mhurhangee/ep-ind-claims huggingface dataset:
A battery module comprising: a first battery cell; and a laminated element including one or more heat conducting layers and one or more intumescent layers, characterized in that the laminated element comprises an aperture through which the first battery cell extends and contacts the laminated element, the one or more intumescent layers being configured to expand in response to an intumescent layer temperature exceedance to reconfigure the laminated element from a first configuration in which the laminated element transfers heat emitted by the first battery cell to a second configuration in which the laminated element inhibits heat conduction to thermally isolate the first battery cell. a first battery cell; and a laminated element including one or more heat conducting layers and one or more intumescent layers, characterized in that the laminated element comprises an aperture through which the first battery cell extends and contacts the laminated element, the one or more intumescent layers being configured to expand in response to an intumescent layer temperature exceedance to reconfigure the laminated element from a first configuration in which the laminated element transfers heat emitted by the first battery cell to a second configuration in which the laminated element inhibits heat conduction to thermally isolate the first battery cell.
A facial image enhancement method, comprising: determining a plurality of feature regions in a facial image according to feature points of the facial image; correcting an initial enhancement weight coefficient of each feature region of the feature regions, to obtain a weight map of discrete enhancement on the facial image; obtaining a weight map of continuous enhancement on the facial image according to the weight map of discrete enhancement on the facial image; and performing enhancing the facial image according to the weight map of continuous enhancement on the facial image, to obtain an enhanced facial image, characterized in that the correcting the initial enhancement weight coefficient of each feature region of the feature regions, to obtain the weight map of discrete enhancement on the facial image comprises: obtaining the initial enhancement weight coefficient corresponding to each feature region of the feature regions; determining a smoothing coefficient of each feature region of the feature regions and a physiological feature coefficient corresponding to the facial image; and correcting the initial enhancement weight coefficient according to the smoothing coefficient of each feature region of the feature regions and the physiological feature coefficient to obtain the weight map of discrete enhancement on the facial image. determining a plurality of feature regions in a facial image according to feature points of the facial image; correcting an initial enhancement weight coefficient of each feature region of the feature regions, to obtain a weight map of discrete enhancement on the facial image; obtaining a weight map of continuous enhancement on the facial image according to the weight map of discrete enhancement on the facial image; and performing enhancing the facial image according to the weight map of continuous enhancement on the facial image, to obtain an enhanced facial image, characterized in that the correcting the initial enhancement weight coefficient of each feature region of the feature regions, to obtain the weight map of discrete enhancement on the facial image comprises: obtaining the initial enhancement weight coefficient corresponding to each feature region of the feature regions; determining a smoothing coefficient of each feature region of the feature regions and a physiological feature coefficient corresponding to the facial image; and correcting the initial enhancement weight coefficient according to the smoothing coefficient of each feature region of the feature regions and the physiological feature coefficient to obtain the weight map of discrete enhancement on the facial image. obtaining the initial enhancement weight coefficient corresponding to each feature region of the feature regions; determining a smoothing coefficient of each feature region of the feature regions and a physiological feature coefficient corresponding to the facial image; and correcting the initial enhancement weight coefficient according to the smoothing coefficient of each feature region of the feature regions and the physiological feature coefficient to obtain the weight map of discrete enhancement on the facial image.
