mhurhangee/patent-ind-claim-en huggingface dataset:
Method for improving the data security in a communication process of vehicle-to-X communication of a vehicle, wherein vehicle-to-X messages to be sent are encrypted and/or authenticated before sending and received vehicle-to-X messages are decrypted and/or the authenticity thereof is checked when received, wherein a processor is used to perform the encryption and/or the authentication, and a hardware security module is used to perform the decryption and/or the authenticity check, wherein the processor and the hardware security module are linked via a shared secret such that at least the hardware security module cannot be linked to any other processor , with the result that communication would be denied by the processor or the hardware security module . wherein vehicle-to-X messages to be sent are encrypted and/or authenticated before sending and received vehicle-to-X messages are decrypted and/or the authenticity thereof is checked when received, wherein a processor is used to perform the encryption and/or the authentication, and a hardware security module is used to perform the decryption and/or the authenticity check, wherein the processor and the hardware security module are linked via a shared secret such that at least the hardware security module cannot be linked to any other processor , with the result that communication would be denied by the processor or the hardware security module .
A valve arrangement comprising a valve member , configured to move axially towards and away from a valve seat to control a fluid flow between an input and an output, the valve arrangement further including a pre-setting arrangement comprising: - an outer pre-setting sleeve comprising an aperture ; - an inner pre-setting sleeve , fitted inside the outer presetting sleeve , co-axially therewith, and being adapted to be rotatable about an axis therein, the inner pre-setting sleeve comprising a number of openings ; - wherein a turning of the inner pre-setting sleeve in relation to the outer pre-setting sleeve exposes different sets among said openings at said aperture, thereby devising different maximum valve arrangement flows for a given valve pressure difference, wherein the outer circumference of the inner pre-setting sleeve having a greater radial dimension, with respect to said axis, at the portion comprising said openings , than a corresponding inner diameter of the outer pre-setting sleeve such that a press fit is obtained between the outer and inner pre-setting sleeves at said openings , wherein an end of the inner pre-setting sleeve has a conical portion , the wider end of the conical portion being elastically deformed when inserted in the outer pre-setting sleeve . - an outer pre-setting sleeve comprising an aperture ; - an inner pre-setting sleeve , fitted inside the outer presetting sleeve , co-axially therewith, and being adapted to be rotatable about an axis therein, the inner pre-setting sleeve comprising a number of openings ; - wherein a turning of the inner pre-setting sleeve in relation to the outer pre-setting sleeve exposes different sets among said openings at said aperture, thereby devising different maximum valve arrangement flows for a given valve pressure difference, wherein the outer circumference of the inner pre-setting sleeve having a greater radial dimension, with respect to said axis, at the portion comprising said openings , than a corresponding inner diameter of the outer pre-setting sleeve such that a press fit is obtained between the outer and inner pre-setting sleeves at said openings , wherein an end of the inner pre-setting sleeve has a conical portion , the wider end of the conical portion being elastically deformed when inserted in the outer pre-setting sleeve .
A dish treating appliance comprising: a cabinet defining an interior with an access opening ; a door hingedly mounted to the cabinet for pivoting movement about a pivot axis between closed and opened positions to selectively close and open the access opening ; and a door opener comprising: a housing mounted to the cabinet and defining a pin opening facing the door ; an opening pin located within the housing and aligned with the pin opening ; a lever rotatably mounted to the housing to define a rotation axis; and an actuator having a reciprocating shaft connected to the lever at a third connection to define a third lever arm, characterized in that the lever is selectively operably coupled to the opening pin at first and second connections to correspondingly define first and second lever arms of different lengths (L1, L2). a cabinet defining an interior with an access opening ; a door hingedly mounted to the cabinet for pivoting movement about a pivot axis between closed and opened positions to selectively close and open the access opening ; and a door opener comprising: a housing mounted to the cabinet and defining a pin opening facing the door ; an opening pin located within the housing and aligned with the pin opening ; a lever rotatably mounted to the housing to define a rotation axis; and an actuator having a reciprocating shaft connected to the lever at a third connection to define a third lever arm, a housing mounted to the cabinet and defining a pin opening facing the door ; an opening pin located within the housing and aligned with the pin opening ; a lever rotatably mounted to the housing to define a rotation axis; and an actuator having a reciprocating shaft connected to the lever at a third connection to define a third lever arm,
A recombinant yeast cell functionally expressing one or more heterologous nucleic acid sequences encoding for ribulose-1,5-phosphate carboxylase/oxygenase (EC4.1.1.39; Rubisco) and optionally one or more molecular chaperones for Rubisco, and further comprising one or more phosphoribulokinase (EC2.7.1.19; PRK), wherein one or more genes of the non-oxidative branch of the pentose phosphate pathway are overexpressed, wherein the one or more genes of the pentose phosphate pathway that is overexpressed encodes for an enzyme selected from the list of a transaldolase (EC 2.2.1.2), a transketolase (EC 2.2.1.1), a ribose-5-phosphate isomerase (EC 5.3.1.6) and a D-ribulose-5-phosphate 3-epimerase (EC 5.1.3.1); and wherein the phosphoribulokinase is under control of a promoter (the "PRK promoter") which has a PRK expression ratio anaerobic/aerobic of 2 or more, further comprising a deletion or disruption of a glycerol-3-phosphate dehydrogenase (GPD) gene, wherein GPD2, but not GPD1 is deleted or disrupted. wherein the phosphoribulokinase is under control of a promoter (the "PRK promoter") which has a PRK expression ratio anaerobic/aerobic of 2 or more, further comprising a deletion or disruption of a glycerol-3-phosphate dehydrogenase (GPD) gene, wherein GPD2, but not GPD1 is deleted or disrupted.
