mhurhangee/ep-ind-claims huggingface dataset:
A battery pack, comprising: a first set of cells electrically coupled in a parallel configuration, the first set of cells comprising a first cell, second cell and a third cell; wherein the first cell, second cell and third cell each have different capacities and dimensions; wherein the capacity of the first cell is substantially the same as the cumulative capacity of the second cell and third cell; wherein the first set of cells has a first overall capacity; a second set of cells electrically coupled in a second parallel configuration, the second set of cells comprising a fourth cell, fifth cell, and sixth cell; wherein the fourth cell, fifth cell and sixth cell each have different capacities and dimensions; wherein the capacity of the fourth cell is substantially the same as the cumulative capacity of the fifth cell and sixth cell; wherein the second set of cells has a second overall capacity; wherein the first set of cells and the second set of cells are arranged in an asymmetric configuration; wherein the first overall capacity is substantially the same as the second overall capacity; and wherein the first set of cells and the second set of cells are electrically coupled in a series configuration. a first set of cells electrically coupled in a parallel configuration, the first set of cells comprising a first cell, second cell and a third cell; wherein the first cell, second cell and third cell each have different capacities and dimensions; wherein the capacity of the first cell is substantially the same as the cumulative capacity of the second cell and third cell; wherein the first set of cells has a first overall capacity; wherein the first cell, second cell and third cell each have different capacities and dimensions; wherein the capacity of the first cell is substantially the same as the cumulative capacity of the second cell and third cell; wherein the first set of cells has a first overall capacity; a second set of cells electrically coupled in a second parallel configuration, the second set of cells comprising a fourth cell, fifth cell, and sixth cell; wherein the fourth cell, fifth cell and sixth cell each have different capacities and dimensions; wherein the capacity of the fourth cell is substantially the same as the cumulative capacity of the fifth cell and sixth cell; wherein the second set of cells has a second overall capacity; wherein the fourth cell, fifth cell and sixth cell each have different capacities and dimensions; wherein the capacity of the fourth cell is substantially the same as the cumulative capacity of the fifth cell and sixth cell; wherein the second set of cells has a second overall capacity; wherein the first set of cells and the second set of cells are arranged in an asymmetric configuration; wherein the first overall capacity is substantially the same as the second overall capacity; and wherein the first set of cells and the second set of cells are electrically coupled in a series configuration.
A flame retardant resin composition comprising: a silicone resin comprising constituent units represented by the compositional formula and having a weight average molecular weight of 3,000 to 500,000, as measured according to the method described in the specifications, wherein R 1 to R 4 are each independently a monovalent C 1 -C 8 hydrocarbon group, excluding that R 3 and R 4 are methyl at the same time, m and n each are an integer of 0 to 300, R 5 to R 8 are each independently a divalent C 1 -C 10 hydrocarbon group, a and b are positive numbers, a+b = 1, X is a divalent organic group having the general formula: wherein V is a divalent organic group selected from the following: p is 0 or 1, R 9 and R 10 are each independently C 1 -C 4 alkyl or alkoxy, and h is 0, 1 or 2, a triazine-modified phenol novolak compound, and a filler. a silicone resin comprising constituent units represented by the compositional formula and having a weight average molecular weight of 3,000 to 500,000, as measured according to the method described in the specifications, wherein R 1 to R 4 are each independently a monovalent C 1 -C 8 hydrocarbon group, excluding that R 3 and R 4 are methyl at the same time, m and n each are an integer of 0 to 300, R 5 to R 8 are each independently a divalent C 1 -C 10 hydrocarbon group, a and b are positive numbers, a+b = 1, X is a divalent organic group having the general formula: wherein V is a divalent organic group selected from the following: p is 0 or 1, R 9 and R 10 are each independently C 1 -C 4 alkyl or alkoxy, and h is 0, 1 or 2, a triazine-modified phenol novolak compound, and a filler.
