The magnetic field at the equator points north. if you throw a positively charged object (for example, a baseball with some elec
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Answer:
The wavelength of next line in the series will be 397.05 nm
Explanation:
From Rydberg equation;
where;
λ is the wavelength
n lines in the series
RH is Rydberg constant = 1.097 x 10⁷ m⁻¹
Also at a given maximum wavelength, we can determine the first line n₁ in the series
Given;
maximum wavelength = 656.46 nm
Now, test for different values of n that will be equal to 7.2
let n₁ = 1
n₁(1) ≠ 7.2
Again, let n₁ = 2
∴ n₁(2) = 7.2
For the least wavelength given as 410.29 nm, n = ?
next line in the series will be 7
The wavelength of next line in the series will be;
Therefore, the wavelength of next line in the series will be 397.05 nm
To develop this problem we require the concepts related to wavelength and its expression to calculate it.
The wavelength is given by
Where,
light velocity
f = frequency.
Our values are given by,
Then,
Visible
Gamma Ray
Infrared
<em>*Note the designation on the type of rays that are, can be found in consulted via On-line or in the optical books referring to the electromagnetic spectrum table with their respective ranges.</em>