Apollo Systems

Are you ready for a purpose-built HPC platform with powerful features such as Scalable Vector Extensions (SVE) and High Bandwidth Memory (HBM)?

The HPE Apollo 80 System offers customers the opportunity to build HPC clusters with one of the most advanced Arm® processors on the planet combined with the Hewlett Packard Enterprise HPC robust ecosystem of software and HPE Pointnext support. HPE Apollo 80 has a high-density configuration with 8 single socket Fujitsu A64FX™ based servers in a 2U platform. The A64FX SVE and HBM deliver leadership floating-point and memory bandwidth performance as compared to not only other Arm platforms, but current x86 based platforms as well. The HPE Cray Programming Environment offers an excellent development environment for customers developing their own code and porting to the new SVE architecture.

Do you need a dense, scalable building block to meet changing demands as you continue your digital transformation journey?

Hewlett Packard Enterprise is bringing the power of supercomputing to data centers of any size. The density-optimized HPE Apollo 2000 Gen10 Plus System with a shared infrastructure chassis and support for up to four HPE ProLiant XL225n Gen10 Plus servers allows you to help maximize your rack space. Server nodes can be serviced without impacting operation of other nodes in the same chassis to provide increased server up-time. It delivers the flexibility to tailor the system to the precise needs of your demanding high-performance computing (HPC) workload with the right compute, flexible I/O, and storage options. The system can be deployed with a single server, leaving room to scale as customer's needs grow. The system has been purpose-built to address the requirements of HPC applications such as manufacturing, oil and gas, life sciences, and financial services.

Does your enterprise need to simplify management, reduce costs, and improve reliability and performance for HPC and AI workloads?

Built for the Exascale Era, the HPE Apollo 6500 Gen10 Plus Systems accelerates performance with NVIDIA® A100 Tensor Core GPUs to take on the most complex HPC and AI workloads. This purpose-built platform provides enhanced performance with premier GPUs, fast GPU interconnect, high-bandwidth fabric, and configurable GPU topology, providing rock-solid reliability, availability, and serviceability (RAS). Configure with single or dual processor options for a better balance of processor cores, memory, and I/O. Improve system flexibility with support for 4, 8, 10, or 16 GPUs and a broad selection of operating systems and options all within a customized design to reduce costs, improve reliability, and provide leading serviceability.

Are your high-performance computing (HPC) applications memory-bound?

The HPE Apollo 35 v2 System provides a high density AMD EPYC compute solution with exceptional memory bandwidth and capacity per socket. Offering four servers in 2U, with up to 64 cores and 512 GB DDR4 3200 MT/s memory per socket, the HPE Apollo 35 v2 System, with second-generation AMD EPYC processors, is well suited for memory bandwidth or capacity bound HPC workloads, such as computational fluid dynamics, weather simulation, and oil and gas exploration. With high-performance core density per server and support for high-bandwidth network interfaces, the HPE Apollo 35 v2 System delivers excellent HPC performance at both node and rack level.

Are you searching for greater performance and more memory bandwidth?

The HPE Apollo 20 System is built on the 2nd Generation Intel® Xeon® 9200 family of processors which offer unmatched 2-socket performance leadership across popular workloads. Built to support both liquid-cooled and air-cooled options, the HPE Apollo 20 System takes advantage of the Hewlett Packard Enterprise experience in HPC cooling technologies as workloads continue to push power and density. The HPE Apollo 20 System offers up to 56 cores and 12 DIMMs per socket making it ideal for use in data-intensive industries including oil and gas, finance, AI, manufacturing, and life sciences.

Optimize rack scale power and increase efficiency with the HPE Apollo Power Shelf. This 1.5U shelf supplies 14.4 kW or 15.9 kW of power supporting 1-3 HPE Apollo a6000 Chassis depending on power load. Choose from single or 3-phase AC input for 12 x 12V DC cables from the HPE Apollo Power Shelf to the chassis.

Each HPE Apollo Power Shelf can hold up to 6 power supplies: 2650W Platinum hot-plug (15.9 kW non-redundant) or 2400W Platinum hot-plug (14.4 kW non-redundant). Choose from N, N+1, and N+N redundancy configurations to meet your workload needs.

HPE Advanced Power Management simplifies rack, chassis, server and component-level power monitoring and management, so you can get both the best performance and the highest level of efficiency.

Do you need a server platform for your data intensive workloads that can scale per your needs?

The HPE ProLiant XL250a Gen9 Server delivers 2P performance for your budget with dual accelerator support, while leveraging the HPE Apollo 6000 System and its modular flexibility and rack-scale efficiency.

This server features the Intel® Xeon® E5-2600 v3/v4 series processors and 16 DIMM slots are ready with DDR4 2133 (1024 GB maximum)/2400 (2048 GB maximum) MHz memory and HPE SmartMemory.

The modular HPE Apollo 6000 Chassis can accommodate up to ten server trays, with the flexibility to choose from various trays, HPE ProLiant XL250a Gen9 Server with accelerators, HPE ProLiant XL230a Gen9 Server, or a combination of server trays to meet workload needs while lowering TCO.

The HPE Apollo 6000 Power Shelf drives rack scale power efficiency, while the Hewlett Packard Enterprise Advanced Power Manager provides real-time power measurements and enables rack-level dynamic power capping.

Fuel ground breaking research in science and engineering with leading edge technology, while going greener than ever before. The HPE ProLiant XL750f Gen9 Server supports NVIDIA® Tesla® K40 XL GPUs. Applications that benefit from GPUs include seismic processing, biochemistry simulations, weather and climate modeling, image, video and signal processing, computational finance, computational physics, CAE, CFD, and data analytics.

The HPE Apollo 8000 System reaches new heights of performance density, with 4x the teraflops per square foot and up to 40% more FLOPs per watt than comparable air cooled servers.¹ At the same time, the HPE Apollo 8000 System helps reduce your carbon footprint, saving up to 3,800 tons of CO2 per year.² That’s about the same amount of CO2 produced per year by 790 cars!

Are you ready to compete in the Big Data arena by making the leap into enterprise-class server storage architecture? The HPE Apollo 4200 Gen9 Server offers revolutionary storage density in a 2U form factor, with one of the highest storage capacities in any 2U server. When you are running object storage, Hadoop®, content delivery, or other data-intensive workloads on general purpose servers, the HPE Apollo 4200 allows you to save valuable data center space through its unique density optimized 2U form factor which holds up to 28 Large Form Factor (LFF) or 54 Small Form Factor (SFF) hot-plug drives. If you want to grow your Big Data solutions with infrastructure that is ready to scale, but prefer the familiarity of 2U hardware, the HPE Apollo 4200 Gen9 Server, with up to 224 TB per server, is the ideal enterprise bridge to purpose-built, density optimized infrastructure. And there are no special racks required as it fits easily into standard racks with a depth of 32-inches per server.

Do you need a cost-effective, industry-standard server for highly parallel applications requiring performance across widely diverse workloads and legacy applications not optimized well for graphic processing unit (GPU) computing? The HPE Apollo kl20 Server is a 2U server with up to four Intel® Xeon® Phi processors and with support for both Intel Omni-Path and Mellanox® InfiniBand interconnect fabric options for flexibility and increased price-performance and density. An ideal solution for running highly parallel applications optimized for the Xeon Phi Processors, especially for code which has already been optimized for the prior generation of the Intel Phi coprocessor and legacy applications for which recoding would be burdensome or where the environment requires performance across widely diverse workloads not optimized well for GPU computing. Delivers a dense and flexible computing platform optimized for highly vectorized or memory bandwidth bound HPC applications.