hell yeah brother
i bet none of these are real people
>Surefire Cyber delivers expert-led, AI-powered incident response with quality, consistency, and speed. We use experience and automation to help our clients manage cyber incidents decisively, reducing impact so an incident is a manageable event, not a defining moment.
>wouldn't let me poast
are you on
4ch.kun
8ch.org
8kun
8ch.net
8ch.com
8kun.com.top
or tor
>hanged
they dont look very arrested
>has served as the 18th director of the National Institutes of Health since 2025
curious thing to have saved
Q:
"i dont care why the mad scientist would look past the option of mRNA and i do not care what better options there are to carry out this hypothetical, sci-fi, fiction modification. all i want to know, is in these completely hypothetical scenarios,
COULD mRNA be used to hack DNA if engineered maliciously and with the key and hack included, and would it then have control over altering DNA"
AI A:
Yes, from a purely theoretical, science-fiction engineering perspective, if an mRNA molecule were explicitly engineered with those malicious modifications, it could be used to alter DNA. In this hypothetical scenario, the molecule would no longer function as standard mRNA.
It would essentially be a synthetic gene-editing delivery system masquerading as a standard blueprint.
To have absolute control over altering the DNA, the "hack" would have to function as a complete, self-contained multi-step toolkit: How the Hypothetical mRNA "Hack" Would Control DNA
Step 1: Code for the Scissors: The mRNA sequence would contain instructions that force the human ribosome to manufacture a gene-editing enzyme, such as CRISPR-Cas9 or a specialized integrase.
Step 2: Add the Navigation System: The engineered sequence would include a coded Nuclear Localization Signal (NLS). When the cell builds the editing enzyme, this NLS acts as a passport, forcing the cell's own transport proteins to carry the enzyme directly into the nucleus.
Step 3: Insert the Target Guide: The system would need to deliver a guide RNA sequence alongside the enzyme. This guide acts as a GPS tracker, navigating directly to the exact spot in the human genome the antagonist wants to alter.
Step 4: Rewrite the Sequence: Once inside the nucleus, the enzyme would slice open the host DNA at the target location, allowing the engineered sequence to permanently stitch itself into the patient's genetic code.
The Limits of Control in This Scenario:
Even if the mRNA successfully alters the DNA, the "mad scientist" would still face strict biological limits to their control
No Remote Control: The modification is a "one-and-done" physical rewrite. The creator cannot remotely change or toggle the gene later unless they deploy a completely new injection or engineer a complex molecular switch that responds to an external trigger (like a specific drug or chemical).Permanent vs. Temporary Cells:
If the mRNA alters a regular body cell (like a muscle or skin cell), that specific cell is modified.
However, because mRNA degrades quickly, it will not spread to new cells. To alter a mass population permanently, the hack would have to successfully target and modify tissue stem cells that constantly replicate.
In short, if you provide the molecule with the physical keys to enter the nucleus and the machinery to cut and paste code, it stops being a passive blueprint and becomes an active gene-editing tool capable of rewriting DNA.
follow up
Q:
"when you say "To alter a mass population permanently, the hack would have to successfully target and modify tissue stem cells that constantly replicate" would an "additional booster" not carry out this function?"
AI A:
Summary:
In a fictional narrative, an antagonist could use boosters to catch the cells they missed the first time, but biologically, it triggers a countdown. They would be racing against a ticking clock of natural cell replacement, a rapidly mounting immune response, and escalating cellular toxicity.
Conclusion
The chemical parts and the biological "software" exist, which is why the premise makes for such a compelling and grounded science fiction thriller.
However, in the real world, the immense difficulty of targeted delivery, the chaotic nature of unintended mutations, and strict global quality-control sequencing keep the technology bound to its intended purpose: a highly regulated, transparent tool for curing genetic disease.
kek
when AI determines the main difficulty would be 'targeted delivery' and 'strict global quality-control' it sure seems a lot more plausible