mhurhangee/ep-ind-claims huggingface dataset:
A positive electrode for a secondary battery, comprising: a positive electrode current collector; a first positive electrode mixture layer laminated on the positive electrode current collector and including a first positive electrode active material and a first conductive material; and a second positive electrode mixture layer laminated on the first positive electrode mixture layer and including a second positive electrode active material and a second conductive material, wherein the average particle diameter (D 50) of the second positive electrode active material is 5 to 80 % of the average particle diameter (D 50) of the first positive electrode active material, the ratio of the specific surface area of the second conductive material to the specific surface area of the second positive electrode active material is 9 or less, wherein the ratio of the specific surface area of the first conductive material to the specific surface area of the first positive electrode active material is 11 or greater, and wherein the average particle diameter (D 50) is a particle diameter corresponding to 50% of the volume accumulation in a particle diameter distribution curve, and is measured using a laser diffraction method by dispersing particles of the positive electrode active material in a dispersion medium, introducing the dispersed particles to a laser diffraction particle size measurement device to irradiate the particles with an ultrasonic wave of 28 kHz to an output of 60W, and measuring the average particle diameter (D 50) corresponding to 50% of the volume accumulation in the measurement device. a positive electrode current collector; a first positive electrode mixture layer laminated on the positive electrode current collector and including a first positive electrode active material and a first conductive material; and a second positive electrode mixture layer laminated on the first positive electrode mixture layer and including a second positive electrode active material and a second conductive material, wherein the average particle diameter (D 50) of the second positive electrode active material is 5 to 80 % of the average particle diameter (D 50) of the first positive electrode active material, the ratio of the specific surface area of the second conductive material to the specific surface area of the second positive electrode active material is 9 or less, wherein the ratio of the specific surface area of the first conductive material to the specific surface area of the first positive electrode active material is 11 or greater, and wherein the average particle diameter (D 50) is a particle diameter corresponding to 50% of the volume accumulation in a particle diameter distribution curve, and is measured using a laser diffraction method by dispersing particles of the positive electrode active material in a dispersion medium, introducing the dispersed particles to a laser diffraction particle size measurement device to irradiate the particles with an ultrasonic wave of 28 kHz to an output of 60W, and measuring the average particle diameter (D 50) corresponding to 50% of the volume accumulation in the measurement device.
A liquid dispenser for animals, comprising: a tank having an upper opening; and an inner assembly including: a pump provided in the tank; a pipe through which liquid discharged from the pump flows therethrough; and a plate over which liquid discharged from the pipe flows, wherein the inner assembly is seated on a bottom plate of the tank and within the upper opening of the tank to close the upper opening, said liquid dispenser being characterized in that the inner assembly further includes a filter assembly surrounding the pump. a tank having an upper opening; and an inner assembly including: a pump provided in the tank; a pipe through which liquid discharged from the pump flows therethrough; and a plate over which liquid discharged from the pipe flows, wherein the inner assembly is seated on a bottom plate of the tank and within the upper opening of the tank to close the upper opening, said liquid dispenser being characterized in that the inner assembly further includes a filter assembly surrounding the pump. a pump provided in the tank; a pipe through which liquid discharged from the pump flows therethrough; and a plate over which liquid discharged from the pipe flows, wherein the inner assembly is seated on a bottom plate of the tank and within the upper opening of the tank to close the upper opening, said liquid dispenser being characterized in that the inner assembly further includes a filter assembly surrounding the pump.
