mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining a deceleration strategy for a vehicle , wherein the method comprises: - determining a target position located in an upcoming route section together with a target speed that the vehicle should have when it reaches the target position, wherein the target speed is lower than a current speed of the vehicle ; and - ascertaining a reference trajectory for the vehicle that makes it possible to reach the target position at the target speed, wherein the reference trajectory is ascertained on the basis of analytical functions for at least two deceleration modes from the list comprising • a coasting mode, • a drag mode, • a recuperation mode, and • active braking, characterized in that the analytical functions for each of the at least two deceleration modes indicate a speed and/or a travelled distance as a function of a time variable, and in that ascertaining the reference trajectory comprises ascertaining one or more changeover times between the at least two deceleration modes on the basis of the analytical functions. wherein the method comprises: - determining a target position located in an upcoming route section together with a target speed that the vehicle should have when it reaches the target position, wherein the target speed is lower than a current speed of the vehicle ; and - ascertaining a reference trajectory for the vehicle that makes it possible to reach the target position at the target speed, - determining a target position located in an upcoming route section together with a target speed that the vehicle should have when it reaches the target position, wherein the target speed is lower than a current speed of the vehicle ; and - ascertaining a reference trajectory for the vehicle that makes it possible to reach the target position at the target speed, wherein the reference trajectory is ascertained on the basis of analytical functions for at least two deceleration modes from the list comprising • a coasting mode, • a drag mode, • a recuperation mode, and • active braking, • a coasting mode, • a drag mode, • a recuperation mode, and • active braking, characterized in that the analytical functions for each of the at least two deceleration modes indicate a speed and/or a travelled distance as a function of a time variable, and in that ascertaining the reference trajectory comprises ascertaining one or more changeover times between the at least two deceleration modes on the basis of the analytical functions.
An electromagnetic energy sensor apparatus, comprising: a source module that comprises one or more diodes positioned to emit one or more electromagnetic energy beams; a reflector module positioned to receive and reflect the one or more electromagnetic energy beams, wherein the source module and the reflector module together emit multiple outgoing electromagnetic energy beams; a receiver module that comprises a plurality of semiconductor receiver units positioned to receive returned electromagnetic energy beams reflected from one or more objects in an external environment and convert light signals from the returned electromagnetic energy beams to electrical signals; and a beam steering module positioned to change directions of individual outgoing electromagnetic energy beams, wherein the beam steering module comprises: a first optical element , and an actuator coupled to the first optical element to rotate the first optical element about an axis for steering the one or more outgoing electromagnetic energy beams, wherein the beam steering module comprises a second optical element positioned to rotate around the axis at a different speed than the first optical element . a source module that comprises one or more diodes positioned to emit one or more electromagnetic energy beams; a reflector module positioned to receive and reflect the one or more electromagnetic energy beams, wherein the source module and the reflector module together emit multiple outgoing electromagnetic energy beams; a receiver module that comprises a plurality of semiconductor receiver units positioned to receive returned electromagnetic energy beams reflected from one or more objects in an external environment and convert light signals from the returned electromagnetic energy beams to electrical signals; and a beam steering module positioned to change directions of individual outgoing electromagnetic energy beams, wherein the beam steering module comprises: a first optical element , and an actuator coupled to the first optical element to rotate the first optical element about an axis for steering the one or more outgoing electromagnetic energy beams, a first optical element , and an actuator coupled to the first optical element to rotate the first optical element about an axis for steering the one or more outgoing electromagnetic energy beams, wherein the beam steering module comprises a second optical element positioned to rotate around the axis at a different speed than the first optical element .
