MMTEB: Massive Multilingual Text Embedding Benchmark
Paper • 2502.13595 • Published • 49
text stringlengths 1.55k 332k | label int64 0 8 |
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turning now to the drawings , there is shown in fig1 an integrated circuit continuity testing system in which a specimen or circuit configuration 16 is mounted on a fixture 18 operable to vibrate the specimen under controlled conditions , e . g . sinusoidally , randomly , or a combination of the two . the specific stru... | 6 |
deployment mechanisms that are configured for use with multi - functional surgical instruments that are operable in bipolar and / or monopolar modes of operation may prove useful in the surgical arena , and such deployment mechanisms are described herein . specifically , the deployment mechanisms described herein inclu... | 0 |
now , first and second embodiments of the present invention will be described below with reference to the accompanying drawings . in the following description of the drawings in the first and second embodiment , identical or similar constituents are designated by identical or similar reference numerals . fig1 is a view... | 7 |
as used herein , “ administration ” of a composition includes any route of administration , including oral subcutaneous , intraperitoneal , and intramuscular . as used herein , “ an effective amount ” is an amount sufficient to reduce one or more symptoms associated with a stroke . as used herein , “ protein kinase c a... | 0 |
in accordance with the figures , the mixing device is comprised of a sheath ( 4 ) which surrounds the injection tube ( 1 ), said sheath being connected to a decompressor ( 2 ) and ending in a helical tube ( 3 ) coupled to the decompressor ( 2 ), said helical tube being the only fluid outlet . attached to the injection ... | 8 |
silicon - type charge transporting compounds according to our invention have an ionization potential of 4 . 5 - 6 . 2 ev . when the ionization potential is less than 4 . 5 ev , the silicon - type charge transporting material is easily oxidized and deteriorated making it undesirable . when the ionization potential excee... | 2 |
referring now to the drawings wherein like reference numerals designate corresponding or similar elements throughout the several views , there is shown generally in fig1 a diagrammatic view of the optical configuration for a radiation scanning system 10 for scanning and imaging an object field 11 . the scanning system ... | 7 |
with reference to fig1 , a height adjustable work seat 100 suitable for use by an automotive mechanic or other professional is shown . the height adjustable work seat has two major positions of operation , namely a full or maximum height and a very low or minimum height . at intermediate positions of operation , the he... | 0 |
a probe 10 for use underwater to measure true acoustic intensity is shown generally in fig1 and 2 . the outer casing of probe 10 is preferably made neutrally buoyant , such that wave vibrations affect the probe casing 14 just as they would affect the water which probe 10 displaces . probe casing 14 may include a syntac... | 6 |
"fig1 is a cross - sectional view illustrating a method for fabricating a mos transistor according t(...TRUNCATED) | 7 |
Classification Dataset of Patents and Abstract
| Task category | t2c |
| Domains | Legal, Written |
| Reference | https://aclanthology.org/P19-1212.pdf |
You can evaluate an embedding model on this dataset using the following code:
import mteb
task = mteb.get_tasks(["PatentClassification"])
evaluator = mteb.MTEB(task)
model = mteb.get_model(YOUR_MODEL)
evaluator.run(model)
To learn more about how to run models on mteb task check out the GitHub repitory.
If you use this dataset, please cite the dataset as well as mteb, as this dataset likely includes additional processing as a part of the MMTEB Contribution.
