mhurhangee/ep-ind-claims huggingface dataset:
A position sensor having a waveguide of magnetostrictive material, said waveguide extending along a measurement path and being configured for conducting mechanical pulses triggered by magnetostriction; having a housing, in particular a tubular housing, for the waveguide; and having a positioning element (27, 27', 27") which is elastic at least regionally; which is held in the housing while being deformed; and which has a recess (50, 50', 50") which extends along the measurement path and forms a receiver for the waveguide, characterized in that the recess (50, 50', 50") has a slit which extends along the measurement path; which, viewed in a cross-sectional plane, reaches from a reception section up to a boundary of the positioning element (27, 27', 27"); and which enables a lateral insertion of the waveguide into the reception section.
A vibration sensor assembly comprising: (a) an oscillating mass which is permanently in mechanical contact with a first side of a piezo element, wherein the oscillating mass comprises a water-tight capsule, in which the piezo element is fixed; (b) a stationary mass which is permanently in mechanical contact with a second side of the piezo element and which is arranged in said water-tight capsule; (c) a spring which is arranged between the stationary mass and the oscillating mass, and by means of which the permanent mechanical contact of the two masses (5,7) with the two sides (3, 4) of the piezo element is assured, by pressing these two masses (5,7) constantly against both sides (3,4) of the piezo element; (d) electrical contacts (9, 10) for tapping electrical signals generated by said piezo element and for relaying said signals to a recording device which is connected to the electrical contacts (9, 10), resp. is connectable to the electrical contacts (9, 10) and which is designed for recording the electrical signals generated by the piezo element, characterized in that the vibration sensor assembly is designed to be portable and the water-tight capsule and the stationary mass are designed as a power supply for said recording device, in that said stationary mass comprises at least one battery for the operation of said recording device, wherein said at least one battery is connected, resp. is connectable to said recording device via electrical conductors (13, 14). (a) an oscillating mass which is permanently in mechanical contact with a first side of a piezo element, wherein the oscillating mass comprises a water-tight capsule, in which the piezo element is fixed; (b) a stationary mass which is permanently in mechanical contact with a second side of the piezo element and which is arranged in said water-tight capsule; (c) a spring which is arranged between the stationary mass and the oscillating mass, and by means of which the permanent mechanical contact of the two masses (5,7) with the two sides (3, 4) of the piezo element is assured, by pressing these two masses (5,7) constantly against both sides (3,4) of the piezo element; (d) electrical contacts (9, 10) for tapping electrical signals generated by said piezo element and for relaying said signals to a recording device which is connected to the electrical contacts (9, 10), resp. is connectable to the electrical contacts (9, 10) and which is designed for recording the electrical signals generated by the piezo element,
An apparatus comprising: an optical fiber (700; 800) extending from a proximal end to a distal end, the optical fiber (700; 800) including a cladding layer (784; 884) circumferentially disposed about a core layer (786; 886), the optical fiber (700; 800) further including a substantially spherically shaped portion (758; 858) at the distal end; a first coating circumferentially disposed on a first length of the cladding layer (784; 884); and a second coating different from the first coating circumferentially disposed on a second length of the cladding layer (784; 884), wherein the second length extends distally from a region proximate the distal end of the first coating (780, 782; 880, 882), the second coating including a second inner coating (762; 862) and a second outer coating (764; 864); characterised by the second outer coating (764; 864) comprising a polymeric or acrylic material. an optical fiber (700; 800) extending from a proximal end to a distal end, the optical fiber (700; 800) including a cladding layer (784; 884) circumferentially disposed about a core layer (786; 886), the optical fiber (700; 800) further including a substantially spherically shaped portion (758; 858) at the distal end; a first coating circumferentially disposed on a first length of the cladding layer (784; 884); and a second coating different from the first coating circumferentially disposed on a second length of the cladding layer (784; 884), wherein the second length extends distally from a region proximate the distal end of the first coating (780, 782; 880, 882), the second coating including a second inner coating (762; 862) and a second outer coating (764; 864); characterised by the second outer coating (764; 864) comprising a polymeric or acrylic material.
