mhurhangee/patent-ind-claim-en huggingface dataset:
A current supervisory device comprising : - current sensing means for sensing a current, - a circuit arranged to convert a signal received from said current sensing means into a signal indicative of the sensed current, - storage means for storing a plurality of values of said signal indicative of the sensed current, characterised by - a processing circuit arranged for performing gain control in said circuit , for receiving a subset of said plurality of values stored in said storage means, for detecting or predicting an event based on a function of said subset, said function being selected based on a gain setting in said circuit , and for generating a corresponding event signal, said current supervisory device further comprising an interface circuit arranged to output said corresponding event signal. - current sensing means for sensing a current, - a circuit arranged to convert a signal received from said current sensing means into a signal indicative of the sensed current, - storage means for storing a plurality of values of said signal indicative of the sensed current, characterised by - a processing circuit arranged for performing gain control in said circuit , for receiving a subset of said plurality of values stored in said storage means, for detecting or predicting an event based on a function of said subset, said function being selected based on a gain setting in said circuit , and for generating a corresponding event signal,
A platform lift mechanism comprising: a base ; a first member rotatably coupled to the base ; a second member coupled to the first member , the second member moveable with respect to first member between a first position and a second position; a lifting link assembly rotatably coupled to each of the base and the second member ; a platform mount coupled to the second member , the platform mount rotatable about a platform pivot with respect to the second member ; and wherein the lifting link assembly includes: a base link rotatably coupled to the base ; a lifting link rotatably coupled to the second member ; and a receiving link coupled to each of the base link and the lifting link ; wherein the receiving link rotates relative to the base link as the lifting link rotates relative to the first member , thereby causing the first member to rotate relative to the base , and wherein the lifting link assembly rotates relative to the first member , the second member , and the base as the second member moves relative to the first member, thereby causing the first member to rotate relative to the base . a base ; a first member rotatably coupled to the base ; a second member coupled to the first member , the second member moveable with respect to first member between a first position and a second position; a lifting link assembly rotatably coupled to each of the base and the second member ; a platform mount coupled to the second member , the platform mount rotatable about a platform pivot with respect to the second member ; and wherein the lifting link assembly includes: a base link rotatably coupled to the base ; a lifting link rotatably coupled to the second member ; and a receiving link coupled to each of the base link and the lifting link ; wherein the receiving link rotates relative to the base link as the lifting link rotates relative to the first member , thereby causing the first member to rotate relative to the base , and a base link rotatably coupled to the base ; a lifting link rotatably coupled to the second member ; and a receiving link coupled to each of the base link and the lifting link ; wherein the receiving link rotates relative to the base link as the lifting link rotates relative to the first member , thereby causing the first member to rotate relative to the base , and wherein the lifting link assembly rotates relative to the first member , the second member , and the base as the second member moves relative to the first member, thereby causing the first member to rotate relative to the base .
A computer-implemented method for detecting a noise floor of a sensor disposed in a vehicle, comprising the steps of: receiving a sensor signal from a sensor ; determining a plurality of power spectral densities from a plurality of successive frames of samples of the sensor signal, each of the plurality of power spectral densities being determined from a respective frame of the plurality of successive frames, each power spectral density being comprised of a plurality of frequency bins, each frequency bin being associated with a power of the sensor signal at the frequency of the respective frequency bin, wherein each successive frame of the plurality of successive frames differs by at least one sample; identifying a minimum power of the plurality of power spectral densities that is an estimated noise floor of the sensor; the method being characterised in determining , according to at least one condition, whether the vehicle in which the sensor is disposed is in an idle state; determining , only when the vehicle is in the idle state, whether the minimum power exceeds a threshold value. receiving a sensor signal from a sensor ; determining a plurality of power spectral densities from a plurality of successive frames of samples of the sensor signal, each of the plurality of power spectral densities being determined from a respective frame of the plurality of successive frames, each power spectral density being comprised of a plurality of frequency bins, each frequency bin being associated with a power of the sensor signal at the frequency of the respective frequency bin, wherein each successive frame of the plurality of successive frames differs by at least one sample; identifying a minimum power of the plurality of power spectral densities that is an estimated noise floor of the sensor; the method being characterised in determining , according to at least one condition, whether the vehicle in which the sensor is disposed is in an idle state; determining , only when the vehicle is in the idle state, whether the minimum power exceeds a threshold value.
