TPUs are only one part of this eye-opening presentation. Skip to page 28, where Jeff starts talking about: * Using reinforcement learning so the computer can figure out how to parallelize code and models on its own. In experiments, the machine beats human-designed parallelization. * Replacing B-tree indices, hash maps, and Bloom filters with data-driven indices learned by deep learning models. In experiments, the lea…
So basically it will replace all heuristics/greedy optimization algorithms. I am wondering if ML can come up with better sorting algorithms, or I guess when you can use ML for end strategy of optimization you don't have to sort!
Machine Learning for Systems and Systems for Machine Learning [pdf]
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Re: Machine Learning for Systems and Systems for Machine Learning [pdf]
#42I speculate that Google will sell TPUv2 for as less as 500 USD per PCIe card already in 2018. Nvidia's Volta TensorCores are essentially the same: 32-bit accumulators and 16-bit multipliers, but GPUs are more general-purpose which is not necessary for Deep Learning since most intensive operation is dot-product (y+=w*x).
Re: Machine Learning for Systems and Systems for Machine Learning [pdf]
#43Nvidia Titan V can do 110 TFLOPS, 12GB of 1.7 Gb/s Memory [1] and sells for 3,000$. TPU v2 does 180 TFLOPS, 64GB of 19.2Gb/s Memory [2]. That's a heck of a performance boost for a chip that's likely costing google way less than the nvidia flagship. [1] http://www.tomshardware.com/news/nvidia-titan-v-110-teraflop...
The TFLOPS numbers are not directly comparable. The TPUs use reduced precision in some areas, whereas I am guessing the Titan V numbers are based on single precision operations.
Re: Machine Learning for Systems and Systems for Machine Learning [pdf]
#44In hardware, both digital and analog designers seem to use lots of heuristics in how they design things. Certainly could help there. Might be especially useful in analog due to small number of experienced engineers available.
Re: Machine Learning for Systems and Systems for Machine Learning [pdf]
#45TPUs are only one part of this eye-opening presentation. Skip to page 28, where Jeff starts talking about: * Using reinforcement learning so the computer can figure out how to parallelize code and models on its own. In experiments, the machine beats human-designed parallelization. * Replacing B-tree indices, hash maps, and Bloom filters with data-driven indices learned by deep learning models. In experiments, the lea…
Good summary, but someone still has to write the machine intelligence!
Re: Machine Learning for Systems and Systems for Machine Learning [pdf]
#46Re: Machine Learning for Systems and Systems for Machine Learning [pdf]
#47TPUs are only one part of this eye-opening presentation. Skip to page 28, where Jeff starts talking about: * Using reinforcement learning so the computer can figure out how to parallelize code and models on its own. In experiments, the machine beats human-designed parallelization. * Replacing B-tree indices, hash maps, and Bloom filters with data-driven indices learned by deep learning models. In experiments, the lea…
"replacing human engineering" Good summary, but someone still has to write the machine intelligence!
Re: Machine Learning for Systems and Systems for Machine Learning [pdf]
#48TPUs are only one part of this eye-opening presentation. Skip to page 28, where Jeff starts talking about: * Using reinforcement learning so the computer can figure out how to parallelize code and models on its own. In experiments, the machine beats human-designed parallelization. * Replacing B-tree indices, hash maps, and Bloom filters with data-driven indices learned by deep learning models. In experiments, the lea…
In case anyone wants to check out some pre-history, back in 2002 Manfred Warmuth et al.[0] were using learning (Weighted Majority) to drive systems components like cache replacement policy. I'm not sure where the work went from there, but add it to the pile of techniques. [0]: https://users.soe.ucsc.edu/~sbrandt/papers/NIPS02.pdf
Reading your cite, the practical issue seems to me to be that the optimizer's memory footprint costs may in fact negate any benefit (e.g. ~40% over LRU) obtained in reducing cache misses.
My gut feeling is that this approach (for online systems) may work best with a hardware component (a card hosting the 'experts' and their virtual model e.g. the "virtual cache"). The distributed variant also seems worth exploring.
Re: Machine Learning for Systems and Systems for Machine Learning [pdf]
#49Re: Machine Learning for Systems and Systems for Machine Learning [pdf]
#50Earlier quoted context omitted.
ballpark how much would it cost to train ImageNet (ILSVRC) on a std deep CNN arch (VGG or inception) on AWS using a p2 or p3?
Ballpark - 1100 dollars on AWS. 44hr 28min (from Dawnbench - http://dawn.cs.stanford.edu/benchmark/ ) on a DGX-1 (cost 24.48 dollars/hour on p3.16xlarge). https://aws.amazon.com/ec2/pricing/on-demand/ On a DL11 server, it will take about 60 hrs, and only cost you 15k upfront. The economics speak for themselves for fp32 training, at this moment in time.