Accessory gearbox that is able to drive the accessory equipment of a gas turbine engine, such as an aircraft engine, comprising a housing and a plurality of gear wheels inside the housing, the housing comprising means for fixing accessory equipment to the wall of the housing and for the driving thereof by the gear wheels through openings in the wall of the housing, the gears being supported in the housing by roller bearings, each bearing comprising a first race fixed with respect to the housing and a movable race secured to the gear, characterised in that at least one of said gear wheels is supported by a single roller bearing, the fixed race of which is radially inner and mounted on a shaft secured to the wall of the housing.
A workpiece comprising: a plurality of anisotropically-shaped iron-based grains each of which comprises iron-nitride, wherein at least one of the anisotropically-shaped iron-based grains comprises an aspect ratio of between 1.1 and 50, and wherein the aspect ratio is defined as a ratio of the length of a longest dimension to the length of a shortest dimension of the anisotropically-shaped iron-based grain, where the longest dimension and shortest dimension are orthogonal; and at least one iron-based phase domain including uniaxial magnetic anisotropy, wherein the longest dimension of the at least one anisotropically-shaped iron-based grain is parallel to a uniaxial direction of the uniaxial magnetic anisotropy, the workpiece further comprising at least one dopant characterised in that the at least one dopant comprises at least one of Al, Mn, La, Cr, Co, Ti, Ni, Zn, Zr, Ca, or a rare earth metal. a plurality of anisotropically-shaped iron-based grains each of which comprises iron-nitride, wherein at least one of the anisotropically-shaped iron-based grains comprises an aspect ratio of between 1.1 and 50, and wherein the aspect ratio is defined as a ratio of the length of a longest dimension to the length of a shortest dimension of the anisotropically-shaped iron-based grain, where the longest dimension and shortest dimension are orthogonal; and at least one iron-based phase domain including uniaxial magnetic anisotropy, wherein the longest dimension of the at least one anisotropically-shaped iron-based grain is parallel to a uniaxial direction of the uniaxial magnetic anisotropy, the workpiece further comprising at least one dopant characterised in that the at least one dopant comprises at least one of Al, Mn, La, Cr, Co, Ti, Ni, Zn, Zr, Ca, or a rare earth metal.
An indoor navigation control system containing LED lighting devices, comprising at least two LED lighting devices configured in an indoor environment and a location server, characterized in that: - each LED lighting device comprises a Wi-Fi module and each LED lighting device is used as a wireless access node to receive a Wi-Fi signal and to transmit the received Wi-Fi signal to an adjacent node corresponding to an adjacent LED lighting device such that nodes within a Wi-Fi signal coverage area has an access to Internet or LAN, local area network; and - the location server is configured to store location information of the Wi-Fi module of each LED lighting device with a unique MAC address, wherein the at least two LED lighting devices and the location server are configured to communicate with a smart terminal to calculate a position, a moving direction, and a moving speed of an object according to the location information of each LED lighting device along with a moving time length of the object for an indoor navigation. - each LED lighting device comprises a Wi-Fi module and each LED lighting device is used as a wireless access node to receive a Wi-Fi signal and to transmit the received Wi-Fi signal to an adjacent node corresponding to an adjacent LED lighting device such that nodes within a Wi-Fi signal coverage area has an access to Internet or LAN, local area network; and - the location server is configured to store location information of the Wi-Fi module of each LED lighting device with a unique MAC address, wherein the at least two LED lighting devices and the location server are configured to communicate with a smart terminal to calculate a position, a moving direction, and a moving speed of an object according to the location information of each LED lighting device along with a moving time length of the object for an indoor navigation.