A method for preserving a plant material, the method comprising: (a) applying a composition comprising a microwave attractant to the plant material; and then (b) drying the plant material while exposing the plant material to microwave energy, wherein the microwave energy heats the plant material to a temperature of above about 80°C for a time of at least about 30 seconds to inactivate the majority of any browning enzymes in the plant material, and wherein the microwave attractant results in the heating of the plant material occurring at a rate whereby browning of the plant material by the browning enzymes during heating is substantially prevented. (a) applying a composition comprising a microwave attractant to the plant material; and then (b) drying the plant material while exposing the plant material to microwave energy, wherein the microwave energy heats the plant material to a temperature of above about 80°C for a time of at least about 30 seconds to inactivate the majority of any browning enzymes in the plant material, and wherein the microwave attractant results in the heating of the plant material occurring at a rate whereby browning of the plant material by the browning enzymes during heating is substantially prevented.
A method for processing an audio signal, comprising: receiving an input audio signal including multi-channel or multi-object signals; receiving truncated subband filter coefficients for each subband, the truncated subband filter coefficients being at least a portion of subband filter coefficients obtained from binaural room impulse response, BRIR filter coefficients for binaural filtering of the input audio signal; and filtering the input audio signal by using the truncated subband filter coefficients corresponding to each subband signal of the input audio signal, characterized in that : a length of the truncated subband filter coefficients for each subband is determined based on a filter order obtained by at least partially using reverberation time information extracted from subband filter coefficients of the corresponding subband, a length of truncated subband filter coefficients of at least one subband is different from a length of truncated subband filter coefficients of another subband, and the filter order is determined to be variable in a frequency domain according to reverberation time information of each subband and has a single value for each subband. receiving an input audio signal including multi-channel or multi-object signals; receiving truncated subband filter coefficients for each subband, the truncated subband filter coefficients being at least a portion of subband filter coefficients obtained from binaural room impulse response, BRIR filter coefficients for binaural filtering of the input audio signal; and filtering the input audio signal by using the truncated subband filter coefficients corresponding to each subband signal of the input audio signal, characterized in that : a length of the truncated subband filter coefficients for each subband is determined based on a filter order obtained by at least partially using reverberation time information extracted from subband filter coefficients of the corresponding subband, a length of truncated subband filter coefficients of at least one subband is different from a length of truncated subband filter coefficients of another subband, and the filter order is determined to be variable in a frequency domain according to reverberation time information of each subband and has a single value for each subband. a length of the truncated subband filter coefficients for each subband is determined based on a filter order obtained by at least partially using reverberation time information extracted from subband filter coefficients of the corresponding subband, a length of truncated subband filter coefficients of at least one subband is different from a length of truncated subband filter coefficients of another subband, and the filter order is determined to be variable in a frequency domain according to reverberation time information of each subband and has a single value for each subband.
A method for testing a first traffic flow monitoring system, wherein said first traffic flow monitoring system is configured to determine a state of a traffic flow by comprehensively perceiving and analyzing obstacle data, the method comprising: obtaining (S301), by a test device, real obstacle data corresponding to a traffic participant collected in a real traffic scene; generating (S302), by said test device, simulated obstacle data according to the real obstacle data, wherein the simulated obstacle data is used to simulate an obstacle in the real traffic scene and a movement state of the obstacle; and sending (S303, S504), by said test device, the simulated obstacle data to said first traffic flow monitoring system to trigger said first traffic flow monitoring system to perform a perception analysis on the simulated obstacle data to test the first traffic flow monitoring system. obtaining (S301), by a test device, real obstacle data corresponding to a traffic participant collected in a real traffic scene; generating (S302), by said test device, simulated obstacle data according to the real obstacle data, wherein the simulated obstacle data is used to simulate an obstacle in the real traffic scene and a movement state of the obstacle; and sending (S303, S504), by said test device, the simulated obstacle data to said first traffic flow monitoring system to trigger said first traffic flow monitoring system to perform a perception analysis on the simulated obstacle data to test the first traffic flow monitoring system.
