I7 1366 cpu list: CPU Socket Type & Compatible CPU List

27 декабря, 2022

LGA-1366 – cpu-infos.net

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Product
Collection		 Code
Name		 Processor
Number		 # of
Cores		 # of
Threads		 Base
Frequency		 Litho-
graphy		 Spec
Code		 Step-
ping		 Ordering
Code
1st Generation Core i7 Bloomfield i7-920 4 8 2.66 GHz 45 nm SLBCH C0 BX80601920
1st Generation Core i7 Bloomfield i7-920 4 8 2.66 GHz 45 nm SLBCH C0 AT80601000741AA
1st Generation Core i7 Bloomfield i7-920 4 8 2.66 GHz 45 nm SLBEJ D0 BX80601920
1st Generation Core i7 Bloomfield i7-920 4 8 2. 66 GHz 45 nm SLBEJ D0 AT80601000741AA
1st Generation Core i7 Bloomfield i7-930 4 8 2.80 GHz 45 nm SLBKP D0 BX80601930
1st Generation Core i7 Bloomfield i7-930 4 8 2.80 GHz 45 nm SLBKP D0 AT80601000897AA
1st Generation Core i7 Bloomfield i7-940 4 8 2.93 GHz 45 nm SLBCK C0 AT80601000921AA
1st Generation Core i7 Bloomfield i7-940 4 8 2.93 GHz 45 nm SLBCK C0 BX80601940
1st Generation Core i7 Bloomfield i7-950 4 8 3.06 GHz 45 nm SLBEN D0 BX80601950
1st Generation Core i7 Bloomfield i7-950 4 8 3. 06 GHz 45 nm SLBEN D0 AT80601002112AA
1st Generation Core i7 Bloomfield i7-960 4 8 3.20 GHz 45 nm SLBEU D0 AT80601002727AA
1st Generation Core i7 Bloomfield i7-960 4 8 3.20 GHz 45 nm SLBEU D0 BX80601960
1st Generation Core i7 Bloomfield i7-965 4 8 3.20 GHz 45 nm SLBCJ C0 BX80601965
1st Generation Core i7 Bloomfield i7-965 4 8 3.20 GHz 45 nm SLBCJ C0 AT80601000918AA
1st Generation Core i7 Bloomfield i7-975 4 8 3.33 GHz 45 nm SLBEQ D0 BX80601975
1st Generation Core i7 Bloomfield i7-975 4 8 3. 33 GHz 45 nm SLBEQ D0 AT80601002274AA
Xeon W-Series Bloomfield W3520 4 8 2.66 GHz 45 nm SLBEW D0 AT80601000741AB
Xeon W-Series Bloomfield W3520 4 8 2.66 GHz 45 nm D0 BX80601W3520
Xeon W-Series Bloomfield W3530 4 8 2.80 GHz 45 nm SLBKR D0 AT80601000897AB
Xeon W-Series Bloomfield W3530 4 8 2.80 GHz 45 nm SLBKR D0 BX80601W3530
Xeon W-Series Bloomfield W3540 4 8 2.93 GHz 45 nm D0 BX80601W3540
Xeon W-Series Bloomfield W3540 4 8 2.93 GHz 45 nm SLBEX D0 AT80601000921AB
Xeon W-Series Bloomfield W3550 4 8 3. 06 GHz 45 nm SLBEY D0 BX80601W3550
Xeon W-Series Bloomfield W3550 4 8 3.06 GHz 45 nm SLBEY D0 AT80601002112AB
Xeon W-Series Bloomfield W3565 4 8 3.20 GHz 45 nm SLBEV D0 BX80601W3565
Xeon W-Series Bloomfield W3565 4 8 3.20 GHz 45 nm SLBEV D0 AT80601002727AB
Xeon W-Series Bloomfield W3570 4 8 3.20 GHz 45 nm D0 BX80601W3570
Xeon W-Series Bloomfield W3570 4 8 3.20 GHz 45 nm SLBES D0 AT80601000918AB
Xeon W-Series Bloomfield W3580 4 8 3.33 GHz 45 nm SLBET D0 BX80601W3580
Xeon W-Series Bloomfield W3580 4 8 3. 33 GHz 45 nm SLBET D0 AT80601002274AB
1st Generation Core i7 Gulftown i7-970 6 12 3.20 GHz 32 nm SLBVF B1 AT80613005490AD
1st Generation Core i7 Gulftown i7-970 6 12 3.20 GHz 32 nm SLBVF B1 BX80613I7970
1st Generation Core i7 Gulftown i7-980 6 12 3.33 GHz 32 nm SLBYU B1 AT80613006756AA
1st Generation Core i7 Gulftown i7-980 6 12 3.33 GHz 32 nm SLBYU B1 BX80613I7980
1st Generation Core i7 Gulftown i7-980X 6 12 3.33 GHz 32 nm SLBUZ B1 AT80613003543AE
1st Generation Core i7 Gulftown i7-980X 6 12 3. 33 GHz 32 nm SLBUZ B1 BX80613I7980X
1st Generation Core i7 Gulftown i7-990X 6 12 3.46 GHz 32 nm SLBVZ B1 BX80613I7990X
1st Generation Core i7 Gulftown i7-990X 6 12 3.46 GHz 32 nm SLBVZ B1 AT80613005931AA
