mhurhangee/ep-ind-claims huggingface dataset:
Small water heater, comprising a storage tank of < 15 litres, a heating unit of water in the storage tank, and an electronic control unit configured to activate a normal mode with a set temperature of between 30 °C and 100 °C, a hygiene mode and a boil-dry detection mode, wherein, in the hygiene mode, the water is heated to > 70 °C once a week, wherein, in the boil-dry detection mode, a temperature differential between a first temperature and a second temperature after heating of the water heater is determined.
A water-resistant calcium sulphate-based body, which comprises a matrix of crystalline calcium sulphate anhydrite, crystals of said matrix being connected to one another by water-resistant phosphate bonding zones.
An apparatus (100,900) for encoding samples of a video image comprising: a processing circuitry configured to: determine motion information (810,930) for a sample in the video image; determine a coding parameter (830,940,950,960) based on an output of a machine-learning-based model (820,910), to which the motion information and the sample are input; and encode (830,920) the sample by applying the coding parameter, wherein the processing circuitry is further configured to: divide the video image into equally sized coding tree units; hierarchically split one of the coding tree units into a plurality of coding units; determine motion vector for each of the plurality of the coding units; input to the machine-learning-based model the coding tree unit and the respective motion vectors determined for the plurality of the coding units of the coding tree unit, and wherein the processing circuitry is configured to input to the machine-learning-based model: i) the coding tree unit; characterized in that the processing circuitry is further configured to input to the machine-learning-based model: ii) a block of the size of the coding tree unit including for each sample of the coding tree unit a horizontal component of the motion vector of the coding unit to which said sample belongs; iii) a block of the size of the coding tree unit including for each sample of the coding tree unit a vertical component of the motion vector of the coding unit to which said sample belongs. determine motion information (810,930) for a sample in the video image; determine a coding parameter (830,940,950,960) based on an output of a machine-learning-based model (820,910), to which the motion information and the sample are input; and encode (830,920) the sample by applying the coding parameter, wherein the processing circuitry is further configured to: divide the video image into equally sized coding tree units; hierarchically split one of the coding tree units into a plurality of coding units; determine motion vector for each of the plurality of the coding units; input to the machine-learning-based model the coding tree unit and the respective motion vectors determined for the plurality of the coding units of the coding tree unit, and divide the video image into equally sized coding tree units; hierarchically split one of the coding tree units into a plurality of coding units; determine motion vector for each of the plurality of the coding units; input to the machine-learning-based model the coding tree unit and the respective motion vectors determined for the plurality of the coding units of the coding tree unit, and wherein the processing circuitry is configured to input to the machine-learning-based model: i) the coding tree unit; i) the coding tree unit; ii) a block of the size of the coding tree unit including for each sample of the coding tree unit a horizontal component of the motion vector of the coding unit to which said sample belongs; iii) a block of the size of the coding tree unit including for each sample of the coding tree unit a vertical component of the motion vector of the coding unit to which said sample belongs.
A diagnosis apparatus for analyzing the concentration of a disease factor in saliva, the apparatus comprising: a diagnosis device; a detection unit which is detachably coupled to the diagnosis device, wherein the detection unit is configured to induce an electrochemical reaction of a disease factor in the saliva by the voltage applied through the diagnosis device, and provide an electric current generated by the electrochemical reaction of the disease factor; a communication unit; and a control unit which is configured to apply a voltage to the detection unit, measure the electric current received from the detection unit, convert the measured result into a digital signal, and provide the digital signal to a user terminal through the communication unit; characterized in that the detection unit includes: a first layer which comprises an electrode; a second layer which has a nanostructure in the form of a porous metal-organic solid structure and is attached on the first layer, in use to induce the electrochemical reaction of the disease factor in the saliva; a third layer which is positioned on the second layer and comprises an enzyme suitable for detecting the disease factor in the saliva; a fourth layer which is positioned on the third layer and comprises a filter configured to separate any one of the materials selected from protein, amylase, and urea that hinder the detection of glucose; and a fifth layer which is positioned on the fourth layer and comprises a composite fiber membrane, wherein the third layer, in use selectively detects a disease factor that is glucose. a detection unit which is detachably coupled to the diagnosis device, wherein the detection unit is configured to induce an electrochemical reaction of a disease factor in the saliva by the voltage applied through the diagnosis device, and provide an electric current generated by the electrochemical reaction of the disease factor; a communication unit; and a control unit which is configured to apply a voltage to the detection unit, measure the electric current received from the detection unit, convert the measured result into a digital signal, and provide the digital signal to a user terminal through the communication unit; characterized in that the detection unit includes: a first layer which comprises an electrode; a second layer which has a nanostructure in the form of a porous metal-organic solid structure and is attached on the first layer, in use to induce the electrochemical reaction of the disease factor in the saliva; a third layer which is positioned on the second layer and comprises an enzyme suitable for detecting the disease factor in the saliva; a fourth layer which is positioned on the third layer and comprises a filter configured to separate any one of the materials selected from protein, amylase, and urea that hinder the detection of glucose; and a fifth layer which is positioned on the fourth layer and comprises a composite fiber membrane, wherein the third layer, in use selectively detects a disease factor that is glucose.
