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Automatic Generation of German Translation Candidates for SNOMED CT Textual Descriptions
Andrea Prunotto1, Stefan Schulz2, Martin Boeker1
1Institute of Medical Biometry and Statistics, University of Freiburg, Germany.
Studies in Health Technology and Informatics
|May 27, 2021
Summary
Multiple Translation Paths (MTP) assists SNOMED CT localization by using multiple free machine translation tools and languages. This approach leverages a majority vote of translation candidates to improve accuracy over single-engine translations.
Area of Science:
- Medical Informatics
- Computational Linguistics
- Natural Language Processing
Background:
- SNOMED CT (Systematized Nomenclature of Medicine - Clinical Terms) is a comprehensive clinical terminology.
- Localization of SNOMED CT into different languages is crucial for global adoption and use.
- Existing machine translation tools may not provide sufficient accuracy for specialized terminologies like SNOMED CT.
Purpose of the Study:
- To introduce and evaluate the Multiple Translation Paths (MTP) approach for assisting human translation in SNOMED CT localization.
- To assess the effectiveness of combining multiple free, web-based machine translation tools and language combinations.
- To determine if a majority voting system on multiple translation candidates improves translation quality.
Main Methods:
- Developed the MTP approach, which generates scored translation candidates (TCs) for each input SNOMED CT concept.
- Utilized free machine translation engines (Google Translator, DeepL, Systran) with multiple source languages (English, Spanish, Swedish, French) and support languages.
- Applied MTP to the SNOMED CT Starter Set, generating up to 91 translation results per concept.
- Conducted a descriptive assessment of TC variety and analyzed typical results, focusing on German as the target language.
Main Results:
- The MTP approach capitalizes on combinatorial growth by combining input languages, support languages, and translation engines.
- Analysis revealed that many translation candidates are derived via different translation paths, indicating redundancy.
- Combinations of translation engines produced distributions with a higher number of distinct TCs per concept.
- Initial qualitative analysis showed promising results, supporting the hypothesis that majority voting enhances translation quality.
Conclusions:
- The MTP approach offers a viable strategy for enhancing machine translation in SNOMED CT localization projects.
- Leveraging multiple free MT tools and diverse language combinations can yield a richer set of translation candidates.
- Majority voting among multiple translation candidates shows potential for improving translation accuracy compared to single-engine outputs.
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