1. The mass difference between two isotopes is sometimes just a neutron mass. The spectrometer should separate them very well. For such an isotope combination, the difference in radius should be around 1 cm. That is -n =1 cm. In order to achieve this, choose a magnetic field with a magnitude in Tesla (maximum magnetic field you can obtain from a conventional magnet is around 2.5 T so be far away from this value) and choose the direction also. Then determine the velocity of isotope you need. Last calculate radius r of a Pbjo smallest isotope. 2. In order to produce this magnetic field, determine the current and number of turns, radius and other parameters of a solenoid you need. Also show how you will position this solenoid.
1. The mass difference between two isotopes is sometimes just a neutron mass. The spectrometer should separate them very well. For such an isotope combination, the difference in radius should be around 1 cm. That is -n =1 cm. In order to achieve this, choose a magnetic field with a magnitude in Tesla (maximum magnetic field you can obtain from a conventional magnet is around 2.5 T so be far away from this value) and choose the direction also. Then determine the velocity of isotope you need. Last calculate radius r of a Pbjo smallest isotope. 2. In order to produce this magnetic field, determine the current and number of turns, radius and other parameters of a solenoid you need. Also show how you will position this solenoid.
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I need help for the 2.question (Magnetic field will be 2.5 T)
![](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F58dad14b-336b-49b0-934c-2a8e7bbb44f5%2F4b9b1381-4a65-4f7f-9503-f9d62c6311d8%2F8xo8agc.png&w=3840&q=75)
![1. The mass difference between two isotopes is sometimes just a neutron
mass. The spectrometer should separate them very well. For such an
isotope combination, the difference in radius should be around 1 cm. That
is -n =1 cm. In order to achieve this, choose a magnetic field with a
magnitude in Tesla (maximum magnetic field you can obtain from a
conventional magnet is around 2.5 T so be far away from this value) and
choose the direction also. Then determine the velocity of isotope you need.
Last calculate radius r of a Pbjo smallest isotope.
2. In order to produce this magnetic field, determine the current and number
of turns, radius and other parameters of a solenoid you need. Also show
how you will position this solenoid.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F58dad14b-336b-49b0-934c-2a8e7bbb44f5%2F4b9b1381-4a65-4f7f-9503-f9d62c6311d8%2Fjza6e5r.jpeg&w=3840&q=75)
Transcribed Image Text:1. The mass difference between two isotopes is sometimes just a neutron
mass. The spectrometer should separate them very well. For such an
isotope combination, the difference in radius should be around 1 cm. That
is -n =1 cm. In order to achieve this, choose a magnetic field with a
magnitude in Tesla (maximum magnetic field you can obtain from a
conventional magnet is around 2.5 T so be far away from this value) and
choose the direction also. Then determine the velocity of isotope you need.
Last calculate radius r of a Pbjo smallest isotope.
2. In order to produce this magnetic field, determine the current and number
of turns, radius and other parameters of a solenoid you need. Also show
how you will position this solenoid.
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