Method to produce a pre-impregnated fibrous material, in particular in ribbon form, comprising a fibrous reinforcement and thermoplastic polymer matrix, characterized in that it comprises the following step: i) impregnating said fibrous material in the form of a single roving or several parallel rovings with said polymer in the molten state, said polymer in the molten state at the time of said impregnation containing a neutral gas in the supercritical state, used as preparation aid by reducing viscosity in the molten state, preferably said gas being supercritical CO 2. i) impregnating said fibrous material in the form of a single roving or several parallel rovings with said polymer in the molten state, said polymer in the molten state at the time of said impregnation containing a neutral gas in the supercritical state, used as preparation aid by reducing viscosity in the molten state, preferably said gas being supercritical CO 2.
A naphthalene diamide compound comprising a structure as given in the following table, in which X and Y are carbonyl, R5 and R6 are hydrogen, and R3 is hydrogen; Number R 4 ABC-02 p-fluorophenyl 2-thiazole imino group ABC-05 m-methyl phenyl N-methyl-1-piperazinyl ABC-07 p-fluorophenyl 6-chloro-pyridine-3-methyleneamino ABC-08 methoxy phenyl 6-chloro-pyridine-3-methyleneamino ABC-09 m-methylphenyl 6-chloro-pyridine-3-methyleneamino ABC-11 p-fluorophenyl N-morpholi nyl ABC-15 2,5-dimethoxyphenyl 6-chloro-pyridine-3-methyleneamino ABC-17 meta-trifluoromethylphenyl 6-chloro-pyridine-3-methyleneamino ABC-20 meta-trifluoromethylphenyl N-methyl-1-piperazinyl ABC-24 meta-trifluoromethylphenyl cyclohexylimine ABC-26 meta-trifluoromethylphenyl meta-trifluoromethyl phenylenimine ABC-27 p-methoxyphenyl cyclopropylimine ABC-28 meta-trifluoromethylphenyl cyclopropylimine ABC-29 p-methoxyphenyl isopropylimine ABC-31 p-methoxyphenyl 2-thiazolimine ABC-32 m-methylphenyl 2-thiazolimine ABC-33 p-methoxyphenyl meta-trifluoromethyl phenylenimine ABC-34 meta-trifluoromethylphenyl 2-thiazolimine ABC-38 o-methoxyphenyl isopropylimine ABC-42 3,4-dichlorophenyl N-methyl-1-piperazinyl ABC-44 3,4-dichlorophenyl cyclopropylimine ABC-45 m-chlorophenyl 2-thiazolimine ABC-46 3,4-dichlorophenyl 2-thiazolimine ABC-47 m-chlorophenyl isopropylimine ABC-48 3,4-dichlorophenyl isopropylimine or a biologically acceptable salt thereof.
An electrode coating apparatus for applying electrode slurry to an electrode collector, the electrode coating apparatus comprising: a storage part storing the electrode slurry; a discharge part discharging the electrode slurry stored in the storage part to the electrode collector; and a heating part heating the discharge part, characterized in that the heating part locally heats the discharge part. a storage part storing the electrode slurry; a discharge part discharging the electrode slurry stored in the storage part to the electrode collector; and a heating part heating the discharge part, characterized in that the heating part locally heats the discharge part.
A system comprising: a stimulator configured to generate a sensory stimulation signal configured to elicit a touch perception in an individual, wherein the sensory stimulation comprises a plurality of pulses with parameters, wherein the parameters comprise pulse amplitude, pulse width and interpulse interval; and an implanted three cuff electrode, coupled to the stimulator, configured to deliver the sensory stimulation signal to at least one peripheral nerve to elicit the touch perception, wherein the stimulator is configured to receive an input and modulate at least a portion of the parameters based on an input, wherein the input comprises a feedback signal from a pressure sensor of a prosthetic limb. an implanted three cuff electrode, coupled to the stimulator, configured to deliver the sensory stimulation signal to at least one peripheral nerve to elicit the touch perception, wherein the stimulator is configured to receive an input and modulate at least a portion of the parameters based on an input, wherein the input comprises a feedback signal from a pressure sensor of a prosthetic limb.
A method for eliminating triglycerides from lipoproteins other than low density lipoprotein, said method comprising allowing lipoprotein lipase, cholesterol esterase, glycerol kinase and glycerol-3-phosphate oxidase to act on a sample in the presence of a surfactant which is a polyoxyalkylene derivative having an HLB (hydrophile-lipophile balance) value of 13 to 15; and eliminating hydrogen peroxide produced thereby.
