CSCI 1200 Data Structures
Fall 2012
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Syllabus

Course Description

This course covers fundamental data structures and their use in programming. This includes both class design and features of the C++ programming language. Much of our discussion will be built around the design and use of the C++ standard library (STL). By using the standard library, students will be able to write reasonably sophisticated programs quickly.

Learning Outcomes

Students who have successfully completed this course will be able to:
  • Demonstrate strong problem solving skills in constructing complete C++ programs to tackle exercises inspired by real-world problems.
  • Analyze the performance of algorithms and data structures.
  • Select and use the most appropriate data structure from the C++ standard library (STL) for a particular programming task.
  • Design and implement efficient customized data structures.

Prerequisites

We allow students at their own discretion to skip CSCI 1100 Computer Science I and register for CSCI 1200 Data Structures. Here are the concepts that we assume you have learned from CSI or equivalent coursework or other programming experience.

  • Programming:
    • Arithmetic expressions, if/else statements
    • Writing your own functions, including the following:
      • Passing arguments to the function from the calling function
      • Reference variables (call by value vs. call by reference)
      • Returning a value from a function to the calling function
      • Scope and lifetime of variables, local vs. global variables
    • One and two dimensional arrays and/or vectors
    • while and for loops, including nested loops
    • Reading data from files, and writing data to files
    • Some basic understanding and use of classes
      • Creating your own simple classes
      • Calling member functions

  • Problem Solving: Given a problem you should be able to design an algorithm or algorithms to solve the problem, and implement and debug an efficient solution. You should have written a number of programs of 100 lines or more consisting of several different functions. Some examples:
    • Count the number of times each letter appears in a file
    • Find the maximum value in an array or vector
    • Insert a new element into a sorted array in its correct place
    • Find the value closest to the average in a vector
    • Find the two closest values in a vector

  • Algorithmic concepts: You should have seen and have a basic understanding of the following concepts:
    • Recursion
    • Run time analysis of algorithms (big O notation)
    • Elementary searching and sorting algorithms

Programming Languages: C++ vs. Java vs. Python

The language used in this course is C++ but you do not need to know C++ before taking this class. Many students enter this course having studied Java in their high school AP Computer Science class. If you are a reasonably proficient Java programmer, you should easily adapt to the differences between the C++ and Java.

Similarly, the Computer Science I class at RPI will be taught in the Python programming language starting Fall 2012. Transitioning a solid foundation in problem solving, computational thinking, and implementation to a new programming language is language is an important skill for all computer scientists. Once you are comfortably set with your new programming environment (editor, compiler/interpreter, reference material, etc.) you will soon be busily and productively coding again!

Warning

This course moves at a rapid pace and will likely be substantially more difficult than your previous programming classes. Students should not get behind at any point in the semester. Students should work practice problems and study examples from lecture. Working with other students and working with tutors and TAs are both encouraged, but students need to be certain they understand the material and can do problems on their own.

Grading Criteria