Comparison Asus ROG STRIX B350-F GAMING vs Asus ROG STRIX X370-F GAMING

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.

Synchronization technology provided in the board with LED backlight (see above).

Synchronization itself allows you to "match" the backlight of the motherboard with the backlight of other system components — cases, video cards, keyboards, mice, etc. Thanks to this matching, all components can change colour synchronously, turn on / off at the same time, etc. Specific features the operation of such backlighting depends on the synchronization technology used, and, usually, each manufacturer has its own (Mystic Light Sync for MSI, RGB Fusion for Gigabyte, etc.). The compatibility of the components also depends on this: they must all support the same technology. So the easiest way to achieve backlight compatibility is to collect components from the same manufacturer.

The chipset model installed in the motherboard. AMD's current chipset models are B450, A520, B550, X570, A620, B650, B650E, X670, X670E, B840, B850, X870, X870E. For Intel, in turn, the list of chipsets looks like this: X299, H410, B460, H470, Z490, H510, B560, H570, Z590, H610, B660, H670, Z690, B760, Z790, H810, B860, Z890.

A chipset is...a set of chips on the motherboard through which the individual components of the system interact directly: the processor, RAM, drives, audio and video adapters, network controllers, etc. Technically, such a set consists of two parts — the north and south bridges. The key element is the northbridge, it connects the processor, memory, graphics card and the southbridge (together with the devices it controls). Therefore, it is often the name of the north bridge that is indicated as the chipset model, and the south bridge model is specified separately (see below); it is this scheme that is used in traditional layout motherboards, where bridges are made in the form of separate microcircuits. There are also solutions where both bridges are combined in one chip; for them, the name of the entire chipset can be indicated.

Anyway, knowing the chipset model, you can find various additional data on it — from general reviews to special instructions. An ordinary user, usually, does not need such information, but it can be useful for various professional tasks.

Number of SATA 3 ports on the motherboard.

SATA is now the standard interface for connecting internal drives (mainly HDDs) and optical drives. One device is connected to one such connector, so the number of SATA ports corresponds to the number of internal drives / drives that can be connected to the motherboard through such an interface. A large number ( 6 SATA ports and more) is necessary in case of active use of several hard drives and other peripherals. For domestic use, 4 is enough. SATA 3, as the name suggests, is the third version of this interface, operating at a total speed of about 6 Gbps; the useful speed, taking into account the redundancy of the transmitted data, is about 4.8 Mbps (600 MB / s) — that is, twice as much as in SATA 2.

Note that different SATA standards are quite compatible with each other in both directions: older drives can be connected to newer ports, and vice versa. The only thing is that the data transfer rate will be limited by the capabilities of the slower version, and in some cases it may be necessary to reconfigure the drives with hardware (switches, jumpers) or software. It is also worth saying that SATA 3 is the newest and most advanced variation of SATA today, but the capabilities of this standard are not enough to unlock the full potential of high-speed SSDs. Therefore, SATA 3 is mainly used for hard drives and low-cost SSDs, faster drives ar...e connected to specially designed connectors like M.2 or U.2 (see below).

Motherboard support for NVIDIA SLI technology.

This technology allows you to connect several individual NVIDIA graphics cards to your PC at once and combine their computing power, respectively increasing the system's graphics performance in specific tasks. Accordingly, this feature means that the "motherboard" is equipped with at least two slots for video cards — PCI-E 16x; in general, SLI allows up to 4 separate adapters to be connected.

Such functionality is especially important for demanding games and "heavy" tasks like 3D rendering. However, note that in order to use several video cards, this possibility must also be provided in the application running on the computer. So in some cases, one powerful video adapter is more preferable than several relatively simple ones with the same total amount of VRAM.

A similar technology from AMD is called Crossfire (see above). The main difference between these technologies is that SLI is more demanding on compatibility: it only works on video cards with the same GPU models (although other parameters — the manufacturer, the amount and frequency of video memory, etc. — may be different). In addition, video adapters in an SLI bundle must be connected with a cable or a bridge (the only exceptions are some low-cost models); and support for this technology is somewhat more expensive than in the case of Crossfire, so it is less common in motherboards (and mostly together...with the solution from AMD).

Number of USB 2.0 connectors provided on the motherboard.

USB connectors (of all versions) are used to connect USB ports located on the front panel of the case to the "motherboard". A special cable connects such a port to the connector, with one connector typically working with just one port. In other words, the number of connectors on the motherboard corresponds to the maximum number of front-facing USB ports that can be used with it.

Specifically, USB 2.0 is the oldest version widely used today. It provides a data transfer rate of up to 480 Mbps, is considered obsolete, and is gradually being replaced by more advanced standards, primarily USB 3.2 gen1 (formerly USB 3.0). Nevertheless, quite a bit of peripherals are still produced for the USB 2.0 interface, as its capabilities are quite sufficient for most devices that do not require high connection speeds.

The number of USB 3.2 gen1 connectors provided on the motherboard.

USB connectors (of all versions) are used to connect USB ports located on the external side of the case to the "motherboard" (usually on the front panel, less often on the top or side). Such a port is connected to the connector with a special cable, and usually, one connector works only with one port. In other words, the number of connectors on the motherboard corresponds to the maximum number of USB ports that can be used with it. It should be noted that in this case we are talking about traditional USB A ports; connectors for the newer USB C are mentioned separately in the specifications.

As for the specific version USB 3.2 gen1 (previously known as USB 3.1 gen1 and USB 3.0), it provides a data transfer speed of up to 4.8 Gb/s and higher power delivery than the earlier USB 2.0 standard. At the same time, USB Power Delivery technology, allowing for power delivery up to 100 W, is generally not supported by connectors of this version for USB A (although it may be implemented in connectors for USB C).

Number of USB 3.2 gen2 connectors provided on the motherboard.

USB connectors (of all versions) are used to connect USB ports located on the external side of the case (usually on the front panel, less often on the top or side) to the "motherboard". A special cable connects such a port to the connector, and one connector typically works with only one port. In other words, the number of connectors on the motherboard corresponds to the maximum number of case USB ports that can be used with it. Note that in this case, we are talking about traditional USB A ports; connectors for the newer USB C are mentioned separately in the specifications.

As for the specific version of USB 3.2 gen2 (formerly known as USB 3.1 gen2 and USB 3.1), it operates at speeds up to 10 Gbps. Moreover, such connectors may support USB Power Delivery technology, which allows providing up to 100 W of power output to a port; however, this function is not mandatory and its availability should be confirmed separately.

The number of native USB 3.2 gen1 connectors provided on the back of the motherboard. In this case, traditional, full-size USB A ports are meant.

USB 3.2 gen1(formerly known as USB 3.1 gen1 and USB 3.0) is a direct successor and development of the USB 2.0 interface. The main differences are a 10-fold increase in the maximum data transfer rate — 4.8 Gbps — as well as higher power supply, which is important when connecting several devices to one port through a splitter (hub). At the same time, peripherals of other versions can be connected to this connector.

The more connectors provided in the design, the more peripheral devices can be connected to the motherboard without the use of additional equipment (USB splitters). There are boards on the market that have more than 4 USB 3.2 gen1 ports on the back panel. At the same time, we note that in addition to the connectors on the rear panel, connectors on the board itself (more precisely, ports on the case connected to such connectors) can also provide a USB connection. See below for more on this.