Genome Research Institute University of Cincinnati.

Slides:



Advertisements
Similar presentations
1 Real World Chemistry Virtual discovery for the real world Joe Mernagh 19 May 2005.
Advertisements

Dr Claes Wilhelmsson Executive Director Research & Development Innovation and the life sciences.
The Drug Discovery Process
The post-genomic challenge Exploring function across protein families using chemical probes  The CPFM is in early stages of development  Projects focus.
Challenges in new drug discovery in South Asia
Integrative Organs Systems Scientists and Drug Discovery: The Link Between Big Pharma and Academia Glenn A. Reinhart, Ph.D. Senior Group Leader Integrative.
Biological pathway and systems analysis An introduction.
Jürgen Sühnel Institute of Molecular Biotechnology, Jena Centre for Bioinformatics Jena / Germany Supplementary Material:
Lipinski’s rule of five
S TRUCTURAL B IOINFORMATICS. A subset of Bioinformatics concerned with the of biological structures - proteins, DNA, RNA, ligands etc. It is the first.
Jeffery Loo NLM Associate Fellow ’03 – ’05 chemicalinformaticsforlibraries.
Robotics and Automated Sample Preparation January 16, 2009 UNL COBRE retreat Joe Dumais/Kurt Wulser.
Design of Small Molecule Drugs Targeted to RNA RNA Ontology Group May
Super fast identification and optimization of high quality drug candidates.
OMICS Group Contact us at: OMICS Group International through its Open Access Initiative is committed to make genuine and.
National Institute on Aging Richard J. Hodes, M.D. Director,NIA/NIH/DHHS ADC Meeting – NIH Roadmap and Budget October 2003.
20/03/2008 Dept. of Pharmaceutics 1 APPLICATIONS OF BIOINFORMATICS IN DRUG DISCOVERY AND PROCESS RESEARCH Dr. Basavaraj K. Nanjwade M.Pharm., Ph.D Associate.
Doug Brutlag 2011 Genomics, Bioinformatics & Medicine Drug Development
High Throughput And High Content Screening. What Is HTS ? Biochemical target  Test many compounds  Compounds with desired effect on target = Hit  OR.
Molecular Library and Imaging Francis Collins, NHGRI Tom Insel, NIMH Rod Pettigrew, NIBIB Building Blocks and Pathways Francis Collins,NHGRI Richard Hodes,
Bioinformatics Ayesha M. Khan Spring Phylogenetic software PHYLIP l 2.
Structure-based Drug Design
GTL User Facilities Facility II: Whole Proteome Analysis Michelle V. Buchanan.
Important Points in Drug Design based on Bioinformatics Tools History of Drug/Vaccine development –Plants or Natural Product Plant and Natural products.
Computational Techniques in Support of Drug Discovery October 2, 2002 Jeffrey Wolbach, Ph. D.
Combinatorial Chemistry and Library Design
U.S. DEPARTMENT OF HEALTH AND HUMAN SERVICES National Institutes of Health National Institute of Neurological Disorders and Stroke U.S. DEPARTMENT OF HEALTH.
Asia’s Largest Global Software & Services Company Genomes to Drugs: A Bioinformatics Perspective Sharmila Mande Bioinformatics Division Advanced Technology.
Partnering with Federal Labs: A Panel Discussion FLC Mid-Atlantic Region Annual Meeting October 24, 2007.
1 Discovering new drugs in Africa Defeating Malaria Together Kelly Chibale PhD FRSSAf University of Cape Town.
GTL Facilities Computing Infrastructure for 21 st Century Systems Biology Ed Uberbacher ORNL & Mike Colvin LLNL.
Provider of Global Contract Research Services Accelerating Preclinical Research, Drug Discovery & Therapeutics Stimulation of Adipogenesis Altogen Labs.
Introduction to Chemoinformatics Irene Kouskoumvekaki Associate Professor December 12th, 2012 Biological Sequence Analysis course.
CS 790 – Bioinformatics Introduction and overview.
Genomics Research Institute University of Cincinnati Compound Library Wm. L. Seibel January 10, 2007.
Managing Medical R&D Defining and Realizing Clinical and Commercial Value David J. Wierz Senior Director Commercial Investment & Pricing Strategy Wyeth-Ayerst.
TOPICS IN (NANO) BIOTECHNOLOGY
A New Oklahoma Bioinformatics Company. Microarray and Bioinformatics.
Faculté de Chimie, ULP, Strasbourg, FRANCE
Drug Discovery Process Massimiliano Beltramo, PhD.
20/03/2008 Dept. of Pharmaceutics 1. Use of BIOINFORMATICS in Pharmaciutics 2  Presented By  Shafnan Nazar  Hamid Nasir 
ChEMBL– Open Access Database For Drug Discovery By – Udghosh Singh M.S.(Pharm), 3 rd Sem Pharmacoinformatics.
In silico discovery of inhibitors using structure-based approaches Jasmita Gill Structural and Computational Biology Group, ICGEB, New Delhi Nov 2005.
Page 1 SCAI Dr. Marc Zimmermann Department of Bioinformatics Fraunhofer Institute for Algorithms and Scientific Computing (SCAI) Grid-enabled drug discovery.
© Rethinking health innovation from the South - Some south driven initiatives Dr Chris Edlin December 14 th 2010.
Strategies for developing India as a contract research hub Swaminathan Subramaniam Chief Operating Officer Aurigene Discovery Technologies.
Biological Signal Detection for Protein Function Prediction Investigators: Yang Dai Prime Grant Support: NSF Problem Statement and Motivation Technical.
Virtual Screening C371 Fall INTRODUCTION Virtual screening – Computational or in silico analog of biological screening –Score, rank, and/or filter.
ECCR Overview/MLSCN. NIH Roadmap Series of initiatives designed to pursue major opportunities in biomedical research and gaps in current knowledge that.
Introduction to Chemoinformatics and Drug Discovery Irene Kouskoumvekaki Associate Professor February 15 th, 2013.
MRC Technology an independent life science medical research charity Biotech & Money 2016 Mr Andrew Mercieca, Director of Finance
Basic Translational Clinical New Pathways to Discovery Harmonization Target ID & Valid. Phases I-III Research Teams of Future Translational Cores Clinical.
Computational Approach for Combinatorial Library Design Journal club-1 Sushil Kumar Singh IBAB, Bangalore.
High-Throughput Screening Core Facility at CU-Boulder Wei Wang
A model collaboration using the Pool Susanne Hollinger, Ph.D., J.D. Chief Intellectual Property Officer Emory University.
A truly integrated drug discovery company 26 th April 2016 CONFIDENTIAL.
신기술 접목에 의한 신약개발의 발전전망과 전략 LGCI 생명과학 기술원. Confidential LGCI Life Science R&D 새 시대 – Post Genomic Era Genome count ‘The genomes of various species including.
전통적인 신약 개발 과정.
Strathclyde’s natural products and assay facilities SIDR.
Molecular Modeling in Drug Discovery: an Overview
Natural products from plants
Page 1 Computer-aided Drug Design —Profacgen. Page 2 The most fundamental goal in the drug design process is to determine whether a given compound will.
Can Drug Discovery Research be Done At An Undergraduate Institution?
APPLICATIONS OF BIOINFORMATICS IN DRUG DISCOVERY
Important Points in Drug Design based on Bioinformatics Tools
Molecular Docking Profacgen. The interactions between proteins and other molecules play important roles in various biological processes, including gene.
Virtual Screening.
Standards Development for Metabolomics
Important Points in Drug Design based on Bioinformatics Tools
Drug Design and Drug Discovery
Presentation transcript:

