Keywordstransition-metal dichalcogenide nanotubes; electromechanical properties; quantum conductance; density functional-based methods; single-wall inorganic nanotubes; growth mechanism; multiwall inorganic nanotubes; WS2; high power plasma ablation; window of stability; IF-WS2; carbon nanostructures; WS2 composites; CNF/IF-WS2; graphene/IF-WS2; double bubbles; zinc oxide; gallium nitride; density functional theory; hybrid composites; IF/INT-WS2; microscale fibers; thermal, mechanical and tribological properties; synergistic effects; IF-WS2 nanoparticles; large scale production; rotary process; WO3 nanoparticles; DFT; periodic simulations; biomolecules; boron nitrides; adsorption; microsolvation; inorganic nanotubes; high temperature synthesis; DFT calculations; IF-WS2; shock absorbing structures; fracture mechanism; borazine; BN; nanoparticles; ammonia borane; hydrogen storage; DOE; design of experiments; optimization; tungsten disulfide; nanotubes; WS2 INTs; Vilsmeier–Haack reagents; noble-metal chalcogenides; nanotubes; strain energy; DFT; n/a
