mhurhangee/patent-ind-claim-en huggingface dataset:
Display device (2-19) designed as an electronic price indicator plate, comprising + a storage stage for storing a product data record (PD1-PD3) received during communication with a base station over a first radio interface of the display device (2-19), and + a second radio interface for RFID or NFC communication with a self-checkout device , + wherein the display device (2-19) is designed to process a self-checkout request received from a self-checkout device for the purpose of transmitting the product data record (PD) over the second radio interface , characterized in that the display device (2-19) + is designed to receive and store user and/or device identification data (ID) during the processing of a self-checkout request to identify the user of the self-checkout device and/or the self-checkout device and + is designed to submit the identification data (ID) to the base station during communication via the first radio interface . + a storage stage for storing a product data record (PD1-PD3) received during communication with a base station over a first radio interface of the display device (2-19), and + a second radio interface for RFID or NFC communication with a self-checkout device , + wherein the display device (2-19) is designed to process a self-checkout request received from a self-checkout device for the purpose of transmitting the product data record (PD) over the second radio interface , + is designed to receive and store user and/or device identification data (ID) during the processing of a self-checkout request to identify the user of the self-checkout device and/or the self-checkout device and + is designed to submit the identification data (ID) to the base station during communication via the first radio interface .
A method for depositing an optoelectronic component having a monocrystalline, Si y Ge i.x.y Sn x semiconductor layer, wherein Si and Ge as a component of a first gaseous starting material in the form of a hydride, and Sn as a component of a second gaseous starting material in the form of the halide, SnCl 4 , together with a carrier gas formed by an inert gas, are fed into a process chamber of a CVD reactor, wherein radicals, which in pure form have a decomposition temperature, are produced from the first starting material in a gas phase reaction, the radicals and the second starting material are brought together to the surface of a semiconductor substrate heated to a substrate temperature which is lower than the decomposition temperature of the pure radical, wherein the radicals in a first reaction react exothermically with the SnCl 4 on the surface, wherein Si, Ge and Sn atoms remain on the surface as reaction products, and the radicals decompose endothermically in a second reaction at the same time as the first reaction by absorbing the heat released during the first reaction, wherein the radicals formed in the gas phase reaction only react with the halide on the surface in the first reaction, so that the heat of reaction released in the exothermic reaction sets the second reaction in motion and leads to a local temperature increase on the surface of the layer or the substrate, in which the Si, Ge and Sn atoms are built into the surface in a crystalline order, and characterised in that a photoluminescent layer having an Sn component x between 0.1 and 0.14 and an Si component y between 0 and 0.2 is produced. wherein Si and Ge as a component of a first gaseous starting material in the form of a hydride, and Sn as a component of a second gaseous starting material in the form of the halide, SnCl 4 , together with a carrier gas formed by an inert gas, are fed into a process chamber of a CVD reactor, wherein radicals, which in pure form have a decomposition temperature, are produced from the first starting material in a gas phase reaction, the radicals and the second starting material are brought together to the surface of a semiconductor substrate heated to a substrate temperature which is lower than the decomposition temperature of the pure radical, wherein the radicals in a first reaction react exothermically with the SnCl 4 on the surface, wherein Si, Ge and Sn atoms remain on the surface as reaction products, and the radicals decompose endothermically in a second reaction at the same time as the first reaction by absorbing the heat released during the first reaction, wherein the radicals formed in the gas phase reaction only react with the halide on the surface in the first reaction, so that the heat of reaction released in the exothermic reaction sets the second reaction in motion and leads to a local temperature increase on the surface of the layer or the substrate, in which the Si, Ge and Sn atoms are built into the surface in a crystalline order, and characterised in that a photoluminescent layer having an Sn component x between 0.1 and 0.14 and an Si component y between 0 and 0.2 is produced.
