Datasets:
id stringlengths 5 7 | text stringlengths 1 248 |
|---|---|
q0_c0 | 10.0 |
q0_c1 | 5.0 |
q0_c2 | 12.0 |
q0_c3 | 15.0 |
q0_c4 | 20.0 |
q1_c0 | Isothermal compression |
q1_c1 | Adiabatic compression |
q1_c2 | Isobaric compression |
q1_c3 | Adiabatic expansion |
q1_c4 | Isothermal expansion |
q2_c0 | The stress-strain curve shows nonlinear behavior before failure, indicating the onset of material yield. |
q2_c1 | The material fails at the proportional limit, demonstrating brittle fracture with minimal energy absorption. |
q2_c2 | The test indicates that the composite material undergoes significant necking before fracture, characteristic of ductile materials. |
q2_c3 | The material fails due to yielding of the polymer matrix, leading to extensive fiber pull-out before fracture. |
q2_c4 | The material displays viscoelastic properties, as evidenced by time-dependent deformation during the test. |
q3_c0 | Lenz’s Law |
q3_c1 | Kepler’s Third Law |
q3_c2 | Newton’s First Law |
q3_c3 | Hooke’s Law |
q3_c4 | Coulomb's Law |
q4_c0 | Ni has a lower specific heat than Brass |
q4_c1 | Al has a lower specific heat than Brass |
q4_c2 | Al has a higher specific heat than Stainless steel |
q4_c3 | Cu has a lower specific heat than Brass |
q4_c4 | Stainless steel has a lower specific heat than Cu |
q5_c0 | Aluminum has a higher thermal conductivity than copper, allowing heat to travel faster along the rod. |
q5_c1 | Aluminum has a lower heat capacity per unit volume than copper, so it heats up faster despite having a lower thermal conductivity. |
q5_c2 | The melting point of aluminum is lower than that of copper, causing the indicator to melt sooner. |
q5_c3 | Aluminum rods have a larger cross-sectional area, reducing thermal resistance. |
q5_c4 | The experiment demonstrates experimental error; copper should have heated up faster in theory. |
q6_c0 | Different metal rods have different magnetic permeabilities. Metal rods with high magnetic permeability make light bulbs brighter. |
q6_c1 | Different metal rods have different resistances. Metal rods with lower resistance make the bulb brighter. |
q6_c2 | Different metal rods have different magnetic permeabilities. Metal rods with high magnetic permeability make the bulb darker. |
q6_c3 | Different metal rods have different magnetic field strengths. Metal rods with lower magnetic field strengths make the bulb dimmer. |
q6_c4 | Different metal rods have different resistances. Metal rods with higher resistance make the bulb brighter. |
q7_c0 | It may convert gravitational energy into elastic energy. |
q7_c1 | It may convert one force to another force. |
q7_c2 | It may convert one speed to another speed. |
q7_c3 | It may convert linear motion into rotational motion. |
q7_c4 | It may convert gravitational energy to kinetic energy. |
q8_c0 | A decrease in primary productivity due to reduced nutrient upwelling. |
q8_c1 | An increase in marine biodiversity due to enhanced nutrient availability. |
q8_c2 | Coral reef expansion due to cooler sea surface temperatures. |
q8_c3 | A surge in fish populations along the coast due to favorable breeding conditions. |
q8_c4 | A widespread algal bloom caused by increased nutrient runoff. |
q9_c0 | The thermocline deepens, reducing nutrient upwelling and leading to decreased primary productivity. |
q9_c1 | The thermocline becomes shallower, enhancing nutrient upwelling and increasing primary productivity. |
q9_c2 | The thermocline remains at the same depth, but increased surface temperatures boost metabolic rates in marine organisms. |
q9_c3 | The thermocline oscillates unpredictably, creating erratic patterns of nutrient distribution and primary productivity. |
q9_c4 | The thermocline deepens, but increased wind-driven mixing compensates for nutrient loss, maintaining primary productivity levels. |
q10_c0 | The rent of office buildings in the city center has risen. |
q10_c1 | The number of residents in the suburbs of cities has increased. |
q10_c2 | The pace of life has become faster. |
q10_c3 | The demand for entertainment facilities in cities is decreasing. |
q10_c4 | The frequency of urban public transportation is increasing. |
q11_c0 | Larger |
q11_c1 | Smaller, then larger |
q11_c2 | Smaller |
q11_c3 | Keep same |
q11_c4 | Larger, then smaller |
q12_c0 | peptidyltransferase |
q12_c1 | RNA polymerase |
q12_c2 | DNA polymerase |
q12_c3 | Topoisomerase |
q12_c4 | Spliceosome complex |
q13_c0 | Bubble Sort |
q13_c1 | Merge Sort |
q13_c2 | Insertion Sort |
q13_c3 | Selection Sort |
q13_c4 | Heap Sort |
q14_c0 | Ohm's Law |
q14_c1 | Hooke's Law |
q14_c2 | Archimedes' Law |
q14_c3 | Joule's Law |
q14_c4 | Kepler's Laws |
q15_c0 | The aluminum piece on the left has greater initial power than the aluminum piece in the middle. |
q15_c1 | The aluminum piece on the left is subject to force in the external magnetic field but the aluminum piece in the middle is unforced. |
q15_c2 | The aluminum sheet on the left has a small area, and the induced electromotive force is small, so the resistance it receives is small. |
q15_c3 | The aluminum piece in the middle experiences resistance in the magnetic field, but the aluminum piece on the left does not experience magnetic force. |
q15_c4 | The structure of the aluminum sheet on the left limits the path of the induced current, resulting in no or much less induced current. |
