Weird Lights Spotted In Morocco Earthquake Videos Can Be A Phenomenon Reported For Centuries
In the midst of the chaos and tremors of an earthquake, there have been reports of an eerie and captivating phenomenon - strange lights dancing in the sky. This enigmatic occurrence, known as "earthquake lights," has been witnessed during seismic events in various parts of the world, including a recent sighting in Morocco. The weirdlights spotted in Morocco earthquake videos can be a phenomenon reported for centuries.
While scientists continue to study this intriguing phenomenon, it's worth exploring its historical significance, possible causes, and the recent incident in Morocco that has reignited interest and curiosity.
The unpredictability of earthquake lights remains a significant hurdle in their study, but it has not deterred scientists from seeking to unravel this captivating mystery. Ongoing research efforts focus on correlating the appearance of earthquake lights with specific seismic events and environmental conditions. Researchers hope that by identifying patterns and factors associated with these lights, they can make progress in understanding the mechanisms behind them.
Earthquake lights continue to captivate scientists, researchers, and the public alike due to their enigmatic and unpredictable nature. While progress has been made in exploring their possible causes, the phenomenon remains one of the Earth's most mysterious and elusive natural occurrences. The unpredictability of earthquake lights adds an extra layer of intrigue to an already fascinating topic, ensuring that it remains a captivating subject of scientific inquiry and wonder for years to come.
Reports of "earthquake lights" date back centuries and span across different cultures and continents. These lights have been described as unusual luminous phenomena that appear in the sky before, during, or after an earthquake. Historical accounts attribute these lights to a variety of supernatural or celestial causes, adding to the intrigue surrounding them.
In the 4th century B.C., ancient Greek philosopher Aristotle documented the occurrence of earthquake lights, describing them as flames or "dry exhalations" emanating from the Earth. Throughout history, similar accounts have emerged, with observers attributing the lights to everything from divine omens to mystical events.
In recent times, scientific inquiry has shed light on the phenomenon of earthquake lights. Researchers have proposed several theories to explain their origin, although a definitive explanation remains elusive.
One leading theory suggests that the piezoelectric effect may play a role. This effect occurs when certain minerals, like quartz, generate an electrical charge when subjected to mechanical stress, such as the pressure exerted during tectonic plate movements. This charge could potentially ionize the air, leading to the creation of luminous plasma.
Another theory relates to the release of stress-induced gases. As tectonic plates shift and release stress, gases trapped within the Earth's crust may be expelled, creating luminous phenomena. The specific chemical reactions that produce these lights, however, are still under investigation.
Some scientists speculate that rock fracturing during an earthquake might produce triboluminescence, a phenomenon in which light is emitted when materials are crushed or broken. This theory suggests that the fracturing of rocks during seismic activity could generate luminous effects.
There have also been hypotheses suggesting that the production of hydrogen peroxide during the mechanical stress of an earthquake may lead to chemiluminescence, resulting in visible light emissions.
Videos taken before Friday's 6.8-magnitude earthquake in Morocco show "earthquake lights," which have been reported since ancient Greece. These weird lights spotted in Morocco earthquake videos can be a phenomenon reported for centuries
Although there is currently no agreement on what generates these bursts of dazzling, dancing light in various colors, John Derr, a retired geophysicist who once worked for the US Geological Survey, indicated that they are "definitely real". He has collaborated on a number of academic papers relating to earthquake lights, or EQL.
He wrote in an email:
Seeing EQL depends on darkness and other favorability factors.- John Derr
He claimed that the recent Moroccan footage posted online resembled the earthquake lights seen on security cameras after the Pisco, Peru, earthquake in 2007.
Professor of Physics Juan Antonio Lira Cacho at the Pontifical Catholic University of Peru and the Universidad Nacional Mayor de San Marcos in Peru has examined the phenomena and claims that cell phone video and the widespread usage of security cameras have made it simpler to study earthquake lights.
Forty years ago, it was impossible. If you saw them nobody would believe what you saw.- Juan Antonio Lira Cacho
According to a chapter on the phenomena coauthored by Derr and included in the 2019 edition of the Encyclopedia of Solid Earth Geophysics, earthquake lights can take on a variety of forms.
Sometimes the lights like regular lightning, while other times they resemble a luminous band in the sky comparable to the polar aurora. Sometimes they look like bright spheres hovering in the air. They could also resemble larger flames rising from the ground or smaller flames flickering, creeping, or moving along the surface.
Before the 2008 Sichuan earthquake in China, shimmering clouds can be seen floating in the sky in a video.
Derr and his associates compiled data on 65 American and European earthquakes linked to reliable claims of earthquake lights going back to 1600 in order to better understand earthquake lights. In a study that appeared in the journal Seismological Research Letters in 2014, they discussed their research.
The researchers discovered that earthquakes of a magnitude greater than 5.0 were responsible for about 80% of the EQL incidents they analyzed. The phenomena was typically noticed right before or during the seismic event, and it may be seen up to 600 km (372.8 miles) away from the epicenter.
The places where tectonic plates intersect are where earthquakes, especially strong ones, are most likely to strike. The vast majority of earthquakes connected to light phenomena, according to the 2014 study, took place within tectonic plates as opposed to at their edges.
Furthermore, earthquake lights were more likely to occur on or near rift valleys, which are lowland areas that were created when the Earth's crust was torn apart at some earlier time and are located between two higher blocks of land.
