The present invention relates to concealment-type survivalist gear, and more particularly to a tiled and cloth-textured camouflage-pattern graphic design applied to various sheet materials like plastic films, adhesive tapes, clothing, tents, blankets, etc.
One object of camouflage is to be able to hide personnel and equipment behind cover from easy visual detection in the field by adversaries or prey. The basic method used is to match the colors and patterns on the camouflage to the immediate surrounds so that at a distance there are no sharp, recognizable silhouettes or outlines.
Warships and combat aircraft are routinely painted with desert, woodland, artic, blue sky, open sea, and other colors and patterns to help conceal such equipment out in the open.
Briefly, a woodland concealment sheet material embodiment of the present invention comprises a graphic design printed or painted as camouflage on an outer side of a sheet material like Mylar thermal blanket sheets and adhesive tapes. The graphic design is uniquely generated in four overlaying colors that each begin as a raster of randomly generated noise in a standardized tile size. Gray, green, tan, and brown colors natural for woodland concealment applications are each masked by two-tone image contrast rasters. The four results are mixed in groups together with a monochrome mixing mask to produce a whole tile of woodland concealment camouflage that will conjoin seamlessly within arrays of such tiles. A further refinement visually adds a swaying cloth texture to the woodland concealment camouflage, and even faint “watermarks” of commercial trademarks.
These and other objects and advantages of the present invention no doubt become obvious to those of ordinary skill in the art after having read the following detailed description of the preferred embodiments which are illustrated in the various drawing figures.
The patent or application file contains at least one drawing executed in color. Copies of this patent or patent application publication with color drawing(s) will be provided by the Office upon request and payment of the necessary fee.
Patterns 101 and 111 can be seen in much finer detail in
A first color pattern group 150 results from adding together 121, 131, 122, and 134. A monochrome mixing map 151 is added with a second color pattern group 152 that is the sum of 123, 137, 124, and 140. See
A swaying cloth texturing pattern 154 is added to four-color camouflage pattern 153 to further distort the repeatable patterns, as well as provide an appearance of cloth texture for printing on some Mylar blankets, duct tape, and other products. See
A further refinement visually adds a swaying cloth texture to the woodland concealment camouflage, and even faint “watermarks” of commercial trademarks plain to see or encrypted signatures and messages hidden in plain sight.
As a consequence of method 100, all the colors used cluster around shades of gray, green, brown, and drab green, olive drab, and army green, no two blobs seem to have exactly the same Cyan-Magenta-Yellow-Black (CMYK) color values. And so it could be said thousands of color shades are being used. And, because of the random noise generated rasters, no two blobs seem to have the same exact shapes, as all appear unique.
There are, however, general consistencies in blob sizes, about a dozen blob size groups. The cloth texturing occurs parallel wave lines and each virtual intersecting thread occurs at regular period longitudinal and lateral positions represented by consistently sized blobs that are a few shades darker than the larger blobs that they overlay.
The method 100 can be summarized in the following way and words as a method of making a woodland concealment sheet material. A first step generates a monochrome raster (101-104) of random noise for each of four colors (132, 135, 138, and 141) in a woodland camouflage color palette. A next step rotates and equally tiles each of the four random-noise monochrome rasters as four individual tiles (111-114). A further step adds to each of the four random-noise monochrome rasters (111-114) a corresponding two-tone contrast level (121-124) to the four individual tiles. A next step adds to each of the four random-noise monochrome rasters a corresponding green, grey, tan, and brown color according to its respective two-tone contrast level. A next step mixes together a pair of color pattern groups (150, 152) of the above according to a monochrome mixing map (151) to obtain a unique woodland camouflage pattern (153).
A further step prints a flexible sheet material (201, 302) with whole and partial tiles (304, 306) of the unique woodland camouflage pattern repeated as necessary to join seamlessly along each edge (308) with a neighboring tile.
An optional step adds to the unique woodland camouflage pattern (153) a visual cloth texturing raster (154), followed by printing of the combination (160).
A first plurality of overlapping and unsystematically positioned blobs, splotches, drops, spots, globules, and blotches are such that each constituent comprises a unique proportioned combination within any one rectangular shaped tile area of cyan-magenta-yellow-black color pigments in a limited range of cyan, a limited range of magenta, a limited range of yellow, and a limited range of black. These overlapping and unsystematically positioned blobs, splotches, drops, spots, globules, and blotches are such that each constituent comprises a unique shape within any one rectangular shaped tile area, and each constituent has an area size in the range of 1% to 10% of the area size of any one whole rectangular shaped tile area.
A similar flexible blanket-sized Mylar sheet material 302 was developed by NASA in 1964 for the US space program. That material was a thin sheet of polyethylene terephthalate (PET) plastic, and deposition coated with a metallized reflector, usually gold or silver in color, and that reflects up to 97% of radiated heat.
For use in space, polyimide substrate, e.g., KAPTON, UPILEX®, is preferred due to its resistance to the hostile space environment, large temperature range (cryogenic to −260° C. and for short excursions up to over 480° C.), low outgassing (making it suitable for vacuum use) and resistance to ultraviolet radiation. Aluminized kapton, with foil thickness of 50 and 125 μm, was used on the Apollo Lunar Module. The polyimide gives the foils their distinctive amber-gold color. Space blankets are made by vaporizing pure aluminum and vacuum depositing micron thick films onto very thin, durable plastic substrates.
The “printing” of pattern 160 (
The unique camouflage pattern 160 (
Duct tape 400 is similarly improved by unique camouflage pattern 160 (
Although the present invention has been described in terms of the presently preferred embodiments, it is to be understood that the disclosure is not to be interpreted as limiting. Various alterations and modifications no doubt become apparent to those skilled in the art after having read the above disclosure. Accordingly, it is intended that the appended claims be interpreted as covering all alterations and modifications as fall within the “true” spirit and scope of the invention.