Week 20 - Can You Learn a Programming Language in 4 Days?

Scott Young
26 Feb 201204:11

Summary

TLDRIn the 20th week of the MIT challenge, the presenter shares their experience learning Scheme, a functional programming language, for an artificial intelligence course. They successfully completed seven problem sets, including an automatic Sudoku solver and a simplified chess AI, in 4.5 days. The speaker emphasizes the importance of understanding the theoretical aspects of computer science over specific programming languages, as it provides a broader perspective for solving complex problems and enriches one's approach to future projects.

Takeaways

  • πŸ“š The speaker is undertaking the MIT Challenge, aiming to learn computer science in 12 months without formal classes.
  • πŸ”„ They are currently facing the challenge of learning Scheme, a new programming language with a functional programming paradigm.
  • πŸ€– The speaker is using Scheme to complete assignments for an artificial intelligence class, which involves problem sets like an automatic Sudoku solver and a simplified chess AI.
  • 🎯 Despite the steep learning curve, the speaker successfully completed the problem sets with minor exceptions, taking slightly longer than anticipated.
  • πŸ›  Learning a new programming language, even one as different as Scheme, can be achieved in a few days for basic scripting and execution.
  • 🧠 The focus of the speaker's challenge is on the theoretical aspects of computer science, which are language and technology independent.
  • πŸ› The speaker argues that theoretical computer science provides a higher level of abstraction, allowing for the exploration of more interesting problems.
  • πŸ€– Theoretical knowledge can be applied to programming projects, offering new perspectives and problem-solving approaches.
  • πŸ† The MIT Challenge is not just about learning to code, but also about gaining exposure to advanced concepts like AI and algorithms.
  • πŸ“ˆ The speaker emphasizes the importance of understanding higher-level theories, even if they are not immediately applicable in day-to-day programming.
  • πŸ”„ The speaker will continue to update their progress on the MIT Challenge and provide self-education resources.

Q & A

  • What is the MIT challenge mentioned in the video about?

    -The MIT challenge is about learning the MIT computer science curriculum in 12 months without taking any classes or being enrolled at MIT.

  • What programming language and paradigm was the speaker learning in the video?

    -The speaker was learning Scheme, a functional programming language, which is a new paradigm compared to the object-oriented or procedural styles of Java or C++.

  • What was the challenge the speaker faced while learning Scheme?

    -The challenge was learning a new programming language and paradigm, as well as new techniques for an artificial intelligence class, including problem sets like an automatic Sudoku solver and a simpler version of a chess AI.

  • How long did it take the speaker to complete the problem sets in the artificial intelligence class?

    -It took the speaker 4 and a half days to complete all seven problem sets, which was half a day longer than anticipated.

  • Why does the speaker believe that learning a new programming language is not that remarkable?

    -The speaker believes that learning the basics of a new programming language is not remarkable because it doesn't take much work, especially for someone with a lot of programming experience.

  • What is the speaker's focus in the computer science curriculum?

    -The speaker's focus is on the theoretical aspects of computer science, which are language and technology independent, allowing for the study of more interesting types of problems and solutions.

  • What is the speaker's opinion on the practicality of higher-level computer science theories?

    -The speaker believes that while higher-level theories might not always be directly applicable in everyday programming, they provide a broader perspective and can help uncover solutions to complex problems.

  • How does the speaker's approach to learning computer science differ from traditional academic programs?

    -The speaker's approach focuses on the theoretical aspects of computer science rather than just the practical application, providing exposure to higher-level ideas like artificial intelligence and advanced algorithms.

  • What are some examples of the higher-level ideas the speaker is exposed to in the curriculum?

    -Examples of higher-level ideas include artificial intelligence, advanced algorithms, calculus, differential equations, and advanced number theory.

  • What is the speaker's goal in updating the viewers about their progress in the MIT challenge?

    -The speaker aims to share their progress, insights, and self-education resources with the viewers, providing updates on their journey through the computer science curriculum.

Outlines

00:00

πŸ“š Overcoming the Challenge of Learning Scheme for AI

The speaker reflects on their progress in the MIT challenge, specifically focusing on learning the Scheme programming language and functional programming paradigm to complete the artificial intelligence design course. They successfully tackled seven problem sets, including an automatic Sudoku solver and a simplified chess AI, in slightly longer than expected. The speaker emphasizes that learning a new programming language is not as daunting as it seems and encourages focusing on the theoretical aspects of computer science, which are language and technology independent. They highlight the importance of understanding higher-level theories for solving complex problems in the future.

