Photographic printmaking method

Information

  • Patent Grant
  • 6740458
  • Patent Number
    6,740,458
  • Date Filed
    Monday, August 12, 2002
    21 years ago
  • Date Issued
    Tuesday, May 25, 2004
    20 years ago
  • Inventors
  • Examiners
    • McPherson; John A.
    Agents
    • Mayer, Brown, Rowe & Maw LLP
Abstract
A printmaking process that utilizes phosphorescent transfer plates as the method for producing prints is disclosed. Specifically, this invention uses an engraved plate, which is coated with viscous phosphorescent paint. Once the paint on the plate is dry, the plate is exposed to light, causing the paint to become light-emitting. The plate is then placed in contact with photo-sensitive emulsion. After the proper exposure time, the photo-sensitive emulsion is developed, thereby producing a print. This invention can generate a wide array of prints. For example, black and white prints can be created under this invention. Further, prints containing a variation of tones between black and white and/or prints containing texture can be manufactured under this invention. Finally, color prints can be produced under this invention.
Description




FIELD OF INVENTION




This invention relates to a method of printmaking, and more specifically a method of printmaking that utilizes an engraved plate, which is then coated with viscous phosphorescent paint and placed in contact with a photo-sensitive emulsion, thereby producing a print.




BACKGROUND OF INVENTION




A print is a form of art composed of ink on paper. A print is created not by drawing directly on paper, but rather through an indirect transfer process. The artist begins by creating an image on another surface. After the image is formed, the artist covers that surface with ink. A sheet of paper is then placed in contact with the inked surface and run through a printing press. Due to the pressure exerted by the press, the image is transferred from the surface to the paper, producing a print.




Various printmaking techniques have evolved throughout the years. The three best known techniques are (1) relief printing, (2) intaglio printing, and (3) lithographic printing. While all three techniques produce prints, the way the prints are produced by each technique is unique. Therefore, each technique necessitates a separate discussion.




Relief printing is the oldest, most direct method of printing. In this technique, the artist starts with a block of wood, or other smooth, flat surface. Next, the artist cuts away the entire flat surface, except for the image itself. The raised portion of the surface, which is the image, is then rolled with ink. After the image is inked, a sheet of paper is placed on top of the block and either placed in a press or hand-burnished. The paper is then lifted away from the block and the image appears, in reverse, on the paper.




Contrary to relief printing, in intaglio printing (e.g., etching and engraving) the image is formed below the surface of the plate. The image is hand-cut or acid-etched into a flat, metal plate by the artist. Once the image is complete, the artist spreads inks over the plate. Next, the artist removes the ink from the surface of the plate, leaving only the ink that remains in the incised design. The plate is then placed face-up on an etching press. A sheet of dampened paper is laid on top of the plate, padded with felt blankets, and run through the press. Pressure forces the paper into the etched lines of the image, which consequently produces the image, in reverse, on the paper.




Conversely to both relief printing and intaglio printing, lithographic printing relies on the simple principle of the incompatibility of oil and water. In lithographic printing, an artist creates an image by using oil-based materials on a flat surface while keeping the areas not to be printed wet with water. Next, the artist deposits oil-based ink onto a stone that adheres only to the image. The inked stone is then covered with paper and placed on a lithographic press. The pressure from the press creates the image, in reverse, on the paper.




While relief, intaglio, and lithographic printing are the most popular techniques, all printmaking techniques have been a popular medium in the art world for centuries. Printmaking is a popular medium because it allows an artist to create multiple, almost identical impressions of the same block or plate. Unfortunately, there are a few common characteristics between the different printmaking techniques that currently restrict students, who are constrained by resources, and printmakers from fully exploring and developing the art of printmaking.




First, the current methods of printmaking require a great deal of time. For example, a plate must be re-inked after a print is produced. Also, one press must often be shared by many students and printmakers; and if there is no press, students and printmakers must spend their lime hand-burnishing their prints. Thus, replacing a plate's ink, waiting to use the press, and hand-burnishing a print all consume a great deal of a time—time that could be better spent learning new aspects of printmaking.




