Chinese LGA 2011 boards in one place: chipset, memory, storage, USB and PCIe, all in one table. Where a board name is a link, we have had that board on the bench and the link opens the full review. Sort by clicking any column header, and narrow the list down with the filter buttons above it.
Click a column header to sort.
| Board | Chipset | CPU power | Memory | Storage | USB 3.0 / 2.0 | PCI-e | Form factor | Price |
|---|---|---|---|---|---|---|---|---|
Huananzhi X79-16D
|
C602 | 130 W and above | 16 × DDR3, 4ch per CPUup to 512 GB | 1× M.2 NVMe·1× U.2·2× SATA III·4× SATA II | 2/4 | x16x16x16x8x8 | E-ATX2 sockets | $$$ |
|
|
C602 | 130 W and above | 16 × DDR3, 4ch per CPUup to 512 GB | 1× M.2 NVMe·2× SATA III·4× SATA II | 2/4 | x16x16x16x8x8 | E-ATX2 sockets | $$$ |
|
|
C602 | 130 W and above | 16 × DDR3, 4ch per CPUup to 512 GB | no M.2·2× SATA III·4× SATA II | 2/4 | x16x16x16x8x8x4 | E-ATX2 sockets | $$$ |
Huananzhi X79-8D
|
C602 | 130 W and above | 8 × DDR3, 2ch per CPUup to 256 GB | 1× M.2 NVMe·2× SATA III·4× SATA II | 2/6 | x16x16x1x1 | E-ATX2 sockets | $$$ |
E5 ver 2.4
also known as E5 ver 2.4A / B / E / F / F_C / F_G
|
C602 | 100–120 W | 4 × DDR3, 4chup to 64 GB | 1× M.2 NVMe·2× SATA III·4× SATA II | 2/6 | x16x16x1PCI | ATX | $$ |
Huananzhi X79 Supreme
also known as Huananzhi X79 Deluxe V6.11, GuoShuo G279T V6.11
|
C602 | 100–120 W | 4 × DDR3, 4chup to 128 GB | 1× M.2 NVMe·2× SATA III·4× SATA II | 4/4 | x16x16x4x4x1 | ATX | $$ |
|
|
C602 | 100–120 W | 4 × DDR3, 4chup to 128 GB | 2× M.2 NVMe·2× SATA III·4× SATA II | 2/6 | x16x16x4x1 | ATX | $$ |
|
|
C602 | 100–120 W | 4 × DDR3, 4chup to 128 GB | 1× M.2 NVMe·2× SATA III·4× SATA II | 2/6 | x16x16x4x4x1 | ATX | $$ |
Jingsha X79 P3
|
C602 | 100–120 W | 4 × DDR3, 4ch | 1× M.2 NVMe·2× SATA III·4× SATA II | 4/4 | x16x16x16x4x1 | ATX | $$ |
Huananzhi X79-4D
|
C602 | 100–120 W | 4 × DDR3, 2ch per CPUup to 128 GB | 1× M.2 NVMe·2× SATA III·4× SATA II | 2/6 | x16x16x1x1 | E-ATX2 sockets | $$ |
X79
V2.81 / V2.82
also known as X79 2.81A / 2.81B, X79 2.82A / 2.82B / 2.82H
|
C602 | up to 90–100 W | 4 × DDR3, 4ch | 1× M.2 NVMe / SATA·1× SATA III·3× SATA II | 2/4 | x16x1 | mATX | $ |
Machinist X79 Z9-D7
|
C602 | up to 90–100 W | 4 × DDR3, 2ch | 1× M.2 NVMe / SATA·1× SATA III·3× SATA II | 0/6 | x16x1 | mATX | $ |
X79G
also known as Machinist X79 S7
|
C602 | up to 90–100 W | 4 × DDR3, 2chup to 64 GB | 1× M.2 NVMe·1× SATA III·3× SATA II | 0/6 | x16x1 | mATX | $ |
Huananzhi X79-6M
V2.0
also known as X79 V3.4F
|
Varies | up to 90–100 W | 2 × DDR3, 2chup to 64 GB | 1× M.2 NVMe + 1× M.2 SATA·1× SATA III·3× SATA II | 2/4 | x16x1 | mATX | $ |
X79-VG5
V1.1
also known as Huananzhi X79M-CD3
|
Varies | up to 90–100 W | 2 × DDR3, 2chup to 64 GB | 1× M.2 NVMe·1× SATA III·3× SATA II | 0/8 | x16x1 | mATX | $ |
Huananzhi X79-ZD3
also known as X79 v3.6C
|
Desktop | 130 W and above | 4 × DDR3, 4chup to 128 GB | 1× M.2 NVMe + 1× M.2 SATA·2× SATA III·4× SATA II | 2/6 | x16x4x1 | mATX | $$ |
|
|
C602 | 100–120 W | 4 × DDR3, 4chup to 128 GB | 1× M.2 NVMe + 1× M.2 SATA·2× SATA III·4× SATA II | 2/6 | x16x4x1 | mATX | $$ |
