mhurhangee/patent-ind-claim-en huggingface dataset:
Deceleration control method for a vehicle (V) with at least partially automated driving and comprising i) a non-thermal driving machine (MN1) providing torque for at least one train (T1) of said vehicle (V) from of energy stored in an energy storage means (MS1) or inducing a deceleration of said vehicle (V) by energy recovery on said train (T1) to supply energy to said energy storage means (MS1) , as a function of a torque setpoint, and ii) a braking system (SF) decelerating said vehicle (V) as a function of a deceleration setpoint, characterized in that it comprises a step (10-50) in which, in the event of a need for deceleration during an automated driving phase, said torque setpoint is determined as a function of a minimum authorized torque and at least one constraint until this minimum authorized torque is actually reached , and said deceleration setpoint is determined as a function of said constraint and from a first instant (t'1) chosen preceding a second instant (t'2) where this minimum authorized torque is actually reached, so that said deceleration results from said energy recovery up to the first instant (t'1), from said energy recovery and from said braking system (SF) between said first and second instants, and by the braking system (SF) alone after the second moment (t'2).
A compound having the structure: wherein R 1 is guanidinium; and wherein n is zero or any positive integer. wherein R 1 is guanidinium; and wherein n is zero or any positive integer.
A chimeric gene construct comprising the following operably linked DNA elements: a) the promoter region of a plant GA2 oxidase gene which is active in the growth zone of the monocotyledonous plant leaf, b) a DNA region encoding a plant CYP78A5 protein or a functional orthologue with an amino acid identity of at least 55% with the protein encoded by SEQ ID NO: 2 and c) a 3' end region comprising transcription termination and polyadenylation signals functioning in cells of a monocotyledonous plant.
A panel of medium density fibreboard MDF, comprising wood fibres the largest dimension of which is 7 mm or below, pressed together with an adhesive, the panel having an aspect ratio of at least 100 and a surface area of at least 1 m 2 , wherein the wood fibres are made of acetylated wood; wherein the aspect ratio is the ratio L/D between the length L and the thickness D of the panel.
A helicopter comprising a fuselage , an external load device that is connected to the fuselage via a component , and a power transmission system that is adapted to transmit forces from a motor that generates a first rotational movement to the component , characterised in that the power transmission system comprises: an externally threaded shaft that is configured to be rotatably attached to the motor and performs a second rotational movement; an internally threaded fastener that is movably attached to the externally threaded shaft and performs a movement along the externally threaded shaft in response to the second rotational movement; a first element that comprises: a first end that is movably attached to the internally threaded fastener at a first joint , and a second end ; and a second element that comprises: a plateau having a first end and a second end , wherein the first end is movably attached to the second end of the first element at a second joint , wherein the first element transmits the forces from the first joint to the second joint , and the second end is adapted to be rigidly attached to the component at a third joint , wherein the plateau transmits the forces from the second joint to the third joint by transforming a rotational movement of the second joint into a rotation of the component . an externally threaded shaft that is configured to be rotatably attached to the motor and performs a second rotational movement; an internally threaded fastener that is movably attached to the externally threaded shaft and performs a movement along the externally threaded shaft in response to the second rotational movement; a first element that comprises: a first end that is movably attached to the internally threaded fastener at a first joint , and a second end ; and a first end that is movably attached to the internally threaded fastener at a first joint , and a second end ; and a second element that comprises: a plateau having a first end and a second end , wherein the first end is movably attached to the second end of the first element at a second joint , wherein the first element transmits the forces from the first joint to the second joint , and a plateau having a first end and a second end , wherein the first end is movably attached to the second end of the first element at a second joint , wherein the first element transmits the forces from the first joint to the second joint , and the second end is adapted to be rigidly attached to the component at a third joint , wherein the plateau transmits the forces from the second joint to the third joint by transforming a rotational movement of the second joint into a rotation of the component .