Xeon W-Series Gulftown W3690 6 12 3.46 GHz 32 nm SLBW2 B1 AT80613005931AB
Xeon E-Series Nehalem EP E5502 2 2 1.86 GHz 45 nm SLBEZ D0 BX80602E5502
Xeon E-Series Nehalem EP E5502 2 2 1.86 GHz 45 nm SLBEZ D0 AT80602000804AA
Xeon E-Series Nehalem EP E5503 2 2 2. 00 GHz 45 nm SLBKD D0 BX80602E5503
Xeon E-Series Nehalem EP E5503 2 2 2.00 GHz 45 nm SLBKD D0 AT80602003636AA
Xeon E-Series Nehalem EP E5504 4 4 2.00 GHz 45 nm SLBF9 D0 AT80602000801AA
Xeon E-Series Nehalem EP E5504 4 4 2.00 GHz 45 nm SLBF9 D0 BX80602E5504
Xeon E-Series Nehalem EP E5506 4 4 2.13 GHz 45 nm SLBF8 D0 AT80602000798AA
Xeon E-Series Nehalem EP E5506 4 4 2.13 GHz 45 nm SLBF8 D0 BX80602E5506
Xeon E-Series Nehalem EP E5507 4 4 2.26 GHz 45 nm SLBKC D0 AT80602000795AA
Xeon E-Series Nehalem EP E5507 4 4 2. 26 GHz 45 nm SLBKC D0 BX80602E5507
Xeon E-Series Nehalem EP E5520 4 8 2.26 GHz 45 nm SLBFD D0 AT80602002091AA
Xeon E-Series Nehalem EP E5520 4 8 2.26 GHz 45 nm SLBFD D0 BX80602E5520
Xeon E-Series Nehalem EP E5530 4 8 2.40 GHz 45 nm SLBF7 D0 BX80602E5530
Xeon E-Series Nehalem EP E5530 4 8 2.40 GHz 45 nm SLBF7 D0 AT80602000792AA
Xeon E-Series Nehalem EP E5540 4 8 2.53 GHz 45 nm SLBF6 D0 AT80602000789AA
Xeon E-Series Nehalem EP E5540 4 8 2.53 GHz 45 nm SLBF6 D0 BX80602E5540
Xeon L-Series Nehalem EP L5506 4 4 2. 13 GHz 45 nm SLBFH D0 AT80602002712AA
Xeon L-Series Nehalem EP L5506 4 4 2.13 GHz 45 nm SLBFH D0 BX80602L5506
Xeon L-Series Nehalem EP L5508 2 4 2.00 GHz 45 nm SLBGK D0 AT80602002697AC
Xeon L-Series Nehalem EP L5518 4 8 2.13 GHz 45 nm SLBFW D0 AT80602002265AB
Xeon L-Series Nehalem EP L5520 4 8 2.26 GHz 45 nm SLBFA D0 BX80602L5520
Xeon L-Series Nehalem EP L5520 4 8 2.26 GHz 45 nm SLBFA D0 AT80602000810AA
Xeon L-Series Nehalem EP L5530 4 8 2.40 GHz 45 nm SLBGF D0 BX80602L5530
Xeon L-Series Nehalem EP L5530 4 8 2. 40 GHz 45 nm SLBGF D0 AT80602002937AB
Xeon W-Series Nehalem EP W5580 4 8 3.20 GHz 45 nm SLBF2 D0 BX80602W5580
Xeon W-Series Nehalem EP W5580 4 8 3.20 GHz 45 nm SLBF2 D0 AT80602000756AD
Xeon W-Series Nehalem EP W5590 4 8 3.33 GHz 45 nm SLBGE D0 BX80602W5590
Xeon W-Series Nehalem EP W5590 4 8 3.33 GHz 45 nm SLBGE D0 AT80602000753AA
Xeon X-Series Nehalem EP X5550 4 8 2.66 GHz 45 nm SLBF5 D0 BX80602X5550
Xeon X-Series Nehalem EP X5550 4 8 2.66 GHz 45 nm SLBF5 D0 AT80602000771AA
Xeon X-Series Nehalem EP X5560 4 8 2. 80 GHz 45 nm SLBF4 D0 BX80602X5560
Xeon X-Series Nehalem EP X5560 4 8 2.80 GHz 45 nm SLBF4 D0 AT80602000768AA
Xeon X-Series Nehalem EP X5570 4 8 2.93 GHz 45 nm SLBF3 D0 AT80602000765AA
Xeon X-Series Nehalem EP X5570 4 8 2.93 GHz 45 nm SLBF3 D0 BX80602X5570
Xeon E-Series Westmere EP E5603 4 4 1.60 GHz 32 nm SLC2F B1 AT80614006954AA
Xeon E-Series Westmere EP E5603 4 4 1.60 GHz 32 nm SLC2F B1 BX80614E5603
Xeon E-Series Westmere EP E5606 4 4 2.13 GHz 32 nm SLC2N B1 BX80614E5606
Xeon E-Series Westmere EP E5606 4 4 2. 13 GHz 32 nm SLC2N B1 AT80614007290AE
Xeon E-Series Westmere EP E5607 4 4 2.26 GHz 32 nm SLBZ9 B1 AT80614006789AA
Xeon E-Series Westmere EP E5607 4 4 2.26 GHz 32 nm SLBZ9 B1 BX80614E5607
Xeon E-Series Westmere EP E5620 4 8 2.40 GHz 32 nm SLBV4 B1 BX80614E5620
Xeon E-Series Westmere EP E5620 4 8 2.40 GHz 32 nm SLBV4 B1 AT80614005073AB
Xeon E-Series Westmere EP E5630 4 8 2.53 GHz 32 nm SLBVB B1 AT80614005463AA
Xeon E-Series Westmere EP E5630 4 8 2.53 GHz 32 nm SLBVB B1 BX80614E5630