Genome Research Institute University of Cincinnati

Genome Research Institute Housed in facility donated by Aventis Pharmaceuticals ~360,000 sq. ft. of office, laboratory and vivarium space Currently houses 38 PIs, ~350 total researchers

GRI Capabilities Research Programs Molecular Mechanisms of Disease studies on the importance of aberrant pathway signaling in cancer and in metabolic diseases such as obesity and diabetes Obesity and Diabetes studies on the regulation of energy balance and glucose homeostasis in obesity and Type 2 diabetes studies on regulation of responses to environmental stressors with emphasis on behavioral and dietary interventions to optimize performance Lipid Metabolism elucidation of the roles of brain, intestine, and liver in regulation of plasma lipid metabolism, and the consequential effects on inflammation, cancer, atherosclerosis, obesity and development

Drug Discovery at GRI Biological Projects from academia, government, biotech and pharma Assays Proteomics Cell & Animal Models Cell & Animal Systems Genomics Toxicological Testing Phase 1 Clinicals Drug Development Bioinformatics Target Identification & Validation Phase High Throughput Screening, Medicinal Chemistry, Computation and Protein Phase Licensing, Co-Development, Pharma Partner Phase HTS Medicinal Chemistry Lead Compounds Validated Target Computer Modeling Protein Structure Protein Production Software Cell & Animal Models Diagnostics Drug Candidates Drug Candidates } Pharma-Quality 250,000 Compound Library GRI Capabilities

