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57349165221
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When the two QDs of the molecule are identical, bonding and antibonding are simply the symmetric and antisymmetric linear combinations of atomic orbitals.
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When the two QDs of the molecule are identical, bonding and antibonding are simply the symmetric and antisymmetric linear combinations of atomic orbitals.
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23
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57349183560
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For holes (electrons), f mz (ρ,θ) is expanded on a basis of 6 (3) Bessel functions and z (z) on a basis of 30 harmonics. The coefficients are found with an exact diagonalization procedure.
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For holes (electrons), f mz (ρ,θ) is expanded on a basis of 6 (3) Bessel functions and z (z) on a basis of 30 harmonics. The coefficients are found with an exact diagonalization procedure.
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24
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57349132333
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The QDs are 2.5 nm high and have a radius of 15 nm. The interdot barrier is 3.5 nm long with height Vc =200 meV. GaAs Luttinger parameters are used, γ1 =6.98, γ2 =2.06, and γ3 =2.93 (Ref.).
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The QDs are 2.5 nm high and have a radius of 15 nm. The interdot barrier is 3.5 nm long with height Vc =200 meV. GaAs Luttinger parameters are used, γ1 =6.98, γ2 =2.06, and γ3 =2.93 (Ref.).
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25
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18144407302
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26
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57349157588
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The upper (lower) QD is now 2.7 (2.3) nm high. The electron effective mass is me =0.067 m0 (m0 is the free electron mass), the conduction barrier potential is Vce =260 meV, and the dielectric constant is =12.4. The rest of the parameters are as in Ref..
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The upper (lower) QD is now 2.7 (2.3) nm high. The electron effective mass is me =0.067 m0 (m0 is the free electron mass), the conduction barrier potential is Vce =260 meV, and the dielectric constant is =12.4. The rest of the parameters are as in Ref..
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