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  1. Is Your Data Center Ready for Liquid Cooling? A Practical Checklist

    Supermicro liquid-cooled GPU racks with in-row CDU
    Liquid cooling 10-point checklist CDU · facility water · L2A GPU racks 100 kW+

    GPU racks now draw well over 100 kW, far beyond what most air-cooled rooms were built for. Before your first liquid-cooled rack arrives, check heat load, heat rejection, CDUs, piping, leak detection and operations — here is the practical checklist.

    Choose the right route

    In-rack, in-row or sidecar

    Choose the right CDU for one rack, a full row or a room without facility water.

    Readiness review

    Room to rack

    A preliminary readiness result, the likely cooling route and an indicative Supermicro hardware scope.

    Read more »
  2. NetApp and Supermicro: Validated AI Infrastructure That Keeps GPUs Fed

    Supermicro HGX B300 GPU server and NetApp AFX storage for validated AI infrastructure
    NetApp + Supermicro Keep GPUs fed HGX B300 · B200 · RTX PRO 6000 NVA-1188

    GPUs only earn their money while they work — and too often they wait for data. NetApp and Supermicro now offer jointly validated AI infrastructure: Novus, AIPod and a reference design with Supermicro HGX B300, HGX B200 and RTX PRO 6000 servers. Here is what it includes and how to size it.

    Validated as one system

    32 to 256 GPUs

    Scalable units of four Supermicro servers with NVIDIA Spectrum-X and NetApp AFX storage.

    Size it right

    Compute + network + storage

    We plan the whole data path, with EMEA availability and lead time.

    Read more »
  3. Supermicro JumpStart: Test-Drive HGX B300, B200 and AMD Instinct Servers for Free

    Supermicro SYS-822GS-NB3RT HGX B300 server available in JumpStart
    Supermicro JumpStart Free remote testing HGX B300 · B200 · MI355X SSH · VNC · IPMI

    Book a real Supermicro GPU or CPU server, log in from your browser and run your own workloads on it — free. Here is how JumpStart works, which systems you can test today, and how to turn a good test into a delivered system.

    Test before you buy

    20 systems, €0

    From NVIDIA HGX B300 and AMD Instinct MI355X to Xeon 6 and EPYC 9005 servers.

    Then build it

    Configured for EMEA

    Send us your results — we quote the matching configuration with lead time.

    Read more »
  4. Supermicro NVIDIA Blackwell Platform Guide: HGX B300, GB300 NVL72 and HGX B200 Compared

    Row of Supermicro NVIDIA Blackwell racks
    NVIDIA Blackwell & Blackwell Ultra HGX B300 · GB300 NVL72 · HGX B200 Air · DLC-2 · OCP 32–144 GPUs per rack

    Ten rack-ready Supermicro building blocks share one GPU generation, but not the same rack, power or cooling needs. We compare HGX B300 in 4U, 8U and 2-OU, GB300 and GB200 NVL72, GB200 NVL4 and HGX B200 — and show which one fits your room.

    Blackwell Ultra

    288 GB HBM3e per GPU

    HGX B300 also doubles networking to 800 Gb/s per GPU with ConnectX-8 SuperNICs.

    Pick by your room

    Air, DLC-2 or OCP

    From 32 GPUs per air-cooled rack to 144 in a 48-OU OCP rack — and NVL72 even without facility water.

    Read more »
  5. On the Road in 2026: Where We’ve Been and Where to Meet Us Next

    SERVER SIMPLY on tour in 2026: TalTech stage, a waving robot, our Helsinki stand, trail e-bikes and a liquid-cooled rack
    On the road 2026 Tallinn · Riga · Helsinki RIGA COMM · Hall 2, D5 Future Data Summit · S2

    Stands in Tallinn and Helsinki, a data centre opening in Riga, a robot that stopped to wave at us, a trail e-bike ride in the rain and NVIDIA Vera Rubin NVL72 up close. Here’s where we’ve been in 2026 — and where to meet us next.

    Where we’ve been

    6 stops since March

    TELEVENT 10, the Delska DC1 opening, TalTech Innovation Festival, a day out with Telegrupp and Network Tomorrow, the Nordics summit in Helsinki and Vera Rubin up close.

    Where to meet us next

    Riga D5 · Helsinki S2

    RIGA COMM, 8–9 October, and Future Data Summit, 27–28 October. Book a slot at [email protected].

