Abstract: Disclosed is a rotor for a torque sensor configured to improve a mechanical coupling force with respect to a jig in a process of adjusting a torque center, thus enabling a fine adjustment, the rotor including a rotor body having a sleeve coupled to a rotating shaft and a yoke protruding from an outer circumference of the sleeve, a ring-shaped magnet coupled to an outer circumference of the yoke, and an anti-slip structure formed on the rotor body and partially coming into contact with a jig during a rotating process for adjusting a torque center, thus inhibiting slipping between the rotor body and the jig when a rotating force is transmitted, so that slipping between the jig and the rotor body is inhibited to enable precise transmission of the rotating force whereby accuracy is improved during fine adjustment of the torque center.
Abstract: A cover structure in a slide position detection device for a vehicle seat includes a magnetic detector disposed on a side of one of a fixed rail and a movable rail; a cover that covers the magnetic detector and that is disposed on the side of the one rail; and a detected portion disposed on a side of the other rail. The cover includes a lateral cover portion that covers a lateral portion of the magnetic detector, and a detection portion cover portion that faces and covers a detection portion of the magnetic detector; and the detection portion cover portion is provided with a ferromagnetic plate that faces the detection portion, the ferromagnetic plate being located at a position that is farther from the detection portion than a closest position of the detected portion relative to the detection portion, and the ferromagnetic plate shielding against magnetism from the magnetic detector.
Type:
Grant
Filed:
August 7, 2015
Date of Patent:
January 24, 2017
Assignees:
TOYOTA BOSHOKU KABUSHIKI KAISHA, SHIROKI CORPORATION
Abstract: An interface between a sensor unit and an explosion resistant housing, wherein arranged in the explosion resistant housing is a measurement amplifier. In the interface, which is simply manufacturable and, despite that, meets the requirements of explosion protection, the measurement amplifier is arranged on a plug unit formed in the sensor unit and preferably protruding inwardly into the explosion resistant housing.
Type:
Grant
Filed:
August 28, 2013
Date of Patent:
January 10, 2017
Assignee:
ENDRESS + HAUSER FLOWTEC AG
Inventors:
Nikolai Fink, Markus Beissert, Frank Bonschab, Sr., Bjorn Larsson, Bruno Worreth
Abstract: The purpose of the present invention is to provide a vessel bottom cover and vessel with which content in a vessel can be observed as it is or as a magnified image with naked eyes. A vessel bottom cover configured to be attached to a bottom part of a vessel having a cylindrical body and a hemispherical bottom part, wherein the vessel bottom cover has a column body with a recessed portion configured to be fitted with the hemispherical bottom part of the vessel in a top face of the column body, and the vessel bottom cover is made of a transparent resin or a transparent inorganic material.
Abstract: A sensor system (30) including a sensor assembly (10) for a fluid meter (5) is provided. The sensor assembly (10) includes one or more fluid conduits (103A, 103B). The sensor assembly (10) also includes a case (101) surrounding at least a portion of the one or more fluid conduits (103A, 103B). The sensor system (30) also includes a case support (300). The case support (300) surrounds at least a portion of the case (101). The case support (300) includes one or more ribs (330) that extend along at least a portion of the case (101) and contact the case (101) at least when the case (101) deforms outward by a threshold amount.
Type:
Grant
Filed:
July 24, 2012
Date of Patent:
January 10, 2017
Assignee:
Micro Motion, Inc.
Inventors:
Gregory Treat Lanham, Christopher A Werbach
Abstract: Systems and methods for isolated sensor device protection are provided. In one embodiment, an isolated sensor device comprises: a housing having an isolation chamber; an isolator sealed within the isolation chamber; an inertial sensor assembly sealed within the isolation chamber, the inertial sensor assembly coupled to an inner surface of the isolation chamber by the isolator; and at least one progressive impact interface applied to a periphery of the inertial sensor assembly, wherein the at least one progressive impact interface extends outward from the inertial sensor assembly towards the inner surface.
Type:
Grant
Filed:
October 8, 2014
Date of Patent:
January 10, 2017
Assignee:
Honeywell International Inc.
