Meaningful Learning: Enhancing Abstract Reasoning in Large Language Models via Generic Fact Guidance

Large language models (LLMs) have developed impressive performance and strong explainability across various reasoning scenarios, marking a significant stride towards mimicking human-like intelligence. Despite this, when tasked with several simple questions supported by a generic fact, LLMs often struggle to abstract and apply the generic fact to provide consistent and precise answers, revealing a deficiency in abstract reasoning abilities. This has sparked a vigorous debate about whether LLMs are genuinely reasoning or merely memorizing. In light of this, we design a preliminary study to quantify and delve into the abstract reasoning abilities of existing LLMs. Our findings reveal a substantial discrepancy between their general reasoning and abstract reasoning performances. To relieve this problem, we tailor an abstract reasoning dataset (AbsR) together with a meaningful learning paradigm to teach LLMs how to leverage generic facts for reasoning purposes. The results show that our approach not only boosts the general reasoning performance of LLMs but also makes considerable strides towards their capacity for abstract reasoning, moving beyond simple memorization or imitation to a more nuanced understanding and application of generic facts. The code is available at https://github.com/Waste-Wood/MeanLearn.

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Peer review

Reviewer Fwhs6/10 · confidence 4/52024-07-08

Summary

The study introduced a specialized dataset and learning approach that aimed to enhance LLMs' use of generic facts in reasoning. The results indicate that this methodology not only improved their general reasoning skills but also significantly developed their abstract reasoning abilities, suggesting a shift from mere memorization to a deeper, more nuanced understanding and application of information. The paper is well composed and demonstrates good, consistent performance across several benchmarks.

Strengths

- the concept of AbsAcc is interesting and natural, as demonstrated by the experiments in Table 1, where the small difference between vanilla accuracy and AbsAcc for human subjects highlights that vanilla accuracy alone may not be an adequate metric for assessing abstract reasoning. - the paper is well-composed and straightforward to comprehend.

Weaknesses

- the experiments currently focus on earlier versions of LLMs, including LLaMA-2 and GPT-3.5-turbo-0125. It is advisable to also include more recent models like LLaMA-3 and GPT-4/4o to ensure the consistency of the performance evaluations. - some of the terminology used appears complex; for instance, in the memory learning section, the distinction between Knowledge and Reasoning examples (K-example and R-example) seems minimal. In the K-example, when a user poses a question, a supporting fact is cited while the R-example not. Additionally, I'm confused by the definition of abstract reasoning. It looks akin to tasks in commonsenseQA (https://aclanthology.org/N19-1421.pdf). The authors might need to elucidate the differences between their approach and that body of research.

Questions

- see the questions in weakness section

Rating

6

Confidence

4

Soundness

3

Presentation

4

Contribution

3

Limitations

- some of the terms mentioned in the paper maybe a little bit fancy and overestimated, please refer to the weakness section.

Reviewer zthW3/10 · confidence 5/52024-07-12

Summary

This paper explores the abstract reasoning abilities of LLMs by creating a specific evaluation metric and a dataset called AbsR, developed using GPT-4. It presents a method, Meaningful Learning (MeanLearn), to improves both general and abstract reasoning accuracies of LLMs by teaching them to apply generic facts in varied scenarios.

Strengths

- Proposing a dataset to study the potential of LLMs in abstract reasoning. - Proposing MeanLearn to improve the abstract reasoning capabilities of LLMs by teaching them to use generic facts for reasoning.

Weaknesses

- The paper is rushed, and not well organized. For instance, Some experimental results are presented in section 2, and others appear later in section 5 and after. - The methodology section is half a page. More details on the model is needed. For instance, in Eq. 3, how the first and second equations will be utilized in the model. - Incomplete related work section, specifically, insufficient related work on Abstract Reasoning. - Some experimental results are in section 2: Abstract reasoning study, some later in section 5: Experiments. In section 2, the paper jumps into some results and experiments too early and without proper background. - Experiments are limited. For example, it is unclear how the methods compare to [1] - [1] Xu, Yudong, et al. "LLMs and the Abstraction and Reasoning Corpus: Successes, Failures, and the Importance of Object-based Representations." Transactions on Machine Learning Research.

Questions

- How the methods introduced in the paper can be compare to [1]? - The paper states that "Our findings reveal a substantial discrepancy between their general reasoning and abstract reasoning performances". However, based on [2], LLMs "know" more than they can "say". Please justify how your statement remains valid. - Considering that MeanLearn does not have many advantages over LLaMA-3, how do you justified the use of MeanLearn? - [1] Xu, Yudong, et al. "LLMs and the Abstraction and Reasoning Corpus: Successes, Failures, and the Importance of Object-based Representations." Transactions on Machine Learning Research. - [2] Li, Kenneth, et al. "Inference-time intervention: Eliciting truthful answers from a language model." Advances in Neural Information Processing Systems 36 (2024).