Second, the current methods of printmaking require a large volume of expensive printing equipment. For instance, a printing press and lithography chemicals are needed to attain high quality and quantity prints. This requirement restricts both students and printmakers who cannot obtain a printing press and/or lithography chemicals. Moreover, even if the proper equipment can be obtained, the edges of a plate gradually round and collapse due to the high pressure of the press. This rounding and collapsing of the plate lessens the quality of the print over time. Therefore, the constraints posed by the necessary printing equipment greatly restrict both students and printmakers.




Third, even if the proper printing equipment can be obtained, and regularly replaced, the equipment has limitations. For example, tonal variations in prints cannot be obtained in woodcuts. Consequently, students and printmakers must move to metal etchings and lithography, which use a vast number of chemicals and still require an ink application after every print.




Thus, there is a need for an efficient printmaking process so that students and printmakers are not forced to expend their time re-inking a plate, waiting for a press, or hand-burnishing a print. There is a further need for a printmaking method that does not require a high quantity of quality printmaking equipment. Finally, there is a need for a printmaking method that allows students and printmakers to achieve tonal variations in their prints.




SUMMARY OF THE INVENTION




These needs and others may be met by the present invention which has an aspect which is a printmaking method comprised of four main steps. The first step of the method requires that a plate be provided in which one surface of the plate contains cavities that form an image. These cavities can be formed by engraving, etching, or carving into the surface of the plate. The second step of the method requires that a coating of viscous phosphorescent paint be applied over the surface of the plate. The third step of the method requires that the plate be exposed to light and placed in contact with a photo-sensitive emulsion, such as photographic paper or liquid-photographic emulsion. The final step of the method requires that the photo-sensitive emulsion be developed, thereby producing the finished print.




Another aspect of the present invention is a print comprised of a developed photo-sensitive emulsion, which has been exposed to a plate containing an image coated with light-emitting viscous phosphorescent paint. The print can be a black and white print, a black and white print containing tonal variations and/or texture, a monochromatic print, or a color print.




It is to be understood that both the foregoing general description and the following detailed description are not limiting but are intended to provide further explanation of the invention claimed. The accompanying drawings, which are incorporated in and constitute part of this specification, arc included to illustrate and provide a further understanding of the method and system of the invention. Together with the description, the drawings serve to explain the principles of the invention.











BRIEF DESCRIPTION OF DRAWINGS




These and further aspects and advantages of the invention will be discussed more in detail hereinafter with reference to the disclosure of preferred embodiments, and in particular with reference to the appended Figures wherein:





FIG. 1

is a top plan view of an etched plate;





FIG. 2A

is a top plan view of an etched plate in which the cavities have been filled, according to the present invention, with viscous phosphorescent paint;





FIG. 2B

is a top plan view of the print produced by the plate shown in

FIG. 2A

;





FIG. 3A

is a top plan view of an etched plate in which the cavities have been filled and the plate's surface painted, according to the present invention, with viscous phosphorescent paint;





FIG. 3B

is a top plan view of the print produced by the plate shown in

FIG. 3A

;





FIG. 4A

is a top plan view of an etched plate in which two different types of cavities have been filled and the plate's surface painted, according to the present invention, with viscous phosphorescent paint;





FIG. 4B

is a top plan view of the print produced by the plate shown in

FIG. 4A

;





FIG. 5A

is a top plan view of an etched plate in which the surface of the plate has been painted with colored acetate, and the cavities have been filled with viscous phosphorescent paint, according to the present invention;





FIG. 5B

is a top plan view of the print produced by the plate shown in

FIG. 5A

;





FIG. 6A

is a cross-sectional view of the plate as shown in

FIG. 4A

taken through line


6


-


6


′ before the application of viscous phosphorescent paint;





FIG. 6B

is a cross-sectional view of the plate as shown in

FIG. 4A

taken through line


6


-


6


′ after the application of viscous phosphorescent paint;





FIG. 7A

is schematic cross-sectional view of a plate containing three cavities that vary in depth and width;





FIG. 7B

is a top plan view of the print produced by the plate shown in

FIG. 7A

; and





FIG. 8

schematic top view of a hinged device that can be used when making prints according to the present invention.











