mhurhangee/patent-ind-claim-en huggingface dataset:
Decoder for decoding a coded signaling of a multi-tree structure prescribing a spatial multi-tree subdivision of a tree root block according to which the tree root block is recursively multi-partitioned into leaf blocks , the coded signaling comprising a sequence of flags associated with nodes of the multi-tree structure in a depth-first order , and each flag specifying whether an area of the tree root block corresponding to the node with which the respective flag is associated, is multi-partitioned, characterized in that the decoder being configured to sequentially entropy-decode the flags using probability estimation contexts which are the same for flags associated with nodes of the multi-tree structure lying within the same hierarchy level of the multi-tree structure, but different for nodes of the multi-tree structure lying within different hierarchy levels of the multitree structure, wherein the decoder is configured to decode signalings of multi-tree structures prescribing a spatial multi-tree subdivision of a plurality of tree root blocks which, in turn, are leaf blocks of another multi-tree sub-division of a greater two-dimensional portion, in a depth-first traversal order defined among the plurality of tree root blocks, and wherein the coding signalings of the multi-tree structures each comprise a sequence of flags associated with nodes of the respective multi-tree structure in depth-first traversal order, and each flag specifying whether an area of the respective tree root blocks corresponding to the node with which the respective flag is associated, is multi-partitioned, the decoder being configured to sequentially entropy-decode the flags using probability estimation contexts which are the same for flags associated with areas of the same size. the decoder being configured to sequentially entropy-decode the flags using probability estimation contexts which are the same for flags associated with nodes of the multi-tree structure lying within the same hierarchy level of the multi-tree structure, but different for nodes of the multi-tree structure lying within different hierarchy levels of the multitree structure, wherein the decoder is configured to decode signalings of multi-tree structures prescribing a spatial multi-tree subdivision of a plurality of tree root blocks which, in turn, are leaf blocks of another multi-tree sub-division of a greater two-dimensional portion, in a depth-first traversal order defined among the plurality of tree root blocks, and wherein the coding signalings of the multi-tree structures each comprise a sequence of flags associated with nodes of the respective multi-tree structure in depth-first traversal order, and each flag specifying whether an area of the respective tree root blocks corresponding to the node with which the respective flag is associated, is multi-partitioned, the decoder being configured to sequentially entropy-decode the flags using probability estimation contexts which are the same for flags associated with areas of the same size.
A contact-less priming system for loading a solution in a microfluidic device comprising: - at least one microfluidic device comprising at least one first port , at least one second port , at least one stopper disposed on the at least one second port so as to close the second port and at least one network of microchannels filled with a carrier fluid, wherein each of said at least one first and second ports are fluidly connected to said at least one network of microchannels and wherein said at least one first port is suitable for containing at least one solution; - a pressure chamber with at least one closable, gas tight aperture, configured to enclose said at least one microfluidic device; and - a pressurization unit fluidly connected to the pressure chamber for applying pressure in the pressure chamber and upon the at least one first port . - at least one microfluidic device comprising at least one first port , at least one second port , at least one stopper disposed on the at least one second port so as to close the second port and at least one network of microchannels filled with a carrier fluid, wherein each of said at least one first and second ports are fluidly connected to said at least one network of microchannels and wherein said at least one first port is suitable for containing at least one solution; - a pressure chamber with at least one closable, gas tight aperture, configured to enclose said at least one microfluidic device; and - a pressurization unit fluidly connected to the pressure chamber for applying pressure in the pressure chamber and upon the at least one first port .
Electromechanical bidirectional emergency stop device for a lift comprising a support plate on which retention means are mounted such that, once deactivated, they cause the displacement of intermediate transmission means of the displacement and which, in turn, produces the articulation of two articulated levers that at their free ends each have a roller attached by means of a roller cam , whereby - each articulated lever rotates with respect to one of its ends by means of an articulated joint (5.1), whereas the roller cam is attached to it at the opposite end, which is in turn attached to the roller , which runs through a channel , characterized in that - said roller is a grooved roller ; - said channel is a curved channel ; and - the intermediate transmission means comprise a linearly movable carriage connected with the mobile end of the retention means, where, in turn, the linearly movable carriage - is connected in an articulated manner to an articulated carriage , which is responsible for transmission of the displacement to the articulated levers by means of transmission connecting rods , which are joined in an articulated manner at a middle point with the articulated levers . - each articulated lever rotates with respect to one of its ends by means of an articulated joint (5.1), whereas the roller cam is attached to it at the opposite end, which is in turn attached to the roller , which runs through a channel , characterized in that - said roller is a grooved roller ; - said channel is a curved channel ; and - the intermediate transmission means comprise a linearly movable carriage connected with the mobile end of the retention means, where, in turn, the linearly movable carriage - is connected in an articulated manner to an articulated carriage , which is responsible for transmission of the displacement to the articulated levers by means of transmission connecting rods , which are joined in an articulated manner at a middle point with the articulated levers .
