mhurhangee/patent-ind-claim-en huggingface dataset:
A silicon oxide-based negative electrode material, comprising a powder having an average composition of SiLi x O y wherein 0.05 < x < y < 1.2 and a mean particle size of 1 μm or more, wherein 10 particles randomly selected from particles of the powder each satisfy 0.8 < L1/L2 < 1.2 with the standard deviation of L2 being 0.1 or less, L1 being a Li concentration at a depth of 50 nm from an outermost surface of each of the 10 particles, and L2 being a Li concentration at a depth of 400 nm from the outermost surface; wherein for the Li concentrations L1 and L2, the cross-section of a particle of the powder is observed under TEM, and EELS measurements are performed at a respective predetermined depth for a region to obtain a ratio of a Li spectral intensity to a Si spectral intensity, from which the Li concentrations are relatively determined; and wherein the mean particle size is measured by laser diffraction particle size distribution measurement. wherein 10 particles randomly selected from particles of the powder each satisfy 0.8 < L1/L2 < 1.2 with the standard deviation of L2 being 0.1 or less, L1 being a Li concentration at a depth of 50 nm from an outermost surface of each of the 10 particles, and L2 being a Li concentration at a depth of 400 nm from the outermost surface; wherein for the Li concentrations L1 and L2, the cross-section of a particle of the powder is observed under TEM, and EELS measurements are performed at a respective predetermined depth for a region to obtain a ratio of a Li spectral intensity to a Si spectral intensity, from which the Li concentrations are relatively determined; and wherein the mean particle size is measured by laser diffraction particle size distribution measurement.
Combat training system conducting shooting practice and/or combat scenarios in a monitored manner, comprising: - at least two components, of which the first component is a firearm and the second component is a target object, - a device for sensing position information of each of the at least two components, - a device for sensing spatial orientation information at least for the at least one firearm of the at least two components, and - an information processing unit , in which the position information of the at least two components and the orientation information of the at least one firearm can be processes and transformed into the form of at least one item of result information, wherein the at least two components each have a clock, which clocks are time-synchronised with each other and each generates coded time signals with a component identifier which individualises the respective component, and that an event sensor is provided on each of the at least two components. - at least two components, of which the first component is a firearm and the second component is a target object, - a device for sensing position information of each of the at least two components, - a device for sensing spatial orientation information at least for the at least one firearm of the at least two components, and - an information processing unit , in which the position information of the at least two components and the orientation information of the at least one firearm can be processes and transformed into the form of at least one item of result information, wherein the at least two components each have a clock, which clocks are time-synchronised with each other and each generates coded time signals with a component identifier which individualises the respective component, and that an event sensor is provided on each of the at least two components.
A lyophilisate, which upon reconstitution with 1.0 mL of water for injection consists of 150 mg/mL secukinumab, 270 mM sucrose, 0.06% polysorbate 80, 30 mM L-histidine buffer pH 5.8, and water for injection.
Electrical insulation system with improved electrical breakdown strength, said electrical insulation system comprising a hardened polymer component (a) having incorporated therein a first filler material (b) and second filler material being a selected nano-scale sized filler material (c), characterized in that (a) said hardened polymer component is selected from epoxy resin compositions, polyesters, polyamides, polybutylene terephthalate, polyurethanes and polydicyclopentadiene; (b) said first filler material is a filler material having an average grain size distribution within the range of 1 μm-500 μm, being present in a quantity within the range of 40%-65% by weight, calculated to the total weight of the insulator system; and (c) said nano-scale sized filler material is selected from the group comprising silica, zinc oxide, alumina, aluminum trihydrate (ATH), layered silicates, titanium dioxide, metal nitrides and metal carbides, wherein said nano-scale sized filler material is a pretreated nano-scale material, having been produced by a sol-gel process; wherein said nano-scale sized filler material is present within the electrical insulation system in an amount of 1%-20% by weight, calculated to the weight of the first filler material present in the electrical insulator system. (a) said hardened polymer component is selected from epoxy resin compositions, polyesters, polyamides, polybutylene terephthalate, polyurethanes and polydicyclopentadiene; (b) said first filler material is a filler material having an average grain size distribution within the range of 1 μm-500 μm, being present in a quantity within the range of 40%-65% by weight, calculated to the total weight of the insulator system; and (c) said nano-scale sized filler material is selected from the group comprising silica, zinc oxide, alumina, aluminum trihydrate (ATH), layered silicates, titanium dioxide, metal nitrides and metal carbides, wherein said nano-scale sized filler material is a pretreated nano-scale material, having been produced by a sol-gel process; wherein said nano-scale sized filler material is present within the electrical insulation system in an amount of 1%-20% by weight, calculated to the weight of the first filler material present in the electrical insulator system.
