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This original is being used to create Cheap fakes ment to distract from the most important detail of this event. There have now been 4 videos produced and circulating as new detail evidence but anyone who analyzes the videos can find the obvious renders used to overlay the blurred areas from the original. Look at the edge of the speaker that's blocking some of Charlie's body. The original has some of the edge of the speaker blurred while the rendering fills in the edge with jagged pixels when overlayed with the rendered assets. Please refrain from using these cheap fakes as sources.
Based solely on my analysis of the two angles of the events on September 10th I have come to the conclusion that this is the object that struck Charlie Kirk in the neck.
Hypothetical Explosion Analysis:
Why the T-Shirt Survives a Shaped Charge
Imagine a shaped charge hidden in a RØDE Wireless mic battery, pressed against the sternum under a T-shirt, with the MagClip GO and mic bulk between the charge and fabric. Detonation unleashes massive forces—yet the T-shirt doesn’t rip. Let’s break it down, purely theoretically! #Hypothetical #TechSpec
Force Needed to Tear the T-Shirt
A standard cotton T-shirt (150–200 g/m²) has a bursting strength of ~200–600 kPa (29–87 psi), translating to ~35–90 lbf (156–400 N) to tear a 1.07 in² area (clip contact zone). Thinner shirts might fail at 30–60 lbf (133–267 N), while thicker ones hold up to 100–200 lbf (444–889 N). The knit’s 50–100% stretch absorbs energy before failure, but a concentrated, sustained force above this threshold would rip it.
Forces Applied by the MagClip GO
In this scenario, the charge’s detonation generates a peak force of ~70,000–700,000 N (15,700–157,000 lbf) over microseconds, driven by shock (~0.1–1 GPa at the clip) and gas expansion (~1–10 MPa). However, the mic casing attenuates this to ~0.1–1 MPa (14.5–145 psi) at the T-shirt, far below the tearing threshold.
The clip accelerates rearward at 2–10 m/s after the magnetic clasp (10–50 N hold) fails in 1–5 μs, but this motion dissipates energy away from the fabric.
Why the Shirt Doesn’t Rip
Attenuation:
The mic absorbs and spreads the blast, reducing pressure to the T-shirt.
Elasticity:
The fabric stretches elastically, handling the rapid bulge without tearing.
Venting:
Gases escape through the ruptured casing in ~50 μs, avoiding sustained pressure.
Distribution:
Force over the mic’s 3–5 cm² area dilutes stress, unlike the clip’s focused 1.07 in².
No Snagging:
The clip’s smooth surface prevents tear initiation.
In a 30fps video, you’d see a flash, a bulging shirt, and no tears—just elastic deformation. This theoretical exercise highlights how material properties and energy dissipation save the day. What do you think? #ScienceFiction #ExplosiveTheory
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