mhurhangee/ep-ind-claims huggingface dataset:
An aluminum profile joining corner element for joining aluminum profiles (7, 8) with an outline, comprising: a corner housing with an outline substantially corresponding to the outline of the aluminum profiles (7, 8); a first and a second substantially straight tubular element (25, 26) extending from the corner housing, wherein the first tubular element forms an angle to the second tubular element; at least one bolt hole extending through the first and the second tubular element respectively (25, 26); wherein the first and the second substantially straight tubular element (25, 26) and an elbow are shaped out of one single metal tubular piece and form a corner tube: a guiding- and insulating washer attached in each bolt hole, for insulating between the corner tube and the aluminum profile; and wherein the corner housing surrounds the elbow of the corner tube. a corner housing with an outline substantially corresponding to the outline of the aluminum profiles (7, 8); a first and a second substantially straight tubular element (25, 26) extending from the corner housing, wherein the first tubular element forms an angle to the second tubular element; at least one bolt hole extending through the first and the second tubular element respectively (25, 26); wherein the first and the second substantially straight tubular element (25, 26) and an elbow are shaped out of one single metal tubular piece and form a corner tube: a guiding- and insulating washer attached in each bolt hole, for insulating between the corner tube and the aluminum profile; and wherein the corner housing surrounds the elbow of the corner tube. a guiding- and insulating washer attached in each bolt hole, for insulating between the corner tube and the aluminum profile; and wherein the corner housing surrounds the elbow of the corner tube.
Method of manufacturing a radiation-emitting semiconductor body comprising the steps of: - providing an epitaxial semiconductor layer sequence having an active zone, which is suitable to generate electromagnetic radiation, - applying a carrier layer to a main side of the epitaxial semiconductor layer sequence, wherein the carrier layer is provided for mechanical stabilization of the epitaxial semiconductor layer sequence, - applying a joinable layer, - forming contact structures by means of photolithography on the carrier layer, wherein the contact structures each have a volume region and a surface bonding region and wherein the contact structures are arranged on a rear side of the semiconductor body, which is opposite a radiation-emitting front side, characterized in that a further layer of the same material as the carrier layer is applied between the carrier layer and the joinable layer. - providing an epitaxial semiconductor layer sequence having an active zone, which is suitable to generate electromagnetic radiation, - applying a carrier layer to a main side of the epitaxial semiconductor layer sequence, wherein the carrier layer is provided for mechanical stabilization of the epitaxial semiconductor layer sequence, - applying a joinable layer, - forming contact structures by means of photolithography on the carrier layer, wherein the contact structures each have a volume region and a surface bonding region and wherein the contact structures are arranged on a rear side of the semiconductor body, which is opposite a radiation-emitting front side,
A process for producing a cast multilayer film comprising: extruding a cast multilayer film with a core component comprising from 15 to 1000 alternating layers of layer A material and layer B material, the layer A material having a crystallization temperature, T 1 c; passing the multilayer film across an air gap between a die exit and a roller contact point; moving the multilayer film across the roller at a rate from 20 kg/hr to 1000 kg/hr; maintaining the roller at a temperature from T 1 c - 30°C to T 1 c; and forming a cast multilayer film with a layer A having a thickness from 50 nm to 500 nm and an effective moisture permeability from 0.77 to 2.33 g-mil/m 2 /24 hrs; characterized in that the air gap has length from 75 mm to 800 mm. extruding a cast multilayer film with a core component comprising from 15 to 1000 alternating layers of layer A material and layer B material, the layer A material having a crystallization temperature, T 1 c; passing the multilayer film across an air gap between a die exit and a roller contact point; moving the multilayer film across the roller at a rate from 20 kg/hr to 1000 kg/hr; maintaining the roller at a temperature from T 1 c - 30°C to T 1 c; and forming a cast multilayer film with a layer A having a thickness from 50 nm to 500 nm and an effective moisture permeability from 0.77 to 2.33 g-mil/m 2 /24 hrs; characterized in that the air gap has length from 75 mm to 800 mm.
Method for setting a predetermined radial gap width for rotor blades arranged in a housing of a turbomachine, wherein the method comprises the following steps: a) removing a housing part, at least partially exposing the rotor blades which are to be machined; b) arranging a grinding device in the region of a rotor blade which is to be machined such that the tip of the rotor blade can be machined using a grinding disk of the grinding device; c) screening off the machining region by arranging a screening device which is formed so as to counter a release of grinding dust from the screened-off machining region; d) providing a suction extraction such that it extracts grinding dust from the screened-off machining region; and e) grinding the tip of the rotor blade in situ, producing the predetermined radial gap width. a) removing a housing part, at least partially exposing the rotor blades which are to be machined; b) arranging a grinding device in the region of a rotor blade which is to be machined such that the tip of the rotor blade can be machined using a grinding disk of the grinding device; c) screening off the machining region by arranging a screening device which is formed so as to counter a release of grinding dust from the screened-off machining region; d) providing a suction extraction such that it extracts grinding dust from the screened-off machining region; and e) grinding the tip of the rotor blade in situ, producing the predetermined radial gap width.