A valve block comprising: a pressure plate comprising: a pressure channel configured to receive a pressurized first fluid; and a recess in a surface of the pressure plate , wherein the pressure channel and the recess are fluidly connected; a fluid transfer block comprising: an inlet connection configured to receive a second fluid; an outlet connection ; a plurality of valve inlet bores each fluidly connected to the inlet connection; and a plurality of valve outlet bores each fluidly connected to the outlet connection; and a diaphragm between the pressure plate and the fluid transfer block , wherein the plurality of valve inlet bores and the plurality of valve outlet bores are adjacent to the recess , characterized in that the plurality of valve inlet bores are distributed along at least part of a first circular shape, and in that the plurality of valve outlet bores are distributed along at least part of a second circular shape. a pressure plate comprising: a pressure channel configured to receive a pressurized first fluid; and a recess in a surface of the pressure plate , wherein the pressure channel and the recess are fluidly connected; a pressure channel configured to receive a pressurized first fluid; and a recess in a surface of the pressure plate , wherein the pressure channel and the recess are fluidly connected; a fluid transfer block comprising: an inlet connection configured to receive a second fluid; an outlet connection ; a plurality of valve inlet bores each fluidly connected to the inlet connection; and a plurality of valve outlet bores each fluidly connected to the outlet connection; and an inlet connection configured to receive a second fluid; an outlet connection ; a plurality of valve inlet bores each fluidly connected to the inlet connection; and a plurality of valve outlet bores each fluidly connected to the outlet connection; and a diaphragm between the pressure plate and the fluid transfer block , wherein the plurality of valve inlet bores and the plurality of valve outlet bores are adjacent to the recess , characterized in that the plurality of valve inlet bores are distributed along at least part of a first circular shape, and in that the plurality of valve outlet bores are distributed along at least part of a second circular shape.
Cell holder for holding cylindrical battery cells , preferably for use in a traction battery for electric or hybrid vehicles or vehicles with fuel cells, wherein the cell holder has: multiple holding portions which in each case have a bottom and side walls and thus in each case form a portion which is configured to receive and to fix a base and, at least sectionally, a lateral surface of a respective battery cell ; wherein the side walls of the respective holding portions comprise: at least one contact surface which is arranged in a region of contact with the battery cell substantially perpendicularly to the bottom and is configured such that, with a battery cell inserted, it is in areal or linear contact with a portion of a lateral surface of the battery cell , and at least one deformable contact portion which is configured to deform when the battery cell is plugged into the corresponding holding portion , characterized in that , without a battery cell inserted, the contact surface and the deformable contact portion form a non-zero angle. multiple holding portions which in each case have a bottom and side walls and thus in each case form a portion which is configured to receive and to fix a base and, at least sectionally, a lateral surface of a respective battery cell ; wherein the side walls of the respective holding portions comprise: at least one contact surface which is arranged in a region of contact with the battery cell substantially perpendicularly to the bottom and is configured such that, with a battery cell inserted, it is in areal or linear contact with a portion of a lateral surface of the battery cell , and at least one deformable contact portion which is configured to deform when the battery cell is plugged into the corresponding holding portion , characterized in that , without a battery cell inserted, the contact surface and the deformable contact portion form a non-zero angle.
Allopregnanolone for use in a method of treating a subject having refractory status epilepticus (RSE) or super-refractory status epilepticus (SRSE), the method comprising: administering a first dose of allopregnanolone; administering a second dose of allopregnanolone, which is lower than said first dose; and administering a third dose of allopregnanolone, said allopregnanolone doses being sufficient to treat said subject; wherein said subject is under general anesthesia. administering a first dose of allopregnanolone; administering a second dose of allopregnanolone, which is lower than said first dose; and administering a third dose of allopregnanolone, said allopregnanolone doses being sufficient to treat said subject; wherein said subject is under general anesthesia.
