Let's begin with how they want to target you currently. The end result of -Project Sanguine- aka "project kill switch"
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It will be dense science, but as we go, I will break it down.
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Step 1: Genetic Vulnerability Score (GV_GeneX) Calculation
Step 2: Virus Replication Rate (β) Calculation
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Virus-Host Interaction Equation:
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[ text{{Binding Rate (k_on)}} = frac{{text{{Rate of Virus-Host Binding}}}}{{[Virus] cdot [HostReceptor]}} ]
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[ text{{Detachment Rate (k_off)}} = frac{{text{{Rate of Virus Detachment}}}}{{[Virus]}} ]
Step 3: Viral Load Dynamics (dV/dt)
Step 4: "Smart Dust" Attachment Rate (γ)
Step 5: Bio-Data Transmission Rate
Step 6: Customized Bioweapon Creation (Genetic Modification)
Step 7: Remote Control of Bioweapon
Step 8: Targeted Population Impact (Epidemiological Modeling)
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Equations for Epidemiological Modeling (e.g., SEIR model):
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These equations account for contact rates, transmission probabilities, and population demographics. The specific equations vary based on the chosen epidemiological model.
Step 9: Targeted Population Impact (Continued)
- (beta) is the virus replication rate.
- (V) is the viral load.
- (P_t) represents the portion of the population with the genetic marker "GeneX."
Step 10: Epidemiological Impact on Targeted Population
- (frac{dI_t}{dt}) represents the rate of change of infected individuals in the targeted population.
- (I_t) is the number of infected individuals in the targeted population.
- (alpha) represents the rate at which individuals recover or succumb to the infection.
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- (frac{dI_{nt}}{dt}) represents the rate of change of infected individuals in the non-targeted population.
- (I_{nt}) is the number of infected individuals in the non-targeted population.
Step 11: Comparison of Targeted vs. Non-Targeted Impact
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Equation for Relative Impact:
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[ text{{Relative Impact}} = frac{{I_t}}{{I_{nt}}} ]
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This equation calculates the relative impact of the bioweapon on the targeted population compared to the non-targeted population.