Large language models (LLMs) excel at mimicking human language but lack true understanding of the world. The post "Your AI Can't See Gorillas" illustrates this through the "gorilla problem": LLMs fail to identify a gorilla subtly inserted into an image captioning task, demonstrating their reliance on statistical correlations in training data rather than genuine comprehension. This highlights the danger of over-relying on LLMs for tasks requiring real-world understanding, emphasizing the need for more robust evaluation methods beyond benchmarks focused solely on text generation fluency. The example underscores that while impressive, current LLMs are far from achieving genuine intelligence.
ErisForge is a Python library designed to generate adversarial examples aimed at disrupting the performance of large language models (LLMs). It employs various techniques, including prompt injection, jailbreaking, and data poisoning, to create text that causes LLMs to produce unexpected, inaccurate, or undesirable outputs. The goal is to provide tools for security researchers and developers to test the robustness and identify vulnerabilities in LLMs, thereby contributing to the development of more secure and reliable language models.
HN commenters generally expressed skepticism and amusement towards ErisForge. Several pointed out that "abliterating" LLMs is hyperbole, as the library simply generates adversarial prompts. Some questioned the practical implications and long-term effectiveness of such a tool, anticipating that LLM providers would adapt. Others jokingly suggested more dramatic or absurd methods of "abliteration." A few expressed interest in the project, primarily for research or educational purposes, focusing on understanding LLM vulnerabilities. There's also a thread discussing the ethics of such tools and the broader implications of adversarial attacks on AI models.
Summary of Comments ( 119 )
https://news.ycombinator.com/item?id=42950976
Hacker News users discussed the limitations of LLMs in visual reasoning, specifically referencing the "gorilla" example where models fail to identify a prominent gorilla in an image while focusing on other details. Several commenters pointed out that the issue isn't necessarily "seeing," but rather attention and interpretation. LLMs process information sequentially and lack the holistic view humans have, thus missing the gorilla because their attention is drawn elsewhere. The discussion also touched upon the difference between human and machine perception, and how current LLMs are fundamentally different from biological visual systems. Some expressed skepticism about the author's proposed solutions, suggesting they might be overcomplicated compared to simply prompting the model to look for a gorilla. Others discussed the broader implications of these limitations for safety-critical applications of AI. The lack of common sense reasoning and inability to perform simple sanity checks were highlighted as significant hurdles.
The Hacker News post "Your AI Can't See Gorillas" (linking to an article about LLMs and Exploratory Data Analysis) has several comments discussing the limitations of LLMs, particularly in tasks requiring visual or spatial reasoning.
Several commenters point out that the "gorilla" problem isn't specific to AI, but a broader issue of attention and perception. Humans, too, can miss obvious details when their focus is elsewhere, referencing the famous "invisible gorilla" experiment. This suggests the issue is less about the type of intelligence (artificial or biological) and more about the nature of attention itself.
One commenter suggests the article title is misleading, arguing that the problem lies not in the LLM's inability to "see," but its lack of training on tasks requiring visual analysis and object recognition. They argue that specialized models, like those trained on image data, can "see" gorillas.
Another commenter highlights the importance of incorporating diverse data sources and modalities into LLMs, moving beyond text to encompass images, videos, and other sensory inputs. This would allow the models to develop a more comprehensive understanding of the world and perform tasks requiring visual or spatial reasoning, like identifying a gorilla in an image.
The discussion also touches upon the challenges of evaluating LLM performance. One commenter emphasizes that standard metrics may not capture the nuances of complex real-world tasks, and suggests focusing on specific capabilities rather than general intelligence.
Some commenters delve into the technical aspects of LLMs, discussing the role of attention mechanisms and the potential for future development. They suggest that incorporating external tools and APIs could augment LLM capabilities, enabling them to access and process visual information.
A few comments express skepticism about the article's premise, arguing that LLMs are simply tools and should not be expected to possess human-like perception or intelligence. They emphasize the importance of understanding the limitations of these models and using them appropriately.
Finally, there's a brief discussion about the practical implications of these limitations, particularly in fields like data analysis and scientific discovery. Commenters suggest that LLMs can still be valuable tools, but human oversight and critical thinking remain essential.