Master the core principles of prompt engineering with GitHub Copilot

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4 Mar 202406:08

Summary

TLDRThe video script introduces the '3 S Principle' of prompt engineering for effective AI collaboration, emphasizing simplicity, specificity, and brevity. It illustrates how breaking down complex tasks into simple steps with clear prompts can reduce errors and accelerate development. The script also highlights the importance of providing specific context to AI tools like GitHub Copilot to enhance accuracy and efficiency, and demonstrates the use of inline chat for iterative problem-solving.

Takeaways

  • πŸ” **Simple**: Prompts should focus on solving simple problems to reduce the chance of errors and hallucinations by AI like GitHub Copilot.
  • πŸ“š **Break Down**: Complex solutions should be divided into simple steps to improve accuracy and speed.
  • πŸ“ **Verbosity Reduction**: Using words like 'simple' in prompts can help reduce verbosity and get straight to the point with AI.
  • πŸ”— **Contextual Awareness**: Having related files open as tabs helps AI tools like Copilot understand the context and provide better assistance.
  • πŸ€– **AI Anticipation**: With sufficient context, AI can anticipate the next steps without needing explicit prompts.
  • πŸ“ **Specificity**: When asking for complex solutions, provide specific context to reduce the AI's need to guess and improve the quality of responses.
  • πŸ“ **Project Context**: Use the @workspace agent in Copilot to make use of the project context for more accurate responses.
  • πŸ“Ž **Direct References**: Pointing Copilot directly at files or using variables like #file can increase the specificity of the AI's assistance.
  • 🚫 **Grammar Flexibility**: When interacting with AI, you don't need to worry about perfect grammar or spelling; focus on being clear and concise.
  • πŸ”‘ **Iterative Process**: Use the '3 S's' (Simple, Specific, Short) iteratively to refine and achieve the desired outcome with AI assistance.
  • πŸ› οΈ **Productivity Focus**: The goal of prompt engineering is to enhance developer productivity by learning effective ways to communicate with AI tools.

Q & A

  • What is the '3 S Principle' of prompt engineering mentioned in the video?

    -The '3 S Principle' of prompt engineering stands for Simple, Specific, and Short. It is a guideline to effectively collaborate with AI like GitHub Copilot to achieve the best results.

  • Why is it important to keep prompts simple according to the video?

    -Keeping prompts simple reduces the amount of code that needs to be checked for accuracy, which in turn reduces the chance for errors and hallucinations, making the coding process faster and more efficient.

  • What are 'hallucinations' in the context of AI coding assistance?

    -'Hallucinations' refer to instances when AI, like GitHub Copilot, makes up information or uses files and libraries that don't exist because it doesn't know the correct answer.

  • How can breaking down a solution into simple steps help with prompt engineering?

    -By breaking down a solution into simple steps, you allow for easier management and accuracy checking of the code. This method also helps in avoiding the complexity that can lead to errors.

  • What role does the 'specific' aspect of the 3 S Principle play in prompt engineering?

    -Being specific helps in providing the AI with the exact context it needs to generate accurate and relevant responses, reducing the need for guesswork and improving the quality of the AI's assistance.

  • Why is it recommended to use the @workspace agent in GitHub Copilot?

    -The @workspace agent in GitHub Copilot serves as an expert on your project, allowing the AI to understand the project's context better and provide more accurate and relevant suggestions.

  • What does the 'short' aspect of the 3 S Principle entail?

    -The 'short' aspect encourages brevity in prompts, suggesting that you don't need to use proper grammar or complete sentences. Typos are also less critical, allowing for faster and more efficient communication with the AI.

  • How can having related files open as tabs in the editor improve the AI's responses?

    -Having related files open as tabs provides the AI with additional context, which helps it to understand the project better and offer more accurate and relevant suggestions.

  • What is the significance of using specific variables like #file in GitHub Copilot?

    -Using specific variables like #file allows you to point the AI directly at specific files or parts of the code, ensuring that the AI's suggestions are tailored to the exact context of your project.

  • How can the 3 S Principle be applied to create a CSS layout with a fixed header and footer?

    -You can apply the 3 S Principle by first asking for a fixed header, then a fixed footer, and finally for a body that scrolls in between. This approach breaks down the task into simple, specific, and short prompts, making the process more efficient.

