The document describes two approaches to drug discovery: the traditional approach and the SWITCH drug re-profiling approach. The traditional approach involves lengthy timelines of 0.5-6 years across target identification, validation, lead identification, candidate optimization, pre-clinical trials, and clinical trials. The SWITCH approach aims to shorten timelines by mining existing drug data to identify new therapeutic uses for existing drugs and performing a clinical proof of concept trial within 0.5-1 year on a re-profiled drug.
Drug discovery and development is a long, expensive, and complex process averaging about 12 years and $500 million to bring a new prescription medication to market. Only 1 in 10,000 compounds eventually becomes an approved drug. The process involves discovery, preclinical research, clinical trials, and regulatory approval. Discovery aims to identify candidate drug molecules, while preclinical research studies their safety and efficacy in animal models before human testing. Clinical trials then evaluate new drugs with patients for safety and effectiveness over several phases before regulatory approval and marketing.
This document discusses the druggability of new chemical entities (NCEs). It defines druggability as the ability of a compound to be used commercially as a pharmaceutical drug after undergoing clinical trials. Several rules for determining druggability are described, with Lipinski's rule of five being the most popular. Lipinski's rule states that good oral bioavailability is more likely if a compound has less than 5 H-bond donors, 10 H-bond acceptors, a molecular weight below 500 Daltons, and a logP value below 5. The document also discusses other druggability rules and exceptions to Lipinski's rule.
Introduction to drug discovery and development.pptxMingmaLhamuBhutia
The document provides an overview of drug discovery and development. It discusses the various stages including discovery, preclinical research, clinical trials (phases 1-4), regulatory approval, and post-approval surveillance. The discovery stage involves identifying drug targets and lead compounds. Preclinical research involves safety testing in animals. Clinical trials test safety and efficacy in humans in phases. Regulatory agencies approve drugs that are proven safe and effective. Post-approval surveillance monitors drugs after market release. The overall process aims to develop innovative therapies while ensuring patient safety.
The document discusses the hit to lead (H2L) stage of drug discovery. In this stage, small molecule hits identified from high-throughput screening undergo limited optimization to identify lead compounds with improved binding affinity, selectivity, metabolic properties, and other qualities. The goal is to progress compounds from the micromolar binding range to nanomolar binding through synthetic analogs before advancing to the lead optimization stage. Key aspects of H2L include hit confirmation, expansion through synthetic analogs, and selection of lead series based on various criteria for further exploration.
NEW DRUG DEVELOPMENT
Clinical Research - Phases
New Drug Development Process
CONTENT OF INDA
CONTENT OF NDA
.
.
.
FOR MORE RELATED QUERIES CONTACT US ON 09028839789
FOR ENROLLMENT IN NEXT BATCH KINDLY CONTACT US ON THE ABOVE MENTIONED CONTACT NUMBER
http://pristynresearch.com/
This document provides an overview of high throughput screening (HTS). It defines HTS as a process that can quickly screen 10,000-100,000 compounds per day to identify interactions between chemicals and biological targets. The document outlines the history, definitions, instrumentation, techniques, applications and limitations of HTS. HTS is an important tool in drug discovery for identifying hit compounds from libraries that can then be optimized into lead molecules.
The document discusses lead identification in drug development. It defines a lead compound as one that shows desired pharmaceutical activity and could potentially be developed into a drug. The document outlines the content to be presented, including an introduction to lead identification, what a lead is, properties of leads, and methods for identifying leads. Key methods discussed are random screening, non-random screening, high-throughput screening, and structure-based drug design.
Insilico methods for design of novel inhibitors of Human leukocyte elastaseJayashankar Lakshmanan
Oral contributed paper “Insilico methods for design of novel inhibitors of Human leukocyte elastase” in the International conference on Systemics, Cybernetics and Informatics-2006
Drug discovery and development is a long, expensive, and complex process averaging about 12 years and $500 million to bring a new prescription medication to market. Only 1 in 10,000 compounds eventually becomes an approved drug. The process involves discovery, preclinical research, clinical trials, and regulatory approval. Discovery aims to identify candidate drug molecules, while preclinical research studies their safety and efficacy in animal models before human testing. Clinical trials then evaluate new drugs with patients for safety and effectiveness over several phases before regulatory approval and marketing.
This document discusses the druggability of new chemical entities (NCEs). It defines druggability as the ability of a compound to be used commercially as a pharmaceutical drug after undergoing clinical trials. Several rules for determining druggability are described, with Lipinski's rule of five being the most popular. Lipinski's rule states that good oral bioavailability is more likely if a compound has less than 5 H-bond donors, 10 H-bond acceptors, a molecular weight below 500 Daltons, and a logP value below 5. The document also discusses other druggability rules and exceptions to Lipinski's rule.
Introduction to drug discovery and development.pptxMingmaLhamuBhutia
The document provides an overview of drug discovery and development. It discusses the various stages including discovery, preclinical research, clinical trials (phases 1-4), regulatory approval, and post-approval surveillance. The discovery stage involves identifying drug targets and lead compounds. Preclinical research involves safety testing in animals. Clinical trials test safety and efficacy in humans in phases. Regulatory agencies approve drugs that are proven safe and effective. Post-approval surveillance monitors drugs after market release. The overall process aims to develop innovative therapies while ensuring patient safety.
The document discusses the hit to lead (H2L) stage of drug discovery. In this stage, small molecule hits identified from high-throughput screening undergo limited optimization to identify lead compounds with improved binding affinity, selectivity, metabolic properties, and other qualities. The goal is to progress compounds from the micromolar binding range to nanomolar binding through synthetic analogs before advancing to the lead optimization stage. Key aspects of H2L include hit confirmation, expansion through synthetic analogs, and selection of lead series based on various criteria for further exploration.
NEW DRUG DEVELOPMENT
Clinical Research - Phases
New Drug Development Process
CONTENT OF INDA
CONTENT OF NDA
.
.
.
FOR MORE RELATED QUERIES CONTACT US ON 09028839789
FOR ENROLLMENT IN NEXT BATCH KINDLY CONTACT US ON THE ABOVE MENTIONED CONTACT NUMBER
http://pristynresearch.com/
This document provides an overview of high throughput screening (HTS). It defines HTS as a process that can quickly screen 10,000-100,000 compounds per day to identify interactions between chemicals and biological targets. The document outlines the history, definitions, instrumentation, techniques, applications and limitations of HTS. HTS is an important tool in drug discovery for identifying hit compounds from libraries that can then be optimized into lead molecules.
The document discusses lead identification in drug development. It defines a lead compound as one that shows desired pharmaceutical activity and could potentially be developed into a drug. The document outlines the content to be presented, including an introduction to lead identification, what a lead is, properties of leads, and methods for identifying leads. Key methods discussed are random screening, non-random screening, high-throughput screening, and structure-based drug design.
