MONASH DEEPNEURON
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MONASH DEEPNEURON ✦
HPC Projects.
Parallel Clip Training
A HPC x AI Collaboration
Create a CLIP (model which connects related images and text) from scratch, testing HPC techniques to make training it faster. Over the Summer, this involves parallelising the training of a CNN over multiple CPUs/GPUs and investigating whether this speeds up DL model training & execution.
Neural Cellular Automata
A HPC x AI Collaboration
Team members: Keren Collin, Alex Mai, Peter Cooper, Josh Riantoputra, Nyan Kyaw and Chloe Koe
Cellullar automata is a simulation technique that involves an n-dimensional (usually 2D) grid of cells, each with a state. Each cell’s state is updated iteratively based on a “ruleset”. The project will explore the different behaviours of cellular automata that emerge from different rulesets and eventually replace these rules with CNNs.
Cluster Development
Project Lead: Jaspar Martin
Team members will design and implement a custom HPC cluster workload management and scheduling software on a mini-cluster made of 4 Raspberry Pi 4 SBCs. This will first involve setting up remote access (similar to MDN workstation) and performing other mini-cluster improvements (automated infra management using Ansible, etc...).
Ray Tracing
Project Lead: Paarth Sharma
This project looks at how to use HPC techniques to parallelise Ray Tracing and generate high quality 3D assets in a faster way.
DDoS Dissipation
Project Lead: Yuki Kume
This is an investigation into Distributed Denial of Service attacks and how HPC techniques can be used to defend a web service under such attacks. A research paper published in the HPC Asia 2018 conference introduces FlexProtect - A DDoS protection architecture for a distributed computing system. Our aim is to explore and investigate how FlexProtect performs against DDoS attacks using HPC simulations.
M3 Optimisation
Project Lead: Linton Charles
We will investigate ways of improving the performance of the M3 MASSIVE SUPERCOMPUTER, by implementing optimised job scheduling and resource allocation strategies. This involves exploring SLURM's parameter space and trying to find the best set of configuration variables for optimal throughput, fairness, turnaround time, etc... so that researchers using it have a better experience.
Astrophysical Simulation
Project Lead: Kevin Nguyen
This project aims to develop a sophisticated physics engine for astrophysical simulations, enabling in-depth investigations into celestial bodies like planets, black holes, and stars. This includes enhancing simulation efficiency through parallelisation of complex tasks like fluid dynamics and gravitational interactions across computing clusters.
Past HPC Projects