3DEM History and Genealogy 1968-2011
Welcome to the Web Page on the History of 3-Dimensional Electron Microscopy in Biology
Since the inception of the field of 3-Dimensional Electron Microscopy in Biology in 1968 there has been remarkable growth in the number of labs and scientists active in the field of 3DEM.
The aim of this website is to provide links to some of the original papers which spawned the field and reviews which have chronicled the subsequent development of the field. Several of these resources are published personal accountings by colleagues who were central in the field, and also narratives written especially for this project.
An attempt has been made to present a genealogy reflecting the original groups in the field and to show how the field has propagated from the few pioneer laboratories in 3DEM, and the interrelationships between them.
The genealogy data in the map has purposely been cut off at the year 2011. This arose because of the almost exponential rise in 3DEM activity since this date. We felt that chronicling the early steps of the development of the field would provide a valuable resource in understanding how the field evolved.
Here is a link to the criteria used for inclusion in the genealogy.
We rely on you, our colleagues, to make further contributions to the website and to guide us in the accuracy of the facts we present. Please feel free to contact us (Alexis, Martin, Ardan)!
Network Visualization
This is an attempt at an academic genealogy of the field of 3D EM and is a work in progress.
Academic genealogy: Frequently Asked Questions
This genealogy aims to record the growth of the field of 3D EM from 1968 to 2011
Who is included?
Researchers who hold or have held permanent positions and who have made a significant contribution to the field of 3D EM. PhD students, postdocs and other non-permanent scientists are not included. Tenure-track faculty are included.
Technical Staff with more than 5 publications in the field of 3DEM are also included in the list.
What do arrows signify?
Links denote mentorship. Typically, PhD supervisor – student and PI – postdoc relationships are denoted by links. If a person trained or worked in more than one lab, these relationships may be indicated.
Why are some nodes larger, more visible than others?
The choice of which nodes to emphasize aims to reflect:
- Those scientists who initiated the field of 3D EM
- The number of their academic “descendants”
- The fact that some researchers entered the field independently of others, in a sense becoming “first-generation” contributors
Why is X not included? I can see errors, can they be corrected?
Since there is no authoritative source for information needed to compile this genealogy we rely on feedback to ensure there are no omissions or other mistakes.
Development of the field of 3DEM
Publications related to the history of 3D EM
| David DeRosier | 3D reconstruction from electron micrographs a personal account of its development | Methods Enzymol. 2010;481:1-24 |
| Bob Glaeser | Review: Electron Crystallography: Present Excitement, a Nod to the Past, Anticipating the Future | J Struct Biol. 1999 Dec 1;128(1):3-14 |
| Ken Taylor, Bob Glaeser | Retrospective on the early development of cryoelectron microscopy of macromolecules and a prospective on opportunities for the future | J Struct Biol. 2008 Sep;163(3):214-23 |
| Obituary: Walter Hoppe | J. Appl. Cryst. (1987) 20, 324-325 | |
| Bruno Strasser, Jacques Dubochet | Obituary: Eduard Kellenberger (1920-2004) | Nature. 2005 Feb 24;433(7028):817 |
| Marin van Heel | Jean-Pierre Bretaudière (1946-2008) and the early days of multivariate statistics in electron microscopy | In: "An electronic text book: Electron microscopy in Life Science", 3D-EM Network of Excellence, Editors: A. Verkley and E. Orlova (2009) |
| R. Nuzzo | Profile of Chikashi Toyoshima | Proc Natl Acad Sci U S A. 2006 Jan 31;103(5):1165-7 |
| Aaron Klug | Aaron Klug - Autobiography | Nobelprize.org. 17 Jul 2011 |
| Don Caspar, David DeRosier | The 1982 Nobel Prize in chemistry | Science. 1982 Nov 12;218(4573):653-5 |
| John Finch | A Nobel Fellow on Every Floor | Book published by MRC/LMB |
| Anthony Crowther | From Envelopes to Atoms: The Remarkable Progress of Biological Electron Microscopy | Adv Protein Chem Struct Biol. 2010;81:1-32. |
| Viruses and the development of quantitative biological electron microscopy | Notes Rec R Soc Lond. 2004 Jan;58(1):65-81. | |
| Nikolai Andreevich Kiselev | Nikolai Andreevich Kiselev (On the Occasion of His 80th Birthday) | Kristallografiya, 2008, Vol. 53, No. 6, pp. 1149–1150. translated in Crystallography Reports, 2008, Vol. 53, No. 6, pp. 1091–1092 |
| Wolfgang Baumeister | A voyage to the inner space of cells | Protein Sci. 2005 January; 14(1): 257–269. |
| Arthur L Robinson | Electron Microscopy: Imaging Molecules in Three Dimensions | Science 1976 April; Vol. 192 no. 4237 pp. 360-400 |
| Jacques Dubochet | Cryo-EM—the first thirty years | Journal of Microscopy 2011; Vol. 245 no. 3 pp. 1-4 |
| Joachim Frank | Single-particle Cryo-electron Microscopy: The Path Toward Atomic Resolution/Selected Papers Of Joachim Frank With Commentaries (Series in Structural Biology) | April 6, 2018 |
Original personal narratives
These narratives were specially provided to this 3DEM history website by the authors below. We welcome further contributions.