A breathing assistance apparatus that provides a flow of gases to a patient, the breathing assistance apparatus comprising: at least one gases flow path configured to direct the flow of gases to the patient; a gases flow inlet configured to receive the flow of gases from a gases flow source ; a temperature sensor configured to measure a temperature of the flow of gases; wherein, the breathing assistance apparatus further comprises: a gases flow rate sensing system configured to measure a gases flow rate of the flow of gases, wherein the gases flow rate sensing system is configured to operate in at least two different target temperature modes based upon the measured temperature of the flow of gases, wherein the gases flow rate sensing system comprises a thermistor circuit and in each of the target temperature modes, the thermistor circuit is configured to operate at an associated target temperature, characterized in that the target temperature is maintained constant in a temperature mode, and wherein the gases flow rate sensing system is configured to change from a first temperature mode to a second temperature mode in response to the measured temperature of the flow of gases meeting a predetermined threshold. at least one gases flow path configured to direct the flow of gases to the patient; a gases flow inlet configured to receive the flow of gases from a gases flow source ; a temperature sensor configured to measure a temperature of the flow of gases; wherein, the breathing assistance apparatus further comprises: a gases flow rate sensing system configured to measure a gases flow rate of the flow of gases, wherein the gases flow rate sensing system is configured to operate in at least two different target temperature modes based upon the measured temperature of the flow of gases, wherein the gases flow rate sensing system comprises a thermistor circuit and in each of the target temperature modes, the thermistor circuit is configured to operate at an associated target temperature, characterized in that the target temperature is maintained constant in a temperature mode, and wherein the gases flow rate sensing system is configured to change from a first temperature mode to a second temperature mode in response to the measured temperature of the flow of gases meeting a predetermined threshold. a gases flow rate sensing system configured to measure a gases flow rate of the flow of gases, wherein the gases flow rate sensing system is configured to operate in at least two different target temperature modes based upon the measured temperature of the flow of gases, wherein the gases flow rate sensing system comprises a thermistor circuit and in each of the target temperature modes, the thermistor circuit is configured to operate at an associated target temperature, characterized in that the target temperature is maintained constant in a temperature mode, and wherein the gases flow rate sensing system is configured to change from a first temperature mode to a second temperature mode in response to the measured temperature of the flow of gases meeting a predetermined threshold.
An arrangement comprising a pneumatic cylinder, the pneumatic cylinder having a rear end , a front end and a pressure space therebetween, the pressure space containing a piston reciprocating in the pressure space and having a piston rod whose free end is arranged to project, through a guiding structure provided in the front end and guiding the piston rod , out of the pressure space , wherein a play is provided between the guiding structure and the piston rod to conduct the pressure medium out of the pressure space during the movement of the piston rod , the pneumatic cylinder further comprising a first pressure medium flow channel leading to a first side of the piston and a second pressure medium flow channel leading to a second side of the piston , as well as structures damping the reciprocating movement of the piston at the extreme ends of the movement, including at least a first damper and a second damper , and the structures damping the reciprocating movement of the piston at the extreme ends of the movement comprise a first structure restricting the amount of flow leaving during the damping and a second structure restricting the amount of flow leaving during the damping, wherein the pneumatic cylinder has a sealing arrangement adapted to seal against a pressure medium flow out of the pneumatic cylinder, through the play as the piston and the load moved by it are in the retracted extreme position, wherein the sealing arrangement comprises a first matching surface on the front end , a second matching surface moving along with the piston rod and an elastic sealing element between the matching surfaces, wherein the sealing element is adapted to be pressed between the matching surfaces (6b and 6c) as the piston rod is in its retracted extreme position, characterized in that the first matching surface is located on the front face of the front end .
