mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: sampling, by circuitry of an attack prevention electronic control unit, a voltage waveform on a communication bus, the communication bus coupled to a plurality of ECUs, wherein sampling the voltage waveform comprises: iteratively sampling the voltage level on the communication bus over a period of time to generate a plurality of voltage level samples; and generating the voltage waveform from the plurality of voltage level samples; identifying a glitch in the voltage waveform comprising determining whether the voltage level during a portion of the period of time unexpectedly changes; and modifying the voltage level on the communication bus based on the glitch comprising: identifying a recessive voltage level on the communication bus, and overdriving the voltage level on the communication bus to change the recessive voltage level to a dominant voltage level. sampling, by circuitry of an attack prevention electronic control unit, a voltage waveform on a communication bus, the communication bus coupled to a plurality of ECUs, wherein sampling the voltage waveform comprises: iteratively sampling the voltage level on the communication bus over a period of time to generate a plurality of voltage level samples; and generating the voltage waveform from the plurality of voltage level samples; iteratively sampling the voltage level on the communication bus over a period of time to generate a plurality of voltage level samples; and generating the voltage waveform from the plurality of voltage level samples; identifying a glitch in the voltage waveform comprising determining whether the voltage level during a portion of the period of time unexpectedly changes; and modifying the voltage level on the communication bus based on the glitch comprising: identifying a recessive voltage level on the communication bus, and overdriving the voltage level on the communication bus to change the recessive voltage level to a dominant voltage level. identifying a recessive voltage level on the communication bus, and overdriving the voltage level on the communication bus to change the recessive voltage level to a dominant voltage level.
Use, for reducing the cold filter plugging point measured in accordance with standard NF EN 116 of a fuel composition, of one or more copolymers formed by the following units: - from 75 to 95 mol% of a unit of following formula: and - from 5 to 25 mol% of one or more unit(s) of following formula: wherein R 1, R 2, and R 3, which are identical or different, represent a hydrogen atom or a C 1 -C 4 alkyl group, and R 4 represents a C 1 -C 11 alkyl group, said copolymer having a peak molar mass in the range of 4000 to 7000 g.mol -1 and a dispersity of 1.8 or less, both parameters being determined by steric exclusion chromatography. - from 75 to 95 mol% of a unit of following formula: and - from 5 to 25 mol% of one or more unit(s) of following formula: wherein R 1, R 2, and R 3, which are identical or different, represent a hydrogen atom or a C 1 -C 4 alkyl group, and R 4 represents a C 1 -C 11 alkyl group, said copolymer having a peak molar mass in the range of 4000 to 7000 g.mol -1 and a dispersity of 1.8 or less, both parameters being determined by steric exclusion chromatography.
Environmental security device for a tank or ditch for retaining polluting oil, intended for the equipment of an electricity distribution network and in particular for tanks or pits for retaining transformer oil, comprising at least one receiving tank or pit, in particular for flowing flammable chemical products, placed under a device containing such products, like a transformer, extinction means covering said tank or said pit, means for evacuating an excess of products in the receiving tank or pit and means for filtering the flammable chemical products and means for separating the water and the flammable chemical products contained in the receiving tank or pit, said separation means and the filtering means being connected to a pipe for evacuating the water and consisting of at least one cartridge comprising a gelling agent.
