Comparison ASRock B360 Pro4 vs ASRock B360M Pro4
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|---|---|---|
| ASRock B360 Pro4 | ASRock B360M Pro4 | |
| Compare prices 1 | from $85.00 | |
| User reviews | ||
| TOP sellers | ||
| Features | gaming | gaming |
| Socket | LGA 1151 v2 | LGA 1151 v2 |
| Form factor | ATX | micro-ATX |
| Power phases | 10 | 11 |
| VRM heatsink | ||
| Size (HxW) | 305x224 mm | 244x244 mm |
Chipset | ||
| Chipset | Intel B360 | Intel B360 |
| BIOS | Ami | Ami |
| UEFI BIOS | ||
RAM | ||
| DDR4 | 4 slot(s) | 4 slot(s) |
| Memory module | DIMM | DIMM |
| Operation mode | 2 channel | 2 channel |
| Max. clock frequency | 2666 MHz | 2666 MHz |
| Max. memory | 64 GB | 64 GB |
| XMP | ||
Drive interface | ||
| SATA 3 (6Gbps) | 6 | 6 |
| M.2 connector | 2 | 2 |
| M.2 | 1xSATA/PCIe 4x, 1xSATA/PCIe 2x | 1xSATA/PCIe 1x, 1xPCIe 4x |
Expansion slots | ||
| 1x PCIe slots | 3 pcs | 2 pcs |
| PCIe 16x slots | 2 pcs | 2 pcs |
| PCIe modes | 16x/4x | 16x/4x |
| PCIe support | 3.0 | 3.0 |
| CrossFire (AMD) | ||
Internal connections | ||
| USB-A 2.0 | 2 pcs | 2 pcs |
| USB-A 5Gbps | 1 pcs | 1 pcs |
Video outputs | ||
| D-Sub output (VGA) | ||
| DVI output | DVI-D | DVI-D |
| HDMI output | ||
Integrated audio | ||
| Audiochip | Realtek ALC892 | Realtek ALC892 |
| Sound (channels) | 7.1 | 7.1 |
Network interfaces | ||
| LAN (RJ-45) | 1 Gbps | 1 Gbps |
| LAN ports | 1 | 1 |
| LAN controller | Intel I219V | Intel I219V |
External connections | ||
| USB-A 2.0 | 2 pcs | 2 pcs |
| USB-A 5Gbps | 2 pcs | 2 pcs |
| USB-A 10Gbps | 1 pcs | 1 pcs |
| USB-C 10Gbps | 1 pcs | 1 pcs |
| PS/2 | 1 | 2 |
Power connectors | ||
| Main power socket | 24-pin | 24-pin |
| CPU power | 8-pin | 8-pin |
| Fan power connectors | 4 | 4 |
| Added to E-Catalog | april 2018 | april 2018 |
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Glossary
Form factor
The form factor of the motherboard determines, first of all, its physical dimensions, and, accordingly, a number of parameters directly related to them: type of computer case, installation method, type of power connector, number of slots for additional boards (expansion slots), etc. At the moment, there are such main form factors of motherboards:
— ATX. One of the most common form factors for PC motherboards. The standard size of such a board is 30.5x24.4 cm, it has up to 7 expansion slots and a 24-pin or (less often, in older models) 20-pin power connector.
— Micro-ATX. A slightly reduced version of the ATX form factor, with more compact dimensions (usually 24.4x24.4 cm) and, accordingly, fewer places for peripherals — there are usually only two slots for "RAM", expansion slots — from two to four. Nevertheless, despite the limited size, such boards can be intended for quite powerful systems.
— Mini-ITX. Motherboards of compact dimensions (17x17 cm). Designed for use primarily in small form factor computers (small form factor, SFF), in other words, compact PCs. According to the mounting specifications and the location of connectors and slots, they are compatible with ATX standard cases. They usually have one expansion slot.
— mini-STX. Another representative of compact form factors, assuming a boar...d size of 140x147 mm. Thus, the overall size is almost a third smaller than mini-ITX. At the same time, such motherboards often have seats for fairly powerful processors (for example, the LGA 1151 socket for Intel Core chips) and are made based on the corresponding TDP values. But expansion slots, usually, are absent.
