mhurhangee/patent-ind-claim-en huggingface dataset:
An antibody or antigen-binding fragment thereof comprising: (i) light chain CDR1, CDR2 and CDR3 from a donor lagomorph antibody or antigen-binding fragment thereof and heavy chain CDR1, CDR2 and CDR3 from a donor lagomorph antibody or antigen-binding fragment thereof; (ii) a variable human light chain framework comprising an amino acid sequence that is at least 85% identical to the sequence of SEQ ID NO: 2; and (iii) a variable human heavy chain framework, wherein the amino acid sequence of the variable heavy chain framework is at least 85% identical to the sequence of SEQ ID NO: 4 and comprises at least four of the following amino acids: threonine (T) at position 24, alanine (A) or glycine (G) at position 56, threonine (T) at position 84, valine (V) at position 89, and arginine (R) at position 108 (AHo numbering). (i) light chain CDR1, CDR2 and CDR3 from a donor lagomorph antibody or antigen-binding fragment thereof and heavy chain CDR1, CDR2 and CDR3 from a donor lagomorph antibody or antigen-binding fragment thereof; (ii) a variable human light chain framework comprising an amino acid sequence that is at least 85% identical to the sequence of SEQ ID NO: 2; and (iii) a variable human heavy chain framework, wherein the amino acid sequence of the variable heavy chain framework is at least 85% identical to the sequence of SEQ ID NO: 4 and comprises at least four of the following amino acids: threonine (T) at position 24, alanine (A) or glycine (G) at position 56, threonine (T) at position 84, valine (V) at position 89, and arginine (R) at position 108 (AHo numbering).
An oxidation fiber manufacturing method for processing a fiber yarn bunch to form an oxidation fiber structure, wherein the oxidation fiber structure comprises at least one oxidation fiber , wherein the oxidation fiber comprises an oxidation layer and a core portion , wherein the oxidation layer covers an outer side of the core portion , wherein a cross section area of the oxidation layer in the as-processed oxidation fiber occupies more than 50 % of a cross section area of the oxidation fiber , wherein the oxidation fiber manufacturing method is characterized in including a microwave processing step to focus a microwave onto a passed fiber yarn bunch to perform an ultra-fast pre-oxidization process, so that, in the microwave processing step, the oxidation fiber is formed under an exposure of a microwaving condition, wherein the microwaving condition comprises: a microwave frequency being 300 MHz through 300,000 MHz; a microwave power being 1 kW/m 2 through 1000 kW/m 2 ; an operation temperature being 100 °C through 600 °C; a processing time is 1 minute through 40 minutes; and a gas atmosphere being at least one of oxygen, air and ozone.
A method performed by a Serving GPRS Support Node, SGSN , or a Mobile Switching Centre, MSC , the method comprising: receiving a forward relocation request at the SGSN or a service request at the MSC ; determining from the forward relocation request or the service request that Circuit Switched Fall-Back, CSFB, is required for a terminal device ; determining from the forward relocation request or the service request a respective terminal device identity; starting a timer for the terminal device upon said determination; and varying a connection procedure of the terminal device by applying a revised security procedure if a Location Area Update request is received from the terminal device while said timer for the terminal device is running. receiving a forward relocation request at the SGSN or a service request at the MSC ; determining from the forward relocation request or the service request that Circuit Switched Fall-Back, CSFB, is required for a terminal device ; determining from the forward relocation request or the service request a respective terminal device identity; starting a timer for the terminal device upon said determination; and varying a connection procedure of the terminal device by applying a revised security procedure if a Location Area Update request is received from the terminal device while said timer for the terminal device is running.
