Table of Contents
Why does deep learning require so much data?
1. Transfer learning helps in training deep learning models with small data sets.
Home Technology peripherals AI How to improve deep learning models using small data sets?

How to improve deep learning models using small data sets?

Apr 13, 2023 pm 11:58 PM
machine learning data deep learning

Translator | Bugatti

Reviewer | Sun Shujuan

As we all know, deep learning models have a large demand for data. The more data you feed deep learning models, the better they perform. Unfortunately, in most practical situations, this is not possible. You may not have enough data, or the data may be too expensive to collect.

How to improve deep learning models using small data sets?

This article will discuss four ways to improve deep learning models without using more data.

Why does deep learning require so much data?

Deep learning models are compelling because they can learn to understand complex relationships. Deep learning models contain multiple layers. Each layer learns to understand data representations of increasing complexity. The first layer might learn to detect simple patterns, such as edges. A second layer might learn to see patterns in these edges, such as shapes. A third layer might learn to recognize objects composed of these shapes, and so on.

Each layer consists of a series of neurons, which in turn are connected to each neuron in the previous layer. All these layers and neurons mean there are a lot of parameters to optimize. So the good thing is that deep learning models have powerful capabilities. But the downside means they are prone to overfitting. Overfitting means that the model captures too many interference signals in the training data and cannot be applied to new data.

With enough data, deep learning models can learn to detect very complex relationships. However, if you don’t have enough data, deep learning models won’t be able to understand these complex relationships. We must have enough data so that the deep learning model can learn.

But if collecting more data is unlikely, we have several techniques to overcome this.

1. Transfer learning helps in training deep learning models with small data sets.

Transfer learning is a machine learning technique that allows you to take a model trained on one problem and use it as a starting point for solving different related problems.

For example, you could take a model trained on a huge dataset of dog images and use it as a starting point for training a model to identify dog ​​breeds.

Hopefully the features learned by the first model can be reused, thus saving time and resources. There is no rule of thumb as to how different the two applications are. However, transfer learning can still be used even if the original data set and the new data set are very different.

For example, you could take a model trained on images of cats and use it as a starting point for training a model to recognize camel types. Hopefully, figuring out the function of the four legs in the first model might help identify camels.

If you want to learn more about transfer learning, you can refer to​​"Transfer Learning for Natural Language Processing"​​​. If you are a Python programmer, you may also find "Practical Transfer Learning with Python" helpful.

2. Try data augmentation

Data augmentation is a technique where you can take existing data and generate new synthetic data.

For example, if you have a dataset of dog images, you can use data augmentation to generate new dog pictures. You can do this by randomly cropping the image, flipping it horizontally, adding noise, and several other techniques.

If you have a small data set, data augmentation can be of great benefit. By generating new data, you can artificially increase the size of your dataset, giving your deep learning model more data to work with.

These​

​handouts​​on deep learning will help you gain a deeper understanding of data augmentation.

3. Using an autoencoder

An autoencoder is a deep learning model used to learn low-dimensional data representations.

Autoencoders are useful when you have a small data set because they can learn to compress your data into a low-dimensional space.

There are many different types of autoencoders. Variational autoencoders (VAEs) are a popular type of autoencoder. VAEs are generative models, which means they can generate new data. This helps a lot because you can use VAE to generate new data points that are similar to the training data. This is a great way to increase the size of your dataset without actually collecting more data.

Original title: How to Improve Deep Learning Models With Small Datasets

The above is the detailed content of How to improve deep learning models using small data sets?. For more information, please follow other related articles on the PHP Chinese website!

Statement of this Website
The content of this article is voluntarily contributed by netizens, and the copyright belongs to the original author. This site does not assume corresponding legal responsibility. If you find any content suspected of plagiarism or infringement, please contact admin@php.cn

Hot AI Tools

Undresser.AI Undress

Undresser.AI Undress

AI-powered app for creating realistic nude photos

AI Clothes Remover

AI Clothes Remover

Online AI tool for removing clothes from photos.

Undress AI Tool

Undress AI Tool

Undress images for free

Clothoff.io

Clothoff.io

AI clothes remover

Video Face Swap

Video Face Swap

Swap faces in any video effortlessly with our completely free AI face swap tool!

Hot Tools

Notepad++7.3.1

Notepad++7.3.1

Easy-to-use and free code editor

SublimeText3 Chinese version

SublimeText3 Chinese version

Chinese version, very easy to use

Zend Studio 13.0.1

Zend Studio 13.0.1

Powerful PHP integrated development environment

Dreamweaver CS6

Dreamweaver CS6

Visual web development tools

SublimeText3 Mac version

SublimeText3 Mac version

God-level code editing software (SublimeText3)

This article will take you to understand SHAP: model explanation for machine learning This article will take you to understand SHAP: model explanation for machine learning Jun 01, 2024 am 10:58 AM

In the fields of machine learning and data science, model interpretability has always been a focus of researchers and practitioners. With the widespread application of complex models such as deep learning and ensemble methods, understanding the model's decision-making process has become particularly important. Explainable AI|XAI helps build trust and confidence in machine learning models by increasing the transparency of the model. Improving model transparency can be achieved through methods such as the widespread use of multiple complex models, as well as the decision-making processes used to explain the models. These methods include feature importance analysis, model prediction interval estimation, local interpretability algorithms, etc. Feature importance analysis can explain the decision-making process of a model by evaluating the degree of influence of the model on the input features. Model prediction interval estimate

Beyond ORB-SLAM3! SL-SLAM: Low light, severe jitter and weak texture scenes are all handled Beyond ORB-SLAM3! SL-SLAM: Low light, severe jitter and weak texture scenes are all handled May 30, 2024 am 09:35 AM

Written previously, today we discuss how deep learning technology can improve the performance of vision-based SLAM (simultaneous localization and mapping) in complex environments. By combining deep feature extraction and depth matching methods, here we introduce a versatile hybrid visual SLAM system designed to improve adaptation in challenging scenarios such as low-light conditions, dynamic lighting, weakly textured areas, and severe jitter. sex. Our system supports multiple modes, including extended monocular, stereo, monocular-inertial, and stereo-inertial configurations. In addition, it also analyzes how to combine visual SLAM with deep learning methods to inspire other research. Through extensive experiments on public datasets and self-sampled data, we demonstrate the superiority of SL-SLAM in terms of positioning accuracy and tracking robustness.