Method for transmitting a provisioning dataset from a cellular network to a user equipment , said cellular network comprising a plurality of base nodes providing access to the user equipment, a remote provisioning server accessible by the cellular network, and a core network, comprising at least two network slices (2.3, 2.4), at least one of the network slices comprising at least one network node exclusively assigned to the network slice, wherein at least one of the network slices is dedicated for operating a predefined class of user equipments, and at least one remote provisioning network slice (2.4) is comprising an assigned network node giving access to the remote provisioning server, and at least one base node being assigned to the remote provisioning network slice, the method comprising the steps of: - receiving at said base node from a user equipment an attach request comprising an initial device identifier as authentication credentials, said initial device identifier being different from the authentication credentials to be used for attaching to a base node assigned to a network slice different from the remote provisioning network slice, - receiving at said base node a remote provisioning request from said user equipment, the remote provisioning request comprising the initial device identifier, - forwarding said remote provisioning request by means of the remote provisioning network slice to the remote provisioning server, - responding to the user equipment with a provisioning dataset received from the remote provisioning server, in case a user equipment identifier matching to the initial device identifier is accessible for the remote provisioning server. - receiving at said base node from a user equipment an attach request comprising an initial device identifier as authentication credentials, said initial device identifier being different from the authentication credentials to be used for attaching to a base node assigned to a network slice different from the remote provisioning network slice, - receiving at said base node a remote provisioning request from said user equipment, the remote provisioning request comprising the initial device identifier, - forwarding said remote provisioning request by means of the remote provisioning network slice to the remote provisioning server, - responding to the user equipment with a provisioning dataset received from the remote provisioning server, in case a user equipment identifier matching to the initial device identifier is accessible for the remote provisioning server.
Method for ejecting at least one payload such as a satellite , comprising a step of ejecting the payload from a spacecraft that is driven by a continuous propulsion force (B) when the payload is ejected .
A void forming module for forming structures for drainage, attenuation and/or aeration, the module including a support surface including: a first generally planar upper region , a second generally planar lower region , and a third generally convex region joining the first region and the second region , wherein the third region of the support surface at least partially conforms to a lateral surface of an imaginary curved frustum or curved truncated cone; wherein at least one of the first region , the second region , and/or the third region includes at least one aperture for the passage of fluid through the void forming module . a first generally planar upper region , a second generally planar lower region , and a third generally convex region joining the first region and the second region , wherein the third region of the support surface at least partially conforms to a lateral surface of an imaginary curved frustum or curved truncated cone;
A back-rigid push chain operable by a chain drive, consisting of chain links (1-6) composed in a sandwich-like manner, whose inner part includes in each case a disk package (7-12) consisting of at least two disks of identical shape and flushly arranged, each of them being formed substantially as a segment of a circular disk with a segment-shaped outer edge defined by a pointed catch cam and a congruent catch recess and an indented inner edge , wherein two pin-receiving holes are arranged between the outer edge and the inner edge next to the latter's indentation , wherein the disk package (e.g. 7) is held together by two pins received in the two pin-receiving holes and wherein each of the two pins is, furthermore, suited to engage into one pin-receiving hole each in disks of a laterally adjacent disk package (e.g. 8) of identical shape as the disks of the disk package and flushly arranged, which disk package is pivotable about the pin , characterized in that an angular chain link with an angled web is arranged on two adjacent end sections of two successive chain tie rods at least on one longitudinal side of the push chain, which angular chain link is held in the chain tie rods by means of the pins in such a manner that, when the push chain is expanded, backs of the chain tie rods are supported by the web of the angular chain link .
A multilayer film comprising: two outer layers; where each outer layer comprises polyethylene; two tie layers; where each tie layer comprises a crystalline block composite; where the crystalline block composite comprises a crystalline ethylene based polymer, a crystalline alpha-olefin based polymer, and a block copolymer comprising a crystalline ethylene block and a crystalline alpha-olefin block, wherein the crystalline ethylene block of the block copolymer is the same composition as the crystalline ethylene based polymer in the block composite and the crystalline alpha-olefin block of the block copolymer is the same composition as the crystalline alpha-olefin based polymer of the block composite; where each tie layer has a first face and a second face that are opposed to each other, and where the first face of each tie layer contacts at least one outer layer; and a core layer; where the core layer comprises a polypropylene; and where the second face of each tie layer contacts the core layer. two outer layers; where each outer layer comprises polyethylene; two tie layers; where each tie layer comprises a crystalline block composite; where the crystalline block composite comprises a crystalline ethylene based polymer, a crystalline alpha-olefin based polymer, and a block copolymer comprising a crystalline ethylene block and a crystalline alpha-olefin block, wherein the crystalline ethylene block of the block copolymer is the same composition as the crystalline ethylene based polymer in the block composite and the crystalline alpha-olefin block of the block copolymer is the same composition as the crystalline alpha-olefin based polymer of the block composite; where each tie layer has a first face and a second face that are opposed to each other, and where the first face of each tie layer contacts at least one outer layer; and a core layer; where the core layer comprises a polypropylene; and where the second face of each tie layer contacts the core layer.
