mhurhangee/patent-ind-claim-en huggingface dataset:
Method for disassembling a pipe mount , wherein the pipe mount has a housing which comprises a shell and a first end plate fastened to the shell on a first end side of the housing , characterized in that the pipe mount comprises a second end plate attached to the shell on a second side of the housing lying opposite the first end side , wherein a spring and an axially movable spring collar are arranged within the housing , wherein the spring bears firstly against the spring collar and secondly against the second end plate and is compressed as a result in such a way that the spring exerts a spring force on the spring collar in the direction of the first end plate , wherein a stop element is arranged between the first end plate and the spring collar , which limits the axial movement of the spring collar in such a way that the spring is compressed when the spring collar bears against the stop element , and wherein the method comprises the following steps: a) exerting a force on the spring collar by way of a force-generating device , which force counteracts the spring force generated by the spring , b) removing the stop element while the force generated by the force-generating device on the spring collar is at least as great as the spring force generated by the spring , c) reducing the force generated by the force-generating device on the spring collar to an amount below the spring force generated by the spring , d) opening the housing , and e) removing the spring and the spring collar from the housing . a) exerting a force on the spring collar by way of a force-generating device , which force counteracts the spring force generated by the spring , b) removing the stop element while the force generated by the force-generating device on the spring collar is at least as great as the spring force generated by the spring , c) reducing the force generated by the force-generating device on the spring collar to an amount below the spring force generated by the spring , d) opening the housing , and e) removing the spring and the spring collar from the housing .
A mannose-6-phosphate (M6P) derivative for use in enhancing memory in a subject with a memory impairment, the enhancement comprising administering to the subject a composition comprising a therapeutically effective amount of the M6P derivative, wherein the M6P derivative is: or a pharmaceutically acceptable salt thereof.
A method for preparing a vinyl chloride-based polymer comprising performing suspension polymerization of vinyl chloride-based monomer, wherein an aromatic hydrocarbon-based compound is added in the last stage of suspension polymerization when a pressure change is 0.5 to 1.5 kg/cm2 with respect to an equilibrium pressure at a polymerization temperature in a polymerization reactor after the vinyl chloride-based monomer is added to the polymerization reactor, and wherein the aromatic hydrocarbon-based compound comprises a reactive functional group having an intracarbon double bond and a hydroxyl group, wherein the aromatic hydrocarbon-based compound comprises a compound of formula 1 below: in Formula 1, R is an alkyl group of 1 to 10 carbon atoms, and Y is an alkenyl group of 2 to 10 carbon atoms, and wherein the aromatic hydrocarbon-based compound is added in an amount of 0.005 to 0.1 parts by weight on the basis of 100 parts by weight of vinyl chloride-based monomer. R is an alkyl group of 1 to 10 carbon atoms, and Y is an alkenyl group of 2 to 10 carbon atoms, and
A method of manufacturing a liquid crystal display device, the method comprising the sequence of steps of: forming an alignment film on at least one of a pair of substrates, the alignment film having an upper section that is substantially comprised of polyimide including a photo-decomposable material and a lower section that is substantially comprised of polyimide not including the photo-decomposable material; irradiating the alignment film with linearly polarized ultra-violet (UV) light; performing a chemical impurity molecule removal (C-IMR) process on the alignment film by applying a lactate-based organic solvent on the alignment film to swell the surface of the alignment film; performing a thermal impurity molecule removal (T-IMR) process on the alignment film; and sealing a liquid crystal layer between the pair of substrates. forming an alignment film on at least one of a pair of substrates, the alignment film having an upper section that is substantially comprised of polyimide including a photo-decomposable material and a lower section that is substantially comprised of polyimide not including the photo-decomposable material; irradiating the alignment film with linearly polarized ultra-violet (UV) light; performing a chemical impurity molecule removal (C-IMR) process on the alignment film by applying a lactate-based organic solvent on the alignment film to swell the surface of the alignment film; performing a thermal impurity molecule removal (T-IMR) process on the alignment film; and sealing a liquid crystal layer between the pair of substrates.
A method for producing a substrate tube of quartz class, comprising continuously supplying to a heating zone a hollow cylinder of quartz glass having an outer diameter C a , an inner diameter C i and an inner bore, zonewise softening said hollow cylinder in said heating zone , and drawing off from the softened portion a tubular strand with an outer diameter T a and an inner diameter T i , wherein a blow pressure is produced in the inner bore that is set in the range of 4 to 10 mbar, and wherein the following is applicable to hollow cylinder and tubular strand : C a > 180 mm , C r > 3 with C r = C a / C i , T r < 1.6 with T r = T a / T i and C i / T i < 2.5 .
