This document provides an overview of CUDA (Compute Unified Device Architecture), NVIDIA's parallel computing platform and programming model that allows software developers to leverage the parallel compute engines in NVIDIA GPUs. The document discusses key aspects of CUDA including: GPU hardware architecture with many scalar processors and concurrent threads; the CUDA programming model with host CPU code calling parallel kernels that execute across multiple GPU threads; memory hierarchies and data transfers between host and device memory; and programming basics like compiling with nvcc, allocating and copying data between host and device memory.
This document provides an overview of CUDA (Compute Unified Device Architecture), NVIDIA's parallel computing platform and programming model that allows software developers to leverage the parallel compute engines in NVIDIA GPUs. The document discusses key aspects of CUDA including: GPU hardware architecture with many scalar processors and concurrent threads; the CUDA programming model with host CPU code calling parallel kernels that execute across multiple GPU threads; memory hierarchies and data transfers between host and device memory; and programming basics like compiling with nvcc, allocating and copying data between host and device memory.
Baidu World 2016 With NVIDIA CEO Jen-Hsun HuangNVIDIA
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Jen-Hsun Huang, CEO of NVIDIA, gave a keynote speech at the 2016 Baidu World Conference. He discussed how NVIDIA GPUs have become the dominant platform for artificial intelligence research and deep learning. GPUs enabled breakthroughs like superhuman image recognition in 2012 and voice recognition in 2015. NVIDIA's Pascal GPU architecture provides a 65x speedup for deep learning compared to 4 years ago. Huang outlined NVIDIA's work in self-driving cars through its Drive PX platform and partnership with Baidu to apply AI to transportation and other domains.
A Platform for Accelerating Machine Learning ApplicationsNVIDIA Taiwan
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Robert Sheen from HPE gave a presentation on machine learning applications and accelerating deep learning. He provided a quick introduction to neural networks, discussing their structure and how they are inspired by biological neurons. Deep learning requires high performance computing due to its computational intensity during training. Popular deep learning frameworks like CogX were also discussed, which provide tools and libraries to help build and optimize neural networks. Finally, several enterprise use cases for machine learning and deep learning were highlighted, such as in finance, healthcare, security, and geospatial applications.
Enabling Artificial Intelligence - Alison B. LowndesWithTheBest
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This document discusses NVIDIA's deep learning technologies and platforms. It highlights NVIDIA's GPUs and deep learning software that accelerate major deep learning frameworks and power applications like self-driving cars, medical robotics, and natural language processing. It also introduces NVIDIA's deep learning supercomputer DGX-1 and embedded module Jetson TX1 for edge devices. The document promotes NVIDIA's deep learning events and career opportunities.
Evolution of Supermicro GPU Server SolutionNVIDIA Taiwan
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Supermicro provides energy efficient server solutions optimized for GPU computing. Their portfolio includes 1U and 4U servers that support up to 10 GPUs, delivering the highest rack-level and node-level GPU density. Their new generation of solutions are optimized for machine learning applications using NVIDIA Pascal GPUs, with features like NVLink for high bandwidth GPU interconnect and direct low latency data access between GPUs. These solutions deliver the highest performance per watt for parallel workloads like machine learning training.
Introduction to multi gpu deep learning with DIGITS 2 - Mike WangPAPIs.io
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This document introduces multi-GPU deep learning with DIGITS 2. It begins with an overview of deep learning and how GPUs are well-suited for deep learning tasks due to their parallel processing capabilities. It then discusses NVIDIA DIGITS, an interactive deep learning system that allows users to design neural networks, visualize activations, and manage training across multiple GPUs. The document concludes by discussing deep learning deployment workflows.
This document discusses NVIDIA's DGX-1 supercomputer and its applications for artificial intelligence and deep learning. It describes how the DGX-1 uses NVIDIA's Tesla P100 GPUs with NVLink connections to provide very high performance for deep learning workloads. It also discusses NVIDIA's software stack for deep learning including cuDNN, DIGITS, and Docker containers, which provide developers with tools for training and deploying neural networks. The document emphasizes how the DGX-1 and NVIDIA's GPUs are optimized for data center use through features like reliability, scalability, and management tools.
Nvidia Deep Learning Solutions - Alex SabatierSri Ambati
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Alex Sabatier from Nvidia talks about the future of Deep Learning from an chipmaker perspective
- Powered by the open source machine learning software H2O.ai. Contributors welcome at: https://github.com/h2oai
- To view videos on H2O open source machine learning software, go to: https://www.youtube.com/user/0xdata
At CES 2016, we made a series of announcements highlighting our work to advance the biggest trends in the industry — self-driving cars, artificial intelligence and
virtual reality. The focus of our news was NVIDIA DRIVE, an end-to-end deep learning platform for self-driving cars.
Kicking off the first in a series of global GPU Technology Conferences, NVIDIA co-founder and CEO Jen-Hsun Huang today at GTC China unveiled technology that will accelerate the deep learning revolution that is sweeping across industries. Huang spoke in front of a crowd of more than 2,500 scientists, engineers, entrepreneurs and press, gathered in Beijing for a day devoted to deep learning and AI. On stage he announced the Tesla P4 and P40 GPU accelerators for inferencing production workloads for AI services and, a small, energy-efficient AI supercomputer for highway driving — the NVIDIA DRIVE PX 2 for AutoCruise.
