Steel-Track Machine Context
Original Deere photo of an 850 P dozer. Useful equipment context—not confirmation that this is Curtis’s target model.
Real Deere references. Curtis’s inspection problem. Four ways smart glasses could help a technician do the work.
Start with guided inspection and physical measurement capture. They connect most directly to Curtis’s recorded comments. Remote expertise and report handoff are adjacent ideas to validate—not requirements attributed to him.
The earlier undercarriage proposal concerned simulator lesson content. The newer smart-glasses discussion concerns technical operations. Shared subject matter makes reuse plausible, but neither scope, funding nor a glasses platform is established by the sources reviewed. I2 · I3
These findings come from human Slack messages and timestamped meeting dialogue. Meeting transcripts are machine-transcribed records—not AI-authored source material; the recording remains the authority if wording matters.
“evaluating the condition of your undercarriage what needs to be replaced?”
“Does it just need to be tightened?”
Curtis then explicitly mentions measuring wear on rollers. He also responds positively to inspection challenges with faults such as a loose undercarriage or missing sprocket tooth. This supports the problem; it does not specify glasses. I1 · 06:49–08:32
Curtis confirms receipt of the undercarriage and wear-parts proposal, then says, “We’ll be holding off on that one for now.” Windows licensing was the higher priority. Jonathan describes the proposal as mostly new lesson content. I2 · 17:54–18:48
A dated statement about that proposal—not proof the newer glasses discussion is paused or funded.
Jonathan reports that Curtis is seriously exploring more simulator content and technical operational software using smart glasses, potentially reaching another part of Deere. No specific maintenance workflow, headset or approved scope is named. I3
Greg asks Jonathan for the undercarriage information so he can work on the smart-glasses creative brief. This page gathers supporting evidence and testable ideas; Jonathan’s current firsthand account should determine the actual target. I4
Deere identifies track shoes, links, rollers, bushings and different undercarriage configurations. Its brochure describes larger links, rollers and front idlers in Maximum Life systems. An inspection app must know the machine and fitted configuration—not apply one generic wear rule. E1 · E2 · pp. 2–7 · E3 · pp. 4, 7
For rubber-track equipment, Deere calls periodic cleaning an ideal time to inspect. It names cuts, punctures, tears, excessive wear, roller flat spots and oil leakage. These are useful photo-and-checklist categories for a CTL variant—not a universal steel-track checklist. E4 · p. 9
Deere’s rubber-track guidance states that excessive tightness can accelerate wear and looseness can cause de-tracking. A proposed workflow should retrieve the correct machine manual and record the measured condition before recommending an action. No universal sag value or adjustment procedure is supplied here. E4 · pp. 4, 9–10
Deere’s bushing comparison makes physical wear visible, while its selection guidance says soil conditions and application matter. The software opportunity is to organize observations, measurements and expert review—not infer remaining life from one photograph. E2 · pp. 3, 5
Source boundary: these are manufacturer webpages and dated brochures, not the model/serial-specific service procedure for a selected pilot. Deere’s marketing wear-life and cost claims are not projected smart-glasses savings.
No generated imagery in this section. Click any image to inspect it, then follow its original manufacturer source. Photos and page renders retain source content; none were generatively enhanced.
Original Deere photo of an 850 P dozer. Useful equipment context—not confirmation that this is Curtis’s target model.
Original Deere CTL undercarriage photo. Keep rubber-track procedures distinct from steel-track dozer and excavator procedures.
Actual page 5 of Deere’s DKASC2 brochure (Nov 2017). Its sand-test photographs compare standard and SC-2 bushings; this is historical product-test evidence, not a glasses result.
Actual page 9 of DKBRUBBER (Oct 2020). Covers rubber-track damage, roller/sprocket wear, leaks and inspection during cleaning. Not a steel-track service procedure.
AI-generated concept advertising. These four images illustrate possibilities, not Deere products or maintenance instructions. Optical effects dramatize the wearer’s experience; they are not physical holograms.
Concepts 1 and 2 are closest to the recorded inspection-and-measurement need. Concepts 3 and 4 explore the operational workflow around it. All four require discovery and validation.
Turn the undercarriage into a guided inspection route.
The technician confirms machine identity and follows Deere-approved checkpoints for shoes, links, bushings, rollers, idlers and sprockets. Voice notes and photos stay attached to the inspected component.
Basis: Curtis explicitly described an undercarriage inspection lesson and evaluating wear (Aug 13, 08:02–08:32). Extending this to live glasses is a ForgeFX concept.
Needs: Start with model-specific illustrated prompts. Spatial highlighting requires compatible displays, tracking and field validation; the glasses do not diagnose unseen damage.
Test: Begin here: one machine family, one inspection route, photo-and-voice evidence capture.
