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 Faroe Islands







Pretraining Finnish ModernBERTs

Reunamo, Akseli, Peltonen, Laura-Maria, Moen, Hans, Pyysalo, Sampo

arXiv.org Artificial Intelligence

This paper reports on pretraining ModernBERT encoder models in six different sizes, ranging from 51M to 475M parameters, with a focus on limited multilingualism, emphasizing languages relevant to Finland. Our models are competitive with, or superior to, existing multilingual models. They outperform monolingual models on tasks that require a context longer than 512 tokens. We present empirical results on using different data in the final stage of training. The code and models are publicly released.


MultiZebraLogic: A Multilingual Logical Reasoning Benchmark

Bruun, Sofie Helene, Smart, Dan Saattrup

arXiv.org Artificial Intelligence

Measuring the full abilities of large language models (LLMs) requires benchmarks representing multiple tasks. We aim to create large, high-quality datasets for comparison of logical reasoning skills across several languages and of suitable difficulty for LLMs of various reasoning ability. We explore multiple ways of increasing difficulty. We generate zebra puzzles in multiple languages, themes, sizes and including 14 different clue types and 8 red herring types (uninformative clues). We find puzzle sizes 2x3 and 4x5 are sufficiently challenging for GPT-4o mini (a non-reasoning model) and o3-mini (a reasoning model), respectively. Including 5 red herrings decreases o3-mini puzzle-level accuracy on 4x5 puzzles by 15$\pm$7 %. Scores of o3-mini on 4x5 puzzles are not significantly affected by use of English vs. Danish or the common houses theme vs. the country-specific smoerrebroed theme. We find no correlation between difficulty and the selected clue types. Datasets of 128+1024 puzzles are published as MultiZebraLogic in each of nine Germanic languages for sizes 2x3 and 4x5. We publish code for puzzle generation, designed for adaptablity into more languages and themes.


HPLT 3.0: Very Large-Scale Multilingual Resources for LLM and MT. Mono- and Bi-lingual Data, Multilingual Evaluation, and Pre-Trained Models

Oepen, Stephan, Arefev, Nikolay, Aulamo, Mikko, Bañón, Marta, Buljan, Maja, Burchell, Laurie, Charpentier, Lucas, Chen, Pinzhen, Fedorova, Mariya, de Gibert, Ona, Haddow, Barry, Hajič, Jan, Helcl, Jindřich, Kutuzov, Andrey, Laippala, Veronika, Li, Zihao, Luukkonen, Risto, Malik, Bhavitvya, Mikhailov, Vladislav, Myntti, Amanda, O'Brien, Dayyán, Poláková, Lucie, Pyysalo, Sampo, Sánchez, Gema Ramírez, Siewert, Janine, Stepachev, Pavel, Tiedemann, Jörg, Vahtola, Teemu, Variš, Dušan, Vitiugin, Fedor, Vojtěchová, Tea, Zaragoza, Jaume

arXiv.org Artificial Intelligence

We present an ongoing initiative to provide open, very large, high-quality, and richly annotated textual datasets for almost 200 languages. At 30 trillion tokens, this is likely the largest generally available multilingual collection of LLM pre-training data. These datasets are derived from web crawls from different sources and accompanied with a complete, open-source pipeline for document selection from web archives, text extraction from HTML, language identification for noisy texts, exact and near-deduplication, annotation with, among others, register labels, text quality estimates, and personally identifiable information; and final selection and filtering. We report on data quality probes through contrastive and analytical statistics, through manual inspection of samples for 24 languages, and through end-to-end evaluation of various language model architectures trained on this data. For multilingual LLM evaluation, we provide a comprehensive collection of benchmarks for nine European languages, with special emphasis on natively created tasks, mechanisms to mitigate prompt sensitivity, and refined normalization and aggregation of scores. Additionally, we train and evaluate a family of 57 monolingual encoder-decoder models, as well as a handful of monolingual GPT-like reference models. Besides the monolingual data and models, we also present a very large collection of parallel texts automatically mined from this data, together with a novel parallel corpus synthesized via machine translation.