Rating

3

Confidence

5

Soundness

2

Presentation

1

Contribution

2

Limitations

- Lack of sufficient experiments. - Limited related work, and background sections. - A thorough writing revision would be beneficial.

Authorsrebuttal2024-08-13

Replying to Official Comment by Reviewer zthW

Thanks for your reply. We want to clarify the critical misunderstandings in your response: ## 1. Q6 (the author should conduct experiments on LLaMA-3-13B) in the response **We do not incorporate LLaMA-3-13B because there is NO 13B version of LLaMA-3.** (refer to https://huggingface.co/collections/meta-llama/meta-llama-3-66214712577ca38149ebb2b6) The second smallest LLaMA-3 is 70B. We indeed do not have the resources for training and inference. By the way, our MeanLearn method is effective on LLaMA-2-7B, LLaMA-2-13B, LLaMA-3-8B, Orca-2-7B, Orca-2-13B, and Mistral-7B (as mentioned in response to Reviewer XVL7, and you can refer to the table below). | Method | AbsR | Comm. | MMLU | RACE | *     Average* | | ---------------------- | :---: | :---: | :---: | :---: | :---------------: | | ***Vanilla Accuracy*** | | | | | | | Mistral-7B-Instruct | 83.00 | 66.53 | 57.02 | 75.33 | 70.47 | | MeanLearn (Ours) | 84.50 | 74.56 | 58.28 | 76.65 | **73.50 (+3.03)** | | ***AbsAcc*** | | | | | | | Mistral-7B-Instruct | 72.92 | 58.87 | 40.19 | 52.69 | 56.17 | | MeanLearn (Ours) | 73.96 | 68.59 | 41.14 | 55.77 | **59.87 (+3.60)** | About the performance on LLaMA-3-8B, we have offered some clarification in the rebuttal period, which is summarized as follows: * We have improvements on LLAMA-3-8B; * LLaMA-3 may need more data compared to other base models. The reason is that LLaMA-3 breaks conventional data scaling laws [1] by achieving a token-to-parameter (T/P) ratio of 1875:1, far surpassing the 286:1 ratio of LLaMA-2. This results in dense knowledge in the parametric memory of LLaMA-3. However, to ensure fair comparisons across different LLMs, we trained MeanLearn using LLaMA-3 with the same dataset size as the other LLMs. * Although incorporating more data to train LLaMA-3 is unfair for the comparisons with other LLMs, we are interested in adopting more data to train LLaMA-3 in the future. Due to time limits and computational cost, we do not provide it in the rebuttal. ## 2. Q5 in the response * For your referred paper[2], we do not incorporate it for comparison because: (1) it is a paper of abstraction AND reasoning on **Visual Inputs** and (2) it is an **empirical study** without proposing new methods or datasets. While we focus on abstracting reasoning on **Natural Language**. * For the baseline proposed by Reviewer vYe8, we do not incorporate tree-of-thought (tot) for comparison because: tot focuses on the **decoding stage**, while we focus on the **post-training stage** to enhance the fundamental capabilities, they are **complementary**. We adhere to conventional standards by selecting baselines of similar types and scales to ensure a fair evaluation. * Both Reviewers XVL7 and Fwhs think the soundness of our work is good. [1] Pearce and Song, 2024. Reconciling Kaplan and Chinchilla Scaling Laws [2] Xu, Yudong, et al. "LLMs and the Abstraction and Reasoning Corpus: Successes, Failures, and the Importance of Object-based Representations." Transactions on Machine Learning Research.

Reviewer vYe85/10 · confidence 3/52024-07-13

Summary

This paper introduces a novel framework aimed at enhancing the abstract reasoning capabilities of large language models (LLMs) through a method called "Meaningful Learning." It specifically targets the challenge LLMs face in abstract reasoning despite their robust general reasoning abilities. The authors identify a notable gap in performance between general and abstract reasoning tasks and propose a structured approach to narrow this gap by using AbsR, a tailored dataset that includes generic facts coupled with guided explanations to foster deeper learning and understanding. Key contributions include: 1. Introduction of the Meaningful Learning framework for improving abstract reasoning in LLMs. 2. Development of the AbsR dataset for training. 3. New metrics and Empirical evaluation across different settings

Strengths

1. Novel approach to improving abstract reasoning in LLMs through generic fact guidance. 2. Comprehensive evaluation across multiple settings demonstrating reasonable performance improvements.

