The OpenAI API allows users to access OpenAI’s large language models and harnesses the power of generative artificial intelligence. The OpenAI API helps users create more dependable and controlled outputs from LLMs. This can be achieved by designing input prompts effectively and utilizing hyperparameters of the LLMs to regulate the output’s deterministic behavior.
The OpenAI
class in the openai
module offers methods to incorporate GPT models into applications, allowing developers to send requests and obtain AI-generated text. Through the OpenAI class, developers can utilize methods like chat.completions.create()
to initiate dynamic AI-driven conversations.
from openai import OpenAI# Create an instance of the OpenAI classclient = OpenAI()
Developers can leverage the openai
Python module to integrate AI-driven capabilities into applications, utilizing tools that facilitate seamless interactions with OpenAI language models.
from openai import OpenAI
The OpenAI API uses message roles like system
, user
, and assistant
to help define each message’s nature within the chat.completions.create()
, shaping AI responses and ensuring the conversation’s context is maintained. Each role has a specific purpose:
system
: Provides meta instructions or context for the AIuser
: Represents the human user’s input in the conversationassistant
: Reflects the AI’s generated responses based on the dialogueUsing the chat.completions.create()
method of the OpenAI
class, enables interactions with GPT models, where a series of system
, user
, and assistant
messages guide the AI to produce responses. The AI generates a response after sending the list of messages as a request.
Extract the AI’s message by accessing response.choices
, which contains the list of Choice
objects; each has a message
attribute holding the actual content generated by the AI.
from openai import OpenAI# Create an instance of the OpenAI classclient = OpenAI()# Initiate a chatresponse = client.chat.completions.create(model='gpt-3.5-turbo',messages=[{'role': 'user','content': 'What is the capital of France?'}])# Access the AI-generated responseprint(response.choices[0].message.content)"
Few-shot prompting uses single or multiple user-assistant message pairs to direct the AI model’s behavior by providing clear examples of the desired output, helping to achieve more accurate and contextually relevant responses.
# Few-shot prompting with a single user promptmessages = [{'role': 'user','content': 'I need ideas for recipes. Output each recipe with a brief description as the first section,ingredients as the next section and preparation steps as the last section.'}]# Few-shot prompting across two user-assistant pairsmessages = [{'role': 'user','content': 'How do I fix a leaky faucet?'},{'role': 'assistant','content': 'First, turn off the main water supply...'},{'role': 'user','content': 'What tools do I need?'},{'role': 'assistant','content': 'You will need an adjustable wrench, some plumber\'s tape...'}]
System prompts guide the AI’s responses by offering context and instructions, ensuring the GPT models within the API request behave in a way that aligns with user expectations. By setting system prompts, developers can direct the model’s output style, tone, and content, providing a more tailored interaction experience.
from openai import OpenAIclient = new OpenAI()response = client.chat.completions.create(model:"gpt-3.5-turbo",messages:[{"role": 'system',"content": 'You are an AI knowledgeable about animals.'},{"role": 'user',"content": 'Tell me about hummingbirds.'}])# Retrieve and display the AI-generated responsecontent = response.choices[0].message.contentprint(content)
Using the OpenAI API, passing historical context in subsequent prompts enables AI models to maintain conversation continuity, building upon or referencing information from previous interactions for coherent exchanges.
The process of prompt engineering involves creating input prompts specifically designed to generate the desired and optimal output from large language models. The effectiveness of prompt engineering relies on crafting input prompts that are both descriptive and token-efficient. This can be achieved by using various strategies, whether creating a single input prompt with either endpoint or employing few-shot prompting with the chat/completions
endpoint. Here are a few recommended approaches for creating effective prompts:
By employing these prompt engineering strategies, users can enhance the performance of large language models and obtain more reliable and targeted outputs.