Glaucio H. Paulino (@ghpaulino) 's Twitter Profile
Glaucio H. Paulino

@ghpaulino

ID: 388118296

calendar_today10-10-2011 06:49:33

405 Tweet

1,1K Followers

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Glaucio H. Paulino (@ghpaulino) 's Twitter Profile Photo

Prof. Nancy Sottos (UIUC) is delivering an amazing lecture (PMI Seminar) on “Molecularly Architected Polymers Enabled by Frontal Polymerization” ⁦Princeton University⁩ ⁦University of Illinois⁩ ⁦

Prof. Nancy Sottos (UIUC) is delivering an amazing lecture (PMI Seminar) on “Molecularly Architected Polymers Enabled by Frontal Polymerization” ⁦<a href="/Princeton/">Princeton University</a>⁩ ⁦<a href="/UofIllinois/">University of Illinois</a>⁩ ⁦
Glaucio H. Paulino (@ghpaulino) 's Twitter Profile Photo

As part of The Princeton SMatCH Seminar series, Dr Tuo Zhao is delivering a fascinating lecture on “Modular Chiral Origami Metamaterials” associated to his upcoming paper in Nature ⁦Princeton University⁩ ⁦Princeton Engineering⁩ ⁦nature

As part of The Princeton SMatCH Seminar series, Dr Tuo Zhao is delivering a fascinating lecture on “Modular Chiral Origami Metamaterials” associated to his upcoming paper in Nature ⁦<a href="/Princeton/">Princeton University</a>⁩ ⁦<a href="/EPrinceton/">Princeton Engineering</a>⁩ ⁦<a href="/Nature/">nature</a>⁩
Princeton Engineering (@eprinceton) 's Twitter Profile Photo

In an experiment reminiscent of the Transformers movies, Princeton University engineers created a type of material that can expand, assume new shapes, move and follow electromagnetic commands like a remotely controlled robot even though it lacks internal gears: engineering.princeton.edu/news/2025/04/2…

Glaucio H. Paulino (@ghpaulino) 's Twitter Profile Photo

Thanks to Philip Klocke and Larry Howell for their amazing “News & Views” Nature article: “Shapeshifting origami material shrinks when twisted” BYU Princeton University Princeton Engineering nature.com/articles/d4158…

EML Webinar (@emlwebinar) 's Twitter Profile Photo

Congratulations to EML Editor Prof. Hanqing Jiang (Westlake University, China) on being selected as the recipient of the 2025 ASME Daniel C. Drucker Medal — one of the most prestigious honors in applied mechanics and mechanical engineering! 🎉 #AppliedMechanics #ASME

Congratulations to EML Editor Prof. <a href="/HanqingJiang/">Hanqing Jiang</a>  (Westlake University, China) on being selected as the recipient of the 2025 ASME Daniel C. Drucker Medal — one of the most prestigious honors in applied mechanics and mechanical engineering! 🎉 #AppliedMechanics #ASME
Cohen Mechanics Group (@cohenmechgroup) 's Twitter Profile Photo

Excited to share our new paper in Nature Communications Physics offering insights for "Egg Drop" competitions and how technical language shapes learning outcomes by detailing what we mean when we say an egg is strong, stiff, or tough:  nature.com/articles/s4200…

TachiLab/OrigamiLab (@laborigami) 's Twitter Profile Photo

Our paper by Imada, Adachi, Terashima, Iwase, and Tachi, "Kinematic folding propagation in degree-4 origami strips" is published in Extreme Mechanics Letters! Enjoy! doi.org/10.1016/j.eml.…

Glaucio H. Paulino (@ghpaulino) 's Twitter Profile Photo

Interested to learn about cloaks that perform well under any elastic disturbances? Then see our PNAS paper: “Unbiased Mechanical Cloaks” ⁦Princeton Engineering⁩ ⁦Princeton University⁩ ⁦Georgia Tech⁩ ⁦ASME.org⁩ ⁦⁦⁦ASCE Headquarters pnas.org/doi/10.1073/pn…

Glaucio H. Paulino (@ghpaulino) 's Twitter Profile Photo

Prof. Ke Liu (Chris), from Peking Univ., is presently delivering an inspirational seminar on “Artificial Neuromuscular Systems” as part of the Princeton Univ. Robotic Seminar Series ⁦Princeton University⁩ ⁦Princeton Engineering⁩ ⁦Peking University⁩ ⁦ASME.org

Prof. Ke Liu (Chris), from Peking Univ., is presently delivering an inspirational seminar on “Artificial Neuromuscular Systems” as part of the Princeton Univ. Robotic Seminar Series ⁦<a href="/Princeton/">Princeton University</a>⁩ ⁦<a href="/EPrinceton/">Princeton Engineering</a>⁩ ⁦<a href="/PKU1898/">Peking University</a>⁩ ⁦<a href="/ASMEdotorg/">ASME.org</a>⁩
Princeton University (@princeton) 's Twitter Profile Photo

Engineers at Princeton and Georgia Tech have developed a technique that can be used to maintain structural integrity by essentially hiding the opening from the surrounding forces. bit.ly/4jgXKA7

Glaucio H. Paulino (@ghpaulino) 's Twitter Profile Photo

Congratulations to Emily for getting her PhD at Princeton! She is my first PhD student at Princeton! You will have a brilliant career ahead! I wish you all the very best! ⁦Princeton University⁩ ⁦Princeton Engineering⁩ ⁦Georgia Tech⁩ ⁦Arizona State University

Congratulations to Emily for getting her PhD at Princeton! She is my first PhD student at Princeton! You will have a brilliant career ahead! I wish you all the very best! ⁦<a href="/Princeton/">Princeton University</a>⁩ ⁦<a href="/EPrinceton/">Princeton Engineering</a>⁩ ⁦<a href="/GeorgiaTech/">Georgia Tech</a>⁩ ⁦<a href="/ASU/">Arizona State University</a>⁩
Gabriele Muza (@muzaproductions) 's Twitter Profile Photo

Cotton in, landfill out. Our new animation with Westlake University reveals origami robots made from biodegradable cellulose shells and gelatin sensors: functional today, compostable tomorrow. Sustainable robotics is unfolding fast. #robotics #Engineering #Science

Princeton Materials Institute (@princetonmse) 's Twitter Profile Photo

Zang won third place in the research poster competition at the most recent PMI Annual Symposium for her work on frustrated origami. (Here with PMI director Rick Register)

Zang won third place in the research poster competition at the most recent PMI Annual Symposium for her work on frustrated origami. (Here with PMI director Rick Register)
Princeton Materials Institute (@princetonmse) 's Twitter Profile Photo

Whether designing a window in an airliner or a cable conduit for an engine, manufacturers devote a lot of effort to reinforcing openings for structural integrity. But the reinforcement is rarely perfect and often creates structural weaknesses elsewhere.

Whether designing a window in an airliner or a cable conduit for an engine, manufacturers devote a lot of effort to reinforcing openings for structural integrity. 

But the reinforcement is rarely perfect and often creates structural weaknesses elsewhere.