mhurhangee/patent-ind-claim-en huggingface dataset:
Sliding plug door for a rail vehicle, having a door frame or a portal frame, at least one door leaf and at least one lighting means in the door region, characterised in that the lighting means is an LED strip or an LED chain located in a groove of the door frame or portal frame at a point which is at least substantially covered by the door leaf in the closed state of the door.
An environment-friendly disposable tableware which is formed by molding and hot-pressing environment-friendly and naturally degradable materials, comprising: a handle and a main body , wherein the main body is positioned at one end of the handle ; on a cross section transverse to an extending direction of the handle , the handle has a bottom wall and side walls located at both ends of the bottom wall, a first edge flap is arranged at a free end of each side wall , a thickness of the first edge flap is equal to a thickness of each side wall , and corners of the first edge flap are rounded; whereby the environment-friendly tableware is provided with a reinforcing rib , the reinforcing rib extends from the handle 10,40,70,110 to the main body , characterized in that the reinforcing rib comprises a concave portion and convex portions positioned at both ends of the concave portion on a cross section transverse to an extending direction of the reinforcing rib . a handle and a main body , wherein the main body is positioned at one end of the handle ; on a cross section transverse to an extending direction of the handle , the handle has a bottom wall and side walls located at both ends of the bottom wall, a first edge flap is arranged at a free end of each side wall , a thickness of the first edge flap is equal to a thickness of each side wall , and corners of the first edge flap are rounded; whereby the environment-friendly tableware is provided with a reinforcing rib , the reinforcing rib extends from the handle 10,40,70,110 to the main body , characterized in that the reinforcing rib comprises a concave portion and convex portions positioned at both ends of the concave portion on a cross section transverse to an extending direction of the reinforcing rib .
A tong configured to be connected to and disconnected from a rig , the tong comprising: a tong control system disposed on the tong and configured to log and store information and to wirelessly transmit and receive information; and a local electric power generation system disposed on the tong and configured to generate electric power, the local electric power generation system comprising: a motor configured to receive hydraulic power from a hydraulic power source of the rig; an electric generator configured to be driven by the motor to generate electric power; and a battery system configured to receive and store electric power from the electric generator; wherein the tong control system is powered by the local electric power generation system, and wherein the battery system is configured to provide electric power to the tong control system to wirelessly transmit and wirelessly receive information when the tong is disconnected from the hydraulic power source of the rig. a tong control system disposed on the tong and configured to log and store information and to wirelessly transmit and receive information; and a local electric power generation system disposed on the tong and configured to generate electric power, the local electric power generation system comprising: a motor configured to receive hydraulic power from a hydraulic power source of the rig; an electric generator configured to be driven by the motor to generate electric power; and a battery system configured to receive and store electric power from the electric generator; a motor configured to receive hydraulic power from a hydraulic power source of the rig; an electric generator configured to be driven by the motor to generate electric power; and a battery system configured to receive and store electric power from the electric generator; wherein the tong control system is powered by the local electric power generation system, and wherein the battery system is configured to provide electric power to the tong control system to wirelessly transmit and wirelessly receive information when the tong is disconnected from the hydraulic power source of the rig.
An information processing method, comprising: receiving , by a mobility management entity, information indicating the UE is a UE of low data usage, from a user equipment, UE; determining , by the mobility management entity that the UE is a UE of low data usage according to the information; obtaining, by the mobility management entity, address information of a machine type control server ; receiving , by the mobility management entity, a non-access stratum message that comprises data information of the UE from the UE; and sending , by the mobility management entity, the data information of the UE to the machine type control server . receiving , by a mobility management entity, information indicating the UE is a UE of low data usage, from a user equipment, UE; determining , by the mobility management entity that the UE is a UE of low data usage according to the information; obtaining, by the mobility management entity, address information of a machine type control server ; receiving , by the mobility management entity, a non-access stratum message that comprises data information of the UE from the UE; and sending , by the mobility management entity, the data information of the UE to the machine type control server .