A system for modifying autonomous flight of an unmanned aerial vehicle, UAV, the system comprising: a flight controller configured to generate a first set of signals that effect autonomous flight of the UAV in response to a first user input received at a first user interface , wherein the autonomous flight of the UAV comprises an autonomous flight path of the UAV, and generate a second set of signals that modify the autonomous flight of the UAV in response to a second user input received at a second user interface for a duration of the second user input, wherein a modification of the autonomous flight of the UAV modifies the autonomous flight path of the UAV ; wherein the system for modifying the autonomous flight is characterized in that the flight controller is configured to after the duration of the second user input, generate a third set of signals that instruct the UAV to fly along a flight path the UAV was flying along prior to the generating of the second set of signals. a flight controller configured to generate a first set of signals that effect autonomous flight of the UAV in response to a first user input received at a first user interface , wherein the autonomous flight of the UAV comprises an autonomous flight path of the UAV, and generate a second set of signals that modify the autonomous flight of the UAV in response to a second user input received at a second user interface for a duration of the second user input, wherein a modification of the autonomous flight of the UAV modifies the autonomous flight path of the UAV ; generate a first set of signals that effect autonomous flight of the UAV in response to a first user input received at a first user interface , wherein the autonomous flight of the UAV comprises an autonomous flight path of the UAV, and generate a second set of signals that modify the autonomous flight of the UAV in response to a second user input received at a second user interface for a duration of the second user input, wherein a modification of the autonomous flight of the UAV modifies the autonomous flight path of the UAV ; wherein the system for modifying the autonomous flight is characterized in that the flight controller is configured to after the duration of the second user input, generate a third set of signals that instruct the UAV to fly along a flight path the UAV was flying along prior to the generating of the second set of signals.
A biodegradable polyester, characterized in that , the biodegradable polyester comprises components as follows in mole percent: A) containing repeating units of acid components as follows: 51 to 56 mol% of terephthalic acid A1; 30 to 40 mol% of sebacic acid A2; and 6 to 14 mol% of an aliphatic dibasic acid A3 with a carbon chain length of 6 or less; B) butanediol. A) containing repeating units of acid components as follows: 51 to 56 mol% of terephthalic acid A1; 30 to 40 mol% of sebacic acid A2; and 6 to 14 mol% of an aliphatic dibasic acid A3 with a carbon chain length of 6 or less; 51 to 56 mol% of terephthalic acid A1; 30 to 40 mol% of sebacic acid A2; and 6 to 14 mol% of an aliphatic dibasic acid A3 with a carbon chain length of 6 or less; B) butanediol.
Support frame of leathers to be dried and/or conditioned comprising: - at least one load bearing perimetrical structure suitable to slide on air guides and to be folded; - at least one flat metallic mesh , placed in the intermediate space defined by said load bearing perimetrical structure and provided with two side faces opposite each other, each of which is suitable to support one or more leathers to be dried and/or conditioned blocked to said flat metallic mesh by means of pliers; - coupling means , through which said flat metallic mesh is stably coupled with said load bearing perimetrical structure , characterized in that said coupling means include mechanical rapid hooking engagement means arranged in correspondence of at least a portion of the outer perimetrical edge of said flat metallic mesh and of at least a portion of the inner perimetrical edge of said load bearing perimetrical structure , said flat metallic mesh being of the perforated sheet type. - at least one load bearing perimetrical structure suitable to slide on air guides and to be folded; - at least one flat metallic mesh , placed in the intermediate space defined by said load bearing perimetrical structure and provided with two side faces opposite each other, each of which is suitable to support one or more leathers to be dried and/or conditioned blocked to said flat metallic mesh by means of pliers; - coupling means , through which said flat metallic mesh is stably coupled with said load bearing perimetrical structure ,
A toy assembly , comprising: a housing that includes a first housing member , a second housing member and a third housing member , wherein the first housing member is mounted to the second housing member and the second housing member is mounted to the third housing member ; a toy character inside the housing ; and a breakout member that is operable to impact the first housing member so as to break the housing to expose the toy character , wherein the first housing member is formed from a polymer composition including: a base polymer that is 15-25 weight-% ethylene-vinyl acetate; an organic acid metal salt that is 1-5 weight-% zinc stearate; and an inorganic filler that is 75-85 weight-% calcium carbonate. a housing that includes a first housing member , a second housing member and a third housing member , wherein the first housing member is mounted to the second housing member and the second housing member is mounted to the third housing member ; a toy character inside the housing ; and a breakout member that is operable to impact the first housing member so as to break the housing to expose the toy character , wherein the first housing member is formed from a polymer composition including: a base polymer that is 15-25 weight-% ethylene-vinyl acetate; an organic acid metal salt that is 1-5 weight-% zinc stearate; and an inorganic filler that is 75-85 weight-% calcium carbonate. a base polymer that is 15-25 weight-% ethylene-vinyl acetate; an organic acid metal salt that is 1-5 weight-% zinc stearate; and an inorganic filler that is 75-85 weight-% calcium carbonate.
