Abstract: A current detection structure includes a plurality of busbars arranged in parallel, and a plurality of magnetic detection elements each provided for corresponding one of the plurality of busbars so as to measure a strength of a magnetic field generated by a current flowing through the corresponding busbar. The plurality of magnetic detection elements are mounted on a single circuit board.
Abstract: A liquid supplying apparatus configured to supply a liquid to a liquid ejecting section that is configured to eject the liquid, the liquid supplying apparatus comprising a liquid containing portion configured to contain the liquid, and a fluid communication member in fluid communication with the liquid containing portion and having one end that is exposed to air, the fluid communication member further having a liquid visual recognition portion through which the liquid inside the fluid communication member is visually recognizable.
Type:
Grant
Filed:
January 27, 2015
Date of Patent:
January 31, 2017
Assignee:
Seiko Epson Corporation
Inventors:
Hidenao Suzuki, Munehide Kanaya, Naomi Kimura, Koki Hayashi, Koji Nishimaki, Shoma Kudo
Abstract: An inkjet printhead integrated circuit includes: a substrate having a silicon layer; a nozzle plate disposed on the silicon layer; and embedded inkjet nozzle devices. Each inkjet nozzle device includes a nozzle chamber having a roof actuator; drive circuitry laterally disposed relative to the nozzle chamber; a connection arm extending parallel with the nozzle plate from the actuator towards the drive circuitry; and a metal via interconnecting each connection arm and the drive circuitry, the metal via extending perpendicularly to the nozzle plate. The drive circuitry is positioned proximal the nozzle plate relative to a plane of the floor.
Type:
Grant
Filed:
September 2, 2015
Date of Patent:
January 24, 2017
Assignee:
Memjet Technology Limited
Inventors:
Ronan Padraig Sean O'Reilly, Gregory John McAvoy, Emma Rose Kerr, Vincent Patrick Lawlor, Misty Bagnat, Brian Kevin Donohoe, Eimear Ryan
Abstract: An apparatus for depositing nanocomposite material comprising a nanocomposite-ink factory and inkjet printer. The nanocomposite-ink factory producing nanocomposite-ink and the inkjet printer receiving the nanocomposite-ink. The inkjet printer having a printhead and a positioning mechanism. The printhead having one or more nozzles to dispense nanocomposite-ink droplets.
Abstract: In accordance with embodiments of the present disclosure, a circuit board may include a connector configured to electrically couple a device to the circuit board. The connector may include a conductive element configured to be electrically coupled to a first voltage and a detection pad configured to be electrically coupled to a second voltage via a resistor, such that when a device pin of a device is electrically coupled to the conductive element, the detection pad is electrically coupled to the conductive element via the device pin.
Abstract: A current detection structure includes a busbar to flow a current therethrough, a magnetic detection element to detect a strength of a magnetic field generated by the current flowing through the busbar, and a current detecting portion to determine the current flowing through the busbar based on the magnetic field detected by the magnetic detection element. A through-hole is formed penetrating the busbar such that a current path is formed on both sides of the through-hole. The magnetic detection element is disposed in the through-hole. The current detecting portion determines the current flowing through the busbar based on a strength of a synthetic magnetic field detected by the magnetic detection element. The synthetic magnetic field is produced by combining a magnetic field that is generated by a current flowing through the current path on the both sides of the through-hole.
Abstract: A method for creating a tamper-evident label is described. Embodiments of the method or process typically include four steps. In a first step, an ultraviolet cured ink mask can be printed onto a substrate by an inkjet printer. In a second step, once the printing is done and the mask has been formed, the substrate can be anodized in a weakened anodizing bath. In a third step, the ultraviolet cured ink can be removed from the substrate leaving a portion of the substrate unanodized. To remove the ultraviolet cured ink, the substrate can be heated to an elevated temperature and a cleaning solution and/or solvent can be applied to the ultraviolet cured ink mask. In a fourth step, the substrate can be anodized for a second time.
Abstract: A maintenance system for a three-dimensional object printer includes a platform having a plurality of wheels that enable the platform to move along a first track, and having a maintenance mechanism connected to the platform so as to be movable normal to the first track. The maintenance mechanism includes a lifting member that extends laterally from the platform, and a maintenance tool configured to move with the lifting member. A lifting platform is positioned laterally offset from a location of the first track where an ejector head is positioned opposite the first track, and is configured to engage with the lifting member to lift the maintenance tool and enable the maintenance tool to perform a maintenance operation on the ejector head.
Abstract: A fluid printhead including at least one fluid ejection element. The fluid ejection element includes a fluid chamber, a throat portion through which fluid is provided to the fluid chamber, and a heater element disposed within the fluid chamber. The fluid ejection element also includes a printhead condition detection system. The printhead condition detection system includes a first electrode at least a portion of which is disposed within the fluid chamber, the first electrode configured to receive a step voltage, a second electrode disposed within the throat portion, and a sense circuit electrically connected to the second electrode that generates an output based on the application of the step voltage to the first electrode as an indication of printhead condition.
