mhurhangee/ep-ind-claims huggingface dataset:
A user apparatus comprising: a reception unit configured to receive a downlink signal, by using symbols included in a region, to which the downlink signal is mapped, and a multiple use region, to which an uplink signal or a downlink signal is mapped; and a transmission unit configured to map the uplink signal to the multiple use region and transmit the mapped result to a base station in the case where information, indicating that the uplink signal is to be mapped to the multiple use region, is transmitted from the base station, characterised in that the information indicating that the uplink signal is to be mapped to the multiple use region is included in downlink control signal for scheduling of the uplink signal or the downlink signal. a reception unit configured to receive a downlink signal, by using symbols included in a region, to which the downlink signal is mapped, and a multiple use region, to which an uplink signal or a downlink signal is mapped; and a transmission unit configured to map the uplink signal to the multiple use region and transmit the mapped result to a base station in the case where information, indicating that the uplink signal is to be mapped to the multiple use region, is transmitted from the base station, characterised in that the information indicating that the uplink signal is to be mapped to the multiple use region is included in downlink control signal for scheduling of the uplink signal or the downlink signal.
Straightening roller unit for wire-shaped, rod-shaped or strip-shaped material to be straightened made of steel, in particular wires, rods, profiles, strips, having straightening rollers which cooperate in pairs, can be engaged against the material to be straightened and can be moved away therefrom, wherein the straightening rollers are driven and the advancing force required for the straightening procedure is imparted to the material to be straightened by friction with the straightening rollers, and wherein the straightening rollers are coupled to associated drive elements which can be driven by a drive device via a driving force distributor gearing, characterized in that the driving force distributor gearing has pairs, associated with the straightening rollers, of upper and lower gear wheels whose axes are coupled via cranks, just like the axes of the straightening rollers, wherein the lower gear wheels are mounted in a main housing plate by means of double bearings, while the upper gear wheels are mounted in the same main housing plate by means of the cranks and a rotatably mounted bearing housing (6") and are coupled to the adjustment device and.
A multicore-monoshell structured gel polymer-coated separator, comprising a base membrane and a multicore-monoshell structured gel polymer coating layer on one or both sides of the base membrane, characterized in the multicore-monoshell structured gel polymer consisting of following raw materials: 60-70 parts by weight of highly elastic nanoparticles, 20-30 parts by weight of inorganic nanoparticles, 20-40 parts by weight of polymethyl methacrylate, 70-80 parts by weight of acrylonitrile, 0.8-1 part by weight of dicumyl peroxide, 3-5 parts by weight of allyl polyethylene glycol, 0.4-1 part by weight of methyl triethoxysilane, 2-3 parts by weight of tetrakis hydroxymethyl phosphonium sulfate, 0.6-1 part by weight of 2-mercaptobenzimidazole, 2-3 parts by weight of glyceryl tristearate, 1-2 parts by weight of 2,2-dimethylolpropionic acid, 0.3-1 part by weight of zinc pyrithione, 0.7-1 part by weight of ammonium ethoxylated alkyl sulfate, 3-4 parts by weight of hydroxyethyl cellulose, and 1-2 parts by weight of fatty alcohol polyoxyethylene ether, wherein the highly elastic nanoparticle is any one selected from the group consisting of nitrile-polyvinyl chloride composite elastomer, vulcanized rubber, polyurethane elastomer, nitrile rubber, styrene butadiene rubber, fluoroelastomer, polyester-polyether, cis-polybutadiene rubber, and siloxane, or consists of at least two from the group.
A device for regulating an air pressure in a flock feed, comprising a storage device, which can be filled with fiber flocks, and an exhaust air fan having a drive, wherein a filling level measurement and an air pressure measurement are provided in the storage device, wherein in a controller of the drive of the exhaust air fan a target value for the air pressure is assigned to a filling level, and wherein the air pressure assigned to the filling level increases continuously with a decrease in filling level, and wherein the controller of the drive of the exhaust air fan is provided for regulating the target value for the air pressure in the storage device, whereby the pressure on the fiber flocks at the lower boundary of the storage device is constant.
