CPSC 644-600 Cortical Networks:
Fall 2012

Syllabus

NEWS: 11/28/12, 01:10PM (Wed)
Read-Only Bulletin Board.: 4/18/13, 05:42PM (Thu)

Page last modified: 10/29/12, 08:35AM Monday.

General Information Resources Reading List Weekly Schedule Lecture Notes Course Material

I. General Information

Instructor:

Dr. Yoonsuck Choe
Email: choe(a)tamu.edu
Office: HRBB 322B
Phone: 845-5466
Office hours: M 10:30am-11:30am, WF 4-5pm

TA: N/A

Prerequisite/Restrictions:

CPSC 420, 625, 636, or 633 (or equivalent) and graduate classification; or consent of instructor.

Lectures:

MWF 3-3:50pm, HRBB 126

Introduction:

From the course catalog: The architecture of the mammalian cerebral cortex; its modular organization and its network for distributed and parallel processing; cortical networks in perception and memory; neuronal microstructure and dynamical simulation of cortical networks; the cortical network as a proven paradigm for the design of cognitive machines.

About this semester: This course will provide necessary background for modeling the structure (anatomy), function (physiology), and growth (development) of neurons, neuronal circuits, and neuronal networks. Various computational concepts, techniques, and tools necessary for modeling neural systems will be introduced. A selected set of latest papers in the field of computational neuroscience and neuroinformatics will be surveyed.

Textbook:

Administrative Trivia:

  1. Computer accounts: if you do not have a unix account, ask for one on the CS web page.
  2. Programming languages permitted: C/C++, Java, or Matlab (or octave), and must be executable on CS unix hosts or any windows system in the departmental lab.

Topics to be covered:

See the Weekly Schedule section for more details.

Grading:

  1. Quiz (one or two): 10%
  2. Paper commentaries (3 to 4, each one paragraph long): 20%
  3. Programming assignments/exercises (about 2): 15% each = 30%
  4. Term project: proposal, presentation, final report 40%
Grading will be on the absolute scale. The cutoff for an `A' will be at most 90% of total score, 80% for a `B', 70% for a `C', and 60% for a `D'. However, these cutoffs might be lowered at the end of the semester to accomodate the actual distribution of grades.

Academic Integrity Statement:

AGGIE HONOR CODE: An Aggie does not lie, cheat, or steal or tolerate those who do.

Upon accepting admission to Texas A&M University, a student immediately assumes a commitment to uphold the Honor Code, to accept responsibility for learning, and to follow the philosophy and rules of the Honor System. Students will be required to state their commitment on examinations, research papers, and other academic work. Ignorance of the rules does not exclude any member of the TAMU community from the requirements or the processes of the Honor System.

For additional information please visit: http://www.tamu.edu/aggiehonor/

Local Course Policy:

Americans with Disabilities Act notice:

The Americans with Disabilities Act (ADA) is a federal anti-discrimination statute that provides comprehensive civil rights protection for persons with disabilities. Among other things, this legislation requires that all students with disabilities be guaranteed a learning environment that provides for reasonable accommodation of their disabilities. If you believe you have a disability requiring an accommodation, please contact the Department of Student Life, Services for Students with Disabilities, in Cain Hall or call 845-1637.

Resources:

  1. Research resources page
  2. Ganeral reading list (u: p: ): includes short blurb about how to find, read, and critique others' work. This list is not the course reading list.
  3. eLearningTools.tamu.edu

