mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus, comprising: a conductive plug that extends through a plurality of decks of memory cells ; a plurality of transistors that are electrically connected to the conductive plug; and a driver (736; 737) coupled with the conductive plug and configured to be selectively coupled, by a transistor of the plurality of transistors, with an electrode included in a deck of the plurality of decks, characterised in that each transistor is a vertical thin film transistor that at least partially surrounds the conductive plug. a conductive plug that extends through a plurality of decks of memory cells ; a plurality of transistors that are electrically connected to the conductive plug; and a driver (736; 737) coupled with the conductive plug and configured to be selectively coupled, by a transistor of the plurality of transistors, with an electrode included in a deck of the plurality of decks,
A stretchable laminate, including: an elastomer layer; and a non-woven fabric layer arranged on at least one side of the elastomer layer, wherein: the elastomer layer comprises three layers, and outer layers on both sides of the elastomer layer each contain an olefin-based elastomer; the content of the olefin-based elastomer in the outer layers is from 90 wt% to 100 wt%; the olefin-based elastomer comprises an α-olefin-based elastomer; and the α-olefin-based elastomer comprises a propylene-based elastomer. an elastomer layer; and a non-woven fabric layer arranged on at least one side of the elastomer layer, wherein: the elastomer layer comprises three layers, and outer layers on both sides of the elastomer layer each contain an olefin-based elastomer; the content of the olefin-based elastomer in the outer layers is from 90 wt% to 100 wt%; the olefin-based elastomer comprises an α-olefin-based elastomer; and the α-olefin-based elastomer comprises a propylene-based elastomer. the elastomer layer comprises three layers, and outer layers on both sides of the elastomer layer each contain an olefin-based elastomer; the content of the olefin-based elastomer in the outer layers is from 90 wt% to 100 wt%; the olefin-based elastomer comprises an α-olefin-based elastomer; and the α-olefin-based elastomer comprises a propylene-based elastomer.
A method of carrying out a demand response, DR, event by a control system , for shifting energy consumption for operating the HVAC system to time periods outside of the DR event period, the method comprising: identifying , by the system , a DR event period for the DR event; accessing a plurality of parameter sets (810, 812 816, 820); generating a candidate setpoint schedule including the DR event period for each of the plurality of parameter sets (810, 812 816, 820); simulating each of the candidate setpoint schedules using a thermodynamic model of how one or more structures respond to one or more heating, ventilation, and air conditioning, HVAC, systems ; generating a predicted indoor temperature profile or a predicted HVAC duty cycle schedule for each of the simulated candidate setpoint schedules ; evaluating a cost function for each of the predicted indoor temperature profiles or HVAC duty cycle schedules ; selecting an optimal one of the predicted indoor temperature profiles or HVAC duty cycle schedules that minimizes the cost function; and controlling the one or more HVAC systems during the DR event period in accordance with the optimal predicted indoor temperature profile or HVAC duty cycle schedule . identifying , by the system , a DR event period for the DR event; accessing a plurality of parameter sets (810, 812 816, 820); generating a candidate setpoint schedule including the DR event period for each of the plurality of parameter sets (810, 812 816, 820); simulating each of the candidate setpoint schedules using a thermodynamic model of how one or more structures respond to one or more heating, ventilation, and air conditioning, HVAC, systems ; generating a predicted indoor temperature profile or a predicted HVAC duty cycle schedule for each of the simulated candidate setpoint schedules ; evaluating a cost function for each of the predicted indoor temperature profiles or HVAC duty cycle schedules ; selecting an optimal one of the predicted indoor temperature profiles or HVAC duty cycle schedules that minimizes the cost function; and controlling the one or more HVAC systems during the DR event period in accordance with the optimal predicted indoor temperature profile or HVAC duty cycle schedule .
A bucket elevator comprising a column extending in elevation vertically (V1) relative to the ground and housing a bucket conveyor , the bucket elevator comprising a vessel for receiving a granulate to be conveyed to the top of the column via said buckets , the vessel being provided at the base of the column and comprising a bottom wall , the bucket elevator being equipped with an apparatus for dispersing a residue of granulate at the bottom of the vessel towards the buckets when passing through the bottom of the vessel , said apparatus being disposed outside the vessel and comprising a member generating vibrations of the bottom wall of the vessel , the bucket conveyor comprises a strap which is closed in a loop on itself and along which the buckets are distributed, the ends of the strap respectively extending at the periphery of an upper drum rotatably provided at the top of the column and of a lower drum rotatably provided at the base of the column , the strap being movably driven on itself via at least one of the drums which is rotatably motor-driven, the bucket elevator being characterised in that the bottom wall of the vessel is rigid and the vibration generating member comprises at least one striker and a motor drive for sequentially setting in motion the at least one striker between an inactive station of the striker , in which the striker is in a stable position, and an active station of the striker , in which the striker is movably driven by the motor drive . the bucket conveyor comprises a strap which is closed in a loop on itself and along which the buckets are distributed, the ends of the strap respectively extending at the periphery of an upper drum rotatably provided at the top of the column and of a lower drum rotatably provided at the base of the column , the strap being movably driven on itself via at least one of the drums which is rotatably motor-driven, the bucket elevator being characterised in that the bottom wall of the vessel is rigid and the vibration generating member comprises at least one striker and a motor drive for sequentially setting in motion the at least one striker between an inactive station of the striker , in which the striker is in a stable position, and an active station of the striker , in which the striker is movably driven by the motor drive .
