Stem Cells, Bioengineering, Biophysics

General Physics, in collaboration with QB3, and in-house scientists is attempting to develop a synthetic biology approach to 3D printing tissues and organs from stem cell progenitors, chondrocytes, fibroblasts, ECM extrusion, and high throughput industrialization. Stem cell technology in California will revolutionize tailored therapeutics and organ regeneration in the future.

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What has to happen is a genetic modification of the human form to combat disease, aging, and the issue of chronic illness. Through advanced organo-metallic DNA to RNA to protein dogmatic engineering, novel therapeutics with modification of human genotype will create machine human interfaces that connect to the nanobots that many theorize. Of course, the challenge of biophysical engineering at the nanoscale requires a foundry of such advanced technology that modern supply chains are ill equipped to meet the demand. We need better STEM education, more integrated physics in biological training and a sound understanding of the practicalities of nanorobotics plus molecular organo-metallic interfaces.

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Human modification is required for developing  robust deep space voyagers, who can withstand radiation and the effects of low gravity. On this planet, genetic modification and the merging with the machine singularity are theoretically the limits of advanced manufacturing and technology. We require new approaches to merge with machine - miniaturization of circuitry, molecular foundries, better physical and biological models, new protein folding analysis, better biochemistry, and a further creation of 3D tissue and organ printing extrusion technology.