mhurhangee/ep-ind-claims huggingface dataset:
A biologic tissue interface device comprising: a body structure including a core formed from a rigid or semi-rigid material and a sleeve disposed around at least a portion of the core, the core having a smooth interior surface defining a channel through the core extending from a first end of the core to a second end of the core, the sleeve including a flange adjacent the second end of the core; and a deployable portion coupled to the body structure adjacent the first end of the core, the deployable portion having a wired structure transitionable between a retained configuration and a deployed configuration, wherein a top portion of the wired structure extends beyond the first end of the core in a longitudinal direction from the first end of the core to the second end of the core when the wired structure is in the retained configuration, and wherein the first end of the core extends beyond the top portion of the wired structure when the wired structure is in the deployed configuration. a body structure including a core formed from a rigid or semi-rigid material and a sleeve disposed around at least a portion of the core, the core having a smooth interior surface defining a channel through the core extending from a first end of the core to a second end of the core, the sleeve including a flange adjacent the second end of the core; and a deployable portion coupled to the body structure adjacent the first end of the core, the deployable portion having a wired structure transitionable between a retained configuration and a deployed configuration, wherein a top portion of the wired structure extends beyond the first end of the core in a longitudinal direction from the first end of the core to the second end of the core when the wired structure is in the retained configuration, and wherein the first end of the core extends beyond the top portion of the wired structure when the wired structure is in the deployed configuration.
A polybutadiene, which is produced by using a cobalt catalyst, having: a Mooney viscosity (ML 1+4,100°C) being 43 to 70, wherein Mooney viscosity is measured according to JIS-K6300; a ratio (Tcp/ML 1+4, 100°C) of 5 wt% toluene solution viscosity (Tcp) to Mooney viscosity (ML 1+4,100°C) being 0.9 to 1.7, wherein the Tcp is measured by using a Cannon-Fenske viscometer No. 400 at 25°C after dissolving 2.28 g of the polymer in 50 ml of toluene; a stress relaxation time being 10.0 to 40.0 seconds, which is a time until a torque is attenuated by 80% when the torque at the end of ML 1+4,100°C measurement is 100%, wherein the stress relaxation time is measured according to ASTM D1646-7; a molecular weight distribution (Mw/Mn) being 2.50 to 4.00, wherein Mn and Mw were calculated by GPC method; and a ratio of cis-structure in microstructural analysis being 94.0 to 98 mol%, wherein the ratio of cis-structure was calculated by infrared absorption spectrum analysis. a Mooney viscosity (ML 1+4,100°C) being 43 to 70, wherein Mooney viscosity is measured according to JIS-K6300; a ratio (Tcp/ML 1+4, 100°C) of 5 wt% toluene solution viscosity (Tcp) to Mooney viscosity (ML 1+4,100°C) being 0.9 to 1.7, wherein the Tcp is measured by using a Cannon-Fenske viscometer No. 400 at 25°C after dissolving 2.28 g of the polymer in 50 ml of toluene; a stress relaxation time being 10.0 to 40.0 seconds, which is a time until a torque is attenuated by 80% when the torque at the end of ML 1+4,100°C measurement is 100%, wherein the stress relaxation time is measured according to ASTM D1646-7; a molecular weight distribution (Mw/Mn) being 2.50 to 4.00, wherein Mn and Mw were calculated by GPC method; and a ratio of cis-structure in microstructural analysis being 94.0 to 98 mol%,
A method for opening locks, designed for use in a lock equipped with a cylinder, rotor or tumbler, and inlet channel in the rotor for an opening key, wherein it comprises the following steps: a. Positioning and pre-insertion into the inlet channel of the lock of a tool designed for said purpose and said tool having a geometry which is compatible with the opening key in relation to the same inlet channel, and said positioning and pre-insertion being up to only one region of said tool corresponding to the tip thereof, and in a manner initially similar to inserting the same opening key into said inlet channel. b. Pressing by means of an impingement gun on the same tool in the inlet channel, after the positioning and pre-insertion thereof. c. Penetration of said tool into the inlet channel as a consequence of the previous pressing, and interlocking in the inlet channel, occupying a space similar to the corresponding opening key in the same inlet channel. d. Breaking the cylinder and/or rotor as a consequence of the previous penetration and interlocking. e. Opening of the lock. a. Positioning and pre-insertion into the inlet channel of the lock of a tool designed for said purpose and said tool having a geometry which is compatible with the opening key in relation to the same inlet channel, and said positioning and pre-insertion being up to only one region of said tool corresponding to the tip thereof, and in a manner initially similar to inserting the same opening key into said inlet channel. b. Pressing by means of an impingement gun on the same tool in the inlet channel, after the positioning and pre-insertion thereof. c. Penetration of said tool into the inlet channel as a consequence of the previous pressing, and interlocking in the inlet channel, occupying a space similar to the corresponding opening key in the same inlet channel. d. Breaking the cylinder and/or rotor as a consequence of the previous penetration and interlocking. e. Opening of the lock.