A processor of a user equipment, UE, configured to perform operations comprising: accessing a first base station in a network via an access link, wherein the first base station is an integrated access and backhaul, IAB, node in a first IAB network topology connected to a second base station via one or more backhaul links, wherein the second base station is an IAB-donor for the first base station; reporting, to the first base station, information to be used by the network for reducing a maximum data rate for the UE when the UE is deployed in one or more IAB network topologies, wherein the reported information indicates a reduction value for the maximum data rate based on whether the first IAB network topology is a standalone IAB network topology or a non-standalone IAB network topology, wherein the standalone IAB network topology comprises 5G backhaul links and the non-standalone IAB network topology comprises 5G and LTE backhaul links; and receiving data packages with a reduced maximum data rate based on the reported information. accessing a first base station in a network via an access link, wherein the first base station is an integrated access and backhaul, IAB, node in a first IAB network topology connected to a second base station via one or more backhaul links, wherein the second base station is an IAB-donor for the first base station; reporting, to the first base station, information to be used by the network for reducing a maximum data rate for the UE when the UE is deployed in one or more IAB network topologies, wherein the reported information indicates a reduction value for the maximum data rate based on whether the first IAB network topology is a standalone IAB network topology or a non-standalone IAB network topology, wherein the standalone IAB network topology comprises 5G backhaul links and the non-standalone IAB network topology comprises 5G and LTE backhaul links; and
Dishwasher for cleaning washware using dishwashing liquid in a washing compartment , having a heat pump circuit through which heat from the room air from the installation space of the dishwasher is taken up and used to heat the dishwashing liquid and which has an evaporator having a heat exchanger , which heat exchanger is arranged, together with a fan , in an air duct , the dishwasher also having a base arranged below the washing compartment , and the air duct extending, in the base of the dishwasher , from the front to the rear and having an air outlet in the rear region thereof, characterised in that the air duct is coupled to an intake duct towards the front, which intake duct, together with an air inlet opening, protrudes so far beyond a front of the base that it can be guided through a cut-out in a baseboard of a kitchen cabinet, which baseboard is located in front of the base .
A quantum dot composition comprising a quantum dot and a ligand modifier adsorbed on a surface of the quantum dot, wherein the ligand modifier has a structural formula of segment A-segment B, the ligand modifier is adsorbed on the surface of the quantum dot by segment A, and segment B is a long molecular chain including an R1 group, an R2 group and an R3 group which are sequentially linked one by one with the R1 group being linked to the segment A; wherein the quantum dot includes any one or more selected from a group comprising an III-V group quantum dot, an IV group quantum dot, an II-VI group quantum dot, a core-shell quantum dot, and an alloy quantum dot; wherein the segment A includes any one or more selected from a group comprising an amino group, sulfhydryl, hydroxyl, a polyamino group, polysulfhydryl, polyhydroxyl, phosphorus, phosphorusoxy, organophosphorus, and thioether; wherein the R1 group includes any one or more selected from a group comprising an aromatic group, ethyl, butyl, cyclohexyl, methoxyl, a methylamino aliphatic chain, epoxypropyl, and a cyclohexyl alicyclic compound; wherien the R2 group includes any one or more selected from a group comprising an azo group, a peroxy group, and a diacyl peroxide; wherein the R3 group includes any one or more selected from a group comprising an aromatic group, ethyl, butyl, cyclohexyl, methoxyl, a methylamino aliphatic chain, epoxypropyl, and a cyclohexyl alicyclic compound; wherein the aromatic group includes any one or more selected from a group comprising phenyl, alkylphenyl, thienyl, pyrimidinyl, a phenylamino group, naphthalene, and phenoxyl. wherein the quantum dot includes any one or more selected from a group comprising an III-V group quantum dot, an IV group quantum dot, an II-VI group quantum dot, a core-shell quantum dot, and an alloy quantum dot; wherein the segment A includes any one or more selected from a group comprising an amino group, sulfhydryl, hydroxyl, a polyamino group, polysulfhydryl, polyhydroxyl, phosphorus, phosphorusoxy, organophosphorus, and thioether; wherein the R1 group includes any one or more selected from a group comprising an aromatic group, ethyl, butyl, cyclohexyl, methoxyl, a methylamino aliphatic chain, epoxypropyl, and a cyclohexyl alicyclic compound; wherien the R2 group includes any one or more selected from a group comprising an azo group, a peroxy group, and a diacyl peroxide; wherein the R3 group includes any one or more selected from a group comprising an aromatic group, ethyl, butyl, cyclohexyl, methoxyl, a methylamino aliphatic chain, epoxypropyl, and a cyclohexyl alicyclic compound; wherein the aromatic group includes any one or more selected from a group comprising phenyl, alkylphenyl, thienyl, pyrimidinyl, a phenylamino group, naphthalene, and phenoxyl.