Mindmap

Keywords

πŸ’‘MIT Challenge

The MIT Challenge refers to the ambitious goal of learning the computer science curriculum of the Massachusetts Institute of Technology (MIT) in a self-directed manner within a year, without enrolling in any classes at the institute. In the video, the creator discusses their progress and experiences with this challenge, highlighting the learning of new programming languages and paradigms as part of the curriculum.

πŸ’‘Scheme

Scheme is a programming language that is part of the Lisp family and is known for its use of the functional programming paradigm. In the video, the creator mentions learning Scheme as a new language, which is a departure from the object-oriented or procedural styles of programming they were previously familiar with, such as Java or C++.

πŸ’‘Functional Programming

Functional programming is a programming paradigm that treats computation as the evaluation of mathematical functions and avoids changing-state and mutable data. It is contrasted with the object-oriented and procedural paradigms mentioned in the script. The creator discusses the challenge of adopting this new way of thinking in programming while learning Scheme.

πŸ’‘Artificial Intelligence

Artificial Intelligence (AI) is the field of computer science that aims to create machines capable of intelligent behavior. The video script mentions the creator learning AI as part of their computer science challenge, including problem sets that involve creating an AI for solving a simplified version of chess.

πŸ’‘Problem Sets

Problem sets are collections of tasks or exercises that are designed to test and reinforce learning in an educational context. In the script, the creator talks about completing seven problem sets in the AI class, which included creating an automatic Sudoku solver and an AI for chess.

πŸ’‘Computer Science Theory

Computer science theory involves the study of the fundamental properties and concepts of computation, independent of any specific programming language or technology. The creator emphasizes the importance of focusing on the theoretical aspects of computer science, which are language and technology agnostic, to understand and solve complex problems.

πŸ’‘Abstraction

Abstraction in computer science refers to the process of reducing complexity by hiding unnecessary details and focusing on essential features. The script discusses the importance of abstraction in understanding computer science theory and solving problems at a higher level, rather than getting bogged down in the specifics of programming languages.

πŸ’‘Expert Practitioner

An expert practitioner is someone who has a deep understanding and mastery of a particular field or skill. The video mentions that while learning the basics of a new programming language can be done quickly, becoming an expert practitioner requires more extensive knowledge and experience.

πŸ’‘Self-Education

Self-education is the process of acquiring knowledge or skills without formal instruction. The creator of the video is engaging in self-education by undertaking the MIT Challenge, learning new programming languages, and exploring computer science theory on their own.

πŸ’‘Higher-Level Ideas

Higher-level ideas refer to advanced concepts or theories that are not necessarily immediately applicable but provide a deeper understanding of a subject. In the context of the video, the creator discusses the value of learning higher-level ideas in computer science, such as AI and advanced algorithms, to approach problems from a new perspective.

πŸ’‘Programming Projects

Programming projects are tasks or initiatives that involve writing code to create software or solve specific problems. The script mentions that the creator's knowledge of various computer science theories and concepts will be beneficial when working on their own programming projects in the future.

Highlights

Introduction to week 20 of the MIT challenge, aiming to learn MIT key subjects in 12 months without formal enrollment.

Update on the challenge of learning a new programming language, Scheme, which uses a functional programming paradigm.

Comparison of learning Scheme to object-oriented or procedural programming paradigms like Java or C++.

Successful completion of seven problem sets for the artificial intelligence class, including an automatic Sudoku solver and a simplified chess AI.

The project took 4 and 1/2 days, slightly longer than anticipated.

Discussion on the general idea of learning a new programming language quickly.

Expert programmers often find learning a new programming language's basics within a few days to be unremarkable.

Focus on the theoretical aspects of computer science, which are independent of specific programming languages or technologies.

Critique of academic programs for their theoretical content's practical application.

The importance of higher-level theory in solving complex problems that may not be apparent in everyday programming practice.

The enjoyment of being exposed to higher-level ideas like artificial intelligence and advanced algorithms.

How the MIT challenge provides exposure to advanced computer science concepts.

The benefit of having a broad knowledge base in computer science for approaching future programming projects.

Anticipation of future updates on the MIT challenge and self-education resources.