| Robert Josephs | A profile of a researcher in the field of electron crystallography | October 2015 |
| Michael Rossmann | A short scientific autobiography of Michael G. Rossmann | September 2011 |
| Ondreij Krivanek | Ondrej Krivanek’s contribution to microscopy: Memories of an adventure! | August 2018 |
Other Links
Web of stories: video interview of Aaron Klug & Nobel interview with Aaron KlugContributors
Hebrew University of Jerusalem and the National Cancer Institute, NIH
Quick links
Recent Entries
(Show all)Focused map of LRRC58-CDO1 region from LRRC58- EloB/C-CDO1 in complex with neddylated CUL2-RBX1-ARIH1-Ub
Focused map of ARIH1-Ub region from LRRC58- EloB/C-CDO1 in complex with neddylated CUL2-RBX1-ARIH1-Ub
Focused map of LRRC58-CDO1 region from LRRC58-ELOB/C-CDO1-CUL5-RBX2-NEDD8-ARIH2-UB
Consensus Map of LRRC58-ELOB/C-CDO1 in complex with NEDD8-CUL5-RBX2-ARIH2-Ub
Structure of the human inner kinetochore CCAN bound to a mono-CENP-A nucleosome
Consensus map of LRRC58- EloB/C-CDO1 in complex with neddylated CUL2-RBX1-ARIH1-Ub
Structure of the human inner kinetochore CCAN bound to a 3' CENP-A nucleosome
Structure of the human inner kinetochore CCAN bound to a 5' CENP-A nucleosome
Focused map of CUL2-LRRC58-EloC interface region from LRRC58- EloB/C-CDO1 in complex with neddylated CUL2-RBX1-ARIH1-Ub
Structure of LRRC58-EloB/C-CDO1 in complex with NEDD8-CUL5-RBX2-ARIH2-Ub
1.80 A cryo-EM structure of Mycobacterium tuberculosis BfrB prepared under isotope-depleted abundance
Structure of the human inner kinetochore CCAN bound to a di-CENP-A nucleosome
1.79 A cryo-EM structure of Mycobacterium tuberculosis BfrB prepared under natural isotope abundance
Structure of the human inner kinetochore CCAN bound to a di-CENP-A nucleosome, consensus map
Structure of the human inner kinetochore CCAN and CENP-C bound to DNA
CryoEM structure of native quinol dependent Nitric Oxide Reductase with HQN at pH 6.5
CryoEM structure of native quinol dependent Nitric Oxide Reductase at pH 8.0.