An in-wall frame comprising a retractable sliding door and a first movable frame, with which said door is slidingly associated and which is pivoted to a second frame, which is fixed and can be associated temporarily with it, said in-wall frame comprising first means for supporting said first frame on said second frame in the condition in which the two are mutually aligned, wherein said first movable frame comprises a first upper crossmember, which has an inverted C-shaped cross-section inside which there is centrally a profiled element for the sliding of two or more carriages, each composed of a support for a pair of wheels or rollers with which said door is associated in a lower region; two lateral panels are associated removably with the sides of said first frame and hide said door from view; characterized in that said first movable frame comprises a pair of first front posts (3a, 3b) and a first head jamb, between which said door slides, in that said first upper crossmember is longer than said door, and in that said two lateral panels partially affect the width of each first front post (3a, 3b), so as to leave free a vertical band proximate to the free end of said first front posts (3a, 3b) that is directed toward a second lateral post. wherein said first movable frame comprises a first upper crossmember, which has an inverted C-shaped cross-section inside which there is centrally a profiled element for the sliding of two or more carriages, each composed of a support for a pair of wheels or rollers with which said door is associated in a lower region; two lateral panels are associated removably with the sides of said first frame and hide said door from view; characterized in that said first movable frame comprises a pair of first front posts (3a, 3b) and a first head jamb, between which said door slides, in that said first upper crossmember is longer than said door, and in that said two lateral panels partially affect the width of each first front post (3a, 3b), so as to leave free a vertical band proximate to the free end of said first front posts (3a, 3b) that is directed toward a second lateral post.
A method for receiving control information by a user equipment, UE, in a Long Term Evolution, LTE, wireless communication system, comprising: receiving downlink control information, DCI, for reconfiguring Time Division Duplex uplink-downlink, TDD UL-DL, configuration, wherein the DCI for reconfiguring the TDD UL-DL configuration comprises a plurality of reconfigurations related with a UE group comprising the UE, and wherein the DCI for reconfiguring the TDD UL-DL configuration is received based on a radio network temporary identifier, RNTI, defined for reconfiguring the TDD UL-DL configuration, and wherein the number of the plurality of reconfigurations is determined according to the size related with a format for reconfiguring the TDD UL-DL configuration. receiving downlink control information, DCI, for reconfiguring Time Division Duplex uplink-downlink, TDD UL-DL, configuration, wherein the DCI for reconfiguring the TDD UL-DL configuration comprises a plurality of reconfigurations related with a UE group comprising the UE, and wherein the DCI for reconfiguring the TDD UL-DL configuration is received based on a radio network temporary identifier, RNTI, defined for reconfiguring the TDD UL-DL configuration, and wherein the number of the plurality of reconfigurations is determined according to the size related with a format for reconfiguring the TDD UL-DL configuration.
Method for heating a plate or a preformed steel sheet component for the purpose of hot reshaping and/or quench hardening, wherein heating is carried out at least in part areas to a temperature above AC3, wherein heating the plate is carried out as rapid heating and the plate is heated in a first zone with an average heating rate of > 25 K/s to approx. 600°C and above this temperature with an average heating rate of > 10 K/s to a maximum AC3 temperature for this, and is then transferred to a second zone, in which the plate pre-heated in the first zone is heated at least in part areas to temperatures above AC3, in particular > 850°C, wherein the heating rate in the second zone is > 10 K/s, wherein a third zone is provided after zone 2, which is designed as a homogenisation and holding zone, wherein the heating rate there is < 10 K/s or the heating capacity is sized in such a way that a controlled temperature decrease of the plate is ensured, although without falling below the transformation points of the austenitised areas, or a holding of the temperature and the temperature profile, wherein the plate is designed of coated sheet metal and the sheet metal is a zinc alloy coated sheet metal, wherein the sheet metal consists of boron manganese steel.
