Abstract:
The present application is related to an active energy ray radically curable inkjet printing ink comprising water, a radically curable di(meth)acrylate monomer, a radically curable (meth)acrylate compound, a photoinitiator of formula (I): wherein X+ is Na+ or Li+, preferably Na+, and one or more co-initiator. The application also relates to a printed feature consisting of a cured ink layer, a document comprising said printed feature, a thermal inkjet printhead comprising said ink and a process for printing a feature made of said ink on a substrate.
Abstract:
A stick handling apparatus (100) for handling ice cream sticks (102), said apparatus (100) comprising a magazine arranged to hold ice cream sticks (102), a conveyor band (106) arranged to retrieve ice cream sticks (102) from the magazine, a stacker unit arranged to retrieve ice cream sticks (102) from the conveyor band (106) and to stack the ice cream sticks (102) one after the other, a stick placing unit arranged to receive the ice cream sticks (102) from the stacker unit for positioning the ice cream sticks (102) inside a piece of ice cream mass, and a printer unit (108) configured to print information (210) on the ice cream sticks (102) while the ice cream sticks (102) are conveyed by the conveyor band (106).
Abstract:
A media cartridge includes: a base defining a media chamber and including a lower wall and an opposing upper wall; an identification circuit disposed on the lower wall, the identification circuit configured to engage with an electronic interface of a printer; a ledge on the upper wall of the base, the ledge configured to receive downward pressure from an inner surface of a lid of the printer in a closed position; wherein the identification circuit is aligned with the ledge to receive at least a portion of the downward pressure.
Abstract:
Printing apparatus (20) includes a continuous blanket (24) and a set of motorized rollers (31), which advance the blanket at a constant speed through an image area. One or more print bars (38) eject droplets of ink at respective locations onto the blanket in the image area. One or more monitoring rollers (42), in proximity to the locations of the print bars, contact the blanket so as to be rotated by advancement of the blanket. Each monitoring roller includes an encoder (44), which outputs a signal indicative of a rotation angle of the monitoring roller. A control unit (40) collects, during a calibration phase, the signal from the encoders over multiple rotations of the monitoring rollers and computes runout correction factors. During an operational phase, the control unit synchronizes ejection of the droplets from the print bars using the computed runout correction factors.
Abstract:
The present invention relates to a system (1) for applying at least two kinds of liquid onto respective targeted areas of a substrate (S). The system (1) includes first and second storage unit (10a, 10b) that accommodate first and second liquids (F 1 , F 2 ); a pressured gas supply unit (20) that is fluidly connected to the first and second storage unit (10a, 10b); first and second applicator (30a, 30b) that are fluidly connected to the first and second storage unit (10a, 10b); and a controller (40) that is operatively connected to the applicator (30a, 30b). The pressured gas supply unit (20) causes pressure of a pressured gas to act on the liquids (F 1 , F 2 ) within the storage unit (10a, 10b). The first and second applicator (30a, 30b) each include at least one nozzle (300a, 300b) disposed so as to face the substrate (S). The first and second applicator (30a, 30b) spray the first and second liquids (F 1 , F 2 ) within the first and second storage unit (10a, 10b) from the nozzles (300a, 300b) toward the substrate (S) by the action of the pressured gas from the pressured gas supply unit (20). The controller (40) individually controls the first and second applicator (30a, 30b) so that the first applicator (30a) sprays the first liquid (F 1 ) toward a targeted area for the first liquid (F 1 ) on the substrate (S) and the second applicator (30b) sprays the second liquid (F 2 ) toward a targeted area for the second liquid (F 2 ) on the substrate (S). The present invention also relates to a method for applying at least two kinds of liquid onto respective targeted areas of a substrate (S).
Abstract:
A printing system is disclosed for thermal transfer printing onto a surface of a substrate. The system comprises a transfer member having opposite front and rear sides with an imaging surface on the front side, a coating station at which a monolayer of particles made of, or coated with, a thermoplastic polymer is applied to the imaging surface, an imaging station at which energy is applied via the rear side of the transfer member to selected regions of the particles coated imaging surface to render the particles thereon tacky within the selected regions, and a transfer station at which said imaging surface of said transfer member and the substrate surface are pressed against each other to cause transfer to the surface of the substrate of only the regions of the particle coating that have been rendered tacky. In the invention, the imaging station comprises a thermal print head in thermal contact with the rear side of the transfer member and operative to apply energy to the particles on the imaging surface by heat conduction through the transfer member.
Abstract:
A system for three-dimensional printing is disclosed. The system comprises: a rotary tray configured to rotate about a vertical axis; a printing head, each having a plurality of separated nozzles; and a controller configured for controlling the inkjet printing head to dispense, during the rotation, droplets of building material in layers, such as to print a three-dimensional object on the tray.
Abstract:
A method for automatically adjusting the setting(s) of a printer having a control circuit in communication with a sensory system and a database. The database is located in a storage medium and the data in the database includes one or more defined parameter settings corresponding to one or more media types. The sensory system is used to obtain a media identifier from media loaded into the printer. The control circuit determines the type of media from the media identifier. The media type is then compared to the database entries and used to retrieve any defined parameter setting(s) corresponding to the media type identified by the media identifier. Instructions to adjust the printer setting(s) according to the defined parameter setting(s) are determined at the control circuit. The control circuit then sends the instructions to the appropriate systems of the printer to adjusted the printer setting(s) according to the defined parameter setting(s).
Abstract:
The present invention relates to a method for changing the calibration of a recording apparatus (10) to adjust for geometric distortion, comprising: providing a media support (12) for receiving recording media (17); operating a recording head (16) comprising plurality of individually addressable recording channels (23) to form a first image feature (60) on the recording media while the recording media is positioned with a first orientation (50A) on the media support; operating a recording head to form a second image feature (62) on the recording media while the recording media is positioned with a second orientation (50B) on the media support, the second orientation being different from the first orientation; detecting variance in an expected separation between the first image feature and the second image feature; and making an imaging correction in accordance with the detected variance.
Abstract:
One aspect related to design of systems and methods for manufacture of products is configuration. More particularly, this rciaics to verification of an existing configuration and to reconfiguration of a product following manufacturing. The present invention contemplates an approach to designing a station capable of configuration verification and reconfiguration and of preventing shipment of a product if an undesirable configuration is detected. A preferred approach also includes guiding the operator to take possible remedial action. The preferred approach further includes storing various types of data needed for the verification and rccon figuration in a server, thereby making such data substantially instantly accessible for verification and reconfiguration purposes. Such data preferably includes software capable of adapting the functions of the station itself, i.e., the tasks to be performed at the configuration verification and reconfiguration station. A system design using this approach is particularly useful in the manufacture of a microwave radio.