Structural Bioinformatics Dr. Avraham Samson Course no.: 81-871 Credit points: 1.5 Final grade is based on 10 assignments Course homepage:

Slides:



Advertisements
Similar presentations
Academic Industry Interactions - workshop. Motivations and Challenges Many research intensive universities have research budgets where
Advertisements

Discovery Studio AtlasStore: Protein/Ligand Database Steve Potts, Ph.D., MBA Product Manager Biological Informatics
IBO International Baccalaureate Program Lancaster Middle School
Introduction BNFO 602 Usman Roshan. Course grade Project: –Find a bioinformatics topic by Feb 5th. This can be a paper or a research question you wish.
Bioinformatics What is bioinformatics? Why bioinformatics? The major molecular biology facts Brief history of bioinformatics Typical problems of bioinformatics:
Bioinformatics “Other techniques raise more questions than they answer. Bioinformatics is what answers the questions those techniques generate.” SheAvery
Overview of Biomedical Informatics Rakesh Nagarajan.
ACMS – Spring 2011 Elements of Statistics With a title like that, it seems appropriate that the course should start with an explanation of what STATISTICS.
Jianlin Cheng, PhD Informatics Institute, Computer Science Department University of Missouri, Columbia Fall, 2011.
Project 4 U-Pick – A Project of Your Own Design Proposal Due: April 14 th (earlier ok) Project Due: April 25 th.
The Golden Age of Biology DNA -> RNA -> Proteins -> Metabolites Genomics Technologies MECHANISMS OF LIFE Health Care Diagnostics Medicines Animal Products.
Bioinformatics: a Multidisciplinary Challenge Ron Y. Pinter Dept. of Computer Science Technion March 12, 2003.
UNIVERSITY OF SOUTH CAROLINA College of Engineering & Information Technology CSCE 590I Bioinformatics Algorithms and Data Structures Spring 2003 Instructor:
Workshop in Bioinformatics 2010 What is it ? The goals of the class… How we do it… What’s in the class Why should I take the class..
Introduction to Bioinformatics (Lecture for CS498-CXZ Algorithms in Bioinformatics) Aug. 25, 2005 ChengXiang Zhai Department of Computer Science University.
CS273 Algorithms for Structure and Motion in Biology Instructors: Serafim Batzoglou and Jean-Claude Latombe Teaching Assistant: Sam Gross | serafim | latombe.
Computational Genomics Lecture 1, Tuesday April 1, 2003.
STAT115 STAT215 BIO512 BIST298 Introduction to Computational Biology and Bioinformatics Spring 2015 Xiaole Shirley Liu Please Fill Out Student Sign In.
Algorithms in Computational Biology Tanya Berger-Wolf Compbio.cs.uic.edu/~tanya/teaching/CompBio January 13, 2006.
Animal BehaviorBIO 432 Spring 2014 Dr. T. Caraco Office: Biology 253 Hours: PM, Thursday Lectures, Assignments,
SCIENTIFIC SKILLS SCIENCE PROCESS SKILLS MANIPULATIVE SKILLS Observing Classifying Measuring and using numbers Making inferences Predicting Communicating.
Wireless Networks CS 442 Department of Computer Science Dr. Yaser Khamayseh.
Introduction to Bioinformatics Prologue. Bioinformatics Living things have the ability to store, utilize, and pass on information Bioinformatics strives.
JM - 1 Introduction to Bioinformatics: Lecture I An Overview of the Course Jarek Meller Jarek Meller Division of Biomedical Informatics,
Copyright © by Holt, Rinehart and Winston. All rights reserved. ResourcesChapter menu Section 3 The Study of Biology Chapter 1 Objectives Outline the main.
CS397-CXZ Algorithms in Bioinformatics ChengXiang (“Cheng”) Zhai, Robert Skeel (Department of Computer Science) Nick Sahinidis (Department of Chemical.
Social Networks in Most Visible Form. Social Networking Techniques in Business Several social networking techniques can help us in reaching maximum number.
Intelligent systems in bioinformatics Introduction to the course.
BME 110L / BIOL 181L Computational Biology Tools Introductory Remarks and Overview - who - why - what - how Logistics.
CSCI 6900/4900 Special Topics in Computer Science Automata and Formal Grammars for Bioinformatics Bioinformatics problems sequence comparison pattern/structure.
Introduction to Science Informatics Lecture 1. What Is Science? a dependence on external verification; an expectation of reproducible results; a focus.
Aliya Sadeque BIOC 599 Supervisory Committee Meeting Wednesday December 19, 2007.
Introduction to Bioinformatics (Lecture for CS397-CXZ Algorithms in Bioinformatics) Jan. 21, 2004 ChengXiang Zhai Department of Computer Science University.
Social Science Research Proper Methods HHS 4M Mr. Carney.
Bioinformatics The application of computer technology to the management of biological information
Introduction to Bioinformatics Dr. Rybarczyk, PhD University of North Carolina-Chapel Hill
AdvancedBioinformatics Biostatistics & Medical Informatics 776 Computer Sciences 776 Spring 2002 Mark Craven Dept. of Biostatistics & Medical Informatics.
PREDICTION OF CATALYTIC RESIDUES IN PROTEINS USING MACHINE-LEARNING TECHNIQUES Natalia V. Petrova (Ph.D. Student, Georgetown University, Biochemistry Department),
Bioinformatics MEDC601 Lecture by Brad Windle Ph# Office: Massey Cancer Center, Goodwin Labs Room 319 Web site for lecture:
Information Technology in the Natural Sciences Biology – Chemistry – Physics.
Data Mining: Knowledge Discovery in Databases Peter van der Putten ALP Group, LIACS Pre-University College LAPP-Top Computer Science February 2005.
Bioinformatics Curriculum Issues, goals, curriculum.
Data Structures and Algorithms Dr. Tehseen Zia Assistant Professor Dept. Computer Science and IT University of Sargodha Lecture 1.
BME 110L / BIOL 181L Computational Biology Tools Introductory Remarks and Overview - who - why - what - how Logistics.
COMPUTATIONAL BIOLOGIST DR. MARTIN TOMPA Place of Employment: University of Washington Type of Work: Develops computer programs and algorithms to identify.
ACT-PRO Action Protocol Tracer A Tool for Analyzing Simple, Rule- based Tasks Wai-Tat Fu & Wayne D. Gray ARCH Lab George Mason University.
Interactive Discovery and Semantic Labeling of Patterns in Spatial Data David Blei, Christiane Fellbaum, Adam Finkelstein, and Thomas Funkhouser Princeton.
1 Computational Vision CSCI 363, Fall 2012 Lecture 1 Introduction to Vision Science Course webpage:
Lecture 1.01 Developing the Tools Montreal 2004 Course Introduction John J. Salama.
STAT115 STAT215 BIO512 BIST298 Introduction to Computational Biology and Bioinformatics Spring 2016 Xiaole Shirley Liu.
Zachary Starr Dept. of Computer Science, University of Missouri, Columbia, MO 65211, USA Digital Image Processing Final Project Dec 11 th /16 th, 2014.
BNFO 615 Fall 2016 Usman Roshan NJIT. Outline Machine learning for bioinformatics – Basic machine learning algorithms – Applications to bioinformatics.
BME435 BIOINFORMATICS.
Topic: Introduction to Computing Science and Programming + Algorithm
MBIO 320–Microbial diagnosis
COMP61011 Foundations of Machine Learning
CS515: Bioinformatic Algorithms
EXAMPLES OF TECHNOLOGIES USED IN BIOLOGY
COMP61011 Foundations of Machine Learning
Bioinformatics Biological Data Computer Calculations +
Physics-based simulation for visual computing applications
CS 456 Interactive Software.
LESSON 1 INTNRODUCTION HYE-JOO KWON, Ph.D /
BIOINFORMATICS Summary
Lecture 01: Introduction
Introduction to Bioinformatic
WELCOME TO ALL.
CSE 5290: Algorithms for Bioinformatics Fall 2009
Algorithms Lecture # 01 Dr. Sohail Aslam.
Welcome! Knowledge Discovery and Data Mining
Presentation transcript:

