Dataset Viewer
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10 : 1 = 100 : 10
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train
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math_division10
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10 : 1 = 30 : 3
|
train
|
math_division10
|
10 : 1 = 40 : 4
|
train
|
math_division10
|
10 : 1 = 60 : 6
|
train
|
math_division10
|
10 : 1 = 70 : 7
|
train
|
math_division10
|
10 : 100 = 12 : 144
|
train
|
math_squares
|
10 : 100 = 14 : 196
|
train
|
math_squares
|
10 : 100 = 16 : 256
|
train
|
math_squares
|
10 : 100 = 18 : 324
|
train
|
math_squares
|
10 : 100 = 2 : 4
|
train
|
math_squares
|
10 : 100 = 22 : 484
|
train
|
math_squares
|
10 : 100 = 25 : 625
|
train
|
math_squares
|
10 : 100 = 8 : 64
|
train
|
math_squares
|
10 : 2 = 15 : 3
|
train
|
math_division5
|
10 : 2 = 20 : 4
|
train
|
math_division5
|
10 : 2 = 30 : 6
|
train
|
math_division5
|
10 : 2 = 35 : 7
|
train
|
math_division5
|
10 : 2 = 5 : 1
|
train
|
math_division5
|
10 : 2 = 50 : 10
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train
|
math_division5
|
10 : 2 = 55 : 11
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train
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math_division5
|
10 : 2 = 70 : 14
|
train
|
math_division5
|
10 : 2 = 85 : 17
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train
|
math_division5
|
10 : 20 = 100 : 200
|
train
|
math_double
|
10 : 20 = 12 : 24
|
train
|
math_double
|
10 : 20 = 14 : 28
|
train
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math_double
|
10 : 20 = 15 : 30
|
train
|
math_double
|
10 : 20 = 2 : 4
|
train
|
math_double
|
10 : 20 = 22 : 44
|
train
|
math_double
|
10 : 20 = 24 : 48
|
train
|
math_double
|
10 : 20 = 28 : 56
|
train
|
math_double
|
10 : 20 = 30 : 60
|
train
|
math_double
|
10 : 20 = 32 : 64
|
train
|
math_double
|
10 : 20 = 34 : 68
|
train
|
math_double
|
10 : 20 = 35 : 70
|
train
|
math_double
|
10 : 20 = 38 : 76
|
train
|
math_double
|
10 : 20 = 40 : 80
|
train
|
math_double
|
10 : 20 = 45 : 90
|
train
|
math_double
|
10 : 20 = 46 : 92
|
train
|
math_double
|
10 : 20 = 5 : 10
|
train
|
math_double
|
10 : 20 = 50 : 100
|
train
|
math_double
|
10 : 20 = 54 : 108
|
train
|
math_double
|
10 : 20 = 55 : 110
|
train
|
math_double
|
10 : 20 = 62 : 124
|
train
|
math_double
|
10 : 20 = 72 : 144
|
train
|
math_double
|
10 : 20 = 74 : 148
|
train
|
math_double
|
10 : 20 = 76 : 152
|
train
|
math_double
|
10 : 20 = 78 : 156
|
train
|
math_double
|
10 : 20 = 82 : 164
|
train
|
math_double
|
10 : 20 = 84 : 168
|
train
|
math_double
|
10 : 20 = 86 : 172
|
train
|
math_double
|
10 : 20 = 90 : 180
|
train
|
math_double
|
10 : 20 = 94 : 188
|
train
|
math_double
|
10 : 20 = 96 : 192
|
train
|
math_double
|
10 : 20 = 98 : 196
|
train
|
math_double
|
10 : 5 = 12 : 6
|
train
|
math_division2
|
10 : 5 = 14 : 7
|
train
|
math_division2
|
10 : 5 = 2 : 1
|
train
|
math_division2
|
10 : 5 = 20 : 10
|
train
|
math_division2
|
10 : 5 = 22 : 11
|
train
|
math_division2
|
10 : 5 = 28 : 14
|
train
|
math_division2
|
10 : 5 = 34 : 17
|
train
|
math_division2
|
10 : 5 = 42 : 21
|
train
|
math_division2
|
10 : 5 = 48 : 24
|
train
|
math_division2
|
10 : 5 = 54 : 27
|
train
|
math_division2
|
10 : 5 = 56 : 28
|
train
|
math_division2
|
10 : 5 = 6 : 3
|
train
|
math_division2
|
10 : 5 = 60 : 30
|
train
|
math_division2
|
10 : 5 = 62 : 31
|
train
|
math_division2
|
10 : 5 = 66 : 33
|
train
|
math_division2
|
10 : 5 = 68 : 34
|
train
|
math_division2
|
10 : 5 = 70 : 35
|
train
|
math_division2
|
10 : 5 = 74 : 37
|
train
|
math_division2
|
10 : 5 = 8 : 4
|
train
|
math_division2
|
10 : 5 = 84 : 42
|
train
|
math_division2
|
10 : 5 = 86 : 43
|
train
|
math_division2
|
10 : 5 = 88 : 44
|
train
|
math_division2
|
10 : 5 = 92 : 46
|
train
|
math_division2
|
10 : 5 = 94 : 47
|
train
|
math_division2
|
10 : 5 = 96 : 48
|
train
|
math_division2
|
100 : 10 = 10 : 1
|
train
|
math_division10
|
100 : 10 = 16 : 4
|
train
|
math_root
|
100 : 10 = 30 : 3
|
train
|
math_division10
|
100 : 10 = 36 : 6
|
train
|
math_root
|
