How to Build a Cyberdeck: The Complete 2026 Guide (Parts, Software, and Iconic Builds)

A cyberdeck is a personal portable computer built by hand. It rejects the polished sameness of commercial laptops in favor of exposed hardware, mechanical keys, and a form that says exactly what its builder wanted it to say. Some are pentesting tools. Some are field notebooks. Some are pure aesthetic statements. Some are all three at once. All of them are built, not bought.

This is a complete guide, from the fiction that gave them a name, through the components you need and the choices you have, to a tour of the builds that have defined the movement, all the way to a set of resources deep enough to plan an entire first build from. If you have ever looked at a rig on the internet and thought "I want that but weirder," this is your starting document.

Part One: What a Cyberdeck Actually Is

The word cyberdeck comes from William Gibson's 1984 novel Neuromancer, the foundational text of cyberpunk fiction. In Gibson's world, hackers (called "console cowboys") jack into the global network he named cyberspace using bespoke portable computers called cyberdecks. The most famous fictional model, the Ono-Sendai Cyberspace 7, became shorthand for an entire genre's idea of what a hacker's machine should look like: chunky, customized, and unmistakably personal, more instrument than appliance.

The tabletop role-playing games that followed, particularly Shadowrun (1989) and Cyberpunk 2020 (1990), fleshed the concept out with stats, illustrations, and specifications. By the time real-world makers latched onto the idea in the late 2010s, the cyberdeck had become a recognized DIY category of its own, and a certain kind of person had spent thirty years quietly waiting for the tools to catch up.

William Gibson at his 60th birthday, the writer whose novel Neuromancer coined the term cyberdeck

The modern movement crystallized around 2019, when maker Jay Doscher released his Raspberry Pi Recovery Kit: a ruggedized portable computer built into a Pelican case with a milled aluminum face plate, a 7-inch display, a mechanical keyboard, and an integrated Ethernet switch. It looked like a piece of near-future field equipment because that is what it was. The design spread fast, inspired what the community now calls the "Pelican case craze," and gave a whole aesthetic language a functional template. Doscher has since released multiple revisions, including a Pi 5 version and an Ultra variant that fits a full AMD Ryzen 9 desktop into a Pelican 1607.

A cyberdeck is not a laptop replacement. It sacrifices polish and raw performance for personality, hackability, and a build process that teaches you something about how machines actually work. It is closer in spirit to a synthesizer than to a MacBook: an instrument with opinions, tuned to its owner's use case, built with the knowledge that the next version will be better.

The community is real, active, and welcoming. Cyberdeck.cafe runs a Discord with thousands of active members. Hackaday has run an annual Cyberdeck Contest since 2022, and each year's entries push the form further. Reddit's r/cyberDeck and r/writerDeck are both healthy. Whatever weird thing you want to build, someone has already done a version of it and posted the build log.

Part Two: The Cultural Context (Why Cyberdecks Matter)

Cyberdecks did not appear in a vacuum. They emerged at a specific moment, roughly 2018 to 2020, when three things converged.

The Raspberry Pi finally got fast enough. The Pi 4, released in 2019, was the first hobbyist single-board computer that could genuinely handle a modern Linux desktop for real work. Before that, portable Pi projects were novelties. After, they were legitimate machines.

3D printing became accessible. Prusa and Bambu Lab pushed print quality up and prices down at the exact moment cyberdeck builders needed custom enclosures. A Pelican case face plate that would have cost hundreds of dollars to machine could now be printed at home overnight in PETG for a few dollars in filament.

Something felt wrong with mainstream computing. The 2010s ended with every phone looking identical, every laptop optimized for the same three tasks (video calls, Chrome, and Netflix), and every operating system quietly consolidating around subscription services and forced updates. A generation that had grown up on cyberpunk fiction started asking a question the fiction had answered decades earlier: what if the tools looked and behaved like they belonged to you?

Cyberdecks are the answer. They are a small rebellion against the flat black slab. They are computers you can look at and immediately tell who built them and what for. They are the same instinct that produced the modular synth revival, mechanical keyboard culture, and the resurgence of film photography, applied to computing. The aesthetic is retro-futuristic on purpose: it borrows from the imagined future of 1984 because that future was more interesting than the future we got.

If you build one, you are joining a lineage that includes Gibson's console cowboys, the Shadowrun deckers, the Osborne 1 lugging around a real world portable computer in 1981, and every kid who ever sat at a workbench with a soldering iron and thought "I could make this better."

The Osborne 1 from 1981, one of the first true portable computers and a spiritual ancestor of every cyberdeck

Part Three: Deciding What Your Cyberdeck Is For

Before you buy a single component, answer one question: what is this machine going to do?

The choice matters more than the hardware. It defines everything that comes next: which board you pick, what screen size makes sense, how much battery you need, and what shape the whole thing takes.

A pentesting and security deck runs Kali Linux, focuses on network tools, and benefits from external antennas and Ethernet ports. Think of it as a portable red-team lab.

