mhurhangee/ep-ind-claims huggingface dataset:
An aerosol generating device, comprising: a device body; a heating assembly, detachably connected to the device body; a storage assembly, detachably connected to the device body; wherein, the storage assembly is configured to store a feature parameter, the feature parameter corresponds to one model of the heating assembly, the device body is configured to obtain the feature parameter from the storage assembly and to heat the heating assembly based on the feature parameter, allowing the heating assembly to heat an aerosol generating substrate to generate an aerosol; and the aerosol generating device is characterized in that, the feature parameter comprises a parameter of a heating body of the heating assembly and a heating parameter of the heating assembly, the parameter of the heating body indicates correspondence between a resistance value of the heating body and a temperature of the heating body; and the device body is further configured to: detect the resistance value of the heating body, determine the temperature of the heating body based on the parameter of the heating body, and heat the heating assembly based on the temperature of the heating body and the heating parameter a device body; a heating assembly, detachably connected to the device body; a storage assembly, detachably connected to the device body; wherein, the storage assembly is configured to store a feature parameter, the feature parameter corresponds to one model of the heating assembly, the device body is configured to obtain the feature parameter from the storage assembly and to heat the heating assembly based on the feature parameter, allowing the heating assembly to heat an aerosol generating substrate to generate an aerosol; and the aerosol generating device is characterized in that, the feature parameter comprises a parameter of a heating body of the heating assembly and a heating parameter of the heating assembly, the parameter of the heating body indicates correspondence between a resistance value of the heating body and a temperature of the heating body; and the device body is further configured to: detect the resistance value of the heating body, determine the temperature of the heating body based on the parameter of the heating body, and heat the heating assembly based on the temperature of the heating body and the heating parameter
A process for forming a primary or a secondary amine, comprising reacting: - A first reactant having 5-30 carbon atoms and one or two primary hydroxyl functionalities, with - A second reactant being NH 3 or a reactant having primary amine functionality, in the presence of at least one zeolite comprising a transition metal chosen in the group consisting of Group 8 to 12 elements of the Periodic Table and any combination thereof, characterized in that the reaction is conducted on a low pressure distillation equipment. - A first reactant having 5-30 carbon atoms and one or two primary hydroxyl functionalities, with - A second reactant being NH 3 or a reactant having primary amine functionality, in the presence of at least one zeolite comprising a transition metal chosen in the group consisting of Group 8 to 12 elements of the Periodic Table and any combination thereof, characterized in that the reaction is conducted on a low pressure distillation equipment.
An electrochemical cell comprising: a metal anode; an electrolyte; and a composite cathode, the composite cathode comprising a mixture of carbon monofluoride (CFx) and carbon-coated carbon monofluoride (C-CFx), the stoichiometric capacity ratio of carbon-treated carbon monofluoride to carbon monofluoride being in a range from greater than 1:1 to 7:1 a metal anode; an electrolyte; and
A space-time-frequence encoding method comprising: a) transforming a plurality of input element pairs of data symbols into a plurality of orthogonal element pairs respectively, each of the plurality of input element pairs and corresponding orthogonal element pairs forming an orthogonal matrix; and b) mapping the first element, second element and the repetition of the second element in each of the plurality of input element pairs and corresponding orthogonal element pairs as channel elements to three predetermined time-frequency cells in a first and second two-dimension time-frequency matrix respectively, so as to transmit the first and second matrixes via different antennas; wherein in step b) the three predetermined time-frequency cells are three of four time-frequency cells corresponding to two predetermined time units and two predetermined frequency units; and wherein the input element pairs are { b 1, b 2}, { b 4, b 3}, the corresponding orthogonal element pairs are − b 2 *, b 1 * and b 3 *, − b 4 *, b i * is complex conjugation of b i, the result obtained by mapping the two input element pairs and orthogonal element pairs as channel elements to a first and second two-dimensions matrixes, transmitted via a first and second antenna respectively, is: b 1 b 2 b 2 b 3 b 3 b 4 and − b 2 * b 1 * b 1 * b 4 * b 4 * − b 3 * wherein the row and column of the matrixes denote time unit and frequency unit respectively. a) transforming a plurality of input element pairs of data symbols into a plurality of orthogonal element pairs respectively, each of the plurality of input element pairs and corresponding orthogonal element pairs forming an orthogonal matrix; and b) mapping the first element, second element and the repetition of the second element in each of the plurality of input element pairs and corresponding orthogonal element pairs as channel elements to three predetermined time-frequency cells in a first and second two-dimension time-frequency matrix respectively, so as to transmit the first and second matrixes via different antennas;
A communication method performed by a mobile station, the method comprising: receiving predetermined resource information from a base station; transmitting a preamble to the base station; receiving an Acquisition Indicator AI from the base station in response to the preamble; performing a first data transmission to the base station using a resource determined based on the predetermined resource information when the AI is a positive acknowledgement; and performing a second data transmission to the base station using a resource determined based on an allocated resource information when the AI is a negative acknowledgement and the allocated resource information has been received by the mobile station from the base station. receiving predetermined resource information from a base station; transmitting a preamble to the base station; receiving an Acquisition Indicator AI from the base station in response to the preamble; performing a first data transmission to the base station using a resource determined based on the predetermined resource information when the AI is a positive acknowledgement; and performing a second data transmission to the base station using a resource determined based on an allocated resource information when the AI is a negative acknowledgement and the allocated resource information has been received by the mobile station from the base station.
