@article {Shukrun2018-ru,
	title = {3D-Printed Organic{\textendash}Ceramic Complex Hybrid Structures with High Silica Content},
	journal = {Advanced Science},
	volume = {5},
	number = {8},
	year = {2018},
	month = {aug},
	pages = {1800061},
	publisher = {Wiley-Blackwell},
	abstract = {Hybrid organic{\textendash}inorganic sol gel inks that can undergo both condensation and radical polymerization are developed, enabling fabrication of complex objects by additive manufacturing technology, yielding 3D objects with superior properties. The 3D objects have very high silica content and are printed by digital light processing commercial printers. The printed lightweight objects are characterized by excellent mechanical strength compared to currently used high-performance polymers (139 MPa), very high stability at elevated temperatures (heat deflection temperature >270 {\textdegree}C), high transparency (89\%), and lack of cracks, with glossiness similar to silica glasses. The new inks fill the gap in additive manufacturing of objects composed of ceramics only and organic materials only, thus enabling harnessing the advantages of both worlds of materials.},
	keywords = {2018, 3d printing, 3DP, 5.3.19, ceramics, Composite, digital light processing, DLP, existing at 5.3.19, figures, hybrid organic{\textendash}ceramic inks, new, sol gel, Sol-Gel, UV curable materials},
	author = {Shukrun, Efrat and Cooperstein, Ido and Magdassi, Shlomo}
}