Method for predicting the methane (CH 4 ) emission of a dairy cow comprising: a) determining the total amount of milk of a dairy cow per one day; b) determining the energy corrected milk value (ECM) of the milk of the dairy cow of the same day as in a); c) determining the weight percentage amount of saturated fatty acids (SFAs) of the total milk fat of the milk of the dairy cow of the same day as in a) and the weight percentage amount of stearic acid (C18:0) of the total milk fat of the dairy cow of the same day as in a); d) calculating the daily amount of methane emitted by the dairy cow based on the ECM as determined according to b), the weight percentage amount of SFAs of the total milk fat as determined according to c) and the weight percentage amount of C18:0 of the total milk fat as determined according to c). a) determining the total amount of milk of a dairy cow per one day; b) determining the energy corrected milk value (ECM) of the milk of the dairy cow of the same day as in a); c) determining the weight percentage amount of saturated fatty acids (SFAs) of the total milk fat of the milk of the dairy cow of the same day as in a) and the weight percentage amount of stearic acid (C18:0) of the total milk fat of the dairy cow of the same day as in a); d) calculating the daily amount of methane emitted by the dairy cow based on the ECM as determined according to b), the weight percentage amount of SFAs of the total milk fat as determined according to c) and the weight percentage amount of C18:0 of the total milk fat as determined according to c).
A method for monitoring an SCR injection system including a pump and a reductant injector , the method including: operating the pump ; measuring a first pressure drop value in the SCR injection system during actuation of the reductant injector during a purging operation of the SCR injection system , in which the SCR injection system is purged wherein the pump is operated to pump a fluid from the reductant injector to a reductant tank ; measuring a second pressure drop value in the SCR injection system during a further actuation of the reductant injector during a second purging operation later than the first purging operation; determining to perform a deposit mitigation strategy for reducing deposits at the outlet of the reductant injector based on the first pressure drop value and the second pressure drop value; determining that the first pressure drop value is within a preset acceptable pressure range; and/or determining that the second pressure drop value is within a present acceptable pressure range, wherein the first purging operation and the second purging operation are separated by a shutdown and restart, or a stop-start of the SCR injection system , particularly a shutdown and a restart of the internal combustion engine . operating the pump ; measuring a first pressure drop value in the SCR injection system during actuation of the reductant injector during a purging operation of the SCR injection system , in which the SCR injection system is purged wherein the pump is operated to pump a fluid from the reductant injector to a reductant tank ; measuring a second pressure drop value in the SCR injection system during a further actuation of the reductant injector during a second purging operation later than the first purging operation; determining to perform a deposit mitigation strategy for reducing deposits at the outlet of the reductant injector based on the first pressure drop value and the second pressure drop value; determining that the first pressure drop value is within a preset acceptable pressure range; and/or determining that the second pressure drop value is within a present acceptable pressure range, wherein the first purging operation and the second purging operation are separated by a shutdown and restart, or a stop-start of the SCR injection system , particularly a shutdown and a restart of the internal combustion engine .
An antisense oligonucleotide which binds a 'C terminus of HSP70-Interacting Protein' (CHIP) natural antisense transcript for use as a therapeutic compound, wherein said oligonucleotide increases the expression of human 'C terminus of HSP70-Interacting Protein' (CHIP) having SEQ ID NO: 1, wherein the natural antisense transcript has the nucleic acid sequence as set forth in any one of SEQ ID NOs: 2-3, and wherein the oligonucleotide is between 12 to 30 nucleotides in length.