An absorbent garment (300a, 300b, 300c, 300c-1) comprising: a chassis having opposing front and rear waist portions, a crotch portion extending longitudinally between the front and rear waist portions (308, 312), a topsheet, and a backsheet; an absorbent core coupled to the crotch portion; and a dryness layer extending longitudinally along the absorbent core and comprising a nonwoven sheet wherein the absorbent core and the dryness layer are disposed between the topsheet and the backsheet, characterized in that the dryness layer further comprises two or more longitudinally-extending laminate strips (336a-336c) coupled to the nonwoven sheet, each including an absorbent lamina (344, 404) disposed between first and second substrate laminae (340a-340b, 400a-400b), the absorbent lamina (344, 404) comprising superabsorbent polymer and the first and second substrate laminae (340a-340b, 400a-400b) each comprising tissue or nonwoven; wherein the laminate strips (336a-336c) are spaced apart laterally along a width of the dryness layer such that a longitudinally-extending channel (368, 408a-408b, 424, 424a-424b) is defined between a first one of the laminate strips (336a-336c) and a second one of the laminate strips (336a-336c). a chassis having opposing front and rear waist portions, a crotch portion extending longitudinally between the front and rear waist portions (308, 312), a topsheet, and a backsheet; an absorbent core coupled to the crotch portion; and a dryness layer extending longitudinally along the absorbent core and comprising a nonwoven sheet wherein the absorbent core and the dryness layer are disposed between the topsheet and the backsheet, characterized in that the dryness layer further comprises two or more longitudinally-extending laminate strips (336a-336c) coupled to the nonwoven sheet, each including an absorbent lamina (344, 404) disposed between first and second substrate laminae (340a-340b, 400a-400b), the absorbent lamina (344, 404) comprising superabsorbent polymer and the first and second substrate laminae (340a-340b, 400a-400b) each comprising tissue or nonwoven; wherein the laminate strips (336a-336c) are spaced apart laterally along a width of the dryness layer such that a longitudinally-extending channel (368, 408a-408b, 424, 424a-424b) is defined between a first one of the laminate strips (336a-336c) and a second one of the laminate strips (336a-336c). the dryness layer further comprises two or more longitudinally-extending laminate strips (336a-336c) coupled to the nonwoven sheet, each including an absorbent lamina (344, 404) disposed between first and second substrate laminae (340a-340b, 400a-400b), the absorbent lamina (344, 404) comprising superabsorbent polymer and the first and second substrate laminae (340a-340b, 400a-400b) each comprising tissue or nonwoven; wherein the laminate strips (336a-336c) are spaced apart laterally along a width of the dryness layer such that a longitudinally-extending channel (368, 408a-408b, 424, 424a-424b) is defined between a first one of the laminate strips (336a-336c) and a second one of the laminate strips (336a-336c).
A polyetherimide-based fiber containing a polyetherimide resin and carbon black dispersed in the resin, wherein the fiber has a content of the carbon black of 0.03 wt% or greater; the carbon black has a primary particle number-mean particle size of from 30 nm to 500 nm; the fiber has a weight reduction rate of less than 0.5% measured using a thermogravimetric/ differential thermal analysis system, TG-DTA, around the glass transition point (Tg) of the polyetherimide resin, where the weight reduction rate is defined by the following formula: weight reduction rate % = fiber weight at temperature T1 − fiber weight at temperature T2 / fiber weight at temperature T1 × 100 where T1 denotes a temperature (Tg - 15°C) that is 15°C lower than the glass transition point (glass transition temperature) of the polyetherimide resin, and T2 denotes a temperature (Tg + 25°C) that is 25°C higher than the glass transition point, and the glass transition point (Tg) is determined from an inflection point observed during elevated heating at the heating rate of 10°C/min until 400°C under nitrogen atmosphere; and the carbon black satisfies a ratio D/A of 100 to 2000, where "D" denotes the primary particle number-mean particle size of the carbon black as "D nanometer" determined according to the method disclosed in the description and "A" denotes the content of carbon black in the fiber as "A wt%". and the glass transition point (Tg) is determined from an inflection point observed during elevated heating at the heating rate of 10°C/min until 400°C under nitrogen atmosphere; and the carbon black satisfies a ratio D/A of 100 to 2000, where "D" denotes the primary particle number-mean particle size of the carbon black as "D nanometer" determined according to the method disclosed in the description and "A" denotes the content of carbon black in the fiber as "A wt%".
A data transmission method, performed by a transmit end apparatus, wherein the method comprises: generating a first code block, wherein the first code block comprises a first load and a first redundancy code, the first load comprises N second code blocks, the first redundancy code is used to perform error correction on the first load, an i th second code block comprises a second load and a second redundancy code, the second redundancy code is used to perform error detection on the second load in the i th second code block, a value of i is an integer ranging from 1 to N, and N is an integer greater than or equal to 1; and sending the first code block to a receive end apparatus; wherein the second load in the i th second code block comprises indication information and to-be-transmitted data, and the indication information is used to indicate an identifier of the i th second code block; wherein the indication information in the i th second code block is further used to indicate a code block type of the i th second code block, and the code block type comprises a retransmission-supported type or a retransmission-unsupported type. generating a first code block, wherein the first code block comprises a first load and a first redundancy code, the first load comprises N second code blocks, the first redundancy code is used to perform error correction on the first load, an i th second code block comprises a second load and a second redundancy code, the second redundancy code is used to perform error detection on the second load in the i th second code block, a value of i is an integer ranging from 1 to N, and N is an integer greater than or equal to 1; and sending the first code block to a receive end apparatus; wherein the second load in the i th second code block comprises indication information and to-be-transmitted data, and the indication information is used to indicate an identifier of the i th second code block; wherein the indication information in the i th second code block is further used to indicate a code block type of the i th second code block, and the code block type comprises a retransmission-supported type or a retransmission-unsupported type.
