RCSBProteinDataBankPain is one of the most trying experiences of life. On the cellular level it is communicated via special neuronal pathways. On the molecular level, however, pain is communicated like any other sensation, via a set of electrical and chemical signals facilitated by complex molecular machinery. These signals can be modulated by opioids, causing us to feel less pain, or no pain at all. Learn how opioids activate the G-proteins which in turn interact with other proteins to edit the pain signal.
04:08 Modulation of pain signal by opioids: 04:33 Introduction to opioid receptor (GPCR) and G protein 05:22 G-beta-gamma interactions 05:58 G-alpha interactions 07:09 Blocking the effects of opioids: the mechanism of Naloxone
Opioids and Pain Signaling (from PDB-101)RCSBProteinDataBank2021-06-22 | Pain is one of the most trying experiences of life. On the cellular level it is communicated via special neuronal pathways. On the molecular level, however, pain is communicated like any other sensation, via a set of electrical and chemical signals facilitated by complex molecular machinery. These signals can be modulated by opioids, causing us to feel less pain, or no pain at all. Learn how opioids activate the G-proteins which in turn interact with other proteins to edit the pain signal.
04:08 Modulation of pain signal by opioids: 04:33 Introduction to opioid receptor (GPCR) and G protein 05:22 G-beta-gamma interactions 05:58 G-alpha interactions 07:09 Blocking the effects of opioids: the mechanism of Naloxone
Visit pdb101.rcsb.org/browse/drugs-and-the-brain to explore more educational resources on how drugs help tune the function of the brain and nervous system.Preparing the development environment for Python Scripting for Molecular Docking Crash CourseRCSBProteinDataBank2024-09-13 | This video will help you set up your development environment for the course. In this workshop, Python scripting and libraries are used to explore ligand binding to enzymes. This course was developed by Paul A. Craig (Rochester Institute of Technology) and Jessica A. Nash (Molecular Sciences Software Institute).
Full course on PDB-101 with additional development environment set up instructions: pdb101.rcsb.org/train/training-events/python3Teaching Enzymology with the Protein Data Bank: From Pandemic to Paxlovid (July30, 2024 Wbinar)RCSBProteinDataBank2024-09-13 | In the second edition of this webinar SARS-CoV-2 Main Protease is used to introduce and reinforce the use of RCSB.org resources for teaching protein structure and function.
After watching this webinar you will be able to: – Understand the types of 3D structural data hosted on RCSB.org (experimental and computational) – Navigate the RCSB PDB website to visualize each 3D structure and explore various annotations mapped to it – Compare the shapes, interactions and functions of groups of PDB structure with similar sequences and/or similar structures – Use RCSB PDB data, tools and resources to enhance classroom instructions and build lessons for teaching about enzymes
Video Sections: 0:00 Introduction to the Protein Data Bank and SARS-CoV-2 11:21 Exploring the SARS-CoV-2 Main Protease structure using RCSB.org 46:04 Making connections using RCSB.org 1:25:09 Discussion and Q&APython Scripting for Molecular Docking: Docking with AutoDock VinaRCSBProteinDataBank2024-09-13 | In this workshop, Python scripting and libraries are used to explore ligand binding to enzymes. This course was developed by Paul A. Craig (Rochester Institute of Technology) and Jessica A. Nash (Molecular Sciences Software Institute).
If you have little or no prior coding experience with Python, you are encouraged to go through the two previous PDB-101 courses on Python: Python Scripting for Biochemistry & Molecular Biology | Part 1 (pdb101.rcsb.org/train/training-events/python) Python Scripting for Biochemistry & Molecular Biology | Part 2 (pdb101.rcsb.org/train/training-events/python2)Python Scripting for Molecular Docking: Docking PreparationRCSBProteinDataBank2024-09-13 | In this workshop, Python scripting and libraries are used to explore ligand binding to enzymes. This course was developed by Paul A. Craig (Rochester Institute of Technology) and Jessica A. Nash (Molecular Sciences Software Institute).