The document discusses a community-based deep learning benchmark using an NVIDIA DGX-1 supercomputer. It announces that the benchmark will be set up by mid-March 2017 and interested participants should contact them. It also summarizes previous benchmarks conducted on different GPUs and frameworks, comparing efficiency when training various neural networks. Details are provided on benchmarks measuring minibatch efficiency for TensorFlow. Participants are directed to a blog post for more information.
At a press event kicking off CES 2016, we unveiled artificial intelligence technology that will let cars sense the world around them and pilot a safe route forward.
Dressed in his trademark black leather jacket, speaking to a crowd of some 400 automakers, media and analysts, NVIDIA CEO Jen-Hsun Huang revealed DRIVE PX 2, an automotive supercomputing platform that processes 24 trillion deep learning operations a second. That’s 10 times the performance of the first-generation DRIVE PX, now being used by more than 50 companies in the automotive world.
The new DRIVE PX 2 delivers 8 teraflops of processing power. It has the processing power of 150 MacBook Pros. And it’s the size of a lunchbox in contrast to other autonomous-driving technology being used today, which takes up the entire trunk of a mid-sized sedan.
“Self-driving cars will revolutionize society,” Huang said at the beginning of his talk. “And NVIDIA’s vision is to enable them.”
NVIDIA's Jetson platform provides an AI computing solution for applications at the edge by running deep neural networks on low-power modules like the Jetson TX1. The Jetson TX1 module has powerful GPU processing capable of over 1 teraflop/s while consuming under 10 watts, making it suitable for applications in areas like industrial automation, robotics, smart cities, and more. Developers can use the Jetpack SDK and resources like the Deep Learning Institute to train models on servers and deploy them to Jetson modules for running AI inference in end products at the edge.
A Year of Innovation Using the DGX-1 AI SupercomputerNVIDIA
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As one of TechCrunch's top AI stories, the NVIDIA DGX-1 has pioneered advancements in healthcare, data analytics, and robotic solutions with leading researchers and enterprises around the world.
[db analytics showcase Sapporo 2017] B14: GPU コンピューティング最前線 by エヌビディア 佐々木邦暢Insight Technology, Inc.
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GPUの演算能力を汎用的に活用する「GPUコンピューティング」が誕生してはや10年。多くのスーパーコンピューターに採用されるなど科学技術計算の領域で実績を積み重ねたこの技術は、近年のAIムーブメントを支える重要な存在になっています。高度な画像認識、自然言語処理、そして自動運転などますます複雑になる問題のために登場した Volta 世代の新型GPUをはじめ、GPUコンピューティングの最新情報をお伝えします。
NTTコミュニケーションズでは、Azure Stack Hub with GPUを先行で導入し検証を行っています。本資料では、実際に利用している立場からデモを交えつつAzure Stack Hub with GPUのユースケースをお話すると共に、GPUのベンチマークを含む他社クラウドとの性能比較結果について情報共有をいたします。
31. TESLA M40
ディープラーニングに向けた
最速アクセラレータ
0 1 2 3 4 5
GPU Server with
4x TESLA M40
Dual CPU Server
学習時間を13倍高速化
Number of Days
CUDA コア数 3072
ピーク単精度性能 7 TFLOPS
GDDR5 メモリ 12 GB/24 GB
メモリ帯域 288 GB/s
消費電力 250W
Reduce Training Time from 5 Days to less than 10 Hours
Note: Caffe benchmark with AlexNet, training 1.3M images with 90 epochs
CPU server uses 2x Xeon E5-2699v3 CPU, 128GB System Memory, Ubuntu 14.04
シングルGPUで
最高の単精度演算性能
32. 32
TESLA M4
最高のスループットを持つ
ハイパースケール
アクセラレータ
CUDA コア数 1024
ピーク単精度性能 2.2 TFLOPS
GDDR5 メモリ 4 GB
メモリ帯域 88 GB/s
形状 PCIe Low Profile
消費電力 50 – 75 W
Video
Processing
4x
Image
Processing
5x
Video
Transcode
2x
Machine
Learning
Inference
2x
H.264 & H.265, SD & HD
Stabilization and
Enhancements
Resize, Filter, Search,
Auto-Enhance
Preliminary specifications. Subject to change.
推論用途に最適
33. 33
TEGRA JETSON TX1
モジュール型スーパーコンピューター
主なスペック
GPU 1 TFLOP/s 256コア Maxwell
CPU 64ビット ARM A57 CPU
メモリ 4 GB LPDDR4 | 25.6 GB/s
ストレージ 16 GB eMMC
Wifi/BT 802.11 2x2 ac / BT Ready
ネットワーク 1 Gigabit Ethernet
サイズ 50mm x 87mm
インターフェース 400ピン ボード間接続コネクタ
消費電力 最大10W
Under 10 W for typical use cases
38. DRIVE PX AUTO-PILOT
CAR COMPUTER
NVIDIA GPU DEEP LEARNING
SUPERCOMPUTER
Trained
Neural Net Model
Classified Object
!
ONE-ARCHITECTURE ENABLES END-TO-END SOLUTION
Time-consuming Training on Server & Real-Time Recognition on Embedded System
Camera Inputs
47. DEEP LEARNING INSIGHT
従来のアルゴリズム ディープラーニング
0%
20%
40%
60%
80%
100%
overall passenger
channel
indoor public area sunny day rainny day winter summer
Pedestrian detection Recall rate
Traditional Deep learning
70
75
80
85
90
95
100
vehicle color brand model sun blade safe belt phone calling
Vehicle feature accuracy increased by Deep Learning
traditional algorithm deep learning
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