mhurhangee/ep-ind-claims huggingface dataset:
Method of charging a hydro-pneumatic energy storage system, the system comprising a first hydro-pneumatic accumulator comprising a first hollow vessel and, disposed within the first hollow vessel, a first compressible volume containing a first amount of gas, and the system comprising a second hydro-pneumatic accumulator comprising a second hollow vessel and, disposed within the second hollow vessel, a second compressible volume containing a second amount of gas, the method comprising the steps of: pre-pressurizing the gas contained in the first compressible volume to a first hydrostatic pre-charge pressure and pre-pressurizing the gas contained in the second compressible volume to a second hydrostatic pre-charge pressure, the second pre-charge pressure being higher than the first pre-charge pressure; pressurizing the gas in the first compressible volume by discharging a non-compressible hydraulic fluid into the first vessel while keeping a quantity of non-compressible hydraulic fluid contained in the second vessel constant to keep the pressure of the gas contained in the second compressible volume at the second pre-charge pressure; and, when the pressure of the gas in the first compressible volume reaches the second pre-charge pressure, pressurizing the gas in the second compressible volume by discharging a non-compressible hydraulic fluid into the second vessel. pre-pressurizing the gas contained in the first compressible volume to a first hydrostatic pre-charge pressure and pre-pressurizing the gas contained in the second compressible volume to a second hydrostatic pre-charge pressure, the second pre-charge pressure being higher than the first pre-charge pressure; pressurizing the gas in the first compressible volume by discharging a non-compressible hydraulic fluid into the first vessel while keeping a quantity of non-compressible hydraulic fluid contained in the second vessel constant to keep the pressure of the gas contained in the second compressible volume at the second pre-charge pressure; and, when the pressure of the gas in the first compressible volume reaches the second pre-charge pressure, pressurizing the gas in the second compressible volume by discharging a non-compressible hydraulic fluid into the second vessel.
A drive control method comprising recognizing lane markings (K1, K2) of a lane in which a subject vehicle is running and controlling a drive control amount of the subject vehicle so that the subject vehicle may take a prescribed position with respect to the lane markings of the lane, characterized in that: a judging unit is equipped, configured to judge if a lateral position of one of the lane markings along which the subject vehicle is running moves in a different direction from a lateral position of the other lane marking, thereby judging if a lane width ahead of the subject vehicle changes; and the drive control amount is reduced (S113, S121) to a reduced control amount other than zero when it is judged (S107: NO) that the lane width changes, smaller than when it is judged that lateral positions of both the lane markings move in the same direction (S107: YES), thereby judging that the lane ahead of the subject vehicle curves. a judging unit is equipped, configured to judge if a lateral position of one of the lane markings along which the subject vehicle is running moves in a different direction from a lateral position of the other lane marking, thereby judging if a lane width ahead of the subject vehicle changes; and the drive control amount is reduced (S113, S121) to a reduced control amount other than zero when it is judged (S107: NO) that the lane width changes, smaller than when it is judged that lateral positions of both the lane markings move in the same direction (S107: YES), thereby judging that the lane ahead of the subject vehicle curves.
Boat drive having an upper drive part arranged inside a hull of the boat and a pivotable lower drive part arranged outside the hull of the boat, wherein the boat drive can be led through a bottom opening in the hull of the boat, thereby forming an annular gap circumferentially surrounding the boat drive, and wherein a seal assembly is arranged in the region of the annular gap, characterized in that the seal assembly is designed as a sliding seal, and in that the boat drive can be secured in the hull of the boat by flexible securing elements arranged on the upper drive part.
A modular element (4; 4'; 4"; 4"') of a cutting support (2; 2') with suction in a machine for automatic cutting of sheet material by means of blades, comprising a plurality of bristles (6; 6'; 6"; 6a-6b) arranged in the same single line (L1; L2), at least some bristles each having a base (8; 8'; 8") rigidly connected to a bearing plate intended to be mounted on a support, a head (12; 12'; 12"; 12a-12b) opposite the base on which a sheet material to be cut is intended to rest, and a stem (9; 9'; 9") connecting the head to the base, the largest cross-section of which is strictly included in the largest cross-section of the head, the bearing plate comprising, on each of its side surfaces (10a, 10b), a plurality of transverse channels (18; 18') for the passage of suction air providing communication between an upper surface of the bearing plate from which the bristles extend and an inner surface opposite the upper surface.