A writerdeck is a specific and increasingly popular subgenre. It exists to do one thing: get words out of you without letting you get distracted. It usually runs an e-ink display or a low-power LCD, boots directly into a text editor, and often has no browser installed at all. There is a whole subreddit and a dedicated site (writerdeck.org) for this variant. If you are a writer who fights to stay off the internet, this is probably the build for you.

A field notebook or research deck prioritizes battery life, a readable screen in sunlight, and comfortable typing. It might hold an offline copy of Wikipedia, a personal wiki, or a suite of research tools. It is what Gibson's characters would carry to a meet.

A retro gaming or media deck needs more GPU than CPU and often a controller layout instead of a keyboard. RetroPie is your OS.

A conversation piece or cosplay prop can prioritize aesthetics over raw function. If it is going in a Halloween photo shoot, it does not need to run for eight hours on battery.

A survival or off-grid deck loads up on storage, packs an offline copy of Wikipedia (Kiwix makes this easy), maybe adds ham radio or LoRa, and emphasizes ruggedness above all. The community sometimes calls these "apocalypse kits."

A daily-driver dev machine for coding, terminal work, and remote server administration. If ninety percent of your work happens in tmux and vim, a cyberdeck can genuinely replace a laptop.

You can build something that does several of these, but pick a primary use. Trying to make one machine do everything is the fastest way to end up with a project you never finish.

Part Four: Choosing Your Single Board Computer

The single board computer (SBC) is the brain of the cyberdeck. Almost every modern build uses one of the following.

The Raspberry Pi family: from the tiny Zero and Pico to the full-size Pi 5 and Pi 400

Raspberry Pi 5

The current default. The Pi 5 uses a quad-core ARM Cortex-A76 running at 2.4 GHz, delivers roughly two to three times the performance of the Pi 4, and adds a PCIe 2.0 lane that lets you connect an NVMe SSD for proper storage speed. It has a real power button, a dedicated RP1 I/O chip, and supports up to 16GB of LPDDR4X RAM.

For most cyberdeck builds in 2026, the Pi 5 is the right choice. The 4GB or 8GB version hits the sweet spot of price and capability. The 16GB is overkill for most decks but future-proof.

Raspberry Pi 5, the current standard cyberdeck brain

Raspberry Pi 4

Still a valid pick. The Pi 4 draws less power, runs cooler, and is easier to keep happy in a tight enclosure without active cooling. If your build is constrained on power or thermal headroom, or if you find a Pi 4 at a discount, it remains a strong option. Many long-time cyberdeck builders still prefer it and report rarely using more than 2GB of RAM in normal use.

Raspberry Pi Zero 2 W

The lightweight choice. Tiny, wifi-enabled, and about a fifth the size of a Pi 5. Not powerful enough for a modern desktop, but perfect for writerdecks, thumb-typed handheld builds, and single-purpose decks. This is what powers the Penkesu Computer and many of the smallest builds in the community.

Raspberry Pi Compute Module 4 or 5

Strips out the standard ports in favor of a board-to-board connector, which is what you want if you plan to design your own custom carrier board or use a chassis (like the ClockworkPi uConsole) that was designed around one. This is the path most advanced builders take once they have a build or two behind them.

ClockworkPi uConsole

Not technically an SBC, but the closest thing the community has to an off-the-shelf cyberdeck kit. It is a modular, handheld Linux computer with a 5-inch 1280x720 IPS display, a compact QWERTY keyboard, built-in speakers, and an internal battery, and it accepts several different compute cores including the Raspberry Pi CM4 and CM5. Think of it as the shortcut for people who want a working portable Linux machine without cutting a Pelican case. The trade-off is you get less customization and a fixed form factor. Reviewers describe it as somewhere between a portable workstation and a DIY console.

The ClockworkPi uConsole, the closest thing the community has to an off-the-shelf cyberdeck

LattePanda Mu

An x86 board that runs full Windows 11 if you want desktop application compatibility. Costs more and runs hotter than a Pi but opens up software that ARM cannot run. Good for people who need specific Windows tools on the road.

HackberryPi CM5 (from Elecrow, designed by ZitaoTech)

An interesting middle path: an aluminum-chassis pre-designed cyberdeck body that accepts a Raspberry Pi CM5, currently sold for around $168. Faster than the uConsole, easier than a scratch build. Community members have been using it as a Kali platform successfully.

NVIDIA Jetson Nano or Orin Nano

Overkill for most decks, but the right choice if you want to run local AI inference on the machine. If your build is meant to talk to a local LLM in the field, this is your board.

Recommendation for a first build: buy a Raspberry Pi 5, 4GB or 8GB. The community support, software compatibility, and documentation outweigh any specific advantage of the alternatives. When you build number two, you can start experimenting.

Part Five: Picking a Display

After the SBC, the display defines the deck more than any other component. Three things matter.

Size

Five inches is small and portable but cramped for real work. Seven inches is the sweet spot for most builds and what the community recommends as a starting point. Ten inches and up gives you a usable desktop but pushes the whole deck into briefcase territory. Wider aspect-ratio panels (like the 7.9-inch 400x1280 unit Waveshare sells) enable interesting elongated slab builds.