An electric power steering drive module comprising: a motor comprising a housing, stator coils disposed inside the housing, a motor shaft disposed at the center of the stator coils, and motor three-phase terminals leading from the stator coils towards a side of the motor and being exposed outside the housing, an electronic control unit base fixed to the motor at the side of the exposed terminals, wherein the electronic control unit base includes a guiding recess, a magnet mounting through-hole, a capacitor mounting hole, an inductor mounting hole, and an electronic control unit connector slot disposed therein, an electronic control unit circuit board assembly fixed to the electronic control unit base at the opposite side of the motor and includes an electronic control unit circuit board, and a guide, a Rotor Position Sensor chip, a capacitor, an inductor, and an electronic control unit connector fixed to the lower surface of the electronic control unit circuit board; and a magnet, wherein the motor shaft is configured to pass through the magnet mounting through-hole characterised in that the magnet is snapped onto the end of the motor shaft, and wherein the capacitor is configured to be tightly mounted in the capacitor mounting hole, the inductor is configured to be tightly mounted in the inductor mounting hole, and the electronic control unit connector is configured to be fitted tightly in the electronic control unit connector slot. a motor comprising a housing, stator coils disposed inside the housing, a motor shaft disposed at the center of the stator coils, and motor three-phase terminals leading from the stator coils towards a side of the motor and being exposed outside the housing, an electronic control unit base fixed to the motor at the side of the exposed terminals, wherein the electronic control unit base includes a guiding recess, a magnet mounting through-hole, a capacitor mounting hole, an inductor mounting hole, and an electronic control unit connector slot disposed therein, an electronic control unit circuit board assembly fixed to the electronic control unit base at the opposite side of the motor and includes an electronic control unit circuit board, and a guide, a Rotor Position Sensor chip, a capacitor, an inductor, and an electronic control unit connector fixed to the lower surface of the electronic control unit circuit board; and a magnet, wherein the motor shaft is configured to pass through the magnet mounting through-hole characterised in that the magnet is snapped onto the end of the motor shaft, and wherein the capacitor is configured to be tightly mounted in the capacitor mounting hole, the inductor is configured to be tightly mounted in the inductor mounting hole, and the electronic control unit connector is configured to be fitted tightly in the electronic control unit connector slot.
A corn head assembly for an agricultural harvester, the corn head assembly comprising: a frame for mounting to an agricultural harvester; a plurality of row units extending from the frame for receiving and processing corn stalks in a row; and an adjustable divider disposed between adjacent row units for directing corn stalks toward the row units; whereby the adjustable divider has an adjustable divider point including a bottom frame and a top shield held in adjustable positions above the bottom frame by an adjustable connection (82, 84), the top shield being movable by the adjustable connection (82, 84) between a lowermost position and an uppermost position relative to the bottom frame; and characterized in that the adjustable connection of top shield to bottom frame includes a pivotal connection at the forward end of the top shield. a frame for mounting to an agricultural harvester; a plurality of row units extending from the frame for receiving and processing corn stalks in a row; and an adjustable divider disposed between adjacent row units for directing corn stalks toward the row units; whereby the adjustable divider has an adjustable divider point including a bottom frame and a top shield held in adjustable positions above the bottom frame by an adjustable connection (82, 84), the top shield being movable by the adjustable connection (82, 84) between a lowermost position and an uppermost position relative to the bottom frame; and characterized in that the adjustable connection of top shield to bottom frame includes a pivotal connection at the forward end of the top shield.
A power and signal distribution system comprising a plurality of converter and control units (2, 3) which are particularly arranged in areas difficult to access, for instance on the seabed, at least one control unit (3 to 10) being connected to at least one converter unit and said converter unit being connected to a remote monitoring and supplying device via at least one cable connection, each control unit (3 to 10) having assigned thereto on site at least one production tree for crude oil or natural gas with corresponding means, such as gate valves, chokes, actuators, etc. characterized in that a plurality of control units (3 to10) are connected to a converter unit, each for transmitting power and signals or data, which converter unit comprises at least a data separation device configured to separate the received data from the power supplied for the respective control units and a voltage converter, configured to convert a voltage of the received power at the same time as data is separated, with converted voltage of each voltage unit (3 to 10) being transmittable together with data/signals assigned to the respective control unit (3 to 10).
