mhurhangee/ep-ind-claims huggingface dataset:
A battery module comprising: a cell assembly (no) formed by sandwiching a plurality of battery cells by a pair of holding members (112a, 112b); and an accommodation case configured to accommodate the cell assembly, wherein the accommodation case includes a vent hole for gas, and a flow path passing through the vent hole is formed in a labyrinth structure by covering the vent hole by a connecting portion between the pair of holding members (112a, 112b), characterized in that the connecting portion is configured to cover a plurality of the vent holes, and includes, at a position facing a portion between the plurality of the vent holes in the accommodation case, a convex portion protruding toward the portion. a cell assembly (no) formed by sandwiching a plurality of battery cells by a pair of holding members (112a, 112b); and an accommodation case configured to accommodate the cell assembly, wherein the accommodation case includes a vent hole for gas, and a flow path passing through the vent hole is formed in a labyrinth structure by covering the vent hole by a connecting portion between the pair of holding members (112a, 112b),
A method for wireless communication, comprising: transmitting, to at least one base station, at least one indication of a capability to simultaneously transmit using two different radio access technology, RAT, sidelinks over respective frequency bands; transmitting, to the at least one base station or a second base station, an indication of resources, corresponding to a first RAT sidelink of the two different RAT sidelinks, to be excluded in assigning first resources, corresponding to the first RAT sidelink of the two different RAT sidelinks; and receiving, from the at least one base station or the second base station, one or more resource grants assigning at least one of the first resources for transmitting using the first RAT sidelink of the two different RAT sidelinks or second resources for transmitting using the second RAT sidelink of the two different RAT sidelinks. transmitting, to at least one base station, at least one indication of a capability to simultaneously transmit using two different radio access technology, RAT, sidelinks over respective frequency bands; transmitting, to the at least one base station or a second base station, an indication of resources, corresponding to a first RAT sidelink of the two different RAT sidelinks, to be excluded in assigning first resources, corresponding to the first RAT sidelink of the two different RAT sidelinks; and receiving, from the at least one base station or the second base station, one or more resource grants assigning at least one of the first resources for transmitting using the first RAT sidelink of the two different RAT sidelinks or second resources for transmitting using the second RAT sidelink of the two different RAT sidelinks.
Compounds of the formula in which A, B and the carbon atom to which they are attached are saturated C 6 cycloalkyl in which one ring member is replaced by oxygen or A, B and the carbon atom to which they are attached are saturated C 6 cycloalkyl that is doubly substituted by fluorine or singly substituted by methoxy, or A, B and the carbon atom to which they are attached are C 6 cycloalkyl that is substituted by an alkylenediyl group containing two oxygen atoms that are not directly adjacent, with said group forming a further five-membered ring with the carbon atom to which it is attached, G is hydrogen (a) or wherein R 2 is ethyl, V is hydrogen (X-1) or COOR 8 (X-2) wherein R 8 is methyl. A, B and the carbon atom to which they are attached are saturated C 6 cycloalkyl in which one ring member is replaced by oxygen or A, B and the carbon atom to which they are attached are saturated C 6 cycloalkyl that is doubly substituted by fluorine or singly substituted by methoxy, or A, B and the carbon atom to which they are attached are C 6 cycloalkyl that is substituted by an alkylenediyl group containing two oxygen atoms that are not directly adjacent, with said group forming a further five-membered ring with the carbon atom to which it is attached, G is hydrogen (a) or V is hydrogen (X-1) or COOR 8 (X-2)
A device for exhaust-gas recirculation, in particular for diesel engines, from the exhaust-gas train into the fresh-air path of the engine, wherein a cooling device connected to the cooling system of the engine is provided within an EGR section as an exhaust-gas /coolant heat exchanger, with which an EGR valve being connected to a coolant is associated for proportioning the EG recirculation rate, and wherein: the cooling device comprises an EG pre-cooler and an EG main cooler that follows it, characterized in that the EGR valve is installed in a valve housing disposed between the EG pre-cooler and the EG main cooler, that the valve housing is connected with a separate cooling path for external cooling of the EGR valve and that a further cooling path is provided for cooling the electrical components in the interior of the EGR valve. the cooling device comprises an EG pre-cooler and an EG main cooler that follows it, characterized in that the EGR valve is installed in a valve housing disposed between the EG pre-cooler and the EG main cooler, that the valve housing is connected with a separate cooling path for external cooling of the EGR valve and that a further cooling path is provided for cooling the electrical components in the interior of the EGR valve.
