mhurhangee/ep-ind-claims huggingface dataset:
A control arrangement for a vehicle motion system including a braking function, comprising: - motion actuators with at least one or more brake actuators pertaining to the braking function, - at least a first vehicle motion management controller and a second vehicle motion management controller, forming a redundant assembly to control the braking function, wherein, in riding conditions, the first vehicle motion management controller is controlling the brake actuators with a current nominal expected braking performance, while the second vehicle motion management controller is in a waiting-to-operate mode, without substantial influence on the braking performance, the control arrangement comprising a hot swap functionality in which the second vehicle motion management controller is configured to take over control of the brake actuators from the first vehicle motion management controller, with the current nominal expected braking performance, in a time period less than one second, preferably less than 0,5 second, more preferably less than 0,3 second, wherein the braking actuators operate with compressed air, wherein there is provided a main braking pneumatic circuit controlled by the first vehicle motion management controller in charge of the current nominal expected braking performance, and a backup braking pneumatic circuit controlled by the second vehicle motion management controller, wherein the backup braking pneumatic circuit is pre-charged in the waiting-to-operate mode, with a waiting-to-operate pressure which is less than the pressure applied in the main braking pneumatic circuit. - motion actuators with at least one or more brake actuators pertaining to the braking function, - at least a first vehicle motion management controller and a second vehicle motion management controller, forming a redundant assembly to control the braking function, wherein, in riding conditions, the first vehicle motion management controller is controlling the brake actuators with a current nominal expected braking performance, while the second vehicle motion management controller is in a waiting-to-operate mode, without substantial influence on the braking performance, the control arrangement comprising a hot swap functionality in which the second vehicle motion management controller is configured to take over control of the brake actuators from the first vehicle motion management controller, with the current nominal expected braking performance, in a time period less than one second, preferably less than 0,5 second, more preferably less than 0,3 second, wherein the braking actuators operate with compressed air, wherein there is provided a main braking pneumatic circuit controlled by the first vehicle motion management controller in charge of the current nominal expected braking performance, and a backup braking pneumatic circuit controlled by the second vehicle motion management controller, wherein the backup braking pneumatic circuit is pre-charged in the waiting-to-operate mode, with a waiting-to-operate pressure which is less than the pressure applied in the main braking pneumatic circuit.
A method for predicting a parameter of interest for a power plant comprising: receiving a power plant data set and an environmental data set as inputs to a processor, wherein the environmental data set comprises at least one of observed or expected environmental data; on the processor, processing the power plant data set and the environmental data set using one or more hybrid predictive models comprising a static baseline model which generates a baseline prediction of a parameter of interest for the power plant and a dynamic corrector model which receives the baseline prediction of the parameter of interest from the static baseline model and plant operational data as an input and generates a corrected prediction of the parameter of interest. receiving a power plant data set and an environmental data set as inputs to a processor, wherein the environmental data set comprises at least one of observed or expected environmental data; on the processor, processing the power plant data set and the environmental data set using one or more hybrid predictive models comprising a static baseline model which generates a baseline prediction of a parameter of interest for the power plant and a dynamic corrector model which receives the baseline prediction of the parameter of interest from the static baseline model and plant operational data as an input and generates a corrected prediction of the parameter of interest.
A method of estimating a tire pressure deviation of a vehicle's tire, comprising the steps of: - receiving as an input signal a wheel speed signal or a suspension signal; - calculating at least one shape factor (H;W;S;HNL;I;ANL) of a resonance peak associated with the vehicle signal spectrum on the basis of the input signal; and - determining, depending on said at least one shape factor (H;W;S;HNL;I;ANL), a tire pressure signal indicative of a tire pressure deviation within the vehicle's tire; characterized in that the calculating step comprises the step of calculating the at least one shape factor (H;W;S;HNL;I;ANL) on the basis of at least one parameter derived from a parametric model adopted to the vehicle signal time domain which is capable of modelling the resonance peak within the vehicle signal spectrum. - receiving as an input signal a wheel speed signal or a suspension signal; - calculating at least one shape factor (H;W;S;HNL;I;ANL) of a resonance peak associated with the vehicle signal spectrum on the basis of the input signal; and - determining, depending on said at least one shape factor (H;W;S;HNL;I;ANL), a tire pressure signal indicative of a tire pressure deviation within the vehicle's tire; characterized in that the calculating step comprises the step of calculating the at least one shape factor (H;W;S;HNL;I;ANL) on the basis of at least one parameter derived from a parametric model adopted to the vehicle signal time domain which is capable of modelling the resonance peak within the vehicle signal spectrum.
