Nanoscale And Bohr Exciton
A Exciton Binding Energy And Bohr Radius Range Of Different Double
A Exciton Binding Energy And Bohr Radius Range Of Different Double
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A The Ground State Exciton Binding Energy And B Bohr Radius As
A The Ground State Exciton Binding Energy And B Bohr Radius As
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A The Exciton Binding Energy And B Bohr Radius As Functions Of The
A The Exciton Binding Energy And B Bohr Radius As Functions Of The
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Exciton Bohr Radii Calculated Using The Variational Method As A
Exciton Bohr Radii Calculated Using The Variational Method As A
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Quantum Confinement In 2d Materials Schematics Showing A The Exciton
Quantum Confinement In 2d Materials Schematics Showing A The Exciton
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Presents Examples Of Exciton Bohr Radius For Some Semiconductors
Presents Examples Of Exciton Bohr Radius For Some Semiconductors
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Presents Examples Of Exciton Bohr Radius For Some Semiconductors
Presents Examples Of Exciton Bohr Radius For Some Semiconductors
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Exciton Bohr Radius A B Versus Energy E G For Iiiv Semiconductors At
Exciton Bohr Radius A B Versus Energy E G For Iiiv Semiconductors At
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Exciton Bohr Radius A B Versus Energy E G For Iiiv Semiconductors At
Exciton Bohr Radius A B Versus Energy E G For Iiiv Semiconductors At
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Exciton Bohr Radius A B Versus Energy E G For Iiiv Semiconductors At
Exciton Bohr Radius A B Versus Energy E G For Iiiv Semiconductors At
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Bandgap Energy And Exciton Bohr Radius Of Some Semiconductor Inorganic
Bandgap Energy And Exciton Bohr Radius Of Some Semiconductor Inorganic
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14 A The Average Speed Of Excitons As A Function Of The Exciton Bohr
14 A The Average Speed Of Excitons As A Function Of The Exciton Bohr
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Exciton Bohr Radius Of Some Semiconducting Metal Oxides Used In Gas
Exciton Bohr Radius Of Some Semiconducting Metal Oxides Used In Gas
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