  • What is the ultimate goal of using the 3 S Principle in prompt engineering?

    -The ultimate goal of using the 3 S Principle is to enhance developer productivity by creating prompts that yield the best results with the least amount of effort and in the shortest amount of time.

Outlines

00:00

πŸ€– The '3 S Principle' of Prompt Engineering

This paragraph introduces the concept of prompt engineering, emphasizing the '3 S Principle' which stands for Simple, Specific, and Short. It explains the importance of starting with simple problems to minimize errors and 'hallucinations' from AI like GitHub Copilot. The speaker illustrates how breaking down complex tasks into simpler steps can lead to more accurate and faster results. The paragraph also touches on the use of specific language in prompts to reduce AI verbosity and the importance of having related files open for context, allowing Copilot to provide more accurate completions.

05:03

πŸ” Applying the '3 S Principle' for Effective Prompting

The second paragraph delves deeper into applying the '3 S Principle' for prompt engineering. It discusses the counterproductive nature of lengthy prompts and how to avoid them by using simple, specific, and short prompts incrementally. The speaker provides an example of creating a CSS layout with a fixed header and footer, suggesting that breaking the task into smaller, focused prompts can enhance developer productivity. The paragraph concludes by reiterating the importance of the '3 S's' and encourages viewers to practice prompt engineering to improve their results and productivity.

Mindmap

Keywords

πŸ’‘Prompt Engineering

Prompt engineering refers to the art of formulating questions or instructions for an AI system to elicit the most effective and accurate responses. In the context of the video, it's about how to interact with AI like GitHub Copilot to achieve the best results. The script emphasizes the importance of crafting prompts that are simple, specific, and short to enhance productivity and minimize errors.

πŸ’‘GitHub Copilot

GitHub Copilot is an AI-powered code assistant that autocompletes code and suggests solutions based on the context of the code being written. It is highlighted in the video as an example of an AI system where prompt engineering is crucial. The video discusses how to effectively use prompts with Copilot to avoid errors and hallucinations in code suggestions.

πŸ’‘3 S Principle

The '3 S Principle' is a guideline introduced in the video for effective prompt engineering. It stands for Simple, Specific, and Short, which are the core principles for crafting prompts that yield the best results when interacting with AI systems. The video explains each 'S' in detail, showing how they contribute to more efficient and accurate AI interactions.

πŸ’‘Simple

In the context of prompt engineering, 'Simple' refers to the strategy of breaking down complex problems into smaller, more manageable tasks. The video script illustrates this by recommending to create a simple server first and then add features incrementally, which reduces the chance of errors and makes the development process more straightforward.

πŸ’‘Specific

Being 'Specific' in prompt engineering means providing clear and detailed information to guide the AI in generating accurate responses. The video uses the example of integrating Swagger, an API documentation tool, where a more open-ended question requires the user to be as specific as possible to get a useful answer from Copilot.

πŸ’‘Short

'Short' in the video's narrative emphasizes the importance of brevity when formulating prompts. It suggests that when interacting with AI like GitHub Copilot, one does not need to use complete sentences or correct spelling. The script demonstrates that concise prompts can lead to faster and more efficient interactions with the AI.

πŸ’‘Hallucinations

In the video, 'hallucinations' refer to the incorrect or fabricated code that AI might generate when it lacks the necessary information to provide an accurate response. The script warns about the potential for hallucinations when prompts are too complex, leading to AI making up solutions, such as using non-existent files or libraries.

πŸ’‘Swagger

Swagger is an API documentation tool mentioned in the script when discussing the need for specificity in prompts. The video uses it as an example to illustrate how to ask for complex solutions from GitHub Copilot by providing specific context and guidance.

πŸ’‘Workspace Agent

The 'Workspace Agent' in the video is a feature of GitHub Copilot that acts as an expert on the user's project. It is used to provide specific context to the AI, ensuring that the responses are tailored to the project's needs. The script explains how to use the @workspace agent to improve the accuracy of Copilot's suggestions.

πŸ’‘Inline Chat

The 'Inline Chat' mentioned in the script refers to the method of iteratively refining prompts with GitHub Copilot. Instead of attempting to provide all details in one long prompt, the video suggests using inline chat to progressively build towards the desired solution, which aligns with the 'Simple, Specific, and Short' approach.

