Question

If you observe a red, green, and blue line in an atomic emission spectrum, which line...

If you observe a red, green, and blue line in an atomic emission spectrum, which line represents emission from the energy level farthest from its final level?

Homework Answers

Know the answer?
Your Answer:

Post as a guest

Your Name:

What's your source?

Earn Coins

Coins can be redeemed for fabulous gifts.

Not the answer you're looking for?
Ask your own homework help question
Similar Questions
A red line is observed at 656.3 nm in the spectrum of atomic hydrogen. Determine the...
A red line is observed at 656.3 nm in the spectrum of atomic hydrogen. Determine the values of n for the beginning (n1) and ending (n2) energy levels of the electron during the emission of energy that leads to this spectral line.
The hydrogen emission spectrum produces light at 430 nm (blue), 480 nm (blue-green) and 650 nm...
The hydrogen emission spectrum produces light at 430 nm (blue), 480 nm (blue-green) and 650 nm (red). Find the energy in Joules and then in eV for a photon at each of these wavelengths: 430 nm: 480 nm: 650 nm: A metal surface has a work function (W0) of 2.7 eV.  Of the three wavelengths of light in the hydrogen spectrum, which would be able to release electrons from the metal surface? Calculate the kinetic energy in eV if any, of...
The hydrogen atomic emission spectrum includes a UV line with a wavelength of 92.323 nm. Photons...
The hydrogen atomic emission spectrum includes a UV line with a wavelength of 92.323 nm. Photons of this wavelength are emitted when the electron transitions to nf = 1 as the final energy state. Show all steps and round answers to correct sig figs. a) Is this line associated with a transition between different excited states or between an excited state and the ground state? b) What is the energy of the emitted photon with wavelength 92.323 nm? c) What...
An orange emission line is observed at 656.3 nm in the hydrogen emission spectrum. Determine the...
An orange emission line is observed at 656.3 nm in the hydrogen emission spectrum. Determine the initial energy level of the electron.
The wavelength 6.577 x 10^-5 cm is observed in the atomic emission spectrum of hydrogen. a....
The wavelength 6.577 x 10^-5 cm is observed in the atomic emission spectrum of hydrogen. a. Show that this is a transition line in the Balmer Series. b. What is the wavelength of the next higher-energy line?
On a TV screen, red, green, and blue spots of light produce a full spectrum of...
On a TV screen, red, green, and blue spots of light produce a full spectrum of colors. What spots are activated to produce yellow? Red? Magenta? White?
The emission spectrum of hydrogen has a line at a wavelength of 922.6nm. A) Calculate the...
The emission spectrum of hydrogen has a line at a wavelength of 922.6nm. A) Calculate the energy change for the electron transition that corresponds to this line. B) This line is actually in the Paschen series. What are the initial and final values of n for the electron transition that corresponds to this line?
The atomic line spectrum of hydrogen contains a line in the near-UV spectrum that corresponds to...
The atomic line spectrum of hydrogen contains a line in the near-UV spectrum that corresponds to an electron transitioning from an n = 7 orbital to an n = 2 orbital. What is the energy of the emitted photons that produce this line? I know the answer is 5.00 x 10^-19 J, I'm just unsure on how to go about solving it. Please give any equations used and where the numbers come from so I can try other problems on...
7- Which will have higher energy a- Red photos b- Blue photons c- Green Photon d-...
7- Which will have higher energy a- Red photos b- Blue photons c- Green Photon d- Infrared photon 8- In the modern atomic model, the electron is considered a- A wave around the nuclei b- Going around the nuclei on a circular path c- Somewhere in a could around the nuclei d- None of the above
The hydrogen spectrum includes a red line at 656 nm and a blue-violet line at 434...
The hydrogen spectrum includes a red line at 656 nm and a blue-violet line at 434 nm. What are the angular separations between these two spectral lines for all visible orders obtained with a diffraction grating that has 4 620 grooves/cm? (In this problem assume that the light is incident normally on the gratings.) first order separation This is the angle that the red line makes with the normal to the grating. The problem asks for the angular separation between...
ADVERTISEMENT
Need Online Homework Help?

Get Answers For Free
Most questions answered within 1 hours.

Ask a Question
ADVERTISEMENT