DESCRIPTION OF THE PREFERRED EMBODIMENT




While the present invention is capable of embodiment in various forms, there is shown in the drawings and will hereinafter be described a presently preferred embodiment with the understanding that the present disclosure is to be considered as an exemplification of the invention, and is not intended to limit the invention to the specific embodiment illustrated.





FIG. 1

shows an example of a wood, metal, stone, or a light, permanently transparent, water-resistant, thermoplastic plate


20


used in conjunction with the present invention. Although the plate


20


may be made of wood, metal, stone, or a light, permanently transparent, water-resistant, thermoplastic, it is preferably made of wood. The plate


20


has a vertical side


10


and a horizontal side


12


. The plate also has a plate surface


14


which is generally flat. However, the plate can be etched, engraved, or carved in order to produce cavities


16


in the plate's surface


14


. In

FIG. 1

, the cavities


16


in the plate


20


form the image of a balloon


18


.





FIG. 2A

shows the plate


20


described in

FIG. 1

after the uniform application of viscous phosphorescent paint


22


over the plate's surface


14


. The viscous phosphorescent paint


22


can be applied with a squeegee, paint brush, putty knife, or any other tool that can force the viscous phosphorescent paint


22


into the plate's cavities


16


. All the viscous phosphorescent paint


22


is removed from the plate's surface


14


after application. The viscous phosphorescent paint


22


contained in the plate's cavities


16


is then allowed to dry, and once dried, the paint


22


becomes part of the plate


20


. Any viscous phosphorescent paint


22


that remains on the plate's surface


14


is sanded off.




Traditional black and white photo-emulsion surface chemicals: paper developer, stop bath, and fixer, are prepared in a light-proof room under a safelight. The developer is prepared by combining sodium sulfite (CAS#7757-83-7), sodium carbonate (CAS#497-19-8), hydroquinone (CAS#123-31-9), and water. The stop bath is prepared by combining acetic acid and water. The fixer is prepared by combining sodium thiosulfate (7772-98-7), ammonium alum (7784-25-0), sodium metabisulfate (7681-57-4), sodium acetate (127-09-3), boric anhydride (1303-86-2), and water. All of the photo-emulsion surface chemicals are combined in ratios that are specified by traditional black and white developing instructions. However, other chemicals may be used.




Once the traditional black and white photo-emulsion surface chemicals are prepared, the plate


20


is exposed to a light bulb for thirty seconds. Exposing the plate


20


to light causes the viscous phosphorescent paint layer


22


to become light-emitting. To ensure a light-proof environment, the light-emitting plate


20


is removed or shielded from the workspace.




A photo-sensitive emulsion


90


, such as photographic paper, or liquid photographic emulsion, is then placed face-up on the workspace. If the photo-sensitive emulsion


90


is flexible, the emulsion is placed on a soft and pliable surface; and if the photo-sensitive emulsion


90


is not flexible, the emulsion is placed on a hard, flat surface. As quickly as possible, the light-emitting plate


20


is placed face-down onto the photosensitive emulsion


90


for fifteen to thirty seconds.




The photo-sensitive emulsion


90


could also be placed face-up on the bottom component


92


of a hinged device


88


as shown in FIG.


8


. The photo-sensitive emulsion


90


is then covered with an opaque substance while the light-emitting plate


20


is placed on the top component


94


of the hinged device


88


. Once both the light-emitting plate


20


and the photo-sensitive emulsion


90


are in place, the opaque substance is removed, and the hinged device


88


is closed. The device


88


is closed for fifteen to thirty seconds, depending on the appropriate exposure time.




The exposure time depends on two factors: the whiteness of the photo-sensitive emulsion


90


and the age of the viscous phosphorescent paint. The whiteness of the photo-sensitive emulsion


90


affects the exposure time because light emitted from the plate


20


can be reflected by the photo-sensitive emulsion


90


back onto the plate


20


, causing the phosphorescent particles of the paint to recharge. If the phosphorescent particles of the paint are recharged, the exposure time will be altered. The age of the viscous phosphorescent paint


22


also affects the exposure time because as the paint ages its light-emitting strength diminishes. Therefore, testing is done intermittently to determine the proper exposure time.




