mhurhangee/ep-ind-claims huggingface dataset:
A soundproof structure (10, 10a, 10b) comprising: two or more kinds of resonant type sound absorbing cells (20, 20a, 20b) including different kinds of a first resonant type sound absorbing cell and a second resonant type sound absorbing cell that are adjacent to each other; and an opening part (22, 22a, 22b) provided in the second resonant type sound absorbing cell, wherein the opening part (22, 22a, 22b) is configured to allow for the passage of heat and/or air in the soundproof structure (10, 10a, 10b), and wherein a resonance frequency of the first resonant type sound absorbing cell and a resonance frequency of the second resonant type sound absorbing cell match each other, characterized in that the first resonant type sound absorbing cell includes a frame which has an opening, and a film which does not have a through-hole, and is fixed to the frame to cover the opening of the frame from one side, and the second resonant type sound absorbing cell includes a frame having an opening and two plates (24, 24a, 24b) which include through-holes (22, 22a, 22b), respectively, and are fixed to the frame facing each other from both sides to cover the opening of the frame from both sides. two or more kinds of resonant type sound absorbing cells (20, 20a, 20b) including different kinds of a first resonant type sound absorbing cell and a second resonant type sound absorbing cell that are adjacent to each other; and an opening part (22, 22a, 22b) provided in the second resonant type sound absorbing cell, wherein the opening part (22, 22a, 22b) is configured to allow for the passage of heat and/or air in the soundproof structure (10, 10a, 10b), and wherein a resonance frequency of the first resonant type sound absorbing cell and a resonance frequency of the second resonant type sound absorbing cell match each other, the first resonant type sound absorbing cell includes a frame which has an opening, and a film which does not have a through-hole, and is fixed to the frame to cover the opening of the frame from one side, and the second resonant type sound absorbing cell includes a frame having an opening and two plates (24, 24a, 24b) which include through-holes (22, 22a, 22b), respectively, and are fixed to the frame facing each other from both sides to cover the opening of the frame from both sides.
A turbomolecular vacuum pump comprising at least two rotor disks which are arranged in an adjacent manner and which each have a plurality of blades which are arranged distributed in the peripheral direction and which each extend radially outwardly starting from a blade base, wherein at least one projection, in particular a tooth-like projection, is provided at at least one blade base of a respective rotor disk, wherein the projection is formed at a suction-side end and/or a pressure-side end of the blade base, and wherein the projection has a first side surface which extends at least substantially in parallel with the upper side or lower side (408, 410) of a first adjacent blade. at least two rotor disks which are arranged in an adjacent manner and which each have a plurality of blades which are arranged distributed in the peripheral direction and which each extend radially outwardly starting from a blade base, wherein at least one projection, in particular a tooth-like projection, is provided at at least one blade base of a respective rotor disk, wherein the projection is formed at a suction-side end and/or a pressure-side end of the blade base, and wherein the projection has a first side surface which extends at least substantially in parallel with the upper side or lower side (408, 410) of a first adjacent blade.
A solid, particulate urea ammonium sulfate-based composition, the particles comprising: (i) a core comprising urea ammonium sulfate, and (ii) an outer layer surrounding and contacting the core, comprising from about 95 weight% to about 99.9 weight% of urea and a urease inhibitor of the type phosphoric triamide. (i) a core comprising urea ammonium sulfate, and (ii) an outer layer surrounding and contacting the core, comprising from about 95 weight% to about 99.9 weight% of urea and a urease inhibitor of the type phosphoric triamide.
A ride, especially a ghost train, with a vehicle that comprises (a) a travelling mechanism and (b) a rider accommodation for riders, (c) wherein the vehicle comprises - a hexopod drive arranged on the travelling mechanism, and - a rotary table that is connected to the hexopod drive, (d) wherein the hexopod drive has six telescopic drives, each of which is fixed at a respective base point to a platform and has a central point, which is the centre point of the index circle through all the base points, characterised by the fact that (e) the rider accommodation is fixed to a rotary table such that it can be tilted about a rider accommodation rotational axis (D 24), and (f) a vertical projection of the rider accommodation rotational axis (D 24) onto a plane through the index circle is at a distance from the central point that corresponds to at least two thirds of the radius of the index circle. (a) a travelling mechanism and (b) a rider accommodation for riders, (c) wherein the vehicle comprises - a hexopod drive arranged on the travelling mechanism, and - a rotary table that is connected to the hexopod drive, - a hexopod drive arranged on the travelling mechanism, and - a rotary table that is connected to the hexopod drive, (d) wherein the hexopod drive has six telescopic drives, each of which is fixed at a respective base point to a platform and has a central point, which is the centre point of the index circle through all the base points, characterised by the fact that (e) the rider accommodation is fixed to a rotary table such that it can be tilted about a rider accommodation rotational axis (D 24), and (f) a vertical projection of the rider accommodation rotational axis (D 24) onto a plane through the index circle is at a distance from the central point that corresponds to at least two thirds of the radius of the index circle.