A method for detecting longitudinal movement of a material having a varying surface profile, comprising the steps of: sensing the profile of a surface of a continuous strip of material having a variable surface profile; generating a signal that varies as a function of the sensed profile; monitoring the varying signal overtime; and generating a control signal when variation in the signal within a predetermined period is less than a predetermined amount, which would indicate a lack of movement of the material. sensing the profile of a surface of a continuous strip of material having a variable surface profile; generating a signal that varies as a function of the sensed profile; monitoring the varying signal overtime; and generating a control signal when variation in the signal within a predetermined period is less than a predetermined amount, which would indicate a lack of movement of the material.
A fire protection component which is formed in a planar manner and which is connected tc at least one space-bounding surface component, wherein the fire protection component is formed from fire protection material on the basis of an inorganic sol and the composition of the fire protection material comprises the following: - from 25 to 70 % by weight of SiO 2 (solids content) - from 0.05 to 10 % by weight of surfactants - from 0.01 to 25 % by weight of polyol - from 0.05 to 2 % by weight of alkali-metal oxide - from 0.05 to 20 % by weight of acid - from 0.01 to 10 % by weight of corrosion protection material - distilled or de-ionized water, wherein the composition of the fire protection material is capable of being poured during the production and is capable of being cured by the addition of a base, wherein the surfactants are made anionic, cationic and/or amphoteric. - from 25 to 70 % by weight of SiO 2 (solids content) - from 0.05 to 10 % by weight of surfactants - from 0.01 to 25 % by weight of polyol - from 0.05 to 2 % by weight of alkali-metal oxide - from 0.05 to 20 % by weight of acid - from 0.01 to 10 % by weight of corrosion protection material - distilled or de-ionized water,
Lithium ion conductive glass ceramic, said material comprising a garnet-type crystalline phase content and an amorphous phase content, wherein said material having a sintering temperature of 1000°C or lower, preferably 950°C or lower and an ion conductivity of at least 1*10 -5 S/cm, preferably at least 2*10 -5 S/cm, preferably at least 5*10 -5 S/cm, preferably at least 1*10 -4 S/cm at room temperature, and wherein said amorphous phase content comprises boron and/or a composition comprising boron. a sintering temperature of 1000°C or lower, preferably 950°C or lower and an ion conductivity of at least 1*10 -5 S/cm, preferably at least 2*10 -5 S/cm, preferably at least 5*10 -5 S/cm, preferably at least 1*10 -4 S/cm at room temperature, and wherein said amorphous phase content comprises boron and/or a composition comprising boron.
A robotic lawnmower system, comprising a robotic lawnmower and a charging station, said charging station comprising a signal generator being configured to transmit a boundary signal utilizing CDMA coding having a frame length corresponding to a full frame length through a boundary wire, and wherein said robotic lawnmower is configured to receive said boundary signal by detecting magnetic fields generated by the boundary signal, and wherein the robotic lawnmower system is characterized in that said signal generator is configured to transmit said boundary signal in subframes and that the robotic lawnmower is configured to determine a set of conditions of the received boundary signal; and to determine if said set of conditions correspond to a first set of conditions, and if so listen to the subframes to determine if the robotic lawnmower is inside or outside a working area or if the robotic lawnmower crosses the boundary wire, and to determine if said set of conditions correspond to a second set of conditions, and if so listen to the full frames to determine if the robotic lawnmower is inside or outside a working area or if the robotic lawnmower crosses the boundary wire. determine a set of conditions of the received boundary signal; and to determine if said set of conditions correspond to a first set of conditions, and if so listen to the subframes to determine if the robotic lawnmower is inside or outside a working area or if the robotic lawnmower crosses the boundary wire, and to determine if said set of conditions correspond to a second set of conditions, and if so listen to the full frames to determine if the robotic lawnmower is inside or outside a working area or if the robotic lawnmower crosses the boundary wire.
