scispace - formally typeset
Search or ask a question

Is there some research using the large language model rather than transformer architecture? 


Best insight from top research papers

Research has indeed explored the utilization of large language models (LLMs) beyond the transformer architecture. While transformers have shown remarkable capabilities in various tasks , recent studies have combined convolutional layers with transformers for LLMs, particularly in the realm of automatic speech recognition. By adapting these architectures in a causal setup, significant performance improvements have been achieved . This innovative approach merges the strengths of transformers in capturing long-range dependencies with the feature extraction abilities of convolutional layers, showcasing a robust speech architecture applicable beyond speech tasks for large-scale language modeling. Such research highlights the continuous evolution and exploration of diverse neural architecture combinations to enhance the efficiency and effectiveness of LLMs in various applications.

Answers from top 5 papers

More filters
Papers (5)Insight
Not addressed in the paper.
Open accessPosted ContentDOI
06 Jun 2023
Not addressed in the paper.
Not addressed in the paper.
Not addressed in the paper.
Not addressed in the paper.

Related Questions

How does large language model affect sentiment analysis?5 answersLarge language models (LLMs) like ChatGPT have shown promise in sentiment analysis tasks. While LLMs excel in simpler sentiment analysis tasks, they struggle with more complex tasks requiring deeper understanding or structured sentiment information. However, LLMs outperform small language models (SLMs) in few-shot learning scenarios, indicating potential in resource-constrained settings. In the financial domain, the lack of annotated data hinders sentiment analysis progress, but leveraging LLMs has led to significant advancements. LLMs have also been utilized in semi-supervised learning for market sentiment analysis on social media, demonstrating competitive performance with supervised models. Overall, LLMs have the capacity to enhance sentiment analysis tasks, especially in scenarios with limited annotated data or when dealing with simpler sentiment analysis requirements.
What are Large Language Models?5 answersLarge Language Models (LLMs) are advanced models that can generate complex token sequences and autoregressively complete tasks without additional training. LLMs, such as GPT-4 and OpenAssistant, exhibit context-dependent values and personality traits, allowing them to adopt various perspectives with differing traits. These models can be used for a wide range of applications, including robotics and low-level control. LLMs have shown excellent generalization capabilities and have led to the development of numerous models with refined training strategies and increased context length. They have the potential to revolutionize education technology, particularly in language teaching and assessment systems, by improving text generation and offering alternative feedback styles. However, there are ethical considerations and risks, such as misinformation and harmful bias, that need to be addressed when incorporating LLMs in education technology.
What is large language model?4 answersLarge language models (LLMs) are advanced AI models that have the ability to generate human-like language at a large scale. LLMs, such as GPT-4 and OpenAssistant, exhibit context-dependent values and personality traits, allowing them to adopt various perspectives with differing traits and values. LLMs have been applied to various domains, including business process management (BPM), where they can extract information from textual documents and perform tasks like mining process models and assessing process tasks for automation. LLMs have also shown promise in simulating biological systems, enabling versatile and broadly applicable biological simulators without requiring explicit domain knowledge. These models have been trained to predict the next word in a text, but they can also perform other tasks displaying intelligence. In the field of document ranking, LLMs have been used to improve performance by using techniques like Pairwise Ranking Prompting (PRP).
How can large language models be used for natural language processing?5 answersLarge language models (LLMs) have been widely used for natural language processing (NLP) tasks. These models, such as GPT-3 and GPT-4, are pre-trained on large-scale corpora and have shown strong capabilities in understanding and generating language. They have been applied to various NLP tasks, including language understanding, generation, and solving complex problems with implicit graphical structures. LLMs have been used for tasks such as multi-hop question answering, knowledge probing, structured commonsense reasoning, and biomedical natural language processing. Researchers have explored different approaches to enhance the performance of LLMs, including advanced prompting techniques, algorithmic prompting, and self-consistency decoding. However, LLMs can be influenced by irrelevant context, leading to decreased performance. Mitigation strategies, such as adding instructions to ignore irrelevant information, have been proposed. Overall, LLMs have revolutionized the NLP field and have the potential to further advance language understanding and generation tasks.
Why are large language models so important for psychology?4 answersLarge language models (LLMs) are important for psychology because they serve as practical tools, provide comparative illustrations, and offer a basis for redefining the relationship between language and thought. Additionally, LLMs can be adapted to become cognitive models by fine-tuning them on data from psychological experiments, resulting in accurate representations of human behavior. In fact, these models have been shown to outperform traditional cognitive models in certain decision-making domains. Furthermore, LLMs can predict human behavior in previously unseen tasks when fine-tuned on multiple tasks, suggesting their potential as generalist cognitive models. Moreover, LLMs have the ability to simulate personality traits in generated text, which is important for understanding the effectiveness of communication. Overall, LLMs have the potential to transform cognitive psychology and the behavioral sciences as a whole.
How can large language models be used to improve research?4 answersLarge language models (LLMs) have the potential to improve research in various fields. LLMs can address challenges in survey research by generating responses to survey items, helping with question-wording and response bias. In the field of education technology, incorporating LLMs in AI-driven language teaching and assessment systems can enhance text generation and content generation capabilities. Additionally, LLMs can aid in the annotation of viral sequences in environmental samples, expanding the understanding of viral protein function and enabling new biological discoveries. In the context of perioperative medicine, LLMs can be used for clinical decision support, research data analysis, and optimized documentation, improving patient care and quality measurement. Furthermore, LLMs have applications in scientific research, allowing for autonomous design, planning, and execution of experiments. Overall, large language models offer promising opportunities to enhance research across various domains.