Xeon E-Series Westmere EP E5640 4 8 2. 66 GHz 32 nm SLBVC B1 BX80614E5640
Xeon E-Series Westmere EP E5640 4 8 2.66 GHz 32 nm SLBVC B1 AT80614005466AA
Xeon E-Series Westmere EP E5645 6 12 2.40 GHz 32 nm SLBWZ B1 AT80614003597AC
Xeon E-Series Westmere EP E5645 6 12 2.40 GHz 32 nm SLBWZ B1 BX80614E5645
Xeon E-Series Westmere EP E5649 6 12 2.53 GHz 32 nm SLBZ8 B1 AT80614006783AB
Xeon E-Series Westmere EP E5649 6 12 2.53 GHz 32 nm SLBZ8 B1 BX80614E5649
Xeon L-Series Westmere EP L5609 4 4 1.86 GHz 32 nm SLBVJ B1 AT80614005940AA
Xeon L-Series Westmere EP L5618 4 8 1. 87 GHz 32 nm SLBX3 B1 AT80614005079AB
Xeon L-Series Westmere EP L5630 4 8 2.13 GHz 32 nm SLBVD B1 AT80614005484AA
Xeon L-Series Westmere EP L5630 4 8 2.13 GHz 32 nm SLBVD B1 BX80614L5630
Xeon L-Series Westmere EP L5638 6 12 2.00 GHz 32 nm SLBWY B1 AT80614003591AB
Xeon L-Series Westmere EP L5640 6 12 2.26 GHz 32 nm SLBV8 B1 AT80614005133AB
Xeon L-Series Westmere EP L5640 6 12 2.26 GHz 32 nm SLBV8 B1 BX80614L5640
Xeon W-Series Westmere EP W3670 6 12 3.20 GHz 32 nm SLBVE B1 AT80613005490AC
Xeon W-Series Westmere EP W3670 6 12 3. 20 GHz 32 nm SLBVE B1 BX80613W3670
Xeon W-Series Westmere EP W3680 6 12 3.33 GHz 32 nm SLBV2 B1 AT80613003543AF
Xeon W-Series Westmere EP W3680 6 12 3.33 GHz 32 nm SLBV2 B1 BX80613W3680
Xeon X-Series Westmere EP X5647 4 8 2.93 GHz 32 nm SLBZ7 B1 AT80614006780AA
Xeon X-Series Westmere EP X5650 6 12 2.66 GHz 32 nm SLBV3 B1 BX80614X5650
Xeon X-Series Westmere EP X5650 6 12 2.66 GHz 32 nm SLBV3 B1 AT80614004320AD
Xeon X-Series Westmere EP X5660 6 12 2.80 GHz 32 nm SLBV6 B1 AT80614005127AA
Xeon X-Series Westmere EP X5660 6 12 2. 80 GHz 32 nm SLBV6 B1 BX80614X5660
Xeon X-Series Westmere EP X5667 4 8 3.06 GHz 32 nm SLBVA B1 AT80614005154AB
Xeon X-Series Westmere EP X5670 6 12 2.93 GHz 32 nm SLBV7 B1 BX80614X5670
Xeon X-Series Westmere EP X5670 6 12 2.93 GHz 32 nm SLBV7 B1 AT80614005130AA
Xeon X-Series Westmere EP X5672 4 8 3.20 GHz 32 nm SLBYK B1 AT80614005922AA
Xeon X-Series Westmere EP X5675 6 12 3.06 GHz 32 nm SLBYL B1 BX80614X5675
Xeon X-Series Westmere EP X5675 6 12 3.06 GHz 32 nm SLBYL B1 AT80614006696AA
Xeon X-Series Westmere EP X5677 4 8 3. 46 GHz 32 nm SLBV9 B1 AT80614005145AB
Xeon X-Series Westmere EP X5680 6 12 3.33 GHz 32 nm SLBV5 B1 BX80614X5680
Xeon X-Series Westmere EP X5680 6 12 3.33 GHz 32 nm SLBV5 B1 AT80614005124AA
Xeon X-Series Westmere EP X5687 4 8 3.60 GHz 32 nm SLBVY B1 AT80614005919AB
Xeon X-Series Westmere EP X5690 6 12 3.46 GHz 32 nm SLBVX B1 BX80614X5690
Xeon X-Series Westmere EP X5690 6 12 3.46 GHz 32 nm SLBVX B1 AT80614005913AB
Celeron P-Series Jasper Forest P1053 1 2 1.33 GHz 45 nm SLBWN B0 AT80612004743AA
Xeon E-Series Jasper Forest EC3539 4 4 2. 13 GHz 45 nm SLBWJ B0 AT80612003090AA
Xeon E-Series Jasper Forest EC5509 4 4 2.00 GHz 45 nm SLBWM B0 AT80612004740AA
Xeon E-Series Jasper Forest EC5539 2 2 2.27 GHz 45 nm SLBWL B0 AT80612003861AB
Xeon E-Series Jasper Forest EC5549 4 8 2.53 GHz 45 nm SLBWP B0 AT80612005712AB
Xeon L-Series Jasper Forest LC3518 1 1 1.73 GHz 45 nm SLBWH B0 AT80612002946AA
Xeon L-Series Jasper Forest LC3528 2 4 1.73 GHz 45 nm SLBWG B0 AT80612002931AB
Xeon L-Series Jasper Forest LC5518 4 8 1. 73 GHz 45 nm SLBWF B0 AT80612002928AC
Xeon L-Series Jasper Forest LC5528 4 8 2.13 GHz 45 nm SLBWK B0 AT80612003858AA

