mhurhangee/ep-ind-claims huggingface dataset:
System for controlling the drivability mode of a hybrid motor vehicle that is equipped with a heat engine and an electric motor, comprising: - first measuring means for measuring driving conditions of the vehicle, - second measuring means for measuring the level of charge in the battery of the vehicle, - first control means for controlling the heat engine, - second control means for controlling the electric motor, and - computing means that are able to transmit a first activation signal (ACT 1) for activating the heat engine and a second activation signal (ACT 2) for activating the electric motor, depending on the driving conditions and on the charge level, the system further comprising third measuring means for measuring at least one characteristic relating to the operation of the heating system of the vehicle, the first activation signal (ACT 1) and the second activation signal (ACT 2) being prepared on the basis of the characteristic relating to the operation of the heating system, characterized in that the computing means comprise a first comparison unit that is able to calculate a first deviation signal (ε NC) for the deviation of the charge level of the battery of the vehicle on the basis of the level of charge and a predefined reference charge level (NC REF), and in that the computing means comprise a first proportional integral derivative corrector that is able to transmit a first correction signal (S COR1) for the charge level of the battery on the basis of the first deviation signal (ε NC) calculated by the first comparison unit. - first measuring means for measuring driving conditions of the vehicle, - second measuring means for measuring the level of charge in the battery of the vehicle, - first control means for controlling the heat engine, - second control means for controlling the electric motor, and - computing means that are able to transmit a first activation signal (ACT 1) for activating the heat engine and a second activation signal (ACT 2) for activating the electric motor, depending on the driving conditions and on the charge level,
A process for producing a resin composite molded article comprising bonding a molded article of a resin A which contains a polymer containing an alicyclic structure and a molded article of a resin B to produce a resin composite molded article, the bonding including a step 1 of applying at least one activation treatment selected from plasma application, excimer ultraviolet irradiation, and corona discharge to the bonding surface of the molded article, followed by a treatment with a silane coupling agent, a step 2 of applying at least one activation treatment selected from plasma application, excimer ultraviolet irradiation, and corona discharge to the bonding surface of the molded article, followed by a treatment with a silane coupling agent having a functional group which reacts with the silane coupling agent to form a bond, and a step 3 of superposing the bonding surface of the molded article on the bonding surface of the molded article, and press-bonding the bonding surfaces.
Seawater air-conditioning system with a fan for the generation of an airflow, a humidifying device for humidifying the airflow, and mineralised water, in particular containing sea salt, and an UV-light source, characterised in that the humidifying device, through which the airflow is able to pass, is arranged in the flow direction, that a climate chamber is provided, adjacent to the humidifying device and downstream of the humidifying device in the flow direction, and that the UV-light source is arranged in such a way that it irradiates with UV-light the humidified airflow passing through the climate chamber, together with the surface of the humidifying device facing the climate chamber and over which air passes.
An apparatus for analyzing particles in a solution comprising: a flow cell having a flow path (5,45) for flowing a sample solution containing the particles; a unit configured to illuminate the sample solution flowing through the flow path of the flow cell; a photodetector that detects, based on the wavelength, a scattered light and/or fluorescence generated from the each particle in the sample solution; and a unit configured to individually analyze the particles based on their signal intensities detected by the photodetector, wherein the flow cell has the flow path formed in a substrate, a reflection plane is formed on the outer side surface of the flow path, the reflection plane directs the light which is generated in the flow path of the flow cell and advancing in the substrate in-plane direction, which is perpendicular to the flow path, to a specified region of the surface of the flow cell, and the photodetector detects the light exiting from the specified region to the outside. a flow cell having a flow path (5,45) for flowing a sample solution containing the particles; a unit configured to illuminate the sample solution flowing through the flow path of the flow cell; a photodetector that detects, based on the wavelength, a scattered light and/or fluorescence generated from the each particle in the sample solution; and a unit configured to individually analyze the particles based on their signal intensities detected by the photodetector, wherein the flow cell has the flow path formed in a substrate, a reflection plane is formed on the outer side surface of the flow path, the reflection plane directs the light which is generated in the flow path of the flow cell and advancing in the substrate in-plane direction, which is perpendicular to the flow path, to a specified region of the surface of the flow cell, and the photodetector detects the light exiting from the specified region to the outside.
