mhurhangee/patent-ind-claim-en huggingface dataset:
A towing device arrangement for a bumper beam (B) of a vehicle, comprising - a crossmember having a U-shaped section with a web portion and two leg portions extending outwards from opposed sides of the web portion , the crossmember being arranged to be fastened to crash boxes of a vehicle, - a tow tube , and - a bracket arranged to attach the tow tube to the crossmember , which bracket comprises a first portion and a second portion which is connected to the first portion via an angled portion , characterised in that the first portion of the bracket has a mainly flat shape arranged to align with and attach to the web portion of the crossmember and comprises a first hole arranged to align with a through hole through the web portion of the crossmember through which a first end of the tow tube is arranged to be received, wherein the second portion of the bracket extends in an angle with respect to the first portion and comprises a second hole for receiving a second end of the tow tube , wherein the bracket is welded to the crossmember . - a crossmember having a U-shaped section with a web portion and two leg portions extending outwards from opposed sides of the web portion , the crossmember being arranged to be fastened to crash boxes of a vehicle, - a tow tube , and - a bracket arranged to attach the tow tube to the crossmember , which bracket comprises a first portion and a second portion which is connected to the first portion via an angled portion ,
A cathode active material with a spinel structure, characterized in that , the cathode active material comprises particles of a lithium-containing compound having a chemical formula of LiNi 0.5-x Mn 1.5-y {A} u O z and a first metal oxide and a second metal oxide coating the surface of the particles of the lithium-containing compound, wherein the first metal oxide is selected from one or more of TiO 2 , ZrO 2 , SnO 2 , SiO 2 , GeO 2 , CeO 2 , HfO 2 , and Nb 2 O 5 , and partially covers the surface of the particles of the lithium-containing compound in an island shape, the second metal oxide is selected from one or more of Al 2 O 3 , MgO, ZnO, Ce 2 O 3 , and CaO, and covers the partial surface of the particles of the lithium-containing compound that is not covered by the first metal oxide; wherein {A} is a doping composition represented by a formula of Σw i B i , wherein B i is a doping element for replacing Ni and/or Mn, w i is the atomic percentage of B i in the entire doping composition {A}, and Σw i =1; and wherein u=x+y; 0≤x≤0.2; 0≤y≤0.2; 0≤u≤0.4; and 3.8≤z≤4.2.
A method for producing a composition comprising nanoparticles of a biologically active compound, comprising the step of: dry milling a solid biologically active compound, a surface stabilizer and a millable grinding compound in a mill, for a time period sufficient to produce a composition comprising nanoparticles of the biologically active compound having an average size less than 1000nm dispersed in an at least partially milled grinding compound, wherein the particle size of the millable grinding compound is reduced by the dry milling wherein the millable grinding compound is selected from the group consisting of: sodium hydrogen sulfate, sodium hydrogen carbonate, sodium hydroxide, succinic acid, fumaric acid, maleic acid, tartaric acid, citric acid, ammonium chloride, methylamine hydrochloride, ammonium bromide, crystalline hydroxides, hydrogen carbonates, hydrogen carbonates of pharmaceutical acceptable alkali metals, sodium sulphate, sodium chloride, sodium metabisulphite, sodium thiosulphate, Glauber's salt, ammonium carbonate, sodium bisulphate, magnesium sulphate, potash alum, potassium chloride, sodium carbonate, sodium bicarbonate, potassium carbonate, potassium bicarbonate, and lactose. wherein the particle size of the millable grinding compound is reduced by the dry milling wherein the millable grinding compound is selected from the group consisting of: sodium hydrogen sulfate, sodium hydrogen carbonate, sodium hydroxide, succinic acid, fumaric acid, maleic acid, tartaric acid, citric acid, ammonium chloride, methylamine hydrochloride, ammonium bromide, crystalline hydroxides, hydrogen carbonates, hydrogen carbonates of pharmaceutical acceptable alkali metals, sodium sulphate, sodium chloride, sodium metabisulphite, sodium thiosulphate, Glauber's salt, ammonium carbonate, sodium bisulphate, magnesium sulphate, potash alum, potassium chloride, sodium carbonate, sodium bicarbonate, potassium carbonate, potassium bicarbonate, and lactose.