A method of assembling a modular machine on-site, comprising at least - a first container frame comprising a first machine module attachable to the first container frame ; and - a second container frame comprising a second machine module releasably attachable to the second container frame , wherein the first machine module and the second machine module are connectable to each other, in which method a) the first container frame is arranged on top of a support; b) the second container frame is arranged to be in contact with the first container frame , wherein alignment means of the first container frame and alignment means of the second container frame are arranged in connection with each other; c) the second machine module is released from the second container frame and moved from a transportation position to a working position wherein the second machine module protrudes partially outside of the volume defined by the second container frame ; and d) the second machine module is connected to the first machine module , wherein the step b) is performed before or after the step c). - a first container frame comprising a first machine module attachable to the first container frame ; and - a second container frame comprising a second machine module releasably attachable to the second container frame , wherein the first machine module and the second machine module are connectable to each other, in which method a) the first container frame is arranged on top of a support; b) the second container frame is arranged to be in contact with the first container frame , wherein alignment means of the first container frame and alignment means of the second container frame are arranged in connection with each other; c) the second machine module is released from the second container frame and moved from a transportation position to a working position wherein the second machine module protrudes partially outside of the volume defined by the second container frame ; and d) the second machine module is connected to the first machine module , wherein the step b) is performed before or after the step c). a) the first container frame is arranged on top of a support; b) the second container frame is arranged to be in contact with the first container frame , wherein alignment means of the first container frame and alignment means of the second container frame are arranged in connection with each other; c) the second machine module is released from the second container frame and moved from a transportation position to a working position wherein the second machine module protrudes partially outside of the volume defined by the second container frame ; and d) the second machine module is connected to the first machine module ,
A lidar system for a motor vehicle comprising - at least one laser light source adapted to generate a light beam which is directed to one single scanning device , - wherein the one scanning device is adapted to scan a field of view by deflecting the light beam to a scanned surface in the environment of the vehicle along one of a plurality of scanning directions; - at least one light sensing device adapted to sense light which is incident on said light sensing device ; and - a data processing device ; characterized in that - said one single scanning device is adapted to scan different regions of said field of view with different resolutions by changing the scanning direction of the light beam with different speed and/or at a different rate, - said regions comprise at least one high-resolution region and at least one low-resolution region , - the one scanning device is arranged to locate the high-resolution region in the principal locomotion direction of the motor vehicle , and - the one scanning device is arranged to locate the low-resolution region laterally from the principal locomotion direction of the motor vehicle . - at least one laser light source adapted to generate a light beam which is directed to one single scanning device , - wherein the one scanning device is adapted to scan a field of view by deflecting the light beam to a scanned surface in the environment of the vehicle along one of a plurality of scanning directions; - at least one light sensing device adapted to sense light which is incident on said light sensing device ; and - a data processing device ; - said one single scanning device is adapted to scan different regions of said field of view with different resolutions by changing the scanning direction of the light beam with different speed and/or at a different rate, - said regions comprise at least one high-resolution region and at least one low-resolution region , - the one scanning device is arranged to locate the high-resolution region in the principal locomotion direction of the motor vehicle , and - the one scanning device is arranged to locate the low-resolution region laterally from the principal locomotion direction of the motor vehicle .