An optical-to-electrical energy conversion device, comprising: a substrate formed of a doped semiconductor material, the substrate including a first region and a second region ; an array of multilayered nanostructures protruding from the first region of the substrate , wherein the multilayered nanostructures are formed of a first co-doped semiconductor materia covered by a layer of a second co-doped semiconductor material forming a core-shell structure, the layer covering at least a portion of the doped semiconductor material of the substrate in the second region , wherein the first and second co-doped semiconductor materials include electron acceptor dopants and electron donor dopants, in which the first co-doped semiconductor material includes a greater concentration of one type of the acceptor or donor dopants than the other type dopants, and the second co-doped semiconductor material includes a greater concentration of the other type dopants than the one type dopants, wherein the first and the second co-doped semiconductor material include the acceptor and donor dopants at a concentration level of at least 1×10 18 cm -3 to provide co-doped, heavily compensated junction structures; and an electrode formed on the layer-covered portion of the substrate in the second region, wherein the multilayered nanostructures are structured to provide an optical active region capable of absorbing photons from light at one or more wavelengths to generate an electrical signal presented at the electrode . a substrate formed of a doped semiconductor material, the substrate including a first region and a second region ; an array of multilayered nanostructures protruding from the first region of the substrate , wherein the multilayered nanostructures are formed of a first co-doped semiconductor materia covered by a layer of a second co-doped semiconductor material forming a core-shell structure, the layer covering at least a portion of the doped semiconductor material of the substrate in the second region , wherein the first and second co-doped semiconductor materials include electron acceptor dopants and electron donor dopants, in which the first co-doped semiconductor material includes a greater concentration of one type of the acceptor or donor dopants than the other type dopants, and the second co-doped semiconductor material includes a greater concentration of the other type dopants than the one type dopants, wherein the first and the second co-doped semiconductor material include the acceptor and donor dopants at a concentration level of at least 1×10 18 cm -3 to provide co-doped, heavily compensated junction structures; and an electrode formed on the layer-covered portion of the substrate in the second region, wherein the multilayered nanostructures are structured to provide an optical active region capable of absorbing photons from light at one or more wavelengths to generate an electrical signal presented at the electrode .
Position sensor for determining a linear position in a sensing direction, comprising: a first sensor part and a second sensor part moveable with respect to each other, wherein the first sensor part comprises an annular magnet with its magnet axis coinciding with the sensing direction and generating a magnetic field with a distribution axially symmetric along the sensing direction , and a magnetic field sensor positioned on the magnet axis at a first distance (l 1 ) from the annular magnet, wherein the second sensor part comprises a flux shaper that moveably extends through the annular magnet along the sensing direction between a first and a second position, in the first position the flux shaper being substantially at the first distance (l 1 ) from the magnetic field sensor , and wherein the flux shaper being arranged to influence the magnetic field in a space between the annular magnet and the magnetic field sensor , and wherein the annular magnet has an inner diameter d1 and the flux shaper has a maximum outer diameter d2, wherein the difference between the inner diameter d1 and maximum outer diameter d2 is at least 1 mm, and wherein the flux shaper comprises a varying diameter along an operational length of the flux shaper , wherein the operational length defines a section of the flux shaper that determines the measuring characteristics of the position sensor . a first sensor part and a second sensor part moveable with respect to each other, wherein the first sensor part comprises an annular magnet with its magnet axis coinciding with the sensing direction and generating a magnetic field with a distribution axially symmetric along the sensing direction , and a magnetic field sensor positioned on the magnet axis at a first distance (l 1 ) from the annular magnet, wherein the second sensor part comprises a flux shaper that moveably extends through the annular magnet along the sensing direction between a first and a second position, in the first position the flux shaper being substantially at the first distance (l 1 ) from the magnetic field sensor , and wherein the flux shaper being arranged to influence the magnetic field in a space between the annular magnet and the magnetic field sensor , and wherein the annular magnet has an inner diameter d1 and the flux shaper has a maximum outer diameter d2, wherein the difference between the inner diameter d1 and maximum outer diameter d2 is at least 1 mm, and wherein the flux shaper comprises a varying diameter along an operational length of the flux shaper , wherein the operational length defines a section of the flux shaper that determines the measuring characteristics of the position sensor .