ASRock > CPU Support List

ASRock > CPU Support List

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Family Number Core Frequency QPI Cache Support List
Xeon X5670(B0) Westmere 2.93GHz 6.4GT/s 12MB List
Xeon X5650(B1) Westmere 2.66GHz 6.4GT/s 12MB List
Xeon W5590(D0) Nehalem 3.33GHz 6.4GT/s 8MB List
Xeon W5580(D0) Nehalem 3.2GHz 6.4GT/s 8MB List
Xeon X5570(D0) Nehalem 2.93GHz 6.4GT/s 8MB List
Xeon X5560(D0) Nehalem 2. 8GHz 6.4GT/s 8MB List
Xeon X5550(D0) Nehalem 2.66GHz 6.4GT/s 8MB List
Xeon W3690(B1) Westmere 3.46GHz 6.4GT/s 12MB List
Xeon W3680(B1) Gulftown 3.33GHz 6.4GT/s 12MB List
Xeon W3670(B1) Westmere 3.20GHz 4.8GT/s 12MB List
Xeon W3580(D0) Nehalem 3.33GHz 6.4GT/s 8MB List
Xeon W3570(D0) Nehalem 3.2GHz 6.4GT/s 8MB List
Xeon W3540(D0) Nehalem 2.93GHz 4.8GT/s 8MB List
Xeon W3530(D0) Nehalem 2. 80GHz 4.8GT/s 8MB List
Xeon W3520(D0) Nehalem 2.66GHz 4.8GT/s 8MB List
Xeon E5620(B1) Nehalem 2.40GHz 5.86GT/s 12MB List
Xeon E5506(D0) Nehalem 2.13GHz 4.8GT/s 4MB List
Xeon E5504(D0) Nehalem 2.0GHz 4.8GT/s 4MB List
Xeon E5502(D0) Nehalem 1.86GHz 4.8GT/s 4MB List
Core i7 i7-990X(B1) Gulftown 3.46GHz 6.4GT/s 12MB List
Core i7 i7-980X Gulftown 3.33GHz 6.4GT/s 12MB List
Core i7 i7-975(D0) Bloomfield 3. 33GHz 6.4GT/s 8MB List
Core i7 i7-970(B1) Gulftown 3.20GHz 4.8GT/s 12MB List
Core i7 i7-965 Bloomfield 3.20GHz 6.4GT/s 8MB List
Core i7 i7-960(D0) Bloomfield 3.20GHz 4.8GT/s 8MB List
Core i7 i7-950(D0) Bloomfield 3.06GHz 4.8GT/s 8MB List
Core i7 i7-940 Bloomfield 2.93GHz 4.8GT/s 8MB List
Core i7 i7-930(D0) Bloomfield 2.80GHz 4.8GT/s 8MB List
Core i7 i7-920(D0) Bloomfield 2.66GHz 4.8GT/s 8MB List
Core i7 i7-920 Bloomfield 2. 66GHz 4.8GT/s 8MB List


Processor sockets.


