Camouflage patterns on a substrate such as a fabric comprise in a first aspect a substrate having a camouflage pattern with a set of intermixed colored blotches thereon, the colors of the set of intermixed colored blotches being selected from a group of colors comprising an Olive 527 color, a Dark Green 528 color, a Tan 525 color, a Brown 529 color, a Bark Brown 561 color and a Dark Cream 559 color. In another aspect the colors of the set of intermixed colored blotches being selected from a group of colors comprising an Olive 527 color, a Dark Green 528 color, a Light Sage 560 color, a Tan 525 color, a Brown 529 color, a Bark Brown 561 color and a Dark Cream 559 color.

Camouflage patterns on a substrate such as a fabric comprise in a first aspect a substrate having a camouflage pattern with a set of intermixed colored blotches thereon, the colors of the set of intermixed colored blotches being selected from a group of colors comprising an Olive 527 color, a Dark Green 528 color, a Tan 525 color, a Brown 529 color, a Bark Brown 561 color and a Dark Cream 559 color. In another aspect the colors of the set of intermixed colored blotches being selected from a group of colors comprising an Olive 527 color, a Dark Green 528 color, a Light Sage 560 color, a Tan 525 color, a Brown 529 color, a Bark Brown 561 color and a Dark Cream 559 color.

This disclosure provides systems, methods, and devices related to a metasurface skin cloak. In one aspect, a metasurface skin cloak includes a dielectric layer and a plurality of blocks disposed on the dielectric layer. The dielectric layer is disposed over a surface including a feature on the surface. Each block of the plurality of blocks has a shape that is symmetric about two perpendicular axes. The metasurface skin can render the feature on the surface not optically detectable.

Systems according to the present disclosure provide one or more surfaces that function as heat or power radiating surfaces for which at least a portion of the radiating surface includes or is composed of fractal cells placed sufficiently closed close together to one another so that a surface (plasmonic) wave causes near replication of current present in one fractal cell in an adjacent fractal cell. A fractal of such a fractal cell can be of any suitable fractal shape and may have two or more iterations. The fractal cells may lie on a flat or curved sheet or layer and be composed in layers for wide bandwidth or multibandwidth transmission. The area of a surface and its number of fractals determines the gain relative to a single fractal cell. The boundary edges of the surface may be terminated resistively so as to not degrade the cell performance at the edges.

Systems according to the present disclosure provide one or more surfaces that function as heat or power radiating surfaces for which at least a portion of the radiating surface includes or is composed of fractal cells placed sufficiently closed close together to one another so that a surface (plasmonic) wave causes near replication of current present in one fractal cell in an adjacent fractal cell. A fractal of such a fractal cell can be of any suitable fractal shape and may have two or more iterations. The fractal cells may lie on a flat or curved sheet or layer and be composed in layers for wide bandwidth or multibandwidth transmission. The area of a surface and its number of fractals determines the gain relative to a single fractal cell. The boundary edges of the surface may be terminated resistively so as to not degrade the cell performance at the edges.

A camouflage pattern is provided that appears to have infinite focus and depth of field even at 100 percent size for the elements in the camouflage pattern. Generally, three-dimensional (3D) models of elements to be used in the camouflage pattern are captured or generated. The models are then arranged in a scene with a background (e.g., an infinite background) via 3D graphics editing programs such as is used to render computer generated graphics in video games and movies. A two-dimensional (2D) capture of the scene thus shows all visible surfaces of the elements in the scene in focus at all depths of field. The elements may or may not be shaded by one another from the perspective of the image capture location in the 3D environment.

A camouflage pattern is provided that appears to have infinite focus and depth of field even at 100 percent size for the elements in the camouflage pattern. Generally, three-dimensional (3D) models of elements to be used in the camouflage pattern are captured or generated. The models are then arranged in a scene with a background (e.g., an infinite background) via 3D graphics editing programs such as is used to render computer generated graphics in video games and movies. A two-dimensional (2D) capture of the scene thus shows all visible surfaces of the elements in the scene in focus at all depths of field. The elements may or may not be shaded by one another from the perspective of the image capture location in the 3D environment.

A portable hunting blind for a bow includes a bow attachment bracket, a stabilizer track, a blind attachment bracket, a camouflage blind, and a fastener assembly. The camouflage blind protects and hides a hunter form an animal. The camouflage blind includes a rod and a foldable panel as the foldable panel is terminally attached to the rod and the rod is terminally connected to the blind attachment bracket. The blind attachment bracket and the stabilizer track are positioned in between the camouflage panel and the bow attachment bracket that secures the portable hunting blind to a hunting bow. The bow attachment bracket is slidable mounted to the blind attachment bracket through the stabilizer track and the fastener assembly thus deploying the portable hunting blind in front of the hunter and the bow.

Systems according to the present disclosure provide one or more surfaces that function as power radiating surfaces for which at least a portion of the radiating surface includes or is composed of fractal cells placed sufficiently closed close together to one another so that a surface wave causes near replication of current present in one fractal cell in an adjacent fractal cell. The fractal cells may lie on a flat or curved sheet or layer and be composed in layers for wide bandwidth or multibandwidth transmission. The area of a surface and its number of fractals determines the gain relative to a single fractal cell. The boundary edges of the surface may be terminated resistively so as to not degrade the cell performance at the edges. The fractal plasmonic surfaces can be utilized to facilitate electrical conduction with lower ohmic resistance than would otherwise be possible in the absence of the fractal plasmonic surface(s) at the same temperature.

Systems according to the present disclosure provide one or more surfaces that function as power radiating surfaces for which at least a portion of the radiating surface includes or is composed of fractal cells placed sufficiently closed close together to one another so that a surface wave causes near replication of current present in one fractal cell in an adjacent fractal cell. The fractal cells may lie on a flat or curved sheet or layer and be composed in layers for wide bandwidth or multibandwidth transmission. The area of a surface and its number of fractals determines the gain relative to a single fractal cell. The boundary edges of the surface may be terminated resistively so as to not degrade the cell performance at the edges. The fractal plasmonic surfaces can be utilized to facilitate electrical conduction with lower ohmic resistance than would otherwise be possible in the absence of the fractal plasmonic surface(s) at the same temperature.