What Is Hpc In Healthcare?

HPC Healthcare Computing for Life Sciences Accelerate research and deliver new patient services with HPC for health and life sciences. In healthcare and life sciences (HLS) settings, HPC offers a wide range of benefits, including flexibility, scalability, and the ability to better manage diverse workloads.

Join us as experts from HPE and other companies discuss these topics and explore the HPE GreenLake edge-to-cloud platform, which allows HLS IT leaders and data center managers to consume compute as a service. As the volume of data available to health and life science specialists proliferates, so do the opportunities to make groundbreaking discoveries that save lives.

But time is of the essence. High performance computing can help professionals accurately analyze their data and improve outcomes for patients, from discovering new drugs to finding the best tailored treatment options. In health and life sciences, the urgent need to create answers faster drives the requirement for ever more powerful and sophisticated compute resources.

• Whether discovering drugs to tame the pandemic, seeing how a cancer patient will respond to treatment, or modelling the human genome, the powerful machines used create an ever-increasing quantity of data.
• HPC can make a huge difference when it comes to answering complex questions and speeding the development new, important treatments.

Something went wrong. Please try again later. Maximize what your infrastructure can do HPE has long been committed to high-performance computing and delivering its benefits to all organizations. We help organizations leverage HPC technologies—including multiprocessing and parallel processing—to drive innovation.

1. We will continue to focus on offering “everything as a service” and ever-increasing performance from various technologies.
2. This will help enterprises accelerate their digital transformation, enabling them to get out in front of the competition and meet the demands of new customers and market dynamics.

Additional resources from HPE to help you on your HPC journey. HPC can help solve your most complex problems. Now adaptation has moved from generational to real-time, you need insight and innovation on demand. Explore HPE’s solutions, expertise, and ecosystem.

• Explore integrated solutions and services from HPE that leverage digital technology advances to make medicine and research more precise and focused on the individual.
• HPE GreenLake edge-to-cloud platform brings the cloud experience—self-serve, pay-per-use, scale up and down, and managed for you by HPE and our partners—to applications and data everywhere, in edges, colocations and data centers.

This enables you to free up capital, boost operational and financial flexibility and free up talent. : HPC Healthcare Computing for Life Sciences

What does the HPC do?

High performance computing (HPC) is the ability to process data and perform complex calculations at high speeds. To put it into perspective, a laptop or desktop with a 3 GHz processor can perform around 3 billion calculations per second. While that is much faster than any human can achieve, it pales in comparison to HPC solutions that can perform quadrillions of calculations per second.

What are the two types of HPC?

Interactions between components – It’s important that these various components operate at similar speeds or performance levels. If they can’t keep pace with each other, HPC cannot happen and the entire system will fail. For instance, the servers must ingest and process data efficiently from the storage components, while these components should be able to feed data quickly to servers to support HPC.

Similarly, networking components should support seamless high-speed data transportation between the other components. HPC systems can run different types of workloads. Two popular types are parallel and tightly coupled workloads. In parallel workloads, computational problems are divided into small, independent tasks that can run in parallel at very high speeds.

Often, these workloads don’t communicate with each other. Examples of such workloads include risk simulations, logistics simulations, contextual search and molecular modeling. When workloads are divided into smaller tasks and communicate continuously with each other as they perform their processing, they are said to be tightly coupled, Tips for revving up HPC, post-installation

What is an example of a HPC workload?

Scenarios HPC cases are typically complex computational problems that require parallel-processing techniques. To support the calculations, a well-architected HPC infrastructure is capable of sustained performance for the duration of the calculations. HPC workloads span traditional applications, like genomics, computational chemistry, financial risk modeling, computer aided engineering, weather prediction and seismic imaging, as well as emerging applications, like machine learning, deep learning, and autonomous driving.