E5 VER 3.2
also known as E5 3.2A / B / C / G / H / S1 / S2
|
Desktop | 100–120 W | 4 × DDR3, 4ch | 1× M.2 NVMe·2× SATA III·4× SATA II | 2/4 | x16x16x1x1 | ATX | $$ |
Huananzhi X79 Deluxe
V3.0 / V3.1
also known as Huananzhi X79 Green, Huananzhi X79 2.49PC
|
Desktop | 100–120 W | 4 × DDR3, 4chup to 128 GB | 1× M.2 NVMe + 1× M.2 SATA·2× SATA III·4× SATA II | 2/6 | x16x16x4x1 | ATX | $$ |
X79T
also known as X79-Turbo, X79T v1.01 / v1.02 / v1.03
|
Desktop | 100–120 W | 4 × DDR3, 4ch | 1× M.2 NVMe·2× SATA III·4× SATA II | 2/6 | x16x16x16x1x1 | ATX | $$ |
X79P
also known as Kllisre X79P, Jingsha X79P
|
Desktop | up to 90–100 W | 4 × DDR3, 4ch | 1× M.2 NVMe·1× SATA III·5× SATA II | 2/6 | x16x16x4x1 | ATX | $$ |
Huananzhi X79-4MT
|
H61 | up to 90–100 W | 4 × DDR3, 2chup to 128 GB | 1× M.2 NVMe·no SATA III·4× SATA II | 0/6 | x16x1x1 | mATX | $ |
X79-VG2
V2.2
|
H61 | up to 90–100 W | 4 × DDR3, 2chup to 128 GB | 1× M.2 NVMe·no SATA III·4× SATA II | 0/6 | x16x1 | mATX | $ |
Huananzhi X79-4M
V4.0
|
H61 | up to 90–100 W | 2 × DDR3, 2chup to 64 GB | 1× M.2 NVMe + 1× M.2 SATA·no SATA III·3× SATA II | 0/6 | x16x1 | mATX | $ |
|
|
H61 | up to 90–100 W | 2 × DDR3, 2chup to 64 GB | 1× M.2 NVMe·no SATA III·4× SATA II | 0/6 | x16x1 | mATX | $ |
X79-VG3
V2.2
|
H61 | up to 90–100 W | 2 × DDR3, 2chup to 64 GB | 1× M.2 NVMe·no SATA III·4× SATA II | 0/6 | x16x1 | mATX | $ |
No boards match these filters.
Specs come from open sources and may contain errors. Always double-check before buying.
What matters when choosing a board
Chinese boards usually exist in several revisions, and those revisions are not cosmetic: the chipset, the port count and the power stages can all change while the name on the box stays the same. Sellers rarely say which one they are shipping. That is why every revision we know of is listed under its board in the table.
1. VRM. Almost every Chinese board here uses the same seven-phase layout (6 CPU + 1 VTT). The real difference is in the MOSFETs, and manufacturers practically never publish what they fit. Treat the CPU power column as a rough tier, not a rating.
2. Chipset. C602 is the server chipset and the only one originally designed for this socket; boards built on it usually — though not always — offer the fullest set of features. The 6/7-series desktop chipsets (B75, Q75, Q77 and others, including C204) were meant for LGA1155 boards. They may give you fewer ports, but beyond that they hold no serious drawbacks. H61 is the bottom of the market: no USB 3.0 and no SATA III at all. Finding it on a board is a reliable sign that you are looking at the cheapest tier there is.
3. Memory channels. The platform supports quad-channel, but manufacturers do not always wire it up. Unless you are building on the tightest of budgets, do not give up the chance to double your memory bandwidth.
4. PCIe layout. Xeon processors carry 40 PCIe Gen 3 lanes, so the better boards are in no danger of running short. How those lanes are actually routed, however, is left to the board maker — always check the real slot configuration rather than assuming it from the CPU.