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Ok it may be that your IT department or enterprise applications are limiting your opportunity to adopt 64 bit version of your favorite CAD application, but your inability to adopt a 64 bit CAD application can be very limiting to your productivity. 

Here as an example from a recent discussion with some end users who are involved in a workstation pilot with Intel.  When they moved to a 64 bit version of their favorite CAD application the time to open a 2.5GB file dropped from 20 minutes to less than 1.  

Question - How many files does your engineering team open a day?  What is the cost of the 20 minutes?

Customers operating in a 32 bit world are forced to work with smaller models.  You knew that.  And of course smaller file sizes will open faster. 

But….

Rather than working with the chassis, engine and transmission in a single view, you will need to work each one independently.  The results is you may miss a design interference, a misalignment or another obvious design issue, because you only had a partial view of the entire design.  More rework and more delays.

Yes but... many of the enterprise applications you use are 32 bit and you need to have a 32 bit workstation environment in order to access these tools.  That may have been true once, but with technology like Intel® Virtualization Technology for Directed I/O and Parallels™ Workstation Extreme software you now have the opportunity for an uncompromised workstation experience.  You get all the benefits of a 64 bit CAD application and you can still work within a 32 bit environment when you need to.  You can even pass the data between workstation environments.

Do not be too slow to adopt a 64 bit version of your favorite CAD application, just opening files faster and working with a complete design can make eth cost of a new workstation irrelevant.

To learn more about Intel® Xeon® based workstations visit www.intel.com\go\workstation

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Are you ready to innovate faster or explore more design options in less time than ever before?

The digital workbench powered by two Intel Xeon 5500 processors gives you the opportunity to create, test and modify your idea right at your workstation. Have no doubt, workstations powered by two processors, with eight total cores, sixteen computational threads, and memory capacities up to 192GB are proving extremely capable at analysis-driven design.

Today’s digital workbench is nothing at all like last year’s workstation, which may have struggled to design and simulate. This new breed of a workstation presents you with the capability to rapidly play “what if?”

What is driving the interest in the digital workbench?

Organizations of all shapes and sizes are looking for opportunities to reduce design cycle times and associated costs without negatively impacting product performance. One potential method of achieving this is by enabling designers to consider the validity of a greater number of design concepts earlier in the design cycle. This may not only shorten design cycles, but it may also enable you to ultimately deliver a more favorable product configuration.

The product development rules are changing.

Manufacturers are recognizing that by reordering product design activities, they may be able to achieve a more efficient product development process. By empowering engineers with easy-to-use and powerful 3D conceptual design tools, together with early access to CAE applications, engineers may be able develop the most advantageous designs before committing them to labor-intensive detailed design processes.

Isn’t this old news?

Many manufacturers agree the greatest opportunity to impact product development cost is by bringing simulation forward. That is old news. Manufacturers know that when product analysis or simulation results trail the detailed design process then product changes become extremely expensive and negatively impact new product release schedules. Worse yet, they also realize that changes made downstream in a design cycle are “last minute” and almost always imply compromises on original design goals. This, of course, cuts into the product performance and profits of the new or updated product.

Using simulation and getting results before the detailed design process begins helps ensure that the CAD models meet performance requirements, mitigating last-minute and expensive design changes.

OK, the product development rules may be changing, but I still need an expert.

No doubt, the expert is still needed. However, advancements at companies like ALTAIR, ANSYS, SIMULIA, MSC, SpaceClaim and others are all making it easier to bring simulation and analysis further upstream in the design process.

As one example, let’s look at the ANSYS Workbench platform. This solution provides an easy-to-use framework that guides the user through even complex multi-physics analyses with drag-and-drop simplicity. It supports bi-directional CAD connectivity and enables the idea of simulation-driven product development.

ANSYS is an example of what ISVs are doing to create tools that learn from the experts and export them to others who need access to their knowledge. Yes, the expert is still very much needed, but leveraging the expert’s knowledge and driving it upstream in the design process is needed even more.

The new model

Using the combined hardware and software technologies delivered through a digital workbench, engineers can now create a single digital model that gives them the ability to design, visualize and simulate their products faster than ever.

This hardware and software suite enables users to create a digital prototype and can help engineers to reduce their reliance on costly physical prototypes and get more innovative designs to market faster.