Power rail fastening assembly comprising a bus bar, which is attached to holding elements (15, 16), wherein the holding elements (15, 16) are connected with supporting structures, characterized in that two holding elements (15, 16) are arranged between two adjacent supporting structures (3, 5, 7; 4, 6, 8),that each holding element (15, 16) is connected to an associated support structure (4, 6, 8, 3, 5, 7) via two supporting cables (9, 12; 11, 14), that the two holding elements (15, 16) are directly interconnected with each other by two tension cables (10, 13), and that the holding elements (15, 16) comprise a sliding element, which allows the sliding of the conductor rail relative to the holding elements (15, 16) in the longitudinal direction of the busbar.
A garment to which a blower device is detachably attachable, the garment comprising a main body including at least an outer fabric having an attachment hole through which the blower device can be partially inserted, the main body being configured to cover at least a portion of a body of a wearer, and a heat insulation material attached to the main body at least on an inner side of the outer fabric and configured to cover at least a portion of the body, wherein the garment is configured such that the heat insulation material is detachable from the main body, and wherein at least one of the main body and the heat insulation material has a positioning part (6, 45, 46) configured to hold the heat insulation material at a predetermined position relative to the main body, characterized in that the positioning part is provided on the heat insulation material, and configured to be engaged with the attachment hole to hold the heat insulation material at the predetermined position relative to the main body. a main body including at least an outer fabric having an attachment hole through which the blower device can be partially inserted, the main body being configured to cover at least a portion of a body of a wearer, and a heat insulation material attached to the main body at least on an inner side of the outer fabric and configured to cover at least a portion of the body, wherein the garment is configured such that the heat insulation material is detachable from the main body, and wherein at least one of the main body and the heat insulation material has a positioning part (6, 45, 46) configured to hold the heat insulation material at a predetermined position relative to the main body, characterized in that the positioning part is provided on the heat insulation material, and configured to be engaged with the attachment hole to hold the heat insulation material at the predetermined position relative to the main body.
A coated metal foil for forming a copper-containing interlayer between a first solid substrate and a second solid substrate or between a solid substrate and the metal foil, wherein the coated metal foil comprises or consists of a metal foil of copper or of a first copper alloy or of a copper plated nickel-iron alloy, wherein the metal foil has a first surface and a second surface, and a composition coated on the first surface and/or the second surface of the metal foil, wherein the composition comprises or consists of the following components: an organic binder and flakes of copper, of the first copper alloy or of a second copper alloy, wherein the flakes comprise internal pores, wherein the total weight of the flakes in relation to the total weight of the composition is in a range of 10 wt.% to 80 wt.%, wherein the flakes have a mean intraparticle pore density in a range of 2 internal pores/μm 2 to 40 internal pores/μm 2 in an arbitrary section through any of the flakes, wherein the metal foil has a thickness of at least 5 μm and at most 200 μm, wherein the composition is coated on the first surface and/or the second surface of the metal foil in each case independently from each other in a thickness of at least 1 μm and at most 500 μm.
Circuit for connecting a charging unit for accumulators or batteries having a supply network, wherein the supply network has at least two connections (L1, L2, L3, N), wherein the charging unit has at least two connection units or stages (S1, S2, S3), wherein each connection unit or stage (S1, S2, S3) has the same number of valve paths (VP1-VP4) as the number of connections (L1, L2, L3, N) of the supply network, wherein each valve path (VP1-VP4) has at least one switchable rectifying element or thyristor (T1-T4), wherein each stage (S1, S2, S3) can be connected independently of another stage to each of the individual connections (L1, L2, L3, N) of the supply network, or can be separated from each of the individual connections (L2, L2, L3, N) of the supply network, wherein the connection to each of the individual connections (L1, L2, L3, N) or the separation from each of the individual connections (L1, L2, L3, N) of the supply network can be controlled individually, characterised in that the circuit has a control unit which is configured to determine the stability of the voltage or performance of the supply network by measuring the voltages and/or currents and/or performances of the individual connections (L1, L2, L3, N) of the supply network, and, depending on the determined stability of the voltage or performance of the supply network, to connect individual stages (S1, S2, S3) selectively to individual connections (L1, L2, L3, N) of the supply network or to separate individual stages (S1, S2, S3) from individual connections (L1, L2, L3, N).