Global PIQA: Evaluating Physical Commonsense Reasoning Across 100+ Languages and Cultures

Chang, Tyler A., Arnett, Catherine, Eldesokey, Abdelrahman, Sadallah, Abdelrahman, Kashar, Abeer, Daud, Abolade, Olanihun, Abosede Grace, Mohammed, Adamu Labaran, Praise, Adeyemi, Sharma, Adhikarinayum Meerajita, Gupta, Aditi, Iyigun, Afitab, Simplício, Afonso, Essouaied, Ahmed, Chorana, Aicha, Eppa, Akhil, Oladipo, Akintunde, Ramesh, Akshay, Dorkin, Aleksei, Kondoro, Alfred Malengo, Aji, Alham Fikri, Çetintaş, Ali Eren, Hanbury, Allan, Dembele, Alou, Niksarli, Alp, Arroyo, Álvaro, Bajand, Amin, Khanna, Amol, Chkhaidze, Ana, Condez, Ana, Mkhonto, Andiswa, Hoblitzell, Andrew, Tran, Andrew, Poulis, Angelos, Majumder, Anirban, Vacalopoulou, Anna, Wong, Annette Kuuipolani Kanahele, Simonsen, Annika, Kovalev, Anton, S, Ashvanth., Lana, Ayodeji Joseph, Kinay, Barkin, Alhafni, Bashar, Busole, Benedict Cibalinda, Ghanem, Bernard, Nathani, Bharti, Đurić, Biljana Stojanovska, Agbonile, Bola, Bergsson, Bragi, Fischer, Bruce Torres, Tutar, Burak, Çınar, Burcu Alakuş, Kane, Cade J. Kanoniakapueo, Udomcharoenchaikit, Can, Arnett, Catherine, Helwe, Chadi, Nerella, Chaithra Reddy, Liu, Chen Cecilia, Nwokolo, Chiamaka Glory, España-Bonet, Cristina, Amol, Cynthia, Lee, DaeYeop, Arad, Dana, Dzenhaliou, Daniil, Pugacheva, Daria, Choi, Dasol, Abolade, Daud, Liu, David, Semedo, David, Popoola, Deborah, Mataciunas, Deividas, Nyaboke, Delphine, Kumar, Dhyuthy Krishna, Glória-Silva, Diogo, Tavares, Diogo, Goyal, Divyanshu, Lee, DongGeon, Anajemba, Ebele Nwamaka, Grace, Egonu Ngozi, Mickel, Elena, Tutubalina, Elena, Herranen, Elias, Anand, Emile, Habumuremyi, Emmanuel, Ajiboye, Emuobonuvie Maria, Yulianrifat, Eryawan Presma, Adenuga, Esther, Rudnicka, Ewa, Itiola, Faith Olabisi, Butt, Faran Taimoor, Thekkekara, Fathima, Haouari, Fatima, Tjiaranata, Filbert Aurelian, Laakom, Firas, Grasso, Francesca, Orabona, Francesco, Periti, Francesco, Solomon, Gbenga Kayode, Ngo, Gia Nghia, Udhehdhe-oze, Gloria, Martins, Gonçalo, Challagolla, Gopi Naga Sai Ram, Son, Guijin, Abdykadyrova, Gulnaz, Einarsson, Hafsteinn, Hu, Hai, Saffari, Hamidreza, Zaidi, Hamza, Zhang, Haopeng, Shairah, Harethah Abu, Vuong, Harry, Kuulmets, Hele-Andra, Bouamor, Houda, Yu, Hwanjo, Debess, Iben Nyholm, Deveci, İbrahim Ethem, Hanif, Ikhlasul Akmal, Cho, Ikhyun, Calvo, Inês, Vieira, Inês, Manzi, Isaac, Daud, Ismail, Itzhak, Itay, Iuliia, null, Alekseenko, null, Belashkin, Ivan, Spada, Ivan, Zhelyazkov, Ivan, Brinton, Jacob, Isbarov, Jafar, Čibej, Jaka, Čuhel, Jan, Kocoń, Jan, Krito, Jauza Akbar, Purbey, Jebish, Mickel, Jennifer, Za, Jennifer, Kunz, Jenny, Jeong, Jihae, Dávalos, Jimena Tena, Lee, Jinu, Magalhães, João, Yi, John, Kim, Jongin, Chataignon, Joseph, Imperial, Joseph Marvin, Thevakumar, Jubeerathan, Land, Judith, Jiang, Junchen, Kim, Jungwhan, Sirts, Kairit, R, Kamesh, V, Kamesh, Tshinu, Kanda Patrick, Kukk, Kätriin, Ponkshe, Kaustubh, Huseynova, Kavsar, He, Ke, Buchanan, Kelly, Sarveswaran, Kengatharaiyer, Zaman, Kerem, Mrini, Khalil, Kyars, Kian, Kruusmaa, Krister, Chouhan, Kusum, Krishnakumar, Lainitha, Sánchez, Laura Castro, Moscoso, Laura