The digital workbench helps users bring together design data from all phases of the product development process into a single digital model that can be rapidly changed, tested and validated.

What can you do to test the promise of the digital workbench?

Today’s workstation can provide you with a magnificent digital canvas to create tomorrow today. You need to decide if you want to explore reordering your product design activities and potentially achieve a more efficient product development process.

Today’s workstation gives engineers a new tool that can be likened to a digital workbench. This tool, powered by two Intel Xeon 5500 series processors, hosts a suite of software applications that engineers can employ to create and test their ideas. The pliers, hammer and nails found on a workbench in a garage or basement have now been replaced with digital tools that promise to accelerate innovations via a process known as digital prototyping. Its enablers include application tools like detailed CAD, CAE and PIM. Together they represent the new digital workbench—a powerful innovation tool you can use to bring your ideas forward faster than ever before.

Are you ready to use a digital workbench?

Visit www.intel.com/go/workstation to see which workstation is right for you.

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Prior to the Intel Xeon X5500 Server Platforms*, measuring server power was done via expensive equipment and could only be performed in a discrete fashion.  Unless you had tons of monitoring equipment to mash-up your power data - it was a tedious process.  Now, using Intel DCM and Node Manager - you can pull multiple servers worth of power info to make some important power decisions in your datacenter.

 

First of all, you need to baseline your workload.  If you're confident that you can replicate workload patterns then you've got a starting point.  Otherwise, it's usually a good idea to start monitoring and looking for some cyclical patterns and/or common data points (time, power, thermals, etc) to keep track of.

 

In this scenario (like in my last blog) we're using a SQL workload which can be modified to run the CPU at high levels for a relatively set amount of time.  The base workload runs for 7 min 30 seconds, as shown in the Intel DCM screencap below.

 

base-workload.jpg

In this test case: Idle power for the 4 servers is 782W, and under load - the power increases to 1174W - which is a delta of 392W.  This power increase occurs when work is given to the server and the P/T states react to the workload and increase power/voltage to the system to increase performance.  Exactly what we've been used to seeing even since EIST was introduced several years ago.

 

Now, what I'll show you is something that may be very interesting in scale... I will power cap the servers by 20W each, and set the Intel DCM Power Policy to only allow 1095W for the 4 servers in the rack.

 

20w-per-server-powercap.jpg

 

What is awesome here is that we can still finish the workload in the same 7 minutes 30 seconds.  So essentially, we have saved 80W of power for each set of 4 servers and still get the same amount of work completed!  In a large datacenter this can be HUGE in energy savings.

 

comparative-workload.jpg

Let's do some quick math:  20W power savings per serer x 10,000 servers = 20kW power savings and you still get the work done.  I hope I just helped some of you server admins get some new ideas on your next "I need a raise" talk with your manager

 

*your mileage may vary, so test your own workloads and report out!

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“Imagination is everything. It is the preview of life's coming attractions.” Albert Einstein

Today’s workstation can provide you with a magnificent digital canvas to create tomorrow ...... today!

With workstations powered by two Intel® Xeon® 5500 series processors, engineers have the opportunity to create, shape, test and modify products before they become real. Engineers can now design, visualize and simulate products from the conceptual design phase through the entire manufacturing process. This is done virtually before any investments are made in a prototype.

“Any color—so long as it's black.” Henry Ford

Like the automobile, the workstation has morphed into something much more than what it once was. It now has more capabilities and features than its predecessor and, if you allow it to, it can help you accelerate the pace of your innovation.

Today’s workstation gives engineers a new tool that can be likened to a digital workbench. This tool is powered by two Intel Xeon 5500 series processors with Intel® Turbo Boost Technology and Intel® Hyper Threading Technology to take advantage of the processor’s power and thermal headroom to enable increased performance of both multi-threaded and single-threaded workloads. 

Today's workstation can host a suite of software applications from ISV's like Autodesk, SolidWorks, PTC, Bentley and others to create and test their ideas. The pliers, hammer and nails found on a workbench in a garage or basement have now been replaced with digital tools that promise to accelerate innovations via a process known as digital prototyping. Its enablers include application tools like detailed CAD, CAE and PIM. Together they represent the new digital workbench—a powerful innovation tool you can use to bring your ideas forward faster than ever before.