A method for accessing a resource, comprising: receiving, by a machine-to-machine, M2M, platform, a resource accessing request of a network application server, wherein the resource accessing request comprises information on a position of a device in a resource tree of a network service capability layer, NSCL; according to mapping relationship of the device in the M2M platform, determining that the position of the device in the resource tree of the NSCL is a position of the device in the resource tree of the NSCL before registration and acquiring a position of the device in the resource tree of the NSCL after registration corresponding to the position of the device in the resource tree of the NSCL before registration; and sending a redirection message to the network application server, whereby the network application server accesses the M2M platform according to information on the position of the device in the resource tree of the NSCL after registration. receiving, by a machine-to-machine, M2M, platform, a resource accessing request of a network application server, wherein the resource accessing request comprises information on a position of a device in a resource tree of a network service capability layer, NSCL; according to mapping relationship of the device in the M2M platform, determining that the position of the device in the resource tree of the NSCL is a position of the device in the resource tree of the NSCL before registration and acquiring a position of the device in the resource tree of the NSCL after registration corresponding to the position of the device in the resource tree of the NSCL before registration; and sending a redirection message to the network application server, whereby the network application server accesses the M2M platform according to information on the position of the device in the resource tree of the NSCL after registration.
A method, comprising: receiving, by a processing device of a content sharing platform, a request for desired content from a client device, the content being stored in a content delivery network, CDN, wherein the content sharing platform offers the content to client devices and the CDN provides the content to the client devices; generating, by an authorization service of the content sharing platform based on data available to the content sharing platform, a partial trust metric associated with the client device, wherein the partial trust metric is to be used by a CDN server to make a decision regarding access to the desired content by the client device; generating a response of the content sharing platform to the content request, wherein the response comprises one or more resource locators for accessing the desired content in the CDN, and the partial trust metric; and sending the response to the client device to enable the client device to request the desired content from the CDN server using the one or more resource locators and the partial trust metric. receiving, by a processing device of a content sharing platform, a request for desired content from a client device, the content being stored in a content delivery network, CDN, wherein the content sharing platform offers the content to client devices and the CDN provides the content to the client devices; generating, by an authorization service of the content sharing platform based on data available to the content sharing platform, a partial trust metric associated with the client device, wherein the partial trust metric is to be used by a CDN server to make a decision regarding access to the desired content by the client device; generating a response of the content sharing platform to the content request, wherein the response comprises one or more resource locators for accessing the desired content in the CDN, and the partial trust metric; and sending the response to the client device to enable the client device to request the desired content from the CDN server using the one or more resource locators and the partial trust metric.
A fluid handling system for providing storage and supply of a number of liquid solutions within an automatic clinical analyzer, the fluid handling system comprising: a number of different bottle-like containers each having a fin-shaped bottom, each of the fins having a different pattern of at least one open notch therein; a number of container mounting brackets in said analyzer, the brackets having a mating key with a pattern of closed and open sections that match only one of the open notch patterns in said fins so that only one of the different bottle-like containers can be mounted in each of the container mounting brackets. a number of different bottle-like containers each having a fin-shaped bottom, each of the fins having a different pattern of at least one open notch therein; a number of container mounting brackets in said analyzer, the brackets having a mating key with a pattern of closed and open sections that match only one of the open notch patterns in said fins so that only one of the different bottle-like containers can be mounted in each of the container mounting brackets.
