Description of the technology

Natural language processing (NLP) is a field of Artificial intelligence that focuses on the interaction between computers and human language. The technology enables machines to analyse, interpret, and generate text in a way that humans can understand. NLP is used in a variety of fields, from automatic translators and chatbots, through sentiment analysis, to voice recognition and recommendation systems.

Mechanism of action

  • Natural language processing is based on analysing textual data using algorithms and statistical models. Text is transformed into a structure that the system can understand – through tokenisation, part-of-speech tagging, and syntactic analysis. Machine learning models, such as LLMs (large language models), are used to analyse the relationship between words in context. NLP systems learn from large sets of textual data to understand language, generate responses, and automate communication-related processes.

Implementation of the technology

Required resources

  • Textual data sets: Textual data for training NLP models, such as articles, books, and documents.
  • Computing power: Powerful servers for training large language models.
  • Software: Tools and platforms for developing and implementing NLP models, such as spaCy, NLTK, and BERT.
  • Team of specialists: AI engineers and NLP specialists to design and optimise algorithms.
  • Computing environment: IT resources for real-time data processing.

Required competences

  • Machine learning: Knowledge of NLP model training techniques, such as LSTM, BERT, and GPT.
  • Natural language processing: Ability to analyse and transform textual data.
  • Programming: Knowledge of NLP tools and frameworks, such as Python, TensorFlow, and PyTorch.
  • Data analysis: Ability to prepare textual data and interpret it in context.
  • Model optimisation: Ability to adapt models to specific applications and languages.

Environmental aspects

  • Energy consumption: Training large NLP models requires considerable energy resources.
  • Emissions of pollutants: Intensive data processing in data centres can lead to increased CO2 emissions.
  • Raw material consumption: The required hardware resources for NLP data processing, such as servers and processors, may require rare raw materials.
  • Recycling: NLP-related IT infrastructure upgrades and replacements generate electronic waste.
  • Water consumption: Data centres needed to train NLP models can contribute to high water consumption in cooling processes.

Legal conditions

  • Legislation governing the implementation of solutions such as AI Act (example: regulations on accountability for generated content).
  • Environmental standards: Regulations for NLP processing data centre sustainability (example: regulations for data centre emissions).
  • Intellectual property: Rules for protecting content generated and processed by NLP systems (example: copyright related to machine translation).
  • Data security: Regulations for the protection of personal data used in NLP analyses (example: GDPR in the European Union).
  • Export regulations: Regulations for the export of advanced natural language processing technologies (example: restrictions on exports to sanctioned countries).

Companies using the technology