Resolution

Do not go below 1024x600 for your main display. Anything lower makes modern Linux desktop environments painful to use. Lower-resolution panels work fine as secondary screens for system stats or status readouts. Higher resolutions like 1280x800 or 1920x1080 are increasingly common in 7-inch and 10-inch panels and worth the small price premium.

Interface

Most cyberdeck displays use HDMI with separate USB power, which is the simplest and most universally compatible option. DSI (Display Serial Interface) connects directly to the Pi's ribbon cable connector, saves a USB port, and runs cleaner internal wiring but limits you to compatible displays. USB-C with DisplayPort Alt Mode is the cleanest option if your SBC supports it because one cable carries both video and power.

For a first build, a 7-inch IPS HDMI touchscreen at 1024x600 with built-in speakers will cost between 60 and 100 dollars and works with almost every SBC. The iPistBit, JUN-ELECTRON, and HAMTYSAN brands all sell variants of this panel and are common community picks.

If you want touch input, capacitive five-point touchscreens are now standard and require no drivers under Raspberry Pi OS. Touch is genuinely useful in a small form factor where mousing is awkward.

E-Ink Displays

Worth their own paragraph. E-ink displays are the writerdeck standard: they refresh slowly, but they use almost no power, are readable in bright sunlight, and impose a productive slowness on your writing. Waveshare and GoodDisplay both make Pi-compatible e-ink panels in sizes from 4 to 10 inches. If your goal is a distraction-free writing machine, this is the display category to look at.

Part Six: Input (Keyboards and Pointing Devices)

A cyberdeck needs a way to type and a way to point. Both choices have real consequences for the final shape of the deck.

Keyboards

A 60 percent mechanical keyboard is the standard cyberdeck choice. It strips out the function row, arrow cluster, and numpad to save space while keeping the full alpha layout. The HyperX Alloy Origins 60, Keychron K12, Drop/OLKB Planck v7 (used in Jay Doscher's latest Recovery Kit), and countless budget options from MageGee, Snpurdiri, and EPOMAKER all work. Expect to pay between 30 and 130 dollars depending on switches, build quality, and brand.

40 percent keyboards like the Planck go even smaller, drop the number row, and rely on layer combinations. They take a week or two to learn but produce remarkably compact builds. The ortholinear (grid-arranged, non-staggered) layout is the community favorite because it packs into rectangular chassis cleanly.

For ultra-small decks, hand-soldered mechanical keyboards or Blackberry-style thumb keyboards are popular. Search for BBQ20KBD (a Blackberry keyboard breakout board) or the Solder Party Keyboard FeatherWing for a thumb-typing option. The Corne (a split ergonomic) shows up in many creative builds, including Daniel Norris's Chonky Palmtop.

A practical tip from the community: thrift stores and Goodwill regularly stock used mechanical keyboards for 3 to 10 dollars. If your budget is tight, check there before you buy new. IBM Model M keyboards from the 80s are still around and still work.

Pointing Devices

A small USB trackball (the Adesso T30 and Kensington Orbit are the standards) gives you a fixed pointing device that does not need desk space. A trackpad built into the deck is more elegant but harder to integrate. Touch input on the display can replace a pointing device entirely for casual use. Many builders skip a dedicated mouse and lean on touch plus keyboard shortcuts, since a well-configured tiling window manager barely needs a mouse anyway.

For pure terminal builds, no pointer at all is a valid choice. Vim, tmux, and a well-set-up shell get you very far.

Part Seven: Planning Your Power System

This is where many first builds go wrong. Power is the difference between a working portable computer and a tangle of dongles tethered to a wall outlet.

The Simple Path: USB Power Bank

Plug a standard 10,000 to 20,000 mAh USB power bank into the deck. It works, it is safe, and it requires no electrical knowledge. The downsides are that it lives outside the case or eats up internal space, and you have to think about charging two separate things (the deck and the bank).

The Integrated Path: UPS HAT

A UPS (uninterruptible power supply) HAT is a board that mounts directly to the Raspberry Pi's GPIO header, holds one or two 18650 lithium cells, and provides clean 5V to the Pi while handling charging and protection circuitry. Popular options:

The Waveshare UPS HAT (B) uses two 18650s in series for 7.4V nominal and reports battery status over I2C. The Geekworm X1200 is designed for the Pi 5, mounts on the bottom of the board, and supports up to 5A output. The PiSugar is a slim integrated battery and UPS solution popular in smaller builds. The Pimoroni LiPo SHIM is a minimal option for lower-draw builds.

18650 lithium cells, the standard cell format for cyberdeck power

A serious safety note. Avoid no-name Chinese battery management boards. Lithium fires are not theoretical, and a bad UPS in an enclosed plastic case is genuinely dangerous. Stick to known brands like Waveshare, PiSugar, Adafruit's PowerBoost line, and Pimoroni, and read recent community reviews before buying. Your first build should not be your first experience with a lithium fire.