A recombinant AAV (rAAV) comprising a rAAV vector comprising a heterologous polynucleotide sequence comprising a nucleic acid sequence encoding a short-hairpin RNA (shRNA) specific for human sarcolipin (SLN) in a therapeutically effective amount for decreasing SLN expression or activity in a cell, or a composition comprising said rAAV, for use in a method of preventing or treating Duchenne Muscular Dystrophy (DMD) in a human subject.
A composition for forming a thermally conductive material comprising: a thermosetting compound A, wherein the thermosetting compound A includes an epoxy compound having an epoxy equivalent of 130 or less, measured as described in the description, and a phenolic compound, and wherein the content of the thermosetting compound A is 10% to 40% by mass with respect to the total solid content of the composition; boron nitride particles B containing boron nitride and having an average particle diameter of 25.0 μm or more, measured as described in the description; and boron nitride particles C containing boron nitride and having an average particle diameter of 5.0 μm or less, measured as described in the description; wherein a content of the boron nitride particles B is 70% to 95% by mass with respect to a total content of the boron nitride particles B and the boron nitride particles C, and wherein an oxygen atom concentration on a surface of the boron nitride particles C detected by X-ray photoelectron spectroscopic analysis, measured as described in the description, is 1.5 atomic% or more. a thermosetting compound A, wherein the thermosetting compound A includes an epoxy compound having an epoxy equivalent of 130 or less, measured as described in the description, and a phenolic compound, and wherein the content of the thermosetting compound A is 10% to 40% by mass with respect to the total solid content of the composition; boron nitride particles B containing boron nitride and having an average particle diameter of 25.0 μm or more, measured as described in the description; and boron nitride particles C containing boron nitride and having an average particle diameter of 5.0 μm or less, measured as described in the description; wherein a content of the boron nitride particles B is 70% to 95% by mass with respect to a total content of the boron nitride particles B and the boron nitride particles C, and wherein an oxygen atom concentration on a surface of the boron nitride particles C detected by X-ray photoelectron spectroscopic analysis, measured as described in the description, is 1.5 atomic% or more.
A locking structure comprising: a first panel (12; 30; 51; 102); a second panel (13; 52; 104) formed continuously with the first panel (12; 30; 51; 102) and folded against the first panel (12; 30; 51; 102); a third panel (44; 58; 125) arranged along an inner surface of the second panel (13; 52; 104); a locking portion formed on the third panel (44; 58; 125); a locking receiving portion (23; 55; 108); said locking structure being characterized in that said locking receiving portion (23; 55; 108) is defined by a first inclined fold line (18; 110) extending toward a third panel side on the first panel (12; 30; 51; 102) from a branching point (16; 109) on a fold line between the first panel (12; 30; 51; 102) and the second panel (13; 52; 104), said first inclined fold line being inclined with respect to the fold line between the first and second panels, a second inclined fold line (19; 111) extending toward the third panel side on the second panel (13; 52; 104) from the branching point (16; 109), said second inclined fold line being inclined with respect to the fold line between the first and second panels, and a cut portion (24; 112) extending between a distal end of the first inclined fold line (18; 110) and a distal end of the second inclined fold line (19; 111), the locking receiving portion (23; 55; 108) extending in an inclined manner between the first panel (12; 30; 51; 102) and the second panel (13; 52; 104) in an assembled state; said locking portion being configured to be locked to a cut portion side of the locking receiving portion (23; 55; 108) in the assembled state. a first panel (12; 30; 51; 102); a second panel (13; 52; 104) formed continuously with the first panel (12; 30; 51; 102) and folded against the first panel (12; 30; 51; 102); a third panel (44; 58; 125) arranged along an inner surface of the second panel (13; 52; 104); a locking portion formed on the third panel (44; 58; 125); a locking receiving portion (23; 55; 108); said locking structure being characterized in that said locking receiving portion (23; 55; 108) is defined by a first inclined fold line (18; 110) extending toward a third panel side on the first panel (12; 30; 51; 102) from a branching point (16; 109) on a fold line between the first panel (12; 30; 51; 102) and the second panel (13; 52; 104), said first inclined fold line being inclined with respect to the fold line between the first and second panels, a second inclined fold line (19; 111) extending toward the third panel side on the second panel (13; 52; 104) from the branching point (16; 109), said second inclined fold line being inclined with respect to the fold line between the first and second panels, and a cut portion (24; 112) extending between a distal end of the first inclined fold line (18; 110) and a distal end of the second inclined fold line (19; 111), the locking receiving portion (23; 55; 108) extending in an inclined manner between the first panel (12; 30; 51; 102) and the second panel (13; 52; 104) in an assembled state; said locking portion being configured to be locked to a cut portion side of the locking receiving portion (23; 55; 108) in the assembled state.
