How Did Tycho Brahe Contribute To The World

His prominent station in Danish society left him in an awkward situation. He wanted nothing more than to continue his studies of the heavens, but it was unheard of for a man of his status. He therefore spent some time giving lectures at the University of Copenhagen. His talks centered on the history of Astronomy, including that of

On the 4th day, he created greater and lesser lights to govern the times of day. This consisted of stars among other things.

Every night it was possible, he would sit and watch the stars with his sister Caroline, and his brother Alexander who came from Hanover. If the night was overcast, he would position a watchman should the clouds move, he was to be summoned so he could observe the stars. When the weather permitted he would watch the stars with his sister Caroline, who would record the information. In the daytime, he would monitor the construction of the telescopes, many of which he sold for income to supply for the operation. [1]“His largest instrument, too cumbersome for regular use, had a mirror made of speculum metal, with a diameter of 122 centimeters (48 inches) and a focal length of 12 meters (40 feet). Completed in 1789, it became one of the technical wonders of the 18th century.” His support mainly came from his sister, Caroline. Through countless hours of dedication and support from his sister he was able to accomplish much in his lifetime.

Brahe portrayed the humanist ideal observation by revising previous theories and scientific tools throughout his career. Three discoveries attributed to Tycho Brahe include how the earth's position is viewed in the universe, mapping of celestial bodies, and his creation of accurate scientific instruments. Before the Renaissance, many scientists believed in the geocentric theory, or the belief that the earth was the center of the universe, and the sun, planets, and other stars revolved around earth. Tycho proved that the path of the comet of 1577 was not circular, but elongated, meaning that it would be impossible according to the geocentric theory. This discovery influenced the ways scientists viewed the location of planets and stars. Tycho viewed and observed a new star in the constellation Cassiopeia that lay beyond the moon and was in the realm of fixed stars. This discovery of the new star influenced the way scientists mapped all celestial bodies. Brahe was one of the first astronomers to realize the importance of error of instrumentation. He believed that some of the errors in the astronomical works of famous Renaissance astronomers were due to poor instrumentation. He was able to develop new instruments to plot his research that were massive improvements on the previous tables and tools used. His designs for new methods and instruments won him great fame. These discoveries continue to influence the way scientists view the universe

In this time period the Greeks emperors believed and paid lot of money to have astronomers make new discoveries of the planets and stars. Astronomy was a big mixture of knowing how the planets worked and mathematics. As more and more theories began coming to picture, each of them were built off of eachother. These theories also allowed inventions to come to life, some that we even use still today such as the telescope. Even though these theories and inventions are old, they have influenced today's technologies and space science. Just how Newton's theory of gravity was influenced on other great greek astronomers and their studies.

Many of those who have begun to study astronomy have surely heard of Tycho Brahe—the brilliant, but eccentric whose observations would have gone to waste due to his supposed inability to give them a purpose—and of Johannes Kepler—that divine, inexhaustible mathematician. However, Owen Gingerich and Richard R. Voelkel argue that much of these stories are simply that—stories—and thus take it upon themselves to uncover what parts of the story of Tycho and Kepler can be shown as truth, and which parts are merely legend. Breaking down their article into segments pertaining to the greatest endeavors of Tycho and Kepler, Gingerich and Voelkel create their argument by presenting each astronomers blunders, brilliant moments, and bumbling contradictions.

Christiaan Huygens could safely be called one of the greatest scientisits of his time. Born mid-April in 1629 to a wealthy family, it was clear he would live up to the family name. His widower father, Constantijn, was a diplomat, and an advisor in The House of Orange. Until age 16, Christiaan was homeschooled by his father, alongside his siblings, taught music, languages, geography, history, mathmatics, logic and rhetoric, and in addition to that, dancing, fencing, and horse riding. Christiaan later went to study at the University of Leiden, where he stayed for two years before transferring over to the newly-founded College of Orange. His father wished his son would become a diplomat, however his son had no interest in such career. With the help of his brother, Christiaan began polishing his own lenses to create telescopes to aid him in observing the planet Saturn. He noted that the planer looked strangly elongated and lopsided, and thus it became his goal to figure out why. He soon

Galileo has done so many important experiments and contributed quite a lot to the world of science. Most of his research and experiments were done in Italy, one of which was on 1604 when he created the universal law of acceleration. He also supported the Copernican theory.

