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⇱ How to Run OpenAI's o3-mini on Google Colab?


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How to Run OpenAI’s o3-mini on Google Colab?

Pankaj Singh Last Updated : 10 Feb, 2025
5 min read

Are you ready to take your coding, mathematics, and logical reasoning to the next level? Meet OpenAI’s latest reasoning powerhouse: o3-mini. Known for its performance in coding, complex calculations, and advanced logic tasks, this model is a game-changer for developers, data scientists, and tech enthusiasts alike.

Why should you care?

Integrating o3-mini into your projects can dramatically boost accuracy, efficiency, and problem-solving capabilities—whether you’re building apps, analyzing data, or solving intricate mathematical problems. Further, we will run OpenAI o3-mini on Colab with examples.

Run OpenAI o3-mini on Google Colab

To run o3-mini in your Google Colab environment follow these steps:

Step 1. Install the Required Library

Begin by installing the langchain_openai library, which provides a convenient interface to interact with OpenAI’s models:

!pip install langchain_openai

Step 2. Import the Necessary Module

After installation, import the ChatOpenAI class from the langchain_openai library:

from langchain_openai import ChatOpenAI

Step 3. Initialize the Model

Set up the o3-mini model by providing your OpenAI API key. Ensure you replace ‘your_openai_api_key’ with your actual API key:

llm = ChatOpenAI(model="o3-mini", openai_api_key='your_openai_api_key')

Step 4. Generate Responses

You can now use the model to generate responses. For instance, to solve a compound interest problem:

# Define your query

query = """In a 3 × 3 grid, each cell is empty or contains a penguin. Two penguins are angry at each other if they occupy diagonally adjacent cells. Compute the number of ways to fill the grid so that none of the penguins are angry."""

# Streaming response
for token in llm.stream(query, reasoning_effort="high"):
    print(token.content, end="")

Output

👁 Output

In this example, the model will provide a detailed, step-by-step calculation of the compound interest over 10 years.

Note: The high reasoning model takes time to get the output as this model thinks and reasons.

Read the paper here: OpenAI o3-mini Paper

Advanced Usage of OpenAI o3-mini

Adjusting Reasoning Effort

The reasoning_effort parameter allows you to control the depth of the model’s reasoning. You can set it to:

  • “low”: For quick, surface-level answers.
  • “medium”: Balanced responses with moderate reasoning.
  • “high”: In-depth analysis suitable for complex problems.

Example:

response = llm("Explain quantum entanglement in simple terms.", reasoning_effort="medium")
print(response)

Output

Quantum entanglement is a phenomenon in which two or more tiny particles
become linked together so that the state of one instantly influences the
state of the other, no matter how far apart they are. Here’s a simple way to
understand it:

1. Imagine you have a pair of magic dice that are somehow connected. When you
roll the dice, if one lands on a six, the other will automatically land on a
six too—even if they’re rolled on opposite sides of the world.

2. In the quantum world, particles like electrons or photons can become
entangled. Once they are entangled, measuring a property (such as spin or
polarization) of one particle will immediately determine the corresponding
property of its partner, even if they are separated by a large distance.

3. This connection doesn’t mean that one particle is sending a message to the
other faster than the speed of light. Instead, quantum entanglement is a
fundamental property of the particles that were linked together when they
became entangled.

4. It challenges our common sense because, in everyday life, objects aren’t
linked in this mysterious way. But in the world of quantum mechanics,
particles can share properties in a way that classic objects do not.

In essence, quantum entanglement shows that the universe at a very small
scale follows different and more puzzling rules than our everyday
experiences suggest.

Batch Processing Multiple Queries

You can process multiple queries in one go:

for token in llm.stream(
 """What is the capital of France?",
    "Explain the theory of relativity.",
    "How does photosynthesis work?""",
reasoning_effort="low",
):
 print(token.content, end="")

Output

Below are the answers to each of your questions:

1. What is the capital of France?
 The capital of France is Paris.

2. Explain the theory of relativity.
 The theory of relativity, developed by Albert Einstein in the early 20th
century, is divided into two parts—special relativity and general
relativity.

 • Special Relativity:
  - Focuses on the physics of objects moving at constant speeds, particularly
near the speed of light.
  - Introduces the idea that the laws of physics are the same for all
observers in uniform motion.
  - Shows that measurements of time and space are relative to the observer's
state of motion, leading to phenomena like time dilation (time appears to
slow down for fast-moving objects) and length contraction (objects appear
shorter in the direction of motion).

 • General Relativity:
  - Expands the ideas of special relativity to include gravity.
  - Describes gravity not as a force, as Newton did, but as the curvature of
spacetime caused by mass and energy.
  - Predicts that objects travel along curved paths (geodesics) in a warped
spacetime, which we perceive as gravitational attraction.
  - Has been confirmed by observations such as the bending of light by
gravity (gravitational lensing) and the time dilation effects in strong
gravitational fields (gravitational time dilation).

 Overall, relativity has profoundly changed our understanding of space, time,
and gravity.

3. How does photosynthesis work?
 Photosynthesis is the process by which green plants, algae, and some
bacteria convert light energy into chemical energy. Here’s an overview of the
process:

 • Light Absorption:
  - Chlorophyll (the green pigment in plants) and other pigments in the
chloroplasts absorb sunlight, primarily in the blue and red wavelengths.

 • Energy Conversion:
  - The absorbed light energy is used to excite electrons, which then travel
along the electron transport chain, leading to the production of energy-
storing molecules like ATP (adenosine triphosphate) and NADPH (nicotinamide
adenine dinucleotide phosphate).

 • Carbon Fixation (Calvin Cycle):
  - In the Calvin cycle, the energy from ATP and NADPH is used to convert
carbon dioxide (CO₂) from the atmosphere into organic compounds.
  - The enzyme RuBisCO plays a key role by fixing CO₂ to ribulose
bisphosphate, eventually leading to the production of glucose and other
carbohydrates.

 • Byproducts:
  - Oxygen (O₂) is released as a byproduct during the light-dependent
reactions when water molecules are split.

 Photosynthesis is essential not only for the plant’s own food production but
also for producing oxygen and serving as the base of the food chain for
almost all life on Earth.

Handling Large Text Inputs

For extensive documents or large text inputs:

large_text = """
Insert a long document or detailed content here that you want the model to analyze.
"""

response = llm(large_text, reasoning_effort="high")
print(response)

Important Considerations

  • API Key Security: Always keep your OpenAI API key confidential. Avoid sharing it publicly or hardcoding it into scripts that might be shared.
  • Resource Limits: Be aware of API rate limits and usage quotas to manage costs effectively.
  • Model Updates: Keep an eye on OpenAI’s announcements for any updates or changes to the o3-mini model.

Conclusion

I hope this article on “How to Run OpenAI o3-mini” helped you in accessing the model. Integrating OpenAI’s o3-mini model into your Google Colab projects can significantly enhance their analytical and reasoning capabilities. By following the steps outlined above, you can set up and utilize this powerful model to tackle complex problems with ease.

For more in-depth insights, you can refer to this comprehensive article. By leveraging o3-mini, you’re equipped to handle a wide range of tasks, from intricate mathematical computations to advanced coding challenges, all within the versatile environment of Google Colab.

Start your AI journey today! Click here to learn Getting Started with OpenAI o3-mini and explore its powerful features effortlessly!”

Hi, I am Pankaj Singh Negi - Senior Content Editor | Passionate about storytelling and crafting compelling narratives that transform ideas into impactful content. I love reading about technology revolutionizing our lifestyle.

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