A bandwidth selection method of a Wireless Fidelity technology, wherein a Wireless Fidelity access point, AP, obtains a negotiation bandwidth negotiated by the AP and a Wireless Fidelity station, STA; and the method comprises: receiving, by the AP, a data transmission request of the STA; obtaining, by the AP, a transmission bandwidth upper limit of the STA; and delivering, by the AP, a first modulation and coding scheme, MCS, to the STA if the transmission bandwidth upper limit is less than the negotiation bandwidth, wherein a table index of the first MCS is less than a table index of an MCS that is corresponding to the negotiation bandwidth and greater than or equal to a table index of an MCS that is corresponding to the transmission bandwidth upper limit. receiving, by the AP, a data transmission request of the STA; obtaining, by the AP, a transmission bandwidth upper limit of the STA; and delivering, by the AP, a first modulation and coding scheme, MCS, to the STA if the transmission bandwidth upper limit is less than the negotiation bandwidth, wherein a table index of the first MCS is less than a table index of an MCS that is corresponding to the negotiation bandwidth and greater than or equal to a table index of an MCS that is corresponding to the transmission bandwidth upper limit.
Self-regulating servo valve, comprising an regulator housing, pilot stage and main stage, wherein the pilot stage comprises a proportional magnet and a pilot piston that is mounted on a damping spring, wherein the main stage comprises a main control piston that is mounted on a spring, wherein the pilot piston is displaceably mounted inside the main control piston, and wherein a backlash-free spring is provided between the pilot piston and the main control piston, characterised in that the self-regulating servo valve further comprises a bushing, wherein the main control piston is displaceably mounted inside the bushing, and in that the pilot piston comprises at least one axial fluid passage with at least three intakes (32, 33, 34) which are axially spaced apart from one another, as well as at least one groove, in particular an annular groove, in a central region of the pilot piston.
A sheet conveying apparatus comprising: a sheet containing unit that contains sheets; a sheet conveying unit that conveys the sheets; a separating unit that separates a single sheet from the sheets; a holding unit that holds the separating unit; and a vibration applying unit that applies a vibration to any one of the sheets conveyed by the sheet conveying unit and the separating unit before starting conveyance of the sheets, characterized in that an end of any one of the sheets contained in the sheet containing unit and the sheet containing unit makes a physical contact with the holding unit at a contact portion, and the vibration applying unit applies the vibration at the contact portion. a sheet containing unit that contains sheets; a sheet conveying unit that conveys the sheets; a separating unit that separates a single sheet from the sheets; a holding unit that holds the separating unit; and a vibration applying unit that applies a vibration to any one of the sheets conveyed by the sheet conveying unit and the separating unit before starting conveyance of the sheets, characterized in that an end of any one of the sheets contained in the sheet containing unit and the sheet containing unit makes a physical contact with the holding unit at a contact portion, and the vibration applying unit applies the vibration at the contact portion.
A turbo compressor comprising: a compressor casing which accommodates an impeller arranged for compressing gas by rotation; and a motor casing which accommodates a motor arranged for rotating the impeller, wherein the compressor casing and the motor casing are connected through an adapter member, and the motor casing has a cylindrical main body part having a larger diameter than a mounting flange provided in the compressor casing and connected to the adapter member, the turbo compressor further comprising: a first seal member which performs airtight sealing between the compressor casing and the adapter member; and a second seal member which performs airtight sealing between the motor casing and the adapter member, the turbo compressor being characterised in that the first seal member and the second seal member have the same diameter. a compressor casing which accommodates an impeller arranged for compressing gas by rotation; and a motor casing which accommodates a motor arranged for rotating the impeller, wherein the compressor casing and the motor casing are connected through an adapter member, and the motor casing has a cylindrical main body part having a larger diameter than a mounting flange provided in the compressor casing and connected to the adapter member, the turbo compressor further comprising: a first seal member which performs airtight sealing between the compressor casing and the adapter member; and a second seal member which performs airtight sealing between the motor casing and the adapter member, a first seal member which performs airtight sealing between the compressor casing and the adapter member; and a second seal member which performs airtight sealing between the motor casing and the adapter member, the turbo compressor being characterised in that the first seal member and the second seal member have the same diameter.
