Results 1 to 10 of about 1,657,402 (197)

State-correlated reaction dynamics unveiled in full from a single product-image measurement [PDF]

Nature Communications
Electron- or photoionization mass spectrometry coupled with product time-of-flight measurement is a universal detection scheme, which has been playing pivotal role in advancing our fundamental understanding of chemical reactions.
Huilin Pan, Shu Liu, Pengcheng Wang, Xueming Yang, Dong H. Zhang, Kopin Liu   +5 more
doaj   +2 more sources

Reaction Dynamics with Exotic Nuclei [PDF]

Progress of Theoretical Physics Supplement, 2002
Abstract We review the new possibilities offered by the reaction dynamics of asymmetric heavy-ion collisions, using stable and unstable beams. We show that it represents a rather unique tool to probe regions of highly asymmetric nuclear matter (ANM) in compressed as well as dilute phases, and to test the in-medium isovector interaction for high ...
Baran V, Colonna M, GRECO, VINCENZO, Di Toro M.   +3 more
openaire   +5 more sources

Reaction-Limited Quantum Reaction-Diffusion Dynamics

Physical Review Letters, 2023
We consider the quantum nonequilibrium dynamics of systems where fermionic particles coherently hop on a one-dimensional lattice and are subject to dissipative processes analogous to those of classical reaction-diffusion models. Particles can either annihilate in pairs, $A+A \to \emptyset$, coagulate upon contact, $A+A \to A$, and possibly also branch,
Gabriele Perfetto, Federico Carollo, Juan P. Garrahan, Igor Lesanovsky   +3 more
openaire   +5 more sources

Surface reaction dynamics [PDF]

Chemical Society Reviews, 2016
Guest editors Xueming Yang and Alec Wodtke introduce the Surface Reaction Dynamics issue of Chemical Society ...
Xueming, Yang, Alec M, Wodtke
openaire   +2 more sources

Singlet fission dynamics modulated by molecular configuration in covalently linked pyrene dimers, Anti- and Syn-1,2-di(pyrenyl)benzene

Communications Chemistry, 2023
Singlet fission excited-state relaxation, as observed in covalently linked dimers, could allow energy-conversion efficiencies in photovoltaic devices beyond the Shockley–Queisser limit. Here, the authors study the effect of the molecular configuration of
Jungkweon Choi, Siin Kim, Mina Ahn, Jungmin Kim, Dae Won Cho, Doyeong Kim, Seunghwan Eom, Donghwan Im, Yujeong Kim, Sun Hee Kim, Kyung-Ryang Wee, Hyotcherl Ihee   +11 more
doaj   +1 more source

Excitonic Bloch–Siegert shift in CsPbI3 perovskite quantum dots

Nature Communications, 2022
Observation of a Bloch-Siegert shift has remained elusive. Here, Wu et al, reports spin-selective Bloch-Siegert shift in lead halide perovskite quantum dots, and highlights the importance of many-body interactions in correctly modeling the shift.
Yuxuan Li, Yaoyao Han, Wenfei Liang, Boyu Zhang, Yulu Li, Yuan Liu, Yupeng Yang, Kaifeng Wu, Jingyi Zhu   +8 more
doaj   +1 more source

Spin blockade and phonon bottleneck for hot electron relaxation observed in n-doped colloidal quantum dots

Nature Communications, 2021
Hot electrons in bulk semiconductors usually relax via electron-phonon scattering on a sub-picosecond timescale. Here, the authors observe hot electron lifetime as long as 320 picoseconds by performing a photochemical reduction reaction on colloidal ...
Junhui Wang, Lifeng Wang, Shuwen Yu, Tao Ding, Dongmei Xiang, Kaifeng Wu   +5 more
doaj   +1 more source

Ultraviolet photolysis of H2S and its implications for SH radical production in the interstellar medium

Nature Communications, 2020
Sulfur is abundant in the Universe, but the observed abundance ratio of SH to H2S doesn’t agree with astrochemical models. The authors measure product state-resolved translational energy spectra of photoproducts in a jet-cooled H2S beam as a function of ...
Jiami Zhou, Yarui Zhao, Christopher S. Hansen, Jiayue Yang, Yao Chang, Yong Yu, Gongkui Cheng, Zhichao Chen, Zhigang He, Shengrui Yu, Hongbin Ding, Weiqing Zhang, Guorong Wu, Dongxu Dai, Colin M. Western, Michael N. R. Ashfold, Kaijun Yuan, Xueming Yang   +17 more
doaj   +1 more source

Markovian Dynamics on Complex Reaction Networks [PDF]