III. Weekly Schedule and Class Notes

Week
Date
Topic
Reading
Assignments
Notices and Dues
Notes
1 8/27 Introduction Course overview     slide01
1 8/29 Introduction Essential terminology and neuroanatomy     slide02
1 8/31 Neuron: Physiology Shepherd: Chapter 2     slide03
2 9/3 Neuron: Computational models Dayan and Abbott: Chapter 5, Appendix A.4     slide04
2 9/5 Neuron: Computational models Dayan and Abbott: Chapter 5, Appendix A.4     slide05
2 9/7 Neuron: Computational models Dayan and Abbott: Chapter 5, Appendix A.4     slide05
3 9/10 Thalamus Shepherd: Chapter 8     slide06
slide07
3 9/12 Thalamus Model Choe (2004) [PDF]     slide08
3 9/14 Thalamus Model Choe (2004) [PDF]     slide08
4 9/17 Neuron: Plasticity Dayan and Abbott: Chapter 8     slide09
4 9/19 Neuron: Plasticity Dayan and Abbott: Chapter 8     slide09
4 9/21 No class View this TED talk Sebastian Seung, on Connectomics    
5 9/24 Neural Encoding Dayan and Abbott: Chapter 1     slide10
5 9/26 Visual System: Computation Miikkulainen et al. [eBook]: Chapter 1,2,3     slide11
5 9/28 Visual System: Development Miikkulainen et al.: Chapters 4 and 5     slide11
6 10/1 Visual System: Development Miikkulainen et al.: Chapters 4 and 5     slide11
6 10/3 Visual cortical response power law and perceptual salience Choe and Sarma (2006) [PDF]     slide12
6 10/5 Neocortex Shepherd: Chapter 12; Douglas and Martin (2004) [PDF]     slide13
7 10/8 Basal Ganglia Shepherd: Chapter 9   Homework 1 due 11:59pm slide14
7 10/10 Motor System: Decoding Internal State Choe and Smith (2006) [PDF], Choe (2011)     slide15
7 10/12 Motor System: Decoding Internal State Choe and Smith (2006) [PDF], Choe et al. (2008), Choe (2011)     slide15
8 10/15 Online guest lectures See this TED Talk Daniel Wolpert: The real reason for brains, and this one VS Ramachandran: 3 clues to understanding your brain    
8 10/17 Online guest lecture See this TED Talk Jeff Hawkins: How brain science will change computing    
8 10/19 Texture: Tactile or visual ? Bai et al. (2008), Park et al. (2009)     slide16
9 10/22 Texture: Tactile or visual ? Bai et al. (2008), Park et al. (2009)     slide16
9 10/24 Emergence of memory Chung and Choe (2011)     slide17
9 10/26 Predictive dynamics Kwon and Choe (2008)     slide17
10 10/29 Computational Tools Showcase Topographica, xppaut, octave, SIDA, neuroevolution     slide16-suppl
10 10/31 Delay Compensation Lim and Choe (2006) [PDF]     slide18
10 11/2 Natural Images: Statistical Structure Xiuwen Liu and DeLiang Wang (2002) [PDF]     slide19
11 11/5 Neuron Morphology De Schutter: Chapter 6 and 7     slide20
11 11/7 Neuron Morphology De Schutter: Chapter 6 and 7     slide20
11 11/9 Neuron Morphology: Statistical Description; Neuroinformatics Ascoli et al. (2001) [PDF]; Chung et al. (2011)     slide21
slide22
12 11/12 Network Analysis: Complexity Sporns and Tononi (2002) [PDF]; Sporns et al. (2004) [PDF]     slide23
12 11/14 Network Analysis: Shortest Path Kaiser and Hilgetag (2006) [PDF]     slide24
12 11/16 Network Analysis: Dynamics Thiel et al. (2003) [PDF]     slide25
13 11/19 Behavioral constraints affecting sensory representations Salinas (2006)     slide26
13 11/21 Systems Neuroscience Van Hemmen and Sejnowski: Chapters 1, 13, and 19     slide27
13 11/23 No Class (Thanksgiving)        
14 11/26 Neuroevolution for computational neuroscience Stanley and Miikkulainen (2002); Ruppin (2002); Floreano et al. (2005)     slide28
14 11/28 Neuroevolution for computational neuroscience, Course wrap-up Stanley and Miikkulainen (2002); Ruppin (2002); Floreano et al. (2005)     slide28
slide29
14 11/30 Project Presentation        
15 12/3 Project Presentation        


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