A method of controlling a photographing apparatus, the method comprising: the photographing apparatus recognizing a gesture in a live-view input image generated by the photographing apparatus as a previously defined gesture; if the gesture corresponds to a previously defined gesture for a zoom operation of the photographing apparatus, the photographing apparatus performing the zoom operation using optical zoom, resulting in global motion in the live-view image over time due to a change of viewing angle of the live-view image over time; and while the zoom operation is being performed, continuing recognizing the gesture by taking into consideration the zoom operation by one of: 1) correcting a recognized path of motion of the gesture to offset the global motion; 2) correcting co-ordinates of pixels in the live-view image to offset the global motion; 3) correcting the previously defined gesture to offset the global motion. the photographing apparatus recognizing a gesture in a live-view input image generated by the photographing apparatus as a previously defined gesture; if the gesture corresponds to a previously defined gesture for a zoom operation of the photographing apparatus, the photographing apparatus performing the zoom operation using optical zoom, resulting in global motion in the live-view image over time due to a change of viewing angle of the live-view image over time; and while the zoom operation is being performed, continuing recognizing the gesture by taking into consideration the zoom operation by one of: 1) correcting a recognized path of motion of the gesture to offset the global motion; 2) correcting co-ordinates of pixels in the live-view image to offset the global motion; 3) correcting the previously defined gesture to offset the global motion. 1) correcting a recognized path of motion of the gesture to offset the global motion; 2) correcting co-ordinates of pixels in the live-view image to offset the global motion; 3) correcting the previously defined gesture to offset the global motion.
A method for producing a protein of interest, comprising: (i) introducing an expression vector which comprises a gene fragment comprising a DNA encoding the protein of interest and an attenuated selectable marker gene and also comprises a pair of transposon sequences at both terminals of the gene fragment, into a suspension CHO cell which is capable of surviving and proliferating in a serum-free medium, wherein the attenuated selectable marker gene is a selectable marker gene modified to encode the same amino acid sequence as the selectable marker gene before the modification and to comprise codons used at a low frequency in the CHO cell such that expression level in the CHO cell is lowered and wherein the pair of transposon sequences are nucleotide sequences derived from a pair of Tol1 or Tol2 transposons; (ii) integrating the gene fragment comprising the DNA encoding the protein of interest inserted between the pair of transposon sequences into a chromosome of the CHO cell; (iii) obtaining a CHO cell which expresses the protein of interest; and (iv) suspension-culturing the CHO cell. (i) introducing an expression vector which comprises a gene fragment comprising a DNA encoding the protein of interest and an attenuated selectable marker gene and also comprises a pair of transposon sequences at both terminals of the gene fragment, into a suspension CHO cell which is capable of surviving and proliferating in a serum-free medium, wherein the attenuated selectable marker gene is a selectable marker gene modified to encode the same amino acid sequence as the selectable marker gene before the modification and to comprise codons used at a low frequency in the CHO cell such that expression level in the CHO cell is lowered and wherein the pair of transposon sequences are nucleotide sequences derived from a pair of Tol1 or Tol2 transposons; (ii) integrating the gene fragment comprising the DNA encoding the protein of interest inserted between the pair of transposon sequences into a chromosome of the CHO cell; (iii) obtaining a CHO cell which expresses the protein of interest; and (iv) suspension-culturing the CHO cell.