A controller for a wire electrical discharge machine that machines a workpiece (W) along a machining path (R) by relatively moving the workpiece and a wire electrode to each other while generating electric discharge across an electrode gap between the workpiece (W) and the wire electrode, comprising: a machining surface state acquisition unit configured to acquire a state of a machining surface (Wf) of the workpiece (W) after a first machining step; and a machining path setting unit configured to specify an excessively machined portion (Co) of the workpiece (W) based on the acquired state of the machining surface (Wf) after the first machining step and set an access point (A1) at which the wire electrode approaches the machining surface (Wf) from a machining start point (S) in a second, subsequent machining step, so as to avoid the excessively machined portion (Co). characterized in that the machining path setting unit is configured to specify an insufficiently machined portion (Cu) of the workpiece (W) based on the acquired sate of the machining surface (Wf) after the first machining step and set the access point (A1) at a position of the insufficiently machined portion (Cu) in the second machining step. a machining surface state acquisition unit configured to acquire a state of a machining surface (Wf) of the workpiece (W) after a first machining step; and a machining path setting unit configured to specify an excessively machined portion (Co) of the workpiece (W) based on the acquired state of the machining surface (Wf) after the first machining step and set an access point (A1) at which the wire electrode approaches the machining surface (Wf) from a machining start point (S) in a second, subsequent machining step, so as to avoid the excessively machined portion (Co).
A method of forming a data-bearing medium , comprising: setting variables associated with the data-bearing medium , the variables comprising a bit length (B) of a codeword that is to be used to represent a message; identifying a codeword to represent the message, said codeword comprising a phase-invariant codeword , by mapping the message to the phase-invariant codeword based on the variables; determining a two-dimensional array of bits, each row or column comprising repeated instances of the phase-invariant codeword and being circularly-shifted relative to an immediately-preceding row or column; and printing the two-dimensional array onto the data-bearing medium . setting variables associated with the data-bearing medium , the variables comprising a bit length (B) of a codeword that is to be used to represent a message; identifying a codeword to represent the message, said codeword comprising a phase-invariant codeword , by mapping the message to the phase-invariant codeword based on the variables; determining a two-dimensional array of bits, each row or column comprising repeated instances of the phase-invariant codeword and being circularly-shifted relative to an immediately-preceding row or column; and printing the two-dimensional array onto the data-bearing medium .
A layer arrangement for friction-increasing connection of components to be joined, which has: A metal substrate made of - copper or - nickel or - a nickel alloy with the base metal nickel and at least one further alloying element; and at least two functional layers connected to the metal substrate , with a metallic binding phase and hard material particles fixed in the metallic binding phase , wherein the thickness of the metal substrate is at least 50% of the thickness of the entire layer arrangement . A metal substrate made of - copper or - nickel or - a nickel alloy with the base metal nickel and at least one further alloying element; - copper or - nickel or - a nickel alloy with the base metal nickel and at least one further alloying element; and at least two functional layers connected to the metal substrate , with a metallic binding phase and hard material particles fixed in the metallic binding phase , wherein the thickness of the metal substrate is at least 50% of the thickness of the entire layer arrangement .