If you have little or no prior coding experience with Python, you are encouraged to go through the two previous PDB-101 courses on Python: Python Scripting for Biochemistry & Molecular Biology | Part 1 (pdb101.rcsb.org/train/training-events/python) Python Scripting for Biochemistry & Molecular Biology | Part 2 (pdb101.rcsb.org/train/training-events/python2)Python Scripting for Molecular Docking: Manipulating Molecules with RDKitRCSBProteinDataBank2024-09-13 | In this workshop, Python scripting and libraries are used to explore ligand binding to enzymes. This course was developed by Paul A. Craig (Rochester Institute of Technology) and Jessica A. Nash (Molecular Sciences Software Institute).
If you have little or no prior coding experience with Python, you are encouraged to go through the two previous PDB-101 courses on Python: Python Scripting for Biochemistry & Molecular Biology | Part 1 (pdb101.rcsb.org/train/training-events/python) Python Scripting for Biochemistry & Molecular Biology | Part 2 (pdb101.rcsb.org/train/training-events/python2)Python Scripting for Molecular Docking: Enzyme Commission Class with LigandsRCSBProteinDataBank2024-09-13 | In this workshop, Python scripting and libraries are used to explore ligand binding to enzymes. This course was developed by Paul A. Craig (Rochester Institute of Technology) and Jessica A. Nash (Molecular Sciences Software Institute).
If you have little or no prior coding experience with Python, you are encouraged to go through the two previous PDB-101 courses on Python: Python Scripting for Biochemistry & Molecular Biology | Part 1 (pdb101.rcsb.org/train/training-events/python) Python Scripting for Biochemistry & Molecular Biology | Part 2 (pdb101.rcsb.org/train/training-events/python2)A Deep Dive into Computed Structure Model Exploration at RCSB.orgRCSBProteinDataBank2024-05-20 | Learn how to use RCSB.org features to navigate 3D predicted protein structures in the context of experimentally-determined PDB structures. Two case studies are provided: Low-density Lipoprotein Receptor Adapter Protein 1 (LDLRAP1) and Class II aminoacyl-tRNA synthetases.
Video Sections: 0:00 Welcome and Introduction to the PDB and course content 2:50 Case Study 1: Low-density Lipoprotein Receptor Adapter Protein 1 (LDLRAP1) 15:30 Case Study 2: Class II Aminoacyl-tRNA Synthetases 46:14 Q&AUnderstanding PDB Validation: Which experimental structures should I rely on?RCSBProteinDataBank2024-05-20 | Learn about primary PDB structure quality metrics, including those in the validation slider graphic; how PDB structure quality varies across the archive; and identify good structure(s) for research from RCSB.org.
Video sections: Introduction: 0:00 Protein Data Bank (PDB) and Quality Variation of Structures
Understanding PDB Validation: Which experimental structures should I rely on: 5:38 wwPDB Validation Overview 13:22 Validation of chemical geometry for PDB structures determined by all methods 17:08 Validation of macromolecular crystallography (MX) structures 23:27 Validation of 3D electron microscopy (3DEM) structures 29:41 RCSB.org access to validation reports and quality review in 3D 31:44 RCSB.org structure confidence review in 3D 33:53 RCSB.org interactive ligand quality review 43:47 Q&ABuilding and Animating Catalase in a High School ClassroomRCSBProteinDataBank2024-04-09 | AP Biology students at John H. Pitman High School were tasked with creating animations depicting an active site in catalase and the mechanistic breakdown of two hydrogen peroxide molecules. These animations were created using pipe cleaners, clay, toothpicks, and stop-motion cinematography. The data used to generate these animations were from RCSB Protein Data Bank resources, AlphaFold DB, and various scientific publications.
After watching this webinar, you will be able to: 1. Visualize 3D structural data from experimentally determined structures deposited to Protein Data Bank and computed structure models from sources such as AlphaFold 2. Select all or parts of the 3D structure to display it in different representations, colors, and more, to analyze interactions, and to measure distances and angles within and between proteins, nucleic acids, and other molecules 3. Map information to available structures such as functional features or mutations 4. Superimpose structures of the same protein in different conformations or similar proteins to compare features 5. Export publication quality images and animations for videosImmunology and Cancer 3: Immune Checkpoints: Biology and Therapeutic Strategies (from PDB-101)RCSBProteinDataBank2024-02-02 | This three-part series explores the human immune response to cancer focusing on cellular and molecular details of the process. Part 1 showcases the process of antigen harvesting by dendritic cells and later the T-cell maturation process. Part 2 focuses on T-cell activation and demonstrates the mechanisms by which the immune system destroys the cancer cells. Part 3 focuses on the immune checkpoints - a mechanism by which the immune system terminates the immune response and later describes the immune checkpoint therapies used in cancer treatment.