Insilico methods for design of novel inhibitors of Human leukocyte elastaseJayashankar Lakshmanan
Oral contributed paper “Insilico methods for design of novel inhibitors of Human leukocyte elastase” in the International conference on Systemics, Cybernetics and Informatics-2006
The document provides an overview of the modern drug discovery process, focusing on lead identification and lead optimization. It discusses how lead compounds are initially identified through screening compound libraries or structure-based drug design. These leads are then optimized through chemical modifications to improve properties like efficacy, potency, pharmacokinetics and toxicity profile. The goal is to develop compounds suitable for preclinical and clinical testing towards becoming an approved drug. Methods for lead optimization include modifying functional groups, exploring structure-activity relationships, and altering aspects like stereochemistry.
Traditional and Rational Drug DesigningManish Kumar
Traditional drug design involved origins from natural sources through accidental discoveries, not based on specific targets. Methods included random screening, trial and error using plant materials, ethnopharmacology observing indigenous drug uses, and serendipitous discoveries like penicillin. Rational drug design is target-based, using the known structure and function of targets. Methods include ligand-based approaches like quantitative structure-activity relationships (QSAR) and pharmacophore modeling, and structure-based approaches like molecular docking and de novo design using a target's 3D structure. Both traditional and rational methods have contributed to modern drug discovery.
Role of Target Identification and Target Validation in Drug Discovery ProcessPallavi Duggal
Target identification and Validation tells about the how target is neccesary for new drug discovery and its development to reach into market for rare diseases.
This document discusses rational drug design, which involves designing drugs based on knowledge of biological targets. It describes two main approaches: structure-based drug design, which relies on determining the 3D structure of the target using techniques like X-ray crystallography, and ligand-based drug design, which relies on knowledge of molecules that already bind to the target. Structure-based design involves identifying a drug target, determining its structure and function, then designing drugs that interact with it beneficially. Homology modeling can be used to model targets when experimental structures are unavailable. The document outlines the steps of structure-based design in rational drug development.
This document discusses genomics and proteomics based drug discovery. It explains that genomics involves sequencing genomes to understand gene functions and interactions, while proteomics studies protein expression and interactions. The document outlines how structural bioinformatics and techniques like protein-ligand docking can help in drug target identification and rational drug design. It also discusses how proteomics can aid in various stages of drug discovery like target identification and validation.
Computer-Aided Drug Designing (CADD) is a specialized discipline that uses computational methods to simulate drug-receptor interactions
CADD methods are heavily dependent on bioinformatics tools, applications, and databases
This document discusses various methods for virtual screening (VS), which involves using computer-based techniques to rapidly assess large libraries of chemical compounds to select lead candidates. It describes ligand-based methods that use information from known active compounds, receptor-based docking methods that use the 3D structure of the target protein, and classification of VS techniques as either ligand- or receptor-based. It also discusses other docking-based VS methods such as classical docking studies, pharmacophore/docking studies, fragment docking approaches, and new docking methods.
The document discusses the high costs involved in drug discovery and development. It notes that the average cost to bring a new drug to market is approximately $800 million and $127 billion was spent on pharmaceutical research and development in 2010 alone. The process involves several key stages - drug discovery, preclinical testing, clinical trials, and FDA review - which can take over 10 years to complete. Around 30% of total costs are spent in the early discovery phase, 15-20% in preclinical testing, and 40% on clinical trials. Despite advances that have reduced timelines, the overall costs of drug development remain very high.
International Guidelines and Regulatory Agencies for Toxicity StudiesSuneal Saini
This document discusses international guidelines and regulatory agencies for toxicity studies. It outlines regulatory agencies like the ICH, OECD, FDA, and WHO that provide guidelines for non-clinical safety testing. The ICH and WHO have produced comprehensive guidelines to assess risks like carcinogenicity, genotoxicity, and reproductive toxicity. The OECD also provides numerous guidelines for specific toxicity study types. The FDA provides guidance documents and draft guidances related to studies like carcinogenicity, immunotoxicology, and photosafety testing.
Target identification in drug discoverySwati Kumari
The document discusses target identification in drug discovery. It begins by defining a target and explaining that target identification is the first step in drug discovery. It then discusses various approaches to target identification, including direct biochemical methods, genetic interaction methods, and computational inference methods. The document also discusses characteristics of drug targets and how drugs interact with targets at the molecular level. It provides examples of tools that can be used for target identification and validation, such as microarrays, antisense technology, and proteomics. In summary, the document outlines the process of target identification in drug discovery and various methods that can be used to identify and validate potential drug targets.
Quantitative structure - activity relationship (QSAR)
Why QSAR?
costs – 800M$ to bring a new drug to market
Patent life time is limited (generic drugs)
Synthesis / Purification of compounds is expensive and time consume-able
It is like find a needle in the haystack
QSAR helps for focusing most promising drug candidates
QSAR is a mathematical relationship between a “biological activity of a molecular system” and its “geometric and chemical characteristics”.
Such relationships holds – Equations can be drawn up- some confidence
to which should be Fit to the target
QSAR what actually do?
IDENTIFY AND QUANTIFY the Physico-chemical properties effect on Drug’s Biological activity
Aims
To relate the biological activity of a series of compounds to their physicochemical parameters in a quantitative fashion using a mathematical formula
Requirements
Quantitative measurements for biological and physicochemical properties
Physicochemical Properties
Hydrophobicity of the molecule
Hydrophobicity of substituents
Electronic properties of substituents
Steric properties of substituents
QSAR equations are only applicable to compounds in the same structural class (e.g. ethers)
However, log Po is similar for anaesthetics of different structural classes (ca. 2.3)
Structures with log P ca. 2.3 enter the CNS easily
(e.g. potent barbiturates have a log P of approximately 2.0)
Can alter log P value of drugs away from 2.0 to avoid CNS side effects
Physical properties are measured for the molecule as a whole
Properties are calculated using computer software
No experimental constants or measurements are involved
Properties are known as ‘Fields’
Steric field - defines the size and shape of the molecule
Electrostatic field - defines electron rich/poor regions of molecule
Hydrophobic properties are relatively unimportant
No reliance on experimental values
Can be applied to molecules with unusual substituents
Not restricted to molecules of the same structural class
Predictive capability
Comparative molecular field analysis (CoMFA) - Tripos
Build each molecule using modelling software
Identify the active conformation for each molecule
Identify the pharmacophore
THANKING YOU
This document provides an overview of biosimilars. It defines biosimilars as subsequent versions of biologic medicines where patent protection has expired. Biosimilars are approved based on similarity to an original reference biologic in terms of quality, safety and efficacy, but are not expected to be identical due to structural complexities. The development of biosimilars involves extensive comparative studies to the reference product. Concerns with biosimilars include potential immunogenicity, efficacy issues, and uncertainty around switching between originator and biosimilar products or between biosimilars. Proper pharmacovigilance is important to monitor biosimilar safety and benefits.