A node in a wireless communication system, the node comprising a number of antennas, the number of antennas being configured to generate at least a first antenna function (2, 2'), a second antenna function (3, 3') and a third antenna function (4, 4'), where a first downlink signal, a second downlink signal, a first uplink signal and a second uplink signal are transferred via said antenna functions (2, 3, 4; 2'. 3', 4'), and where said antenna functions (2, 3, 4; 2', 3', 4') together form a first total antenna function (A1, A1') and a second total antenna function (A2, A2'), wherein the first downlink signal and the second downlink signal are transferred via the first total antenna function (A1, A1'), wherein the first uplink signal and the second uplink signal are transferred via the second total antenna function (A2, A2'), where the second downlink signal and the second uplink signal are transferred via a common connection (5, 5') connected to a filter means (6, 6') which is arranged for separating the second downlink signal and the second uplink signal for connecting them to different antenna functions, characterized In that the downlink signals (Tx1, Tx2) and the uplink signals (Rx1, Rx2), respectively, are separated in time by means of time division duplex and where the filter means (6, 6') is in the form of at least one switch or the downlink signals (Tx1, Tx2) and the uplink signals (Rx1, Rx2), respectively, are separated in frequency by means of frequency division duplex and where the filter means (6, 6') Is in the form of a duplex filter.
A wear resistant steel plate comprising a steel composition containing, by mass%, C: 0.25 % to 0.33 %, Si: 0.1 % to 1.0 %, Mn: 0.40 %to 1.3 %, P: 0.010 % or less, S: 0.004 % or less, Al: 0.06 % or less, N: 0.007 % or less, at least one of Cu: 0.05 % or more and 1.5 % or less, Ni: 0.05 % or more and 2.0 % or less, Cr: 0.05 % or more and 3.0 % or less, Mo: 0.05 % or more and 1.5 % or less, W: 0.05 % or more and 1.5 % or less, and B: 0.0003 % or more and 0.0030 % or less, optionally at least one of V: 0.01 % to 0.1 %, Ti: 0.005 % to 0.03 %, REM: 0.002 % or more and 0.02 % or less, Ca: 0.0005 % or more and 0.005 % or less, and Mg: 0.001 % or more and 0.005 % or less, and the balance being Fe and incidental impurities, where DI* defined by Formula 1 below is 100 to 250, the steel plate comprising: a surface layer part containing 90 % or more in area ratio of martensite, the surface layer part representing a zone extending up to a depth of 1 mm from a surface of the steel plate, the surface of the steel plate having a Brinell hardness of 450 HBW 10/3000 or more; and a central part in thickness direction of the steel plate containing 70 % or more in area ratio of lower bainite having an average grain size of 25 μm or less, the central part representing a zone extending from a 1/2 position of the steel plate in thickness direction up to 0.5 mm toward both surfaces of the steel plate. DI ∗ = 33.85 × 0.1 × C 0.5 × 0.7 × Si + 1 × 3.33 × Mn + 1 × 0.35 × Cu + 1 × 0.36 × Ni + 1 × 2.16 × Cr + 1 × 3 × Mo + 1 × 1.75 × V + 1 × 1.5 × W + 1 where the symbols of elements represent the contents by mass% of the elements, respectively. a surface layer part containing 90 % or more in area ratio of martensite, the surface layer part representing a zone extending up to a depth of 1 mm from a surface of the steel plate, the surface of the steel plate having a Brinell hardness of 450 HBW 10/3000 or more; and a central part in thickness direction of the steel plate containing 70 % or more in area ratio of lower bainite having an average grain size of 25 μm or less, the central part representing a zone extending from a 1/2 position of the steel plate in thickness direction up to 0.5 mm toward both surfaces of the steel plate. DI ∗ = 33.85 × 0.1 × C 0.5 × 0.7 × Si + 1 × 3.33 × Mn + 1 × 0.35 × Cu + 1 × 0.36 × Ni + 1 × 2.16 × Cr + 1 × 3 × Mo + 1 × 1.75 × V + 1 × 1.5 × W + 1
An installation provided for the molding of pressed cheeses, including cylinders for receiving a mixture of curd and serum disposed along rows (2, 4), each intended to receive a mold at their base, characterized in that the cylinders are disposed along two parallel rows (2, 4) having a longitudinal direction, and in that it includes an automatic conveying device comprising means allowing carrying out from a front end of a first row, a conveying of the molds rearwardly along this first row, a lateral transfer on the second row of the mold at the rear of the first row, and a conveying forwardly along this second row.