The DIY Path: Custom Power Circuit

For a custom build, you can wire 18650 cells through a TP4056 charging board to an MT3608 boost converter that outputs the 5V the Pi needs. This gives you full control over battery configuration but requires basic soldering and an understanding of how to size protection components. Plan for at least a 3000 mAh capacity to give the Pi its 3A maximum current draw with headroom for a few hours of runtime.

Real Talk on Runtime

A Pi 5 with a 7-inch display draws roughly 8 to 15 watts under typical load. Two 18650 cells at 3000 mAh each give you about 22 watt-hours, which translates to roughly 1.5 to 2.5 hours of real-world use. If you want all-day runtime, plan for four to six cells or a single larger lithium polymer pack in the 10,000 mAh range. A writerdeck on an e-ink display and a Pi Zero 2 W can run for a full working day on a small pack.

Part Eight: Choosing Your Enclosure

The enclosure is what people see. It also decides how the entire build fits together, so think about it before you start cutting.

Pelican and Hard Cases

The community standard since Jay Doscher's Recovery Kit. Pelican cases are watertight, impact resistant, and come in a range of sizes from the tiny 1150 (suited for a small 5-to-7-inch deck) to the 1450 and 1500 for fuller builds. You typically cut the included foam and mount a 3D printed or laser-cut face plate behind the lid to hold the display, controls, and ports.

A Pelican case, the standard cyberdeck enclosure since Jay Doscher's Recovery Kit -Photo by reddit user jtwahl

Common Pelican models for cyberdecks:

1120 / 1150: small, holds a Pi and a 5-to-7-inch display
1200: medium, fits a 7-inch display plus battery
1300: larger, room for keyboard storage and accessories
1400 / 1450: full size, fits a 10-inch display and integrated keyboard
1500 / 1550: briefcase-style with room to spare

Apache (from Harbor Freight), Nanuk, and SKB make functionally identical cases at various price points. Apache in particular is the budget favorite in the community.

3D Printed Custom Enclosures

If you have access to a 3D printer or a printing service, a custom enclosure gives you total control over form. Printables.com, Thingiverse, and Cults3D host hundreds of free cyberdeck STL files. Search for "cyberdeck" and filter by what is compatible with your SBC.

Jay Doscher's original Recovery Kit had a hundred-hour print time. Newer designs are much more reasonable, often in the 20-to-40-hour range across multiple parts. PETG is the recommended filament for cyberdeck cases because it is more impact-resistant and heat-tolerant than PLA. If you do not own a printer, JLCPCB, PCBWay, Craftcloud, and Slant 3D all do mail-order printing at reasonable prices.

Found and Repurposed Enclosures

This is where the most interesting builds come from. The community has built cyberdecks out of:

Vintage briefcases and suitcases from thrift stores
Gutted Commodore 64, Amiga, and TRS-80 shells
Old military radio cases and ammo boxes (US Army Signal Corps parts boxes from the 1950s are a favorite)
Lunch boxes, toolboxes, and tackle boxes
VHS cases and hardback books
Motorola MDT9100 mobile data terminals from decommissioned police cruisers (Trammell Hudson's famous build)

The Compaq Portable, one of the first commercial luggable computers and a design ancestor of the modern cyberdeck

Thrift stores are a goldmine. A leather attache case from Goodwill plus a Raspberry Pi and a 7-inch display gets you a build no one else has.

Materials and Construction Notes

If you are cutting metal or wood, plan for it. Aluminum sheet works well for face plates but needs proper cutting tools. Acrylic is easier to work with but cracks if drilled too aggressively. For most builds, a combination of a Pelican case shell with a 3D printed or laser-cut face plate hits the right balance between ease and result.

Part Nine: Connectivity and Extras

The base components get you a working computer. The extras are what make it a cyberdeck.

USB Hub

A 4-to-7 port powered USB hub mounted internally lets you expose USB-A ports on the face of the deck without burning the Pi's onboard ports for internal connections. Anker, Sabrent, and Plugable all make compact hubs that fit inside most builds.

Ethernet Switch

Jay Doscher's Recovery Kit famously includes a 5-port gigabit switch. If you want a pentesting deck or just like the option of wired networking, a small unmanaged switch (TP-Link TL-SG105 or similar) tucked inside the case adds real capability at low cost.

Wireless: External Antennas and SDR

For Wi-Fi work or any task where you need range, an external antenna with an SMA connector on the case face is invaluable. The Alfa AWUS036ACH and AWUS036NHA are the community standards for high-power wireless adapters.

If you want to go further, a software-defined radio (SDR) like the HackRF One or the more affordable RTL-SDR opens up the whole radio spectrum: ADS-B aircraft tracking, ham radio, satellite reception, and general RF snooping. This is the ham radio / signals intelligence direction, and it turns your cyberdeck into a proper spectrum analyzer.