CLINICAL RESEARCH IS ONE WHICH MADE POSSIBLE , ORAGAN TRANSPLANT, MANAGE OF DIBETIS, ADDED YEAR OF AIDS PATIENT.
HOW WELL NEW APPROCHES AND WORK IN PEOPLE.
THE APPROACHES CAN BE MEDICAL, BEHAVIORAL, OR MANAGEMENT.
EACH STUDY ANSWER SCIENTIFIC QUESTION.
GENERAL INTRODUCTION OF CLINICAL RESEARCH
KEY POINTS AND CONCEPTUAL DEFINATION
DRUG DISCOVERY PROCESS
SOURCES OF DRUG DISCOVERY
PRECLINICAL STUDY
FOR MORE RELATED QUERIES CONTACT US ON- 9028839789
FOR ENROLLMENT IN NEXT BATCH CONTACT ON ABOVE MENTIONED NUMBER
Introduction to the drug discovery processThanh Truong
This document discusses the drug discovery process from target identification through FDA approval. It describes methods used for target identification such as genomics, bioinformatics, and proteomics. The stages of lead identification through high-throughput screening and structure-based drug design are outlined. Key aspects of lead optimization like characterizing potency, efficacy, pharmacokinetics, and toxicity are summarized. Details are provided on preclinical and clinical trial phases from Phase 0 through Phase IV post-marketing surveillance. Factors contributing to the declining drug approval rate like increased safety demands are noted. The high costs and failure rates associated with drug development are highlighted.
Rational drug design is a process that begins with knowledge of a biological target and aims to design small molecules that interact optimally with that target to produce a desired therapeutic effect. It involves analyzing the structures of active molecules and known targets, then designing new molecules that are predicted to specifically fit the target. This may involve modifying existing lead compounds or building new ones de novo. The goal is to develop drugs with greater potency, selectivity and fewer side effects than those found by traditional trial-and-error means. Cimetidine for reducing stomach acid is provided as an example of rational drug design, where histamine analogs were synthesized and optimized until an effective and safe product was obtained.
1) The document discusses the basics of drug design including defining the disease process, identifying targets for drug design like enzymes, receptors and nucleic acids, and the different approaches of ligand-based drug design and structure-based drug design.
2) It also covers important techniques in drug design like computer-aided drug design using computational methods, quantitative structure-activity relationships (QSAR), and the uses of computer graphics in molecular modeling and dynamics simulations.
3) Important experimental techniques discussed are x-ray crystallography and NMR spectroscopy that provide structural information for target biomolecules essential for structure-based drug design.
The document provides an overview of the modern drug discovery process, focusing on lead identification and lead optimization. It discusses how lead compounds are initially identified through screening compound libraries or structure-based drug design. These leads are then optimized through chemical modifications to improve properties like efficacy, potency, pharmacokinetics and toxicity profile. The goal is to develop compounds suitable for preclinical and clinical testing towards becoming an approved drug. Methods for lead optimization include modifying functional groups, exploring structure-activity relationships, and altering aspects like stereochemistry.
Traditional and Rational Drug DesigningManish Kumar
Traditional drug design involved origins from natural sources through accidental discoveries, not based on specific targets. Methods included random screening, trial and error using plant materials, ethnopharmacology observing indigenous drug uses, and serendipitous discoveries like penicillin. Rational drug design is target-based, using the known structure and function of targets. Methods include ligand-based approaches like quantitative structure-activity relationships (QSAR) and pharmacophore modeling, and structure-based approaches like molecular docking and de novo design using a target's 3D structure. Both traditional and rational methods have contributed to modern drug discovery.
Role of Target Identification and Target Validation in Drug Discovery ProcessPallavi Duggal
Target identification and Validation tells about the how target is neccesary for new drug discovery and its development to reach into market for rare diseases.
This document discusses rational drug design, which involves designing drugs based on knowledge of biological targets. It describes two main approaches: structure-based drug design, which relies on determining the 3D structure of the target using techniques like X-ray crystallography, and ligand-based drug design, which relies on knowledge of molecules that already bind to the target. Structure-based design involves identifying a drug target, determining its structure and function, then designing drugs that interact with it beneficially. Homology modeling can be used to model targets when experimental structures are unavailable. The document outlines the steps of structure-based design in rational drug development.
This document discusses genomics and proteomics based drug discovery. It explains that genomics involves sequencing genomes to understand gene functions and interactions, while proteomics studies protein expression and interactions. The document outlines how structural bioinformatics and techniques like protein-ligand docking can help in drug target identification and rational drug design. It also discusses how proteomics can aid in various stages of drug discovery like target identification and validation.
Computer-Aided Drug Designing (CADD) is a specialized discipline that uses computational methods to simulate drug-receptor interactions
CADD methods are heavily dependent on bioinformatics tools, applications, and databases
This document discusses various methods for virtual screening (VS), which involves using computer-based techniques to rapidly assess large libraries of chemical compounds to select lead candidates. It describes ligand-based methods that use information from known active compounds, receptor-based docking methods that use the 3D structure of the target protein, and classification of VS techniques as either ligand- or receptor-based. It also discusses other docking-based VS methods such as classical docking studies, pharmacophore/docking studies, fragment docking approaches, and new docking methods.
The document discusses the high costs involved in drug discovery and development. It notes that the average cost to bring a new drug to market is approximately $800 million and $127 billion was spent on pharmaceutical research and development in 2010 alone. The process involves several key stages - drug discovery, preclinical testing, clinical trials, and FDA review - which can take over 10 years to complete. Around 30% of total costs are spent in the early discovery phase, 15-20% in preclinical testing, and 40% on clinical trials. Despite advances that have reduced timelines, the overall costs of drug development remain very high.
International Guidelines and Regulatory Agencies for Toxicity StudiesSuneal Saini
This document discusses international guidelines and regulatory agencies for toxicity studies. It outlines regulatory agencies like the ICH, OECD, FDA, and WHO that provide guidelines for non-clinical safety testing. The ICH and WHO have produced comprehensive guidelines to assess risks like carcinogenicity, genotoxicity, and reproductive toxicity. The OECD also provides numerous guidelines for specific toxicity study types. The FDA provides guidance documents and draft guidances related to studies like carcinogenicity, immunotoxicology, and photosafety testing.