Intel processor sockets

  • Socket 1 — Intel 80486 and compatible processors from other manufacturers
  • Socket 2 — Intel 80486 and compatible processors from other manufacturers
  • Socket 3 — Intel 80486 and compatible processors from other manufacturers Pentium (early versions)
  • Socket 5 — Intel Pentium, AMD K5, IDT WinChip C6, WinChip 2
  • Socket 6 — 80486DX4 , AMD K6-III; Rise mP6
  • Socket 8 — Intel Pentium Pro
  • Socket 370 — Pentium III (800 MHz — 1.4 GHz), Celeron Cyrix III; VIA C3
  • Socket 423 — Intel Pentium 4 and Celeron processors (based on the Willamette core)
  • Socket 478 — Intel Pentium 4 and Celeron processors (based on Northwood, Prescott and Willamette cores)
  • Socket 479 — Intel Pentium M and Celeron M processors (based on Banias and Dothan cores)
  • — Socket 4 processors Intel Pentium M (based on Yonah core)
  • Socket 603/604 — Intel Xeon processors based on Northwood and Willamette cores Pentium 4
  • Socket 771 — Intel Xeon DP processors for server motherboards (Dempsey,
    Woodcrest, Harpertown, Clovertown)
  • Socket T/LGA 775 (Land Grid Array) — Intel Pentium 4 and Celeron processors (based on Northwood and Prescott cores)
  • Socket 1156 — Intel Core i5 and Core i7 processors core Intel Sandy Bridge Core i5 and
    core i7. Designed to replace Socket 1156. Sockets 1155 and 1156 are not compatible.
    Also known as Socket h3.
  • Socket 1366 — released in 2008 as a replacement for Socket 771, 775 to support multi-core
    Intel Core i7 and Intel Xeon processors. Also known as Socket B
  • Socket 2011 — Intel Core i7 multi-core processors. Designed to replace
    Socket 1366 and also known as Socket R. 4-channel memory mode is used.
    There is no integrated graphics. Released in 2011
  • Socket 1150 — released in 2013 to replace Socket 1155 for Intel processors
    Haswell (and its successor Broadwell). Not compatible with Socket 1155.
    Also known as Socket h4. Processors under Socket 1150 — with 2 or 4 cores.
    One of the major innovations in the Haswell microarchitecture is
    this is a new graphics core with support for DirectX 11.1, OpenCL 1.2 and OpenGL 4.0.
  • Socket 1151 — released in 2015 to replace Socket 1150 for Skylake architecture Intel processors. Supports DDR4 memory,
    Intel Rapid Storage Technology, Intel Clear Video Technology, and Intel Wireless Display Technology.
  • Socket 1151.v2 — Released Q4 2017 to support Intel 8th generation Coffee Lake processors. 8th generation processors are not compatible with socket LGA 1151 of 7th generation processors.
    These processors require a motherboard with a 300-series chipset and an updated version of LGA 1151.v2.
    The 7th generation Skylake and Kaby Lake processors do not work with LGA 1151.v2. This fact was refuted by enthusiasts from China, who modified the BIOS microcode and launched 7th generation processors on motherboards with a 300 series chipset.
    and 8th generation processors — on motherboards with a 100 series chipset.
  • LGA 2066 (Socket R4) — released in 2017 as a socket for Skylake-X and Kaby Lake-X processors without an integrated graphics core. Designed
    as a replacement for the LGA 2011/2011-3 socket (Socket R/R3) for high-performance desktop PCs based on the Basin Falls platform (X299 chipset).
  • LGA 3647 (Socket P) replacement for LGA 2011-1/2011-3 (Socket R2/R3) in Skylake-EX (Xeon Purley) based server platforms.
  • LGA 1200 — Released in 2020 as a replacement for Socket h5 (LGA 1151) for Intel Comet Lake and Rocket Lake microarchitecture processors. Modified LGA 1151 design, c 49additional findings.
    AMD processor sockets
  • Socket 7 (Super Socket 7) — released in 1998 for AMD K6-2, AMD K6-III, AMD K6-2+/K6-III+, Rise mP6, Cyrix MII/6x86MX processors;
    Super Socket 7 — analogue of Socket 7, but with support for 100 MHz bus frequency
  • Slot A (1999) — the first Athlon based on the K7 core. Mechanically (but not electrically) compatible with Slot 1 from Intel
  • Socket 462 (aka Socket A) — AMD Athlon, Athlon XP, Sempron and Duron 2000 processor versions.
  • Socket 754 — low-end AMD Athlon 64 and Sempron processors with support for single-channel memory mode only. 2003
  • Socket 939 — AMD Athlon 64 and AMD Athlon FX processors with 2004 dual-channel memory support.
  • Socket 940 — AMD Opteron processors and early AMD Athlon FX (differs from 939 in one «leg», which is used to control
    correctness of data read from memory (ECC). 2004
  • Socket AM2( AM2+ ) — Athlon 64 X2 line processors (2-core processors on
    cores Windsor and Brisbane), Athlon 64 FX, Athlon 64 and Sempron. 2006 (2007)
  • Socket AM3 ( AM3+ ) — Athlon II X2, Athlon II X4, Phenom II X3 processors,
    Phenom II X4, Sempron 140.
    Socket-AM3+ is an updated version of Socket-AM3.
    Socket-AM3+ is fully compatible with AM3 processors.
    Socket-AM3 motherboard will require BIOS update when working with AM3+ processors
    Socket-AM3+ supports power saving mode. The Socket-AM3+ case is black, the Socket-AM3 case is white. AM3 released in 2009AM3+ — in 2011.
  • Socket FM1 — ​​Socket FM1 — ​​for processors with AMD Fusion microarchitecture.
    It is a ZIF connector with 905 pins,
    which is designed for the installation of processors in PGA-type cases. 2011.
  • Socket FM2 — for Piledriver architecture processors. It was introduced in 2012, just one year after Socket FM1. Although Socket FM2 is
    development of the FM1 socket, it is not backwards compatible with it. Structurally, it is a ZIF connector
    from 904 pins, which is designed for installing processors in PGA-type cases.
  • Socket FM2+ — for processors of the Kaveri and Godavari families, based on the Steamroller microarchitecture. year 2014.
  • Socket AM1 — for Kabini family processors based on Jaguar microarchitecture. year 2014.
  • Socket AM4 — for Zen architecture processors. Introduced in 2016. Supports DDR4, USB 3.1, PCI-E 3.0.
    Structurally, it is a connector with 1331 pins, which is designed for installing processors in PGA-type cases.
  • Socket TR4 — AKA SP3r2 for consumer motherboards and Socket SP3 for EPYC servers. Represents a 4094-pin socket for Threadripper processors.
    The physical dimensions of both sockets are identical. Highly optimized heat dissipation and
    requires the use of new cooling systems, or at least new mounts for existing ones.
  • Socket TRX4 — replacement for Socket TR4, designed for processors based on the new Zen 2 microarchitecture. 2019.

