Rendering Performance: Cinebench

Cinebench, based on MAXON's CINEMA 4D software, is probably one of the most popular benchmarks around as it is pretty easy to perform this benchmark on your own home machine. The benchmark supports 64 threads, more than enough for our 24- and 32-thread test servers. First we tested single-threaded performance, to evaluate the performance of each core.

Cinebench 11.5 Single threaded

Cinebench achieves an IPC between 1.4 and 1.8 and is mostly dominated by SSE2 code. The Sandy Bridge core offers about 33% better single-threaded SSE performance. We checked: the 33% can be split up into 21% gains from architectural improvements and 12% from the improved Turbo capabilities.

Let's check out the multi-threaded score.

Cinbench R11.5

Prior to the launch of the Xeon E5 series, the Opteron 6276 offered a better performance per dollar ratio than comparable Xeon 5600s due to their similar performance at a much lower pricepoint. Now that the Xeon E5 has arrived, the tables have turned. If Xeon E5 servers are in the same price range as Xeon 5600 servers, the Xeon E5-2630 will offer the best performance/price ratio.

And if you want top performance, Intel is the only option. Case in point: a dual Xeon E5-2690 comes close to what a Quad Opteron 6276 can deliver, with the dual Xeon scoring 24.7 while the quad Opteron scores 26.4.

MS SQL Server 2008 R2 at medium load Blender and 3DS Max
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  • iwod - Tuesday, March 06, 2012 - link

    And not find a single comment on how and why "making this CPU quite a challenge, even for Intel."

    In my view It seems Intel is now using Server Market and Atom / SoC for their 32nm capacity when ever they introduce a new node in consumer products.
    Reply
  • extide - Tuesday, March 06, 2012 - link

    A large part of Intel's long-term strategies include keeping the fabs occupied.

    Latest gen fabs (currently 22nm) produce bleeding edge cpu's, usually in the consumer space

    One gen back (32nm) produces server/workstation/mobile cpus

    two gens back (45nm) produces other things like chipsets, and possibly itanium chips

    even three gens back (65nm) probably still exists in some places making some chipsets as well.

    Their goal is to as much use as possible from their investment into building the fabs themselves.
    Reply
  • Kevin G - Tuesday, March 06, 2012 - link

    65 nm is still used for Itanium, though the Poulson chip is due sometime this year made on a 32 nm process. If you want to compare die sizes, the 65 nm Tukwila design is 699 mm^2 in size.

    The main reason why 32 nm Sandybridge-E has been released so close to the release of 22 nm Ivy Bridge chips is that the initial Ivy Bridge chips are consumer centric. Intel performs additional testing on its server centric designs. This is particularly true as Sandybridge-E is not just replacing the dual socket Westmere-EP chips but some of the quad socket Westmere-EX market. RAS demands jump from going from dual to quad socket and that is reflected in additional testing. Implementing PCI-E 3.0 and QPI 1.1 also contributed to the time for additional testing.

    Though you are correct that Intel does uses its older process nodes for various chipsets and IO chips. However, as Intel is marching toward SoC designs, the actual utility of keeping these older process nodes in action is decreasing.
    Reply
  • meloz - Tuesday, March 06, 2012 - link

    >And not find a single comment on how and why "making this CPU quite a challenge, even for Intel."

    Because it is such a massive die? 416 mm²? Large dies usually have a lower yield, and Intel's 32 nm process is still cutting edge (if only for a few more weeks, heh).

    Look at how TSMC, Global Flounderings et al are struggling. An impressive achievement by Intel.
    Reply
  • MrSpadge - Tuesday, March 06, 2012 - link

    A significant amount of functionality has been added to the SB cores, and Intel can't afford mistakes in such CPUs. Reply
  • BSMonitor - Tuesday, March 06, 2012 - link

    More than that though, the SNB-E, Xeon E cores are not duplicates of the SNB desktop cores.

    Look at Anand's die shot of SNB-E, vs die shot of SNB. The CPU cores, L3 cache, controllers, are arranged completely different. Which makes sense as SNB-E doesn't have to deal with 40% of the die being GPU transistors. So, what we have now with Intel is two completely different dies between Xeon/SNB-E and Core. The individual CPU cores are the same, but the rest of the die is completely different.

    SNB-E:
    http://www.anandtech.com/show/5091/intel-core-i7-3...

    SNB:
    http://www.anandtech.com/show/4083/the-sandy-bridg...
    Reply
  • cynic783 - Tuesday, March 06, 2012 - link

    omg these benches are so biased it's not even funny. everyone knows amd offers clock-for-clock more punch than intel and lower power as well Reply
  • MrSpadge - Tuesday, March 06, 2012 - link

    Put some sarcasm tags in there to save some people from getting confused... Reply
  • cynic783 - Tuesday, March 06, 2012 - link

    definitely sarcastic. i was actually surprised not to see any fanbois so I thought I'd pretend Reply
  • badjohny - Tuesday, March 06, 2012 - link

    I have no doubt these chips or something similar will end up in the new mac pros. Who are in a very bad need of a refresh. Reply

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