mhurhangee/ep-ind-claims huggingface dataset:
Vehicle rear assembly comprising at least one tailgate pillar, a tailgate and at least one opening and closing device, the tailgate being rotatable with respect to the pillar about an axis of rotation extending in an upper part of the pillar and in an upper part of the tailgate, the opening and closing device comprising: - at least one rigid support bar comprising a first end, mounted in a rotatable manner on the upper part of the pillar, and a second end, mounted in a rotatable manner on a movable fixing point of the tailgate, - the movable fixing point being movable in translation along a path that extends substantially perpendicularly to the axis of rotation of the tailgate, the path of the movable fixing point of the bar extending in the upper part of the tailgate, wherein a motor is incorporated in the tailgate, said motor being intended to drive the movable fixing point of the support bar along a linear trajectory within the tailgate; wherein the tailgate is movable between a closed position, in which the tailgate extends substantially parallel to the pillar, and an open position, in which the tailgate extends substantially perpendicularly to the pillar, the movable fixing point of the bar being disposed in the vicinity of the axis of rotation of the tailgate when said tailgate is in the open position; and wherein the tailgate comprises a rail extending along the path of the movable fixing point, said rail receiving said movable fixing point, the rail moving the movable fixing point towards the axis of rotation of the tailgate along the predefined path, characterized in that a worm screw is arranged inside the tailgate, said screw being intended to move the movable fixing point of the support bar, the upper end of the path extending in the immediate vicinity of, or being adjacent to, or being formed by the axis of rotation of the tailgate. - at least one rigid support bar comprising a first end, mounted in a rotatable manner on the upper part of the pillar, and a second end, mounted in a rotatable manner on a movable fixing point of the tailgate, - the movable fixing point being movable in translation along a path that extends substantially perpendicularly to the axis of rotation of the tailgate, the path of the movable fixing point of the bar extending in the upper part of the tailgate,
A healing cap or a scan body for coupling to a dental component, comprising an apical end; a coronal end comprising a side surface and a top surface the top surface having an edge that forms an asymmetrical shape, wherein the asymmetrical shape includes a first portion having an elliptical shape with a first eccentricity and a second portion having an elliptical-shape with a second eccentricity. an apical end; a coronal end comprising a side surface and a top surface the top surface having an edge that forms an asymmetrical shape, wherein the asymmetrical shape includes a first portion having an elliptical shape with a first eccentricity and a second portion having an elliptical-shape with a second eccentricity.
A compound of the general formula, cyclo[P 1 -P 2 -P 3 -P 4 -P 5 -P 6 -P 7 -P 8 -P 9 -P 10 -P 11 -P 12 -T 1 -T 2] wherein the single elements T or P are connected in either direction from the carbonyl (C=O) point of attachment to the nitrogen of the next element and wherein T 1 is D Pro; T 2 is Pro; or Pro( OH); P 1 is Leu; Ile; Val; Nva; or Trp; P 2 is His; Trp; or Tyr; P 3 is Leu; Cha; t BuGly; Trp; Tyr; or Tyr(Me); P 4 is Dab; P 5 is Orn; or Lys; P 6 is Dab; D Dab; or Pip; P 7 is Dab; P 8 is Trp; P 9 is Hse; or Dab; P 10 is t BuGly; Ile; Val; Nva; Cha; Chg; or Trp; P 11 is Ala; Val; Alb; Ser; Asn; or Tyr; and P 12 is Val; Ser; or allo Thr; or a pharmaceutically acceptable salt thereof. T 1 is D Pro; T 2 is Pro; or Pro( OH); P 1 is Leu; Ile; Val; Nva; or Trp; P 2 is His; Trp; or Tyr; P 3 is Leu; Cha; t BuGly; Trp; Tyr; or Tyr(Me); P 4 is Dab; P 5 is Orn; or Lys; P 6 is Dab; D Dab; or Pip; P 7 is Dab; P 8 is Trp; P 9 is Hse; or Dab; P 10 is t BuGly; Ile; Val; Nva; Cha; Chg; or Trp; P 11 is Ala; Val; Alb; Ser; Asn; or Tyr; and P 12 is Val; Ser; or allo Thr;
