mhurhangee/patent-ind-claim-en huggingface dataset:
Bale wrapper for enveloping a preferably round-cylindrical bale with an enveloping material , having a frame and at least one wrapping arm , which is fitted in a pivotable manner on the frame , wherein the wrapping arm can at least partially pass around a bale which is to be wrapped, and having an emergency-stop device , which comprises at least one switching arm , wherein the at least one switching arm is provided so as to be ahead at least of the at least one wrapping arm of the bale wrapper and, upon contact with an obstacle, can activate or deactivate at least one function of the bale wrapper , in particular a drive of the wrapping arm , characterized in that a position of the switching arm in relation to the wrapping arm can be set in a variable manner, wherein the position denotes a setting in which the at least one function can be activated or deactivated by means of the switching arm .
Use of a non-aqueous solvent composition comprising 0 to 10 wt.% of N-alkyl pyrrolidone, 0 to 5 wt.% of dimethyl sulfoxide, 10 to 50 wt.% of γ-butyrolactone, 10 to 50 wt.% of at least one monoalcohol, 10 to 60 wt.% of at least one organic solvent inert towards isocyanate groups, other than γ-butyrolactone, other than N-alkyl pyrrolidone, and consisting of carbon, hydrogen, oxygen and, optionally, nitrogen, and 0 to 10 wt.% of at least one of defoamers, wetting agents and surfactants, as barrier liquid within a coating installation of an industrial mass production coating line for the application of water-borne two-component polyurethane coatings. 0 to 10 wt.% of N-alkyl pyrrolidone, 0 to 5 wt.% of dimethyl sulfoxide, 10 to 50 wt.% of γ-butyrolactone, 10 to 50 wt.% of at least one monoalcohol, 10 to 60 wt.% of at least one organic solvent inert towards isocyanate groups, other than γ-butyrolactone, other than N-alkyl pyrrolidone, and consisting of carbon, hydrogen, oxygen and, optionally, nitrogen, and 0 to 10 wt.% of at least one of defoamers, wetting agents and surfactants, as barrier liquid within a coating installation of an industrial mass production coating line for the application of water-borne two-component polyurethane coatings.
A composite cathode material, characterized in that the composite cathode material comprises: an active material having a chemical formula Li a (Ni x Co y R z ) 1-b M b O 2 , wherein 0.9≤a≤1.10, x+y+z=1, 0.8≤x≤0.99, 0≤y≤0.15, 0≤z≤0.1, 0≤b≤0.1; R comprises Al and/or Mn, and M comprises a metal element; a coating layer distributed on a surface of the active material, wherein the coating layer comprise a phosphate compound; the composite cathode material has a particle hardness of Cs≥50 Mpa and satisfies the following: Cs 10 /Cs 50 ≥0.7; wherein Cs 10 is hardness of particles with a particle size D10, and Cs 50 is hardness of particles with a particle size D50. an active material having a chemical formula Li a (Ni x Co y R z ) 1-b M b O 2 , wherein 0.9≤a≤1.10, x+y+z=1, 0.8≤x≤0.99, 0≤y≤0.15, 0≤z≤0.1, 0≤b≤0.1; R comprises Al and/or Mn, and M comprises a metal element; a coating layer distributed on a surface of the active material, wherein the coating layer comprise a phosphate compound; the composite cathode material has a particle hardness of Cs≥50 Mpa and satisfies the following: Cs 10 /Cs 50 ≥0.7; wherein Cs 10 is hardness of particles with a particle size D10, and Cs 50 is hardness of particles with a particle size D50.
