mhurhangee/ep-ind-claims huggingface dataset:
A device for detecting a cam top position of an in-line type high pressure pump having a camshaft for driving a plurality of plungers to pressurize fuel to a high pressure to be accumulated in an accumulator, the device comprising: a plurality of cams formed on the camshaft for driving the plurality of plungers; a plurality of cam lobes provided to each of the plurality of cams; a flywheel connected to the camshaft; and a plurality of cam top position pointers attached to an outer periphery of the camshaft or to an outer periphery of the flywheel, characterized in that the plurality of cam top position pointers correspond to the cam lobes of one of the plurality of cams in number and angle phase, and a cam top position detector is located to face the cam top position pointers when the camshaft rotates so that the pointers are detected by the cam top position detector. a plurality of cams formed on the camshaft for driving the plurality of plungers; a plurality of cam lobes provided to each of the plurality of cams; a flywheel connected to the camshaft; and a plurality of cam top position pointers attached to an outer periphery of the camshaft or to an outer periphery of the flywheel, characterized in that the plurality of cam top position pointers correspond to the cam lobes of one of the plurality of cams in number and angle phase, and a cam top position detector is located to face the cam top position pointers when the camshaft rotates so that the pointers are detected by the cam top position detector.
A method of modifying frequency of electromagnetic radiation, the method comprising: generating an acoustic pulse in a photonic band gap structure that has an internally constructed stationary shockwave; inputting the electromagnetic radiation into the photonic band gap structure; and modulating the electromagnetic radiation through action of the acoustic pulse while the electromagnetic radiation is retained at the stationary shockwave. generating an acoustic pulse in a photonic band gap structure that has an internally constructed stationary shockwave; inputting the electromagnetic radiation into the photonic band gap structure; and modulating the electromagnetic radiation through action of the acoustic pulse while the electromagnetic radiation is retained at the stationary shockwave.
A horizontal freeze-drying plant with a product chamber, to which a condensation chamber is laterally or rearward (horizontally) connected, and with a number of trays provided in the product chamber for receiving material to be freeze-dried, a connecting opening, which is closable by way of an intermediate valve, being formed in a common, vertically oriented partition wall of the product chamber and the condensation chamber, characterized in that the height of the connecting opening corresponds to at least 70%, preferably 100% of the height of the trays, that the width of the connecting opening corresponds to between 5% and 60%, preferably 20% of the height of the connecting opening and that the connecting opening is centred relative to the trays.
Illuminating apparatus for illuminating a sample on a work stage with a narrow illuminating line of controlled energy, said illuminating apparatus comprising a laser source, said illuminating line being generated from a laser beam propagating along a beam path and being emitted from said laser source and having a dimension in a first direction (x) exceeding a dimension in a second direction (y) being perpendicular to said first direction (x) by a multiple, comprising: a beam shaping optical system for shaping said laser beam into a line shape, an energy measuring device for measuring energy of said laser beam, an energy control system for generating a control signal upon said measured laser beam energy and for controlling energy output of said laser source upon said control signal, characterized in that said energy measuring device is arranged in said beam path after said beam shaping optical system and before said work stage; said energy measuring device comprises a beam splitter for coupling out a fraction of said line shaped beam and a detector comprising a plurality of lenses (88a, 88b, 88c, 88d) for focusing said fraction of said line shaped beam onto a plurality of sensors (90a, 90b, 90c, 90d); said plurality of sensors (90a, 90b, 90c, 90d) being adapted to output a plurality of signals (I pha, I phb, i phc, I phd), the energy control system being adapted to integrate said plurality of signals (I pha, I phb, I phc, I phd) to generate said control signal; said control signal being indicative of an averaged beam energy along the dimension of said line shaped beam in said first direction (x). a beam shaping optical system for shaping said laser beam into a line shape, an energy measuring device for measuring energy of said laser beam, an energy control system for generating a control signal upon said measured laser beam energy and for controlling energy output of said laser source upon said control signal,
Acoustic treatment panel comprising a porous acoustically resistive structure in contact with an external environment in which during operation sound waves travel, a reflective layer and at least one cellular structure positioned between the porous acoustically resistive structure and the reflective layer and configured to compartmentalize a zone between the porous acoustically resistive structure and the reflective layer into a plurality of cells, each cell contains several conduits each of which has a first end (38.1) closed off by a portion of the porous acoustically resistive structure, a second end (38.2) closed off by a portion of the reflective layer, characterized in that the conduits each have at least one opening set away from the porous acoustically resistive structure and configured to cause the inside and the outside of the conduit to communicate.