• Still, the traditional grids or HPC clusters that support these calculations are remarkably similar in architecture with select cluster attributes optimized for the specific workload.
• In AWS, the network, storage type, compute (instance) type, and even deployment method can be strategically chosen to optimize performance, cost, and usability for a particular workload.

HPC is divided into two categories based on the degree of interaction between the concurrently running parallel processes: loosely coupled and tightly coupled workloads. Loosely coupled HPC cases are those where the multiple or parallel processes don’t strongly interact with each other in the course of the entire simulation.

Tightly coupled HPC cases are those where the parallel processes are simultaneously running and regularly exchanging information between each other at each iteration or step of the simulation. With loosely coupled workloads, the completion of an entire calculation or simulation often requires hundreds to millions of parallel processes.

These processes occur in any order and at any speed through the course of the simulation. This offers flexibility on the computing infrastructure required for loosely coupled simulations. Tightly coupled workloads have processes that regularly exchange information at each iteration of the simulation.

Typically, these tightly coupled simulations run on a homogenous cluster. The total core or processor count can range from tens, to thousands, and occasionally to hundreds of thousands if the infrastructure allows. The interactions of the processes during the simulation place extra demands on the infrastructure, such as the compute nodes and network infrastructure.

The infrastructure used to run the huge variety of loosely and tightly coupled applications is differentiated by its ability for process interactions across nodes. There are fundamental aspects that apply to both scenarios and specific design considerations for each.

Network : Network requirements can range from cases with low requirements, such as loosely coupled applications with minimal communication traffic, to tightly coupled and massively parallel applications that require a performant network with large bandwidth and low latency. Storage : HPC calculations use, create, and move data in unique ways. Storage infrastructure must support these requirements during each step of the calculation. Input data is frequently stored on startup, more data is created and stored while running, and output data is moved to a reservoir location upon run completion. Factors to be considered include data size, media type, transfer speeds, shared access, and storage properties (for example, durability and availability). It is helpful to use a shared file system between nodes. For example, using a Network File System (NFS) share, such as Amazon Elastic File System (EFS), or a Lustre file system, such as Amazon FSx for Lustre. Compute : The Amazon EC2 instance type defines the hardware capabilities available for your HPC workload. Hardware capabilities include the processor type, core frequency, processor features (for example, vector extensions), memory-to-core ratio, and network performance. On AWS, an instance is considered to be the same as an HPC node. These terms are used interchangeably in this whitepaper.

AWS offers managed services with the ability to access compute without the need to choose the underlying EC2 instance type. AWS Lambda and AWS Fargate are compute services that allow you to run workloads without having to provision and manage the underlying servers.

Deployment : AWS provides many options for deploying HPC workloads. Instances can be manually launched from the AWS Management Console. For an automated deployment, a variety of Software Development Kits (SDKs) is available for coding end-to-end solutions in different programming languages.

AWS CloudFormation templates allow the specification of application-tailored HPC clusters described as code so that they can be launched in minutes. AWS ParallelCluster is open-source software that coordinates the launch of a cluster through CloudFormation with already installed software (for example, compilers and schedulers) for a traditional cluster experience. AWS provides managed deployment services for container-based workloads, such as Amazon Elastic Container Service (Amazon ECS), Amazon Elastic Kubernetes Service (Amazon EKS), AWS Fargate, and AWS Batch. Additional software options are available from third-party companies in the AWS Marketplace and the AWS Partner Network (APN).

Cloud computing makes it easy to experiment with infrastructure components and architecture design. AWS strongly encourages testing instance types, EBS volume types, deployment methods, etc., to find the best performance at the lowest cost. : Scenarios

What are the three key components of HPC?

There are three basic components to an HPC cluster that each have different requirements: compute hardware, software, and facilities.

What are the basics of HPC?

What makes up an HPC system? – HPC systems are actually groups—or clusters—of computers. The main elements in an HPC system are network, storage and compute. The compute part of the system takes the data given to it via the network and spins up results.