A method of performing solution-phase enzyme screening, comprising: depositing a library of cells onto a microdevice, wherein said microdevice contains wells that spatially separate said cells in solution, wherein said cells are distributed one cell per well on average, wherein a plurality of the cells secrete variants of at least one enzyme in said solution; contacting said secreted enzyme variants in said solution with at least one optical signal substrate; wherein said enzyme activity is evaluated by detecting changes over time in one or more optical signals generated by said one or more optical signal substrates in the library of cells, wherein such changes indicate a desired activity of the variants of the enzyme. depositing a library of cells onto a microdevice, wherein said microdevice contains wells that spatially separate said cells in solution, wherein said cells are distributed one cell per well on average, wherein a plurality of the cells secrete variants of at least one enzyme in said solution; contacting said secreted enzyme variants in said solution with at least one optical signal substrate; wherein said enzyme activity is evaluated by detecting changes over time in one or more optical signals generated by said one or more optical signal substrates in the library of cells, wherein such changes indicate a desired activity of the variants of the enzyme.
An immunological composition comprising: a) NSP4, VP4 and VP6 rotavirus polypeptides; and b) a pharmaceutically or veterinary acceptable vehicle, diluent or excipient. a) NSP4, VP4 and VP6 rotavirus polypeptides; and b) a pharmaceutically or veterinary acceptable vehicle, diluent or excipient.
Fragrancing aqueous transparent solid composition comprising, in a cosmetically acceptable support: a) at least one aqueous phase and b) at least one fatty acid salt in an amount of from 0.5 to 20% by weight relative to the total weight of the composition and c) at least one oxyethylenated behenyl alcohol of general formula (I') below: CH 3 (CH 2) 20 -CH 2 -(OCH 2 CH 2) y -OH (I') in which y varies from 1 to 20 and more preferably from 1 to 10 in an amount ranging from 0.1 to 10% by weight relative to the total weight of the composition and d) at least one fragrancing substance in an amount ranging from 0.5 to 30% by weight relative to the total weight of the composition. a) at least one aqueous phase and b) at least one fatty acid salt in an amount of from 0.5 to 20% by weight relative to the total weight of the composition and c) at least one oxyethylenated behenyl alcohol of general formula (I') below: CH 3 (CH 2) 20 -CH 2 -(OCH 2 CH 2) y -OH (I') in which y varies from 1 to 20 and more preferably from 1 to 10 in an amount ranging from 0.1 to 10% by weight relative to the total weight of the composition and d) at least one fragrancing substance in an amount ranging from 0.5 to 30% by weight relative to the total weight of the composition.
A composition for a protection layer of a thermal recording material, the composition containing emulsion and non-crosslinkable urea compound, wherein the emulsion has a pH of 6 or more, and contains particles of copolymer resin (a) produced by copolymerizing reactive monomer component (a') containing at least a vinyl monomer component having a carboxyl group and a vinyl monomer component that is copolymerizable with the vinyl monomer component having a carboxyl group, 40 to 90 parts by mass of (meth)acrylonitrile is contained in 100 parts by mass of the reactive monomer component (a'), and the non-crosslinkable urea compound has a molecular weight of 1000 or less.
