Large Language Models (LLMs) such as GPT-4 and LLaMA2-70B enable various applications in natural language processing. However, their deployment is challenged by high costs and the need to fine-tune many system settings to achieve optimal performance. Deploying these models involves a complex selection process among various system configurations and traditionally requires expensive and time-consuming experimentation.…
Autoregressive language models (ALMs) have become invaluable tools in machine translation, text generation, and similar tasks. Despite their success, challenges persist such as high computational complexity and extensive GPU memory usage. This makes the need for a cost-effective way to operate these models urgent. Large language models (LLMs), which use KV Cache mechanism to enhance…
Language models, a subset of artificial intelligence, are utilized in a myriad of applications including chatbots, predictive text, and language translation services. A significant challenge faced by researchers in Artificial Intelligence (AI) is making these models more efficient while also enhancing their ability to comprehend and process large amounts of data.
Imperative to the field of…
Artificial intelligence models, in particular large language models (LLMs), have made significant strides in generating coherent and contextually appropriate language. However, they sometimes create content that seems correct but is actually inaccurate or irrelevant, a problem often referred to as "hallucination". This can pose a considerable issue in areas where high factual accuracy is critical,…
Mixture-of-experts (MoE) architectures, designed for better scaling of model sizes and more efficient inference and training, present a challenge to optimize due to their non-differentiable, discrete nature. Traditional MoEs use a router network which directs input data to expert modules, a process that is complex and can lead to inefficiencies and under-specialization of expert modules.…
Large Language Models (LLMs) play a crucial role in computational linguistics. However, their enormous size and the massive computational demands they require make deploying them very challenging. To faciliate simpler computations and boost model performance, a process of "quantization" is used, which simplifies the data involved. Traditional quantization techniques convert high-precision numbers into lower-precision integers,…
The recent development of large language models (LLMs), which can generate high-quality content across various domains, has revolutionized the field of natural language creation. These models are fundamentally of two types: those with open-source model weights and data sources, and those for which all model-related information, including training data, data sampling ratios, logs, checkpoints, and…
In the world of medical technology, the use of large language models (LLMs) is becoming instrumental, largely due to their ability to analyse and discern copious amounts of medical text, providing insight that would typically require extensive human expertise. The evolution of such technology could lead to substantial reductions in healthcare costs and broaden access…
Robotics traditionally operates within two dominant architectures: modular hierarchical policies and end-to-end policies. The former uses rigid layers like symbolic planning, trajectory generation, and tracking, whereas the latter uses high-capacity neural networks to directly connect sensory input to actions. Large language models (LLMs) have rejuvenated the interest in hierarchical control architectures, with researchers using LLMs…
Information extraction (IE) is a crucial aspect of artificial intelligence, which involves transforming unstructured text into structured and actionable data. Traditional large language models (LLMs), while having high capacities, often struggle to properly comprehend and perform detailed specific directives necessary for effective IE. This problem is particularly evident in closed IE tasks that require adherence…
Structured commonsense reasoning in natural language processing (NLP) is a vital research area focusing on enabling machines to understand and reason about everyday scenarios like humans. It involves translating natural language into interlinked concepts that mirror human logical reasoning. However, it's consistently challenging to automate and accurately model commonsense reasoning.
Traditional methodologies often require robust mechanisms…