A system for preparing a bone for a cementless joint implant, the system comprising: a computer-aided surgical system (in the following: CASS), a robotic arm, and a burring device removably coupled to the robotic arm; wherein the CASS is configured to facilitate a first bone removal operation using the burring device with a first plurality of settings; wherein the CASS is configured to adjust the first plurality of settings to a second plurality of settings; and wherein the CASS is configured to facilitate a second bone removal operation using the burring device with the second plurality of settings, characterised in that the CASS is configured to adjust the first plurality of settings to the second plurality of settings based on a distance between a current bone surface and an intended final cut plane. a computer-aided surgical system (in the following: CASS), a robotic arm, and a burring device removably coupled to the robotic arm; wherein the CASS is configured to facilitate a first bone removal operation using the burring device with a first plurality of settings; wherein the CASS is configured to adjust the first plurality of settings to a second plurality of settings; and wherein the CASS is configured to facilitate a second bone removal operation using the burring device with the second plurality of settings, characterised in that the CASS is configured to adjust the first plurality of settings to the second plurality of settings based on a distance between a current bone surface and an intended final cut plane.
A User Equipment, UE, comprising: a transmission and reception unit configured for: in a Protocol Data Unit, PDU, session establishment procedure, transmitting a PDU session establishment request message, to a core network; and receiving a PDU session establishment accept message including at least a PDU session type, from the core network; and a controller configured for: in a case that the PDU session type is IPv6 or IPv4v6, and the PDU session establishment request message includes information indicating support of Multi-homed PDU session using IPv6, establishing a PDU session supported to use multiple IPv6 prefixes during the PDU session establishment procedure. a transmission and reception unit configured for: in a Protocol Data Unit, PDU, session establishment procedure, transmitting a PDU session establishment request message, to a core network; and receiving a PDU session establishment accept message including at least a PDU session type, from the core network; and transmitting a PDU session establishment request message, to a core network; and receiving a PDU session establishment accept message including at least a PDU session type, from the core network; and a controller configured for: in a case that the PDU session type is IPv6 or IPv4v6, and the PDU session establishment request message includes information indicating support of Multi-homed PDU session using IPv6, establishing a PDU session supported to use multiple IPv6 prefixes during the PDU session establishment procedure.
A shelf frame assembly system comprising: a first vertical post that includes a plurality of openings disposed on a surface of the vertical post; a side beam comprising a receiving bore disposed at a first end of the side beam; an end piece or side beam connector having a coupling portion and a receiving portion, the receiving portion includes a plurality of protrusions; and an end connector configured to be inserted into one of the plurality of openings, the end connector includes a plurality of recesses configured to receive the plurality of protrusions and a stop configured to make contact with at least one edge of the one of the plurality of openings; wherein the receiving bore of the side beam is configured to receive the coupling portion of the end piece; wherein the receiving portion of the side beam connector is configured to receive the end connector; and wherein the plurality of protrusions are configured to resist, in use, a horizontal withdrawal of the side beam connector from the end connector. a first vertical post that includes a plurality of openings disposed on a surface of the vertical post; a side beam comprising a receiving bore disposed at a first end of the side beam; an end piece or side beam connector having a coupling portion and a receiving portion, the receiving portion includes a plurality of protrusions; and an end connector configured to be inserted into one of the plurality of openings, the end connector includes a plurality of recesses configured to receive the plurality of protrusions and a stop configured to make contact with at least one edge of the one of the plurality of openings; wherein the receiving bore of the side beam is configured to receive the coupling portion of the end piece; wherein the receiving portion of the side beam connector is configured to receive the end connector; and wherein the plurality of protrusions are configured to resist, in use, a horizontal withdrawal of the side beam connector from the end connector.
A foldable logistic module comprising: - a pair of foldable panels (101, 102) disposed face to face, - a pair of rigid panels (103, 104) disposed face to face and between the foldable panels, - a floor arrangement pivotably connected to at least one of the rigid panels so that the floor arrangement can be folded against at least one of the rigid panels, the floor arrangement constituting a stop for the foldable panels when the floor arrangement has been deployed, forming a floor preventing folding of the foldable panels, - a roof arrangement pivotably connected to at least one of the rigid panels so that the roof arrangement can be folded against at least one of the rigid panels, - at least one locking member (113, 114, 115, 116) configured to lock the roof arrangement, characterised in that the locking member is disposed in one of the following two ways: - a first way according to which the locking member is connected to a top edge of a foldable panel, one edge of the roof arrangement being adapted to engage in the locking member while unfolding the foldable panel when the roof arrangement has been deployed, and - a second way according to which the locking member is connected to one edge of the roof arrangement, a top edge of a foldable panel being adapted to engage in the locking member while unfolding the foldable panel when the roof arrangement has been deployed. - a pair of foldable panels (101, 102) disposed face to face, - a pair of rigid panels (103, 104) disposed face to face and between the foldable panels, - a floor arrangement pivotably connected to at least one of the rigid panels so that the floor arrangement can be folded against at least one of the rigid panels, the floor arrangement constituting a stop for the foldable panels when the floor arrangement has been deployed, forming a floor preventing folding of the foldable panels, - a roof arrangement pivotably connected to at least one of the rigid panels so that the roof arrangement can be folded against at least one of the rigid panels, - at least one locking member (113, 114, 115, 116) configured to lock the roof arrangement, - a first way according to which the locking member is connected to a top edge of a foldable panel, one edge of the roof arrangement being adapted to engage in the locking member while unfolding the foldable panel when the roof arrangement has been deployed, and - a second way according to which the locking member is connected to one edge of the roof arrangement, a top edge of a foldable panel being adapted to engage in the locking member while unfolding the foldable panel when the roof arrangement has been deployed.
