mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for code obfuscation, comprising: an input unit adapted to receive execution codes for android applications; a code analyzer adapted to separate the input execution codes into sensitive codes that need to be protected from application forgery attack and general codes except for the sensitive codes by analyzing the input execution codes; a dalvik to C code converter adapted to create native codes by converting the sensitive codes into a C code; an obfuscator adapted to obfuscate the native codes and the general codes; a self code protector adapted to encrypt the obfuscated native codes using a code protection scheme based of self modification, to add a tamper-detection code to the obfuscated native codes, and to create self-modified native codes by adding a loading routine, wherein the loading routine decodes the encrypted section of the obfuscated native codes when the obfuscated native code is executed; and a code combiner adapted to combine the self-modified native codes with the obfuscated general codes, wherein the code analyzer is configured to determine the codes matched with the input execution codes as the sensitive codes using stored important code models. an input unit adapted to receive execution codes for android applications; a code analyzer adapted to separate the input execution codes into sensitive codes that need to be protected from application forgery attack and general codes except for the sensitive codes by analyzing the input execution codes; a dalvik to C code converter adapted to create native codes by converting the sensitive codes into a C code; an obfuscator adapted to obfuscate the native codes and the general codes; a self code protector adapted to encrypt the obfuscated native codes using a code protection scheme based of self modification, to add a tamper-detection code to the obfuscated native codes, and to create self-modified native codes by adding a loading routine, wherein the loading routine decodes the encrypted section of the obfuscated native codes when the obfuscated native code is executed; and a code combiner adapted to combine the self-modified native codes with the obfuscated general codes, wherein the code analyzer is configured to determine the codes matched with the input execution codes as the sensitive codes using stored important code models.
A system, comprising: a sensing arrangement that is configured to collect eye movement data of a user; and a control unit in communication with the sensing arrangement, the control unit being configured to: calculate, from the eye movement data, one or more intersaccadic drift velocities; compare the eye movement data, including the one or more intersaccadic drift velocities, to one or more baseline measurements of eye movement dynamics to identify an intoxicated state of the user; and responsive to a result of the comparison indicating the presence of the intoxicated state, generate an alert for delivery to the user. a sensing arrangement that is configured to collect eye movement data of a user; and a control unit in communication with the sensing arrangement, the control unit being configured to: calculate, from the eye movement data, one or more intersaccadic drift velocities; compare the eye movement data, including the one or more intersaccadic drift velocities, to one or more baseline measurements of eye movement dynamics to identify an intoxicated state of the user; and responsive to a result of the comparison indicating the presence of the intoxicated state, generate an alert for delivery to the user. calculate, from the eye movement data, one or more intersaccadic drift velocities; compare the eye movement data, including the one or more intersaccadic drift velocities, to one or more baseline measurements of eye movement dynamics to identify an intoxicated state of the user; and responsive to a result of the comparison indicating the presence of the intoxicated state, generate an alert for delivery to the user.
A knee replacement prosthesis comprising: a tibial component, said tibial component including a tibial plate and a tibial stem; characterised in that the knee replacement prosthesis comprises a plurality of sensors (22, 27, and/or 28) within the tibial stem wherein at least one sensor is an accelerometer that detects acceleration, tilt, vibration, shock and/or rotation. a tibial component, said tibial component including a tibial plate and a tibial stem; characterised in that the knee replacement prosthesis comprises a plurality of sensors (22, 27, and/or 28) within the tibial stem wherein at least one sensor is an accelerometer that detects acceleration, tilt, vibration, shock and/or rotation.
A radio base station (10, 11, 12) that transmits downlink control information for a user terminal using an enhanced downlink control channel frequency-division-multiplexed with a downlink shared data channel, the radio base station (10, 11, 12) comprising: a configuring section that configures the user terminal with a resource set including a plurality of resource blocks allocated to the enhanced downlink control channel; and a notifying section that notify the user terminal of pattern information of the resource blocks that are included in the resource set and information indicating a number n of resource blocks that are included in the resource set, wherein the pattern information comprises a pattern index indicating a resource block pattern that is a combination of the resource blocks. a configuring section that configures the user terminal with a resource set including a plurality of resource blocks allocated to the enhanced downlink control channel; and a notifying section that notify the user terminal of pattern information of the resource blocks that are included in the resource set and information indicating a number n of resource blocks that are included in the resource set, wherein the pattern information comprises a pattern index indicating a resource block pattern that is a combination of the resource blocks.