A process for preparing a metallic or ceramic carrier substrate with regions having different porosities, - wherein powder or a pre-sintered component is subjected to a pressure-assisted compression and sintering step, - wherein, for the compression step, at least one piston with a contact surface intended for contacting the powder or the pre-sintered component is used, which contact surface has an outer, flat region with an angle of α = 0° and an inner region with a concave recess, which has at least one flank at an angle 0 < α ≤ 90° starting from the outer flat contact surface, characterized in - that the sintering step is supported by an electrical field and - that , after the sintering step, a diaphragm with an outer, flat compressed region having a porosity of less than 5 vol. % and an inner porous region having a porosity between 10 and 60 vol. % is obtained, wherein the method of image analysis can be used for the determination of the porosity, and wherein the carrier substrate, at least on one side, has a defined transition between the outer and the inner region. - wherein powder or a pre-sintered component is subjected to a pressure-assisted compression and sintering step, - wherein, for the compression step, at least one piston with a contact surface intended for contacting the powder or the pre-sintered component is used, which contact surface has an outer, flat region with an angle of α = 0° and an inner region with a concave recess, which has at least one flank at an angle 0 < α ≤ 90° starting from the outer flat contact surface, characterized in - that the sintering step is supported by an electrical field and - that , after the sintering step, a diaphragm with an outer, flat compressed region having a porosity of less than 5 vol. % and an inner porous region having a porosity between 10 and 60 vol. % is obtained, wherein the method of image analysis can be used for the determination of the porosity, and wherein the carrier substrate, at least on one side, has a defined transition between the outer and the inner region.
Looped UVEx type probe (s) for detecting tick-borne pathogen genetic material, that is amplified during PCR reaction by "Hot Start" type Taq DNA polymerase, the (each) probe characterized by being an oligonucleotide of any length which folds at temperature range 4-24°C and forms secondary structures (including looping) assuming the limit values ΔG (dG) from the range -1.14 ≥ ΔG ≥ -8.36 kcal/mole, whereby the distance, in straight line, between the fluorescent reporter (UV-F) and the fluorescence quencher (Q), in a coiled probe, does not exceed 25 nucleotides (nt), while the probe (s) comprise(s) following nucleotides: 5' CAGGGTTAAGCCCTGGCGTTTCACCTT 3' named S_Ap and/or 5' AAAGTTAGGGGCTCGAAGACGATCAGATACC 3' named S_Bb and/or, 5' ACGCCCAGTAAATGCGAACAACGCTAGC 3' named S_Bl and/or,, 5' CAGTCTTGACCCAGAAGTTCGCCTTCGCC 3' named S_Br and/or, 5' TAACGCGTTAAGTTCTCCGCCTGGGG 3' named S_Cb and/or, 5' CTAACTATGTGCCAGCAGCCGCGGTAAT 3' named S_Mf and/or, 5' TTTGGGAAGAATGACTTTAGCAGGTAACGGC 3' named S_Mp and/or 5' AAAGCAATTCCGAGGTTAAGCCCCGAG 3' named S_Rc. 5' CAGGGTTAAGCCCTGGCGTTTCACCTT 3' named S_Ap and/or 5' AAAGTTAGGGGCTCGAAGACGATCAGATACC 3' named S_Bb and/or, 5' ACGCCCAGTAAATGCGAACAACGCTAGC 3' named S_Bl and/or,, 5' CAGTCTTGACCCAGAAGTTCGCCTTCGCC 3' named S_Br and/or, 5' TAACGCGTTAAGTTCTCCGCCTGGGG 3' named S_Cb and/or, 5' CTAACTATGTGCCAGCAGCCGCGGTAAT 3' named S_Mf and/or, 5' TTTGGGAAGAATGACTTTAGCAGGTAACGGC 3' named S_Mp and/or 5' AAAGCAATTCCGAGGTTAAGCCCCGAG 3' named S_Rc.
