Research paper
Computational DFTComputational MLIPComputational Multiscale| Type | Label | Value | Material | Sample | Condition | Source |
|---|---|---|---|---|---|---|
| Sliding Energy Barrier | ΔEmax | 0.95meV/angstrom² | — | |||
| Sliding Energy Barrier | ΔEmax | 3.36meV/angstrom² | — | |||
| Sliding Energy Barrier | ΔEmax | 1.06meV/angstrom² | — | |||
| Sliding Energy Barrier | ΔEmax | 0.28meV/angstrom² | — | |||
| Sliding Energy Barrier | ΔEmax | <0.25meV/angstrom² | — | |||
| Critical Normal Load | critical load for barrier-free sliding | 2.3GPa | — | |||
| Shear To Load Ratio | shear strength / normal load | 0.001 | — | |||
| Sliding Energy Barrier | ΔEmax | 0.58meV/angstrom² | — | |||
| Sliding Energy Barrier | electron doping range used for stacking-energy modulation | 0-0.5e/f.u. | — |
Universal Symmetries in Twisted Moiré Materials
| Type | Label | Value | Material | Sample | Condition | Source |
|---|---|---|---|---|---|---|
| Sliding Energy Barrier | ΔEmax | 0.95meV/angstrom² | — | |||
| Sliding Energy Barrier | ΔEmax | 3.36meV/angstrom² | — | |||
| Sliding Energy Barrier | ΔEmax | 1.06meV/angstrom² | — | |||
| Sliding Energy Barrier | ΔEmax | 0.28meV/angstrom² | — | |||
| Sliding Energy Barrier | ΔEmax | <0.25meV/angstrom² | — | |||
| Critical Normal Load | critical load for barrier-free sliding | 2.3GPa | — | |||
| Shear To Load Ratio | shear strength / normal load | 0.001 | — | |||
| Sliding Energy Barrier | ΔEmax | 0.58meV/angstrom² | — | |||
| Sliding Energy Barrier | electron doping range used for stacking-energy modulation | 0-0.5e/f.u. | — |
Universal Symmetries in Twisted Moiré Materials
| Type | Label | Value | Material | Sample | Condition | Source |
|---|---|---|---|---|---|---|
| Sliding Energy Barrier | ΔEmax | 0.95meV/angstrom² | — | |||
| Sliding Energy Barrier | ΔEmax | 3.36meV/angstrom² | — | |||
| Sliding Energy Barrier | ΔEmax | 1.06meV/angstrom² | — | |||
| Sliding Energy Barrier | ΔEmax | 0.28meV/angstrom² | — | |||
| Sliding Energy Barrier | ΔEmax | <0.25meV/angstrom² | — | |||
| Critical Normal Load | critical load for barrier-free sliding | 2.3GPa | — | |||
| Shear To Load Ratio | shear strength / normal load | 0.001 | — | |||
| Sliding Energy Barrier | ΔEmax | 0.58meV/angstrom² | — | |||
| Sliding Energy Barrier | electron doping range used for stacking-energy modulation | 0-0.5e/f.u. | — |
Universal Symmetries in Twisted Moiré Materials
| Type | Label | Value | Material | Sample | Condition | Source |
|---|---|---|---|---|---|---|
| Sliding Energy Barrier | ΔEmax | 0.95meV/angstrom² | — | |||
| Sliding Energy Barrier | ΔEmax | 3.36meV/angstrom² | — | |||
| Sliding Energy Barrier | ΔEmax | 1.06meV/angstrom² | — | |||
| Sliding Energy Barrier | ΔEmax | 0.28meV/angstrom² | — | |||
| Sliding Energy Barrier | ΔEmax | <0.25meV/angstrom² | — | |||
| Critical Normal Load | critical load for barrier-free sliding | 2.3GPa | — | |||
| Shear To Load Ratio | shear strength / normal load | 0.001 | — | |||
| Sliding Energy Barrier | ΔEmax | 0.58meV/angstrom² | — | |||
| Sliding Energy Barrier | electron doping range used for stacking-energy modulation | 0-0.5e/f.u. | — |
Universal Symmetries in Twisted Moiré Materials