The present invention relates to color printers and printing methods for histological specimen containers such as slides and cassettes.
Printers for printing information such as text, indentifying color bars and bar codes on containers such as slides and cassettes used to process histological specimens (e.g., tissue biopsies) are generally known and commercially available. Color printers of these types, as well as slides and cassettes that can be used with the printers, are disclosed, for example, in PCT International Application Publication Nos. WO 2012/036865, WO 2012/036866, WO 2012/036867 and WO 2012/036874, all of which are incorporated herein by reference for all purposes.
There remains a continuing need for improved printers for histological sample containers. In particular, there is a need for printers and methods that are efficient to operate, and that enable information to be accurately printed on the containers.
Embodiments of the invention include a reverse transfer printer and method for printing information onto histological specimen containers such as slides and cassettes. One embodiment of the printer includes (1) a specimen container receiving structure to receive the histological specimen containers, (2) an ink receiving structure to receive an ink source such as a print ribbon, (3) a transfer receiving structure to receive a transfer medium such as a transparent transfer film, (4) a printing area including a printhead, (5) a laminator, and (6) a control system responsive to specimen data representative of histological specimens. The control system causes the printhead to transfer ink from the ink source to print areas on the transfer medium, and to cause the laminator to transfer the printed print areas of the transfer medium to print zones of the specimen containers, with the transfer medium covering the ink on the containers.
Embodiments of the invention described herein are color and monochrome printers using reverse transfer-type printing technologies to provide printed specimen information on histological specimen containers such as slides and cassettes. Printers in accordance with the invention can be used to print specimen information onto slides and cassettes of the type described in the above-identified PCT publications. The specimen information printed by the printers of the invention can include text, identifying color bars, bar codes and other information of the types described in the above-identified PCT publications. Reverse transfer printing technologies of the type described generally in the Ohshima U.S. Pat. No. 6,228,805 and the Haas U.S. Pat. No. 6,261,012 can be incorporated into the printers described herein. The Ohshima and Haas patents are hereby incorporated herein by reference for all purposes.
Embodiments of printer 100 configured to print in color can use a multi-color thermal transfer print ribbon 14 that can be provided on supply 2, and a thermal retransfer ribbon 17 that can be provided on supply 4. Following their use the print ribbon 14 is collected on take-up 3 and the retransfer ribbon is collected on take-up 5. Print ribbon 14 includes a substrate carrying a heat transferrable ink layer. In these embodiments the ink layer can include blocks of ink of different (typically primary) colors (e.g., yellow, magenta, cyan and black in one embodiment) spaced in a repeating sequence along its length. In other embodiments, such as those configured to print in monochrome, the ink layer can include a single color ink (e.g., black ink) and need not be in blocks. The ink can, for example, include sublimable dyes or heat-transferrable resins. Retransfer ribbon 17 includes a substrate carrying a transparent transfer film. As described below, in response to lamination processes such as those involving heat and/or pressure, portions of the transfer film can be removed from the substrate of the retransfer ribbon 17 and applied to the slide 16.
Controller 15 is coupled to receive print jobs from a device such as computer 18. The print jobs include data relating to the desired specimen information to be printed. Controller 15 processes the data and controls the printer 100, including printhead 6, in a manner that causes the specimen information to be printed in the desired form and color onto the retransfer ribbon 17.
With the printhead 6 at a spaced-apart position (e.g., raised by a printhead raising and lowering mechanism) with respect to the print platen roller 7, controller 15 advances the retransfer ribbon 17 to a printing area between the printhead and print platen roller. Registration marks can be located on the retransfer ribbon 17 to designate the print areas or regions on the retransfer ribbon. Controller 15 also advances the print ribbon 14 to position and register a first ink block of the desired color at the printing area. The printhead 6 and print platen roller 7 are then brought together (e.g., the printhead is lowered) to position the ink layer of the print ribbon 14 next to and typically in contact with the transfer film layer of the retransfer ribbon 17. The co-located portions of the print ribbon 14 and retransfer ribbon 17 are then driven together (i.e., simultaneously) in a first or print direction past the printhead 6. During this printing operation the printhead 6 is actuated to print the specimen information onto the retransfer ribbon by transferring ink from the first color block of the print ribbon 14 onto the transfer film layer of the retransfer ribbon 17. After printing the first color portion of the specimen information onto the print area of the retransfer ribbon 17 the printhead 6 is raised or otherwise moved to a spaced-apart position with respect to the print platen roller 7.
If the specimen information to be printed requires multiple ink colors, the retransfer ribbon 17 is driven in a second and opposite direction to reposition the leading edge of the retransfer ribbon print area adjacent to the printhead 6, and the print ribbon 14 is driven (typically in the first direction) to advance and register a second color ink block at the print area of the retransfer ribbon. The printhead 6 is then lowered, and the printing operation described above is repeated for the second color ink on the print area. This process is repeated again for any additional colors of ink as needed and appropriate to complete the printed image of the specimen information on the print area of the retransfer ribbon 17. As described below, the specimen information image is printed in reverse or mirror image form onto the retransfer ribbon 17 because it will be displayed through the transfer film after being laminated onto the slides 16.
With the laminator roller 9 raised or otherwise spaced-apart from the lamination platen 8, the retransfer ribbon 17 is driven to advance the print area to the lamination area and to register the print area with the print zone on the slide 16. The laminator roller 9 is then lowered or the laminator roller and lamination platen 8 otherwise moved together to place the print area of the retransfer ribbon 17 into contact with the slide 16. The slide 16 and retransfer ribbon 17 are driven together (i.e., simultaneously) through the lamination area and between the hot laminator roller 9 and lamination platen 8. Heat and/or pressure applied by this lamination process causes the portion of the transfer film layer of the retransfer ribbon 17 containing the printed specimen information image to transfer onto and to adhere to the print zone of the slide 16. The ink layer on the transfer film will be facing the slide 16, and covered by the transfer film layer. The transfer film can act as a protective barrier for the printed specimen information image. The printed image is visible through the transparent transfer film layer. In embodiments of the invention, the lamination roller 9 can be relatively soft and compliant (e.g., rubber-like). The roller thereby deforms to generally conform to the surface contour and texture of the slide 16 or other specimen container. During this process the transfer film is thereby also deformed, and will conform to the overall surface shape as well as to relatively small variations in surface roughness to enhance the attachment of the printed film layer to the slide 16 or other specimen container. The surface of the specimen container being printed need not, therefore, be flat. Another advantage of printer 100 is that it enables printing all the way to the edges of the slide or other container.
Other than the differences described herein, the components of cassette printer 200 and the operation of these components can be similar to or substantially the same as those in the slide printer 100 described above. Cassette printer 200 includes a printing area that includes the printhead 6 and print platen roller 7. Multiple colors or a single color of ink are provided on a print ribbon 13. At the printing area the printer 200 prints color or monochromatic images of specimen information onto print areas of the transfer film layer of the retransfer ribbon 14. The print areas of the retransfer ribbon 14 are advanced to the lamination area at which they are laminated or otherwise transferred onto the print zones of cassettes being transported by the media shuttle 8. Printer 200 provide advantages of the type described above in connection with printer 100.
Although the invention has been described with reference to preferred embodiments, those skilled in the art will recognize that changes can be made in form and detail without departing from the spirit and scope of the invention.
This application claims the benefit of U.S. Provisional Application Ser. No. 61/703,120 filed on Sep. 19, 2012, and entitled Reverse Transfer Color Printers For Histological Specimen Slides And Cassettes, which is incorporated herein by reference for all purposes.
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