A transformer arrangement having an adjustable output voltage, comprising a primary winding which is designed for inputting an AC voltage, a secondary winding which is designed for outputting an output voltage to a load, a first core which is guided through the primary winding and the secondary winding and guides a magnetic flux generated by the primary winding to the secondary winding, a control winding, a second core and an activation unit, wherein the second core is guided through the secondary winding or the primary winding, wherein the second core is additionally guided through the control winding, wherein the activation unit is connected to the control winding and wherein the activation unit is designed in such a manner for inputting a control current into the control winding that the magnetic flux that is effective at the secondary winding and thus the output voltage is increased or reduced characterized in that a pick-up winding is additionally arranged around the first core in such a manner that a magnetic flux generated by the primary winding induces a pick-up voltage in the pick-up winding, and in that the pick-up winding is connected to the activation unit, wherein the activation unit is designed to generate the control current from the pick-up voltage. a primary winding which is designed for inputting an AC voltage, a secondary winding which is designed for outputting an output voltage to a load, a first core which is guided through the primary winding and the secondary winding and guides a magnetic flux generated by the primary winding to the secondary winding, a control winding, a second core and an activation unit, wherein the second core is guided through the secondary winding or the primary winding, wherein the second core is additionally guided through the control winding, wherein the activation unit is connected to the control winding and wherein the activation unit is designed in such a manner for inputting a control current into the control winding that the magnetic flux that is effective at the secondary winding and thus the output voltage is increased or reduced characterized in that a pick-up winding is additionally arranged around the first core in such a manner that a magnetic flux generated by the primary winding induces a pick-up voltage in the pick-up winding, and in that the pick-up winding is connected to the activation unit, wherein the activation unit is designed to generate the control current from the pick-up voltage.
Method for evaluating the capacitance (C S) of a sensor electrode of a proximity sensor, having the steps: charging of the sensor electrode by coupling the sensor electrode to a charging voltage (U 0) using the sensor electrode switching device, charging of a compensation capacitance (C K) by coupling in the compensation capacitance between a reference voltage (U REF) and ground using a compensation capacitance switching device (SW2, SW3), decoupling of the sensor electrode from the charging voltage (U 0) using the sensor electrode switching device and decoupling the compensation capacitance (C K) from the reference voltage using the compensation capacitance switching device (SW2, SW3), wherein a charge state of the sensor electrode and the compensation capacitance is maintained, coupling of the sensor electrode to the compensation capacitance (C K) using the sensor electrode switching device, in order to effect a charge balancing between the capacitance (C S) formed by the sensor electrode and the compensation capacitance, decoupling of the sensor electrode from the compensation capacitance (C K) using the sensor electrode switching device, wherein the charge of the compensation capacitance which is present due to the load balancing is maintained, coupling of the compensation capacitance (C K) to an evaluation network using an evaluation network switching device, in order to effect a current flow from the compensation capacitance through the evaluation network, recharging of a hold capacitance (C H) in the evaluation network with a recharge current dependent on the current flow from the compensation capacitance. charging of the sensor electrode by coupling the sensor electrode to a charging voltage (U 0) using the sensor electrode switching device, charging of a compensation capacitance (C K) by coupling in the compensation capacitance between a reference voltage (U REF) and ground using a compensation capacitance switching device (SW2, SW3), decoupling of the sensor electrode from the charging voltage (U 0) using the sensor electrode switching device and decoupling the compensation capacitance (C K) from the reference voltage using the compensation capacitance switching device (SW2, SW3), wherein a charge state of the sensor electrode and the compensation capacitance is maintained, coupling of the sensor electrode to the compensation capacitance (C K) using the sensor electrode switching device, in order to effect a charge balancing between the capacitance (C S) formed by the sensor electrode and the compensation capacitance, decoupling of the sensor electrode from the compensation capacitance (C K) using the sensor electrode switching device, wherein the charge of the compensation capacitance which is present due to the load balancing is maintained, coupling of the compensation capacitance (C K) to an evaluation network using an evaluation network switching device, in order to effect a current flow from the compensation capacitance through the evaluation network, recharging of a hold capacitance (C H) in the evaluation network with a recharge current dependent on the current flow from the compensation capacitance.