A compound having Formula I: or a pharmaceutically acceptable salt or solvate thereof, wherein: R 1a and R 1b are independently selected from the group consisting of hydrogen, C 1-6 alkyl, and C 3-8 cycloalkyl; R 2a and R 2b are independently selected from the group consisting of hydrogen, C 1-6 alkyl, and C 3-8 cycloalkyl; R 3 is selected from the group consisting of C 3-6 cycloalkyl, and C 4-8 heterocyclo, R 4 is selected from the group consisting of C 1-4 alkyl, and C 3-6 cycloalkyl; R 5 is halo; R 6 is selected from the group consisting of C 1-4 alkyl, and C 3-6 cycloalkyl; and R 7 is selected from the group consisting of hydrogen, C 1-4 alkyl, and C 3-6 cycloalkyl. R 1a and R 1b are independently selected from the group consisting of hydrogen, C 1-6 alkyl, and C 3-8 cycloalkyl; R 2a and R 2b are independently selected from the group consisting of hydrogen, C 1-6 alkyl, and C 3-8 cycloalkyl; R 3 is selected from the group consisting of C 3-6 cycloalkyl, and C 4-8 heterocyclo, R 4 is selected from the group consisting of C 1-4 alkyl, and C 3-6 cycloalkyl; R 5 is halo; R 6 is selected from the group consisting of C 1-4 alkyl, and C 3-6 cycloalkyl; and R 7 is selected from the group consisting of hydrogen, C 1-4 alkyl, and C 3-6 cycloalkyl.
An ink-jet printing method using a water-based ink comprising a black ink, a chromatic ink and a white ink which each comprise a pigment (A), an organic solvent (C) having a boiling point of not lower than 90°C and lower than 250°C, and water, said method comprising the following steps 1 to 3: Step 1: ejecting at least one water-based ink selected from the group consisting of the black ink and the chromatic ink onto a transparent resin printing medium to print an image 1 on the printing medium ; Step 2: ejecting the white ink onto the image 1 obtained in the step 1 to print a white image that covers the image 1 on the printing medium; and Step 3: heating and drying the resulting printed material from a side of a surface of the printing medium on which the white image obtained in the step 2 is formed, using an infrared heater . Step 1: ejecting at least one water-based ink selected from the group consisting of the black ink and the chromatic ink onto a transparent resin printing medium to print an image 1 on the printing medium ; Step 2: ejecting the white ink onto the image 1 obtained in the step 1 to print a white image that covers the image 1 on the printing medium; and Step 3: heating and drying the resulting printed material from a side of a surface of the printing medium on which the white image obtained in the step 2 is formed, using an infrared heater .
A robot, compromising: a first four-bar linkage to drive at least one robot arm , wherein the first four-bar linkage includes a crank, a coupling and a swing arm , wherein the crank is connected to the coupling and the coupling is connected to the swing arm each via a joint bearing, wherein at least one of these joint bearings comprises: a shaft , and at least one link element rotatably mounted on the shaft between two axial bearings , wherein a resiliently compressible pretensioning element is provided for applying an axial pretensioning force to the axial bearings. a shaft , and at least one link element rotatably mounted on the shaft between two axial bearings , wherein a resiliently compressible pretensioning element is provided for applying an axial pretensioning force to the axial bearings.
A process for separating a mixture of gases comprising: contacting one side of a gas separation membrane comprising a furan-based polymer with a mixture of gases having different gas permeabilities, whereby at least one gas from the mixture of gases permeates preferentially across the gas separation membrane, thereby separating the at least one gas from the mixture of gases; wherein the furan-based polymer is a polyester or copolyester derived from 2,5-furandicarboxylic acid or a derivative thereof and a C 2 to C 12 aliphatic diol, and wherein said derivative of 2,5-furandicarboxylic acid corresponds to a compound in which one or both of the acid moieties are replaced by an ester or halide. contacting one side of a gas separation membrane comprising a furan-based polymer with a mixture of gases having different gas permeabilities, whereby at least one gas from the mixture of gases permeates preferentially across the gas separation membrane, thereby separating the at least one gas from the mixture of gases; wherein the furan-based polymer is a polyester or copolyester derived from 2,5-furandicarboxylic acid or a derivative thereof and a C 2 to C 12 aliphatic diol, and wherein said derivative of 2,5-furandicarboxylic acid corresponds to a compound in which one or both of the acid moieties are replaced by an ester or halide.