A heat exchanger comprising: a cast plate (12; 26) defining at least one passage defining a flow path for airflow , the plate (12; 26) defining a unitary part without joints; and a manifold (15;20) including a transition region (16;22), wherein the transition region (16; 22) includes at least two rib portions defining a smoothly curved transition surface into the at least one passage , wherein the at least two rib portions extend across the transition region (16;22) from a first wall of the manifold (15;20) to a second wall of the manifold (15; 20), wherein the at least two rib portions include a support portion supporting the at least one passage , and wherein the plate (12;26) is abutted against the support portion of the at least two rib portions so as to continue the smoothly curved transition surface through the at least one passage . a cast plate (12; 26) defining at least one passage defining a flow path for airflow , the plate (12; 26) defining a unitary part without joints; and a manifold (15;20) including a transition region (16;22), wherein the transition region (16; 22) includes at least two rib portions defining a smoothly curved transition surface into the at least one passage , wherein the at least two rib portions extend across the transition region (16;22) from a first wall of the manifold (15;20) to a second wall of the manifold (15; 20), wherein the at least two rib portions include a support portion supporting the at least one passage , and wherein the plate (12;26) is abutted against the support portion of the at least two rib portions so as to continue the smoothly curved transition surface through the at least one passage .
Method for electrically conductive connecting of first electrical conductors and second electrical conductors preferably twisted therearound in a compression chamber variable in cross-section, in particular in height and width, and having at least one lateral slide , a sonotrode and a counter electrode , by means of ultrasonic welding, wherein bare ends of the first electrical conductors initially being inserted into the compression chamber and welded by means of ultrasonic effect into a first connection and then after removal of the first connection from the compression chamber bare ends of the second electrical conductors being inserted thereinto and welded by means of ultrasonic effect into a second connection, characterized in that, before welding of the second connection the first connection is passed to a retaining device .
A porous catalyst based on at least aluminium oxide, and a second oxide of a metal selected from magnesium, calcium, titanium, chromium, iron, manganese and zirconium, wherein the porous catalyst further comprises boron and nickel, wherein the boron is present in an amount of 0.5-5 wt% and the nickel is present in an amount of 4 - 70 wt%, based on total weight of the catalyst, wherein the porous catalyst comprises pores having an average pore size in the range of 1-30 nm as measured by N 2 adsorption-desorption at 77 K using the Barrett-Joyner-Halenda (BJH) method.
An in vitro or ex vivo method of targeting a polynucleotide, comprising: contacting a sample that may comprise the polynucleotide with a CRISPR-Cas complex comprising (a) a type V Cas protein comprising a RuvC nuclease domain but not comprising a HNH domain and (b) an engineered guide that is capable of directing sequence-specific binding of the complex to a target sequence of the polynucleotide, thereby targeting or detecting said polynucleotide.
A direct metal bonding method comprising the following steps: a) Providing a first stack comprising a first substrate on which is deposited a first metal layer comprising a first metal, and a first solubilization layer distinct from the first metal layer , the first solubilization layer including a first getter material configured to solubilize oxygen, b) Providing a second stack comprising a second substrate on which is deposited a second metal layer comprising a second metal, c) Contacting the first metal layer and the second metal layer so as to obtain a direct metal bonding between the first metal layer and the second metal layer , and d) Applying a heat treatment for annealing the bonding. e) Application of an activation heat treatment configured to solubilize oxygen, characterized in that a structure comprising the first substrate , the first solubilization layer , the first metal layer bonded by direct metal bonding to the second metal layer , and the second substrate is obtained. a) Providing a first stack comprising a first substrate on which is deposited a first metal layer comprising a first metal, and a first solubilization layer distinct from the first metal layer , the first solubilization layer including a first getter material configured to solubilize oxygen, b) Providing a second stack comprising a second substrate on which is deposited a second metal layer comprising a second metal, c) Contacting the first metal layer and the second metal layer so as to obtain a direct metal bonding between the first metal layer and the second metal layer , and d) Applying a heat treatment for annealing the bonding. e) Application of an activation heat treatment configured to solubilize oxygen,