A compound or a salt thereof selected from m-aminomethyl phenyl tetrahydropyrimidine represented by formula below or a salt thereof; m-aminomethyl phenyl imidazoline represented by formula below or a salt thereof; and 3-methyl-4-aminomethyl phenyl imidazoline represented by formula below or a salt thereof:
A system (20; 100) for eliminating or reducing aerosol emitted from a heater/cooler unit (22; 102), the system comprising: a heater/cooler unit (22; 102) including a heater, an internal space comprising a fluid tank, and an overflow port (30; 116) fluidly coupled to the internal space tubing (24; 104) including a first tube (24a; 104a) and a second tube (24b; 104b); a vacuum source (28; 110); and a filter (26; 106) fluidly coupled to the vacuum source (28; 110) by the first tube (24a; 104a) and fluidly coupled to the overflow port (30; 116) of the heater/cooler unit (22; 102) by the second tube (24b; 104b), wherein the vacuum source (28; 110) provides negative air pressure to the filter (26; 106) to suction aerosol from the internal space of the heater/cooler unit (22; 102) to the filter (26; 106). a heater/cooler unit (22; 102) including a heater, an internal space comprising a fluid tank, and an overflow port (30; 116) fluidly coupled to the internal space tubing (24; 104) including a first tube (24a; 104a) and a second tube (24b; 104b); a vacuum source (28; 110); and a filter (26; 106) fluidly coupled to the vacuum source (28; 110) by the first tube (24a; 104a) and fluidly coupled to the overflow port (30; 116) of the heater/cooler unit (22; 102) by the second tube (24b; 104b), wherein the vacuum source (28; 110) provides negative air pressure to the filter (26; 106) to suction aerosol from the internal space of the heater/cooler unit (22; 102) to the filter (26; 106).
A method for producing a porous polytetrafluoroethylene membrane, comprising the steps of manufacturing a first porous body by stretching, in a uniaxial direction, a sheet made of polytetrafluoroethylene having a standard specific gravity of 2.155 or more; manufacturing a second porous body by stretching, in biaxial directions, a sheet made of polytetrafluoroethylene; and integrating the first porous body with the second porous body by stretching a laminate of the first porous body and the second porous body in the same direction as the uniaxial direction while heating the laminate at a temperature equal to or higher than a melting point of polytetrafluoroethylene.
An apparatus for attenuating high energy radiation, the apparatus comprising: a plurality of attenuation members (104, 704, 706) for attenuating high energy radiation in a corresponding plurality of portions of a high energy radiation field emitted from a high energy radiation source towards a vehicle (114, 202); a control unit for determining the corresponding plurality of portions of the high energy radiation field to be attenuated by the plurality of attenuation members based on comparison between type of the vehicle as identified from an image of the vehicle and predefined criteria for the type of the vehicle defined prior to activation of one or more of the plurality of attenuation members, and for selectively activating the one or more of the plurality of attenuation members to attenuate the determined corresponding plurality of portions of the high energy radiation field; and a camera for capturing the image of the vehicle, wherein the predefined criteria corresponds to typical driver and passenger locations in the type of the vehicle and the attenuating of the high energy radiation in the determined corresponding plurality of portions shields each of the typical driver and passenger locations respectively. a plurality of attenuation members (104, 704, 706) for attenuating high energy radiation in a corresponding plurality of portions of a high energy radiation field emitted from a high energy radiation source towards a vehicle (114, 202); a control unit for determining the corresponding plurality of portions of the high energy radiation field to be attenuated by the plurality of attenuation members based on comparison between type of the vehicle as identified from an image of the vehicle and predefined criteria for the type of the vehicle defined prior to activation of one or more of the plurality of attenuation members, and for selectively activating the one or more of the plurality of attenuation members to attenuate the determined corresponding plurality of portions of the high energy radiation field; and a camera for capturing the image of the vehicle, wherein the predefined criteria corresponds to typical driver and passenger locations in the type of the vehicle and the attenuating of the high energy radiation in the determined corresponding plurality of portions shields each of the typical driver and passenger locations respectively.