Weaknesses

1. Limited scale: The experiments are conducted on relatively small models (7B-13B parameters) compared to state-of-the-art LLMs. Without such it's hard to judge such method's applicability in real world and more complex tasks as mentioned in 5.1. 2. Human evaluation scale: The human evaluation of the AbsR dataset is conducted on a relatively small sample (200 instances) (Appendix E). 3. Lack of comparison to more recent reasoning techniques: The paper doesn't compare MeanLearn to recent advances in LLM reasoning capabilities. 4. Weaknesses in Evaluation Metrics: It's not convincing that Perplexity-based evaluation for classification tasks is good and the use of AbsAcc needs more clarification.

Questions

1. How did you determine that perplexity-based evaluation was the best approach for classification tasks, given its limitations mentioned in Appendix A? Were other methods considered? 2. Have you considered comparing MeanLearn to more recent reasoning techniques, such as tree-of-thoughts or other advanced prompting methods 3. The paper mentions that "MeanLearn can make LLMs implicitly learn generic facts and solve problems under the guidance of generic facts" (Section 4). Can you provide more concrete examples or analysis of how this implicit learning occurs? 4. How do you envision MeanLearn scaling to larger models (100B+ parameters), and what challenges or benefits do you anticipate in applying this method to more advanced LLMs? 5. how do you ensure that the AbsAcc metric is truly capturing abstract reasoning abilities rather than other factors like memorization or pattern matching?

Rating

5

Confidence

3

Soundness

2

Presentation

3

Contribution

2

Limitations

Yes

Authorsrebuttal2024-08-12

Follow-up Rebuttal

### Dear Reviewer vYe8: We appreciate your thoughtful review. As the rebuttal deadline approaches, we kindly ask if our responses have sufficiently addressed your concerns. If you require further clarification, we are prepared to provide additional information. Sincerely, Authors

Reviewer vYe82024-08-13

Thanks for the clarification. I have looked through all the reviews and am less concerned about the evaluation; Yet I think there is still a lack of comparison with existing post-training methods which should have been detailed in the related work section, I will keep my rating neutrally positve for this paper.

Authorsrebuttal2024-08-13

Thanks for your response, we are glad to have addressed your concerns in your preliminary review, and we want to kindly remind that: Actually, **in Table 5 of our paper, we have provided the post-training baselines** (Vicuna [1], WizardLM [2], Orca-2 [3]) , and you can refer to the table below (the average performance on 7B models), **we have varying advantages over these methods on both vanilla accuracy and AbsAcc**. | Method | *Average* | |------------------|:-------:| | ***Vanilla Accuracy*** | | | Vicuna | 56.48 | | WizardLM | 31.28 | | Orca-2 | 61.84 | | MeanLearn (Ours) | **65.28** | | ***AbsAcc*** | | | Vicuna | 39.84 | | WizardLM | 20.42 | | Orca-2 | 48.86 | | MeanLearn (Ours) | **53.39** | If you have any further concerns, feel free to leave comments. [1] https://lmsys.org/blog/2023-03-30-vicuna/ [2] WizardLM: Empowering Large Language Models to Follow Complex Instructions [3] Orca 2: Teaching Small Language Models How to Reason

Reviewer XVL76/10 · confidence 3/52024-07-14

Summary

This paper addresses the challenge that LLMs face in abstract reasoning, where they often struggle to apply general facts to new situations despite their impressive performance in other reasoning tasks. To tackle this issue, the authors introduce an abstract reasoning dataset called AbsR, which incorporates generic facts and guided explanations to teach LLMs how to leverage such facts for reasoning. They also propose a learning paradigm named Meaningful Learning (MeanLearn) that simulates the human process of implicit knowledge acquisition, enabling LLMs to implicitly learn and apply generic facts without explicit input. Through experiments on various out-of-distribution reasoning and language understanding benchmarks, the paper demonstrates that MeanLearn improves the general and abstract reasoning capabilities of LLMs, moving beyond simple memorization towards a more nuanced understanding and application of knowledge.

Strengths

1. Useful Resource: This paper introduces an abstract reasoning dataset (AbsR) that provides generic facts and guided explanations for reasoning tasks. The dataset and code will be publicly available, facilitating reproducibility and further community research. 2. Empirical Evidence: Comprehensive experimental results and ablation studies that validate the effectiveness of the proposed method. Improvements are observed in both general and abstract reasoning performance of LLMs across various benchmarks. 3. Broad Applicability: The approach's effectiveness is shown on multiple LLMs of varying sizes, indicating broad applicability.