Storage

The Pi 5's PCIe lane plus an NVMe HAT (Geekworm, Pimoroni, or Pineboards) lets you boot from a proper SSD. This is a massive quality-of-life upgrade over running on an SD card. Expect 500 to 1000 MB/sec real-world speeds and dramatically faster boot, application launch, and package installation. For research and survival builds, a 1TB or 2TB NVMe stores an entire offline library (Wikipedia, Project Gutenberg, the OpenStreetMap planet file) with room to spare.

Cooling

The Pi 5 runs hot under sustained load. The official active cooler works well in open builds. For enclosed cases, plan for at least one 30mm or 40mm fan with intake and exhaust vents, ideally with a temperature-controlled fan controller (the Pimoroni Fan Shim is popular). Some ambitious builders use passive cooling by making the case itself part of the heatsink, bolting the Pi's SoC to a milled aluminum block that transfers heat to the outside of the enclosure. This is beautiful when it works but takes real planning.

Status Indicators and Switches

Add a power LED, a hard power switch, a soft shutdown button, and any toggles for fans or screen backlight. Old-style toggle switches and metal-body illuminated push-buttons are the aesthetic community favorites (search "arcade switches" or "aviation toggle switches"). These small details push a deck from "Pi in a box" to "actual machine."

Part Ten: Choosing Your Operating System

Software is where you tune the deck for its purpose. There are more options than most builders realize.

Raspberry Pi OS

The default. It is a Debian-based distribution maintained by the Raspberry Pi Foundation, has the broadest compatibility with HATs and displays, and works out of the box. For a general-purpose cyberdeck, this is where to start. The Bookworm release from late 2023 and its 2024-2026 updates are polished, stable, and support the Pi 5's hardware fully.

Kali Linux

The security and penetration-testing distribution. It comes preloaded with hundreds of security tools and has official Raspberry Pi images maintained by Offensive Security. For a security-focused deck, Kali is the standard choice. The 2026 Pi 4 and Pi 5 builds are well polished, and Pi 4 with 4GB+ RAM is the recommended minimum for running Kali with the XFCE desktop comfortably.

One practical note: Kali is designed for "boot in, do the work, dispose" use. For daily-driver use, prototype on Raspberry Pi OS first and switch to Kali once you know what tools you actually need. Or run both, keeping Kali on a separate SD card you swap in when needed.

DietPi

The minimalist choice. DietPi is an ultra-lightweight Debian derivative built specifically for SBCs, and it strips the OS down to almost nothing so you can install only what you need. Excellent for low-resource decks, writerdecks, and any build where battery life is critical. It also has a smart tool called dietpi-software that automates the installation of common packages, which is a real quality-of-life win.

Ubuntu MATE or Ubuntu Server

If you want a more conventional Linux desktop or a server-style headless setup, Ubuntu's ARM images run cleanly on the Pi 4 and 5. Ubuntu MATE gives you a full-featured desktop that feels more like a Mac or Windows environment than the Raspberry Pi OS default.

Twister OS

A Pi-specific distribution with multiple themed desktops (Windows XP, macOS, retro) built in. Polarizing but genuinely fun for aesthetic-focused builds, and it comes with retro gaming pre-configured. If your deck is meant to look like a computer from a different decade, Twister OS gets you there without much configuration.

writerdeckOS and Micro Journal PC Edition

Purpose-built writerdeck distributions. writerdeckOS is a Debian-based Linux distribution for x86 with the mantra: "No distractions. No internet. No apps. No games. No social media. Just writing." Micro Journal PC Edition is a similar purpose-built distribution for lightweight machines. If your deck is a writerdeck, these are worth trying before you build your own boot-into-text-editor setup.

RetroPie / Batocera / Lakka

The three retro gaming distributions. RetroPie is the most flexible, Batocera is the easiest to set up, Lakka is the leanest. If your deck is a portable emulation station, pick one and go.

Home Assistant OS

Purpose-built for running the Home Assistant smart home platform. Not typical for a cyberdeck, but there is a small subgenre of "sysadmin decks" that people carry to their home server closet, and this OS fits.

Windows 11 (on x86 boards)

If you went with a LattePanda Mu or similar x86 SBC, you can run a full Windows 11 install with all the application compatibility that implies. Not fashionable in the community, but sometimes the right answer.

FreeBSD / OpenBSD

For the deeply committed. Both run on Pi hardware, both have strong security stories, and both will make your deck feel like it came out of a different timeline. Not recommended for a first build, extremely appropriate for build number four.

For most first builds, install Raspberry Pi OS, get everything working, then experiment with other distributions once the hardware is solid. You will change your mind about the OS approximately six times.

Part Eleven: A Tour of Iconic Builds

You are not designing from scratch. The community has already built almost every variation you could think of, and studying those builds is the fastest way to figure out what you want yours to be.

Jay Doscher's Recovery Kit series (2019-present)

The build that started the modern movement. A Raspberry Pi in a Pelican case with a machined face plate, integrated Ethernet switch, and military-connector aesthetic. Every subsequent version has refined the formula. The V2 uses a Pi 5 and a Planck keyboard, the Recovery Kit 2B drops back to the Pi 4 for simpler wiring, the Nano is a 5-inch desk-buddy variant, and the Recovery Kit Ultra fits a full AMD Ryzen 9 desktop with an RTX 5080 into a Pelican 1607, arguably the most-copied cyberdeck design in existence.

