mhurhangee/ep-ind-claims huggingface dataset:
A secondary battery, comprising an electrode assembly, a pouch, an electrode lead and an insulating tape; the electrode assembly being received in the pouch, the electrode lead being connected with the electrode assembly and extending to the outside of the pouch in a length direction; the electrode assembly comprising electrode plates and a separator, the separator separating the electrode plates; an outer surface of the electrode assembly comprising a first surface and a second surface, an area of the second surface being smaller than an area of the first surface; the first surface being provided as two in number, and the two first surfaces facing each other in a thickness direction; the second surface being provided as two in number, and the two second surfaces facing each other in a width direction, each second surface connecting two first surfaces; at least a part of the insulating tape being provided on the second surface; in the length direction, at least one end of the insulating tape exceeding the electrode plate, characterized in that the insulating tape comprises a first portion and a second portion, the second portion is bond on the second surface, the first portion is connected with an end portion of the second portion and bond on the first surface, in the width direction, an end portion of the first portion away from the second portion does not exceed a midline of the first surface, and and a dimension of the first portion in the width direction is larger than 2mm. the electrode assembly being received in the pouch, the electrode lead being connected with the electrode assembly and extending to the outside of the pouch in a length direction; the electrode assembly comprising electrode plates and a separator, the separator separating the electrode plates; an outer surface of the electrode assembly comprising a first surface and a second surface, an area of the second surface being smaller than an area of the first surface; the first surface being provided as two in number, and the two first surfaces facing each other in a thickness direction; the second surface being provided as two in number, and the two second surfaces facing each other in a width direction, each second surface connecting two first surfaces; at least a part of the insulating tape being provided on the second surface; in the length direction, at least one end of the insulating tape exceeding the electrode plate, characterized in that the insulating tape comprises a first portion and a second portion, the second portion is bond on the second surface, the first portion is connected with an end portion of the second portion and bond on the first surface, in the width direction, an end portion of the first portion away from the second portion does not exceed a midline of the first surface, and and a dimension of the first portion in the width direction is larger than 2mm.
Method for forming a 3D object, the method comprising the steps of: • selectively depositing layers of a building material by ejecting droplets of the building material; • depositing a support structure by depositing droplets of a support material, characterised in that the support material comprises an organic di-acid having a molecular weight of 300 g/mole or less and wherein the organic acid is a compound according to formula 1: HOC -(CH 2) x -C OH formula 1 wherein x is an integer from 1 to 15. • selectively depositing layers of a building material by ejecting droplets of the building material; • depositing a support structure by depositing droplets of a support material,
A header processing engine for a network interface device, the network interface device having a buffer for holding one or more data packets each having one or more headers, and the header processing engine comprising: a command memory; a header recognizer configured to parse the headers of a data packet stored at the buffer so as to identify the type and position of each header in the data packet; a constructor unit having read access to the headers of the data packet; and a processor including an execution pipeline; the header recognizer being further configured to, for each header: (a) select in dependence on the type of the header one or more commands stored at the command memory; and (b) form one or more messages for the constructor unit identifying the selected commands and the position of the header in the data packet; wherein the constructor unit is configured to receive the messages and execute the commands identified therein, characterised in that: the commands selected for the headers of the data packet are collectively such as to, when executed by the constructor unit, cause the constructor unit to construct a data structure (104, 105, 106) comprising data read by the constructor unit from the header of the data packet at the buffer, the header processing engine further comprising a controller configured to, once the constructor unit has finished constructing the data structure, queue the data structure to the processor, the processor being configured to effect processing of the headers of the data packet using the queued data structure without accessing the data packet at the buffer. a command memory; a header recognizer configured to parse the headers of a data packet stored at the buffer so as to identify the type and position of each header in the data packet; a constructor unit having read access to the headers of the data packet; and a processor including an execution pipeline; (a) select in dependence on the type of the header one or more commands stored at the command memory; and (b) form one or more messages for the constructor unit identifying the selected commands and the position of the header in the data packet; the commands selected for the headers of the data packet are collectively such as to, when executed by the constructor unit, cause the constructor unit to construct a data structure (104, 105, 106) comprising data read by the constructor unit from the header of the data packet at the buffer, the header processing engine further comprising a controller configured to, once the constructor unit has finished constructing the data structure, queue the data structure to the processor, the processor being configured to effect processing of the headers of the data packet using the queued data structure without accessing the data packet at the buffer.