An HPC cluster consists of hundreds or even thousands of compute servers—or nodes—that are networked together. The nodes work in parallel with each other, running smaller parts of a large job simultaneously, which reduces the time it takes to solve one problem. If you’ve heard the term parallel processing, this is where it comes from.

Therein lies the main advantage of HPC, although, we are starting to see an increasing number of workflows that use hardware and software resources in a predefined sequence or in multiple consecutive stages. The nodes need to be able to talk to one another to work in harmony—and computers talk over networks.

What is the difference between HPC and data center?

The Coming Intersection Of HPC And The Enterprise Data Center BERLIN, GERMANY – JANUARY 12: Close-up of cables and LED lights in a server center on January 12,,2018, in Berlin, Germany. (Photo Illustration by Thomas Koehler/Photothek via Getty Images) High Performance Computing (HPC) traditionally exists as a separate and distinct discipline from enterprise data center computing.

Both use the same basic components—servers, networks, storage arrays—but are optimized for different types of applications. Those within the data center are largely transaction-oriented while HPC applications crunch numbers and high volumes of data. However, an intersection is emerging, driven by more recently by business-oriented analytics that now falls under the general category of Artificial intelligence (AI).

Data-driven, customer-facing online services are advancing rapidly in many industries, including financial services (online trading, online banking), healthcare (patient portals, electronic health records), and travel (booking services, travel recommendations).

• The explosive, global growth of SaaS and online services is leading to major changes in enterprise infrastructure, with new application development methodologies, new database solutions, new infrastructure hardware and software technologies, and new datacenter management paradigms.
• This growth will only accelerate as emerging Internet of Things (IoT)-enabled technologies like connected health, smart industry, and smart city solutions come online in the form of as-a-service businesses.

Business is now about digital transformation. In the minds of many IT executives, this typically means delivering cloud-like business agility to its user groups—transform, digitize, become more agile. And it is often the case that separate, distinctly new cloud computing environments are stood-up alongside traditional IT to accomplish this.

• Transformational IT can now benefit from a shot of HPC.
• HPC paradigms were born from the need to apply sophisticated analytics to large volumes of data gathered from multiple sources.
• Sound familiar? The Big Data way to say the same thing was “Volume, Variety, Velocity.” With the advent of cloud technologies, HPC applications have leveraged storage and processing delivered from shared, multi-tenant infrastructure.

Many of the same challenges addressed by HPC practitioners are now faced by modern enterprise application developers. As enterprise cloud infrastructures continue to grow in scale while delivering increasingly sophisticated analytics, we will see a move toward new architectures that closely resemble those employed by modern HPC applications.

• Characteristics of new cloud computing architectures include independent scaling compute and storage resources, continued advancement of commodity hardware platforms, and software-defined datacenter technologies—all of which can benefit from an infusion of HPC technologies.
• These are now coming from the traditional HPC vendors—, and with its for example—as well as some new names like, the current leader in GPU cards for the AI market.

To extract better economic value from their data, enterprises can now more fully enable machine learning and deep neural networks by integrating HPC technologies. They can merge the performance advantages of HPC with AI applications running on commodity hardware platforms.

Instead of reinventing the wheel, the HPC and Big Data compute-intensive paradigms are now coming together to provide organizations with the best of both worlds. HPC is advancing into the enterprise data center and it’s been a long time coming. This blog was co-authored by, Senior Analyst and Practice Leader, Evaluator Group.

Frederic was formerly Senior Director of R&D Labs for, : The Coming Intersection Of HPC And The Enterprise Data Center

What are HPC tools?

OCHA’s HPC.tools are online platforms that enable the humanitarian community to structure and manage information around the Humanitarian Programme Cycle (HPC). These tools consist of four unique platforms. HPC data management websites:

The Response, Planning and Monitoring Module The Project Module

HPC public-facing websites:

Humanitarian Action Financial Tracking Service (FTS)

These tools support all aspects of the HPC: the identification of needs; strategic, cluster-level and project planning; periodic monitoring; presence mapping and financial tracking. The HPC.tools are a fit-for-purpose suite of interconnected services – modular and adaptable to all contexts and capacities – which don’t just facilitate the management and sharing of data, but ‘join the dots’ through a common data architecture.