A cationic photopolymerizable epoxy resin composition comprising: an epoxy resin; a cationic photopolymerization initiator; an inhibitor of cationic polymerization; and a compound that has a fluoroalkyl group and also has a substituent at its terminal, with the substituent being allowed to cross-link with the epoxy group of the epoxy resin, wherein the cationic photopolymerizable epoxy resin composition further includes a thermal cationic polymerization catalyst, wherein said inhibitor of cationic polymerization is selected from the group consisting of triphenyl amine, triethanol amine, triisopropanol amine, N,N-diethyl-3-amino phenol, N-ethyldiethanol amine, and 2-diethylamino ethanol amine, wherein the inhibitor of cationic polymerization is contained in a range from 0.1 wt% to 20 wt% with respect to the cationic photopolymerization initiator. an epoxy resin; a cationic photopolymerization initiator; an inhibitor of cationic polymerization; and a compound that has a fluoroalkyl group and also has a substituent at its terminal, with the substituent being allowed to cross-link with the epoxy group of the epoxy resin, wherein the cationic photopolymerizable epoxy resin composition further includes a thermal cationic polymerization catalyst, wherein said inhibitor of cationic polymerization is selected from the group consisting of triphenyl amine, triethanol amine, triisopropanol amine, N,N-diethyl-3-amino phenol, N-ethyldiethanol amine, and 2-diethylamino ethanol amine, wherein the inhibitor of cationic polymerization is contained in a range from 0.1 wt% to 20 wt% with respect to the cationic photopolymerization initiator.
A method for load balancing in a wireless communication system, the method comprising: receiving a bandwidth utilization, a number of active user equipments, UEs, and an average throughput from at least one base station, BS,; obtaining first state data based on the bandwidth utilization, the number of active UEs, and the average throughput; obtaining first action data associated with an active UE load balancing, AULB, and first goal data for obtaining second action data, by inputting the first state data and first reward data to a first reinforcement learning model; obtaining second action data associated with an Idle UE load balancing, IULB, by inputting the first state data, the first goal data, and second reward data to a second reinforcement learning model; determining third action data associated with both the AULB and the IULB, based on the first action data and the second action data; and transmitting the third action data to the at least one base station, BS. receiving a bandwidth utilization, a number of active user equipments, UEs, and an average throughput from at least one base station, BS,; obtaining first state data based on the bandwidth utilization, the number of active UEs, and the average throughput; obtaining first action data associated with an active UE load balancing, AULB, and first goal data for obtaining second action data, by inputting the first state data and first reward data to a first reinforcement learning model; obtaining second action data associated with an Idle UE load balancing, IULB, by inputting the first state data, the first goal data, and second reward data to a second reinforcement learning model; determining third action data associated with both the AULB and the IULB, based on the first action data and the second action data; and transmitting the third action data to the at least one base station, BS.
A toner box comprising: a main body that is configured to accommodate toner therein and that has a main-body-side communication through-hole, through which an interior and an exterior of the main body communicate; a shutter disposed so as to be capable of moving between an open position in which the shutter opens the main-body-side communication through-hole, and a closed position in which the shutter closes the main-body-side communication through-hole; and a toner seal (71; 141) that is configured to be disposed between the main body and the shutter and surround a perimeter of the main-body-side communication through-hole when the shutter is in the closed position; characterized by a shutter cover that is configured to cover part of the shutter and that is elastically deformable to absorb a force that the shutter receives from the toner seal (71; 141) when the shutter compresses the toner seal (71; 141). a main body that is configured to accommodate toner therein and that has a main-body-side communication through-hole, through which an interior and an exterior of the main body communicate; a shutter disposed so as to be capable of moving between an open position in which the shutter opens the main-body-side communication through-hole, and a closed position in which the shutter closes the main-body-side communication through-hole; and a toner seal (71; 141) that is configured to be disposed between the main body and the shutter and surround a perimeter of the main-body-side communication through-hole when the shutter is in the closed position;
Method of coating metal parts comprising: - providing a metal part from a first metal material, - applying a foil made of a second metal material on the metal part in a bearing area, - irradiating the foil applied on the metal part in at least a portion of the bearing area with a laser, wherein the bearing area of the metal part comprises a hole and is at least partially a screw on area, - materially bonding the applied foil with the metal part in the bearing area, characterized by - evaporating the foil by the laser in the area of the hole. - providing a metal part from a first metal material, - applying a foil made of a second metal material on the metal part in a bearing area, - irradiating the foil applied on the metal part in at least a portion of the bearing area with a laser, wherein the bearing area of the metal part comprises a hole and is at least partially a screw on area, - materially bonding the applied foil with the metal part in the bearing area, characterized by - evaporating the foil by the laser in the area of the hole.