A method for producing a quartz glass body, comprising the method steps of: i.) providing a silicon dioxide granulate, wherein the silicon dioxide granulate was produced from pyrogenic silicon dioxide powder and the silicon dioxide granulate comprises the following feature: a BET surface area in a range of from 20 to 40 m 2 /g; ii.) forming a glass melt from the silicon dioxide granulate in a furnace; iii.) forming a quartz glass body from at least part of the glass melt; wherein the furnace comprises at least a first and a further chamber connected to each other by a passage, wherein the first and the further chamber have different temperatures, wherein the temperature in the further chamber is in a range of from 1900 to 2300°C, and wherein the temperature of the first chamber is lower than the temperature of the further chamber by a range of from 1200 to 1800°C. i.) providing a silicon dioxide granulate, wherein the silicon dioxide granulate was produced from pyrogenic silicon dioxide powder and the silicon dioxide granulate comprises the following feature: a BET surface area in a range of from 20 to 40 m 2 /g; ii.) forming a glass melt from the silicon dioxide granulate in a furnace; iii.) forming a quartz glass body from at least part of the glass melt; wherein the furnace comprises at least a first and a further chamber connected to each other by a passage, wherein the first and the further chamber have different temperatures, wherein the temperature in the further chamber is in a range of from 1900 to 2300°C, and wherein the temperature of the first chamber is lower than the temperature of the further chamber by a range of from 1200 to 1800°C. wherein the furnace comprises at least a first and a further chamber connected to each other by a passage, wherein the first and the further chamber have different temperatures, wherein the temperature in the further chamber is in a range of from 1900 to 2300°C, and wherein the temperature of the first chamber is lower than the temperature of the further chamber by a range of from 1200 to 1800°C.
Protection device for a building cover comprising a malleable outer body and a stiffer inner body, wherein the outer body is completely or partially covered by a cover, the inner body is completely or partially surrounded by the covered outer body, and the cover consists of a flexible grid, mesh or fabric, is connected to the inner body and holds the outer body around the inner body, characterized in that the outer body comprises a malleable wool of metal or of plastic, which forms a malleable cushion around the inner body and the cover consists of metal mesh or metal fabric. the outer body is completely or partially covered by a cover, the inner body is completely or partially surrounded by the covered outer body, and the cover consists of a flexible grid, mesh or fabric, is connected to the inner body and holds the outer body around the inner body, characterized in that the outer body comprises a malleable wool of metal or of plastic, which forms a malleable cushion around the inner body and the cover consists of metal mesh or metal fabric.
Method for metering a reducing agent into an exhaust-gas treatment device having a feed point and having an SCR catalytic converter for the conversion of nitrogen oxide compounds in the exhaust gas, having at least the following steps: a) calculating the following setpoint conversion rates, which indicate what fraction of the nitrogen oxide compounds present in the exhaust gas can be converted by the SCR catalytic converter: a.1) a first setpoint conversion rate which is determined from the power output of a connected internal combustion engine; a.2) a second setpoint conversion rate which is determined from the mass flow of nitrogen oxide compounds in the purified exhaust gases; and a.3) a third setpoint conversion rate which is determined from a ratio between a quantity of nitrogen oxide compounds upstream of the SCR catalytic converter and a quantity of nitrogen oxide compounds downstream of the SCR catalytic converter; b) selecting the lowest setpoint conversion rate (4, 5, 6); c) determining a dosing quantity of reducing agent using the selected setpoint conversion rate (4, 5, 6); and d) dosing the determined dosing quantity into the exhaust-gas treatment device. a) calculating the following setpoint conversion rates, which indicate what fraction of the nitrogen oxide compounds present in the exhaust gas can be converted by the SCR catalytic converter: a.1) a first setpoint conversion rate which is determined from the power output of a connected internal combustion engine; a.2) a second setpoint conversion rate which is determined from the mass flow of nitrogen oxide compounds in the purified exhaust gases; and a.3) a third setpoint conversion rate which is determined from a ratio between a quantity of nitrogen oxide compounds upstream of the SCR catalytic converter and a quantity of nitrogen oxide compounds downstream of the SCR catalytic converter; a.1) a first setpoint conversion rate which is determined from the power output of a connected internal combustion engine; a.2) a second setpoint conversion rate which is determined from the mass flow of nitrogen oxide compounds in the purified exhaust gases; and a.3) a third setpoint conversion rate which is determined from a ratio between a quantity of nitrogen oxide compounds upstream of the SCR catalytic converter and a quantity of nitrogen oxide compounds downstream of the SCR catalytic converter; b) selecting the lowest setpoint conversion rate (4, 5, 6); c) determining a dosing quantity of reducing agent using the selected setpoint conversion rate (4, 5, 6); and d) dosing the determined dosing quantity into the exhaust-gas treatment device.