Sites and files: jaydoscher.com (project index, STL subscription), Hackaday coverage, and Hackster.io coverage of the V2 launch.

The Penkesu Computer (Penk Chen)

Small, elegant, clamshell. Named after the Japanese word for pencil case, which is exactly what it looks like. Built around a Raspberry Pi Zero 2 W with a 7.9-inch ultrawide 1280x400 touchscreen and a 48-key low-profile ortholinear mechanical keyboard. The hinges are repurposed from a Game Boy Advance SP. The design has spawned dozens of inspired remixes.

Sites and files: penkesu.computer (project site with build guide) and github.com/penk/penkesu (STL files, BOM, keyboard firmware).

The Chonky Palmtop (Daniel Norris)

A palmtop-form-factor cyberdeck built around a Pi 4 with a 7-inch touchscreen and an integrated Corne split keyboard that swings out on a clever pivot mechanism. About the same footprint as an old Asus EEE 701, but much thicker (hence "chonky"). Runs Miryoku firmware for keyboard-only mouse emulation. It looks like something a hacker in a 90s anime would carry.

Sites and files: github.com/a8ksh4/chonky-palmtop (STLs, BOM, wiring notes) and Hackaday coverage.

THEBRICK

A Pi 4 build with a 7.9-inch wide screen and a Planck keyboard, notable for being one of the first fully custom 3D-printed cyberdeck enclosures to see wide replication.

Files and coverage: Thingiverse listing and kbd.news feature.

Trammell Hudson's Motorola MDT9100 conversion

Hudson gutted a real Motorola MDT-9100T (a mobile data terminal originally installed in police cruisers in the 90s, with an amber CRT that looks straight out of Fallout) and built a modern Linux machine into the shell using a BeagleBone Black. He kept the original keyboard and CRT, reverse-engineered the LVDS video timings, and wrote a custom Teensy-based HID interface for the matrix keyboard. The result looks completely period-authentic and even runs Doom and the Fallout 4 Pip-Boy app.

Sites and files: trmm.net/MDT9100 (full technical writeup), github.com/osresearch/mdt9100 (source code), and Hackaday coverage.

The uConsole (ClockworkPi)

Not a DIY build but the closest thing to a ready-made cyberdeck: a modular handheld with a QWERTY keyboard, 5-inch 1280x720 IPS screen, integrated battery, and a slot for a Raspberry Pi Compute Module (CM4 or CM5) or several other SBC options. Around 220 to 280 dollars depending on core. If you want a working portable Linux machine this weekend and are willing to skip the "built it myself" side, buy one.

Sites and coverage: clockworkpi.com/uconsole (official), Mobile Hacker review (detailed hands-on with Kali, Ubuntu, Arch), and the ClockworkPi community forum.

The HackberryPi CM5 (ZitaoTech / Elecrow)

An aluminum-chassis pre-designed cyberdeck body that accepts a Raspberry Pi CM5, sold around $168. Faster than the uConsole and with a cleaner build process for people who want to go straight to using it with Kali. STL files for the 3D-printed center panel are open source, so builders can easily add features like external Wi-Fi antennas.

Sites and coverage: ZitaoTech GitHub (design files) and the Eclypsium HackberryPi build writeup (Kali installation walkthrough).

The Cyberdeck Red (Gabriel)

A packed-to-the-gills electronic hacking deck that took second place in the 2022 Hackaday Cyberdeck Contest and returned in an even more capable V2 in 2023. Includes an integrated Digilent Analog Discovery 2 (oscilloscope, function generator, logic analyzer, spectrum analyzer, and impedance analyzer all in one), a Great Scott Gadgets HackRF One SDR, a small projector on an articulated mount, and magnetically-attached breadboards for impromptu prototyping. The V2 swapped the Raspberry Pi 4 for a LattePanda 3 Delta running Windows.

Sites and files: Hackaday.io project page (V1) and V2 project page.

The Cyberdore 2064 (Tommi Laukkanen)

A super-lightweight, mostly-handheld PC built around a Raspberry Pi Zero, a supplementary Pi Pico, a low-resolution 128x64 pixel OLED, a built-in keyboard, and an oversized KY-040 rotary encoder for scrolling. The scroll wheel alone puts it on the list, and the whole thing is designed to actively discourage doomscrolling.

Sites and files: codeof.me (Tommi Laukkanen's site) and Printables listing (search "Cyberdore 2064").

The Typeframe PS-85 and PX-88 (Jeff Merrick)

Retro-industrial writerdecks with 40 percent and 65 percent mechanical keyboards, custom keycaps, and enclosure designs deliberately inspired by early-80s Epson portable computers. The PS-85 leans into an Alien movie aesthetic with themed keycaps.

Sites and coverage: Raspberry Pi feature on the Typeframe PS-85 and Jeff Merrick's build documentation.

