radially inside an outermost edge portion of the vessel edge, and in that, when the lid is on but not yet in the closed position, a convex curvature of the lid edge meets an inner edge portion of the locking element, which edge portion has a cross section which differs from a circle, and the lid can be pulled through the locking element by means of resiliently flexible wall and/or sealing regions from the closed position which has not yet been reached into the closed position.
A battery pack comprising: a plurality of battery cells arranged in a longitudinal direction; a heat insulating sheet between two adjacent battery cells; a first friction sheet that is between the heat insulating sheet and one battery cell of the two adjacent battery cells and includes non-adhesive surfaces in direct contact with the heat insulating sheet and the one battery cell; and a restraining mechanism configured to provide a compressive force in the longitudinal direction from both ends of the plurality of battery cells. a plurality of battery cells arranged in a longitudinal direction; a heat insulating sheet between two adjacent battery cells; a first friction sheet that is between the heat insulating sheet and one battery cell of the two adjacent battery cells and includes non-adhesive surfaces in direct contact with the heat insulating sheet and the one battery cell; and a restraining mechanism configured to provide a compressive force in the longitudinal direction from both ends of the plurality of battery cells.
A soft contact lens that has low water content or no water content, low water content defined as the water content being 30% by mass or less, the soft contact lens comprising: a circular central part positioned at a center of the soft contact lens; an intermediate part positioned at an outer peripheral side of the central part and forming an annular shape having a center coaxial with the central part; and an outer edge part positioned at an outer peripheral side of the intermediate part and forming an annular shape having a center coaxial with the central part, characterized in that the respective radii of curvature of the central part, the intermediate part, and the outer edge part satisfy the following formula Radius curvature of central part > Radius of curvature of outer edge part > Radius of curvature of intermediate part, and a sagittal depth of the soft contact lens is within a range of a sagittal depth in a case where the entire soft contact lens is formed with a uniformly constant curvature radius in a range of a radius of curvature ±0.2 mm of the base curve of the outer edge part, wherein the soft contact lens has a tensile elastic modulus of between 0.1 MPa to 3 MPa. a circular central part positioned at a center of the soft contact lens; an intermediate part positioned at an outer peripheral side of the central part and forming an annular shape having a center coaxial with the central part; and an outer edge part positioned at an outer peripheral side of the intermediate part and forming an annular shape having a center coaxial with the central part, characterized in that the respective radii of curvature of the central part, the intermediate part, and the outer edge part satisfy the following formula Radius curvature of central part > Radius of curvature of outer edge part > Radius of curvature of intermediate part, and a sagittal depth of the soft contact lens is within a range of a sagittal depth in a case where the entire soft contact lens is formed with a uniformly constant curvature radius in a range of a radius of curvature ±0.2 mm of the base curve of the outer edge part, wherein the soft contact lens has a tensile elastic modulus of between 0.1 MPa to 3 MPa. and a sagittal depth of the soft contact lens is within a range of a sagittal depth in a case where the entire soft contact lens is formed with a uniformly constant curvature radius in a range of a radius of curvature ±0.2 mm of the base curve of the outer edge part, wherein the soft contact lens has a tensile elastic modulus of between 0.1 MPa to 3 MPa.
A device for analyzing an active material, comprising: a lower plate on which an electrode is placed; an upper plate coupled to the lower plate and having the electrode interposed therebetween; a sealing member positioned at a seam portion of the upper plate and the lower plate; and a coupling member for coupling the upper plate and the lower plate, wherein the upper plate includes an opening through which a light source can be irradiated to the electrode, an electrolyte is filled in a space between the upper plate and the lower plate, the opening is covered with a glass, and the upper plate is located at a position which is opposite to a liquid level formed by the electrolyte and is higher than the liquid level; the device further comprising a charge/discharge terminal electrically connected to the electrode, wherein the charge/discharge terminal penetrates the upper plate so that a lower end of the charge/discharge terminal is in contact with the electrode or a lead tab extending from the electrode, wherein the lower end of the charge/discharge terminal protrudes further downward than the upper plate, and the upper end of the charge/discharge terminal protrudes further upward than the upper plate. a lower plate on which an electrode is placed; an upper plate coupled to the lower plate and having the electrode interposed therebetween; a sealing member positioned at a seam portion of the upper plate and the lower plate; and a coupling member for coupling the upper plate and the lower plate, wherein the upper plate includes an opening through which a light source can be irradiated to the electrode, an electrolyte is filled in a space between the upper plate and the lower plate, the opening is covered with a glass, and the upper plate is located at a position which is opposite to a liquid level formed by the electrolyte and is higher than the liquid level; the device further comprising a charge/discharge terminal electrically connected to the electrode, wherein the charge/discharge terminal penetrates the upper plate so that a lower end of the charge/discharge terminal is in contact with the electrode or a lead tab extending from the electrode, wherein the lower end of the charge/discharge terminal protrudes further downward than the upper plate, and the upper end of the charge/discharge terminal protrudes further upward than the upper plate.