A computer-implemented method for tracking an object within a video frame sequence for automatic parking, the video frame sequence comprising at least one first video frame and at least one second video frame that are captured by an onboard image obtaining apparatus, wherein the second video frame is later than the first video frame in terms of time, and the method comprises: determining a relative position relationship between a first object and a second object based on the first video frame, wherein the relative position relationship remains unchanged within the video frame sequence; and updating a position of the second object based on the relative position relationship and a position of the first object that is determined based on the second video frame, wherein the position of the first object and the position of the second object are respectively represented by a position of at least one feature point of the first object and a position of at least one feature point of the second object in a plane parallel to the ground, and the relative position relationship is represented by a vector connecting the at least one feature point of the first object and the at least one feature point of the second object, wherein the first video frame comprises a plurality of video frames, and the coordinates of the feature point of the first object and the feature point of the second object in the projection plane are a mean of the respective coordinates of the plurality of video frames. determining a relative position relationship between a first object and a second object based on the first video frame, wherein the relative position relationship remains unchanged within the video frame sequence; and updating a position of the second object based on the relative position relationship and a position of the first object that is determined based on the second video frame, wherein the position of the first object and the position of the second object are respectively represented by a position of at least one feature point of the first object and a position of at least one feature point of the second object in a plane parallel to the ground, and the relative position relationship is represented by a vector connecting the at least one feature point of the first object and the at least one feature point of the second object, wherein the first video frame comprises a plurality of video frames, and the coordinates of the feature point of the first object and the feature point of the second object in the projection plane are a mean of the respective coordinates of the plurality of video frames.
An assembly for controlling power and communications to a set of devices, the assembly comprising: a network port configured to connect to a network; a set of device ports configured to connect to the set of devices through a set of power cords; and a controller coupled to the network port and to the set of device ports, the controller being configured to: control delivery of power from a power source to the set of devices through the set of device ports and the set of power cords, and direct conveyance of communications from the network to the set of devices through the set of device ports and the set of power cords while power is delivered to the set of devices through the set of device ports and the set of power cords; wherein the controller includes: memory which stores terminal server code and power cycler code; and a common central processing unit coupled to the memory, the common central processing unit being configured to operate as a terminal server providing terminal access to the set of devices while running the terminal server code, and as a power cycler enabling power cycling of the set of devices on behalf of a set of external network hosts of the network while running the power cycler code. a network port configured to connect to a network; a set of device ports configured to connect to the set of devices through a set of power cords; and a controller coupled to the network port and to the set of device ports, the controller being configured to: control delivery of power from a power source to the set of devices through the set of device ports and the set of power cords, and direct conveyance of communications from the network to the set of devices through the set of device ports and the set of power cords while power is delivered to the set of devices through the set of device ports and the set of power cords; wherein the controller includes: memory which stores terminal server code and power cycler code; and a common central processing unit coupled to the memory, the common central processing unit being configured to operate as a terminal server providing terminal access to the set of devices while running the terminal server code, and as a power cycler enabling power cycling of the set of devices on behalf of a set of external network hosts of the network while running the power cycler code. control delivery of power from a power source to the set of devices through the set of device ports and the set of power cords, and direct conveyance of communications from the network to the set of devices through the set of device ports and the set of power cords while power is delivered to the set of devices through the set of device ports and the set of power cords; memory which stores terminal server code and power cycler code; and a common central processing unit coupled to the memory, the common central processing unit being configured to operate as a terminal server providing terminal access to the set of devices while running the terminal server code, and as a power cycler enabling power cycling of the set of devices on behalf of a set of external network hosts of the network while running the power cycler code.