A system, comprising: a test and measurement instrument characterised by: a memory in the test and measurement instrument capable of storing a probability distribution function, PDF, for an eye diagram; an extrema unit to determine a minimum voltage (510, 525) and a maximum voltage (515, 530) for a mask in the eye diagram at each time (505, 520) during a time duration of the mask in the eye diagram, the mask having the pre-determined time duration and a pre-determined voltage range; a sum unit to calculate a bit error rate, BER, at each time from the PDF using the minimum voltage (510, 525) and the maximum voltage (515, 530) at each time (505, 520) during the time duration of the mask in the eye diagram; and a mask BER unit to determine a BER for the mask in the eye diagram from the BER at each time (505, 520) during the time duration of the mask in the eye diagram. a test and measurement instrument characterised by: a memory in the test and measurement instrument capable of storing a probability distribution function, PDF, for an eye diagram; an extrema unit to determine a minimum voltage (510, 525) and a maximum voltage (515, 530) for a mask in the eye diagram at each time (505, 520) during a time duration of the mask in the eye diagram, the mask having the pre-determined time duration and a pre-determined voltage range; a sum unit to calculate a bit error rate, BER, at each time from the PDF using the minimum voltage (510, 525) and the maximum voltage (515, 530) at each time (505, 520) during the time duration of the mask in the eye diagram; and a mask BER unit to determine a BER for the mask in the eye diagram from the BER at each time (505, 520) during the time duration of the mask in the eye diagram. a memory in the test and measurement instrument capable of storing a probability distribution function, PDF, for an eye diagram; an extrema unit to determine a minimum voltage (510, 525) and a maximum voltage (515, 530) for a mask in the eye diagram at each time (505, 520) during a time duration of the mask in the eye diagram, the mask having the pre-determined time duration and a pre-determined voltage range; a sum unit to calculate a bit error rate, BER, at each time from the PDF using the minimum voltage (510, 525) and the maximum voltage (515, 530) at each time (505, 520) during the time duration of the mask in the eye diagram; and a mask BER unit to determine a BER for the mask in the eye diagram from the BER at each time (505, 520) during the time duration of the mask in the eye diagram.
A process for tanning a smoked salmon skin wherein a step for tanning said skin comprises: - soaking the smoked salmon skin in a solution comprising a phosphonium ion in an amount greater than or equal to 4% by weight based on the weight of the smoked salmon skin, and - soaking the smoked salmon skin in a solution comprising hydrogen peroxide in an amount greater than or equal to 0.5% by weight based on the weight of the smoked salmon skin. - soaking the smoked salmon skin in a solution comprising a phosphonium ion in an amount greater than or equal to 4% by weight based on the weight of the smoked salmon skin, and - soaking the smoked salmon skin in a solution comprising hydrogen peroxide in an amount greater than or equal to 0.5% by weight based on the weight of the smoked salmon skin.
An airfoil for a gas turbine engine, comprising: a blade body having a pressure side and a suction side each extending between a forward portion and a trailing edge; a leading edge sheath (100, 100') having a leading edge portion (110, 110') that is spaced apart from the forward portion, a first arm (112, 112') that engages the pressure side, and a second arm (114, 114') that engages the suction side, a cavity being defined between the leading edge portion (110, 110'), the first arm (112, 112'), the second arm (114, 114'), and the forward portion; and an energy absorbing insert disposed within the cavity, characterised in that the energy absorbing insert is made of a non-Newtonian material. a blade body having a pressure side and a suction side each extending between a forward portion and a trailing edge; a leading edge sheath (100, 100') having a leading edge portion (110, 110') that is spaced apart from the forward portion, a first arm (112, 112') that engages the pressure side, and a second arm (114, 114') that engages the suction side, a cavity being defined between the leading edge portion (110, 110'), the first arm (112, 112'), the second arm (114, 114'), and the forward portion; and an energy absorbing insert disposed within the cavity, characterised in that the energy absorbing insert is made of a non-Newtonian material.
