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Redmer Controls Inc. · 2000–2002 · Large-event photography

An event-photography rig that pioneered wearable computing.

The ISA Event Photo System put a professional digital SLR, a Xybernaut belt-mounted wearable PC, and a daylight-viewable flat-panel touch display on a roving photographer — and composited live video into the event's overlay artwork in real time, so the guest saw the finished souvenir before the shutter fired. Shipped by Redmer Controls Inc. in 2002 for ISA/Lucht, it was one of the earliest commercial wearable-computing deployments for a real production workflow — more than a decade before the modern wearable industry re-emerged.

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On the photographer

A roving capture-to-order rig, wearable, in 2000.

Large-event photography in 2000 was still a tethered-to-a-workstation industry. ISA's workflow needed something different: a photographer moving through a venue like a NASCAR fan zone or a cruise-ship promenade should be able to take a guest portrait, attach the order, and hand the lab a reconciled day's work without ever sitting down. Redmer Controls' answer was the Xybernaut MA-V wearable PC paired with a daylight-viewable flat-panel touch display and a professional digital SLR — the photographer wore the computer on a belt, saw the order-capture UI on a sunlight-readable touch panel worn on the wrist or mounted to the camera, and shot the portrait without breaking stride.

  • Xybernaut MA-V wearable PCBelt-mounted Pentium-class wearable computer (Xybernaut MA-V — Mobile Assistant V, the flagship Xybernaut wearable platform of 2001). Windows 2000 / XP runtime with USB, FireWire, and CompactFlash, NTSC live-video input, and storage for some 5,000 high-resolution images — the product sheet calls it "a completely functional industrialized high-end laptop" about the size of a paperback book, running the full event-photo capture stack on the photographer's belt.
  • Daylight-viewable touch displayOrder entry happened on a high-resolution, all-light (outdoor sunlight) and all-weather flat-panel touch display — wearable on the wrist or belt, or attached to the camera and tripod. On-screen numeric touchpad, oversized fields, and an optional barcode scanner kept capture fast on a small panel outdoors; the video pipeline deliberately paused during modal dialogs to give the wearable's CPU back to the operator.
  • Kodak DCS digital SLR integrationThe source repo carries a `Custom Kodak DCS Driver/` directory at the root — a purpose-built C DLL (~230 lines) wrapping Kodak's function-pointer Pro3SLR SDK so VB6 could call it. It bridged the Kodak DCS professional digital-SLR family (DCS 760C / 760M / 720x / SCS2000 — Nikon-F5-body professional SLRs) to the wearable PC over IEEE-1394 FireWire, streaming raw .DCR files in 500 KB blocks and clearing the card as it went. A second path handled Nikon CoolPix cameras over USB, hot-plug detected with the transfer automated.
  • On-site lab handoffOrders and images landed together on the wearable in an Access/Jet database — the product sheet's "Microsoft Office compatible database" — with every exposure keyed by a registry-persisted exposure counter combining card number, event, and exposure, exactly like the frame counter on a film body. At the end of the shoot the reconciled set went to the ISA/Lucht lab to index, retrieve, composite, and print — a day's images and orders that matched deterministically, with no help needed from the camera.
  • Proven at NASCAR, built for the biggest venuesThe proof is still in the archive: a Bobby Labonte overlay from the NASCAR UAW/GM Quality 500 at Lowe's Motor Speedway (October 8, 2000), and the prototype screenshot compositing live video behind it. The rig was built for exactly that class of venue — race fan zones, and venues like cruise ships and theme parks where formal-night, shore-excursion, and meet-and-greet portraits were continuous-throughput souvenir products.
  • The EZ-SNAP lineage underneathInternally the application is EZ-SNAP/2002 — the direct event-photography descendant of the school product line. Built in Visual Basic 6 + C with LeadTools 12 imaging and an Access/Jet order database, it carried the same operator-first UI conventions Redmer Software had shipped to the school-photography industry into Redmer Controls' large-event production environment.

The wearable-computing milestone

A 2002 production wearable deployment, more than a decade ahead of the modern wearable industry.

Xybernaut Corporation defined the consumer-and-commercial wearable PC category at the turn of the millennium — and then went bankrupt in 2005, taking the category with them. The modern wearable industry (Google Glass in 2013, RealWear and similar industrial HMDs in the late 2010s) re-emerged more than a decade later. Redmer Controls' ISA Event Photo System was on the leading edge of that brief first-wave wearable-computing era — putting wearable computing into a real commercial workflow when most of the technology industry hadn't yet imagined what wearables could be.

Live composite preview, on the photographer

The guest saw the souvenir before the shutter fired. Each event shipped overlay artwork as a bitmap — driver cutout, event banner, and a grey window where live video appears. The engine combined the camera's live feed into that window on every frame, up to 30 per second, on the wearable. The archive still holds the proof: a Bobby Labonte overlay from the NASCAR UAW/GM Quality 500 at Lowe's Motor Speedway (October 8, 2000) and the prototype screenshot compositing live video behind it.

Xybernaut MA-V — paperback-book-sized PC

The Xybernaut MA-V was about the size of a paperback book — Pentium-class Windows-2000/XP wearable computer, belt-mounted, driving a daylight-viewable flat-panel touch display worn on the wrist or mounted to the camera. The MA-V ran the entire event-photo capture stack including the custom Kodak DCS driver.

Custom Kodak DCS driver

A purpose-built C DLL wrapping Kodak's function-pointer Pro3SLR SDK so VB6 could call it — bridging the DCS 760C / 760M / 720x / SCS2000 (Nikon-F5-body professional SLRs) to the wearable over IEEE-1394 FireWire, streaming raw .DCR files in 500 KB blocks and clearing the card as it went. Nikon CoolPix cameras rode a second, USB path; the camera's NTSC video out fed the live preview through a Nogatech PCMCIA capture device.