q16_c0 | The middle plate stops sooner because the magnetic field exerts a direct mechanical force opposing its motion; replacing it with brass would cause it to stop even sooner due to increased magnetic interactions. |
q16_c1 | The middle plate stops sooner due to magnetic hysteresis losses as it moves through the magnetic field; replacing it with brass would cause it to stop later because brass is less susceptible to hysteresis losses. |
q16_c2 | The middle plate stops sooner due to eddy current damping opposing its motion; replacing it with brass, which has higher electrical resistivity, would cause it to swing shorter because larger eddy currents would be induced, leading to more damping. |
q16_c3 | The middle plate stops sooner because the magnetic field exerts a direct mechanical force opposing its motion; replacing it with brass would cause it to stop later due to decreased magnetic interactions. |
q16_c4 | The middle plate stops sooner due to eddy current damping opposing its motion; replacing it with brass, which has higher electrical resistivity, would cause it to swing longer because smaller eddy currents would be induced, leading to less damping. |
q17_c0 | Joule's Law |
q17_c1 | Hooke's Law |
q17_c2 | Kepler's Laws |
q17_c3 | Newton's Laws |
q17_c4 | Archimedes' Law |
q18_c0 | others |
q18_c1 | omniscient narrator |
q18_c2 | limited omniscient |
q18_c3 | second-person |
q18_c4 | third-person |
q19_c0 | Romanticism |
q19_c1 | Postmodernism |
q19_c2 | Realism |
q19_c3 | Naturalism |
q19_c4 | Symbolism |
MMVU is an expert-level, multi-discipline video understanding benchmark with questions spanning 27 subjects across Science, Healthcare, Humanities & Social Sciences, and Engineering. Each multiple-choice example pairs a specialized-domain video with a question and 5 candidate answers. The task is formulated as multiple-choice retrieval: given the (video, question) pair, retrieve the correct candidate. Used the public validation multiple-choice subset (~625 examples).
| Task category | VideoCentricQA (video+text-to-text) |
| Domains | Academic, Medical, Engineering, Web |
| Reference | MMVU: Measuring expert-level multi-discipline video understanding |
Source datasets:
How to evaluate on this task
You can evaluate an embedding model on this dataset using the following code:
import mteb
task = mteb.get_task("MMVUVideoCentricQA")
model = mteb.get_model(YOUR_MODEL)
mteb.evaluate(model, task)
To learn more about how to run models on mteb task check out the GitHub repository.
Citation
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{zhao2025mmvu,
title={MMVU: Measuring expert-level multi-discipline video understanding},
author={Zhao, Yilun and Zhang, Haowei and Xie, Lujing and Hu, Tongyan and Gan, Guo and Long, Yitao and Hu, Zhiyuan and Chen, Weiyuan and Li, Chuhan and Xu, Zhijian and others},
booktitle={Proceedings of the Computer Vision and Pattern Recognition Conference},
pages={8475--8489},
year={2025}
}
@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, Loïc 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},
}
Dataset Statistics
Dataset Statistics
The following code contains the descriptive statistics from the task. These can also be obtained using:
import mteb
task = mteb.get_task("MMVUVideoCentricQA")
desc_stats = task.metadata.descriptive_stats
{
"test": {
"num_samples": 3750,
"num_queries": 625,
"num_documents": 3125,
"number_of_characters": 223931,
"documents_text_statistics": {
"total_text_length": 160329,
"min_text_length": 1,
"average_text_length": 51.30528,
"max_text_length": 248,
"unique_texts": 2860
},
"documents_image_statistics": null,
"documents_audio_statistics": null,
"documents_video_statistics": null,
"queries_text_statistics": {
"total_text_length": 63602,
"min_text_length": 26,
"average_text_length": 101.7632,
"max_text_length": 432,
"unique_texts": 618
},
"queries_image_statistics": null,
"queries_audio_statistics": null,
"queries_video_statistics": {
"total_duration_seconds": 32429.824763369106,
"total_frames": 900135,
"min_width": 202,
"average_width": 605.968,
"max_width": 640,
"min_height": 240,
"average_height": 359.0592,
"max_height": 640,
"min_duration_seconds": 9,
"average_duration_seconds": 51.88771962139057,
"max_duration_seconds": 195,
"unique_videos": 338,
"average_fps": 27.68,
"fps": {
"30": 406,
"25": 124,
"24": 72,
"10": 8,
"15": 10,
"22": 2,
"6": 3
},
"min_resolution": [
202,
360
],
"average_resolution": [
605.968,
359.0592
],
"max_resolution": [
640,
360
],
"resolutions": {
"480x360": 61,
"640x360": 450,
"640x352": 44,
"480x328": 3,
"320x240": 6,
"352x288": 2,
"558x360": 5,
"360x360": 2,
"364x360": 3,
"620x360": 1,
"600x360": 2,
"202x360": 3,
"640x354": 2,
"490x360": 12,
"640x358": 4,
"492x360": 4,
"540x360": 2,
"528x360": 1,
"454x360": 3,
"482x360": 4,
"640x332": 2,
"320x320": 1,
"602x360": 2,
"576x360": 3,
"360x640": 3
}
},
"relevant_docs_statistics": {
"num_relevant_docs": 625,
"min_relevant_docs_per_query": 1,
"average_relevant_docs_per_query": 1.0,
"max_relevant_docs_per_query": 1,
"unique_relevant_docs": 625
},
"top_ranked_statistics": {
"num_top_ranked": 3125,
"min_top_ranked_per_query": 5,
"average_top_ranked_per_query": 5.0,
"max_top_ranked_per_query": 5
}
}
}
This dataset card was automatically generated using MTEB
- Downloads last month
- -