Licensing Spark™

InterfaceGUICLI
Ribbon menu structure for quick identification of commands and controls
Customize the display of tabs and function buttons in the ribbon menu using the Flare profiles
Launch multiple jobs locally or remotely
Monitor all running, queued, finished and cancelled jobs
Summary and detailed logging of calculations and events
Visualize protein-ligand interactions and steric clashes
Easily compare protein-ligand complexes
Grid the 3D window by protein and ligand to compare and contrast
Capture 3D view to the storyboard to track and communicate ideas
Create stunning high definition pictures for communication of results
Create informative videos of the 3D view and of the Flare GUI
Create interactive multi-series scatter plots boxplots and histograms of biological or physical properties
System (ligand and protein) preparation
Dedicated protein table enabling rapid inspection of specific chains or residues
Protein sequence alignment and superposition
Control every protein surface with individual display options in the dedicated protein surfaces table
Load and view electron density maps
Monitor alternate conformations for ligands and protein residues
Check protein structures for potential problems
Calculate and color protein molecular surfaces by secondary structure and hydrophobicity
Prepare proteins for further calculation
Perform single point mutation for your proteins
Protein minimization
Dedicated ligand table to store all ligands in your project with full visibility control, sortable on any column
Design ligands in the active site of the protein
Prepare ligands for further calculation
Calculated physico-chemical properties for each ligand
Calculate radial plot multi-parametric scores to select the compounds with the best properties
Filter ligands on physico-chemical properties, structures and tags
Visualize ligand electrostatics to gain a deep understanding of SAR
Minimize one or more ligands in the protein active site
Perform a geometry check of ligand torsions using the Mogul Library from CCDC (requires a CSD license)
Easy and accurate docking of ligands using 1 CPU core including ensemble, template and covalent docking methods
Constrain docking experiments to ensure specific pharmacophoric features are always matched
Dock ligands using multiple CPU cores including ensemble, template and covalent docking methodsAdd-onAdd-on
Use HPC resources to rapidly dock thousands of ligandsAdd-onAdd-on
Spark experiments
Search for novel cores for your molecules
Search for new R-groups based on the chemistry and reagents with up-to-date availability information
Grow a starter molecule into new regions of the active site mapped by another ligand
Join two ligands sitting in the same active site with a linker
Cyclize a molecule by joining two atoms with a linker
Search for a replacement group which will displace a crystallographic water molecule near your ligand
Find result molecules picking protein-ligand interactions not mapped by an existing starter or reference ligand
Grow a starter molecule into inoccupied pockets of the active site
Finding bioisosteres
Start from a 2D molecule
Start from a 3D conformation
Paste a starter molecule from ChemDraw or other applications
Download a starter molecule directly from the RCSB
Control the allowed elements and hybridization of atoms in all new bonds
Search one database at a time, inspecting results between runs, appending new results to an existing project
Search multiple databases in one process by selecting which databases to search at job initiation
Use field, pharmacophore and docking constraints to ensure specific interactions are maintained
Score results against multiple reference molecules
Score results using alternative similarity metrics
Score results by docking score using 1 CPU core
Filter on structure at calculation time using SMARTS patterns or fragments drawn with the molecular editor
Filter result molecules at calculation time according to the desired lipophilicity, polar surface area and flexibility profile
Filter result molecules at calculation time according to the desired size criteria
Import or export customized process settings
Connect to Cresset Engine Broker from Windows, Linux or Mac to use cloud and/or cluster resources for calculationsAdd-onAdd-on
Viewing results
Browse 2D depictions of result molecules
Get every result molecule in 3D aligned to the starting molecule
View starter and results molecules and the protein in stereo
View protein ribbons in different styles
Limit protein to active site with simple button
View protein ribbons for the active site only
Use the Storyboard to capture, annotate, record and recall scenes from the 3D window
Filter results on properties or structure using SMARTS patterns or fragments drawn with the molecular editor to visualize those which include or exclude the specified fragment
Enable or disable filters using a toggle button
Cluster results into separate chemotypes based on Murcko scaffolds
Cluster results using skeletons or substitution patterns
View results and associated data in a tiled layout to see multiple structures at a glance
Multi-parameter scoring
Define a scoring profile that combines bioisosterism and physico-chemical properties
View the physical properties of result molecules in an intuitive radial plot
Assess overall multi-parameter molecule profile using radial plots and colors
Summarize property profile into a single radial plot score
Perform Multi-Parameter Scoring by filtering and ranking molecules according to radial plot score
Ensure that every new idea meets corporate or project guidelines for standard physical properties (e.g. logP, TPSA, MW etc.)
Ensure that conformations for new ideas are realistic by monitoring the torsion frequency in the CSD
Mark specific results as favorites for further investigation
Tag specific results with a custom label for further investigation
Assess chemical feasibility of new ideas by monitoring the attachment point atom type
Import or export custom radial plot properties​
Database management
Create custom databases by fragmenting your corporate database
Control the size and flexibility of fragments that are stored in the database
Convert your available reagents into databases to search today using easily understood yet comprehensive rules
Create your own rules for conversion of reagents into fragment databases to be searched
View which databases need updating before you start a search
Filter by name to easily locate the databases you want to search or update​
Update all or select the desired Spark databases in one go
Workflow integrations
Import your Spark project direclty into Flare to help you prioritize, via a wide portfolio of ideas and methods, the best molecules to make
Import ligands from a csv (structures read in from a SMILES strings)​
Access the RDKit cheminformatics toolkit
Deploy in a standard workflow in KNIME
Export results as csv for use in Excel, Spotfire etc. (structures are exported as SMILES strings)
Export MEP surfaces as the CCP4, Cube, Insight and MOE file formats
Start a Blaze™ virtual screening experiment on millions of compounds from the GUI
Browse and retrieve Blaze search results directly, visualizing enrichment plot and statistics for each Blaze refinement level
Create and automate workflows using the Python® API
Upgrade Flare with Python modules for graphing, statistics, Jupyter® Notebook
Expand the functionality of the Flare GUI using Python extensions​
Export Spark search calculations from the GUI and run them with pyFlare​
Automate and distribute Spark calculations using pyFlare and Cresset released Python scripts and snippetsAdd-on