A gRNA molecule comprising a first targeting domain which is complementary with a first target domain located within intron 2 of the BCL11A gene, wherein said first targeting domain is configured to target an erythroid enhancer region of the BCL11A gene, wherein said first targeting domain is configured to target a Cas9 molecule and provide a cleavage event; and wherein said first targeting domain comprises or consists of a sequence that is the same as, or differs by no more than 3 nucleotides from, a sequence selected from the group consisting of SEQ ID NOs: 16261 to 16267, 16271 and 16273 to 16279.
A conductor rail ramp for current collectors of electrically operated railways, in particular suburban railways, underground railways and the like, comprising at least one base profile and at least one sliding surface profile, wherein the base profile has a profile foot, a profile head and a tie-bar connecting them, wherein the sliding surface profile is arranged on the base profile, wherein the tie-bar has a radius of greater than 10 m in the longitudinal direction of the base profile, characterised in that at the free end of the conductor rail ramp the profile head is connected to the profile foot of the base profile and in that the sliding surface profile projects beyond the base profile by about 0.1 to 1 m, preferably by about 0.2 to 0.5 m, at the free end of the conductor rail ramp, wherein the thickness of the sliding surface profile approximately corresponds to the thickness of the tie-bar of the base profile.
An electric machine defining an axial direction, a radial direction, and a centerline extending along the axial direction, the electric machine comprising: a rotor assembly rotatable about the centerline; a stator assembly having a stator split into stator segments (232A, 232B, 232C, 232D), each one of the stator segments being movable between a first position and a second position along the radial direction defined by the electric machine, the stator segments (232A, 232B, 232C, 232D) each being radially closer to the rotor assembly when in the first position than when in the second position; wherein each stator segment (232A, 232B, 232C, 232D) has an actuator (250A, 250B, 250C, 250D) associated therewith, each of the actuators being operable to move their respective one of the stator segments between their respective first and second positions; and a controller associated with the electric machine and operatively coupled with the actuators (250A, 250B, 250C, 250D) and configured to cause the actuators to move their respective stator segments away from the rotor assembly from their respective first positions to their respective second positions in response to receiving data indicating a fault with the electric machine. a rotor assembly rotatable about the centerline; a stator assembly having a stator split into stator segments (232A, 232B, 232C, 232D), each one of the stator segments being movable between a first position and a second position along the radial direction defined by the electric machine, the stator segments (232A, 232B, 232C, 232D) each being radially closer to the rotor assembly when in the first position than when in the second position; wherein each stator segment (232A, 232B, 232C, 232D) has an actuator (250A, 250B, 250C, 250D) associated therewith, each of the actuators being operable to move their respective one of the stator segments between their respective first and second positions; and a controller associated with the electric machine and operatively coupled with the actuators (250A, 250B, 250C, 250D) and configured to cause the actuators to move their respective stator segments away from the rotor assembly from their respective first positions to their respective second positions in response to receiving data indicating a fault with the electric machine.
An elevator operation control device which comprises a destination floor reservation device provided in an elevator hall so that an elevator user registers a destination floor in the elevator hall, comprising: a non-reservation riding detecting section which detects a user riding on a car of elevator without registering the destination floor using the destination floor reservation device when the car stops at the elevator hall based on the information on the user having registered the destination floor using the destination floor reservation device and the information on the user in the car; and a start inhibiting section which inhibits the car from starting from the elevator hall when the user riding on the car without registering the destination floor using the destination floor reservation device is detected by the non-reservation riding detecting section, characterized in that even when the user riding on the car without registering the destination floor using the destination floor reservation device is detected by the non- reservation riding detecting section, in the case where a user having already registered the destination floor does not become unable to ride on the car, the start inhibiting section does not inhibit the car from starting from the elevator hall. a non-reservation riding detecting section which detects a user riding on a car of elevator without registering the destination floor using the destination floor reservation device when the car stops at the elevator hall based on the information on the user having registered the destination floor using the destination floor reservation device and the information on the user in the car; and a start inhibiting section which inhibits the car from starting from the elevator hall when the user riding on the car without registering the destination floor using the destination floor reservation device is detected by the non-reservation riding detecting section, characterized in that even when the user riding on the car without registering the destination floor using the destination floor reservation device is detected by the non- reservation riding detecting section, in the case where a user having already registered the destination floor does not become unable to ride on the car, the start inhibiting section does not inhibit the car from starting from the elevator hall.