100 : 10 = 40 : 4
|
train
|
math_division10
|
100 : 10 = 60 : 6
|
train
|
math_division10
|
100 : 10 = 70 : 7
|
train
|
math_division10
|
100 : 20 = 15 : 3
|
train
|
math_division5
|
100 : 20 = 20 : 4
|
train
|
math_division5
|
100 : 20 = 30 : 6
|
train
|
math_division5
|
100 : 20 = 35 : 7
|
train
|
math_division5
|
100 : 20 = 5 : 1
|
train
|
math_division5
|
100 : 20 = 50 : 10
|
train
|
math_division5
|
100 : 20 = 55 : 11
|
train
|
math_division5
|
100 : 20 = 70 : 14
|
train
|
math_division5
|
100 : 20 = 85 : 17
|
train
|
math_division5
|
100 : 200 = 12 : 24
|
train
|
math_double
|
100 : 200 = 14 : 28
|
train
|
math_double
|
100 : 200 = 15 : 30
|
train
|
math_double
|
100 : 200 = 2 : 4
|
train
|
math_double
|
100 : 200 = 22 : 44
|
train
|
math_double
|
End of preview. Expand
in Data Studio
Dataset Card for hyperdimensional probe
This repository contains the official datasets of "Hyperdimensional Probe: Decoding LLM Representations via Vector Symbolic Architectures".
- This work combines symbolic representations and neural probing to introduce Hyperdimensional Probe, a new paradigm for decoding LLM vector space into human-interpretable features, consistently extracting meaningful concepts across models and inputs.
Datasets
- Corpus of factual and linguistic analogies (input-completition tasks): saturnMars/hyperprobe-dataset-analogy
- SQuAD-based corpus (question-answering tasks): saturnMars/hyperprobe-dataset-squad
Dataset Details
Dataset Description
This repository includes our syntethic corpora for the training and experimental stages.
Information
- Curated by: Marco Bronzini
- Funded by: IpaziaAi
- Language(s) (NLP): English
- License: Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License (CC BY-NC-SA 4.0).
Dataset Sources
- Repository: github.com/Ipazia-AI/hyperprobe
- Paper: Hyperdimensional Probe: Decoding LLM Representations via Vector Symbolic Architectures
Examples
Train data
[
" 10 : 1 = 60 : 6",
" 10 : 100 = 12 : 144",
" plato : kepler = philosopher : mathematician",
" significant : successful = significantly : successfully",
" important : importantly = subsequent : subsequently"],
" 10 : 100 = 28 : 784",
" coyote : canine = cat : feline",
" coyote : canine = cow : bovid",
" sold : oversold = played : overplayed",
" sold : oversold = populated : overpopulated"],
" 10 : 1 = 80 : 8",
" rarely : quietly = rare : quiet",
" rarely : rare = calmly : calm",
" rarely : rare = critically : critical",
" youngest : young = sweetest : sweet"]
]
Test data
{
"capital_world": [
" Athens is to Greece as Baghdad is to Iraq",
" Athens is to Greece as Bangkok is to Thailand"],
"currency": [
" Algeria is to dinar as Angola is to kwanza",
" Algeria is to dinar as Brazil is to real"],
"family": [
" boy is to girl as brother is to sister",
" boy is to girl as dad is to mom"],
"comparative": [
" bad is to worse as big is to bigger",
" bad is to worse as bright is to brighter"],
"verb_Ving_3pSg": [
" adding is to adds as advertising is to advertises",
" adding is to adds as appearing is to appears"],
"male_female": [
" actor is to actress as batman is to batwoman",
" actor is to actress as boy is to girl"]
}
Source Data
This corpora were generated using two knowledge bases:
Google Analogy Test Set is distributed by TensorFlow under the Apache License 2.0, whereas BATS is released under the CC-BY-NC 4.0 License.
- See the
GitHub repository
to reconstruct the corpora from the these two knowledge bases.
Citation
If you use any of these datasets in your research, please cite the following work:
@misc{bronzini2025hyperdimensional,
title={Hyperdimensional Probe: Decoding LLM Representations via Vector Symbolic Architectures},
author={Marco Bronzini and Carlo Nicolini and Bruno Lepri and Jacopo Staiano and Andrea Passerini},
year={2025},
eprint={2509.25045},
archivePrefix={arXiv},
primaryClass={cs.CL}
}
APA: Bronzini, M., Nicolini, C., Lepri, B., Staiano, J., & Passerini, A. (2025). Hyperdimensional Probe: Decoding LLM Representations via Vector Symbolic Architectures.
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