basics of GAN neural network
GAN is a advanced tech in area of neural networks which will help to generate new data . This new data will be developed based over the past experiences and raw data.
Near Field Communication (NFC) is a short-range wireless technology that allows communication between devices within 10 cm of each other. NFC operates at 13.56 MHz and transmission rates ranging from 106-424 Kbit/s. NFC supports both active and passive communication modes. Potential applications of NFC include contactless payments, data sharing, and device configuration. While security threats are present with NFC, establishing a secure channel can protect against eavesdropping and data modification attacks. NFC is expected to transform everyday tasks and be widely adopted in the future.
GANs are the new hottest topic in the ML arena; however, they present a challenge for the researchers and the engineers alike. Their design, and most importantly, the code implementation has been causing headaches to the ML practitioners, especially when moving to production.
Starting from the very basic of what a GAN is, passing trough Tensorflow implementation, using the most cutting-edge APIs available in the framework, and finally, production-ready serving at scale using Google Cloud ML Engine.
Slides for the talk: https://www.pycon.it/conference/talks/deep-diving-into-gans-form-theory-to-production
Github repo: https://github.com/zurutech/gans-from-theory-to-production
Digital scent technology allows for the digital transmission and perception of smells. It works by combining an olfactometer and electric noses to generate smells that correspond to digital media like videos, games and websites. The technology was founded to help perfume companies advertise scents online. It has applications in marketing, entertainment, education and medicine. While it provides benefits like portability and reliability, challenges include high costs, potential chemical issues and delays matching smells to digital content.
It contains information about- DNA Sequencing; History and Era sequencing; Next Generation Sequencing- Introduction, Workflow, Illumina/Solexa sequencing, Roche/454 sequencing, Ion Torrent sequencing, ABI-SOLiD sequencing; Comparison between NGS & Sangers and NGS Platforms; Advantages and Applications of NGS; Future Applications of NGS.
Presented at All Things Open RTP Meetup
Presented by Karthik Uppuluri, Fidelity
Title: Generative AI
Abstract: In this session, let us embark on a journey into the fascinating world of generative artificial intelligence. As an emergent and captivating branch of machine learning, generative AI has become instrumental in myriad of sectors, ranging from visual arts to creating software for technological solutions. This session requires no prior expertise in machine learning or AI. It aims to inculcate a robust understanding of fundamental concepts and principles of generative AI and its diverse applications. Join us as we delve into the mechanics of this transformative technology and unpack its potential.
The document discusses the use of information and communication technologies (ICT) in education. ICT is defined as technologies used to communicate, create, disseminate, store, and manage information. ICT includes computers, storage, networking, and other devices used to process electronic data. When used in education, ICT can lead to improved student learning through more effective teaching methods, diagnostic testing to optimize learning, and development of students' reasoning abilities. ICT also facilitates distance education and scientific research collaboration. The document outlines various uses of ICT in education, including rich multimedia presentations, communication for all students, and online resources to support sharing information.
Introduction to Generative Adversarial Networks (GANs) by Michał Maj
Full story: https://appsilon.com/satellite-imagery-generation-with-gans/
Generative adversarial networks (GANs) are a class of machine learning frameworks where two neural networks, a generator and discriminator, compete against each other. The generator learns to generate new data with the same statistics as the training set to fool the discriminator, while the discriminator learns to better distinguish real samples from generated samples. GANs have applications in image generation, image translation between domains, and image completion. Training GANs can be challenging due to issues like mode collapse.
Generative Adversarial Networks (GANs) are a class of machine learning frameworks where two neural networks contest with each other in a game. A generator network generates new data instances, while a discriminator network evaluates them for authenticity, classifying them as real or generated. This adversarial process allows the generator to improve over time and generate highly realistic samples that can pass for real data. The document provides an overview of GANs and their variants, including DCGAN, InfoGAN, EBGAN, and ACGAN models. It also discusses techniques for training more stable GANs and escaping issues like mode collapse.
This document provides an overview of generative adversarial networks (GANs). It explains that GANs were introduced in 2014 and involve two neural networks, a generator and discriminator, that compete against each other. The generator produces synthetic data to fool the discriminator, while the discriminator learns to distinguish real from synthetic data. As they train, the generator improves at producing more realistic outputs that match the real data distribution. Examples of GAN applications discussed include image generation, text-to-image synthesis, and face aging.
Introduction to Generative Adversarial NetworksBennoG1
Generative Adversarial Networks (GANs) are a type of neural network that can generate new data with the same statistics as the training set. GANs work by having two neural networks - a generator and a discriminator - compete against each other in a minimax game framework. The generator tries to generate fake data that looks real, while the discriminator tries to tell apart the real data from the fake data. Wasserstein GANs introduce a new loss function based on the Wasserstein distance to help improve GAN training stability and convergence.
