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Other Applications

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Please check our publications for other applications of HHIC:
1.  Trebicky, T., et al., Cleaving C-H bonds with hyperthermal H2: facile
     chemistry to cross-link organic molecules under low chemical- and
     energy-loads. Green Chemistry, 2014. 16(3): p. 1316-1325.

2.  Zheng, Z., et al., Construction of cross-linked polymer films 
     covalently attached on silicon substrate via a self-assembled
     monolayer. RSC Advances, 2013. 3(29): p. 11580-11585.

3.  Lau, W.M., et al., Cross-linking organic semiconducting molecules by
     preferential C-H cleavage via “chemistry with a tiny hammer”.
     Canadian Journal of Chemistry, 2007. 85(10): p. 859-865.

4.  Du, W., et al., Cross-Linking Poly(lactic acid) Film Surface by Neutral
     Hyperthermal Hydrogen Molecule Bombardment. Journal of
     Agricultural and Food Chemistry, 2015. 63(49): p. 10604-10610.

5.  Man, C., et al., Enhanced wetting properties of a polypropylene
     separator for a lithium-ion battery by hyperthermal hydrogen
     induced cross-linking of poly(ethylene oxide). Journal of Materials    
     Chemistry A, 2014. 2(30): p. 11980-11986.

6.  Choi, C.Y., et al., Fabrication of cross-linked multi-walled carbon
     nanotube coatings with improved adhesion and intrinsic strength by
     a two-step synthesis: electrochemical deposition and hyperthermal
     proton bombardment. Applied Physics A, 2008. 91(3): p. 403-406.

7.  Thompson, D.B., et al., Functional Polymer Laminates from
     Hyperthermal Hydrogen Induced Cross-Linking. Langmuir, 2011.    
     27(24): p. 14820-14827.

8.  Wang, X., et al., Grafting of polyelectrolytes onto hydrocarbon
     surfaces by high-energy hydrogen induced cross-linking for making
     metallized polymer films. Chemical Communications, 2013. 49(41):
     p. 4658-4660.

9.  He, L., et al., Hyperthermal hydrogen induced cross-linking and
     fabrication of nano-wrinkle patterns in ultrathin polymer films.
     Surface & Coatings Technology, 2015. 261: p. 311-317.

10.Yang, Q.-D., et al., Locking the morphology with a green, fast and
     efficient physical cross-linking approach for organic electronic  
     applications. Organic Electronics, 2016. 28: p. 53-58.

11.Karamdoust, S., et al., Preparation of antibacterial surfaces by
     hyperthermal hydrogen induced cross-linking of polymer thin films.
     Journal of Materials Chemistry, 2012. 22(11): p. 4881-4889.

12.Bonduelle, C.V., W.M. Lau, and E.R. Gillies, Preparation of Protein-
     and Cell-Resistant Surfaces by Hyperthermal Hydrogen Induced
     Cross-Linking of Poly(ethylene oxide). ACS Applied Materials &  
     Interfaces, 2011. 3(5): p. 1740-1748.

13.Zheng, Z., et al., Ultrathin Polymer Film Formation by Collision-
     Induced Cross-Linking of Adsorbed Organic Molecules with
     Hyperthermal Protons. Journal of the American Chemical Society,
     2004. 126(39): p. 12336-12342.

14.Zheng, Z., et al., Unusual Kinematics-Driven Chemistry: Cleaving
     C-H but Not COO-H Bonds with Hyperthermal Protons To Synthesize
     Tailor-Made Molecular Films. Chemistry – A European Journal, 2007.
     13(11): p. 3187-3192.