— micro DTX. A relatively new compact form factor, which is not common, mainly among rather specific motherboards — in particular, models designed for cases in the PIO form factor. This form factor is characterized by a very small size and weight and allows you to mount the case directly behind the monitor, on a standard VESA mount. One of the features of "motherboards" for such systems is that the graphics card is installed along the board, and not perpendicularly — accordingly, the PCIe 16x connector (see below) has a non-standard location. At the same time, micro-DTX boards are similar in terms of fasteners to microATX and can be used in cases of the corresponding form factor (except that additional equipment may be required for the correct installation of a graphics card). The standard size of such a board is 170 x 170 mm, similar to mini-ITX.
— mini DTX. An intermediate format between the microDTX described above and the original DTX; sometimes also described as an extended mini-ITX version. It has a standard size of 170 x 203 mm and can be equipped with two expansion slots (mini-ITX and mini-DTX have one such slot); it is completely similar in application — it is intended mainly for compact cases, in particular, HTPC computers.
— XL-ATX. Larger version of the ATX form factor. While not yet a common standard, size options include 32.5x24.4cm with 8 expansion slots and 34.3x26.2cm with up to 9 expansion slots.
— Thin mini-ITX. A “thin” version of the reduced mini-ITX form factor described above: according to the official specification, the total thickness of the thin mini-ITX board should not exceed 25 mm. Also designed for the most miniature computers — in particular, HTPC.
— E-ATX. The letter E in the name of this form factor stands for "Extended" — extended. True to its name, E-ATX is another enlarged version of ATX using 30.5x33cm boards.
— EEB. Full name SSI EEB. The form factor used in server systems (see “By direction”) provides a board size of 30.5x33 cm.
— CEB. The full name is SSI CEB. Another form factor of "server" motherboards. In fact, it is a narrower version of the EEB described above, with a width reduced to 25.9 cm (with the same height of 30.5 cm).
— flex-ATX. One of the compact variations of ATX, which provides board dimensions of less than 229x191 mm, as well as less than 3 expansion slots. At the same time, in terms of the location of the mounting holes, this standard is identical to microATX; in fact, it was developed as a potential replacement for the latter, but for a number of reasons it did not receive much distribution, although it continues to be produced.
— Non-standard (Custom). The name Proprietary is also used. Motherboards that do not conform to standard form factors and are designed for cases of special sizes (usually branded ones).
— ATX. One of the most common form factors for PC motherboards. The standard size of such a board is 30.5x24.4 cm, it has up to 7 expansion slots and a 24-pin or (less often, in older models) 20-pin power connector.
— Micro-ATX. A slightly reduced version of the ATX form factor, with more compact dimensions (usually 24.4x24.4 cm) and, accordingly, fewer places for peripherals — there are usually only two slots for "RAM", expansion slots — from two to four. Nevertheless, despite the limited size, such boards can be intended for quite powerful systems.
— Mini-ITX. Motherboards of compact dimensions (17x17 cm). Designed for use primarily in small form factor computers (small form factor, SFF), in other words, compact PCs. According to the mounting specifications and the location of connectors and slots, they are compatible with ATX standard cases. They usually have one expansion slot.
— mini-STX. Another representative of compact form factors, assuming a boar...d size of 140x147 mm. Thus, the overall size is almost a third smaller than mini-ITX. At the same time, such motherboards often have seats for fairly powerful processors (for example, the LGA 1151 socket for Intel Core chips) and are made based on the corresponding TDP values. But expansion slots, usually, are absent.
— micro DTX. A relatively new compact form factor, which is not common, mainly among rather specific motherboards — in particular, models designed for cases in the PIO form factor. This form factor is characterized by a very small size and weight and allows you to mount the case directly behind the monitor, on a standard VESA mount. One of the features of "motherboards" for such systems is that the graphics card is installed along the board, and not perpendicularly — accordingly, the PCIe 16x connector (see below) has a non-standard location. At the same time, micro-DTX boards are similar in terms of fasteners to microATX and can be used in cases of the corresponding form factor (except that additional equipment may be required for the correct installation of a graphics card). The standard size of such a board is 170 x 170 mm, similar to mini-ITX.
— mini DTX. An intermediate format between the microDTX described above and the original DTX; sometimes also described as an extended mini-ITX version. It has a standard size of 170 x 203 mm and can be equipped with two expansion slots (mini-ITX and mini-DTX have one such slot); it is completely similar in application — it is intended mainly for compact cases, in particular, HTPC computers.
