Board-dat/ILE/ILE1073-dat/ILE1073-dat.md
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![](2023-10-11-15-42-45.png)
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## Pin Definitions
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Solar Panel Input = un-regulated higher DC input
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- SO+
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- SO-
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-Infrared Control
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+[[Infrared-dat]] Control
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- V = VCC
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- G = GND
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- R = Infrared input
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![](2023-10-11-15-31-05.png)
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## Demo
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- https://www.electrodragon.com/w/Demo_Video
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- demo code - https://github.com/Edragon/Arduino-attiny
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+
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## ref
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- [[ILE1073]]
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Network-dat/Infrared-dat/Infrared-dat.md
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@@ -19,6 +19,11 @@ arduino shield - [[DAS1013-dat]]
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controller - [[SIR1003-dat]]
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+[[LED-dat]] panel - [[ILE1073-dat]]
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## infrared pairs - 2 Pin
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![](2025-11-08-18-15-11.png)
Tech-dat/contactless-dat/contactless-dat.md
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+# contactless-dat
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+- [[optical-dat]] - [[infrared-dat]] - [[optical-design-dat]]
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+
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+- [[magnetic-dat]] - [[motor-dat]] -
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+
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+## ref
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+- [[physics-dat]]
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+
app-dat/lifter-dat/2025-12-10-16-01-20.png
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Binary files /dev/null and b/app-dat/lifter-dat/2025-12-10-16-01-20.png differ
app-dat/lifter-dat/lifter-dat.md
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+# lifter-dat
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+![](2025-12-10-16-01-20.png)
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+
mechanics-dat/physics-dat/magnetic-dat/magnetic-dat.md
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+# magnetic-dat
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+
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+
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+- [[motor-dat]]
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+-
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mechanics-dat/physics-dat/optical-dat/optical-dat.md
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+# optical-dat
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+- [[optical-design-dat]]
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+
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+- [[infrared-dat]]
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+
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+
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+## ref
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+
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+- [[physics-dat]]
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mechanics-dat/physics-dat/optical-dat/optical-design-dat/optical-design-dat.md
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+# optical-design-dat
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+- [[microscope-dat]] - [[Periscope-dat]]
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+
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+
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+
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+
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+## filling materials
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+
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+### Refractive Index Comparison: Air vs. Optical Materials
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+
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+Yes, a refractive index of **1.5** is significantly higher than air:
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+
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+- **Air**: n ≈ 1.0003 (~1.0 for practical purposes)
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+- **PMMA (Acrylic)**: n ≈ 1.49
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+- **Polycarbonate (PC)**: n ≈ 1.58
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+- **Glass (BK7)**: n ≈ 1.51
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+
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+
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+### 1. Typical Values
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+
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+| Type / Grade | Refractive Index (n) | Notes |
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+|-------------|--------------------|------|
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+| Light mineral oil (cosmetic grade) | 1.467–1.470 | Common in electronics and lubrication |
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+| Standard mineral oil (industrial) | 1.468–1.474 | Used in transformers, immersion cooling |
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+| Heavy mineral oil | 1.474–1.480 | Higher density, more viscous |
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+| Food-grade mineral oil | 1.467–1.470 | Safe for contact with materials like plastics |
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+
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+
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+
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+### 1. Typical Refractive Indices of Common Liquids
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+
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+| Fluid | Refractive Index (n) | Notes |
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+|-------|--------------------|------|
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+| Water | 1.333 | Standard, much higher than air |
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+| Mineral oil | 1.467–1.480 | Common dielectric oil |
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+| Ethanol | 1.361 | Transparent alcohol |
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+| Glycerin | 1.473 | Thick, high n |
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+| Fluorinated liquids (like FC-72, perfluorocarbons) | 1.25–1.28 | Lowest practical liquids, still far from air |
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+| Liquid helium (near 4K) | 1.026 | Lowest natural fluid n, cryogenic |
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+| Liquid hydrogen | 1.121 | Low n, cryogenic, dangerous |
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+
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+---
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+
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+### 2. Notes
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+
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+- **Most fluids have n > 1.2**, which is **20% or more higher than air**.
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+
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+
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+## Compensating Optical Changes by Adjusting Lens Position
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+
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+Yes, you **can compensate for the optical changes** caused by filling a lens assembly with oil or another medium by **adjusting the lens position relative to the sensor**.
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+
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+---
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+
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+### 1. Why It Works
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+
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+- Replacing air (n ≈ 1.0) with oil or solid (n ≈ 1.45–1.5) **increases the optical path length** between lens elements.
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+- This shifts the **focus plane** forward or backward.
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+- Moving the lens closer or farther from the sensor can **restore focus** on the image plane.
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+
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+
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+
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+## ref
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+
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+- [[physics-dat]]
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mechanics-dat/physics-dat/optical-design-dat/optical-design-dat.md
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-# optical-design-dat
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-
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-- [[microscope-dat]] - [[Periscope-dat]]
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-
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-
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-
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-
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-## filling materials
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-
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-### Refractive Index Comparison: Air vs. Optical Materials
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-
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-Yes, a refractive index of **1.5** is significantly higher than air:
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-
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-- **Air**: n ≈ 1.0003 (~1.0 for practical purposes)
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-- **PMMA (Acrylic)**: n ≈ 1.49
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-- **Polycarbonate (PC)**: n ≈ 1.58
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-- **Glass (BK7)**: n ≈ 1.51
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-
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-
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-### 1. Typical Values
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-
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-| Type / Grade | Refractive Index (n) | Notes |
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-|-------------|--------------------|------|
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-| Light mineral oil (cosmetic grade) | 1.467–1.470 | Common in electronics and lubrication |
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-| Standard mineral oil (industrial) | 1.468–1.474 | Used in transformers, immersion cooling |
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-| Heavy mineral oil | 1.474–1.480 | Higher density, more viscous |
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-| Food-grade mineral oil | 1.467–1.470 | Safe for contact with materials like plastics |
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-
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-
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-
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-### 1. Typical Refractive Indices of Common Liquids
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-
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-| Fluid | Refractive Index (n) | Notes |
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-|-------|--------------------|------|
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-| Water | 1.333 | Standard, much higher than air |
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-| Mineral oil | 1.467–1.480 | Common dielectric oil |
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-| Ethanol | 1.361 | Transparent alcohol |
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-| Glycerin | 1.473 | Thick, high n |
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-| Fluorinated liquids (like FC-72, perfluorocarbons) | 1.25–1.28 | Lowest practical liquids, still far from air |
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-| Liquid helium (near 4K) | 1.026 | Lowest natural fluid n, cryogenic |
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-| Liquid hydrogen | 1.121 | Low n, cryogenic, dangerous |
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-
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----
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-
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-### 2. Notes
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-
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-- **Most fluids have n > 1.2**, which is **20% or more higher than air**.
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-
50
-
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-## Compensating Optical Changes by Adjusting Lens Position
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-
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-Yes, you **can compensate for the optical changes** caused by filling a lens assembly with oil or another medium by **adjusting the lens position relative to the sensor**.
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-
55
----
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-
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-### 1. Why It Works
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-
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-- Replacing air (n ≈ 1.0) with oil or solid (n ≈ 1.45–1.5) **increases the optical path length** between lens elements.
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-- This shifts the **focus plane** forward or backward.
61
-- Moving the lens closer or farther from the sensor can **restore focus** on the image plane.
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-
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-
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-
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-
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-## ref
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-
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-- [[physics-dat]]
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