Abstract: The invention relates to a method and an apparatus for capacitive seat-occupancy recognition for vehicle seats. The apparatus which is based on the method comprises a reference capacitor that possesses a capacitance with respect to a first reference potential of a vehicle, an electrode integrated into a seat sensor that possess a capacitance with respect to a first reference potential, an at least parasitically-present capacitance of the sensor electrode with respect to a second reference potential or the vehicle ground, a first switch that connects the reference capacitor and a reference-voltage source of known voltage connected with the reference potential, a second switch that connects the sensor electrode with reference capacitor, and a third switch that connects the sensor electrode with the reference potential and the at least parasitically-present capacitance with the vehicle ground.
Abstract: An ink set includes a first ink that contains a white material and a first resin; and a second ink that contains a color material other than the white material and a second resin, wherein the first resin includes a component (A) causing cracks when resin of 0.5 g is dropped onto a slide glass and is dried at a temperature of 50° C. and a humidity of 0% RH for 10 minutes, and wherein the second resin includes a component (B) of at least one of polyolefin wax and ethylene vinyl acetate resin.
Abstract: An ink jet printer includes a transport mechanism that transports a medium in a first direction; and a carriage that includes a plasma irradiation mechanism, which emits plasma generated in a discharge portion from a plasma irradiation port and then irradiates at least a part of the medium with the plasma, and a head which ejects ink onto the part of the medium which is irradiated with the plasma, and that moves in a second direction intersecting with the first direction, in which the plasma irradiation mechanism is provided on one side of the head in the second direction, and the discharge portion of the plasma irradiation mechanism is disposed so as not to come in contact with the medium.
Abstract: A liquid discharge substrate includes a plurality of discharge elements disposed on a substrate, a first transistor electrically connected to the plurality of discharge elements, and a plurality of second transistors. The first transistor is disposed between the plurality of discharge elements and the plurality of second transistors.
Abstract: There are provided a printing apparatus, a method for controlling the printing apparatus, and a storage medium. The printing apparatus includes a conveying unit that conveys a print medium; a print head that applies a color material on the print medium; an obtaining unit configured to obtain, in the case where a first surface of the print medium on which a first image is printed comes in contact with the conveying unit, information on a printing condition of the first surface that becomes a factor of changing a conveying speed of the print medium in the predetermined direction; and a control unit configured to control timing of applying a color material on a second surface of the print medium that is a surface at the opposite to the first surface according to the printing condition indicated by the information obtained by the obtaining unit.
Abstract: There are provided a liquid ejecting head and a support member that can achieve both of breakage avoidance of a print element substrate and deformation suppression of the support member. Therefore a plate thickness of an adhesion part in the support member is thinner that a plate thickness of a main surface other than the adhesion part.
Abstract: In accordance with an embodiment, an image decoloring apparatus comprises a conveyance path configured to convey a sheet on which an image is formed with a coloring agent that is decolored by heat; a first heat roller configured to be arranged at the upstream side of the conveyance path; and a second heat roller configured to be arranged at the downstream side of the conveyance path. Each of the first heat roller and the second heat roller includes a cylindrical portion and a heat source. The thickness of the cylindrical portion constituting the first heat roller is larger than the thickness of the cylindrical portion constituting the second heat roller. In this way, the heat capacity of the first heat roller is also larger than the heat capacity of the second heat roller.
Abstract: In one example, a method for making diagonal openings in photodefinable glass includes exposing part of a body of photodefinable glass to a beam of light oriented diagonally to a surface of the body at an angle of 5° or greater measured with respect to a normal to the surface of the body and removing some or all of the part of the body exposed to the light beam to form a diagonal opening in the body.
Type:
Grant
Filed:
August 16, 2012
Date of Patent:
September 20, 2016
Assignee:
HEWLETT-PACKARD DEVELOPMENT COMPANY, L.P.
Inventors:
Chien-Hua Chen, Silam J. Choy, Brett E. Dahlgren
Abstract: Media treatment apparatus to apply liquid treatment to media, the media treatment apparatus including a roller to receive liquid treatment and to transfer the liquid treatment, and a drop ejector to apply liquid treatment to the roller to transfer liquid treatment to an object.
Abstract: In a shifting-operation detection unit, a first detection unit has a first resistor connected in series to a first switch and a second resistor connected in parallel to the first switch and the first resistor, a second detection unit has a third resistor connected in series to a second switch and a fourth resistor connected in parallel to the second switch and the third resistor, and the first detection unit and the second detection unit are connected in series to be connected to correspond to a power supply terminal and a ground terminal of an external device and apply a divided voltage of a voltage of the power supply terminal to the external device via an electric wire, the divided voltage having voltage values corresponding to a shift-up operation and a shift-down operation, respectively.
Abstract: The degree of thickening of ink for each of nozzles based on dot pattern data is calculated based on a thickening value Z(n+1)=Z(n)×a×bss×bmm×bll, and information the dot pattern data corresponding to the nozzle, which indicates that small dots are formed in when the thickening value is equal to or greater than a threshold is replaced with information indicating that middle dots which are larger than the small dots are formed.