After the photo-sensitive emulsion


90


is properly exposed to the light-emitting plate


20


, the emulsion is developed using the traditional black and white photo-developing instructions. First, the photo-sensitive emulsion


90


is placed in the developer. The developing time for the photo-sensitive emulsion


90


is dependent upon the thickness of the emulsion; more developing time is allotted for thicker emulsions. Second, the photo-sensitive emulsion


90


is placed in the stop bath for thirty seconds. Third, the photo-sensitive emulsion


90


is placed in the fixer. The fixing time for the photo-sensitive emulsion


90


is dependent upon the thickness of the emulsion; more fixing time is allotted for thicker emulsions. Finally, the photo-sensitive emulsion


90


is washed with water and allowed to dry. Once the photo-developing process is complete, the emulsion is no longer light-sensitive.





FIG. 2B

shows a print


24


created by the plate


20


shown in FIG.


2


A. The print


24


contains a mirror image


26


of the balloon image


18


shown in FIG.


2


A. The viscous phosphorescent paint


22


in the plate's cavities


16


(see

FIG. 2A

) forms the black lines


30


of the print


24


found in

FIG. 2B

; while the plate's surface


14


, which contained no viscous phosphorescent paint


22


(see

FIG. 2A

) creates the white background


28


of the print


24


as shown in FIG.


2


B.




Moreover, the area of the plate


20


and the area of the print


24


are identical. The vertical side of the plate


10


(see

FIG. 2A

) is the same as the vertical side of the print


32


(see FIG.


2


B). Likewise, the horizontal side of the plate


12


(see

FIG. 2A

) is the same as the horizontal side of the print


34


(see FIG.


2


B).




The print


24


is purely black and white as the carved sections


16


of the plate


20


(see

FIG. 1

) filled with viscous phosphorescent paint


22


will always create black sections


30


in the print


24


(see FIG.


2


B). Similarly, a surface without any viscous phosphorescent paint on it will always produce white sections


28


in the print


24


. Thus, the plate


20


with phosphorescent paint placed in contact with photo-sensitive emulsion repeatedly reproduces identical black and white prints.




However, because the prints are composed of photographic substances, such as photographic paper, or liquid photographic emulsion, the tone of the finished print can be altered. For example, the prints can be sepia-toned, or tinted with a monochromatic dye.




Additionally, a variation of tones between black and white can be achieved using the plate


20


by leaving a thin layer of viscous phosphorescent paint


22


on the plate's surface


14


. This thin layer of viscous phosphorescent paint


36


on the plate's surface will yield a gray or mid-tone area


46


in the print


40


(see FIG.


3


B). For example,

FIG. 3A

shows the plate


20


in

FIG. 2A

, with a thin layer of viscous phosphorescent paint


36


remaining on the plate's surface


14


of the image


18


. Alternatively, if no viscous phosphorescent paint remains on the plate's surface


14


, the paint can be re-applied to the plate's surface


14


of the image


18


with a paintbrush, sponge, roller, or rag.




As explained above, once the viscous phosphorescent paint


22


&


36


is dry, the plate


20


is exposed to a light bulb causing the viscous phosphorescent paint layers


22


&


36


to become light-emitting. When the light-emitting plate


20


is placed in contact with the photo-sensitive emulsion


90


, the image on the plate


20


transfers to the photo-sensitive emulsion


90


. The photo-sensitive emulsion


90


is then developed and becomes a print; such as the print


40


shown in FIG.


3


B.




The print


40


shown in

FIG. 3B

contains a mirror image


38


of the balloon


18


found in FIG.


3


A. The viscous phosphorescent paint


22


found in the plate's cavities


16


(see

FIG. 3A

) forms the black lines


44


of the print


40


found in FIG.


3


B. Moreover, the surface surrounding the image


18


, which contains no viscous phosphorescent paint (see FIG.


3


A), creates the white background


42


of the print


40


in FIG.


3


B. Finally, the viscous phosphorescent paint found on the image's surface


36


(see

FIG. 3A

) produces a gray tone


46


of the print in FIG.