    In addition to this material:


    List
    microprocessors AMD

    List
    Intel microprocessors

    Top of page &nbsp | &nbsp Back to main page.

    • is LGA1366 still alive after 12 years? GECID.com.

    ::>Processors
    >2022
    > Intel Core i7-980X test in 20 games in 2022: is LGA1366 alive after 12 years?

    05-04-2022

    12 years have passed since the release of the 12-thread Core i7-980X Extreme Edition. Is he still alive and moving, at least after overclocking? Now let’s check how well it carries current blockbusters paired with a top-end video card. And does it suffer without the support of AVX instructions?

    The idea for this material came about by chance. Reviewing the boards in our iron bins, we stumbled upon the once top-end MSI Big Bang-XPower. In the early 1910s, we assembled a powerful stand for testing video cards on its basis, and successfully used it for several years. Then more powerful platforms came out, the stand served for another five years to compare the power consumption of video cards, and then it was finally retired.

    But in today’s realities, many are looking at such “pensioners”. For example, a brand new 6-core processor from AMD or Intel will now cost at least $150. And for the Core i7-980X Extreme Edition on eBay they ask from $90 with free shipping. You may find it even cheaper at local flea markets. So we wondered if it was possible to pair it with an up-to-date video card and how well does such a bundle cope with modern blockbusters?

    First, let’s have a brief historical background. In the desktop segment, the Socket LGA1366 platform replaced the LGA775 in 2008, and three years later it was replaced by the LGA2011. The first to debut in its composition were 4-core processors, and then 6-core 12-thread ones appeared.

    But a large, by the standards of 2010, the number of cores is not their only advantage. First, LGA1366 chips have moved to a modular design, making it easier for engineers to scale and configure their designs.

    Secondly, a new QPI bus was used to exchange information between the cores. Also remember the following points:

    • DDR3 RAM controller taught to work in single, dual and three-channel modes
    • Hyper-Threading technology brought the number of threads to 12, and Turbo Boost made it possible to dynamically accelerate the frequency of cores
    • added support for SSE4.2 instructions
    • in the structure of the processors included a special block for increased energy efficiency

    The only thing missing is support for AVX instructions, which may be important for some games.

    Now let’s run through the test bench. It is based on a 6-core 12-thread Core i7-980X Extreme Edition . Its base frequency is 3.33 GHz. Dynamically, it rises only to 3.6 GHz, but due to the unlocked multiplier, the processor can be accelerated more. It also has 12MB L3 cache and a 3-channel DDR3-1066 memory controller. The thermal package is an impressive 130 watts.

    Naturally, we are more interested in the capabilities of the processor, so there should not be an emphasis on the video card. The top-end SAPPHIRE Radeon RX 69 helped with this.00 XT NITRO+ SE GAMING OC with factory overclocked GPU and 16 GB VRAM. Thanks to the TELEMART store for it. It has a wide selection of pre-built PCs and laptops, products for gamers and components for self-assembly of the system. There is also a handy configurator. And if you can’t do it yourself, then technical support will always help.

