mhurhangee/ep-ind-claims huggingface dataset:
Blank for producing dental shaped parts, such as crowns, bridges, veneers, abutments, wherein the blank already has a plurality of preforms of dental shaped parts, which preforms are available for producing these shaped parts, and the respective preform is connected to the rest of the blank by only one bar, and wherein the blank has the shape of a substantially circular disk with a diameter of more than 20 mm and has at least one holding means provided on the outer circumference of the blank for clamping the blank during the production of the dental shaped part, which is formed or shaped directly on the blank.
Cutting assembly for a hair clipping device, comprising: - a stationary cutting blade having a first cutting edge, and - a moveable cutting blade that is resiliently biased against the stationary cutting blade and has a second cutting edge that is arranged parallel to the first cutting edge, characterized in that one of the cutting blades (12, 14) comprises two slots (42, 42') for compensating a stress-induced warpage within said cutting blade (12, 14), wherein said two slots (42, 42') are aligned with each other and both extend parallel to the two cutting edges (20, 22). - a stationary cutting blade having a first cutting edge, and - a moveable cutting blade that is resiliently biased against the stationary cutting blade and has a second cutting edge that is arranged parallel to the first cutting edge,
A composition comprising: i. 0.01 to 0.2 % w/w trypsin; ii. 50 to 70 % w/w glycerol; iii. 0.002 to 0.1 % w/w hyaluronic acid; and iv. 0.01 to 0.2 % w/w salt comprising a divalent cation. i. 0.01 to 0.2 % w/w trypsin; ii. 50 to 70 % w/w glycerol; iii. 0.002 to 0.1 % w/w hyaluronic acid; and iv. 0.01 to 0.2 % w/w salt comprising a divalent cation.
Device for processing brake pads fitted on pad holders with at least one processing station as well as a conveying device for continuous and automatic movement of brake pads to be processed in an at least partially linear conveying direction F, wherein the conveying device comprises several bearing faces driven in a revolving manner by the conveying device for arrangement of pad holders of the brake pads to be processed and moreover positioning means which revolve with the bearing faces and which counteract a rotation of the pad holders with respect to the respective bearing face, characterised in that the at least one processing station exerts processing forces acting at least partially counter to conveying direction F on the brake pads to be processed and the positioning means are configured such that the position of the pad holder is explicitly specified on the bearing face during action of the processing forces as a result of the positioning means and that the positioning means comprise at least one rear-side delimiting wall which extends at least partially transversely to conveying direction F and upwards from the bearing face and serves to bear on a first reference side face of the pad holder and at least two lateral delimiting walls which extend at least partially in the direction of conveying direction F and upwards from the bearing face and the geometries and spacing of which are adapted to second reference side faces of the pad holder.
A rolled electrode for a storage battery, wherein the electrode is substantially of plate-like form and has a frame (12, 13, 15, 17) comprising a grid provided thereon and a contact lug further provided on the frame (12, 13, 15, 17) for connecting the electrode to a battery terminal, wherein the frame (12, 13, 15, 17) and/or the contact lug has a greater thickness in at least certain areas than the provided grid, wherein the electrode is formed by rolling through profiled rollers (2, 3) such that the electrode material exiting the rollers (2, 3) comprises electrodes having a greater thickness in at least certain areas than in the area of the grid, wherein the frame (12, 13, 15, 17) is formed by an upper frame section, a lower frame section as well as a left and a right frame section (12, 17), wherein the contact lug is integrally formed on the upper frame section and wherein the left and the right frame section (12, 17) respectively connect the upper and the lower frame section (13, 15), characterized in that only the upper and the lower frame section of said frame sections have a greater thickness than the grid.
A method of formatting compressed data packets for wireless communication between a user equipment, UE, and a serving node, comprising: identifying a first data string within a data packet that was previously stored at a first memory location in a compressor memory; identifying a second data string within the data packet that does not have a match in the compressor memory; generating a first pointer that references the first memory location in the compressor memory; and creating a compressed data packet by replacing the first data string with the first pointer, and including an indicator corresponding to a number of pointers in the data packet, wherein the creating comprises: including the first pointer after the indicator located at the beginning of the compressed data packet; and including the second data string after the first pointer in the compressed data packet. identifying a first data string within a data packet that was previously stored at a first memory location in a compressor memory; identifying a second data string within the data packet that does not have a match in the compressor memory; generating a first pointer that references the first memory location in the compressor memory; and creating a compressed data packet by replacing the first data string with the first pointer, and including an indicator corresponding to a number of pointers in the data packet, wherein the creating comprises: including the first pointer after the indicator located at the beginning of the compressed data packet; and including the second data string after the first pointer in the compressed data packet. including the first pointer after the indicator located at the beginning of the compressed data packet; and including the second data string after the first pointer in the compressed data packet.
