mhurhangee/patent-ind-claim-en huggingface dataset:
An electrode active material layer comprising at least an electrode active material, a carbon-based electroconductive agent and a binder, characterized in that said carbon-based electroconductive agent contains ultrafine fibrous carbons or aggregates of ultrafine fibrous carbons, the ultrafine fibrous carbons having a linear structure with the branching degree 0.01 branch/μm or less and an average fiber diameter of more than 200 nm to 900 nm, the in-plane maximum tensile strength σ M of said electrode active material layer and the in-plane tensile strength σ T in the direction perpendicular to the direction of said maximum tensile strength σ M satisfy the following relationship (a): σ M / σ T ≤ 1.6 and said electrode active material layer comprises said carbon-based electroconductive agent in an amount of 10 mass% or less, based on the total mass of said electrode active material layer; said electrode active material layer comprises the binder in an amount of 1 to 25 mass%, based on the total mass of said electrode active material layer; and the average fiber length of said ultrafine fibrous carbons is from 1 to 15 μm.
A time synchronization method, comprising: receiving, through a slave clock port, a time synchronization message sent by an upstream device ; and obtaining a message rate parameter in the time synchronization message ; characterized in that the method further comprises: correcting a time synchronization message loss detection parameter, for detecting whether the time synchronization message is lost, of a slave clock port according to the message rate parameter , wherein the time synchronization message loss detection parameter is used to instruct the slave clock port to report an alarm when the time synchronization message sent by the upstream device is not received during a set duration with the corrected time synchronization message loss detection parameter as a reference; and keeping clock synchronization with the upstream device according to a correction result . receiving, through a slave clock port, a time synchronization message sent by an upstream device ; and obtaining a message rate parameter in the time synchronization message ; characterized in that the method further comprises: correcting a time synchronization message loss detection parameter, for detecting whether the time synchronization message is lost, of a slave clock port according to the message rate parameter , wherein the time synchronization message loss detection parameter is used to instruct the slave clock port to report an alarm when the time synchronization message sent by the upstream device is not received during a set duration with the corrected time synchronization message loss detection parameter as a reference; and keeping clock synchronization with the upstream device according to a correction result . correcting a time synchronization message loss detection parameter, for detecting whether the time synchronization message is lost, of a slave clock port according to the message rate parameter , wherein the time synchronization message loss detection parameter is used to instruct the slave clock port to report an alarm when the time synchronization message sent by the upstream device is not received during a set duration with the corrected time synchronization message loss detection parameter as a reference; and keeping clock synchronization with the upstream device according to a correction result .
A memory socket protecting cover , adapted to be assembled to a memory socket , wherein the memory socket is adapted for a memory module to insert, the memory module comprises a fool-proof concave , and the memory socket comprises a fool-proof member corresponding to the fool-proof concave , the memory socket protecting cover comprising: two lateral walls , adapted to be disposed at whole of two long side surfaces of the memory socket ; and a wear-resistant member , connected to the two lateral walls and adapted to be disposed on the fool-proof member , wherein a width of the wear-resistant member is greater than a width of the fool-proof member and is smaller than a width of the fool-proof concave , a length of the memory socket protecting cover is not less than a length of the memory socket , the wear-resistant member is adapted to be located on a top surface of the fool-proof member , the memory socket protecting cover characterised in that : when the memory module is inserted in or pulled from the memory socket , a wall of the memory module besides the fool-proof concave is adapted to contact two sides of the wear-resistant member , wherein the wear-resistant member presents an I-shaped column, and a thickness of the wear-resistant member is greater than a thickness of each of the lateral walls . two lateral walls , adapted to be disposed at whole of two long side surfaces of the memory socket ; and a wear-resistant member , connected to the two lateral walls and adapted to be disposed on the fool-proof member , wherein a width of the wear-resistant member is greater than a width of the fool-proof member and is smaller than a width of the fool-proof concave , a length of the memory socket protecting cover is not less than a length of the memory socket , the wear-resistant member is adapted to be located on a top surface of the fool-proof member , the memory socket protecting cover characterised in that : when the memory module is inserted in or pulled from the memory socket , a wall of the memory module besides the fool-proof concave is adapted to contact two sides of the wear-resistant member , wherein the wear-resistant member presents an I-shaped column, and a thickness of the wear-resistant member is greater than a thickness of each of the lateral walls .
