NZXT H2 Flow: Easy Small Form Factor PC Case Build

NZXT H2 Flow Overview

• 💡 The NZXT H2 Flow is a new small form factor (SFFF) PC case, measuring 20.7 liters, designed for compatibility and a compact desk footprint.
• 🎯 Its vertical design reduces desk depth usage, making it space-efficient despite being slightly larger than the typical 20L SFFF cutoff.
• 🛠️ The case features a split side panel with tempered glass and a porous mesh, with similar mesh on the front, back, and top for excellent airflow.

Design and Accessibility

• ✅ Panels are easily removed with detents, making the case simple to work in for an SFFF build.
• 📦 The accessory box includes zip ties and screws for essential components, and two 120mm fans are pre-installed for top exhaust.
• 🔌 Front I/O includes two USB-A ports, one 20 Gbps USB-C port, and a combo headphone/microphone jack, though the cables are notably long.

Component Support & Cooling

• 🚀 It supports triple slot GPUs up to 330mm in length and includes a Gen 5 riser cable.
• 🧊 The front radiator mount accommodates up to 60mm of depth for fans and radiators, and is removable for easy installation.
• 🌬️ While designed with liquid cooling in mind, air cooling is limited to low-profile CPU coolers due to a 75mm clearance.

Building Experience

• ⚙️ The sandwich-style layout places the motherboard/PSU on one side and the GPU on the other, aiding in organization.
• 💡 NZXT thoughtfully labels screw types for specific components, simplifying the build process.
• ⚠️ Cable management can be challenging due to long cables and the need to access PCIe slot covers from inside the case, especially with delicate Gen 5 PCIe cables.

Final Impressions

• ✨ The case is considered relatively easy to build in for an SFFF, thanks to ample space and removable panels.
• 🎨 A darkened side panel effectively conceals cable clutter, allowing RGB components to stand out.
• 💰 Priced at $150, it's a competitive option for an SFX case, offering a good balance for users with larger components who want to transition to SFF without extreme compromises.