Hospital bed comprising an elongated housing and two pillar connections each arranged on a pillar , said housing comprising: - an exterior face extending in a longitudinal direction and a transverse direction perpendicular to the longitudinal direction ; - a skirt extending perpendicularly to the exterior face forming an interior and an exterior ; and - at least two housing connections in the interior arranged coaxially along a longitudinal axis substantially parallel to the longitudinal direction , each housing connection being adapted for communication with a pillar connection wherein at least one housing connection is configured for communication with one pillar connection , said communication comprising a longitudinal translocation . - an exterior face extending in a longitudinal direction and a transverse direction perpendicular to the longitudinal direction ; - a skirt extending perpendicularly to the exterior face forming an interior and an exterior ; and - at least two housing connections in the interior arranged coaxially along a longitudinal axis substantially parallel to the longitudinal direction , each housing connection being adapted for communication with a pillar connection wherein at least one housing connection is configured for communication with one pillar connection , said communication comprising a longitudinal translocation .
A tissue dissociator comprising: a blade holder comprising one or more blades ; and a sample holder comprising a tissue actuator having a distal end pliable stopper , the tissue actuator being configured to be displaced along a longitudinal axis within the sample holder (101, 201, 301,401,501,601,701,801,901,1001,1101 1201), characterised in that the tissue dissociator is configured such that the pliable stopper is cut by at least one of the blades of the blade holder when the tissue actuator is displaced to the distal end of the sample holder . a blade holder comprising one or more blades ; and a sample holder comprising a tissue actuator having a distal end pliable stopper , the tissue actuator being configured to be displaced along a longitudinal axis within the sample holder (101, 201, 301,401,501,601,701,801,901,1001,1101 1201),
A permanent magnet motor , comprising: a stator ; and a rotor having a rotor core disposed opposing an inner side of the stator across an air gap , a permanent magnet disposed in a circumferential direction of the rotor core , and a field pole of the rotor core in which the permanent magnet is disposed, wherein the field pole has a radius smaller than a radius of an arc centered on a shaft attached to an inner side of the rotor , a plurality of slits whose longitudinal direction is a radial direction of the rotor core are formed in the field pole , and an interval between neighboring slits is enlarged toward an outer peripheral side of the rotor core , wherein the rotor core is formed by plate-form electromagnetic steel sheets being stacked on the shaft , a connection portion that integrates the field pole divided by the plurality of slits is provided on an outer peripheral side of the field pole , and a radial direction width of the connection portion is smaller than a thickness of the electromagnetic steel plate. a stator ; and a rotor having a rotor core disposed opposing an inner side of the stator across an air gap , a permanent magnet disposed in a circumferential direction of the rotor core , and a field pole of the rotor core in which the permanent magnet is disposed, wherein the field pole has a radius smaller than a radius of an arc centered on a shaft attached to an inner side of the rotor , a plurality of slits whose longitudinal direction is a radial direction of the rotor core are formed in the field pole , and an interval between neighboring slits is enlarged toward an outer peripheral side of the rotor core , wherein the rotor core is formed by plate-form electromagnetic steel sheets being stacked on the shaft , a connection portion that integrates the field pole divided by the plurality of slits is provided on an outer peripheral side of the field pole , and a radial direction width of the connection portion is smaller than a thickness of the electromagnetic steel plate.