A method for producing layers of solid material, in particular for use as wafers, comprising: providing a workpiece for separating the layers of solid material, wherein the workpiece comprises at least one exposed surface, producing and/or providing a carrier unit for receiving at least one layer of solid material, the carrier unit having a multi-layer structure, the carrier unit having a stabilization layer and the stabilization layer being overlapped at least in portions by a receiving layer, the receiving layer being made to hold the layers of solid material, and the stabilization layer being formed, at least in portions, to have a Young's modulus greater than a Young's modulus of the receiving layer; connecting the receiving layer to the exposed surface of the workpiece to form a composite structure, exposing the composite structure to an inner and/or outer stress field such that the layer of solid material is separated from the workpiece along a plane extending within the workpiece. providing a workpiece for separating the layers of solid material, wherein the workpiece comprises at least one exposed surface, producing and/or providing a carrier unit for receiving at least one layer of solid material, the carrier unit having a multi-layer structure, the carrier unit having a stabilization layer and the stabilization layer being overlapped at least in portions by a receiving layer, the receiving layer being made to hold the layers of solid material, and the stabilization layer being formed, at least in portions, to have a Young's modulus greater than a Young's modulus of the receiving layer; the carrier unit having a stabilization layer and the stabilization layer being overlapped at least in portions by a receiving layer, the receiving layer being made to hold the layers of solid material, and the stabilization layer being formed, at least in portions, to have a Young's modulus greater than a Young's modulus of the receiving layer; connecting the receiving layer to the exposed surface of the workpiece to form a composite structure, exposing the composite structure to an inner and/or outer stress field such that the layer of solid material is separated from the workpiece along a plane extending within the workpiece.
Mechanical train for the drive of a motor vehicle, in particular of a commercial vehicle, comprising: a housing which is sealed in order to receive a lubricant and has at least one housing wall (104, 106, 108); a mechanical system (105, 107, 109) which is arranged in the housing, is wetted by the lubricant, and has at least one shaft for the transmission of drive power in the longitudinal direction; and a multiplicity of channels for receiving a fluid, at least sections of the channels running within the housing wall (104, 106, 108) in the longitudinal direction and being separated from the lubricant by way of the housing wall, the channels being connected fluidically or being capable of being connected fluidically to a thermal circuit, characterized by predetermined break points in an outer face of the housing wall, which predetermined break points are configured to connect the channels fluidically to the exterior of the housing wall in the case of a pressure of the fluid in the channels, which pressure is greater than a predefined pressure threshold. a housing which is sealed in order to receive a lubricant and has at least one housing wall (104, 106, 108); a mechanical system (105, 107, 109) which is arranged in the housing, is wetted by the lubricant, and has at least one shaft for the transmission of drive power in the longitudinal direction; and a multiplicity of channels for receiving a fluid, at least sections of the channels running within the housing wall (104, 106, 108) in the longitudinal direction and being separated from the lubricant by way of the housing wall, the channels being connected fluidically or being capable of being connected fluidically to a thermal circuit, characterized by predetermined break points in an outer face of the housing wall, which predetermined break points are configured to connect the channels fluidically to the exterior of the housing wall in the case of a pressure of the fluid in the channels, which pressure is greater than a predefined pressure threshold.
A system for improving a person's sleep, the system comprises a bedding layer comprising a plurality of thermally adjustable zones, a plurality of temperature sensors, wherein at least one temperature sensor per thermally adjustable zone is dispersed throughout the bedding layer, the temperature of each thermally adjustable zone can be controlled separately, and the system comprises means for controlling the heating or cooling power of each of said thermally adjustable zone, wherein the system is configured such that the position of the body of the person on or underneath the bedding layer can be detected by using the plurality of temperature sensors for identifying those thermally adjustable zones selected from the group of zones, where the temperature increases faster than in other zones, where the power needed for maintaining a set temperature is less, and where the actual temperature is above the set temperature, any one of the temperature, the heating rate and the cooling rate of each individual thermally adjustable zone can be controlled, and wherein the system is configured to automatically switch-off the heating after a preset period of time after the person got out of the bed.