Abstract: A printing system is provided having at least one printhead for printing material to create a printed product, and an object incorporation device that incorporates inorganic semiconductors into the product being printed while the at least one printhead prints the product.

Abstract: A method of providing information to a user via a printed substrate. The substrate chas a graphic image and coded data indicative of a region identity associated with the substrate and of a plurality of locations on the substrate. The method includes the steps of: (i) receiving interaction data indicative of the region identity and a position of a sensing device relative to the image; (ii) identifying and retrieving a page description corresponding to the printed substrate using the region identity; (iii) generating a query expression including search terms; (iv) forming a request using the query expression; and sending the request to the user. At least one of the search terms is associated, in the page description, with a zone of the graphic image containing the position of the sensing device.

Abstract: A modular printhead is disclosed which includes an elongate channel and a plurality of printhead modules. The printhead modules are received in the elongate channel. Each printhead module has a carrier, an elongate ink delivery member mounted in the carrier and a printhead. The elongate ink delivery member defines longitudinal conduits, each conduit carrying a respective ink. The elongate ink delivery member further defines sets of apertures, each set of apertures including apertures which are each in register with a corresponding conduit. The printhead includes inkjet nozzles, each inkjet nozzle being in fluid communication with a respective conduit.

Abstract: A MEMS integrated circuit includes a silicon substrate having a frontside with a drive circuitry layer and a backside. A MEMS layer is disposed on the drive circuitry layer. The MEMS layer includes a plurality of MEMS devices electrically connected to the drive circuitry layer. Integrated circuit contacts are positioned at a backside of the substrate. The integrated circuit contacts are electrically connected to the drive circuitry layer via respective connector rods extending through the substrate.

Abstract: A nozzle assembly for an inkjet printhead includes: an ink chamber having an elliptical nozzle opening defined in a roof of the ink chamber and an ink inlet; a heater element positioned in the ink chamber, the heater element having an elongate linear beam for generating a vapour bubble in the ink chamber, the elongate linear beam having a longitudinal axis extending parallel with a major axis of the elliptical nozzle opening; and a pressure-diffusing structure positioned relative to the ink inlet. The pressure-diffusing structure is configured for diffusing pressure pulses in ink supplied to the ink chamber via the ink inlet.

Abstract: An ink pressure regulator for regulating a hydrostatic pressure of ink supplied to an inkjet printhead. The regulator includes an ink chamber having an ink outlet for fluid communication with the printhead via an ink line. A roof of the ink chamber includes: an air inlet; a regulator channel having a first end communicating with the air inlet and a second end communicating with a headspace of the chamber; and a liquid-retaining structure in fluid communication with the regulator channel. The liquid-retaining structure is positioned and configured for capturing ink from the headspace of the ink chamber. The regulator channel is dimensioned to regulate a hydrostatic pressure of the ink supplied to the printhead.

Abstract: A printhead module is provided for an inkjet printhead assembly. The printhead module includes a support. An elongate carrier is mounted to the support. The carrier defines a plurality of transverse ribs and an ink channel located between the ribs. A subassembly includes a micro-electromechanical integrated circuit (IC) configured to eject ink. The subassembly is mounted to the carrier so that the support, carrier and subassembly define a plurality of sealed ink chambers which can feed ink to the IC via the ink channel.

Abstract: A cartridge for a printer is provided having a body defining a number of fluid reservoirs, a lid covering the body to seal fluid inside the reservoirs, and a printhead operatively fed with fluid from the reservoirs. A base of each reservoir is provided with a raised portion which surrounds a fluid outlet through which fluid flows for supply to the printhead. Each raised portion being molded in the body to separate the outlet from the base of each reservoir to ensure a sufficient flow rate of fluid from the reservoir.

Abstract: An inkjet printer includes a printhead for printing onto a media substrate, the printhead defining a plurality of nozzles from which ink is expelled; an ink tank provided upstream of the printhead; a sump provided downstream of the printhead for collecting unused ink from the printhead, the sump having a lower portion for holding the unused ink and an upper portion defining a headspace of air above the unused ink; a first fluid conduit extending between the printhead and the sump for communicating the unused ink from the printhead to the sump, the first fluid conduit connecting the sump to a position in the printhead upstream of the plurality of nozzles; and a pump connected to the sump, the pump for drawing air from the headspace of the sump into atmosphere and effecting a negative pressure in the printhead upstream of the nozzles. Communication of ink from the ink tank to the printhead is effected by the negative pressure generated by the drawing of air from the headspace of the sump.

Abstract: A structure for an inkjet printhead is disclosed. The printhead structure has an elongate support structure for supporting a printhead integrated circuit, and ink conduits formed in the elongate support structure for supplying ink to an array of nozzles of the printhead integrated circuit. Each ink conduit includes cavities distributed along a roof of the ink conduit. An opening to each cavity has an upstream edge and a downstream edge. The upstream edge contacts the ink before the downstream edge during initial priming of the ink conduits from an ink supply. The upstream edge has a transition face between the ink conduit and the cavity interior, the transition face being configured to inhibit ink from filling the cavity by capillary action during initial priming of the ink conduit. This causes gas to be trapped within the cavity. The gas acts to compress pressure pulses in the ink.

Abstract: An inkjet printer includes: an inkjet printhead; an ink reservoir containing a supply of ink; and a pressure-regulating chamber for maintaining ink contained therein at a predetermined first level. The chamber includes: an inlet port connected to the ink reservoir via an ink supply line; an outlet port connected to an ink inlet of the printhead via an upstream ink line; an air vent open to atmosphere; and a float valve for maintaining the predetermined first level of ink. The float valve includes: an arm pivotally mounted about a pivot; a float mounted at one end of the arm; and a valve stem attached to the arm, said valve stem having a valve head for closure of a valve seat, the valve seat being positioned at the inlet port of the pressure-regulating chamber.