A system for providing spinal stabilization, comprising: an implant including a body extending from a leading end to an opposite trailing end, said body including a superior bone engaging surface and an opposite inferior bone engaging surface, said superior and inferior bone engaging surfaces (30, 32) engaging respective endplates of upper and lower vertebrae (V1, V2) when said implant is positioned in a spinal disc space between the upper and lower vertebrae (V1, V2); a plate for engagement with the upper and lower vertebrae (V1, V2), said plate including a plate body extending between an upper end and an opposite lower end, said plate body including a top surface and an opposite bottom surface facing the upper and lower vertebrae (V1, V2) when said plate is engaged therewith; and an insertion instrument (120; 200) including an engaging portion (134; 214) configured to releasably engage with said implant and said plate, wherein an angular orientation of said implant relative to said plate is adjustable when said implant and said plate are engaged by said instrument (120; 200), wherein rotation of said plate relative to said instrument (120; 200) is limited when said implant and said plate are engaged by said insertion instrument and wherein engagement of said implant and said plate with said instrument (120; 200) prevents displacement of said implant relative to said plate and upon disengagement of said implant and said plate from said instrument (120; 200) said implant is freely displaceable relative to said plate. an implant including a body extending from a leading end to an opposite trailing end, said body including a superior bone engaging surface and an opposite inferior bone engaging surface, said superior and inferior bone engaging surfaces (30, 32) engaging respective endplates of upper and lower vertebrae (V1, V2) when said implant is positioned in a spinal disc space between the upper and lower vertebrae (V1, V2); a plate for engagement with the upper and lower vertebrae (V1, V2), said plate including a plate body extending between an upper end and an opposite lower end, said plate body including a top surface and an opposite bottom surface facing the upper and lower vertebrae (V1, V2) when said plate is engaged therewith; and an insertion instrument (120; 200) including an engaging portion (134; 214) configured to releasably engage with said implant and said plate, wherein an angular orientation of said implant relative to said plate is adjustable when said implant and said plate are engaged by said instrument (120; 200), wherein rotation of said plate relative to said instrument (120; 200) is limited when said implant and said plate are engaged by said insertion instrument and wherein engagement of said implant and said plate with said instrument (120; 200) prevents displacement of said implant relative to said plate and upon disengagement of said implant and said plate from said instrument (120; 200) said implant is freely displaceable relative to said plate.
Push-on fitting and a push-on suction cup for a conveyor belt for transporting and/or lifting goods, which push-on fitting comprises a base disc having a front side and a rear side and being adapted to be mounted in a hole of the conveyor belt, said base disc having a hole for through airflow and being provided with a hollow push-on snap fitting pin for through airflow, said pin extending outwardly essentially perpendicular to the front side and adapted to receive the push-on suction cup, wherein the snap fitting pin comprises at least a pair of axial slots adapted to provide at least a pair of flexible tongues (14a, 14b) formed in an end part of the pin, characterised in that the flexible tongues (14a, 14b) comprise a concentric snap fitting rim having a variable diameter, that can be varied by the end part of the flexible tongues (14a, 14b) being acted upon, for receiving the push-on suction cup provided with a washer having a mounting hole with a diameter smaller than a largest diameter of the rim.
Process for degassing methane from a scrubbing liquid consisting predominantly of water and also containing carbon dioxide, as in a pressurized water scrubbing in particular, characterized by applying electromagnetic waves or an electromagnetic alternating field to the scrubbing liquid with at least one frequency within a frequency range from 0.5 to 10 megahertz, wherein the binding of the methane in the scrubbing liquid is reducible and/or the movement of the methane in the scrubbing liquid is inducible by the application at the at least one frequency.
Manufacturing method of a strengthened alloy comprising a metal matrix in the volume of which nanoparticles are dispersed, of which at least 80% have an average size of 1 nm to 50 nm, said nanoparticles comprising at least one nitride chosen from the nitrides of at least one metal element M belonging to the group consisting of Ti, Zr, Hf and Ta, the method comprising the following successive steps: a) performing plasma nitriding of a base alloy at a temperature of 200°C to 700°C in order to insert interstitial nitrogen therein, said base alloy incorporating 0.1 % to 1% by weight of the metal element M and being chosen from an austenitic, ferritic, ferritic-martensitic or nickel-based alloy; b) diffusing the interstitial nitrogen in said base alloy at a temperature of 350°C to 650°C; and c) precipitating the nitride at a temperature of 600°C to 900°C for a period of 10 minutes to 10 hours, in order to form said nanoparticles dispersed in the strengthened alloy. a) performing plasma nitriding of a base alloy at a temperature of 200°C to 700°C in order to insert interstitial nitrogen therein, said base alloy incorporating 0.1 % to 1% by weight of the metal element M and being chosen from an austenitic, ferritic, ferritic-martensitic or nickel-based alloy; b) diffusing the interstitial nitrogen in said base alloy at a temperature of 350°C to 650°C; and c) precipitating the nitride at a temperature of 600°C to 900°C for a period of 10 minutes to 10 hours, in order to form said nanoparticles dispersed in the strengthened alloy.
