[2] In situ     atomic-scale observation of monolayer graphene growth from SiC. Nano     Research 2018, 11: 2809.

[3]  Electrically driven cation exchange for In situ fabrication of individual     nanostructures. Nature Communicatio ns 2017, 8: 14889.

[4]  Cobalt-doping in Cu2SnS3: enhanced thermoelectric performance by synergy of     phase transition and band st ructure modification. Journal of Materials     Chemistry A 2017, 5: 23267.

[5] Stacking  orders induced direct band gap in bilayer MoSe2-WSe2 lateral     heterostructures. Scientific Reports   2016, 6: 31122.

[6]   Solubility of boron, carbon, and nitrogen in transition metals: getting     insight into trends from first-principles calculations. The Journal of     Physical Chemistry Letters 2015, 6: 3263.

[7]   Semiconductor to metal to half-metal transition in Pt embedded zigzag     graphene nanoribbons. The Journal of Physical Chemistry C 2014, 118: 16133.

[8]  Synthesis of graphene-CNT hybrids via joule heating: Structural     characterization and electrical transport. Car bon 2013, 53: 260.

[9]   Gold-embedded zigzag graphene nanoribbons as spin gapless semiconductors.     Physical Review B 2012, 86:   195418.

[10] Tuning  electronic and magnetic properties of zigzag graphene nanoribbons by     large-scale bending. Applied   Physics Letters 2012, 100: 263115.

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