Chapter 1: The Arrival of 5G

The rollout of the 5G mobile network is upon us, promising astonishing download speeds. However, this advancement is accompanied by significant controversy and concerns about its safety for public use. The 5G network operates on higher frequency wavelengths, leading to fears surrounding radiation exposure. But how hazardous is it? Can it truly lead to cell mutation or cancer?

Radiation is omnipresent, found in the air, soil, and even in our food. Every day, we are exposed to microwave and radio waves at varying levels, whether they originate from natural sources or human-made technology. Everyday devices like WiFi, televisions, 4G internet, and now, the more powerful 5G, contribute to this radiation landscape.

To grasp the potential risks of 5G, we must first understand the mechanics of radio waves, a category of electromagnetic waves. All mobile phones, including those designed for 5G, utilize high-frequency radio waves within the electromagnetic spectrum.

Your radio, remote controls, televisions, microwaves, and even X-ray machines in hospitals rely on waves that are part of this spectrum. The visible light spectrum, which encompasses all colors from red to violet, is merely a small segment of this broader electromagnetic spectrum.

The frequency of electromagnetic waves is quantified in “cycles per second,” commonly referred to as “hertz” (Hz). Each wave comprises a peak and a trough, with frequency measuring how many complete cycles occur each second.

At the lower end, we find the extremely low frequency (ELF) band, ranging from 3 to 30 Hz. This band transmits data very slowly but can penetrate solid materials, making it useful for communication with submarines underwater.

As we ascend the spectrum, we encounter the Ultra Low Frequency band (300 to 3,000 Hz), where higher frequencies allow for more rapid data transmission, though penetration is reduced. Frequencies in the megahertz range (1 MHz and above) are used for AM and FM radio and television, with the same principle applying: higher frequencies send more information but are more easily obstructed by physical barriers.

Current 4G networks operate in the range of 700 MHz to several gigahertz. In contrast, 5G utilizes two primary bands: one below 6 GHz and another exceeding 24 GHz. Although these are higher frequencies than 4G, they remain significantly lower than visible light, which exists around 600,000 GHz.

Understanding the Risks of Higher Frequencies

Certain electromagnetic radiation can damage atoms by displacing loosely bound electrons, resulting in what is known as "ionizing radiation." This type of radiation is recognized for its cancer-causing potential.

In the electromagnetic spectrum, a crucial dividing line exists at violet light, distinguishing between ionizing and non-ionizing radiation. While violet light is harmless, any radiation at a higher frequency has the potential to cause cancer.

Ultraviolet (UV) light, the weakest form of ionizing radiation, carries enough energy to cause electron displacement, which can lead to skin cancers, hence the necessity of sunblock.

As we progress to even higher frequencies, we encounter X-rays and gamma rays, which carry greater energy and are linked to cancer risk. Conversely, visible light, AM and FM radio, microwaves, mobile phones, and power lines fall into the category of non-ionizing radiation, which does not possess sufficient energy to damage atoms. However, concerns linger about the long-term effects of exposure to these lower-frequency technologies.

Extensive research over the past fifty years has failed to conclusively link non-ionizing radiation with cancer. Yet, our desire for increased speed will likely drive us to explore higher frequencies, edging closer to the types of radiation we strive to avoid.

Chapter 2: Expert Insights on 5G Safety

The first video, "Is 5G Dangerous?" explores the potential health implications of 5G technology and presents various expert opinions on the matter.

The second video, "Scientific Data on 5G and Radiation Exposure," features a research scientist discussing empirical evidence related to 5G radiation and its effects on health.