    All components are conveniently placed on the MSI Big Bang-XPower motherboard. It supports memory overclocking up to 2133 MHz, if you’re lucky, and provides six PCIe 2.0 x16 slots for graphics cards and other expansion cards.

    Finally, the 2-section dropsy NZXT Kraken Z63 will work to its full potential. It supports new and legacy Intel platforms. Two 140mm fans are responsible for active heat dissipation. And on the water block there is a screen for monitoring the current temperature of the processor.

    16 GB of RAM was implemented using two 8 GB kits DDR3-2400 TwinMOS TwiSTER and GOODRAM LEDLIGHT . Three modules were installed in 3-channel mode, and the fourth was added to them, because 12 GB will not be enough for some modern games.

    There are no M.2 slots on the board, so we took a couple of terabyte 2.5-inch SATA SSD GOODRAM IRDM PRO for OS and games. Their endurance reaches 870 TB, which allows you to record 470 GB of data every day for 5 years.

    The overclocked processor and video card combination consumes more than 500 watts. Therefore, the «platinum» source Seasonic Prime PX-850 at 850 W will not be superfluous. A quiet fan, top-end circuitry, a full list of protections and a 12-year warranty inspire confidence in its reliable operation.

    320mm graphics card and 280mm CBO will not fit in all cases. But with LIAN LI LANCOOL II White there were no problems. It supports graphics cards with a length of 383 mm and three-section CBO. Excellent ventilation and three 120mm turntables in the kit promise a comfortable temperature inside.

    Traditionally, we use more affordable peripherals in retro hardware tests. In this case it is a set Defender Target MKP-350 . It includes a membrane keyboard with a classic layout, bright backlighting and a small palm rest. A mouse with an optical sensor at 3200 DPI and five programmable buttons with a scroll wheel. A mat with a smooth top surface for fast and precise mouse movement. And a closed-back headset with 40mm drivers, an external microphone on the boom and a soft landing on the head.

    Philips Brilliance 329P9H monitor helped to see everything. Gameplays are recorded by an external system with AVerMedia Live Gamer 4K without loss of performance.

    Configuration

    Description

    Processor

    Intel Core i7-980X Extreme Edition

    Motherboard

    MSI Big Bang-XPower

    Cooling system

    NZXT Kraken Z63

    RAM

    TwinMOS TwiSTER 2x DDR3-2400 4GB

    GOODRAM LEDLIGHT 2x DDR3-2400 4GB

    Video card

    Sapphire Radeon RX 6900XT NITRO+ SE

    Power supply

    Seasonic Prime PX-850

    Housing

    LIAN LI LANCOOL II White

    Accumulator

    GOODRAM IRDM PRO 1TB x2

    Periphery

    Defender 4 in 1 Target MKP-350

    Monitor

    Philips Brilliance 329P9H

    The first thing after the assembly, we checked the stability of the system at nominal, ran several benchmarks for further comparison and overclocked the processor and memory. The first was accelerated, as if “permanently”, up to 4120 MHz with a penny, raising the multiplier to 31, the CPU Voltage to 1.356 V and the QPI Voltage to 1.36 V.

    RAM overclocked to 1866 MHz with CL9 timings and a voltage of 1.65 V. If we had all the same modules, we might have taken 2133 MHz, but thanks for that.

    After that, the system was again checked for stability. Running the AIDA64 stress test warms up the processor cores to a maximum of 73°C. The critical temperature Tcase for it should not exceed 68°C, but there was no throttling according to the monitoring.

    If FurMark is added, the GPU warms up to 69°C The temperature of the processor cores almost does not change due to the excellent ventilation of the case.

    All preparatory questions are over — let’s move on to the tests. To begin with, a small block for comparing systems at nominal and overclocked.

    Acceleration of RAM from 1066 to 1866 MHz increases read, write and copy speeds in AIDA64 by at least 47%.

    Access delay is reduced by 20%.

    In purely processor benchmarks, the bonus from the increase in the frequency of the Core i7 is not so big, but still noticeable. For example, in single and multi-threaded mode CPU-Z it is in the region of 20%.

    In CineBench R15 , the CPU score is improved by 21%, and the result in OpenGL after overclocking is 25% higher.

    Multi-threaded performance in the CineBench R23 increased by 28% due to overclocking.

    3DMark Time Spy not only improved the CPU by 23%, but also increased the result of the graphics subsystem by 13%. And the overall figure increased by 17%.

    And in the complex PCMark 10 we fix a bonus of 13-28% according to various tests.

    On average, overclocking improved the results of synthetic tests by 28%. Let’s see what we get in games.

    Assassin’s Creed Valhalla runs comfortably even at the highest settings. But after overclocking, the performance increases by 22-31%, which provides an even more enjoyable gameplay.

    At Days Gone, had a slight jelly feel at par. Overclocking removed it, and at the same time improved the statistics by 30-50%.