A method for generating an optimized image based on user intent in an augmented reality system, the method comprising: determining a plurality of real world objects in a scene in a field of view of a see-through display device; determining the field of view of a user through the see-through display device in the scene and determining a focal region of the user within the field of view; determining the user's intent to interact with one or more objects in the focal region of the user; generating an optimized image, based on the user's intent; and displaying the optimized image to the user, the optimized image comprising a visual enhancement of at least one of the plurality of real world objects in the focal region of the user, and a simultaneous diminished appearance of one or more of the plurality of objects that are outside the focal region of the user but within the field of view of the user through the see-through display device, wherein the simultaneous diminished appearance is obtained by blocking out or darkening the plurality of objects that are outside the user's focal region by means of an opacity filter. determining a plurality of real world objects in a scene in a field of view of a see-through display device; determining the field of view of a user through the see-through display device in the scene and determining a focal region of the user within the field of view; determining the user's intent to interact with one or more objects in the focal region of the user; generating an optimized image, based on the user's intent; and displaying the optimized image to the user, the optimized image comprising a visual enhancement of at least one of the plurality of real world objects in the focal region of the user, and a simultaneous diminished appearance of one or more of the plurality of objects that are outside the focal region of the user but within the field of view of the user through the see-through display device, wherein the simultaneous diminished appearance is obtained by blocking out or darkening the plurality of objects that are outside the user's focal region by means of an opacity filter.
A display device comprising: a substrate; a thin film transistor (Qh, Ql) disposed on the substrate; a pixel electrode (191, 191h, 191l) connected with the thin film transistor; a plurality of roof layers disposed on the pixel electrode (191, 191h, 191l), while interposing a microcavity therebetween; an injection hole (307a, 307b) disposed along a side surface of the microcavity; a liquid crystal layer disposed in the microcavity; and a trench between the plurality of roof layers with an encapsulation layer disposed in the trench to cover the injection hole (307a, 307b) of the microcavity, and characterized in that the roof layer comprises a first portion disposed adjacent to the injection hole (307a, 307b), and a second portion other than the first portion, wherein the height (h11, h21, h31) from the substrate to the upper surface of the first portion is lower than the height (h12, h22, h32) from the substrate to the upper surface of the second portion, whereby the first portion of the roof layer is formed in the shape of a step, and wherein the encapsulation layer is disposed above the first portions of the roof layers but not on the second portions of the roof layers, whereby the upper surface of the second portion and the upper surface of the encapsulation layer are substantially coplanar. a substrate; a thin film transistor (Qh, Ql) disposed on the substrate; a pixel electrode (191, 191h, 191l) connected with the thin film transistor; a plurality of roof layers disposed on the pixel electrode (191, 191h, 191l), while interposing a microcavity therebetween; an injection hole (307a, 307b) disposed along a side surface of the microcavity; a liquid crystal layer disposed in the microcavity; and a trench between the plurality of roof layers with an encapsulation layer disposed in the trench to cover the injection hole (307a, 307b) of the microcavity, and characterized in that the roof layer comprises a first portion disposed adjacent to the injection hole (307a, 307b), and a second portion other than the first portion, wherein the height (h11, h21, h31) from the substrate to the upper surface of the first portion is lower than the height (h12, h22, h32) from the substrate to the upper surface of the second portion, whereby the first portion of the roof layer is formed in the shape of a step, and wherein the encapsulation layer is disposed above the first portions of the roof layers but not on the second portions of the roof layers, whereby the upper surface of the second portion and the upper surface of the encapsulation layer are substantially coplanar.
A luffing jib tower crane, comprising an electro-hydraulic device for moving a jib of the luffing jib tower crane, wherein the motor of the hydraulic aggregate is a three-phase asynchronous motor, characterized in that the three-phase asynchronous motor is configured for a power output that is between a respectively required maximum power output and a medium power output, wherein the maximum power output is required when the luffing jib at maximum overhang with maximum load is to be swung inward.
