Nazima Dadamukhamedova’s Post

In a previous blog, article, and research paper, I dated King Bṛhadratha to around 34,500 BCE based on internal evidence, such as observations of receding ocean levels and the vernal equinox occurring in the Magha asterism. The Ramayana also records astronomical observations of two pole stars, specifically mentioning Vega (referenced in discussions in Historical Rama by Nilesh Oak) and Canopus (as detailed in Rupa Bhaty et al.’s paper on Agastya with Agastya/Canopus observed at Mahendragiri). Similar astronomical conditions, such as the 38,000-year cycle (12,000 + 26,000), likely existed before Bṛhadratha’s time, suggesting the discrete stars Vega and Canopus were seen drifting far apart then. Rupa Bhaty https://lnkd.in/gSAr3QEc

What's Going On With Chiron? 🌌 Matthew Dobson, a PhD student at Queen's University Belfast, uncovers the mysteries of Chiron—a centaur that's behaving like a comet. This small planetesimal unexpectedly brightened and exhibited cometary activity at its furthest point from the Sun. By studying such objects, we can unlock secrets about the early solar system and understand how our cosmic neighbourhood evolved over billions of years. Read the full article to delve into this interplanetary archaeological puzzle. 🗞️ https://lnkd.in/ePSnm7sB Share your thoughts on cometary evolution below!

Ibn Yunus (950–1009) Origin: Egypt Contributions: Ibn Yunus was a prominent astronomer and mathematician known for compiling highly accurate astronomical tables, known as the "Hakemite Tables." He contributed to the development of trigonometry and was one of the earliest scholars to use pendulums for time measurement. His work also included detailed observations of the motions of the planets, eclipses, and other celestial phenomena. Impact: Ibn Yunus' accurate astronomical tables were foundational for later developments in Islamic and European astronomy. His contributions to trigonometry and timekeeping also had a lasting impact, influencing both mathematical theory and practical applications in astronomy and navigation. #IbnYunus #IslamicAstronomy #AstronomicalTables #Trigonometry #Pendulum #ScientificInnovation #CelestialObservations #HistoryOfScience

Abu Mahmood Al-Khujandi (10th century) Origin: Khujand (modern-day Tajikistan) Contributions: Astronomy, Trigonometry Impact: Al-Khujandi was a prominent Persian astronomer and mathematician known for building one of the largest astronomical instruments of his time, the "Fakhri sextant," in Ray, near Tehran. He made significant advances in observational astronomy, particularly in determining the tilt of Earth's axis. His work in spherical trigonometry influenced later scholars, and he was among the first to formulate the sine and cosine rules for spherical triangles, contributing to the development of trigonometry.

🚀 Uncover the mysteries of the past! 🔭 Archaeologists are using cutting-edge satellite technology to discover Mayan ruins hidden for centuries in the dense jungles of Central America. 🌳 This incredible breakthrough provides valuable insights into the Mayan civilization, their advanced knowledge of astronomy and mathematics, and how they adapted to their environment. Did you know that the Maya developed a sophisticated writing system and a complex calendar system? Who knows what secrets we'll unearth next? 🤔 #MayanRuins #Archaeology #SpaceExploration #LidarTechnology #AncientCivilization Source: https://lnkd.in/g5PPashm

Comparing the complexity of the #astrolabe to the #sophistication of its designers underscores not only their advanced understanding of astronomy and mathematics but also their broader intellectual achievements. The astrolabe's intricate design reflects the profound expertise of scholars from the Islamic Golden Age, who excelled in various domains including #diplomacy, #military #strategy, and #espionage. The astrolabe, with its advanced mechanics and precision, represents the pinnacle of intellectual and practical accomplishment in its time. This complexity is paralleled by the sophisticated minds behind it, who demonstrated exceptional skills not only in scientific and mathematical fields but also in crafting #intricate #diplomatic #strategies, #military #tactics, and #espionage #methods. * In the context of #diplomacy, these scholars were adept at navigating complex political landscapes and forging influential alliances. * In #military #strategy, their innovations in tactics and technology contributed significantly to their regions' #defensive and #offensive #capabilities. * In #espionage, their methods of gathering and analyzing information showcased a high level of #strategic acumen. The continued excellence in these areas highlights the enduring intellectual legacy of the Middle Eastern scholars, reflecting a tradition of profound analytical and strategic capability that extends beyond the realm of scientific instruments like the #astrolabe.

A co na to AI ?

The asterism known as the Summer Triangle is comprised of three stars, Vega, Deneb & Altair. The Urfa elders used this astronomic structure to navigate the planet, and erected dolmen stone structures at key locations, on five continents to create this scale models of the asterism. A scale model of the asterism, can be found on South America, with Piedra Pintada representing Vega, Sechin Bajo representing Deneb & Serpent de Pascaud representing Altair. And, the Arawak culture probably provided protection for the Urfa elders, allowing them save passage through this region. The Urfa elders would next journey north, towards Altavista, Mexico.

Ibn al-Saffar (died 1035) - Origin: Córdoba (modern-day Spain)   - Contributions: Ibn al-Saffar was an astronomer and mathematician who made significant advancements in the development and use of the astrolabe, an ancient instrument used to solve problems related to time and the position of the stars. He authored a famous treatise on the astrolabe that was widely used by scholars during the Islamic Golden Age. - Impact: Ibn al-Saffar’s work on the astrolabe had a lasting influence on both navigation and astronomy. His contributions helped improve the accuracy of astronomical instruments, which were essential for sailors and astronomers alike, and influenced subsequent developments in these fields across both the Islamic world and Europe. #IbnAlSaffar #Astrolabe #Astronomy #IslamicScience #MedievalScience #Navigation #Cordoba #ScientificHeritage

Ibrahim al-Fezari is the first Muslim astronomer and mathematician to use the astrolabe in the Islamic world. Death: Baghdad in 777. The name astrolabe has been Arabicized from the astrolabos or astrolabon, which is a combination of the Greek astron (star) and lambanein (to take, catch, measure). Its Latin equivalent is astrolabium. Astronomy refers to the astronomy instrument used for many theoretical and practical purposes such as solving global astronomy problems in the technical sense, measuring the altitude of celestial bodies or any altitude, determining the day and night hours, determining the direction of the qibla according to the latitudes and longitudes of the cities, and drawing out tables (losses). does.