A negative pressure wound treatment system comprising: a wound packing material configured to be positioned at a wound; a flexible drape configured to be positioned over the wound packing material and over the wound and sealed to skin surrounding the wound; a bridge and a conduit configured to deliver negative pressure to the wound, the bridge comprising top, bottom, and intermediate layers sandwiching top and bottom fluid channels, wherein the top channel comprises an air leak, and the bottom channel is connected to a source of negative pressure suitable for drawing exudates from a wound site and wherein, in use, negative pressure is delivered through an aperture in the drape and through the wound packing material to the wound; and a flexible suction adapter located at a distal end of the bridge and configured to surround the aperture and connect the conduit to the flexible drape such that, in use, negative pressure is transmitted from the conduit through the aperture; wherein the flexible suction adapter comprises an applicator attached to the bridge and including at least one aperture for placement over the aperture in the drape and wherein the applicator comprises a viewing window as a positioning aid. a wound packing material configured to be positioned at a wound; a flexible drape configured to be positioned over the wound packing material and over the wound and sealed to skin surrounding the wound; a bridge and a conduit configured to deliver negative pressure to the wound, the bridge comprising top, bottom, and intermediate layers sandwiching top and bottom fluid channels, wherein the top channel comprises an air leak, and the bottom channel is connected to a source of negative pressure suitable for drawing exudates from a wound site and wherein, in use, negative pressure is delivered through an aperture in the drape and through the wound packing material to the wound; and a flexible suction adapter located at a distal end of the bridge and configured to surround the aperture and connect the conduit to the flexible drape such that, in use, negative pressure is transmitted from the conduit through the aperture; wherein the flexible suction adapter comprises an applicator attached to the bridge and including at least one aperture for placement over the aperture in the drape and wherein the applicator comprises a viewing window as a positioning aid.
An electric brushless DC (BLDC) motor comprising: a stator; and a rotor pivotably arranged inside the stator, the rotor comprising a rotor shaft and a rotor lamination stack rotatably mounted on the rotor shaft, wherein the lamination stack comprises: a plurality of laminations affixed together and having slots that align axially to receive a plurality of rotor magnets therein; and wherein there is an end lamination having generally the same profile as the plurality of laminations and affixed to an end of the plurality of laminations, the end lamination having slots that correspond to the slots of the plurality of laminations, the end lamination integrally including radial projections that partially project into the slots of the end lamination, each radial projection extending from one of the long edges of the slots, each radial projection engaging an end of a corresponding rotor magnet to axially block the rotor magnet within a corresponding slot of the plurality of laminations; characterised in that the end lamination is provided at one end of the lamination stack only; wherein the radial projections have a width that is 10% to 40% a width of the slots of the lamination stack; wherein the rotor comprises a sense magnet ring having a plurality of sense magnets aligned with the plurality of rotor magnets; wherein the sense magnet ring is mounted on the rotor shaft adjacent an end of the lamination stack opposite the end lamination and in contact with the plurality of rotor magnets to axially retain the plurality of rotor magnets within the slots of the plurality of laminations. a stator; and a rotor pivotably arranged inside the stator, the rotor comprising a rotor shaft and a rotor lamination stack rotatably mounted on the rotor shaft, wherein the lamination stack comprises: a plurality of laminations affixed together and having slots that align axially to receive a plurality of rotor magnets therein; and wherein there is an end lamination having generally the same profile as the plurality of laminations and affixed to an end of the plurality of laminations, the end lamination having slots that correspond to the slots of the plurality of laminations, the end lamination integrally including radial projections that partially project into the slots of the end lamination, each radial projection extending from one of the long edges of the slots, each radial projection engaging an end of a corresponding rotor magnet to axially block the rotor magnet within a corresponding slot of the plurality of laminations; characterised in that the end lamination is provided at one end of the lamination stack only; wherein the radial projections have a width that is 10% to 40% a width of the slots of the lamination stack; wherein the rotor comprises a sense magnet ring having a plurality of sense magnets aligned with the plurality of rotor magnets; wherein the sense magnet ring is mounted on the rotor shaft adjacent an end of the lamination stack opposite the end lamination and in contact with the plurality of rotor magnets to axially retain the plurality of rotor magnets within the slots of the plurality of laminations.