A shutdown method, applicable for a terminal, wherein the terminal is provided with a rechargeable battery, and the method comprises: determining a first impedance and a second impedance of the rechargeable battery, wherein the first impedance is an impedance determined based on a current temperature of the rechargeable battery, and the second impedance is an impedance determined based on a current number of charge times of the rechargeable battery; the method being characterised by further comprising determining a target impedance as a larger impedance value from the first impedance and the second impedance; determining a shutdown voltage of the terminal based on a preset open circuit voltage of the rechargeable battery, the target impedance and a current operating current of a charging circuit; and controlling the terminal to shut down, when an operating voltage of the rechargeable battery is decreased to the shutdown voltage. determining a first impedance and a second impedance of the rechargeable battery, wherein the first impedance is an impedance determined based on a current temperature of the rechargeable battery, and the second impedance is an impedance determined based on a current number of charge times of the rechargeable battery; the method being characterised by further comprising determining a target impedance as a larger impedance value from the first impedance and the second impedance; determining a shutdown voltage of the terminal based on a preset open circuit voltage of the rechargeable battery, the target impedance and a current operating current of a charging circuit; and controlling the terminal to shut down, when an operating voltage of the rechargeable battery is decreased to the shutdown voltage.
A biosensor comprising a graphene transistor and a bioprobe unit, wherein the graphene transistor comprises: a substrate; a graphene channel layer arranged on the substrate; a pair of metals arranged on both ends of the graphene channel layer to be spaced from each other; and a linker layer arranged on the graphene channel layer and including an N-heterocyclic carbene compound, characterized in that the N-heterocyclic carbene compound has a chemical structure represented by the following Formula 1: wherein A is an azide group or a phthalimide group, R 1 is an alkylene group or an alkoxyalkylene group, which has 1 to 10 carbon atoms and contains 1 to 5 repeating units, and R 2 and R 3 are each independently any one selected from the group consisting of an alkyl group, a cycloalkyl group, an alkenyl group, an alkynyl group, an aryl group, an alkylene group, an alkenylene group, an alkynylene group, an alkoxy group, and an arylalkyl group, and wherein the bioprobe unit is bound to the azide group or the phthalimide group exposed at the linker layer of the graphene transistor. a substrate; a graphene channel layer arranged on the substrate; a pair of metals arranged on both ends of the graphene channel layer to be spaced from each other; and a linker layer arranged on the graphene channel layer and including an N-heterocyclic carbene compound, characterized in that the N-heterocyclic carbene compound has a chemical structure represented by the following Formula 1: wherein A is an azide group or a phthalimide group, R 1 is an alkylene group or an alkoxyalkylene group, which has 1 to 10 carbon atoms and contains 1 to 5 repeating units, and R 2 and R 3 are each independently any one selected from the group consisting of an alkyl group, a cycloalkyl group, an alkenyl group, an alkynyl group, an aryl group, an alkylene group, an alkenylene group, an alkynylene group, an alkoxy group, and an arylalkyl group, and wherein the bioprobe unit is bound to the azide group or the phthalimide group exposed at the linker layer of the graphene transistor. wherein A is an azide group or a phthalimide group, R 1 is an alkylene group or an alkoxyalkylene group, which has 1 to 10 carbon atoms and contains 1 to 5 repeating units, and R 2 and R 3 are each independently any one selected from the group consisting of an alkyl group, a cycloalkyl group, an alkenyl group, an alkynyl group, an aryl group, an alkylene group, an alkenylene group, an alkynylene group, an alkoxy group, and an arylalkyl group, and wherein the bioprobe unit is bound to the azide group or the phthalimide group exposed at the linker layer of the graphene transistor.
A detergent composition comprising: (a) at least one surfactant system, at least one soap, or any mixtures thereof; wherein the composition comprises from 10 to 60 weight% surfactants and wherein the surfactant system comprises a mixture of linear alkylbenzenesulphonate, sodium laureth sulfate (SLES) and alcohol ethoxylates; and (b) a polypeptide having lipase activity and having at least 85% sequence identity to the mature polypeptide of SEQ ID NO: 2, wherein the detergent composition has improved cleaning activity at pH 8 compared to the same detergent composition with 0% surfactant. (a) at least one surfactant system, at least one soap, or any mixtures thereof; wherein the composition comprises from 10 to 60 weight% surfactants and wherein the surfactant system comprises a mixture of linear alkylbenzenesulphonate, sodium laureth sulfate (SLES) and alcohol ethoxylates; and (b) a polypeptide having lipase activity and having at least 85% sequence identity to the mature polypeptide of SEQ ID NO: 2, wherein the detergent composition has improved cleaning activity at pH 8 compared to the same detergent composition with 0% surfactant.