Luggage item comprising: a first portion and a second portion , opposite to the first portion , wherein the first portion and the second portion comprise a respective perimetral edge ; a zip assembly comprising a first half part and a second half part ; said first half part of the zip assembly comprising a first flap having a first and a second end opposite to each other, first teeth being connected to the first end and second teeth being connected to the second end , said first flap extending continuously between the first and the second end ; said first half part further comprising a second flap connected to at least one section of said perimetral edge of the first portion of the luggage item and connected to the first flap in a position comprised between the first and the second end ; said second half part of the zip assembly comprising a third flap having a first and a second end opposite to each other, third teeth coupled to said first teeth to form a first chain being connected to the first end of the third flap and fourth teeth coupled to said second teeth to form a second chain being connected to the second end of the third flap , said third flap extending continuously between the first and the second end ; said second half part further comprising a fourth flap connected to at least a section of said perimetral edge of the second portion of the luggage item and connected to the third flap in a position comprised between the first and the second end . a first portion and a second portion , opposite to the first portion , wherein the first portion and the second portion comprise a respective perimetral edge ; a zip assembly comprising a first half part and a second half part ; said first half part of the zip assembly comprising a first flap having a first and a second end opposite to each other, first teeth being connected to the first end and second teeth being connected to the second end , said first flap extending continuously between the first and the second end ; said first half part further comprising a second flap connected to at least one section of said perimetral edge of the first portion of the luggage item and connected to the first flap in a position comprised between the first and the second end ; said second half part of the zip assembly comprising a third flap having a first and a second end opposite to each other, third teeth coupled to said first teeth to form a first chain being connected to the first end of the third flap and fourth teeth coupled to said second teeth to form a second chain being connected to the second end of the third flap , said third flap extending continuously between the first and the second end ; said second half part further comprising a fourth flap connected to at least a section of said perimetral edge of the second portion of the luggage item and connected to the third flap in a position comprised between the first and the second end .
A pharmaceutical composition comprising at least: - a polypeptide comprising at least two CXXC motifs, wherein C represents a cysteine residue and X any aminoacid residue, wherein the polypeptide is a variable surface protein (VSP) of a microorganism selected in the group consisting of Tetrahymena, Paramecium and Entamoeba species and is able to attach to epithelial cells of the gut, and - an antigen heterologous to said polypeptide, covalently bound to said polypeptide. - a polypeptide comprising at least two CXXC motifs, wherein C represents a cysteine residue and X any aminoacid residue, wherein the polypeptide is a variable surface protein (VSP) of a microorganism selected in the group consisting of Tetrahymena, Paramecium and Entamoeba species and is able to attach to epithelial cells of the gut, and - an antigen heterologous to said polypeptide, covalently bound to said polypeptide.
Freewheel hub for a bicycle, comprising: - a hub axle , - a hub sleeve which is mounted rotatably on the hub axle via a bearing arrangement , - a driver which is mounted rotatably on the hub axle and is connectable to at least one pinion arrangement, - a freewheel device which is arranged between the hub sleeve and the driver and optionally allows relative rotation between the hub sleeve and the driver or couples the hub sleeve and the driver in a torque-transmitting manner, wherein the freewheel device has at least one first clutch ring and at least one second clutch ring , wherein the first clutch ring is coupled or couplable to the hub sleeve in a torque-transmitting manner, and wherein the second clutch ring is couplable or coupled to the driver in a torque-transmitting manner, wherein the two clutch rings have mutually facing toothing systems , and wherein the first and the second clutch ring are displaceable axially relative to the hub axle between an engaged position (ES), in which the toothing systems engage into one another in a torque-transmitting manner, and a freewheel position (FS), in which the toothing systems do not engage into one another, characterized in that at least one magnet arrangement accommodated in apertures in the first clutch ring or the second clutch ring keeps the clutch rings in the engaged position (ES), wherein the apertures for accommodating the magnet arrangement are arranged and configured in the first clutch ring or the second clutch ring such that, in the event of relative rotation between the first and second clutch rings , the clutch rings are transferable in the axial direction from the engaged position (ES) into the freewheel position (FS) and back again. - a hub axle , - a hub sleeve which is mounted rotatably on the hub axle via a bearing arrangement , - a driver which is mounted rotatably on the hub axle and is connectable to at least one pinion arrangement, - a freewheel device which is arranged between the hub sleeve and the driver and optionally allows relative rotation between the hub sleeve and the driver or couples the hub sleeve and the driver in a torque-transmitting manner,