Solar installation (1a; 1b; 1d), in particular photovoltaic installation, comprising at least one energy generating element (16, 19; 16a; 16c; 19d) and a device for holding the at least one energy generating element (16, 19; 16a; 16c; 19d) in a power generation position at a distance from a ground (2; 2c), the holding device comprising a net (12; 12a; 12d) formed from strands (10, 11, 21, 10a, 11, 21a; 10c, 29; 10d, 11d), which is preferably arranged without arching above the ground (2; 2c), and on which the at least one power generating element (16, 19; 16a; 16c; 19d) can be fastened, characterized in that the at least one energy generating element is positioned in a mesh (20; 20a; 20d) of the net (12; 12a; 12d) such that a first portion of the energy generating element is positioned above at least one strand forming the mesh (20; 20a; 20d) and a further portion of the energy generating element is positioned below at least one further strand forming the mesh .
Apparatus to capture and display an image of an object , said apparatus comprising: a frame , a body connected to the frame and comprising a screen for displaying the image of the object; at least one optical sensor for capturing the image of the object , means for moving the frame relative to a surface of the object in a first direction, and means for moving the optical sensor and the screen relative to the frame in a second, translational, direction, wherein the means for moving the frame comprise at least one roller and at least one skid rotatably connected to the at least one roller , such that the body is allowed to go from a closed position in which it is substantially parallel with the at least one skid , to an open position. a frame , a body connected to the frame and comprising a screen for displaying the image of the object; at least one optical sensor for capturing the image of the object , means for moving the frame relative to a surface of the object in a first direction, and means for moving the optical sensor and the screen relative to the frame in a second, translational, direction, wherein the means for moving the frame comprise at least one roller and at least one skid rotatably connected to the at least one roller , such that the body is allowed to go from a closed position in which it is substantially parallel with the at least one skid , to an open position.
A method of fabricating a woven fiber preform that is impregnated with a matrix-precursor resin, said resin, in the raw state, presenting a glass transition temperature Tg 0 , the method comprising: - impregnating yarns or strands with the resin; - feeding a loom with the impregnated yarns or strands maintained at a temperature in the range Tg 0 to Tg 0 +10°C; and - weaving the yarns or strands in the loom in order to obtain the resin-impregnated woven fiber preform. - impregnating yarns or strands with the resin; - feeding a loom with the impregnated yarns or strands maintained at a temperature in the range Tg 0 to Tg 0 +10°C; and - weaving the yarns or strands in the loom in order to obtain the resin-impregnated woven fiber preform.
Cooking appliance with at least one cooking appliance apparatus with at least one light unit and with at least one insulation unit , which is provided for electrical insulation of the light unit , wherein the insulation unit has a first insulation element and at least one second insulation element , between which the light unit is at least partially arranged, characterised in that the light unit comprises at least one support element , which is embodied in at least partially strip-like form, and a multiplicity of light elements, which are arranged on the support element .
A method performed by a base station, BS, the method comprising: receiving , from a user equipment, UE, a random access, RA, preamble for a network entry; generating a random access response, RAR, message including an uplink grant allocated to the UE, based on the received RA preamble; masking the RAR message using at least one of a random access-radio network temporary identifier, RA-RNTI, and a bitstream, a portion of the RA-RNTI, or a combination of the portion of the RA-RNTI and a bitstream; allocating physical downlink control channel, PDCCH, resources for transmitting the generated RAR message; transmitting the RAR message to the UE through the allocated PDCCH resources; and receiving a radio resource control, RRC, layer connection request message from the UE through resources allocated to the UE by the uplink grant. receiving , from a user equipment, UE, a random access, RA, preamble for a network entry; generating a random access response, RAR, message including an uplink grant allocated to the UE, based on the received RA preamble; masking the RAR message using at least one of a random access-radio network temporary identifier, RA-RNTI, and a bitstream, a portion of the RA-RNTI, or a combination of the portion of the RA-RNTI and a bitstream; allocating physical downlink control channel, PDCCH, resources for transmitting the generated RAR message; transmitting the RAR message to the UE through the allocated PDCCH resources; and receiving a radio resource control, RRC, layer connection request message from the UE through resources allocated to the UE by the uplink grant.
