mhurhangee/ep-ind-claims huggingface dataset:
A tambour cabinet comprising at least one sliding vertical curtain formed with a vertical terminal slat defining a movable edge of the curtain, the slat being adapted to come into contact with a terminal slat of another curtain or of a door frame in the closed position of the cabinet, the terminal slat comprising a lower end and an upper end engaged in respective guide rails, the slat comprising at least one slider at one of its ends, the slider coming into sliding contact in the respective rail, the slider and the slat being made in metal as one piece, characterized in that the slider comprises at least one sliding gadroon intended to come into sliding contact with the bottom of the rail.
A method for distributed foveated rendering between a remote computer and an end user device that presents images on a display based on user gaze, the method implemented on the end user device and comprising: receiving, from the remote computer, a background image and a foreground image, wherein: the background image has a lower resolution than the foreground image and has first dimensions that are smaller than an image display region of the display, and the foreground image corresponds to and has second dimensions that are equal to a foveated region located within the image display region and containing the location of the gaze of the user on the display; generating a composite image by scaling up the background image to the image display region and by overlaying the foreground image based on gaze data of a user of the end user device, wherein the positioning of the foreground image is based on the location of the gaze of the user; and presenting the composite image in the image display region of the display; characterized by further comprising: f determining a brightness difference between a first pixel from the overlaid foreground image and a second pixel from the scaled up background image, wherein the first pixel and the second pixel have a same pixel location in the composite image and correspond to a same object visible in the composite image and spanning the high resolution and low resolution regions of the composite image; adjusting a brightness of the first pixel to reduce the brightness difference when the brightness difference is larger than a predefined threshold; warping the composite image; and presenting the composite image by presenting the warped composite image. the background image has a lower resolution than the foreground image and has first dimensions that are smaller than an image display region of the display, and the foreground image corresponds to and has second dimensions that are equal to a foveated region located within the image display region and containing the location of the gaze of the user on the display; generating a composite image by scaling up the background image to the image display region and by overlaying the foreground image based on gaze data of a user of the end user device, wherein the positioning of the foreground image is based on the location of the gaze of the user; and presenting the composite image in the image display region of the display; characterized by further comprising: f determining a brightness difference between a first pixel from the overlaid foreground image and a second pixel from the scaled up background image, wherein the first pixel and the second pixel have a same pixel location in the composite image and correspond to a same object visible in the composite image and spanning the high resolution and low resolution regions of the composite image; adjusting a brightness of the first pixel to reduce the brightness difference when the brightness difference is larger than a predefined threshold; warping the composite image; and presenting the composite image by presenting the warped composite image.
A process for the preparation of a compound of formula IIa or salt thereof from compound of formula IIIa or a salt thereof, comprising the steps of: a) performing deoxygenation of compound of formula IIIa or a salt thereof in the presence of a hydrosilane reagent and an acid, selected from Lewis acids or protic acids, to provide compound of formula IIa, optionally in the form of a diastereomeric mixture; b) optionally treating the product of step a) with an acid, forming an acid addition salt via the amine group, selected from hydrochloric acid, hydrobromic acid, nitric acid, oxalic acid, succinic acid, maleic acid, fumaric acid, sulfuric acid, phosphoric acid, acetic acid, priopionic acid, benzenesulfonic acid, toluenesulfonic acid, citric acid, tartaric acid, di-aroyl-tartaric acid, malic acid, mandelic acid and its derivatives, camphorosulfonic acid and its derivatives and separating the salt of the desired (2R, 3R)-[3-(3-methoxyphenyl)-2-methylpentyl]dimethylamine (compound of formula IIa). a) performing deoxygenation of compound of formula IIIa or a salt thereof in the presence of a hydrosilane reagent and an acid, selected from Lewis acids or protic acids, to provide compound of formula IIa, optionally in the form of a diastereomeric mixture; b) optionally treating the product of step a) with an acid, forming an acid addition salt via the amine group, selected from hydrochloric acid, hydrobromic acid, nitric acid, oxalic acid, succinic acid, maleic acid, fumaric acid, sulfuric acid, phosphoric acid, acetic acid, priopionic acid, benzenesulfonic acid, toluenesulfonic acid, citric acid, tartaric acid, di-aroyl-tartaric acid, malic acid, mandelic acid and its derivatives, camphorosulfonic acid and its derivatives and separating the salt of the desired (2R, 3R)-[3-(3-methoxyphenyl)-2-methylpentyl]dimethylamine (compound of formula IIa).