Hydraulic system for an automatic transmission, in particular dual clutch transmissions, of a motor vehicle, with which hydraulic cylinders of at least one clutch (K1, K2) and of gear selectors (G1 to G4) can be actuated, which hydraulic system has a pressure accumulator for providing an accumulator pressure (p s ) in the hydraulic system, wherein a clutch valve that can be controlled by the control unit is arranged in a clutch path leading from the pressure accumulator to the clutch hydraulic cylinder , with which clutch valve a hydraulic pressure at the clutch hydraulic cylinder can be adjusted, and a gear selector valve that can be controlled by an electronic control unit is arranged in at least one gear selector path leading from the pressure accumulator to the gear selector hydraulic cylinder , with which gear selector valve the hydraulic pressure at the gear selector hydraulic cylinder can be adjusted, wherein a pressure sensor is assigned to said control unit , with which the hydraulic pressure at the clutch hydraulic cylinder can be detected, and comprising a charging hydraulic pump , which conveys hydraulic fluid into the hydraulic system in a charging process, in order to increase the actual accumulator pressure (p s ), characterised in that the control unit has a diagnosis module , with which a diagnosis of the gear selector path can be carried out, wherein the diagnosis module checks a leakage behaviour in the gear selector path using the pressure sensor arranged in the clutch path and identifies a fault, which can be stored in a gear selector path fault log , that, for the gear selector path diagnosis, the diagnosis module opens the clutch valve arranged in the clutch path , in order to detect an actual accumulator pressure curve (p s (t)) with the pressure sensor , and creates a pressure connection between the gear selector valve arranged in the gear selector path and the pressure sensor , in particular by opening a pressure control valve , and that, in order to carry out the gear selector path diagnosis, a diagnosis charging operation takes place, in which the actual accumulator pressure (p s (t)) is increased to an upper threshold (p max ) at an end time (toff), and that the pressure sensor detects a pressure gradient (P K+G ) of the accumulator pressure curve (p s (t)) after the end (t off ) of the diagnosis charging operation, and that an evaluation unit compares the pressure gradient (P K+G ) of the accumulator pressure curve (p s (t)) with a reference pressure gradient (P ref ) and assesses whether there is a faultless or faulty pressure drop and/or gear selector leakage in the accumulator pressure curve (p s (t)).
A bogey undercarriage (2; 102; 202) having at least two axles, each carrying at least two wheels, wherein at least one of the axles carries a "motor-driven wheel" (6A; 106A; 206A) fitted with a rotary drive device and no brake device, and a "braked" wheel (6B; 106B; 206B) fitted with a brake device and no drive device, the other wheels (6B; 106B; 206B) being braked wheels.
A luminaire comprising: a charging base comprising a base platform , a post , and branches , one edge of said post being integrated with or attached to said base platform , each branch having one edge integrated with or attached to said post and a second edge comprising a power connector , and a power cable connectable to an external power source and each power connector ; and a plurality of rechargeable illuminating personal ornaments , connected to the charging base , each having a shell , a light source attached to the shell , a rechargeable power source , located in the shell and connected to the light source , a corresponding power connector , defining an opening in the shell and coupled to the rechargeable power source , wherein the power connector of the charging base is coupled to each corresponding power connector of each rechargeable illuminating personal ornament . a charging base comprising a base platform , a post , and branches , one edge of said post being integrated with or attached to said base platform , each branch having one edge integrated with or attached to said post and a second edge comprising a power connector , and a power cable connectable to an external power source and each power connector ; and a plurality of rechargeable illuminating personal ornaments , connected to the charging base , each having a shell , a light source attached to the shell , a rechargeable power source , located in the shell and connected to the light source , a corresponding power connector , defining an opening in the shell and coupled to the rechargeable power source , wherein the power connector of the charging base is coupled to each corresponding power connector of each rechargeable illuminating personal ornament .
A fiber guide, comprising a fiber contact surface that has an Rmr20 of 15% or lower, and an Rmr50 of 60% or higher, where the Rmr20 is a 20% cut level load length ratio and the Rmr50 is a 50% cut level load length ratio as calculated from a roughness curve.