These explicit connections from needs, to plans, to results and from activities to projects to funding, transform strategic and operational decision-making for all partners. Through them, OCHA can provide accurate, reliable, up-to-date information to global stakeholders including donors, agencies, implementers as well as the affected people.

They will improve the way the entire community works together to deliver coordinated action. To support OCHA Information Management Officers use of HPC tools, internal guidance documents were prepared and are provided through this Knowledge Management Platform HPC tools’ respective document pages’ linked below;

	HPC Tools Guides	Format
1.	Response Planning and Monitoring	Guidance EN/ES/FR
2.	Projects Module	Guidance EN/ES/FR
3.	HPC Bridge Tools	Guidance EN/ES/FR

What is the difference between HPC and AI?

Adjustments in Programming Languages – HPC programs are usually written in Fortran, C, or C++. HPC processes are supported by legacy interfaces, libraries, and extensions written in these languages. However, AI relies heavily on languages like Python and Julia.

What is another name for HPC?

Overview – HPC integrates systems administration (including network and security knowledge) and parallel programming into a multidisciplinary field that combines digital electronics, computer architecture, system software, programming languages, algorithms and computational techniques.

1. HPC technologies are the tools and systems used to implement and create high performance computing systems.
2. Recently, HPC systems have shifted from supercomputing to computing clusters and grids,
3. Because of the need of networking in clusters and grids, High Performance Computing Technologies are being promoted by the use of a collapsed network backbone, because the collapsed backbone architecture is simple to troubleshoot and upgrades can be applied to a single router as opposed to multiple ones.

The term is most commonly associated with computing used for scientific research or computational science, A related term, high-performance technical computing ( HPTC ), generally refers to the engineering applications of cluster-based computing (such as computational fluid dynamics and the building and testing of virtual prototypes ).

1. HPC has also been applied to business uses such as data warehouses, line-of-business (LOB) applications, and transaction processing,
2. High-performance computing (HPC) as a term arose after the term “supercomputing”.
3. HPC is sometimes used as a synonym for supercomputing; but, in other contexts, ” supercomputer ” is used to refer to a more powerful subset of “high-performance computers”, and the term “supercomputing” becomes a subset of “high-performance computing”.

The potential for confusion over the use of these terms is apparent. Because most current applications are not designed for HPC technologies but are retrofitted, they are not designed or tested for scaling to more powerful processors or machines. Since networking clusters and grids use multiple processors and computers, these scaling problems can cripple critical systems in future supercomputing systems.

• the simulation of car crashes for structural design
• molecular interaction for new drug design
• the airflow over automobiles or airplanes

In government and research institutions, scientists simulate galaxy creation, fusion energy, and global warming, as well as work to create more accurate short- and long-term weather forecasts. The world’s tenth most powerful supercomputer in 2008, IBM Roadrunner (located at the United States Department of Energy ‘s Los Alamos National Laboratory ) simulated the performance, safety, and reliability of nuclear weapons and certifies their functionality.

Is HPC a data center?

High-Performance Computing (HPC) centers have high server utilization rates and high-power requirements but typically low availability requirements. Once mainly used by universities and research centers, HPCs are increasingly being operated by private businesses.

What operating system is used for HPC?

What is high performance computing (HPC)? High performance computing (HPC) generally refers to processing complex calculations at high speeds across multiple servers in parallel. Those groups of servers are known as clusters and are composed of hundreds or even thousands of compute servers that have been connected through a network.

In an HPC cluster, each component computer is often referred to as a node. HPC clusters run batches of computations. The core of any HPC cluster is the scheduler, used to keep track of available resources, allowing job requests to be efficiently assigned to various compute resources (CPU and GPU) via fast network.