“I confess that in 1901 I said to my brother Orville that man would not fly for fifty years.” Wilbur Wright

You think all you need is an entry-level workstation with a single Intel® Xeon® processor. After all, you only do CAD—right?  You may be thinking like Wilbur Wright.

Innovation in the workplace is paced by how well you can use technology to test and improve your ideas. As you begin to adopt modern workflows you may realize the dramatic impact that simulation-based engineering or digital prototyping can have on your product development cost and schedules.  You will soon realize that the cost of the second processor and additional memory necessary to support digital prototyping was far less expensive than the cost of multiple physical prototypes and the associated time to produce them. Instead of investigating hundreds of digital prototypes, you only have time to look at a single physical prototype and ask: What if I …?

Those “what ifs” could have been played out on a dual-processor Intel Xeon processor 5500 series-based digital workbench faster, and your time and cost of physical prototypes could have been significantly reduced.

Are you ready to adopt modern workflows and accelerate your innovation?

 

 

 

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I am consistently amazed by the stories I hear from customers and in industry publications about the power issues that data centers are facing these days.  Given the increased compute demand, decreasing budgets and power & cooling resource constraints, data centers simply cannot continue to operate as they have in the past.  These challenges are especially true for Cloud deployments, where the sheer scale of the installations magnifies any resource utilization inefficiencies – especially power – and reduces the TCO benefits promised.   Data Center Managers need new levels of understanding and control of their power resources in order to allocate capacity to seamlessly meet the needs of their customers, and instrumentation is evolving to provide those new capabilities that are required.

 

 

At its core, instrumentation is all about sources of data and points on control, and can be at the individual component level, coordinated server level, aggregated group level or even integrated into the facility and building management system level.   At IDF in SFO, you will see a wealth of demos and sessions that will highlight how OEMs and ISVs can use a wealth of instrumentation points - starting with Intel Xeon Processor 5500 features - to develop and deliver innovative management and power management capabilities that can be used to run a Cloud environment is a more efficient manner.  If you are at IDF, stop by one of the following sessions to learn more about instrumentation.

 

 

  • ECTS0004 - Improving Data Center Efficiency With Intel® Xeon® Processor Based Instrumentation
  • PDCS002 - Cloud Power Management with Intel® Microarchitecture (Nehalem) Processor-based Platforms
  • Meet The Experts – informal session in the Server Zone during the Tuesday evening Technology Showcase hours
  • Server Zone in the Technology Showcase to see the power monitoring and capping demos, including Intel Intelligent Power Node Manager.

 

 

I will be staffing the Meet The Experts event – stop by with your questions and thoughts on instrumentation!  See you at IDF Sept 22-24

 

Dave

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Your most valuable employee is the one that creates tomorrow’s successes.  Providing them tools that help them do that faster will help your organization create new products or optimize old ones more rapidly.  The benefit to the organization is increased opportunities to win the customer’s attention via new products or your responsiveness to their request; the employee gets to brag on what he or she just helped bring to market.

Before we get too far let’s look at Intel’s mission with respect to workstations.  We are laser focused on supplying technology that provides users with an uncompromised experience in transforming their ideas into reality.  With that in mind we look at how users create; we try understanding their obstacles and work with the ecosystem of hardware and software providers to deliver solutions to real problems that may be inhibiting their opportunity to innovate.  

One technology that is helping users innovate faster is virtualization. 

No, we are not looking to remove the workstation from the user’s desk or share his or her workstation with peers, who also need a workstation.  We are using virtualization to deliver the performance they need to innovate faster.

The Observation

We saw workstation user’s innovation slow as they multitasked between tasks – some of them not even theirs.  The involuntary tasks included deploying IT security patches, updates, and system backups to name a few.  We also saw that users were no longer just doing Computer Aided Design (CAD) alone, but they were doing CAD, using productivity tools, meshing, web surfing for supporting facts, collaborating via video and Instant Messaging (IM) tools, digital white boarding and trying to do analysis-driven design.  They were very busy people who can’t afford any downtime or slow time.

In some cases we noticed that some users actually had not one, but two or more workstations running in completely different environments, many times with different OSs.