Proven at NASCAR, built for the biggest venues

NASCAR is artifact-proven — the UAW/GM Quality 500 overlay is still in the archive. The rig was built for that whole class of live-event venue: race fan zones, and venues like cruise-ship formal nights and theme-park meet-and-greets — different RF, lighting, and crowd-density constraints, one wearable-computing rig.

Orders and images, reconciled for the lab

Orders and images landed together on the wearable in an Access/Jet database, every exposure keyed by a registry-persisted counter combining card number, event, and exposure. The ISA/Lucht lab took the reconciled set to index, retrieve, composite, and print — a day's work that matched deterministically, without depending on camera metadata.

The bridge from the school suite

Internally the application is EZ-SNAP/2002 — the event-photography descendant of the EZ-SNAP school product line, shipped by Redmer Controls. Visual Basic 6 + C, LeadTools 12 imaging, an Access/Jet order database, and the same operator-first UI conventions, scaled up from school-photo studios to NASCAR-grade large-event environments. One engineering posture, two companies, two industries.

A first-wave wearable computing case study

Wearable computing for live events, in 2002 — before the industry was ready.

Redmer Controls Inc. shipped the ISA Event Photo System into commercial production at the absolute leading edge of wearable computing. Xybernaut wearable PCs, daylight-viewable touch displays, custom-driver-bridged Kodak DCS digital SLRs, and live overlay compositing at up to 30 frames per second — the finished souvenir on screen before the shutter fired. A case study from a brief first-wave wearable era that didn't outlast Xybernaut's 2005 bankruptcy — but that informs how A1SI thinks about hands-free / heads-up workflows across every product line today.

Era
2000–2002
Company
Redmer Controls Inc.
Hardware
Xybernaut MA-V + daylight touch display
Camera
Kodak DCS pro digital SLR (custom driver)

Why this case study matters

The wearable-computing case study that bridged the school-photography suite into Redmer Controls.

On the leading edge of wearable computing

Years before the modern wearable industry existed, Redmer Controls was already shipping wearable, heads-up workflows into real commercial production. That instinct to deploy emerging human-computer interfaces ahead of the broader industry shows up later in the A1SI BMW X5 case study (multi-touch and gesture control in 2008–2012, years before consumer cars caught up) and in the current Home Manager edge-AI work (on-device LLMs and computer vision before the rest of the home-automation industry caught up).

Built for the venue floor

Event photography in a venue like a NASCAR fan zone or a cruise-ship promenade is not a desk job. The photographer is walking, shooting, capturing guest orders, dealing with crowd noise and ambient RF, all simultaneously. The ISA Event Photo System rig was tuned for that environment — sunlight-readable touch UI, belt-mounted PC, orders and images reconciled on the wearable for the lab. Same operator-first engineering posture that powered EZ-SNAP on the school-photo studio floor, scaled up to the largest live venues of the era.

One lineage, two companies, two industries

The platform didn't reset when the work moved from school photography (EZ-SNAP / EZ-VIEW / EZ-IMAGE, Redmer Software Company) into Redmer Controls' large-event work — the Event Photo System is internally EZ-SNAP/2002, the school line's direct descendant, built in Visual Basic 6 + C with LeadTools 12 imaging and an Access/Jet order database. That platform-discipline-across-domains posture is the same one A1SI ships under today: Keycloak SSO across CVWS, EMDT, IMAGEPREP, and HRMS, and a Django backend behind EMDT, IMAGEPREP, and HRMS.

Related products & services

Need a heads-up workflow for a moving operator?

A1SI has been building hands-free and heads-up workflows for moving operators since 2000 — from large-event photographers on Xybernaut wearable PCs to EMS field medics to commercial-vehicle weighmasters. Same engineering posture, modern stacks (React Native, embedded ESP32 / NVIDIA Jetson, on-device AI). If your workflow needs an interface that stays out of the way of the work, we'd like to hear about it.

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"Xybernaut", "MA-V", "Mobile Assistant", and "POMA" are trademarks associated with Xybernaut Corporation (a company that operated from 1990 to its 2005 bankruptcy). "Kodak" and "DCS" are trademarks of the Eastman Kodak Company. "Nikon" and "CoolPix" are trademarks of Nikon Corporation. "LEADTOOLS" is a trademark of LEAD Technologies, Inc. "NASCAR" is a trademark of the National Association for Stock Car Auto Racing, Inc. "Microsoft", "Windows", and "Visual Basic" are trademarks of Microsoft Corporation. "ISA" and "Imager Service Associates" are trademarks associated with Imager Service Associates, Inc.; "Lucht" is a trademark associated with Lucht Engineering Inc. / LUCHT Digital. No affiliation between A1SI and any current entity using the ISA acronym should be inferred. The case study above describes engineering work performed by Redmer Controls Inc. (2001–2005), the second company in the lineage that informed the engineering posture A1 Systems Integrators (A1SI) ships under today — prototyped in 2000, shipped in 2002 for ISA/Lucht, the same client as the DVP2 printer. The case study is preserved on this page as historical portfolio and pedigree — not as a currently shipping product offering. A1SI is not affiliated with or endorsed by Xybernaut Corporation, the Eastman Kodak Company, Nikon Corporation, LEAD Technologies, NASCAR, Microsoft Corporation, Imager Service Associates, Lucht Engineering, or any other named third party today; IP ownership of any deployed derivatives belongs to the respective program owners.