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- Rahul, P., Yttri, E., M. Sadeq Saleh, “3D Printed Microelectrode Array,” U.S. Patent Application Filed PCT/US2019/016050, filed February 2019
- T. C. Karni, R. Garg, S. Rastogi, R. Panat, and M. S. Saleh, “Nanowire-Mesh Templated Growth of Out-of-Plane Three-Dimensional Fuzzy Graphene”, U.S. Patent Application # WO/2018/195108, filed April 2018. Link
- R. Panat and D. Heo, “Three-dimensional sub-mm wavelength sub-THz frequency antennas on flexible and in-situ cured dielectric using printed metal structures”, U.S. Patent # 10086432, issued Oct 2018. PDF
- R. Panat and D. Heo, “Three-dimensional passive components”, U.S. Patent #9969001, issued May 2018. PDF
- R. Panat and L. Lei, “Low-cost fiber optic sensor for large strain”, US Patent #9846276, issued December 2017. PDF
- I. Dutta and R. Panat,” Highly stretchable interconnect devices and systems”, US Patent #9770759, issued Sept 2017. PDF
- R. Panat and B. Jaiswal, “Nanowires coated on traces in electronic devices”, US Patent #9627320, issued April 2017. PDF
- N. Raravikar and R. Panat, “Nanolithographic method of manufacturing an embedded passive device for a microelectronic application, and microelectronic device containing the same”, US Patent #8068328, issued May 2014. PDF
- R. Panat, M. S. Saleh, “Additive manufacturing of porous scaffold structures”, U. S. Patent Application # 14/957,849, filed Dec 2015. PDF
40. Md T. Rahman, C. H. Cheng, B. Karagoz, M. Renn, M. Schrandt, A. Gellman, and R. Panat, “High Performance Flexible Temperature Sensors via Nanoparticle Printing”, in press, ACS Applied Nano Materials (2019). PDF
Nanoparticles of Cu and CuNi were printed on a flexible Kapton substrates and sintered using a low-power laser. The resulting temperature sensor has linear repeatable response with the highest sensitivity in film based sensors yet reported in literature and extremely high strain tolerance to 200 cycles of bending (to three radii) and twisting. TEM work shows nanoparticles with varying degree of coalescence with connections that may act as springs to give rise to the high strain tolerance.
39. S. Manandhar, A. Battu, S. Tan, R. Panat, V. Shutthanandan, C. V . Ramana, “Effect of Ti Doping on the Crystallography, Phase, Surface/Interface Structure and Optical Band Gap of Ga2O3 Thin Films”, in press, Journal of Materials Science (2019).
38. R. Danaei, T. Varghese, M. Ahmadzadeh, J. McCloy, C. Hollar, M. Sadeq Saleh, J. Park, Y. Zhang, R. Panat, “Ultrafast Fabrication of Thermoelectric Films by Pulsed Light Sintering of Colloidal Nanoparticles on Flexible and Rigid Substrates”, Advanced Engineering Materials, 21, pp. 1800800 (2019).PDF
37. Y. Arafat, S. T. Sultana, I. Dutta, R. Panat, “Effect of Additives on the Microstructure of Electroplated Tin Films”, Journal of the Electrochemical Society, 165 (16), D816-D824 (2018). PDF
Interesting Sn microstructures never obtained before were realized by changing additives to a methanesulfonic acid electroplating bath. See paper for complete characterization including cathodic polarization plots and mechanisms of film formation.
36. R. Panat, J.Park, M. S. Saleh, and J. Li, “3D-Printed Lattice Batteries”, Homeland Defense Information Analysis Center (HDIAC) Journal, 5 (4), pp. 11 (2018). PDF
35. J. Li, X. Liang, R. Panat, and J. Park, “Enhanced Battery Performance through Three-Dimensional Structured Electrodes: Experimental and Modeling Study” Journal of the Electrochemical Society, 165 (14), A3566-A3573 (2018). PDF
34a. “3D printing of Li-ion Battery Electrodes”, article about our work in the Tribology and Lubrication Technology Magazine, Nov 2018. PDF
34. M. Sadeq Saleh, Jie Li, Jonghyun Park, and Rahul Panat, “3D Printed Hierarchically-Porous Microlattice Electrode Materials for Exceptionally High Specific Capacity and Areal Capacity Lithium Ion Batteries”, Additive Manufacturing, Vol.23, pp 70-78 (2018). PDF
The research appeared in several media outlets including Forbes Magazine….
1- Forbes Magazine: See How This New 3D Printing Method Could Make Your Smartphone Last Longer
2- Green Car Congress: CMU-led team develops 3D printing method for exceptionally high capacity batteries
4- Printed electronics: 3D printing the next generation of batteries
5- 3D Printing Industry: 3D Printing creates major advance for longer lasting batteries
6- CMU news: 3D Printing the next generation of batteries
7- German Media: New “Aerosol Jet” method relies on 3D printing for electrodes of lithium-ion batteries and promises longer battery life
8- Japanese media: 3D打印技术造出微观多孔锂电池，容量提升了4倍
32. M. Sadeq Saleh, Mehdi HamidVishkasougheh, H. Zbib, and R. Panat, “Polycrystalline Micropillars by a Novel 3-D Printing Method and Their Behavior under Compressive Loads”, Scripta Materialia, Volume 149, 144–149, 2018. PDF
31. M. T. Rahman, R. Moser, H. Zbib, C. V. Ramana, and R. Panat, “3D Printed High Performance High Temperature Sensors”, Journal of Applied Physics, 123, 024501, 2018. PDF