3


B.




In addition, the area of the plate


20


and the area of the print


40


are identical. The vertical side


10


of the plate


20


(see

FIG. 3A

) is the same as the vertical side


48


of the print


40


(see FIG.


3


B). Likewise, the horizontal side


12


of the plate


20


(see

FIG. 3A

) is the same as the horizontal side


50


of the print


40


(see FIG.


3


B). Accordingly, the present invention will repeatedly produce identical black and white prints with tonal variations.




Furthermore, an image's distinctive details, physical composition, and structure (“texture”) can be expressed when producing a print


54


under the current invention. Texture can be achieved in a print because the artist is able to etch, engrave, or carve fine cavities into the plate's surface.





FIG. 4A

shows the plate


20


described in

FIG. 3A

, however, the image of clouds is added to the plate


20


. The texture of the clouds is also added to the plate by lightly engraving, etching, or carving into the plate


20


and then filling those cavities with viscous phosphorescent paint


52


. Alternatively, texture could be formed by applying viscous phosphorescent paint to the plate's surface


14


, allowing the paint to dry, and then sanding the paint to different thicknesses.




As explained above, once the viscous phosphorescent paint


22


,


36


, &


52


is dry, the plate


20


is exposed to a light bulb causing the viscous phosphorescent paint layers


22


,


36


, &


52


to become light-emitting. When the light-emitting plate


20


is placed in contact with a photo-sensitive emulsion


90


, the image on the plate


20


transfers to the photo-sensitive emulsion


90


. The photo-sensitive emulsion


90


is then developed and becomes a print such as the print


54


as shown in FIG.


4


B.




The print


54


shown in

FIG. 4B

contains a mirror image


63


of the balloon


18


found in FIG.


4


A. The viscous phosphorescent paint


22


found in the plate's cavities


16


(see

FIG. 4A

) forms the black lines


58


of the print


54


found in FIG.


4


B. Moreover, the plate's surface


14


surrounding the image


18


, which contains no viscous phosphorescent paint


22


,


36


, &


52


(see

FIG. 4A

) creates the white background


56


of the print


54


as shown in FIG.


4


B. Furthermore, the viscous phosphorescent paint found on the image's surface


36


(see

FIG. 4A

) produces the gray tone


60


of the print as shown in FIG.


4


B. Finally, the viscous phosphorescent paint contained in the thinly etched lines


52


(see

FIG. 4A

) provides the texture


62


of the print


54


as shown in FIG.


4


B.




Additionally, the area of the plate


20


and the area of the print


54


are identical. The vertical side


10


of the plate


20


(see

FIG. 4A

) is the same as the vertical side


64


of the print


54


(see FIG.


4


B). Likewise, the horizontal side


12


of the plate


20


(see

FIG. 4A

) is the same as the horizontal side


66


of the print


54


as shown in FIG.


4


B. Accordingly, the present invention will repeatedly produce identical black and white prints, with tonal variations, and a textured surface.




Furthermore, color prints can be achieved when producing a print


72


, as shown in

FIG. 5B

, under the current invention by applying a thin layer of colored acetate


68


&


70


to a light, permanently transparent, water-resistant, thermoplastic plate


20


. However, the colored acetate acts likes a colored photographic negative which produces not a true color representation, but the complement color in the positive image. Therefore, the colored acetate applied to the plate produces its complimentary color in the print. For example, if red acetate is applied to an image on the plate, the red acetate will produce its complementary color, green, in the print. Hence, the color of the image in the print will be green.





FIG. 5A

represents a plate


20


which contains colored acetate


68


&


70


. Specifically,

FIG. 5A

shows the plate


20


described in

FIG. 2A

, however, two thin layers of colored acetate


68


&


70


are glued or painted onto the plate's surface. The violet acetate


68


is added to the balloon


18


, and the orange acetate


70


is added to the background of the balloon


14


.