A valve for an air cooling machine, comprising a closed hollow body , which is divided by at least one closable separating partition (X) into an inlet portion (A) of the air from the air cooling machine to a cooling chamber, which comprises an inlet opening for supplying air from the air cooling machine to the cavity of the valve body and a closable outlet opening for discharging from the cavity of the valve body to the cooling chamber, and an outlet portion (B) of the air from the cooling chamber to the air cooling machine, which comprises a closable inlet opening for supplying air from the cooling chamber to the valve body and an outlet opening for discharging air from the valve body into the air cooling machine, whereby the hollow body comprises two separating partitions (X1, X2) provided with closable openings (Y1, Y2), whereby the first partition (X1) defines an air inlet portion (A) from the air cooling machine to the cooling chamber and the second partition (X2) defines an air outlet portion (B) from the cooling chamber to the air cooling machine, whereby between the first closable opening (Y1) of the first partition (X1) and the outlet opening from the cavity of the valve body to the cooling chamber a first shut-off flap is displaceably mounted and between the second closable opening (Y2) of the second partition (X2) and the inlet opening for supplying air from the cooling chamber to the cavity of the valve body a second shut-off flap is displaceably mounted, whereby the first shut-off flap and the second shut-off flap are rotatably mounted in the valve body and coupled to a drive disposed therebetween, characterized in that the shut-off flaps are coupled to the drive by means of tow bars with equalizing springs , whereby one end of the tow bars is mounted on the respective flap and the other end is mounted on a link which is fixedly mounted on a shaft of the drive , which is rotatable about the axis .
A device for detecting electrical currents on or in the vicinity of electrical conductors with at least one reed contact (4; 5; 6; 9) as a magnetically responsive switch, which is arranged in the vicinity of the electrical conductor such that, when there is a significant current flow through the electrical conductor , the developing magnetic field triggers the switch and initiates an evaluation electronics connected to the switch, wherein for detecting surge current variables and differentiating long-term pulse currents, on the one hand, and short-time pulse currents, on the other, a plurality of reed contacts (4; 5; 6; 9) is arranged in a predefined distance from the electrical conductor , wherein the evaluation electronics determines the response and the switching times of the respective reed contacts (4; 5; 6; 9), from the allocation of the determined values to the respective reed contact (4; 5; 6; 9), the surge current variable is detected, and from the switching time, the pulse shape is detected, characterized in that for setting the response behavior, at least one of the reed contacts (4; 5; 6; 9) has a shield (14; 16; 17; 18) for influencing the magnetic field (B) acting upon the respective reed contact (4; 5; 6; 9), wherein the shield (14; 16; 17; 18) prevents a closing of the at least one reed contact (4; 5; 6; 9) until the saturation of the shield (14; 16; 17; 18) is reached. wherein for detecting surge current variables and differentiating long-term pulse currents, on the one hand, and short-time pulse currents, on the other, a plurality of reed contacts (4; 5; 6; 9) is arranged in a predefined distance from the electrical conductor , wherein the evaluation electronics determines the response and the switching times of the respective reed contacts (4; 5; 6; 9), from the allocation of the determined values to the respective reed contact (4; 5; 6; 9), the surge current variable is detected, and from the switching time, the pulse shape is detected, characterized in that for setting the response behavior, at least one of the reed contacts (4; 5; 6; 9) has a shield (14; 16; 17; 18) for influencing the magnetic field (B) acting upon the respective reed contact (4; 5; 6; 9), wherein the shield (14; 16; 17; 18) prevents a closing of the at least one reed contact (4; 5; 6; 9) until the saturation of the shield (14; 16; 17; 18) is reached.