CryoEM structure of quinol dependent Nitric Oxide Reductase with BRIL
Cryo-EM structure of DddT G101D in substrate-free outward open conformation
Cryo-EM structure of DddT G101D in substrate-free inward open conformation
Cryo-EM structure of human Nav1.6 in complex with Iota-Conotoxin RXIA
Cryo-EM structure of DddT in closed substrate-free conformation in the presence of potassium ions and dimethylsulfoniopropionate
Cryo-EM structure of human Nav1.6 in complex with delta-paraponeritoxin-Pc1a
Electron tomogram of resin-embedded yeast cells expressing Tcb3(1-272)-GFP-chimeraC, deleted for tcb1/2, scs2/22 and ist2
Structure of human MCM2-7 single hexamer without MCM3 CTE, state 2
Structure of human MCM2-7 single hexamer without MCM3 CTE, state 1
CryoEM structure of Arabidopsis thaliana Col-0 Rubisco with D4 symmetry
Structure of human MCM2-7 single hexamer with MCM3-WHD attached to MCM2-CTD
Structure of human MCM2-7 single hexamer with MCM3-WHD attached to MCM2-CTD, state 2
Structure of human MCM2-7 single hexamer with MCM3-WHD attached to MCM2-CTD, state 3
Structure of human MCM2-7 single hexamer with MCM3-WHD attached to MCM2-CTD, containing Meier-Gorlin Syndrome mutation (MCM3-Q761L)
CryoEM structure of Arabidopsis thaliana M309I Rubisco with D4 symmetry
CryoEM structure of Arabidopsis thaliana D397N Rubisco with D4 symmetry
Composite map of LRRC58- EloB/C-CDO1 in complex with neddylated CUL2-RBX1-ARIH1-Ub
Asymmetric reconstruction of immature TBEV particle with 2 missing pentamers
Asymmetric reconstruction of immature TBEV particle with 2 irregularities
Cryo-EM structure of Beta-lactamase-like domain from Neomoorella carbonis
Immature TBEV envelope spike with interaction partners underneath - SPA
Asymmetric reconstruction of immature TBEV particle with altered 5-fold
Immature TBEV envelope spike with interaction partners underneath - STA
Phage 812 baseplate in the pre-contraction state - upper arm (segment B)
Phage 812 baseplate in the pre-contraction state - core and wedge module proteins
Phage 812 baseplate in the pre-contraction state - lower arm (segment C)
Phage 812 baseplate in the pre-contraction state - lower arm (lRBP1-uRBP2)
Phage 812 baseplate in the pre-contraction state - lower arm (uRBP1-lRBP2)
Phage 812 baseplate in the pre-contraction state - lower arm (segment DEF)
Phage 812 baseplate in the pre-contraction state - upper arm (segment CDEF)
Phage 812 baseplate in the pre-contraction state - lower arm (segment B)
Phage 812 baseplate in the pre-contraction state - upper arm (segment A)
Phage 812 baseplate in the pre-contraction state - tail sheath initiator and baseplate-proximal tail proteins
Phage 812 baseplate in the pre-contraction state - lower arm (segment A)
Baseplate arm (segment B) of phage 812 in the post-contraction state
E. coli 70S ribosome, trapped conformational excited state of SSU-h44 apical loop, with A/P- and P/E-site tRNA
E. coli 70S ribosome, trapped conformational excited state of SSU-h44 apical loop, with A- and P-site tRNA
E. coli 70S ribosome, trapped conformational ground state of SSU-h44 apical loop, with A- and P-site tRNA
E. coli 70S ribosome, trapped conformational ground state of SSU-h44 apical loop, with A/P- and P/E-site tRNA
E. coli 70S ribosome, conformational ground state mutation in SSU-h41, with A/P- and P/E-site tRNA
E. coli 70S ribosome, conformational ground state mutation in SSU-h41, with A- and P-site tRNA
E. coli 70S ribosome, trapped conformational ground state of SSU-h44 apical loop, with P-site tRNA
E. coli 70S ribosome, conformational excited state mutation in SSU-h41, with A- and P-site tRNA