A method for evaluating an earth formation intersected by a borehole, the method comprising: conveying a tool on a carrier in the borehole, the tool comprising a conducting tubular having a transmitter, a first receiver, and a second receiver disposed thereon in a spaced-apart relationship; inducing a current in the earth formation using the transmitter; measuring with the first receiver a first time-dependent transient electromagnetic signal induced by the formation; measuring with a second receiver a second time-dependent TEM signal induced by the formation; and using at least one processor to estimate a corrected time-dependent TEM signal using the first time-dependent TEM signal, the second time-dependent TEM signal, and a correction coefficient estimated as a function of a ratio of distances r b and r m, wherein r b is a distance between the transmitter and the first receiver, and wherein r m is a distance between the transmitter and the second receiver characterized in that: the ratio of distances r b and r m is non-exponentiated, whereby non-exponentiated means raised to a power of 1. conveying a tool on a carrier in the borehole, the tool comprising a conducting tubular having a transmitter, a first receiver, and a second receiver disposed thereon in a spaced-apart relationship; inducing a current in the earth formation using the transmitter; measuring with the first receiver a first time-dependent transient electromagnetic signal induced by the formation; measuring with a second receiver a second time-dependent TEM signal induced by the formation; and using at least one processor to estimate a corrected time-dependent TEM signal using the first time-dependent TEM signal, the second time-dependent TEM signal, and a correction coefficient estimated as a function of a ratio of distances r b and r m, wherein r b is a distance between the transmitter and the first receiver, and wherein r m is a distance between the transmitter and the second receiver
An analyte sensor comprising: a) a molecular recognition motif that binds an analyte; and b) a single optically-active fluorescent host protein in which the molecular recognition motif is operatively linked to or integrated therein, and wherein the interaction of the analyte to the molecular recognition motif produces a detectable change, wherein the molecular recognition motif and the optically-active fluorescent host protein are selected from: SEQ ID NOS: 1 to 99. a) a molecular recognition motif that binds an analyte; and b) a single optically-active fluorescent host protein in which the molecular recognition motif is operatively linked to or integrated therein, and wherein the interaction of the analyte to the molecular recognition motif produces a detectable change, wherein the molecular recognition motif and the optically-active fluorescent host protein are selected from: SEQ ID NOS: 1 to 99.
A body side member of an ostomy appliance, comprising: a proximal surface and a distal surface, at least a portion of the proximal surface comprising an adhesive; wherein at least a centre portion of the body side member is prepared for provision of a stoma receiving opening extending through the body side member; wherein the distal surface of the body side member is configured to comprise one or more pockets, each of the one or more pocket(s) configured to contain a manipulable material and to allow the manipulable material to be shifted between at least a first position and a second position inside the pocket, at least in use of the body side member around a stoma of a user; and wherein the distal surface of the body side member comprises a layer of a sheet material characterized in that the layer of sheet material is dissolvable when subjected to water or a water containing fluid, such as aggressive stomal fluids or mucus emanating or secreting from the mucous membrane of the stoma a proximal surface and a distal surface, at least a portion of the proximal surface comprising an adhesive; wherein at least a centre portion of the body side member is prepared for provision of a stoma receiving opening extending through the body side member; wherein the distal surface of the body side member is configured to comprise one or more pockets, each of the one or more pocket(s) configured to contain a manipulable material and to allow the manipulable material to be shifted between at least a first position and a second position inside the pocket, at least in use of the body side member around a stoma of a user; and wherein the distal surface of the body side member comprises a layer of a sheet material characterized in that the layer of sheet material is dissolvable when subjected to water or a water containing fluid, such as aggressive stomal fluids or mucus emanating or secreting from the mucous membrane of the stoma
A vehicle seat apparatus (1,21,31) comprising: a seat frame; a seat unit; a seat backrest arranged on a rear side of the seat unit; and seat unit supporting means for supporting the seat unit; wherein: the seat unit supporting means includes a thrust bearing fixed to the seat frame and a thrust shaft fixed to the seat unit and rotatably connected to the thrust bearing, the seat unit supporting means thereby rotatably supporting the seat unit in a roll direction and a yaw direction of a vehicle around a rotation axis coincident with a rotation axis of the thrust shaft; a right side and a left side of the seat unit are relatively movable in a vertical direction of the vehicle seat apparatus; and the rotation axis of the seat unit using the seat unit supporting unit is set so that a rear side is higher than a front side in the longitudinal direction of the vehicle seat apparatus. a seat frame; a seat unit; a seat backrest arranged on a rear side of the seat unit; and seat unit supporting means for supporting the seat unit; the seat unit supporting means includes a thrust bearing fixed to the seat frame and a thrust shaft fixed to the seat unit and rotatably connected to the thrust bearing, the seat unit supporting means thereby rotatably supporting the seat unit in a roll direction and a yaw direction of a vehicle around a rotation axis coincident with a rotation axis of the thrust shaft; a right side and a left side of the seat unit are relatively movable in a vertical direction of the vehicle seat apparatus; and the rotation axis of the seat unit using the seat unit supporting unit is set so that a rear side is higher than a front side in the longitudinal direction of the vehicle seat apparatus.
