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How to Use Hugging Face Pipelines? – Towards AI
Originally published on Towards AI. With the libraries developed recently, it has become easier to perform deep learning analysis. One of these libraries is Hugging Face. Hugging Face is a platform that provides pre-trained language models for NLP tasks such as text classification, sentiment analysis, and more. This blog will walk you through how to perform NLP tasks with Hugging Face Pipelines.
Building a Neural Network using Keras and TensorFlow in Python
Python can make use of artificial intelligence through various libraries and frameworks such as TensorFlow, Keras, and scikit-learn. For example, one can use TensorFlow and Keras to build a neural network for image classification. The model can be trained on a dataset of images, and then used to predict the class of new images. This is a simple example, but it demonstrates how easy it is to use Python with TensorFlow and Keras to train a neural network and make predictions with artificial intelligence. One advanced example of using Python and artificial intelligence is to train a deep learning model for natural language processing tasks, such as language translation.
Unleashing the Power of Time Series Data with the Time Series Transformer
What is the Time Series Transformer? The Time Series Transformer (TST) is a state-of-the-art model for time series forecasting developed by researchers at Google and the University of Amsterdam. It is based on the transformer architecture, which has achieved impressive results on a variety of natural language processing tasks. One of the key features of the TST is that it can handle long input sequences and make accurate forecasts for a wide range of time series data, including financial, meteorological, and traffic data. It is also able to learn from multiple related time series simultaneously, which is important for many real-world applications. How does the Time Series Transformer work?
Transformer models - Hugging Face Course
This course will teach you about natural language processing (NLP) using libraries from the Hugging Face ecosystem -- Transformers, Datasets, Tokenizers, and Accelerate -- as well as the Hugging Face Hub. Matthew Carrigan is a Machine Learning Engineer at Hugging Face. He lives in Dublin, Ireland and previously worked as an ML engineer at Parse.ly and before that as a post-doctoral researcher at Trinity College Dublin. He does not believe we're going to get to AGI by scaling existing architectures, but has high hopes for robot immortality regardless. Lysandre Debut is a Machine Learning Engineer at Hugging Face and has been working on the Transformers library since the very early development stages.
Deep Transfer Learning for NLP with Transformers
This is arguably the most important architecture for natural language processing (NLP) today. Specifically, we look at modeling frameworks such as the generative pretrained transformer (GPT), bidirectional encoder representations from transformers (BERT) and multilingual BERT (mBERT). These methods employ neural networks with more parameters than most deep convolutional and recurrent neural network models. Despite the larger size, they've exploded in popularity because they scale comparatively more effectively on parallel computing architecture. This enables even larger and more sophisticated models to be developed in practice. Until the arrival of the transformer, the dominant NLP models relied on recurrent and convolutional components. Additionally, the best sequence modeling and transduction problems, such as machine translation, rely on an encoder-decoder architecture with an attention mechanism to detect which parts of the input influence each part of the output. The transformer aims to replace the recurrent and convolutional components entirely with attention.
Announcing managed inference for Hugging Face models in Amazon SageMaker
Hugging Face is the technology startup, with an active open-source community, that drove the worldwide adoption of transformer-based models thanks to its eponymous Transformers library. Earlier this year, Hugging Face and AWS collaborated to enable you to train and deploy over 10,000 pre-trained models on Amazon SageMaker. For more information on training Hugging Face models at scale on SageMaker, refer to AWS and Hugging Face collaborate to simplify and accelerate adoption of Natural Language Processing models and the sample notebooks. In this post, we discuss different methods to create a SageMaker endpoint for a Hugging Face model. If you're unfamiliar with transformer-based models and their place in the natural language processing (NLP) landscape, here is an overview.
Implementing Transformers in NLP - Analytics Vidhya
Today, we will see a gentle introduction to the transformers library for executing state-of-the-art models for complex NLP tasks. Applying state-of-the-art Natural Language Processing models has never been more straightforward. Hugging Face has revealed a compelling library called transformers that allow us to perform and use a broad class of state-of-the-art NLP models in a specific way. So before we start evaluating each of the implementations for the varying tasks, let's fix the transformers library. Great, with the two preceding steps, your device would have installed the library accurately. So let's start with the separate implementations; let's work for it!
How to Create and Deploy a Simple Sentiment Analysis App via API - KDnuggets
Let's say you've built an NLP model for some specific task, whether it be text classification, question answering, translation, or what have you. You've tested it out locally and it performs well. You've had others test it out as well, and it continues to perform well. Now you want to roll it out to a larger audience, be that audience a team of developers you work with, a specific group of end users, or even the general public. You have decided that you want to do so using a REST API, as you find this to be your best option.