Method for manufacturing an optical microlens arrays (20, 20', 20", 20'''), wherein the method comprises: providing a substrate having a first side and an opposite second side , applying a photoresist to the first side of the substrate at least in portions, wherein, before applying the photoresist on the first side of the substrate , three-dimensional elevations (71a - 71f) comprising a height between 50nm and 5 μm and protruding over the respective substrate surface of the first side of the substrate are provided, and wherein these protruding three-dimensional elevations (71a - 71f) are provided at predetermined locations (15a - 15f) where the one optical microlens (16a - 16f) each is to be later arranged, wherein the step of applying the photoresist includes applying the photoresist to the protruding three-dimensional elevations (71a - 71f), structuring the photoresist such that the structured photoresist (13a - 13e) remains at the predetermined locations (15a - 15e) on the first side of the substrate where one optical microlens (16a - 16e) each is to be later arranged, applying a hydrophobic coating to the first side of the substrate , wherein the step of applying the hydrophobic coating includes applying the hydrophobic coating to the protruding three-dimensional elevations (71a - 71f), and subsequently removing the structured photoresist (13a - 13e) including the hydrophobic coating located thereon from the protruding three-dimensional elevations (71a - 71f), and arranging one microlens (16a - 16e) each on the spots of the first side of the substrate that are freed from the structured photoresist (13a - 13e). providing a substrate having a first side and an opposite second side , applying a photoresist to the first side of the substrate at least in portions, wherein, before applying the photoresist on the first side of the substrate , three-dimensional elevations (71a - 71f) comprising a height between 50nm and 5 μm and protruding over the respective substrate surface of the first side of the substrate are provided, and wherein these protruding three-dimensional elevations (71a - 71f) are provided at predetermined locations (15a - 15f) where the one optical microlens (16a - 16f) each is to be later arranged, wherein the step of applying the photoresist includes applying the photoresist to the protruding three-dimensional elevations (71a - 71f), structuring the photoresist such that the structured photoresist (13a - 13e) remains at the predetermined locations (15a - 15e) on the first side of the substrate where one optical microlens (16a - 16e) each is to be later arranged, applying a hydrophobic coating to the first side of the substrate , wherein the step of applying the hydrophobic coating includes applying the hydrophobic coating to the protruding three-dimensional elevations (71a - 71f), and subsequently removing the structured photoresist (13a - 13e) including the hydrophobic coating located thereon from the protruding three-dimensional elevations (71a - 71f), and arranging one microlens (16a - 16e) each on the spots of the first side of the substrate that are freed from the structured photoresist (13a - 13e).
High performance fiber (HPF) structure, comprising: a plurality of fibers arranged in the structure; a matrix disposed between the fibers; wherein a multilayer coating is provided along the surfaces of at least some of the fibers, the multilayer coating including: an inner layer region having a sheet like strength; an outer layer region having a particle-like strength, such that any cracks propagating toward the outer layer from the matrix propagate along the outer layer region and back into the matrix, thereby preventing the cracks from approaching the fibers, characterized in that the multilayer coating has a shear strength gradient along the interphase radius accomplished by varying the degree of crystallization of Boron Nitride (BN) or pyrolytic carbon (PyC), from fully crystallized to turbostratic as the interphase radius increases from the inner layer region to the outer layer region, wherein the inner layer region comprises graphitic carbon and the outer layer region comprises pyrolytic carbon, and/or wherein the inner layer region comprises hexagonal Boron-nitride, and the outer layer region comprises turbostratic Boron-nitride. a plurality of fibers arranged in the structure; a matrix disposed between the fibers; wherein a multilayer coating is provided along the surfaces of at least some of the fibers, the multilayer coating including: an inner layer region having a sheet like strength; an outer layer region having a particle-like strength, such that any cracks propagating toward the outer layer from the matrix propagate along the outer layer region and back into the matrix, thereby preventing the cracks from approaching the fibers, an inner layer region having a sheet like strength; an outer layer region having a particle-like strength, such that any cracks propagating toward the outer layer from the matrix propagate along the outer layer region and back into the matrix, thereby preventing the cracks from approaching the fibers, characterized in that the multilayer coating has a shear strength gradient along the interphase radius accomplished by varying the degree of crystallization of Boron Nitride (BN) or pyrolytic carbon (PyC), from fully crystallized to turbostratic as the interphase radius increases from the inner layer region to the outer layer region, wherein the inner layer region comprises graphitic carbon and the outer layer region comprises pyrolytic carbon, and/or wherein the inner layer region comprises hexagonal Boron-nitride, and the outer layer region comprises turbostratic Boron-nitride.