A tray for releasably engaging a trolley, the tray comprising a body having a first major surface and a second major surface, the body describing a sealed volume, the sealed volume having a phase change material received therein, the tray comprising an engagement means for releasably engaging a trolley and characterised in that the thermal conductivity of the first major surface is less than the thermal conductivity of the second major surface.
A malleable, biodegradable hemostatic agent containing (b) at least one filling agent at least partially present in particulate form, wherein the component (b) is selected from the group consisting of polymers of at least one alkylene oxide, copolymers of at least one alkylene oxide and calcium compounds, and (c) at least one saturated fatty acid ester, characterised by (d) at least one saturated glycerol-1,2,3-tri-fatty acid ester with a melting temperature of more than 37°C, wherein the calcium compounds are salts of at least one inorganic acid and wherein the component (b) has a melting temperature of more than 37°C and a solubility at a temperature of 25°C of at least 100 grams per litre of water and the at least one saturated fatty acid ester has a melting temperature of not above 30°C, and a solubility at a temperature of 25°C of less than 50 grams per litre of water, wherein the melting temperature identifies the temperature, at which the respective substance transitions from the solid into the liquid aggregate state and when, in the case of a substance, the transition from the solid into the liquid aggregate state does not take place at a certain temperature, but in a melting range, melting temperature is understood to be the lower of the two limit temperatures of this melting range. (b) at least one filling agent at least partially present in particulate form, wherein the component (b) is selected from the group consisting of polymers of at least one alkylene oxide, copolymers of at least one alkylene oxide and calcium compounds, and (c) at least one saturated fatty acid ester, (d) at least one saturated glycerol-1,2,3-tri-fatty acid ester with a melting temperature of more than 37°C,
A method of producing RFID tags for identifying a collection of items, where each item is identified by an item identifier string, comprising: breaking a code word into a number of code word elements equal to the number of items in the collection; using each code word element to encode a separate RFID tag; the method characterized by: creating a set of item identifier strings using the item identifier strings of all of the items in the collection; generating a code word using at least the set of item identifier strings; and applying the RFID tags to the collection of items, wherein the items are not identifiable by reading a single code word element from an RFID tag applied to the item, and a subset of two or more of the code word elements from the RFID tags contains information indicative of all of the item identifier strings. breaking a code word into a number of code word elements equal to the number of items in the collection; using each code word element to encode a separate RFID tag; creating a set of item identifier strings using the item identifier strings of all of the items in the collection; generating a code word using at least the set of item identifier strings; and applying the RFID tags to the collection of items, wherein the items are not identifiable by reading a single code word element from an RFID tag applied to the item, and a subset of two or more of the code word elements from the RFID tags contains information indicative of all of the item identifier strings.
A connecting arrangement for a linkage of a vehicle seat, comprising a coupling rod and a securing element for securing the coupling rod to a further component of the vehicle seat, wherein the linkage is part of a lever mechanism for operating a component of the vehicle seat, and the further component is a pivotable lever, characterized in that the coupling rod is introduced into a bearing bush which can be connected to the further component, which has a cavity into which the securing element is introduced.
A temperature sensor system for the beverage and/or packing industry, said temperature sensor system having the following features: - a tube having a first end (11.1) and a second end (11.2), which tube has a low heat conductivity, - a temperature sensor, which is arranged inside the tube, preferably in the region of the first end (11.1) of the tube, and - a heat-conductive element, which is arranged at an opening (11.3) of the first end (11.1) of the tube, wherein the tube comprises carbon fibre-reinforced plastic. - a tube having a first end (11.1) and a second end (11.2), which tube has a low heat conductivity, - a temperature sensor, which is arranged inside the tube, preferably in the region of the first end (11.1) of the tube, and - a heat-conductive element, which is arranged at an opening (11.3) of the first end (11.1) of the tube, wherein the tube comprises carbon fibre-reinforced plastic.
A torque bar comprising: a torque bar body having a first rail and a second rail, the first rail parallel to the second rail, the first rail and the second rail joined by a cross member; a void bounded by the first rail, the second rail, and the cross member; a mounting hole located in the torque bar body; and a pin located in the torque bar body, and the cross member comprising a web, in which multiple cross members are diagonally oriented with respect to the rails and intersect each other between the rails. a torque bar body having a first rail and a second rail, the first rail parallel to the second rail, the first rail and the second rail joined by a cross member; a void bounded by the first rail, the second rail, and the cross member; a mounting hole located in the torque bar body; and a pin located in the torque bar body, and the cross member comprising a web, in which multiple cross members are diagonally oriented with respect to the rails and intersect each other between the rails.