@inproceedings{sharma-etal-2019-bigpatent,
abstract = {Most existing text summarization datasets are compiled from the news domain, where summaries have a flattened discourse structure. In such datasets, summary-worthy content often appears in the beginning of input articles. Moreover, large segments from input articles are present verbatim in their respective summaries. These issues impede the learning and evaluation of systems that can understand an article{'}s global content structure as well as produce abstractive summaries with high compression ratio. In this work, we present a novel dataset, BIGPATENT, consisting of 1.3 million records of U.S. patent documents along with human written abstractive summaries. Compared to existing summarization datasets, BIGPATENT has the following properties: i) summaries contain a richer discourse structure with more recurring entities, ii) salient content is evenly distributed in the input, and iii) lesser and shorter extractive fragments are present in the summaries. Finally, we train and evaluate baselines and popular learning models on BIGPATENT to shed light on new challenges and motivate future directions for summarization research.},
address = {Florence, Italy},
author = {Sharma, Eva and
Li, Chen and
Wang, Lu},
booktitle = {Proceedings of the 57th Annual Meeting of the Association for Computational Linguistics},
doi = {10.18653/v1/P19-1212},
editor = {Korhonen, Anna and
Traum, David and
M{\`a}rquez, Llu{\'\i}s},
month = jul,
pages = {2204--2213},
publisher = {Association for Computational Linguistics},
title = {{BIGPATENT}: A Large-Scale Dataset for Abstractive and Coherent Summarization},
url = {https://aclanthology.org/P19-1212},
year = {2019},
}
@article{enevoldsen2025mmtebmassivemultilingualtext,
title={MMTEB: Massive Multilingual Text Embedding Benchmark},
author={Kenneth Enevoldsen and Isaac Chung and Imene Kerboua and Márton Kardos and Ashwin Mathur and David Stap and Jay Gala and Wissam Siblini and Dominik Krzemiński and Genta Indra Winata and Saba Sturua and Saiteja Utpala and Mathieu Ciancone and Marion Schaeffer and Gabriel Sequeira and Diganta Misra and Shreeya Dhakal and Jonathan Rystrøm and Roman Solomatin and Ömer Çağatan and Akash Kundu and Martin Bernstorff and Shitao Xiao and Akshita Sukhlecha and Bhavish Pahwa and Rafał Poświata and Kranthi Kiran GV and Shawon Ashraf and Daniel Auras and Björn Plüster and Jan Philipp Harries and Loïc Magne and Isabelle Mohr and Mariya Hendriksen and Dawei Zhu and Hippolyte Gisserot-Boukhlef and Tom Aarsen and Jan Kostkan and Konrad Wojtasik and Taemin Lee and Marek Šuppa and Crystina Zhang and Roberta Rocca and Mohammed Hamdy and Andrianos Michail and John Yang and Manuel Faysse and Aleksei Vatolin and Nandan Thakur and Manan Dey and Dipam Vasani and Pranjal Chitale and Simone Tedeschi and Nguyen Tai and Artem Snegirev and Michael Günther and Mengzhou Xia and Weijia Shi and Xing Han Lù and Jordan Clive and Gayatri Krishnakumar and Anna Maksimova and Silvan Wehrli and Maria Tikhonova and Henil Panchal and Aleksandr Abramov and Malte Ostendorff and Zheng Liu and Simon Clematide and Lester James Miranda and Alena Fenogenova and Guangyu Song and Ruqiya Bin Safi and Wen-Ding Li and Alessia Borghini and Federico Cassano and Hongjin Su and Jimmy Lin and Howard Yen and Lasse Hansen and Sara Hooker and Chenghao Xiao and Vaibhav Adlakha and Orion Weller and Siva Reddy and Niklas Muennighoff},
publisher = {arXiv},
journal={arXiv preprint arXiv:2502.13595},
year={2025},
url={https://arxiv.org/abs/2502.13595},
doi = {10.48550/arXiv.2502.13595},
}
@article{muennighoff2022mteb,
author = {Muennighoff, Niklas and Tazi, Nouamane and Magne, Lo{\"\i}c and Reimers, Nils},
title = {MTEB: Massive Text Embedding Benchmark},
publisher = {arXiv},
journal={arXiv preprint arXiv:2210.07316},
year = {2022}
url = {https://arxiv.org/abs/2210.07316},
doi = {10.48550/ARXIV.2210.07316},
}
The following code contains the descriptive statistics from the task. These can also be obtained using:
import mteb
task = mteb.get_task("PatentClassification")
desc_stats = task.metadata.descriptive_stats
{
"test": {
"num_samples": 2048,
"number_of_characters": 38376596,
"number_texts_intersect_with_train": 9,
"min_text_length": 2168,
"average_text_length": 18738.572265625,
"max_text_length": 226050,
"unique_text": 2048,
"unique_labels": 9,
"labels": {
"7": {
"count": 424
},
"0": {
"count": 309
},
"6": {
"count": 453
},
"2": {
"count": 161
},
"1": {
"count": 266
},
"8": {
"count": 206
},
"4": {
"count": 64
},
"5": {
"count": 147
},
"3": {
"count": 18
}
}
},
"train": {
"num_samples": 25000,
"number_of_characters": 465511243,
"number_texts_intersect_with_train": null,
"min_text_length": 1551,
"average_text_length": 18620.44972,
"max_text_length": 331797,
"unique_text": 24950,
"unique_labels": 9,
"labels": {
"6": {
"count": 5408
},
"0": {
"count": 3614
},
"7": {
"count": 5321
},
"8": {
"count": 2562
},
"2": {
"count": 2099
},
"4": {
"count": 705
},
"1": {
"count": 3357
},
"3": {
"count": 204
},
"5": {
"count": 1730
}
}
}
}
This dataset card was automatically generated using MTEB