When it comes to printing electronics, sensors, micro-batteries/supercapacitors, etc.., what if instead of wet printing technologies (i.e., ink-jet and aerosol-jet) there was a dry printing additive nanomanufacturing technology that could enable:
1.	On-demand and in-situ generation of various pure nanoparticles (e.g., metals, insulators, semiconductors, superconductors, ceramics, composites, etc.), 
2.	In-situ and real-time laser sintering of dry nanoparticles jet on various substrates (polyamide, PET, PDMS, paper, metal, ceramic, etc.), with no further post-processing. 
3.	Multi-material printing of hybrid and composite materials and structures.

Wet Printing Technologies Challenges
•	Complex, costly, and eco-unfriendly ink formulation processes.
•	Limited availability of functional inks.
•	Transportation, shelf life, and storage difficulties of inks 
•	Contaminations and impurities due to the use of solvents and additives for ink formulations.
•	Environmental pollution due to the necessity of removing and recycling solvent and surfactant after deposition. 
•	Post-processing steps for curing the prints and removing surfactants and ink additives. 
•	Limited or no multi-material printing of hybrid materials and composites. 
•	Clogging and cleaning hassles.

NanoPrintek Dry Printing Advantages
•	No need for inks and liquids. Requires solids targets (pellets) of the desired materials.
•	Easy transportation, shelf life, and storage. 
•	On-demand and in-situ formation of dry and pure nanoparticles. 
•	Real-time sintering and integration. 
•	No post-treatment processes.
•	Environmentally friendly process due to the on-demand formation of nanoparticles as needed. 
•	Advanced and Multifunctional materials printing. Hybrid, multimaterial and composite printing. 
•	Suitable for printing electronics, sensors, micro-batteries/supercapacitors, catalysis, etc. 
•	Simultaneous subtractive and additive processes for trenching/printing and localized repair.

NanoPrintek, Inc.

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