Edge processing arrangement with an edge processing machine, which has a contact pressure zone in which the supplied edge strips are pressed against the narrow side of a plate-shaped product of wood or wood substitutes, with an edge strip store in which a number of different edge strips are stored, as well as with a supply path (4, 41, 42, 43, 44, 51, 52) which is arranged between the edge strip store and the contact pressure zone and via which a single edge strip is supplied to the contact pressure zone in a supply direction, wherein the edge strip store is arranged above or below the contact pressure zone of the edge processing machine, wherein the supply path (4, 41, 42, 43, 44, 51, 52) comprises at least one turning means (41, 42, 43, 44, 51, 52) which is designed to turn the edge strip at least section by section about its longitudinal axis running in the supply direction, characterised in that the edge processing arrangement is set up to separate the edge strips individually after the edge strip store before they pass into the supply path (4, 41, 42, 43, 44, 51, 52), wherein between the edge strip store and the supply path (4, 41, 42, 43, 44, 51, 52) there is an edge magazine which can convey a number of edge strips and which can feed one or a number of these strips, previously cut length, to the supply path (4, 41, 42, 43, 44, 51, 52), wherein a blade cutter is provided in the region of the edge magazine.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, first discontinuous reception, DRX, configuration information for a first DRX group and second DRX configuration information for a second DRX group; performing physical downlink control channel, PDCCH, monitoring for the first DRX group in a first active time based on the first DRX configuration information, and performing PDCCH monitoring for the second DRX group in a second active time based on the second DRX configuration information; receiving a medium access control, MAC, control element, CE, associated with a DRX cycle in one of the first DRX group and the second DRX group; and using one DRX cycle for each of the first DRX group and the second DRX group based on the MAC CE, wherein the first DRX group and the second DRX group are determined based on a frequency range, FR. receiving, from a base station, first discontinuous reception, DRX, configuration information for a first DRX group and second DRX configuration information for a second DRX group; performing physical downlink control channel, PDCCH, monitoring for the first DRX group in a first active time based on the first DRX configuration information, and performing PDCCH monitoring for the second DRX group in a second active time based on the second DRX configuration information; receiving a medium access control, MAC, control element, CE, associated with a DRX cycle in one of the first DRX group and the second DRX group; and using one DRX cycle for each of the first DRX group and the second DRX group based on the MAC CE, wherein the first DRX group and the second DRX group are determined based on a frequency range, FR.
A flexible energy filter for particle beam therapy, comprising: a) a cushion of plastic or water equivalent material or a stack of at least two soft sheets of plastic or water equivalent material; and b) attached to the surface of the cushion or to the surface of a soft sheet of plastic or water equivalent material, or embedded in the cushion or embedded in a soft sheet or between the two soft sheets of plastic or water equivalent material, a layer of a plurality of metal particles, preferably metal spheres; said layer having a cross sectional area corresponding at least to a cross section of a beam scanning area at an outlet of the particle beam equipment prior to its entry into a tissue. a) a cushion of plastic or water equivalent material or a stack of at least two soft sheets of plastic or water equivalent material; and b) attached to the surface of the cushion or to the surface of a soft sheet of plastic or water equivalent material, or embedded in the cushion or embedded in a soft sheet or between the two soft sheets of plastic or water equivalent material, a layer of a plurality of metal particles, preferably metal spheres; said layer having a cross sectional area corresponding at least to a cross section of a beam scanning area at an outlet of the particle beam equipment prior to its entry into a tissue.
A method comprising: receiving an image of an object from an image capture device, wherein the image includes a representation of the object with mil-level precision, wherein a pixel of the image represents less than or equal to a thousandth of 25.4mm (1 inch) of the object; projecting a calibration feature from a three-dimensional model of the object onto the received image based on an initial projection matrix; determining a projection error between the projected calibration feature and an existing calibration feature on the image; calculating a final projection matrix based on the projection error. projecting a measurement feature of the object from the image onto the 3D model of the object based on the final projection matrix; determining a difference between the projected measurement feature and an existing measurement feature on the 3D model, wherein the difference comprises at least a distance and optionally an angular difference; and sending a notification to a user, the notification including the difference between the projected measurement feature and the existing measurement feature. receiving an image of an object from an image capture device, wherein the image includes a representation of the object with mil-level precision, wherein a pixel of the image represents less than or equal to a thousandth of 25.4mm (1 inch) of the object; projecting a calibration feature from a three-dimensional model of the object onto the received image based on an initial projection matrix; determining a projection error between the projected calibration feature and an existing calibration feature on the image; calculating a final projection matrix based on the projection error. projecting a measurement feature of the object from the image onto the 3D model of the object based on the final projection matrix; determining a difference between the projected measurement feature and an existing measurement feature on the 3D model, wherein the difference comprises at least a distance and optionally an angular difference; and sending a notification to a user, the notification including the difference between the projected measurement feature and the existing measurement feature.