Weaknesses

1. Evaluation on Advanced LLMs: The observation that the benefits of MeanLearn seem to diminish with better-trained LLMs, like LLaMA3, raises a crucial question about its broader applicability. While the method shows promise with smaller models, it's essential to assess its performance on more powerful LLMs like Mistral, Phi3, and Qwen 2. This would provide a clearer picture of its potential contribution in the context of rapidly advancing language models. 2. Data Augmentation and Training Dynamics: The use of GPT4 for constructing the AbsR dataset, with annotation quality comparable to human annotators, opens up interesting possibilities for data augmentation. Exploring the impact of increasing the training data size, potentially using more cost-effective models like GPT4o or open-source LLMs, could reveal the potential for further performance gains. Additionally, analyzing the training dynamics of MeanLearn by varying the proportion of training data (e.g., 20%, 50%, 80%) would provide valuable insights into its saturation point and the diminishing returns of additional data. 3. Expanding Reasoning Benchmarks: The paper's focus on commonsense reasoning benchmarks (Com. and ARC) should be complemented by evaluation on other reasoning domains, such as arithmetic reasoning. Including benchmarks like GSM8K or MATH would provide a more comprehensive understanding of MeanLearn's capabilities across different reasoning tasks. 4. Presentation Clarity and Improvements: The paper's presentation could benefit from several improvements. The introduction should explicitly connect abstract reasoning with other types of reasoning, providing a broader context for the research. The pilot investigation in the introduction is quite confusing as it does not introduce the datasets, metrics, and setup used. Confusing figures, like Figure 2, should be explained in detail to ensure clarity and understanding. 5. Updated Related Work: The related work section should be updated to include recent efforts in tuning-based methods, ensuring a comprehensive overview of the current landscape in abstract reasoning research.

Questions

See above,

Rating

6

Confidence

3

Soundness

3

Presentation

2

Contribution

2

Limitations

The authors adequately addressed the limitations.

Reviewer XVL72024-08-09

Thanks for the clarification. I would like to mention that MATH also has a fine-grained classification for analysis. I will keep my rating positive for this paper.

Reviewer XVL72024-08-09

Thanks for your response. The experimental results addressed some of my concerns. I am willing to increase my rating for this paper, but I would like to ask one more question. Why do you use MMLU to test the mathematical reasoning abilities instead of GSM8K and MATH?

Authorsrebuttal2024-08-09

Replying to Comment by Reviewer

Thanks for your comment. We are glad to have addressed some of your concerns. We choose the mathematical reasoning tasks in MMLU for experiments mainly due to: * MMLU has a more fine-grained classification of the tasks, such as algebra and statistics. By using this, we can obtain a more comprehensive evaluation of the methods; * Previous researches [1][2] utilize this subset to evaluate the mathematical capabilities of LLMs; * We have already conducted experiments on MMLU in our submission, due to time limitations, we can quickly obtain the mathematical reasoning results from previous experiments. We hope this answers your question. Moreover, we are interested in incorporating more datasets like MATH and GSM8K for further investigation, and this is what we are doing in our new work. If you have any further questions or concerns, feel free to leave comments. [1] Want et al., 2024. Mmlu-pro: A more robust and challenging multi-task language understanding benchmark [2] Luo et al., 2023. Wizardmath: Empowering mathematical reasoning for large language models via reinforced evol-instruct

Authorsrebuttal2024-08-12

Follow-up Rebuttal

### Dear Reviewer zthW: We appreciate your efforts in the review process. As the rebuttal deadline approaches, we kindly ask if our responses have sufficiently addressed your concerns. If you require further clarification, we are prepared to provide additional information. Sincerely, Authors

Reviewer zthW2024-08-13

Q6. The authors have not responded to my concern clearly. The effectiveness of MeanLearn compared to the Llama-3 8B model is unclear. While the authors mention the computational cost of Llama compared to other LLMs, they have not justified how MeanLearn's performance compares to Llama-3. Additionally, the lack of evaluation against Llama-3 13B raises concerns about how MeanLearn is effective on larger Llama-3 13B model (While some other 13B models have been tested). Q5. The authors argument about not including other baseline is not convincing (as other reviewers have noted that). Thus, the contribution and the benefits of the work is not clear. Thanks to the authors for their responses, I decided to keep my score.

Authorsrebuttal2024-08-12

Follow-up Rebuttal

### Dear Reviewer Fwhs: We appreciate your thoughtful review. As the rebuttal deadline approaches, we kindly ask if our responses have sufficiently addressed your concerns. If you require further clarification, we are prepared to provide additional information. Sincerely, Authors

Reviewer Fwhs2024-08-12

Thanks for the clarification. I have looked through all the reviews and rebuttals and I will keep my rating positive for this paper.

Program Chairsdecision2024-09-25

Decision

Accept (poster)

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