A hydrogen spillover-based catalyst, comprising: crystalline or amorphous aluminosilicate formed by partial or full structural collapse of zeolite having a silica/alumina molar ratio of 2 or less, and a hydrogen activation metal (M) cluster encapsulated in the aluminosilicate, wherein the catalyst is obtainable by (a) providing zeolite containing a hydrogen activation metal (M) cluster therein and having a silica/alumina molar ratio of 2 or less, wherein the zeolite is P-type zeolite, A-type zeolite or X-type zeolite; (b) ion-exchanging the zeolite with an ammonium ion (NH 4 + ); and (c) thermally treating the ion-exchanged zeolite to thus partially or fully collapse a zeolite framework so that the hydrogen activation metal cluster is encapsulated in crystalline or amorphous aluminosilicate; wherein changes in hydrogen and carbon monoxide chemisorption amounts depending on a temperature satisfy the following relation: 0.7 ∗ H / M 373 + H / M 473 + H / M 573 / 3 > CO / M 373 + CO / M 473 + CO / M 573 / 3 wherein H/M is a chemisorption amount (mol) of a hydrogen atom per total mol of M, CO/M is a chemisorption amount (mol) of carbon monoxide per total mol of M, and subscripts represent adsorption temperatures (K), and wherein HZM 323 is 0-0.3, wherein H/M and CO/M are determined according to the protocol described in Example 1. crystalline or amorphous aluminosilicate formed by partial or full structural collapse of zeolite having a silica/alumina molar ratio of 2 or less, and a hydrogen activation metal (M) cluster encapsulated in the aluminosilicate, wherein the catalyst is obtainable by (a) providing zeolite containing a hydrogen activation metal (M) cluster therein and having a silica/alumina molar ratio of 2 or less, wherein the zeolite is P-type zeolite, A-type zeolite or X-type zeolite; (b) ion-exchanging the zeolite with an ammonium ion (NH 4 + ); and (c) thermally treating the ion-exchanged zeolite to thus partially or fully collapse a zeolite framework so that the hydrogen activation metal cluster is encapsulated in crystalline or amorphous aluminosilicate; (a) providing zeolite containing a hydrogen activation metal (M) cluster therein and having a silica/alumina molar ratio of 2 or less, wherein the zeolite is P-type zeolite, A-type zeolite or X-type zeolite; (b) ion-exchanging the zeolite with an ammonium ion (NH 4 + ); and (c) thermally treating the ion-exchanged zeolite to thus partially or fully collapse a zeolite framework so that the hydrogen activation metal cluster is encapsulated in crystalline or amorphous aluminosilicate; wherein changes in hydrogen and carbon monoxide chemisorption amounts depending on a temperature satisfy the following relation: 0.7 ∗ H / M 373 + H / M 473 + H / M 573 / 3 > CO / M 373 + CO / M 473 + CO / M 573 / 3 wherein H/M is a chemisorption amount (mol) of a hydrogen atom per total mol of M, CO/M is a chemisorption amount (mol) of carbon monoxide per total mol of M, and subscripts represent adsorption temperatures (K), and wherein HZM 323 is 0-0.3, wherein H/M and CO/M are determined according to the protocol described in Example 1.
An electric heater for a fluid, comprising a heating chamber which is enclosed by a substantially cylindrical wall and into which the fluid enters through a supply port and exits through a discharge port , and in which there is a heating body with a jacket tube , inside which extends a heating wire helix , both ends of which are connectable to a source of electrical heating energy, wherein the jacket tube comprises a helical coil section arranged so that its longitudinal axis coincides with the central axis of the cylindrical wall of the heating chamber , wherein a helical bead is formed in the cylindrical wall of the heating chamber , extending in the axial direction and concave towards the interior of the heating chamber , which bead has the same pitch and the same winding sense as the helical section of the jacket tube directly adjacent thereto, characterized in that the bead has a part-circular cross-section perpendicular to its helically extending longitudinal direction, which is open towards the interior of the heating chamber , and that between the outside of the helical section and the wall of the heating chamber there is a helical flow clearance with an approximately constant clear width. wherein a helical bead is formed in the cylindrical wall of the heating chamber , extending in the axial direction and concave towards the interior of the heating chamber , which bead has the same pitch and the same winding sense as the helical section of the jacket tube directly adjacent thereto, characterized in that the bead has a part-circular cross-section perpendicular to its helically extending longitudinal direction, which is open towards the interior of the heating chamber , and that between the outside of the helical section and the wall of the heating chamber there is a helical flow clearance with an approximately constant clear width.
A measuring system for measuring a high frequency signal , comprising: - an antenna module , adapted for receiving the high frequency signal , - a detector module , adapted for deriving a measuring signal from the high frequency signal , and - a sensor module , adapted for measuring the measuring signal , wherein the sensor module is arranged in a housing , wherein the detector module is not arranged in the housing , wherein the detector module is connected to the sensor module by a first cable , adapted to transmit the measuring signal from the detector module to the sensor module , characterized in that the detector module comprises a chopper , adapted to modulate a signal derived from the high frequency signal , resulting in a signal the measuring signal is derived from. - an antenna module , adapted for receiving the high frequency signal , - a detector module , adapted for deriving a measuring signal from the high frequency signal , and - a sensor module , adapted for measuring the measuring signal , wherein the sensor module is arranged in a housing , wherein the detector module is not arranged in the housing , wherein the detector module is connected to the sensor module by a first cable , adapted to transmit the measuring signal from the detector module to the sensor module , characterized in that the detector module comprises a chopper , adapted to modulate a signal derived from the high frequency signal , resulting in a signal the measuring signal is derived from. wherein the sensor module is arranged in a housing , wherein the detector module is not arranged in the housing , wherein the detector module is connected to the sensor module by a first cable , adapted to transmit the measuring signal from the detector module to the sensor module , characterized in that the detector module comprises a chopper , adapted to modulate a signal derived from the high frequency signal , resulting in a signal the measuring signal is derived from.