A directional coupler comprising: a main transmission line having an input port and an output port for transmitting a first electromagnetic wave from said input port to said output port and a second electromagnetic wave from said output port to said input port, and a coupler line arranged proximate to said main transmission line for electromagnetically coupling said coupler line with said main transmission line, said coupler line comprising a first port at a first one of its ends and a second port at its opposite end, linear electronic means connected between said first and second ports of the coupler line to reduce the output signal induced by the first electromagnetic wave at the second port and, the output signal induced by the second electromagnetic wave at the first port, characterized in that said linear electronic means comprises a shunt capacitor and a shunt resistance connected in parallel to the shunt capacitor, and wherein the coupler further comprises: a first resistance connected between the first port and a reference potential, a second resistance connected between the second port and the reference potential, a first capacitor connected between a first portion of the coupler line, said first portion comprising the first port, and the reference potential, and a second capacitor connected between a second portion of the coupler line, said second portion comprising the second port, and the reference potential. a main transmission line having an input port and an output port for transmitting a first electromagnetic wave from said input port to said output port and a second electromagnetic wave from said output port to said input port, and a coupler line arranged proximate to said main transmission line for electromagnetically coupling said coupler line with said main transmission line, said coupler line comprising a first port at a first one of its ends and a second port at its opposite end, linear electronic means connected between said first and second ports of the coupler line to reduce the output signal induced by the first electromagnetic wave at the second port and, the output signal induced by the second electromagnetic wave at the first port, characterized in that said linear electronic means comprises a shunt capacitor and a shunt resistance connected in parallel to the shunt capacitor, and wherein the coupler further comprises: a first resistance connected between the first port and a reference potential, a second resistance connected between the second port and the reference potential, a first capacitor connected between a first portion of the coupler line, said first portion comprising the first port, and the reference potential, and a second capacitor connected between a second portion of the coupler line, said second portion comprising the second port, and the reference potential.
A medical device for tissue ablation, comprising: an elongated shaft having a distal region; an inflatable balloon mounted to the distal region, the inflatable balloon including a body region, a proximal waist secured to the elongated shaft, a distal waist secured to the elongated shaft, a proximal cone region intermediate the proximal waist and the body region, and a distal cone region intermediate the body region and the distal waist; a skirt attached to the inflatable balloon and extending proximally from the body region; and an electrode assembly applied directly to an outer surface of the body region of the inflatable balloon, the electrode assembly including a first conductive member applied directly to the outer surface of the body region of the inflatable balloon characterised in the conductive member extending proximally therefrom along an outer surface of the skirt. an elongated shaft having a distal region; an inflatable balloon mounted to the distal region, the inflatable balloon including a body region, a proximal waist secured to the elongated shaft, a distal waist secured to the elongated shaft, a proximal cone region intermediate the proximal waist and the body region, and a distal cone region intermediate the body region and the distal waist; a skirt attached to the inflatable balloon and extending proximally from the body region; and an electrode assembly applied directly to an outer surface of the body region of the inflatable balloon, the electrode assembly including a first conductive member applied directly to the outer surface of the body region of the inflatable balloon characterised in the conductive member extending proximally therefrom along an outer surface of the skirt.
A system for continuous loading of consumables (60,70,101,301,302) into an analyzer, the system comprising a stacker unit comprising at least one stacker (600, 600 a,b) for holding consumables (60,70,101,301,302), wherein said stacker unit is integrated into the analyzer, said analyzer comprising a processing area (3a,b,c), a transport system for automatically transporting said consumables (60,70,101,301,302) within the analyzer, a computer controller which controls the analytical process wherein said stacker unit is capable of being decoupled from said processing area (3a,b,c), wherein, when being decoupled, the stacker unit is not functionally coupled to the analyzer and the transport system of the analyzer cannot access the stacker unit, for manual or automated loading of said consumables (60,70,101,301,302), characterized in that wherein said computer controller additionally controls a mechanism for unlocking or locking the stacker unit, wherein said stacker unit is in a locked position within said analyzer when access to the consumables (60,70,101,301,302) in the at least one stacker (600, 600 a,b) is required by said transport system, and said stacker unit is in an unlocked position when access to the consumables (60,70,101,301,302) in the stacker (600, 600 a,b) is not required by said transport system, wherein the stacker unit has a first end position within the analyzer and a second end position outside of the analyzer, wherein, in said first end position, stackers (600a,b etc) of the stacker unit are accessible to the transport system for handling of the consumables stacked in the stackers (600a,b) and when the analytical process requires access to the stacker unit for transferring consumables to the process area (3a,b,c) via the transport system, the computer controller locks the stacker unit through the locking mechanism; and the computer controller unlocks the stacker unit when no access to the stacker unit is required; and wherein, in the second end position, the at least one stackers (600, 600 a,b) comprised in the stacker unit are accessible for loading of consumables (60,70,101,301,302) into the stacker (600, 600 a,b), and the stacker unit is locked during loading.