An electronic apparatus (1; 1') comprising: a processor (2; 2'); a peripheral (3; 3') comprising a data interface; a direct memory access controller (6, 7; 6', 7') for the peripheral (3; 3'); a memory (4; 4'); a bus system (5; 5') connecting the processor (2; 2'), the DMA controller (6, 7; 6', 7'), and the memory (4; 4'); and a data link (8, 10; 8', 10') between the DMA controller (6, 7; 6', 7') and the peripheral (3; 3'); wherein the DMA controller (6, 7; 6', 7') comprises data-transfer circuitry configured to transfer data between the memory (4; 4') and the data interface of the peripheral (3; 3') over the data link (8, 10; 8', 10'); characterized in that: the peripheral (3; 3') comprises a data-attribute interface; the electronic apparatus (1; 1') comprises a data-attribute link (9; 9'; 11) between the DMA controller (6, 7; 6', 7') and the peripheral (3; 3'), separate from the data link (8, 10; 8', 10'); and the data-transfer circuitry is configured to transfer data-attribute information, associated with the data, between the memory (4; 4') and the data-attribute interface of the peripheral (3; 3') over the data-attribute link (9; 9'; 11). a processor (2; 2'); a peripheral (3; 3') comprising a data interface; a direct memory access controller (6, 7; 6', 7') for the peripheral (3; 3'); a memory (4; 4'); a bus system (5; 5') connecting the processor (2; 2'), the DMA controller (6, 7; 6', 7'), and the memory (4; 4'); and a data link (8, 10; 8', 10') between the DMA controller (6, 7; 6', 7') and the peripheral (3; 3'); wherein the DMA controller (6, 7; 6', 7') comprises data-transfer circuitry configured to transfer data between the memory (4; 4') and the data interface of the peripheral (3; 3') over the data link (8, 10; 8', 10'); characterized in that: the peripheral (3; 3') comprises a data-attribute interface; the electronic apparatus (1; 1') comprises a data-attribute link (9; 9'; 11) between the DMA controller (6, 7; 6', 7') and the peripheral (3; 3'), separate from the data link (8, 10; 8', 10'); and the data-transfer circuitry is configured to transfer data-attribute information, associated with the data, between the memory (4; 4') and the data-attribute interface of the peripheral (3; 3') over the data-attribute link (9; 9'; 11). the peripheral (3; 3') comprises a data-attribute interface; the electronic apparatus (1; 1') comprises a data-attribute link (9; 9'; 11) between the DMA controller (6, 7; 6', 7') and the peripheral (3; 3'), separate from the data link (8, 10; 8', 10'); and the data-transfer circuitry is configured to transfer data-attribute information, associated with the data, between the memory (4; 4') and the data-attribute interface of the peripheral (3; 3') over the data-attribute link (9; 9'; 11).
An injector for injecting a foldable intraocular lens in an eye, the injector comprising: a tube-shape inserting portion that includes an injecting portion and is inserted through an incision made on the eye; a lens place portion in which the intraocular lens is to be placed; and a piston configured to move the intraocular lens from the lens place portion into the inserting portion, wherein a hole, through which a restrictor for restricting the movement of the intraocular lens placed in the injector is inserted, is formed through a bottom of the lens place portion, and wherein a cover is provided at an upside of the lens place portion whereby the intraocular lens is placed in the lens place portion so that the restrictor inserted through the hole holds the intraocular lens. a tube-shape inserting portion that includes an injecting portion and is inserted through an incision made on the eye; a lens place portion in which the intraocular lens is to be placed; and a piston configured to move the intraocular lens from the lens place portion into the inserting portion, wherein a hole, through which a restrictor for restricting the movement of the intraocular lens placed in the injector is inserted, is formed through a bottom of the lens place portion, and wherein a cover is provided at an upside of the lens place portion whereby the intraocular lens is placed in the lens place portion so that the restrictor inserted through the hole holds the intraocular lens.