Transcripts

play00:00

hey guys welcome back to week 20 of the

play00:01

MIT challenge which is to learn MIT keys

play00:03

for your computer science curriculum in

play00:05

12 months

play00:06

don't take any classes or even being

play00:08

enrolled at MIT and I wanted to update

play00:10

you guys on my last week's video where I

play00:12

wrote about how I was currently facing

play00:15

the challenge of learning a new

play00:16

programming language scheme which also

play00:19

uses a new programming paradigm so a new

play00:21

way of thinking about writing programs

play00:23

which is a functional programming

play00:24

paradigm as opposed to Java or C++ which

play00:28

are mostly object-oriented or procedural

play00:30

style programming paradigms and I was

play00:33

using this in order to learn and

play00:35

complete the artificial intelligence

play00:38

design Mis which were one of the classes

play00:39

that I'm taking in this computer science

play00:41

challenge so I was learning a new

play00:42

language a new programming paradigm and

play00:44

learning new techniques which was the

play00:46

content of this artificial intelligence

play00:48

class in order to solve these problem

play00:50

sets now I was successful I was able to

play00:53

complete all seven problem sets with two

play00:55

minor exceptions and this involves doing

play00:58

problems such as an automatic Sudoku

play01:00

solver and a program that is an AI to

play01:03

solve a simpler version of chess and

play01:05

these kind of assignments in these kind

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of problems I was able to work through

play01:10

in just a half day longer than I

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anticipated so I wanted to spend four

play01:14

days working on it and it took me 4 and

play01:15

1/2 days to get all of the work finished

play01:18

for these classes so I wanted to talk a

play01:21

little bit about just this general idea

play01:23

that learning a programming language so

play01:26

in this case was scheme and it was a

play01:27

very different language I didn't have a

play01:29

lot that I could rely on as opposed to

play01:31

if you're learning Ruby from Python

play01:33

there's a lot of similarities there's

play01:34

fewer similarities this is a more alien

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kind of language if you're not used to

play01:38

functional programming languages but the

play01:41

truth in general is that learning a

play01:43

programming language learning a new

play01:44

programming language in just a few days

play01:46

is not that remarkable and a lot of

play01:48

expert programmers if you've done a lot

play01:50

of programming probably won't be

play01:52

surprised by that if you want to learn a

play01:53

new programming language at least the

play01:55

basics not to become an expert at it not

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to be an expert practitioner know all

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the courts and ins and outs of the

play02:00

language but to be able to execute some

play02:02

basic program and basic scripting it

play02:05

doesn't take that much work and that is

play02:08

the big reason that I'm focusing on the

play02:10

more theoretical aspects of computer

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science to speak

play02:13

is the theory of computer science so

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this this is language independent its

play02:17

technology independent it doesn't matter

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whether you're using Python or Java or

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C++ or Mac or Linux or Windows if you're

play02:26

focused on the computer science part

play02:27

which is an abstraction a level above

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the programming of it then you can focus

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on some more interesting types of

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problems and really learn solutions and

play02:36

theories for solving problems that you

play02:39

may not have uncovered just in the

play02:40

practice of going through your

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programming problems so a common

play02:44

criticism a lot of academic programs get

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is that well when will you ever use

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these ideas in real life and so if you

play02:51

are a computer programmer you might say

play02:53

to yourself well you know I know how to

play02:54

do a lot of computer programming when am

play02:56

I ever going to need to use calculus or

play02:58

differential equations or advanced

play03:00

number theory and the truth is you might

play03:03

not need it you might not come across in

play03:05

your general practice that these

play03:06

examples are coming up where you need to

play03:08

use this specific higher-level theory

play03:11

but the converse is also true if one of

play03:14

the problems you're encountering could

play03:16

be solved there could be thought of as

play03:18

an example of some abstract or

play03:20

higher-level theory you're very unlikely

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to uncover that just as a matter of fact

play03:24

and that's one of the reasons I've

play03:26

enjoyed doing this program and doing

play03:27

this curriculum in this way is it is

play03:30

giving me an exposure to a lot of higher

play03:32

level ideas like artificial intelligence

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or advanced algorithms and it's giving

play03:37

me exposure to these ideas independent

play03:40

of a specific programming problem that

play03:41

I'm working on so when I do go and work

play03:44

on my own programming projects in the

play03:46

future or I want to work on specific

play03:49

problems that are of interest to me that

play03:50

are independent of this whole I'm like

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to challenge having this knowledge of

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all these different ideas will allow me

play03:57

to look at those problems in a different

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way and help solve them better so thanks

play04:02

for following the MIT challenge I'll be

play04:03

updating you guys next week with more

play04:05

progress on the challenge and updates

play04:08

for more self education resources Thanks

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Related Tags
MIT ChallengeComputer ScienceSelf-LearningProgramming LanguagesScheme LanguageFunctional ProgrammingAI DesignProblem SolvingTheoretical CSEducational Resources