フォロー
Upamanyu Ray
Upamanyu Ray
Senior Scientist @ Warner Babcock || Ph.D. @ University of Maryland, College Park
確認したメール アドレス: terpmail.umd.edu - ホームページ
タイトル
引用先
引用先
Processing bulk natural wood into a high-performance structural material
J Song, C Chen, S Zhu, M Zhu, J Dai, U Ray, Y Li, Y Kuang, Y Li, ...
Nature 554 (7691), 224-228, 2018
13702018
All‐natural, degradable, rolled‐up straws based on cellulose micro‐and nano‐hybrid fibers
X Wang, Z Pang, C Chen, Q Xia, Y Zhou, S Jing, R Wang, U Ray, W Gan, ...
Advanced functional materials 30 (22), 1910417, 2020
2322020
Cellulose‐Nanofiber‐Enabled 3D Printing of a Carbon‐Nanotube Microfiber Network
Y Li*, H Zhu* (co-first), Y Wang* (co-first), U Ray* (co-first), S Zhu, J Dai, ...
Small Methods 1 (10), 1700222, 2017
1742017
Highly elastic hydrated cellulosic materials with durable compressibility and tunable conductivity
C Chen, J Song, J Cheng, Z Pang, W Gan, G Chen, Y Kuang, H Huang, ...
ACS nano 14 (12), 16723-16734, 2020
1392020
Mechanics design in cellulose‐enabled high‐performance functional materials
U Ray, S Zhu, Z Pang, T Li
Advanced Materials 33 (28), 2002504, 2021
1322021
A printed, recyclable, ultra-strong, and ultra-tough graphite structural material
Y Zhou, C Chen, S Zhu, C Sui, C Wang, Y Kuang, U Ray, D Liu, ...
Materials Today 30, 17-25, 2019
932019
Fabrication of cellulose–graphite foam via ion cross-linking and ambient-drying
R Wang, C Chen, Z Pang, X Wang, Y Zhou, Q Dong, M Guo, J Gao, U Ray, ...
Nano Letters 22 (10), 3931-3938, 2022
512022
Strength of graphene grain boundaries under arbitrary in-plane tension
A Fox, U Ray, T Li
Carbon 142, 388-400, 2019
292019
Reduced thermal conductivity of isotope substituted carbon nanomaterials: Nanotube versus graphene nanoribbon
U Ray, G Balasubramanian
Chemical Physics Letters 599, 154-158, 2014
252014
Thermal conductivity of graphene grain boundaries along arbitrary in-plane directions: A comprehensive molecular dynamics study
A Fox, U Ray, T Li
Journal of Applied Physics 125 (1), 2019
232019
Mechanics of cellulose nanopaper using a scalable coarse-grained modeling scheme
U Ray, Z Pang, T Li
Cellulose 28 (6), 3359-3372, 2021
212021
An informatics based analysis of the impact of isotope substitution on phonon modes in graphene
S Broderick, U Ray, S Srinivasan, K Rajan, G Balasubramanian
Applied Physics Letters 104 (24), 2014
212014
Thermal conductivity reduction in analogous 2D nanomaterials with isotope substitution: Graphene and silicene
S Srinivasan, U Ray, G Balasubramanian
Chemical Physics Letters 650, 88-93, 2016
172016
Programming material properties by tuning intermolecular bonding
U Ray, Z Pang, T Li
Journal of Applied Physics 132 (21), 2022
72022
Nanocellulose-Based Materials with Superior Mechanical Performance
U Ray, S Zhu, Z Pang, T Li
Emerging Nanotechnologies in Nanocellulose, 141-178, 2022
22022
Induction heating of an aluminum billet: A numerical study of the thermal behavior
U Ray, A Sarkar, S Sen, B Roychowdhury, N Barman
Applied Mechanics and Materials 110, 4697-4704, 2012
22012
Investigating thermal conductivity and mechanical properties of a hybrid material based on cellulose nanofibers and boron nitride nanotubes using molecular dynamics simulations
U Ray, Z Pang, T Li
Journal of Physics D: Applied Physics 57 (18), 185302, 2024
2024
Mechanics and Thermal Transport Modeling in Nanocellulose and Cellulose-Based Materials
U Ray
University of Maryland, College Park, 2023
2023
Investigating thermal transport in isotope substituted nanomaterials using molecular simulations
U Ray
Iowa State University, 2015
2015
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論文 1–19