A waterproof, anti-wicking, and fully recyclable corrugated container comprising: a base portion having a bottom wall, a pair of opposite side walls (18a, 18b), a pair of opposite end walls (20a, 20b), and a plurality of joined flaps (22a', 22b', 22c', 22d') foldably joined with the side walls (18a, 18b) and the end walls (20a, 20b) wherein the each of the plurality of the joined flaps (22a', 22b', 22c', 22d') folds onto itself to form a gusset that is attached to the respective side walls (18a, 18b); and a lid portion telescopically engaged over the base portion, the lid having a top wall, a pair of opposite side walls (26a, 26b), a pair of opposite end walls (28a, 28b), and a plurality of joined flaps (22a, 22b, 22c, 22d) foldably joined with the side walls (26a, 26b) and the end walls (28a, 28b) wherein the each of the plurality of the joined flaps (22a, 22b, 22c, 22d) folds onto itself to form a gusset that is attached to the respective side walls (26a, 26b) of the lid, characterized in that the lid portion comprises a score or crease line formed along near and spaced from a free edge of the side walls (26a, 26b) and formed perpendicular to the longitudinal direction of flutes of the corrugated material from which the side walls of the lid (26a, 26b) are formed to inhibit liquid from traveling up through the side walls. a base portion having a bottom wall, a pair of opposite side walls (18a, 18b), a pair of opposite end walls (20a, 20b), and a plurality of joined flaps (22a', 22b', 22c', 22d') foldably joined with the side walls (18a, 18b) and the end walls (20a, 20b) wherein the each of the plurality of the joined flaps (22a', 22b', 22c', 22d') folds onto itself to form a gusset that is attached to the respective side walls (18a, 18b); and a lid portion telescopically engaged over the base portion, the lid having a top wall, a pair of opposite side walls (26a, 26b), a pair of opposite end walls (28a, 28b), and a plurality of joined flaps (22a, 22b, 22c, 22d) foldably joined with the side walls (26a, 26b) and the end walls (28a, 28b) wherein the each of the plurality of the joined flaps (22a, 22b, 22c, 22d) folds onto itself to form a gusset that is attached to the respective side walls (26a, 26b) of the lid,
Door adapted to close a cooking chamber comprised in a cooking body of a cooking device for low pressure cooking, the door (75,115) comprising an exterior panel (95,117), an interior panel (96,116), at least one support (91,106) attached to the exterior panel (95,117) in which at least partially the interior panel (96,116) is housed, and compensation means (100,105) upon which rests the interior panel (96,116) in relation to the support (91,106), characterised in that the compensation means (100,105) are coupled to the exterior panel (95,117) and ensure contact between the interior panel (96,116) along a closed contour, against a sealing gasket attached to the cooking body. The compensation means (100, 105) being adapted to move the interior panel (96, 116) in relation to the support (91,106), the compensation means (100,105) comprising at least one fixed element (102,110) coupled to the exterior panel (95,117), a moving element (101,112) partially housed inside the fixed element (102,110) and upon which rests the interior panel (96,116), and at least one elastic element (103,111) arranged between the fixed element (102,110) and the moving element (101,112) and adapted to move the moving element (101,112) in relation to the fixed element (102,110).
An antenna assembly, comprising a pole and a plurality of antennas vertically distributed on the pole along the axial direction, wherein each antenna is internally provided with a wiring sleeve mounted on the pole; cables on each antenna pass through the wiring sleeve in the antenna located below and pass along the outside of the pole through the antenna located below in the axial direction; each wiring sleeve comprises a sleeve body and a plurality of wiring grooves formed on a side surface of the sleeve body for the cables on the antenna to pass through; each wiring groove is axially distributed on the outside surface of the sleeve body; and the plurality of wiring grooves is uniformly distributed on the outside surface of the sleeve body in the circumferential direction, and the wiring sleeve is further sleeved with an encapsulating casing which is located in the corresponding antenna. each wiring sleeve comprises a sleeve body and a plurality of wiring grooves formed on a side surface of the sleeve body for the cables on the antenna to pass through; each wiring groove is axially distributed on the outside surface of the sleeve body; and the plurality of wiring grooves is uniformly distributed on the outside surface of the sleeve body in the circumferential direction, and the wiring sleeve is further sleeved with an encapsulating casing which is located in the corresponding antenna.