Generative Adversarial Networks and Their ApplicationsArtifacia
This is the presentation from our AI Meet Jan 2017 on GANs and its applications.
You can join Artifacia AI Meet Bangalore Group: https://www.meetup.com/Artifacia-AI-Meet/
Generative Adversarial Networks is an advanced topic and requires a prior basic understanding of CNNs. Here is some pre-reading material for you.
- https://arxiv.org/pdf/1406.2661v1.pdf
- https://arxiv.org/pdf/1701.00160v1.pdf
Generative Adversarial Networks (GANs) use two neural networks, a generator and discriminator, that compete against each other. The generator learns to generate fake images that look real, while the discriminator learns to tell real images apart from fakes. This document discusses various GAN architectures and applications, including conditional GANs, image-to-image translation, style transfer, semantic image editing, and data augmentation using GAN-generated images. It also covers evaluation metrics for GANs and societal impacts such as bias and deepfakes.
Optic Flow Estimation by Deep Learning outlines several key concepts in optical flow estimation including:
- Optical flow is the apparent motion of brightness patterns in images. Estimating optical flow involves making assumptions like brightness constancy and spatial coherence.
- Classical algorithms like Lucas-Kanade and Horn-Schunck use techniques like regularization, coarse-to-fine processing, and descriptor matching to address challenges like the aperture problem, large displacements, and occlusions.
- Recent deep learning approaches like FlowNet, DeepFlow, and EpicFlow use convolutional neural networks to directly learn optical flow, achieving state-of-the-art performance on benchmarks. These approaches combine descriptor matching, variational optimization,
This document summarizes generative adversarial networks (GANs) and their applications. It begins by introducing GANs and how they work by having a generator and discriminator play an adversarial game. It then discusses several variants of GANs including DCGAN, LSGAN, conditional GAN, and others. It provides examples of applications such as image-to-image translation, text-to-image synthesis, image generation, and more. It concludes by discussing major GAN variants and potential future applications like helping children learn to draw.
The detailed overview of the whole family of StyleGANs starting from the ProgressiveGAN to the latest StyleGAN3.
Such a continuous look at the StyleGAN improvements gives an excellent understanding of the research principles and approaches for improving your own models.
Generative Adversarial Networks (GANs) - Ian Goodfellow, OpenAIWithTheBest
This is how Generative Adversarial Networks (GANs) work and benefit the tech and dev industry. Although GANs still have room for improvement, GANs are important generative models that learn how to create realistic samples.
GANS
Ian Goodfellow, OpenAI Research Scientist
Generative adversarial networks (GANs) are a type of neural network introduced in 2014. GANs consist of two neural networks, a generator and discriminator, that compete against each other. The generator creates new data instances to fool the discriminator, while the discriminator evaluates whether instances are real or generated. Through this adversarial training process, GANs can generate highly realistic new images, text, and other data types. Common applications of GANs include image-to-image translation, super resolution, text-to-image generation, and more. Researchers continue advancing GAN techniques and exploring new applications.
The Inception-v3 model is a deep convolutional neural network designed for image classification tasks. It improves on previous Inception models by incorporating techniques like factorized convolutions and inception modules to achieve state-of-the-art performance on image classification benchmarks while being more computationally efficient. The Inception-v3 model was trained on the ImageNet dataset consisting of over 1 million images across 1,000 classes. It has been widely used for applications such as image classification, medical image analysis, and object detection.
The document discusses Generative Adversarial Networks (GANs), a type of generative model proposed by Ian Goodfellow in 2014. GANs use two neural networks, a generator and discriminator, that compete against each other. The generator produces synthetic data to fool the discriminator, while the discriminator learns to distinguish real from synthetic data. GANs have been used successfully to generate realistic images when trained on large datasets. Examples mentioned include Pix2Pix for image-to-image translation and STACKGAN for text-to-image generation.
Slides by Víctor Garcia about the paper:
Reed, Scott, Zeynep Akata, Xinchen Yan, Lajanugen Logeswaran, Bernt Schiele, and Honglak Lee. "Generative adversarial text to image synthesis." ICML 2016.
Slides by Víctor Garcia about:
Phillip Isola, Jun-Yan Zhu, Tinghui Zhou, Alexei A. Efros, "Image-to-Image Translation Using Conditional Adversarial Networks".
In arxiv, 2016.
https://phillipi.github.io/pix2pix/
We investigate conditional adversarial networks as a general-purpose solution to image-to-image translation problems. These networks not only learn the mapping from input image to output image, but also learn a loss function to train this mapping. This makes it possible to apply the same generic approach to problems that traditionally would require very different loss formulations. We demonstrate that this approach is effective at synthesizing photos from label maps, reconstructing objects from edge maps, and colorizing images, among other tasks. As a community, we no longer hand-engineer our mapping functions, and this work suggests we can achieve reasonable results without hand-engineering our loss functions either.
