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What happens if you don't put your phone in airplane mode?

How Our Wireless World Is Changing the Way We See the Universe

By Adedayo AdetutuPublished 2 years ago 3 min read
What happens if you don't put your phone in airplane mode?
Photo by Patrick Tomasso on Unsplash

Introduction:

Step into a world where invisible signals weave through the air, unseen but undeniably powerful. Beyond the boundaries of human sight lies a realm filled with massive radio waves, broad as houses, that silently ferry information between devices. These waves connect our computers, GPS systems, cell phones, and more in a technological symphony that stretches across the globe. But what if we could see this breathtaking display of signals? Picture a scenario where, if our eyes possessed the capability to perceive radio waves, our phones would be visible from the distant planet Jupiter. This tantalizing vision would become a reality if not for the cacophony of interference emanating from routers, satellites, and the countless passengers neglecting to switch their phones to airplane mode. Yet, there's more to this story than meets the eye.

The Dance of Electromagnetic Waves:

At the heart of this electrifying narrative is the dance of electromagnetic waves. When your cell phone connects to a network, it does so by emitting electromagnetic waves, particularly radio waves. Imagine these waves as a spectrum of colors, each representing a different wavelength. As you place a call, your phone generates a unique radio wave signal and sends it on a journey to the nearest cell tower. The farther you are from a tower, the more power your phone expends to send a stronger signal and establish a connection. This signal then travels from tower to tower until it reaches its recipient. In this sea of signals, each phone involved in a call is assigned a specific "color," or wavelength, ensuring that you're not accidentally tuning into someone else's conversation. This wavelength is slightly different from the one your phone uses to receive information, preventing interference.

The Color Spectrum Challenge:

However, there are only so many colors available in this metaphorical spectrum. With the proliferation of Wi-Fi and the growing demand for these wavelengths, the challenge of avoiding interference has become increasingly complex. This becomes especially apparent during regional emergencies when everyone rushes to use their phones simultaneously, overwhelming cell towers. But some sources of interference are preventable, such as phones searching for signals at high altitudes. When you're on a plane, your phone is far from cell towers, so it works tirelessly to transmit the strongest signals possible. Unexpectedly, planes can traverse areas closer to cell towers than anticipated, bombarding them with overpowering signals, effectively jamming nearby signals. Flying without activating airplane mode unwittingly transforms you into an unintentional radio jammer, disrupting signals on the ground.

Interference on a Global Scale:

The issue of interference extends beyond the realm of air travel. Almost all our electronic devices emit stray radio waves, degrading the quality of our internet connections and causing disruptions in our phone calls. Frustrated consumers often resort to purchasing more bandwidth, compelling service providers to claim additional portions of the radio spectrum. This, in turn, leads to the launch of more satellites into space, setting in motion a cycle that threatens to obscure our view of the stars.

A Threat to the Cosmos:

Even without the presence of these satellites, our radio-saturated world poses a significant threat to our cosmic relationship. Radio telescopes used in astronomy rely on specific wavelengths to peer into the depths of space. While certain frequency ranges are meant to be protected, regulations aren't always strictly enforced. For instance, the Very Large Array can scan signals from our solar system within the 1 to 50 GHz range. However, if it attempts to explore frequencies below 5 GHz, it risks being overwhelmed by the surge of signals from 5G networks.

Conclusion:

In our modern age, there is no place on Earth untouched by the symphony of radio waves. Satellites encircle the globe, enveloping it in their electromagnetic embrace. Yet, amidst this bustling orchestra, there remain a few sanctuaries with skies less crowded—a glimpse of the heavens unobstructed by the hustle and bustle of our wireless world. In these serene realms, radio telescopes peer deep into space, revealing the enigmatic secrets of our universe. However, their delicate observations are constantly at risk of being disrupted by signals from 35,000 feet above. As we marvel at the wonders of technology, we must also consider the price we pay—a cosmos, once hidden, may soon be lost to us forever.

ClimateScienceNature

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