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Career as an NLP Engineer

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Introduction

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Artificial intelligence is increasingly adopted across industries, with Natural Language Processing (NLP) playing a particularly vital role in sectors such as finance, healthcare, and law (Joseph et al., 2016)..[1]. Organizations rely on NLP technologies to avoid the repetitive and inefficient manual work caused by large volumes of text and speech data generated every day. Therefore, the core aim of NLP is to enable computers to understand, interpret, and generate human language (Nadkarni et al., 2011)[2]. This involves recognizing meaning in text or speech (understanding), analyzing context to resolve ambiguity (interpreting), and producing fluent language as output (generating).

Within this context, the NLP Engineer is the professional who combines knowledge of computer science, linguistics, and AI to turn these objectives into practical systems. Common applications include chatbots, speech recognition, machine translation, and text analytics (Joseph et al., 2016)[1].

Qualifications & Skills

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A career as an NLP Engineer typically requires a bachelor's degree in computer science or a related field, with many roles favoring advanced qualifications such as a master's or PhD in machine learning or artificial intelligence. Essential technical skills include strong programming proficiency in languages like Python or Java, hands-on experience with machine learning frameworks, and a solid understanding of linear algebra, probability, and statistics (GeeksforGeeks, 2025)[3]. Beyond this technical foundation, the role demands strong problem-solving abilities to debug complex models and effective communication skills for collaborating with diverse teams (Coursera, 2025a)[4] (Coursera, 2023b)[5]

Industry Scope and Impact

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Recent advancements in NLP have led to the development of Large Language Models (LLMs) that demonstrate unprecedented performance across tasks such as summarizing texts, answering questions, and coding. NLP-based solutions offer significant advantages over human labour, as they are faster, can manage greater volumes of data, and are available continuously. The wide range of applications for these tools shows their potential for transformative change across various industries (Bourdin et al., 2023)[6].

In healthcare, one of the most documented domains, algorithms can assist in diagnosis (Yunxiang et al., 2023)[7], detect pathology in medical reports, identify mental illness through texts (Zhang et al., 2022)[8], and provide 24/7 medical support. For training and education, NLP can provide personalized teaching (Sreelakshmi et al., 2019)[9], answer student questions via chatbots (Bhavya et al., 2022)[10], generate assessment questions, and evaluate students' work (Ormerod et al., 2021)[11]. The legal domain benefits from a high adoption rate due to the large volume of documents involved; applications include searching for similar cases (Duan et al., 2019)[12], summarizing legal documents (Kanapala et al., 2019)[13], and predicting judgment results. In finance, NLP algorithms can detect fraud, extract risk sentences from company reports (Hiew et al., 2022)[14], assess a company's Environmental, Social, and Governance (ESG) performance, and predict stock returns from social media posts (Fischbach et al., 2024)[15]. Other key areas include robotics and computer science, where LLMs generate code from human instructions and control robots with language, and business process management (BPM), which utilizes NLP for document classification and information retrieval (Wu et al., 2022)[16] (Prieto et al., 2023)[17]. These uses, along with others in entertainment and marketing, highlight the vast and diverse impact of NLP solutions.

Key Industry Challenges

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Despite its potential, the industry faces significant obstacles in implementing NLP technologies. A primary challenge is financial, as state-of-the-art models require substantial computational resources for training and inference. For example, the BLOOM model required months of training on hardware with an estimated cost of over $3 million (Scao et al., 2023)[18]. To mitigate these costs, companies can rent resources via cloud computing or utilize effective open-source models like LLaMA or BLOOM (Kaymakci et al., 2022)[19]. Furthermore, data-related obstacles are critical. A major deterrent for using NLP in high-stakes decisions is the issue of inconsistent outputs often called hallucinations where even the best algorithms provide incorrect information (Beutel et al., 2023)[20]. A proposed solution is to design models that systematically cite their references, allowing users to verify answers, as demonstrated by WebGPT. Models also suffer from outdated information, as they stop learning after their initial training and do not acquire new knowledge while in use. Finally, building reliable LLMs requires large amounts of non-standardized data, yet the scientific literature currently lacks a general methodological framework to help companies with data collection, preparation, and maintenance.

Conclusion

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As advancements in NLP have significantly changed multiple industries by enhancing text data processing capabilities, there are also multiple problems and challenges appearing continuously in all enterprises which have already been using NLP as a tool to help their work. Consequently, it is critical to develop all concerned qualifications to support ongoing research and strategic governance. Fostering the responsible integration of NLP technology is the most significant step towards breaking these barriers and building a more innovative and efficient future[21]