A typical HPC solution has 3 main components: HPC solutions can be deployed on-premise, at the, or even in the,

• A supercomputer is made up of thousands of compute nodes that work together to complete tasks.
• While historically “supercomputers” were single super fast machines, current high performance computers are built using massive clusters of servers with one or more central processing units (CPUs).
• The supercomputers of today are aggregating computing power to deliver significantly higher performance than single desktops or servers and are used for solving complex problems in engineering, science, and business.

By applying more compute power with HPC, data-intensive problems can be run using larger datasets, in the same amount of time. This ability allows problems to be described and examined at higher resolution, larger scale, or with more elements. HPC solutions require an operating system in order to run.

is the dominant operating system for high performance computing, according to TOP500 list that keeps track of world’s most powerful computer systems. All run Linux, and many in the top 10 run, With the increased use of technologies like the artificial intelligence (AI), and machine learning (ML), organizations are producing huge quantities of data, and they need to be able to in real-time.

HPC is is now running anywhere from cloud to the edge, and can be applied to a wide scope of problems—and across industries such as science, healthcare, and engineering—due to its ability to solve large-scale computational problems within reasonable time and cost parameters.

1. The compute resources needed to analyze big data and solve complex problems are expanding beyond the on-premise compute clusters in the datacenter that are typically associated with HPC and into the resources available from services.
2. Cloud adoption for HPC is central to the transition of workloads from an on-premise-only approach to one that is decoupled from specific infrastructure or location.
3. Cloud computing allows resources to be available on demand, which can be cost-effective and allow for greater flexibility to run HPC workloads.

The adoption of has also gained momentum in HPC. Containers are designed to be lightweight and enable flexibility with low levels of overhead—improving performance and cost. Containers also help to meet the requirements of many HPC applications, such as scalability, reliability,, and,

The ability to package application code, its dependencies and even user data, combined with the demand to simplify sharing of scientific research and findings with a global community across multiple locations, as well as the ability to migrate said applications into public or hybrid clouds, make containers very relevant for HPC environments.

By using containers to deploy HPC apps and workloads in the cloud, you are not tied to a specific HPC system or cloud provider. provides a platform that delivers reliability and efficiency to HPC workloads at scale for on-premise, in the cloud, or in hybrid HPC environments.

Red Hat Enterprise Linux provides a range of container tools, delivering enhanced portability and reproducibility for HPC workloads., a variant of Red Hat Enterprise Linux, is optimized for high-performance graphics, animation, and scientific activities. It is also available on the Amazon Web Services (AWS) cloud ( and ), delivered via, a high-performance remote display protocol with enhanced security components.

is an enterprise container orchestration platform that extends Kubernetes capabilities and provides consistent operations and application life cycle management at scale using flexible topology options to support low-latency workloads anywhere. Linux is an open source operating system that is made up of the kernel, the base component of the OS, and the tools, apps, and services bundled along with it. Sign up for our free newsletter, Red Hat Shares.

We’re the world’s leading provider of enterprise open source solutions—including Linux, cloud, container, and Kubernetes. We deliver hardened solutions that make it easier for enterprises to work across platforms and environments, from the core datacenter to the network edge. : What is high performance computing (HPC)?

What challenges can HPC solve?

Intense or highly complicated calculations and simulations – HPC is critical for any applications where you have mathematically intense or highly complicated calculations. Consider engineering or scientific research, where the teams can run complex simulations against large datasets.

• Other excellent examples would be in fields such as aerodynamics, physics, or pharmaceuticals.
• The ability to handle complex predictive analytics also means the reduced cost of operations for the business.
• Another great example would be building simulation models (say, for banking and financial services) by leveraging AI and machine learning capabilities.

There is a high degree of accuracy that HPC can bring in when performing large-numbered, complex financial transactions

What is HPC in the NHS?