Method for measuring a quantity of liquid in a liquid-insulated electrical component comprising a main tank and an expansion tank fluidly connected with the main tank, the method comprising: measuring a first pressure (P 1) of the liquid at a first point in the main tank; measuring a second pressure of the liquid at a second point in the main tank, the second point being at a height above the first point; measuring a third pressure (P 3) of the liquid at a third point in the expansion tank, wherein the expansion tank comprises a breather; and determining the quantity of liquid in the liquid-insulated electrical component based on the first pressure (P 1), the second pressure (P 2) and the third pressure (P 3). measuring a first pressure (P 1) of the liquid at a first point in the main tank; measuring a second pressure of the liquid at a second point in the main tank, the second point being at a height above the first point; measuring a third pressure (P 3) of the liquid at a third point in the expansion tank, wherein the expansion tank comprises a breather; and determining the quantity of liquid in the liquid-insulated electrical component based on the first pressure (P 1), the second pressure (P 2) and the third pressure (P 3).
A method for virtual port mapping of a massive MIMO unit, wherein the method comprises: mapping at least one transceiver unit in the massive MIMO unit to a virtual port through hybrid beamforming; performing digital precoding based on the virtual port, wherein the method further comprises: determining one or more virtual port modes for the massive MIMO unit according to user distribution of the cell served by the massive MIMO unit, wherein the virtual port modes comprise the number of virtual ports corresponding to the massive MIMO unit, the number of transceiver units in each virtual port, and position information of the transceiver units among antenna arrays; Wherein the step of mapping to a virtual port comprises: mapping, based on the virtual port mode, at least one transceiver unit in the massive MIMO unit to a virtual port corresponding to the transceiver unit in the virtual port mode through hybrid beamforming. wherein the method comprises: mapping at least one transceiver unit in the massive MIMO unit to a virtual port through hybrid beamforming; performing digital precoding based on the virtual port, wherein the method further comprises: determining one or more virtual port modes for the massive MIMO unit according to user distribution of the cell served by the massive MIMO unit, wherein the virtual port modes comprise the number of virtual ports corresponding to the massive MIMO unit, the number of transceiver units in each virtual port, and position information of the transceiver units among antenna arrays; Wherein the step of mapping to a virtual port comprises: mapping, based on the virtual port mode, at least one transceiver unit in the massive MIMO unit to a virtual port corresponding to the transceiver unit in the virtual port mode through hybrid beamforming.
A dynamic sealing device for an aircraft turbomachine, comprising two rotors (3, 8) configured to rotate about the same axis and at different speeds, said rotors extending at least partly around each other and dynamic sealing means being mounted between said rotors, characterized in that: - said sealing means comprise annular segments extending about said axis, said segments being mounted with the ability to slide on a first of said rotors, in a radial direction with respect to said axis, and being capable of getting into contact radially via their outer periphery on a second of said rotors which at least partly surrounds said first rotor, and - oil draining means comprising an annular cavity formed in said second rotor, said annular cavity opening radially towards the inside in the vicinity of said sealing means and being in fluidic communication with oil passage orifices formed at the bottom of the cavity and passing through said second rotor. - said sealing means comprise annular segments extending about said axis, said segments being mounted with the ability to slide on a first of said rotors, in a radial direction with respect to said axis, and being capable of getting into contact radially via their outer periphery on a second of said rotors which at least partly surrounds said first rotor, and - oil draining means comprising an annular cavity formed in said second rotor, said annular cavity opening radially towards the inside in the vicinity of said sealing means and being in fluidic communication with oil passage orifices formed at the bottom of the cavity and passing through said second rotor.
Multiple disc brake for a motor vehicle, with a disc pack arranged in a disc chamber of a brake housing on an axle body with at least one brake disc (5, 5'), with a spring, by which, in order to close the multiple disc brake, the disc pack is compressible and with a piston which bears against the spring and is arranged displaceably in a cylinder space, which piston, in order to release the multiple disc brake, can be acted upon with a pressure counter to the force of the spring and via which the disc pack is compressible directly or indirectly by the spring, with a mechanical emergency release device, by which the piston, in order to release the multiple disc brake, can be acted upon counter to the force of the spring, characterized in that a recess is formed in the brake housing, which recess extends inclined at an angle <90° to the axle body from the radially outer shell surface of the brake housing to the cylinder space and opens into the cylinder space on its end wall closest to the disc pack, wherein an adjusting bolt is arranged in the recess, which adjusting bolt is adjustable with its cylinder room-side end between a position protruding into the cylinder space and a position not protruding into the cylinder space in the recess.
