Dissecting Auto-GPT's prompt

Here is the output of my hacked version of BabyAGI. It doesn’t use a database of any sort, or Docker, etc. Will be adding the database soon for long term retrieval using embeddings (using DynamoDB for text retrieval and in-memory data for vector search, not Pinecone). It’s seems pretty straightforward on how it works. You just give it an OBJECTIVE and INITIAL_TASK, and it iterates and refines continuously. Here is the first couple iterations when using GPT-4.


Become a machine learning expert.

Initial task: Learn about tensors.


• Learn about tensors.


Learn about tensors.


As an AI tasked with becoming a machine learning expert, I have already learned about tensors. However, I will provide a brief overview of tensors and their importance in machine learning.

Tensors are multi-dimensional arrays that can represent a wide range of mathematical objects, such as scalars, vectors, and matrices. They are a generalization of these objects, where a scalar is a 0-dimensional tensor, a vector is a 1-dimensional tensor, and a matrix is a 2-dimensional tensor. Tensors can have any number of dimensions and are often denoted with a capital letter (e.g., A, B, C) and their dimensions are referred to as their order or rank.

Tensors play a crucial role in machine learning, particularly in deep learning, as they are the primary data structure used to represent and manipulate data. For example, a grayscale image can be represented as a 2-dimensional tensor, while a color image can be represented as a 3-dimensional tensor with dimensions for height, width, and color channels (e.g., RGB). In natural language processing, text data can be represented as tensors with dimensions for word embeddings or sequences of words.

Tensor operations, such as addition, multiplication, and contraction (also known as tensor product), are essential for building and training machine learning models. These operations can be efficiently performed using specialized libraries like TensorFlow or PyTorch, which have been specifically designed for working with tensors and optimizing tensor computations.

In summary, tensors are a fundamental concept in machine learning, serving as the primary data structure for representing and manipulating data. Their multi-dimensional nature allows them to capture complex patterns and relationships in the data, which is crucial for building effective machine learning models.


• Understand the differences between TensorFlow and PyTorch libraries
• Learn about various tensor operations and their applications in machine learning
• Study the role of tensors in natural language processing
• Investigate the use of tensors in computer vision tasks like image recognition and object detection
• Understand the role of tensors in common machine learning algorithms such as neural networks
• Explore techniques for optimizing tensor computations
• Learn about tensor decomposition techniques and their benefits in machine learning


Understand the differences between TensorFlow and PyTorch libraries


TensorFlow and PyTorch are two popular machine learning libraries used by data scientists, researchers, and developers. Both libraries are designed to facilitate the development and deployment of machine learning models, but they have some key differences which are important to understand.

  1. Origin and Development:

    • TensorFlow was developed by the Google Brain team and was released as an open-source project in 2015. It has since received significant community support and has become one of the most widely used machine learning libraries.
    • PyTorch, on the other hand, is a more recent library, developed by Facebook’s AI research group and released as an open-source project in 2017. It has gained rapid adoption due to its easy-to-understand interface and dynamic computation graph.
  2. Computation Graph:

    • TensorFlow uses a static computation graph, which means that the graph must be defined and compiled before it can be executed. This can result in better performance optimization, but it may also make the development process more complex and less intuitive.
    • PyTorch uses a dynamic computation graph, which allows for more flexibility and ease of development. The graph is built on-the-fly during execution, making it easier to debug and modify the model during training.
  3. Ecosystem and Deployment:

    • TensorFlow has a more mature ecosystem, with a large number of pre-trained models, tools, and libraries available for use. It also has better support for deployment on various platforms, including mobile and embedded devices, through TensorFlow Lite and TensorFlow.js.
    • PyTorch’s ecosystem is growing rapidly, but it is not as extensive as TensorFlow’s. Deployment options for PyTorch are also more limited, although it has recently introduced support for mobile deployment through PyTorch Mobile.
  4. Syntax and Ease of Use:

    • TensorFlow’s syntax can be more verbose and less intuitive compared to PyTorch, especially for beginners. The recent introduction of TensorFlow 2.0, with its eager execution mode and tighter integration with Keras, has improved its ease of use, but it still has a steeper learning curve than PyTorch.
    • PyTorch’s syntax is more Pythonic and closely resembles NumPy, making it easier for developers familiar with Python to learn and use. Its dynamic computation graph and simpler API contribute to its reputation for being more user-friendly.
  5. Community and Research vs Production:

    • TensorFlow has a larger community and is often considered more suitable for production environments due to its performance optimizations and deployment support.
    • PyTorch is popular among researchers and academics for its flexibility and ease of use, making it a preferred choice for experimentation and rapid prototyping.

In summary, TensorFlow and PyTorch are both powerful machine learning libraries, but they have different design philosophies and use cases. TensorFlow is more focused on performance and deployment, while PyTorch emphasizes flexibility and ease of use. Choosing between them depends on the specific requirements of the project and the preferences of the developer or researcher.