mhurhangee/patent-ind-claim-en huggingface dataset:
A continuous solution polymerization process comprising: injecting ethylene, a process solvent, a first catalyst system, optionally one or more α-olefins and optionally hydrogen into each of a first reactor and a second reactor configured in parallel to each other to produce a first exit stream containing a first polyethylene made in the first reactor and a second exit stream containing a second polyethylene made in the second reactor; passing the first exit stream and the second exit stream into a third reactor and injecting into the third reactor, ethylene, and optionally each of: a process solvent, one or more α-olefins, hydrogen, and a second catalyst system, to produce a third exit stream containing a final polyethylene product; passing the third exit stream to a devolatilization system to recover the final polyethylene product; wherein the first reactor operates at a temperature at least 25°C lower than the temperature at which the second reactor operates; the first catalyst system is a single site catalyst system; if injected into the third reactor, the second catalyst system is a single site catalyst system or a Ziegler-Natta catalyst system; and wherein at least 10 weight percent of the total ethylene injected into reactor 1, reactor 2 and reactor 3, is injected into reactor 3. injecting ethylene, a process solvent, a first catalyst system, optionally one or more α-olefins and optionally hydrogen into each of a first reactor and a second reactor configured in parallel to each other to produce a first exit stream containing a first polyethylene made in the first reactor and a second exit stream containing a second polyethylene made in the second reactor; passing the first exit stream and the second exit stream into a third reactor and injecting into the third reactor, ethylene, and optionally each of: a process solvent, one or more α-olefins, hydrogen, and a second catalyst system, to produce a third exit stream containing a final polyethylene product; a process solvent, one or more α-olefins, hydrogen, and a second catalyst system, to produce a third exit stream containing a final polyethylene product; passing the third exit stream to a devolatilization system to recover the final polyethylene product; wherein the first reactor operates at a temperature at least 25°C lower than the temperature at which the second reactor operates; the first catalyst system is a single site catalyst system; if injected into the third reactor, the second catalyst system is a single site catalyst system or a Ziegler-Natta catalyst system; and wherein at least 10 weight percent of the total ethylene injected into reactor 1, reactor 2 and reactor 3, is injected into reactor 3.
A system for locking a slab on a receiving structure comprising: - a body secured to the slab, - a locking finger movable in a housing formed in the body and intended to bear on the receiving structure in a locked position, - an elastic member for driving the locking finger into the locked position, - a return member of the locking finger , said return member being able to adopt a folded position in which the locking finger is in the unlocked position and an unfolded position in which the locking finger is in the locked position, and - a means for blocking the return member in the folded position, characterised in that the return member of the locking finger in an unlocked position comprises a magnetisable part intended to be moved by the action of a magnetic field against the action of the elastic member and in that the blocking means is in the form of a part fastened on the body and comprising a first portion intended to bear against the return member in the folded position so as to hold said return member in the folded position and a second portion able to enable deformation of the blocking means by application of a force (F1, F2) on said second portion so that said first portion lies away from the return member in the folded position. - a body secured to the slab, - a locking finger movable in a housing formed in the body and intended to bear on the receiving structure in a locked position, - an elastic member for driving the locking finger into the locked position, - a return member of the locking finger , said return member being able to adopt a folded position in which the locking finger is in the unlocked position and an unfolded position in which the locking finger is in the locked position, and - a means for blocking the return member in the folded position,
A layered-double-hydroxide-containing composite material comprising: a porous substrate; and a functional layer on and/or in the porous substrate, the functional layer containing a double hydroxide represented by general formula M 2+ 1-x M 3+ x (OH) 2 A n- x/n ·mH 2 O, where M 2+ represents a divalent cation, M 3+ represents a trivalent cation, A n- represents an n-valent anion, n represents an integer not less than 1, x represents a value of 0.1 to 0.4, and m represents any real number, and the functional layer further containing sulfur (S) at the interface between the functional layer and the porous substrate and in the vicinity of the interface, wherein the sulfur content at the interface between the functional layer and the porous substrate and in the vicinity of the interface is 0.01 atom% or more. a porous substrate; and a functional layer on and/or in the porous substrate, the functional layer containing a double hydroxide represented by general formula M 2+ 1-x M 3+ x (OH) 2 A n- x/n ·mH 2 O, where M 2+ represents a divalent cation, M 3+ represents a trivalent cation, A n- represents an n-valent anion, n represents an integer not less than 1, x represents a value of 0.1 to 0.4, and m represents any real number, and the functional layer further containing sulfur (S) at the interface between the functional layer and the porous substrate and in the vicinity of the interface, wherein the sulfur content at the interface between the functional layer and the porous substrate and in the vicinity of the interface is 0.01 atom% or more.