Use of one or more charged surfactants in cosmetic or dermatological preparations comprising one or more antiperspirant active ingredients for reducing or preventing staining in or on clothing.
A composition for use in a method for preventing porcine circovirus type 2 (PCV2) infection, comprising: 2.5 to 250 μg/mL PCV2 capsid protein; 2.5 to 25 μg/mL porcine interferon-α; 2.5 to 25 μg/mL porcine interferon-γ; and a pharmaceutically acceptable carrier. 2.5 to 250 μg/mL PCV2 capsid protein; 2.5 to 25 μg/mL porcine interferon-α; 2.5 to 25 μg/mL porcine interferon-γ; and a pharmaceutically acceptable carrier.
A processed citrus fruit which is obtained by removing a super surface layer of peel of a citrus fruit so that most of oil sacs in the peel are not ruptured, wherein the super surface layer has a thickness of within 1 mm from an outer surface of the peel, and wherein 50% or more of the number of oil sacs are maintained without being ruptured.
A communication method for reducing a communication delay and data redundancy applied to a distributed deep neural network, DNN, training process, comprising: receiving, by a network device, at least two packets from two different terminal devices , wherein messages to which the at least two packets separately belong have a same message index, the message index is used to index the messages to which the at least two packets separately belong, and parameter data in packets identified by a same message index is parameter data of a same location of a same DNN model; aggregating, by the network device, parameter data of the at least two packets to obtain aggregated packets, wherein the parameter data is obtained by training a DNN model; and sending, by the network device, the aggregated packets to the two different terminal devices , characterized in that in response to determining that a first packet is the 1 st packet of a message to which the first packet belongs, the first packet further comprises a first field, wherein the first field is used to indicate to perform aggregation processing on parameter data in the message to which the first packet belongs; and the first packet is any one of the at least two packets. receiving, by a network device, at least two packets from two different terminal devices , wherein messages to which the at least two packets separately belong have a same message index, the message index is used to index the messages to which the at least two packets separately belong, and parameter data in packets identified by a same message index is parameter data of a same location of a same DNN model; aggregating, by the network device, parameter data of the at least two packets to obtain aggregated packets, wherein the parameter data is obtained by training a DNN model; and sending, by the network device, the aggregated packets to the two different terminal devices , characterized in that in response to determining that a first packet is the 1 st packet of a message to which the first packet belongs, the first packet further comprises a first field, wherein the first field is used to indicate to perform aggregation processing on parameter data in the message to which the first packet belongs; and the first packet is any one of the at least two packets.
Method for operating a braking system of a motor vehicle, having a friction brake device and a regenerative brake device, in which method a cleaning requirement of respective wheel brakes of the friction brake device of the motor vehicle is determined (V1), and, on the basis of a brake pedal position of a brake pedal mechanically decoupled from the friction brake device, a deceleration of the motor vehicle desired by the driver is determined and a braking force required for the desired deceleration of the motor vehicle is determined (V2), wherein a first, predetermined part of this braking force is distributed to the regenerative brake device and the remainder of the required braking force is distributed to the wheel brakes of the friction brake device (V3), wherein the braking force to be provided by the friction brake device is distributed to the wheel brakes depending on the determined cleaning requirement of the respective wheel brakes, wherein - the braking force distributed to the wheel brakes of the friction brake device is distributed to the wheel brakes depending on at least one predetermined stability criterion to be met, and/or - when an anti-lock braking system and/or an electronic stability control system as driving dynamics control systems intervene in the driving dynamics of the motor vehicle, the distribution of the braking force between the wheel brakes is predetermined by the driving dynamics control system, and/or - as the first predetermined part of the braking force, a maximum possible regenerative power of the regenerative brake device is selected. - the braking force distributed to the wheel brakes of the friction brake device is distributed to the wheel brakes depending on at least one predetermined stability criterion to be met, and/or - when an anti-lock braking system and/or an electronic stability control system as driving dynamics control systems intervene in the driving dynamics of the motor vehicle, the distribution of the braking force between the wheel brakes is predetermined by the driving dynamics control system, and/or - as the first predetermined part of the braking force, a maximum possible regenerative power of the regenerative brake device is selected.
