if these lizard alien beast are real these are the DIY will see them
- Processor: Raspberry Pi 5 (8GB) for handling high-res video fusion lightweight AI models smoothly.
- Thermal: FLIR Lepton 3.5 (radiometric 160×120) or upgrade path to higher-res if available (e.g., some 384×288 modules exist in niche/military-grade but cost jumps massively).
- Display: High-res micro-OLED (e.g., 1920×1080 per eye, 2000–5000 nits brightness) with MIPI/HDMI driver board for true AR-quality overlays.
- Optics: Waveguide/combiner or prism setup (better than basic beam splitter for wider FOV & less distortion).
- Frame: Custom 3D-printed or modified lightweight glasses frame (e.g., remix from OpenSmartGlasses or buy AR base like XREAL-inspired mounts).
- Power/Extras: Larger battery, IMU for head tracking, servo for polarization, small IR illuminator.
Detailed Parts Cost Breakdown (2026 Prices)
Prices pulled from current listings (GroupGets, SparkFun, Tindie, AliExpress, DisplayModule, yxmicrodisplay, etc.) — expect ±10–20% variance with shipping/taxes (US-based estimates).
- Processing Brain
Raspberry Pi 5 (8GB model) — $75–$90 (much faster than Pi Zero for high-res OpenCV/TensorFlow Lite fusion).
- Thermal Camera (premium choice)
FLIR Lepton 3.5 module — $164 (GroupGets)
PureThermal 3 board (SparkFun/GroupGets) — $130–$150 (hackable, USB/SPI, open firmware)
Subtotal: $294–$314
(Alternative: If you find a higher-res 384×288 thermal module for DIY — rare, but some AxisFlying or Chinese clones hit $500–$700; stick with Lepton for reliability/cost balance.)
- Visible Camera (high quality)
Raspberry Pi High Quality Camera (or IMX519/IMX708 module) — $35–$60 (better low-light, higher res for fusion alignment).
- AR Display & Driver (the big premium jump)
0.49"–0.71" Micro-OLED module (1920×1080 FHD, 3000–5000 nits, MIPI interface) — $135–$300 per eye (Tindie/AliExpress/DisplayModule/yxmicrodisplay)
HDMI/MIPI driver board (for Pi compatibility) — $50–$150
Subtotal (mono/single-eye first, binocular doubles it): $200–$450
(For true binocular AR: Dual modules combiner optics push $400–$800; start mono to test.)
- Optics & Combiner
Prism/waveguide combiner lens or high-quality beam splitter set (AliExpress/Tindie AR kits) — $50–$150
Polarizing filter sheet small servo for rotation — $15–$40
- Power & Enclosure/Misc
LiPo battery (2000mAh ) charging/boost circuit — $20–$40
Custom 3D-printed frame/enclosure (filament small parts) — $20–$50
IMU (e.g., MPU6050 for basic head tracking) — $5–$10
Wires, protoboard, buttons, small IR LED array (for active probing) — $30–$60
Total Estimated Cost for Premium Build
- Mono (single-eye) starter premium: $650–$950
(Lepton thermal Pi 5 FHD micro-OLED good optics; great for testing high-quality overlays.)
- Full binocular high-end: $1,000–$1,600
(Dual micro-OLEDs, better combiner/waveguide, extras like servo/IMU; closer to prototype-level AR with thermal fusion.)
- Absolute maxed-out (higher-res thermal if sourced, premium drivers, machined frame): $1,800–$2,500 (but diminishing returns for DIY).
Build Notes & Trade-offs
The micro-OLED upgrade gives crisp text/icons/overlays (e.g., "Anomaly: 94% cold profile" in HD), wider FOV, brighter image (visible outdoors), and less eye strain vs. basic OLED.
- Software same as before but upgraded: Use Pi 5's power for better alignment (e.g., homography transforms), run MobileNet or custom thermal anomaly model at 15–30 FPS.
- Challenges: Micro-OLED integration needs MIPI/HDMI bridging (some boards have Pi-compatible drivers); binocular alignment is tricky (IPD adjustment needed); power draw higher → bulkier battery.
- Start phased: Build mono first ($700), validate thermal fusion AI flags, then add second eye/display.
- Alternatives to cut cost slightly: Use a single high-brightness micro-OLED ($200–$300) with waveguide ($100) instead of dual.