A battery, comprising: a pouch; a battery cell comprising a cathode, an anode, and a separator located between the cathode and the anode, and accommodated in the pouch; characterized in, a plurality of cathode tabs (331; 331a, 331b), each of which comprises a first area electrically connected to the cathode and an unstructured second area extending to protrude from the first area to outside of the cathode; a plurality of anode tabs (332; 332a, 332b), each of which comprises a third area electrically connected to the anode and an unstructured fourth area extending to protrude from the third area to outside of the anode; a cathode terminal joined to the second areas of the cathode tabs (331; 331a, 331b); and an anode terminal joined to the fourth areas of the anode tabs (332; 332a, 332b), wherein the cathode tabs (331; 331a, 331b) are disposed in the cathode such that the first areas do not overlap each other when viewed from the top of one surface of the battery cell, and the second areas are coupled to each other, and wherein the anode tabs (332; 332a, 332b) are disposed in the anode such that the third areas do not overlap each other when viewed from the top of one surface of the battery cell, and the fourth areas are coupled to each other. a pouch; a battery cell comprising a cathode, an anode, and a separator located between the cathode and the anode, and accommodated in the pouch; characterized in, a plurality of cathode tabs (331; 331a, 331b), each of which comprises a first area electrically connected to the cathode and an unstructured second area extending to protrude from the first area to outside of the cathode; a plurality of anode tabs (332; 332a, 332b), each of which comprises a third area electrically connected to the anode and an unstructured fourth area extending to protrude from the third area to outside of the anode; a cathode terminal joined to the second areas of the cathode tabs (331; 331a, 331b); and an anode terminal joined to the fourth areas of the anode tabs (332; 332a, 332b), wherein the cathode tabs (331; 331a, 331b) are disposed in the cathode such that the first areas do not overlap each other when viewed from the top of one surface of the battery cell, and the second areas are coupled to each other, and wherein the anode tabs (332; 332a, 332b) are disposed in the anode such that the third areas do not overlap each other when viewed from the top of one surface of the battery cell, and the fourth areas are coupled to each other.
A semiconductor device (30, 60, 100), comprising: a lateral transistor device (31, 61) having a source, a drain and a gate; a monolithically integrated additional capacitor (40, 62) coupled between the gate and the drain that is also coupled in parallel with an inherent gate drain capacitance C GD of the lateral transistor device (31, 61), wherein the monolithically integrated additional capacitor (40, 62) has a capacitance C M that is larger than C GD, wherein the semiconductor device (30, 60) comprises a reverse transfer capacitance C rss, wherein C rss(Vds = 0V) /C rss (V ds = 400V) < 50. a lateral transistor device (31, 61) having a source, a drain and a gate; a monolithically integrated additional capacitor (40, 62) coupled between the gate and the drain that is also coupled in parallel with an inherent gate drain capacitance C GD of the lateral transistor device (31, 61), wherein the monolithically integrated additional capacitor (40, 62) has a capacitance C M that is larger than C GD, wherein the semiconductor device (30, 60) comprises a reverse transfer capacitance C rss, wherein C rss(Vds = 0V) /C rss (V ds = 400V) < 50.
A battery module comprising: an end plate; and side plates; characterized in that the end plate comprises: a body; and connecting plates connected to edges of the body, wherein the connecting plates extend along a height direction of the battery module, and the body is fixedly connected to the side plates of the battery module through the connecting plates by laser welding, wherein the body is made of aluminum, the connecting plates are made of steel, and the side plates are made of steel. an end plate; and side plates; characterized in that the end plate comprises: a body; and connecting plates connected to edges of the body, wherein the connecting plates extend along a height direction of the battery module, and the body is fixedly connected to the side plates of the battery module through the connecting plates by laser welding, wherein the body is made of aluminum, the connecting plates are made of steel, and the side plates are made of steel. a body; and connecting plates connected to edges of the body, wherein the connecting plates extend along a height direction of the battery module, and the body is fixedly connected to the side plates of the battery module through the connecting plates by laser welding, wherein the body is made of aluminum, the connecting plates are made of steel, and the side plates are made of steel.
An isolated fraction of mastic gum, the fraction comprising polymeric myrcene and being obtainable by: a) contacting mastic gum with at least one polar organic solvent; b) isolating a fraction which is soluble in the at least one polar organic solvent; c) treating the soluble fraction obtained in step b) with at least one non-polar organic solvent selected from a C 5 -C 10 -alkane, d) isolating a fraction that is soluble in said non-polar organic solvent, wherein steps a) to b) and c) to d) are each independently carried out for a number of cycles, wherein the fraction is substantially devoid of compounds which are soluble in said polar organic solvent but insoluble in said non-polar organic solvent, wherein the at least one polar organic solvent is an alcohol selected form the group consisting of methanol, ethanol, propanol, isopropanol, 1-butanol, 2-butanol, sec-butanol, t-butanol, 1-pentanol, 2-pentanol, 3-pentanol, neopentanol, 3-methyl-1-butanol, 2-methyl-1-butanol, 3-methyl-2-butanol, 2-methyl-2-butanol, ethyleneglycol, and ethyleneglycol monomethyl ether, and mixtures thereof, for use in the treatment of an impaired neurological function, wherein the impaired neurological function comprises a decrease in a function selected from the group consisting of cognitive function, sensory function, motor function and combinations thereof. a) contacting mastic gum with at least one polar organic solvent; b) isolating a fraction which is soluble in the at least one polar organic solvent; c) treating the soluble fraction obtained in step b) with at least one non-polar organic solvent selected from a C 5 -C 10 -alkane, d) isolating a fraction that is soluble in said non-polar organic solvent, wherein steps a) to b) and c) to d) are each independently carried out for a number of cycles,
Linear position sensor comprising an element where sensor coils (7, 8, 9, 10) are disposed, and a partly electrically conductive element, both elements are movable relative to each other in a direction along a measurement path; the partly electrically conductive element comprising continuously extending measuring tracks (4, 5, 6) of two typologies, wherein one measuring track is of a triangularly shaped type, said measuring track being limited by two triangular shapes on both sides along the measurement path, and wherein a second measuring track (4, 6) is of a discrete incremental step type, said second measurement track (4, 6) containing discrete increments along the measurement path.