A material with high oxygen permeability which is obtained by compounding a silicon-containing substance with silicon-oxy group and a bioactive substance selected from one or more of alginic acid, collagen, hyaluronic acid, and salts thereof, in the presence of a crosslinking agent, wherein high oxygen permeability is defined as an oxygen transfer coefficient (DK/t) value of at least 81 barrers/mm, as measured according to Chinese national standard GB/T11417.7-2012, and wherein based on 100 parts by weight of the bioactive substance in the material with high oxygen permeability, the amount of silicon-containing substance is 1-10 parts by weight.
A process for preparing a spray-dried detergent particle, said process comprising the steps of: (i) contacting an alkaline earth metal salt with an alkali metal silicate salt in an aqueous mixture comprising a detersive surfactant, wherein the alkaline earth metal salt reacts with the alkali metal silicate salt to form in-situ silicate salt and/or disilicate salt of alkaline earth metal; (ii) adding sodium carbonate to form an aqueous slurry; wherein the aqueous slurry comprises alkali metal silicate, in-situ formed silicate salt and/or disilicate salt of alkaline earth metal, 21 wt.% to 40 wt.% detersive surfactant and sodium carbonate; (iii) spray-drying said aqueous slurry to form said spray dried detergent particle wherein the weight ratio of the sodium carbonate to the detersive surfactant in the spray-dried particle is less than 1. (i) contacting an alkaline earth metal salt with an alkali metal silicate salt in an aqueous mixture comprising a detersive surfactant, wherein the alkaline earth metal salt reacts with the alkali metal silicate salt to form in-situ silicate salt and/or disilicate salt of alkaline earth metal; (ii) adding sodium carbonate to form an aqueous slurry; wherein the aqueous slurry comprises alkali metal silicate, in-situ formed silicate salt and/or disilicate salt of alkaline earth metal, 21 wt.% to 40 wt.% detersive surfactant and sodium carbonate; (iii) spray-drying said aqueous slurry to form said spray dried detergent particle wherein the weight ratio of the sodium carbonate to the detersive surfactant in the spray-dried particle is less than 1.
Stamp comprising at least one stamping component and one stamping insert, wherein the stamping component is formed of a top part and a bottom part with a cushion-receiving element, wherein the stamping insert is connected so as to move synchronously via a reversing mechanism having a slide track in the bottom part via a shaft or trunnion to the top part, wherein in the resting position a text plate mounted on the stamping insert abuts against an ink pad soaked with stamp ink in the cushion receiving element, and that in a stamping process for producing a stamp imprint in the stamping position the stamping insert with the text plate can be shifted by the reversing mechanism into a stamping position, characterised in that the entire stamping insert, in particular the text plate carrier and / or the mounted band unit or date unit, respectively, is positioned to be replaceable with the shaft or the trunnions or shaft stubs, respectively, wherein the slide track of the reversing mechanism in the bottom part comprises an exchange channel via which the stamping insert with the protruding shaft or protruding trunnions, respectively, can be pushed out or in.
