Abstract:
A printhead assembly is provided for a print-on-demand camera system. The printhead assembly includes an ink ejection printhead integrated circuit (IC). An ink distribution molding is provided to which the IC is mounted, and though which ink is distributed to the IC. A filter covers the ink distribution molding to filter ink passing to the ink distribution molding. A baffle unit is provided in which the ink distribution molding and filter is received, and includes spaced apart baffles to retard ink acceleration. A housing is provided in which the baffle unit is housed.
Abstract:
A printhead integrated circuit (IC) for an inkjet printer. The printhead IC has a wafer substrate with drive circuitry and a plurality of nozzle arrangements located thereon. Each nozzle arrangement includes nozzle chamber structures defining a nozzle chamber and an ink ejection nozzle in fluid communication with said nozzle chamber, as well as an elongate actuator attached to the substrate for displacement towards and away from the substrate in response to actuating signals from the drive circuitry. Each arrangement also includes an ink ejection member attached to the actuator, the ejection member being positioned for acting on ink within the nozzle chamber to eject a drop of ink from the ink ejection nozzle. Each elongate actuator further includes an actuator arm of a laminated structure comprising a resiliently flexible inner layer, a conductive layer and a compensation layer, the inner layer being interposed between the conductive and compensation layers.
Abstract:
A process and an apparatus for treating large articles to impart color or performance enhancing additives to the article in which a treatment system which includes: (i) a coloring solution and/or a solution containing at least one performance enhancing additive, (ii) water, and (iii) a solvent such as ethylene glycol monobutyl ether and diethylene glycol is applied to the article. The apparatus is made up of (a) a spray enclosure sized to contain the article(s) to be treated; (b) dispensing means, such as nozzles, which are configured to dispense sequentially, hot solution (i), hot solution (ii) and hot water (iii) directly onto the article surface(s); (c) means for securing and transporting the article to be treated into and out of the spray enclosure (such as a trolley system); and at least three closed vessels capable of delivering enough hot saturated coloring and/or performance enhancing solution, hot dye-free rinse solution and deionized water, respectively, with sufficient pressure to form small droplets from the spray nozzles, to thoroughly cover and rinse articles contained in the enclosure.
Abstract:
A process for fabricating a high barrier lamination suitable for the construction of lighter than air materials including providing a thin, two layer thermoplastic film consisting of an amorphous copolyester skin and a high crystalline polyester core; plasma treating the high crystalline polyester core layer to a surface energy of about 50 to about 68 dyne; depositing a metal barrier layer to an optical density of about 2.2 to about 3.2; and extrusion coating a linear low density polyethylene sealant layer on the amorphous copolyester skin layer.
Abstract:
A process for preparing a multiple layer coating on the surface of an organic polymeric substrate by means of atmospheric pressure glow discharge deposition, the steps of the process comprising depositing a layer (first layer) of a plasma polymerized, optically clear, organosilicon compound and thereafter in a second step depositing a substantially uniform layer (second layer) of a polymeric siloxane or silicon oxide compound onto the exposed surface of said first layer, wherein the multiple layer coating has a thickness of at least 2.0 μm and an abrasion resistance demonstrating a change of 20 delta haze units or less after 500 Tabor cycles, measured according to ASTM D1044, CS10F wheels, 500 g weight.
Abstract:
A method of coating a substrate such as a heat sensitive engineered wood substrate which involves sequential powder coating where at least one and preferably both powder coating steps involves the use of fixed infrared heat sources (optionally pulsing themselves) passed which the developing product (the substrate and its coatings) moves thereby to provide a heat relaxation between maximum exposure to each (optionally pulsing) infrared source. Preferably the first coating is green cured only prior to the application of the second powder coating. Preferably similar pulsing heat sources are used for the initial heating of the substrate so as to enable powder coating.
Abstract:
An ink supply arrangement is provided for supplying ink to an inkjet printhead. The ink supply arrangement includes an elongate ink distribution molding, in turn, defining a printhead channel in which the printhead can be received. The ink distribution molding further defines sets of passages for supplying respective types of ink to the printhead. A baffle unit is configured to be engaged relative to the ink distribution molding, and defines a plurality of elongate walls and a plurality of baffles extending from the walls. A housing can receive the baffle unit to define a plurality of ink storage chambers in fluid communication with respective sets of passages.
Abstract:
A coating method for a clear polishing paint to prevent adhesion marks, includes: providing a plastic substrate coated with a base coat, and a clear polishing paint mixture solution, the clear polishing paint mixture solution contains a hardener part and a PU clear paint; coating the clear polishing paint mixture solution on a surface of the substrate, and heating the substrate coated with the clear polishing paint mixture solution at 60° C.˜75° C. for 0.5˜2 hours; and keeping the substrate coated with the clear polishing paint mixture solution stationary.
Abstract:
An inkjet printhead IC is fabricated using a wafer substrate that defines a plurality of ink inlet channels. A plurality of nozzle structures fabricated on the substrate to define nozzle chambers are in fluid communication with the ink inlet channels and an ink ejection nozzle in fluid communication with each nozzle chamber. Each nozzle structure has a chamber, an ejection nozzle in fluid communication with the chamber, and an ejection member for acting on ink within the chamber. A plurality of actuators attached to the substrate move each of the ejection members respectively, the movement being substantially parallel to the ink inlet flow direction; such that, ink is ejected through the ejection nozzle upon activation of the actuator corresponding to that nozzle structure.
Abstract:
A method of making catheters is disclosed in which the wall of the catheter has a porous structure for carrying additional agents, such as therapeutic or diagnostic agents. The method includes providing a core, applying a base polymer material and an inert material over the outer surface of the core, and consolidating the base polymer material to form a catheter having a porous polymer layer with the inert material contained within the pores thereof. The inert material can be applied with the base polymer material, or it can be applied in a separate step after the base polymer material has been partially consolidated to form the porous polymer layer. Additional agents can be mixed with the inert material before it is applied to the catheter, or such agents can be applied to the porous polymer layer of the catheter in a separate step after the inert material is removed therefrom.