Target identification in drug discoverySwati Kumari
The document discusses target identification in drug discovery. It begins by defining a target and explaining that target identification is the first step in drug discovery. It then discusses various approaches to target identification, including direct biochemical methods, genetic interaction methods, and computational inference methods. The document also discusses characteristics of drug targets and how drugs interact with targets at the molecular level. It provides examples of tools that can be used for target identification and validation, such as microarrays, antisense technology, and proteomics. In summary, the document outlines the process of target identification in drug discovery and various methods that can be used to identify and validate potential drug targets.
Quantitative structure - activity relationship (QSAR)
Why QSAR?
costs – 800M$ to bring a new drug to market
Patent life time is limited (generic drugs)
Synthesis / Purification of compounds is expensive and time consume-able
It is like find a needle in the haystack
QSAR helps for focusing most promising drug candidates
QSAR is a mathematical relationship between a “biological activity of a molecular system” and its “geometric and chemical characteristics”.
Such relationships holds – Equations can be drawn up- some confidence
to which should be Fit to the target
QSAR what actually do?
IDENTIFY AND QUANTIFY the Physico-chemical properties effect on Drug’s Biological activity
Aims
To relate the biological activity of a series of compounds to their physicochemical parameters in a quantitative fashion using a mathematical formula
Requirements
Quantitative measurements for biological and physicochemical properties
Physicochemical Properties
Hydrophobicity of the molecule
Hydrophobicity of substituents
Electronic properties of substituents
Steric properties of substituents
QSAR equations are only applicable to compounds in the same structural class (e.g. ethers)
However, log Po is similar for anaesthetics of different structural classes (ca. 2.3)
Structures with log P ca. 2.3 enter the CNS easily
(e.g. potent barbiturates have a log P of approximately 2.0)
Can alter log P value of drugs away from 2.0 to avoid CNS side effects
Physical properties are measured for the molecule as a whole
Properties are calculated using computer software
No experimental constants or measurements are involved
Properties are known as ‘Fields’
Steric field - defines the size and shape of the molecule
Electrostatic field - defines electron rich/poor regions of molecule
Hydrophobic properties are relatively unimportant
No reliance on experimental values
Can be applied to molecules with unusual substituents
Not restricted to molecules of the same structural class
Predictive capability
Comparative molecular field analysis (CoMFA) - Tripos
Build each molecule using modelling software
Identify the active conformation for each molecule
Identify the pharmacophore
THANKING YOU
This document provides an overview of biosimilars. It defines biosimilars as subsequent versions of biologic medicines where patent protection has expired. Biosimilars are approved based on similarity to an original reference biologic in terms of quality, safety and efficacy, but are not expected to be identical due to structural complexities. The development of biosimilars involves extensive comparative studies to the reference product. Concerns with biosimilars include potential immunogenicity, efficacy issues, and uncertainty around switching between originator and biosimilar products or between biosimilars. Proper pharmacovigilance is important to monitor biosimilar safety and benefits.
CLINICAL RESEARCH IS ONE WHICH MADE POSSIBLE , ORAGAN TRANSPLANT, MANAGE OF DIBETIS, ADDED YEAR OF AIDS PATIENT.
HOW WELL NEW APPROCHES AND WORK IN PEOPLE.
THE APPROACHES CAN BE MEDICAL, BEHAVIORAL, OR MANAGEMENT.
EACH STUDY ANSWER SCIENTIFIC QUESTION.
GENERAL INTRODUCTION OF CLINICAL RESEARCH
KEY POINTS AND CONCEPTUAL DEFINATION
DRUG DISCOVERY PROCESS
SOURCES OF DRUG DISCOVERY
PRECLINICAL STUDY
FOR MORE RELATED QUERIES CONTACT US ON- 9028839789
FOR ENROLLMENT IN NEXT BATCH CONTACT ON ABOVE MENTIONED NUMBER
Introduction to the drug discovery processThanh Truong
This document discusses the drug discovery process from target identification through FDA approval. It describes methods used for target identification such as genomics, bioinformatics, and proteomics. The stages of lead identification through high-throughput screening and structure-based drug design are outlined. Key aspects of lead optimization like characterizing potency, efficacy, pharmacokinetics, and toxicity are summarized. Details are provided on preclinical and clinical trial phases from Phase 0 through Phase IV post-marketing surveillance. Factors contributing to the declining drug approval rate like increased safety demands are noted. The high costs and failure rates associated with drug development are highlighted.
Rational drug design is a process that begins with knowledge of a biological target and aims to design small molecules that interact optimally with that target to produce a desired therapeutic effect. It involves analyzing the structures of active molecules and known targets, then designing new molecules that are predicted to specifically fit the target. This may involve modifying existing lead compounds or building new ones de novo. The goal is to develop drugs with greater potency, selectivity and fewer side effects than those found by traditional trial-and-error means. Cimetidine for reducing stomach acid is provided as an example of rational drug design, where histamine analogs were synthesized and optimized until an effective and safe product was obtained.
1) The document discusses the basics of drug design including defining the disease process, identifying targets for drug design like enzymes, receptors and nucleic acids, and the different approaches of ligand-based drug design and structure-based drug design.
2) It also covers important techniques in drug design like computer-aided drug design using computational methods, quantitative structure-activity relationships (QSAR), and the uses of computer graphics in molecular modeling and dynamics simulations.
3) Important experimental techniques discussed are x-ray crystallography and NMR spectroscopy that provide structural information for target biomolecules essential for structure-based drug design.
The document discusses the process of drug discovery, including target selection, lead discovery, medicinal chemistry, in vitro and in vivo studies, and clinical trials. Target selection involves identifying cellular or genetic targets involved in disease through techniques like genomics, proteomics, and bioinformatics. Lead discovery focuses on identifying small molecule modulators of protein function through methods like synthesis, combinatorial chemistry, assay development, and high-throughput screening. Medicinal chemistry then works to optimize these leads. [/SUMMARY]
Smart drug re profiling using computational chemistry tools novel biology and...Cresset
Re-Pharm is a pharmaceutical company that focuses on repositioning existing compounds for new indications. They use a combination of biological understanding and computational tools from Cresset to identify new potential uses for compounds. Their lead candidate, RP0217, was identified through virtual screening as having activity against a novel inflammatory target. Preclinical studies demonstrate RP0217 has anti-inflammatory effects alone and synergizes with steroids at very low doses, indicating potential for reduced steroid use. RP0217 comes from an old drug class with extensive safety history, presenting an opportunity for an expedited development path. Re-Pharm seeks licensing partners for RP0217 in various inflammatory indications.
