mhurhangee/ep-ind-claims huggingface dataset:
A separator for a lithium secondary battery, comprising a polyolefin-based porous substrate; and a coating layer on at least one surface of the polyolefin-based porous substrate, a coefficient of performance Q1 of the polyolefin-based porous substrate as represented by Equation 1 is greater than or equal to 1.2 (gf/nm·μm), a coefficient of performance Q2 of the polyolefin-based porous substrate as represented by Equation 2 is greater than or equal to 0.25 (gf/nm·%), and the coating layer includes a binder and inorganic particles: Q 1 = P gf S nm × T μm Q 2 = P gf S nm × R % wherein, in Equations 1 and 2, P is a puncture strength of the polyolefin-based porous substrate, measured by preparing ten specimens by cutting the separator into a width of 50 mm × a length of 50 mm at 10 different points, placing on a 10 cm hole by using a KES-G5 equipment (Kato Tech Co., Ltd.), and then, measuring three times with respect to a force with which each specimen is punctuated, while pressed with a 1 mm probe, and the three measurements per specimen averaged, S is an average pore diameter of the polyolefin-based porous substrate, measured according to ASTM F316-03, T is a thickness of the polyolefin-based porous substrate, R is a porosity of the polyolefin-based porous substrate, measured by obtaining a volume using a thickness and an area of the separator, measuring a weight thereof, and reflecting specific gravity (0.95 g/cm 3) of high density polyethylene and expressed as vol%, wherein a puncture strength standardized by the thickness of the polyolefin-based porous substrate is greater than or equal to 0.4 N/μm. a polyolefin-based porous substrate; and a coating layer on at least one surface of the polyolefin-based porous substrate, a coefficient of performance Q1 of the polyolefin-based porous substrate as represented by Equation 1 is greater than or equal to 1.2 (gf/nm·μm), a coefficient of performance Q2 of the polyolefin-based porous substrate as represented by Equation 2 is greater than or equal to 0.25 (gf/nm·%), and the coating layer includes a binder and inorganic particles: Q 1 = P gf S nm × T μm Q 2 = P gf S nm × R % wherein, in Equations 1 and 2, P is a puncture strength of the polyolefin-based porous substrate, measured by preparing ten specimens by cutting the separator into a width of 50 mm × a length of 50 mm at 10 different points, placing on a 10 cm hole by using a KES-G5 equipment (Kato Tech Co., Ltd.), and then, measuring three times with respect to a force with which each specimen is punctuated, while pressed with a 1 mm probe, and the three measurements per specimen averaged, S is an average pore diameter of the polyolefin-based porous substrate, measured according to ASTM F316-03, T is a thickness of the polyolefin-based porous substrate, R is a porosity of the polyolefin-based porous substrate, measured by obtaining a volume using a thickness and an area of the separator, measuring a weight thereof, and reflecting specific gravity (0.95 g/cm 3) of high density polyethylene and expressed as vol%, wherein a puncture strength standardized by the thickness of the polyolefin-based porous substrate is greater than or equal to 0.4 N/μm.
An implantable device, comprising: an implantable stimulator; a plurality of microelectrodes; and characterized by a routing circuit in electrical communication with the implantable stimulator and the plurality of microelectrodes, the routing circuit comprising a plurality of switches to selectively interconnect one or more of the plurality of microelectrodes with the implantable stimulator via a respective peak resistance band filter electrically coupled to each of the respective plurality of microelectrodes. an implantable stimulator; a plurality of microelectrodes; and characterized by a routing circuit in electrical communication with the implantable stimulator and the plurality of microelectrodes, the routing circuit comprising a plurality of switches to selectively interconnect one or more of the plurality of microelectrodes with the implantable stimulator via a respective peak resistance band filter electrically coupled to each of the respective plurality of microelectrodes.
A method of making a fascia for an automobile, the method comprising: providing an article, the article being one of translucent or transparent; forming the article into a shape, the shape being configured to be consonant with a vehicle exterior configuration; and applying a deposited pattern onto at least a first portion (118, 120) of a first side (102, 104) of the article using a printing process; wherein the printing process includes using an inkjet head mounted to a multi-axis robotic system to print the deposited pattern onto a non-flat three-dimensional surface of the article and drying the deposited pattern on the article using ultraviolet light during the printing process. providing an article, the article being one of translucent or transparent; forming the article into a shape, the shape being configured to be consonant with a vehicle exterior configuration; and applying a deposited pattern onto at least a first portion (118, 120) of a first side (102, 104) of the article using a printing process; wherein the printing process includes using an inkjet head mounted to a multi-axis robotic system to print the deposited pattern onto a non-flat three-dimensional surface of the article and drying the deposited pattern on the article using ultraviolet light during the printing process.
