The era of “smart” organelles
Organelles are the fundamental units of cellular organization, and our understanding of their roles in cell physiology has evolved dramatically since they first were described in the early 20th century. Though organelles originally were thought of as simple compartments for biochemical reactions and confined to eukaryotes, new studies have revealed “smart” roles for them in fine-tuning metabolism as well as serving as platforms coordinating signaling and quality-control pathways in both bacteria and eukaryotes.
Recent work illuminates the organizational principles governing how organelles cleverly coordinate cell quality control. These reveal how organelles create microenvironments for metabolic pathways, how they facilitate interorganelle communication to sense and respond to specific cues, and how the phase properties of lipids and proteins equip organelles to protect cells from stress and maintain organismal homeostasis.
Our symposia at the American Society for Biochemistry and Molecular Biology’s annual meeting, Discover BMB, in Seattle in March illustrate these themes and feature work in an array of fields, including prokaryotic and eukaryotic cell biology, cancer biology, and phase separation biophysics.
Just like in the song “Whatever It Takes” by Imagine Dragons, organelles are equipped to do whatever is necessary for cells to adapt and survive the ever-present challenges of life.
Keywords: Bacterial microcompartments, interorganelle communication, protein and lipid phase separation, mitochondrial metabolism.
Who should attend: Anyone interested in learning how organelles are constructed, organized and responsive to signals. Also people interested in the phase properties of proteins and lipids in organelle biology.
Theme song: “Whatever It Takes” by Imagine Dragons.
The session is powered by lipids, proteins and cellular stress.
Speakers
Bacterial organelles
Luning Lu, University of Liverpool
Danielle Tullman–Ercek, Northwestern University
Cheryl Kerfeld (chair), Michigan State University
Arash Komelli, University of California, Berkeley
Phase separation in organelle structure and function
W. Mike Henne (chair), University of Texas Southwestern Medical Center at Dallas
David Savage, University of California, Berkeley/Howard Hughes Medical Institute
Martin Jonikas, Princeton University
Alex Merz, University of Washington School of Medicine
Inter-organelle communication
Rushika Perera (chair), University of California, San Francisco
Karin Reinisch, Yale University
Laura Lackner, Northwestern University
Sarah Cohen, University of North Carolina at Chapel Hill
The complete list
Learn about all 11 symposia planned for Discover BMB 2023:- Protein Machines and Disorder
- Regulation of RNA
- Organelles, Mechanisms and Phase Properties of Cellular Quality Control
- Lipid Dynamics and Signals in Membrane and Protein Structure
- Frontiers in Carbohydrate Synthesis and Recognition
- Bias In, Bias Out in Data Science
- Cell Signaling — New Tools and Emerging Concepts
- Education and Professional Development
- Biochemistry of Elemental Cycling
- Advances in Organismal and Cellular Metabolism
- Artificial Intelligence and Machine Learning in Structural Biology, Drug Design and Systems Biology
Enjoy reading ASBMB Today?
Become a member to receive the print edition four times a year and the digital edition monthly.
Learn moreGet the latest from ASBMB Today
Enter your email address, and we’ll send you a weekly email with recent articles, interviews and more.
Latest in Science
Science highlights or most popular articles

Cholesterol as a novel biomarker for Fragile X syndrome
Researchers in Quebec identified lower levels of a brain cholesterol metabolite, 24-hydroxycholesterol, in patients with fragile X syndrome, a finding that could provide a simple blood-based biomarker for understanding and managing the condition.

How lipid metabolism shapes sperm development
Researchers at Hokkaido University identify the enzyme behind a key lipid in sperm development. The findings reveal how seminolipids shape sperm formation and may inform future diagnostics and treatments for male infertility.

Mass spec method captures proteins in native membranes
Yale scientists developed a mass spec protocol that keeps proteins in their native environment, detects intact protein complexes and tracks drug binding, offering a clearer view of membrane biology.

Laser-assisted cryoEM method preserves protein structure
University of Wisconsin–Madison researchers devised a method that prevents protein compaction during cryoEM prep, restoring natural structure for mass spec studies. The approach could expand high-resolution imaging to more complex protein systems.

Method sharpens proteome-wide view of structural changes
Researchers developed a method that improves limited proteolysis coupled with mass spectrometry, separating true changes from abundance or splicing effects.

Discoveries made possible by DNA
The discovery of DNA’s double helix revealed how genetic information is stored, copied and expressed. Revisit that breakthrough and traces how it laid the foundation for modern molecular biology, genomics and biotechnology.