Method for managing a Cellular Vehicle-to-Everything, C-V2X, connection comprising: - establishing a first C-V2X connection (C1) between a first Radio Base Station, RBS, , of a source Public Land Mobile Network, PLMN , and an electronic On-Board Unit, OBU, , of a vehicle , wherein a C-V2X service is provisioned to said OBU over said first C-V2X connection (C1); - establishing a second C-V2X connection (C2) between said first RBS and a first Road Side Unit Gateway, RSUG, , wherein the C-V2X service provisioned over said first C-V2X connection (C1) is also provisioned over said second C-V2X connection (C2); - establishing a sidelink connection (N3) between said first RSUG and said OBU , wherein, over said sidelink connection (N3), User Plane data are exchanged which are the same User Plane data exchanged over said second C-V2X connection (C2); - at a first Application Server, AppServ, of said source PLMN , receiving from a second AppServ , of a target PLMN , a request signal (RSig), including a request for C-V2X context information (CI), said C-V2X context information (CI) comprising a context of said OBU related to the C-V2X service provisioned over said second C-V2X connection (C2); - sending, from said first AppServ , to said second AppServ , said C-V2X context information (CI), so as to allow establishing a third C-V2X connection (C3) between a second RBS of the target PLMN and the OBU of the vehicle . - establishing a first C-V2X connection (C1) between a first Radio Base Station, RBS, , of a source Public Land Mobile Network, PLMN , and an electronic On-Board Unit, OBU, , of a vehicle , wherein a C-V2X service is provisioned to said OBU over said first C-V2X connection (C1); - establishing a second C-V2X connection (C2) between said first RBS and a first Road Side Unit Gateway, RSUG, , wherein the C-V2X service provisioned over said first C-V2X connection (C1) is also provisioned over said second C-V2X connection (C2); - establishing a sidelink connection (N3) between said first RSUG and said OBU , wherein, over said sidelink connection (N3), User Plane data are exchanged which are the same User Plane data exchanged over said second C-V2X connection (C2); - at a first Application Server, AppServ, of said source PLMN , receiving from a second AppServ , of a target PLMN , a request signal (RSig), including a request for C-V2X context information (CI), said C-V2X context information (CI) comprising a context of said OBU related to the C-V2X service provisioned over said second C-V2X connection (C2); - sending, from said first AppServ , to said second AppServ , said C-V2X context information (CI), so as to allow establishing a third C-V2X connection (C3) between a second RBS of the target PLMN and the OBU of the vehicle .
A method for wireless communications at a wireless device, comprising: determining physical channel conditions for a wireless channel ; generating polarized sub-channel components based on the determined physical channel conditions; generating a set of mutual information profiles , each profile corresponding to one of the polarized subchannel components of the wireless channel, wherein the vertical axis of the mutual information profiles represents the probability of respective channel components and the horizontal axis of the profiles represents the mutual information value of the respective channel components; selecting a plurality of polar transform sequences corresponding to rows of a polar generation matrix based on the set of mutual information profiles , wherein the selecting includes computing the mean value of each of the set of mutual information profiles and selecting the plurality of polar transform sequences based on the mutual information profiles with the highest mean values; and encoding a block of information based at least in part on the selected plurality of polar transform sequences, wherein the selected polar transform sequences are used to derive the parity check matrix to use for encoding data; transmitting an indication of the selected plurality of polar transform sequences. determining physical channel conditions for a wireless channel ; generating polarized sub-channel components based on the determined physical channel conditions; generating a set of mutual information profiles , each profile corresponding to one of the polarized subchannel components of the wireless channel, wherein the vertical axis of the mutual information profiles represents the probability of respective channel components and the horizontal axis of the profiles represents the mutual information value of the respective channel components; selecting a plurality of polar transform sequences corresponding to rows of a polar generation matrix based on the set of mutual information profiles , wherein the selecting includes computing the mean value of each of the set of mutual information profiles and selecting the plurality of polar transform sequences based on the mutual information profiles with the highest mean values; and encoding a block of information based at least in part on the selected plurality of polar transform sequences, wherein the selected polar transform sequences are used to derive the parity check matrix to use for encoding data; transmitting an indication of the selected plurality of polar transform sequences.
A milling wheel for a diaphragm wall cutter , having a drum-shaped hub , on the outer circumference of which there are arranged receptacles for cutting teeth and at least one holder for a folding tooth , wherein the holder has a bearing pin for holding the folding tooth pivotably and releasably about a pivot axis , characterised in that a fixing device is arranged on the holder and is configured to hold a fixed tooth mounted on the bearing pin in a fixed position.