A method for monitoring a locking system of a turbomachine thrust reverser including a number of locks (2a, 2b, 2c, 2d, 2e), each lock (2a, 2b, 2c, 2d, 2e) being monitored by two locking sensors (3a, 4a, 3b, 4b, 3c, 4c, 3d, 4d, 3e, 4e), each locking sensor (3a, 4a, 3b, 4b, 3c, 4c, 3d, 4d, 3e, 4e) being able to indicate whether the lock (2a, 2b, 2c, 2d, 2e) it monitors is in a locked or unlocked state, wherein each locking sensor (3a, 4a, 3b, 4b, 3c, 4c, 3d, 4d, 3e, 4e) can be in a valid or invalid status, the method including the step of: - determining the state of the locking system as a function of the state of the locks (2a, 2b, 2c, 2d, 2e) detected by the locking sensors; said method being characterized in that it includes the step of: - determining a reliability level associated with the state of the locking system as a function of the number of valid locking sensors (3a, 4a, 3b, 4b, 3c, 4c, 3d, 4d, 3e, 4e) monitoring the locks (2a, 2b, 2c, 2d, 2e) which are in the same state as the locking system. - determining the state of the locking system as a function of the state of the locks (2a, 2b, 2c, 2d, 2e) detected by the locking sensors; - determining a reliability level associated with the state of the locking system as a function of the number of valid locking sensors (3a, 4a, 3b, 4b, 3c, 4c, 3d, 4d, 3e, 4e) monitoring the locks (2a, 2b, 2c, 2d, 2e) which are in the same state as the locking system.
A carbon electrode used for manufacturing a polycrystalline silicon rod, comprising: a lower electrode secured on a metal electrode that is an external electrode for electrifying a silicon core; and an upper electrode placed on the lower electrode, and including a securing portion of a core holder that holds the silicon core on an upper surface side, wherein the upper electrode is slidable in all directions in a placement surface that is a contact surface with an upper surface of the lower electrode, and wherein the upper electrode is placed on the lower electrode so that a protrusion provided in the lower part of the upper electrode is inserted into a recess provided in the upper part of the lower electrode, an inner size of the recess is larger than an outer size of the protrusion, and a gap is provided between the recess and the protrusion. a lower electrode secured on a metal electrode that is an external electrode for electrifying a silicon core; and an upper electrode placed on the lower electrode, and including a securing portion of a core holder that holds the silicon core on an upper surface side, wherein the upper electrode is slidable in all directions in a placement surface that is a contact surface with an upper surface of the lower electrode, and wherein the upper electrode is placed on the lower electrode so that a protrusion provided in the lower part of the upper electrode is inserted into a recess provided in the upper part of the lower electrode, an inner size of the recess is larger than an outer size of the protrusion, and a gap is provided between the recess and the protrusion.
