Gigabyte X870 Aorus Elite X3D Ice VS MSI MAG X870E Tomahawk Max Wi-Fi PZ

At the platform level, the Gigabyte X870 Aorus Elite X3D Ice and the MSI MAG X870E Tomahawk Max Wi-Fi PZ are built on identical foundations: both use the AM5 socket with the X870 chipset, adopt the standard ATX form factor, and are designed without an integrated CPU or GPU. This means neither board locks you into a specific processor — both are fully compatible with the current AMD Ryzen 7000 and 9000 series lineup, and the X870 chipset ensures PCIe 5.0 support and overclocking headroom for power users.

Their feature sets are equally matched across every connectivity and usability dimension that matters. Both include Wi-Fi 7 (802.11be) — the latest standard, offering dramatically improved throughput and lower latency over Wi-Fi 6E — paired with Bluetooth 5.4 for stable peripheral connections. Both boards are flagged as easy to overclock and easy to reset the BIOS, and both include RGB lighting. Neither offers dual BIOS, which is a minor omission for those who frequently experiment with firmware.

The physical dimensions are effectively identical — a difference of just 0.2 mm in both height and width — and both carry a 3-year warranty. Based strictly on the general specs, these two boards are in a dead heat: there is no meaningful differentiator in this category, and neither product holds an advantage here. The decision will need to rest on other spec groups such as connectivity, power delivery, or memory support.

The memory configurations of these two boards share the same structural foundation: both support DDR5 across 4 slots in a dual-channel arrangement, with a 256GB maximum capacity. For most users, this means identical practical flexibility — four populated slots of 64GB DDR5 modules gets you to the ceiling on either board, and dual-channel bandwidth is the standard expectation at this tier.

Where things diverge is in the speed story, and it cuts both ways. The MSI MAG X870E Tomahawk Max has a higher rated native maximum of 5600 MHz versus the Gigabyte's 5200 MHz, meaning it can run faster memory out of the box without relying on XMP/EXPO profiles. However, the Gigabyte X870 Aorus Elite X3D Ice flips the script when overclocking enters the picture — its maximum overclocked speed reaches 9000 MHz, compared to 8400 MHz on the MSI. That 600 MHz gap at the extreme end is meaningful for enthusiasts chasing peak memory bandwidth, particularly when paired with memory-sensitive workloads or AMD's 3D V-Cache processors.

The conclusion here depends on your use case. For plug-and-play performance with high-speed kits, the MSI holds a slight everyday edge. For enthusiasts pushing the absolute limits of DDR5 overclocking, the Gigabyte has the higher ceiling. Neither supports ECC memory, so workstation-class reliability is off the table for both.

At the high-performance end of the I/O panel, these two boards are essentially mirrors of each other. Both offer 2x USB 4 (40Gbps) and 2x Thunderbolt 4 ports — a combination that enables blazing-fast external SSDs, high-resolution displays, and daisy-chaining of professional peripherals. Paired with a shared USB 3.2 Gen 2 Type-C and two Gen 2 Type-A ports, neither board leaves enthusiasts wanting for modern, high-bandwidth connectivity.

The real difference lies in how each board handles its lower-speed USB allocation. The Gigabyte X870 Aorus Elite X3D Ice gives you 4x USB 3.2 Gen 1 ports alongside just 1x USB 2.0, while the MSI MAG X870E Tomahawk Max flips that balance: only 3x USB 3.2 Gen 1 but 4x USB 2.0. In practice, USB 2.0 is perfectly adequate for keyboards, mice, and dongles, so the MSI's approach suits users with many legacy peripherals. The Gigabyte trades that legacy density for an extra Gen 1 port running at up to 5Gbps — more useful if you're connecting moderately fast storage or hubs.

Taken together, the port selection is too close to declare a clear winner. The Gigabyte has a marginal edge for users who prioritize faster low-tier USB ports, while the MSI better accommodates a crowded desk of older USB devices. For most builders, neither difference will be the deciding factor.

