Figure (13)
Figure (13)
How it is written
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Drawings 3
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Page 173 · Light Guide Lens #4,275,950 - Illustrations
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Page 172 · Light Guide Lens #4,275,950 - Illustrations
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Where it is named · 21
Light Guide Lens #4,275,950 - Illustrations 21×
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FIG. 13 Illustrates diagrammatically a side view cross-section of a transparent solid material light-guide stem structure combined with its geometrical straight design configuration principle.
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The transmission angle of the projected light rays 4a xxx n is strictly determined by the degree of angular displacement of the light-guide stem 144 from horizontal line 153 of FIG. 13 to verticat line 151 of FIG. …
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… FIG. 13 illustrates a linear light-guide stem 144V configuration; FIG. …
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The light-guide stem configuration 144V, 144W, 144X, 144Y and 144Z varies in its adaptability to the particular intended use within a given light-guide lens embodiment. Most generally, light-guide stem 144V of FIG. 13 can be used with feed lens 40A of FIG. 277,
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… To exceed the critical angle of reflection 152 (as illustrated in FIG. 13 through FIG. …
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Beyond the light-lost factor, the criticai angle of reflection 152 can, now, be used to increase the directivity of incident light radiation from that of linear to angular displacement of light transmission. FIG. 13, FIG. 14, FIG. 15, FIG. 16 and FIG. 17, illustrates different critical angle of reflection geometrical design configuration for solid 144 and/or tubular 146 lightguide stems.
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FIG. 13 illustrates critical angle of reflection geometrical design configuration 144V for linear or straight light-guide stems. …
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FIG. 13 illustrates critical angle of reflection geometrical design configuration 144V for linear or straight light-guide stems. Diagonal line 154V of FIG. 13 cuts parallel sides of light-guide stem at an angle equal to the critical angle of reflection 152V of FIG. …
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… 13 cuts parallel sides of light-guide stem at an angle equal to the critical angle of reflection 152V of FIG. 13 from intersect points 153Va-151V to intersect point 153Vb-154V of FIG. …
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… 13 from intersect points 153Va-151V to intersect point 153Vb-154V of FIG. 13. …
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… The minimum linear length of light-guide stem is, now, formed from intersect point 151V-153V5 to intersect point 154V-153V46 of FIG. 13. Line 155V of FIG. 13 starts at intersect point 154V-153V5 at an angle
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… Line 155V of FIG. 13 starts at intersect point 154V-153V5 at an angle
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equal to the critical angle of reflection and extends to line 151Va of FIG. 13. Line segment 153Vé of FIG. 13 at intersect point 184V-153Vd to intersect point 151Va-153V6 of FIG. 13 is used both for ambient tem-
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equal to the critical angle of reflection and extends to line 151Va of FIG. 13. Line segment 153Vé of FIG. 13 at intersect point 184V-153Vd to intersect point 151Va-153V6 of FIG. 13 is used both for ambient tem-
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equal to the critical angle of reflection and extends to line 151Va of FIG. 13. Line segment 153Vé of FIG. 13 at intersect point 184V-153Vd to intersect point 151Va-153V6 of FIG. 13 is used both for ambient tem-
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material due to temperature changes) and for light dispersion control of linear light transmission. Diagonal line 154Va of FIG. 13 cuts parallel side (opposite from line 154V) at an angle equal to angle 184V from intersect point 151V-183V+ to intersect point 153Va-154Va of FIG. …
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… 13 cuts parallel side (opposite from line 154V) at an angle equal to angle 184V from intersect point 151V-183V+ to intersect point 153Va-154Va of FIG. 13 to form width (or diameter) of light-guide stem 144V. …
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… Front interface surface 151V of FIG. 13 is perpendicular to 153Vé of FIG. 13. Rear emitting surface 151Va is also perpendicular to the same line 153Vb
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… 13 is perpendicular to 153Vé of FIG. 13. Rear emitting surface 151Va is also perpendicular to the same line 153Vb
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… 14 can vary in length to allow for ambient temperature compensation-like that of FIG. 13. …
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Unlike FIG. 13 through FIG. …