Video Guide 0:05 Introduction to immune checkpoints 0:17 Secondary signal inhibition at the dendritic cell/T-cell synapse 0:58 Primary signal inhibition in Killer T-cells by PD-1/PDL-1 interaction 1:50 Tumor formation and metastasis 2:03 Introduction to immune checkpoints therapies and monoclonal antibodies 2:21 Restoration of the secondary signal at the dendritic cell/T-cell synapse by monoclonal antibodies 2:34 Restoration of Killer T-cell action by monoclonal antibodies 2:45 Monoclonal antibody cocktails
Video Credits Story by Ethan Cartagena (Spring 2022 RCSB PDB Intern)
Story Support Steven C. Almo (Albert Einstein College of Medicine), Stephen K. Burley (RCSB PDB), Paul Craig (RIT), David Goodsell (RCSB PDB), and Maria Voigt (RCSB PDB)
Animation and Video Editing Maria Voigt (RCSB PDB)
Narration Emma Chavez (Summer 2022 RCSB PDB Intern)
This video features experimental structures from the Protein Data Bank along with Computed Structure Models from the AlphaFold DB. Visit rcsb.org to explore these structures in 3D. MHC class I: 1HSA, AF_AFP01889F1 T-cell Receptor: 1TCR, 2HAC CD8 Co-receptor: 1AKJ, AF_AFP01732F1 B7/CTLA-4 Complex: 1I8L, 1I85 B7: AF_AFP42081F1 CTLA-4: AF_AFP16410F1 Monoclonal Antibody/MHC class I Antigen Complex: 3UO1 PD-1 in Complex with Monoclonal Antibody: 5GGS PD1: AF_AFQ15116F1 PD-1/PD-L1 Complex: 3BIK PD-L1: AF_AFQ9NZQ7F1 Immunoglobulin: 1IGTImmunology and Cancer 2: T-cell Activation and Action (from PDB-101)RCSBProteinDataBank2024-02-02 | This three-part series explores the human immune response to cancer focusing on cellular and molecular details of the process. Part 1 showcases the process of antigen harvesting by dendritic cells and later the T-cell maturation process. Part 2 focuses on T-cell activation and demonstrates the mechanisms by which the immune system destroys the cancer cells. Part 3 focuses on the immune checkpoints - a mechanism by which the immune system terminates the immune response and later describes the immune checkpoint therapies used in cancer treatment.
Video Guide 0:09 Primary signal in Killer and Helper T-cell activation 0:32 Secondary signal in T-cell activation 0:45 T-cells proliferation 1:11 Killer T-cell action – destruction of cancer cells 1:38 Helper T-cell action – activation of B-cells and Macrophages
Video Credits Story by Ethan Cartagena (Spring 2022 RCSB PDB Intern)
Story Support Steven C. Almo (Albert Einstein College of Medicine), Stephen K. Burley (RCSB PDB), Paul Craig (RIT), David Goodsell (RCSB PDB), and Maria Voigt (RCSB PDB)
Animation and Video Editing Maria Voigt (RCSB PDB)
Narration Emma Chavez (Summer 2022 RCSB PDB Intern)
This video features experimental structures from the Protein Data Bank along with Computed Structure Models from the AlphaFold DB. Visit rcsb.org to explore these structures in 3D. MHC class I: 1HSA, AF_AFP01889F1 T-cell Receptor: 1TCR, 2HAC CD8 Co-receptor: 1AKJ, AF_AFP01732F1 B7/CTLA-4 Complex: 1I8L, 1I85 B7: AF_AFP42081F1 CTLA-4: AF_AFP16410F1 Interleukin-2 Receptor: 2ERJ, AF_AFP01589F1, AF_AFP14784F1, AF_AFP31785F1 Perforin: 6SB3, 8A1D Granzyme: 2ZGC Antibody/MHC class I Antigen Complex: 3UO1 Immunoglobulin: 1IGTImmunology and Cancer 1: Dendritic Cells, Antigens, and T-cell Maturation (from PDB-101)RCSBProteinDataBank2024-02-02 | This three-part series explores the human immune response to cancer focusing on cellular and molecular details of the process. Part 1 showcases the process of antigen harvesting by dendritic cells and later the T-cell maturation process. Part 2 focuses on T-cell activation and demonstrates the mechanisms by which the immune system destroys the cancer cells. Part 3 focuses on the immune checkpoints - a mechanism by which the immune system terminates the immune response and later describes the immune checkpoint therapies used in cancer treatment.
