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OverviewThis blog post is structured in the following way. First, I will explain what makes a GPU fast. I will discuss CPUs vs GPUs, Tensor Cores, memory bandwidth, and the memory hierarchy of GPUs and how these relate to deep learning performance. These explanations might help you get a more intuitive sense of what to look for in a GPU. I discuss the unique features of the new NVIDIA RTX 40 Amper
Quick Start: The easiest way to colorize images using open source DeOldify (for free!) is here: DeOldify Image Colorization on DeepAI Desktop: Want to run open source DeOldify for photos and videos on the desktop? Stable Diffusion Web UI Plugin- Photos and video, cross-platform (NEW!). https://github.com/SpenserCai/sd-webui-deoldify ColorfulSoft Windows GUI- No GPU required! Photos/Windows only. h
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How to easily Detect Objects with Deep Learning on Raspberry Pi This post demonstrates how you can do object detection using a Raspberry Pi. Like cars on a road, oranges in a fridge, signatures in a document and teslas in space. The real world poses challenges like having limited data and having tiny hardware like Mobile Phones and Raspberry Pis which canât run complex Deep Learning models. This p
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By Emil Wallner Within three years, deep learning will change front-end development. It will increase prototyping speed and lower the barrier for building software. The field took off last year when Tony Beltramelli introduced the pix2code paper and Airbnb launched sketch2code. _Photo by [Unsplash](https://unsplash.com/photos/y0_vFxOHayg?utm_source=unsplash&utm_medium=referral&utm_content=creditCo
深層å¦ç¿ã®ä»ã®ã¨ããã®éçãä½ãã§ãã¦ãä½ãã§ããªããï¼ã 2018.01.08 Updated by Ryo Shimizu on January 8, 2018, 08:29 am JST ããã¾ãã¦ããã§ã¨ããããã¾ãã å æ¥ãMIT Technology Reviewã«ãã®ãããªè¨äºãæ²è¼ããã¦ãã¾ããã 深層å¦ç¿ã®é大è©ä¾¡ã¯å±éºãã¦ã¼ãã¼AIç 究æã®åæé·ãææ ãã®è«æãçºè¡¨ããã®ã¯ãã¥ã¼ã¨ã¼ã¯å¤§å¦ã®å¿çå¦è ã®ã²ã¤ãªã¼ã»ãã¼ã«ã¹ææãå¿çå¦è ã¨ãããã¨ã§ãæã æ å ±å·¥å¦ã®ç«å ´ã¨ã¯ã¾ãéãç«å ´ã§æ·±å±¤å¦ç¿ã«ã§ãããã¨ã¨ã§ããªããã¨ãåé¢ãã¦ãã¾ãã çè ã¯ãã®ãã¥ã¼ã¹ãè¦ã¦æåã¯åçºããã®ã§ãããåæãèªãã§ã¿ãã¨ç¾ç¶ã®ãã£ã¼ãã©ã¼ãã³ã°ã®èª²é¡ã«ã¤ãã¦ããã¾ã¨ã¾ã£ã¦ããã®ã§ã¯ãªããã¨æãã¾ããã®ã§ç´¹ä»ãã¾ããåæã¯ãã¡ã â ãã£ã¼ãã©ã¼ãã³ã°ã®éç ãã¼ã«ã¹ææã«ããã¨ããã£ã¼ãã©ã¼
Hi again! In last article I tried to show my vision on what research areas are maturing and can grow big this year. Research is cool, but there must be something from AI world that became mature in 2017 and is ready now to be used in mass applications. This is what this article will be about â I would like to tell about technologies that are good enough to be used in your current work or to build
Photo by SpaceX on UnsplashIâve got this ominous feeling that 2018 could be the year when everything just changes dramatically. The incredible breakthroughs we saw in 2017 for Deep Learning is going to carry over in a very powerful way in 2018. A lot of work coming from research will be migrating itself into everyday software applications. As Iâve done last year, here are my predictions for 2018.
The year is coming to an end. I did not write nearly as much as I had planned to. But Iâm hoping to change that next year, with more tutorials around Reinforcement Learning, Evolution, and Bayesian Methods coming to WildML! And what better way to start than with a summary of all the amazing things that happened in 2017? Looking back through my Twitter history and the WildML newsletter, the followi
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ObamaNet: Photo-realistic lip-sync from text Rithesh Kumar, Jose Sotelo, Kundan Kumar, Alexandre de Brebisson, Yoshua Bengio Paper Abstract We present ObamaNet, the first architecture that generates both audio and synchronized photo-realistic lip-sync videos from any new text. Contrary to other published lip-sync approaches, ours is only composed of fully trainable neural modules and does not rely
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