Seating device, with a seat and with two seat elements, wherein the seat has a triangular portion, the tip of the triangular portion pointing towards the forward face of the seating device and on the two opposing faces of the triangular portion the seat elements being connected to the seat so as to be pivotable upwards and downwards and wherein in a downward pivoted position the seat elements comprise with the seat a saddle seat, wherein the seating device has a pivot device which is connected to the seat elements for pivoting said seat elements upwards and downwards in respect of the seat, wherein the pivot device has a disk which is fixed rotatably to the seating device below the seat, and wherein the pivot device for each seat element respectively has a bar element which is rotatably connected with a first end to the disk and with a second end to the seat element.
A compressor comprising: - a shaft; - a motor portion that has a rotor fixed to the shaft and a stator surrounding the rotor; - a compressor portion that compresses refrigerant by rotation of the shaft; and - a container that stores the shaft, the motor portion, and the compressor portion therein, wherein the stator includes - an insulator in which a plurality of insulator tooth portions are formed, - a stator core in which a plurality of stator core tooth portions (32-1; 32-9) corresponding to the plurality of insulator tooth portions (42-1; 42-9) are formed, and - a plurality of winding wires that are wound around the stator core tooth portions and the insulator tooth portions, and wherein in at least one of the plurality of insulator tooth portions, a groove through which lubricant oil for lubricating the compressor portion passes is formed on a surface which is in contact with the stator core tooth portion, characterized in that either a partition that divides the groove into a plurality of sub-grooves (47-1; 47-2) is formed in the insulator or in that in the shaft, a supply portion that supplies lubricant oil from an oil reservoir which is formed inside the container to an end surface of the rotor is formed, wherein the rotor is disposed so that an imaginary plane along said end surface overlaps the groove. - a shaft; - a motor portion that has a rotor fixed to the shaft and a stator surrounding the rotor; - a compressor portion that compresses refrigerant by rotation of the shaft; and - a container that stores the shaft, the motor portion, and the compressor portion therein, wherein the stator includes - an insulator in which a plurality of insulator tooth portions are formed, - a stator core in which a plurality of stator core tooth portions (32-1; 32-9) corresponding to the plurality of insulator tooth portions (42-1; 42-9) are formed, and - a plurality of winding wires that are wound around the stator core tooth portions and the insulator tooth portions, and wherein
A process for producing coatings with antireflection properties, said process comprising at least the following steps: a) producing a composition from at least two kind of nanoparticles, which differ in at least in size, have a mean particle diameter of more than 1 nm and less than 250 nm, and at least one solvent selected from the group comprising C 1 -C 8 -alcohols, C 1 -C 8 -ketones, C 1 -C 8 -aldehydes, water; b) applying the composition to a substrate; c) thermally treating the coated substrate, wherein at least one kind of nanoparticles comprises nanoparticles stabilized by a carboxylic acid, and step b) is performed only once in the course of performance of the process, characterized in that the composition comprises at least SiO 2 nanoparticles stabilized with carboxylic acid and as further kind of nanoparticles TiO 2 nanoparticles, wherein the composition has a total content of nanoparticles of more than 1% by weight, the ratio of SiO 2 nanoparticles to the TiO 2 nanoparticles in % by weight is between 1:1 and 20:1, and the mean particles size of the SiO 2 nanoparticles is 2 to 10 times larger as the mean particles size of the TiO 2 nanoparticles. a) producing a composition from at least two kind of nanoparticles, which differ in at least in size, have a mean particle diameter of more than 1 nm and less than 250 nm, and at least one solvent selected from the group comprising C 1 -C 8 -alcohols, C 1 -C 8 -ketones, C 1 -C 8 -aldehydes, water; b) applying the composition to a substrate; c) thermally treating the coated substrate, wherein at least one kind of nanoparticles comprises nanoparticles stabilized by a carboxylic acid, and step b) is performed only once in the course of performance of the process, characterized in that the composition comprises at least SiO 2 nanoparticles stabilized with carboxylic acid and as further kind of nanoparticles TiO 2 nanoparticles, wherein the composition has a total content of nanoparticles of more than 1% by weight, the ratio of SiO 2 nanoparticles to the TiO 2 nanoparticles in % by weight is between 1:1 and 20:1, and the mean particles size of the SiO 2 nanoparticles is 2 to 10 times larger as the mean particles size of the TiO 2 nanoparticles.