The Problem

What the above really lead to is a conclusion that too many tasks were going after too few resources and that the experience we had hoped the user would encounter was not happening.  In fact the reverse was happening – interactive creative tasks were slowing, system sluggishness was at an all time high.  The “uncompromised experience in transforming their ideas into reality” we wanted for a workstation user was not there and any innovation that was possible was slowed down to a crawl.

A Potential Solution

Intel® Virtualization Technology for Directed I/O (Intel VT-d), once just thought of for servers actually has a place in the workstation market. 

This technology provides an important step toward enabling a significant set of emerging usage models in the workstation. VT-d support on Intel platforms provides the capability to ensure improved isolation of I/O resources for greater reliability, security, and availability.  That is a mouth full let’s see it in action.

There are two key requirements that are common across workstation usage models.

1.       The first requirement is protected access to I/O resources from a given virtual machine (VM), such that it cannot interfere with the operation of another VM on the same platform. This isolation between VMs is essential for achieving availability, reliability, and trust. This helps you get the performance you want from your workstation.

2.       The second major requirement is the ability to share I/O resources among multiple VMs. In many cases, it is not practical or cost-effective to replicate I/O resources (such as storage or network controllers) for each VM on a given platform.

In the case of the workstation, virtualization can be used to create a self-contained operating environment, or "virtual software appliance[RC1] ," that is dedicated to capabilities such as manageability or security. These capabilities generally need protected and secure access to a network device to communicate with down-the-wire management agents and to monitor network traffic for security threats. For example, a security agent within a VM requires protected access to the actual network controller hardware. This agent can then intelligently examine network traffic for malicious payloads or suspected intrusion attempts before the network packets are passed to the guest OS, where user applications might be affected. Workstations can also use this technique for management, security, content protection, and a wide variety of other dedicated services. The type of service deployed may dictate that various types of I/O resources, graphics, network, and storage devices, be isolated from the OS where the user's applications are running.

The Result

In collaborating with virtualization and automation leader, Parallels, on its Parallels Workstation Extreme solution,  we identified two impediments to workstation user productivity.  The first was the issue around general resource overhead that afflict a traditional virtualized workstation system due to  insufficient resources to address the overload of requests. The second issue explored includes the more complex problem of a single workstation with the need to support multiple OSs and display visualization programs at near- or full-performance within virtualized machines.

The first issue was more straightforward - create VMs, partition resources and now the user has a very resilient workstation that is capable of delivering the intended experience.  IT can have their VMs and the user has his or her workstation back and the concept of digital prototyping to create and explore a complete product before it is built is a reality.  The creative innovator in the company can now iterate through more ideas in less time and your company created more opportunities to catch the customer’s attention just went through the roof.

The second issue offered a more complex challenge.  We identified certain industries such as the oil and gas exploration space where users actually had two or more physical workstations - one running Windows, the other running Linux. Both workstations had visual display requirements by the end user and both computers acted on the same reservoir data with applications that while similar in many ways, were still different in their functionalities and purpose.  In oil drilling projects that typically involve millions of dollars in capital investment, the confirmation of expected end results is an asset that far outweigh the costs of a few workstations. Nevertheless, in today’s economic setting, the ability to get the same functionalities at a lower cost is one of many key drivers in helping companies achieve healthy bottom lines.

The Proof Point For Virtualization In A Workstation Engineers from Schlumberger, a leading oil field service provider, run performance-demanding applications such as GeoFrame* and Petrel*.  These applications serve to analyze complex geological and geophysical data and determine the viability of potential reservoirs, or to optimize production at existing sites. With GeoFrame running on Linux* and Petrel on Microsoft Windows*, Schlumberger engineers have been using these applications on two separate physical workstations, driving IT spending higher, pushing down user productivity and increasing both power consumption and IT maintenance costs.

A New Paradigm For A New Day

With the availability of Intel Xeon processor 5500 series-based workstations, game-changing workstation virtualization software such as Parallels Workstation Extreme has opened up new horizons with breakthrough graphics performance with Intel’s latest processor technology. Parallels Workstation Extreme is built on top of the Parallels FastLane Architecture that effectively leverages the full potential of hardware resources such as graphics and networking cards to offer optimal workstation performance.