We investigate conditional adversarial networks as a general-purpose solution to image-to-image translation problems. These networks not only learn the mapping from input image to output image, but also learn a loss function to train this mapping. This makes it possible to apply the same generic approach to problems that traditionally would require very different loss formulations. We demonstrate that this approach is effective at synthesizing photos from label maps, reconstructing objects from edge maps, and colorizing images, among other tasks. As a community, we no longer hand-engineer our mapping functions, and this work suggests we can achieve reasonable results without hand-engineering our loss functions either.
발표자: 박태성 (UC Berkeley 박사과정)
발표일: 2017.6.
Taesung Park is a Ph.D. student at UC Berkeley in AI and computer vision, advised by Prof. Alexei Efros.
His research interest lies between computer vision and computational photography, such as generating realistic images or enhancing photo qualities. He received B.S. in mathematics and M.S. in computer science from Stanford University.
개요:
Image-to-image translation is a class of vision and graphics problems where the goal is to learn the mapping between an input image and an output image using a training set of aligned image pairs.
However, for many tasks, paired training data will not be available.
We present an approach for learning to translate an image from a source domain X to a target domain Y in the absence of paired examples.
Our goal is to learn a mapping G: X → Y such that the distribution of images from G(X) is indistinguishable from the distribution Y using an adversarial loss.
Because this mapping is highly under-constrained, we couple it with an inverse mapping F: Y → X and introduce a cycle consistency loss to push F(G(X)) ≈ X (and vice versa).
Qualitative results are presented on several tasks where paired training data does not exist, including collection style transfer, object transfiguration, season transfer, photo enhancement, etc.
Quantitative comparisons against several prior methods demonstrate the superiority of our approach.
The document introduces autoencoders, which are neural networks that compress an input into a lower-dimensional code and then reconstruct the output from that code. It discusses that autoencoders can be trained using an unsupervised pre-training method called restricted Boltzmann machines to minimize the reconstruction error. Autoencoders can be used for dimensionality reduction, document retrieval by compressing documents into codes, and data visualization by compressing high-dimensional data points into 2D for plotting with different categories colored separately.
The document discusses using generative adversarial networks (GANs) for text-to-image generation. GANs involve two neural networks, a generator and discriminator, that compete against each other. The generator generates images from text descriptions, while the discriminator tries to distinguish real images from generated ones. The document outlines the network architecture, literature review on GAN improvements, methodology used which involves training the GAN on a dataset to generate high resolution images from low resolution inputs conditioned on text.
The document discusses using generative adversarial networks (GANs) for text-to-image generation. GANs involve two neural networks, a generator and discriminator, that compete against each other. The generator generates images from text descriptions, while the discriminator tries to distinguish real images from generated ones. The document outlines the network architecture, literature review on GAN improvements, methodology used which involves training the GAN on a dataset to generate high resolution images from low resolution inputs conditioned on text.
Introduction to Generative Adversarial Networks (GANs) by Michał Maj
Full story: https://appsilon.com/satellite-imagery-generation-with-gans/
Generative adversarial networks (GANs) are a class of machine learning frameworks where two neural networks, a generator and discriminator, compete against each other. The generator learns to generate new data with the same statistics as the training set to fool the discriminator, while the discriminator learns to better distinguish real samples from generated samples. GANs have applications in image generation, image translation between domains, and image completion. Training GANs can be challenging due to issues like mode collapse.
Generative Adversarial Networks (GANs) are a class of machine learning frameworks where two neural networks contest with each other in a game. A generator network generates new data instances, while a discriminator network evaluates them for authenticity, classifying them as real or generated. This adversarial process allows the generator to improve over time and generate highly realistic samples that can pass for real data. The document provides an overview of GANs and their variants, including DCGAN, InfoGAN, EBGAN, and ACGAN models. It also discusses techniques for training more stable GANs and escaping issues like mode collapse.
This document provides an overview of generative adversarial networks (GANs). It explains that GANs were introduced in 2014 and involve two neural networks, a generator and discriminator, that compete against each other. The generator produces synthetic data to fool the discriminator, while the discriminator learns to distinguish real from synthetic data. As they train, the generator improves at producing more realistic outputs that match the real data distribution. Examples of GAN applications discussed include image generation, text-to-image synthesis, and face aging.
Introduction to Generative Adversarial NetworksBennoG1
Generative Adversarial Networks (GANs) are a type of neural network that can generate new data with the same statistics as the training set. GANs work by having two neural networks - a generator and a discriminator - compete against each other in a minimax game framework. The generator tries to generate fake data that looks real, while the discriminator tries to tell apart the real data from the fake data. Wasserstein GANs introduce a new loss function based on the Wasserstein distance to help improve GAN training stability and convergence.