References

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  1. ^ a b "Joseph, S.R., Hlomani, H., Letsholo, K., Kaniwa, F. and Sedimo, K., 2016. Natural language processing: A review. International Journal of Research in Engineering and Applied Sciences, 6(3), pp.207–220".
  2. ^ Nadkarni, Prakash M; Ohno-Machado, Lucila; Chapman, Wendy W (2011). "Natural language processing: an introduction". Journal of the American Medical Informatics Association. 18 (5): 544–551. doi:10.1136/amiajnl-2011-000464. PMC 3168328. PMID 21846786.
  3. ^ "GeeksforGeeks (2025). Natural Language Processing (NLP) Job Roles. [online] GeeksforGeeks". 2024-04-30.
  4. ^ "Coursera (2025a). 4 Natural Language Processing Career Paths. [online] Coursera". 2025-09-15.
  5. ^ "Coursera (2025b). NLP Career Path: Jobs in Natural Language Processing. [online] Coursera". 2025-06-11.
  6. ^ "Bourdin, M., Paviot, T., Pellerin, R. and Lamouri, S., 2023. NLP in SMEs for industry 4.0: opportunities and challenges. Procedia Computer Science, 239, pp.396-403" (PDF).
  7. ^ Li, Yunxiang; Li, Zihan; Zhang, Kai; Dan, Ruilong; Jiang, Steve; Zhang, You (2023-06-24), ChatDoctor: A Medical Chat Model Fine-Tuned on a Large Language Model Meta-AI (LLaMA) Using Medical Domain Knowledge, arXiv:2303.14070
  8. ^ Zhang, Tianlin; Schoene, Annika M.; Ji, Shaoxiong; Ananiadou, Sophia (2022-04-08). "Natural language processing applied to mental illness detection: a narrative review". npj Digital Medicine. 5 (1) 46. doi:10.1038/s41746-022-00589-7. PMC 8993841. PMID 35396451.
  9. ^ "Sreelakshmi, A. S., Abhinaya, S. B., Nair, A., & Nirmala, S. J. (2019, November). A question answering and quiz generation chatbot for education. In 2019 Grace Hopper Celebration India (GHCI) (pp. 1-6). IEEE".
  10. ^ Bhavya, Bhavya; Xiong, Jinjun; Zhai, Chengxiang (2022-10-11), Analogy Generation by Prompting Large Language Models: A Case Study of InstructGPT, arXiv:2210.04186
  11. ^ Ormerod, Christopher M.; Malhotra, Akanksha; Jafari, Amir (2021-02-25), Automated essay scoring using efficient transformer-based language models, arXiv:2102.13136
  12. ^ Duan, Xingyi; Wang, Baoxin; Wang, Ziyue; Ma, Wentao; Cui, Yiming; Wu, Dayong; Wang, Shijin; Liu, Ting; Huo, Tianxiang (2019-12-19), "CJRC: A Reliable Human-Annotated Benchmark DataSet for Chinese Judicial Reading Comprehension", Chinese Computational Linguistics, Lecture Notes in Computer Science, vol. 11856, pp. 439–451, arXiv:1912.09156, doi:10.1007/978-3-030-32381-3_36, ISBN 978-3-030-32380-6
  13. ^ Kanapala, Ambedkar; Pal, Sukomal; Pamula, Rajendra (2019-03-01). "Text summarization from legal documents: a survey". Artif. Intell. Rev. 51 (3): 371–402. doi:10.1007/s10462-017-9566-2.
  14. ^ Hiew, Joshua Zoen Git; Huang, Xin; Mou, Hao; Li, Duan; Wu, Qi; Xu, Yabo (2022-07-07), BERT-based Financial Sentiment Index and LSTM-based Stock Return Predictability, arXiv:1906.09024
  15. ^ Fischbach, Jannik; Adam, Max; Dzhagatspanyan, Victor; Mendez, Daniel; Frattini, Julian; Kosenkov, Oleksandr; Elahidoost, Parisa (2024-02-28), Automatic ESG Assessment of Companies by Mining and Evaluating Media Coverage Data: NLP Approach and Tool, arXiv:2212.06540
  16. ^ Wu, Chengke; Li, Xiao; Guo, Yuanjun; Wang, Jun; Ren, Zengle; Wang, Meng; Yang, Zhile. "Natural language processing for smart construction: Current status and future directions". Automation in Construction.
  17. ^ Prieto, Samuel A.; Mengiste, Eyob T.; García de Soto, Borja (2023-03-24). "Investigating the Use of ChatGPT for the Scheduling of Construction Projects". Buildings. 13 (4): 857. doi:10.3390/buildings13040857.
  18. ^ Workshop, BigScience; Scao, Teven Le; Fan, Angela; Akiki, Christopher; Pavlick, Ellie; Ilić, Suzana; Hesslow, Daniel; Castagné, Roman; Luccioni, Alexandra Sasha (2023-06-27), BLOOM: A 176B-Parameter Open-Access Multilingual Language Model, arXiv:2211.05100
  19. ^ Kaymakci, Can; Wenninger, Simon; Pelger, Philipp; Sauer, Alexander (2022-01-17). "A Systematic Selection Process of Machine Learning Cloud Services for Manufacturing SMEs". Computers. 11: 14. doi:10.3390/computers11010014.
  20. ^ Beutel, Gernot; Geerits, Eline; Kielstein, Jan T. (2023-04-18). "Artificial hallucination: GPT on LSD?". Critical Care. 27 (1) 148. doi:10.1186/s13054-023-04425-6. PMC 10114308. PMID 37072798.
  21. ^ Microsoft Copilot (2025) was utilised to assist with structuring the content, as well as for proofreading and editing to refine spelling and grammar.