An integrated sense resistor configured for sensing a voltage developed by current flowing across the integrated sense resistor for determining a value of the current, characterised by: a plurality of first metal bumps alternating with a plurality of second metal bumps in a first lateral direction and wherein the first metal bumps and the second metal bumps further alternate in a second direction crossing the first lateral direction, wherein the second lateral direction is orthogonal to the first lateral direction such that the first and second metal bumps are arranged in a checkerboard pattern; and a plurality of thin film resistors each disposed between and electrically connected to a pair of adjacent ones of first and second metal bumps. a plurality of first metal bumps alternating with a plurality of second metal bumps in a first lateral direction and wherein the first metal bumps and the second metal bumps further alternate in a second direction crossing the first lateral direction, wherein the second lateral direction is orthogonal to the first lateral direction such that the first and second metal bumps are arranged in a checkerboard pattern; and a plurality of thin film resistors each disposed between and electrically connected to a pair of adjacent ones of first and second metal bumps.
A heat pump type air conditioning apparatus for a vehicle which is arranged such that an operation mode can be switched for an operation between a cooling operation in which a refrigerant discharged from a compressor is subject to heat exchange in an external condenser, and then is depressurized and supplied to an internal evaporator, and a heating operation in which the refrigerant discharged from the compressor is subject to heat exchange in an internal condenser, and then is depressurized and supplied to an external evaporator, the apparatus comprising: a refrigerant heater that is provided between the internal evaporator and a suction side of the compressor to be in parallel with the external evaporator, and is arranged to heat the refrigerant which is suctioned into the compressor; and a frost formation determination unit that is arranged to determine whether the external evaporator is frosted, characterized in that: the external evaporator is provided as a component different from the external condenser, and the external evaporator is parallel with the external condenser, and in that the heat pump type air conditioning apparatus is arranged to perform a defrosting operation, when the frost formation determination unit determines that the external evaporator is frosted during the heating operation, said defrosting operation including stopping a supply of the refrigerant subject to the heat exchange in the internal condenser to the external evaporator, supplying the refrigerant discharged from the compressor to the external condenser via the internal condenser and a switching means provided on an inlet side of the external condenser, and then supplying the refrigerant to the refrigerant heater, heating it and then, suctioning it into the compressor.
A method for estimating an accident risk of an autonomous driving unit, the method comprising: monitoring with a sensor (6, 16, 18) in the driving unit at least one driving parameter of the driving unit during autonomous driving and determining driving values with an evaluation unit; determining an autonomous-driving quantity which quantifies an autonomous-driving quality of the driving of the driving unit; and associating the autonomous-driving quantity with a plurality of manual-driving quantities, which have been determined from the at least one driving parameter during manual driving periods of different driving units, and determining an autonomous-driving accident rate value, characterized in that the autonomous-driving accident rate value is determined from accident rate values associated with the manual-driving quantities. monitoring with a sensor (6, 16, 18) in the driving unit at least one driving parameter of the driving unit during autonomous driving and determining driving values with an evaluation unit; determining an autonomous-driving quantity which quantifies an autonomous-driving quality of the driving of the driving unit; and associating the autonomous-driving quantity with a plurality of manual-driving quantities, which have been determined from the at least one driving parameter during manual driving periods of different driving units, and determining an autonomous-driving accident rate value, characterized in that the autonomous-driving accident rate value is determined from accident rate values associated with the manual-driving quantities.