An automatic sharpener for cutting teeth of a chainsaw chain of the type including links and cutting teeth including a depth limiter , the sharpener including: - an accommodation area comprising a chain support able to receive a chainsaw chain of the aforementioned type, the longitudinal axis of the accommodation area defining a first horizontal direction, the median plane of the chain parallel to the lateral surfaces of the links defining a vertical plane, - a drive means for a preferably automatically forward-regulated and stepwise-regulated horizontal translation of said chainsaw chain received in the accommodation area , - a sharpening means arranged to sharpen the cutting teeth at different sharpening angles, after each translation of a chainsaw chain , and a means for planing the depth limiter of a cutting tooth , the planing means and the sharpening means respectively comprising a flat file and a round file removably fixed in a file holder , characterized in that the sharpening means and the planing means are arranged to simultaneously sharpen and plane the same cutting tooth in a linear and reciprocating movement of the file holder in a plane comprised between +/-10° relative to the first horizontal direction, and in that the automatic sharpener further includes a means for vertically positioning the file holder arranged to exert, in the vertical direction, a planing pressure of the flat file on the cutting tooth during the linear and reciprocating movement of the flat file simultaneously with the linear and reciprocating movement of the round file. - an accommodation area comprising a chain support able to receive a chainsaw chain of the aforementioned type, the longitudinal axis of the accommodation area defining a first horizontal direction, the median plane of the chain parallel to the lateral surfaces of the links defining a vertical plane, - a drive means for a preferably automatically forward-regulated and stepwise-regulated horizontal translation of said chainsaw chain received in the accommodation area , - a sharpening means arranged to sharpen the cutting teeth at different sharpening angles, after each translation of a chainsaw chain , and a means for planing the depth limiter of a cutting tooth , the planing means and the sharpening means respectively comprising a flat file and a round file removably fixed in a file holder ,
A turbomolecular pump having a working space , a bearing space , a dividing wall arranged between the working space and the bearing space and at least one rotor shaft , which extends through the dividing wall and which forms a gap with the dividing wall , and having a blocking device for blocking between the working space and the bearing space , wherein the blocking device is formed by a Siegbahn pump stage which is configured for providing a pump action, which passes through the gap , between the working space and the bearing space , and wherein a rotary bearing for rotatably supporting the rotor shaft is arranged in the bearing space , wherein the Siegbahn pump stage comprises a stator member and a rotor member , with the stator member and the rotor member each forming one of two mutually oppositely disposed pump-active surfaces of the Siegbahn pump stage , characterized in that the Siegbahn pump stage is arranged between the rotary bearing and a magnetic bearing which is located at a high vacuum side of the turbomolecular pump outside the bearing space ; and in that the rotor member of the Siegbahn pump stage is formed by a rotor hub of a Holweck pump stage or of a cross-thread pump stage.
A pipe diagnostic system for non-intrusively diagnosing an internal state of a pipe wall comprising: a sensor capsule configured to be coupled to an exterior surface of a pipe , the sensor capsule having at least one temperature sensitive element disposed therein; measurement circuitry coupled to the sensor capsule and configured to measure an electrical characteristic of the at least one temperature sensitive element and provide an indication of the measurement; a controller coupled to the measurement circuitry, characterised in that : the controller is configured to obtain a transmitter reference temperature measurement, being a temperature measurement obtained relative to a location having a fixed thermal impedance from the temperature sensitive element, and employ a heat transfer calculation with the transmitter reference temperature measurement and the indication to generate an estimated process fluid temperature; and wherein the controller is further configured to obtain an indication of process fluid temperature and provide a pipe diagnostic indication based on a comparison of the estimated process fluid temperature and the obtained indication of process fluid temperature. a sensor capsule configured to be coupled to an exterior surface of a pipe , the sensor capsule having at least one temperature sensitive element disposed therein; measurement circuitry coupled to the sensor capsule and configured to measure an electrical characteristic of the at least one temperature sensitive element and provide an indication of the measurement; a controller coupled to the measurement circuitry, characterised in that : the controller is configured to obtain a transmitter reference temperature measurement, being a temperature measurement obtained relative to a location having a fixed thermal impedance from the temperature sensitive element, and employ a heat transfer calculation with the transmitter reference temperature measurement and the indication to generate an estimated process fluid temperature; and wherein the controller is further configured to obtain an indication of process fluid temperature and provide a pipe diagnostic indication based on a comparison of the estimated process fluid temperature and the obtained indication of process fluid temperature. the controller is configured to obtain a transmitter reference temperature measurement, being a temperature measurement obtained relative to a location having a fixed thermal impedance from the temperature sensitive element, and employ a heat transfer calculation with the transmitter reference temperature measurement and the indication to generate an estimated process fluid temperature; and wherein the controller is further configured to obtain an indication of process fluid temperature and provide a pipe diagnostic indication based on a comparison of the estimated process fluid temperature and the obtained indication of process fluid temperature.