Cosmetic composition (C1) in the form of an emulsion of water-in-oil type comprising, per 100% of its mass: - from 60% to 95% by mass of a gelled aqueous phase (A1) comprising at least one crosslinked cationic polyelectrolyte which comprises a proportion of greater than or equal to 5 mol% of monomer units derived from an element from the group consisting of 2,N,N,N-tetramethyl-2-[(1-oxo-2-propenyl)amino]propanammonium chloride (AMPTAC), 2,N,N-trimethyl-2-[(1-oxo-2-propenyl)amino]propanammonium chloride and N,N,N-trimethyl-3-[(1-oxo-2-propenyl)amino]propanammonium chloride (APTAC), - from 5% to 40% by mass of a fatty phase (A2) comprising at least one oil and an emulsifying system comprising a combination of at least one emulsifying surfactant (S) selected from the elements of the group consisting of compositions of alkylpolyglycosides, and compositions of alkylpolyglycosides and of fatty alcohols, polyglycerol esters, alkoxylated polyglycerol esters, polyglycol polyhydroxystearates, polyglycerol polyhydroxystearates, and alkoxylated polyglycerol polyhydroxystearates. - from 60% to 95% by mass of a gelled aqueous phase (A1) comprising at least one crosslinked cationic polyelectrolyte which comprises a proportion of greater than or equal to 5 mol% of monomer units derived from an element from the group consisting of 2,N,N,N-tetramethyl-2-[(1-oxo-2-propenyl)amino]propanammonium chloride (AMPTAC), 2,N,N-trimethyl-2-[(1-oxo-2-propenyl)amino]propanammonium chloride and N,N,N-trimethyl-3-[(1-oxo-2-propenyl)amino]propanammonium chloride (APTAC), - from 5% to 40% by mass of a fatty phase (A2) comprising at least one oil and an emulsifying system comprising a combination of at least one emulsifying surfactant (S) selected from the elements of the group consisting of compositions of alkylpolyglycosides, and compositions of alkylpolyglycosides and of fatty alcohols, polyglycerol esters, alkoxylated polyglycerol esters, polyglycol polyhydroxystearates, polyglycerol polyhydroxystearates, and alkoxylated polyglycerol polyhydroxystearates.
A method for establishing S1 signaling connections in an evolved network, comprising: receiving, by an evolved packet core, EPC, a HANDOVER COMPLETE message sent by a target evolved Node B, wherein the HANDOVER COMPLETE message carries a new S1 signaling connection parameter and an original S1 signaling connection parameter; the original S1 signaling connection parameter is an original mobility management entity, MME, communication context identifier carried in a HANDOVER REQUEST message sent by a source eNode B to the target eNode B, and the new S1 signaling connection parameter is a new eNodeB communication context identifier allocated by the target eNode B; and storing, by the EPC, the new S1 signaling connection parameter carried in the HANDOVER COMPLETE message. receiving, by an evolved packet core, EPC, a HANDOVER COMPLETE message sent by a target evolved Node B, wherein the HANDOVER COMPLETE message carries a new S1 signaling connection parameter and an original S1 signaling connection parameter; the original S1 signaling connection parameter is an original mobility management entity, MME, communication context identifier carried in a HANDOVER REQUEST message sent by a source eNode B to the target eNode B, and the new S1 signaling connection parameter is a new eNodeB communication context identifier allocated by the target eNode B; and storing, by the EPC, the new S1 signaling connection parameter carried in the HANDOVER COMPLETE message.
A suturing device , comprising: an elongate member comprising a distal end; an arm connected with the elongate member near the distal end for movement between a retracted position and an extended position, the arm comprising at least one suture mount located near a free end of the arm and configured to releasably retain a suture portion; a needle configured to move between a retracted position and a deployed position to retrieve the suture portion retained in the at least one suture mount when the needle is moved from the retracted position to the deployed position and returned to the retracted position; and a protective member configured to inhibit contact between a distal end of the needle and surrounding tissue during at least a portion of the movement of the needle from its retracted position toward its deployed position. an elongate member comprising a distal end; an arm connected with the elongate member near the distal end for movement between a retracted position and an extended position, the arm comprising at least one suture mount located near a free end of the arm and configured to releasably retain a suture portion; a needle configured to move between a retracted position and a deployed position to retrieve the suture portion retained in the at least one suture mount when the needle is moved from the retracted position to the deployed position and returned to the retracted position; and a protective member configured to inhibit contact between a distal end of the needle and surrounding tissue during at least a portion of the movement of the needle from its retracted position toward its deployed position.
A method of determining an overall performance of an air-conditioning system of an aircraft where the air-conditioning system includes at least one air-conditioning pack , the method comprising: transmitting data from a sensor operably coupled to at least one air-conditioning pack, while the aircraft is in a stable on-ground condition; comparing the transmitted data to a predetermined threshold; determining , by a controller , an overall performance of the air-conditioning system based on the comparing; and providing an indication of the determined overall performance; wherein the transmitted data is flow data from two air-conditioning packs; and wherein the predetermined threshold is determined from transmitted data related to flow data from one of the two air-conditioning packs and the comparing determines an amount of divergence between the flow data from the two air-conditioning packs. transmitting data from a sensor operably coupled to at least one air-conditioning pack, while the aircraft is in a stable on-ground condition; comparing the transmitted data to a predetermined threshold; determining , by a controller , an overall performance of the air-conditioning system based on the comparing; and providing an indication of the determined overall performance; wherein the transmitted data is flow data from two air-conditioning packs; and wherein the predetermined threshold is determined from transmitted data related to flow data from one of the two air-conditioning packs and the comparing determines an amount of divergence between the flow data from the two air-conditioning packs.
