Forum for Science, Industry and Business
Sponsored by:     Siemens     3M    n-tv
Search our Site:

Topic (optional):

 

Home Reports Information Technology Content

European distributed supercomputing infrastructure is being born

next article
08.11.2004

 


In one of the most important moves to bring together national supercomputing infrastructures to advance science and technology in Europe, several leading European HPC centres devised an innovative strategy to build a terascale supercomputing facility with continental scope, called Distributed European Infrastructure for Supercomputing Applications (DEISA).

Led by IDRIS-CNRS (France) the DEISA project started its activities in May 2004 with eight partners: FZJ and RZG in Germany, CINECA in Italy, EPCC and ECMWF in the UK, CSC in Finland and SARA in the Netherlands. The project is partially funded by the European Commission under the 6ththFramework Program, as part of a vigorous initiative aimed at deploying grid enabled, production quality research infrastructures in Europe.


The main objective of the DEISA project is to enable scientific discovery across a broad spectrum of science and technology, by the deployment and operation of a world class, persistent, production quality, distributed supercomputing environment. This becomes possible through a deep integration of existing national high-end platforms, tightly coupled by a dedicated network and supported by innovative system and grid software. Strategies of coordinated operation have been identified and agreed, which will make the integrated infrastructure superior to the sum of its parts.

This integrated supercomputing power is intended to bring a boost in competitiveness for Europe in scientific areas where extreme performance is needed. The provision of high performance computing resources to researchers has traditionally been the objective and mission of the national HPC centres in Europe. However, the increasing global competition between Europe, USA, and Japan is inducing growing demands for computational resources at the highest performance levels, as well as a need of fast innovation. To stay competitive, major investments are needed every two years – an innovation cycle that is difficult to follow even for the most prosperous countries.

The architecture of the DEISA supercomputing environment has been designed following a number of strategic requirements: the necessity of operating in a transparent and non-disruptive way as a layer on top on the existing national services, the desire to hide complex grid technologies from the end scientific users, and the need to guarantee persistence and portability of scientific applications, since they are an essential part of the corporate wealth of research organizations.

The DEISA supercomputing infrastructure is constituted of two layers. At the innermost layer, similar computing platforms (same architecture and operating system) are glued together to create a “distributed virtual supercomputer”. The resulting platform is a super-cluster of computing nodes which are located in a few places in different countries, but which appears to end users as a single unified system. In the first phase of the project, four IBM supercomputers in Germany (FZJ and RZG), France (IDRIS) and Italy (CINECA) are being integrated in this way. The resulting system will consist of more than 4000 processors, a huge memory space and an aggregate computing power of over 22 teraflops. In the second phase, other IBM systems (in particular, the Finnish system) will be added to the super-cluster.

The key integration technology for the distributed super-cluster (in addition to the network itself) is the capability to efficiently share data across a wide area network, provided by a global file system (in this case, IBM’s Global Parallel File System, GPFS). The high added value of this integrated platform arises from the possibility of redistributing the computational workload by migrating jobs across national borders, in order to free huge resources for one specific application in one site.

At the next layer of the DEISA infrastructure, this IBM super-cluster is federated with other selected leading computing platforms to constitute a heterogeneous supercomputing grid, which will include vector platforms and Linux clusters. The first platform to be integrated in the grid is SARA’s SGI ALTIX supercomputer, providing 416 Itanium processors. The DEISA heterogeneous grid will provide a number of relevant services to the scientific community: workflow management based on UNICORE middleware (complex applications that visit several platforms to perform a job), high performance global data management in the whole grid (sharing data between different applications, applications accessing distributed data), grid applications that run on several platforms simultaneously, and, last but not least, portals and Web interfaces to hide complex environments from end users.

The DEISA infrastructure fully exploits the network bandwidth provided by the European research network GEANT and the national research networks (today DFN in Germany, RENATER in France, and GARR in Italy). It also depends critically on the aggressive evolution planned for these and other European organizations, to enhance the network performance. “The DEISA concept is based on the educated guess that network bandwidth will become, by the ends of this decade, a commodity very much like raw computing power became a commodity in the early 90’s”, said Prof. Victor Alessandrini from IDRIS-CNRS, director of the project. “A tightly integrated European supercomputing environment is mandatory to share the extreme computational resources that are needed for extreme efficiency and performance. This is the road that is being paved by DEISA”.