A method performed by a user equipment , the method comprising: receiving a downlink control information, DCI, for scheduling transmission of data on a set of bandwidth portions of a carrier, wherein the carrier comprises a plurality of bandwidth portions, wherein the DCI includes a bit field indicating a starting bandwidth portion index and a number of contiguous bandwidth portions on the carrier; performing a listen-before-talk, LBT, test on the set of bandwidth portions; and transmitting the data on one or more bandwidth portions of the set of bandwidth portions based on a result of the LBT test; characterized in that performing an LBT test on the set of bandwidth portions comprises performing a first LBT operation of the LBT test on one of the set of bandwidth portions as instructed by the DCI and performing a second LBT operation of the LBT test on remaining bandwidth portions of the set of bandwidth portions, wherein the first LBT operation is different from the second LBT operation. receiving a downlink control information, DCI, for scheduling transmission of data on a set of bandwidth portions of a carrier, wherein the carrier comprises a plurality of bandwidth portions, wherein the DCI includes a bit field indicating a starting bandwidth portion index and a number of contiguous bandwidth portions on the carrier; performing a listen-before-talk, LBT, test on the set of bandwidth portions; and transmitting the data on one or more bandwidth portions of the set of bandwidth portions based on a result of the LBT test; characterized in that performing an LBT test on the set of bandwidth portions comprises performing a first LBT operation of the LBT test on one of the set of bandwidth portions as instructed by the DCI and performing a second LBT operation of the LBT test on remaining bandwidth portions of the set of bandwidth portions, wherein the first LBT operation is different from the second LBT operation.
An adeno-associated virus (AAV) capsid polypeptide having the amino acid sequence shown in SEQ ID NO: 42.
Method for the function testing of a welding robot, comprising the following measures: a) performing a function testing movement of a welding head of a welding robot by performing a control of the welding robot which is to achieve the movement of the welding head into a function testing reference position, in which, with the welding head positioned in the function testing reference position, a welding wire led out of the welding head touches a reference contact region of a function testing contact element , b) after the function testing movement has been carried out, applying a function testing voltage between the welding wire led out of the welding head and the function testing contact element , c) detecting a potential difference built up between the welding wire led out of the welding head and the function testing contact element and/or a current flow between the welding wire led out of the welding head and the function testing contact element , d) based on the potential difference detected in measure c) or/and the current flow detected in measure c), determining whether the welding head is in the function testing reference position after performing control of the welding robot to perform the function testing movement. a) performing a function testing movement of a welding head of a welding robot by performing a control of the welding robot which is to achieve the movement of the welding head into a function testing reference position, in which, with the welding head positioned in the function testing reference position, a welding wire led out of the welding head touches a reference contact region of a function testing contact element , b) after the function testing movement has been carried out, applying a function testing voltage between the welding wire led out of the welding head and the function testing contact element , c) detecting a potential difference built up between the welding wire led out of the welding head and the function testing contact element and/or a current flow between the welding wire led out of the welding head and the function testing contact element , d) based on the potential difference detected in measure c) or/and the current flow detected in measure c), determining whether the welding head is in the function testing reference position after performing control of the welding robot to perform the function testing movement.
A system for renovating the outer shell of a building, including a thermal insulation element adapted to be fastened to an exterior wall of the building, said thermal insulation element being fastened at a distance forming a ventilation gap from the outermost surface of the exterior wall ; where the ventilation gap between an inside surface of the thermal insulation element and the exterior wall is arranged to open into the outside air via ventilation openings allowing moisture to escape from the exterior wall via the ventilation gap and the ventilation openings , said ventilation openings are arranged to be closed when the moisture in the exterior wall reaches a desired moisture content, characterized in that the thermal insulation element has a core part of mineral wool and surface panels covering it on both main surfaces of said core part, said surface panels having a tongue on one longitudinal edge and a groove on the opposite longitudinal edge, and in that in the inner surface panel of the thermal insulation element is formed at least one opening , and in that in the mineral wool of the core part of the thermal insulation element is formed at least one ventilation channel , which opens directly or via a separate connecting channel into the outside air, said mineral wool allowing the movement of moisture between said at least one opening and the ventilation channel , wherein the ventilation gap is sealed on the circumferential edge of an area defined by one or more thermal insulation elements and wherein at least one ventilation opening is formed in the upper and lower edges of the sealed area; the arrangement further comprising a plurality of mechanically closing elements articulately connected to the thermal insulation element for closing said ventilation openings when the moisture in the exterior wall reaches the desired moisture content.