An aspirating smoke sensing device for fire detection, characterized by comprising: a charger, a charge collector, a controller, an air intake structure, and a negative pressure source for air path detection, wherein the air intake structure is communicated with an input port of the charger, an output port of the charger is communicated with the charge collector, an output port of the charge collector is connected to the negative pressure source for air path detection, and the controller is electrically connected to the charge collector; the air intake structure is configured to obtain an air sample; the charger is configured to perform a unipolar charging on the air sample, so as to output a unipolar charged air sample; the charge collector is configured to obtain the unipolar charged air sample and separate charged particles with different particle-sizes in the unipolar charged air sample, so as to obtain charged particles of different particle-size grades; the negative pressure source for air path detection draws the air sample into the charger and the charge collector, and discharges the air sample; and the controller is configured to determine fire detection information according to charge quantities corresponding to the charged particles of different particle-size grades; wherein the aspirating smoke sensing device for fire detection further comprises a coagulator, an input port of the coagulator being communicated with the air intake structure and an output port of the coagulator being communicated with the charger; and the coagulator is configured to perform a collisional coagulation on the air sample, so as to coagulate micro particle-size particles and small particle-size particles in the air sample into large particle-size particles. the air intake structure is configured to obtain an air sample; the charger is configured to perform a unipolar charging on the air sample, so as to output a unipolar charged air sample; the charge collector is configured to obtain the unipolar charged air sample and separate charged particles with different particle-sizes in the unipolar charged air sample, so as to obtain charged particles of different particle-size grades; the negative pressure source for air path detection draws the air sample into the charger and the charge collector, and discharges the air sample; and the controller is configured to determine fire detection information according to charge quantities corresponding to the charged particles of different particle-size grades; wherein the aspirating smoke sensing device for fire detection further comprises a coagulator, an input port of the coagulator being communicated with the air intake structure and an output port of the coagulator being communicated with the charger; and the coagulator is configured to perform a collisional coagulation on the air sample, so as to coagulate micro particle-size particles and small particle-size particles in the air sample into large particle-size particles.
A method of improving, enhancing or modifying a fragrance formulation through the addition of an olfactory acceptable amount of a compound selected from the group consisting of: 1-ethyl-2-pentyl-cyclopentanol; 1-ethyl-2-(3-methyl-butyl)-cyclopentanol; 1-methyl-2-pentyl-cyclopentanol; and 1-methyl-2-(3-methyl-butyl)-cyclopentanol. 1-ethyl-2-pentyl-cyclopentanol; 1-ethyl-2-(3-methyl-butyl)-cyclopentanol; 1-methyl-2-pentyl-cyclopentanol; and 1-methyl-2-(3-methyl-butyl)-cyclopentanol.
Energy supply unit for supplying a welding current source with electrical energy, comprising a housing that is electrically conductive at least in a section, an electrical accumulator (14; 62; 154, 156) arranged in the housing, as well as a first output terminal (18; 80; 178) and a second output terminal (22; 84; 182), wherein both output terminals (18, 22; 80, 84; 178, 182) are detachably connectable to the input terminals of the welding current source for providing electrical energy, characterized in that the energy supply unit (10; 60; 150) comprises an auxiliary potential circuit (26; 64; 154) connected to the electrically conductive housing region (12; 68; 152) as well as a protection circuit (50; 66; 158), wherein the electrical energy providable at the output terminals (18, 22; 80, 84; 178, 182) is reducible by means of the protection circuit (50; 66; 158) depending on a current flow that flows between the auxiliary potential circuit (26; 64; 154) and the electrically conductive housing region (12; 68; 152), wherein the auxiliary potential circuit (26; 64; 154) provides an auxiliary potential that differs from the potential that is provided by the electrical accumulator (14; 62; 154, 156).
A vortex generator for a rotor blade of a wind turbine, the vortex generator comprising: a base portion configured for attachment to a surface of the rotor blade, the surface being on at least one of a suction side surface or a pressure side surface of the rotor blade; and at least one airflow modifying element extending from the base portion, characterized in that the airflow modifying element comprises one or more discontinuities configured therein so as to increase flexibility of the vortex generator such that the vortex generator is deformable to match the surface of the rotor blade. a base portion configured for attachment to a surface of the rotor blade, the surface being on at least one of a suction side surface or a pressure side surface of the rotor blade; and at least one airflow modifying element extending from the base portion, characterized in that the airflow modifying element comprises one or more discontinuities configured therein so as to increase flexibility of the vortex generator such that the vortex generator is deformable to match the surface of the rotor blade.