Generative Adversarial Networks and Their ApplicationsArtifacia
This is the presentation from our AI Meet Jan 2017 on GANs and its applications.
You can join Artifacia AI Meet Bangalore Group: https://www.meetup.com/Artifacia-AI-Meet/
Generative Adversarial Networks is an advanced topic and requires a prior basic understanding of CNNs. Here is some pre-reading material for you.
- https://arxiv.org/pdf/1406.2661v1.pdf
- https://arxiv.org/pdf/1701.00160v1.pdf
Generative Adversarial Networks (GANs) use two neural networks, a generator and discriminator, that compete against each other. The generator learns to generate fake images that look real, while the discriminator learns to tell real images apart from fakes. This document discusses various GAN architectures and applications, including conditional GANs, image-to-image translation, style transfer, semantic image editing, and data augmentation using GAN-generated images. It also covers evaluation metrics for GANs and societal impacts such as bias and deepfakes.
Optic Flow Estimation by Deep Learning outlines several key concepts in optical flow estimation including:
- Optical flow is the apparent motion of brightness patterns in images. Estimating optical flow involves making assumptions like brightness constancy and spatial coherence.
- Classical algorithms like Lucas-Kanade and Horn-Schunck use techniques like regularization, coarse-to-fine processing, and descriptor matching to address challenges like the aperture problem, large displacements, and occlusions.
- Recent deep learning approaches like FlowNet, DeepFlow, and EpicFlow use convolutional neural networks to directly learn optical flow, achieving state-of-the-art performance on benchmarks. These approaches combine descriptor matching, variational optimization,
This document summarizes generative adversarial networks (GANs) and their applications. It begins by introducing GANs and how they work by having a generator and discriminator play an adversarial game. It then discusses several variants of GANs including DCGAN, LSGAN, conditional GAN, and others. It provides examples of applications such as image-to-image translation, text-to-image synthesis, image generation, and more. It concludes by discussing major GAN variants and potential future applications like helping children learn to draw.
The detailed overview of the whole family of StyleGANs starting from the ProgressiveGAN to the latest StyleGAN3.
Such a continuous look at the StyleGAN improvements gives an excellent understanding of the research principles and approaches for improving your own models.
Generative Adversarial Networks (GANs) - Ian Goodfellow, OpenAIWithTheBest
This is how Generative Adversarial Networks (GANs) work and benefit the tech and dev industry. Although GANs still have room for improvement, GANs are important generative models that learn how to create realistic samples.
GANS
Ian Goodfellow, OpenAI Research Scientist
Generative adversarial networks (GANs) are a type of neural network introduced in 2014. GANs consist of two neural networks, a generator and discriminator, that compete against each other. The generator creates new data instances to fool the discriminator, while the discriminator evaluates whether instances are real or generated. Through this adversarial training process, GANs can generate highly realistic new images, text, and other data types. Common applications of GANs include image-to-image translation, super resolution, text-to-image generation, and more. Researchers continue advancing GAN techniques and exploring new applications.
The Inception-v3 model is a deep convolutional neural network designed for image classification tasks. It improves on previous Inception models by incorporating techniques like factorized convolutions and inception modules to achieve state-of-the-art performance on image classification benchmarks while being more computationally efficient. The Inception-v3 model was trained on the ImageNet dataset consisting of over 1 million images across 1,000 classes. It has been widely used for applications such as image classification, medical image analysis, and object detection.
The document discusses Generative Adversarial Networks (GANs), a type of generative model proposed by Ian Goodfellow in 2014. GANs use two neural networks, a generator and discriminator, that compete against each other. The generator produces synthetic data to fool the discriminator, while the discriminator learns to distinguish real from synthetic data. GANs have been used successfully to generate realistic images when trained on large datasets. Examples mentioned include Pix2Pix for image-to-image translation and STACKGAN for text-to-image generation.
Slides by Víctor Garcia about the paper:
Reed, Scott, Zeynep Akata, Xinchen Yan, Lajanugen Logeswaran, Bernt Schiele, and Honglak Lee. "Generative adversarial text to image synthesis." ICML 2016.
Slides by Víctor Garcia about:
Phillip Isola, Jun-Yan Zhu, Tinghui Zhou, Alexei A. Efros, "Image-to-Image Translation Using Conditional Adversarial Networks".
In arxiv, 2016.
https://phillipi.github.io/pix2pix/
We investigate conditional adversarial networks as a general-purpose solution to image-to-image translation problems. These networks not only learn the mapping from input image to output image, but also learn a loss function to train this mapping. This makes it possible to apply the same generic approach to problems that traditionally would require very different loss formulations. We demonstrate that this approach is effective at synthesizing photos from label maps, reconstructing objects from edge maps, and colorizing images, among other tasks. As a community, we no longer hand-engineer our mapping functions, and this work suggests we can achieve reasonable results without hand-engineering our loss functions either.