Porrino, Choshen, Leshem, Sencan, Levent, Øvrelid, Lilja, Alazraki, Lisa, Ehimen-Ugbede, Lovina, Thevakumar, Luheerathan, Thavarasa, Luxshan, Malik, Mahnoor, Keita, Mamadou K., Jangid, Mansi, De Santis, Marco, García, Marcos, Suppa, Marek, D'Ciofalo, Mariam, Ojastu, Marii, Sikander, Maryam, Narayan, Mausami, Skandalis, Maximos, Mehak, Mehak, Bozkurt, Mehmet İlteriş, Workie, Melaku Bayu, Velayuthan, Menan, Leventhal, Michael, Marcińczuk, Michał, Potočnjak, Mirna, Shafiei, Mohammadamin, Sharma, Mridul, Indoria, Mrityunjaya, Habibi, Muhammad Ravi Shulthan, Kolić, Murat, Galant, Nada, Permpredanun, Naphat, Maugin, Narada, Corrêa, Nicholas Kluge, Ljubešić, Nikola, Thomas, Nirmal, de Silva, Nisansa, Joshi, Nisheeth, Ponkshe, Nitish, Habash, Nizar, Udeze, Nneoma C., Thomas, Noel, Ligeti-Nagy, Noémi, Coulibaly, Nouhoum, Faustin, Nsengiyumva, Buliaminu, Odunayo Kareemat, Ogundepo, Odunayo, Fejiro, Oghojafor Godswill, Funmilola, Ogundipe Blessing, God'spraise, Okechukwu, Samuel, Olanrewaju, Oluwaseun, Olaoye Deborah, Akindejoye, Olasoji, Popova, Olga, Snissarenko, Olga, Chiemezie, Onyinye Anulika, Kinay, Orkun, Tursun, Osman, Moses, Owoeye Tobiloba, Joshua, Oyelade Oluwafemi, Fiyinfoluwa, Oyesanmi, Gamallo, Pablo, Fernández, Pablo Rodríguez, Arora, Palak, Valente, Pedro, Rupnik, Peter, Ekiugbo, Philip Oghenesuowho, Sahoo, Pramit, Prokopidis, Prokopis, Niau-Puhipau, Pua, Yahya, Quadri, Mignone, Rachele, Singhal, Raghav, Kadiyala, Ram Mohan Rao, Merx, Raphael, Afolayan, Rapheal, Rajalakshmi, Ratnavel, Ghosh, Rishav, Oji, Romina, Solis, Ron Kekeha, Guerra, Rui, Zawar, Rushikesh, Bashir, Sa'ad Nasir, Alzaabi, Saeed, Sandeep, Sahil, Batchu, Sai Pavan, Kantareddy, SaiSandeep, Pranida, Salsabila Zahirah, Buchanan, Sam, Rutunda, Samuel, Land, Sander, Sulollari, Sarah, Ali, Sardar, Sapkota, Saroj, Tautvaisas, Saulius, Sen, Sayambhu, Banerjee, Sayantani, Diarra, Sebastien, M, SenthilNathan., Lee, Sewoong, Shah, Shaan, Venkitachalam, Shankar, Djurabaeva, Sharifa, Ibejih, Sharon, Dutta, Shivanya Shomir, Gupta, Siddhant, Suárez, Silvia Paniagua, Ahmadi, Sina, Sukumar, Sivasuthan, Song, Siyuan, A., Snegha, Sofianopoulos, Sokratis, Simon, Sona Elza, Benčina, Sonja, Gvasalia, Sophie, More, Sphurti Kirit, Dragazis, Spyros, Kaufhold, Stephan P., S, Suba., AlRashed, Sultan, Ranathunga, Surangika, Someya, Taiga, Pungeršek, Taja Kuzman, Haklay, Tal, Jibril, Tasi'u, Aoyama, Tatsuya, Abashidze, Tea, Cruz, Terenz Jomar Dela, Blevins, Terra, Nikas, Themistoklis, Idoko, Theresa Dora, Do, Thu Mai, Chubakov, Tilek, Gargiani, Tommaso, Rathore, Uma, Johannesen, Uni, Ugwu, Uwuma Doris, Putra, Vallerie Alexandra, Kumar, Vanya Bannihatti, Jeyarajalingam, Varsha, Arzt, Varvara, Nedumpozhimana, Vasudevan, Ondrejova, Viktoria, Horbik, Viktoryia, Kummitha, Vishnu Vardhan Reddy, Dinić, Vuk, Sewunetie, Walelign Tewabe, Wu, Winston, Zhao, Xiaojing, Diarra, Yacouba, Nikankin, Yaniv, Mathur, Yash, Chen, Yixi, Li, Yiyuan, Xavier, Yolanda, Belinkov, Yonatan, Abayomi, Yusuf Ismail, Alyafeai, Zaid, Shan, Zhengyang, Tam, Zhi Rui, Tang, Zilu, Nadova, Zuzana, Abbasi, Baber, Biderman, Stella, Stap, David, Ataman, Duygu, Schmidt, Fabian, Gonen, Hila, Wang, Jiayi, Adelani, David Ifeoluwa