A counterweight comprising: a counterweight frame including a crosshead, characterized by further comprising: a counterweight hitch operably coupled to the counterweight frame , the counterweight hitch including a first sheave channel and a second sheave channel vertically connected by a first upright and a second upright , each of the first sheave channel and second sheave channel includes an interior cavity within which at least one individual sheave assembly is mounted, each individual sheave assembly includes a sheave mounted to an adjacent support such that the sheave is configured to rotate about an axis of rotation (X), and a bracket connected to the support operably couples the individual sheave assembly within the interior cavity of one of the first sheave channel and the second sheave channel with a fastener , the plurality of individual sheave assemblies being substantially identical and arranged at an angle relative to a central plane (C) of the counterweight frame ; wherein the counterweight hitch is coupled to the crosshead of the counterweight frame . a counterweight hitch operably coupled to the counterweight frame , the counterweight hitch including a first sheave channel and a second sheave channel vertically connected by a first upright and a second upright , each of the first sheave channel and second sheave channel includes an interior cavity within which at least one individual sheave assembly is mounted, each individual sheave assembly includes a sheave mounted to an adjacent support such that the sheave is configured to rotate about an axis of rotation (X), and a bracket connected to the support operably couples the individual sheave assembly within the interior cavity of one of the first sheave channel and the second sheave channel with a fastener , the plurality of individual sheave assemblies being substantially identical and arranged at an angle relative to a central plane (C) of the counterweight frame ; wherein the counterweight hitch is coupled to the crosshead of the counterweight frame .
Method for manufacturing a floor covering, wherein this method comprises the following steps: - the step (S1) of preparing a semi-finished product with at least a substrate layer (9A-9B-11), a decor layer provided thereon and a transparent wear layer ; - the steps (S2-S3) of structuring the aforementioned wear layer and of applying and hardening a first lacquer layer ; - the step (S4) of applying and hardening a second lacquer layer , whereby said step of structuring the wear layer creates a relief in said wear layer, said relief comprising recesses , wherein said first lacquer layer is located at least on the bottom of one of the recesses , characterized in that said second lacquer layer is interrupted at the location of the recess concerned, whereas the first lacquer layer is hardened by means of UV radiation and the second layer is hardened by means of excimer radiation. - the step (S1) of preparing a semi-finished product with at least a substrate layer (9A-9B-11), a decor layer provided thereon and a transparent wear layer ; - the steps (S2-S3) of structuring the aforementioned wear layer and of applying and hardening a first lacquer layer ; - the step (S4) of applying and hardening a second lacquer layer , whereby said step of structuring the wear layer creates a relief in said wear layer, said relief comprising recesses , wherein said first lacquer layer is located at least on the bottom of one of the recesses , characterized in that said second lacquer layer is interrupted at the location of the recess concerned, whereas the first lacquer layer is hardened by means of UV radiation and the second layer is hardened by means of excimer radiation.
A computer implemented method for coordinating management of a plurality of cells in a cellular communication network, wherein each of the plurality of cells is managed by a respective Agent, the method, performed by a controller node, comprising: assembling a candidate set of cells, wherein each cell in the candidate set is awaiting execution of an action selected for the cell by its managing Agent ; selecting a cell from the candidate set ; adding the selected cell to an execution set of cells ; removing, from the candidate set of cells, the selected cell and all cells identified in a topology graph of the plurality of cells as fulfilling an interference condition with respect to the selected cell ; and if a scheduling condition is fulfilled, initiating, for all cells in the execution set of cells, execution of the actions selected for the cells by their managing agents . assembling a candidate set of cells, wherein each cell in the candidate set is awaiting execution of an action selected for the cell by its managing Agent ; selecting a cell from the candidate set ; adding the selected cell to an execution set of cells ; removing, from the candidate set of cells, the selected cell and all cells identified in a topology graph of the plurality of cells as fulfilling an interference condition with respect to the selected cell ; and if a scheduling condition is fulfilled, initiating, for all cells in the execution set of cells, execution of the actions selected for the cells by their managing agents .