See what other people are reading

How to flow clustering with machine learning?
5 answers
Flow clustering with machine learning involves utilizing innovative algorithms to enhance clustering performance. One approach is the use of normalizing flows in place of traditional layers, as seen in the GC-Flow model, which combines generative modeling with graph convolution operations to create well-separated clusters while maintaining predictive power. Another method involves the development of the Flow Direction Algorithm Optimized with Arithmetic operators (FDAOA), which addresses weaknesses like local optima and premature convergence, achieving optimal clustering solutions in various real-world problems. Additionally, unsupervised learning techniques like Ward's, K-means, SOM, and FCM can automatically cluster hydraulic flow units based on flow zone indicators, with supervised methods such as ANN, SVM, BT, and RF further enhancing prediction accuracy and reducing uncertainty in reservoir modeling. These diverse approaches showcase the potential of machine learning in advancing clustering capabilities.
What are the problems encountered on the drugs rehabilitation center on the Philippines in relation to architecture?
4 answers
The drug rehabilitation centers in the Philippines face challenges related to architecture due to the compulsory nature of treatments and the societal perception of rehabilitation as an alternative to the "war on drugs". These centers often lack a human rights-based approach and voluntary alternatives, leading to forced treatment of individuals. The architectural design of these facilities needs to consider the need for confidential work, multifunctional structures, and universal design principles to cater to the specific needs of the target users and ensure efficient spatial organization. Implementing sustainable design elements that promote interaction with the environment can positively impact the patients' state and enhance the healing process in these centers. Addressing these architectural challenges can contribute to a more effective and humane approach to drug rehabilitation in the Philippines.
What is grid search?
5 answers
Grid search is a hyperparameter tuning technique used in various domains like load forecasting, cancer data classification, and distributed data searching. It involves systematically searching through a predefined grid of hyperparameters to find the optimal model based on specified evaluation metrics. In load forecasting studies, grid search is utilized to determine the optimal Convolutional Neural Network (CNN) or Multilayer Perceptron Neural Network structure for accurate predictions. Similarly, in cancer data analysis, grid search is employed to fine-tune parameters like the number of trees, tree depth, and node split criteria for Random Forest models, enhancing classification accuracy. Moreover, in distributed data searching, Grid-enabler Search Technique (GST) leverages grid computing capabilities to improve search efficiency and performance for massive datasets.
What are the background studies on the shuffle exchange permutation network?
5 answers
Background studies on the shuffle-exchange permutation network include the development of new interconnection networks to enhance performance. The Shuffle-Exchange Permutation (SEP) network with three degrees exhibits high fault tolerance and efficient simulation through various graph structures. Additionally, the Matrix Shuffle-Exchange network is proposed as a novel neural model to handle long-range dependencies in 2D data effectively, surpassing traditional convolutional neural networks in certain tasks. Moreover, the Shuffle-Exchange SGD (SESGD) is introduced to accelerate deep neural network training by addressing communication overhead challenges in distributed stochastic gradient descent, achieving significant speedups without compromising model accuracy. Optical Shuffle-Exchange Networks (SENs) are also explored for interconnection applications, demonstrating the construction of modular SENs using arrayed waveguide gratings and tunable wavelength converters for efficient wavelength routing.
What is emotional engagement?
4 answers
Emotional engagement refers to the involvement of individuals in activities that evoke emotional responses and capture their attention. It plays a crucial role in various domains such as marketing, learning, and leadership. In marketing, emotional branding leverages customers' emotions to build strong brand connections, leading to increased loyalty. In the realm of e-learning, emotional engagement is vital for evaluating learning activities based on students' affective reactions, which can be recognized through facial expressions and analyzed using methods like facial landmarks. Additionally, in leadership, emotional intelligence (EI) enables individuals to recognize and manage emotions effectively, fostering engaged interactions that enhance decision-making and relationships within teams. Overall, emotional engagement is a multifaceted concept that influences behavior, decision-making, and relationships across various fields.
Classification of face emotions into engagement and disengagement in the distant learning environment?
5 answers