A laundry washing machine having an outer casing and comprising, inside said outer casing : a washing tub ; a rotatable drum which is housed in axially rotatable manner inside the washing tub and is structured for housing the laundry to be washed; a detergent dispenser which is structured for supplying detergent into the washing tub ; a fresh-water supply circuit which is structured for selectively channelling the fresh water of an external water source towards the detergent dispenser and/or the washing tub ; and an electrochemical device which includes an electrolytic cell capable of internally converting a brine into a chlorine-based sanitizing agent which is subsequently channelled into the washing tub , and a salt container adapted to contain a given amount of consumable salt grains; the laundry washing machine being characterized in that said salt container is an unpressurized salt container having an unsealed loading inlet which is directly exposed or exposable to the outside of the casing ; and in that said electrochemical device additionally comprises: a water supply line adapted to channel, on command, a given amount of water into the salt container so as to dissolve at least part of the salt grains contained therein and form some brine; and an unpressurized brine container that fluidically communicates with the salt container and is adapted to collect and contain the brine previously formed into the salt container , so as to avoid any prolonged stagnation of the water/brine into the same salt container ; the electrolytic cell communicating with or being located into said brine container so as to receive the brine contained therein.
A taped interlayer flow cell comprising: a first substrate ; a second substrate ; and a double-sided tape disposed between the first substrate and the second substrate and comprising a carrier material, adhesive layers on top and bottom surfaces of the carrier material, and a flow channel formed therein; wherein the first substrate comprises a first transparent substrate and a first masking layer deposited on the transparent substrate to cover adhesive attachment of the double-sided tape to the first substrate ; wherein the masking layer comprises a mating cutout to at least partially expose the flow channel of the double-sided tape ; wherein the second substrate comprises a second transparent substrate and a second masking layer deposited on the second transparent substrate to cover adhesive attachment of the double-sided tape to the second substrate ; and wherein the first masking layer and the second masking layer are metal layers and each have a mating cutout that are aligned to allow viewing of the same flow channel through both the first substrate and the second substrate . a first substrate ; a second substrate ; and a double-sided tape disposed between the first substrate and the second substrate and comprising a carrier material, adhesive layers on top and bottom surfaces of the carrier material, and a flow channel formed therein; wherein the first substrate comprises a first transparent substrate and a first masking layer deposited on the transparent substrate to cover adhesive attachment of the double-sided tape to the first substrate ; wherein the masking layer comprises a mating cutout to at least partially expose the flow channel of the double-sided tape ; wherein the second substrate comprises a second transparent substrate and a second masking layer deposited on the second transparent substrate to cover adhesive attachment of the double-sided tape to the second substrate ; and wherein the first masking layer and the second masking layer are metal layers and each have a mating cutout that are aligned to allow viewing of the same flow channel through both the first substrate and the second substrate .
Microscope with at least one illumination beam path and at least one detection beam path , comprising - a detection device of the at least one detection beam path , - wherein the illumination beam path and the detection beam path are approximately orthogonal to one another in an object illumination region, characterized in that a focussing arrangement is provided at the at least one illumination beam path for generating the linear object illumination region extending in a direction of an illumination axis of the illumination beam path , the linear object illumination region being configured to illuminate linear portions of a sample to be studied; - a device for relative scanning of an object to be studied and the illumination beam path , the device being configured to linearly sample the object to be studied , such that over time a surface-like object illumination region is generated. - a detection device of the at least one detection beam path , - wherein the illumination beam path and the detection beam path are approximately orthogonal to one another in an object illumination region, characterized in that a focussing arrangement is provided at the at least one illumination beam path for generating the linear object illumination region extending in a direction of an illumination axis of the illumination beam path , the linear object illumination region being configured to illuminate linear portions of a sample to be studied; - a device for relative scanning of an object to be studied and the illumination beam path , the device being configured to linearly sample the object to be studied , such that over time a surface-like object illumination region is generated.
A pulp comprising: crosslinked cellulose fibers, wherein the pulp has: a water retention value, WRV, in a range between 0.8 g/g and less than 1.0 g/g determined by TAPPI T UM256M; and a pulp R18 value greater than 89% determined by TAPPI T 235 cm-00, wherein the crosslinked cellulose fibers include a glycidyl ether crosslinker having two or more glycidyl groups, wherein the ratio of the crosslinker present in the pulp of at least 2:100 and the weight average molecular weight of the crosslinker being 174 to 500 and wherein the pulp is a kraft pulp. a water retention value, WRV, in a range between 0.8 g/g and less than 1.0 g/g determined by TAPPI T UM256M; and a pulp R18 value greater than 89% determined by TAPPI T 235 cm-00, wherein the crosslinked cellulose fibers include a glycidyl ether crosslinker having two or more glycidyl groups, wherein the ratio of the crosslinker present in the pulp of at least 2:100 and the weight average molecular weight of the crosslinker being 174 to 500 and wherein the pulp is a kraft pulp.