A display panel comprising: a substrate and a plurality of pixels disposed on the substrate; wherein each pixel comprises a pixel circuit disposed on the substrate; the display panel further comprises a pixel defining layer covering the pixel circuit; a surface of the pixel defining layer facing away from the pixel circuit is provided with a plurality of grooves; the plurality of grooves are in one-to-one correspondence with the plurality of pixels; each of the grooves is provided with a light emitting diode electrically connected to the pixel circuit; characterized by a plurality of walls crossing the groove are disposed separately in the groove; each wall extends from a side of the groove to an opposite side of the groove; the walls are in the same layer as the pixel defining layer, and the walls are of the same material as the pixel defining layer; and any two of the walls extend in the same direction, and a distance between two directly adjacent walls is fixed; alternatively, the plurality of walls comprise first sub-walls and second sub-walls respectively extend horizontally and vertically; the first sub-walls and the second sub-walls intersect to define a plurality of enclosed areas arranged in a matrix; two directly adjacent enclosed areas are equal in area. each pixel comprises a pixel circuit disposed on the substrate; the display panel further comprises a pixel defining layer covering the pixel circuit; a surface of the pixel defining layer facing away from the pixel circuit is provided with a plurality of grooves; the plurality of grooves are in one-to-one correspondence with the plurality of pixels; each of the grooves is provided with a light emitting diode electrically connected to the pixel circuit; characterized by a plurality of walls crossing the groove are disposed separately in the groove; each wall extends from a side of the groove to an opposite side of the groove; the walls are in the same layer as the pixel defining layer, and the walls are of the same material as the pixel defining layer; and any two of the walls extend in the same direction, and a distance between two directly adjacent walls is fixed; alternatively, the plurality of walls comprise first sub-walls and second sub-walls respectively extend horizontally and vertically; the first sub-walls and the second sub-walls intersect to define a plurality of enclosed areas arranged in a matrix; two directly adjacent enclosed areas are equal in area.
A multi-mode cavity filter, comprising: a resonator body of dielectric material capable of supporting at least two degenerate resonant modes and having a face, and a conductive pattern on at least part of the face for coupling a radio frequency signal between the pattern and the two degenerate resonant modes of the resonator body in parallel, wherein the conductive pattern includes a first part and a second part and the first part is an input for launching the radio frequency signal into the resonator body and the second part is an output for recovering the radio frequency signal from the resonator body.
Device with a grip or grip area, which is equipped to absorb sweat from the hands, whereby the equipment includes a grip or grip area coated with flock, characterised in that the flock has a yarn titre of 1.5 to 10 dtex, whereby the flock has a fibre length of 0.8 to 2.0 mm.
A method of displaying augmented reality, comprising: providing two or more frames of image data to be presented to a user; transmitting light associated with the two or more frames of image data; focusing a first frame of image data at a first focal plane; focusing a second frame of image data at a second focal plane, wherein the first and second focal planes are separated by a predetermined focal range; tracking an accommodation of the user's eyes; and variably shifting the first focal plane and the second focal plane across a range of distances based at least in part on the tracked accommodation of the user's eyes, wherein a first variable focus element (VFE B, 104), VFE, switches focus between the first focal plane and the second focal plane, wherein a second VFE (VFE A, 102) placed in series with the first VFE variably shifts the first and second focal planes, and wherein the first frame of image data at the first focal plane and the second frame of image data at the second focal plane are presented in rapid succession such that the user views the two focal planes simultaneously. providing two or more frames of image data to be presented to a user; transmitting light associated with the two or more frames of image data; focusing a first frame of image data at a first focal plane; focusing a second frame of image data at a second focal plane, wherein the first and second focal planes are separated by a predetermined focal range; tracking an accommodation of the user's eyes; and variably shifting the first focal plane and the second focal plane across a range of distances based at least in part on the tracked accommodation of the user's eyes, wherein a first variable focus element (VFE B, 104), VFE, switches focus between the first focal plane and the second focal plane, wherein a second VFE (VFE A, 102) placed in series with the first VFE variably shifts the first and second focal planes, and wherein the first frame of image data at the first focal plane and the second frame of image data at the second focal plane are presented in rapid succession such that the user views the two focal planes simultaneously.
A method for allocating resources for vehicle-to-everything, V2X, message transmission by a multi-cell/multicast coordination entity, MCE, in a wireless communication system, the method characterized by: receiving a request for radio resource, which is based on an amount of V2X messages transmitted from vehicle user equipments, UEs, or road side unit, RSU, UEs, from an evolved node-B, eNB, supporting a V2X function or an eNB type RSU; and transmitting multimedia broadcast multicast services, MBMS, scheduling information to the eNB supporting the V2X function or the eNB type RSU as a response to the request for radio resource. receiving a request for radio resource, which is based on an amount of V2X messages transmitted from vehicle user equipments, UEs, or road side unit, RSU, UEs, from an evolved node-B, eNB, supporting a V2X function or an eNB type RSU; and transmitting multimedia broadcast multicast services, MBMS, scheduling information to the eNB supporting the V2X function or the eNB type RSU as a response to the request for radio resource.