This is right up the hill behind the house. Is this what they say is frying us with 5G?

5G mm wavelength lies in the RF band on the electromagnetic spectrum. This band is non-ionizing, meaning there is not enough energy behind it remove electrons from atoms and not enough to damage cell components. There is actually less energy in this band than in visible light.

In terms of thermal damage, there are formulas for this.

* Energy=mass×specific heat capacity×temperature change
* Assuming a 200lb person (which is roughly 60% water): Energy=90,000g×4.18J/g×°C×1°C=376,200J

So it would take 376,000J to increase body temperature by 1 degree Celsius. At around an increase of 5 degrees Celsius, there is risk of heat stroke and cell damage.

* Energy=90,000g×4.18J/g×°C×5°C=1,881,000J, or 1.88 million joules

Power is the rate which this energy is transferred and can be a bit tricky in this context. Let’s assume one hour to heat the body by 5 degrees Celsius and again at one second.

* Power=Time/Energy​=3,600s/1,881,000J​≈523watts
* Power=Time/Energy​=1s/1,881,000J​=1,881,000watts(or 1.88 MW)

In your third image, we can make some assumptions. The leftmost equipment appears to be a MIMO cell, which is a 5G cell, and the most common MIMO Tmobile deploys for non high-density towers is the Ericsson AIR 6449. This cell has a maximum transmitted power rating of 80 watts. Once you factor in variables such as radiation loss over distance, obstacles between you and the tower, insulating components of the equipment, and the fact that the power into the equipment is not transferred at a 1:1 ratio into your body, even if you were physically touching the casing, we can deduce that your tower is likely not capable of causing you thermal damage at a half mile.

tl;dr there is not enough energy behind RF wavelengths to cause you radiation induced cellular damage, and there is not enough power transfer behind the equipment to cause you thermal damage at your distance.