Mass Spectrometer - Find Radial Separation of 58Ni+ & 60Ni+

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SUMMARY

The discussion focuses on calculating the radial separation of singly charged 58Ni+ and 60Ni+ ions in a mass spectrometer. The ions, with masses of 9.26 × 10-26 kg and 9.58 × 10-26 kg respectively, pass through a velocity selector with electric field E = 2 × 105 N/C and magnetic field B = 3000 G before entering a uniform magnetic field of B = 0.12 T. The participants emphasize the necessity of showing work in homework submissions to receive assistance, adhering to Physics Forums rules.

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  • Understanding of mass spectrometry principles
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  • Familiarity with the Lorentz force equation
  • Basic skills in solving physics problems involving charged particles
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  • Learn how to calculate the radius of curvature for ions in a magnetic field
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Alex kevin
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Homework Statement



In a mass spectrometer, singly charged 58Ni+ (mass, m= 9.26 × 10-26 kg), and 60Ni+ (mass, m= 9.58 × 10-26 kg) ions pass through a velocity selector (with crossed electric and magnetic fields, E = 2 × 105 N/C and B=3000 G) and then enter a chamber of uniform magnetic field B = 0.12 T. Find the radial separation between the ions.
Attempt:
i couldn't even find the right formula
 
Last edited:
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Alex kevin said:

Homework Statement



In a mass spectrometer, singly charged 58Ni+ (mass, m= 9.26 × 10-26 kg), and 60Ni+ (mass, m= 9.58 × 10-26 kg) ions pass through a velocity selector (with crossed electric and magnetic fields, E = 2 × 105 N/C and B=3000 G) and then enter a chamber of uniform magnetic field B = 0.12 T. Find the radial separation between the ions.
Alex:
Please don't delete parts of the HW template. All three parts are mandatory, and you may not treat them as optional, particularly the third part, which is where you are supposed to show your work towards a solution.

According to PF Rules, if you don't show an attempted solution, you won't receive help.
 

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