Inventors:
Todd L Loren Braman, Owen D. Grossman, Matthew Schlager, Jason Daniel Graham, Timothy J. Hanson
Abstract: A sensor having a set of grid of bars that are in contact from their bottom at the corners with a set of protrusions that are in contact from above with a plurality of intersections, each having a sensing element, of a grid of wires disposed on a base, and a top surface layer that is disposed atop the grid of bars, so that force imparted from above onto the top surface layer is transmitted to the grid of bars and thence to the protrusions, and thence to the intersections of the grid of wires which are thereby compressed between the base and protrusions; and that the protrusions above thereby focus the imparted force directly onto the intersections. A sensor includes a computer in communication with the grid of wires which causes prompting signals to be sent to the grid of wires and reconstructs a continuous position of force on the surface from interpolation based on data signals received from the grid of wires. A method for sensing.
Type:
Grant
Filed:
March 19, 2013
Date of Patent:
December 20, 2016
Assignees:
New York University, Tactonic Technologies, LLC
Inventors:
Kenneth Perlin, Charles Hendee, Alex Grau, Gerald Seidman
Abstract: An acoustic sensor apparatus mounted to a medium is disclosed. The acoustic sensor apparatus includes: a sensor unit processing an input acoustic signal; and a housing including a body unit having an accommodation groove in which the sensor unit is accommodated, a cap unit formed to close an opening of the accommodation groove, and a coupling unit formed to mechanically couple the body unit or the cap unit to a medium.
Type:
Grant
Filed:
October 30, 2015
Date of Patent:
December 13, 2016
Assignee:
HYUNDAI MOTOR COMPANY
Inventors:
Hui Sung Lee, Kwang Myung Oh, Sung Jin Sah, Sung-Min Park
Abstract: Methods, systems, devices, and products for taking a downhole measurement are presented. The method may include cooling a sensor in a borehole intersecting an earth formation using an electrocaloric material associated with the sensor, wherein the sensor is responsive to a downhole parameter. The method may further include applying an electric field to the electrocaloric material to generate a giant electrocaloric effect. The method may include selecting dimensions, composition, and Curie temperature of the electrocaloric material and characteristics of the electric field sufficient to reduce the nominal temperature of the sensor by at least 20 degrees Celsius, which may result in the sensor being proximate to a target temperature within the nominal operational temperature range of the sensor.
Abstract: A portable machine includes a base assembly defining a vacuum chamber, the base assembly including a decking having a machine way. The portable machine also includes a machine component releasably coupled to the machine way, and a plurality of load-equalizing members coupled to the base assembly that evenly distribute and support a load positioned on the base.
Abstract: Disclosed is a size portable particle size distribution sampling device that is small enough to be carried by truckers and handled by terminal personnel. The device consists of multiple nesting screening (sieve) cups, with a sample cup at the top, a plurality of screening cups in sequence below the sample cup and a base container at the bottom. Methods of use are also disclosed.
Abstract: A micromechanical measuring element includes a carrier and a sensitive element connected to the carrier by a first solder connection and a second solder connection. The sensitive element is contacted electrically by the first solder connection. The sensitive element, the carrier and the second solder connection form a first chamber. The first chamber has a first opening.
Type:
Grant
Filed:
March 8, 2013
Date of Patent:
November 29, 2016
Assignee:
EPCOS AG
Inventors:
Michael Schiffer, Andreas Peschka, Jörg Zapf, Karl Weidner, Harry Hedler
Abstract: A full-automatic dynamic tobacco moisture analysis climate chamber comprises an enclosed constant-temperature constant-humidity cabin, which is communicated with an air temperature and humidity processor to form an air circulation loop; a weighing platform is disposed inside the constant-temperature constant-humidity cabin, a sample delivery hanger is hung inside the constant-temperature constant-humidity cabin, at least one placement carrier is disposed below the sample delivery hanger, a sample vessel is placed on the placement carrier, the sample delivery hanger is further connected to a drive mechanism outside the constant-temperature constant-humidity cabin and the drive mechanism drives the sample delivery hanger to perform operations, to place the sample vessel on the weighing platform for weighing.
