System and method for hollow vessel printing

1. A direct to shape (DTS) printer configured to print on a surface of a vessel, the DTS printer comprising:

a plurality of inkjet print head channels configured to deposit ink on the surface of the vessel;

a rotary drive assembly configured to rotate the vessel relative to the plurality of inkjet print head channels;

at least one pinning lamp configured to provide light having a first peak power density to sufficiently cure the ink deposited on the surface of the vessel; and

a final curing lamp that is separately located and distinct from the at least one pinning lamp, and that is configured to provide light having a second peak power density to fully cure the ink deposited on the surface of the vessel.

2. The DTS printer of claim 1 , wherein the second peak power density is greater than the first peak power density.

3. The DTS printer of claim 1 , wherein the at least one pinning lamps includes multiple pinning lamps in series or in parallel, each pinning lamp configured and controlled separately to provide a respective output power that is less than the first peak power density and to provide a total amount of light that at the first peak power density that includes the respective output power levels over a period of time to sufficiently cure the ink.

4. The DTS printer of claim 3 , wherein the multiple pinning lamps includes two pinning lamps in series.

5. The DTS printer of claim 1 , further comprising a linear drive assembly configured to move the vessel along an axis adjacent to the plurality of inkjet print head channels.

6. The DTS printer of claim 1 , wherein the rotary drive assembly is a fixed rotating assembly and further comprising a print head carriage assembly that moves along the axis of the vessel so as to print the image on the vessel.

7. The DTS printer of claim 6 , wherein the pinning lamp is configured and arranged to move with the print head carriage assembly to irradiate the vessel to sufficiently cure an image printed on the vessel.

8. The DTS printer of claim 1 , wherein the pinning lamp is configured to sufficiently cure the ink printed image on the vessel such that the printed image on the vessel can be coated with a varnish without affecting the printed image.

9. The DTS printer of claim 1 , wherein the pinning lamp is configured to fully cure the ink deposited on the surface of the vessel.

10. The DTS printer of claim 1 , wherein the final curing lamp is configured to be off until the vessel is moved away from the plurality of inkjet print head channels.

11. The DTS printer of claim 1 , further comprising a UV sensor that is located near the print head channels, that is configured to sense an amount of light exposure from the at least one pinning lamp, and that provides sensed amount of light information to a controller that is configured to control the amount of light output from the at least one pinning lamp to ensure that the level of emitted light from the at least one pinning lamp does not result in radiation levels high enough to cure ink in the print head channels.

12. The DTS printer of claim 1 , wherein the pinning lamp is positioned to emit light that is not perpendicular to the vessel and to the plurality of inkjet print head channels such that the light provided by the pinning lamp is reflected off the surface of the vessel away from the plurality of inkjet print head channels.

13. The DTS printer of claim 12 , wherein the pinning lamp is positioned to provide light to the surface of the vessel at an incident angle that is less than a critical angle corresponding to a material of the vessel.

14. The DTS printer of claim 12 , further comprising a light trap configured to absorb or dampen the light reflected off the surface of the vessel.

15. The DTS printer of claim 1 , wherein the pinning lamp is configured to provide the light having the first peak power density at a substantially constant level over an operational distance range.

16. The DTS printer of claim 15 , wherein the position of the pinning lamp is configured to be adjusted such that a maximum working distance between the pinning lamp and the surface of the vessel is within the operational distance range of the pinning lamp, and wherein the maximum working distance corresponds to the position of the pinning lamp and a shape of the vessel.