Abstract: A method of forming one or more nozzles in a substrate used, for example, as a nozzle plate in an inkjet printhead of a thermal inkjet printer, using laser ablation, An opaque mask is interposed between a source of a laser beam and the substrate and includes one or more transparent, ring-shaped orifices therethrough arranged in a closely-spaced matrix. The beam is emitted from the laser source towards the mask such that the opaque portions of the mask block the beam from passing through the mask except for through the ring-shaped orifices. The beam is thereby separated into one or more ring-shaped beam portions, each of which penetrates the substrate at approximately the same and substantially constant intensity to ablate one or more ring-shaped openings in the substrate arranged on the substrate as a closely-spaced matrix. Ring-spaced openings each defines a center plug portion, which is removed from the substrate, for example, by vacuum or adhesive.

Abstract: A printer is provided comprising a housing having a stationary portion and a movable portion movable between a first position and a second position. A carrier is movably mounted within the housing. At least one print cartridge is removably mounted within the carrier. A holding mechanism is provided comprising a locking element pivotably coupled to the stationary housing portion. The locking element is adapted to engage the carrier when engaged by an element on the movable housing portion when the movable housing portion is in its second position and the locking element is adapted to disengage the carrier when the movable housing portion is in its first position.

Abstract: A heater chip module is provided comprising a carrier adapted to be secured directly to an ink-filled container, at least one heater chip having a base coupled to the carrier, and at least one nozzle plate coupled to the heater chip. The carrier includes inner side walls and a support section which together define an inner cavity. An edge feed heater chip is coupled to the carrier support section. The heater chip includes side walls. The support section includes first and second passages which define first and second paths for ink to travel from the container to the inner cavity. The inner cavity and the heater chip are sized such that a first side wall of the heater chip is spaced from a first inner side wall of the carrier and a second side wall of the heater chip is spaced from a second inner side wall of the carrier. A nozzle plate is coupled to the heater chip and the carrier. The nozzle plate has a width such that the nozzle plate extends over an outer surface of the carrier.

Abstract: A package for flowable media and a snap lid which package and snap lid are both made from thermoplastic material, in which a collar-shaped head of the package surrounds a pouring aperture of the package, which collar-shaped head has a retaining ring on its outside, an inside annular surface, and an upper end having an edge with a snap catch, which upper end can be closed using the snap lid. The snap lid has a closing wall from which an annular sealing lip projects towards an inside of the package, and can be brought into contact with an inside surface of the edge in sealing engagement. The closing wall is provided with an outside catch for snap engagement with a snap catch of the edge of the head. The head of the package widens outwards and upwards at its edge, and both the inner surface of this edge and an outer surface of the sealing lip on the snap lid are curved convexly relative to each other. The invention also includes preforms for making the package of the invention.

Abstract: An ink jet printing apparatus is provided comprising a print cartridge including a heater chip and a nozzle plate coupled to the heater chip. The heater chip has first, second, third and fourth heating elements, and the nozzle plate has a plurality of primary and secondary nozzles. The primary nozzles include first and second nozzles positioned in first and second nozzle plate columns and the secondary nozzles include third and fourth nozzles positioned in third and fourth nozzle plate columns. Each of the nozzles has one of the heating elements associated therewith for generating energy to discharge ink therefrom. The apparatus further includes a driver circuit, electrically coupled to the print cartridge, for applying firing pulses to the heating elements.

Abstract: A method and apparatus are provided for forming a fabric, suitable for mailing a finished composite product, using one or more composite strands. One embodiment of the apparatus comprises at least one bushing for forming reinforcing fibers; supply equipment for supplying matrix fibers; at least one applicator for applying bonding size (i.e., bonding chemical treatment) to the fibers; a gathering mechanism for gathering the treated fibers into at least one composite strand; a pulling mechanism for pulling the at least one composite strand; and a fabric forming mechanism for forming a fabric using the at least one composite strand.

Abstract: A package (10, 100) of building-panel products consists essentially of panels (20), panel accessories (30, 32a-d, 110a-d, 120), and at least one binding means (80, 70a, 70b), which may include strapping and/or clamping elements. The panels, which are to be mounted to a structure such as a house, are arranged in a stack (20a). The accessories, which are to be mounted to the structure in association with the building panels, are positioned to frame one or more sides of the panel stack so as to help maintain the panels in stacked relationship. The binding elements releasably secure the accessories to the stack of building panels to form a cartonless package.

Abstract: Our unique process applies pressure sensitive hot melt adhesive to fiberglass insulation with improved adhesion to the insulation surface and the adjoining substrate. As opposed to the typical spray or bead extrusion methods, the preferred embodiment applies a ribbon of adhesive to the blanket and pulls it into the insulating glass with a vacuum. The adhesive penetrates the glass and becomes an integral part of the insulating blanket.

Abstract: An insulated vessel (10, 100, 130) is provided which is adapted to receive a low or high temperature material to be insulated from the environment. The vessel comprises inner and outer membranes (20, 110, 140) and (30, 120, 150) and an outer casing (40, 170). The inner membrane defines an inner cavity for receiving the low or high temperature material and has a first portion which defines an entrance into the inner membrane. The outer membrane encases the inner membrane such that a space is defined between the inner and outer membranes. The outer membrane includes a second portion which is positioned adjacent to the first portion. An insulating material (60, 160) is located in the space between the inner and outer membranes. The inner and outer membranes are joined together so as to seal off the space from the environment. The space is evacuated to less than atmospheric pressure. The outer casing surrounds the outer membrane and has sufficient strength to provide structural and abuse integrity to the vessel.

Abstract: An apparatus is provided for creating a heat seal in polymeric film packaging material located between adjacent bundles of one or more workpieces. The apparatus comprises a support frame and a conveyor system associated with the support frame for receiving a plurality of spaced-apart bundles of one or more workpieces and moving the bundles along a first path extending from a first portion of the support frame to a second portion of the support frame. The spaced-apart bundles are at least partially wrapped in polymeric film material as they move along the first path such that sections of the film material extend between adjacent, spaced-apart bundles. The apparatus further includes a heat seal device for effecting a heat seal in the polymeric film material located between the adjacent bundles.

Abstract: An apparatus for making dual component fibers is provided and includes a distributor having orifices in the peripheral wall and nested within a rotary spinner. The distributor is divided into a series of generally vertically-aligned compartments by baffles positioned circumferentially around the interior of the peripheral wall, with the orifices communicating with the compartments. First and second molten thermoplastic materials are supplied to the distributor and centrifuged as alternating thin layers to the face of the spinner. The spinner is also rotated to centrifuge dual component fibers through the orifices in the peripheral wall of the spinner.

Abstract: An apparatus is provided for making dual component fibers. The apparatus comprises a distributor, equipment for providing first and second thermoplastic materials to the distributor, a rotatable spinner and a rotation mechanism. The distributor has an outer casing and a divider cup fixedly positioned within the outer casing. The outer casing has first and second orifices extending through its peripheral wall. The divider cup defines with the outer casing first and second chambers for receiving first and second molten thermoplastic materials. The first orifices communicate with the first chamber and the second orifices communicate with the second chamber. The rotatable spinner includes first and second passages in its peripheral wall.

Abstract: Apparatus for making dual-component thermoplastic fibers, such as glass fibers, comprises a spinner having an orificed peripheral wall for centrifuging fibers from thermoplastic material, the spinner having vertically aligned compartments with first and second thermoplastic materials in alternate compartments, and a series of elongated orifices in the peripheral wall in communication with each of two adjacent compartments to enable centrifuging of both the first and second thermoplastic materials from a single orifice.