A method for determining the suitability of a lubricant, in particular a lubricating grease, for avoiding false brinelling damage in a bearing, comprising the following steps: - a first conditioning of a rheometer, having the sub-steps: a) tempering the rheometer to a first temperature, b) setting a first zero point after a predetermined first tempering time of the rheometer, - filling the rheometer with a lubricant sample, - deforming the lubricant sample and determining a first shear stress from the shear deformation of the lubricant sample at the first temperature, with reference to the first zero point of the measuring system, - a second conditioning of the rheometer, having the sub-steps: c) tempering the rheometer to a second temperature, d) setting a second zero point after a predetermined second tempering time of the rheometer, - refilling the rheometer with a lubricant sample, - deforming the lubricant sample and determining a second shear stress from the shear deformation of the lubricant sample at the second temperature, with reference to the second zero point of the measuring system, - classifying the lubricant as suitable or unsuitable for avoiding false brinelling damage depending on the determined first shear stress and the determined second shear stress. - a first conditioning of a rheometer, having the sub-steps: a) tempering the rheometer to a first temperature, b) setting a first zero point after a predetermined first tempering time of the rheometer, a) tempering the rheometer to a first temperature, b) setting a first zero point after a predetermined first tempering time of the rheometer, - filling the rheometer with a lubricant sample, - deforming the lubricant sample and determining a first shear stress from the shear deformation of the lubricant sample at the first temperature, with reference to the first zero point of the measuring system, - a second conditioning of the rheometer, having the sub-steps: c) tempering the rheometer to a second temperature, d) setting a second zero point after a predetermined second tempering time of the rheometer, c) tempering the rheometer to a second temperature, d) setting a second zero point after a predetermined second tempering time of the rheometer, - refilling the rheometer with a lubricant sample, - deforming the lubricant sample and determining a second shear stress from the shear deformation of the lubricant sample at the second temperature, with reference to the second zero point of the measuring system, - classifying the lubricant as suitable or unsuitable for avoiding false brinelling damage depending on the determined first shear stress and the determined second shear stress.
A method for detecting target molecules on a solid support, comprising: a. forming at least one complex comprising an oligonucleotide primer hybridized to a circularized nucleic acid probe, wherein the primer is bound to a surface on a solid support, and wherein the forming the at least one complex comprises exposing the solid support to a crowding agent comprising at least 12% (w:v) polyethylene glycol (PEG), wherein the PEG has an average molecular weight between 400 and 800; b. detecting formation of the at least one complex in a process comprising: i. extending the primer in the complex in a rolling circle amplification (RCA) reaction to form RCA product; ii. hybridizing a plurality of labeled probes to the RCA product; and iii. detecting hybridized labeled probe; wherein hybridized labeled probe is indicative of the presence of the target molecule on the solid support. a. forming at least one complex comprising an oligonucleotide primer hybridized to a circularized nucleic acid probe, wherein the primer is bound to a surface on a solid support, and wherein the forming the at least one complex comprises exposing the solid support to a crowding agent comprising at least 12% (w:v) polyethylene glycol (PEG), wherein the PEG has an average molecular weight between 400 and 800; b. detecting formation of the at least one complex in a process comprising: i. extending the primer in the complex in a rolling circle amplification (RCA) reaction to form RCA product; ii. hybridizing a plurality of labeled probes to the RCA product; and iii. detecting hybridized labeled probe; i. extending the primer in the complex in a rolling circle amplification (RCA) reaction to form RCA product; ii. hybridizing a plurality of labeled probes to the RCA product; and iii. detecting hybridized labeled probe;
A method for preparing a vinyl chloride-based polymer, the method comprising: a step for performing suspension polymerization of a monomer for preparing a vinyl chloride-based polymer in the presence of a polymerization initiator, a dispersant, and water soluble cellulose ether, wherein the dispersant includes a mixture of two or more kinds of polyvinyl alcohol having different degrees of saponification, and a mole average degree of saponification of the polyvinyl alcohol mixture is from 76 mol% to 80 mol%, and wherein the water soluble cellulose ether has a gel point of 60°C to 90°C, and is added before the initiation of the polymerization or at a time in which the polymerization conversion rate is 70% or less, wherein the water soluble cellulose ether has a hydrophobic group in an amount of 20 to 40 wt% based on the total weight of the water soluble cellulose ether, and wherein the dispersant includes a first polyvinyl alcohol having a degree of saponification of 60 mol% to 90 mol% and a second polyvinyl alcohol having a degree of saponification of 40 mol% to less than 60 mol% at a weight ratio of 10:1 to 20:1. a step for performing suspension