ForgeMedia concept ↗Keep both hands on the inspection—not on a clipboard.
The glasses show the approved measurement location and method while the technician uses a calibrated physical tool. Capture the spoken reading, units, tool ID and photo; require confirmation before comparing with the correct Deere wear limits.
Visual: removed roller on a bench. Tool geometry and measurement method are illustrative, not a service instruction.
Basis: Curtis specifically mentioned measuring wear on rollers (Aug 13, 08:19–08:32). Automatic measurement from a glance was not requested or established.
Needs: Deere-approved measuring method and limits, the correct model/serial range, calibrated tools and readable eyewear. No camera-only precision claim or invented tolerance.
Test: Test measurement completeness and transcription accuracy against a conventional inspection sheet.
ForgeMedia concept ↗Let a specialist see the exact concern without another site visit.
Share the technician’s view of a questionable bushing, roller or sprocket. A remote expert marks the image, asks for a second angle or measurement, and records a recommendation for human review.
Basis: A proposed operational extension of the inspection problem—not a confirmed Curtis requirement or a Deere-connected product.
Needs: Camera access, authorized video connection, privacy controls and a remote expert. Screen-space annotations can come first; persistent spatial marks need additional hardware and tracking.
Test: Compare time to a documented expert recommendation and the number of repeat information requests.
ForgeMedia concept ↗Finish the inspection with evidence already organized.
Hands-free photos and dictated findings become a component-by-component draft report. Compare with prior inspections, flag missing measurements and hand a reviewed record to the service team.
Basis: A ForgeFX workflow hypothesis built on Deere’s component-specific wear context. A completed service record is a proposed outcome, not proof of existing integration.
Needs: Consistent component IDs, inspection history, secure storage and an approved export or service-system integration. A technician signs off; software does not independently release the machine to service.
Test: Measure report completeness and time from finishing the inspection to a reviewed service handoff.
ForgeMedia concept ↗Votes are shared and saved. One active vote per concept per browser; click the selected thumb to remove it. Browser identity is resettable, not authenticated one-person voting. These four have separate IDs; the earlier 16-concept board and its votes are preserved.
Camera/audio glasses may support capture and remote assistance without world-anchored visuals. Display prompts need a display; persistent highlights need spatial tracking. Validate daylight readability, PPE compatibility, battery life, connectivity, camera permissions and offline behavior before choosing hardware.
Compare with today’s workflow: missed checkpoints, measurement/transcription errors, time spent documenting, repeat information requests and time to a reviewed report. Establish a baseline before promising savings.
Safety boundary: concept research only. Do not use the imagery as a positioning, measurement, track-tension or repair procedure. Actual work requires the correct Deere manual, trained personnel, approved safe setup and tool/method validation. No automatic machine control or return-to-service authorization is proposed.
Source event dates are shown in UTC. Internal dialogue and external manufacturer publications are cited separately.
John Deere/FFX Program Meeting · Aug 13, 2026 · 06:49–09:22; key passage 08:02–08:32. Raw transcript sentences, not the AI meeting summary.
John Deere/FFX Program Meeting · Oct 1, 2026 · 17:54–18:48. Curtis acknowledged receipt and prioritized Windows licensing.
Jonathan’s firsthand show-trip update · Oct 15, 2026. Describes serious exploration, not a selected application or approval.
Greg’s request for Jonathan’s undercarriage information · Oct 16, 2026. This page supplements that handoff.
Current manufacturer page, retrieved Oct 16, 2026. Component overview, undercarriage variants and original equipment photos.
Manufacturer brochure · Nov 2017 · PDF pp. 2–7. Component and bushing background; dated marketing evidence, not current repair instructions.
Manufacturer brochure · pp. 4 and 7. Specific undercarriage options and specifications; do not transfer its measurements to other machines.
Manufacturer brochure · Oct 2020 · pp. 4, 9–10 and 12. Inspection, track tension, cleaning and damage for rubber-track machines.
Internal discovery searched Fireflies for “undercarriage,” “smart glasses” and “John Deere,” then inspected relevant dialogue in six selected meetings plus both linked Slack threads. Evidence above prioritizes Curtis’s direct comments and Jonathan/Greg’s firsthand messages; AI meeting summaries were not used as authority. Slack full-text search was unavailable to the bot token, so direct thread retrieval was used. This is targeted research, not an exhaustive archive audit.
External research prioritized Deere’s own website, manufacturer-hosted brochures and images linked by that website. The current undercarriage page was retrieved directly and its published component data inspected. The original photo bytes and brochure pages are retained with provenance. A legacy operator-manual URL could not be retrieved, so its search snippets and model-specific settings were excluded.
The signed/complete earlier proposal, current approval status, selected pilot model, exact inspection procedure, hardware choice and service-system API access were not established. These are discovery inputs—not blanks filled with assumptions.