Relay valve module for an electronically controllable pneumatic brake system for actuating wheel brakes of a commercial vehicle, comprising a supply connection for receiving a supply pressure (pV); a brake control pressure connection for receiving a brake control pressure (pBS); at least one first service brake connection for controlling a service brake pressure (pB); a relay valve having a relay valve supply connection (10.1) connected to the supply connection, a relay valve working connection (10.2) connected to the first service brake connection, a relay valve vent connection (10.3), and a relay valve control connection (10.4); an electropneumatic pilot control unit connected to the supply connection for providing a pilot control pressure (pVS); characterized in that the pilot control unit comprises an electrically switchable inlet valve and an electrically switchable outlet valve, and a shuttle valve having a first shuttle valve inlet (20.1), a second shuttle valve inlet (20.2) and a shuttle valve outlet (20.3); the first shuttle valve inlet (20.1) being connected to the brake control pressure connection for receiving the brake control pressure (pBS), the second shuttle valve inlet (20.2) being connected to the pilot control unit for receiving the pilot control pressure (pVS), and the shuttle valve outlet (20.3) being connected to the relay valve control connection (10.4) for controlling the higher of the brake control pressure (pBS) or the pilot control pressure (pVS) at the relay valve control connection (10.4). a supply connection for receiving a supply pressure (pV); a brake control pressure connection for receiving a brake control pressure (pBS); at least one first service brake connection for controlling a service brake pressure (pB); a relay valve having a relay valve supply connection (10.1) connected to the supply connection, a relay valve working connection (10.2) connected to the first service brake connection, a relay valve vent connection (10.3), and a relay valve control connection (10.4); an electropneumatic pilot control unit connected to the supply connection for providing a pilot control pressure (pVS); characterized in that the pilot control unit comprises an electrically switchable inlet valve and an electrically switchable outlet valve, and a shuttle valve having a first shuttle valve inlet (20.1), a second shuttle valve inlet (20.2) and a shuttle valve outlet (20.3); the first shuttle valve inlet (20.1) being connected to the brake control pressure connection for receiving the brake control pressure (pBS), the second shuttle valve inlet (20.2) being connected to the pilot control unit for receiving the pilot control pressure (pVS), and the shuttle valve outlet (20.3) being connected to the relay valve control connection (10.4) for controlling the higher of the brake control pressure (pBS) or the pilot control pressure (pVS) at the relay valve control connection (10.4).
A method for a first user equipment, UE, configured for sidelink, SL, operation in a cell of a radio access network, RAN, the method comprising: receiving, from a RAN node via the cell, one or more messages including a configuration for SL discovery and/or communications, wherein the configuration includes: a first indication of whether the RAN node supports SL relay functionality, a second indication of whether the RAN node supports SL discovery functionality, wherein the second indication includes separate first and second fields, when present, the first field indicating that that the RAN node supports relay discovery, corresponding to SL discovery functionalities for SL relay purposes, and, when present, the second field indicates that the RAN node supports non-relay discovery, corresponding to SL discovery functionalities for SL purposes but not for SL relay, and one or more SL discovery configurations for UEs; and based on the configuration, selectively initiating a SL discovery procedure to discover at least a second UE that supports SL communications. receiving, from a RAN node via the cell, one or more messages including a configuration for SL discovery and/or communications, wherein the configuration includes: a first indication of whether the RAN node supports SL relay functionality, a second indication of whether the RAN node supports SL discovery functionality, wherein the second indication includes separate first and second fields, when present, the first field indicating that that the RAN node supports relay discovery, corresponding to SL discovery functionalities for SL relay purposes, and, when present, the second field indicates that the RAN node supports non-relay discovery, corresponding to SL discovery functionalities for SL purposes but not for SL relay, and one or more SL discovery configurations for UEs; and a first indication of whether the RAN node supports SL relay functionality, a second indication of whether the RAN node supports SL discovery functionality, wherein the second indication includes separate first and second fields, when present, the first field indicating that that the RAN node supports relay discovery, corresponding to SL discovery functionalities for SL relay purposes, and, when present, the second field indicates that the RAN node supports non-relay discovery, corresponding to SL discovery functionalities for SL purposes but not for SL relay, and one or more SL discovery configurations for UEs; and based on the configuration, selectively initiating a SL discovery procedure to discover at least a second UE that supports SL communications.