A cooking appliance comprising: a cabinet having a cooking chamber ; at least one radiant heating element located within the cooking chamber ; an infrared sensor having a sensing field including at least a portion of the cooking chamber ;and a low emissive optical element located between the radiant heating element and the infrared sensor , characterized in that the optical element comprises at least one of a plastic or glass element with a low emissive coating, and wherein the emissivity of the low emissive glass is less than 0.03. a cabinet having a cooking chamber ; at least one radiant heating element located within the cooking chamber ; an infrared sensor having a sensing field including at least a portion of the cooking chamber ;and a low emissive optical element located between the radiant heating element and the infrared sensor , characterized in that the optical element comprises at least one of a plastic or glass element with a low emissive coating,
A cooling system for cooling a superconducting device by a low-temperature fluid, comprising: a coolant circuit comprising a coolant outlet configured to supply a low-temperature fluid to the superconducting device , a coolant inlet configured to receive the fluid flowing through the superconducting device , and a coolant line configured to connect the coolant inlet and the coolant outlet ; a low-temperature chamber configured to accommodate a first part of the coolant line upstream of the coolant outlet , a first heat exchanger configured to cool the fluid flowing in the first part toward the coolant outlet , a second part of the coolant line downstream of the coolant inlet , and a second heat exchanger configured to heat the fluid flowing in the second part ; and a flow generator provided outside the low-temperature chamber and located in a third part of the coolant line connecting the first part and the second part , the flow generator being configured to generate a flow in the coolant line , characterized in that the coolant circuit comprises an additional heat exchanger configured to exchange heat between a low-temperature side pathway of the fluid and a high-temperature side pathway of the fluid, wherein the low-temperature side pathway is provided in the first part and downstream of the first heat exchanger , and the high-temperature side pathway is provided in the first part and upstream of the first heat exchanger . a coolant circuit comprising a coolant outlet configured to supply a low-temperature fluid to the superconducting device , a coolant inlet configured to receive the fluid flowing through the superconducting device , and a coolant line configured to connect the coolant inlet and the coolant outlet ; a low-temperature chamber configured to accommodate a first part of the coolant line upstream of the coolant outlet , a first heat exchanger configured to cool the fluid flowing in the first part toward the coolant outlet , a second part of the coolant line downstream of the coolant inlet , and a second heat exchanger configured to heat the fluid flowing in the second part ; and a flow generator provided outside the low-temperature chamber and located in a third part of the coolant line connecting the first part and the second part , the flow generator being configured to generate a flow in the coolant line , characterized in that the coolant circuit comprises an additional heat exchanger configured to exchange heat between a low-temperature side pathway of the fluid and a high-temperature side pathway of the fluid, wherein the low-temperature side pathway is provided in the first part and downstream of the first heat exchanger , and the high-temperature side pathway is provided in the first part and upstream of the first heat exchanger .
A method for transmitting system information performed by a base station, comprising: determining (101; 301) an identifier of each piece of currently supported second system information, wherein the first system information refers to the system information that is periodically broadcast by the base station, and each piece of second system information refers to the system information other than the system information comprised by the first system information; determining (102; 302) transmission status of each piece of second system information in accordance with the identifier of each piece of second system information; and broadcasting (103; 303) the first system information, wherein the first system information comprises the identifier and the transmission status of each piece of second system information; wherein the transmission status comprises a first transmission status and a second transmission status, the first transmission status is used for indicating that the corresponding second system information is being broadcast, and the second transmission status is used for indicating that the corresponding second system information is not being transmitted and for each of the plurality of pieces of second system information, when the transmission status of the second system information is the first transmission status, the first system information further comprises a transmission mode of the second system information, and the transmission mode is a broadcast mode. determining (101; 301) an identifier of each piece of currently supported second system information, wherein the first system information refers to the system information that is periodically broadcast by the base station, and each piece of second system information refers to the system information other than the system information comprised by the first system information; determining (102; 302) transmission status of each piece of second system information in accordance with the identifier of each piece of second system information; and broadcasting (103; 303) the first system information, wherein the first system information comprises the identifier and the transmission status of each piece of second system information; wherein the transmission status comprises a first transmission status and a second transmission status, the first transmission status is used for indicating that the corresponding second system information is being broadcast, and the second transmission status is used for indicating that the corresponding second system information is not being transmitted and for each of the plurality of pieces of second system information, when the transmission status of the second system information is the first transmission status, the first system information further comprises a transmission mode of the second system information, and the transmission mode is a broadcast mode.
