@amal have there been any thoughts on trying to resurrect the tritium implant in terms of an implant that is simply meant to glow, maybe even a capsule the same size as the x series tags but with a solid core of hard epoxy/resin mixed with glow powder instead of a rfid chip? that way you get the glow (hopefully) without the risk of it breaking and releasing a radiactive gas under the skin. Id love an implant that glows but dont want the bulkiness of some of the silicone implants available.
This has been considered… @mrln is attempting a UV LED core with glow powder as well which I think is intriguing.
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This is cool. Would love a glowy xsiid
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@mrln I’ll give you beta access to ZINC to power these beauties if you want 
I’d love to see how well you can charge them with the power scan. Just send me a message of you’re interested
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Any idea when the app may be available on the google play store? Would love a way to make showing off my xsiid led a little easier!
You can get beta test access through the patreon page. First public release (around 10$, no ads) should come out before December (hopefully) alongside the PICOs on the DT store.
And to contribute to the thread here is a up and coming alternative to glow implants which might be the reason why we don’t see glow-flexes on the store:
Maybe?
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Ive set up a blog where i show how i made those glowies. maybe someone wanna build their own.
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It’s been so long since I’ve seen a website with snow effects.
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It’s making my fans spin in firefox. And my main browser can’t even run it.
It made me smile, I remember being amazed by these as a small child 
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I especially loved the cursor effects, like the trails.
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You just made me feel old…
Upload me into an Atlas already! I’m aging, you know…
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. I think that the use of biocompatible fluorescent pigments that glow under UV light or in the dark could be used.
• Alternative: quantum dot nanoparticles or genetically modified fluorescent proteins (such as GFP, green fluorescent protein). I think that would be a good option to create Fluorescence
That’s exactly what I used.
Europium doped Strontium Aluminate.
In the implant there is an UV LED (on tho one I had implanted)
I’ve also made some with different LED Colors because there is some UV light leaking and not everyone was feeling comfortable with the fact having UV light might be radiating their inside xD
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What’s that? Tell me more about it.
Also have you seen @Spyfoxls tattoo the Strontium Aluminate pigments?
I did the same after seeing her doing it and they turned out great (still working after over a year)
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Quantum dots are semiconductor nanoparticles that have unique fluorescent properties and are widely used in advanced technology, medical research, and industrial applications. Here’s more about them:
What are Quantum Dots?
Quantum dots are tiny particles, usually nanometer-sized (2-10 nanometers), made of semiconductor materials such as cadmium, selenium, or lead. Their extremely small size confers quantum properties not found in larger materials.
Key Properties:
- Bright Fluorescence: They emit light of a specific color when excited by a light source. The color depends on their size:
• Smaller quantum dots: Emit blue light.
• Larger quantum dots: Emit red light. - High Stability: They resist photodegradation, making them ideal for long-term applications.
- Tunability: By changing their size or composition, the optical and electronic properties can be adjusted.
- Quantum Efficiency: Highly efficient in energy conversion, with bright light emission.
Main Applications:
-
Biomedicine
• Fluorescent Markers: Used in medical and biological research to label cells, proteins and DNA due to their stable and bright fluorescence.
• Diagnostic Imaging: They help in advanced techniques such as fluorescence tomography and microscopy.
• Drug Delivery: They can be used as targeted transport systems to release drugs at specific locations in the body. -
Electronics
• QLED Displays: Used in televisions and monitors to improve image quality, increasing brightness and color range.
• Solar Cells: Improves the efficiency of solar panels by capturing and converting light more effectively. -
Sensors
• Environmental Sensing: They monitor pollutants or detect specific chemical compounds.
• Medical Sensors: Detect biomolecules with high precision. -
Advanced Materials
• Fluorescent Coatings: For applications in design and security.
• Advanced Printing: They can be integrated into special inks to create unique patterns.
Fluorescent Quantum Dots in Implants
In the case of a fluorescent implant, quantum dots can be integrated into a biocompatible coating to emit light under certain conditions (for example, when exposed to ultraviolet light). This is ideal for purposes such as:
• Medical identification or tracking.
• Security and authentication elements.
• Advanced aesthetics, such as implants that glow in the dark or under specific light.
Considerations for Use:
- Biocompatibility: Some quantum dots contain toxic materials (such as cadmium). In medical applications, biocompatible coatings are used to avoid toxicity problems.
- Stability: They must be highly stable in the environment where they will be applied, such as the human body or electronic systems.
If you are considering using fluorescent quantum dots in an NFC implant, it is crucial to:
- Design a biocompatible encapsulation (such as bioglass).
- Select quantum dots free of toxic elements.
- Adjust the fluorescence to be visible under the conditions you prefer (UV light, infrared, etc.).
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Oh cool, what are your experiences with those?
Are you working in that field?
How would I get started to implement it in my implants?
Pretty pricey.
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It is super important for a biocompatible implant, you should consider the following:
-
Type of Quantum Dots
• Cadmium-free quantum dots: Traditional cadmium QDs are very efficient, but toxic. For a human implant, it is crucial to choose cadmium-free QDs, such as:
• InP/ZnS (indium phosphide/zinc sulfide): Nontoxic and with good light emission.
• Carbon quantum dots (CQDs): Carbon-based, they are biocompatible, but less bright.
• Silicon quantum dots: Highly biocompatible, but with moderate luminous efficiency. -
Color and Wavelength
The emission color depends on the size of the quantum dot:
• Blue: 450–490 nm (small sizes).
• Green: 520–570 nm (medium sizes).
• Red: 620–750 nm (large sizes).
Choose a color that is clearly visible under the skin, such as green or blue, because they have better tissue penetration.
- Biocompatible Coating
QDs must be coated to ensure stability and biocompatibility. Common options:
• Silica (SiO₂): Provides chemical protection and biocompatibility.
• Biocompatible polymers: Such as polyethylene glycol (PEG).
- Safety Considerations
• Phototoxicity: Make sure QDs are not activated by UV light to avoid cell damage.
• Additional Encapsulation: Although bioglass will protect the implant, the QD coating must prevent any toxic leakage.