Part of the MaRS BioEntrepreneurship series session: Clinical Trials Strategy
Speaker: Miklos Schulz
This is available as an audio presentation:
http://www.marsdd.com/bioent/feb12
Also view the event blog and summary:
http://blog.marsdd.com/2007/02/14/bioentrepreneurship-clinical-trial-strategies-its-never-too-soon/
tranSMART Community Meeting 5-7 Nov 13 - Session 1: Translational Drug Disco...David Peyruc
This document summarizes Andy Plump's presentation on translational drug discovery at Sanofi. It discusses two pillars of Sanofi's strategy: translational medicine and open innovation. Translational medicine focuses on human genetics, biology and disease to select targets and design clinical trials, moving from patients to research and back. Four success stories are highlighted: PCSK9 for heart disease, TrkA for pain, P53 for cancer, and glycolipids for Gaucher's disease. The presentation emphasizes applying lessons from human genetics and biology throughout the drug development process.
The Role of Bioinformatics in The Drug Discovery ProcessAdebowale Qazeem
The Role of Bioinformatics in The Drug Discovery Process, is an undergraduate seminar presentation in the department of Biochemistry, Faculty of life Sciences, University of Ilorin, Ilorin.
The document provides a history of drug design and development. It discusses how drugs were originally derived from natural sources like plants and animals. In the 19th century, drugs began to be isolated from natural sources and synthesized. Major developments included the isolation of morphine, aspirin, penicillin, and statins. The document also outlines the history of developments in pain killers, antibiotics, anticancer drugs, and treatments for cardiac issues and endocrine disorders. It notes drug design aims to find new medications based on biological targets and can involve developing analogs of lead compounds.
Innovation decision making new product development preclinical fda formulatio...SlideTeam.net
The drug discovery process involves preclinical and clinical studies. In preclinical studies, a research team is formed and objectives are set. Novel chemicals are synthesized and tested for efficacy and safety in test tubes and animals. Results are used to choose a drug candidate. In clinical studies, the drug progresses through Phase I-III trials in healthy volunteers and patients to test safety and efficacy. If successful, the company files a New Drug Application with the FDA for approval to market the drug.
The document discusses various topics related to medicinal chemistry including definitions of medicinal chemistry, examples of everyday drugs and their effects, classifications of drugs, drug names and modes of action. It also provides information about different medical systems including Siddha, Ayurveda and Allopathy as well as examples of commonly used chemicals and plants in each system such as tulsi, amla, guava and turmeric.
Drug discovery process style 5 powerpoint presentation templatesSlideTeam.net
The document describes the key stages in the drug discovery process, including cellular and genetic target identification, compound synthesis and isolation, high-throughput screening, lead optimization, preclinical testing in animal models and in vitro/in vivo studies, and clinical trials in humans. The flow diagram shows the iterative process moving from early research to identify biological targets through compound development and testing, culminating in clinical evaluation and potential approval of new therapeutics.
1. Bioinformatics uses computer science and information technology to analyze biological data and assist with drug discovery. It helps identify drug targets and design drug candidates.
2. The drug design process involves identifying a disease target, studying compounds of interest, detecting molecular disease bases, rational drug design, refinement, and testing. Bioinformatics tools assist with each step.
3. CADD uses computational methods to simulate drug-receptor interactions and is heavily dependent on bioinformatics tools and databases. It supports techniques like virtual screening, sequence analysis, homology modeling, and physicochemical modeling to aid drug development.
Molecular descriptors are numerical values that characterize molecular properties and structures. They can represent physicochemical properties or values derived from algorithmic techniques applied to molecular structures. Descriptors vary in complexity and computational requirements. Some are based on experimental data while others are algorithmic constructs. Two-dimensional (2D) descriptors are calculated from 2D structures and include counts, physicochemical properties, and topological indices. Three-dimensional (3D) descriptors encode spatial relationships and include fragment screens and pharmacophore keys.
The document discusses structure-based drug design (SBDD). It first provides background on drug design and SBDD. It then describes some key aspects of SBDD, including using the 3D structure of the biological target obtained from techniques like X-ray crystallography and NMR spectroscopy. It also discusses ligand-based and receptor-based drug design approaches. The document then outlines the typical steps involved in SBDD, including target selection, ligand selection, target preparation, docking, evaluating results, and discusses some molecular docking techniques and scoring functions used to predict binding.
2014 09-08 Personalized healthcare, a view in the near futureAlain van Gool
1) Professor Alain van Gool has experience in academia, pharmaceutical companies, and applied research institutes focusing on personalized healthcare, biomarkers, and 'omics technologies.
2) Personalized healthcare aims to stratify patients based on multi-level diagnoses and patient preferences to select personalized therapies.
3) A key challenge is translating complex biological data into information patients can understand to make healthcare decisions. Biomarkers must be validated from discovery to diagnostic tests to realize personalized medicine.
Business powerpoint presentations process diagram six decisions cycle flow ch...SlideTeam.net
The document describes how to edit and customize a business process diagram template in PowerPoint. It includes 6 steps represented by diverging arrows. At each step, text or images can be added and modified. All images are fully editable in terms of color, size, orientation, and other properties using the formatting and drawing tools in PowerPoint. This allows the template to be customized while maintaining a consistent visual structure.
This document provides an overview of the history and methods of drug discovery, including traditional and computer-aided approaches. It discusses the traditional drug discovery life cycle from hit identification through random screening and the use of natural products and synthetic chemicals. It then introduces computer-aided drug design (CADD) and describes how it can be used throughout the drug discovery process, including structure-based design, ligand-based design, and de novo design to speed up screening and enable more rational drug design. It also lists some advantages of CADD over traditional methods and examples of drugs successfully developed using these approaches.
Drug discovery process style 6 powerpoint presentation slides db ppt templatesSlideTeam.net
The document compares the traditional drug discovery process to the SWITCH drug re-profiling approach. The traditional process involves target identification, validation, lead identification, candidate optimization, pre-clinical testing, and clinical trials over 6-10 years. The SWITCH approach uses data mining to identify existing drugs for new uses, cutting the time for clinical proof of concept trials to 0.5-1 year.
Drug discovery process style 6 powerpoint presentation templatesSlideTeam.net
The document describes two approaches to drug discovery: traditional drug discovery and a SWITCH drug re-profiling approach. The traditional approach involves multiple sequential steps over 6-10 years, including target identification, validation, lead identification, candidate optimization, pre-clinical testing, and clinical trials. The SWITCH approach uses data mining to identify existing drugs that could be re-purposed for new indications, potentially shortening the process to just 0.5-1 years for target identification and proof-of-concept clinical trials on re-profiled drugs.
This document summarizes in vitro biology and drug discovery services offered by a contract research organization. It discusses computer-aided drug design, structure-based drug design, cheminformatics, virtual screening, and homology modeling services. It also describes medicinal chemistry, ADMET/pharmacokinetic services, and chemistry services including hit identification, lead optimization, and preclinical/clinical development. Resource estimates and funding models for various stages of drug discovery are provided. The document discusses moving projects from in vitro to in vivo testing and considerations for outsourcing various capabilities.