Native Spark licensing options

GUICLI
Spark experiments
Search for novel cores for your molecules
Search for new R-groups based on the chemistry and reagents with up-to-date availability information ✓
Grow a starter molecule into new regions of the active site mapped by another ligand ✓ ✓
Join two ligands sitting in the same active site with a linker
Cyclize a molecule by joining two atoms with a linker
Search for a replacement group which will displace a crystallographic water molecule near your ligand
Find result molecules picking protein-ligand interactions not mapped by an existing starter or reference ligandAdd-onAdd-on
Grow a starter molecule into inoccupied pockets of the active siteAdd-onAdd-on
Finding bioisosteres
Start from a 2D molecule ✓
Start from a 3D conformation
Paste a starter molecule from ChemDraw or other applications
Download a starter molecule directly from the RCSB
Control the allowed elements and hybridization of atoms in all new bonds
Search one database at a time, inspecting results between runs, appending new results to an existing project
Search multiple databases in one process by selecting which databases to search at job initiation
Use field, pharmacophore and docking constraints to ensure specific interactions are maintained
Score results against multiple reference molecules
Score results using alternative similarity metrics
Filter on structure at calculation time using SMARTS patterns or fragments drawn with the molecular editor
Filter result molecules at calculation time according to the desired lipophilicity, polar surface area and flexibility profile
Filter result molecules at calculation time according to the desired size criteria
Import or export customized process settings
Connect to Cresset Engine Broker from Windows, Linux or Mac to use cloud and/or cluster resources for calculationsAdd-onAdd-on
Use all available CPU resources to speed up calculationsAdd-onAdd-on
Viewing results
Browse 2D depictions of result molecules
Get every result molecule in 3D aligned to the starting molecule ✓
View starter and results molecules and the protein in stereo
View protein ribbons in different styles
Limit protein to active site with simple button
View protein ribbons for the active site only
Use the Storyboard to capture, annotate, record and recall scenes from the 3D window
Filter results on structure using SMARTS patterns or fragments drawn with the molecular editor to visualize those which include or exclude the specified fragment
Enable or disable filters using a toggle button
Import or export filters
Cluster results into separate chemotypes based on Murcko scaffolds
Cluster results using skeletons or substitution patterns
View results and associated data in a tiled layout to see multiple structures at a glance
Multi-parameter scoring
Define a scoring profile that combines bioisosterism and physico-chemical properties
View the physical properties of result molecules in an intuitive radial plot
Assess overall multi-parameter molecule profile using radial plots and colors
Summarize property profile into a single radial plot score
Perform Multi-Parameter Scoring by filtering and ranking molecules according to radial plot score
Ensure that every new idea meets corporate or project guidelines for standard physical properties (e.g. logP, TPSA, MW etc.)
Ensure that conformations for new ideas are realistic by monitoring the torsion frequency in the CSD
Mark specific results as favorites for further investigation
Tag specific results with a custom label for further investigation
Assess chemical feasibility of new ideas by monitoring the attachment point atom type ✓
Import or export custom radial plot properties
Database management
Create custom databases by fragmenting your corporate database
Control the size and flexibility of fragments that are stored in the database
Convert your available reagents into databases to search today using easily understood yet comprehensive rules ✓
Create your own rules for conversion of reagents into fragment databases to be searched ✓
View which databases need updating before you start a search
Filter by name to easily locate the databases you want to search or update
Update all or select the desired Spark databases in one go
Workflow integration
Import calculated and/or measured physical properties and data from an external web service through a REST interface ✓
Deploy in a standard workflow in KNIME™ or Pipeline Pilot
Exporting results
Send selected and favorite compounds to Flare™ and Forge™ for further analysis ✓
Export results in standard molecule formats such as sdf or mol2 ✓ ✓
Export results as csv for use in Excel, Spotfire etc. (structures are exported as SMILES strings) ✓
Export MEP surfaces as the CCP4, Cube, Insight and MOE file formats ✓