An air preparation device (1; 1 ') for motor vehicles, having at least one first compressed air port (2.1) and a second compressed air port (2.2) and a first air preparation component (3.1) and a second air preparation component (3.2; 3.2'), the first air preparation component (3.1) having at least one first solenoid valve (MV1), a second solenoid valve (MV2) and a third solenoid valve (MV3), a first air drier cartridge (4.1), a first main non-return valve (5.1), a first regeneration non-return valve (6.1), a first regeneration throttle (7.1) and a first inlet valve (9.1), the second air preparation component (3.2; 3.2') having at least one second air drier cartridge (4.2), a second main non-return valve (5.2), a second regeneration non-return valve (6.2), a second regeneration throttle (7.2) and a second inlet valve (9.2; 9.2'), the first solenoid valve (MV1) and the second solenoid valve (MV2) being provided to control the first air preparation component (3.1), a control line being provided in such a manner that the second air preparation component (3.2; 3.2') is connected to the third solenoid valve (MV3) of the first air preparation component (3.1), characterised in that the second solenoid valve (MV2) is arranged in such a manner that an input (MV2a) of the second solenoid valve (MV2) is connected to a second pneumatic circuit output (10.2), and the output (MV2b) of the second solenoid valve (MV2) is connected to the first regeneration non-return valve (6.1) and to a control input (9.1c) of the first inlet valve (9.1). the first air preparation component (3.1) having at least one first solenoid valve (MV1), a second solenoid valve (MV2) and a third solenoid valve (MV3), a first air drier cartridge (4.1), a first main non-return valve (5.1), a first regeneration non-return valve (6.1), a first regeneration throttle (7.1) and a first inlet valve (9.1), the second air preparation component (3.2; 3.2') having at least one second air drier cartridge (4.2), a second main non-return valve (5.2), a second regeneration non-return valve (6.2), a second regeneration throttle (7.2) and a second inlet valve (9.2; 9.2'), the first solenoid valve (MV1) and the second solenoid valve (MV2) being provided to control the first air preparation component (3.1), a control line being provided in such a manner that the second air preparation component (3.2; 3.2') is connected to the third solenoid valve (MV3) of the first air preparation component (3.1), characterised in that the second solenoid valve (MV2) is arranged in such a manner that an input (MV2a) of the second solenoid valve (MV2) is connected to a second pneumatic circuit output (10.2), and the output (MV2b) of the second solenoid valve (MV2) is connected to the first regeneration non-return valve (6.1) and to a control input (9.1c) of the first inlet valve (9.1).
A network interface device comprising: an integrated circuit device comprising at least one processor ; and a memory , wherein said integrated circuit device is configured to execute a function with respect to at least a part of stored data in said memory , wherein an output of said function is such that a size of said output of said function together with a size of said stored data is greater than a size of available memory for storing data. an integrated circuit device comprising at least one processor ; and a memory , wherein said integrated circuit device is configured to execute a function with respect to at least a part of stored data in said memory , wherein an output of said function is such that a size of said output of said function together with a size of said stored data is greater than a size of available memory for storing data.
A vacuum insulating panel comprising: a first substrate ; a second substrate ; a plurality of spacers provided in a gap between at least the first and second substrates, wherein the gap is at pressure less than atmospheric pressure; a seal provided at least partially between at least the first and second substrates, the seal comprising a first seal layer and a second seal layer ; and characterized in that the first seal layer comprises from about 20-80 wt.% tellurium oxide, the tellurium oxide comprising TeO 4 and TeO 3 , and wherein the first seal layer comprises more TeO 3 than TeO 4 by wt.%. a first substrate ; a second substrate ; a plurality of spacers provided in a gap between at least the first and second substrates, wherein the gap is at pressure less than atmospheric pressure; a seal provided at least partially between at least the first and second substrates, the seal comprising a first seal layer and a second seal layer ; and characterized in that the first seal layer comprises from about 20-80 wt.% tellurium oxide, the tellurium oxide comprising TeO 4 and TeO 3 , and wherein the first seal layer comprises more TeO 3 than TeO 4 by wt.%.
A method comprising: determining, during milling operations of a component , an estimated force (F) applied by a milling tool at a surface point of the component ; determining, using the estimated force (F) and a compliance tensor of the component corresponding to the surface point of the component , an estimated deflection of the component associated with the estimated force (F) wherein the compliance tensor is representative of a stiffness of the component ; comparing the estimated deflection of the component to one or more deflection criteria; and characterised by : adjusting, during the milling operations of the component , a feed rate of the milling tool based on results of the comparing. determining, during milling operations of a component , an estimated force (F) applied by a milling tool at a surface point of the component ; determining, using the estimated force (F) and a compliance tensor of the component corresponding to the surface point of the component , an estimated deflection of the component associated with the estimated force (F) wherein the compliance tensor is representative of a stiffness of the component ; comparing the estimated deflection of the component to one or more deflection criteria; and characterised by : adjusting, during the milling operations of the component , a feed rate of the milling tool based on results of the comparing.