A saw blade, for use in a multiple blade assembly comprising a plurality of saw blades coaxially mounted on a rotating shaft at axially spaced apart positions, to be used for sawing a rare earth magnet block into multiple pieces by rotating the plurality of saw blades, the saw blade comprising a core in the form of a thin disk and a peripheral cutting part on an outer peripheral rim of the core, the cutting part being made of a composition comprising an abrasive and a resin binder, characterised in that said composition further comprises boron nitride as a lubricant for reducing the friction between the cutting part and the magnet block during the sawing operation, and in that the boron nitride as the lubricant is in particulate form having a particle size in the range of 1 to 200 μm.
Stabilization device for bones, in particular for the spinal column, comprising at least two bone anchoring elements (4, 4'), each comprising an anchoring section for anchoring in the bone and a receiving part connected to the anchoring section, wherein the receiving part comprises an opening suitable for accommodation of a stabilization rod (2,20) having a rod axis, the opening being limited by two side walls (46a,46b), wherein the side walls (46a,46b) comprise guides (47a,47b;47a',47b';470a,470b) orientated along the rod axis for guiding connection rods (3,3',3") therethrough; characterized in that the stabilization device further comprises two connection rods (3, 3', 3") that are rigid enough to resist bending forces and that are guided in the guides of the receiving parts and connected to the at least two bone anchoring elements, wherein a stabilization rod in the opening is omitted and stabilization is provided only by the connection rods.
A method for generating and sequencing a population of amplified concatamer products, comprising: amplifying a template nucleic acid molecule using a first nucleic acid primer immobilized on a solid phase substrate and a second nucleic acid concatamer primer in solution to generate a population of substantially identical copies of the template nucleic acid molecule immobilized on the solid phase substrate; amplifying the population of substantially identical copies of the template nucleic acid molecule using said concatamer primer which comprises a first region complementary to an end region of the population of substantially identical copies of the template nucleic acid molecule and a second region to generate a population of immobilized concatamer products of the substantially identical copies of the template nucleic acid molecule, wherein amplifying the population of substantially identical copies of the template nucleic acid molecule using said concatamer primer occurs via polymerase chain reaction or emulsion PCR (emPCR), and subjecting the amplified concatamer products to a nucleic acid sequencing embodiment, wherein the end region of the population of substantially identical copies of the template nucleic acid molecule comprises an adaptor region, and the second region of the concatamer primer is complementary to the first nucleic acid primer immobilized on the solid phase substrate. amplifying a template nucleic acid molecule using a first nucleic acid primer immobilized on a solid phase substrate and a second nucleic acid concatamer primer in solution to generate a population of substantially identical copies of the template nucleic acid molecule immobilized on the solid phase substrate; amplifying the population of substantially identical copies of the template nucleic acid molecule using said concatamer primer which comprises a first region complementary to an end region of the population of substantially identical copies of the template nucleic acid molecule and a second region to generate a population of immobilized concatamer products of the substantially identical copies of the template nucleic acid molecule, wherein amplifying the population of substantially identical copies of the template nucleic acid molecule using said concatamer primer occurs via polymerase chain reaction or emulsion PCR (emPCR), and subjecting the amplified concatamer products to a nucleic acid sequencing embodiment, wherein the end region of the population of substantially identical copies of the template nucleic acid molecule comprises an adaptor region, and the second region of the concatamer primer is complementary to the first nucleic acid primer immobilized on the solid phase substrate.
A hermetic pressure sensor for measuring a fluid pressure, the pressure sensor comprises: - a first housing structure (114, 116) comprising a metal membrane section to be exposed to the fluid pressure; - a second housing structure comprising a housing part with at least two openings and electrical connection pins passing through the at least two openings; - at least one strain sensing element (120, 320); - a PCB electrically coupled to the electrical connection pins, characterized in that, the at least one strain sensing element is attached to the membrane section and electrically coupled to the PCB by bonding wires to mechanically decouple the membrane section for force acting on the PCB, the housing part of the second housing structure is a metal housing part configured to form a cover over the first housing part, the electrical connection pins are affixed in the at least two openings by a non-conductive and hermetic sealing material, springy electrical connection elements or a flex foil couple electrically the connection pins to the PCB, the first housing structure and the second housing structure are hermetically connected to each other to form a hermetically closed cavity in which the PCB and the at least one strain sensing element are located, and the first housing structure comprises a fluid facing outer surface to be exposed to the fluid pressure wherein the fluid facing outer surface is a full metal outer surface. - a first housing structure (114, 116) comprising a metal membrane section to be exposed to the fluid pressure; - a second housing structure comprising a housing part with at least two openings and electrical connection pins passing through the at least two openings; - at least one strain sensing element (120, 320); - a PCB electrically coupled to the electrical connection pins, characterized in that, the at least one strain sensing element is attached to the membrane section and electrically coupled to the PCB by bonding wires to mechanically decouple the membrane section for force acting on the PCB, the housing part of the second housing structure is a metal housing part configured to form a cover over the first housing part, the electrical connection pins are affixed in the at least two openings by a non-conductive and hermetic sealing material, springy electrical connection elements or a flex foil couple electrically the connection pins to the PCB, the first housing structure and the second housing structure are hermetically connected to each other to form a hermetically closed cavity in which the PCB and the at least one strain sensing element are located, and the first housing structure comprises a fluid facing outer surface to be exposed to the fluid pressure wherein the fluid facing outer surface is a full metal outer surface.