A method for converting direct current power generated by a plurality of photovoltaic arrays to alternating current power using a PV inverter having a DC boost circuit for each of the PV arrays and a DC to AC inverter, the method comprising: applying the DC power generated by each PV array to a respective input to the PV inverter; operating each PV array at a maximum power voltage corresponding to a maximum power output of the PV array to produce DC power; periodically calculating (152, 154) a minimum DC link voltage based on the AC output voltage of the PV inverter to a power utility grid; determining (136, 138, 148) a duty cycle for each PV array which regulates the PV array to output the maximum power voltage for the PV array and boosts the maximum power voltage to at least the minimum DC link voltage; applying the duty cycle to each DC boost circuit to boost the DC power from the PV array connected to the DC boost circuit from the maximum power voltage of the PV array to at least the minimum DC link voltage; converting (122, 152) the boosted DC power to AC power, and disabling the DC boost circuit connected to a PV array that has a maximum power voltage at least as great as the minimum DC link voltage. applying the DC power generated by each PV array to a respective input to the PV inverter; operating each PV array at a maximum power voltage corresponding to a maximum power output of the PV array to produce DC power; periodically calculating (152, 154) a minimum DC link voltage based on the AC output voltage of the PV inverter to a power utility grid; determining (136, 138, 148) a duty cycle for each PV array which regulates the PV array to output the maximum power voltage for the PV array and boosts the maximum power voltage to at least the minimum DC link voltage; applying the duty cycle to each DC boost circuit to boost the DC power from the PV array connected to the DC boost circuit from the maximum power voltage of the PV array to at least the minimum DC link voltage; converting (122, 152) the boosted DC power to AC power, and disabling the DC boost circuit connected to a PV array that has a maximum power voltage at least as great as the minimum DC link voltage.
A container for pretreating organic substances, located in a biogas system, in which the filling of the container with organic substances is effected via a sluice system, characterized in that the sluice system includes a first chamber and a second chamber, and the first chamber can be disconnected from an infeed opening of the container by means of a first slide, and the second chamber can be disconnected from the first chamber by means of a second slide.
A method comprising: i) receiving an input signal comprising information associated with a manipulation of a surface of a touch-sensitive non mechanical input device, and ii) generating (504, 604, 706) a vibrotactile signal configured to cause an actuator to produce a vibrotactile effect to the surface of the touch-sensitive non mechanical input device; further comprising: iii) storing a plurality of stored virtual detent profiles; iv) determining one of said plurality of stored virtual detent profiles to generate a vibrotactile signal; wherein said determination is based at least in part on the input signal (102, 202, 306, 400) and the vibrotactile effect is configured to simulate mechanical feedback. i) receiving an input signal comprising information associated with a manipulation of a surface of a touch-sensitive non mechanical input device, and ii) generating (504, 604, 706) a vibrotactile signal configured to cause an actuator to produce a vibrotactile effect to the surface of the touch-sensitive non mechanical input device; iii) storing a plurality of stored virtual detent profiles; iv) determining one of said plurality of stored virtual detent profiles to generate a vibrotactile signal;
An adsorptive textile composite comprising an air-permeable carrier for adsorber particles, which is provided on at least one side with an air-permeable lining having an adhesive layer, characterized in that the carrier is a nonwoven fabric, in that the nonwoven fabric is a fibre pile fleece with a fibre pile formation on one side, in that the fibre pile of the fibre pile fleece is formed as closed loops, in that on the side of the nonwoven fabric on which the pile is formed as loops, loose adsorber particles are introduced, and in that on the side on which the adsorber particles have been introduced, the nonwoven fabric is lined with an air-permeable fleece.
A lithium secondary battery comprising: a non-aqueous electrolyte solution comprising a lithium salt, lithium bis(fluorosulfonyl)imide (LiFSI) and a phosphazene compound as additives; a positive electrode comprising a lithium-nickel-manganese-cobalt-based oxide as a positive electrode active material; a negative electrode; and a separator; characterized in that the lithium-nickel-manganese-cobalt-based oxide is represented by the following Formula 1: [Formula 1] Li 1+x (Ni a Co b Mn c)O 2 in the above Formula, 0.55≤a≤0.65, 0.18≤b≤0.22, 0.18≤ c≤0.22, -0.2≤x≤0.2 and x+a+b+c=1. a non-aqueous electrolyte solution comprising a lithium salt, lithium bis(fluorosulfonyl)imide (LiFSI) and a phosphazene compound as additives; a positive electrode comprising a lithium-nickel-manganese-cobalt-based oxide as a positive electrode active material; a negative electrode; and a separator; characterized in that the lithium-nickel-manganese-cobalt-based oxide is represented by the following Formula 1: [Formula 1] Li 1+x (Ni a Co b Mn c)O 2 in the above Formula, 0.55≤a≤0.65, 0.18≤b≤0.22, 0.18≤ c≤0.22, -0.2≤x≤0.2 and x+a+b+c=1.