A method for producing an electrical storage device (100, 100a, 200a, 300a) comprising: winding a positive electrode that includes a positive electrode active material layer and a positive electrode current collector, a negative electrode that includes a negative electrode active material layer and a negative electrode current collector, and a lithium ion source to form a wound element that has a flat part and a curved part, the lithium ion source including a plurality of parts (32, 34) that are arranged in a winding direction through a gap, the wound element being formed so that the gap is situated in the curved part, and a length S of the gap, and a length L of a part of the lithium ion source situated in the curved part in which the gap is formed, satisfying a relationship "3/10≤S/(S+L)≤7/10" in a state in which the wound element is extended. winding a positive electrode that includes a positive electrode active material layer and a positive electrode current collector, a negative electrode that includes a negative electrode active material layer and a negative electrode current collector, and a lithium ion source to form a wound element that has a flat part and a curved part, the lithium ion source including a plurality of parts (32, 34) that are arranged in a winding direction through a gap, the wound element being formed so that the gap is situated in the curved part, and a length S of the gap, and a length L of a part of the lithium ion source situated in the curved part in which the gap is formed, satisfying a relationship "3/10≤S/(S+L)≤7/10" in a state in which the wound element is extended.
An electrolyte solution comprising: (i) a solvent containing - a fluorine-containing compound of the formula Rf 1 OCOOR wherein Rf 1 is C 1-4 -fluoroalkyl, and R is non-fluorinated C 1-4 -alkyl; and - a fluorine-containing compound of the formula Rf 2 OCOORf 3 wherein Rf 2 and Rf 3 each independently is C 1-4 -fluoroalkyl; (ii) an electrolyte salt; and (iii) 0.5-70 ppm of HF. (i) a solvent containing - a fluorine-containing compound of the formula Rf 1 OCOOR wherein Rf 1 is C 1-4 -fluoroalkyl, and R is non-fluorinated C 1-4 -alkyl; and - a fluorine-containing compound of the formula Rf 2 OCOORf 3 wherein Rf 2 and Rf 3 each independently is C 1-4 -fluoroalkyl; - a fluorine-containing compound of the formula Rf 1 OCOOR wherein Rf 1 is C 1-4 -fluoroalkyl, and R is non-fluorinated C 1-4 -alkyl; and - a fluorine-containing compound of the formula Rf 2 OCOORf 3 wherein Rf 2 and Rf 3 each independently is C 1-4 -fluoroalkyl; (ii) an electrolyte salt; and (iii) 0.5-70 ppm of HF.
A process for the selective detection of low molecular weight molecules from a sample comprising the steps of (a) placing said sample with SBA-15 particles; (b) modifying said SBA-15 and/or said sample with a chemical or physical agent that introduces positive charges to low molecular weight analytes to improve their selective mass spectrometric analysis, wherein the chemical or physical agent is a charge modifier selected from lithium salts; and (c) subjecting the same to desorption ionization mass spectrometry, wherein low molecular weight molecules are selectively detected over the higher molecular weight molecules. (a) placing said sample with SBA-15 particles; (b) modifying said SBA-15 and/or said sample with a chemical or physical agent that introduces positive charges to low molecular weight analytes to improve their selective mass spectrometric analysis, wherein the chemical or physical agent is a charge modifier selected from lithium salts; and (c) subjecting the same to desorption ionization mass spectrometry,
A method for communicating data in a computer network, comprising: communicating data on said computer network from a first computing device to a second computing device, said data specifying a plurality of identity parameters associated with at least one of said first and second computing devices; dynamically modifying at a first location in said computer network a plurality of true values, which correctly represent said plurality of identify parameters, to transform said true values to a plurality of false values, which incorrectly represent said plurality of identity parameters; dynamically modifying said plurality of identity parameters in said data communication at a second location in said computer network to transform said plurality of false values back to said true values; characterized in that it further comprises a step of dynamically varying a position of at least one of said first and second locations within the computer network. communicating data on said computer network from a first computing device to a second computing device, said data specifying a plurality of identity parameters associated with at least one of said first and second computing devices; dynamically modifying at a first location in said computer network a plurality of true values, which correctly represent said plurality of identify parameters, to transform said true values to a plurality of false values, which incorrectly represent said plurality of identity parameters; dynamically modifying said plurality of identity parameters in said data communication at a second location in said computer network to transform said plurality of false values back to said true values; characterized in that it further comprises a step of dynamically varying a position of at least one of said first and second locations within the computer network. dynamically varying a position of at least one of said first and second locations within the computer network.