polymerization of a monomer for preparing a vinyl chloride-based polymer in the presence of a polymerization initiator, a dispersant, and water soluble cellulose ether, wherein the dispersant includes a mixture of two or more kinds of polyvinyl alcohol having different degrees of saponification, and a mole average degree of saponification of the polyvinyl alcohol mixture is from 76 mol% to 80 mol%, and wherein the water soluble cellulose ether has a gel point of 60°C to 90°C, and is added before the initiation of the polymerization or at a time in which the polymerization conversion rate is 70% or less, wherein the water soluble cellulose ether has a hydrophobic group in an amount of 20 to 40 wt% based on the total weight of the water soluble cellulose ether, and wherein the dispersant includes a first polyvinyl alcohol having a degree of saponification of 60 mol% to 90 mol% and a second polyvinyl alcohol having a degree of saponification of 40 mol% to less than 60 mol% at a weight ratio of 10:1 to 20:1.
A composition, comprising: ethylene propylene diene monomer (EPDM) polymer, aluminum hydroxide, expandable graphite, tris(2-ethylhexyl) phosphate, and a maleic anhydride adduct of polybutadiene, wherein the composition is mineral oil free.
A mould layer assembly comprising: a mould face component defining: a mould profile for forming a moulded article on a first side thereof; and, a temperature control surface on an opposite side to the mould profile, which temperature control surface is separated into a plurality of temperature control zones, each zone comprising a fluid chamber at least partially defined by the temperature control surface; characterised in that : the mould face component comprises a stepped, three dimensional support profile on the temperature control surface side of the mould face component; and, the mould layer assembly comprises a mould face support assembly comprising a plurality of support elements stacked on the support profile to provide a support surface for the mould layer assembly. a mould profile for forming a moulded article on a first side thereof; and, a temperature control surface on an opposite side to the mould profile, which temperature control surface is separated into a plurality of temperature control zones, each zone comprising a fluid chamber at least partially defined by the temperature control surface; characterised in that : the mould face component comprises a stepped, three dimensional support profile on the temperature control surface side of the mould face component; and, the mould layer assembly comprises a mould face support assembly comprising a plurality of support elements stacked on the support profile to provide a support surface for the mould layer assembly. the mould face component comprises a stepped, three dimensional support profile on the temperature control surface side of the mould face component; and, the mould layer assembly comprises a mould face support assembly comprising a plurality of support elements stacked on the support profile to provide a support surface for the mould layer assembly.
A workstation of the type comprising at least one machining station with a fixed base provided with at least one tool, and at least one clamping assembly , for at least one workpiece to be subjected to machining, which can move between at least one configuration of alignment with a machining station and at least one configuration that is misaligned with respect to said station , further comprising a fixed footing , which is provided with a substantially central post for supporting a supporting surface for supporting the at least one machining station , characterized in that a torque motor is coupled to the post , the rotating portion of the torque motor being coupled to a turntable which is arranged so as to face and be proximate and parallel to said supporting surface , said at least one clamping assembly being integral with said turntable .
A method performed by a distributed unit, DU, of a base station in a wireless communication system supporting lower layer function division, the method comprising: identifying subframe configuration information; generating a control message including multimedia broadcast multicast service single frequency network, MBSFN,-related information for a subframe, based on the identification; and transmitting the generated control message to a radio unit, RU, of the base station connected to the DU through a fronthaul interface, wherein the MBSFN-related information includes first information for indicating whether a normal cyclic prefix, CP, and an extended CP are mixed in the subframe or not and second information for indicating a number of one or more symbols using the normal CP in the subframe, and wherein the MBSFN-related information is used for zero padding, to match a length of the subframe defined in a standard, in the RU. identifying subframe configuration information; generating a control message including multimedia broadcast multicast service single frequency network, MBSFN,-related information for a subframe, based on the identification; and transmitting the generated control message to a radio unit, RU, of the base station connected to the DU through a fronthaul interface, wherein the MBSFN-related information includes first information for indicating whether a normal cyclic prefix, CP, and an extended CP are mixed in the subframe or not and second information for indicating a number of one or more symbols using the normal CP in the subframe, and wherein the MBSFN-related information is used for zero padding, to match a length of the subframe defined in a standard, in the RU.