Covering comprising panels that can be connected to each other mechanically, with the following characteristics: a) The neighboring first and second panels (1, 2) have a groove (6. 14) on their complimentary sides (5, 21), b) The grooves (6, 14) have upper and lower groove cheeks (7, 8; 17, 26) c) In one of the grooves (6, 14), there is at least in parts a relatively adjustable tongue (9, 9a, 9b, 9c, 9d) opposite the panel (1, 2), which is suitable to connect the neighboring panels (1, 2) locking into the corresponding grove (6, 14) of the neighboring panel (1, 2) d) The tongue (9, 9a, 9b, 9c, 9d) has at least one projection (16, 33, 42, 43), which points in the direction of the opposite the area of the longer groove cheek (7, 17) opposite the shorter groove cheek (8, 26) of the other groove (6, 14). e) The projection (16, 33, 42, 43) is provided so that when there is contact with this area of the groove cheek (7, 17) at a right angle to the laying position of the panels (1,2) it will be displaced, whereby the projection (16, 33, 42, 43) interacts with the groove with a locking section (13, 29, 32, 35, 41, 47) of the tongue (9, 9a, 9b, 9c, 9d), which, caused by the movement of the projection (16, 33, 42, 43), can be moved in the direction of the groove (6, 14) of the neighboring panel (1, 2). f) The Projection (16, 33, 42, 43) is formed with a moveable connection section (11, 28) relative to the locking section (13, 29) and a retention section (10, 27) of the tongue (9, 9a). g) The locking section (13, 29, 32, 25, 41, 47) are made of a material with less elasticity than the other parts of the tongue (9, 9a, 9b, 9c, 9d, 9e). a) The neighboring first and second panels (1, 2) have a groove (6. 14) on their complimentary sides (5, 21), b) The grooves (6, 14) have upper and lower groove cheeks (7, 8; 17, 26) c) In one of the grooves (6, 14), there is at least in parts a relatively adjustable tongue (9, 9a, 9b, 9c, 9d) opposite the panel (1, 2), which is suitable to connect the neighboring panels (1, 2) locking into the corresponding grove (6, 14) of the neighboring panel (1, 2) d) The tongue (9, 9a, 9b, 9c, 9d) has at least one projection (16, 33, 42, 43), which points in the direction of the opposite the area of the longer groove cheek (7, 17) opposite the shorter groove cheek (8, 26) of the other groove (6, 14). e) The projection (16, 33, 42, 43) is provided so that when there is contact with this area of the groove cheek (7, 17) at a right angle to the laying position of the panels (1,2) it will be displaced, whereby the projection (16, 33, 42, 43) interacts with the groove with a locking section (13, 29, 32, 35, 41, 47) of the tongue (9, 9a, 9b, 9c, 9d), which, caused by the movement of the projection (16, 33, 42, 43), can be moved in the direction of the groove (6, 14) of the neighboring panel (1, 2). f) The Projection (16, 33, 42, 43) is formed with a moveable connection section (11, 28) relative to the locking section (13, 29) and a retention section (10, 27) of the tongue (9, 9a). g) The locking section (13, 29, 32, 25, 41, 47) are made of a material with less elasticity than the other parts of the tongue (9, 9a, 9b, 9c, 9d, 9e).
A therapeutic or pharmaceutical composition formulated for topical administration, the composition including a substance useful as an adjuvant for potentiating an immune response, the substance being comprised of a combination of a therapeutically effective amount of aluminium hydroxide and 3'-deacylated monophospholipid A; and a pharmaceutically acceptable diluent or carrier, the composition being characterised in that the composition does not include an immunogen for invoking an immune response.
