Abstract:
In embodiments of a digital lithography system, physical design data prepared at a data prep server in a hierarchical data structure. A leaf node comprises a repeater nod, comprising a bitmap image and a plurality of locations at which the bitmap appears in a physical design. At an EYE server, a repeater node bitmap is adjusted based upon, for example, spatial light modulator rotational adjustment and substrate distortion. The adjusted repeater node and the plurality of locations in which the adjusted repeater appears is compared to the repeater of the data prep server and its plurality of locations. In further embodiments, a rasterizer generates a checksum of bitmap to be printed to a substrate, from the EYE server bitmap. The checksum is compared to a checksum of the EYE server bitmap.
Abstract:
Embodiments disclosed herein relate to lithography systems and methods of making patterns. The lithography system includes various components for creating masks, patterning substrates, performing metrology on the patterned substrates, and comparing metrology values to the mask. The method of forming patterns includes comparing the patterned substrate to the mask, and determining a new mask that incorporates the corrections in patterning from the previous mask. The method can be repeated several times, in order to sequentially improve the quality of the mask used for lithography in the lithography system. The integrated lithography system reduces time of use and cost for the user.
Abstract:
In a first aspect, a system is provided for inkjet printing. The system includes (1) at least one apparatus for inkjet printing having (a) a first inkjet print head including a first plurality of nozzles adapted to selectively dispense a first ink; (b) a second inkjet print head including a second plurality of nozzles adapted to selectively dispense a second ink; and (c) a set including the first and second print heads arranged such that the set is adapted to dispense the first and second inks into respective adjacent color wells of a display pixel on a substrate during a printing pass; and (2) a stage adapted'to support the substrate and transport the substrate below the at least one apparatus for inkjet printing during the printing pass. Numerous other aspects are provided.
Abstract:
The present invention provides methods and apparatus for controlling the quantity of fluid output (e.g., drop size) by individual nozzles of a print head to a very high precision at a frequency equal to the frequency at which fluid is normally dispensed. This is achieved by mapping fluid quantity control information into the data that represents the image to be printed. Data representative of an image is received and converted into pixel data. In at least one embodiment, the pixel data includes pixels represented by N bits, and the N bits may represent a drop size for the pixel and a union of the N bits may represent a nozzle status. A print head may be controlled based on the pixel data, and the print head may include nozzles that are each adapted to deposit at least one drop size quantity of a fluid on a substrate.