mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a logical processor to execute one or more threads in a first mode; and a synchronous microthreading SyMT co-processor coupled to the logical processor to execute a plurality of microthreads (uT0,..., uTN), with each microthread having an independent register state, upon an execution of an instruction to enter into SyMT mode, wherein the SyMT co-processor is further to support a soft-barrier hint instruction, which when processed by a microthread is to pause execution of the microthread to be resumed based at least in part on a data structure having at least one entry, the entry to include an instruction pointer of the soft-barrier hint instruction and a count of microthreads that have encountered the soft-barrier hint instruction at the instruction pointer; wherein each of the plurality of microthreads executes common code; a decode circuitry is to process the soft-barrier hint instruction, the decode circuitry is to use a finite state machine FSM upon a first processing of the soft-barrier hint instruction; and an execution of a paused microthread is to be resumed based at least in part on a timeout expiring; wherein the execution of the paused microthread is further to be resumed based at least in part on the count reaching a threshold count. a logical processor to execute one or more threads in a first mode; and a synchronous microthreading SyMT co-processor coupled to the logical processor to execute a plurality of microthreads (uT0,..., uTN), with each microthread having an independent register state, upon an execution of an instruction to enter into SyMT mode, wherein the SyMT co-processor is further to support a soft-barrier hint instruction, which when processed by a microthread is to pause execution of the microthread to be resumed based at least in part on a data structure having at least one entry, the entry to include an instruction pointer of the soft-barrier hint instruction and a count of microthreads that have encountered the soft-barrier hint instruction at the instruction pointer; wherein each of the plurality of microthreads executes common code; a decode circuitry is to process the soft-barrier hint instruction, the decode circuitry is to use a finite state machine FSM upon a first processing of the soft-barrier hint instruction; and an execution of a paused microthread is to be resumed based at least in part on a timeout expiring; wherein the execution of the paused microthread is further to be resumed based at least in part on the count reaching a threshold count.
A method to detect biomarkers associated with Head and Neck Squamous Cell Carcinoma (HNSCC) in an individual comprising the steps of: measuring the amount of an expression product from at least the SH3BGRL2 gene in a sample obtained from the individual and identifying SH3BGRL2 as a biomarker.
A method for operating an elevator system, the method comprising: - receiving a request to drive an elevator car to a destination, and - generating an elevator car motion profile (402, 404) to serve the received request, the elevator car motion profile (402, 404) comprising at least the following motion parameters of the elevator car: acceleration, maximum rated speed, and deceleration, wherein at least one of the maximum rated speed of the elevator car and the deceleration of the elevator car in the generated elevator car motion profile (402, 404) is defined on the basis of the destination, characterised in that if the destination is an extreme destination, the maximum rated speed and/or the maximum deceleration of the elevator car in the generated elevator car motion profile (402, 404) is lower than the maximum rated speed and/or the maximum deceleration of the elevator car in the generated elevator car motion profile (402, 404), if the destination is any other destination than the extreme destination. - receiving a request to drive an elevator car to a destination, and - generating an elevator car motion profile (402, 404) to serve the received request, the elevator car motion profile (402, 404) comprising at least the following motion parameters of the elevator car: acceleration, maximum rated speed, and deceleration, wherein at least one of the maximum rated speed of the elevator car and the deceleration of the elevator car in the generated elevator car motion profile (402, 404) is defined on the basis of the destination, characterised in that if the destination is an extreme destination, the maximum rated speed and/or the maximum deceleration of the elevator car in the generated elevator car motion profile (402, 404) is lower than the maximum rated speed and/or the maximum deceleration of the elevator car in the generated elevator car motion profile (402, 404), if the destination is any other destination than the extreme destination. wherein at least one of the maximum rated speed of the elevator car and the deceleration of the elevator car in the generated elevator car motion profile (402, 404) is defined on the basis of the destination, characterised in that if the destination is an extreme destination, the maximum rated speed and/or the maximum deceleration of the elevator car in the generated elevator car motion profile (402, 404) is lower than the maximum rated speed and/or the maximum deceleration of the elevator car in the generated elevator car motion profile (402, 404), if the destination is any other destination than the extreme destination.
