Generative Artificial Intelligence

Description of the technology

Generative Artificial intelligence (generative AI) is a type of AI systems that create new data or content based on patterns from existing data. The algorithms can generate images, text, sounds, and even programming code. They use various techniques, such as language models, GANs (generative adversarial networks) neural networks, and VAEs (variational autoencoders), to produce realistic and creative results. Generative AI is widely used in creative industries, such as design, film, and music, as well as in business process optimisation.

Mechanism of action

  • Generative Artificial intelligence is based on training models on data sets that enable models to understand data patterns. In models such as GAN, there are two neural networks: a generator, which creates new data, and a discriminator, which evaluates its authenticity. The process is iterative – the generator tries to fool the discriminator, and the discriminator learns to distinguish real data from generated data. Other models, such as GPT, generate content from strings of input data, using previously understood language patterns. Through this interaction, AI systems can create increasingly realistic and complex content.

Implementation of the technology

Required resources

  • Large data sets: Training data that reflects the actual patterns from which new content is generated.
  • Computing power: High computing power, especially in GPU applications.
  • Software: Tools for training generative models, such as GAN, GPT, and VAE.
  • Team of specialists: AI engineers, data analytics specialists, and creative developers.
  • IT infrastructure: Extensive server resources, either local or in the cloud, to support intensive computing operations.

Required competences

  • Knowledge of AI algorithms: Ability to create and train generative models.
  • Data analysis: Ability to work with large training data sets.
  • Creativity: Ability to turn AI results into valuable content.
  • Programming: Knowledge of AI frameworks, such as TensorFlow and PyTorch.
  • Model optimisation: Ability to customise and optimise models for specific applications.

Environmental aspects

  • Energy consumption: Training large generative models requires considerable energy resources.
  • Raw material consumption: Maintaining computing infrastructure requires raw materials, such as rare earth metals.
  • Recycling: The electronic waste generated by AI development must be recycled.
  • Emissions of pollutants: Data centres generate emissions from intensive data processing.
  • Waste generated: Upgrading computer equipment generates electronic waste.

Legal conditions

  • Legislation governing the implementation of solutions, such as AI Act (example: regulations for transparency of algorithms).
  • Environmental standards: Regulations for data centre sustainability (example: energy efficiency regulations).
  • Intellectual property: Rules for the protection of AI-generated content (example: copyright on generated images or music).
  • Data security: Protection of data used to train generative models (example: GDPR regulations on data privacy).
  • Export regulations: Restrictions on the export of advanced AI algorithms (example: AI technology export regulations).

Companies using the technology