A logic compound register system, comprising: a work register, a weight complementary register, a distance complementary register and a dual-complementary register; wherein an input of the work register is an input of the logic compound register system, and an output of the work register is an output of the logic compound register system; the weight complementary register is to compensate a Hamming Weight value of the work register; the distance complementary register is to compensate a Hamming Distance value of the work register; and the dual-complementary register is to compensate the HD value of the weight complementary register, and compensate the HW value of the distance complementary register.
Stretching device for stretching a plastic film in its transport direction, with a first roller that can be driven by a first drive and can be rotated at a first rotational speed, and with a second roller that can be driven by a second drive and can be rotated at a second rotational speed, wherein the second rotational speed is greater than the first rotational speed, wherein the second roller is arranged downstream of the first roller in the transport path of the plastic film, wherein at least one of the rollers (110, 120) is a roller through which air can flow from the outside to the inside, characterized in that the at least one roller (110, 120) through which air can flow can be continuously cleaned in that a segment of the roller (110, 120) through which air can flow, in the effective region of which the film does not rest, can be subjected to an excess pressure via an air flow which can be guided outwards from the interior of the roller (110, 120). wherein at least one of the rollers (110, 120) is a roller through which air can flow from the outside to the inside, characterized in that the at least one roller (110, 120) through which air can flow can be continuously cleaned in that a segment of the roller (110, 120) through which air can flow, in the effective region of which the film does not rest, can be subjected to an excess pressure via an air flow which can be guided outwards from the interior of the roller (110, 120).
An axle assembly comprising: a differential carrier; an electric motor module mounted to the differential carrier, the electric motor module including a motor housing, a stator that is fixedly disposed in the motor housing, a rotor that is received in the stator and is rotatable about an axis, and a motor cover that is mounted to the motor housing opposite the differential carrier and is spaced apart from the differential carrier; and a resolver that is mounted to a side of the motor cover that faces away from the rotor; characterized in further comprising: a rotor output flange that is fixedly mounted to the rotor and that extends into a motor cover opening in the motor cover; and a seal carrier plate that is mounted to the motor cover, wherein the resolver is axially positioned between the seal carrier plate and the motor cover, and the seal carrier plate extends further toward the axis than the resolver and the seal carrier plate is spaced apart from the resolver. a differential carrier; an electric motor module mounted to the differential carrier, the electric motor module including a motor housing, a stator that is fixedly disposed in the motor housing, a rotor that is received in the stator and is rotatable about an axis, and a motor cover that is mounted to the motor housing opposite the differential carrier and is spaced apart from the differential carrier; and a resolver that is mounted to a side of the motor cover that faces away from the rotor; characterized in further comprising: a rotor output flange that is fixedly mounted to the rotor and that extends into a motor cover opening in the motor cover; and a seal carrier plate that is mounted to the motor cover, wherein the resolver is axially positioned between the seal carrier plate and the motor cover, and the seal carrier plate extends further toward the axis than the resolver and the seal carrier plate is spaced apart from the resolver. a rotor output flange that is fixedly mounted to the rotor and that extends into a motor cover opening in the motor cover; and a seal carrier plate that is mounted to the motor cover, wherein the resolver is axially positioned between the seal carrier plate and the motor cover, and the seal carrier plate extends further toward the axis than the resolver and the seal carrier plate is spaced apart from the resolver.
Method for manufacturing a three-dimensional mold insert with sub-microstructures and/or microstructures, comprising the following steps: - Fabricating a three-dimensional macrostructure of a model object from plastic by means of 3D printing technology, wherein the fabricated macrostructure of the model object has at least one free-form surface, wherein the at least one free-form surface is a curved surface that can be described by means of piecewise polynomial mathematical functions; - smoothing the at least one free-form surface of the fabricated macrostructure by means of grinding and/or polishing until a roughness of the post-processed free-form surface with a center roughness value Ra below 40 nm is achieved; - coating the at least one free-form surface of the fabricated macrostructure with a patternable coating of a light-sensitive material, the coating achieving an optically smooth surface of the at least one free-form surface; - Structuring of the coating by means of a structuring process with formation of sub-microstructures and/or microstructures on the fabricated macrostructure of the model object; - Electroforming the patterned model object forming a mold insert with a sub-microstructure and/or microstructure. - Fabricating a three-dimensional macrostructure of a model object from plastic by means of 3D printing technology, wherein the fabricated macrostructure of the model object has at least one free-form surface, wherein the at least one free-form surface is a curved surface that can be described by means of piecewise polynomial mathematical functions; - smoothing the at least one free-form surface of the fabricated macrostructure by means of grinding and/or polishing until a roughness of the post-processed free-form surface with a center roughness value Ra below 40 nm is achieved; - coating the at least one free-form surface of the fabricated macrostructure with a patternable coating of a light-sensitive material, the coating achieving an optically smooth surface of the at least one free-form surface; - Structuring of the coating by means of a structuring process with formation of sub-microstructures and/or microstructures on the fabricated macrostructure of the model object; - Electroforming the patterned model object forming a mold insert with a sub-microstructure and/or microstructure.
