Dec 23, 2024  
2023-2024 Undergraduate Academic Catalog-June Update 
    
2023-2024 Undergraduate Academic Catalog-June Update [ARCHIVED CATALOG]

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CSC 2611 - AI Tools

2 lecture hours 2 lab hours 3 credits
Course Description
This course is an introduction to the tools, languages, and methods to support artificial intelligence. Topics include Python programming, functional programming, benchmarking, and libraries for data-driven computational problems. Deep learning and machine learning concepts will also be introduced using hands-on exercises to develop an understanding of capabilities and limitations. Libraries used will include Pandas, NumPy, SciKitLearn, MatPlotLib, as well as deep learning libraries such as Tensorflow and Keras. (prereq: CSC 1120  or CSC 1310  or instructor consent) (quarter system prereq: CS 2852)
Course Learning Outcomes
Upon successful completion of this course, the student will be able to:
  • Leverage basic shell scripting in Unix for file manipulation, program execution, and debugging  
  • Use control, loop, and function syntax to develop algorithmic solutions in Python 
  • Use Python’s set, list, tuples, and dictionary to structure and organize data 
  • Measure and estimate the runtime and memory utilization of algorithms and data structures  
  • Construct regular expressions to solve pattern matching problems and clean data 
  • Use a Jupyter notebook environment to write, structure, run, document, and debug Python programs 
  • Use Pandas to load, process, and analyze tabular data sets in Series and DataFrames  
  • Describe and utilize NumPy array data structures for various numerical use cases  
  • Utilize a plotting library to create simple plots such as histograms, bar or column charts, line plots, and scatter plots including legends, appropriate axis ranges and labels, appropriate font sizes and resolutions 
  • Apply supervised learning algorithms for classification and regression tasks 
  • Explain how to calculate loss, accuracy, and precision from model predictions and ground truth labels 
  • Explain the relationship between the size of data sets and the number of variables that can be inferred in a model both for classical and deep learning models 
  • Execute and justify splitting training, testing, and validation data for machine learning methods 
  • Describe over-fitting in the context of a machine learning problem  
  • Justify tradeoffs between hyperparameters when training  
  • Explain the GPU execution model at a high level (e.g., SIMD parallelism) and how this is advantageous for training on large data sets / large models 
  • Explain how deep learning architectures and hyper-parameters are important to model accuracy and motivate the need to run multiple experiments to find the best model 

Prerequisites by Topic
  • Programming experience in a high-level language

Coordinator
Dr. Derek Riley, Dr. Sebastian Berisha



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