Implementing Machine Learning Algorithms in C++: Common Challenges and Solutions Implementing Machine Learning Algorithms in C++: Common Challenges and Solutions Jun 03, 2024 pm 01:25 PM

Common challenges faced by machine learning algorithms in C++ include memory management, multi-threading, performance optimization, and maintainability. Solutions include using smart pointers, modern threading libraries, SIMD instructions and third-party libraries, as well as following coding style guidelines and using automation tools. Practical cases show how to use the Eigen library to implement linear regression algorithms, effectively manage memory and use high-performance matrix operations.

The U.S. Air Force showcases its first AI fighter jet with high profile! The minister personally conducted the test drive without interfering during the whole process, and 100,000 lines of code were tested for 21 times. The U.S. Air Force showcases its first AI fighter jet with high profile! The minister personally conducted the test drive without interfering during the whole process, and 100,000 lines of code were tested for 21 times. May 07, 2024 pm 05:00 PM

Recently, the military circle has been overwhelmed by the news: US military fighter jets can now complete fully automatic air combat using AI. Yes, just recently, the US military’s AI fighter jet was made public for the first time and the mystery was unveiled. The full name of this fighter is the Variable Stability Simulator Test Aircraft (VISTA). It was personally flown by the Secretary of the US Air Force to simulate a one-on-one air battle. On May 2, U.S. Air Force Secretary Frank Kendall took off in an X-62AVISTA at Edwards Air Force Base. Note that during the one-hour flight, all flight actions were completed autonomously by AI! Kendall said - "For the past few decades, we have been thinking about the unlimited potential of autonomous air-to-air combat, but it has always seemed out of reach." However now,

Five schools of machine learning you don't know about Five schools of machine learning you don't know about Jun 05, 2024 pm 08:51 PM

Machine learning is an important branch of artificial intelligence that gives computers the ability to learn from data and improve their capabilities without being explicitly programmed. Machine learning has a wide range of applications in various fields, from image recognition and natural language processing to recommendation systems and fraud detection, and it is changing the way we live. There are many different methods and theories in the field of machine learning, among which the five most influential methods are called the "Five Schools of Machine Learning". The five major schools are the symbolic school, the connectionist school, the evolutionary school, the Bayesian school and the analogy school. 1. Symbolism, also known as symbolism, emphasizes the use of symbols for logical reasoning and expression of knowledge. This school of thought believes that learning is a process of reverse deduction, through existing

AI startups collectively switched jobs to OpenAI, and the security team regrouped after Ilya left! AI startups collectively switched jobs to OpenAI, and the security team regrouped after Ilya left! Jun 08, 2024 pm 01:00 PM

Last week, amid the internal wave of resignations and external criticism, OpenAI was plagued by internal and external troubles: - The infringement of the widow sister sparked global heated discussions - Employees signing "overlord clauses" were exposed one after another - Netizens listed Ultraman's "seven deadly sins" Rumors refuting: According to leaked information and documents obtained by Vox, OpenAI’s senior leadership, including Altman, was well aware of these equity recovery provisions and signed off on them. In addition, there is a serious and urgent issue facing OpenAI - AI safety. The recent departures of five security-related employees, including two of its most prominent employees, and the dissolution of the "Super Alignment" team have once again put OpenAI's security issues in the spotlight. Fortune magazine reported that OpenA

Explainable AI: Explaining complex AI/ML models Explainable AI: Explaining complex AI/ML models Jun 03, 2024 pm 10:08 PM

Translator | Reviewed by Li Rui | Chonglou Artificial intelligence (AI) and machine learning (ML) models are becoming increasingly complex today, and the output produced by these models is a black box – unable to be explained to stakeholders. Explainable AI (XAI) aims to solve this problem by enabling stakeholders to understand how these models work, ensuring they understand how these models actually make decisions, and ensuring transparency in AI systems, Trust and accountability to address this issue. This article explores various explainable artificial intelligence (XAI) techniques to illustrate their underlying principles. Several reasons why explainable AI is crucial Trust and transparency: For AI systems to be widely accepted and trusted, users need to understand how decisions are made

Is Flash Attention stable? Meta and Harvard found that their model weight deviations fluctuated by orders of magnitude Is Flash Attention stable? Meta and Harvard found that their model weight deviations fluctuated by orders of magnitude May 30, 2024 pm 01:24 PM

MetaFAIR teamed up with Harvard to provide a new research framework for optimizing the data bias generated when large-scale machine learning is performed. It is known that the training of large language models often takes months and uses hundreds or even thousands of GPUs. Taking the LLaMA270B model as an example, its training requires a total of 1,720,320 GPU hours. Training large models presents unique systemic challenges due to the scale and complexity of these workloads. Recently, many institutions have reported instability in the training process when training SOTA generative AI models. They usually appear in the form of loss spikes. For example, Google's PaLM model experienced up to 20 loss spikes during the training process. Numerical bias is the root cause of this training inaccuracy,

See all articles