We investigate conditional adversarial networks as a general-purpose solution to image-to-image translation problems. These networks not only learn the mapping from input image to output image, but also learn a loss function to train this mapping. This makes it possible to apply the same generic approach to problems that traditionally would require very different loss formulations. We demonstrate that this approach is effective at synthesizing photos from label maps, reconstructing objects from edge maps, and colorizing images, among other tasks. As a community, we no longer hand-engineer our mapping functions, and this work suggests we can achieve reasonable results without hand-engineering our loss functions either.
발표자: 박태성 (UC Berkeley 박사과정)
발표일: 2017.6.
Taesung Park is a Ph.D. student at UC Berkeley in AI and computer vision, advised by Prof. Alexei Efros.
His research interest lies between computer vision and computational photography, such as generating realistic images or enhancing photo qualities. He received B.S. in mathematics and M.S. in computer science from Stanford University.
개요:
Image-to-image translation is a class of vision and graphics problems where the goal is to learn the mapping between an input image and an output image using a training set of aligned image pairs.
However, for many tasks, paired training data will not be available.
We present an approach for learning to translate an image from a source domain X to a target domain Y in the absence of paired examples.
Our goal is to learn a mapping G: X → Y such that the distribution of images from G(X) is indistinguishable from the distribution Y using an adversarial loss.
Because this mapping is highly under-constrained, we couple it with an inverse mapping F: Y → X and introduce a cycle consistency loss to push F(G(X)) ≈ X (and vice versa).
Qualitative results are presented on several tasks where paired training data does not exist, including collection style transfer, object transfiguration, season transfer, photo enhancement, etc.
Quantitative comparisons against several prior methods demonstrate the superiority of our approach.
The document introduces autoencoders, which are neural networks that compress an input into a lower-dimensional code and then reconstruct the output from that code. It discusses that autoencoders can be trained using an unsupervised pre-training method called restricted Boltzmann machines to minimize the reconstruction error. Autoencoders can be used for dimensionality reduction, document retrieval by compressing documents into codes, and data visualization by compressing high-dimensional data points into 2D for plotting with different categories colored separately.
The document discusses using generative adversarial networks (GANs) for text-to-image generation. GANs involve two neural networks, a generator and discriminator, that compete against each other. The generator generates images from text descriptions, while the discriminator tries to distinguish real images from generated ones. The document outlines the network architecture, literature review on GAN improvements, methodology used which involves training the GAN on a dataset to generate high resolution images from low resolution inputs conditioned on text.
The document discusses using generative adversarial networks (GANs) for text-to-image generation. GANs involve two neural networks, a generator and discriminator, that compete against each other. The generator generates images from text descriptions, while the discriminator tries to distinguish real images from generated ones. The document outlines the network architecture, literature review on GAN improvements, methodology used which involves training the GAN on a dataset to generate high resolution images from low resolution inputs conditioned on text.
Generative Adversarial Networks (GANs) are a type of deep learning algorithm that use two neural networks - a generator and discriminator. The generator produces new data samples and the discriminator tries to determine whether samples are real or generated. The networks train simultaneously, with the generator trying to produce realistic samples and the discriminator accurately classifying samples. GANs can generate high-quality, realistic data and have applications such as image synthesis, but training can be unstable and outputs may be biased.
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GANs, short for Generative Adversarial Networks, are a type of generative model based on deep learning. They were first introduced in the 2014 paper “Generative Adversarial Networks” by Ian Goodfellow and his team. GANs are a type of neural network used for unsupervised learning, meaning they can create new data without being explicitly told what to generate. To understand GANs, having some knowledge of Convolutional Neural Networks (CNNs) is helpful. CNNs are used to classify images based on their labels. In contrast, GANs can be divided into two parts: the Generator and the Discriminator. The Discriminator is similar to a CNN, as it is trained on real data and learns to recognize what real data looks like. However, the Discriminator only has two output values – 1 or 0 – depending on whether the data is real or fake. The Generator, on the other hand, is an inverse CNN. It takes a random noise vector as input and generates new data based on that input. The Generator’s goal is to create realistic data that can fool the Discriminator into thinking it’s real. The Generator keeps improving its output until the Discriminator can no longer distinguish between real and generated data.
Convolutional Neural Networks (CNNs) are the preferred models for both the generator and discriminator in Generative Adversarial Networks (GANs), typically used with image data. This is because the original concept of GANs was introduced in computer vision, where CNNs had already shown remarkable progress in tasks such as face recognition and object detection. By modeling image data, the generator’s input space, also known as the latent space, provides a compressed representation of the image or photograph set used to train the GAN model. This makes it easy for developers or users of the model to assess the quality of the output, as it is in a visually assessable form. This attribute, among others, has likely contributed to the focus on CNNs for computer vision applications and the incredible advancements made by GANs compared to other generative models, whether they are based on deep learning or not.