A negative electrode for a secondary battery, comprising: a current collector; and a mixture layer formed on one or both surfaces of the current collector, wherein the mixture layer has a two-layer structure in which a first mixture layer and a second mixture layer are stacked, the first mixture layer includes a first carbon material and a silicon oxide as a first active materials in a weight ratio of 90 to 99 : 1 to 10 and a first needle type carbon-based conductive material as a first conductive material, the second mixture layer includes a second carbon material as a second active material and a second sphere type carbon-based conductive material as a second conductive material, the second sphere type carbon-based conductive material is carbon black, and the first needle type carbon-based conductive material is a carbon nanotube (CNT), a vapor-grown carbon fiber (VGCF), a carbon nanofiber (CNF), or a mixture of two or more thereof. a current collector; and a mixture layer formed on one or both surfaces of the current collector, wherein the mixture layer has a two-layer structure in which a first mixture layer and a second mixture layer are stacked, the first mixture layer includes a first carbon material and a silicon oxide as a first active materials in a weight ratio of 90 to 99 : 1 to 10 and a first needle type carbon-based conductive material as a first conductive material, the second mixture layer includes a second carbon material as a second active material and a second sphere type carbon-based conductive material as a second conductive material, the second sphere type carbon-based conductive material is carbon black, and the first needle type carbon-based conductive material is a carbon nanotube (CNT), a vapor-grown carbon fiber (VGCF), a carbon nanofiber (CNF), or a mixture of two or more thereof.
One or more tangible computer-readable media having instructions, stored thereon, that when executed cause a user equipment, UE, to: identify time division duplexing, TDD, uplink-downlink, UL-DL, configurations for individual serving cells of a plurality of serving cells, wherein at least two of the individual serving cells have different TDD UL-DL configurations; obtain a downlink assignment index, DAI indicating a total number of downlink, DL, assignments in a bundling window; determine, from the DAI, a maximum value of a number of scheduled downlink subframes within bundling windows of the plurality of serving cells; and for a first serving cell of the plurality of serving cells: determine the number of subframes of the bundling windowof the first serving cell; and select the lesser of the maximum value and the determined number of subframes of the bundling window as a number of subframes for which the UE needs to feedback hybrid automatic repeat request - acknowledgement, HARQ-ACK, bits for the first serving cell. identify time division duplexing, TDD, uplink-downlink, UL-DL, configurations for individual serving cells of a plurality of serving cells, wherein at least two of the individual serving cells have different TDD UL-DL configurations; obtain a downlink assignment index, DAI indicating a total number of downlink, DL, assignments in a bundling window; determine, from the DAI, a maximum value of a number of scheduled downlink subframes within bundling windows of the plurality of serving cells; and for a first serving cell of the plurality of serving cells: determine the number of subframes of the bundling windowof the first serving cell; and select the lesser of the maximum value and the determined number of subframes of the bundling window as a number of subframes for which the UE needs to feedback hybrid automatic repeat request - acknowledgement, HARQ-ACK, bits for the first serving cell. determine the number of subframes of the bundling windowof the first serving cell; and select the lesser of the maximum value and the determined number of subframes of the bundling window as a number of subframes for which the UE needs to feedback hybrid automatic repeat request - acknowledgement, HARQ-ACK, bits for the first serving cell.
A laundry treating apparatus comprising: a first treating apparatus having a first front panel disposed on a front side thereof and a first drum disposed therein for accommodating laundry therein; a second treating apparatus disposed beneath the first treating apparatus to support the first treating apparatus , wherein the second treating apparatus has a second front panel disposed on a front side thereof and a second drum disposed therein for accommodating the laundry therein; and a control panel disposed between the first front panel and the second front panel , wherein the control panel is signally connected to the first treating apparatus and the second treating apparatus , characterized in that an upper portion of the control panel is directly coupled to a lower portion of the first front panel , and a lower portion of the control panel is directly coupled to an upper portion of the second front panel . a first treating apparatus having a first front panel disposed on a front side thereof and a first drum disposed therein for accommodating laundry therein; a second treating apparatus disposed beneath the first treating apparatus to support the first treating apparatus , wherein the second treating apparatus has a second front panel disposed on a front side thereof and a second drum disposed therein for accommodating the laundry therein; and a control panel disposed between the first front panel and the second front panel , wherein the control panel is signally connected to the first treating apparatus and the second treating apparatus , characterized in that an upper portion of the control panel is directly coupled to a lower portion of the first front panel , and a lower portion of the control panel is directly coupled to an upper portion of the second front panel .
