Programming Language Development (Suitable for GCSE and A-Level)

Any programming language - compiled or interpreted, statically typed or dynamic, boils down to the same common principles. These principles can then be applied to make any programming language - with any rules you desire. You can use '&' to represent addition and '>>!' to represent conditional loops. You can use 'beep' to represent branches and end each line with @.

This class aims to teach you how to create these principles to design a language, and then the different approaches on how to do it.
An end project will be to actually make your own programming language!

The topics covered are listed below:

Pretence:
Programming Language Types (grammar), Programming Language Types (formation), Programming Language Types (typing)
Stages (Lexing), Stages (Parsing), Stages (Interpreting)
Intermediate Forms (AST), Intermediate Forms (Bytecode), Transpiling
Optimisation (types), Optimisation (application to AST), Optimisation (application to Bytecode)

Building Ray (Classes):
Grammar Type, Formation Type, Typing Type
Data Types, Expressions (types), Expressions (precedence)
Statements (declarations), Statements (statements), Standard Library
Tokens, Tokenisation (characters), Tokenisation (literals)
Parsing (AST), Parsing (Visitors), Interpreting (Visitor)
Static Scope, Semantic Analysis, Resolvers (Visitor)

Building Ray (Nodes)
Parsing (Literals), Interpreting (Literals), Resolving (Literals)
Parsing (Groups), Interpreting (Groups), Resolving (Groups)
Parsing (Operators), Interpreting (Operators), Resolving (Operators)
Parsing (Variable declarations), Interpreting (Variable declarations), Resolving (Variable declarations)
Parsing (Variable getters), Interpreting (Variable getters), Resolving (Variable getters)
Parsing (Variable setters), Interpreting (Variable setters), Resolving (Variable setters)
Parsing (Branches), Interpreting (Branches), Resolving (Branches)
Parsing (Logic Gates), Interpreting (Logic Gates), Resolving (Logic Gates)
Parsing (Loops conditional), Interpreting (Loops conditional), Resolving (Loops conditional)
Parsing (Loops count), Interpreting (Loops count), Resolving (Loops count)
Parsing (Function declarations), Interpreting (Function declarations), Resolving (Function declarations)
Parsing (Function calls), Interpreting (Function calls), Resolving (Function calls)
Parsing (Scope Termination), Interpreting (Scope Termination), Resolving (Scope Termination)
Parsing (Class declarations), Interpreting (Class declarations), Resolving (Class declarations)
Parsing (Instances), Interpreting (Instances), Resolving (Instances)
Parsing (Methods), Interpreting (Methods), Resolving (Methods)
Parsing (Instance Lookup), Interpreting (Instance Lookup), Resolving (Instance Lookup)
Parsing (Constructors), Interpreting (Constructors), Resolving (Constructors)
Parsing (Inheritance), Interpreting (Inheritance), Resolving (Inheritance)
Optimisations (Visitor), Optimisations (Literal-Only Expressions), Optimisations (Variable Expressions)

Project: Build your own language! (Supervised)

Extra information

Bring your own laptop (microphone and speakers required, webcam optional), with python installed.
We will not be covering how to use python, so make sure that you know how to do classes and OOP programming in python.

Location

Online via webcam

At student's location: Around Hemel Hempstead, United Kingdom

Use ctrl + wheel to zoom!

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General info

Computer programming

Computer science

Age:	Teenagers (13-17 years old) Adults (18-64 years old)
Student level:	Advanced
Duration:	60 minutes 90 minutes
The class is taught in:	English

About Me

About Me:
I'm currently pursuing a Master's degree in Computer Systems Engineering and I
understand how annoying it is not to achieve what you potentially could. Having done computer science for many years both for study and for work, I have a competent understanding of the subject matter and tend to run things more informally than a classroom.
I honestly believe that understanding computer science is a privilege and a pleasure. One of my top priorities is making sure my students have that privilege. My other priorities are about clearing the jargon - what appeals to me most when tutoring is seeing a mental block clear, and all the little puzzle pieces click into place.

My Teaching Style:
My style is more Q&A, where we work together to assess gaps, and build up our knowledge from there. I will break things down to their simplest form, and then build up the knowledge in layers.
My main focus is visible progress - I try to preach the mentality of 'one large problem is nothing but several smaller - and infinitely more manageable- problems'. That way, a slow lesson still has a visible output that a student can refer back to and show.

Education

Pursuing Integrated Master's in Computer Systems Engineering
Achieved 75% average across the first 3 years of my course
A-Levels in Maths, Computer Science, and Physics

Experience / Qualifications

I am used to working with students of a variety of ages and skills, having tutored for those between the ages of 6 and 16, as well as some professional presentation of projects to general public.
Employed as a Computer Science Tutor for ages 6 - 16
Tutored private GCSE physics lessons

16.00GBP/ h

Python Programming (Suitable for GCSE and A-Level)

Python is one of the most versatile programming languages out there, used for game development, AI, web scraping, and so much more. In this class, I will break down the language into simple building blocks that can be used time and time again in any program, whether designing 2D Minecraft or coding your own JARVIS! The topics covered are listed below Basics: Literals, Operators, Keywords Variables, Data Types, Branching Iteration, Iterators, Functions Control Flow, Scope, Closures Importing, Random Numbers, Modules and Packages OOP, Classes and Instances, Inheritance Polymorphism, Exception Handling, Files Data Structures and Algorithms: Searching, Sorting, Immutability Lists, Tuples, Linked Lists Single Buffers (Pools), Double Buffers, Ring Buffers Stacks, Queues, Priority Queues Hash Tables (dictionaries), Hash Tables (custom), Vectors Graphs, Trees, Binary Trees

16.00GBP/ h

Computational Theory (Suitable for GCSE and A-Level)

Computers are very powerful machines, that do incredible work. But how do they work? How can it tell the difference between a 1 and a 7? How can it tell the difference between reading a Word document and a PowerPoint? If you understand programmatic theory, then you can write in any programming language. This class is designed to unravel the mysteries surrounding these machines. Ranging from programming theory (what is a pointer?) to actual computational challenges (what is the correct data structure to use based on the Big O requirements?) No specific language is covered in this course, it will be purely theoretical knowledge and 'pseudocode'. The topics covered are listed below Programmatic Theory: Literals, Operators, Keywords Variables, Data Types, Generics Memory Usage, Pointers, Arrays Branching, Iteration, Iterators Functions, Control Flow, Scope, Closures, Enumerations, OOP Classes and Instances, Immutability, Inheritance Polymorphism, Exception Handling, Composition Asynchronous Programming, Multithreading, Multiprocessing Internal Workings: Binary, Hexadecimal, Number Systems Extrinsic vs Intrinsic Data, Coupling, MVC Architecture CPU, FED Cycle, Spatial Locality Caching, Performance, Memory Types Storing Complex Data (Text), Storing Complex Data (Sound), Storing Complex Data (Images) Data Structures and Algorithms: Performance, Big O, Measuring Performance Searching, Sorting, Decomposition Data Structures, Arrays, Linked Lists Single Buffers (Pools), Double Buffers, Ring Buffers Stacks, Queues, Priority Queues Heaps, Hash Tables, Graphs Trees, Binary Trees, Vectors

Availability of a typical week

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from £24Online via webcam

from £24At student's home

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Availability of a typical week

(GMT -04:00) New York

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