This document discusses biological variation in clinical measurements. It aims to identify the nature of biological variation, appreciate its significance, and understand how to determine and apply indices of biological variation. Biological variation refers to components of variance in biochemical measurements determined by a subject's physiology. The sources, quantification, and practical applications of biological variation data are explored. Understanding biological variation is fundamental to developing reference data and interpreting clinical measurements over time.
The document provides an overview of requirements for an Investigational New Drug (IND) application to the FDA. It discusses key components of the IND including chemistry, manufacturing and controls (CMC), preclinical toxicology studies, and clinical trial protocols. The main points are:
1) An IND application is required to begin clinical testing of new drugs, drugs at new dosages, or drug combinations not previously approved.
2) Key sections of the IND include CMC data on drug manufacturing and quality controls, results of preclinical toxicology studies in animals, and protocols for proposed clinical trials.
3) Preclinical studies aim to identify safe starting doses for clinical trials and target organs of toxicity.
Psychological tests are measurement instruments that must demonstrate validity, reliability, and accuracy. Validity refers to how well a test measures what it intends to measure, which can be assessed through face validity, concurrent validity, or predictive validity. Reliability means a test produces consistent results, demonstrated through test-retest or split-half reliability. Accuracy depends on standardizing results based on a representative group's average performance to create comparable standard scores. Common types of tests include intelligence, personality, aptitude, and interest inventories.
Preformulation studies characterize the physical and chemical properties of drug substances to aid in developing stable, safe, and effective drug formulations with high bioavailability. Key aspects of preformulation studies include characterizing the bulk properties, solubility, and stability of drugs. This involves investigating properties like crystallinity, polymorphism, particle size, density, and how these properties influence solubility, stability, and bioavailability when formulated into drug products. The goal is to obtain information early in development to guide decisions around formulation components, manufacturing processes, analytical methods, and dosage forms.
Speaker: Wendy Hill, Gap Strategies. Part of the MaRS Best Practices Series.This session, led by seasoned industry experts, will explore how to effectively set up your pre-clinical POC studies, address pre-clinical safety requirements and issues, and give you an overview of the manufacturing standards required for Phase I studies
More information: http://www.marsdd.com/Events/Event-Calendar/Best-Practices-Series/ind-05132008.html
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The DIAN trials aim to test potential treatments for dominantly inherited Alzheimer's disease through a two-phase study design. The first phase will evaluate biological and biomarker effects over two years. If successful, the second phase will assess cognitive benefits over three additional years. Up to five potential drug candidates have been nominated for initial testing. The expanded DIAN registry is helping recruit sufficient interested participants to power the clinical trials.
Impact.Tech "Statistical Literacy for Deep Tech"Impact.Tech
Understanding how to effectively discuss and interpret statistics and scientific data is incredibly important for both investors and founders. This seminar is meant to arm investors with basic statistical literacy when deciding to partner with a company during due diligence. It is also meant to help founders understand how investors assess statistics and scientific data. Increasing literacy and comfort with scientific terminology among the broader community will enable investors to better communicate with and support these founders.
Using life science case studies, this seminar will communicate in clear terms some of the most important measurements and tests applied by deep tech start-ups, such as: sensitivity vs specificity, false positive vs negative rate, prospective vs retrospective studies, multiple hypothesis corrections, regression and other basic statistical models (p-value, t-test, etc).
This seminar will be produced and presented by Noel Jee, a Principal at Illumina Ventures with a focus in therapeutics and diagnostics. Prior to joining the fund, Noel worked at L.E.K. Consulting as a management consultant specializing in the life sciences. He has consulted on strategy engagements for companies in the pharmaceuticals, biotech, and diagnostics industries. He obtained a dual B.S. degree from the University of Maryland College Park, and his PhD in Chemistry and Chemical Biology from the University of California San Francisco.
This document provides an overview of evidence-based medicine (EBM). It defines EBM as integrating the best research evidence with clinical expertise and patient values. The history and obstacles of EBM are discussed. The document outlines how to practice EBM using the 5 A's framework: Ask, Acquire, Appraise, Apply, and Assess. A case example is provided to demonstrate how to formulate a focused clinical question using the PICO format.
Biomarkers to Diagnostics – The Essential Tool Box for Drug Development - Presentation delivered by Johan Luthman, Vice President, Neuroscience Clinical Development, Eisai Pharmaceuticals at the marcus evans Evolution Summit Fall 2015 in Las Vegas
This document provides an overview of hypothesis testing basics and introduces related concepts. It discusses:
1) The difference between population parameters and sample statistics, and how samples are used to estimate populations.
2) Key terms like means, medians, standard deviations, and how samples provide statistic estimates of population parameters.
3) The Central Limit Theorem and how the distribution of sample means approaches normality as sample size increases.
4) Examples of applying hypothesis testing to compare processes and identify statistical differences in metrics like cycle time, accuracy, and quality of service.
This document provides an overview of hypothesis testing basics and confidence intervals. It discusses key concepts such as population parameters versus sample statistics, the central limit theorem, and variability of means. It also covers confidence intervals when the population standard deviation is known and unknown. Examples are provided to demonstrate how to calculate confidence intervals for the mean. The goal is to introduce statistical tests and understand how sample sizes influence results.
1) Research objectives illustrate the concrete steps needed to answer a research question and state what will be done to answer the research question.
2) Objectives should use action words and be listed in successive steps oriented towards outcomes.
3) A research null hypothesis is a presumptive statement about what will be tested, with the hypothesis reversed to indicate there is no association or effect. Stating the null hypothesis is important because scientific facts are not proven until tested.
This document discusses key aspects of study design, data collection, statistical analysis, and reasoning in biomedical research. It covers observational studies, experiments, data registration and validation, effect estimation and bias evaluation. Statistical analysis includes data description, interpretation of outcomes in light of study limitations, and multiplicity issues. Recent developments in different research areas include longitudinal and multilevel analysis, causality models, and registration guidelines.
"Statistical Literacy for Deep Tech" by Noel JeeImpact.Tech
This document discusses statistical literacy for evaluating deep tech claims and technologies. It provides guidance on key statistical concepts to consider, such as:
- Be wary of impressive-sounding accuracy numbers and look deeper at what data and methods were used
- Large datasets and numbers of variables can lead to overfitting and non-generalizable results
- Validation methods like retrospective analyses are limited and prospective validation is needed
- Effect size and clinical significance are more important than statistical significance alone
- Bias can occur at many stages of data collection and analysis and influence results
The document advocates deconstructing all details provided to fully understand what technologies and results actually mean, rather than accepting claims at face value. Statistical literacy is presented
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HCL Notes und Domino Lizenzkostenreduzierung in der Welt von DLAUpanagenda
Webinar Recording: https://www.panagenda.com/webinars/hcl-notes-und-domino-lizenzkostenreduzierung-in-der-welt-von-dlau/
DLAU und die Lizenzen nach dem CCB- und CCX-Modell sind für viele in der HCL-Community seit letztem Jahr ein heißes Thema. Als Notes- oder Domino-Kunde haben Sie vielleicht mit unerwartet hohen Benutzerzahlen und Lizenzgebühren zu kämpfen. Sie fragen sich vielleicht, wie diese neue Art der Lizenzierung funktioniert und welchen Nutzen sie Ihnen bringt. Vor allem wollen Sie sicherlich Ihr Budget einhalten und Kosten sparen, wo immer möglich. Das verstehen wir und wir möchten Ihnen dabei helfen!