Generative Adversarial Networks (GANs) are a class of neural networks used for unsupervised learning. GANs involve training two models simultaneously: a generator creates synthetic images to fool a discriminator that tries to distinguish real images from fakes. The process reaches equilibrium when the discriminator can no longer tell real images from fakes generated by the improved generator. GANs have various applications like image generation, super resolution, and more.
Decomposing image generation into layout priction and conditional synthesisNaeem Shehzad
in this presentation you can learn how to decompose an image into layout and find the predictions. In this presentation , I mention all the data in very convenient way , I hope you can take it easy.
Thank you.
Generative Adversarial Networks (GANs) are a class of deep learning models that are trained using an adversarial process. GANs consist of two neural networks, a generator and a discriminator, that compete against each other. The generator tries to generate new samples from a latent space to fool the discriminator, while the discriminator tries to distinguish real samples from fake ones. GANs can learn complex high-dimensional distributions and have been applied to image generation, video generation, and other domains. However, training GANs is challenging due to issues like non-convergence and mode collapse. Recent work has explored techniques like minibatch discrimination, conditional GANs, and unrolled GANs to help address these training issues.
Exploring The Potential of Generative Adversarial Network: A Comparative Stud...IRJET Journal
The document discusses generative adversarial networks (GANs) and provides an overview and comparative analysis of several GAN architectures, including vanilla GANs, StyleGANs, CycleGANs, and MedGANs. It examines the designs, training approaches, applications, challenges, and advancements of different GAN types. The key advantages and limitations of each GAN model are discussed. The future potential of GANs is also explored, including using them for unsupervised representation learning and developing novel architectures to address current issues and broaden their applications.
IRJET- Generating 3D Models Using 3D Generative Adversarial NetworkIRJET Journal
This document discusses using a 3D generative adversarial network (GAN) to generate 3D models without needing 3D modeling software. A 3D GAN uses 3D convolutional layers in both the generator and discriminator networks. The generator maps random noise to a 3D voxel space, and the discriminator tries to determine if a 3D model is real or generated. The networks are trained adversarially, with the generator trying to fool the discriminator and the discriminator trying to accurately classify models. The goal is for the generator to learn the data distribution and output realistic 3D models without supervision by sampling latent vectors and passing them through the generator network.
An Extensive Review on Generative Adversarial Networks GAN’sijtsrd
This paper is to provide a high level understanding of Generative Adversarial Networks. This paper will be covering the working of GAN’s by explaining the background idea of the framework, types of GAN’s in the industry, it’s advantages and disadvantages, history of how GAN’s are developed and enhanced along the timeline and some applications where GAN’s outperforms themselves. Atharva Chitnavis | Yogeshchandra Puranik "An Extensive Review on Generative Adversarial Networks (GAN’s)" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Volume-5 | Issue-4 , June 2021, URL: https://www.ijtsrd.compapers/ijtsrd42357.pdf Paper URL: https://www.ijtsrd.comcomputer-science/artificial-intelligence/42357/an-extensive-review-on-generative-adversarial-networks-gan’s/atharva-chitnavis
Through a comprehensive exploration, this talk would intend to uncover the inner workings of GANs and demystify their training process. This talk shall help you gain insights into the different types of GANs, such as conditional GANs and style-based GANs, and how they contribute to the advancement of generative AI. To truly appreciate the significance of GANs, this talk will also discuss their wide-ranging industrial applications, spanning image synthesis, video generation, data augmentation, and virtual reality.
Generative Adversarial Networks for machine learning and data scienece.docx18527TRIVENBABU
Generative Adversarial Networks (GANs) consist of two neural networks, a generator and discriminator, that are trained simultaneously. The generator produces new data from random noise input to resemble real data, while the discriminator evaluates if data is real or generated. Through adversarial training, the generator improves at fooling the discriminator until generated data becomes indistinguishable from real data. GANs have been successful in image generation and other domains but training remains challenging.
Vladislav Kolbasin “Introduction to Generative Adversarial Networks (GANs)”Lviv Startup Club
This document provides an introduction to generative adversarial networks (GANs). It begins with an agenda that covers what GANs are, applications of GANs such as image generation and inpainting, pros and cons of GANs, how to train a GAN, and example applications including face generation and lesion segmentation. GANs use two neural networks, a generator and discriminator, that compete against each other in a game theoretic framework. The generator learns to generate realistic samples to fool the discriminator, while the discriminator learns to distinguish generated from real samples.