A shaving razor system comprising: a shaving razor cartridge having a proximal end and a distal end ; and a handle having a proximal end portion connected to the distal end of the shaving razor cartridge, the handle having an enlarged distal end portion , wherein the handle has a maximum width of 28mm to 35mm at the enlarged distal end portion and tapers 10 degrees to 15 degrees along a first length (L1) of 60mm to 65mm that extends from a terminal end of the handle to a second width (W2) of 20mm to 25mm toward the proximal end portion and the handle has a maximum thickness (T1) of 8mm to 14mm along the first length (L1). a shaving razor cartridge having a proximal end and a distal end ; and a handle having a proximal end portion connected to the distal end of the shaving razor cartridge, the handle having an enlarged distal end portion , wherein the handle has a maximum width of 28mm to 35mm at the enlarged distal end portion and tapers 10 degrees to 15 degrees along a first length (L1) of 60mm to 65mm that extends from a terminal end of the handle to a second width (W2) of 20mm to 25mm toward the proximal end portion and the handle has a maximum thickness (T1) of 8mm to 14mm along the first length (L1).
Method for operating a vehicle , wherein one or more vehicle components of the vehicle are operated in dependence on a prescribed collection time of the vehicle at a collection position of a parking facility in such a way that the vehicle at the collection position at the prescribed collection time has one or more prescribed states, wherein the prescribed collection time prescribes when the vehicle must be at the collection position.
An exhaust gas purifying catalyst which is disposed in an exhaust passage of an internal combustion engine and eliminates NOx contained in exhaust gas, the exhaust gas purifying catalyst comprising: a substrate; and a catalyst coat layer formed on a surface of the substrate, wherein the catalyst coat layer is formed in a laminate structure having two layers, with a first layer formed across the entire substrate and being nearer to the surface of the substrate and a second layer formed across the entire substrate and being further from this surface, the second layer includes a carrier and a noble metal supported on the carrier, and the first layer is a noble metal-free layer formed across the entire substrate that does not contain a noble metal but does contain an OSC material having oxygen storage capacity, the OSC material is a cerium oxide or a ceria-zirconia complex oxide, the second layer contains Rh and Pt, and the mass ratio of Rh and Pt (Rh/Pt) contained in the second layer is between 3/1 and 3/2. a first layer formed across the entire substrate and being nearer to the surface of the substrate and a second layer formed across the entire substrate and being further from this surface,
A gas turbine engine system , comprising: a gas turbine engine including a compressor , a combustor , and a turbine disposed in within a turbine housing , the combustor disposed downstream of the compressor and defining a combustor inlet plenum , the combustor including a combustion chamber and a plurality of combustor cooling holes that provide fluid communication between the combustor inlet plenum and the combustion chamber ; characterized in that the gas turbine engine system comprises: a differential pressure sensor coupled to the combustor , the differential pressure sensor configured to (i) sense differential pressure between the combustor inlet plenum and the combustion chamber and (ii) supply a differential pressure signal representative thereof; and a processor coupled to receive the differential pressure signal from the differential pressure sensor and configured, upon receipt thereof, to determine an amount of sand plugging of the combustor cooling holes . a gas turbine engine including a compressor , a combustor , and a turbine disposed in within a turbine housing , the combustor disposed downstream of the compressor and defining a combustor inlet plenum , the combustor including a combustion chamber and a plurality of combustor cooling holes that provide fluid communication between the combustor inlet plenum and the combustion chamber ; characterized in that the gas turbine engine system comprises: a differential pressure sensor coupled to the combustor , the differential pressure sensor configured to (i) sense differential pressure between the combustor inlet plenum and the combustion chamber and (ii) supply a differential pressure signal representative thereof; and a processor coupled to receive the differential pressure signal from the differential pressure sensor and configured, upon receipt thereof, to determine an amount of sand plugging of the combustor cooling holes . a differential pressure sensor coupled to the combustor , the differential pressure sensor configured to (i) sense differential pressure between the combustor inlet plenum and the combustion chamber and (ii) supply a differential pressure signal representative thereof; and a processor coupled to receive the differential pressure signal from the differential pressure sensor and configured, upon receipt thereof, to determine an amount of sand plugging of the combustor cooling holes .