A fiber bundle condensing device for a spinning machine, the fiber bundle condensing device comprising: a suction pipe configured to be disposed on a downstream side of a draft device of the spinning machine; and a guide member mounted on the suction pipe at a position where an air-permeable apron is wound on the suction pipe , and having a guide portion configured to guide movement of the air-permeable apron , wherein the fiber bundle condensing device is configured to condense a fiber bundle (F) drafted by the draft device , the suction pipe has a suction hole extending from an upstream side to a downstream side in a moving direction of the fiber bundle (F), the guide member has a suction slit that is formed in the guide portion and aligned with the suction hole , and a width of the suction hole and a width of the suction slit are different at least on the upstream sides of the suction hole and the suction slit , characterized in that the width of the suction slit on the downstream side of the suction slit is the same as the width of the suction hole . a suction pipe configured to be disposed on a downstream side of a draft device of the spinning machine; and a guide member mounted on the suction pipe at a position where an air-permeable apron is wound on the suction pipe , and having a guide portion configured to guide movement of the air-permeable apron , wherein the fiber bundle condensing device is configured to condense a fiber bundle (F) drafted by the draft device , the suction pipe has a suction hole extending from an upstream side to a downstream side in a moving direction of the fiber bundle (F), the guide member has a suction slit that is formed in the guide portion and aligned with the suction hole , and a width of the suction hole and a width of the suction slit are different at least on the upstream sides of the suction hole and the suction slit , characterized in that the width of the suction slit on the downstream side of the suction slit is the same as the width of the suction hole .
A diesel engine lubricating composition comprising: an oil of lubricating viscosity having greater than 50 weight percent of a Group III base oil, a Group IV base oil, a Group V base oil, or mixtures thereof; a first polyisobutylene (PIB) succinimide dispersant prepared from a PIB having a number average molecular weight of 1800 to 2100 present in the lubricating composition in an amount of from 0.8 wt% to 6 wt%; a second polyisobutylene (PIB) succinimide dispersant prepared from a PIB with a number average molecular weight of up to 1600, where at least one of the first PIB succinimide dispersant and the second PIB succinimide dispersant is boron-free; an alkaline earth metal salicylate detergent; an alkaline earth metal sulfonate detergent present in an amount to deliver 0.1 wt % to 1.5 wt % of alkaline earth metal soap to the lubricating composition; and a phosphorus antiwear agent present in an amount to deliver 300 to 900 ppm phosphorous to the lubricating composition, the lubricating composition having a total sulfated ash measured according to ASTM D784 of between 0.3 to 0.9 wt. %; a kinematic viscosity measured according to ASTM D-445 at 100°C of less than 8.3 cSt; a total alkaline earth metal soap of from 0.6 wt % to 2.1 wt %, and a HTHS measured according to ASTM D4683 of less than 2.7 mPa·s. an oil of lubricating viscosity having greater than 50 weight percent of a Group III base oil, a Group IV base oil, a Group V base oil, or mixtures thereof; a first polyisobutylene (PIB) succinimide dispersant prepared from a PIB having a number average molecular weight of 1800 to 2100 present in the lubricating composition in an amount of from 0.8 wt% to 6 wt%; a second polyisobutylene (PIB) succinimide dispersant prepared from a PIB with a number average molecular weight of up to 1600, where at least one of the first PIB succinimide dispersant and the second PIB succinimide dispersant is boron-free; an alkaline earth metal salicylate detergent; an alkaline earth metal sulfonate detergent present in an amount to deliver 0.1 wt % to 1.5 wt % of alkaline earth metal soap to the lubricating composition; and a phosphorus antiwear agent present in an amount to deliver 300 to 900 ppm phosphorous to the lubricating composition,
An aqueous composition comprising an antimicrobial effective amount of uncomplexed molecular iodine (I 2 ), a source of iodate (IO 3 -) in an effective amount and a predetermined amount of an acid, wherein the molar ratio of uncomplexed molecular iodine to iodate in said composition ranges from 0.004 to 0.3 and the concentration of acid in the composition is effective to provide a buffering pH ranging from 1.5 to 6.5, the composition providing a stable concentration of uncomplexed molecular iodine within the range of 0.5 ppm to 2500 ppm for a period of 2 weeks to 5 years and wherein the source of iodate is selected from the group consisting of sodium iodate, potassium iodate, lithium iodate, calcium iodate, magnesium iodate and mixtures thereof. -
A battery test system , comprising: an extrusion apparatus , configured to be disposed on a first surface of a battery ; and a pressure apparatus disposed above the extrusion apparatus , wherein the pressure apparatus is configured to apply a predetermined force to the battery in predetermined duration through the extrusion apparatus , characterized in that , a first surface of the extrusion apparatus configured to contact with the first surface of the battery is a substantially flat surface, and a side edge of the first surface of the extrusion apparatus has a chamfer. an extrusion apparatus , configured to be disposed on a first surface of a battery ; and a pressure apparatus disposed above the extrusion apparatus , wherein the pressure apparatus is configured to apply a predetermined force to the battery in predetermined duration through the extrusion apparatus , characterized in that , a first surface of the extrusion apparatus configured to contact with the first surface of the battery is a substantially flat surface, and a side edge of the first surface of the extrusion apparatus has a chamfer.