Method for autonomously parking a motor vehicle, in which the motor vehicle is positioned in a start position, wherein the start position is associated with a parking area with a plurality of parking spaces, by means of a parking control device, one of the parking spaces is selected for parking for the motor vehicle and a trajectory for autonomously moving the motor vehicle from the start position to the selected parking space is determined, wherein interior data describing an interior of the motor vehicle is received by means of the parking control device, and it is examined based on the received interior data if a living entity is in the interior of the motor vehicle, and the moving of the motor vehicle along the determined trajectory remains undone if the living entity is in the interior, wherein the interior data is determined by means of an interior control device and is transmitted to the parking control device, wherein the interior data is determined based on sensor data by means of the interior control device, which is provided by at least one interior sensor, characterized in that a warning signal is output by means of the parking control device if the living entity is in the interior and a driver of the motor vehicle is located outside of the motor vehicle, wherein the sensor data provided by the at least one interior sensor describes a trunk of the motor vehicle. wherein interior data describing an interior of the motor vehicle is received by means of the parking control device, and it is examined based on the received interior data if a living entity is in the interior of the motor vehicle, and the moving of the motor vehicle along the determined trajectory remains undone if the living entity is in the interior, wherein the interior data is determined by means of an interior control device and is transmitted to the parking control device, wherein the interior data is determined based on sensor data by means of the interior control device, which is provided by at least one interior sensor, characterized in that a warning signal is output by means of the parking control device if the living entity is in the interior and a driver of the motor vehicle is located outside of the motor vehicle, wherein the sensor data provided by the at least one interior sensor describes a trunk of the motor vehicle.
A heatsink system comprising: a base structure (100, 110) configured to interface with a heat source; a heat exchange device (120, 140, 160) configured to receive heat from the base structure (100, 110), and emit the received heat from a heat exchange surface of a plurality of heat exchange elements (122, 144, 166), into an external surrounding heat exchange medium, the heat exchange surface being subject to accumulation of particles; and a particle dislodging device configured to mechanically disrupt and decrease an accumulation of particles on the plurality of heat exchange elements (122, 144, 166) by vibration; characterized in that the system further comprises: a vibration damper, a vibration isolator, or an active vibration suppression interface (128, 130) configured to reduce vibrations outside the heat exchange device (120, 140, 160). a base structure (100, 110) configured to interface with a heat source; a heat exchange device (120, 140, 160) configured to receive heat from the base structure (100, 110), and emit the received heat from a heat exchange surface of a plurality of heat exchange elements (122, 144, 166), into an external surrounding heat exchange medium, the heat exchange surface being subject to accumulation of particles; and a particle dislodging device configured to mechanically disrupt and decrease an accumulation of particles on the plurality of heat exchange elements (122, 144, 166) by vibration; characterized in that the system further comprises: a vibration damper, a vibration isolator, or an active vibration suppression interface (128, 130) configured to reduce vibrations outside the heat exchange device (120, 140, 160).
A method of controlling a drive arrangement comprising at least one drive for moving a robot-guided tool, wherein the tool is moved and the method comprises the steps of: a) detecting a characteristic variable which has a tracking error (Δ) and / or a power and / a change thereof; b) detecting an exceeding of a first threshold value (2; 3) by the characteristic variable; c) detecting an exceeding of a second threshold value, which is greater than the first threshold value, by the characteristic variable; and d) detecting a contact (t 3; t 4; x 0) of the tool on the basis of the exceeding of the first threshold value; wherein a tracking error is understood to be a deviation of an actual value, in particular a detected actual value, from a target value, in particular from a specified target value, of the tool and / or of one or more drives of the drive arrangement, wherein the power is a power of one or more drives of the drive arrangement, in particular a power consumed by one or more drives of the drive arrangement, wherein, in step d), the contact of the tool is detected on the basis of the last exceeding of the first threshold value, if an exceeding of the second, larger threshold value is subsequently detected via the characteristic value, wherein a time and / or a position is detected at which the characteristic variable last exceeded the first threshold value. a) detecting a characteristic variable which has a tracking error (Δ) and / or a power and / a change thereof; b) detecting an exceeding of a first threshold value (2; 3) by the characteristic variable; c) detecting an exceeding of a second threshold value, which is greater than the first threshold value, by the characteristic variable; and d) detecting a contact (t 3; t 4; x 0) of the tool on the basis of the exceeding of the first threshold value; wherein a tracking error is understood to be a deviation of an actual value, in particular a detected actual value, from a target value, in particular from a specified target value, of the tool and / or of one or more drives of the drive arrangement, wherein the power is a power of one or more drives of the drive arrangement, in particular a power consumed by one or more drives of the drive arrangement, wherein, in step d), the contact of the tool is detected on the basis of the last exceeding of the first threshold value, if an exceeding of the second, larger threshold value is subsequently detected via the characteristic value, wherein a time and / or a position is detected at which the characteristic variable last exceeded the first threshold value.
A variable-power lens for a pair of spectacles incorporating head-up display functionality, the lens comprising first and second lens elements one behind the other along an optical axis of the lens, each element having opposite planar and curved surfaces such that the thickness of each element in a direction parallel to the optical axis varies in a direction transverse the optical axis, the elements being relatively moveable in the transverse direction, whereby the power of the lens may be varied; wherein the elements are arranged such that the curved surface of the first element is adjacent the second element, and the planar surface of the first element bears a diffractive pattern that is configured to diffract an image projected onto the diffractive pattern into a user's eye superimposed on an image visible to the user from refracted light passing through the lens.