Type:
Grant
Filed:
August 18, 2014
Date of Patent:
November 22, 2016
Assignee:
SHANGHAI TOBACCO GROUP CO., LTD
Inventors:
Da Wu, Yunfei Sha, Jiaying Lou, Bing Wang, Baizhan Liu
Abstract: A method and a device for determining the pressure distribution for bonding of a first substrate to a second substrate, with the following steps, especially with the following sequence: placing a measurement layer between a first tool for holding the first substrate and an opposite second tool which is aligned to the first tool for bonding of the substrate, deformation of the measurement layer by bringing the tools closer to one another, measurement of the deformation of the measurement layer and computation of the pressure distribution.
Type:
Grant
Filed:
June 6, 2011
Date of Patent:
November 22, 2016
Assignee:
EV Group E. Thallner GmbH
Inventors:
Bernhard Rebhan, Markus Wimplinger, Jürgen Burggraf
Abstract: A self-filling graduated cylinder system for efficiently filling a graduated cylinder with a chemical solution. The self-filling graduated cylinder system generally includes a graduated cylinder having an interior, an upper end, an upper opening in the upper end a lower end opposite of the upper end, and a check valve attached to the graduated cylinder near the lower end of the graduated cylinder. The check valve is adapted to allow a liquid chemical to flow upwardly through the check valve into the graduated cylinder and to prevent the liquid chemical within the interior of the graduated cylinder from flowing downwardly through the check valve.
Abstract: The invention comprises a vibration probe protection apparatus and method of use thereof. The sensor protection system dynamically moves the probe away from the shaft in response to radial movement of the shaft and subsequently repositions the sensor probe at a set distance from the rotating shaft. The sensor protection system optionally: (1) positions a protective element closer to the shaft than a tip of the probe, where radial movement of the shaft strikes the protective element and the protective element uses a portion of the resulting striking force to move the probe away from the shaft; (2) resists bounce of the probe upon delivery of force from movement of the shaft to the protective element; and/or (3) provides a return spring force to the probe tip toward the shaft to reposition the probe against a hard stop.
Abstract: A device for monitoring the temperature surrounding a circuit, including: a charge storage element; a charge evacuation device; and a thermo-mechanical switch connecting the storage element to the evacuation element, the switch being capable of closing without the circuit being electrically powered, when the temperature exceeds a threshold.
Abstract: A sensor control apparatus which receives from a gas sensor (10) a sensor output signal Ip corresponding to the concentration of a specific gas component, and a pressure signal P output from a pressure sensor (20). The sensor control apparatus includes a computation section (38) which computes a specific component concentration which is corrected based on the pressure signal P so as to eliminate the influence of the pressure of the gas. The sensor control apparatus includes response adjustment sections (34) and (36) for adjusting the response rates of the sensor output signal Ip and the pressure signal P before being input to the computation section (38), the response rate exhibiting a time variation of the corresponding signal to a change in the pressure of the gas, such that the response rate of the sensor output signal Ip or the response rate of the pressure signal P, whichever is faster, approaches the slower of the two.
Abstract: In a computer-implemented method and system for capturing the condition of a structure, the structure is scanned with a three-dimensional (3D) scanner. The 3D contact scanner includes a tactile sensor system having at least one tactile sensor for generating 3D data points based on tactile feedback resulting from physical contact with at least part of the structure. A 3D model is constructed from the 3D data and is then analyzed to determine the condition of the structure.
Type:
Grant
Filed:
January 28, 2016
Date of Patent:
September 13, 2016
Assignee:
STATE FARM MUTUAL AUTOMOBILE INSURANCE COMPANY
Inventors:
Patrick H. Boyer, Nathan L. Tofte, Jackie O. Jordan, II, Brian N. Harvey
Abstract: A direction detector that allows true north detection accuracy to be improved is provided. In a direction detector 1, an attitude changer 100 rotates an angular velocity sensor 26 around a detection axis and controls an attitude of the angular velocity sensor 26 so that the detection axis is directed in a predetermined measuring direction and an opposite direction to the predetermined measuring direction. A control device 30 controls the attitude changer 100 so that the angular velocity sensor 26 rotates in a first rotation direction around the detection axis before the angular velocity sensor 26 starts to detect an angular velocity around the predetermined measuring direction.