Excited He+-Hydrogen Atom Collision: Transition Possibilities

In summary, an excited He+-Hydrogen atom collision is a collision between an excited helium ion and a hydrogen atom resulting in the exchange of energy. Transition possibilities refer to the ways in which this energy exchange can occur, and are typically calculated using quantum mechanics. These collisions have significant applications in astrophysics and plasma physics, and can be studied in both laboratory and natural environments.
  • #1
physicsss
319
0
is there any transition of He+ that could be excited by collision with an excited hydrogen atom in 2s^1?
 
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  • #2
Instead of asking us,how about making the calculation on your own...?

Daniel.

P.S.Do you know the line spectra of the 2 elements/species...?
 
  • #3


Yes, there are several possible transitions of He+ that could be excited by collision with an excited hydrogen atom in 2s^1. One possibility is the transition from the ground state (1s^2) to the first excited state (2s^1) of He+, which would result in the emission of a photon with a wavelength of 1640 Å. Another possibility is the transition from the first excited state (2s^1) to the second excited state (2p^1), which would result in the emission of a photon with a wavelength of 4686 Å. Additionally, there could be transitions to even higher excited states of He+ depending on the energy and momentum of the collision. These transitions are important in understanding the energy transfer and ionization processes that occur in collisions between atoms and molecules in the gas phase.
 

1. What is an excited He+-Hydrogen atom collision?

An excited He+-Hydrogen atom collision refers to a collision between an excited helium ion (He+) and a hydrogen atom. In this collision, the two particles interact and may undergo a transition, resulting in the emission or absorption of energy.

2. What are transition possibilities in excited He+-Hydrogen atom collisions?

Transition possibilities refer to the various ways that energy can be exchanged between an excited helium ion and a hydrogen atom during a collision. This can include the emission or absorption of photons, as well as changes in the kinetic energy and spin states of the particles.

3. How are transition possibilities calculated in excited He+-Hydrogen atom collisions?

Transition possibilities are typically calculated using quantum mechanical theories and calculations. These theories take into account the energy levels and states of the particles involved, as well as their interactions during the collision.

4. What is the significance of excited He+-Hydrogen atom collisions?

Excited He+-Hydrogen atom collisions have a variety of applications in fields such as astrophysics and plasma physics. They can help us understand the dynamics and interactions of particles in these environments, as well as provide insights into the energy exchange mechanisms involved.

5. How can excited He+-Hydrogen atom collisions be studied?

Excited He+-Hydrogen atom collisions can be studied in laboratory settings using specialized equipment and techniques, such as particle accelerators and spectroscopy. They can also be observed and analyzed in natural environments, such as in stellar atmospheres or plasma clouds.

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