All our staff are registered and regulated by the ‘ Health Professions Council ‘ (HPC).

What does HCPs stand for in medical terms?

Healthcare professionals (HCPs)

What is HPC in assessment?

Abstract – High-performance computing (HPC) benchmarks are widely used to evaluate and rank system performance. This paper introduces a benchmark assessment tool equipped with a rigorous statistical method to evaluate HPC benchmarks against a set of scientific applications.

Why is HPC needed?

Why is HPC important? – HPC has been a critical part of academic research and industry innovation for decades. HPC helps engineers, data scientists, designers, and other researchers solve large, complex problems in far less time and at less cost than traditional computing. The primary benefits of HPC are:

Reduced physical testing : HPC can be used to create simulations, eliminating the need for physical tests. For example, when testing automotive accidents, it is much easier and less expensive to generate a simulation than it is to perform a crash test. Speed : With the latest CPUs, graphics processing units (GPUs), and low-latency networking fabrics such as remote direct memory access (RDMA), coupled with all-flash local and block storage devices, HPC can perform massive calculations in minutes instead of weeks or months. Cost : Faster answers mean less wasted time and money. Additionally, with cloud-based HPC, even small businesses and startups can afford to run HPC workloads, paying only for what they use and scaling up and down as needed. Innovation : HPC drives innovation across nearly every industry—it’s the force behind groundbreaking scientific discoveries that improve the quality of life for people around the world.

What is HPC structure?

Skip to content September 24, 2021 Interested in HPC Architecture? We discuss high-performance computing and give an explanation of the components and structure needed for HPC Architecture. What is HPC Architecture? High-performance computing (HPC) is a method of processing large amounts of data and performing complex calculations at high speeds.

• In HPC architecture, multiple computer servers are networked together to form a cluster that has more outstanding performance than a single computer.
• How Does HPC Architecture Differentiate from Traditional Architecture? There are major differences between high-performance computing and traditional computing.

Consumer-grade computers can use many of the same techniques that HPC systems do: hardware acceleration, GPU computing, etc. However, when experts discuss HPC, particularly in fields where HPC is critical to operations, they are talking about processing and computing power exponentially higher than traditional computers, especially in terms of scaling speed, throughput, and processing.

Machine Learning and AI : Training environments and algorithms for advanced machine learning algorithms (including deep learning or reinforcement learning systems) require massive amounts of training data to be served at rapid speeds. HPC provides the foundation for much of the innovations we’ve seen in AI and machine learning by supporting the complex calculations needed to make them successful. Genomic Sequencing : Genomic sequencing is the mapping of the entire genetic makeup of an organism, a process that becomes more and more complex beyond even the simplest cells. HPC provides the backbone of genomic sequencing efforts by allowing algorithms to perform up to quadrillions of calculations per second. Graphical Processing and Editing : HPC architecture has found a home in the world of feature films and animation, where life-like CGI is often the star of a movie. HPC infrastructure gives studios a way to render higher and higher quality animations, pushing the envelope in terms of realistic special effects in film. Finance and Modern Analytics : HPC powers the analytical engines and AI behind some of the more innovative financial platforms on the market. Such infrastructure can support advanced investment analysis tools to insurance risk assessment and fraud detection algorithms.

Beyond these examples, you will often find HPC architecture empowering systems in healthcare, fuel and power utilities, manufacturing, and defense. Not all HPC architectures are the same, and high-performance systems can take on several different forms. Some of these include the following:

Cluster Computing Architecture : A “cluster” is a group of computers working together on the same set of tasks. Under HPC architecture, a cluster of computers essentially operates as a single entity, called a node, that can accept tasks and computations as a collective. Parallel Computing : In this configuration, nodes are arranged to execute commands or calculations in parallel. Much like GPU processing, the idea is to scale data processing and computation volume across a system. Accordingly, parallel systems also scale incredibly well with the correct configurations. Grid Computing : A grid computing system distributes work across multiple nodes. However, unlike parallel computing, these nodes aren’t necessarily working on the same or similar computations, but parts of a more significant, more complex problem.