A motorcycle tire comprising: a tread portion , a toroidal carcass , and a tread reinforcement disposed radially outside the carcass in the tread portion , wherein the tread reinforcement includes a band layer , the band layer is composed of a jointless band ply made of a band cord spirally wound at an angle (θa) of not more than 5 degrees with respect to the tire circumferential direction, the tread portion has a tread profile (P) comprising a pair of shoulder arcs portions (Ps) having a radius R2 of curvature, and a crown arc portion (Pc) having a radius R1 of curvature and extending between the shoulder arcs portions (Ps) across the tire equator (C), and in a normal state of the tire in which the tire is mounted on a regular rim and inflated to a normal tire pressure, axial ends (P1) of the crown arc portion (Pc) are respectively located axially inward of axial edges of the jointless band ply . characterized in that the jointless band ply is centered on the tire equator (C) and has a developed width (Wa) of not more than 65% of a developed tread width, the radius R1 of curvature is less than the radius R2 of curvature, and the radius R1 of curvature is less than 50% of the tire section width (Wt). a tread portion , a toroidal carcass , and a tread reinforcement disposed radially outside the carcass in the tread portion , wherein the tread reinforcement includes a band layer , the band layer is composed of a jointless band ply made of a band cord spirally wound at an angle (θa) of not more than 5 degrees with respect to the tire circumferential direction, the tread portion has a tread profile (P) comprising a pair of shoulder arcs portions (Ps) having a radius R2 of curvature, and a crown arc portion (Pc) having a radius R1 of curvature and extending between the shoulder arcs portions (Ps) across the tire equator (C), and in a normal state of the tire in which the tire is mounted on a regular rim and inflated to a normal tire pressure, axial ends (P1) of the crown arc portion (Pc) are respectively located axially inward of axial edges of the jointless band ply . characterized in that the jointless band ply is centered on the tire equator (C) and has a developed width (Wa) of not more than 65% of a developed tread width, the radius R1 of curvature is less than the radius R2 of curvature, and the radius R1 of curvature is less than 50% of the tire section width (Wt).
A method for determining the position of a vehicle equipped with a radar system , wherein the radar system includes at least one radar sensor adapted to receive radar signals emitted from at least one radar emitter of the radar system and reflected in a vicinity of the vehicle towards the radar sensor, wherein the method comprises: - acquiring at least one radar scan comprising a plurality of radar detection points , wherein each radar detection point is evaluated from a radar signal received at the radar sensor and representing a location in the vicinity of the vehicle in a vehicle coordinate system, - providing ground-truth data in the form of a database comprising map data representing a geo-structural model, - determining, from the database, a predefined map, wherein the map comprises at least one element representing a static landmark in the vicinity of the vehicle , wherein the at least one element of the map is a simplified and parametric model of the static landmark and comprises information about its global position in a world coordinate system, - matching at least a subset of the plurality of radar detection points of the at least one scan and the at least one element of the map, - determining the position of the vehicle based on the matching, wherein the at least one element of the map comprises an extended geometrical object. - acquiring at least one radar scan comprising a plurality of radar detection points , wherein each radar detection point is evaluated from a radar signal received at the radar sensor and representing a location in the vicinity of the vehicle in a vehicle coordinate system, - providing ground-truth data in the form of a database comprising map data representing a geo-structural model, - determining, from the database, a predefined map, wherein the map comprises at least one element representing a static landmark in the vicinity of the vehicle , wherein the at least one element of the map is a simplified and parametric model of the static landmark and comprises information about its global position in a world coordinate system, - matching at least a subset of the plurality of radar detection points of the at least one scan and the at least one element of the map, - determining the position of the vehicle based on the matching,