DEISA can expand horizontally by adding new systems, new architectures, and new partners thus increasing the capabilities and attractiveness of the infrastructure in a non-disruptive way. Recently, agreement has been reached with three leading organizations in Europe (HLRS and LRZ in Germany, and BSC, the new supercomputing centre in Barcelona, Spain) to join the DEISA Consortium, and detailed negotiations are under way. With this enlargement, practically all the leading computing platforms in Europe would be in the DEISA grid. Moreover, DEISA will be open to collaboration with other Europe HPC centres and related initiatives world-wide, like TeraGrid in the USA or the other major European research infrastructure project, EGEE, led by CERN.

In summary, DEISA is focused on the advancement of science in Europe. DEISA collaborates with leading European research groups initially from several scientific and industrial disciplines (Material Sciences, Cosmology, Fusion Research, Life Sciences, Computational Fluid Dynamics, and Environmental Sciences). The researchers aim to demonstrate that DEISA will enable new research results and enhanced scientific output in several different ways. As the infrastructure consolidates, DEISA will be launching aggressive scientific initiatives to enable new, ground breaking research activities that could not come to life otherwise.

Jari Jarvinen | Source: alphagalileo
Further information: www.csc.fi

next article

More articles from Information Technology:

nachricht Wayne State University researcher’s technique helps robotic vehicles find their way, help humans
15.05.2013 | Wayne State University - Office of the Vice President for Research

nachricht DMTF, ETSI, OASIS, OCEAN, OGF, OW2 and SNIA announce Cloud Interoperability Week
15.05.2013 | FOKUS - Fraunhofer-Institut für Offene Kommunikationssysteme

All articles from Information Technology >>>
The most recent press releases about innovation >>>

Overview of the latest five Focus news of the innovations-report:
In the focus: GPS solution provides three-minute tsunami alerts

Researchers have shown that, by using global positioning systems (GPS) to measure ground deformation caused by a large underwater earthquake, they can provide accurate warning of the resulting tsunami in just a few minutes after the earthquake onset.

For the devastating Japan 2011 event, the team reveals that the analysis of the GPS data and issue of a detailed tsunami alert would have taken no more than three minutes. The results are published on 17 May in Natural Hazards and Earth System Sciences, an open access journal of ...

In the focus: NASA Satellite Data Helps Pinpoint Glaciers' Role in Sea Level Rise

A new study of glaciers worldwide using observations from two NASA satellites has helped resolve differences in estimates of how fast glaciers are disappearing and contributing to sea level rise.

The new research found glaciers outside of the Greenland and Antarctic ice sheets, repositories of 1 percent of all land ice, lost an average of 571 trillion pounds (259 trillion kilograms) of mass every year during the six-year study period, making the oceans rise 0.03 inches (0.7 mm) per year. ...

In the focus: Sea level: one third of its rise comes from melting mountain glaciers

About 99% of the world’s land ice is stored in the huge ice sheets of Antarctica and Greenland, while only 1% is contained in glaciers.

However, the meltwater of glaciers contributed almost as much to the rise in sea level in the period 2003 to 2009 as the two ice sheets: about one third. This is one of the results of an international study with the involvement of geographers from the University of Zurich.

How ...

In the focus: Observation of Second Sound in a Quantum Gas

Second sound is a quantum mechanical phenomenon, which has been observed only in superfluid helium.

Physicists from the University of Innsbruck, Austria, in collaboration with colleagues from the University of Trento, Italy, have now proven the propagation of such a temperature wave in a quantum gas. The scientists have published their historic findings in the journal Nature.

Below a critical temperature, certain fluids become superfluid ...

In the focus: Using clay to grow bone

Researchers use synthetic silicate to stimulate stem cells into bone cells

In new research published online May 13, 2013 in Advanced Materials, researchers from Brigham and Women's Hospital (BWH) are the first to report that synthetic silicate nanoplatelets (also known as layered clay) can induce stem cells to become bone cells without the need of additional bone-inducing factors.

Synthetic silicates are made ...

All Focus news of the innovations-report >>>

B2B Search

Product / Service
Company / Organisation

Latest News

New method proposed for detecting gravitational waves from ends of universe

17.05.2013 | Physics and Astronomy

Scientists Shape First Global Topographic Map of Saturn’s Moon Titan

17.05.2013 | Physics and Astronomy

Black Hole Powered Jets Plow Into Galaxy

17.05.2013 | Physics and Astronomy

VideoLinks
B2B-VideoLinks
More VideoLinks >>>

Event News

ITS European Congress: Traffic Warning and Information Platform

17.05.2013 | Event News

European Research Infrastructures help to solve air quality issues

15.05.2013 | Event News

The Problem of the European Unemployment

08.05.2013 | Event News