arXiv.org Artificial Intelligence

To date, there exist almost no culturally-specific evaluation benchmarks for large language models (LLMs) that cover a large number of languages and cultures. In this paper, we present Global PIQA, a participatory commonsense reasoning benchmark for over 100 languages, constructed by hand by 335 researchers from 65 countries around the world. The 116 language varieties in Global PIQA cover five continents, 14 language families, and 23 writing systems. In the non-parallel split of Global PIQA, over 50% of examples reference local foods, customs, traditions, or other culturally-specific elements. We find that state-of-the-art LLMs perform well on Global PIQA in aggregate, but they exhibit weaker performance in lower-resource languages (up to a 37% accuracy gap, despite random chance at 50%). Open models generally perform worse than proprietary models. Global PIQA highlights that in many languages and cultures, everyday knowledge remains an area for improvement, alongside more widely-discussed capabilities such as complex reasoning and expert knowledge. Beyond its uses for LLM evaluation, we hope that Global PIQA provides a glimpse into the wide diversity of cultures in which human language is embedded.


EuroSpeech: A Multilingual Speech Corpus

Pfisterer, Samuel, Grötschla, Florian, Lanzendörfer, Luca A., Yan, Florian, Wattenhofer, Roger

arXiv.org Artificial Intelligence

Recent progress in speech processing has highlighted that high-quality performance across languages requires substantial training data for each individual language. While existing multilingual datasets cover many languages, they often contain insufficient data for most languages. Thus, trained models perform poorly on the majority of the supported languages. Our work addresses this challenge by introducing a scalable pipeline for constructing speech datasets from parliamentary recordings. The proposed pipeline includes robust components for media retrieval and a two-stage alignment algorithm designed to handle non-verbatim transcripts and long-form audio. Applying this pipeline to recordings from 22 European parliaments, we extract over 61k hours of aligned speech segments, achieving substantial per-language coverage with 19 languages exceeding 1k hours and 22 languages exceeding 500 hours of high-quality speech data. We obtain an average 41.8\% reduction in word error rates over baselines when finetuning an existing ASR model on our dataset, demonstrating the usefulness of our approach.