A system for producing a bio-oil, comprising: a torrefaction apparatus for receiving a target raw material from a sample storage tank and conducting torrefaction; a sample pulverizer for separating the torrefied raw material from moisture and then pulverizing the torrefied raw material into a fine powder form; a cooling apparatus for cooling the pulverized and torrefied raw material; a sample dosing apparatus which introduces a torrefied raw material into a circulating fluidized bed fast pyrolysis reactor and is equipped with a cooling apparatus for preventing pyrolysis; a circulating fluidized bed fast pyrolysis reactor for receiving the torrefied raw material and conducting a fast pyrolysis reaction in a range of 450 to 550 °C; a cyclone for separating sand and char from gas among the gas, sand, and char discharged from the circulating fluidized bed fast pyrolysis reactor ; a bio-oil condenser which is equipped with an electrostatic collector for collecting gas discharged from the fast pyrolysis reactor and condenses the collected gas to obtain a bio-oil; a particle separator for feeding char from the cyclone to a char combustor and sand to a solid-gas heat exchanger ; a char combustor for combusting char separated by the particle separator; and a solid-gas heat exchanger for reheating sand separated by the particle separator; wherein the solid-gas heat exchanger and the circulating fluidized bed rapid pyrolysis reactor are located in the char combustor . a torrefaction apparatus for receiving a target raw material from a sample storage tank and conducting torrefaction; a sample pulverizer for separating the torrefied raw material from moisture and then pulverizing the torrefied raw material into a fine powder form; a cooling apparatus for cooling the pulverized and torrefied raw material; a sample dosing apparatus which introduces a torrefied raw material into a circulating fluidized bed fast pyrolysis reactor and is equipped with a cooling apparatus for preventing pyrolysis; a circulating fluidized bed fast pyrolysis reactor for receiving the torrefied raw material and conducting a fast pyrolysis reaction in a range of 450 to 550 °C; a cyclone for separating sand and char from gas among the gas, sand, and char discharged from the circulating fluidized bed fast pyrolysis reactor ; a bio-oil condenser which is equipped with an electrostatic collector for collecting gas discharged from the fast pyrolysis reactor and condenses the collected gas to obtain a bio-oil; a particle separator for feeding char from the cyclone to a char combustor and sand to a solid-gas heat exchanger ; a char combustor for combusting char separated by the particle separator; and a solid-gas heat exchanger for reheating sand separated by the particle separator; wherein the solid-gas heat exchanger and the circulating fluidized bed rapid pyrolysis reactor are located in the char combustor .
An apparatus for performing a plurality of biochemical assays, comprising: a plurality of electrodes comprising at least one dedicated working electrode (137; 315; 407), at least one dual-role electrode (136; 305-309; 402-406) and at least one dedicated counter electrode (135; 310; 401), said dedicated working (137; 315; 407) and dual-role electrodes (136; 305-309; 402-406) having deposited thereon an assay reagent, wherein said dual-role electrode (136; 305-309; 402-406) is configured to operate first as the working electrode and then as the counter electrode, wherein said plurality of electrodes are arranged within a flow cell, said flow cell having a flow cell path, dedicated working, dual-role and dedicated counter electrical leads for supplying electrical energy to said plurality of electrodes, wherein at least two non-adjacent electrical leads have an exposed surface located thereon, and an inlet conduit in fluid communication with said flow cell and at least partially defined by said exposed surfaces of said electrical leads, wherein said exposed surfaces are configured so that, when a fluid is present in said inlet conduit, the fluid is in electrical contact with said exposed surfaces , wherein the exposed surfaces are configured to apply an inlet conduit interrogation potential between said exposed surfaces to determine the presence or composition of fluid in said inlet conduit . a plurality of electrodes comprising at least one dedicated working electrode (137; 315; 407), at least one dual-role electrode (136; 305-309; 402-406) and at least one dedicated counter electrode (135; 310; 401), said dedicated working (137; 315; 407) and dual-role electrodes (136; 305-309; 402-406) having deposited thereon an assay reagent, wherein said dual-role electrode (136; 305-309; 402-406) is configured to operate first as the working electrode and then as the counter electrode, wherein said plurality of electrodes are arranged within a flow cell, said flow cell having a flow cell path, dedicated working, dual-role and dedicated counter electrical leads for supplying electrical energy to said plurality of electrodes, wherein at least two non-adjacent electrical leads have an exposed surface located thereon, and an inlet conduit in fluid communication with said flow cell and at least partially defined by said exposed surfaces of said electrical leads, wherein said exposed surfaces are configured so that, when a fluid is present in said inlet conduit, the fluid is in electrical contact with said exposed surfaces , wherein the exposed surfaces are configured to apply an inlet conduit interrogation potential between said exposed surfaces to determine the presence or composition of fluid in said inlet conduit .