Energy recovery or cogeneration plant comprising a turbine and implementing a Rankine cycle with an expansion of an organic working fluid provided by the passage of the working fluid through the turbine, the latter comprising bearings (11, 12) lubricated by the oil taken from an oil sump, the lubricating oil of the bearings (11, 12) being driven at least partly by the working fluid after its expansion through the turbine, the installation comprising, upstream of the inlet of the turbine, means for separating the oil contained in the working fluid arranged to return the oil to the oil sump, characterized in that the turbine is a spiral turbine and in that the separating means are arranged to let an oil rate within a predetermined range of values pass in the working fluid in the turbine inlet, in order to lubricate the spirals.
An initially solid-colored coating composition, comprising: a first tinting colorant, a thickener; a surfactant or a surfactant blend having a hydrophilic/lipophilic balance value less than 9; and, a binder, each of which is dispersed or dissolved in a liquid, wherein, after a film of the initially solid-colored coating composition is applied to a substrate surface and begins to dry, the first tinting colorant becomes incompatible with the coating composition such that a portion of the first tinting colorant migrates to an exterior facing surface of the film while the coating composition is still in a liquid state so as to provide a final coating once the composition dries from the liquid state, the final coating having two differently colored areas which exhibit a color change value (ΔE) relative to one another of greater than 0.25; wherein the first tinting colorant is a hydrophobic tinting colorant and the liquid comprises an aqueous solution, wherein the surfactant is present in an amount of 0.01 wt.% to 5 wt.%, and wherein said first tinting colorant is configured for separating, concentrating, flocculating and/or floating from a still-wet, applied coating composition to the surface of the still-forming coating because of its incompatibility with other of said components of said composition.
A drug delivery device with a resettable dose setting mechanism said mechanism comprising: a housing (40; 204, 208), a rotating sleeve (10; 206) in rotatable engagement with respect to said housing, a driver for driving a spindle of the drug delivery device, characterized in that said driver comprising a first component (44; 207) and a second component (46; 212) rotationally coupled to said first component (44; 207) such that when a user sets a dose by rotating the rotating sleeve (10; 206) both said first component (44; 207) and said second component (46; 212) of the driver rotate together, wherein during resetting of said drug delivery device, said first component (44; 207) is rotationally decoupled from said second component (46; 212), the dose setting mechanism further comprising a dose limiting device (38; 218) wherein the dose limiting device (38; 218) has an internal helical groove matching a helical groove of the first component (44; 207) of the driver (30; 209), the dose limiting device (38; 218) is located between the driver and the housing (40;204, 208), the outer surface of the dose limiting device (38; 218) and an inner surface of the housing (40; 204, 208) are keyed together by way of splines, and during resetting of said drug delivery device, said dose limiting device (38; 218) is reset to an initial position directly by rotation of the first driver portion. a housing (40; 204, 208), a rotating sleeve (10; 206) in rotatable engagement with respect to said housing, a driver for driving a spindle of the drug delivery device, characterized in that said driver comprising a first component (44; 207) and a second component (46; 212) rotationally coupled to said first component (44; 207) such that when a user sets a dose by rotating the rotating sleeve (10; 206) both said first component (44; 207) and said second component (46; 212) of the driver rotate together, wherein during resetting of said drug delivery device, said first component (44; 207) is rotationally decoupled from said second component (46; 212), the dose setting mechanism further comprising a dose limiting device (38; 218) wherein the dose limiting device (38; 218) has an internal helical groove matching a helical groove of the first component (44; 207) of the driver (30; 209), the dose limiting device (38; 218) is located between the driver and the housing (40;204, 208), the outer surface of the dose limiting device (38; 218) and an inner surface of the housing (40; 204, 208) are keyed together by way of splines, and during resetting of said drug delivery device, said dose limiting device (38; 218) is reset to an initial position directly by rotation of the first driver portion.
A filter cartridge comprising a substantially tubular filter wall and a support plate fixed to an end of the filter wall, wherein the support plate comprises a hooking body (34, 2120) rising from a surface of the support plate opposite the filter wall and defining a profiled surface (3410,3411;2130,2131) substantially perpendicular to the central axis of the filter wall and defining at least two corners (3412,3413;2132,2133) proximal to the central axis, which exhibit different distances from the central axis of the filter wall.
