News 2023
Molecular Landscapes
10/17
Download PAE JSON Files for AlphaFold Models
10/12
Papers Published in Special Issue of Journal of Molecular Biology
10/10
Structural Biology and Nobel Prizes
10/01
ASBMB Members: Register Now for Virtual Event
09/26
Undergrads/Grads: Apply to the January 2024 Science Communication Boot Camp
09/25
Poster Prize Awarded at ACA 2023
09/19
Register Now for October Virtual Crash Courses on RCSB PDB APIs
09/14
Poster Prize Awarded at ISMB 2023
09/12
Take the Tabular Reports Survey and Win
09/11
Head Back to School with PDB-101
09/05
Turning Global Data into Global Knowledge
08/29
Education Corner: Empowering Educators
08/29
Create Videos About Structural Science
08/23
Meet the RCSB PDB and wwPDB at IUCr
08/16
Bragg Your Pattern at IUCr
08/08
New Poster Available for Download
08/01
Summer Newsletter Published
07/18
Meet the RCSB PDB at ACA
07/04
Introducing the Nucleic Acid Knowledgebase
06/27
Toggle to "Opt-in" to Access Computed Structure Models Alongside PDB Data
06/19
Explore the Structural Biology of Bioenergy
06/19
Guide to Understanding PDB Data: Intro to APIs
06/13
Watch the Crash Course: Understanding PDBx/mmCIF
06/13
Education Corner: Bragg Your Pattern at IUCr
06/06
Easily Build Advanced Searches
05/30
Molecular Landscapes
05/29
Award-Winning Videos on Molecular Mechanisms of Targeted Cancer Therapies
05/16
Perform Improved Pairwise Structure Alignments
05/09
Education Corner: ACA Literacy Portal
05/09
Beginner's Guide to PDB Structures and PDBx/mmCIF
05/03
Helen Berman Elected to National Academy of Sciences
05/02
Vote Now for the Viewer's Choice Award
05/01
Register Now for May 3 Virtual Crash Course: Understanding PDBx/mmCIF
04/30
Annual Report Published
04/26
Search for Structures By Date
04/25
Poster Prize Awarded at #DiscoverBMB
04/24
Celebrate DNA Day on April 25
04/21
Spring Newsletter Published
04/18
Upload Structure Files to Search the PDB
04/11
Using KBase to access PDB Structures and CSMs
04/03
Register Now for Virtual Crash Course: Understanding PDBx/mmCIF
04/02
High School Students: Submit Videos By April 24
03/28
Meet RCSB PDB at the #DiscoverBMB Meeting
03/23
Search for Structural Motifs
03/20
Register Now for Crash Course: Python Scripting for Biochemistry & Molecular Biology (Part 2)
03/20
Keeping Up with RCSB PDB News
03/18
Brain Awareness Week
03/12
Tribute to Dr. Olga Kennard
03/09
New Coloring Page: Myoglobin in a muscle cell
03/07
Paper Published: EM Holdings of the PDB
02/28
Molecular Landscapes
02/20
Meet RCSB PDB at The Biophysical Society Meeting
02/16
Congratulations to Shuchismita Dutta
02/14
Molecular Valentines
02/09
Education Corner: Fundamentals of Biochemistry
02/07
February 4 is World Cancer Day
02/02
Explore Even More Computed Structure Models Alongside PDB Data
02/01
Winter Newsletter Published
01/19
Undergrads: Spend your summer with RCSB PDB
01/12
PDB Reaches a New Milestone: 200,000+ Entries
01/10

Explore the Structural Biology of Bioenergy

06/19 

A new PDB-101 feature explores how cells capture and utilize many forms of energy to power their molecular processes

Cells expend much of their effort manipulating the environment around them to their advantage. Doing so takes a lot of energy, for example, to power finding food sources, eating and digesting food molecules, and using these molecules to build new cells. For this reason, cells are masters at harnessing diverse sources of energy and putting them to use. Structural biologists are exploring biomolecules that capture and convert energy in cellular processes. New, advanced techniques are being used to reveal the structure and function of these molecules: continued improvement in the resolution of cryoelectron microscopy is revealing complex and larger protein assemblies involved in bioenergy, and split-second serial crystallography with X-ray free electron lasers is giving a close-up look at rapid energetic transitions.

PDB structures provide insight into the mechanisms and technology of bioenergy.

Visit PDB-101 for more.

<I>Multiple rotational states of bacterial ATP synthase have been revealed by cryoelectron microscopy. The portion at the top (red) is a rotary motor powered by ATP, and the portion at the bottom is a motor that turns a cylindrical rotor (blue) using the flow of hydrogen ions through a stator subunit (magenta). By connecting these molecular machines together with an asymmetric axle (darker blue at center), one motor can drive the other, using flow of ions to make ATP, or by turning the other direction, using ATP to pump ions.</I>Multiple rotational states of bacterial ATP synthase have been revealed by cryoelectron microscopy. The portion at the top (red) is a rotary motor powered by ATP, and the portion at the bottom is a motor that turns a cylindrical rotor (blue) using the flow of hydrogen ions through a stator subunit (magenta). By connecting these molecular machines together with an asymmetric axle (darker blue at center), one motor can drive the other, using flow of ions to make ATP, or by turning the other direction, using ATP to pump ions.


Past news and events have been reported at the RCSB PDB website and past Newsletters.

beta