A curable composition which comprises a poly(meth)acrylate compound having a fluorene ring (component), a polythiol compound having a thioalkyl structure (component), an ene compound having a polycyclic aromatic hydrocarbon skeleton (component) and a polymerization initiator (component), wherein the component is a compound represented by general formula: wherein: Ar represents a polycyclic aromatic hydrocarbon; R 4 represents an alkyl group having 1 to 3 carbon atoms which is a substituent to the polycyclic aromatic hydrocarbon; M represents a functional group having an ene skeleton selected from general formula or general formula below; q represents an integer of 1 to 4; and r represents an integer of 0 to 10, wherein: R 5 represents a hydrogen atom or a methyl group; s represents an integer of 0 to 2; and a dotted line represents bonding to Ar, wherein: R 6 represents a hydrogen atom or a methyl group; t represents an integer of 0 to 2; and a dotted line represents bonding to Ar, and wherein the polycyclic aromatic hydrocarbon is at least one compound selected from the group consisting of naphthalene, anthracene, pentacene, pyrene, benzopyrene, chrysene and triphenylene. wherein: R 6 represents a hydrogen atom or a methyl group; t represents an integer of 0 to 2; and a dotted line represents bonding to Ar, and wherein the polycyclic aromatic hydrocarbon is at least one compound selected from the group consisting of naphthalene, anthracene, pentacene, pyrene, benzopyrene, chrysene and triphenylene.
A method for producing a marking (MRK1, MRK2) on a web, the method comprising forming a first altered portion by directing a laser beam to the web so as to locally reduce the fluorescence yield of the web at the location of the first altered portion, wherein the web comprises cellulose fibers and a fluorescent substance, and wherein the visual contrast ((L REF,1 -L 1,1)/L REF,1) between the first altered portion and a reference portion is smaller than or equal to 5% when the web is illuminated by substantially white visible light, which does not contain ultraviolet light, characterized in that the chemical composition of the fluorescent substance has been selected such that a trans-isomer of the fluorescent substance is converted into a cis-isomer of the fluorescent substance by exposing the fluorescent substance to the laser beam, and the wavelength of the laser beam is in the range of 180 to 400 nm.
A child vehicle seat comprising a seat bottom and a seat back, head support portions located on each lateral side of the seat back as well as shoulder support portions located on each lateral side of the seat back between the head support portions and the seat bottom, wherein each head support portion is provided with a first energy dissipation element, whilst each shoulder support portion is provided with a second energy dissipation element, characterized in that the first energy dissipation element has a compressive strength less than 50 kPa, the second energy dissipation element has a compressive strength between 50 and 500 kPa, measured at a deformation range of 10% - 40%, wherein the difference between the compressive strength of the first energy dissipation element and the second energy dissipation element is at least 20 kPa.
A method for detecting a malfunction in a hearing instrument which comprises at least a first input transducer, a second input transducer and at least one output transducer, wherein a first transfer function of a first acoustic system comprising the output transducer and the first input transducer is determined, wherein at least a first reference function for said first transfer function is determined, wherein a second transfer function of a second acoustic system comprising the output transducer and the second input transducer is determined, wherein at least a second reference function for said second transfer function is determined, wherein the first transfer function is compared with the first reference function, the second transfer function being compared with the second reference function, and wherein a malfunction in the first input transducer and/or the output transducer is detected on the basis of the comparison of the first transfer function with the first reference function and on the basis of the comparison of the second transfer function with the second reference function, characterized in that a first limit value, a second limit value and a third limit value are predetermined a first difference is formed from the first transfer function and the first reference function a second difference is formed from the second transfer function and the second reference function, a third difference is formed from the first transfer function and the second transfer function, wherein a malfunction at the first input transducer is detected if the first difference exceeds the first limit value at least in a frequency range without the second difference exceeding the second limit value, and/or wherein a malfunction at the output transducer is detected if frequency ranges exist for the first difference and the second difference, respectively, in which the first limit value and the second limit value, respectively, are exceeded without the third difference exceeding the third limit value.
