UArizona HPC Events Calendar

An introduction to what HPC is, basics of the U of A’s HPC, how to create an account and login. Motivates the usage of HPC including examples from many research areas; outlines several common misconceptions about HPC; introduces the U of A’s clusters; describes the basics of the UA HPC system architecture, including node types and proper usage. This workshop is aimed at first-time HPC users, or users new to the U of A’s HPC system. No programming experience is assumed or required. Basic computer literacy is recommended.

An introduction to the HPC systems related to data storage and software. Outlines the details of the HPC high performance storage system, the rental storage system, Research Desktop Attached Storage (R-DAS), and AWS Tier 2 storage. Covers the basics of Linux file permissions in the context of a shared cluster, including our conventions and best practices. Outlines methods for transferring files to/from the HPC storage system. Describes the module system used to provide software to users, and provides guidelines for personal software installations. Familiarity with basic programming recommended but not required. Participants should be familiar with topics covered in Workshop 1.

The ins-and-outs of running jobs on the HPC system. Provides details related to partitions and CPU-time allocations in relation to the scheduling system. Describes HPC hardware information relevant to submitting resource requests. Covers details for each type of job, including Open OnDemand graphical jobs, interactive terminal sessions, batch jobs, and array jobs. Provides best practices and clarification related to the queueing system and Slurm terminology. A basic batch job example is included. Basic programming experience including familiarity with bash recommended but not required. Participants should be familiar with topics covered in Workshops 1 and 2

Motivates, defines, and describes tools/techniques for managing jobs, including Open OnDemand and command-line tools (both provided by Slurm – e.g. squeue – and other tools such as seff and job-history). Provides detailed examples and use cases for these tools. Additionally provides clarity and motivation for job optimization, including decreasing time to result and improving overall HPC throughput. Outlines best practices and principles of constructing optimal resource requests. Basic programming experience and familiarity with previous workshop topics is recommended.

Introduction to the GNU/Linux operating system and the Bash scripting language, particularly in the context of large-scale multi-user systems. This workshop will cover some of the key features of the system and common issues users run into, such as permissions. Not an exhaustive treatment, but it should be helpful for users with no Linux experience, or only familiar with desktop Linux.

Debugging problems on the HPC is easier if you have reproducible environments. This workshop will provide some general guidelines and examples that you can follow to create and maintain such environments. It will focus on Python and R projects, and potentially an example for compiled languages.

Provides an overview of concepts and techniques related to detecting and fixing errors, both in general and in the context of HPC. Includes discussion of best practices when coding and using HPC to avoid errors, a general approach to fixing errors, common types of errors, and how to use various tools to assist in the debugging process. We recommend that participants have some background experience with coding and using the HPC, though the workshop will be aimed at novice and intermediate HPC users.

This workshop introduces the concept of containers, and why they are useful in research computing. It focuses on the Apptainer container engine, and provides examples to show how you can build and run containers with Apptainer.

Overview and foundations of Machine Learning with focus on HPC context. High-level introduction to concepts, tools, and techniques across various scientific disciplines. This workshop is designed for researchers unfamiliar with ML or those who wish to understand its applications in disciplines outside their own. This session is not designed to provide advanced training or a highly detailed, hands on experience.

Basic introduction to GPUs, and how to access GPUs on UA HPC clusters including simple examples to demonstrate GPU accelerated computation, and discussion of common issues that arise when working with GPUs.

Introduction to the NSF's Advanced Cyberinfrastructure Coordination Ecosystem: Services & Support (ACCESS) program, including how to create an account, the types of services offered, and how to create your account. Additional focus placed on GPU resources.

Quantum computing is built on matrix operations, making MATLAB a natural platform for exploring quantum algorithms and applications. In this hands-on workshop, participants will learn the fundamentals of quantum computing, including qubits, superposition, quantum gates, and quantum circuits, using the MATLAB Support Package for Quantum Computing.

Attendees will build and simulate quantum circuits, visualize qubit states, and explore quantum measurement and computation through interactive examples. The workshop will also demonstrate hybrid classical–quantum workflows, showing how quantum methods integrate with MATLAB's established tools for optimization, AI, machine learning, and finance.

Participants will also learn to validate quantum algorithms through simulation and how they can run them on cloud-based quantum hardware connected through MATLAB, including IBM Quantum Compute Service and AWS Braket devices. By the end of the workshop, attendees will have a practical foundation for developing and evaluating quantum computing solutions in MATLAB.