One explanation for earthquake lights has been proposed by Friedemann Freund, a coworker of Derr's, adjunct professor at San Jose University, and former researcher at NASA Ames Research Center.
According to Freund, when specific flaws or impurities in rock crystals are under to mechanical stress, such as during the tectonic pressures that build up before or during a severe earthquake, they instantaneously break apart and produce electricity.
According to him, rock is an insulator that transforms into a semiconductor under mechanical stress.
He continued in a video interview:
Prior to earthquakes, huge volumes of rock, hundreds of thousands of cubic kilometers of rocks in the Earth’s crust, are being stressed and the stresses are causing shifting of the grain, the mineral grains relative (to) each other.- Friedemann Freund
He detailed this in a 2014 article, "It’s like switching on a battery, generating electrical charges that can flow out of the stressed rocks into and through unstressed rocks. The charges travel fast, at up to around 200 metres per second."
Other explanationsfor earthquake lights include radon emission, static electricity generated by rock fractures, and many others.
Seismologists do not currently agree on the process causing earthquake lights, and researchers are constantly working to solve the puzzles surrounding these outbursts.
In the future, according to Freund, it may be able to predict the approach of a significant earthquake using earthquake lights or the electric charge that creates them.
Studying earthquake lights presents several challenges. They are unpredictable and relatively rare, making it difficult to gather data and conduct controlled experiments. Additionally, the variety of reported colors and shapes adds complexity to the research.
Scientists are now employing advanced technology, such as seismometers and satellite imagery, to correlate the appearance of earthquake lights with specific seismic events. These efforts aim to identify patterns and factors that may contribute to the phenomenon.
The occurrence of earthquake lights continues to captivate not only scientists but also the public. It blurs the lines between science and mystery, inviting wonder and speculation. In regions where such lights have been witnessed, they often become part of local folklore and cultural narratives.
Earthquake lights, also known as "seismic lightning" or "earthquake-induced lights," have long been a subject of fascination and intrigue. These ethereal luminous phenomena manifest in the sky before, during, or after an earthquake, casting an otherworldly glow that defies easy explanation.
One of the most confounding aspects of earthquake lights is their unpredictability. Despite decades of scientific study, they continue to defy precise forecasting, making them a captivating mystery that remains shrouded in uncertainty.
Earthquake lights have been reported during seismic events for centuries, with accounts dating back to ancient times. These reports describe luminous phenomena appearing in various forms, such as flickering flames, glowing orbs, or streaks of light. They have been associated with everything from divine omens to supernatural occurrences, reflecting the profound impact they have had on human imagination and culture.
One of the most significant challenges in understanding earthquake lights lies in their unpredictability. Unlike many natural phenomena, such as eclipses or tides, earthquake lights do not follow a predictable schedule or pattern. Here are some key reasons for their unpredictability:
- Lack of Precursors - Earthquake lights often occur suddenly, without any discernible precursor or warning. There is no consistent lead-up or set of conditions that reliably precede their appearance, which makes it nearly impossible to predict when they will happen.
- Rarity and Sporadic Occurrence - Earthquake lights are relatively rare, and their occurrence is sporadic. They do not manifest during every earthquake, and even in areas with frequent seismic activity, sightings of these lights remain infrequent. This rarity makes it challenging to gather data and identify patterns.
- Variability in Appearance - Another aspect contributing to unpredictability is the wide range of appearances that earthquake lights can take. They have been reported as white or colored lights, glowing orbs, or even as flashes resembling lightning. This variability makes it difficult to establish a consistent set of characteristics to watch for.
- Difficulty in Instrumentation - Earthquake lights often appear in remote or hazardous locations, making it challenging for scientists to capture them with instruments. Researchers rely on seismometers and satellite imagery, but capturing these lights in real-time remains a formidable task due to their transient and elusive nature.
- Lack of Understanding - Despite numerous scientific studies and theories, there is still much that remains unknown about earthquake lights. The exact mechanisms behind their creation are not fully understood, and this lack of knowledge hampers predictive efforts.
The study of earthquake lights faces significant challenges due to their variability. Reports describe lights of different colors and shapes, some resemble flashes, while others appear as glowing orbs or streaks across the sky. This diversity complicates efforts to create a comprehensive understanding of the phenomenon.
Furthermore, the rarity of earthquake lights adds to the complexity. They are relatively infrequent occurrences, making it difficult to gather sufficient data and conduct controlled experiments. Researchers must patiently wait for the next seismic event that might coincide with the appearance of these lights.
Earthquake lights are unusual luminous phenomena observed in the sky before, during, or after an earthquake.
No, reports of earthquake lights date back centuries, with historical accounts from various cultures.
The exact cause of earthquake lights is still under investigation, but theories include the piezoelectric effect and stress-induced gas emissions.
Earthquake lights are unpredictable, and predicting when and where they will occur remains a challenge.
Yes, reports describe earthquake lights in various colors and shapes, adding complexity to the phenomenon.
In regions where earthquake lights have been witnessed, they often become part of local folklore and cultural narratives.
Weird lights spotted in Morocco earthquake videos can be a phenomenon reported for centuries. Earthquake lights remain a mesmerizing and enigmatic phenomenon that has fascinated humanity for centuries.
While scientific progress has provided insights into their potential causes, the complete explanation continues to elude us. The recent sighting in Morocco serves as a reminder of the natural world's ability to surprise and intrigue, drivingscientists and curious observers alike to unravel the mysteries that persist in the realm of "earthquake lights."