A method for location-based authentication using medium earth orbit, MEO (102, 104, 106) and low earth orbit, LEO, satellites (110, 112, 114), the method comprising: receiving a client MEO signal signature comprising samples over a first predefined time period of at least one MEO satellite signal received by the client, and from at least one MEO satellite (102, 104, 106); constructing a server MEO signal signature comprising samples over the first predefined time period of at least one MEO satellite signal received by the client, and from the at least one MEO satellite (102, 104, 106); comparing the client MEO signal signature and the server MEO signal signature to provide an MEO comparison result; receiving a client LEO signal signature comprising samples over a second predefined time period of at least one LEO satellite signal received by the client, and from at least one LEO satellite (110, 112, 114); constructing a server LEO signal signature comprising samples over the second predefined time period of at least one server LEO satellite signal of the at least one LEO satellite; comparing the client LEO signal signature and the server LEO signal signature to provide an LEO comparison result; and authenticating that a client device is at a location based on the MEO comparison result and the LEO comparison result. receiving a client MEO signal signature comprising samples over a first predefined time period of at least one MEO satellite signal received by the client, and from at least one MEO satellite (102, 104, 106); constructing a server MEO signal signature comprising samples over the first predefined time period of at least one MEO satellite signal received by the client, and from the at least one MEO satellite (102, 104, 106); comparing the client MEO signal signature and the server MEO signal signature to provide an MEO comparison result; receiving a client LEO signal signature comprising samples over a second predefined time period of at least one LEO satellite signal received by the client, and from at least one LEO satellite (110, 112, 114); constructing a server LEO signal signature comprising samples over the second predefined time period of at least one server LEO satellite signal of the at least one LEO satellite; comparing the client LEO signal signature and the server LEO signal signature to provide an LEO comparison result; and authenticating that a client device is at a location based on the MEO comparison result and the LEO comparison result.
A method for routing virtual links in a frame switching network comprising a plurality of source terminals and/or destination of said frames, frame switches being connected together through physical connections, each virtual link being defined for a point-to-point type, by a path through said network between a source terminal and a destination terminal and, for a multipoint type, by a plurality of paths through said network between a source terminal on the one hand and a plurality of destination terminals on the other hand, said method being characterized in that it comprises the following steps: (a) searching for oriented loops in the network, to within a circular permutation of the switches will they contain; (b) selecting a triplet of consecutive switches within each oriented loop, each triplet defining a forbidden routing path; (c) determining a routing solution for the virtual links not following said forbidden paths; (d) verifying the determinism of the network on the basis of the thus routed virtual links. (a) searching for oriented loops in the network, to within a circular permutation of the switches will they contain; (b) selecting a triplet of consecutive switches within each oriented loop, each triplet defining a forbidden routing path; (c) determining a routing solution for the virtual links not following said forbidden paths; (d) verifying the determinism of the network on the basis of the thus routed virtual links.
Device for checking a functional capability of temperature sensors arranged in distribution at a casting mould, characterised by at least one electronic evaluating system, which is connectible with at least two temperature sensors, for simultaneous detection and evaluation of temperature signals of the temperature sensors and at least one heating plate or heating mat, which can be arranged in the vicinity of the temperature sensors, for simultaneous heating of the temperature sensors.
Method for packaging a large component into a protective case which comprises a first and a second reclosable access (16', 17') and a plurality of protective case parts (12, 13, 14, 15, 16, 17, 18), wherein the large component includes an access opening, said method including the following steps: preparing prefabricated protective case parts (12, 13, 14, 15, 16, 17, 18); attaching the protective case parts (12, 13, 14, 15, 16, 17, 18) to the large component; welding the transitions between the protective case parts (12, 13, 14, 15, 16, 17, 18); shrinking the protective case; and arranging the first reclosable access in the protective case above the access opening. preparing prefabricated protective case parts (12, 13, 14, 15, 16, 17, 18); attaching the protective case parts (12, 13, 14, 15, 16, 17, 18) to the large component; welding the transitions between the protective case parts (12, 13, 14, 15, 16, 17, 18); shrinking the protective case; and arranging the first reclosable access in the protective case above the access opening.
A method of operating a MEMS DVC device, the MEMS DVC comprising a first electrode having a first dielectric layer disposed thereover having first contact surface, a second electrode having a second dielectric layer disposed thereover having a second contact surface, a MEMS device disposed in a cavity and movable between the first contact surface and a second contact surface, and a first electrode voltage driver coupled to either the first electrode or the second electrode, the method comprising: applying a first voltage with a modulus greater than zero to either the first electrode or the second electrode for a first period of time; increasing the first voltage to a second voltage, wherein the increasing occurs for a second period of time, and wherein the second voltage is sufficient to cause the MEMS device to pull-in towards the either the first electrode or the second electrode; decreasing the second voltage to a third voltage, wherein the decreasing occurs for a third period of time; and increasing the third voltage to a fourth voltage, wherein the increasing occurs for a fourth period of time. applying a first voltage with a modulus greater than zero to either the first electrode or the second electrode for a first period of time; increasing the first voltage to a second voltage, wherein the increasing occurs for a second period of time, and wherein the second voltage is sufficient to cause the MEMS device to pull-in towards the either the first electrode or the second electrode; decreasing the second voltage to a third voltage, wherein the decreasing occurs for a third period of time; and increasing the third voltage to a fourth voltage, wherein the increasing occurs for a fourth period of time.