The Lisperati1000 (drcode)

A cyberdeck specifically designed for writing Lisp code, because of course someone built that. Compact, keyboard-forward, and running an environment tuned for parenthesis.

Sites and files: github.com/drcode/lisperati1000 (build files) and kbd.news feature.

The Micro Journal series (Un Kyu Lee)

A dedicated writerdeck series that has reached four generations. The latest is ESP32-powered, boots instantly, and has a hand-wired 30 percent ortholinear keyboard with a 2.8-inch color ILI9341 LCD. It is one of the most refined single-purpose writing machines the community has produced, and Un Kyu Lee sells custom-built units to writers who want the experience without doing the build themselves.

Sites and files: github.com/unkyulee/micro-journal (all four generations) and Hackaday coverage.

Studying five or six of these before you start your own build will save you from making the mistakes their creators already made and documented.

Part Twelve: Realistic Budget Tiers

What you actually spend depends on what you already have on hand and how much you find used. Rough new-cost ranges:

Entry build ($150 to $300): Raspberry Pi 4 2GB, 7-inch HDMI display, budget mechanical keyboard, USB power bank, thrift store enclosure. Functional but rough. A great first build.

Standard build ($400 to $700): Raspberry Pi 5 4GB, 7-inch IPS touchscreen, decent 60 percent mechanical keyboard, UPS HAT with 18650 cells, Pelican 1150 case with custom face plate, NVMe SSD with HAT. The community sweet spot.

Premium build ($800 to $1500): Pi 5 16GB or LattePanda Mu, 10-inch high-resolution display, custom-printed enclosure, Drop/OLKB Planck keyboard, integrated battery with 6+ hours runtime, full port array, external antennas. Approaching the cost of a real laptop, but doing things a laptop cannot.

Doscher tier ($2000+): Custom 3D-printed parts that take 100+ print hours, milled aluminum face plates, military-spec connectors, integrated Ethernet switch, full desktop hardware. A statement piece.

If money is tight, start at the entry tier. The lessons transfer directly upward.

Part Thirteen: Assembly Process

With all your parts in hand, the assembly proceeds roughly like this.

1. Prototype on the bench first. Before you cut or print anything, lay all your components out on a table and wire them up loose. Connect the Pi to the display, plug in the keyboard, attach the UPS HAT and battery, install the OS, and confirm everything works as a unit. Diagnosing problems is exponentially easier when nothing is bolted down.

2. Plan your layout. Sketch where each component will sit inside your enclosure. Account for cable runs, port access, and ventilation. If you are using a Pelican case, lay components on the foam first and mark cutouts before you commit.

3. Prepare the enclosure. Cut your face plate openings, drill holes for switches and indicators, and test fit everything before final mounting. For 3D-printed parts, dry fit each piece against the SBC and display before printing the final version.

4. Mount the display. The display usually goes in the lid (for clamshell builds) or behind the face plate (for briefcase or slab builds). Use M2.5 standoffs and machine screws. Most displays have standard VESA-style mounting holes or threaded inserts.

5. Mount the SBC and power system. Use brass or nylon standoffs to lift the Pi off the case floor. This protects the back of the board and provides airflow. Mount the UPS HAT and battery somewhere the cells are not under mechanical stress and where heat can dissipate.

6. Wire the internal connections. Use the shortest cable runs that work. Right-angle micro HDMI cables save enormous amounts of space inside Pelican cases. USB extension cables let you put ports on the face plate without strain on the Pi's onboard USB. Use cable ties or Velcro straps to manage the bundle. Label everything before you close it up.

7. Install and configure the software. Flash your chosen OS onto an SD card (or NVMe if you went that route). Boot, run through initial setup, install your display drivers if needed, and verify that touchscreen, keyboard, audio, and Wi-Fi all work. Configure auto-login if you want the deck to boot straight to desktop. If it is a writerdeck, configure auto-boot into your text editor of choice.

8. Close it up and test. Close the case, run on battery, and use the deck for a few hours. You will find at least one thing you want to change. That is normal. Cyberdecks iterate.

Part Fourteen: Where to Buy Parts

For SBCs: official Raspberry Pi resellers (Adafruit, PiShop, CanaKit, The Pi Hut) get you genuine boards without the markup that sketchy listings often carry.

For displays and HATs: Adafruit, Pimoroni, SeeedStudio, and Waveshare's own store. These are the reliable suppliers the cyberdeck community trusts.

For cases: Pelican and Nanuk direct, B&H Photo for good prices, or Amazon for convenience. eBay and thrift stores for found enclosures. Harbor Freight sells the Apache line if you want Pelican quality at half the price.

For keyboards: Drop, KBDfans, NovelKeys, MechanicalKeyboards.com, and the secondhand market on r/mechmarket. Avoid the deepest-discount listings unless you have read recent reviews.

For 3D prints (if you do not own a printer): JLCPCB, PCBWay, Craftcloud, and Slant 3D all do mail-order printing at reasonable prices. Most cyberdeck STLs are free; you pay only for the print and shipping.