Method comprising computing apparatuses, required for its execution, for calculating parameters for operation of a system with optimal availability, comprising an operating apparatus comprising a production installation for generating products, or comprising an operating apparatus comprising one or more vehicles, parts of vehicles, rails or power supply for the operation of the vehicles, a carriage or a switch of a railway system, in each case with a first component , a first warehouse with a first number of examples of a second component and a second warehouse with a second number of examples of the second component , wherein the second component is identical in construction to the first component , and the first and the second component have a first or second arrival time and a first or second service end time ( t eos1 , t eos2 ) , wherein the first and second arrival time identify that point in time in each case at which the respective component is received in the system , and at least one example of the second component is provided from the first warehouse to the second warehouse as soon as the second number drops below an optimal warehouse size and the second number therefore once again reaches the optimal warehouse size, wherein the optimal warehouse size is determined using the first and second arrival time and the first and second service end time ( t eos1 , t eos2 ), and during operation of the operating apparatus , when the first service end time ( t eos1 ) of the first component is reached, an example of the second component is provided from the second warehouse to the operating apparatus and in the operating apparatus the first component is replaced with the second component . wherein the second component is identical in construction to the first component , and the first and the second component have a first or second arrival time and a first or second service end time ( t eos1 , t eos2 ) , wherein the first and second arrival time identify that point in time in each case at which the respective component is received in the system , and at least one example of the second component is provided from the first warehouse to the second warehouse as soon as the second number drops below an optimal warehouse size and the second number therefore once again reaches the optimal warehouse size, wherein the optimal warehouse size is determined using the first and second arrival time and the first and second service end time ( t eos1 , t eos2 ), and during operation of the operating apparatus , when the first service end time ( t eos1 ) of the first component is reached, an example of the second component is provided from the second warehouse to the operating apparatus and in the operating apparatus the first component is replaced with the second component .
A connector comprising: a terminal member having a contacting face at least partially having a serrated region formed with a serration for contacting an electrical wire , and a back face opposite to the contacting face ; an elastic member configured to come into contact with and elastically deform to press a pressed region of the back face of the terminal member , the pressed region being opposite to the serrated region , wherein the pressing of the pressed region by the elastic member presses the serration against the electrical wire ; and a housing having a cavity for accommodating the terminal member and the elastic member , wherein the elastic member has an abutting portion having an abutting face for abutting against an inner wall face forming the cavity and receiving a counterforce from the housing , and a pressing portion folded back from the abutting portion for pressing the pressed region elastically, characterised in that , in a state where the elastic member is accommodated in the cavity and pressing the terminal member , a distal free end portion of the pressing portion , extending from a fixed end of the pressing portion folded back from the abutting portion , abuts against a back face of the abutting portion which is a face opposite to the abutting face . a terminal member having a contacting face at least partially having a serrated region formed with a serration for contacting an electrical wire , and a back face opposite to the contacting face ; an elastic member configured to come into contact with and elastically deform to press a pressed region of the back face of the terminal member , the pressed region being opposite to the serrated region , wherein the pressing of the pressed region by the elastic member presses the serration against the electrical wire ; and a housing having a cavity for accommodating the terminal member and the elastic member , wherein the elastic member has an abutting portion having an abutting face for abutting against an inner wall face forming the cavity and receiving a counterforce from the housing , and a pressing portion folded back from the abutting portion for pressing the pressed region elastically, characterised in that , in a state where the elastic member is accommodated in the cavity and pressing the terminal member , a distal free end portion of the pressing portion , extending from a fixed end of the pressing portion folded back from the abutting portion , abuts against a back face of the abutting portion which is a face opposite to the abutting face .
Scattering system for producing scattering material mats made of scattering material during the production of particle boards, with a scattering belt conveyor having a scattering belt onto which the scattering material can be scattering to form the scattering material mat, wherein on the scattering belt conveyor, above the scattering belt, lateral limiting walls are arranged which are designed to laterally limit the scattering material mat on the scattering material conveyor and which can be placed perpendicularly to the conveying direction (F) of the scattering belt conveyor against the lateral mat edges, characterised in that both lateral limiting walls are adjustable with actuators , in that downstream to the lateral limiting walls is at least one measuring device, with which the scattering distribution, which involves the weight per unit area profile over the mat width, can be measured, wherein in order to position the lateral limiting walls, the actuators can be controlled or regulated with a control or regulating device as a function of the scattering distribution measured by the measuring device.