Video Guide 0:06 Immune system introduction 0:20 Dendritic cell introduction 0:40 Antigen/neoantigen harvesting and processing by dendritic cells 1:05 Major Histocompatibility Complex I and II introduction 1:49 T-cells maturation in the thymus and generation of T-cell receptor 2:32 T-cell receptor testing for “self” antigens and elimination 2:50 T-cell differentiation into Helper and Killer types (CD4/CD8 Co receptors) 3:19 Initial steps in T-cell activation
Video Credits Story by Ethan Cartagena (Spring 2022 RCSB PDB Intern)
Story Support Steven C. Almo (Albert Einstein College of Medicine), Stephen K. Burley (RCSB PDB), Paul Craig (RIT), David Goodsell (RCSB PDB), and Maria Voigt (RCSB PDB)
Animation and Video Editing Maria Voigt (RCSB PDB)
Narration Emma Chavez (Summer 2022 RCSB PDB Intern)
This video features experimental structures from the Protein Data Bank along with Computed Structure Models from the AlphaFold DB. Visit rcsb.org to explore these structures in 3D.
MHC class I: 1HSA, AF_AFP01889F1 MHC class II: 1DLH, AF_AFP01903F1, AF_AFP01911F1 T-cell receptor: 1TCR, 2HAC CD8 Co-receptor: 1AKJ, AF_AFP01732F1 CD4 Co-receptor: 1JL4, AF_AFP01730F1 RAG1/2 Recombinase: 4WWX Serine Protease: 4Q80Seasons Greetings from the RCSB PDBRCSBProteinDataBank2023-12-21 | Celebrate the holidays with PDB-themed wrapping paper/virtual meeting backgrounds.
Visit pdb101.rcsb.org/news/656e3114d78e004e766a96c3 to learn more about the proteins used in this animation and download the resources.Leveraging RCSB PDB APIs for Bioinformatics Analyses and Machine Learning Part 2RCSBProteinDataBank2023-10-23 | In this guided session, you will work with an example of a typical workflow that integrate Data and Search APIs and then apply the knowledge to your own specific problem.
Who Should Attend * Bioinformatics or structural biology researchers * Researchers that need to cross-reference PDB and data from other resources * Anyone interested in large scale analyses of structural data (experimental or computational)Leveraging RCSB PDB APIs for Bioinformatics Analyses and Machine LearningRCSBProteinDataBank2023-10-12 | The lectures in this session will introduce you to the two main RCSB PDB APIs: Data API and Search API.
