This article was automatically translated from the original Turkish version.
Large Language Models (LLM, Large Language Models) are among the most advanced examples of natural language processing (NLP) technology. These models are trained on vast amounts of text data and exhibit state-of-the-art proficiency in understanding and generating human language. They are deep learning algorithms with millions or even billions of parameters and are used in areas such as grammar, context inference, content generation, question-answering systems, and many others. LLMs have been particularly built using the Transformer architecture on architecture, which enables them to effectively process the complexities of natural language.
The development of language models traces its origins to computational research that began in the mid-20th century. Early language models consisted of rule-based systems with limited ability to understand human language. In the 1990s, the introduction of statistical approaches led to the development of more complex language models. For example, N-gram models represented one of the first statistical steps toward understanding linguistic patterns by analyzing sequences of words in text data.
At the beginning of the 2010s, the integration of neural networks into natural language processing created a major leap in language modeling. Specifically, Word2Vec and GloVe like word embedding techniques enabled language models to learn semantic relationships between words. These advancements laid the foundation for LLMs.
In 2017, Google published the paper “Attention Is All You Need,” introducing the Transformer architecture and revolutionizing NLP. The Transformer uses an attention mechanism to allow language models to understand context more effectively. This architecture forms the basis of LLMs and enables superior performance in tasks such as:
The Transformer architecture consists of two components: an encoder and a decoder. However, LLMs typically use decoder-only architectures, which are especially effective for text generation.
In 2018, OpenAI introduced the GPT (Generative Pre-trained Transformer) series, which marked a turning point in the development of large language models. Models such as GPT-2 and GPT-3, trained on billions of parameters, performed complex language tasks with human-like accuracy. GPT-4 further advanced this technology with even more parameters and multimodal capabilities, including both text and image processing.
LLMs contain millions or billions of weights (parameters) that enable the model to learn language patterns. As the number of parameters increases, the model’s capacity to understand context and solve complex tasks also increases.
An increase in parameters requires models to be trained for longer durations on larger data datasets.
LLMs utilize diverse types of text data during training.
Data diversity enhances the overall capability of models but also introduces ethical and bias-related challenges.
LLMs are enabling innovative applications across numerous sectors. Their most prominent uses include:
Large Language Models raise serious ethical and social concerns. Potential risks such as the spread of misleading information, accidental exposure of private data, and misuse necessitate the safe development and deployment of these models.
The future of LLMs will focus on developing more efficient, energy-efficient, and reliable models. Additionally, multimodal models combining text, visual, and audio data are expected to become more widespread. Developing these technologies in a more ethical and transparent manner will positively enhance their impact on society.
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History
Early NLP and Language Models
Transformer Architecture
Rise of Large Language Models
Technical Details
Parameters
Data Sources
Application Areas
Comparison
Ethical Issues
The Future of LLMs