A cosmetic composition in the form of an emulsion, containing a) at least one oligomer of a flavan-3-ol compound and b) at least one compound comprising at least one structure fragment of formula in which a compound bond indicated by a * represents a free valency of the structure fragment of the compound and c) ginseng extract and d) at least one salt of C 12-20 alkyl phosphate, in particular a salt of cetyl phosphate, and e) at least one C 14-20 monoglyceride or diglyceride, preferably at least one C 16-18 monoglyceride or diglyceride, particularly preferably selected from hydrogenated palm glycerides, and f) water, characterized in that the salts of C 12-20 alkyl phosphate and the C 14-20 monoglycerides and C 14-20 diglycerides are contained in a weight ratio of C 12-20 alkyl phosphate salt to said glyceride of from 3:1 to 1:1. a) at least one oligomer of a flavan-3-ol compound and b) at least one compound comprising at least one structure fragment of formula in which a compound bond indicated by a * represents a free valency of the structure fragment of the compound and c) ginseng extract and d) at least one salt of C 12-20 alkyl phosphate, in particular a salt of cetyl phosphate, and e) at least one C 14-20 monoglyceride or diglyceride, preferably at least one C 16-18 monoglyceride or diglyceride, particularly preferably selected from hydrogenated palm glycerides, and f) water, characterized in that the salts of C 12-20 alkyl phosphate and the C 14-20 monoglycerides and C 14-20 diglycerides are contained in a weight ratio of C 12-20 alkyl phosphate salt to said glyceride of from 3:1 to 1:1.
Multiple batch system for the preparation of a solution of calcium hydrogen carbonate, the multiple batch system comprising a) at least one dosing unit, b) a master batch line comprising in circular communication i) at least one gas dosing inlet, ii) at least one mixing unit provided with at least one inlet and at least one outlet, and iii) at least one tank provided with at least one inlet and at least one outlet, c) at least one slave batch line comprising in circular communication i) at least one gas dosing inlet, ii) at least one mixing unit provided with at least one inlet and at least one outlet, and iii) at least one tank provided with at least one inlet and at least one outlet, wherein the master batch line and the at least one slave batch line are independently connected to the at least one dosing unit, wherein the units being part of the master batch line are coupled with each other in a loop-like system, and the units being part of the at least one slave batch line are coupled with each other in a loop-like system, and wherein the at least one gas dosing inlet of the master batch line and/or the at least one slave batch line is located before the at least one mixing unit. a) at least one dosing unit, b) a master batch line comprising in circular communication i) at least one gas dosing inlet, ii) at least one mixing unit provided with at least one inlet and at least one outlet, and iii) at least one tank provided with at least one inlet and at least one outlet, i) at least one gas dosing inlet, ii) at least one mixing unit provided with at least one inlet and at least one outlet, and iii) at least one tank provided with at least one inlet and at least one outlet, c) at least one slave batch line comprising in circular communication i) at least one gas dosing inlet, ii) at least one mixing unit provided with at least one inlet and at least one outlet, and iii) at least one tank provided with at least one inlet and at least one outlet, i) at least one gas dosing inlet, ii) at least one mixing unit provided with at least one inlet and at least one outlet, and iii) at least one tank provided with at least one inlet and at least one outlet,
Channel framing comprising: an elongate body having first and second opposite longitudinal ends, and a length extending between the first and second opposite longitudinal ends (12, 14), the elongate body having an interior surface defining an interior extending along the length of the elongate body, and an exterior surface, the elongate body including a first side defining a continuous slot, wherein the continuous slot extends lengthwise of the elongate body and into the interior of the elongate body, and a second side generally opposite the first side, wherein exterior surface of the elongate body at the second side defines a fitting groove (26, 26') extending lengthwise of the elongate body, wherein the fitting groove (26, 26') is configured for receiving at least one type of fitting (150, 200, 250, 300, 400, 500, 502, 600) to secure the fitting to the elongate body, wherein the second side has opposing sidewalls extending inwardly toward the interior of the elongate body, and a bottom wall extending between and interconnecting the opposing sidewalls, wherein the fitting groove (26, 26') is defined by the exterior surface at the sidewalls and the bottom wall, wherein an internal rail is defined by the interior surface at the sidewalls and the bottom wall, characterized in that the opposing sidewalls of the second side flare away from one another toward the bottom wall to define a generally dovetail cross-sectional shape of the fitting groove (26, 26'). an elongate body having first and second opposite longitudinal ends, and a length extending between the first and second opposite longitudinal ends (12, 14), the elongate body having an interior surface defining an interior extending along the length of the elongate body, and an exterior surface, the elongate body including a first side defining a continuous slot, wherein the continuous slot extends lengthwise of the elongate body and into the interior of the elongate body, and a second side generally opposite the first side, wherein exterior surface of the elongate body at the second side defines a fitting groove (26, 26') extending lengthwise of the elongate body, wherein the fitting groove (26, 26') is configured for receiving at least one type of fitting (150, 200, 250, 300, 400, 500, 502, 600) to secure the fitting to the elongate body, wherein the second side has opposing sidewalls extending inwardly toward the interior of the elongate body, and a bottom wall extending between and interconnecting the opposing sidewalls, wherein the fitting groove (26, 26') is defined by the exterior surface at the sidewalls and the bottom wall, wherein an internal rail is defined by the interior surface at the sidewalls and the bottom wall, characterized in that the opposing sidewalls of the second side flare away from one another toward the bottom wall to define a generally dovetail cross-sectional shape of the fitting groove (26, 26').