A method for processing time synchronization, performed by a Software Defined Network, SDN, controller, the method comprising: extending an instruction set of OpenFlow protocol wherein the extended instruction set is used to implement Precision Time Protocol, PTP, based time synchronization; wherein extending the instruction set of OpenFlow protocol comprises: adding a TimeStamp,TS, generation instruction, to a FlowTable configuration message, wherein the TS generation instruction instructs a time synchronization equipment to generate a current TS when the time synchronization equipment receives a PTP synchronization message at an ingress port and/or sends a PTP synchronization message at an egress port and sending the FlowTable configuration message to a plurality of time synchronization equipment that implement PTP-based time synchronization,; wherein the FlowTable configuration message comprises the extended instruction set, and wherein the plurality of time synchronization equipment are clock equipment that implement PTP-based time synchronization processing according to the extended instruction set. extending an instruction set of OpenFlow protocol wherein the extended instruction set is used to implement Precision Time Protocol, PTP, based time synchronization; wherein extending the instruction set of OpenFlow protocol comprises: adding a TimeStamp,TS, generation instruction, to a FlowTable configuration message, wherein the TS generation instruction instructs a time synchronization equipment to generate a current TS when the time synchronization equipment receives a PTP synchronization message at an ingress port and/or sends a PTP synchronization message at an egress port and sending the FlowTable configuration message to a plurality of time synchronization equipment that implement PTP-based time synchronization,; wherein the FlowTable configuration message comprises the extended instruction set, and wherein the plurality of time synchronization equipment are clock equipment that implement PTP-based time synchronization processing according to the extended instruction set.
A method for preparing -3-butylideneisobenzofuran-1 -one (compound 5): the method comprises the following steps: reacting a halogenated carboxylic acid anhydride with the 2-(2-bromoacetyl)benzoic acid (compound 3) at a first temperature ranging from 50°C to 140°C to obtain the following -3-(bromomethylene)isobenzofuran-1 -one (compound 4); and reacting the -3-(bromomethylene)isobenzofuran-1 -one (compound 4) with a compound of (C 3 H 7)MgX at a second temperature ranging from -10°C to 10°C to obtain the -3-butylideneisobenzofuran-1 -one (compound 5), wherein, X is Cl -, Br or I -. reacting a halogenated carboxylic acid anhydride with the 2-(2-bromoacetyl)benzoic acid (compound 3) at a first temperature ranging from 50°C to 140°C to obtain the following -3-(bromomethylene)isobenzofuran-1 -one (compound 4); and reacting the -3-(bromomethylene)isobenzofuran-1 -one (compound 4) with a compound of (C 3 H 7)MgX at a second temperature ranging from -10°C to 10°C to obtain the -3-butylideneisobenzofuran-1 -one (compound 5), wherein, X is Cl -, Br or I -.
A fixing device, comprising: a base body comprising a holding wall and a connecting wall spaced apart from the holding wall, the connecting wall forming a connecting hole thereon, the connecting hole comprising a plurality of tooth-like grooves radially extending outward from peripheries of the connecting hole, a surface of the holding wall opposite to the connecting wall being provided with a holding element for holding the base body onto a first external object; a connecting unit comprising a connecting pole and an engaging element, the connecting pole forming a hollow portion therein which penetrates one end of the connecting pole, the engaging element disposed in the hollow portion and comprising at least a first engaging leg and at least a second engaging leg respectively extending out of the hollow portion and spaced apart from the connecting pole; and a fixing unit connected to another end of the connecting pole, a surface of the fixing unit provided with a fixing element for securing the fixing unit onto a second external object; characterised in that the at least a first engaging leg and a second engaging leg correspondingly pass through the plurality of tooth-like grooves of the connecting hole to be engaged in between the connecting wall and the holding wall, so as to connect the connecting unit and the base body and allow the base body to be rotatable upon the connecting pole. a base body comprising a holding wall and a connecting wall spaced apart from the holding wall, the connecting wall forming a connecting hole thereon, the connecting hole comprising a plurality of tooth-like grooves radially extending outward from peripheries of the connecting hole, a surface of the holding wall opposite to the connecting wall being provided with a holding element for holding the base body onto a first external object; a connecting unit comprising a connecting pole and an engaging element, the connecting pole forming a hollow portion therein which penetrates one end of the connecting pole, the engaging element disposed in the hollow portion and comprising at least a first engaging leg and at least a second engaging leg respectively extending out of the hollow portion and spaced apart from the connecting pole; and a fixing unit connected to another end of the connecting pole, a surface of the fixing unit provided with a fixing element for securing the fixing unit onto a second external object; characterised in that the at least a first engaging leg and a second engaging leg correspondingly pass through the plurality of tooth-like grooves of the connecting hole to be engaged in between the connecting wall and the holding wall, so as to connect the connecting unit and the base body and allow the base body to be rotatable upon the connecting pole.
