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Web viewThe elucidation of protein-protein interaction (PPI) networks is important for understanding cellular function and accelerating structure-based drug design

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Page 1: Web viewThe elucidation of protein-protein interaction (PPI) networks is important for understanding cellular function and accelerating structure-based drug design

中田さんからもらったサンプル記事↓に沿って書いています.

https://simulation.azure.com/

Page 2: Web viewThe elucidation of protein-protein interaction (PPI) networks is important for understanding cellular function and accelerating structure-based drug design

CASE STUDIES – MEGADOCK, a bioinformatics application

High-performance protein-protein docking with MEGADOCK 4.0 on Azure CloudPowerful calculation of huge amount of protein-protein interactions by using MEGADOCK 4.0

on Azure HPC.

Page 3: Web viewThe elucidation of protein-protein interaction (PPI) networks is important for understanding cellular function and accelerating structure-based drug design

The elucidation of protein-protein interaction (PPI) networks is important for understanding cellular

structure/function and accelerating structure-based drug design. However, the development of an

effective method to conduct computational approach for exhaustive PPI screening has long been a

represents a computational grand challenge.

Akiyama laboratory, Tokyo Institute of Technology (Tokyo Tech), Japan developed exhaustive

structure-based protein-protein interaction prediction software named MEGADOCK 4.0 which

conducts tertiary structural docking approach based on shape complementarity and physicochemical

properties in a massively parallel fashion. MEGADOCK version 4.0 can perform the CPU/GPU

heterogeneous computing environments and show the shows powerful, scalable performance of

>97% strong scaling up to 600,000 CPU cores on the world-leading supercomputers. Naturally,

MEGADOCK is also well performed on cloud environment such as Microsoft Azure HPC.

The Tokyo Tech group showed s that MEGADOCK 4.0 4.0 performed on 50 computing node (DS14

instances) on Microsoft Azure, totaling 600 cores and 5.5 TByte RAMs, with >90% excellent strong

scaling. Azure HPC provides stable and secure computing resource environment and for biological

knowledge by MEGADOCK.biologists and pharmaceutical scientists working on PPIs.

ohue, 05/09/16,
「京」のときは,663,552CPU coresまでの測定をやっています.up to 600,000 CPU coresとかにしましょうか.
Page 4: Web viewThe elucidation of protein-protein interaction (PPI) networks is important for understanding cellular function and accelerating structure-based drug design

CASE STUDIES – GHOST-MP, a bioinformatics application

GHOST-MP on Azure Cloud accelerates whole genome shotgun metagenomic analysisMicrobial flora on metagenomic samples can be analyzed by using GHOST-MP on Azure HPC.

GHOST-MP on Azure HPCPerformance Graph (Strong Scaling)

Database : NCBI nr database (20 GB)Query : metagenomicsample from human buccal mucosa

500

1000

1500

2000

2500

100 150 200 250 300 350 400 450 500

Spee

dup

(read

/sec)

No. of worker cores (on DS14 Azure VMs)

2.28x faster than #VM=10(strong scaling = 0.761)

#VM=10

#VM=20

#VM=30

Page 5: Web viewThe elucidation of protein-protein interaction (PPI) networks is important for understanding cellular function and accelerating structure-based drug design

Metagenomics is the study of the genomes of uncultured microbes obtained directly from microbial

flora in their natural habitats. Such analyses have recently become more popular and important as the

throughput of DNA sequencers has increased. Especially, whole-genome shotgun (WGS)

sequencing, carried out using next-generation sequencing (NGS) technologies, produces huge

amounts of metagenomic data which enables us to uncover an abundance of orthologous groups, i.e.,

the distribution of gene/protein functions, in environmental samples.

GHOST-MP is a massively parallel sequence homology search tool developed by Akiyama

laboratory, Tokyo Institute of Technology (Tokyo Tech), Japan, for functional annotation of

metagenome sequences. Although BLAST is the golden standard homology search tool, GHOST-MP

is more than 160 times faster than BLAST with single CPU core and has sufficient search sensitivity

for metagenome analysis. In addition, GHOST-MP is well performed parallel computing

environments such as Microsoft Azure HPC. The Tokyo Tech group runs GHOST-MP performed on

30 computing node (DS14 instances) in Microsoft Azure, totaling 480 cores and 3.3 TByte RAMs.

Tokyo TechAzure HPC enables efficient runs the metagenomic metagenome analysis of microbial

metagenomic samples and unravels the unknown functions of microbial flora.