Timestamps: 00:00:00 Welcome 00:07:55 Introduction to RCSB PDB APIs and data schemas 00:37:59 Data API 01:09:10 Search API 01:41:36 Search and Data API hands-on teaser
After completion of this session, you will
* Understand the data structure and its relation to the PDBx/mmCIF dictionary and external data * Become familiarized with the two available interfaces in the Data API: GraphQL and REST * Write search queries with one or multiple search conditions to find PDB identifiers * Be familiar with search services beyond text: sequence, seqmotif, structure, chemical, strucmotif * Become acquainted with the Python client for Search APIEvolution of the Insulin GeneRCSBProteinDataBank2023-08-31 | This video introduces you to insulin family proteins and the evolution of the insulin gene.Molecular Machinery: A TourRCSBProteinDataBank2023-08-29 | This video introduces the Molecular Machinery interactive poster available from PDB-101 at cdn.rcsb.org/pdb101/molecular-machinery/.Insulin BiosynthesisRCSBProteinDataBank2023-08-18 | This video describes how insulin is made in pancreatic beta cells and processed to form the functional molecule. 0:00 Insulin Biosynthesis 0:31 What is Insulin? 1:40 Pre-pro-insulin 3:39 SummaryWhat is Cancer?RCSBProteinDataBank2023-06-27 | This video discusses what cancer is, why we have cancer, how it is diagnosed and treated. Chapters 0:00 A Cancer Expert Talks to Students 0:18 What is Cancer? 2:40 Maintaining Balance 4:14 Cell growth and Cancer 7:40 Autonomous and Immortal 8:25 Diagnosis of Cancer 9:00 Classification and TreatmentBreast Cancer Chess Championship: Trastuzumab vs HER2 ReceptorRCSBProteinDataBank2023-05-16 | Winner of the Judge’s Award First Place and Viewer's Choice Award in the 2023 RCSB PDB Video Challenge for High School Students “Molecular Mechanisms of Targeted Cancer Therapies”
By Joan Ashreya Mare, Grace Lee, and Ananya Vakkalanka West Windsor-Plainsboro High School South, West Windsor, New Jersey Team Advisor: Mrs. Meenakshi Bhattacharya
Visit pdb101.rcsb.org to learn moreFighting Cancer by Targeting G12CRCSBProteinDataBank2023-05-16 | Winner of the Judge’s Award Second Place in the 2023 RCSB PDB Video Challenge for High School Students “Molecular Mechanisms of Targeted Cancer Therapies”
By Amanda Nguyen, Kristen Ngo, and Gavin Gonzales Mira Mesa High School, San Diego, CA Team Advisor: Mrs. Lisa Yoneda
Visit pdb101.rcsb.org to learn moreInvestigating the Role of VEGF in Targeted Therapy for CancerRCSBProteinDataBank2023-05-16 | Winner of the Judge’s Award Third Place in the 2023 RCSB PDB Video Challenge for High School Students “Molecular Mechanisms of Targeted Cancer Therapies”
By Victoria Silva Jericho High School, Jericho, NY Team Advisor: Mrs. Samantha Sforza
Visit pdb101.rcsb.org to learn moreUnderstanding PDBx/mmCIF: Course IntroductionRCSBProteinDataBank2023-05-09 | This course is designed to help users understand the basics of PDBx/mmCIF data dictionary and file format that underpin the archiving of experimentally determined three-dimensional biostructures in the PDB.
After completing of this course, you will be able to use software tools for generating, editing, and visualizing PDBx/mmCIF files, understand PDBx/mmCIF dictionary extensions (including ModelCIF for computed structure models), and parse data from PDBx/mmCIF files for your research.
Presenter: Stephen K. Burley, Director, RCSB Protein Data BankIntroduction and course objectivesRCSBProteinDataBank2023-05-09 | This course is designed to help users understand the basics of PDBx/mmCIF data dictionary and file format that underpin the archiving of experimentally determined three-dimensional biostructures in the PDB.
After completing of this course, you will be able to use software tools for generating, editing, and visualizing PDBx/mmCIF files, understand PDBx/mmCIF dictionary extensions (including ModelCIF for computed structure models), and parse data from PDBx/mmCIF files for your research.
Presenter: Gregg Crichlow, Biocurator, RCSB PDB, Rutgers UniversityPDBx/mmCIF format - Not your parents’ legacy PDB formatRCSBProteinDataBank2023-05-09 | This course is designed to help users understand the basics of PDBx/mmCIF data dictionary and file format that underpin the archiving of experimentally determined three-dimensional biostructures in the PDB.
After completing of this course, you will be able to use software tools for generating, editing, and visualizing PDBx/mmCIF files, understand PDBx/mmCIF dictionary extensions (including ModelCIF for computed structure models), and parse data from PDBx/mmCIF files for your research.