A monoclonal antibody which binds to the Ligand Binding Domain of Vitamin D Receptor (VDR-LBD)/1,25-dihydroxyvitamin D complex, wherein the amino acid sequences of the CDRs of the heavy chain variable domain of the monoclonal antibody are SEQ ID NOs: 1, 2 and 3, and the amino acid sequences of the CDRs of the light chain variable domain of the monoclonal antibody are SEQ ID NOs: 4, 5 and 6.
An angioscope comprising: a catheter portion; and a connection plug, wherein the catheter portion includes an image guide, a light guide, and a catheter tube that surrounds the image guide and the light guide in a longitudinal direction, the connection plug includes a hollow cover (105, 105') that accommodates a proximal end of the catheter tube, a flexible tube that protrudes from the hollow cover (105, 105') and through which the catheter tube is passed, a first connection terminal that is connected to the light guide extending from the proximal end of the catheter tube, and a second connection terminal that is connected to the image guide extending from the proximal end of the catheter tube, the first connection terminal and the second connection terminal protrude from the hollow cover (105, 105') of the connection plug substantially in parallel, and at least one of the image guide and the light guide is arranged curved inside the hollow cover (105, 105') of the connection plug, characterised in that the image guide and the light guide can slide inside the catheter tube, and the image guide and the light guide are individually slidable inside the hollow cover (105, 105'). a catheter portion; and a connection plug, wherein the catheter portion includes an image guide, a light guide, and a catheter tube that surrounds the image guide and the light guide in a longitudinal direction, the connection plug includes a hollow cover (105, 105') that accommodates a proximal end of the catheter tube, a flexible tube that protrudes from the hollow cover (105, 105') and through which the catheter tube is passed, a first connection terminal that is connected to the light guide extending from the proximal end of the catheter tube, and a second connection terminal that is connected to the image guide extending from the proximal end of the catheter tube, the first connection terminal and the second connection terminal protrude from the hollow cover (105, 105') of the connection plug substantially in parallel, and at least one of the image guide and the light guide is arranged curved inside the hollow cover (105, 105') of the connection plug, characterised in that the image guide and the light guide can slide inside the catheter tube, and the image guide and the light guide are individually slidable inside the hollow cover (105, 105').
A refrigerating apparatus comprising a high pressure dome type compressor, a direct drive type electrically driven expansion valve, a heat source side heat exchanger and a heat application side heat exchanger, the heat source side heat exchanger and the heat application side heat exchanger corresponding to each other one-to-one, characterized in that a refrigerant of R32 alone or a R32 rich mixture comprising an amount of more than 50wt% of R32 is used, and a rating torque equivalent friction factor E of the direct drive type electrically driven expansion valve is set to 0.37 or more and less than 0.74.
A multi-segment header for an agricultural harvester comprising: a multi-segment chassis; a draper belt system; a backsheet supported by each segment of the multi-segment chassis, the backsheet being a panel that keeps grain and seed redirected onto the draper belt system; and a backsheet extension assembly characterized by: a backsheet extension mounted adjacent a top end of each backsheet, and a polymeric articulating joint having at least four degrees of freedom and extending between adjacent backsheet extensions. a multi-segment chassis; a draper belt system; a backsheet supported by each segment of the multi-segment chassis, the backsheet being a panel that keeps grain and seed redirected onto the draper belt system; and a backsheet extension assembly characterized by: a backsheet extension mounted adjacent a top end of each backsheet, and a polymeric articulating joint having at least four degrees of freedom and extending between adjacent backsheet extensions. a backsheet extension mounted adjacent a top end of each backsheet, and a polymeric articulating joint having at least four degrees of freedom and extending between adjacent backsheet extensions.