An access system, comprising: an access handle including: a wall including an interior surface defining a funnel having an opening at a proximal end of the access handle; and a lip positioned near the opening of the funnel and extending outward from an exterior surface of the wall; a tubular access sheath secured to the access handle; a retainer including a plurality of clips sized and configured to clamp about the lip of the access handle; and a dilator sized and shaped to be positioned inside the access sheath, the dilator being secured to the retainer; and characterized in that : the retainer includes a base that provides an enclosed space located between and formed by the access handle and the retainer, with the access handle being clamped at its lip between the base and the plurality of clips. an access handle including: a wall including an interior surface defining a funnel having an opening at a proximal end of the access handle; and a lip positioned near the opening of the funnel and extending outward from an exterior surface of the wall; a wall including an interior surface defining a funnel having an opening at a proximal end of the access handle; and a lip positioned near the opening of the funnel and extending outward from an exterior surface of the wall; a tubular access sheath secured to the access handle; a retainer including a plurality of clips sized and configured to clamp about the lip of the access handle; and a dilator sized and shaped to be positioned inside the access sheath, the dilator being secured to the retainer; and characterized in that : the retainer includes a base that provides an enclosed space located between and formed by the access handle and the retainer, with the access handle being clamped at its lip between the base and the plurality of clips.
A computer device , wherein the computer device comprises a central processing unit, CPU , a hardware acceleration unit , and a network adapter , wherein the network adapter has a remote direct memory access, RDMA, or direct memory access, DMA, function, and wherein the network adapter is configured to receive data on which hardware acceleration processing is to be performed and a data mapping address that are sent by another computer device, wherein the data mapping address is an address that is in addressing space of the CPU and that is obtained by performing memory mapping input/output, MMIO, processing on a data buffer address of the hardware acceleration unit ; the network adapter is further configured to send, according to the data mapping address, the data on which hardware acceleration processing is to be performed to data storage space of the hardware acceleration unit , wherein the data storage space of the hardware acceleration unit is data storage space corresponding to the data buffer address of the hardware acceleration unit ; the hardware acceleration unit is configured to perform hardware acceleration processing on the data on which hardware acceleration processing is to be performed in the data storage space, to obtain data after the hardware acceleration processing; and characterized in that : the hardware acceleration unit comprises hardware acceleration resources that are divided into shared resources and private resources, wherein the shared resources are allocated for use by other computer devices except the computer device , and wherein the private resources are allocated for use by the computer device and the hardware acceleration unit is configured to dynamically adjust division of the shared resources and the private resources based upon demand requirements of the hardware acceleration resources.
A frequency band sharing method, comprising: determining a shared frequency band, wherein the shared frequency band is a frequency band that can be used for a first network or a second network, a cell of the shared frequency band is a secondary serving cell of user equipment UE1 that performs communication by using the first network and a secondary serving cell of user equipment UE2 that performs communication by using the second network, and both the UE1 and the UE2 can work on the shared frequency band and at least one other frequency band than the shared frequency band; and determining that service transmission of the first network or service transmission of the second network is performed on the shared frequency band if there is a to-be-transmitted service in both the first network and the second network, and transmitting only a common signal of the second network on the shared frequency band when the service transmission of the first network is performed on the shared frequency band, or transmitting only a common signal of the first network or no signal on the shared frequency band when the service transmission of the second network is performed on the shared frequency band. determining a shared frequency band, wherein the shared frequency band is a frequency band that can be used for a first network or a second network, a cell of the shared frequency band is a secondary serving cell of user equipment UE1 that performs communication by using the first network and a secondary serving cell of user equipment UE2 that performs communication by using the second network, and both the UE1 and the UE2 can work on the shared frequency band and at least one other frequency band than the shared frequency band; and determining that service transmission of the first network or service transmission of the second network is performed on the shared frequency band if there is a to-be-transmitted service in both the first network and the second network, and transmitting only a common signal of the second network on the shared frequency band when the service transmission of the first network is performed on the shared frequency band, or transmitting only a common signal of the first network or no signal on the shared frequency band when the service transmission of the second network is performed on the shared frequency band.