For batteries: 18650battery.com and Illumn are reputable US sources for genuine cells. Do not buy 18650s from random Amazon listings; counterfeits are common and dangerous.

Part Fifteen: Common Mistakes to Avoid

Buying parts before designing the build. You will end up with components that do not fit together, or with three displays you never use. Sketch the layout first, then buy.

Underestimating heat. The Pi 5 throttles aggressively when it gets hot. Plan cooling from the start. An enclosed deck with no airflow will be unusable under any real load.

Cheap battery management. This is a fire risk, not a budget category. Spend the extra 15 dollars on a known-brand UPS HAT.

Ignoring cable length. Every connector adds bulk. Measure cable runs against the inside of your case before ordering. Right-angle adapters and short flex cables save sanity.

Going too small on the first build. A 5-inch display sounds compact and elegant until you try to use a desktop on it. Start with 7 inches, build confidence, then go smaller on build number two if you want to.

Treating it like a laptop replacement. A cyberdeck is a different category of tool. It will not replace your daily driver. It will do things your daily driver cannot.

Forgetting the software side. People spend months planning hardware, then flash the default OS the night before they want to use the deck. Plan your software stack (window manager, terminal, editor, launcher) at the same time you plan hardware.

Not documenting. Whatever you build, take photos as you build it and write up the process afterward. You will forget how you wired something within a month. The community also thrives on documentation, and posting your build helps the next person and gets you feedback that will make build number two better.

Part Sixteen: Final Thoughts

A cyberdeck is a personal computer in the original sense of the phrase. It is a computer that reflects the person who built it, made for the work they want to do, and built in a way that teaches them something about how the machine actually functions.

The first build will not be perfect. It will have a cable that should have been an inch shorter, a switch in the wrong place, a battery that does not last as long as you wanted. That is the point. You build it, learn from it, and build the next one better. There is a reason that almost every builder featured in this article has released a V2 or V3 of their design.

Start with a clear use case. Buy a Raspberry Pi 5 and a 7-inch screen. Sketch the layout. Order the rest as you finalize the design. Prototype on the bench. Get something working before you make it pretty. Iterate.

Then post it to the Discord and start planning the next one.

MOBILE MENU

How to Build a Cyberdeck: The Complete 2026 Guide (Parts, Software, and Iconic Builds)

Part One: What a Cyberdeck Actually Is

Part Two: The Cultural Context (Why Cyberdecks Matter)

Part Three: Deciding What Your Cyberdeck Is For

Part Four: Choosing Your Single Board Computer

Raspberry Pi 5

Raspberry Pi 4

Raspberry Pi Zero 2 W

Raspberry Pi Compute Module 4 or 5

ClockworkPi uConsole

LattePanda Mu

HackberryPi CM5 (from Elecrow, designed by ZitaoTech)

NVIDIA Jetson Nano or Orin Nano

Part Five: Picking a Display

Size

Resolution

Interface

E-Ink Displays

Part Six: Input (Keyboards and Pointing Devices)

Keyboards

Pointing Devices

Part Seven: Planning Your Power System

The Simple Path: USB Power Bank

The Integrated Path: UPS HAT

The DIY Path: Custom Power Circuit

Real Talk on Runtime

Part Eight: Choosing Your Enclosure

Pelican and Hard Cases

3D Printed Custom Enclosures

Found and Repurposed Enclosures

Materials and Construction Notes

Part Nine: Connectivity and Extras

USB Hub

Ethernet Switch

Wireless: External Antennas and SDR

Storage

Cooling

Status Indicators and Switches

Part Ten: Choosing Your Operating System

Raspberry Pi OS

Kali Linux

DietPi

Ubuntu MATE or Ubuntu Server

Twister OS

writerdeckOS and Micro Journal PC Edition

RetroPie / Batocera / Lakka

Home Assistant OS

Windows 11 (on x86 boards)

FreeBSD / OpenBSD

Part Eleven: A Tour of Iconic Builds

Jay Doscher's Recovery Kit series (2019-present)

The Penkesu Computer (Penk Chen)

The Chonky Palmtop (Daniel Norris)

THEBRICK

Trammell Hudson's Motorola MDT9100 conversion

The uConsole (ClockworkPi)

The HackberryPi CM5 (ZitaoTech / Elecrow)

The Cyberdeck Red (Gabriel)

The Cyberdore 2064 (Tommi Laukkanen)

The Typeframe PS-85 and PX-88 (Jeff Merrick)

The Lisperati1000 (drcode)

The Micro Journal series (Un Kyu Lee)

Part Twelve: Realistic Budget Tiers

Part Thirteen: Assembly Process

Part Fourteen: Where to Buy Parts

Part Fifteen: Common Mistakes to Avoid

Part Sixteen: Final Thoughts

Read More: The Complete Cyberdeck Resource Directory

Community hubs

Iconic builders and their sites

Ready-made cyberdecks and kits

Writerdeck resources

3D printable case files

Print-on-demand services

Component suppliers

Keyboards

Operating systems

Software-defined radio and networking

Offline knowledge (for survival and research decks)