Language Learning App Data Research by Globibo [2025]globibo
Language Learning App Data Research by Globibo focuses on understanding how learners interact with content across different languages and formats. By analyzing usage patterns, learning speed, and engagement levels, Globibo refines its app to better match user needs. This data-driven approach supports smarter content delivery, improving the learning journey across multiple languages and user backgrounds.
For more info: https://globibo.com/language-learning-gamification/
Disclaimer:
The data presented in this research is based on current trends, user interactions, and available analytics during compilation.
Please note: Language learning behaviors, technology usage, and user preferences may evolve. As such, some findings may become outdated or less accurate in the coming year. Globibo does not guarantee long-term accuracy and advises periodic review for updated insights.
Euroclear has been using process mining in their audit projects for several years. Xhentilo shows us what this looks like step-by-step. He starts with a checklist for the applicability of process mining in the Business Understanding phase. He then goes through the Fieldwork, Clearance, and Reporting phases based on a concrete example.
In each phase, Xhentilo examines the challenges and opportunities that process mining brings compared to the classical audit approach. For example, traditionally, the analysis in the Fieldwork phase is based on samples and interviews. In contrast, auditors can use process mining to test the entire data population. In the Clearance phase, process mining changes the relationship with the auditee due to fact-based observations.
Ann Naser Nabil- Data Scientist Portfolio.pdfআন্ নাসের নাবিল
I am a data scientist with a strong foundation in economics and a deep passion for AI-driven problem-solving. My academic journey includes a B.Sc. in Economics from Jahangirnagar University and a year of Physics study at Shahjalal University of Science and Technology, providing me with a solid interdisciplinary background and a sharp analytical mindset.
I have practical experience in developing and deploying machine learning and deep learning models across a range of real-world applications. Key projects include:
AI-Powered Disease Prediction & Drug Recommendation System – Deployed on Render, delivering real-time health insights through predictive analytics.
Mood-Based Movie Recommendation Engine – Uses genre preferences, sentiment, and user behavior to generate personalized film suggestions.
Medical Image Segmentation with GANs (Ongoing) – Developing generative adversarial models for cancer and tumor detection in radiology.
In addition, I have developed three Python packages focused on:
Data Visualization
Preprocessing Pipelines
Automated Benchmarking of Machine Learning Models
My technical toolkit includes Python, NumPy, Pandas, Scikit-learn, TensorFlow, Keras, Matplotlib, and Seaborn. I am also proficient in feature engineering, model optimization, and storytelling with data.
Beyond data science, my background as a freelance writer for Earki and Prothom Alo has refined my ability to communicate complex technical ideas to diverse audiences.
Description:
This presentation explores various types of storage devices and explains how data is stored and retrieved in audio and visual formats. It covers the classification of storage devices, their roles in data handling, and the basic mechanisms involved in storing multimedia content. The slides are designed for educational use, making them valuable for students, teachers, and beginners in the field of computer science and digital media.
About the Author & Designer
Noor Zulfiqar is a professional scientific writer, researcher, and certified presentation designer with expertise in natural sciences, and other interdisciplinary fields. She is known for creating high-quality academic content and visually engaging presentations tailored for researchers, students, and professionals worldwide. With an excellent academic record, she has authored multiple research publications in reputed international journals and is a member of the American Chemical Society (ACS). Noor is also a certified peer reviewer, recognized for her insightful evaluations of scientific manuscripts across diverse disciplines. Her work reflects a commitment to academic excellence, innovation, and clarity whether through research articles or visually impactful presentations.
For collaborations or custom-designed presentations, contact:
Email: [email protected]
Facebook Page: facebook.com/ResearchWriter94
Website: https://professional-content-writings.jimdosite.com
Impact Report of Kilowatt's activities in 2024: a tool for reflecting on the challenges we have tried to meet and the results achieved, the travel companions, the lessons learned, the impacts generated.
Cox Communications is an American company that provides digital cable television, telecommunications, and home automation services in the United States. Gary Bonneau is a senior manager for product operations at Cox Business (the business side of Cox Communications).
Gary has been working in the telecommunications industry for over two decades and — after following the topic for many years — is a bit of a process mining veteran as well. Now, he is putting process mining to use to visualize his own fulfillment processes. The business life cycles are very complex and multiple data sources need to be connected to get the full picture. At camp, Gary shared the dos and don'ts and take-aways of his experience.
From Data to Insight: How News Aggregator APIs Deliver Contextual IntelligenceContify
Turning raw headlines into actionable insights, businesses rely on smart tools to stay ahead. News aggregator API collects and enriches content from multiple sources, adding sentiment, relevance, and context. This intelligence helps organizations track trends, monitor competition, and respond swiftly to change—transforming data into strategic advantage.