A method for estimating abrasion resistance, the method comprising: irradiating a sulfur compound-containing polymer composite material with high intensity X-rays; measuring an X-ray absorption in a small region of the polymer composite material while varying an energy of the X-rays, whereby a dispersion state and a chemical state of the sulfur compound are analyzed; and quantifying an inhomogeneous state of cross-link degradation in the polymer composite material based on the dispersion state and the chemical state; wherein the X-ray absorption is measured by micro XAFS analysis comprising micro NEXAFS, STXM, and XPEEM; characterised in that the quantifying the inhomogeneous state of cross-link degradation is performed by calculating a degree of inhomogeneity of cross-link degradation using the following (Relationship 1): (Degree of inhomogeneity of cross-link degradation) = SO A /SO M wherein SO A represents a sulfur oxide content of a sulfur-aggregated portion in the polymer composite material, and SO M represents a sulfur oxide content of a matrix portion in the polymer composite material; and wherein the method estimates that the closer a value of SO A /SO M is to 1.0, the better the abrasion resistance of the polymer composite material is. irradiating a sulfur compound-containing polymer composite material with high intensity X-rays; measuring an X-ray absorption in a small region of the polymer composite material while varying an energy of the X-rays, whereby a dispersion state and a chemical state of the sulfur compound are analyzed; and quantifying an inhomogeneous state of cross-link degradation in the polymer composite material based on the dispersion state and the chemical state; wherein the X-ray absorption is measured by micro XAFS analysis comprising micro NEXAFS, STXM, and XPEEM; characterised in that the quantifying the inhomogeneous state of cross-link degradation is performed by calculating a degree of inhomogeneity of cross-link degradation using the following (Relationship 1): (Degree of inhomogeneity of cross-link degradation) = SO A /SO M wherein SO A represents a sulfur oxide content of a sulfur-aggregated portion in the polymer composite material, and SO M represents a sulfur oxide content of a matrix portion in the polymer composite material; and wherein the method estimates that the closer a value of SO A /SO M is to 1.0, the better the abrasion resistance of the polymer composite material is.
Device for guiding and pivoting bodies , such as cans, bottles, preforms, bottle closures, cardboard containers or flasks, wherein the guiding and pivoting of the bodies takes place by sliding the bodies on the device , wherein the device was produced using a generative manufacturing method, characterised in that the device comprises fastenings for fixing to other conveyor units, the fastenings being attached to the device by means of the generative manufacturing method, wherein the fastenings are eyelets, hooks, or pins .
A method of managing memory shared amongst multiple queues in a network switch, wherein the shared memory is logically apportioned into a dynamic allocation portion and a global reserve portion , wherein the dynamic allocation portion is a shared resource available to any queue until an occupancy level of that queue has reached a dynamic queue threshold, and wherein the global reserve portion is reserved for low volume queues for which the queue occupancy does not exceed a static queue minimum threshold, the method comprising: receiving a data packet at a first network queue from among a plurality of network queues; if the shared memory contains unallocated space, determining if a fill level of the first network queue in the shared memory exceeds the dynamic queue threshold, wherein the dynamic queue threshold is based on an amount of unallocated memory in the shared memory; and in an event that the fill level of the first network queue exceeds the dynamic queue threshold: determining if the fill level of the first network queue is less than the static queue minimum threshold; enqueuing the data packet in the global reserve portion of the shared memory if the fill level of the first network queue is less than the static queue minimum threshold; and dropping the data packet if the fill level of the first network queue is greater than the static queue minimum threshold. receiving a data packet at a first network queue from among a plurality of network queues; if the shared memory contains unallocated space, determining if a fill level of the first network queue in the shared memory exceeds the dynamic queue threshold, wherein the dynamic queue threshold is based on an amount of unallocated memory in the shared memory; and in an event that the fill level of the first network queue exceeds the dynamic queue threshold: determining if the fill level of the first network queue is less than the static queue minimum threshold; enqueuing the data packet in the global reserve portion of the shared memory if the fill level of the first network queue is less than the static queue minimum threshold; and dropping the data packet if the fill level of the first network queue is greater than the static queue minimum threshold. determining if the fill level of the first network queue is less than the static queue minimum threshold; enqueuing the data packet in the global reserve portion of the shared memory if the fill level of the first network queue is less than the static queue minimum threshold; and dropping the data packet if the fill level of the first network queue is greater than the static queue minimum threshold.
A method of generating a digital signature of a geometric design represented by a geometric design file, the method comprising generating, by a data processing device , the digital signature based on a single axis projection of the geometric design, wherein generating the digital signature comprises performing, by the data processing device , the single axis projection to generate a vector comprising single axis coordinates of selected points in the geometric design.