A clamshell Raspberry Pi 5 DualOps cyberdeck — field-ready hardware for authorized blue-team and red-team work.
Build a field-ready Raspberry Pi 5 cyberdeck from the board up — two 7-inch displays, a 1TB NVMe spine, split power rails, and three network lanes in one clamshell deck for authorized blue-team capture, red-team simulation, and field forensics. Seat each part in the drawing below, then wire, test, and commission it.
Click balloon 01 to seat it into Compute bay.
Sixteen steps from a bare board to a commissioned deck: 15 core stages plus one optional AI tradeoff. Work top to bottom — each step states its goal, actions, and pass criteria.
Prove the Pi 5 is healthy before it disappears into the chassis.
“Seat the brain before you build the body.”
Pass — Pi boots, outputs video, accepts input, reaches the network, holds a stable temperature.
Make NVMe the main boot and data path.
“NVMe is the spine. microSD is only the parachute.”
Pass — System boots from NVMe and exposes the expected capacity.
Create a clean operational storage model that contains dirty data.
“Separate evidence, labs, reports, and scratch. Dirty data stays contained.”
Pass — Encrypted volumes mount only after authentication; every path is clearly labeled.
Build a stable thermal and mechanical foundation.
“Heat kills field gear. Airflow is a component.”
Pass — Pi idles and loads within thermal limits with no cable interference.
Stop displays, radios, hubs, and storage from fighting over power.
“One weak rail makes the whole deck unreliable. Split the load.”
Pass — Deck stays stable with both displays, NVMe, keyboard, Ethernet, and radios attached.
Give the operator physical control over major subsystems.
“Software profiles are nice. Physical switches are decisive.”
Pass — Each switch visibly and electrically controls its assigned subsystem.
Create a two-screen clamshell workstation.
“Left screen controls the deck. Right screen does the work.”
Pass — Both screens initialize reliably and hold correct orientation.
Support both mobile and serious typing workflows.
“The mini keyboard is for movement. The mechanical board is for work.”
Pass — All input devices work without interfering with Wi-Fi or USB storage.
Create separate management, capture, and wireless lanes.
“Three network lanes: manage, capture, radio.”
Pass — Each interface has a stable name, a visible role, and a clear profile assignment.
Expose essential state without opening a dashboard.
“Status belongs on hardware, not buried in a menu.”
Pass — OLED updates reliably and stays readable in field lighting.
Improve field metadata and offline time accuracy.
“Bad timestamps ruin evidence. Fix time before field work.”
Pass — Offline boot has correct time; GPS status is visible only when enabled.
Make strong authentication part of the physical deck.
“The key is part of the machine. No key, no operator state.”
Pass — Admin and sensitive workflows require the token where appropriate.
Run multiple operational postures from one deck.
“Five postures. One deck. Different power, tools, and stance.”
Pass — Operator can boot or switch into the right profile without reconfiguration chaos.
Build a structured tool environment, not a junk drawer.
“Install by role, not by hype. Every tool needs a mode and a purpose.”
Pass — Tool directories are organized, documented, and recoverable.
Make the deck field-repairable and hard to brick.
“Recovery is not optional. A field deck needs a parachute.”
Pass — Operator can restore from documented media without guessing device names.
Decide whether AI hardware belongs in this exact deck.
“AI is optional. NVMe is core. Do not trade the spine for a gimmick.”
Pass — Operator understands and accepts the tradeoff before seating the optional module.
Common questions about building and operating a Raspberry Pi 5 cyberdeck.
The NIGHTJAR FD-5 is a clamshell Raspberry Pi 5 DualOps cyberdeck — a field-ready hardware deck built for authorized blue-team and red-team work. It pairs two 7-inch displays, NVMe-first storage, split power rails, and multiple network interfaces in a single buildable chassis, and this guide walks the assembly socket by socket.
The 16GB Raspberry Pi 5 gives the deck enough memory for GUI work, browsers, packet-capture tools, local databases, containers, and multi-pane workflows at once. Less RAM forces compromises the moment you run a proxy, a browser, and a capture pipeline together, so 16GB is the practical floor for a dual-display operations deck.
NVMe is the spine. The build flashes the operating system and encrypted data partitions to a 1TB M.2 NVMe SSD and keeps the microSD strictly as rescue media. NVMe is faster and far more reliable than an SD card for sustained capture and database work, and a labeled rescue card is the parachute if the main drive ever fails.
No — the AI HAT+ 2 is a deliberate optional tradeoff, not a core part. The cleanest architecture keeps the single PCIe lane dedicated to the NVMe drive, so the guide flags a conflict when you seat both. If local inference matters more than clean storage, accept the redesign and move AI to USB, a networked workstation, or remote inference instead.
Displays, radios, USB hubs, and storage all draw current in bursts. Putting them on one rail causes brownouts that look like random crashes. The FD-5 splits power into Rail A (Pi + NVMe), Rail B (displays), and Rail C (accessories), with physical switches so a weak subsystem never destabilizes the whole deck.
The FD-5 is a dual-use operations deck for authorized work only: cybersecurity education, lab validation, internal assessment, blue-team capture, red-team simulation, field forensics, and wireless auditing inside owned or explicitly permitted environments, CTFs, and cyber ranges. Red Mode stays unarmed until engagement scope is loaded and verified, and every target in this guide is a fictional owned-lab asset.
The deck boots five postures from one build: Blue (defensive capture and analysis), Red (scoped, authorized offense), Forensics (read-only, hash-first, radios cold), Field (low-power, dimmed, long battery), and Lab Beast (full-power bench operation). Each mode powers a different hardware subset and exposes different status fields.