Wir erklären Ihnen, wie Sie häufige Konfigurationsprobleme lösen können, die dazu führen können, dass mehr Benutzer gezählt werden als nötig, und wie Sie überflüssige oder ungenutzte Konten identifizieren und entfernen können, um Geld zu sparen. Es gibt auch einige Ansätze, die zu unnötigen Ausgaben führen können, z. B. wenn ein Personendokument anstelle eines Mail-Ins für geteilte Mailboxen verwendet wird. Wir zeigen Ihnen solche Fälle und deren Lösungen. Und natürlich erklären wir Ihnen das neue Lizenzmodell.
Nehmen Sie an diesem Webinar teil, bei dem HCL-Ambassador Marc Thomas und Gastredner Franz Walder Ihnen diese neue Welt näherbringen. Es vermittelt Ihnen die Tools und das Know-how, um den Überblick zu bewahren. Sie werden in der Lage sein, Ihre Kosten durch eine optimierte Domino-Konfiguration zu reduzieren und auch in Zukunft gering zu halten.
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Join us to learn how UiPath Apps can directly and easily interact with prebuilt connectors via Integration Service--including Salesforce, ServiceNow, Open GenAI, and more.
The best part is you can achieve this without building a custom workflow! Say goodbye to the hassle of using separate automations to call APIs. By seamlessly integrating within App Studio, you can now easily streamline your workflow, while gaining direct access to our Connector Catalog of popular applications.
We’ll discuss and demo the benefits of UiPath Apps and connectors including:
Creating a compelling user experience for any software, without the limitations of APIs.
Accelerating the app creation process, saving time and effort
Enjoying high-performance CRUD (create, read, update, delete) operations, for
seamless data management.
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Russell Alfeche, Technology Leader, RPA at qBotic and UiPath MVP
Charlie Greenberg, host
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Chris Jones, Director of Product Management at BrainChip , presents the “Temporal Event Neural Networks: A More Efficient Alternative to the Transformer” tutorial at the May 2024 Embedded Vision Summit.
The expansion of AI services necessitates enhanced computational capabilities on edge devices. Temporal Event Neural Networks (TENNs), developed by BrainChip, represent a novel and highly efficient state-space network. TENNs demonstrate exceptional proficiency in handling multi-dimensional streaming data, facilitating advancements in object detection, action recognition, speech enhancement and language model/sequence generation. Through the utilization of polynomial-based continuous convolutions, TENNs streamline models, expedite training processes and significantly diminish memory requirements, achieving notable reductions of up to 50x in parameters and 5,000x in energy consumption compared to prevailing methodologies like transformers.
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Conversational agents, or chatbots, are increasingly used to access all sorts of services using natural language. While open-domain chatbots - like ChatGPT - can converse on any topic, task-oriented chatbots - the focus of this paper - are designed for specific tasks, like booking a flight, obtaining customer support, or setting an appointment. Like any other software, task-oriented chatbots need to be properly tested, usually by defining and executing test scenarios (i.e., sequences of user-chatbot interactions). However, there is currently a lack of methods to quantify the completeness and strength of such test scenarios, which can lead to low-quality tests, and hence to buggy chatbots.
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How information systems are built or acquired puts information, which is what they should be about, in a secondary place. Our language adapted accordingly, and we no longer talk about information systems but applications. Applications evolved in a way to break data into diverse fragments, tightly coupled with applications and expensive to integrate. The result is technical debt, which is re-paid by taking even bigger "loans", resulting in an ever-increasing technical debt. Software engineering and procurement practices work in sync with market forces to maintain this trend. This talk demonstrates how natural this situation is. The question is: can something be done to reverse the trend?
HCL Notes and Domino License Cost Reduction in the World of DLAUpanagenda
Webinar Recording: https://www.panagenda.com/webinars/hcl-notes-and-domino-license-cost-reduction-in-the-world-of-dlau/
The introduction of DLAU and the CCB & CCX licensing model caused quite a stir in the HCL community. As a Notes and Domino customer, you may have faced challenges with unexpected user counts and license costs. You probably have questions on how this new licensing approach works and how to benefit from it. Most importantly, you likely have budget constraints and want to save money where possible. Don’t worry, we can help with all of this!
We’ll show you how to fix common misconfigurations that cause higher-than-expected user counts, and how to identify accounts which you can deactivate to save money. There are also frequent patterns that can cause unnecessary cost, like using a person document instead of a mail-in for shared mailboxes. We’ll provide examples and solutions for those as well. And naturally we’ll explain the new licensing model.
Join HCL Ambassador Marc Thomas in this webinar with a special guest appearance from Franz Walder. It will give you the tools and know-how to stay on top of what is going on with Domino licensing. You will be able lower your cost through an optimized configuration and keep it low going forward.
These topics will be covered
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Imagine an IoT processing system that is already quite mature and production-ready and for which client coverage is growing and scaling and performance aspects are life and death questions. The system has Redis, MongoDB, and stream processing based on ksqldb. In this talk, firstly, we will analyze scaling approaches and then select the proper ones for our system.
AppSec PNW: Android and iOS Application Security with MobSFAjin Abraham
Mobile Security Framework - MobSF is a free and open source automated mobile application security testing environment designed to help security engineers, researchers, developers, and penetration testers to identify security vulnerabilities, malicious behaviours and privacy concerns in mobile applications using static and dynamic analysis. It supports all the popular mobile application binaries and source code formats built for Android and iOS devices. In addition to automated security assessment, it also offers an interactive testing environment to build and execute scenario based test/fuzz cases against the application.
This talk covers:
Using MobSF for static analysis of mobile applications.
Interactive dynamic security assessment of Android and iOS applications.
Solving Mobile app CTF challenges.
Reverse engineering and runtime analysis of Mobile malware.
How to shift left and integrate MobSF/mobsfscan SAST and DAST in your build pipeline.
AppSec PNW: Android and iOS Application Security with MobSF
Traditional drug discovery process design 6 powerpoint ppt slides.