Tyre with a radial carcass reinforcement made up of at least one layer of reinforcing elements that are inserted between two calendered skim coat layers made of elastomer compounds, said tyre comprising a crown reinforcement which is made up of at least one layer of reinforcing elements that are inserted between two calendered skim coat layers made of elastomer compounds and which itself is capped radially by a tread joined to two beads via two sidewalls, said tread having cuts forming at least one tread pattern element, said tread having at least one first axially continuous elastomer-compound layer forming the tread surface of the tyre, at least one second axially continuous elastomer-compound layer being radially on the inside of said at least one first layer, forming the radially innermost portion of said tread and in contact with at least one calendered skim coat layer of at least one layer of reinforcing elements of the crown reinforcement, at least one third axially continuous elastomer-compound layer being in contact with a calendered skim coat layer of said at least one layer of reinforcing elements of the carcass reinforcement and with a calendered skim coat layer of the radially innermost layer of reinforcing elements of the crown reinforcement, said at least one second elastomer-compound layer being made up of at least one central portion and two axially outer portions, characterized in that the distance between said two axially outer portions of said at least one second elastomer-compound layer and any point of the surface of the cuts is greater than 1 mm, in that said at least one third elastomer-compound layer is made up of at least one central portion and two axially outer portions, in that each of the axially outer portions of said at least one second elastomer-compound layer has a contact surface in contact with an axially outer portion of said at least one third elastomer-compound layer, in that the value of the secant elastic modulus at 10% elongation of said two axially outer portions of said at least one second elastomer-compound layer is less than or equal to the value of the secant elastic modulus at 10% elongation of said at least one calendered skim coat layer of at least one layer of reinforcing elements of the crown reinforcement, in that the value of the secant elastic modulus at 10% elongation of said two axially outer portions of said at least one third elastomer-compound layer is at least 1.3 times lower than the value of the secant elastic modulus at 10% elongation of said calendered skim coat layer of said at least one layer of reinforcing elements of the carcass reinforcement and less than or equal to the value of the secant elastic modulus at 10% elongation of said calendered skim coat layer of the radially innermost layer of reinforcing elements of the crown reinforcement, and in that the value of the secant elastic modulus at 10% elongation of said two axially outer portions of said at least one second elastomer-compound layer is equal to the value of the secant elastic modulus at 10% elongation of said two axially outer portions of said at least one third elastomer-compound layer.
A wind turbine assembly comprising, an elongate generally cylindrical rotor operable to rotate about an axis, an elongate rotor housing that houses the rotor and which is adapted to be secured to a roof, and a flow regulator (302, 302') within the housing that is adapted to regulate wind flow to the rotor, wherein the housing has a wind inlet and a wind outlet, characterised in that the flow regulator (302, 302') is orientatable in an open orientation, a closed orientation and a partially open orientation, and the flow regulator comprises a generally cylindrical member that generally surrounds the rotor, and has wind apertures that are aligned with, out of alignment with, and partially aligned with the inlet and outlet in the open orientation, closed orientation and partially open orientation respectively, or the flow regulator comprises a generally partially cylindrical member that generally surrounds the rotor on the inlet or outlet side, and has a wind aperture that is aligned with, out of alignment with, and partially aligned with the inlet or outlet in the open orientation, closed orientation and partially open orientation respectively.
A peptide having an amino acid sequence selected from the group consisting of: Cys-Lys-Met-Cys (SEQ ID NO: 1) and Cys-Met-Lys-Cys (SEQ ID NO: 2), wherein the peptide is a tetra-peptide. Cys-Lys-Met-Cys (SEQ ID NO: 1) and Cys-Met-Lys-Cys (SEQ ID NO: 2),
A method for data reception of a random access procedure for a network of a wireless communication system, the method comprising: receiving a preamble and data of the random access procedure in one message, from a user equipment, UE, of the wireless communication system; obtaining timing advance information according to the received preamble; and performing channel estimation according to a DMRS allocated for demodulation of the received data with a timing advance compensation, wherein the timing advance compensation is an operation of a linear phase rotation in a frequency domain based on the timing advance information. receiving a preamble and data of the random access procedure in one message, from a user equipment, UE, of the wireless communication system; obtaining timing advance information according to the received preamble; and performing channel estimation according to a DMRS allocated for demodulation of the received data with a timing advance compensation, wherein the timing advance compensation is an operation of a linear phase rotation in a frequency domain based on the timing advance information.
