This is the Trace Id: d3ff84681ee9374943b1e969e4640af0
Skip to main content
Azure

Decreased training time

Small models train faster than larger ones, allowing for quicker iterations and experimentation. Reduced training time accelerates the development process, to facilitate faster deployment and testing of new applications.

Lower costs

The reduced computational requirements, training time, and energy consumption of SLMs result in lower overall costs. This affordability makes them accessible to a broader range of people and organizations.

Challenges and limitations of SLMs

Small language models are designed to be efficient and lightweight. This design can lead to constraints on their ability to process and understand complex language, potentially reducing their accuracy and performance in handling intricate tasks.

Here are a few common challenges associated with SLMs:
Limited capacity for complex language comprehension:
If LLMs pull information from a sprawling, all-encompassing library, SLMs pull from a small section of the library, or maybe even a few highly specific books. This limits the performance, flexibility, and creativity of SLMs in completing complex tasks that benefit from the additional parameters and power of LLMs. SLMs may struggle to grasp nuances, contextual subtleties, and intricate relationships within language, which can lead to misunderstandings or oversimplified interpretations of text.
Potential for reduced accuracy on complex tasks:
Small language models often face challenges in maintaining accuracy when tasked with complex problem-solving or decision-making scenarios. Their limited processing power and smaller training datasets can result in reduced precision and increased error rates on tasks that involve multifaceted reasoning, intricate data patterns, or high levels of abstraction. Consequently, they may not be the best choice for applications that demand high accuracy, such as scientific research or medical diagnostics.
Limited performance:
The overall performance of small language models is often constrained by their size and computational efficiency. While they are advantageous for quick and cost-effective solutions, they might not deliver the robust performance required for demanding tasks.

These and other limitations make SLMs less effective in applications that require