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the atom and atomic theory test study guide
- explain in detail the accomplishments of arrhenius, the curies, bohr, chadwick, dalton, heisenberg, pauli, planck, rutherford, and thomson.
- one of my cats, \handsome jack,\ weighs a whopping 22.4 lbs. the vet tells me that jack needs to come down to 15 lbs. calculate how many grams that jack needs to lose.
- compare and contrast alpha, beta and gamma radiation.
- draw a single electromagnetic spectrum. draw arrows from increasing to decreasing energy, frequency and wavelength. what wavelengths have more than 1 type of wave? what are they?
- explain the four forces of nature and list them from strongest to weakest.
- what is max plancks formula? what does it help to explain?
- compare and contrast ground and excited states of an atom.
- how many protons(p), neutrons(n), and electrons(e) in hg? (round the atomic masses to whole numbers)
- how many protons(p), neutrons(n), and electrons(e) in u? (round the atomic masses to whole numbers)
- how many protons(p), neutrons(n), and electrons(e) in bi? (round the atomic masses to whole numbers)
- how many protons(p), neutrons(n), and electrons(e) in au? (round the atomic masses to whole numbers)
- how many protons(p), neutrons(n), and electrons(e) in sr? (round the atomic masses to whole numbers)
- how many protons(p), neutrons(n), and electrons(e) in k? (round the atomic masses to whole numbers)
- use roygbiv to draw the visible spectrum and label which ends have higher/lower energy, frequency and wavelengths.
- compare and contrast the sizes of the atomic particles, electrons, neutrons and protons.
complete the following frequency problems. use the formula: 2.99792108m/s = c = l n.
- a wave is 975nm; find its frequency.
- a wave is 842000000hz, find its wavelength.
- a wave is 500nm. whats its frequency?
- a 4.29*1013hz wave has what wavelength?
draw bohr models (orbital box diagrams) for the following elemental atoms. 20) al. 21) n. 22) ne. 23) li
Step1: Identify relevant physics formulas
The speed - of - light formula is $c = \lambda
u$, where $c = 2.99792\times10^{8}\text{m/s}$, $\lambda$ is the wavelength, and $
u$ is the frequency.
Step2: Solve problem 16
Given $\lambda=975\text{nm}=975\times 10^{- 9}\text{m}$. Rearrange the formula to $
u=\frac{c}{\lambda}$. Substitute the values: $
u=\frac{2.99792\times 10^{8}\text{m/s}}{975\times 10^{-9}\text{m}}\approx3.075\times 10^{14}\text{Hz}$.
Step3: Solve problem 17
Given $
u = 842000000\text{Hz}$. Rearrange the formula to $\lambda=\frac{c}{
u}$. Substitute the values: $\lambda=\frac{2.99792\times 10^{8}\text{m/s}}{842000000\text{Hz}}\approx0.356\text{m}$.
Step4: Solve problem 18
Given $\lambda = 500\text{nm}=500\times 10^{-9}\text{m}$. Rearrange the formula to $
u=\frac{c}{\lambda}$. Substitute the values: $
u=\frac{2.99792\times 10^{8}\text{m/s}}{500\times 10^{-9}\text{m}}=5.99584\times 10^{14}\text{Hz}\approx6.0\times 10^{14}\text{Hz}$.
Step5: Solve problem 19
Given $
u = 4.29\times 10^{11}\text{Hz}$. Rearrange the formula to $\lambda=\frac{c}{
u}$. Substitute the values: $\lambda=\frac{2.99792\times 10^{8}\text{m/s}}{4.29\times 10^{11}\text{Hz}}\approx6.99\times 10^{-4}\text{m}$.
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- $\approx3.075\times 10^{14}\text{Hz}$
- $\approx0.356\text{m}$
- $\approx6.0\times 10^{14}\text{Hz}$
- $\approx6.99\times 10^{-4}\text{m}$