    DOOM Eternal was flying even at par with an absolute nightmare. You can’t find fault with the management, and the video card loading floated within 40-70%. After overclocking, the load on the GPU increased to 60-90%. Performance bonus reached 43%.

    The Forza Horizon 5 can be ridden at par at a high preset. Overclocking raises all stats by 39-49%. With such a bonus, you can storm the ultra preset, especially if you add more RAM.

    And finally, in The Third Witcher , with maximum graphics presets and post-processing in the city, it’s hard to run at par. Sometimes the stators slip. Life-giving acceleration removes all unpleasant moments and improves performance by at least 30%.

    On average, overclocking raises all statistics by 30-50%. Sometimes, as in the case of Days Gone, it also increases the responsiveness of the controls. Therefore, all the following games were run on the system in overclocking, especially since it is available to varying degrees to all owners of motherboards based on the X58 chipset.

    In Dota 2 boldly turn all the settings to the maximum. No matter how many opponents come together in battle, no matter what effects and spells are used, the video sequence remains smooth and the controls are responsive.

    In World of Tanks on ultras, you can choose any tanks, any mode and any maps — the comfort of the gameplay will not suffer from this. In a regular random house, we got an average of 140 frames / s. There was not even a hint of dullness or jelly in the management.

    Surprisingly, the ARK is a pleasure to run with the epic graphics preset. “Where wild animals roam, in the thicket of the forest, in a dark cave,” the average speed is kept above 90 frames / s. Small stators sometimes slip, possibly due to low RAM bandwidth. Otherwise, no problem.

    Almost maximum settings do not spoil the impressions of RUST either. Stators appear only in the case of a thoughtless run in an unknown direction. And if you play within a certain location, then everything is smooth and pleasant, with an average speed of 70 FPS.

    CS: GO with bots on the minimum eSports settings is given to the system easily and naturally. Smoke and fire effects do not cause any subfreeze. The average speed rises above 200 fps.

    In Rainbow Six Siege everything is fine with ultra preset with native 50% render scale. In operations, the rate of very rare events does not fall below 90 fps. You can’t look at other statistics.

    PUBG on ultra settings upsets a small Input lag in control and stators. Although, if you wish, you can play and win, especially in duels with less experienced opponents. The frame rate averages over a hundred frames / s.

    If you lower the settings a little and reduce the load on the system, then the jelly in the control disappears. But blunting from time to time appear. But it’s more fun to play this way. You can even on a high-frequency monitor.

    With Fortnite turned out to be interesting. With an average preset, the average speed reaches 90 frames / s. It would seem that everything is fine, but the statistics of very rare events drops below 20 FPS and microfreezes are periodically felt.

    You won’t be able to overcome them with a low preset. Yes, the average speed rises to 150 fps and rare events statistics improve by more than 50%, but microfreezes do not completely disappear. The situation improves only when vertical sync is enabled.

    In Apex Legends , the choice of optimal parameters was shifted to the engine. He chose almost all the maximum settings, and we never regretted it. The picture is beautiful, the video sequence is smooth and the control is very comfortable.

    Pleasantly surprised Halo Infinite . In a match with bots that create an additional load on the processor, it ran great except for the first few minutes. The initial loading of objects was accompanied by subfreezes, but then they completely disappeared, and the 0.1% Low indicator did not fall below 40 FPS.

    StarCraft II: Legacy of the Void relies more on single-threaded rather than multi-threaded performance. Therefore, in a scenario with a large cluster of units, I had to go down to the average preset in order to get rid of noticeable framerate drops. This did not save from the stators, but in general you can play.

    In GTA V all settings were turned to maximum except MSAA. The greatest load on the processor is observed in the city, so we didn’t even go to the grass. On average, the frame rate was around 60 FPS. There were no frame skips or other problems.

    For Red Dead Redemption 2 we chose the maximum version of the “quality” preset. Here we are again more interested in the situation in the city, where the load on the processor is higher. And what do we see? More than 80 fps on average, no dips in the rest of the statistics and no problems with control.

    If you wish, you can even play Cyberpunk 2077 . True, it is better to immediately go down to a low preset, since the spread of the current speed is very large. In some locations we get about 90 fps, and in others — less than 40, and even with a little jelly in control.

    Finishing the test session in God of War . At the maximum preset, it was noticeably frizzy, and at a high it was already tolerable. There are no complaints about the average speed, but dulling does not completely go away. In addition, there is a small Input lag in the management.

    We also wanted to add a run in Dying Light 2 , but the game just didn’t start. We received no warning from her. Perhaps she or her protection system lacked support for AVX instructions.

    Results

    The 12-year-old and 12-thread Core i7-980X Extreme Edition surprised us. If you pair it with a powerful modern video card, 16 GB of RAM and an SSD, then even without overclocking it can run almost any game.

    Overclocking CPU and RAM improves performance by an average of 28% in synthetics and by 30-50% in games.

    Simple online projects and many hits of the past can be safely run on ultras.