A method for dynamically adapting the operation of at least one traction substation (121, 122) of a railway vehicle electrical power supply system, each substation being adapted for transferring electrical power to a DC supply line via a supply signal controlled by the substation as a function of a voltage parameter, the supply line being positioned along a track and a set of vehicle(s) (33, 34) traveling on said track being able to connect electrically to the supply line, each substation respectively being associated with a segment of the track corresponding to its supply service zone, characterized in that the method includes the following steps: - determining vehicles currently circulating in the segment specifically associated with said substation; - determining the current supply voltage, at their connection point to the supply line, of each of said vehicles determined in the segment; - determining an updated value of the voltage parameter of said substation as a function of said determined supply voltage of each of said vehicles currently located in the respective segment associated with said substation; - controlling the setting of said updated value thus determined of the voltage parameter of said substation. - determining vehicles currently circulating in the segment specifically associated with said substation; - determining the current supply voltage, at their connection point to the supply line, of each of said vehicles determined in the segment; - determining an updated value of the voltage parameter of said substation as a function of said determined supply voltage of each of said vehicles currently located in the respective segment associated with said substation; - controlling the setting of said updated value thus determined of the voltage parameter of said substation.
Piston cooling nozzle of an internal combustion engine comprising: - a cylindrical chamber, - an output opening for said fluid from the cylindrical chamber, - a cylindrical shutoff valve for the output opening which is rotatable in a planar manner about the axis of the cylindrical chamber in a rotational plane which is orthogonal to said axis, in order to allow fluid to pass through the outlet opening above a fluid temperature threshold, characterized in that the shutoff valve of the opening is also slidable along the axis in order to allow fluid to pass through the outlet opening above a pressure threshold. - a cylindrical chamber, - an output opening for said fluid from the cylindrical chamber, - a cylindrical shutoff valve for the output opening which is rotatable in a planar manner about the axis of the cylindrical chamber in a rotational plane which is orthogonal to said axis, in order to allow fluid to pass through the outlet opening above a fluid temperature threshold,
Ink for the engraved steel die printing process, having a viscosity at 40°C between 3 Pa·s to 15 Pa·s, preferably 5 to 10 Pa·s, and comprising a carboxylic groups-containing polymeric organic binder and magnetic pigment particles, characterized in that said magnetic pigment particles comprise a magnetic core material selected from iron, Fe 2 O 3 and Fe 3 O 4, which is surrounded by at least one layer of another material.
A display panel having a display area, which is the area configured to display an image, and an array of a plurality of subpixels in the display area, comprising: a base substrate; and a light diffusion layer on the base substrate and comprising a plurality of light diffusers separated from each other; wherein each of the plurality of light diffusers is configured to diffuse light emitted from one of the plurality of subpixels nearest to an edge of the display area, such that a portion of diffused light emits out of each of the plurality of light diffusers outside a region corresponding to the one of the plurality of subpixels nearest to the edge of the display area; wherein the array of the plurality of subpixels is arranged substantially along a first direction and a second direction perpendicular to the first direction; at least a portion of an outline (O1, O2, O3, O4) of the display panel extends along a direction non-parallel to the first direction and non-parallel to the second direction; and the plurality of light diffusers are along the outline. a base substrate; and a light diffusion layer on the base substrate and comprising a plurality of light diffusers separated from each other; wherein each of the plurality of light diffusers is configured to diffuse light emitted from one of the plurality of subpixels nearest to an edge of the display area, such that a portion of diffused light emits out of each of the plurality of light diffusers outside a region corresponding to the one of the plurality of subpixels nearest to the edge of the display area; wherein the array of the plurality of subpixels is arranged substantially along a first direction and a second direction perpendicular to the first direction; at least a portion of an outline (O1, O2, O3, O4) of the display panel extends along a direction non-parallel to the first direction and non-parallel to the second direction; and the plurality of light diffusers are along the outline.
A telescopic linear motor structure for a sliding door, comprising: a rotor assembly, wherein the rotor assembly comprises a fixed part and a movable part, the fixed part is provided with a permanent magnet and a slot hole formed in a bottom part of the permanent magnet, the movable part is provided with a telescopic rod that is slidably inserted into the slot hole from one end of the slot hole, wherein the movable part is further provided with a motion transmission part which is connectable with a door body and capable of transmitting a motion of the rotor assembly to the door body, and the movable part and the fixed part are connected and fixed to each other by a fastener; wherein a part of the permanent magnet is exposed to the outside and the exposed part is located under a stator assembly. a rotor assembly, wherein the rotor assembly comprises a fixed part and a movable part, the fixed part is provided with a permanent magnet and a slot hole formed in a bottom part of the permanent magnet, the movable part is provided with a telescopic rod that is slidably inserted into the slot hole from one end of the slot hole, wherein the movable part is further provided with a motion transmission part which is connectable with a door body and capable of transmitting a motion of the rotor assembly to the door body, and the movable part and the fixed part are connected and fixed to each other by a fastener; wherein a part of the permanent magnet is exposed to the outside and the exposed part is located under a stator assembly.