A pre-doping agent for a power storage device comprising a lithium iron oxide represented by Formula, wherein in X-ray diffractometry, a half width of a diffraction peak at a diffraction angle (2θ) of 23.6±0.5° is 0.06 to 0.17°, and an intensity ratio (I44.6/I23.6) of a diffraction peak intensity (I44.6) at a diffraction angle (2θ) of 44.6±0.5° to a diffraction peak intensity (I23.6) at a diffraction angle (2θ) of 23.6±0.5° is less than 8%: LixFeOy wherein x meets 3.5≤x≤7.0 and y meets 3.1≤y≤5.0.
A nanocrystal composite comprising a) a plurality of nanocrystals comprising a core comprising a metal or a semiconductive compound or a mixture thereof and at least one ligand, wherein said core is surrounded by at least one ligand, b) a polymeric matrix, wherein said polymeric matrix is formed by polymerisation of at least one epoxy compound having a functionality from 2 to 4, a polythiol compound having a functionality from 2 to 10 and a polyisocyanate compound having a functionality from 2 to 4. a) a plurality of nanocrystals comprising a core comprising a metal or a semiconductive compound or a mixture thereof and at least one ligand, wherein said core is surrounded by at least one ligand, b) a polymeric matrix, wherein said polymeric matrix is formed by polymerisation of at least one epoxy compound having a functionality from 2 to 4, a polythiol compound having a functionality from 2 to 10 and a polyisocyanate compound having a functionality from 2 to 4.
A boat with at least a portion (3, 4) of the freeboard in the region of the stem of the boat arranged to be movable between a closed position, in which it seals a space inside a freeboard with respect to the exterior of the boat, and an open position, in which it provides an opening between the exterior of the boat and said space so as to enable to pick up objects from the water in which the boat floats through said opening, said freeboard portion (3, 4) being arranged to be displaceable along a floor of said space for moving the freeboard portion from the closed to the open position and by that gradually increasing the width of said opening, characterized in that said freeboard portion (3, 4) has a curved shape participating in the definition of the stem of the boat in the closed position and is configured to change shape and adapt its shape to and be displaced along and inside or outside a fixed part of the freeboard of the boat when displacing the freeboard portion from the closed to the open position.
A method for reducing dimer impurity formation in a solid state disulfide bridge-closed ring-bearing polypeptide composition, comprising: combining said polypeptide with a stabilizing amount of a divalent cationic material, and forming said solid state.
Packaging machine with a sealing device for sealing packages, wherein said sealing device comprises: an evacuation channel through which a package to be sealed can be evacuated prior to being sealed; a vacuum source being connected to said evacuation channel for generating a vacuum in said evacuation channel; and a restrictor provided in said evacuation channel and adjustable between a restricting position and a release position, wherein a flow cross-section of said evacuation channel is smaller in the restricting position than in the release position, characterized by a feedback unit with a preload element that preloads said restrictor toward said restricting position; and a feedback channel (28, 28') being in flow communication with said evacuation channel and configured to feed a vacuum existing in said evacuation channel to said feedback unit, wherein said feedback unit is configured such that the vacuum which is supplied to it by said feedback channel (28, 28') acts upon said restrictor against the preload of said preload element so that a change in the vacuum causes adjustment of said restrictor between the restricting position and the release position. an evacuation channel through which a package to be sealed can be evacuated prior to being sealed; a vacuum source being connected to said evacuation channel for generating a vacuum in said evacuation channel; and a restrictor provided in said evacuation channel and adjustable between a restricting position and a release position, wherein a flow cross-section of said evacuation channel is smaller in the restricting position than in the release position, characterized by a feedback unit with a preload element that preloads said restrictor toward said restricting position; and a feedback channel (28, 28') being in flow communication with said evacuation channel and configured to feed a vacuum existing in said evacuation channel to said feedback unit, wherein said feedback unit is configured such that the vacuum which is supplied to it by said feedback channel (28, 28') acts upon said restrictor against the preload of said preload element so that a change in the vacuum causes adjustment of said restrictor between the restricting position and the release position.
