From Laptops to Purpose-Built Workshop Computing Devices
For many makers, traditional laptops are an awkward fit in environments filled with tools, dust, and cramped benches. Instead of trying to bend their routines around office-oriented machines, a growing number are designing custom cyberdeck builds that start with their workflows and physical spaces. One standout example is a Raspberry Pi 5–powered deck by maker Jankbu, created specifically as a workshop computing device for browsing, design software, and hands-on tasks. Rather than chasing ultra-thin aesthetics, the design prioritizes robustness, repairability, and modularity. The result is a maker portable computer that can be grabbed by chunky side handles, dropped onto a cluttered bench, and adapted for different jobs through clip-on modules. This shift reflects a broader trend: professionals and hobbyists in fabrication, electronics, and CNC work increasingly want computers that behave like tools, not fragile consumer gadgets.
Sliding-Screen Computers That Match Tight Shop Realities
The defining feature of Jankbu’s build is its vertical sliding screen: a 10.1-inch IPS touchscreen that glides on steel linear rods and bearings. This sliding screen computer design solves a classic workshop problem—limited horizontal space—by stacking display and input vertically instead of sprawling across a bench. When not in use, the display folds down neatly to cover and protect the keyboard, shrinking the device’s footprint and shielding keys from dust and debris. A repurposed CNC-style cable chain guides display wiring so nothing snags or pinches as the screen moves. Makers iterated through several mechanical versions to get a smooth, wobble-free action that feels more like industrial equipment than consumer electronics. In crowded shops where every centimeter counts, this kind of sliding-screen cyberdeck lets users keep CAD models, documentation, or machine controls at eye level without sacrificing precious work area.
Bespoke Layouts and Controls for Specialized Workflows
Beyond the screen mechanism, what sets this custom cyberdeck build apart is its unapologetically work-first ergonomics. The base is a full-depth mechanical keyboard designed for all-day comfort, not thinness. Large side grips make it easy to reposition the unit with gloved or dusty hands. On one side, bespoke dual-direction scroll controls enable quick navigation through schematics or timelines; on the other, a trackball hacked from a Logitech Trackman Marble offers precise pointing without needing desk space for a mouse. The front panel carries simple, industrial-style buttons so frequently used functions are one press away, rather than buried in software menus. For makers juggling CAD, datasheets, and machine interfaces, this tailored layout eliminates many micro-frictions of standard laptops, turning the device into a dedicated workstation tightly aligned with the rhythms and gestures of workshop life.
Modularity, Power, and Materials Built for the Field
Power and durability often make or break a workshop computer. Jankbu’s deck runs on NP-F camcorder batteries, hot-swappable without shutting the system down, with a live voltage readout on the front so runtime is visible at a glance. The power module itself slides in on rails, reinforcing the modular ethos. NATO rails line the chassis, allowing tools, extra storage, sensors, or I/O modules to clip on and connect directly to the main board for power and data—no tools required. The shell is 3D-printed from polycarbonate reinforced with chopped carbon fiber, stiff enough to survive a hot parked car and the occasional knock. High-stress parts like handles and the trackball housing are machined from aluminum. Together, these choices create a rugged, field-serviceable platform that behaves more like a piece of shop equipment than a delicate personal computer.
Open Designs Point to a Broader DIY Computing Future
Perhaps the most intriguing aspect of this maker portable computer is that it is not a one-off curiosity. Project files are available on GitHub, inviting others to study, remix, and adapt the design to their own workflows. That openness hints at a broader shift toward DIY computing solutions that are deeply ergonomic for specific tasks—machine control, portable diagnostics, or on-site design edits—rather than general-purpose devices that do nothing perfectly. Sliding-screen cyberdecks like this one demonstrate how accessible components such as Raspberry Pi boards, 3D printing, and standard rails can be combined into highly customized workshop computing devices. As more makers share their builds and refinements, we are likely to see a growing ecosystem of specialized, tool-like computers that blur the line between traditional PCs and the industrial gear they help to control.