A transmission , comprising: a first planetary gear mechanism, wherein the first planetary gear mechanism comprises a first sun gear , a first planetary gear , a first planet carrier , and a first ring gear ; a second planetary gear mechanism, wherein the second planetary gear mechanism comprises a second sun gear , a second planetary gear , a second planet carrier , and a second ring gear , and the second planet carrier is connected to an output end of the transmission ; an input shaft , wherein the input shaft is connected to the first sun gear ; an intermediate shaft , wherein the first ring gear is connected to the intermediate shaft , and the intermediate shaft is connected to the second sun gear ; a first synchronizer , wherein the first synchronizer secures the first planet carrier to a housing of the transmission or connects the first planet carrier to the first sun gear ; and a second synchronizer , wherein the second synchronizer secures the second ring gear to the housing of the transmission or connects the second ring gear to the first ring gear , wherein the output end of the transmission comprises an output gear , and the output gear is connected to the second planet carrier and wherein the output gear is sleeved outside the intermediate shaft , characterized in that an axis of the input shaft is coaxial with an axis of the intermediate shaft , and the output gear is located between the first planetary gear mechanism and the second planetary gear mechanism. a first planetary gear mechanism, wherein the first planetary gear mechanism comprises a first sun gear , a first planetary gear , a first planet carrier , and a first ring gear ; a second planetary gear mechanism, wherein the second planetary gear mechanism comprises a second sun gear , a second planetary gear , a second planet carrier , and a second ring gear , and the second planet carrier is connected to an output end of the transmission ; an input shaft , wherein the input shaft is connected to the first sun gear ; an intermediate shaft , wherein the first ring gear is connected to the intermediate shaft , and the intermediate shaft is connected to the second sun gear ; a first synchronizer , wherein the first synchronizer secures the first planet carrier to a housing of the transmission or connects the first planet carrier to the first sun gear ; and a second synchronizer , wherein the second synchronizer secures the second ring gear to the housing of the transmission or connects the second ring gear to the first ring gear , wherein the output end of the transmission comprises an output gear , and the output gear is connected to the second planet carrier and wherein the output gear is sleeved outside the intermediate shaft , characterized in that an axis of the input shaft is coaxial with an axis of the intermediate shaft , and the output gear is located between the first planetary gear mechanism and the second planetary gear mechanism.
Multi-pass digital printing device for printing film or paper material in the form of sheets or tapes, having a printing region with a plurality of printing heads (3; 4) that are movable in a mutually parallel manner and transversely to the throughput direction of the material , and disposed therebelow a heatable printing table having a planar flat printing tabletop , wherein the printing tabletop is configured so as to be longer than an entire printing portion of the material to be printed, and the lengthened portion is disposed in front of the printing region so as to form an infeed portion , characterized in that in the case a printing tabletop made integrally from metal the printing portion is configured so as to be largely thermally separated from the infeed portion by way of a groove which is incorporated in the opposite side of the bearing side of said infeed portion and extends to just below the bearing face.
A method for producing a surface-treated steel sheet comprising: forming a layer mainly composed of an oxygen compound containing Al onto a tin-plated steel sheet by conducting cathode electrolytic treatment using an electrolytic treatment solution containing an Al ion and nitrate ion to the tin-plated steel sheet, wherein the electrolytic treatment solution does not contain F ion and characterized in that an amount of a nitrate ion contained is 11 500 to 25 000 ppm by weight. forming a layer mainly composed of an oxygen compound containing Al onto a tin-plated steel sheet by conducting cathode electrolytic treatment using an electrolytic treatment solution containing an Al ion and nitrate ion to the tin-plated steel sheet, wherein the electrolytic treatment solution does not contain F ion and characterized in that an amount of a nitrate ion contained is 11 500 to 25 000 ppm by weight.
Battery module having a plurality of battery cells (2 , 2 , 2 , 2(n)), wherein each battery cell 2 , 2 , 2 , 2(n) has at least two cell terminals 9 , 9 , 9 , and wherein cell terminals 9 , 9 , 9 of different polarity are electrically conductively connected to one another by means of at least one cell connector 8 , 8 , 8 , wherein the battery module comprises a cell monitoring unit , characterized in that the cell monitoring unit is electrically conductively connected to a flexible circuit board by means of at least one bonding wire (5 ) and/or at least one bonding strip (5 ), wherein the flexible circuit board and/or the cell monitoring unit has a locking device by means of which the cell monitoring unit is reversibly mechanically connected to the flexible circuit board , and in that the cell connectors 8 , 8 , 8 are embodied as bonding wires and/or bonding strips.