A method for communicating via a communication network comprising a first base station, a second base station and a communication terminal (203a-c), wherein the method comprises: provision and operation of a first sub-network of the communication network by means of a management entity, wherein during operation of the first sub-network of the communication network, the first base station is assigned to the first sub-network and is configured to allow the communication terminal (203a-c) to communicate via the first sub-network of the communication network; and in response to a change in state of the first base station, provision and operation of a second sub-network of the communication network by means of the management entity, wherein during operation of the second sub-network of the communication network, the second base station is assigned to the second sub-network and is configured to allow the communication terminal (203a-c) to communicate via the second sub-network of the communication network, wherein the method is characterized in that the first sub-network and the second sub-network are slices of the communication network which are logically uncoupled from one another. provision and operation of a first sub-network of the communication network by means of a management entity, wherein during operation of the first sub-network of the communication network, the first base station is assigned to the first sub-network and is configured to allow the communication terminal (203a-c) to communicate via the first sub-network of the communication network; and in response to a change in state of the first base station, provision and operation of a second sub-network of the communication network by means of the management entity, wherein during operation of the second sub-network of the communication network, the second base station is assigned to the second sub-network and is configured to allow the communication terminal (203a-c) to communicate via the second sub-network of the communication network, wherein the method is characterized in that the first sub-network and the second sub-network are slices of the communication network which are logically uncoupled from one another.
Packaging label comprising: - a flexible substrate; - a printed display above the substrate, the display comprising an electrically addressable layer of ink; - a printed control module above the substrate, in electrical contact with the display and arranged to control the operating of such display, the control module including a layer comprising ink mixed with dopants; - at least a printed photovoltaic module above the substrate and next to the display and arranged to supply the display and the control module, the photovoltaic module including a layer comprising ink mixed with dopants, characterised by further comprising an insulating layer placed above the display and on which the control module is placed, said insulating layer having a plurality of holes placed in correspondence of the display and arranged to allow the electric contact between said display and the control module. - a flexible substrate; - a printed display above the substrate, the display comprising an electrically addressable layer of ink; - a printed control module above the substrate, in electrical contact with the display and arranged to control the operating of such display, the control module including a layer comprising ink mixed with dopants; - at least a printed photovoltaic module above the substrate and next to the display and arranged to supply the display and the control module, the photovoltaic module including a layer comprising ink mixed with dopants, characterised by further comprising an insulating layer placed above the display and on which the control module is placed, said insulating layer having a plurality of holes placed in correspondence of the display and arranged to allow the electric contact between said display and the control module.
Exchanger (100, 200, 300) including: - substantially parallel and vertical membranes, permeable to vapor and impermeable to a liquid, said membranes delimiting zones, each of said zones belonging alternately to a first type of zone and to a second type of zone characterized in that - the zones of said first type includes in the upper portion a spray nozzle configured to spray a liquid along a plane substantially parallel to said membranes, and in the lower portion a first collector, independent and separated from the zones of the second type, - and in that a first pipe supplies the spray nozzles (20, 21) of the zones (Z20, Z21) of the first type with a liquid. - substantially parallel and vertical membranes, permeable to vapor and impermeable to a liquid, said membranes delimiting zones, each of said zones belonging alternately to a first type of zone and to a second type of zone characterized in that - the zones of said first type includes in the upper portion a spray nozzle configured to spray a liquid along a plane substantially parallel to said membranes, and in the lower portion a first collector, independent and separated from the zones of the second type, - and in that a first pipe supplies the spray nozzles (20, 21) of the zones (Z20, Z21) of the first type with a liquid.