(Figure 1) shows a few energy levels of the mercury atom. One valence electron is always in the 6s6s state; the other electron changes states. What transitions are allowed in the emission spectrum?Drag the appropriate items to their respective bins. Energy (eV)10-10-9.539.226s8p6s7p6s8s 8.848.849-6s6d7.928-6s7s76.706s6p6-4-Energies for eachlevel are in eV.3-2-040.006s2 What transitions are allowed in the emission spectrum?Drag the appropriate items to their respective bins.ResetHelp6d → 6p8s → 6s8p → 6s8s → 7p 8s → 6p 8p → 8s 6d → 7p8p + 7s7s → 6p 7p → 6s7p → 7s 8p → 6d 6p → 6s 8s 6d8p 6pPossibleNot possible

An atomic transition takes place when an electron in the ground or lower state gets enough energy to…

Answered: (Figure 1) shows a few energy levels of…

Similar questions

-2r/rB dr. Find the probability that the r2e The radial probabiliity density for an electron in the 1s orbital is given by P(r) electron is found between 1.22 rg and (1.22+0.001)r;. Give you answer to two decimal places in exponential notation. Round your answer to 2 decimal places. Add your answer
Q(3): Answer bv (True or False) 1. X-ray have very short wavelengths than the light wavelengths and as a result, its energy is much lower than that of visible light. 2. Ionic solids easily dissociated into its ions in molten state and show high electrical conductivity. while ionic solids are anisotropic and brittle linked with very strong force of interactions. 3. Most Bravais lattices are of the type of primitive unit cell. 4. The axial relationship of a rhombohedral crystal system is given as (a = b = c). 5. There are two rotational operation symmetry of equilateral traingle? 6. The d-spacing of various plane provides information about the structure of the crystal. 7. The force of attraction between atoms or ions is minimum at equilibrium distance (r = r.). 8. X-ray have a very short positive wavelength that lies in the range of 1 angstrom.
SSILLIgns iu1 How many 3d electrons does Ti2+ cation have in the GROUND STATE? O 1 О 10 the hot
TOPIC: QUANTUM MECHANICS An atom will have a full magnetic dipole moment except when it is in a 1S0 state. Why?EXPLAIN IN DETAIL HINT: The other electrons are in fully filled subshells that have no net magnetic dipole moments (EXPLAIN)
Please fast...
Assume that State A has an energy of -2 eV, while State B has an energy of -4eV. Of the choices from the attatched image, which is true (say, at room temperature)?
What is the energy of the photon that, whenabsorbed by a hydrogen atom, could cause anelectronic transition from the n = 3 state tothe n = 5 state?Answer in units of eV. What energy could cause an electronic transition from the n = 5 state to the n = 7state?Answer in units of eV.
Please answer (i), (v), and (vi). Thank you! (i) Using Bohr model for atomic hydrogen, obtain energy levels for the 2s, 3s and 3p states in the actual number with the unit of [eV]. We consider a transition that electron in the 3p state emits a photon and make a transition to the 2s state. What is the frequency v of this photon ? (ii) Now we do not include electron spin angular momentum, and just estimate an effect of a magnetic field B on this transition (Normal Zeeman effect) with orbital angular momentum. How many lines of optical transition do we expect ? What is the interval of the frequency in the field B = 0.1 Tesla ? (iii) In this situation, we do not expect transition from 3s to 2s state if the electron is initially in the 3s state, Explain the reason. (iv) We now consider an effect of magnetic field B to a free electron spin (not in Hydrogen, but a free electron). The magnetic field of B = 1.0 Tesla will split the energy level into two (Zeeman) levels. Obtain the level…
Sketch the energy levels of the hydrogen atom including the fine structure, upto n=3. Show the possible transitions. How many different lines are there?
As shown a few energy levels of the mercury atom. One valence electron is always in the 6s state; the other electron changes states. Make a table showing all of the allowed transitions in the emission spectrum. For each transition, indicatea. The wavelength, in nm.b. Whether the transition is in the infrared, the visible, or the ultraviolet spectral region.c. Whether or not the transition would be observed in the mercury absorption spectrum.
In a H-atom series, the shortest wavelength transition is registered at 821 nm. plsease explain the step by step (1) Identify the transition. (2) Calculate the energy of the above transition in J and eV. (3) What is this series? (4) Calculate the longest wavelength in the series?

(Figure 1) shows a few energy levels of the mercury atom. One valence electron is always in the 6s6s state; the other electron changes states. What transitions are allowed in the emission spectrum? Drag the appropriate items to their respective bins.