Presenter: Ezra Peisach, Scientific Software Developer/PDBx mmCIF Dictionary ManagerPDBx/mmCIF data files - Lifting the lid off the black boxRCSBProteinDataBank2023-05-09 | This course is designed to help users understand the basics of PDBx/mmCIF data dictionary and file format that underpin the archiving of experimentally determined three-dimensional biostructures in the PDB.
After completing of this course, you will be able to use software tools for generating, editing, and visualizing PDBx/mmCIF files, understand PDBx/mmCIF dictionary extensions (including ModelCIF for computed structure models), and parse data from PDBx/mmCIF files for your research.
Presenter: Brian Hudson, Biocurator, RCSB PDB, Rutgers UniversityProgrammatic data access and analysis using PDBx/mmCIF files, Part 1RCSBProteinDataBank2023-05-09 | This course is designed to help users understand the basics of PDBx/mmCIF data dictionary and file format that underpin the archiving of experimentally determined three-dimensional biostructures in the PDB.
After completing of this course, you will be able to use software tools for generating, editing, and visualizing PDBx/mmCIF files, understand PDBx/mmCIF dictionary extensions (including ModelCIF for computed structure models), and parse data from PDBx/mmCIF files for your research.
Presenter: Irina Persikova, Biocuration Lead Deputy, RCSB PDB, Rutgers UniversityProgrammatic data access and analysis using PDBx/mmCIF files, Part 2RCSBProteinDataBank2023-05-09 | This course is designed to help users understand the basics of PDBx/mmCIF data dictionary and file format that underpin the archiving of experimentally determined three-dimensional biostructures in the PDB.
After completing of this course, you will be able to use software tools for generating, editing, and visualizing PDBx/mmCIF files, understand PDBx/mmCIF dictionary extensions (including ModelCIF for computed structure models), and parse data from PDBx/mmCIF files for your research.
Presenter: Chenghua Shao, Biocurator, Scientific Software Developer/KPI Evaluator, RCSB PDB, Rutgers UniversityPython Scripting for Biochemistry &Molecular Biology - Part 2 IntroductionRCSBProteinDataBank2023-05-04 | This is the second part of the IQB Crash Course designed to introduce life scientists to the power and flexibility of solving problems with Python. This course offers a brief review of Python and the Jupyter Notebook environment first, later diving into working with Python libraries and various types of data.
Access the full course: Part 1: pdb101.rcsb.org/train/training-events/python Part 2: pdb101.rcsb.org/train/training-events/python2Python Primer: Review of Python and the Jupyter Notebook environmentRCSBProteinDataBank2023-05-04 | This is the second part of the IQB Crash Course designed to introduce life scientists to the power and flexibility of solving problems with Python. This course offers a brief review of Python and the Jupyter Notebook environment first, later diving into working with Python libraries and various types of data.
Part 2: pdb101.rcsb.org/train/training-events/python2Nonlinear regression: Creating the Pandas DataFrameRCSBProteinDataBank2023-05-04 | This is the second part of the IQB Crash Course designed to introduce life scientists to the power and flexibility of solving problems with Python. This course offers a brief review of Python and the Jupyter Notebook environment first, later diving into working with Python libraries and various types of data.
Part 2: pdb101.rcsb.org/train/training-events/python2Nonlinear Regression: Curve FittingRCSBProteinDataBank2023-05-04 | This is the second part of the IQB Crash Course designed to introduce life scientists to the power and flexibility of solving problems with Python. This course offers a brief review of Python and the Jupyter Notebook environment first, later diving into working with Python libraries and various types of data.
Part 2: pdb101.rcsb.org/train/training-events/python2Extracting data from mmCIF files using the Biopython libraryRCSBProteinDataBank2023-05-04 | This is the second part of the IQB Crash Course designed to introduce life scientists to the power and flexibility of solving problems with Python. This course offers a brief review of Python and the Jupyter Notebook environment first, later diving into working with Python libraries and various types of data.
Part 2: pdb101.rcsb.org/train/training-events/python2Extracting data from mmCIF files using the RCSB PDB APIRCSBProteinDataBank2023-05-04 | This is the second part of the IQB Crash Course designed to introduce life scientists to the power and flexibility of solving problems with Python. This course offers a brief review of Python and the Jupyter Notebook environment first, later diving into working with Python libraries and various types of data.
