Eurotech, a leading provider of embedded and supercomputing technologies, today announced the installation of the DEEP “Booster”, a tightly coupled cluster of manycore coprocessors, at Jülich Supercomputing Centre. This novel and highly-scalable HPC system completes the Exascale-enabling DEEP System. This prototype is based on the Cluster-Booster architecture and has been developed within the research project DEEP (Dynamical Exascale Entry Platform), funded by the European Commission through the FP7 program under grant agreement no. 287530.
With this delivery, the DEEP consortium can leverage a supercomputer with a peak performance of 505 TFlop/s and an efficiency of over 3 GFlop/s per Watt. The Eurotech hot water cooling solution allows for additional permanent gains in energy efficiency at data centre level as it guarantees year-round free cooling in all climate zones.
The system includes a matching innovative software stack, and six carefully selected grand challenge simulation applications have been optimized to show the full performance potential of the system.
This Cluster-Booster architecture guarantees maximum flexibility and scalability with very high energy efficiency. The 3D Booster interconnect can be scaled up arbitrarily, and thus the DEEP system is a sound base for extrapolating to Exascale performance levels.
"DEEP features a unique and novel computing and programming concept” – says professor Thomas Lippert from Forschungszentrum Jülich – “Its Cluster-Booster architecture is optimized for problems with challenging computational complexities, highest data integration demands and unlimited scalability at the same time. DEEP is designed to open the door to extreme scale computing for a much wider range of scientifically, economically and societally relevant application fields than any other architecture could achieve before.”
Thanks to its architecture, the DEEP system dynamically matches the characteristics of application sections and the compute resources they run on. Highly scalable code parts with regular compute and communication patterns run on the Booster manycore coprocessors with high SIMD performance, while application sections with limited scalability or irregular patterns that require high single-thread performance execute on a general purpose multicore Cluster.
Both parts are connected with a high-speed, zero-copy network bridge, and arbitrary numbers of Booster and Cluster processors can be combined to best run an application.
In late 2012, Eurotech delivered the Cluster part of the DEEP supercomputer, an Aurora Tigon Cluster with 128 Intel® Xeon® nodes and an InfiniBand™ interconnect.
The recent installation extended the DEEP machine with the Booster, an innovative, highly scalable system. The Booster is a 384-node system interconnected via a 3D torus, directly switched by the interconnect of EXTOLL. Each Booster node has one Intel® Xeon Phi™ coprocessor, connected via PCI Express to an EXTOLL NIC, which enables the 3D Torus network. Each blade is made-up of 2 nodes assembled together and cooled with the Eurotech Direct Hot Water Cooling technology. This guarantees hot pluggability, uniform cooling of all components and high energy efficiency at the system and data centre level.
The Cluster and the Booster interconnect networks (fat-tree InfiniBand and EXTOLL direct-switched 3D torus) are bridged by Eurotech-designed Booster Interface nodes running a DEEP-designed bridging protocol. They use low power Intel® Xeon® CPUs which boot the Intel Xeon Phi coprocessors and coordinate the data flow between both sides of the DEEP system.
Since energy efficiency is universally perceived as a key challenge to reach Exascale, DEEP put this topic in the project focus. To this end, Eurotech installed a second DEEP prototype system – the DEEP Energy Efficiency Evaluator consisting of 8 Booster and 4 Cluster nodes – at project partner Leibniz Supercomputing Centre of the Bavarian Academy of Sciences and Humanities. This system is dedicated to optimize the power consumption of the DEEP machine and test an innovative, scalable and fine-grained monitoring system developed within the project.
“The completion of the DEEP Booster delivery is a key milestone in the development of the novel “Cluster-Booster” concept developed in DEEP” says Fabio Gallo managing director HPC at Eurotech “It is going to be further enhanced in DEEP-ER. We believe this architectural innovation for extreme scale HPC systems is a key enabler for future European Exascale projects.”
While DEEP enters production, Eurotech and the DEEP partners are already engaged in the follow-up project DEEP-ER. With this project, the consortium takes the Cluster-Booster concept of DEEP to the next level. The DEEP-ER booster uses the second generation Intel Xeon Phi manycore CPUs, allowing the team to bring additional innovation and more flexibility to the DEEP supercomputing architecture.
The DEEP prototype system will remain in use at Jülich Supercomputing Centre at least for the next two years and will be also made available to application developers outside the project. To best exploit this innovative hardware architecture the project has developed a standards-based software stack for application developers that emphasizes ease-of-use.
It features a fully standard compliant MPI-2 implementation to facilitate straightforward porting of applications, and extends the OmpSs task-based programming model by scalable offload functionality to simplify the subdivision of applications into parts that run on the Cluster vs. the Booster.
The system is designed as a general-purpose HPC machine. It is especially interesting for HPC applications that combine parts with different scalability characteristics as the DEEP software stack enables dynamic offloading of the highly-scalable parts to the Booster, whereas low to medium scalable code parts run on the Cluster.
Eurotech company contacts:
Marketing Manager HPC
Marketing & Communication
Contact at DEEP
PR Manager Research Projects
Dr. Ellen Latzin | Bayerische Akademie der Wissenschaften
Next Generation Cryptography
20.03.2018 | Fraunhofer-Institut für Sichere Informationstechnologie SIT
TIB’s Visual Analytics Research Group to develop methods for person detection and visualisation
19.03.2018 | Technische Informationsbibliothek (TIB)
A new scenario seeking to explain how Mars' putative oceans came and went over the last 4 billion years implies that the oceans formed several hundred million...
For the first time, an interdisciplinary team from the University of Basel has succeeded in integrating artificial organelles into the cells of live zebrafish embryos. This innovative approach using artificial organelles as cellular implants offers new potential in treating a range of diseases, as the authors report in an article published in Nature Communications.
In the cells of higher organisms, organelles such as the nucleus or mitochondria perform a range of complex functions necessary for life. In the networks of...
Animal photoreceptors capture light with photopigments. Researchers from the University of Göttingen have now discovered that these photopigments fulfill an...
On 15 March, the AWI research aeroplane Polar 5 will depart for Greenland. Concentrating on the furthest northeast region of the island, an international team...
The world’s second-largest ice shelf was the destination for a Polarstern expedition that ended in Punta Arenas, Chile on 14th March 2018. Oceanographers from...
19.03.2018 | Event News
16.03.2018 | Event News
13.03.2018 | Event News
20.03.2018 | Physics and Astronomy
20.03.2018 | Physics and Astronomy
20.03.2018 | Earth Sciences