Sam Fisher (Data Drops)
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All the files that're in my file archive, it's like the library, but not! (you can keep these and there's no fines!)
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Repost from Sam Fisher (Data Drops)
https://parliamentnews.co.uk/andy-burnham-pledges-unwavering-support-to-ukraine/ Just the monthly reminder that the new WEF neo nazi creep intends to drag you 'subjects' into a war to protect the city of London cabal assets.
Repost from Sam Fisher (Data Drops)
https://www.pressreader.com/uk/daily-mail/20260530/281663966673134 Just the monthly reminder that he is another one of the WEF neo Nazi types that enabled the little kingdoms rape gangs.
Repost from Sam Fisher (Data Drops)
https://www.weforum.org/people/andy-burnham/ Just the monthly reminder that the creep is a WEF neo Nazi.
Epstein, Sitchin and the Anunnaki: What Was Going On?
https://youtube.com/watch?v=m0wqs4am9DA&is=ISH_qiEcp-vE9-iH
Repost from N/a
Goo:
To understand how shielding relates to antennas and secondary inductance, you have to look at the physics in reverse. While a shield is designed to minimize electromagnetic interaction, an antenna or an inductor is designed to maximize it.Here is exactly how the properties of shielding metals translate to receiving antennas and secondary inductance.📡 1. Relation to the Conductivity of a Receiving AntennaAn antenna is essentially an unshielded conductor designed to maximize Reflection Loss (\(R\)) in reverse. Instead of bouncing an incoming wave away, it intercepts the wave, causing the electric field to force electrons along its surface, creating an electrical current.Skin Effect Dominates Both: Just like shielding absorption is dictated by skin depth, an antenna's current only flows on its outer "skin" at high frequencies.The Conductivity Requirement: A receiving antenna requires high relative conductivity (\(\sigma _{r}\))—like copper or aluminum—for the exact same reason an RF shield does. If you used a low-conductivity metal like steel or Mu-Metal for an antenna, the incoming radio wave would experience high Absorption Loss (\(A\)) inside the antenna material itself. Instead of turning into a usable electrical signal for your receiver, the radio wave would just turn into microscopic amounts of heat.Impedance Matching: A shield relies on a massive impedance mismatch between the air and the metal to reflect waves. An antenna does the opposite; its geometry is tuned to perfectly match the impedance of the air (377 ohms) so it can absorb the wave without reflecting it away.🌀 2. Relation to Secondary InductanceSecondary inductance refers to the magnetic coil in a transformer or coupled system that receives energy via a changing magnetic field from a primary coil. This relies entirely on magnetic permeability (\(\mu _{r}\)).The Magnetic Path (Permeability): To get a high secondary inductance, you need a material with massive relative permeability, like Mu-Metal, ferrite, or laminated silicon steel. These materials act like a "magnetic vacuum," pulling the magnetic field lines into the core and tightly coupling the primary coil to the secondary coil.The Counter-Intuitive Shielding Overlap: If you put a high-permeability Mu-Metal shield between a primary and secondary coil, it will redirect the magnetic flux away, dropping the secondary inductance to near zero. However, if you wrap that same Mu-Metal inside the secondary coil as a core, it does the exact opposite: it concentrates the field, drastically increasing the secondary inductance.Eddy Currents and Losses: When a magnetic field passes through a secondary inductor core, it induces unwanted circular currents called eddy currents. If the core material has high electrical conductivity (like pure copper), these eddy currents run rampant and cause massive energy loss. Therefore, high-quality inductor cores use materials that have high magnetic permeability but very low electrical conductivity (like ferrites) to block eddy currents while boosting inductance.📊 Summary of Material RolesComponentDesired Electrical Conductivity (\(\sigma \))Desired Magnetic Permeability (\(\mu \))Primary Physical GoalRF Faraday ShieldHigh (Copper / Aluminum)LowReflect and ground electric fields.Magnetic ShieldLowHigh (Mu-Metal)Divert low-frequency magnetic flux.Receiving AntennaHigh (Copper / Aluminum)LowConvert electric fields into surface current.Secondary Inductor CoreLow (Ferrite / Laminated Steel)HighMaximize magnetic flux linkage without heat loss.Are you looking at this from the perspective of building an antenna enclosure (where you want to let signals in but block noise), or are you analyzing cross-talk/interference between a transformer and a nearby wireless receiver?
https://www.youtube.com/live/nPhCKwJ6ye8?is=Qk4Sq5qrsE1YmGQ0
❣️For Group Entertainment Purposes Only❣️
Repost from N/a
The above video segment presents visualizations on the "proper entry and exit from rooms" - in accordance with Islamic indoctrination