Internal connectivity is nearly a carbon copy between these two boards — both pack 4x M.2 sockets, 8 fan headers, identical internal USB expansion headers, and a TPM connector. The M.2 count is worth underlining: four sockets is generous at this tier and means most users will never need to touch a SATA drive for primary or secondary storage, since NVMe SSDs offer substantially higher throughput than anything SATA can deliver.

That said, the one concrete differentiator here matters to a specific type of builder. The MSI MAG X870E Tomahawk Max provides 4x SATA 3 connectors, while the Gigabyte X870 Aorus Elite X3D Ice offers only 2x SATA 3. For a system that leans entirely on M.2 storage, this gap is irrelevant. But for anyone running a NAS-adjacent build, housing multiple HDDs for bulk storage, or needing to connect optical drives and SATA SSDs simultaneously, the MSI's doubled SATA count provides meaningfully more flexibility without requiring an add-in controller card.

On the whole, the MSI holds a clear edge in this category purely on the strength of its SATA 3 advantage. The Gigabyte is not deficient for modern builds, but builders with legacy drives or high-capacity spinning disk arrays will find the MSI a more accommodating platform.

Both boards center their expansion layout around a single PCIe 5.0 x16 slot — the current-generation standard for discrete GPUs, delivering up to 128GB/s of bandwidth. This is the right call for a high-end AM5 platform, and neither board compromises on that primary slot. A shared PCIe x4 slot rounds out the common ground, useful for add-in cards like capture devices, 10GbE NICs, or additional NVMe controllers.

The only divergence is the MSI MAG X870E Tomahawk Max adding a PCIe x1 slot, which the Gigabyte omits entirely. While x1 slots have become less critical as more functionality moves to M.2 and the chipset, they still serve a practical purpose for low-profile cards — USB expansion controllers, sound cards, or legacy hardware. Builders with even one such card in their plans will find the MSI more accommodating without any workarounds.

For the vast majority of single-GPU gaming or workstation builds, the slot layout of both boards is functionally equivalent. The MSI earns a narrow edge here solely due to that additional PCIe x1 slot, which adds flexibility without any apparent trade-off.

On-board audio is one area where neither board attempts to outdo the other — every measurable spec is identical. Both deliver a 120 dB signal-to-noise ratio from their DAC, support 7.1 surround sound, include an S/PDIF optical output, and offer the same count of analog audio connectors. A 120 dB SNR is genuinely good for integrated audio, sitting at the threshold where most listeners using quality headphones or bookshelf speakers would struggle to perceive noise artifacts under normal listening conditions.

The S/PDIF output is a useful addition for both boards, enabling a clean digital handoff to external DACs, AV receivers, or soundbars without any signal degradation from the analog path. For users who route audio through such a device anyway, the onboard analog performance becomes largely academic.

This category is an unambiguous tie. There is no data here to distinguish one board from the other, and neither holds any audio advantage. Users with demanding audio requirements should factor in a dedicated sound card or USB DAC regardless of which board they choose.

RAID support is identical across both boards, and the lineup is a solid one for a consumer-grade platform. RAID 0, 1, 5, and 10 are all supported, covering the full spectrum from pure performance striping (RAID 0) to redundancy-focused mirroring (RAID 1) and the more sophisticated parity-based protection of RAID 5. RAID 10, combining striping and mirroring, is the go-to for users who want both speed and fault tolerance without the write-penalty overhead of RAID 5.

Neither board supports RAID 0+1, though this is a negligible omission — RAID 0+1 is functionally superseded by RAID 10 in almost every practical scenario, and its absence is standard across consumer motherboards. Any builder considering redundant storage arrays will find RAID 10 or RAID 5 more than sufficient here.

With no differences whatsoever in RAID capability, this category is a complete tie. Both boards serve multi-drive storage scenarios equally well, and neither offers an advantage for users planning any conventional RAID configuration.