A method comprising: forming a semiconductor structure comprising a light emitting layer disposed between an n-type region and a p-type region; forming a first metal contact on a portion of the n-type region and a second metal contact on a portion of the p-type region, wherein the first and second metal contacts are formed on a same side of the semiconductor structure; disposing a dielectric material between the first and second metal contacts, wherein the dielectric material is in direct contact with a portion of the semiconductor structure, a portion of the first metal contact, and a portion of the second metal contact; and forming a planar surface, the planar surface including a surface of the first metal contact, a surface of the second metal contact, and a surface of the dielectric material, characterized in that it further comprises etching away a portion of the dielectric material between the first and second metal contacts, after forming a planar surface. forming a semiconductor structure comprising a light emitting layer disposed between an n-type region and a p-type region; forming a first metal contact on a portion of the n-type region and a second metal contact on a portion of the p-type region, wherein the first and second metal contacts are formed on a same side of the semiconductor structure; disposing a dielectric material between the first and second metal contacts, wherein the dielectric material is in direct contact with a portion of the semiconductor structure, a portion of the first metal contact, and a portion of the second metal contact; and forming a planar surface, the planar surface including a surface of the first metal contact, a surface of the second metal contact, and a surface of the dielectric material, characterized in that it further comprises etching away a portion of the dielectric material between the first and second metal contacts, after forming a planar surface.
A stereoscopic illumination system for a binocular microscope, comprising along the light path starting from at least one light source (5, 7): the at least one light source (5, 7) configured to produce first, second, and third uncollimated light beams; first and second condensing lenses configured to condense the first and second light beams, respectively; first and second dove prisms configured to direct the first and second light beams to first and second collimating lenses, respectively; the first and second collimating lenses configured to provide collimated first and second light beams of partially parallel light; first and second 90° prisms configured to reflect the first and second light beams, respectively, the first and second light beams exiting the 90° prisms parallel to each other; and a beamsplitter configured to partially reflect the first and second light beams toward a subject surface such that the first and second light beams partially overlap at the subject surface; the stereoscopic illumination system further comprising in this order along the light path starting from the at least one light source (5, 7): a third condensing lens configured to condense the third light beam; a collecting lens configured to collect the third light beam; a mirror configured to reflect the third light beam toward the subject surface offset at an angle oblique to the axis of the two collimated light beams. the at least one light source (5, 7) configured to produce first, second, and third uncollimated light beams; first and second condensing lenses configured to condense the first and second light beams, respectively; first and second dove prisms configured to direct the first and second light beams to first and second collimating lenses, respectively; the first and second collimating lenses configured to provide collimated first and second light beams of partially parallel light; first and second 90° prisms configured to reflect the first and second light beams, respectively, the first and second light beams exiting the 90° prisms parallel to each other; and a beamsplitter configured to partially reflect the first and second light beams toward a subject surface such that the first and second light beams partially overlap at the subject surface; the stereoscopic illumination system further comprising in this order along the light path starting from the at least one light source (5, 7): a third condensing lens configured to condense the third light beam; a collecting lens configured to collect the third light beam; a mirror configured to reflect the third light beam toward the subject surface offset at an angle oblique to the axis of the two collimated light beams. a third condensing lens configured to condense the third light beam; a collecting lens configured to collect the third light beam; a mirror configured to reflect the third light beam toward the subject surface offset at an angle oblique to the axis of the two collimated light beams.
An implantable, self-adhering mesh prosthesis (300,400) for repairing animal tissue comprising: a sheet of mesh material comprising first and second opposing major surfaces, the sheet having a plurality of creases that intersect at an intersection point, the prosthesis having a three-dimensional shape, and being asymmetrical about the intersection point, wherein the prosthesis further comprises two or more adhesive lines (320, 321, 322, 323, 420, 421, 422, 423, 424) on the first major surface, wherein the adhesive lines (320, 321, 322, 323, 420, 421, 422, 423, 424) are substantially parallel to an adhesive line axis, and wherein the adhesive lines (320, 321, 322, 323, 420, 421, 422, 423, 424) are distributed unevenly over the first major surface such that the distance between a first adhesive line (320, 420) to the intersection point differs from the distance between a second adhesive line (323, 423) to the intersection point. a sheet of mesh material comprising first and second opposing major surfaces, the sheet having a plurality of creases that intersect at an intersection point, the prosthesis having a three-dimensional shape, and being asymmetrical about the intersection point, wherein the prosthesis further comprises two or more adhesive lines (320, 321, 322, 323, 420, 421, 422, 423, 424) on the first major surface, wherein the adhesive lines (320, 321, 322, 323, 420, 421, 422, 423, 424) are substantially parallel to an adhesive line axis, and wherein the adhesive lines (320, 321, 322, 323, 420, 421, 422, 423, 424) are distributed unevenly over the first major surface such that the distance between a first adhesive line (320, 420) to the intersection point differs from the distance between a second adhesive line (323, 423) to the intersection point.