πŸ’‘SMART Coding

While not explicitly defined in the script, 'SMART Coding' seems to be a philosophy or approach to coding that the video endorses. It likely stands for Specific, Measurable, Achievable, Relevant, and Time-bound, which are principles that could be applied to prompt engineering to ensure productivity and effectiveness in coding with AI assistance.

Highlights

The '3 S Principle' of prompt engineering stands for Simple, Specific, and Short, offering an effective way to collaborate with AI like GitHub Copilot.

Simple prompts help solve straightforward problems, reducing the chance for errors and hallucinations in AI-generated code.

Breaking solutions into simple steps allows for faster, more accurate code development with AI assistance.

Using the word 'simple' in prompts can help AI provide more concise and relevant responses.

Having related files open as tabs helps GitHub Copilot understand context and provide better answers.

GitHub Copilot can automatically perform actions when the context is clear, reducing the need for explicit prompts.

For complex tasks, being specific in prompts is crucial to guide AI and avoid ambiguous responses.

Using the @workspace agent in Copilot helps it understand the project context for more accurate assistance.

Pointing Copilot directly at files with the #file variable increases the specificity and relevance of AI responses.

Providing specific context, such as selected code, reduces the AI's need to guess and improves the quality of responses.

Short prompts are more efficient, allowing AI to quickly provide relevant answers without needing complete sentences or correct spelling.

The '3 S's' can be combined to achieve the best results, as demonstrated by iteratively building a CSS layout with fixed header, footer, and scrollable body content.

Iterative prompting with simple, specific, and short questions leads to more productive outcomes in AI collaboration.

As developers write more prompts, they will learn to identify which prompts yield the best results and enhance productivity.

The video encourages viewers to explore other content on GitHub Copilot for further insights into effective AI collaboration.

The concept of 'SMART coding' is introduced as a way to achieve efficient and effective coding practices with AI assistance.

Transcripts

play00:00

Prompt engineering or prompt crafting, or just prompting whatever word

play00:04

you use to describe it;

play00:06

it's all about how to effectively collaborate with an AI

play00:09

to get the best results, like GitHub Copilot.

play00:12

In this video, I'm going to show you something called

play00:15

the "3 S Principle" of prompt engineering.

play00:17

The Three S principle stands for Simple, specific, and Short.

play00:23

Easy to remember, right?

play00:24

The first S, simple means that you should try to

play00:27

solve as simple a problem as possible with your prompts.

play00:31

For instance, let's say that we want to create an

play00:34

API that returns some weather data and uses Swagger.

play00:37

When you use Copilot, it's tempting to ask for all

play00:41

of this and have it implement a solution in a

play00:44

single shot.

play00:45

While Copilot will happily try and do this for you,

play00:48

the more code that Copilot writes, the greater the chance

play00:51

for errors and what we call hallucinations, which are things

play00:55

that Copilot just makes up when it doesn't know an

play00:58

answer.

play00:59

In this example, Copilot uses files that don't exist, libraries

play01:02

that we don't have installed, and on and on.

play01:05

It's tough to deal with code like this because now

play01:08

you're in the business of fixing errors, not writing code.

play01:12

Instead, break your solution up into simple steps and let's

play01:16

perform them one at a time.

play01:18

When you work in simple steps, there's less code that

play01:21

you have to check for accuracy and you can just

play01:24

move that much faster.

play01:25

Once we have a simple server, we can then add

play01:28

a route file for the weather.

play01:30

You'll notice that I'm using simple not just as a

play01:33

concept, but as an actual word in the prompt.

play01:36

You don't have to do this, but I do find

play01:38

that it helps cut down on the verbosity from the

play01:41

AI and gets me just what I need more of

play01:44

the time.

play01:44

OK, now we can use this route.

play01:47

It's important to know that when you're using GitHub Copilot

play01:51

completions like I am here, also called "Ghost Text", that

play01:54

you have related files open as tabs.

play01:57

Otherwise Copilot can't see those files and it may give

play02:01

you bad answers.

play02:02

But now that Copilot has all this context here, we

play02:05

don't even have to ask Copilot anymore to do anything

play02:08

like use the route.