As explained above, once the viscous phosphorescent paint


22


and the colored acetate


68


&


70


are dry, the plate


20


is exposed to light causing the viscous phosphorescent paint layer


22


to become light-emitting. When the light-emitting plate


20


is placed in contact with the photo-sensitive emulsion


90


, the image on the plate


20


transfers to the photo-sensitive emulsion


90


. Furthermore, the colored acetate layers


68


&


70


transfer their complimentary colors on the photo-sensitive emulsion


90


. Therefore, the violet acetate


68


becomes the color yellow on the photo-sensitive emulsion


90


, and the orange acetate


70


becomes the color blue on the photo-sensitive emulsion


90


. The photo-sensitive emulsion


90


is then developed according to traditional color photo-developing instructions and produces a print such as the print


72


as shown in FIG.


5


B.





FIG. 5B

shows a resulting print


72


that is created by the plate


20


shown in FIG.


5


A. The print


72


contains a mirror image


71


of the balloon


18


found in FIG.


5


A. The viscous phosphorescent paint


22


found in the plate's cavities


16


(see

FIG. 5A

) forms the black lines


76


of the print


72


found in FIG.


5


B. Moreover, the violet acetate


68


found on the balloon's surface


68


(see

FIG. 5A

) produces the yellow balloon image


78


in the print


72


as shown in FIG.


5


B. Finally, the plate's surface


14


surrounding the image


18


, which contained the orange acetate


70


, (see

FIG. 5A

) creates the blue background


74


of the print


72


, as shown in FIG.


5


B.




In addition, the area of the plate


20


and the area of the print


72


are identical. The vertical side


10


of the plate


20


(see

FIG. 5A

) is the same as the vertical side


80


of the print


72


, (see FIG.


5


B). Likewise, the horizontal side


12


of the plate


20


(see

FIG. 5A

) equals the horizontal side


82


of the print


72


(see FIG.


5


B). Accordingly, the present invention can produce and reproduce identical, color prints.





FIG. 6A

represents a cross-sectional view of the plate


20


shown in

FIG. 4A

, taken through line


6


-


6


′, before the application of viscous phosphorescent paint


22


,


36


, &


52


.

FIG. 6A

shows that the depth of the plate's cavities


16


preferably will not exceed 0.2500 inches. Moreover,

FIG. 6A

illustrates the difference between a cavity


16


that produces a bold black line and a cavity


16


that produces a thin, textured line.





FIG. 6B

represents a cross-sectional view of the plate


20


as shown in

FIG. 4A

, taken through line


6


-


6


′, after the application of viscous phosphorescent paint


22


,


36


, &


52


.

FIG. 6B

shows how the viscous phosphorescent paint


22


&


52


fills the plate's cavities


16


and becomes part of the plate


20


. Furthermore,

FIG. 6B

illustrates that the viscous phosphorescent paint layer


36


on the plate's surface


14


preferably will not exceed more then 0.0625 inches.





FIG. 7A

is a schematic cross-sectional view of a plate


83


which shows that the depth and width of a plate's cavities


16


can vary.





FIG. 7B

represents the print


85


produced by FIG.


7


A. Furthermore,

FIG. 7B

shows that there is a direct correlation between the volume of the cavity


84


, and the thickness of the black line


86


that cavity produces. In essence, the greater the volume of the cavity


84


, the thicker the black line


86


that cavity produces on the print


85


.




As previously mentioned,

FIG. 8

shows that a hinged device


88


can be used when making prints according to the present invention. The hinged device


88


ensures that the light-emitting plate


20


is not prematurely exposed to the photo-sensitive emulsion


90


. Consequently, the hinged device


88


guarantees that blurring of the print does not occur.




It will be apparent to those skilled in the art that various modifications and variations can be made in the method and system of the present invention without departing from the spirit or scope of the invention. For example, publishers or free-lance artists may use the concepts of this invention and create books formed from double-sided prints. Thus, the present invention is not limited by the foregoing descriptions but is intended to cover all modifications and variations that come within the scope of the spirit of the invention and the claims that follow.