Method for operating a mobile readout system with at least one stationary consumption meter, and a mobile readout receiver to read out the consumption meter as the readout receiver moves past the consumption meter, wherein two-way communication takes place between the consumption meter and the readout receiver, wherein the two-way communication comprises the following: transmission by the consumption meter of status information which is stored in the consumption meter; reception of the status information by the readout receiver; requesting by the readout receiver of additional information from the consumption meter by means of a request command; encrypted transmission of additional information from the consumption meter to the readout receiver, characterized in that the status information comprises characteristic status data and/or alarms, in particular characteristic alarm status data, wherein the status information does not comprise any consumption data, wherein the additional information is requested by the readout receiver on the basis of the received status information, and wherein the relative speed between the consumption meter and the readout receiver is up to 70 kilometres per hour. transmission by the consumption meter of status information which is stored in the consumption meter; reception of the status information by the readout receiver; requesting by the readout receiver of additional information from the consumption meter by means of a request command; encrypted transmission of additional information from the consumption meter to the readout receiver, characterized in that the status information comprises characteristic status data and/or alarms, in particular characteristic alarm status data, wherein the status information does not comprise any consumption data, wherein the additional information is requested by the readout receiver on the basis of the received status information, and wherein the relative speed between the consumption meter and the readout receiver is up to 70 kilometres per hour.
A method of manufacturing an electrochromic window, the method comprising: a) depositing, in a single integrated deposition system having a controlled ambient environment in which the pressure, temperature, and/or gas composition are controlled independently of an external environment outside of the integrated deposition system, environment, (i) an electrochromic layer, (ii) an ion conductor layer material and (iii) a counter electrode layer on a substrate to form an electrochromic device stack in which the ion conductor layer material separates the electrochromic layer and the counter electrode layer; and b) depositing lithium metal onto either one or both of the electrochromic layer and the counter electrode layer; wherein the substrate is (i) held in a substantially vertical orientation and (ii) does not leave the controlled environment during the deposition of the electrochromic layer, the ion conductor layer material, the counter electrode layer and the lithium metal. a) depositing, in a single integrated deposition system having a controlled ambient environment in which the pressure, temperature, and/or gas composition are controlled independently of an external environment outside of the integrated deposition system, environment, (i) an electrochromic layer, (ii) an ion conductor layer material and (iii) a counter electrode layer on a substrate to form an electrochromic device stack in which the ion conductor layer material separates the electrochromic layer and the counter electrode layer; and b) depositing lithium metal onto either one or both of the electrochromic layer and the counter electrode layer;
A particulate solid material flow sensor, comprising a rigid resonance conductor, transducers to capture vibrations of the rigid resonance conductor, an electronic circuit board, a microprocessor, and an adder circuit, all covered by a rigid circular protection, said sensor being fixed to a transportation flow duct by means of folding couplings, CHARACTERIZED in that the particulate solid material flow sensor comprises a circular support, transducer supports as metallic wire springs, flat plates, plastic springs, or any plastic, metal or rubber device coupled to the circular support, the transducer supports applying pressure to transducers against an exterior wall of the rigid resonance conductor, the flow sensor being further provided with a maintenance sensor, an operation sensor, internal batteries, an external impact sensor, a rubberized protective cover, and a radiofrequency transceiver.
Cosmetic composition for coating keratin fibres, comprising: - an aqueous phase, - a surfactant system present at a total content of greater than or equal to 15% by weight relative to the total weight of the composition, said surfactant system comprising: i) at least one non-ionic surfactant with an HLB value at 25°C of less than 8, and ii) at least one anionic surfactant with an HLB value at 25°C of greater than or equal to 8, chosen from acyl glutamic acids and salts thereof, together forming a lamellar phase Lβ, and - at least one spherical filler, - said composition comprises a wax content of strictly less than 10% by weight relative to the total weight of the composition. - an aqueous phase, - a surfactant system present at a total content of greater than or equal to 15% by weight relative to the total weight of the composition, said surfactant system comprising: i) at least one non-ionic surfactant with an HLB value at 25°C of less than 8, and ii) at least one anionic surfactant with an HLB value at 25°C of greater than or equal to 8, chosen from acyl glutamic acids and salts thereof, together forming a lamellar phase Lβ, and i) at least one non-ionic surfactant with an HLB value at 25°C of less than 8, and ii) at least one anionic surfactant with an HLB value at 25°C of greater than or equal to 8, chosen from acyl glutamic acids and salts thereof, together forming a lamellar phase Lβ, and - at least one spherical filler, - said composition comprises a wax content of strictly less than 10% by weight relative to the total weight of the composition.
