Results 31 to 40 of about 6,313,615 (343)

Cryo-EM analysis of MmpL3-GDN.

, 2021
(a) Data processing flow chart with particle distributions. The black box indicates the particle class used for further refinement. (b) Representative 2D classes. (c) FSC curves.
Christopher E. Morgan (11269227), Philip A. Klenotic (11269221), Meinan Lyu (11269224), Edward W. Yu (9745721), Chih-Chia Su (573213), Meng Cui (29943)   +5 more
core   +1 more source

Cryo‐EM structures of coagulation factors

Research and Practice in Thrombosis and Haemostasis, 2022
A State of the Art lecture titled “Cryo‐EM structures of coagulation factors” was presented at the ISTH Congress in 2022. Cryogenic electron microscopy (cryo‐EM) is a revolutionary technique capable of solving the structure of high molecular weight ...
Enrico Di Cera, Bassem M. Mohammed, Leslie A. Pelc, Bosko M. Stojanovski   +3 more
doaj   +1 more source

Cryo-EM data collection and refinement parameters.

, 2022
Cryo-EM data collection and refinement parameters.
Jarrod B. French (1328283), Wesley C. Van Voorhis (10332534), Brian C. Richardson (13989661), Roger Shek (1500097)   +3 more
core   +1 more source

Cryo-EM analysis of MmpL3-TMM III.

, 2021
(a) Data processing flow chart with particle distributions. The black box indicates the particle class used for further refinement. (b) Representative 2D classes. (c) FSC curves.
Christopher E. Morgan (11269227), Philip A. Klenotic (11269221), Meinan Lyu (11269224), Edward W. Yu (9745721), Chih-Chia Su (573213), Meng Cui (29943)   +5 more
core   +1 more source

Interpreting the cryo-EM map [PDF]

IUCrJ, 2019
Beckers et al. [IUCrJ (2019), 6, 18-33] propose a general approach to visualization of cryo-EM maps. Their method overcomes some of the challenges inherent in the conventional approach for depicting maps using a single isosurface threshold.
openaire   +3 more sources

Cryo-EM data collection, processing, and validation.

, 2023
Cryo-EM data collection, processing, and validation.
Anila Yasmeen (460713), Philippe Colin (128052), Thomas Ketas (164120), Max Crispin (346213), Aleksandar Antanasijevic (475614), P. J. Klasse (15944555), John P. Moore (260880), Joel D. Allen (5285486), Gemma E. Seabright (5285489), Kimmo Rantalainen (6954842), Rajesh P. Ringe (3118764), Andrew B. Ward (7832180), Jeong Hyun Lee (7826723), Gabriel Ozorowski (711509)   +13 more
core   +1 more source

History of Cryo-EM [PDF]

Scientific Video Protocols, 2020
Richard Henderson discusses Jacques Dubochet's, Joachim Frank's and his contributions to the development of electron cryo-microscopy.
Richard Henderson, Mejd Alsari
openaire   +1 more source

Cryo-EM data collection, refinement, and validation statistics.

, 2022
Cryo-EM data collection, refinement, and validation statistics.
Hideo Fukuhara (494318), Weontae Lee (410997), Asuka Inoue (52011), Kouki Kawakami (10688338), Ji-Hye Yun (410992), Sam-Yong Park (401887), Katsumi Maenaka (457393), Yunseok Heo (13184337), Yuki Anraku (13184346), Mina Sasaki (812280), Naito Ishimoto (13184340), Mio Ohki (401886), Ye-Eun Jeon (13184343), Shunsuke Kita (3189747), Tatsuya Ikuta (1683052), Jeremy R. H. Tame (10077989)   +15 more
core   +1 more source

Accelerating discovery and rational engineering of antibody modalities using Cryo- EM [PDF]

Structural Dynamics
As the need for novel therapeutic modalities is growing, researchers require innovative strategies and transformative technologies to overcome the limitations of traditional antibody discovery methodologies.
Tilak Gupta, Surajit Banerjee
doaj   +1 more source

Cryo-EM: beyond the microscope [PDF]

Current Opinion in Structural Biology, 2017
The pace at which cryo-EM is being adopted as a mainstream tool in structural biology has continued unabated over the past year. Initial successes in obtaining near-atomic resolution structures with cryo-EM were enabled to a large extent by advances in microscope and detector technology.
Lesley A, Earl, Veronica, Falconieri, Jacqueline Ls, Milne, Sriram, Subramaniam   +3 more
openaire   +2 more sources