Bard can now code and put that code in Colab for you.
Based on Sam Witteveen's video on YouTube. If you like this content, support the original creators by watching, liking and subscribing to their content.
Bard can now generate Python code and export it directly into Google Colab, with the notebook saved to Google Drive.
Briefing
Google’s Bard has gained a practical new capability: it can generate Python code and export that code directly into Google Colab, turning prompts into runnable notebooks. The update matters because it closes a major gap that frustrated early Bard users—public Bard couldn’t write code—while also aligning with Google’s broader challenge of serving AI models at scale using smaller, more efficient versions.
In a hands-on walkthrough, Bard is shown producing code quickly for straightforward tasks, such as writing a Python function to test whether a number is prime. The workflow is the key upgrade: after Bard drafts the code, a user can click “export to Colab,” which saves a Colab notebook to Google Drive. Opening the notebook reveals the generated code ready to run, and the example demonstrates the function working inside the Colab environment.
The same coding workflow scales to more complex, multi-step projects. Bard can generate Colab cells that create a SQLite database, define a table named “people,” and populate it with random data fields including name, age, gender, and favorite ice cream flavor. It can then produce SQL queries to compute useful statistics—average age, counts by gender, and the most popular ice cream flavor. Bard can also translate those SQL queries into Python so the results can be computed and displayed within the notebook.
A notable part of the process is debugging. When the exported Colab code fails due to a missing import (a NameError around a random integer function), Bard can be prompted again to fix the code. The corrected notebook is then rerun after removing duplicate database creation logic, and the analysis outputs appear as expected—showing that the system can iterate toward working code rather than stopping at a first draft.
Bard also supports a “print the table” style request, formatting the full SQLite table as a pandas DataFrame. The walkthrough highlights that the interface often includes text boxes alongside code cells, which can help learners understand what the notebook is doing.
Beyond code generation, Bard can work with GitHub repositories: it can summarize what a repo does, connect it to related papers, and provide explanations of underlying concepts. An example uses a repository tied to “colT5 attention,” where Bard links the work to a paper and explains the motivation and approach—while also warning that hallucinations are possible and should be treated cautiously.
When asked to implement “flash attention” in PyTorch, Bard provides code but the implementation is flagged as incorrect, apparently mixing ideas from a different paper. Still, the overall pattern is clear: Bard can generate starting points, cite sources when available, and help users explore topics like transformers attention mechanisms and even define terms such as LangChain.
Access is rolling out, with Google working to serve the model in more countries and gradually expand availability. For users who already have access, the practical takeaway is immediate: prompts can now become runnable Python notebooks in Colab, with iterative fixes and repository/paper explanations layered on top.
Cornell Notes
Bard now generates Python code and can export it straight into Google Colab, saving the notebook to Google Drive. The workflow is demonstrated with a prime-checking function, then expanded to a multi-cell Colab that builds a SQLite database, fills it with random “people” records, runs SQL queries, and converts those queries into Python for analysis. The process includes debugging: when the exported code fails due to a missing import, Bard is prompted to correct the error and the notebook is rerun after removing duplicate setup. Bard can also print the full table as a pandas DataFrame and summarize GitHub repos and related papers, though code quality can vary and hallucinations remain a risk.
What changed for Bard that early users found missing, and why does it matter operationally?
How does the “export to Colab” workflow work in practice?
How can Bard build and analyze a SQLite database inside Colab?
What happens when the exported code errors, and how is the fix handled?
What limits or risks appear when using Bard for research and code from papers?
What other capabilities show up beyond code generation?
Review Questions
- When exporting Bard-generated code to Colab, what steps ensure the notebook runs correctly after changes or fixes?
- Describe the end-to-end flow for generating a SQLite database in Colab and producing analysis results from it.
- What evidence in the walkthrough suggests that Bard’s code implementations from research papers can be unreliable?
Key Points
- 1
Bard can now generate Python code and export it directly into Google Colab, with the notebook saved to Google Drive.
- 2
The update closes a key early limitation where public Bard couldn’t produce code, while internal versions already supported it.
- 3
Bard can generate multi-cell Colab notebooks that create and populate a SQLite database, then run SQL and convert queries into Python for analysis.
- 4
Iterative debugging is part of the workflow: Bard can correct missing imports and other errors after a failed run.
- 5
Bard can format and display database contents as a pandas DataFrame, supporting learning and exploration.
- 6
Repository and paper assistance is available via GitHub repo explanations and paper summaries, often with sources—but hallucinations and incorrect implementations remain risks.
- 7
Access is rolling out gradually, with expansion tied to Google’s ability to serve models in more regions and countries.