Abstract: A nozzle assembly for an inkjet printhead. The nozzle assembly includes: a nozzle chamber including a roof having a nozzle opening and a moving portion movable relative to a stationary portion of the roof. An actuator is configured to displace the moving portion relative to the stationary portion and cause ejection of ink through the nozzle opening. A polymeric coating covers the moving portion and the stationary portion. The polymeric coating is absent from a gap between the moving portion and the stationary portion.

Abstract: A method of forming an inkjet nozzle chamber includes the steps of: (a) depositing a layer of chamber material onto a substrate, the layer of chamber material defining a depth of the nozzle chamber; (b) removing a predetermined region of the layer of chamber material to define sidewalls of the nozzle chamber and an internal volume of the nozzle chamber; (c) depositing a sacrificial material to fill the internal volume contained within the sidewalls; (d) depositing a roof layer onto the sacrificial material and the sidewalls; (e) etching the roof layer to define a nozzle opening therein; and (f) removing the sacrificial material contained in the internal volume so as to form the nozzle chamber.

Abstract: A camera unit includes a display for displaying an image to be captured; an image sensor for digitally capturing the displayed image; a card reader having a linear scanner for scanning a surface of a removable card to sense a plurality of dots printed on the surface of the removable card, the plurality of dots representing a bit pattern encoding a program script; a card interface for receiving a signal from the card reader indicative of the sensed plurality of dots printed on the surface of the card, and decoding the sensed plurality of dots into the program script; and a printer configured to print a distorted image on print media, the distorted image being a version of the captured image distorted in accordance with the program script. The card reader comprises a moulding housing therewithin a plurality of light sources, the moulding being transparent to light from the light sources and shaped to focus the light on the removable card.

Abstract: A thermal bend actuator includes: a first active cantilever beam for connection to drive circuitry, the first beam having a bent planar beam element; a second passive cantilever beam fused to the first beam; a conduction pad sandwiched between the first and second beams; and first and second adjacent electrode contacts positioned at one side of the actuator. A first end of the beam element is connected to the first contact and a second end of the beam element is connected to the second contact. The conduction pad is positioned at a bend region of the planar beam element so as to facilitate electrical conduction around the bend region.

Abstract: A method of hydrophobizing a frontside surface of an integrated circuit. The method includes the steps of: (a) depositing a hydrophobic polymeric layer onto the frontside surface; (b) depositing a protective metal film onto the hydrophobic polymeric layer; (c) depositing a sacrificial material onto the metal film; (d) patterning the sacrificial material; (e) etching through the metal film, the hydrophobic polymeric layer and the frontside surface; (f) performing MEMS processing steps on a backside of the integrated circuit; (g) subjecting the integrated circuit to an oxidizing plasma, wherein the metal film protects the hydrophobic polymeric layer from the oxidizing plasma; and (h) removing the protective metal film to provide an integrated circuit having a relatively hydrophobic patterned frontside surface.

Abstract: A digital camera includes an image capture assembly; a print media transport assembly; a pagewidth ink jet printhead; a roll of print media; an internal chassis serving as a frame on which the image capture assembly, the print media transport assembly, and the printhead are directly supported; and an external casing completely encasing therewithin the internal chassis. The external casing is openable, and the internal chassis together with the assemblies and printhead supported thereon are removable from the external casing. The internal chassis is provided as an integral frame configured with pre-molded fittings adapted to receive and support the assemblies and printhead.

Abstract: An inkjet printer includes: (a) a pagewidth inkjet printhead having a plurality of nozzles for delivering ink onto print media fed past the printhead; and (b) a maintenance assembly for maintaining the printhead. The maintenance assembly includes: (i) an elongate web of material; (ii) rollers for supporting the web; (iii) a maintenance member positioned opposite the printhead; (iv) a web-feeding mechanism for advancing the web past the printhead; and (v) an actuating mechanism for configuring the printer in either one of a maintenance position and a printing position. A gap is defined between the web and the printhead in the printing position.

Abstract: A cradle unit for receiving a print cartridge to form a print engine, the cradle unit includes a main body defining an opening for receiving said cartridge, the main body having a frame structure including end plates with drive and exit rollers mounted therebetween; a printed circuit board (PCB) pivotally mounted between the end plates for housing control electronics for controlling the operation of the print engine; a cover assembly for securing said cartridge in the opening, the cover assembly pivotally mounted between the end plates, the cover assembly configured to pivot the PCB into electrical contact with a printhead controller on the cartridge when in a closed position, and to pivot the PCB out of electrical connection with said printhead controller when in an open position; and a maintenance assembly mounted to the main body, the maintenance assembly movable between a capping state where a printhead of the print cartridge is capped, and a printing stage where a printhead of the print cartridge is unca

Abstract: A printer is shown that can selectively reduce its print resolution by sharing print for one nozzle in the nozzle array between several nozzles. Each nozzle has an ejection aperture and a corresponding actuator for ejecting printing fluid through the ejection aperture. A print engine controller sends print data to the array of nozzles in accordance with a designated print job. During use, the print engine controller can selectively reduce the print resolution by apportioning print data for a single nozzle between at least two nozzles of the array. This recognizes that some print jobs do not require the best resolution—a lower resolution is completely adequate for the purposes of the document being printed. This serves to extend the operational life of all the nozzles.