A method of fabricating an inorganic electroluminescent diode, comprising: forming a first electrode; forming a first inorganic layer in electrical contact with the first electrode; forming a semiconductor nanocrystal light emitting layer on a surface of the first inorganic layer; forming a second inorganic layer which is amorphous on a surface of the semiconductor nanocrystal layer opposite the first inorganic layer; and forming a second electrode on and in electrical contact with a surface of the second inorganic layer opposite the semiconductor nanocrystal light emitting layer, characterized in that: the second inorganic layer is formed by a solution coating method; and the method further comprises forming a protective layer on a surface of the semiconductor nanocrystal light emitting layer opposite the first inorganic layer after forming the semiconductor nanocrystal layer to prevent the dissolution of the semiconductor nanocrystals of the semiconductor nanocrystal light emitting layer in the solvent used for the solution coating method. forming a first electrode; forming a first inorganic layer in electrical contact with the first electrode; forming a semiconductor nanocrystal light emitting layer on a surface of the first inorganic layer; forming a second inorganic layer which is amorphous on a surface of the semiconductor nanocrystal layer opposite the first inorganic layer; and forming a second electrode on and in electrical contact with a surface of the second inorganic layer opposite the semiconductor nanocrystal light emitting layer, characterized in that: the second inorganic layer is formed by a solution coating method; and the method further comprises forming a protective layer on a surface of the semiconductor nanocrystal light emitting layer opposite the first inorganic layer after forming the semiconductor nanocrystal layer to prevent the dissolution of the semiconductor nanocrystals of the semiconductor nanocrystal light emitting layer in the solvent used for the solution coating method.
A transmission device for transmitting a data stream, the transmission device comprising: an encoder configured to generate a plurality of coded blocks, each of the coded blocks being an N-bit sequence generated from a K-bit information bit sequence including a part of the data stream, where K and N are each an integer greater than or equal to 1; a bit interleaver configured to perform, for each of the coded blocks, permutation of bits therein; a bit adjuster configured to add an adjustment bit sequence to each of the permuted coded blocks to generate a plurality of bit-adjusted bit sequences; a mapper configured to modulate the plurality of bit-adjusted bit sequences by using a first modulation scheme selected from among a plurality of modulation schemes to generate a plurality of modulation symbols; and a transmitter configured to transmit a frame signal including the plurality of modulation symbols, wherein a modulation symbol of the first modulation scheme is generated from X bits, where X is an integer greater than or equal to 1 and N is not an integral multiple of X, and the adjustment bit sequence is a part of the coded blocks composed of L bits, where L is an integer and N + L is an integral multiple of X. an encoder configured to generate a plurality of coded blocks, each of the coded blocks being an N-bit sequence generated from a K-bit information bit sequence including a part of the data stream, where K and N are each an integer greater than or equal to 1; a bit interleaver configured to perform, for each of the coded blocks, permutation of bits therein; a bit adjuster configured to add an adjustment bit sequence to each of the permuted coded blocks to generate a plurality of bit-adjusted bit sequences; a mapper configured to modulate the plurality of bit-adjusted bit sequences by using a first modulation scheme selected from among a plurality of modulation schemes to generate a plurality of modulation symbols; and a transmitter configured to transmit a frame signal including the plurality of modulation symbols, wherein a modulation symbol of the first modulation scheme is generated from X bits, where X is an integer greater than or equal to 1 and N is not an integral multiple of X, and the adjustment bit sequence is a part of the coded blocks composed of L bits, where L is an integer and N + L is an integral multiple of X.
A gassing device (1, 1') for bioreactors having a gassing element arranged in a housing with gas outlet openings, characterized in that the gassing element is embodied as a microsparger whose gas outlet openings are each arranged spaced apart from one another and have a size between 100 μm and 200 μm, in that at least a second gassing element (3, 7) embodied as a sparger having gas outlet openings of a second size is provided, whose gas outlet openings are each arranged spaced apart from one another and have a size between 600 μm and 1000 μm, in that the gassing elements (3, 4) are formed by a common housing having separate gassing channels (7, 8), and in that the housing is embodied as an annular disk, in which the gassing elements (3, 4) are concentrically arranged.