In the realm of distant learning, classifying face emotions into engagement and disengagement is crucial for enhancing online education experiences. Various studies propose deep learning approaches utilizing facial expressions to detect real-time engagement levels. These methods leverage neural networks pre-trained on face identification and fine-tuned for emotion recognition to predict students' engagement states and emotions simultaneously. By analyzing facial features and expressions, these models can swiftly determine students' levels of engagement, ranging from disengaged to highly engaged, and categorize individual emotions as happy, sad, etc., contributing to a more interactive online learning environment. The utilization of facial landmarks and CNN methods has shown promising results in accurately recognizing engagement emotions, surpassing other traditional methods like SVM.
How do remote regions differ from urban areas in terms of infrastructure and resources available for sustainable development?
5 answers
Remote regions differ from urban areas in terms of infrastructure and resources available for sustainable development due to challenges like low population density, underdeveloped infrastructure, and difficult terrain. While urban areas benefit from advanced mobile networks and efficient resource management strategies, remote regions face issues like low digital penetration and lack of power grid, making them less attractive for investments and connectivity operations. In remote areas, the development of transport infrastructure is crucial for economic potential utilization, but local populations may have conflicting views on external influences and new projects, impacting the region's socio-economic state. The focus on green energy-powered base stations and shared network infrastructure can bridge the rural-urban divide, ensuring quality service comparable to urban sites in remote communication areas.
How to make a rrl?
4 answers
To create a Resnet as representation for Reinforcement Learning (RRL), a method involves fusing features from pre-trained Resnet into the standard reinforcement learning pipeline, enabling the learning of complex behaviors directly from proprioceptive inputs. This approach proves effective in scenarios where traditional methods struggle, such as in dexterous manipulation tasks, showcasing contact-rich behaviors. The appeal of RRL lies in its simplicity, combining advancements from Representation Learning, Imitation Learning, and Reinforcement Learning fields. By leveraging RRL, robots can autonomously learn behaviors in uninstrumented environments using only proprioceptive sensors, like cameras and joint encoders, without the need for extensive training data or increased model complexity.
What is openness?
5 answers
Openness encompasses various dimensions across different contexts. In urban development, openness in architecture like the Oslo Opera House involves creating partial atmospheric enclosures that shape the perception of space. In the realm of knowledge and development, openness entails removing barriers to access and sharing, promoting transparency and collaboration. Joint attention episodes highlight openness as a state of complete transparency and shared perception, emphasizing mutual awareness without cognitive overload. In multi-agent systems, openness refers to the dynamic nature of entities joining and leaving, making behavior complex and necessitating representative models that consider structural, functional, and interactional aspects simultaneously. Overall, openness signifies transparency, collaboration, shared perception, and adaptability in various domains.
How do microgrids compare to traditional power grids in terms of managing electrical losses?
4 answers
Microgrids differ from traditional power grids in managing electrical losses due to their unique characteristics. Traditional grids rely on rotational inertia for instant power balance, while microgrids lack inertia due to renewable sources, making control complex. In contrast, microgrids can enhance reliability by minimizing power losses through strategies like real power sharing and distributed generation systems, reducing losses significantly. Additionally, microgrids enable intelligent management for efficient energy distribution, allowing consumers to impact power balancing processes. Smart transformers in hybrid microgrids further optimize power flow paths to minimize line losses, showcasing a 22% reduction compared to conventional methods. Overall, microgrids offer innovative solutions to mitigate electrical losses and improve grid efficiency compared to traditional systems.
Why do students cannot transform correctly in solving word problem?
5 answers
Students often struggle with transforming information correctly in solving word problems due to various reasons identified in the research. Factors contributing to this difficulty include poor reading comprehension skills, lack of understanding of mathematical terms, inability to translate the problem into a mathematical model, and challenges in formulating equations required for the word problem. Additionally, students may face issues with identifying the relevant information needed to create variables for the problem, selecting appropriate mathematical strategies, and comprehending the relationship between linguistic and numerical components in the word problem. These challenges are further exacerbated by factors such as laziness in reading lengthy questions, difficulty in interpreting problem statements, lack of interest in mathematics, unclear concepts due to memorization-based learning, infrequent practice, low motivation, classroom environment, and learning strategies.