An oligonucleotide consisting of 2'-O-methyl RNA nucleotide residues, having a backbone wherein all phosphate moieties are replaced by phosphorothioate moieties, and comprising one or more 5-methylpyrimidine bases, wherein said oligonucleotide is able to hybridize to a n repetitive nucleotide unit, wherein said oligonucleotide comprises or consists of a repetitive nucleotide unit m, wherein m is an integer from 4 to 12 and each X is C or 5-methylcytosine and each Y is U or 5-methyluracil, wherein each X is 5-methylcytosine and/or each Y is 5-methyluracil, for use in treating, delaying, and/or preventing Huntington's disease, spinocerebellar ataxia type 1, 2, 3, 6, 7, 12 or 17, spinal and bulbar muscular atrophy (SBMA), or dentatorubral-pallidoluysian atrophy (DRPLA).
A method of generating a radio-frequency signal profile by a wireless communication device (41, 42, 43, 44, 45, 46, 47, 48, 70), the method comprising: receiving indications of measurements of one or more values of one or more radio-frequency, RF, characteristics of one or more wireless RF signals from one or more RF devices (41, 42, 43, 44, 45, 46, 47, 48, 70) in an environment (36, 64, 66, 68); determining contexts from values of one or more context characteristics associated with the measurements; and generating a reference RF profile (710 1, 710 2) for the environment (36, 64, 66, 68) providing an RF signature for the environment (36, 64, 66, 68) by combining sets of the one or more values of the one or more RF characteristics associated with common contexts. receiving indications of measurements of one or more values of one or more radio-frequency, RF, characteristics of one or more wireless RF signals from one or more RF devices (41, 42, 43, 44, 45, 46, 47, 48, 70) in an environment (36, 64, 66, 68); determining contexts from values of one or more context characteristics associated with the measurements; and generating a reference RF profile (710 1, 710 2) for the environment (36, 64, 66, 68) providing an RF signature for the environment (36, 64, 66, 68) by combining sets of the one or more values of the one or more RF characteristics associated with common contexts.
A linear voltage regulator comprising: a first transistor between a first input terminal, adapted to receive a first voltage, and an output terminal adapted to provide a regulated voltage (VCC_OUT); a second transistor between a second input terminal, adapted to receive a second voltage (VCC_CL), and said output terminal; an amplifier of the difference between a third voltage proportional to the voltage at said output terminal, and a reference voltage (VREF), an output of said amplifier being selectively coupled to respective control terminals (44, 48) of said first and second transistors, said amplifier being supplied by a fourth voltage (VCC_LDO) corresponding to the highest voltage between said first and second voltages, the linear voltage regulator is characterized in that said output of the amplifier is coupled by a first switch to the control terminal of said first transistor and by a second switch to the control terminal of the second transistor, said first and second switches being respectively controlled by first (EN_CNT) and second (EN_CL) control signals, wherein the control terminal (44, 48) of each of the first and second transistors (41, 45) is pulled-up to the fourth voltage (VCC_LDO), and wherein a third and a fourth switches respectively couple the control terminals (44, 48) of the first and second transistors (41, 45) to the fourth voltage (VCC_LDO), the third and fourth switches being controlled by the respective inverses of the first and second control signals. a first transistor between a first input terminal, adapted to receive a first voltage, and an output terminal adapted to provide a regulated voltage (VCC_OUT); a second transistor between a second input terminal, adapted to receive a second voltage (VCC_CL), and said output terminal; an amplifier of the difference between a third voltage proportional to the voltage at said output terminal, and a reference voltage (VREF), an output of said amplifier being selectively coupled to respective control terminals (44, 48) of said first and second transistors, said amplifier being supplied by a fourth voltage (VCC_LDO) corresponding to the highest voltage between said first and second voltages, the linear voltage regulator is characterized in that said output of the amplifier is coupled by a first switch to the control terminal of said first transistor and by a second switch to the control terminal of the second transistor, said first and second switches being respectively controlled by first (EN_CNT) and second (EN_CL) control signals, wherein the control terminal (44, 48) of each of the first and second transistors (41, 45) is pulled-up to the fourth voltage (VCC_LDO), and wherein a third and a fourth switches respectively couple the control terminals (44, 48) of the first and second transistors (41, 45) to the fourth voltage (VCC_LDO), the third and fourth switches being controlled by the respective inverses of the first and second control signals.