A compound having a structure of formula wherein A is independently N or CH; W is independently N or CH; wherein one or both of A and W is N; R 1 and R 2 are independently a branched or a linear C 1-6 alkyl; R 3 is phenyl substituted by 1 or 2 R 5 substituents; R 5 is independently selected from one or more halo, -OH, or NH 2; R 4 is halo; or a stereoisomer thereof, an atropisomer thereof, a pharmaceutically acceptable salt thereof, a pharmaceutically acceptable salt of the stereoisomer thereof, or a pharmaceutically acceptable salt of the atropisomer thereof. A is independently N or CH; W is independently N or CH; wherein one or both of A and W is N; R 1 and R 2 are independently a branched or a linear C 1-6 alkyl; R 3 is phenyl substituted by 1 or 2 R 5 substituents; R 1 and R 2 are independently a branched or a linear C 1-6 alkyl; R 3 is phenyl substituted by 1 or 2 R 5 substituents; R 5 is independently selected from one or more halo, -OH, or NH 2; R 4 is halo; or a stereoisomer thereof, an atropisomer thereof, a pharmaceutically acceptable salt thereof, a pharmaceutically acceptable salt of the stereoisomer thereof, or a pharmaceutically acceptable salt of the atropisomer thereof.
A process for resin transfer molding, RTM, with staggered injection of a resin, the process comprising: injecting said resin into a plurality of injection ports of a mold; controlling the temperature and pressure applied to said mold; and wherein said plurality of injection ports are activated for injecting said resin, characterized in that said resin comprises fibers and said injection ports are either turned on as: (a) a first opposing pair (34A and 34B) and alternated with a second opposing pair (34C and 34D), where the adjacent opposing pairs (34A-34B and 34C-34D) inject resin at alternating times; or, (b) a first crossing pair (34A-34D) and alternated with a second crossing pair (34B-34C), where the adjacent crossing pairs (34A-34D and 34B-34C) inject resin at alternating times. injecting said resin into a plurality of injection ports of a mold; controlling the temperature and pressure applied to said mold; and wherein said plurality of injection ports are activated for injecting said resin, characterized in that said resin comprises fibers and said injection ports are either turned on as: (a) a first opposing pair (34A and 34B) and alternated with a second opposing pair (34C and 34D), where the adjacent opposing pairs (34A-34B and 34C-34D) inject resin at alternating times; or, (b) a first crossing pair (34A-34D) and alternated with a second crossing pair (34B-34C), where the adjacent crossing pairs (34A-34D and 34B-34C) inject resin at alternating times. (a) a first opposing pair (34A and 34B) and alternated with a second opposing pair (34C and 34D), where the adjacent opposing pairs (34A-34B and 34C-34D) inject resin at alternating times; or, (b) a first crossing pair (34A-34D) and alternated with a second crossing pair (34B-34C), where the adjacent crossing pairs (34A-34D and 34B-34C) inject resin at alternating times.
A method performed by a second radio node (111, 200, 300a,b, 1111) of sharing channel information between a first radio node (101, 500, 600a,b, 1101) and the second radio node that are co-located, comprising: obtaining, by the second node, first channel information that characterizes a communication channel (105a-c) between a third radio node (121, 1121) and the first node in a first frequency band; and using, by the second node, the first channel information for communication in a second frequency band with the third node or with a fourth radio node that is located in a geographical proximity of the third node so that a communication channel between the first or second node and the fourth node is characterized by second channel information that is substantially correlated with the first channel information, characterised in that said using includes: beamforming a signal for transmission to the third node or the fourth node in the second frequency band based on direction of arrival or departure information of a respective reception or transmission of a communication between the third node and the first node in the first frequency band, wherein the first channel information includes the direction of arrival or departure information related to the first frequency band. obtaining, by the second node, first channel information that characterizes a communication channel (105a-c) between a third radio node (121, 1121) and the first node in a first frequency band; and using, by the second node, the first channel information for communication in a second frequency band with the third node or with a fourth radio node that is located in a geographical proximity of the third node so that a communication channel between the first or second node and the fourth node is characterized by second channel information that is substantially correlated with the first channel information, characterised in that said using includes: beamforming a signal for transmission to the third node or the fourth node in the second frequency band based on direction of arrival or departure information of a respective reception or transmission of a communication between the third node and the first node in the first frequency band, wherein the first channel information includes the direction of arrival or departure information related to the first frequency band.
A handle attachment for a cutting tool that has a nose portion that is smaller in cross-section than a housing portion of the tool, with the nose portion being located forwardly of the housing portion, the handle attachment comprising: a handle portion for gripping by a user and moveable to a desired position relative to the cutting tool; a coupling arrangement for coupling the handle portion to the cutting tool; and a locking mechanism for locking the handle portion in the desired position and being releasable to enable movement of the handle portion to another position relative to the cutting tool; a base for placement relative to a working surface, and an adjustable base attachment mechanism for adjustably connecting the base to the coupling arrangement, wherein the base attachment mechanism is arranged to allow for adjusting a distance between the nose portion of the retained cutting tool and the working surface; characterised in that the base attachment mechanism comprises a sleeve disposed between the handle portion and the coupling portion, and a shaft mounted to base, the shaft being adjustably mounted within the sleeve to allow for adjusting the distance between the nose portion of the retained cutting tool and the working surface. a handle portion for gripping by a user and moveable to a desired position relative to the cutting tool; a coupling arrangement for coupling the handle portion to the cutting tool; and a locking mechanism for locking the handle portion in the desired position and being releasable to enable movement of the handle portion to another position relative to the cutting tool; a base for placement relative to a working surface, and an adjustable base attachment mechanism for adjustably connecting the base to the coupling arrangement, wherein the base attachment mechanism is arranged to allow for adjusting a distance between the nose portion of the retained cutting tool and the working surface; characterised in that the base attachment mechanism comprises a sleeve disposed between the handle portion and the coupling portion, and a shaft mounted to base, the shaft being adjustably mounted within the sleeve to allow for adjusting the distance between the nose portion of the retained cutting tool and the working surface.