A method for manufacturing one or more 3D products in a single batch by additive manufacturing using a layer-by-layer technique, said method comprising the steps of; a) setting a first thickness (Tr) of a reference layer; b) setting a second thickness as a multiple of an integer and said first thickness (Tr) of said reference layer c) forming a first material layer having said second thickness; d) performing a binding action on said first material layer; wherein steps c) and d) are performed one or more times, thereby forming a first zone in said batch; and e) setting a third thickness, said third thickness being a multiple of an integer and said first thickness (Tr) of said reference layer; f) forming a second material layer having said third thickness; g) performing a binding action on said second material layer; wherein steps f) and g) are performed one or more times, thereby forming a second zone in said batch, said first zone and said second zone sharing a same X-Y plane; and wherein said material layer thickness of said second zone is different from said material layer thickness of said first zone, whereby a resolution of said second zone is different from a resolution of said first zone. a) setting a first thickness (Tr) of a reference layer; b) setting a second thickness as a multiple of an integer and said first thickness (Tr) of said reference layer c) forming a first material layer having said second thickness; d) performing a binding action on said first material layer; wherein steps c) and d) are performed one or more times, thereby forming a first zone in said batch; and e) setting a third thickness, said third thickness being a multiple of an integer and said first thickness (Tr) of said reference layer; f) forming a second material layer having said third thickness; g) performing a binding action on said second material layer;
A device, comprising, a receiver, which, in operation, receives assignment information indicating resource blocks, each of which being formed of consecutive subcarriers in a frequency domain, allocated to the device according to one of a plurality of resource allocations including: a resource allocation allocating Distributed Virtual Resource Blocks (DVRBs), where a pair of DVRBs assigned with a single resource block number are mapped to Physical Resource Blocks (PRBs) with a variable gap in the frequency domain, the variable gap is an integer multiple of a Resource Block Group size defined as a number of one or more consecutive resource blocks forming one RBG, and the variable gap is dependent on both a system bandwidth and the RBG size; and a resource allocation allocating one or more RBGs; and circuitry, which, in operation, decodes data based on the assignment information. a resource allocation allocating Distributed Virtual Resource Blocks (DVRBs), where a pair of DVRBs assigned with a single resource block number are mapped to Physical Resource Blocks (PRBs) with a variable gap in the frequency domain, the variable gap is an integer multiple of a Resource Block Group size defined as a number of one or more consecutive resource blocks forming one RBG, and the variable gap is dependent on both a system bandwidth and the RBG size; and a resource allocation allocating one or more RBGs; and circuitry, which, in operation, decodes data based on the assignment information.
A silicon carbide semiconductor device, comprising: a silicon carbide layer of a first conductivity type; a silicon carbide layer of a second conductivity type formed on the silicon carbide layer of the first conductivity type; a gate trench formed to extend from a surface of the silicon carbide layer of the second conductivity type to such a depth that the gate trench reaches the silicon carbide layer of the first conductivity type; a gate electrode provided in the gate trench with an insulating film interposed therebetween; protection trenches formed to extend from the surface of the silicon carbide layer of the second conductivity type to a depth greater than the depth of the gate trench; and a first conductive member provided in the protection trenches, wherein a cell region in a horizontal plane includes both the gate trench and a protection trench that surrounds only a part of the gate trench in the horizontal plane, and a gate region in the horizontal plane includes a protection trench and in which a gate pad or a lead electrode connected to the gate pad is disposed, a second conductive member is provided above the gate trench in the cell region and in the gate region, wherein the second conductive member is disposed in an area other than above the protection trench disposed in the cell region and is disposed to extend from above the gate trench in the cell region to the gate region through a part of the cell region in which the protection trench is not provided. a silicon carbide layer of a first conductivity type; a silicon carbide layer of a second conductivity type formed on the silicon carbide layer of the first conductivity type; a gate trench formed to extend from a surface of the silicon carbide layer of the second conductivity type to such a depth that the gate trench reaches the silicon carbide layer of the first conductivity type; a gate electrode provided in the gate trench with an insulating film interposed therebetween; protection trenches formed to extend from the surface of the silicon carbide layer of the second conductivity type to a depth greater than the depth of the gate trench; and a first conductive member provided in the protection trenches, wherein a cell region in a horizontal plane includes both the gate trench and a protection trench that surrounds only a part of the gate trench in the horizontal plane, and a gate region in the horizontal plane includes a protection trench and in which a gate pad or a lead electrode connected to the gate pad is disposed, a second conductive member is provided above the gate trench in the cell region and in the gate region, wherein the second conductive member is disposed in an area other than above the protection trench disposed in the cell region and is disposed to extend from above the gate trench in the cell region to the gate region through a part of the cell region in which the protection trench is not provided.