A solar collector apparatus comprising a) an array (110; 150) of Fresnel lenses arranged in rows, the Fresnel lenses having a focal length ( f m); and b) one or more energy absorption devices located below each of the Fresnel lenses at a distance substantially corresponding to their focal length; wherein c) the rows of said array of Fresnel lenses are rotatable about a lengthwise horizontal axis of said rows; and wherein d) the array of Fresnel lenses is rotatable about a vertical axis; d1) wherein the array (110; 150) of Fresnel lenses is mounted on a base rotatable about a vertical axis; and characterized in that d2) the rotatable base forms an insulated lid of a storage tank for a heat conduction and storage fluid. a) an array (110; 150) of Fresnel lenses arranged in rows, the Fresnel lenses having a focal length ( f m); and b) one or more energy absorption devices located below each of the Fresnel lenses at a distance substantially corresponding to their focal length; wherein c) the rows of said array of Fresnel lenses are rotatable about a lengthwise horizontal axis of said rows; and wherein d) the array of Fresnel lenses is rotatable about a vertical axis; d1) wherein the array (110; 150) of Fresnel lenses is mounted on a base rotatable about a vertical axis; and characterized in that d2) the rotatable base forms an insulated lid of a storage tank for a heat conduction and storage fluid.
A low-reflection coated substrate comprising: a glass sheet; and a low-reflection coating formed on at least one principal surface of the glass sheet, wherein an outermost portion of the principal surface has a tin oxide concentration of 3.5 to 24 mass%, the low-reflection coating being a porous film comprising: fine silica particles being solid and spherical and having an average particle diameter of 80 to 150 nm; and a binder containing silica as a main component, the fine silica particles being bound together by the binder, wherein the binder further contains an aluminum compound, the low-reflection coating contains as components: 55 to 70 mass% of the fine silica particles; 25 to 40 mass% of the silica of the binder; and 2 to 7 mass% of the aluminum compound in terms of Al 2 O 3, the low-reflection coating has a thickness of 80 to 800 nm, the low-reflection coating yields a transmittance gain of 2.5% or more, the transmittance gain representing an increase in average transmittance of the substrate provided with the low-reflection coating relative to the substrate not provided with the low-reflection coating, the average transmittance being measured in the wavelength range of 380 to 850 nm, and wherein in the glass sheet, the principal surface having the low-reflection coating formed thereon has an average reflectance of 5.1% or more in the wavelength range of 380 to 850 nm when the average reflectance is measured in the absence of the low-reflection coating on the principal surface. a glass sheet; and a low-reflection coating formed on at least one principal surface of the glass sheet, wherein an outermost portion of the principal surface has a tin oxide concentration of 3.5 to 24 mass%, the low-reflection coating being a porous film comprising: fine silica particles being solid and spherical and having an average particle diameter of 80 to 150 nm; and a binder containing silica as a main component, the fine silica particles being bound together by the binder, wherein the binder further contains an aluminum compound, the low-reflection coating contains as components: 55 to 70 mass% of the fine silica particles; 25 to 40 mass% of the silica of the binder; and 2 to 7 mass% of the aluminum compound in terms of Al 2 O 3, 55 to 70 mass% of the fine silica particles; 25 to 40 mass% of the silica of the binder; and 2 to 7 mass% of the aluminum compound in terms of Al 2 O 3, the low-reflection coating has a thickness of 80 to 800 nm, the low-reflection coating yields a transmittance gain of 2.5% or more, the transmittance gain representing an increase in average transmittance of the substrate provided with the low-reflection coating relative to the substrate not provided with the low-reflection coating, the average transmittance being measured in the wavelength range of 380 to 850 nm, and wherein in the glass sheet, the principal surface having the low-reflection coating formed thereon has an average reflectance of 5.1% or more in the wavelength range of 380 to 850 nm when the average reflectance is measured in the absence of the low-reflection coating on the principal surface.