Structural Bioinformatics Dr. Avraham Samson Course no.: Credit points: 1.5 Final grade is based on 10 assignments Course homepage:

2 Bioinformatics Definition: –“The collection, archiving, organization, and interpretation of biological data.” [Orengo, 2003] Etymology: - Bio- from “biology”, and –informatics from “information science”.

Bioinformatics 3 Sequence bioinformatics Structure bioinformatics Systems biology

4

5 Structural Bioinformatics Focus on data sets with molecular structure

6 Structural Bioinformatics Motivation 1: Detailed understanding of molecular interactions

7 Structural Bioinformatics Motivation 2: Lots of structural data is becoming available

8 Outline of today’s lecture Overview of structural bioinformatics –Goals –Challenges –Applications Overview of course –Topics –Lectures –Assignments

9 Structural Bioinformatics Goals: Analysis Visualization Comparison Prediction Design

10 Structural Bioinformatics Goals: Analysis Visualization Comparison Prediction Design

11 Structural Bioinformatics Goals: Analysis Visualization Comparison Prediction Design

12 Structural Bioinformatics Goals: Analysis Visualization Comparison Prediction Design

13 Structural Bioinformatics Goals: Analysis Visualization Comparison Prediction Design

14 Structural Bioinformatics Goals: Analysis Visualization Comparison Prediction Design

15 Structural Bioinformatics Research challenges: Structure prediction Binding site detection Binding site modeling Binding site matching Binding prediction Molecular design etc.

16 Structural Bioinformatics Research challenges: Structure prediction Binding site detection Binding site modeling Binding site matching Binding prediction Molecular design etc.

17 Structural Bioinformatics Research challenges: Structure prediction Binding site detection Binding site modeling Binding site matching Binding prediction Molecular design etc.

18 Structural Bioinformatics Research challenges: Structure prediction Binding site detection Binding site modeling Binding site matching Binding prediction Molecular design etc.

19 Structural Bioinformatics Research challenges: Structure prediction Binding site detection Binding site modeling Binding site matching Binding prediction Molecular design etc.

20 Structural Bioinformatics Research challenges: Structure prediction Binding site detection Binding site modeling Binding site matching Binding prediction Molecular design etc.

21 Structural Bioinformatics Research challenges: Structure prediction Binding site detection Binding site modeling Binding site matching Binding prediction Molecular design etc.

22 Structural Bioinformatics Applications: Biology Medicine Agriculture Industry etc.

Overview of course 23

24 y = f(x)  Biologists like experiments, specifics and classifications They like it better to know many (x i,y i ) – i.e., facts – and classify them, than to know f  Computer scientists like simulation, abstractions, and general algorithms They want to know f – the explanation of the facts – and efficient ways to compute it, but rarely care for any (x i,y i )  One challenge of Computational Biology is to fuse these two cultures The Shock of Two Cultures