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12 New Code Interpreter Uses (Image to 3D, Book Scans, Multiple Datasets, Error Analysis ... ) thumbnail

12 New Code Interpreter Uses (Image to 3D, Book Scans, Multiple Datasets, Error Analysis ... )

AI Explained·
5 min read

Based on AI Explained's video on YouTube. If you like this content, support the original creators by watching, liking and subscribing to their content.

TL;DR

Code Interpreter can generate structured outputs from uploaded inputs across modalities, including 3D plots from image RGB analysis and downloadable files from messy tables.

Briefing

Code Interpreter’s biggest practical payoff is turning messy inputs—images, long documents, spreadsheets, and multiple datasets—into structured outputs (3D plots, extracted quotes, anomaly flags, downloadable files, even PowerPoint-ready visuals) while still admitting when evidence is weak. The most striking demonstrations pair “creative” transformations with reliability stress tests: it can analyze Anna Karenina at ~340,000 words, but it can also fabricate quotes when the file isn’t actually provided.

A first example shows an image-to-3D workflow inside ChatGPT: after uploading an image, the system analyzes pixel RGB values and generates a 3D surface map. The result isn’t perfect immediately, but iterative adjustments eventually produce a usable plot, including reflective details that hint at how the model is interpreting the scene.

The documentary-style power shows up next with Anna Karenina. The workflow uploads a Word document (~340,000 words), then asks for all mentions of England and an analysis of the tone toward the country. It returns seven legitimate quotes and attaches sentiment/tone analysis to each passage—something that’s far beyond Ctrl+F searching because it requires passage-level interpretation. The reliability lesson arrives when the same request is made in a separate window without uploading the text: the system still produces “quotes,” but later checks reveal those quotes are made up. The takeaway is blunt: factual extraction depends on having the underlying data available; otherwise, hallucinations can look convincing.

From there, the transcript shifts into data analytics and error detection. With four uploaded datasets (sugar consumption, murder rate, inequality index, and population aged 20–39), it keeps track across multiple files and generates “surprising correlations,” explicitly distinguishing correlation from causation. One example finds a moderate positive correlation (~0.4) between murder rates and the Gini inequality index, then offers a plausible social-science explanation for why inequality might relate to violence.

For anomaly hunting, the system is tested on a large population-density CSV/Excel file. By changing just two values among roughly 36,000 data points (Isle of Man in 1975 and Liechtenstein in another year), it successfully flags those entries as implausible year-to-year percent changes—especially when prompted with a specific instruction to look for suspicious percent changes rather than vague “anything strange.” It also notes alternative explanations (migration, territorial changes), showing how it can generate hypotheses alongside detected outliers.

Creative and operational outputs keep stacking up: it can generate ASCII art from images, overlay a sonnet onto a dystopian scene using edge detection, and extract structured polling data from “unclean” RealClearPolitics formatting into a new downloadable file with candidate averages and trend analysis. It even produces PowerPoint slides directly from code-interpreter-generated visuals.

Finally, the transcript compares math performance with Wolfram on differential equations and reports that both can be correct, though code interpreter is described as more consistently accurate on a harder differential-equation prompt where Wolfram returns an incorrect value. The overall message is practical: Code Interpreter can be a powerful analyst and transformer across modalities, but accuracy hinges on data grounding, prompt specificity, and verification when stakes are high.

Cornell Notes

Code Interpreter can transform uploaded images, long documents, and spreadsheets into structured outputs—3D surface plots from RGB pixel analysis, quote extraction with tone/sentiment scoring from a ~340,000-word Anna Karenina document, anomaly detection in large CSV/Excel files, and downloadable/slide-ready results. A key reliability finding is that factual quote extraction works when the source text is provided, but the same “quotes” can be fabricated when the file isn’t uploaded. In multi-dataset analysis, it can surface correlations (including a reported ~0.4 link between murder rate and the Gini inequality index) while distinguishing correlation from causation and offering plausible explanations. Prompt specificity matters: asking for “implausible percent changes” helps it catch targeted errors among ~36,000 data points.

Why did the Anna Karenina quote task succeed in one case and fail in another?