A method for processing blocks of flash memory to decrease raw bit errors from the flash memory, comprising: identifying one or more blocks of the flash memory for a refresh operation responsive to a read request; and issuing background reads to the identified blocks as the refresh operation and discarding data values read from the identified blocks. identifying one or more blocks of the flash memory for a refresh operation responsive to a read request; and issuing background reads to the identified blocks as the refresh operation and discarding data values read from the identified blocks.
A method of wireless communication performed by an access node, comprising: synchronizing a clock of the access node to a frame structure of a time-synchronized wireless network, wherein the clock is associated with communication on a local area network; determining configuration information relating to a quality of service profile and a first set of time intervals for the clock of the access node; mapping the first set of time intervals for the clock of the access node to a second set of time intervals defined by the frame structure of the time-synchronized wireless network based at least in part on synchronizing the clock of the access node to the frame structure of the time-synchronized wireless network; and communicating on the time-synchronized wireless network during one or more of the second set of time intervals based at least in part on the quality of service profile and based at least in part on mapping the first set of time intervals to the second set of time intervals. synchronizing a clock of the access node to a frame structure of a time-synchronized wireless network, wherein the clock is associated with communication on a local area network; determining configuration information relating to a quality of service profile and a first set of time intervals for the clock of the access node; mapping the first set of time intervals for the clock of the access node to a second set of time intervals defined by the frame structure of the time-synchronized wireless network based at least in part on synchronizing the clock of the access node to the frame structure of the time-synchronized wireless network; and communicating on the time-synchronized wireless network during one or more of the second set of time intervals based at least in part on the quality of service profile and based at least in part on mapping the first set of time intervals to the second set of time intervals.
A process for producing ethlylene glycol from cellulose by carrying out hydrogenating degradation using a tungsten carbide catalyst which can be expressed as A-W x C/B, wherein said A-W x C is a catalytic-active component, wherein said A comprises one or more metallic elements selected from the group consisting of nickel, cobalt, iron, ruthenium, rhodium, palladium, osmium, iridium, platinum, and copper, said W x C is tungsten carbide, wherein 1≤x≤2; the total loading of said catalytic active component in said catalyst is 2-85 wt%; wherein the loading of said A is 0.05-30 wt%, the loading of said W is 1-80 wt%; and wherein said B in said A-W x C/B is a porous support, wherein said B comprises one or more materials selected from the group consisting of active carbon, alumina, silica, titanium oxide and zirconium oxide.; wherein said cellulose hydrogenating degradation is carried out in a sealed reactor with stirring, wherein the mass ratio of cellulose to water is 1:200-1:5, wherein the mass ratio of cellulose to catalyst is 1:1-10:3, wherein the initial pressure of hydrogen filled in said reactor at room temperature is 1-10 MPa, the reaction temperature is 120-300°C, and the reaction time is 10 min - 24 h.
A patch cord for a physical layer management system, comprising: a communication cable including a first end, a second end, and plurality of signal pairs extending between said first end and said second end; a first plug connected to said first end and a second plug connected to said second end, at least one plug having a plug antenna (24, 26) and at least one light emitting diode circuit, wherein said at least one LED circuit includes a first circuit with a first LED and a first resonant frequency and a second circuit with a second LED and a second resonant frequency; wherein the first LED is arranged to illuminate in response to a first signal having the first resonant frequency and the second LED is arranged to illuminate in response to a second signal having the second resonant frequency; wherein said first resonant frequency is different than said second resonant frequency. a communication cable including a first end, a second end, and plurality of signal pairs extending between said first end and said second end; a first plug connected to said first end and a second plug connected to said second end, at least one plug having a plug antenna (24, 26) and at least one light emitting diode circuit, wherein said at least one LED circuit includes a first circuit with a first LED and a first resonant frequency and a second circuit with a second LED and a second resonant frequency; wherein the first LED is arranged to illuminate in response to a first signal having the first resonant frequency and the second LED is arranged to illuminate in response to a second signal having the second resonant frequency; wherein said first resonant frequency is different than said second resonant frequency.