End-to-end speech Named Entity Recognition (NER) aims to directly extract entities from speech. Prior work has shown that end-to-end (E2E) approaches can outperform cascaded pipelines for English, French, and Chinese, but Arabic remains under-explored due to its morphological complexity, the absence of short vowels, and limited annotated resources. We introduce CV-18 NER, the first publicly available dataset for NER from Arabic speech, created by augmenting the Arabic Common Voice 18 corpus with manual NER annotations following the fine-grained Wojood schema (21 entity types). We benchmark both pipeline systems (ASR + text NER) and E2E models based on Whisper and AraBEST-RQ. E2E systems substantially outperform the best pipeline configuration on the test set, reaching 37.0% CoER (AraBEST-RQ 300M) and 38.0% CVER (Whisper-medium). Further analysis shows that Arabic-specific self-supervised pretraining yields strong ASR performance, while multilingual weak supervision transfers more effectively to joint speech-to-entity learning, and that larger models may be harder to adapt in this low-resource setting. Our dataset and models are publicly released, providing the first open benchmark for end-to-end named entity recognition from Arabic speech https://huggingface.co/datasets/Elyadata/CV18-NER.
Figures & tables
Figure 1: Annotation workflow of CV-18 NER dataset.
Figure 2: Example of enriched transcripts with inline BIO-style entity markup.
Split
Train
Dev
Test
# Utterances
7119
2263
2325
Total Duration (h:mm)
8:15
2:54
2:59
Table 1: Statistics of CV-18 NER dataset.
Entity Class
Train
Dev
Test
CARDINAL
311
139
138
CURR
2
0
0
DATE
1176
516
597
EVENT
112
26
50
FAC
112
46
58
GPE
541
327
288
Table 2: Distribution of NER-tags in the CV-18 NER dataset.
Model
Valid.
Test
Whisper-medium (ZS)
107.4
112.3
Whisper-medium (FT)
14.9
22.0
Whisper-large-v3 (ZS)
92.7
95.1
Whisper-large-v3 (FT)
31.8
32.3
AraBEST-RQ 300M 6k (FT)
11.2
15.1
AraBEST-RQ 600M 6k (FT)
12.2
17.4
Table 3: Validation and test Word Error Rates (WER %) of ASR models on the CV-18 NER dataset. FT: Fine-tuning. ZS: Zero-shot. Best scores per metric are reported in bold.
Model
Validation
Test
CamelBERT-Mix
79.66
77.24
CamelBERT-MSA
79.76
76.13
AraBERTv2
81.06
76.58
AraBERTv0.2
81.10
77.34
Table 4: Validation and test micro-F1 scores (%) of BERT-based NER models on the CV-18 NER dataset. Best scores per column are reported in bold.
NER Model
ASR Model
CoER
CVER
CamelBERT-Mix
AraBEST-RQ 600M 14k
66.4
65.8
AraBEST-RQ 300M 6k
66.1
65.4
AraBEST-RQ 600M 6k
67.7
67.0
Whisper-large-v3 (FT)
57.7
56.7
Whisper-medium (FT)
57.2
55.9
CamelBERT-MSA
AraBEST-RQ 600M 14k
66.3
65.7
Table 5: Pipeline evaluation on CV-18 NER test set with grouped NER models. Columns show CoER and CVER for each ASR + NER combination. Best scores per metric are reported in bold. FT: Fine-tuning. The best configurations are followed by ∗ .
Model
WER
CoER
CVER
AraBEST-RQ 300M 6k
16.0
37.0
43.5
AraBEST-RQ 600M 6k
99.4
87.1
94.0
AraBEST-RQ 600M 14k
99.6
99.8
100
Whisper-medium
20.7
38.8
38.0
Whisper-large-v3
41.9
59.6
59.1
Table 6: E2E NER from speech results on the CV-18 NER test set. Best scores per metric are reported in bold. Entity tags are removed before WER computation. The same normalization is applied to all systems.
We present Ara-BEST-RQ, a family of self-supervised learning (SSL) models specifically designed for multi-dialectal Arabic speech processing. Leveraging 5,640 hours of crawled Creative Commons speech and combining it with publicly available datasets, we pre-train conformer-based BEST-RQ models up to 600M parameters. Our models are evaluated on dialect identification (DID) and automatic speech recognition (ASR) tasks, achieving state-of-the-art performance on the former while using fewer parameters than competing models. We demonstrate that family-targeted pre-training on Arabic dialects significantly improves downstream performance compared to multilingual or monolingual models trained on non-Arabic data. All models, code, and pre-processed datasets will be publicly released to support reproducibility and further research in Arabic speech technologies.
Haroun Elleuch, Ryan Whetten, Salima Mdhaffar +2
ELYADATA, Paris, France · Laboratoire Informatique d’Avignon, Avignon Université, Avignon, France
Recognizing emotions from speech using machine learning has become an active research area due to its importance in building human-centered applications. However, while many studies have been conducted in English, German, and other European and Asian languages, research in Arabic remains scarce because of the limited availability of annotated datasets. In this paper, we present an Arabic Speech Emotion Recognition (SER) system based on a hybrid CNN-Transformer architecture. The model leverages convolutional layers to extract discriminative spectral features from Mel-spectrogram inputs and Transformer encoders to capture long-range temporal dependencies in speech. Experiments were conducted on the EYASE (Egyptian Arabic speech emotion) corpus, and the proposed model achieved 97.8% accuracy and a macro F1-score of 0.98. These results demonstrate the effectiveness of combining convolutional feature extraction with attention-based modeling for Arabic SER and highlight the potential of Transformer-based approaches in low-resource languages.
Speech-to-text engines are extremely needed nowadays for different applications, representing an essential enabler in human-robot interaction. Still, some languages suffer from the lack of labeled speech data, especially in the Arabic dialects or any low-resource languages. The need for a self-supervised training process and self-training using noisy training is proven to be one of the up-and-coming feasible solutions. This article proposes an end-to-end, transformers-based model with a framework for low-resource languages. In addition, the framework incorporates customized audio-to-text processing algorithms to achieve a highly efficient Jordanian Arabic dialect speech-to-text system. The proposed framework enables ingesting data from many sources, making the ground truth from external sources possible by speeding up the manual annotation process. The framework allows the training process using noisy student training and self-supervised learning to utilize the unlabeled data in both pre- and post-training stages and incorporate multiple types of data augmentation. The proposed self-training approach outperforms the fine-tuned Wav2Vec model by 5% in terms of word error rate reduction. The outcome of this work provides the research community with a Jordanian-spoken data set along with an end-to-end approach to deal with low-resource languages. This is done by utilizing the power of the pretraining, post-training, and injecting noisy labeled and augmented data with minimal human intervention. It enables the development of new applications in the field of Arabic language speech-to-text area like the question-answering systems and intelligent control systems, and it will add human-like perception and hearing sensors to intelligent robots.
Ali A. Safieh, Ibrahim Abu Alhaol, Rawan Ghnemat
Data Science Department, King Hussein School of Computing Sciences, Princess Sumaya University for Technology, Amman, Jordan