Part 2: pdb101.rcsb.org/train/training-events/python2Multiple Views in a Mol* SessionRCSBProteinDataBank2023-02-14 | This video shows how to create, save, and open Mol* sessions with multiple saved views. Share saved sessions with students or with researchers for collaboration. Learn more about using Mol* at rcsb.org/docs/3d-viewers/mol*/getting-startedExploring the PD-1/PD-L1 pathway using Data, Tools, and Resources from RCSB.orgRCSBProteinDataBank2023-02-08 | Based on case studies presented in http://doi.org/10.1002/pro.4482 00:00: Intro to PD-1/PD-L1 01:45: Exploring PDB ID 5jxe - Structure Summary page 04:35 How Pembrolizumab Disrupts PD-1:PD-L1 Binding 05:40 Compare structures 07:28 Other Therapeutic Anti-PD-1 Antibodies Learn more about Pembrolizumab (pdb101.rcsb.org/motm/204) and other cancer therapy approaches on PDB-101 (pdb101.rcsb.org/).Introduction to Python and to Jupyter NotebooksRCSBProteinDataBank2023-01-26 | Lesson 1/4 of "Python Scripting for Biochemistry & Molecular Biology" Crash Course.
This workshop makes the life scientists acquaintant with the power and flexibility of solving problems with Python by introducing specific coding skills, as well as providing insight into the broader array of open-access resources and libraries that are available for scientific computation.Reading and Writing Files using Python and Jupiter NotebooksRCSBProteinDataBank2023-01-26 | Lesson 2/4 of workshop "Python Scripting for Biochemistry & Molecular Biology".
This workshop makes the life scientists acquaintant with the power and flexibility of solving problems with Python by introducing specific coding skills, as well as providing insight into the broader array of open-access resources and libraries that are available for scientific computation.Processing Multiple FilesRCSBProteinDataBank2023-01-26 | Lesson 3/4 of the workshop "Python Scripting for Biochemistry & Molecular Biology".
This workshop makes the life scientists acquaintant with the power and flexibility of solving problems with Python by introducing specific coding skills, as well as providing insight into the broader array of open-access resources and libraries that are available for scientific computation.Visualizing PDB structures in the Jupyter NotebooksRCSBProteinDataBank2023-01-26 | Python Scripting for Biochemistry & Molecular Biology.
This workshop makes the life scientists acquaintant with the power and flexibility of solving problems with Python by introducing specific coding skills, as well as providing insight into the broader array of open-access resources and libraries that are available for scientific computation.Seasons Greetings from the RCSB PDBRCSBProteinDataBank2022-12-22 | A major 2022 RCSB.org release was a feature that enables users to explore Computed Structure Models (CSMs) alongside experimentally-determined structures from the PDB archive (rcsb.org/news/6304ee57707ecd4f63b3d3db).
This animation celebrates this milestone by highlighting PDB structure 7VMF (rcsb.org/structure/7VMF), a histone acetyltransferase from Arabidopsis thaliana in dark blue. The CSM (rcsb.org/structure/AF_AFQ56WH4F1) created based on the corresponding UniProt sequence Q56WH4 (rcsb.org/groups/sequence/polymer_entity/Q56WH4) is then displayed with high confidence regions shown in ribbon representation in cyan and lower confidence regions shown in ball and stick representation.Accessing Experimental Structures from the PDBRCSBProteinDataBank2022-11-29 | A virtual course ‘Using KBase to access PDB Structures and Computed Structure Models’ was held on Thursday November 10, 2022. The participants had the opportunity to learn about the protein structure-related tools, visualizations, and workflows that have been integrated into DOE KBase.
The talk synopses and the summary of the Q and A are available here: https://go.rutgers.edu/88xapxde
Presenter: Dennis Piehl, Ph.D. - RCSB Protein Data Bank, Rutgers University Title: Accessing Experimental Structures from the PDBMaking the Best use of Protein Structure Data in KBase and PDBRCSBProteinDataBank2022-11-29 | A virtual course ‘Using KBase to access PDB Structures and Computed Structure Models’ was held on Thursday November 10, 2022. The participants had the opportunity to learn about the protein structure-related tools, visualizations, and workflows that have been integrated into DOE KBase.