In comparison testing, Schlumberger compared the concurrent performance of applications running side-by-side on a virtualized Intel Xeon processor 5400 series-based workstation with the same setup on the newer Intel Xeon processor 5500-based machine. The results were astounding. The first machine with the older processor without Intel-VT-d support ran Petrel on the host OS at full native speed, but performance for GeoFrame in a VM slowed enormously. While Petrel refreshed its graphics at a rate of 30 frames per second, GeoFrame crawled along at a graphics refresh rate of JUST one frame every 19 seconds, an agonizingly slow performance on an older workstation without Intel VT-d support.

When the group tested the same applications on the newer Xeon 5500 series workstation with Intel VT-d support, the results were striking: Both applications – Petrel running on the host OS and GeoFrame in a guest OS in a VM - ran at full native speed, and both were able to refresh graphics at near 30 frames per second—a 570 times improvement over the first workstation.

Russ Sagert, Schlumberger’s Geoscience Technical Advisor for North America said “our engineers were blown away by the performance. We hammered these machines with extreme workloads that stressed every aspect of the system. Amazingly, the new workstation based on the Intel Xeon processor 5500 series provided performance enabling this multiple OS, multiple application environment for the first time.”

The key element in Schlumberger’s new environment is Intel Xeon processor 5500 series-based workstations with Intel® Virtualization Technology (Intel® VT) for Directed I/O (Intel® VT-d).  Together, these technologies enable direct assignment of graphics and network cards to virtual machines, enabling the machine to circumvent the interrupt and exit loop and clearing the previous performance problems.

Running in conjunction with Parallels Workstation Extreme, which effectively leverages Intel Virtualization Technology, including VT-d, the solution revolutionizes virtualization for high-end users. “High-performance virtualization on Intel Xeon processor 5500 series-based workstations is a game-changing capability,” says Sagert. “We can allocate multiple cores, up to 64 GB of memory and a dedicated graphics card to each machine. The results are spectacular.”

In the final analysis, moving to the Intel Xeon Processor 5500 series of next-generation workstations does far more than cut costs. It impacts the way that work gets done. If you have clients running the kind of resource-intensive, graphics-rich applications that traditionally slow to a crawl in a virtualized environment, consider the benefits of finally moving beyond the I/O barrier.

A fully configured Intel Xeon Processor 5500 series-based workstation running Parallels Workstation Extreme delivers the performance level that makes a virtualized workstation a leading contender for users with multi-workstation requirements. A streamlined work interface, reduced office noise and clutter, access to the same data repository and significant performance gains works on the user side. But the IT organization also gains benefits by lowering capital, management, support, provisioning, data protection, space, and energy and cooling costs.

Moreover, the IT team can now standardize on a single OS image while addressing alternative requirements.

Learn More

Intel Workstation Processors http://www.intel.com/products/workstation/processors/index.htm

Parallels Workstation Extreme

http://www.parallels.com/products/extreme


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[RC1]To distinguish from the hardware appliance breed

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I have been around the supercomputing market for over 25 years and have had an opportunity to see some interesting ideas come and go.  Let me share two that I experienced firsthand. 

·         CDC’s Cyber205 or a Cray 1S.  The CRAY-IS and the CDC Cyber 205 both offered effective vector processing, however, code conversion between them may have required some significant algorithmic changes. Cray of course won the HPC race at that time.  Note, the Cyber 205 was a tremendous performer, when you could keep their extreme.ly long vector pipeline busy. However, one branch or gap in the vector processing pipeline would cause a flush of the vector unit and what performance advantage you appeared to have vs. a Cray 1S was quickly erased.

·         An early day accelerator was Floating Point Systems.  In particular the FPS 164 was an awesome “off load” system where the needs of a few users were satisfied with better throughput than the Cray X-MP and Y-MP of the day. Convex, had a better idea.  It was better at serving the needs of more than an FPS 164 and was simpler to develop, maintain and scale software to next generation systems.

So what are the lessons from history? Perhaps it is that there it is there is a tight connection between application, architectures and algorithms and that it is extremely important to maintain a level of application flexibility and versatility in order to adopt new architectures as they become available in the market.  The old adage still remains true, software will outlive the useful life of hardware.  So it is important to be able to quickly adapt new shifts.