E. coli 70S ribosome, conformational excited state mutation in SSU-h41, with A/P- and P/E-site tRNA
E. coli 70S ribosome, trapped conformational ground state of SSU-h44 apical loop, with A- and P/E-site tRNA
E. coli 70S ribosome, trapped conformational ground state of SSU-h44 apical loop, without tRNA
E. coli 70S ribosome, trapped conformational ground state of SSU-h44 apical loop, with P/E-site tRNA
E. coli 70S ribosome, trapped conformational excited state of SSU-h44 apical loop, with P-site tRNA
E. coli 70S ribosome, trapped conformational excited state of SSU-h44 apical loop, without tRNA
E. coli 70S ribosome, trapped conformational excited state of SSU-h44 apical loop, with A- and P/E-site tRNA
E. coli 70S ribosome, trapped conformational excited state of SSU-h44 apical loop, with P/E-site tRNA
E. coli 70S ribosome, conformational ground state mutation in SSU-h41, with A- and P/E-site tRNA
E. coli 70S ribosome, conformational ground state mutation in SSU-h41, without tRNA
E. coli 70S ribosome, conformational excited state mutation in SSU-h41, with A- and P/E-site tRNA
E. coli 70S ribosome, conformational ground state mutation in SSU-h41, with P-site tRNA
E. coli 70S ribosome, conformational excited state mutation in SSU-h41, without tRNA
E. coli 70S ribosome, conformational ground state mutation in SSU-h41, with P/E-site tRNA
E. coli 70S ribosome, conformational excited state mutation in SSU-h41, with P-site tRNA
E. coli 70S ribosome, conformational excited state mutation in SSU-h41, with P/E-site tRNA
Cryo-EM structure of alpha-synuclein filaments from Parkinson's disease with G51D mutaion in SNCA
Cryo-EM structure of alpha-synuclein filaments from Parkinson's disease with H50Q variant in SNCA
N. brasiliensis GlfT2 in a styrene maleic acid liponanoparticle (C1 Unmasked Map)
Structure of Rapidly twisting Amyloid-beta 40 fibril , RT-Ab40(C1)'
Ternary complex structure of compound 1 bound to SMARCA2 bromodomain and DCAF16:DDB1deltaBPB
Cryo-EM structure of the Class 3 PI3K alpha/KRas complex on POPC/POPS nanodiscs
Cryo-EM structure of the PI3K alpha/KRas complex on POPC/POPS/PIP2 nanodiscs low-pass filtered to 5 angstroms
Cryo-EM structure of active mutant human green cone opsin (E129Q) in complex with chimeric G protein (miniGist)
Structure of Rapidly twisting Amyloid-beta 40 fibril , RT-Ab40(C2)
Structure of Rapidly twisting Amyloid-beta 40 fibril , RT-Ab40(C1)
Local refinement of active human green opsin mutant E129Q in complex with chimeric G protein
Structure of Rapidly twisting Amyloid-beta 40 fibril , RT-Ab40(2_1)
Single particle reconstruction of PilU from Vibrio cholerae El Tor E7946, form 2
Single particle reconstruction of PilU from Vibrio cholerae El Tor E7946, form 4
Single particle reconstruction of PilU from Vibrio cholerae El Tor E7946, form 3
Single particle reconstruction of PilU from Vibrio cholerae El Tor E7946, form 1
Hypopseudouridylated yeast 80S bound with Taura syndrome virus (TSV) internal ribosome entry site (IRES) and hygromycin B
Hypopseudouridylated yeast 80S bound with Taura syndrome virus (TSV) internal ribosome entry site (IRES) and hygromycin B, Class II
Structure of Geobacillus stearothermophilus RNase P ribozyme sub-conformation 3
Structure of Geobacillus stearothermophilus RNase P ribozyme in 5 mM Mg2+
Structure of Geobacillus stearothermophilus RNase P ribozyme sub-conformation 1
Structure of Geobacillus stearothermophilus RNase P ribozyme in complex with precursor tRNA in 5 mM Ca2+
Structure of Geobacillus stearothermophilus RNase P ribozyme in complex with mature tRNA in 5 mM Ca2+
Structure of Geobacillus stearothermophilus RNase P ribozyme tetraloop mutant (sub-conformation 2)