play02:10

It already knows what we're going to do next and

play02:13

just does it because the best prompt is the one

play02:15

that you don't have to write.

play02:17

Now there are times when you're going to need more

play02:20

complex answers and there's just no way around that.

play02:23

This is especially true if you're not 100% sure how

play02:26

to do something and you need some guidance from Copilot.

play02:29

For instance, if we want to integrate Swagger, which is

play02:33

an API documentation tool, there isn't really a way for

play02:36

us to be simple here because I don't know how

play02:39

to get started at all.

play02:41

I need to ask a more open-ended question, and the

play02:45

more you ask for, the more specific you need to

play02:48

be, and that's our second S - Specific.

play02:51

If I ask an open-ended question about how to integrate

play02:55

Swagger here, I get an open-ended answer.

play02:57

In fact, Copilot might not even know what language I

play03:01

want to work in.

play03:02

Why doesn't Copilot know about my project?

play03:05

Copilot tries to intelligently pull in context

play03:08

for you this often means the editor area, which is

play03:11

the code you can see in the editor, but not

play03:14

all the code in the file.

play03:15

It also knows about the code that you have selected,

play03:18

which is a great habit to get into,

play03:21

So that Copilot knows exactly what code you want to

play03:23

talk about.

play03:24

To reduce the amount of guessing that Copilot has to

play03:27

do, your best bet is to provide the specific context.

play03:31

In this case, we can use the @workspace agent in

play03:34

Copilot to have it look at our project and use

play03:37

that as the basis for this answer.

play03:39

Agents in Copilot are like experts on certain subjects.

play03:43

In this case, the workspace agent is an expert on

play03:47

your project.

play03:48

You can add further specificity by pointing Copilot directly at

play03:52

files.

play03:53

So if we want to create an interface here that

play03:56

matches the shape of the JSON in the data, we

play03:59

can do that with the #file variable.

play04:02

There are other variables too, such as #editor which includes

play04:06

all of the visible code in the editor, space, selection

play04:09

which includes the selected code, and rerminal lastCommand and

play04:14

selection, which include information from the terminal specific always use

play04:19

specific prompts and always provide specific context to copilot.

play04:23

Now, if you've been paying close attention so far, you

play04:26

may have noticed that I've been using our last S

play04:30

all along, and that's short.

play04:31

When you talk to Copilot, you don't need to phrase

play04:34

questions as if you were talking to a human, You

play04:37

don't need proper grammar, You don't even need complete sentences.

play04:41

You don't have to spell things correctly.

play04:44

You can safely omit almost all of that and get

play04:47

the same answer faster.

play04:49

Type less because typos don't matter.

play04:51

Now, while we've gone over these principles separately, you'll use

play04:55

them together to get the best results.

play04:57

For instance, if I wanted a CSS layout that had

play04:59

a fixed header, fixed footer, and body content that scrolled

play05:03

in the middle, I could write a pretty lengthy prompt

play05:06

to try and pull this off.

play05:09

But if you think about it, this is a bit

play05:11

of a step backwards for developer productivity, right?

play05:14

We want to learn keyboard shortcuts and be quick, not

play05:17

type everything that's in your brain.

play05:19

So how can we use the principle of simple, specific,

play05:22

and short to pull this off?

play05:24

First we'll ask for a fixed header, then we ask

play05:28

for a fixed footer, and then we'll ask for a

play05:31

body that scrolls in between Simple, specific, and short.

play05:36

And we use the inline chat here to iterate our

play05:39

way to the answer that we wanted instead of trying

play05:42

to do it all in one shot.

play05:43

And that's it.

play05:45

All you have to remember are the "3 S's"

play05:47

simple, specific, and short, and you've nailed the core principles

play05:51

of prompt engineering.

play05:53

And as you write more prompts, you'll just start to

play05:56

figure out what prompts get you the best results and

play05:59

make you the most productive.

play06:00

Make sure you check out all of our other videos

play06:04

on GitHub, Copilot, and as always happy SMART coding.

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Related Tags
AI CollaborationGitHub CopilotPrompt Engineering3 S PrincipleSimple PromptsSpecific ContextShort QueriesDeveloper ProductivityAPI DevelopmentSwagger IntegrationCode EfficiencySMART Coding