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Jessica and Bailey

Hello, my name is Jessica, I am 21, and I am from in Atlanta, Georgia. Atlanta is city in Georgia which is located in the southern part of the United States. It is very warm in Georgia and not very rainy. Just a few months ago, I moved with my boyfriend to Miami, Florida for an intern. I work with computers at my job and I have a great deal of experience with them. If you have any questions, feel free to email me or write back!!! :)

Associates: Your assigned atomic model is: Bohr

Hey Jessica, my name is Bailey. I am 21 too, and I am from Rome, Italy. Rome is one of the most famous cities in the world. Rome is on the New 7 Wonders of the World. I have always lived in Rome and I love it! I work with computers too. Nice talking to you!

Today I conducted some research on the Bohr Model. I found out that in the Bohr model, the neutrons and protons (red and blue balls in the image) occupy a dense central region called the nucleus, and the electrons orbit the nucleus much like planets orbiting the Sun. The adjacent image is not to scale since in the realistic case the radius of the nucleus is about 100,000 times smaller than the radius of the entire atom, and as far as we can tell electrons are point particles without a physical extent. I hope this helped!

Hey Bailey. Today, I have research some new information about the Bohr's Model. I discovered that the Bohr's Model was named after a man named Niels Bohr. It was discovered in 1913. Basically, the Bohr model shows the model of an atom. It contains positivelly charged nucleus surrounded by electrons that orbit around the nuclues. Sort of like the Solar System.

The **Bohr model** of the [|hydrogen atom] ( //Z// = 1 ) or a hydrogen-like ion ( //Z// > 1 ), where the negatively charged [|electron] confined to an [|atomic shell] encircles a small positively charged [|atomic nucleus], and an electron jump between orbits is accompanied by an emitted or absorbed amount of [|electromagnetic energy] //h//ν. The orbits that the electron may travel in are shown as grey circles; their radius increases as //n//2, where //n// is the [|principal quantum number]. The transition depicted here produces the first line of the [|Balmer series], and for hydrogen ( //Z// = 1 ) results in a photon of [|wavelength] 656 nm (red).