Active material composition for a positive electrode of a lithium-ion secondary cell, comprising: - a lithiated transition metal oxide of formula Li 1+x MO 2 wherein: 0 ≤ x ≤ 0.15, M denotes Ni a Mn b Co c M' d where a > 0; b > 0; c > 0; d ≥ 0; and a + b + c + d = 1; M' being selected from the group consisting of B, Mg, Al, Si, Ca, Ti, V, Cr, Fe, Cu, Zn, Y, Zr, Nb, Mo or a mixture thereof; - a lithiated transition metal phosphate of formula LiMn 1-y M" y PO 4 where M" represents at least one element selected from the group consisting of Fe, Ni, Co, Mg and Zn; and 0 < y < 0.5; the lithiated oxide and the lithiated phosphate being in the form of particles; the particle size distribution of the lithiated oxide being characterized by a first volume median diameter of the particles Dv 50 1 ≥ 500 nm; the particle size distribution of the lithiated phosphate being characterized by a second volume median diameter of the particles Dv 50 2 ≥ 500 nm; and Dv 50 2 / Dv 50 1 ≥ 1.5. - a lithiated transition metal oxide of formula Li 1+x MO 2 wherein: 0 ≤ x ≤ 0.15, M denotes Ni a Mn b Co c M' d where a > 0; b > 0; c > 0; d ≥ 0; and a + b + c + d = 1; M' being selected from the group consisting of B, Mg, Al, Si, Ca, Ti, V, Cr, Fe, Cu, Zn, Y, Zr, Nb, Mo or a mixture thereof; - a lithiated transition metal phosphate of formula LiMn 1-y M" y PO 4 where M" represents at least one element selected from the group consisting of Fe, Ni, Co, Mg and Zn; and 0 < y < 0.5; the lithiated oxide and the lithiated phosphate being in the form of particles;
A motor vehicle front unit comprising a central carrier part for accommodating a radiator and for accommodating a locking device for a motor vehicle front hood and having left and right headlamp carrier parts, wherein each of the headlamp carrier parts is designed, at a first end, to be fastened to the central carrier part and, at a second end, to be fastened to a fender support, wherein each of the headlamp carrier parts is designed to suspend a headlamp unit between the first and the second ends, wherein the central carrier part and the left and right headlamp carrier parts, which are fastened to the central carrier part, form the only cross member of the motor vehicle front unit, wherein each of the headlamp carrier parts has at least one positioning pin (146, 148) for orienting the headlamp unit relative to the headlamp carrier part, characterized in that the headlamp unit can be displaced horizontally along the positioning pin, wherein, during a displacement along the positioning pin, the weight of the headlamp unit is carried by the positioning pin.
A cover window, comprising: a first surface; a second surface opposite the first surface; a first polished surface extending from an end of the first surface along a first direction, the first polished surface having a first inclination angle with respect to the first surface; and a second polished surface extending from an end of the second surface along a second direction, the second polished surface having a second inclination angle with respect to the second surface, wherein the first polished surface and the second polished surface are asymmetric with respect to a center plane, the center plane passing through a center of the cover window and in parallel with the first surface characterized in that the first inclination angle is the same as the second inclination angle. a first surface; a second surface opposite the first surface; a first polished surface extending from an end of the first surface along a first direction, the first polished surface having a first inclination angle with respect to the first surface; and a second polished surface extending from an end of the second surface along a second direction, the second polished surface having a second inclination angle with respect to the second surface, wherein the first polished surface and the second polished surface are asymmetric with respect to a center plane, the center plane passing through a center of the cover window and in parallel with the first surface characterized in that the first inclination angle is the same as the second inclination angle.
An active material comprising a composite oxide having an orthorhombic crystal structure and represented by a general formula of Li x M1 1-y M2 y Ti 6-2 M3 z O 14+5, wherein the M1 is at least one selected from the group consisting of Sr, Ba, Ca, and Mg; the M2 is at least one selected from the group consisting of Cs, K, and Na; the M3 is at least one selected from the group consisting of Al, Fe, Zr, Sn, V, Nb, Ta, and Mo; and x is within a range of 2 ≤ x ≤ 6, y is within a range of 0 < y < 1, z is within a range of 0 < z < 6, and 5 is within a range of -0.5 ≤ δ ≤ 0.5.