Post by Pincho Paxton on Sept 17, 2014 8:01:58 GMT
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Making quantum dots glow brighter
Pincho says...
Works perfectly with my theory of light. Not waves but holes. In my theory of colours which I take from a prism, and a rainbow, and I combine those outputs with my physics for Gravity, mass, and electrons. I get that colours are holes full of evaporated gravity. The holes are the negative physics of gravity, full of clouds which are the positive physics of gravity. So red being large is a large negative hole, and blue is in the positive range. Green is in the zero range where destructive interference occurs. So green is flat, grass is flat, leaves are flat. Green is usually flat, because it is squeezed between positive, and negative. I don't know if I have grasped this completely, but what must happen is that waves that scientists use are not physically possible without a structure. So I try to build that structure.
Making quantum dots glow brighter
A key property of quantum dots that makes them so useful is their fluorescence. Scientists can "tune" quantum dots to emit a specific color of light by adjusting their size -- small dots glow blue and large dots glow red.
Pincho says...
Works perfectly with my theory of light. Not waves but holes. In my theory of colours which I take from a prism, and a rainbow, and I combine those outputs with my physics for Gravity, mass, and electrons. I get that colours are holes full of evaporated gravity. The holes are the negative physics of gravity, full of clouds which are the positive physics of gravity. So red being large is a large negative hole, and blue is in the positive range. Green is in the zero range where destructive interference occurs. So green is flat, grass is flat, leaves are flat. Green is usually flat, because it is squeezed between positive, and negative. I don't know if I have grasped this completely, but what must happen is that waves that scientists use are not physically possible without a structure. So I try to build that structure.