A poled pyroelectric device, comprising: a plurality of layers of a polar dielectric material having a pyroelectric coefficient, p, wherein each layer exhibits pyroelectric properties; a plurality of conductive electrodes layers , wherein each conductive electrodes layer is substantially in contact with at least a portion of one surface of a respective at least one of said plurality of layers of polar dielectric material, whereby said electrodes layers are alternately electrically connected in parallel to form a series of stacked capacitors comprised of said plurality of layers of polar dielectric material and plurality of conductive electrodes layers , wherein odd conductive electrodes layers are electrically connected at one end and even conductive electrodes layers are electrically connected at the opposite end, and characterized in that the plurality of layers of the polar dielectric material are provided in the device with ferroelectric domains of the polar dielectric material aligned with their dipoles in the same direction obtained by a poling process. a plurality of layers of a polar dielectric material having a pyroelectric coefficient, p, wherein each layer exhibits pyroelectric properties; a plurality of conductive electrodes layers , wherein each conductive electrodes layer is substantially in contact with at least a portion of one surface of a respective at least one of said plurality of layers of polar dielectric material, whereby said electrodes layers are alternately electrically connected in parallel to form a series of stacked capacitors comprised of said plurality of layers of polar dielectric material and plurality of conductive electrodes layers , wherein odd conductive electrodes layers are electrically connected at one end and even conductive electrodes layers are electrically connected at the opposite end, and characterized in that the plurality of layers of the polar dielectric material are provided in the device with ferroelectric domains of the polar dielectric material aligned with their dipoles in the same direction obtained by a poling process.
A computer-implemented method for planning multiple interventional procedures, the method comprising: identifying a target structure in an anatomic frame of reference; determining a target region in the anatomic frame of reference, wherein the target region represents a location of the target structure with respect to an interventional instrument as a probabilistic collection of target points ; identifying a first engagement location within the target region for deploying the interventional instrument; and identifying a second engagement location within the target region for deploying the interventional instrument; characterised in that the probabilistic collection of target points is based on error factors between the location of the target structure relative to the interventional instrument. identifying a target structure in an anatomic frame of reference; determining a target region in the anatomic frame of reference, wherein the target region represents a location of the target structure with respect to an interventional instrument as a probabilistic collection of target points ; identifying a first engagement location within the target region for deploying the interventional instrument; and identifying a second engagement location within the target region for deploying the interventional instrument; characterised in that the probabilistic collection of target points is based on error factors between the location of the target structure relative to the interventional instrument.
A redox flow battery with at least one wound redox flow battery module that has at least two half-cells separated by at least one membrane film, wherein fluid electrolytes respectively with one of two redox-active substances dissolved in a solution, which substances interact with one another via a redox reaction, flow through each half-cell, wherein the at least two separated half-cells are formed by winding at least a first section of at least one membrane film, a section of at least one first electrically conducting deflecting film , at least one second section of the at least one membrane film, and a section of at least one second electrically conducting deflecting film onto a central body , wherein after the winding, respective flow channels are formed between the membrane film sections and deflecting film sections by at least one spacer , respectively.
