Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
Scaled strained graphene flake used to benchmark pseudomagnetic-field invariance and pseudo Landau levels.
No measurements recorded
SimulatedCStudied Material
Multi-terminal bent graphene ribbon device used to study transverse pseudomagnetic focusing.
No measurements recorded
SimulatedCStudied Material
S-shaped strained graphene ribbon device used to study pseudomagnetic snake states.
No measurements recorded
SimulatedCStudied Material
Materials
graphene
C
Studied Material
Also known as
strained graphene
studied material
Simulations
Other Computational
Scalable nearest-neighbor tight-binding model with strain-induced hopping modulation; pseudogauge-field formulation; local density of states and Landauer-Büttiker quantum transport calculations; comparison of scaled and unscaled strained graphene geometries.
Why these are connected
Related documents with shared materials, methods, properties, or citations.
Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
Scaled strained graphene flake used to benchmark pseudomagnetic-field invariance and pseudo Landau levels.
No measurements recorded
SimulatedCStudied Material
Multi-terminal bent graphene ribbon device used to study transverse pseudomagnetic focusing.
No measurements recorded
SimulatedCStudied Material
S-shaped strained graphene ribbon device used to study pseudomagnetic snake states.
No measurements recorded
SimulatedCStudied Material
Materials
graphene
C
Studied Material
Also known as
strained graphene
studied material
Simulations
Other Computational
Scalable nearest-neighbor tight-binding model with strain-induced hopping modulation; pseudogauge-field formulation; local density of states and Landauer-Büttiker quantum transport calculations; comparison of scaled and unscaled strained graphene geometries.
Why these are connected
Related documents with shared materials, methods, properties, or citations.
Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
Scaled strained graphene flake used to benchmark pseudomagnetic-field invariance and pseudo Landau levels.
No measurements recorded
SimulatedCStudied Material
Multi-terminal bent graphene ribbon device used to study transverse pseudomagnetic focusing.
No measurements recorded
SimulatedCStudied Material
S-shaped strained graphene ribbon device used to study pseudomagnetic snake states.
No measurements recorded
SimulatedCStudied Material
Materials
graphene
C
Studied Material
Also known as
strained graphene
studied material
Simulations
Other Computational
Scalable nearest-neighbor tight-binding model with strain-induced hopping modulation; pseudogauge-field formulation; local density of states and Landauer-Büttiker quantum transport calculations; comparison of scaled and unscaled strained graphene geometries.
Why these are connected
Related documents with shared materials, methods, properties, or citations.
Each sample groups how it was prepared, characterized, and measured. Click a card to expand.
Scaled strained graphene flake used to benchmark pseudomagnetic-field invariance and pseudo Landau levels.
No measurements recorded
SimulatedCStudied Material
Multi-terminal bent graphene ribbon device used to study transverse pseudomagnetic focusing.
No measurements recorded
SimulatedCStudied Material
S-shaped strained graphene ribbon device used to study pseudomagnetic snake states.
No measurements recorded
SimulatedCStudied Material
Materials
graphene
C
Studied Material
Also known as
strained graphene
studied material
Simulations
Other Computational
Scalable nearest-neighbor tight-binding model with strain-induced hopping modulation; pseudogauge-field formulation; local density of states and Landauer-Büttiker quantum transport calculations; comparison of scaled and unscaled strained graphene geometries.
Why these are connected
Related documents with shared materials, methods, properties, or citations.
parameters reported{"beta":3.37,"a0nm":0.142,"t0eV":3,"broadeningmeV":5,"magneticfieldT":10,"approxdevicesizenm":"50s x 50s","latticesizehexagons":[400,231],"pseudofieldexpression":"Bs = (4ħβκ/ea)c"}
scaling transformation{"h":"scaled by sqrt(s)","u":"scaled by s","a0":"scaled by s","t0":"scaled by 1/s"}
Conditions
context:model and transport study of strained graphene
validation:{"quantities":["pseudomagnetotransport signatures"],"references":["previous strained-graphene experiments cited in the paper"],"techniques":["conductance","transport"],"source_type":"literature_experimental_data"}
parameters reported{"beta":3.37,"a0nm":0.142,"t0eV":3,"broadeningmeV":5,"magneticfieldT":10,"approxdevicesizenm":"50s x 50s","latticesizehexagons":[400,231],"pseudofieldexpression":"Bs = (4ħβκ/ea)c"}
scaling transformation{"h":"scaled by sqrt(s)","u":"scaled by s","a0":"scaled by s","t0":"scaled by 1/s"}
Conditions
context:model and transport study of strained graphene
validation:{"quantities":["pseudomagnetotransport signatures"],"references":["previous strained-graphene experiments cited in the paper"],"techniques":["conductance","transport"],"source_type":"literature_experimental_data"}
parameters reported{"beta":3.37,"a0nm":0.142,"t0eV":3,"broadeningmeV":5,"magneticfieldT":10,"approxdevicesizenm":"50s x 50s","latticesizehexagons":[400,231],"pseudofieldexpression":"Bs = (4ħβκ/ea)c"}
scaling transformation{"h":"scaled by sqrt(s)","u":"scaled by s","a0":"scaled by s","t0":"scaled by 1/s"}
Conditions
context:model and transport study of strained graphene
validation:{"quantities":["pseudomagnetotransport signatures"],"references":["previous strained-graphene experiments cited in the paper"],"techniques":["conductance","transport"],"source_type":"literature_experimental_data"}
parameters reported{"beta":3.37,"a0nm":0.142,"t0eV":3,"broadeningmeV":5,"magneticfieldT":10,"approxdevicesizenm":"50s x 50s","latticesizehexagons":[400,231],"pseudofieldexpression":"Bs = (4ħβκ/ea)c"}
scaling transformation{"h":"scaled by sqrt(s)","u":"scaled by s","a0":"scaled by s","t0":"scaled by 1/s"}
Conditions
context:model and transport study of strained graphene
validation:{"quantities":["pseudomagnetotransport signatures"],"references":["previous strained-graphene experiments cited in the paper"],"techniques":["conductance","transport"],"source_type":"literature_experimental_data"}