Claims
  • 1. A method of printmaking comprising:providing a plate having a surface including cavities forming an image; applying a coating of viscous phosphorescent paint over said surface of said plate; adding layers of phosphorescent paint to said surface; exposing said plate to light; placing said plate in contact with a photo-sensitive emulsion; and developing said photo-sensitive emulsion, producing a finished print.
  • 2. A method of printmaking according to claim 1, wherein said plate is wood.
  • 3. A method of printmaking according to claim 1, wherein said plate is metal.
  • 4. A method of printmaking according to claim 1, wherein said plate is stone.
  • 5. A method of printmaking according to claim 1, wherein said plate is transparent, water-resistant thermoplastic.
  • 6. A method of printmaking according to claim 1, further comprising etching said cavities into said plate's surface.
  • 7. A method of printmaking according to claim 1, further comprising engraving said cavities into said plate's surface.
  • 8. A method of printmaking according to claim 1, further comprising carving said cavities into said plate's surface.
  • 9. A method of printmaking according to claim 1, wherein said photo-sensitive emulsion is photographic paper.
  • 10. A method of printmaking according to claim 1, wherein said photo-sensitive emulsion is liquid-photographic emulsion.
  • 11. A method of printmaking according to claim 1, further comprising painting liquid colored acetate onto said plate's surface.
  • 12. A method of printmaking according to claim 1, further comprising gluing solid colored acetate onto said plate's surface.
  • 13. A print, comprising:a developed photo-sensitive emulsion which has been exposed to a plate containing an image formed by applying layers of light-emitting viscous phosphorescent paint to said plate's surface.
  • 14. A print according to claim 13, wherein said print is a black and white print.
  • 15. A print according to claim 14, wherein said print contains tonal variations.
  • 16. A print according to claim 14, wherein said print contains tonal variations and texture.
  • 17. A print according to claim 13, wherein said print is a monochromatic print.
  • 18. A print according to claim 13, wherein said print is a color print.
  • 19. A print according to claim 13, wherein said photo-sensitive emulsion is photographic paper.
  • 20. A print according to claim 13, wherein said photo-sensitive emulsion is liquid-photographic emulsion.
  • 21. A method of printmaking comprising:providing a plate having a surface including cavities forming an image; applying a coating of viscous phosphorescent paint over said surface of said plate; removing layers of phosphorescent paint from said surface; exposing said plate to light; placing said plate in contact with a photo-sensitive emulsion; and developing said photo-sensitive emulsion, producing a finished print.
  • 22. A method of printmaking comprising:providing a plate having a surface including cavities forming an image; applying a coating of viscous phosphorescent paint over said surface of said plate; painting liquid colored acetate onto said plate's surface; exposing said plate to light; placing said plate in contact with a photo-sensitive emulsion; and developing said photo-sensitive emulsion, producing a finished print.
  • 23. A method of printmaking according to claim 22, further comprising adding layers of phosphorescent paint to said surface.
  • 24. A method of printmaking according to claim 22, further comprising removing layers of phosphorescent paint from said surface.
  • 25. A method of printmaking comprising:providing a plate having a surface including cavities forming an image; applying a coating of viscous phosphorescent paint over said surface of said plate; gluing solid colored acetate onto said plate's surface; exposing said plate to light; placing said plate in contact with a photo-sensitive emulsion; and developing said photo-sensitive emulsion, producing a finished print.
  • 26. A method of printmaking according to claim 25, further comprising adding layers of phosphorescent paint to said surface.
  • 27. A method of printmaking according to claim 25, further comprising removing layers of phosphorescent paint from said surface.
US Referenced Citations (15)
Number Name Date Kind
2303942 Lane et al. Dec 1942 A
2321046 Rudnick Jun 1943 A
2327826 Sherwood Aug 1943 A
3959800 Friedel May 1976 A
4440840 Yamaguchi Apr 1984 A
4745286 Jones May 1988 A
4879097 Whitehead et al. Nov 1989 A
5902670 Ripstein May 1999 A
6008269 Kitagawa et al. Dec 1999 A
6057639 May et al. May 2000 A
6207077 Burnell-Jones Mar 2001 B1
6233857 Wyckoff et al. May 2001 B1
6240664 Hjaltason Jun 2001 B1
6335522 Shimada et al. Jan 2002 B1
6344364 Gilton Feb 2002 B1