Scientists

Animals extinction sometimes still leave their fossils , and they can determine much about them through scientific instruments .

-AlanKeo

i dont no

They look at each part of the experiment, (ex. the dependent variable, the independent variable, etc.) and write a complete theory of what they think the results will be.

because of the crabs that walk around on the sand of the ocean.

By the Genetic Code

Scientist usually test and conclude about new discoveries or finds, such as new species, genetic engineering, etc.

Sir Isaac Newton

He was the innovator of modern electricity. The wide world is lighted with his invention. Any wireless device has its basis on the Tesla's coil. Remote controlled guided devices also has the basis on Tesla's automaton patent.

Scientists record details about scientific observations to ensure accuracy and reproducibility of their work. This allows other researchers to verify the results and build upon them. Recording details also helps in identifying patterns, trends, and potential errors in the data.

yes

The standard procedure is to admit your initial hypothesis turns out to be wrong and then proceed to explain why it was wrong and what really happened. Science is all about learning from your mistakes.

No! An inventor can be anybody with any occupation (or none at all!). All a person needs to become an inventor is an idea, which is usually followed by a Patent Application. If your invention requires "electronics", you can hire people who specialize in that field to do that part of the work for you. For anyone interested in inventing or the patent application process, Nolo publishes a wonderful book called Patent It Yourself; it only costs about $50 and can be found at most major booksellers.

To document the findings or document that there were no findings or that they were in conclusive

A biotechnology scientist.

It's important so people can understand what has happened in the experiment, a conclusion is a formal way of basically saying what happened.

That he existed.

Scientists have to measure things accurately or else science would be pointless,

To become a pilot you need basic instruction in math, science, and engineering. Nothing that high school can't handle. There is extensive training though that you need to partake in specifically for piloting. I don't know for sure what this entails, but education-wise, high school should be fine.

To become a scientist, however, you need extensive education. There are tons of different sciences though. Physics, biology, chemistry, biochemistry, biophysics, engineering....there is a slew of them. Pick the one that works best for you and pursue a college degree. A master's degree is preferred, and then you can work as a researcher. To become a teacher, a doctorate is required.

Well they track down were the bodies or what ever they are working on down. After that they experiment on the bodies to see who they were and what they did on there life. Next they experiment again to see who killed them and how

Linnaeus

Scientists who possess integrity always report their observations and results truthfully, even if the findings are not what they expected or desired. Their commitment to honesty and transparency ensures the reliability and credibility of their research.

Scientists publish the details of important experiments so that people can recreate it and see the results for themselves.

dalton's 6 postulates are-

1. all matter is made up of tiny particles called atoms

2.atoms are indivisible particles thtical elemat cannot be divided

3.atoms of identical elements are equal in mass and chemical properties.

4.atoms of different elements have different masses and chemical properties.

5.atoms divide in the ratio of small whno.ole

#1 The Pythagorean Theorem > length of sides of a right triangle

#2 Pi or 3.14 > > figure the area of a circle

#3 Archimedes Principle > measure volume by liquid displacement

Tesla is often described as the most important scientist and inventor of the modern age. He is best known for many revolutionary contributions and inventions in the field of electricity and magnetism in the late 19th and early 20th centuries. Tesla's patents and theoretical work formed the basis of modern alternating current electric power (AC) systems, including the polyphase power distribution systems and the AC motor, with which he helped usher in the Second Industrial Revolution.

After his demonstration of wireless communication (radio) in 1894 and after being the victor in the "War of Currents" ( in the late 1880s, George Westinghouse and Thomas Edison became adversaries due to Edison's promotion of direct current (DC) for electric power distribution over alternating current (AC) advocated by Westinghouse and Nikola Tesla.), he was widely respected as one of the greatest electrical engineers who worked in America. Much of his early work pioneered modern electrical engineering and many of his discoveries were of groundbreaking importance. But due to his eccentric personality and his seemingly unbelievable and sometimes bizarre claims about possible scientific and technological developments, Tesla was ultimately ostracized and regarded as a mad scientist. Never having put much focus on his finances, Tesla died impoverished at the age of 86.

Aside from his work on electromagnetism and electromechanical engineering, Tesla has contributed in varying degrees to the establishment of robotics, remote control, radar and computer science, and to the expansion of ballistics, nuclear physics, and theoretical physics.

Many interpret the 1943 Supreme Court of the United States decision as crediting Tesla as being the inventor of the radio.

Nikola Tesla, at the 1893 World's Columbian Exposition in Chicago, demonstrated a device he constructed known as the "Egg of Columbus." It was used to demonstrate and explain the principles of the rotating magnetic field model and the induction motor. Tesla's Egg of Columbus performed the feat of Columbus with a copper egg in a rotating magnetic field. The egg spins on its major axis, standing on end due to gyroscopic action.

Tesla's device (two-phased induction motor) used a toroidal (doughnut shaped) iron core stator on which four coils were wound. The device was powered by a two-phase alternating current source (such as a variable speed alternator) to create the rotating magnetic field. The device operated on 25 to 300 hertz frequency. The ideal operating frequency was described as being between 35 to 40 hertz. Reproductions of the device are displayed at the Nikola Tesla Museum in Belgrade, the Technical Museum in Zagreb and in the Ann Arbor Hands-On Museum.

julian Trubin