A multiply thin paper sheet comprising: a first thin paper layer, having a first stacking surface; and at least one second thin paper layer (1 b), having a second stacking surface, the second stacking surface partially overlapping the first stacking surface to define a stacking zone provided between the first thin paper layer and the second thin paper layer; the stacking zone comprising a press-to-bond zone and a patterned zone; after the stacking zone is subjected to a rolling operation by a rolling pressure, a plurality of first pressed sections having a concave cross-section formed on the first thin paper layer to be recessed from the first stacking surface thereof, by a predetermined recessed height extended according to a given direction, and a plurality of second pressed sections having a convex cross-section formed on the second thin paper layer to raise from the second stacking surface thereof by a predetermined raised height according to the given direction, the first pressed sections and stacking surfaces respectively corresponding to the second pressed sections and stacking surfaces, the press-to-bond zone is provided on the first pressed sections and the corresponding second pressed sections wherein at least one concave portion of each first pressed section of the first thin paper layer and the corresponding convex second pressed section of the second thin paper layer (1 b) are bonded together by the rolling pressure to form a pressed and bonded site to bond the first thin paper layer and the second thin paper layer one to the other without using glues or adhesives so that all the layers (1 a, 1 b) of the paper sheet are fixed together, characterized in that the stacking zone further comprising a patterned zone wherein the first and second stacking surfaces (F1, F2) form pattern of various pressing spots of each layer (1a, 1b) of the multiply thin paper sheet within the patterned zone and are designed to not bond to each other so as to provide spacing between the paper plies, wherein the first thin paper layer further comprises at least one third pressed section having a predetermined height, and wherein the second thin paper layer further comprises at least one fourth pressed section being corresponding to the third pressed section (11 a) to form the various pressing spots of the thin paper sheet within the patterned zone, wherein the patterned zone functions to provide a three-dimensional configuration on the thin paper sheet after the thin paper sheet has been subjected to the rolling operation and wherein the patterned zone is formed within an area of the stacking zone other than where the press-to-bond zone is defined. a first thin paper layer, having a first stacking surface; and at least one second thin paper layer (1 b), having a second stacking surface, the second stacking surface partially overlapping the first stacking surface to define a stacking zone provided between the first thin paper layer and the second thin paper layer; the stacking zone comprising a press-to-bond zone and a patterned zone;
Single-vane pump, in particular for a motor vehicle engine, comprising: - a stator in which a chamber is defined; - a first rotor mounted in said chamber and capable of rotating around a first rotation axis (M-M); - a vane slidably mounted in a diametric groove of said first rotor and having a rectilinear portion having a predetermined length and opposite free ends (22, 24) in contact with a perimetric surface of said chamber; wherein the pump comprises a second rotor mounted in said chamber and capable of rotating around a second rotation axis (O-O) parallel to the first rotation axis (M-M), the vane being rotatably connected to the second rotor at a longitudinal middle area thereof and being capable of rotating around a pivot axis (P-P) which is parallel to the first rotation axis (M-M), characterised in that the distance between the first rotation axis (M-M) and the second rotation axis (O-O) and between the pivot axis (P-P) and the second rotation axis (O-O) being equal to a fourth of the predetermined length of the rectilinear portion of the vane, the perimetric surface of said chamber having, in a plane perpendicular to the first rotation axis (M-M), a cardioid shape which substantially coincides with the cardioid defined by the opposite free ends (22, 24) of the vane during the rotation of the first rotor and of the second rotor. - a stator in which a chamber is defined; - a first rotor mounted in said chamber and capable of rotating around a first rotation axis (M-M); - a vane slidably mounted in a diametric groove of said first rotor and having a rectilinear portion having a predetermined length and opposite free ends (22, 24) in contact with a perimetric surface of said chamber; wherein the pump comprises a second rotor mounted in said chamber and capable of rotating around a second rotation axis (O-O) parallel to the first rotation axis (M-M), the vane being rotatably connected to the second rotor at a longitudinal middle area thereof and being capable of rotating around a pivot axis (P-P) which is parallel to the first rotation axis (M-M), characterised in that the distance between the first rotation axis (M-M) and the second rotation axis (O-O) and between the pivot axis (P-P) and the second rotation axis (O-O) being equal to a fourth of the predetermined length of the rectilinear portion of the vane, the perimetric surface of said chamber having, in a plane perpendicular to the first rotation axis (M-M), a cardioid shape which substantially coincides with the cardioid defined by the opposite free ends (22, 24) of the vane during the rotation of the first rotor and of the second rotor.