A control unit for deriving a measure of arterial compliance, operably coupleable in use with an oscillometric blood pressure measurement device, and a means for measuring pulse arrival time, the control unit adapted to: acquire using the oscillometric blood pressure measurement device an arterial volume signal indicative of a variation in arterial volume of an artery assumed to be in contact with the measurement device, as a pressure applied to the artery by the measurement device is varied across a range of pressures; wherein the control unit is further adapted to: extract from said arterial volume signal a peak-to-peak volume amplitude signal indicative of a peak-to-peak amplitude of the arterial volume across said range of applied pressures; acquire using the means for measuring pulse arrival time a signal indicative of a variation in pulse arrival time at a particular location along said artery as said applied pressure is varied across said range of pressures; derive from said extracted peak-to-peak volume amplitude signal, a signal, V a - osc, indicative of arterial volume as a function of arterial transmural pressure, based on a first model fitting procedure employing a pre-determined arterial volume model; and derive an output measure indicative of arterial compliance based on the derived Va-osc signal and based on the acquired signal indicative of variation in pulse arrival time, using a further model fitting procedure employing a pre-determined pulse arrival time model relating variation in pulse arrival time, arterial volume, and arterial compliance. acquire using the oscillometric blood pressure measurement device an arterial volume signal indicative of a variation in arterial volume of an artery assumed to be in contact with the measurement device, as a pressure applied to the artery by the measurement device is varied across a range of pressures; extract from said arterial volume signal a peak-to-peak volume amplitude signal indicative of a peak-to-peak amplitude of the arterial volume across said range of applied pressures; acquire using the means for measuring pulse arrival time a signal indicative of a variation in pulse arrival time at a particular location along said artery as said applied pressure is varied across said range of pressures; derive from said extracted peak-to-peak volume amplitude signal, a signal, V a - osc, indicative of arterial volume as a function of arterial transmural pressure, based on a first model fitting procedure employing a pre-determined arterial volume model; and derive an output measure indicative of arterial compliance based on the derived Va-osc signal and based on the acquired signal indicative of variation in pulse arrival time, using a further model fitting procedure employing a pre-determined pulse arrival time model relating variation in pulse arrival time, arterial volume, and arterial compliance.
A method for automatic regulation of a system in which a plurality of parameters characteristic of the system are measured and in which at least one control parameter (u) is applied as a function of the measured parameters (y), wherein - a nominal operating point of the system is chosen, - a nominal model (Mn) describing the system at this nominal operating point is determined, and estimated characteristic output parameters (y r) corresponding to measurable characteristic parameters (y) are determined from said nominal model, - the errors between at least one of the measured characteristic output parameters (y) and at least one of the estimated characteristic output parameters (y r) are determined, and - at least one control parameter of the system is applied as a function of the errors determined to reduce the error between at least one of the estimated characteristic output parameters (y r) and the corresponding at least one measured value of the measured characteristic output parameters (y), wherein the method is characterized in - including a supplementary step of integration of the difference between the command or control parameter (u) and its saturated value (u sat), and in that the at least one control parameter of the system applied as a function of the errors determined to reduce the error between the estimated characteristic output parameters (y r) and the measured values of the measurable characteristic output parameters (y) is determined taking into account the integral of the difference between the control parameter (u) and its saturated value (u sat). - a nominal operating point of the system is chosen, - a nominal model (Mn) describing the system at this nominal operating point is determined, and estimated characteristic output parameters (y r) corresponding to measurable characteristic parameters (y) are determined from said nominal model, - the errors between at least one of the measured characteristic output parameters (y) and at least one of the estimated characteristic output parameters (y r) are determined, and - at least one control parameter of the system is applied as a function of the errors determined to reduce the error between at least one of the estimated characteristic output parameters (y r) and the corresponding at least one measured value of the measured characteristic output parameters (y), wherein the method is characterized in - including a supplementary step of integration of the difference between the command or control parameter (u) and its saturated value (u sat), and in that the at least one control parameter of the system applied as a function of the errors determined to reduce the error between the estimated characteristic output parameters (y r) and the measured values of the measurable characteristic output parameters (y) is determined taking into account the integral of the difference between the control parameter (u) and its saturated value (u sat).