A sample grinder , comprising: - a base having a bowl and a rotating drive plate to operably support a grinding wheel ; - a head supporting a specimen holder and having a first drive for rotational drive of the specimen holder which is mounted on a shaft , the head having a second drive for moving the head and the specimen holder toward and away from the rotating drive plate ; and - a cover disposed over the bowl and rotating drive plate , the cover having an opening ; characterized in that the head has a sleeve having inner and outer peripheries, the sleeve being positioned on the head depending therefrom around and over the shaft to a position just above the specimen holder , the inner periphery being larger than an outer periphery of the specimen holder , and the opening of the cover has an inner periphery greater than the outer periphery of the sleeve , wherein the sleeve traverses through the cover opening when the specimen holder is moved toward the rotating drive plate . - a base having a bowl and a rotating drive plate to operably support a grinding wheel ; - a head supporting a specimen holder and having a first drive for rotational drive of the specimen holder which is mounted on a shaft , the head having a second drive for moving the head and the specimen holder toward and away from the rotating drive plate ; and - a cover disposed over the bowl and rotating drive plate , the cover having an opening ; the head has a sleeve having inner and outer peripheries, the sleeve being positioned on the head depending therefrom around and over the shaft to a position just above the specimen holder , the inner periphery being larger than an outer periphery of the specimen holder , and the opening of the cover has an inner periphery greater than the outer periphery of the sleeve , wherein the sleeve traverses through the cover opening when the specimen holder is moved toward the rotating drive plate .
A composite element for use in a stator or a rotor for use in an electrical machine, comprising - a rigid mass suitable for comprising at least one magnetostrictive electrode bar, - at least one magnetostrictive electrode bar, - piezoelectric material in between said rigid mass material and said at least one magnetostrictive electrode bar , wherein the rigid mass , the at least one magnetostrictive electrode bar and the piezoelectric material are arranged such that applying a voltage between the rigid mass and one or more magnetostrictive electrode bars, causes piezoelectric effects in the piezoelectric material inducing a bi-axial stress in the bi-axial plane of the at least one magnetostrictive electrode bar and a change of the permeability of the at least one magnetostrictive electrode bar in a direction perpendicular to the bi-axial stress plane, wherein the bi-axial plane is perpendicular to the direction in which a magnetic flux flows in the at least one magnetostrictive electrode bar - a rigid mass suitable for comprising at least one magnetostrictive electrode bar, - at least one magnetostrictive electrode bar, - piezoelectric material in between said rigid mass material and said at least one magnetostrictive electrode bar ,
Method for producing a battery element of a battery cell, comprising the following method steps: a) applying a first electrode material to a first separator coated with a ceramic material , b) applying a second separator coated with the ceramic material to the arrangement according to method step a), c) producing at least one fixing connection in the edge region of the first electrode material between the first and second separators , and d) producing at least one main connection , which is spaced apart from the at least one fixing connection , between the first and the second separator and forming a pocket for the first electrode material . a) applying a first electrode material to a first separator coated with a ceramic material , b) applying a second separator coated with the ceramic material to the arrangement according to method step a), c) producing at least one fixing connection in the edge region of the first electrode material between the first and second separators , and d) producing at least one main connection , which is spaced apart from the at least one fixing connection , between the first and the second separator and forming a pocket for the first electrode material .
An energy management system of a ROV, the system comprising: - an electrical power generation unit located in a remote station on a water body and configured to generate a generated electrical power (P1) with a first maximum value (PM1); - a wire-guided ROV configured to operate in the water body and configured to absorb a second maximum value (PM2) of an absorbed electrical power (P2) greater than the first maximum value (PM1); - an electrical energy transmission line connected to the generating unit and to the ROV and configured to transmit electrical power from the generating unit to the ROV ; and - an electrical energy storage device located along the transmission line and/or on board the ROV . - an electrical power generation unit located in a remote station on a water body and configured to generate a generated electrical power (P1) with a first maximum value (PM1); - a wire-guided ROV configured to operate in the water body and configured to absorb a second maximum value (PM2) of an absorbed electrical power (P2) greater than the first maximum value (PM1); - an electrical energy transmission line connected to the generating unit and to the ROV and configured to transmit electrical power from the generating unit to the ROV ; and - an electrical energy storage device located along the transmission line and/or on board the ROV .
A packaging laminate comprising: - a core layer having at least one through-hole which on one side is covered by a barrier film and - an outer layer of a polymeric material, wherein said outer polymeric layer and said barrier film are laminated to each other in a manner such that said polymeric layer and said barrier film are separated from each other along parallel, visually detectable air-filled channels formed by these two layers within the area of said at least one through-hole, characterized in that said visually detectable air-filled channels extend in a direction parallell to opposite longitudinal edges of said core layer. - a core layer having at least one through-hole which on one side is covered by a barrier film and - an outer layer of a polymeric material, wherein said outer polymeric layer and said barrier film are laminated to each other in a manner such that said polymeric layer and said barrier film are separated from each other along parallel, visually detectable air-filled channels formed by these two layers within the area of said at least one through-hole, characterized in that said visually detectable air-filled channels extend in a direction parallell to opposite longitudinal edges of said core layer.