    Read more »
  6. Supermicro Front I/O: Servicing NVIDIA HGX B200 Nodes from the Cold Aisle

    Supermicro SYS-422GS-NBRT-LCC 4U liquid-cooled HGX B200 server with all I/O at the front
    NVIDIA HGX B200 4U DLC-2 liquid or 8U air Front I/O Cold-aisle service

    In a dense liquid-cooled node the back of the chassis is full: coolant hoses with quick disconnects, 6,600 W power supplies and fan modules. Supermicro moved networking, storage and management to the front, so NICs, DPUs, E1.S drives and IPMI are all reachable from the cold aisle — no work next to live coolant lines.

    Why it matters

    Service without entering the hot aisle

    A drive swap, a NIC replacement or a fabric change takes minutes from the front, on a running rack. At cluster scale that is uptime, not convenience.

    Rack count

    5 racks instead of 9

    The same 32-node Blackwell scalable unit: 4U liquid-cooled in five racks, 8U air-cooled in nine. Same servicing model either way.

    Read more »
  7. Supermicro AS-1115S-FDWTRT: 84 AMD EPYC 8005 Cores at the Edge, No GPU

    AMD EPYC 8005 server processor for the Supermicro AS-1115S-FDWTRT 1U edge server
    84 cores, no GPU 1U · 429 mm deep DC power, front I/O AMD EPYC 8005

    The opposite answer to last week’s four-GPU edge server: up to 84 AMD EPYC cores in a short-depth 1U box, and no accelerator cards at all.

    Why it matters

    Cores instead of cards

    No accelerator means less power, less heat and one less thing to fail at a site nobody visits.

    Inside the guide

    CPU route or GPU route?

    Quick decision table, specs, what it is not for, and when you still need a GPU.

    Read more »
  8. Supermicro SYS-212GB-NR: 1,468 TOPS of Edge AI in 2U

    Supermicro SYS-212GB-NR 2U edge AI server with four double-width PCIe 5.0 GPU slots
    1,468 TOPS in 2U 4 × double-width PCIe 5.0 Intel Arc Pro or NVIDIA RTX PRO 900 mm deep

    Four double-width GPUs in 2U — twice the accelerator capacity of anything else in Supermicro’s Intel edge line-up. Built for sites where inference has outgrown small boxes but still cannot move to a public cloud region.

    Why it matters

    Consolidation, not benchmarks

    One node replaces the accelerator capacity of four single-GPU boxes, and with it four things to power, cool, patch and support at every site.

    Inside the guide

    What decides it before TOPS does

    Quick decision table, the 900 mm cabinet trap, Intel Arc Pro versus NVIDIA RTX PRO, five costly mistakes, and what to send us for a configuration review.

    Read more »
  9. Throughput per Megawatt: AI Factory Economics for NVIDIA Vera Rubin NVL72

    AI factory racks serving concurrent AI agents within a fixed power envelope
    Up to 30× throughput per megawatt Up to 35× lower cost per million tokens Measured on SemiAnalysis AgentX Agents use 15× the tokens of a chat request

    If your grid connection is fixed, megawatts are your scarcest resource — and throughput per megawatt is the metric that decides how much AI business your existing envelope can carry. NVIDIA measured Vera Rubin NVL72 against GB300 NVL72 on recorded agentic coding sessions, not single-prompt benchmarks. But the 30× is not one number: it widens from roughly 2× to 30× as interactivity rises, and where your product sits on that curve changes which platform is economically correct.

    Why it matters

    Capacity and margin, not benchmarks

    Throughput per megawatt sets how much you can produce inside a fixed power contract. Cost per million tokens sets what you keep on every request served.

    Inside the analysis

    Read before the business case

    Where the efficiency comes from, why chat benchmarks mislead, six common sizing mistakes, the caveats NVIDIA states openly, and what to send us for an assessment.

    Read more »
  10. NVIDIA 800 VDC Power Architecture: Higher Rack Density for AI Factories

    NVIDIA 800 VDC power cabinets and overhead busway in an AI factory rack row
    MGX power rack · H2 2026 No building rewiring 2 MW per rack row from 2027 80+ vendors building to the OCP spec

    NVIDIA's 800 VDC architecture is usually read as a greenfield story. The commercially interesting part is the opposite: the MGX-compatible power rack shipping in the second half of 2026 is designed to drop into halls that are already built, delivering 800 VDC inside the row without touching the building's electrical system. Higher density becomes a row-level equipment decision instead of a multi-year rebuild.

    Why it matters

    Your existing hall is not a write-off

    The limit is not how many watts the building can draw — it is how many conversion stages sit between the grid and the GPU. Fewer stages means more of the power you already pay for reaches the compute.

    Inside the guide

    Which limit binds first

    Quick decision table by situation, the three-stage roadmap with dates, density bands where cooling and power each become the constraint, seven common mistakes, and what to send us for an assessment.

    Read more »
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