, 2012
Complex networks, comprised of individual elements that interact with each other through reaction channels, are ubiquitous across many scientific and engineering disciplines.
Abou-Kandil, Abramov, Aldous, Anderson, Anderson, Anderson, Andrieux, Andrieux, Antal, Ao, Ao, Artyomov, Artyomov, Auger, Bailey, Bailey, Bailey, Ball, Bandyopadhyay, Barabási, Bartholomay, Bartholomay, Bartholomay, Bartlett, Bartlett, Bartlett, Bascompte, Bascompte, Ben-Zion, Benayoun, Bishop, Black, Black, Blake, Bois, Borgatti, Bostani, Boustani, Boys, Bressloff, Bressloff, Brunton, Buice, Buice, Cai, Cai, Cai, Cao, Cao, Cao, Cao, Cao, Chaouiya, Chatterjee, Chatterjee, Chen, Chevalier, Chevalier, Cohn, Colquhoun, Cook, Cotter, Cover, Cowan, Crampin, Crudu, Daigle, Daigle, Dandach, Darvey, Datta, Dauxois, de la Lama, Delbrück, Demirel, Deuflhard, DeVille, Diaz, Diestel, Dill, Dilão, E, E, Ehrhardt, Elf, Elf, Elowitz, Engblom, Esposito, Esposito, Ferm, Freeman, G. Jenkinson, Gadgil, Gang, Gardiner, Gaspard, Ge, Ge, Ge., Gibson, Gillespie, Gillespie, Gillespie, Gillespie, Gillespie, Gillespie, Gillespie, Gillespie, Gillespie, Gillespie, Gillespie, Gillespie, Golightly, Golightly, Goss, Goutsias, Goutsias, Goutsias, Grima, Grima, Grima, Grima, Grima, Grima, Gross, Gross, Gunawan, Gómez-Uribe, Gómez-Uribe, Haas, Haddad, Haken, Haken, Han, Han, Harris, Harris, Haseltine, Haseltine, Haskey, Hasty, Hayot, Hegland, Hegland, Heiner, Heinrich, Hellander, Hellander, Hethcote, Heuett, Hiebeler, Higham, Hill, Hill, Holme, Hänggi, Ishida, Ishida, Isserlis, J. Goutsias, Jahnke, Jahnke, Jahnke, Jahnke, Jenkinson, Jenkinson, Jenkinson, Jenkinson, Jiang, Kang, Kapur, Keeling, Keeling, Keeling, Keizer, Kepler, Kim, Kim, Kim, Kiss, Klamt, Komorowski, Komorowski, Krishnarajah, Krishnarajan, Kurtz, Kurtz, Kurtz, Kuwahara, Lafuerza, Lapidus, Laurenzi, Lee, Leonard, Li, Liebermeister, Lipshtat, Liu, Lu, Luo, Lässig, Macheras, Macnamara, Magnasco, Mansour, Maria, Mastny, Masuda, Matis, Matis, Mcadams, McCollum, Mckane, Mckane, Mcquarrie, Mcquarrie, Mcquarrie, Mead, Milner, Mjolsness, Mohammad-Djafari, Moler, Moles, Moran, Moreno, Mou, Munsky, Munsky, Munsky, Murrell, Mélykúti, Newman, Newman, Nicolis, Nåsell, Nåsell, Ohira, Oono, Orendorff, Pahlajani, Peleš, Peng, Pettigrew, Pigolotti, Plyasunov, Poovathingal, Powell, Press, Prigogine, Puchałka, Puglisi, Qian, Qian, Qian, Qian, Qian, Ramaswamy, Ramaswamy, Rao, Rao, Rathinam, Rathinam, Rathinam, Reddy, Reinker, Ren, Renshaw, Renshaw, Roh, Ross, Ross, Ross, Ross, Ruess, Salis, Saltelli, Saltelli, Samant, Samoilov, Sanft, Santillán, Schlögl, Schmiedl, Schnakenberg, Scott, Seifert, Sidje, Sidje, Singer, Singh, Singh, Sinitsyn, Skoulakis, Slepoy, Soula, Spall, Srivastava, Srivastava, Stewart, Szabo, Tao, Thakur, Thattai, Thomas, Thomas, Thébault, Tian, Tomioka, Tomita, Turcotte, Ullah, van den Broeck, van Kampen, van Kampen, van Kampen, van Kampen, Varma, Vellela, Vellela, Wallace, Wang, Wang, Wang, Wang, Wang, Wang, Warren, Weidlich, Weidlich, Weidlich, Weidlich, Whittle, Wolf, Wolf, Wu, Xi, Xu, Xu, Yang, Yi, Youssef, Yuan, Zanette, Zeron, Zhang, Zhang, Zhang, Zhang, Zhang, Zhang, Zhang, Zheng, Zhou, Zhou   +354 more
core   +1 more source

Transition manifolds of complex metastable systems: Theory and data-driven computation of effective dynamics [PDF]

, 2017
We consider complex dynamical systems showing metastable behavior but no local separation of fast and slow time scales. The article raises the question of whether such systems exhibit a low-dimensional manifold supporting its effective dynamics.
Banisch, Ralf, Bittracher, Andreas, Dellnitz, Michael, Klus, Stefan, Koltai, Péter, Schütte, Christof   +5 more
core   +2 more sources