While any given cloud HPC system will have a unique configuration based on the needs of the organization, researchers, and industry, there are several core technologies that any HPC system will have in place. Broadly, there are three main components of an HPC system:

Compute : As the name suggests, the compute component focuses on the processing of data, the execution of software or algorithms, and solving problems. A cluster of computers (and all the processors, dedicated circuits, and local memory entailed therein) performing computations would fall under the “computer” umbrella. Network : Successful HPC architecture must have fast and reliable networking, whether for ingesting external data, moving data between computing resources, or transferring data to or from storage resources. Storage : Cloud storage, with high volume and high access and retrieval speeds, is integral to the success of an HPC system. While traditional external storage is the slowest component of a computer system, storage in an HPC system will function relatively fast to meet the needs of HPC workloads.

Within this broader configuration of components, we’ll find finer-grained items:

HPC Schedulers : Cluster computing doesn’t simply work out of the box. Specialty software serving as the orchestrator of shared computing resources will actually drive nodes to work efficiently with modern data architecture, Following that, an HPC system will always have, at some level, dedicated cluster computing scheduling software in place. GPU-Accelerated Systems : This isn’t always a necessary component of an HPC architecture, but more often than not you’ll find accelerated hardware within such systems. GPU acceleration provides parallel processing “under the hood” to support the large-scale processing undertaken by the larger system. In turn, these accelerated clusters can support more complex workloads at much faster speeds. Data Management Software : The underlying file systems, networking, and management of system resources must be handled by a software system optimized for your specific needs. This software will often direct system management operations like moving data between long-term cloud storage and your HPC clusters or optimizing cloud file systems.

With these components in mind, you might be able to see how HPC infrastructure can include cloud, on-premise, or hybrid configurations depending on your organization’s needs. Cloud infrastructure, however, is a critical component for some of the most demanding workloads and industries.

What are the roles and responsibilities of HPC admin?

Documenting system administration procedures for routine and complex tasks. Maintaining and monitoring the security of the HPC systems and servers. Configures, installs, upgrades and maintains server applications and hardware. Works to safeguard the integrity of computer software.

What are HPC Gpus used for?

GPU-Driven HPC Systems with WEKA – With high-performance computing becoming the backbone of modern enterprise and scientific technology, these systems’ underlying hardware has rapidly evolved. HPC GPU architectures are purpose-built for advanced workloads in the life sciences, genomic sequencing and advanced analytics.

Streamlined and fast cloud file systems to combine multiple sources into a single high-performance computing system Industry-best, GPUDirect performance (113 Gbps for a single DGX-2 and 162 Gbps for a single DGX A100) In-flight and at-rest encryption for governance, risk, and compliance requirements Agile access and management for edge, core, and cloud development Scalability up to exabytes of storage across billions of files

Contact the WEKA team today if you’re looking for advanced cloud computing infrastructure for your analytics or big data workloads.

What is the use of HPC in machine learning?

How Workloads Have Changed – Many of the current use cases for AI are limited to edge or data center deployments, such as intelligent traffic systems that lean heavily on smart cameras for AI object recognition. The algorithms underpinning AI models have become far more complex, offering greater potential but also greater computational requirements for scientific discovery, innovation, and industrial and business applications.

The challenge is how to scale up AI inference to HPC levels or how to go from recognizing traffic patterns at an intersection to sequencing a genome in hours instead of weeks. Fortunately, the HPC community offers decades of experience on how to address the challenges of AI at scale, such as the need for more parallelism, fast I/O for massive data sets, and efficient navigation of distributed computing environments.

HPC capabilities such as these can help accelerate AI to achieve useful results, such as applying expert-level heuristics via deep learning inference to thousands of transactions, workloads, or simulations per second.