When the Anna Karenina text was uploaded as a Word document, the system located seven legitimate passages mentioning England and then analyzed tone/sentiment for each excerpt. When the same request was made without uploading the document, it still produced quotes, but later verification found those quotes were fabricated—an example of hallucination when the model lacks the underlying evidence.

What makes the 3D surface plot example work, and what limitation showed up?

The system analyzes the uploaded image’s pixel RGB values and outputs a 3D surface map of color intensity/structure. The transcript notes the first attempt wasn’t perfect (initially it wasn’t downloadable and the output wasn’t big enough), but iterative adjustments eventually produced a working result through the ChatGPT interface.

How did the multi-dataset correlation test handle “correlation vs causation”?

With four uploaded datasets (sugar consumption, murder rate per 100,000, Gini inequality index, and population aged 20–39), it produced “surprising correlations” and explicitly separated correlation from causation. It reported a weak negative correlation between sugar consumption and murder rate, then a moderate positive correlation (~0.4) between murder rate and the Gini inequality index, followed by a plausible social-science explanation for why inequality might relate to violence.

What prompt detail improved anomaly detection in the population-density file?

A vague instruction like “find anything that looks strange” led to shallow issues such as empty cells. Adding a targeted hint—“look out for anomalies” and specifically “implausible percent changes”—made it flag the two altered entries (Isle of Man in 1975 and Liechtenstein in another year) among about 36,000 data points.

How did the transcript test whether Code Interpreter can handle unclean real-world data?

It pasted polling data from RealClearPolitics with messy formatting (dates, missing data, colored cells). The system extracted the 2024 Republican Presidential nomination data, sorted it, computed averages per candidate, and produced a new downloadable file. It then extended the approach using additional context from a Politico article to perform trend analysis and more nuanced interpretation.

What operational outputs beyond analysis were demonstrated?

Beyond charts and text, it generated ASCII art from images, overlaid a sonnet onto an image using edge detection, produced downloadable files from extracted/processed data, and output PowerPoint slides directly using visualizations and analysis generated by code interpreter.

Review Questions

  1. In what scenario did the system fabricate quotes, and what verification step exposed the problem?
  2. Which specific prompt phrasing helped anomaly detection outperform a more general “find anomalies” request?
  3. What correlation value was reported between murder rate and inequality, and how did the system treat causation in its explanation?

Key Points

  1. 1

    Code Interpreter can generate structured outputs from uploaded inputs across modalities, including 3D plots from image RGB analysis and downloadable files from messy tables.

  2. 2

    Factual extraction depends on data grounding: quote-finding worked with the Anna Karenina document uploaded, but fabricated quotes appeared when the text wasn’t provided.

  3. 3

    Multi-file workflows can support correlation discovery across several datasets, with outputs that distinguish correlation from causation and include plausible mechanisms.

  4. 4

    Anomaly detection improves sharply when prompts specify the anomaly type—e.g., “implausible percent changes”—rather than asking broadly for “anything strange.”

  5. 5

    Even when results look convincing, verification matters; the transcript demonstrates hallucination risk through a quote-checking exercise.

  6. 6

    Code Interpreter can produce operational deliverables like PowerPoint slides and can assist with creative transformations (ASCII art, sonnet overlays) alongside analytics.

  7. 7

    Reported math comparisons suggest Code Interpreter can match or outperform Wolfram on certain differential-equation prompts, though step-by-step solution access may differ.

Highlights

Uploading Anna Karenina enabled legitimate quote extraction and tone analysis; repeating the request without uploading the text produced fabricated quotes.
Targeted anomaly prompts (“implausible percent changes”) let the system flag 2 altered values among ~36,000 population-density data points.
A reported moderate positive correlation (~0.4) linked murder rates to the Gini inequality index, paired with a plausible social-science explanation rather than a causal claim.
Code Interpreter can output PowerPoint slides directly from its generated visuals and analysis.
A differential-equation test described code interpreter as more consistently correct than Wolfram on a challenging prompt.

Topics

  • Code Interpreter Uses
  • Image to 3D
  • Document Quote Extraction
  • Anomaly Detection
  • Multi-Dataset Correlations