Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
Tight-binding model system of AB-stacked bilayer graphene including skew interlayer couplings and external transverse electric and in-plane magnetic fields.
Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
Tight-binding model system of AB-stacked bilayer graphene including skew interlayer couplings and external transverse electric and in-plane magnetic fields.
Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
Tight-binding model system of AB-stacked bilayer graphene including skew interlayer couplings and external transverse electric and in-plane magnetic fields.
Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
Tight-binding model system of AB-stacked bilayer graphene including skew interlayer couplings and external transverse electric and in-plane magnetic fields.
Tight-binding Hamiltonian diagonalization including nearest-neighbor intra- and interlayer hopping, skew interlayer couplings, Peierls substitution for in-plane magnetic field, and numerical extraction of band gaps on a dense k-grid.
Settings
modeltight-binding
latticeAB-stacked bilayer graphene
analysisfull band structure and minimum indirect gap
validation{"quantities":["phase boundary","critical field scale"],"references":["Seiler et al."],"techniques":["magnetotransport"],"sourcetype":"literatureexperimentaldata"}
field context{"inplanemagneticfield":"Bparallel","transverseelectricfield":"V"}
k space window~1/100 of the original Brillouin zone
Conditions
context:modeled low-energy band structure and phase boundary of AB-stacked bilayer graphene
Tight-binding Hamiltonian diagonalization including nearest-neighbor intra- and interlayer hopping, skew interlayer couplings, Peierls substitution for in-plane magnetic field, and numerical extraction of band gaps on a dense k-grid.
Settings
modeltight-binding
latticeAB-stacked bilayer graphene
analysisfull band structure and minimum indirect gap
validation{"quantities":["phase boundary","critical field scale"],"references":["Seiler et al."],"techniques":["magnetotransport"],"sourcetype":"literatureexperimentaldata"}
field context{"inplanemagneticfield":"Bparallel","transverseelectricfield":"V"}
k space window~1/100 of the original Brillouin zone
Conditions
context:modeled low-energy band structure and phase boundary of AB-stacked bilayer graphene
Tight-binding Hamiltonian diagonalization including nearest-neighbor intra- and interlayer hopping, skew interlayer couplings, Peierls substitution for in-plane magnetic field, and numerical extraction of band gaps on a dense k-grid.
Settings
modeltight-binding
latticeAB-stacked bilayer graphene
analysisfull band structure and minimum indirect gap
validation{"quantities":["phase boundary","critical field scale"],"references":["Seiler et al."],"techniques":["magnetotransport"],"sourcetype":"literatureexperimentaldata"}
field context{"inplanemagneticfield":"Bparallel","transverseelectricfield":"V"}
k space window~1/100 of the original Brillouin zone
Conditions
context:modeled low-energy band structure and phase boundary of AB-stacked bilayer graphene
Tight-binding Hamiltonian diagonalization including nearest-neighbor intra- and interlayer hopping, skew interlayer couplings, Peierls substitution for in-plane magnetic field, and numerical extraction of band gaps on a dense k-grid.
Settings
modeltight-binding
latticeAB-stacked bilayer graphene
analysisfull band structure and minimum indirect gap
validation{"quantities":["phase boundary","critical field scale"],"references":["Seiler et al."],"techniques":["magnetotransport"],"sourcetype":"literatureexperimentaldata"}
field context{"inplanemagneticfield":"Bparallel","transverseelectricfield":"V"}
k space window~1/100 of the original Brillouin zone
Conditions
context:modeled low-energy band structure and phase boundary of AB-stacked bilayer graphene