The same questions probably still apply today as they did when Cray, CDC and FPS were around.

When does an accelerator computing strategy work best?

The easiest answer is if your application is extremely data parallel in nature, then it may be well suited for an accelerator strategy. The word extremely is the critical part. 

If your application only performs some level of data parallelism and includes task, thread and cluster level parallelism or contains a small fraction of branching or is host to irregular data sizes, then perhaps an accelerator may not be the best fit.

How much real performance will an accelerator strategy deliver? 

Often times we hear claims of 10X, 20X or even greater than 30X. 

These are great headlines, but as many have noted, you need to understand an accelerators impact on the total execution time of your application.  What may have been 10X to 30X or more on a kernel of the application may only deliver a mere 2X to 3X or even less in terms of total application performance improvement.

Of course the real question is what are we really comparing performance speed ups to?

I have seen well tuned software on accelerators compared to “baseline” code running on one core of an old processor.  However, when you use available software technology and turn compiler flags on and add in a math kernel library call the performance on multi-core solutions can jump by over 10X and in some cases can exceed 30X multiples for total execution time.  This standards based accelerated software will scale forward as newer microarchitectures are made available from Intel.

Why is the difference between the promise and the actual performance so great? 

Always a good questionJ. 

The promise deals with a small part or a kernel of the software that is data parallel and can potentially scale linearly as more compute resources are added.  Again if the application is extremely data parallel, then an accelerator strategy may be the correct approach.

However, when the actual performance result, or total application performance, is significantly different it is often because of several things. 

·         One common reason is that you may be comparing optimized software on multi-core systems to optimized software on an accelerator.  When I compare similarly optimized software on a multi-core system I see that 20 – 30X difference often fades to less than 2X  and in most cases better than hardware accelerators.  This is because optimized software on a multi-core solution accelerates all components of the application.

·         Another situation is the bandwidth imbalance of the attach points of the accelerators, typically the attach speeds do not match the memory bandwidth or the ALU speed on the accelerators and the theoretical peak flops are tough to achieve.  Sometimes, for larger workloads due to limited amount of memory on the accelerator card, performance deteriorates.

·         Another situation may be that your application depends on different forms of parallelism which include task, thread or cluster level parallelism and even in some cases sequential forms of your software

So back to the differences in performance between the Cray 1 and CDC Cyber 205.

While Cyber 205 was great at edges of science the Cray proved to be the workhorse of high performance computing.  It offered better system balance than the Cyber 205.  Here is an example, if you take great care to optimize your software for a particular architecture you will no doubt see tremendous performance gains.  However, like the Cyber 205, if you break that pipeline you need to pay for the overhead to restart the long vector pipeline.  Often times, even with today’s accelerators, that start up cost reduces what appears to be stellar performance gains of the Cyber 205 to being no better than, or sometimes, even slower than the Cray 1.  There were of course examples with the Cyber 205, as there is today with accelerators that demonstrate where select sciences can see tremendous advantages over traditional computing solutions.

What other considerations may weigh in your decision to adopt an accelerator strategy?

Are you constantly refining your software?
Many researchers would probably answer yes.  They are constantly refining their software to improve the results the performance or both.

As I mentioned at the beginning of the blog, the old adage still remains true, software will outlive the useful life of hardware.  So it is important to be able to quickly adapt to new shifts.  One way to simplify these moves is to use standards based tools which can give you the flexibility to create applications that can use the multiple types of parallelism mentioned above via tools, compilers, and libraries.  You may also want to use standards based tools to acquire the versatility you need in order to scale your software across multiple architectures – e.g. large, many and heterogeneous cores. 

The caveat with respect to using non standard tools is that you become locked into a specific architecture.  If that architecture from the same vendor would happen to change, you may be required to make some significant changes (e.g. tuning to grain sizes).

Do you want to maintain, support and update multiple code bases?
I don’t.  I want to invest n the development of parallel algorithms.  The old adage is that software will far out live any hardware implementation still applies and I need the flexibility and versatility to quickly and as painlessly as possible be able to adopt new architectures as they are made available.  I do not want to invest in maintaining, supporting and updating an ever increasing set of code streams as newer architectures are made available.