Drug Discovery at GRI Core Facilities Proteomics drug target identification & characterization drug candidate mechanism of action method development for posttranslational modification determination Protein Production production and purification of recombinant proteins (E. coli) Model Organisms use of Drosophila, zebrafish, and mouse to identify and validate potential drug targets Behavioral Studies characterization of rodent behavior in models of anxiety, learning and memory, motor function and locomotion, and drug side effects Mouse Metabolic Phenotyping Center (NIDDK) identification and validation of drug targets through characterization of lipid metabolism, cardiovascular & renal function, energy homeostasis, and behavior High-Throughput Screening rapid identification of structural leads for drug discovery programs

High-Throughput Screening Plate::explorer + Opera imaging system ultraHTS system Evotec-Technologies/Perkin-Elmer Up to 100,000 samples/24 hours

Applications Whole cell fluorescence assays Cell viability, cell differentiation, cell proliferation, cytotoxicity, apoptosis, transporter phenomena Cell signaling assays Calcium flux, second messengers, ion channels, membrane potential Gene expression assays Expression of house-keeping and reporter genes, gene activity and protein regulation, RNAi Membrane receptor assays Ligand binding, receptor activation and desensitization, translocation and endocytosis, recruitment of signaling molecules Translocation assays Target molecule redistribution Morphological assays Neurite outgrowth, cell differentiation, cell adhesion and spreading Opera Imaging Reader >50,000 multi-color data points/24 hours High-Throughput Screening

Compound Repository Haystack Neat Compound Storage Capacity = 200,000 bottles Current = 207,000 bottles Freezer storage when appropriate Solar (Solution Archive) – DMSO solutions Capacity = 1.8 million tubes, 10,000 deep well (96) plates, 13,600 shallow well (384) plates Current = 338,000 compounds in 383,400 tubes, 1862 deep wells and 2332 shallow wells Compound handling and dissolution instruments Housed at P&G’s Mason Business Center (~3500 sq. ft.)

GRI Compound Library It’s NOT just a numbers game – compound selection can greatly enhance screening efficiency Originally from P&G Pharma and represents a $22M investment Selected based on drug-like properties and to maximize structural diversity within a 6-dimensional “drug-like” space Both external (commercial suppliers) and internal discovery and combinatorial chemistry programs used as sources ~250,000 compounds Software to rapidly expand around structural leads identified Vendor Database Remove duplicates Remove reactives, Unusual groups, & toxicophores (80 substructures) MW filter Solubility Filter Lipinski Rule of Five > 5 H-bond donors MW < 500 c log P < 5  N's + O's < 10 “Cleaned” database 26 databases >4 million structures

Compounds Selected for Repository Defined by experienced medicinal chemists Broad, uniform distribution across Drug Space with concentrations of density in key areas from directed purchase and in house synthesis. Compare to 5 vendor screening collections 3,000 to 500,000 compounds 27% - 56% of vendors’ compound collections do NOT meet criteria for drug-like UC Compound collection is 2X to 100X more chemically diverse across Drug Space. Vendor Libraries are inherently predisposed to clustered groupings. We picked the best, most relevant compounds from each.

Molecular Modeling & Virtual Screening Protein – Ligand Docking Rapid docking algorithms for high volume virtual screening of drug targets against all commercially available compounds Detailed dynamic follow-up docking for enhanced accuracy and prediction of binding interactions. Pharmacophore Modeling Abstracting key pharmacophoric elements from molecular series, and using this as the basis for virtual screening. Nearest-Neighbor Analysis (hit expansion) Shape matched and general similarity based methods to identify compounds similar to leads.

Protein Docking Studies Small Molecule Modeling

Medicinal Chemistry Infrastructure 3300 sq. ft. of laboratory space available Synthesis Capability Flexibility built in to move between single compound and small library synthesis (for SAR determination) Compound Characterization Full Complement of Purification (Prep & analytical HPLC) and Analytical tools (NMR, LCMS)

Genome Research Institute What can we provide? Research expertise in signaling pathways, cancer, and metabolic regulation An academic drug discovery center with experienced leaders drawn from the pharma industry State of the art high-throughput and high-content screening capability Access to a highly-diverse library of drug-like compounds for screening Molecular modeling and in silico screening Behavioral and mouse phenotyping core facilities What are we looking for? Drug targets for screening Libraries of novel compounds Drug discovery collaborations Research collaborations in areas of interest Opportunities to create closer interactions with biotech and pharma companies

Further Information: Charles C. McOsker, PhD Director, Business Development & External Relations Genome Research Institute (513) (513) (cell)