Arrangement of a ground drilling device for the insertion of a drill string in the ground, by means of a pushing or pulling, wherein the arrangement has a frame and a carriage which is movable relative to the frame having a translatory movement backwards and forwards, characterised in that at least one rolling element is provided, which is designed to roll with the translatory movement of the carriage , wherein the rotation movement of the rolling element is converted into a rotary movement of the drill string .
A modified valyl-tRNA synthetase (ValRS) which incorporates an N-methyl valine more efficiently than the ValRS having the amino acid sequence SEQ ID NO:24, wherein said modified ValRS is selected from the following (a) and (b): (a) a ValRS modified at a position(s) corresponding to asparagine at position 43 and/or threonine at position 45 and/or threonine at position 279 of ValRS from Escherichia coli having the amino acid sequence SEQ ID NO:24, and (b) a ValRS having (i) glycine or alanine at a position corresponding to asparagine at position 43 and/or (ii) serine at a position corresponding to threonine at position 45 and/or (iii) glycine or alanine at a position corresponding to threonine at position 279 of ValRS from Escherichia coli having the amino acid sequence SEQ ID NO:24, wherein the modified ValRS of (a) and (b) comprises an amino acid sequence having at least 90% identity to an amino acid sequence selected from the group consisting of SEQ ID NOs: 3 to 5 and 182 and 183. (a) a ValRS modified at a position(s) corresponding to asparagine at position 43 and/or threonine at position 45 and/or threonine at position 279 of ValRS from Escherichia coli having the amino acid sequence SEQ ID NO:24, and (b) a ValRS having (i) glycine or alanine at a position corresponding to asparagine at position 43 and/or (ii) serine at a position corresponding to threonine at position 45 and/or (iii) glycine or alanine at a position corresponding to threonine at position 279 of ValRS from Escherichia coli having the amino acid sequence SEQ ID NO:24,
An exhaust gas purification filter configured to be disposed in an exhaust passage of a gasoline engine, the exhaust gas purification filter comprising: partition walls each comprising a plurality of pores ; a plurality of cells partitioned by the partition walls; and sealing parts that alternately seal ends of the plurality of cells in the exhaust gas purification filter, wherein: A ≥ B is satisfied and A is 5 μm or more and less than 15 μm, where A(μm) is an average pore diameter of the partition wall and B(μm) is an average surface opening diameter of the pores at a surface of the partition wall; a proportion calculated from a formula of 100 × (A - B)/B is 30% or less, and the pores at the surface of the partition wall have a surface opening ratio of 25% or more and 40% or less. partition walls each comprising a plurality of pores ; a plurality of cells partitioned by the partition walls; and sealing parts that alternately seal ends of the plurality of cells in the exhaust gas purification filter, wherein: A ≥ B is satisfied and A is 5 μm or more and less than 15 μm, where A(μm) is an average pore diameter of the partition wall and B(μm) is an average surface opening diameter of the pores at a surface of the partition wall; a proportion calculated from a formula of 100 × (A - B)/B is 30% or less, and the pores at the surface of the partition wall have a surface opening ratio of 25% or more and 40% or less. A ≥ B is satisfied and A is 5 μm or more and less than 15 μm, where A(μm) is an average pore diameter of the partition wall and B(μm) is an average surface opening diameter of the pores at a surface of the partition wall; a proportion calculated from a formula of 100 × (A - B)/B is 30% or less, and the pores at the surface of the partition wall have a surface opening ratio of 25% or more and 40% or less.