An apparatus for counting and sizing undissolved particles in a vessel that is at least partially filled with a fluid, the apparatus comprising at least one processor configured to: (a) receive at least one image of the particles in the vessel obtained under specified imaging conditions; (b) based on the at least one image, detect the particles and determine information indicative of the apparent size of the detected particles in the at least one image; (c) determine apparent particle size population information indicative of an apparent particle size distribution of the detected particles; and (d) determine actual particle size population information indicative of the actual particle size distribution of the detected particles based on a comparison between: (i) the apparent particle size population information; and (ii) calibration population information indicative of an apparent size distribution for each of a plurality of sets of standard sized particles having different sizes imaged under conditions corresponding to the specified imaging conditions; characterised in that the processor is configured to fit a superposition of apparent size distributions for a plurality of sets of standard sized particles to the apparent particle size population of the detected particles by: minimizing a difference between the superposition and the apparent particle size population of the detected particles by adjusting the weighting of the apparent size distributions for the plurality of sets of standard sized particles. (a) receive at least one image of the particles in the vessel obtained under specified imaging conditions; (b) based on the at least one image, detect the particles and determine information indicative of the apparent size of the detected particles in the at least one image; (c) determine apparent particle size population information indicative of an apparent particle size distribution of the detected particles; and (d) determine actual particle size population information indicative of the actual particle size distribution of the detected particles based on a comparison between: (i) the apparent particle size population information; and (ii) calibration population information indicative of an apparent size distribution for each of a plurality of sets of standard sized particles having different sizes imaged under conditions corresponding to the specified imaging conditions; (i) the apparent particle size population information; and (ii) calibration population information indicative of an apparent size distribution for each of a plurality of sets of standard sized particles having different sizes imaged under conditions corresponding to the specified imaging conditions;
A computer-implemented method comprising: - receiving a request to execute a computer code for a tenant in an intra-process execution environment , wherein the tenant provides the computer code to a shared compute infrastructure for execution upon request; and wherein one or more intra-process execution environments run in a process; - executing the computer code in a tenant-specific process when the computer code comprises a native code portion ; - executing a computer code without a native code portion in a running tenant-specific process if the computer code without a native code portion belongs to the tenant associated to the running tenant-specific process; - otherwise, executing the computer code in a global process ; and wherein the tenant-specific process is configured to only execute computer codes associated with the same tenant in different intra-process execution environments isolated within the tenant-specific process, and the global process is configured to execute computer codes associated with different tenants in different isolated intra-process execution environments . - receiving a request to execute a computer code for a tenant in an intra-process execution environment , wherein the tenant provides the computer code to a shared compute infrastructure for execution upon request; and wherein one or more intra-process execution environments run in a process; - executing the computer code in a tenant-specific process when the computer code comprises a native code portion ; - executing a computer code without a native code portion in a running tenant-specific process if the computer code without a native code portion belongs to the tenant associated to the running tenant-specific process; - otherwise, executing the computer code in a global process ; and
A method for controlling an ego vehicle, having the steps of: - determining an ego driving strategy as a function of the surroundings; - detecting a driving strategy of a vehicle in front; - comparing the ego driving strategy with the driving strategy of the vehicle in front; - adopting the driving strategy of the vehicle in front if the ego driving strategy differs from the driving strategy of the vehicle in front; - performing a hazard evaluation of the driving strategy of the vehicle in front; characterized in that - the adopted driving strategy is modified if the vehicle in front swerves onto the opposite carriageway and the hazard evaluation is unreliable, - the speed of the ego vehicle is reduced, - the hazard evaluation of the adopted and modified driving strategy is performed again, and - the ego vehicle is controlled as a function of the hazard evaluation according to the modified driving strategy or an emergency strategy. - determining an ego driving strategy as a function of the surroundings; - detecting a driving strategy of a vehicle in front; - comparing the ego driving strategy with the driving strategy of the vehicle in front; - adopting the driving strategy of the vehicle in front if the ego driving strategy differs from the driving strategy of the vehicle in front; - performing a hazard evaluation of the driving strategy of the vehicle in front; characterized in that - the adopted driving strategy is modified if the vehicle in front swerves onto the opposite carriageway and the hazard evaluation is unreliable, - the speed of the ego vehicle is reduced, - the hazard evaluation of the adopted and modified driving strategy is performed again, and - the ego vehicle is controlled as a function of the hazard evaluation according to the modified driving strategy or an emergency strategy.