A wireless cardiac monitoring system for ambulatory patients comprising: a disposable electrode patch having an adhesive surface for attachment to the skin of a patient at a location at which multiple ECG signals are to be acquired and including multiple integral electrodes (s1, s2, s3); a reusable, battery powered ECG monitor adapted to mount to the electrode patch in electrical communication with the multiple electrodes, the ECG monitor including a memory for storing ECG signal data and a transceiver for wirelessly transmitting ECG signal data and receiving information signals; and a cellphone handset including cellphone electronics operable for communication over a cellular network, a transceiver for wirelessly receiving ECG signal data from the ECG monitor and transmitting information signals received from a monitoring center to the ECG monitor, a memory for storing ECG signal data, and a controller operable to automatically control the cellphone electronics to send ECG signal data received from the ECG monitor to the monitoring center over the cellular network; characterized in that the cellphone handset periodically sends a cellular network-based time thereof to the ECG monitor, the ECG monitor having its own time base and on board clock, wherein the ECG monitor is adapted to store the cellular network-based time received from the cellphone handset and a current time of the ECG monitor for time-stamping ECG signal data. a disposable electrode patch having an adhesive surface for attachment to the skin of a patient at a location at which multiple ECG signals are to be acquired and including multiple integral electrodes (s1, s2, s3); a reusable, battery powered ECG monitor adapted to mount to the electrode patch in electrical communication with the multiple electrodes, the ECG monitor including a memory for storing ECG signal data and a transceiver for wirelessly transmitting ECG signal data and receiving information signals; and a cellphone handset including cellphone electronics operable for communication over a cellular network, a transceiver for wirelessly receiving ECG signal data from the ECG monitor and transmitting information signals received from a monitoring center to the ECG monitor, a memory for storing ECG signal data, and a controller operable to automatically control the cellphone electronics to send ECG signal data received from the ECG monitor to the monitoring center over the cellular network; characterized in that the cellphone handset periodically sends a cellular network-based time thereof to the ECG monitor, the ECG monitor having its own time base and on board clock, wherein the ECG monitor is adapted to store the cellular network-based time received from the cellphone handset and a current time of the ECG monitor for time-stamping ECG signal data.
Substrate for covering outdoor surfaces, comprising: - sand, contained in a proportion of at least 70% of the volume of the substrate and having a D10 of between 0.15 mm and 0.27 mm and a uniformity coefficient D90/D10 of between 1.54 and 2.04; - a resilient material, contained in a proportion of at least 5% of the volume of the substrate and in the form of particles having a diameter or length of between 1.5 and 30 mm; - between 3.2 kg and 8 kg of fibres per m 3 of sand, the fibres having a length of between 24 mm and 80 mm and a diameter of between 0.034 mm and 0.1 mm. - sand, contained in a proportion of at least 70% of the volume of the substrate and having a D10 of between 0.15 mm and 0.27 mm and a uniformity coefficient D90/D10 of between 1.54 and 2.04; - a resilient material, contained in a proportion of at least 5% of the volume of the substrate and in the form of particles having a diameter or length of between 1.5 and 30 mm; - between 3.2 kg and 8 kg of fibres per m 3 of sand, the fibres having a length of between 24 mm and 80 mm and a diameter of between 0.034 mm and 0.1 mm.
Recyclable polyethylene film with a first laminate layer of at least 60 vol%, preferably 80 vol% HDPE, and a second laminate layer made of polypropylene, which is attached to the first laminate layer by co-extrusion to form the polyethylene film, with the thickness of the polyethylene film being less than 40 μm, characterized in that the polypropylene of the second laminate layer is a hetero-phase polypropylene block copolymer with a polyethylene content of 5-30 wt.% and has a melting point higher than 155°C, preferentially higher than 160°, while the thickness of the second laminate layer is less than 5 μm.