1. Drug Discovery Process - Style 6
Traditional Drug Discovery
0.5 - 1 Year 0.5 - 1 Year 0.5 - 1 Year 2 - 3 Years 1 - 2 Years 4 - 6 Years
Target Target Lead Candidate
Pre-Clinical Clinical
Identification Validation Identification Optimization
SWITCH Drug Re-Profiling Approach 0.5 - 1 Year
0.5 - 1 Year
Clinical Proof of Concept
Trial with Re- Profiled Drug
Data Mining
www.slideteam.net Your Logo
2. Drug Discovery Process - Style 6
Traditional Drug Discovery
0.5 - 1 Year 0.5 - 1 Year 0.5 - 1 Year 2 - 3 Years 1 - 2 Years 4 - 6 Years
Target Target Lead Candidate
Pre-Clinical Clinical
Identification Validation Identification Optimization
SWITCH Drug Re-Profiling Approach 0.5 - 1 Year
0.5 - 1 Year
Clinical Proof of Concept
Trial with Re- Profiled Drug
Data Mining
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3. Drug Discovery Process - Style 6
Traditional Drug Discovery
0.5 - 1 Year 0.5 - 1 Year 0.5 - 1 Year 2 - 3 Years 1 - 2 Years 4 - 6 Years
Target Target Lead Candidate
Pre-Clinical Clinical
Identification Validation Identification Optimization
SWITCH Drug Re-Profiling Approach 0.5 - 1 Year
0.5 - 1 Year
Clinical Proof of Concept
Trial with Re- Profiled Drug
Data Mining
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www.slideteam.net Your Logo
4. Drug Discovery Process - Style 6
Traditional Drug Discovery
0.5 - 1 Year 0.5 - 1 Year 0.5 - 1 Year 2 - 3 Years 1 - 2 Years 4 - 6 Years
Target Target Lead Candidate
Pre-Clinical Clinical
Identification Validation Identification Optimization
SWITCH Drug Re-Profiling Approach 0.5 - 1 Year
0.5 - 1 Year
Clinical Proof of Concept
Trial with Re- Profiled Drug
Data Mining
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5. Drug Discovery Process - Style 6
Traditional Drug Discovery
0.5 - 1 Year 0.5 - 1 Year 0.5 - 1 Year 2 - 3 Years 1 - 2 Years 4 - 6 Years
Target Target Lead Candidate
Pre-Clinical Clinical
Identification Validation Identification Optimization
SWITCH Drug Re-Profiling Approach 0.5 - 1 Year
0.5 - 1 Year
Clinical Proof of Concept
Trial with Re- Profiled Drug
Data Mining
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• Your Text Goes • Your Text Goes • Your Text Goes • Your Text Goes • Your Text Goes • Your Text Goes
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• Download this • Download this • Download this • Download this • Download this • Download this
awesome awesome awesome awesome awesome awesome
diagram diagram diagram diagram diagram diagram
• Bring your • Bring your • Bring your • Bring your • Bring your • Bring your
presentation to presentation to presentation to presentation to presentation to presentation to
life life life life life life
www.slideteam.net Your Logo
6. Drug Discovery Process - Style 6
Traditional Drug Discovery
0.5 - 1 Year 0.5 - 1 Year 0.5 - 1 Year 2 - 3 Years 1 - 2 Years 4 - 6 Years
Target Target Lead Candidate
Pre-Clinical Clinical
Identification Validation Identification Optimization
SWITCH Drug Re-Profiling Approach 0.5 - 1 Year
0.5 - 1 Year
Clinical Proof of Concept
Trial with Re- Profiled Drug
Data Mining
Put Text Here Your Text Here Put Text Here Your Text Here Put Text Here Your Text Here
• Your Text Goes • Your Text Goes • Your Text Goes • Your Text Goes • Your Text Goes • Your Text Goes
here here here here here here
• Download this • Download this • Download this • Download this • Download this • Download this
awesome awesome awesome awesome awesome awesome
diagram diagram diagram diagram diagram diagram
• Bring your • Bring your • Bring your • Bring your • Bring your • Bring your
presentation to presentation to presentation to presentation to presentation to presentation to
life life life life life life
www.slideteam.net Your Logo
7. Drug Discovery Process - Style 6
Traditional Drug Discovery
0.5 - 1 Year 0.5 - 1 Year 0.5 - 1 Year 2 - 3 Years 1 - 2 Years 4 - 6 Years
Target Target Lead Candidate
Pre-Clinical Clinical
Identification Validation Identification Optimization
SWITCH Drug Re-Profiling Approach 0.5 - 1 Year
0.5 - 1 Year
Clinical Proof of Concept
Trial with Re- Profiled Drug
Data Mining
Put Text Here Your Text Here Put Text Here Your Text Here Put Text Here Your Text Here
• Your Text Goes • Your Text Goes • Your Text Goes • Your Text Goes • Your Text Goes • Your Text Goes
here here here here here here
• Download this • Download this • Download this • Download this • Download this • Download this
awesome awesome awesome awesome awesome awesome
diagram diagram diagram diagram diagram diagram
• Bring your • Bring your • Bring your • Bring your • Bring your • Bring your
presentation to presentation to presentation to presentation to presentation to presentation to
life life life life life life
www.slideteam.net Your Logo
8. Drug Discovery Process - Style 6
Traditional Drug Discovery
0.5 - 1 Year 0.5 - 1 Year 0.5 - 1 Year 2 - 3 Years 1 - 2 Years 4 - 6 Years
Target Target Lead Candidate
Pre-Clinical Clinical
Identification Validation Identification Optimization
SWITCH Drug Re-Profiling Approach 0.5 - 1 Year
0.5 - 1 Year
Clinical Proof of Concept
Trial with Re- Profiled Drug
Data Mining
Put Text Here Your Text Here Put Text Here Your Text Here Put Text Here Your Text Here
• Your Text Goes • Your Text Goes • Your Text Goes • Your Text Goes • Your Text Goes • Your Text Goes
here here here here here here
• Download this • Download this • Download this • Download this • Download this • Download this
awesome awesome awesome awesome awesome awesome
diagram diagram diagram diagram diagram diagram
• Bring your • Bring your • Bring your • Bring your • Bring your • Bring your
presentation to presentation to presentation to presentation to presentation to presentation to
life life life life life life
www.slideteam.net Your Logo
9. All images are 100% editable in Powerpoint
“Change color, size and orientation of any icon to your liking”
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10. Ungrouping the object
2
1
3
1. Right click the object.
2. Choose Group and then Ungroup.
3. Click beside the object and drag the arrow over it.
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11. Edit Color
2 3
1
1. Select the shape to change the color and Right click the object( click any object which you
want to change color)
2. Choose Format Shape in the dialog box.
3. Choose “Fill” in the Format Shape box then “Solid” or “Gradient” depending on the
appearance of the object. Change colour as shown in the picture.
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