A speaker device (100, 100A) comprising: a loudspeaker including a diaphragm and a field portion comprising a top plate, a magnet and a yoke, and disposed rearwardly of the diaphragm, the field portion being arranged to form a magnetic circuit that vibrates the diaphragm by means of a voice coil body; and a cabinet (101, 101A) accommodating the field portion, wherein the loudspeaker further includes a mounting member (134, 134A, 134B) with which the loudspeaker is mounted to the cabinet (101, 101A), and a mounting plane (200, 200A, 200B) of the mounting member (134, 134A, 134B) includes a center of gravity (201, 201A, 201B) of the loudspeaker, and characterized in that the cabinet (101, 101A) includes a fixed part to which the mounting member (134, 134A, 134B) is fixed, the fixed part being disposed in the cabinet (101, 101A), the loudspeaker being mounted to the cabinet (101, 101A) such that the fixed part and the mounting member are in contact with each other at the mounting plane, the fixed part being fixed to the cabinet (101, 101A) while stretching from a ceiling to a bottom face of the cabinet (101, 101A) as well as stretching from one side face to an opposite side face of the cabinet (101, 101A), wherein the mounting member (134, 134A, 134B) is integral with a top plate of the loudspeaker. a loudspeaker including a diaphragm and a field portion comprising a top plate, a magnet and a yoke, and disposed rearwardly of the diaphragm, the field portion being arranged to form a magnetic circuit that vibrates the diaphragm by means of a voice coil body; and a cabinet (101, 101A) accommodating the field portion, wherein the loudspeaker further includes a mounting member (134, 134A, 134B) with which the loudspeaker is mounted to the cabinet (101, 101A), and a mounting plane (200, 200A, 200B) of the mounting member (134, 134A, 134B) includes a center of gravity (201, 201A, 201B) of the loudspeaker, and characterized in that the cabinet (101, 101A) includes a fixed part to which the mounting member (134, 134A, 134B) is fixed, the fixed part being disposed in the cabinet (101, 101A), the loudspeaker being mounted to the cabinet (101, 101A) such that the fixed part and the mounting member are in contact with each other at the mounting plane, the fixed part being fixed to the cabinet (101, 101A) while stretching from a ceiling to a bottom face of the cabinet (101, 101A) as well as stretching from one side face to an opposite side face of the cabinet (101, 101A), wherein the mounting member (134, 134A, 134B) is integral with a top plate of the loudspeaker.
A biologically pure culture of Bacillus amyloliquefaciens strain NRRL B-50350 which produces more amylase activity than Bacillus amyloliquefaciens strain NRRL B-50154.
A heat and crack resistant anticorrosive coating composition capable of continuous and cyclic temperature operation, which composition comprises: • a linear or branched polysiloxane having the formula: wherein each R1 is independently selected from the group of alkyl, aryl, alkoxy groups having up to eight carbon atoms, and OSi 3 groups, wherein each R3 independently has the same meaning as R1; each R2 is selected from the group of hydrogen and alkyl and aryl groups having up to eight carbon atoms; and wherein n is selected such that the number average molecular weight Mn of the polysiloxane is in the range of from 200 to 6,000, • one or more alkyl titanates, • talc and/or mica, • aluminium flakes, and • optionally an alkyl orthosilicate or a condensation product thereof. • a linear or branched polysiloxane having the formula: wherein each R1 is independently selected from the group of alkyl, aryl, alkoxy groups having up to eight carbon atoms, and OSi 3 groups, wherein each R3 independently has the same meaning as R1; each R2 is selected from the group of hydrogen and alkyl and aryl groups having up to eight carbon atoms; and wherein n is selected such that the number average molecular weight Mn of the polysiloxane is in the range of from 200 to 6,000, • one or more alkyl titanates, • talc and/or mica, • aluminium flakes, and • optionally an alkyl orthosilicate or a condensation product thereof.