Process for providing a defined surface topography to at least a portion of a ceramic body, the process comprising the subsequent steps of a) applying a layer of a calcium containing substance comprising at least one calcium compound onto the surface of at least a portion of a ceramic basic body made of a ceramic material comprising zirconia; b) thermally treating the ceramic basic body with the layer applied thereon at an elevated temperature, whereby a calcium compound or a calcium component based on the calcium compound diffuses into the basic body to form an intermediate body, said intermediate body comprising in its outermost surface region a calcium containing crystalline phase; and c) chemically treating the outermost surface region of the intermediate body with an inorganic acid or base to partially remove the calcium containing crystalline phase, thereby obtaining the surface topography, characterized in that an inorganic acid other than hydrofluoric acid is used for the chemical treatment. a) applying a layer of a calcium containing substance comprising at least one calcium compound onto the surface of at least a portion of a ceramic basic body made of a ceramic material comprising zirconia; b) thermally treating the ceramic basic body with the layer applied thereon at an elevated temperature, whereby a calcium compound or a calcium component based on the calcium compound diffuses into the basic body to form an intermediate body, said intermediate body comprising in its outermost surface region a calcium containing crystalline phase; and c) chemically treating the outermost surface region of the intermediate body with an inorganic acid or base to partially remove the calcium containing crystalline phase, thereby obtaining the surface topography, characterized in that an inorganic acid other than hydrofluoric acid is used for the chemical treatment.
A method comprising: performing one or more measurements in a user device to determine a plurality of beam groups , each beam group associating at least one receive beam direction of the user device and at least one transmit beam direction of an access point , the at least one receive beam direction having a number of beam directions different from a number of beam directions of the at least one transmit beam direction; and causing information on said plurality of beam groups to be transmitted to said access point, wherein at least one of the plurality of beam groups comprises two or more transmit beams. performing one or more measurements in a user device to determine a plurality of beam groups , each beam group associating at least one receive beam direction of the user device and at least one transmit beam direction of an access point , the at least one receive beam direction having a number of beam directions different from a number of beam directions of the at least one transmit beam direction; and causing information on said plurality of beam groups to be transmitted to said access point, wherein at least one of the plurality of beam groups comprises two or more transmit beams.
Coil of a stator winding of an electric machine , - wherein the coil is a flat coil, which consists of a number of windings , which are wound together with a number of layers of a mica tape , onto which in turn a number of layers of a cover tape is wound, - wherein the thus wound flat coil is subsequently embodied as a three-dimensional form-wound coil, - the mica tape has a bending stiffness of below 50 N/m according to DIN EN 60371-2 (version 2005) and between a top side and a bottom side thereof a static friction coefficient of below 0.7 according to DIN EN ISO 8295 (version 2004) and the cover tape between a top side and a bottom side thereof has a static friction coefficient of below 0.7 according to DIN EN ISO 8295 (version 2004) and the cover tape and the mica tape are matched to one another so that with respect to the mica tape the cover tape has a static friction coefficient of below 0.7 according to DIN EN ISO 8295 (version 2004), wherein the cover tape per se has two layers , that one of these two layers is a fabric and the other a film in each case and that the fabric consists of a glass fibre or of a first high-performance polymer and the film consists of a second high-performance polymer. - wherein the coil is a flat coil, which consists of a number of windings , which are wound together with a number of layers of a mica tape , onto which in turn a number of layers of a cover tape is wound, - wherein the thus wound flat coil is subsequently embodied as a three-dimensional form-wound coil, - the mica tape has a bending stiffness of below 50 N/m according to DIN EN 60371-2 (version 2005) and between a top side and a bottom side thereof a static friction coefficient of below 0.7 according to DIN EN ISO 8295 (version 2004) and the cover tape between a top side and a bottom side thereof has a static friction coefficient of below 0.7 according to DIN EN ISO 8295 (version 2004) and the cover tape and the mica tape are matched to one another so that with respect to the mica tape the cover tape has a static friction coefficient of below 0.7 according to DIN EN ISO 8295 (version 2004), wherein the cover tape per se has two layers , that one of these two layers is a fabric and the other a film in each case and that the fabric consists of a glass fibre or of a first high-performance polymer and the film consists of a second high-performance polymer.