Molecular Biology of the Cell by Bruce Alberts, Alexander Johnson, Julian Lewis, David Morgan, Martin Raff, Keith Roberts, Peter Walter by by Bruce Alberts, Alexander Johnson, Julian Lewis, David Morg

Figure 14: How holograms are created by capturing a waveform version of the subject image.
Holographic ‘solidity’
Our reality is not solid, it is holographic. We are now well aware of
holograms which are widely used today. Two-dimensional
information is decoded into a three-dimensional reality that is not
solid although can very much appear to be (Fig 13). Holograms are
created with a laser divided into two parts. One goes directly onto a
holographic photographic print (‘reference beam’) and the other
takes a waveform image of the subject (‘working beam’) before being
directed onto the print where it ‘collides’ with the other half of the
laser (Fig 14). This creates a waveform interference pa ern which
contains the wavefield information of whatever is being
photographed (Fig 15 overleaf). The process can be likened to
dropping pebbles in a pond. Waves generated by each one spread
out across the water to collide with the others and create a wave
representation of where the stones fell and at what speed, weight
and distance. A waveform interference pa ern of a hologram is akin
to the waveform information in The Field which the five senses
decode into electrical signals to be decoded by the brain into a
holographic illusory ‘physical’ reality. In the same way when a laser
(think human a ention) is directed at the waveform interference
pa ern a three-dimensional version of the subject is projected into
apparently ‘solid’ reality (Fig 16). An amazing trait of holograms
reveals more ‘paranormal mysteries’. Information of the whole