Free learning resources
Quickly learn how to integrate Schrödinger technology into your research. From overviews to deep dives, you can find information about applications, workflows, and analysis here.
Quickly learn how to integrate Schrödinger technology into your research. From overviews to deep dives, you can find information about applications, workflows, and analysis here.
A free video series introducing the basics of using Materials Science Maestro.
An introduction to Materials Science Maestro, covering basic navigation, an intro to building models and several of the key functionalities of the graphical user interface.
Comprehensive reference documentation covering materials science panels and workflows.
Self-guided step-by-step introductions to various workflows with example files for getting comfortable with Schrödinger tools.
Short video overviews of specific introductory and scientific topics, including summaries of new release features.
A one-page PDF that visually describes the panel or workflow.
A force field that is a model of the potential energy of a chemical system – a set of functions and parameters used to model the potential energy of the system, and thereby to calculate the forces on each particle.
A force field-based molecular modeling tool, with a range of advanced features and methods for examining molecular conformations, molecular motion, and intermolecular interactions.
Schrödinger KNIME extensions of more than 160 nodes and provides access to a wealth of ligand- and structure-based tools from the Schrödinger Suite.
Customize torsions not explicitly included in the OPLS4 or OPLS5 force field by fitting to quantum-mechanical calculations for a set of molecules.
Computational prediction of protein-ligand binding using physics-based free energy perturbation technology at an accuracy matching experimental methods.
Simulate biological systems with a GPU-powered high-performance molecular dynamics (MD) engine.
Predict molecular properties based on chemical structure using machine learning (ML).
Documentation for Crystal Structure Prediction: explore potential crystal polymorphs and rank them based on their energies.
Documentation for Auto TS (Transition States): an automated workflow to find transition states, particularly for elementary, molecular reactions.
Active Learning Glide documentation including online help and user manual.
This video showcases a workflow for polymer modeling, including building, simulating, and analyzing polymer models, and exporting to PyMOL for movie creation.
Level up your skill set with hands-on, online molecular modeling courses. These self-paced courses cover a range of scientific topics and include access to Schrödinger software and support.
Connect your students to industry-leading molecular modeling software through a web-based platform. Incorporate molecular modeling in the classroom.