A method of sequencing a polynucleotide strand, comprising: flowing a series of nucleotide reagents onto a reactor array having multiple reaction confinement regions, wherein the polynucleotide strand is located in a loaded reaction confinement region of the reactor array; receiving signal data from the reactor array having multiple confinement regions (70, 90), wherein the signal data include an output signal of an empty reaction confinement region and an output of a loaded reaction confinement region; determining an empty reaction confinement region function that models an output signal of a representative empty reaction confinement region (72, 92); determining a time-warped empty reaction confinement region function (76, 94) by applying a time transformation to the empty reaction confinement region function; fitting the time-warped empty reaction confinement region function to the output signal from the loaded reaction confinement region that is representative of a first flow, wherein the first flow results in a non-incorporation event in the loaded reaction confinement region, applying the fitted time-warped empty reaction confinement region function to the output signal for a second flow to the loaded reaction confinement region to obtain an incorporation signal for the second flow, and analyzing the incorporation signal to determine an estimate of the number of nucleotides incorporated into the polynucleotide strand. flowing a series of nucleotide reagents onto a reactor array having multiple reaction confinement regions, wherein the polynucleotide strand is located in a loaded reaction confinement region of the reactor array; receiving signal data from the reactor array having multiple confinement regions (70, 90), wherein the signal data include an output signal of an empty reaction confinement region and an output of a loaded reaction confinement region; determining an empty reaction confinement region function that models an output signal of a representative empty reaction confinement region (72, 92); determining a time-warped empty reaction confinement region function (76, 94) by applying a time transformation to the empty reaction confinement region function; fitting the time-warped empty reaction confinement region function to the output signal from the loaded reaction confinement region that is representative of a first flow, wherein the first flow results in a non-incorporation event in the loaded reaction confinement region, applying the fitted time-warped empty reaction confinement region function to the output signal for a second flow to the loaded reaction confinement region to obtain an incorporation signal for the second flow, and analyzing the incorporation signal to determine an estimate of the number of nucleotides incorporated into the polynucleotide strand.
A method comprising: deriving a pedestrian path (206A, 208B, 206C) representing a projected path for a pedestrian; deriving a vehicle path representing a projected path for a vehicle; determining an intersection of the pedestrian path and the vehicle path; determining an alert characteristic responsive to the determined intersection, wherein the determined alert characteristic includes a direction characteristic; and emitting a directionally controllable alert signal (160A, 160B) from the vehicle in a direction towards the pedestrian responsive to the determined direction characteristic; wherein a likelihood of a collision between the vehicle and the pedestrian is mitigated when the emitted alert signal draws the attention of the pedestrian to the presence of the vehicle. deriving a pedestrian path (206A, 208B, 206C) representing a projected path for a pedestrian; deriving a vehicle path representing a projected path for a vehicle; determining an intersection of the pedestrian path and the vehicle path; determining an alert characteristic responsive to the determined intersection, wherein the determined alert characteristic includes a direction characteristic; and emitting a directionally controllable alert signal (160A, 160B) from the vehicle in a direction towards the pedestrian responsive to the determined direction characteristic; wherein a likelihood of a collision between the vehicle and the pedestrian is mitigated when the emitted alert signal draws the attention of the pedestrian to the presence of the vehicle.
Use of a liquid fuel composition, wherein the fuel composition is a gasoline fuel composition, in an internal combustion engine, the internal combustion engine containing a lubricating composition for lubricating said internal combustion engine, wherein the liquid fuel composition comprises at least one nitrogen-containing detergent additive, for the purpose of reducing engine wear caused by the presence of soot in the lubricating composition, wherein the nitrogen-containing detergent additive is selected from compounds having at least one hydrophobic hydrocarbon radical having a number-average molecular weight (Mn) of from 85 to 20000 and at least one polar moiety selected from mono- or polyamino groups having up to 6 nitrogen atoms, of which at least one nitrogen atom has basic properties; polyoxy-C 2 -to-C 4 -alkylene groups which are terminated mono- or polyamino groups, in which at least one nitrogen atom has basic properties, or by carbamate groups; moieties derived from succinic anhydride and having amido and/or imido groups; and/or moieties obtained by Mannich reaction of substituted phenols with aldehydes and mono- or polyamines and mixtures of the compounds defined above; and wherein the lubricating composition comprises at least one zinc-containing anti-wear additive. mono- or polyamino groups having up to 6 nitrogen atoms, of which at least one nitrogen atom has basic properties; polyoxy-C 2 -to-C 4 -alkylene groups which are terminated mono- or polyamino groups, in which at least one nitrogen atom has basic properties, or by carbamate groups; moieties derived from succinic anhydride and having amido and/or imido groups; and/or moieties obtained by Mannich reaction of substituted phenols with aldehydes and mono- or polyamines and mixtures of the compounds defined above; and wherein the lubricating composition comprises at least one zinc-containing anti-wear additive.