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1
Intro
2
GPU Acceleration after the End of Moore
3
Challenges to achieve GPU acceleration
4
GPUs in Deep Learning
5
The Simplex-wise Flag Filtration
6
Persistent homology: Birth and Death for of the C. elegans Dataset
7
Design Goals for High Performance
8
Efficient Persistent Pair Hashmap
9
Filtration Construction with Clearing is jus Filtering and Sorting Problem
10
Why do we need Ripser++
11
What is a Generative Adversarial Network
12
Deep learning model evaluation: using topology
13
MTop-Divergence Properties
14
Computational aspect of MTopDiv
15
Experiments with MTopDiv
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Detecting distribution shifts
17
Computational considerations
18
Conclusion
19
VR barcodes of attention graphs as feature • Pretrained or finetuned BERT model with pretrained Key, Query Weight matrices. For each head compute the matrix of pairwise self attention
Description:
Explore GPU-accelerated computation of Vietoris-Rips barcodes and their applications in evaluating deep learning models in this 56-minute conference talk. Delve into the challenges of GPU acceleration after Moore's Law's end, its necessity in deep learning, and the development of Ripser++, a GPU-accelerated software for computing VR barcodes. Discover how Ripser++ has been applied to measure shifts between generated and real data distributions under the manifold hypothesis. Learn about the simplex-wise flag filtration, persistent homology, and efficient persistent pair hashmaps. Investigate the use of topology in deep learning model evaluation, including MTop-Divergence properties and experiments. Examine computational aspects, distribution shift detection, and the application of VR barcodes to attention graphs in BERT models. Gain insights into cutting-edge techniques bridging topological data analysis and machine learning.

GPU Accelerated Computation of VR Barcodes in Evaluating Deep Learning Models

Applied Algebraic Topology Network
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