Blower wheel, notably for cooling the engine for driving a motor vehicle, comprising a hub , a guide and blades extending radially between the hub and the guide , each blade comprising a root at its junction with the hub and a head at the junction with the guide , each blade having a leading edge and a trailing edge between which, at each flattened cross section, a chord is defined, and, for each blade , in the radial direction from the root to the head , the length of the chord varies, characterized in that the variation in the chord length has three levels (33, 34, 35; 53, 54, 55) with a point of inflexion (36, 37; 56, 57) between two consecutive levels.
An attaching device for attaching a nut to a counterpart component, comprising: a storage part storing a plurality of the nuts ; a welding part welding the nut to the counterpart component by a pair of electrodes ; said attaching device being characterized in that it comprises a conveying part having a flexible long member for conveying the nut stored in the storage part singly to the welding part ; and a placement part provided at an outlet of the flexible long member on a side of the welding part , said placement part being such that it temporarily gets close between the pair of electrodes of the welding part to place the to be welded, before the nut to be welded is delivered from a delivery portion provided at the storage part; wherein the nut to be welded is placed on a lower electrode of the pair of electrodes after passing through the placement part singly from the conveying part. a storage part storing a plurality of the nuts ; a welding part welding the nut to the counterpart component by a pair of electrodes ; said attaching device being characterized in that it comprises a conveying part having a flexible long member for conveying the nut stored in the storage part singly to the welding part ; and a placement part provided at an outlet of the flexible long member on a side of the welding part , said placement part being such that it temporarily gets close between the pair of electrodes of the welding part to place the to be welded, before the nut to be welded is delivered from a delivery portion provided at the storage part; wherein the nut to be welded is placed on a lower electrode of the pair of electrodes after passing through the placement part singly from the conveying part.
A gas chromatography column arranged to guide a gas sample (G_S) from an inlet (G_I) to an outlet (G_O), the column comprising - a first substrate (SSW) of a gas tight material, the first substrate (SSW) defining a flow channel (FC) in one plane between the inlet (G_I) at one end and the outlet (G_O) at an opposite end of the flow channel (FC), wherein the first substrate (SSW) is coated with a first layer (C1) of a first coating material, and - a second substrate (GP) of a gas tight material, the second substrate being coated with a second layer (C2) of a second coating material, wherein the second substrate (GP) is bonded to the first substrate (SSW) by cross-linking between the first and second coating materials, so as to seal the flow channel (FC), wherein the first and second coating materials comprise polybutadiene to allow said cross-linking, and wherein at least the first coating material comprises introduction of an additional material to the polybutadiene serving to provide a desired molecule selectivity property of the flow channel (FC) for specific molecules of interest to be detected. - a first substrate (SSW) of a gas tight material, the first substrate (SSW) defining a flow channel (FC) in one plane between the inlet (G_I) at one end and the outlet (G_O) at an opposite end of the flow channel (FC), wherein the first substrate (SSW) is coated with a first layer (C1) of a first coating material, and - a second substrate (GP) of a gas tight material, the second substrate being coated with a second layer (C2) of a second coating material, wherein the second substrate (GP) is bonded to the first substrate (SSW) by cross-linking between the first and second coating materials, so as to seal the flow channel (FC),
Drive system for an aircraft , comprising - an electrical generator , - an internal combustion engine with a gas expansion turbine , - wherein the generator has a rotor mounted rotatably by means of a rotor shaft , - wherein the gas expansion turbine is mounted rotatably by means of a turbine shaft , - wherein rotor shaft and turbine shaft are arranged so as to be couplable in torque-transmitting fashion such that the internal combustion engine can deliver mechanical energy for the generator , - wherein at least one component of the generator is arranged at least partially in or at a supply air stream of the internal combustion engine , characterized in that the component is the rotor and/or a stator of the electrical generator , - and the supply air stream of the internal combustion engine is divided into multiple partial paths , and the rotor and/or stator is arranged at least partially in or at one of said partial paths , - and the partial paths of the supply air stream are formed as separate air channels with separately controllable air streams . - an electrical generator , - an internal combustion engine with a gas expansion turbine , - wherein the generator has a rotor mounted rotatably by means of a rotor shaft , - wherein the gas expansion turbine is mounted rotatably by means of a turbine shaft , - wherein rotor shaft and turbine shaft are arranged so as to be couplable in torque-transmitting fashion such that the internal combustion engine can deliver mechanical energy for the generator , - wherein at least one component of the generator is arranged at least partially in or at a supply air stream of the internal combustion engine , characterized in that the component is the rotor and/or a stator of the electrical generator , - and the supply air stream of the internal combustion engine is divided into multiple partial paths , and the rotor and/or stator is arranged at least partially in or at one of said partial paths , - and the partial paths of the supply air stream are formed as separate air channels with separately controllable air streams .