— XL-ATX. Larger version of the ATX form factor. While not yet a common standard, size options include 32.5x24.4cm with 8 expansion slots and 34.3x26.2cm with up to 9 expansion slots.
— Thin mini-ITX. A “thin” version of the reduced mini-ITX form factor described above: according to the official specification, the total thickness of the thin mini-ITX board should not exceed 25 mm. Also designed for the most miniature computers — in particular, HTPC.
— E-ATX. The letter E in the name of this form factor stands for "Extended" — extended. True to its name, E-ATX is another enlarged version of ATX using 30.5x33cm boards.
— EEB. Full name SSI EEB. The form factor used in server systems (see “By direction”) provides a board size of 30.5x33 cm.
— CEB. The full name is SSI CEB. Another form factor of "server" motherboards. In fact, it is a narrower version of the EEB described above, with a width reduced to 25.9 cm (with the same height of 30.5 cm).
— flex-ATX. One of the compact variations of ATX, which provides board dimensions of less than 229x191 mm, as well as less than 3 expansion slots. At the same time, in terms of the location of the mounting holes, this standard is identical to microATX; in fact, it was developed as a potential replacement for the latter, but for a number of reasons it did not receive much distribution, although it continues to be produced.
— Non-standard (Custom). The name Proprietary is also used. Motherboards that do not conform to standard form factors and are designed for cases of special sizes (usually branded ones).
Power phases
The number of processor power phases provided on the motherboard.
Very simplistically, phases can be described as electronic blocks of a special design, through which power is supplied to the processor. The task of such blocks is to optimize this power, in particular, to minimize power surges when the load on the processor changes. In general, the more phases, the lower the load on each of them, the more stable the power supply and the more durable the electronics of the board. And the more powerful the CPU and the more cores it has, the more phases it needs; this number increases even more if the processor is planned to be overclocked. For example, for a conventional quad-core chip, only four phases are often enough, and for an overclocked one, at least eight may be needed. It is because of this that powerful processors can have problems when used on inexpensive low-phase motherboards.
Detailed recommendations on choosing the number of phases for specific CPU series and models can be found in special sources (including the documentation for CPU itself). Here we note that with numerous phases on the motherboard (more than 8), some of them can be virtual. To do this, real electronic blocks are supplemented with doublers or even triplers, which, formally, increases the number of phases: for example, 12 claimed phases can represent 6 physical blocks with doublers. However, virtual phases are much inferior to real ones in terms of capabilities — in fact, t...hey are just additions that slightly improve the characteristics of real phases. So, let's say, in our example, it is more correct to speak not about twelve, but only about six (though improved) phases. These nuances must be specified when choosing a motherboard.
Very simplistically, phases can be described as electronic blocks of a special design, through which power is supplied to the processor. The task of such blocks is to optimize this power, in particular, to minimize power surges when the load on the processor changes. In general, the more phases, the lower the load on each of them, the more stable the power supply and the more durable the electronics of the board. And the more powerful the CPU and the more cores it has, the more phases it needs; this number increases even more if the processor is planned to be overclocked. For example, for a conventional quad-core chip, only four phases are often enough, and for an overclocked one, at least eight may be needed. It is because of this that powerful processors can have problems when used on inexpensive low-phase motherboards.
Detailed recommendations on choosing the number of phases for specific CPU series and models can be found in special sources (including the documentation for CPU itself). Here we note that with numerous phases on the motherboard (more than 8), some of them can be virtual. To do this, real electronic blocks are supplemented with doublers or even triplers, which, formally, increases the number of phases: for example, 12 claimed phases can represent 6 physical blocks with doublers. However, virtual phases are much inferior to real ones in terms of capabilities — in fact, t...hey are just additions that slightly improve the characteristics of real phases. So, let's say, in our example, it is more correct to speak not about twelve, but only about six (though improved) phases. These nuances must be specified when choosing a motherboard.
Size (HxW)
Motherboard dimensions in height and width. It is assumed that the traditional placement of motherboards is vertical, so in this case one of the dimensions is called not the length, but the height.
Motherboard sizes are largely determined by their form factors (see above), however, the size of a particular motherboard may differ slightly from the standard adopted for this form factor. In addition, it is usually easier to clarify the dimensions according to the characteristics of a particular motherboard than to look for or remember general information on the form factor. Therefore, size data can be given even for models that fully comply with the standard.
The third dimension — thickness — is considered less important for a number of reasons, so it is often omitted.