A weir-type diaphragm valve, comprising: a valve body having a circumferential flange; a diaphragm having a circumferential gasket portion configured to be seated on the circumferential flange so as to form a joint between the valve body and the diaphragm; a pressure ring characterized in that the circumferential gasket portion is made of plastic, including Teflon, the pressure ring having a pressure ring flange with concentric fluctuations in form of concentric serrations, and being configured to apply a sealing force against the joint so that the concentric serrations penetrate the circumferential gasket portion for substantially minimize cold-flow and preventing radial movement of the circumferential gasket portion and the circumferential flange; and at least one elastic member configured to respond to a compressive force provided via gear-headed screws and provide a substantially constant sealing force, transmitted through the pressure ring, regardless of small variations in the thickness or material dimensions of the circumferential gasket portion caused by temperature fluctuation or material flow and age. a valve body having a circumferential flange; a diaphragm having a circumferential gasket portion configured to be seated on the circumferential flange so as to form a joint between the valve body and the diaphragm; a pressure ring
A method of auto-installing an integrated receiver/decoder (IRD, 10, 12) comprising the steps of: a) issuing first digitally coded command ODU_Allocate from the IRD (10, 12) to an outdoor unit (ODU, 2) requesting dynamic or static user band allocation; wherein in dynamic user band allocation the ODU assigns the UB number to the IRD and wherein in static user band allocation the IRD asks ODU for assigning to particular UB number, b) receiving reply from the ODU in response to the first command ODU_Allocate, if UB is available; said reply comprising a UB number, a center frequency of said UB, number of receivable satellite positions and information if ODU contains local oscillator or not; storing in the IRD (10, 12) the UB number, the center frequency of said UB, number of receivable satellite positions and information if ODU contains local oscillator or not; c) receiving reply from the ODU in response to the first command ODU_Allocate, if UB is not available; said reply comprising a failure message ODU_Error; d) returning a predefined number of times to step a) if no reply received in step b). a) issuing first digitally coded command ODU_Allocate from the IRD (10, 12) to an outdoor unit (ODU, 2) requesting dynamic or static user band allocation; wherein in dynamic user band allocation the ODU assigns the UB number to the IRD and wherein in static user band allocation the IRD asks ODU for assigning to particular UB number, b) receiving reply from the ODU in response to the first command ODU_Allocate, if UB is available; said reply comprising a UB number, a center frequency of said UB, number of receivable satellite positions and information if ODU contains local oscillator or not; storing in the IRD (10, 12) the UB number, the center frequency of said UB, number of receivable satellite positions and information if ODU contains local oscillator or not; c) receiving reply from the ODU in response to the first command ODU_Allocate, if UB is not available; said reply comprising a failure message ODU_Error; d) returning a predefined number of times to step a) if no reply received in step b).
An integrated-circuit device comprising: a physical-unclonable-function, PUF, unit; a secure module; an interconnect system communicatively coupled to the PUF unit and to the secure module, wherein the integrated-circuit device is configured for transferring a PUF key from the PUF unit to the secure module, over the interconnect system, by: the secure module generating (51, 52) a random value; the secure module sending the random value to the PUF unit; the PUF unit performing a bitwise XOR operation between the received random value and the PUF key, to generate a masked value; the PUF unit transferring the masked value over the interconnect system to the secure module; and the secure module unmasking the PUF key by performing a bitwise XOR operation between the received masked value and the random value. a physical-unclonable-function, PUF, unit; a secure module; an interconnect system communicatively coupled to the PUF unit and to the secure module, the secure module generating (51, 52) a random value; the secure module sending the random value to the PUF unit; the PUF unit performing a bitwise XOR operation between the received random value and the PUF key, to generate a masked value; the PUF unit transferring the masked value over the interconnect system to the secure module; and the secure module unmasking the PUF key by performing a bitwise XOR operation between the received masked value and the random value.
Heat pump system comprising a heat pump with at least two Peltier elements, which are switched in series and are connected to an energy supply, wherein an electrical dropping resistor is switched in series with the Peltier elements and the Peltier elements and the dropping resistor are jointly supplied with energy by the energy supply, wherein the heat pump is arranged in a process air conduit, especially a process air circuit of a domestic appliance for care of washed items, especially of a tumble dryer, characterised in that process air flowing in the process air conduit is able to be heated up by heat generated by the dropping resistor.
