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New biochips and gene editing can used to stop pandemics.


"Cornell University has introduced a bioelectric device that can quickly identify harmful coronavirus variants and potentially other viruses. This microchip-based tool uses a biomembrane to simulate the cellular infection process, aiding in rapid and effective virus assessment. Credit: SciTechDaily.com" (ScitechDaily, How Cornell’s Revolutionary Biochip Could Save Us From the Next Pandemic)


The distributed computing method is easy to transform into the DNA. The system just cuts the DNA between multiple biochips. Then it connects the results from the analysis together. That is an easy way to make DNA models of people, animals, bacteria, and viruses. 

Biochips that can analyze the DNA in hours, or even in minutes are the tools, that can hack any virus code very fast. The idea in that kind of system is taken from the neural networks and quantum calculation. The system can cut the DNA and RNA molecules into small pieces. And share those pieces between a large number of biochips that can make the analysis. When the system shares the DNA and RNA samples with multiple analysators it can make the analysis very fast.  

Then the biochips and controlling AI connect that information.  Using CRISPR databases the system can search for DNA about humans, who seem to be immune against viruses. Then the system can search the DNA that makes those people immune. After that, the system gives orders to connect that DNA to wanted cells. In the radical vision, the mRNA can simply used to reprogram the immune system. 

When we think about gene editing and its abilities, the gene-editor requires DNA material, that it uses in that process. The gene scissors, nano-size lasers, and AI-controlled robots. Along with polymerase chain reaction (PCR) are tools that the gene-editor uses. 

The system must cut the DNA at the precise right point. And then it just connects the new DNA bite at that point. The system can replace the damaged DNA sequence with non-damaged DNA. And that is the idea in a gene-therapy. The problem is that the gene-editor must know the DNA so that the system can find the right point in the DNA.  

First nanotechnology creates the prototype DNA. After that, PCR systems multiply that genome, which can be injected into the receiver as regular vaccines. 

Miniature LIDAR technology makes it possible to create biochips that can analyze DNA and RNA very fast. In those models, the system transfers the DNA or RNA into the nanotube or nano-size glass tube. Then ultra-small lidar system or laser scanner scans the molecule. In some visions, that kind of system can be surgically implanted in the human body. And it can warn about dangerous viruses. 

The virus detector can use the DNA databases to search for the similarities in DNA sequence between new and well-known viruses. That data can be used to analyze how dangerous the virus is. All viruses are not dangerous for healthy people. But if a person has AIDS or some kind of disease, there is immune depression. That makes those viruses dangerous. 


https://scitechdaily.com/how-cornells-revolutionary-biochip-could-save-us-from-the-next-pandemic/


https://scitechdaily.com/surpassing-crispr-how-seekrna-is-redefining-the-future-of-gene-editing/


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