Motherboard sizes are largely determined by their form factors (see above), however, the size of a particular motherboard may differ slightly from the standard adopted for this form factor. In addition, it is usually easier to clarify the dimensions according to the characteristics of a particular motherboard than to look for or remember general information on the form factor. Therefore, size data can be given even for models that fully comply with the standard.
The third dimension — thickness — is considered less important for a number of reasons, so it is often omitted.
M.2
Electrical (logical) interfaces implemented through physical M.2 connectors on the motherboard.
For more details about such connectors, see above. Here, we note that they can work with two types of interfaces:
For more details about such connectors, see above. Here, we note that they can work with two types of interfaces:
- SATA — a standard originally created for hard drives. Usually, the most recent version supported in M.2 is SATA 3; however, even it is significantly inferior to PCIe in terms of speed (600 MB/s) and functionality (only storage devices);
- PCIe — the most widespread modern interface for connecting internal peripherals (also known as NVMe). It is suitable for various expansion cards (such as wireless adapters) as well as storage devices, with PCIe speeds allowing for the full potential of modern SSDs to be realized. The maximum data transfer speed depends on the version of this interface and the number of lanes. In modern M.2 connectors, you can find PCIe versions 3.0 and 4.0, with speeds of approximately 1 GB/s and 2 GB/s per lane, respectively; and the number of lanes can be 1, 2, or 4 (PCIe 1x, 2x, and 4x, respectively)
1x PCIe slots
The number of PCIe (PCI Express) 1x slots installed on the motherboard. There are motherboards with 1 PCIe 1x slot, 2 PCIe 1x connectors, 3 PCIe 1x ports, and even more.
The PCI Express bus is used to connect various expansion cards—network and sound cards, video adapters, TV tuners, and even SSDs. The number in the name indicates the number of PCIe lanes (data transmission channels) supported by this slot; the more lanes, the higher the bandwidth. Accordingly, PCIe 1x is the basic, slowest variety of this interface. The data transfer rate for such slots depends on the PCIe version (see "PCI Express Support"): specifically, it's just under 1 GB/s for version 3.0 and just under 2 GB/s for version 4.0.
It is worth noting that the general rule for PCIe is this: the card should be connected to a slot with the same or greater number of lanes. Thus, only single-lane cards will be guaranteed to be compatible with PCIe 1x.
The PCI Express bus is used to connect various expansion cards—network and sound cards, video adapters, TV tuners, and even SSDs. The number in the name indicates the number of PCIe lanes (data transmission channels) supported by this slot; the more lanes, the higher the bandwidth. Accordingly, PCIe 1x is the basic, slowest variety of this interface. The data transfer rate for such slots depends on the PCIe version (see "PCI Express Support"): specifically, it's just under 1 GB/s for version 3.0 and just under 2 GB/s for version 4.0.
It is worth noting that the general rule for PCIe is this: the card should be connected to a slot with the same or greater number of lanes. Thus, only single-lane cards will be guaranteed to be compatible with PCIe 1x.
PS/2
The number of PS/2 ports provided in the design of the motherboard.
PS/2 is a dedicated port designed to connect exclusively to keyboards and/or mice. The traditional motherboard configuration for a PC provides 2 such ports — for the keyboard (usually highlighted in lilac) and for the mouse (green). However, there are boards with one connector, to which you can connect any of these types of peripherals, to choose from. Anyway, the presence of PS/2 can save the user from having to occupy USB ports for the keyboard / mouse; this is especially useful if you have to deal with a lot of other USB peripherals. On the other hand, for a number of reasons, this connector is considered obsolete and is used less and less; and PS/2 peripherals are produced mainly in the form of USB devices, additionally equipped with PS/2 adapters.
PS/2 is a dedicated port designed to connect exclusively to keyboards and/or mice. The traditional motherboard configuration for a PC provides 2 such ports — for the keyboard (usually highlighted in lilac) and for the mouse (green). However, there are boards with one connector, to which you can connect any of these types of peripherals, to choose from. Anyway, the presence of PS/2 can save the user from having to occupy USB ports for the keyboard / mouse; this is especially useful if you have to deal with a lot of other USB peripherals. On the other hand, for a number of reasons, this connector is considered obsolete and is used less and less; and PS/2 peripherals are produced mainly in the form of USB devices, additionally equipped with PS/2 adapters.