Our team goal at Intel is to develop software tools and hardware technology that can help you scale-forward your application performance to future platforms without requiring a massive rebuild – just drop-in a new runtime that is optimized for the new platform to experience the improvement (akin to the printer/display driver model, buy a new printer/display, install the respective driver, and your system enjoys improved benefits).  That is the goal.

If you want to learn more about what we are doing to deliver high performing HPC solutions that are both flexible and versatile please visit www.intel.com/go/hpc

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Intel and Emulex will be hosting a webinar on June 3 ant 9am PDT to discuss how Emulex adapters and Intel Xeon 5500 processor based servers can help manage server sprawl, lower capital & operating costs and enable deployment of larger virtual servers & increase the number of VMs per server.  During the webcast the speakers will discuss new technologies, share benchmark results and provide tips and tricks on how to supercharge your virtual server.

Event Synopsis:

Challenging economic conditions are driving requirements to optimize performance and reduce costs in the data center. Since a majority of IT costs are related to the number of servers deployed, it’s imperative that servers are selected which provide scalable performance, automated energy efficiency and superior virtualization ratios. The time is right to leverage new technologies from Emulex® and Intel® to drive critical IT initiatives.

The webcast registration link can be found at http://www.emulex.com/company/events/webcasts.html and selecting “Next-Generation Server Technologies from Intel and Emulex”.

 

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Intel® has just launched their latest server processor, the Intel® Xeon® processor 5500 series. It really is a breakthrough processor for Intel and a clearly phenomenal solution for HPC. I was watching a keynote presentation this week and our Vice President was downright giddy about it. What makes this processor such a phenomenal solution for HPC? The answer is really easy; it expands capabilities and shortens users’ time to results. The real question is how does this processor perform so much better than other solutions out there? This answer is a bit more complicated but really fun to answer. Here we go…

Intel® QuickPath Interconnect (QPI) – This is the technology that has replaced the front side bus used in previous generation Xeon® processors. Our previous generation architecture had a bandwidth of 21 GB/s vs. the QPI bandwidth of 46.1 GB/s. This is a speedup of 2.2X, very impressive. For applications that require lots of I/O this is huge. It’s like going from a country back road to an expressway!

Integrated memory controller – Intel has moved the memory controller from the MCH (memory controller Hub) into the processor.  In addition to integrating the memory controller, Intel is now using native DDR3 with speeds up to 1333MHz and three memory channelsper processor; this is a total of 6 memory channels and 64 GB/s of total memory bandwidth for a 2S HPC node.  This is a 3x jump in memory bandwidth from theprevious generation memory controller which only supported speeds up to 1066MHz and 4 memory channels. By integrating the memory controller you are now in closer contact with the processor for lower latency reads and writes.  Intel added two additional memory channel (one per socket) to increase memory capacity and increase the speed to faster reads and writes. 

Energy efficient design – The new Intel® Xeon® processor 5500 series has the dynamic capability of turning off cores when not required. There are more power states and has the ability to transition between power states faster than ever before. Net, net this means less power consumption. By consuming less power and providing world class performance Intel has created a solution that cries out HPC!

By taking advantage of the power saving, Intel has introduced another feature called Intel® Turbo Boost Technology. Intel® Turbo Boost Technology automatically increases processor frequency to boost application performance if thermal headroom is available. Depending on the environment Turbo Boost can increase the processor frequency by as much as 400 MHz!

Another technology supported in the Intel® Xeon processor 5500 series is Hyper-Threading. Intel® Hyper-Threading Technology enables users to run multiple threads on each processing core to increase total application performance while requiring only a fraction of the power that would be necessary to support additional cores. For highly threaded HPC applications this is showing performance gains over 25%.

The Intel® Xeon® processor 5500 series is considered a general purpose processor. However, a closer look at the features and capabilities show that this is one heck of an HPC solution. You can’t help but think Intel knew HPC was an important market segment for servers and they had this in mind as they created the architecture and developed the features.

Well, is Intel pounding their chest…again! They should be. The introduction of the Intel® Xeon® processor 5500 series is breakthrough architecture for HPC users. The industry hasn’t seen generation to generation performance gains like this since the Pentium® Pro was introduced back in the mid 90’s. Congratulations Intel and go ahead and pound that chest, you deserve it!

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