Method of building a bulk catalytic structure, comprising: - shaping a composition comprising a ceramic material to obtain a green structure, wherein said ceramic material comprises a catalytic material and a first and a second inorganic binder, the shaping comprising preparing a suspension, slurry or paste of the composition and shaping the suspension, slurry or paste to obtain the green structure, the shaping comprising extruding the suspension, slurry or paste as fibers by three-dimensional fiber deposition, wherein the fibers form a layered network, the catalytic material comprising zeolites, the total amount of the first and second inorganic binder in the ceramic material being comprised between 10 wt% and 50 wt% by total solid weight of the formed catalytic structure, wherein the first inorganic binder is bentonite and the second inorganic binder is colloidal silica, or the first inorganic binder is colloidal silica and the second inorganic binder is aluminiumphosphate; - drying and calcining the green structure to obtain the bulk catalytic structure, wherein the structure is monolithic and comprises first channels having a length extending in a flow direction and second channels having a length extending in a radial direction, the radial direction being orthogonal to the flow direction, wherein the first channels and the second channels are fluidly connected. - shaping a composition comprising a ceramic material to obtain a green structure, wherein said ceramic material comprises a catalytic material and a first and a second inorganic binder, the shaping comprising preparing a suspension, slurry or paste of the composition and shaping the suspension, slurry or paste to obtain the green structure, the shaping comprising extruding the suspension, slurry or paste as fibers by three-dimensional fiber deposition, wherein the fibers form a layered network, the catalytic material comprising zeolites, the total amount of the first and second inorganic binder in the ceramic material being comprised between 10 wt% and 50 wt% by total solid weight of the formed catalytic structure, wherein the first inorganic binder is bentonite and the second inorganic binder is colloidal silica, or the first inorganic binder is colloidal silica and the second inorganic binder is aluminiumphosphate; - drying and calcining the green structure to obtain the bulk catalytic structure, wherein the structure is monolithic and comprises first channels having a length extending in a flow direction and second channels having a length extending in a radial direction, the radial direction being orthogonal to the flow direction, wherein the first channels and the second channels are fluidly connected.
A fine particle analyzing apparatus including a data extracting unit configured to selectively separate, from a plurality of spectral data, one or more spectral data, wherein each spectral data indicates fluorescence intensity emitted from a single fine particle for each of a plurality of wavelengths, the apparatus being characterized in that the data extracting unit is configured to selectively separate the one or more spectral data from the plurality of spectral data based on whether the maximum of the fluorescence intensity of the spectral data is located within a predetermined wavelength range.
A negative active material for a rechargeable lithium battery, comprising: a core made of a material including a lithium-vanadium oxide that is capable of performing reversible electrochemical oxidation and reduction, wherein the lithium-vanadium oxide is represented by Chemical Formula I: Chemical Formula I L x M y V z O 2+d wherein 0.1 ≤ x ≤ 2.5, 0 ≤ y ≤ 0.5, 0.5 ≤ z ≤ 1.5, 0 ≤ d ≤ 0.5, and M is a metal selected from the group consisting of Al, Cr, Mo, Ti, W, Zr, and combinations thereof and; a coating layer disposed on the surface of the core, the coating layer being made of a material including an inorganic oxide; and wherein the coating layer has a thickness of 5 nm to 50 nm. a core made of a material including a lithium-vanadium oxide that is capable of performing reversible electrochemical oxidation and reduction, wherein the lithium-vanadium oxide is represented by Chemical Formula I: Chemical Formula I L x M y V z O 2+d wherein 0.1 ≤ x ≤ 2.5, 0 ≤ y ≤ 0.5, 0.5 ≤ z ≤ 1.5, 0 ≤ d ≤ 0.5, and M is a metal selected from the group consisting of Al, Cr, Mo, Ti, W, Zr, and combinations thereof and; a coating layer disposed on the surface of the core, the coating layer being made of a material including an inorganic oxide; and wherein the coating layer has a thickness of 5 nm to 50 nm.