The talk synopses and the summary of the Q and A are available here: https://go.rutgers.edu/88xapxde
Presenter: Christopher Henry, Ph.D. - KBase, Argonne National Laboratory Title: Making the Best use of Protein Structure Data in KBase and PDBKBase Apps for Protein Structure Data Communication and Integration with RCSB PDBRCSBProteinDataBank2022-11-29 | A virtual course ‘Using KBase to access PDB Structures and Computed Structure Models’ was held on Thursday November 10, 2022. The participants had the opportunity to learn about the protein structure-related tools, visualizations, and workflows that have been integrated into DOE KBase.
The talk synopses and the summary of the Q and A are available here: https://go.rutgers.edu/88xapxde
Presenter: Qizhi Zhang, Ph.D. - KBase, Argonne National Laboratory Title: KBase Apps for Protein Structure Data Communication and Integration with RCSB PDBIntroduction to Mol* (MolStar) Molecular Graphics SystemRCSBProteinDataBank2022-11-29 | A virtual course ‘Using KBase to access PDB Structures and Computed Structure Models’ was held on Thursday November 10, 2022. The participants had the opportunity to learn about the protein structure-related tools, visualizations, and workflows that have been integrated into DOE KBase.
The talk synopses and the summary of the Q and A are available here: https://go.rutgers.edu/88xapxde
Presenter: Shuchismita Dutta, Ph.D. - RCSB Protein Data Bank, Rutgers University
Title: Introduction to the Virtual Crash Course on Using KBase to access PDB Structures and Computed Structure ModelsAccessing Computed Structure Models generated using AlphaFold2 or RoseTTAFold(2)RCSBProteinDataBank2022-11-29 | A virtual course ‘Using KBase to access PDB Structures and Computed Structure Models’ was held on Thursday November 10, 2022. The participants had the opportunity to learn about the protein structure-related tools, visualizations, and workflows that have been integrated into DOE KBase.
The talk synopses and the summary of the Q and A are available here: https://go.rutgers.edu/88xapxde
Presenter: Brinda Vallat, Ph.D. - RCSB Protein Data Bank, Rutgers University Title: Accessing Computed Structure Models generated using AlphaFold2 or RoseTTAFold(2)Protein Candidates from Function Queries in KBaseRCSBProteinDataBank2022-11-29 | A virtual course ‘Using KBase to access PDB Structures and Computed Structure Models’ was held on Thursday November 10, 2022. The participants had the opportunity to learn about the protein structure-related tools, visualizations, and workflows that have been integrated into DOE KBase.
The talk synopses and the summary of the Q and A are available here: https://go.rutgers.edu/88xapxde
Presenter: Janaka N. Edirisinghe, Ph.D. - KBase, Argonne National Laboratory Title: Protein Candidates from Function Queries in KBaseKBase/RCSB PDB Crash Course ObjectivesRCSBProteinDataBank2022-11-29 | A virtual course ‘Using KBase to access PDB Structures and Computed Structure Models’ was held on Thursday November 10, 2022. The participants had the opportunity to learn about the protein structure-related tools, visualizations, and workflows that have been integrated into DOE KBase.
The talk synopses and the summary of the Q and A are available here: https://go.rutgers.edu/88xapxde
Presenter: Christopher Henry, Ph.D. - KBase, Argonne National Laboratory
Title: Review of Joint DOE KBase/RCSB PDB Crash Course ObjectivesIntroduction | Using KBase to Access Protein Structures and ModelsRCSBProteinDataBank2022-11-29 | A virtual course ‘Using KBase to access PDB Structures and Computed Structure Models’ was held on Thursday November 10, 2022. The participants had the opportunity to learn about the protein structure-related tools, visualizations, and workflows that have been integrated into DOE KBase.
The talk synopses and the summary of the Q and A are available here: https://go.rutgers.edu/88xapxde
Presenter: Stephen K. Burley, Director, RCSB Protein Data Bank Title: Introduction to the Virtual Crash Course on Exploring the Computed Structure Models on RCSB.org