An R-T-B based sintered magnet having a composition comprising: 27.3 mass% to 29.5 mass% of R, which is at least one of the rare-earth elements that include Y and of which at least 50 mass% is Pr and/or Nd; 0.92 mass% to 1 mass% of B; 0.05 mass% to 0.3 mass% of Cu; at most 0.5 mass%, including 0 mass%, of M, which is one, two, or more elements that are selected from the group consisting of Al, Ti, V, Cr, Mn, Ni, Zn, Ga, Zr, Nb, Mo, Ag, In, Sn, Hf, Ta, W, Au, Pb and Bi; and T as the balance, which is Fe with or without Co and of which at least 50 mass% is Fe, and having an oxygen content of 0.02 mass% to 0.2 mass%, wherein the main phase of the sintered magnet is an R 2 T 14 B type compound, wherein the crystal grain size of the main phase is represented by an equivalent circle diameter of 8 μm or less and wherein crystal grains with equivalent circle diameters of 4 μm or less account for at least 80% of the overall area of the main phase, and wherein coercivity H cJ and remanence B r satisfy: H cJ kA / m > 400 + 4800 × 1.6 − B r T . 27.3 mass% to 29.5 mass% of R, which is at least one of the rare-earth elements that include Y and of which at least 50 mass% is Pr and/or Nd; 0.92 mass% to 1 mass% of B; 0.05 mass% to 0.3 mass% of Cu; at most 0.5 mass%, including 0 mass%, of M, which is one, two, or more elements that are selected from the group consisting of Al, Ti, V, Cr, Mn, Ni, Zn, Ga, Zr, Nb, Mo, Ag, In, Sn, Hf, Ta, W, Au, Pb and Bi; and T as the balance, which is Fe with or without Co and of which at least 50 mass% is Fe, and having an oxygen content of 0.02 mass% to 0.2 mass%, wherein the main phase of the sintered magnet is an R 2 T 14 B type compound, wherein the crystal grain size of the main phase is represented by an equivalent circle diameter of 8 μm or less and wherein crystal grains with equivalent circle diameters of 4 μm or less account for at least 80% of the overall area of the main phase, and wherein coercivity H cJ and remanence B r satisfy: H cJ kA / m > 400 + 4800 × 1.6 − B r T .
Apparatus, comprising: means for evaporating a working fluid responsive to applied heat; means for condensing evaporated working fluid; and means for connecting the evaporating and condensing means, the connecting means comprising a manifold having a first mechanical interface , a second mechanical interface remote from the first mechanical interface and one or more internal walls defining at least first and second channels within the manifold between the first and second mechanical interfaces, wherein the evaporating means is coupled to the manifold so as to seal the first mechanical interface, the condensing means is coupled to the manifold so as to seal the second mechanical interface, and wherein the manifold, evaporating means and condensing means provide a contained heat transfer system in which a working fluid moves between the condenser member and the evaporator member, characterized in that the manifold comprises a thermally insulating material. means for evaporating a working fluid responsive to applied heat; means for condensing evaporated working fluid; and means for connecting the evaporating and condensing means, the connecting means comprising a manifold having a first mechanical interface , a second mechanical interface remote from the first mechanical interface and one or more internal walls defining at least first and second channels within the manifold between the first and second mechanical interfaces, wherein the evaporating means is coupled to the manifold so as to seal the first mechanical interface, the condensing means is coupled to the manifold so as to seal the second mechanical interface, and wherein the manifold, evaporating means and condensing means provide a contained heat transfer system in which a working fluid moves between the condenser member and the evaporator member, characterized in that the manifold comprises a thermally insulating material.