For more information please visit here https://www.contify.com/news-api/
2. Challenges and
Future of GANs
Types of GANs and
Use Cases
Architecture of
GANs
• Brief overview of GANs
• How GANSs work
• Key concepts
⚬ Generator
⚬ Discriminator
• Overview of different
types of GANs
• Real-world use cases
of GANs
• Detailed look at the
architecture of GANs
• Discussion of challenges
in training GANs
• Future trends and
research
TABLE OF CONTENTS
Understanding the
GANs
3. WHAT EXACTLY IS GAN ?
GAN, Generative Adversarial Network is a type of
machine learning model comprising two neural
networks: Generator and Discriminator, competing
against each other to generate realistic data, enabling
the creation of high quality synthetic content such as
images, videos, and text.
GANs leverage a game-theoretic framework
where the generator learns to produce
increasingly convincing data while the
discriminator aims to distinguish between real
and generated samples, fostering the
generation of diverse and realistic outputs.
HOW DOES IT WORK ?
4. UNDERSTANDING GAN
KEY CONCEPTS
GENERATOR
DISCRIMINATOR
• Generator: Creates synthetic data resembling the real dataset from
random noise.
• Discriminator: Distinguishes between real and synthetic data,
improving its accuracy.
• Adversarial Training: Simultaneous training of generator and
discriminator in a competitive manner.
• Loss Function: Guides training by measuring network performance.
• Generator: produces synthetic data from noise input.
• Discriminator: Distinguishes between real and synthetic data.
• Adversarial Process: Generator deceives discriminator and it distinguishes better.
• Iterative: Both networks improve until generator creates highly realistic data.
• Outcome: High-quality synthetic data creation.
WORKING
5. Neural network layers which generates
realistic data to deceive the discriminator
GENERATOR
Neural network layers for distinguishing real
from generated data which enhances
accuracy in discriminating real and fake data
DISCRIMINATOR
ARCHITECTURE
OF
GAN
It follows simultaneous training where
generator improves to create more
convincing data and discriminator enhances
discrimination abilities
TRAINING PROCESS
GANs evolve through adversarial training to
produce high-quality, realistic synthetic data
resembling the original dataset
OUTCOME
6. TYPES OF GAN
• Vanilla GAN: This is the simplest type of GAN, composed of a generator
and a discriminator.The generator captures the data distribution, while
the discriminator tries to determine the probability of the input.
• Conditional GAN (CGAN): Here, both the generator and discriminator are
provided with additional information, such as a class label or any modal
data. This extra information assists the discriminator in determining the
conditional probability instead of the joint probability.
• Deep Convolutional GAN (DCGAN): This is the first GAN where the
generator used a deep convolutional network, resulting in the generation
of high-resolution and quality images.
• CycleGAN: This GAN is designed for Image-to-Image translations, meaning
one image is mapped to another image. For instance, it can convert
summer images into winter images and vice versa by adding or removing
features.
• Generative Adversarial Text to Image Synthesis: This type of GAN is used
to generate images from text descriptions.
7. REAL WORLD USE
CASES
GANs can generate new, realistic images that are
similar but specifically different from a dataset of
existing photographs. This can be used for tasks
like creating new designs, generating artwork, or
producing realistic video game graphics.
IMAGE SYNTHESIS
01
GANs can convert one type of image into
another. For example, CycleGAN can convert
summer images into winter images and vice
versa.
IMAGE-TO-IMAGE TRANSLATION
02
GANs can generate images from text descriptions.
This can be used in a variety of applications, such
as creating visual content from written
descriptions or aiding in the design process.
Text-to-Image SyNTHESIS
03
9. CHALLENGES
Hindered training due to
gradient issues.
VANISHING GRADIENTS
Lack of standardized metrics for
GAN assessment.
EVALUATION
METRICS
High sensitivity to
hyperparameter values.
HYPERPARAMETER
SENSITIVITY
Limited variety of generated outputs
and techniques.
MODE COLLAPSE
Convergence difficulties between
generator and discriminator.
TRAINING INSTABLITY
10. FUTURE TRENDS AND
RESEARCH OF GAN
• Improved Stability and Training Techniques
• Diversity and Realism Enhancement
• Interdisciplinary Applications
• Ethical Considerations and Regulations
• Hardware & Software Advancements
• Adversarial Learning Beyond GANs
11. CONCLUSION
ANY
QUESTIONS ?
• In simple terms, Generative Adversarial Networks
(GANs) are a cool technology in artificial intelligence.
• They use two parts, a generator and a discriminator,
to create realistic fake data.
GANs have been awesome for making lifelike
medias like photos, vidoes, graphics and more.
• They're like a creative duo where one tries to make
things look real, and the other tries to figure out if
they're fake.
• Despite their success, challenges such as training
stability, mode collapse, and ethical considerations
remain areas of ongoing research.
• Overall, GANs have opened up exciting possibilities
in AI, making things like generating realistic content a
lot more fun and interesting.