A paging message receiving method, comprising: receiving, by a terminal device, paging indication information sent by a network device, wherein the paging indication information is used for indicating whether at least one paging group needs to receive a paging message; and determining, by the terminal device based on the paging indication information, a paging occasion on which a paging group in which the terminal device is located receives the paging message; wherein the paging indication information comprises N bits, each bit in the N bits corresponds to one paging group, and N is a quantity of paging groups; wherein the determining, by the terminal device based on the paging indication information, a paging occasion on which a paging group in which the terminal device is located receives the paging message comprises: determining a number m of the first paging group that needs to receive the paging message; determining a number n of the paging group in which the terminal device is located; and determining, by the terminal device, that the paging occasion on which the paging group in which the terminal device is located receives the paging message is n-m+1, wherein n and m are positive integers less than or equal to N, n is greater as than or equal to m. receiving, by a terminal device, paging indication information sent by a network device, wherein the paging indication information is used for indicating whether at least one paging group needs to receive a paging message; and determining, by the terminal device based on the paging indication information, a paging occasion on which a paging group in which the terminal device is located receives the paging message; wherein the paging indication information comprises N bits, each bit in the N bits corresponds to one paging group, and N is a quantity of paging groups; wherein the determining, by the terminal device based on the paging indication information, a paging occasion on which a paging group in which the terminal device is located receives the paging message comprises: determining a number m of the first paging group that needs to receive the paging message; determining a number n of the paging group in which the terminal device is located; and determining, by the terminal device, that the paging occasion on which the paging group in which the terminal device is located receives the paging message is n-m+1, wherein n and m are positive integers less than or equal to N, n is greater as than or equal to m. determining a number m of the first paging group that needs to receive the paging message; determining a number n of the paging group in which the terminal device is located; and determining, by the terminal device, that the paging occasion on which the paging group in which the terminal device is located receives the paging message is n-m+1, wherein n and m are positive integers less than or equal to N, n is greater as than or equal to m.
An iron oxide powder for a brake friction material, having: an average particle diameter of 5.0 μm or more and 200 μm or less, a chlorine content of 150 ppm or less in a combustion ion chromatography, a saturation magnetization of 20 emu/g or less; and a peak pore diameter, measured as set out in the description, of 0.2 μm or more and 1.2 μm or less. an average particle diameter of 5.0 μm or more and 200 μm or less, a chlorine content of 150 ppm or less in a combustion ion chromatography, a saturation magnetization of 20 emu/g or less; and a peak pore diameter, measured as set out in the description, of 0.2 μm or more and 1.2 μm or less.
Method for applying at least one silicone layer by laser transfer printing, the method comprising the following steps: (i) providing a laser source; (ii) providing a printing-compound carrier beneath the laser source, the printing-compound carrier being transparent to laser radiation and being coated on the lower side with a crosslinkable silicone composition, and at least the surface of the crosslinkable silicone composition being charged to a potential phi_1; (iii) providing a deposition carrier beneath the printing-compound carrier; (iv) providing an electrode beneath the deposition carrier, the electrode being charged to a potential phi_3, where phi_1 and phi_3 have opposite polarities; (v) irradiating the printing-compound carrier with laser beams, so that at least a part of the crosslinkable silicone composition is detached and is transferred to the deposition carrier; and (vi) forming a silicone layer by completely or partly crosslinking the silicone composition transferred to the deposition carrier. (i) providing a laser source; (ii) providing a printing-compound carrier beneath the laser source, the printing-compound carrier being transparent to laser radiation and being coated on the lower side with a crosslinkable silicone composition, and at least the surface of the crosslinkable silicone composition being charged to a potential phi_1; (iii) providing a deposition carrier beneath the printing-compound carrier; (iv) providing an electrode beneath the deposition carrier, the electrode being charged to a potential phi_3, where phi_1 and phi_3 have opposite polarities; (v) irradiating the printing-compound carrier with laser beams, so that at least a part of the crosslinkable silicone composition is detached and is transferred to the deposition carrier; and (vi) forming a silicone layer by completely or partly crosslinking the silicone composition transferred to the deposition carrier.
A system for acquiring biometric data from the iris(es) of an individual located at a capturing distance d cap comprised in a range of capturing distances which belong to a group of predefined distance ranges, comprising at least a first camera which is adapted to continuously acquire a flow of images and to determine the 3D position of the eye of the individual, at least a second high-resolution camera, a positioning means for at least one camera, a central unit UC which is adapted to control the cameras and the positioning means: • at least the second high-resolution camera is controlled as a function of a first setpoint value C1 in terms of position, the value C1 being determined from the 3D position of the eye, • the second high-resolution camera has at least one active lens which is adapted to carry out a focusing f 0 of the optical system, the value of f 0 is controlled as a function of a second value C2 which is determined from the distance of the eye relative to the second camera, characterised in that the active lens is adapted to carry out permanent oscillations or scanning of the focusing in a range around this focusing value f 0, the length of the range and the pitch of the permanent oscillations in this range are controlled as a function of this second value C2. • at least the second high-resolution camera is controlled as a function of a first setpoint value C1 in terms of position, the value C1 being determined from the 3D position of the eye, • the second high-resolution camera has at least one active lens which is adapted to carry out a focusing f 0 of the optical system, the value of f 0 is controlled as a function of a second value C2 which is determined from the distance of the eye relative to the second camera, characterised in that the active lens is adapted to carry out permanent oscillations or scanning of the focusing in a range around this focusing value f 0, the length of the range and the pitch of the permanent oscillations in this range are controlled as a function of this second value C2.
A method of fabricating an emitter region of a solar cell, the method comprising: forming, in a furnace, a tunnel oxide layer on a surface of a substrate; and, without removing the substrate from the furnace, forming an amorphous layer on the tunnel oxide layer; doping the amorphous layer to provide a first region comprising N-type dopants and a second region comprising P-type dopants; and, subsequently, heating the doped amorphous layer to provide a polycrystalline layer comprising an N-type-doped region and a P-type-doped region. forming, in a furnace, a tunnel oxide layer on a surface of a substrate; and, without removing the substrate from the furnace, forming an amorphous layer on the tunnel oxide layer; doping the amorphous layer to provide a first region comprising N-type dopants and a second region comprising P-type dopants; and, subsequently, heating the doped amorphous layer to provide a polycrystalline layer comprising an N-type-doped region and a P-type-doped region.