In the year 1941 he attended the University of Cracow. While attending this university is where his love for astronomy began. In 1495, his uncle was the bishop a canonry in Frauenburg. A law from the chapter commanded that every canon that did not have a degree in theology, medicine, or prudence had to go to school for three years straight and get that degree. Copernicus did not have a degree so in the year of 1947 he went to Bologna to study law. He only picked this branch of study because of his membership at the cathedral chapter. Although he was studying law, this did not interfere with his love for astronomy or math. In 1499, Copernicus was having some financial troubles. His brother, Andrew who was also in Bologna, helped his some. It was his uncle, the bishop who saved him from the troubles. A year later in 1500 he was in Rome, teaching a large class on mathematics. A

Tycho Brahe is primarily known for the Tychonic system. The Tychonic system saw the moon as orbiting the Earth and the other planets orbiting the Sun, but believed the Sun to be orbiting the Earth as it was at a standstill. This model became popular among the people at this time because it was a combination of Copernicus' sun-centered model and the earth-centered model. Other achievements Brahe was greatly known for were based around the fact that he tracked heavenly bodies in their orbit, instead of only a unusual points like other astronomers at the time, and created the most precise observations at the time without a telescope. A few of his measurements were accurate to half an arc minute, compared to other astronomers during that time that

In the days of Babylon, Graubard shows the roots of astrology as they first manifested (Graubard 6-9). He later describes the findings of Ptolemy before discussing the transitional period between the decline of astrology and the start of astronomy (Graubard 167-168). During this transitional period which he says starts in the 16th century, astronomy starts becoming more prominent with people like Tycho Brahe, Copernicus, and Kepler. The interesting aspect that Graubard brings up is the relationship between Brahe and Kepler where the former made observations and the latter synthesized them into Kepler’s Laws. What stands out was Tycho Brahe was also an astrologist who often made predictions based on constellations and recorded them with his astrological findings (177-179). Although Brahe is not as well-known as Kepler, Brahe’s findings allowed for the idea of elliptical orbits and greatly contributed to early astronomy. This along with early Greek astrologists works helped paved the way to modern astronomy through scientific progression.

Tycho Brahe was born December 14, 1546. He was born in the Danish peninsula of Scania. He was the oldest of 12 siblings. He had a twin brother but he died before he could be baptized. Later when he was about two his parents gave him away to his uncle because they did not have babies. So he was raised by his uncle Jorgen Thygesen Brahe and his ant Inger Oxe. They lived castle near Odense. In his young ages Brahe attended latin school. Later when he was around 13 Brahe started studying in the University of Copenhagen. He studied law because that was his uncle wishes were. He studied lots of other subjects but the one that interested him the most was Astronomy. He predicted and saw his first solar eclipse. The solar eclipse that he saw was of

Tycho Brahe, Johannes Kepler, Galileo Galilei, and Sir Isaac Newton were the four other significant givers to current cosmology. Despite the fact that Tycho Brahe did not have faith in the heliocentric view, his upholding for new gauges of exact perceptions changed space science all in all (Thoren, 1990). Tycho Brahe's commitments to space science were gigantic. He not just composed and constructed instruments, he additionally adjusted them and checked their precision intermittently. He along these lines upset galactic instrumentation (1990). Johannes Kepler served as Tycho Brahe's collaborator until the last's demise in 1601 and was then named Tycho's successor as Imperial Mathematician, the most prestigious arrangement in science in Europe

Many famous scientist like Sir Isaac Newton believed that light was made up of tiny particles. While Christiaan Huygens believed that “light was made up of waves vibrating up and down”(Theory of Light, Para. 2). Huygens formulated a way to see the waves proliferate, this was known as ‘Huygens Principle’. His theory was right theory of the way light moves in three dimensions. His theory helps to predict where a wavefront will be (Theory of Light, para.2). Another scientific accomplishment he made was discovering Titan and Saturn’s rings. Until Christiaan came along, it was thought that Saturn had mickey mouse ears that sometimes disappeared. With a telescope with that only magnifies to 1,000 Galileo saw that three globes were almost touching, he made the conclusion that they were three stars he also saw that the globes didn't move for more than a year. Galileo assumed it was not moon because like jupiter you would see a change. Thinking he was done Galileo stopped observing for over a year, when he came back he saw that the triple star had vanished leaving only one globe. In 1655 Christiaan Huygens discovered the large moon Titan and the at it revolved around Saturn every 16 days. Huygens had a theory that Saturn was tilted at 20 degrees, the modern known tilt is 26.73 degrees. Huygens also discovered that the ears galileo saw was a very thin ring that disappeared when the viewed from the edge. Years later Huygens predicted the appearance of Saturn, but is not until the his prediction of the planet was verified that astronomers believed him that Saturn had rings (Rubin

After Tycho’s death, his assistant, young mathematician Johannes Kepler used Tycho’s observations and came up with his First Law that orbits of the planets are elliptical instead of round like Copernicus believed. With his Second Law, Kepler stated that the speed of the planets depends on their distance from the sun which helped English astronomer and physicist Isaac Newton, to come up with his Law of Universal Gravitation.