Method for embedding a web application to be embedded into a surrounding web application, wherein the web application to be embedded is provided to run in a separate execution and display region of the surrounding web application, wherein the web application to be embedded is provided by at least two web servers (5', 6'), wherein at least one criterion is defined, which is used to determine the web server of the at least two web servers (5', 6') of which the provided web application to be embedded is embedded into the surrounding web application, wherein the web application to be embedded and the at least two web servers (5', 6') are communicatively interconnected via a communication facility and the criterion relates to the communication in the communication facility, characterised in that the criterion is a reduction of data traffic in the communication facility between the at least two web servers (5', 6'), wherein functions in an industrial automation system are provided by the web application to be embedded and the surrounding web application, wherein the automation system controls and/or regulates and monitors a process, and wherein the criterion relates to a reduction of the data traffic that occurs due to transferring process values of the process between the at least two web servers (5', 6').
Gas phase epitaxy method comprising the method steps: - providing a III-V substrate of a first conductivity type, - introducing the III-V substrate into a reaction chamber of a gas phase epitaxy plant at a loading temperature T B, - heating the III-V substrate from the loading temperature T B to an epitaxy temperature T E with introduction of an initial gas flow comprising a carrier gas and a first precursor for a first element from the V main group, - precipitating a III-V layer with a doping substance concentration (D max, D min) of a doping substance of the first conductivity type on a surface of the III-V substrate from the gas phase from an epitaxy gas flow which is conducted into the reaction chamber and comprises the carrier gas, the first precursor and at least one second precursor for an element of the III main group, - adding a third precursor for a doping substance of the first conductivity type to the initial gas flow during heating from the loading temperature T B to the epitaxy temperature T E, characterised in that the III-V layer is epitaxially grown at a doping substance concentration (D max, D min) decreasing from 10 17 cm -3 to 10 15 cm -3, - providing a III-V substrate of a first conductivity type, - introducing the III-V substrate into a reaction chamber of a gas phase epitaxy plant at a loading temperature T B, - heating the III-V substrate from the loading temperature T B to an epitaxy temperature T E with introduction of an initial gas flow comprising a carrier gas and a first precursor for a first element from the V main group, - precipitating a III-V layer with a doping substance concentration (D max, D min) of a doping substance of the first conductivity type on a surface of the III-V substrate from the gas phase from an epitaxy gas flow which is conducted into the reaction chamber and comprises the carrier gas, the first precursor and at least one second precursor for an element of the III main group, - adding a third precursor for a doping substance of the first conductivity type to the initial gas flow during heating from the loading temperature T B to the epitaxy temperature T E,
Stator for an electric drive motor having a number of stator teeth which are separated by slots, with a multiple-section winding being wound around stator teeth and with one section comprising a plurality of coils (5, 6) and with individual coils (5, 6) each surrounding a plurality of stator teeth, and with a plurality of stator teeth preferably being combined at the level of their tooth neck to form one combined stator tooth with one tooth foot and a plurality of tooth heads, wherein two stator teeth are in each case combined to form one combined stator tooth, and a coil in each case surrounds two tooth heads of adjacent stator teeth, and in each case one tooth foot is surrounded by a further coil, characterized in that the stator teeth are designed in such a manner that the coils (5, 6) around the tooth feet and the coils (5, 6) around the tooth heads have a similar flux chain, wherein any minor differences which occur in the flux chain between inner coils and outer coils are compensated for by the number of turns.
A hydraulic tool for converting fluid flow to mechanical energy during a drilling operation, comprising: a stator having a bore configured as a plurality of lobes; a rotor having at least one lobe on an exterior surface, the rotor configured to rotate within the stator responsive to fluid flow through the stator; at least one of the stator and the rotor comprising a resilient material; and a removable coating disposed on a surface of at least one of the rotor and the stator, wherein the removable coating has a thickness selected to compensate for at least one of an expected swelling of the resilient material during the drilling operation or an expected contraction of a clearance between the rotor and the stator based on thermal expansion of the rotor and the stator, and wherein the removable coating is formulated to chemically, thermally and/or electrically decompose during operation of the hydraulic tool. a stator having a bore configured as a plurality of lobes; a rotor having at least one lobe on an exterior surface, the rotor configured to rotate within the stator responsive to fluid flow through the stator; at least one of the stator and the rotor comprising a resilient material; and a removable coating disposed on a surface of at least one of the rotor and the stator, wherein the removable coating has a thickness selected to compensate for at least one of an expected swelling of the resilient material during the drilling operation or an expected contraction of a clearance between the rotor and the stator based on thermal expansion of the rotor and the stator, and wherein the removable coating is formulated to chemically, thermally and/or electrically decompose during operation of the hydraulic tool.