Structure of Geobacillus stearothermophilus RNase P ribozyme in 10 mM Mg2+
Structure of Geobacillus stearothermophilus RNase P ribozyme tetraloop mutant (sub-conformation 1)
Structure of Geobacillus stearothermophilus RNase P ribozyme in complex with mature tRNA in 10 mM Ca2+
Structure of Geobacillus stearothermophilus RNase P ribozyme sub-conformation 2
Cryo-EM structure of the PGD2-bound prostaglandin D2 receptor (DP1)-Gs complex (G protein-focused map)
Cryo-EM structure of the BW245C-bound prostaglandin D2 receptor (DP1)-Gs complex (Receptor-focused map)
Cryo-EM structure of the PGD2-bound prostaglandin D2 receptor (DP1)-Gs complex (Consensus map)
Cryo-EM structure of the BW245C-bound prostaglandin D2 receptor (DP1)-Gs complex (Consensus map)
Structure of Geobacillus stearothermophilus RNase P ribozyme tetraloop mutant (sub-conformation 3)
Cryo-EM structure of the PGD2-bound prostaglandin D2 receptor (DP1)-Gs complex (Receptor-focused map)
Cryo-EM structure of Pseudomonas aeruginosa outer-membrane lipoprotein PA3214 in the open conformation
Two Component Protein Nano-Particle (T=3). De Novo Design, Computationally Relaxed into Low Resolution Single Particle CryoEM Map with Icosahedral Symmetry Applied
Cryo-EM structure of the BW245C-bound prostaglandin D2 receptor (DP1)-Gs complex (G protein-focused map)
Cryo-EM structure of Pseudomonas aeruginosa soluble lipoprotein PA3214
Cryo-EM structure of Pseudomonas aeruginosa outer-membrane lipoprotein PA3214 bound to MCE protein PA3213 C-terminal peptide (CASP target)
Locally refined DeepEMhanced map of the meizothrombinDESF1-factor Xa complex
Composite map of the meizothrombinDESF1, factor Xa and factor Va complex
Locally refined DeepEMhanced map of the factor Xa-factor Va complex
RNA Vault Shoulder with ADPR bound, compact conformation, focused refinement (MVP/PARP4/TEP1 NADP sample)
Composite map of hypomethylated 80S ribosome treated with hygromycin B
RNA Vault bound to PARP4 MINT, focused refinement (MVP/PARP4/TEP1 NADP sample)
Human Brain RNA Vault Shoulder bound to ADPR, focused refinement (EMPIAR-10766)
Consensus map of the meizothrombinDESF1, factor Xa, factor Va complex
RNA Vault shoulder region with BAD bound, focused refinement (MVP/TEP1 sample)
RNA Vault Shoulder with ADPR bound, extended conformation, focused refinement (MVP/PARP4/TEP1 NADP sample)
Structure of the 70S ribosome with E- and P-site tRNA from the alphaproteobacteria Asaia platycodi.
Map of the 70S ribosome with E-site tRNA and HPF from the alphaproteobacteria Rhodospirillum rubrum.
Map of the 70S ribosome with E- and P-site tRNA from the gammaproteobacteria Escherichia coli.
Map of the 70S ribosome with E-site tRNA and HPF from the gammaproteobacteria Escherichia coli.
Map of the 70S ribosome with E- and P-site tRNA from the alphaproteobacteria Rhodospirillum rubrum.
Two Component Protein Nano-Particle (T=3). De Novo Design, Computationally Relaxed into Low Resolution Subtomogram Averaged CryoEM Map with Icosahedral Symmetry Applied
Structure of a stalled E. coli 70S RNC-NuoK-48 in complex with the SecYEG Translocon.
Structure of a stalled E. coli 70S RNC-NuoK-48 in complex with the SecYEG Translocon (Focused Refinement)
Structure of a stalled E. coli 70S RNC-NuoK-86 in complex with the SecYEG-YidC membrane protein insertase (Focused Refinement)
Structure of a stalled E. coli 70S RNC-NuoK-86 in complex with the SecYEG-YidC membrane protein insertase
Structure of a stalled E. coli 70S RNC-NuoK-86-E36K-E76K-mutant in complex with the SecYEG-YidC membrane protein insertase (Focused Refinement)
Structure of a stalled E. coli 70S RNC-NuoK-86-E36K-E76K-mutant in complex with the SecYEG-YidC membrane protein insertase