A clean bench comprising: a worktable on which polycrystalline silicon is placed; a box part which includes side plates (8a, 8b) to surround three sides except a front face of a working space above the worktable; and a ceiling plate which covers an upper side of the working space, wherein supplying holes are formed in the ceiling plate of the box part, which supply clean air onto an upper surface of the worktable; an ionizer is provided, which ionizes the clean air supplied from the supplying holes to the working space and removes static electricity onto the worktable; and suction holes (10a, 10b) are formed to the side plates (8a, 8b) of the box part, which suction air from the working space; a partition divides the box part into a vertically extending part and an upper extending part; a blower is provided in an upper inner part of the vertically extending part and also contacts the partition; a worktable communicative route is provided by allowing a working surface to communicate with a lower side surface of the worktable bordering the side plate of the box part, a plurality of illuminators is provided on a lower side of the ceiling plate at regular intervals in the horizontal direction, and the ionizer which has a plurality of downward facing nozzles is provided on the lower side of the ceiling plate. a worktable on which polycrystalline silicon is placed; a box part which includes side plates (8a, 8b) to surround three sides except a front face of a working space above the worktable; and a ceiling plate which covers an upper side of the working space, wherein supplying holes are formed in the ceiling plate of the box part, which supply clean air onto an upper surface of the worktable; an ionizer is provided, which ionizes the clean air supplied from the supplying holes to the working space and removes static electricity onto the worktable; and suction holes (10a, 10b) are formed to the side plates (8a, 8b) of the box part, which suction air from the working space; a partition divides the box part into a vertically extending part and an upper extending part; a blower is provided in an upper inner part of the vertically extending part and also contacts the partition; a worktable communicative route is provided by allowing a working surface to communicate with a lower side surface of the worktable bordering the side plate of the box part, a plurality of illuminators is provided on a lower side of the ceiling plate at regular intervals in the horizontal direction, and the ionizer which has a plurality of downward facing nozzles is provided on the lower side of the ceiling plate.
A method for the quantification of hydrophilic properties of a porous material, the method comprising - performing a first ellipsometric porosimetry measurement on said porous material using a first adsorptive having a first wetting angle which is substantially equal to zero, thereby obtaining values of a first Kelvin equation ln P P 0 a 1 = − γ a 1 V La 1 RT ∗ 2 r - performing a second ellipsometric porosimetry measurement on said porous material using a second adsorptive having a second wetting angle which is 90° or higher and which comprises polar molecules, thereby obtaining values of a second Kelvin equation ln P P 0 a 2 = − cos ⁢ θ ∗ γ a 2 V La 2 RT ∗ 2 r, and - quantifying the hydrophilic properties of the porous material from a combination of the at least first and second measurement by combining equation and, thereby calculating the effective contact angle of the second adsorptive as being equal to θ = arccos ln P P 0 a 2 / ln P P 0 a 1 ⋅ γ a 1. V La 1 γ a 2. V La 2 Wherein P is the vapor pressure, P 0 is the equilibrium vapor pressure, the subscripts a1 and a2 respectively stand for the first adsorptive and the second adsorptive, and r, γ and V L respectively are the average radius of the pores present in the porous material, the surface tension and the molar volume of the adsorptive. - performing a first ellipsometric porosimetry measurement on said porous material using a first adsorptive having a first wetting angle which is substantially equal to zero, thereby obtaining values of a first Kelvin equation ln P P 0 a 1 = − γ a 1 V La 1 RT ∗ 2 r - performing a second ellipsometric porosimetry measurement on said porous material using a second adsorptive having a second wetting angle which is 90° or higher and which comprises polar molecules, thereby obtaining values of a second Kelvin equation ln P P 0 a 2 = − cos ⁢ θ ∗ γ a 2 V La 2 RT ∗ 2 r, and - quantifying the hydrophilic properties of the porous material from a combination of the at least first and second measurement by combining equation and, thereby calculating the effective contact angle of the second adsorptive as being equal to θ = arccos ln P P 0 a 2 / ln P P 0 a 1 ⋅ γ a 1. V La 1 γ a 2. V La 2 Wherein P is the vapor pressure, P 0 is the equilibrium vapor pressure, the subscripts a1 and a2 respectively stand for the first adsorptive and the second adsorptive, and r, γ and V L respectively are the average radius of the pores present in the porous material, the surface tension and the molar volume of the adsorptive.