24 flavors. Same mechanism. No kid gets cancer on our watch.
Cancer Candy is a prevention and detection product line. Every flavor delivers the same two mechanisms through a different candy expression — because no one's taste should be the reason they don't get protected.
D-Xylose is a naturally occurring monosaccharide (GRAS since 1982) that costs $0.01/dose. It drives a 9-link self-reinforcing anti-cancer feedback loop:
Sucrase inhibition (Ki 3.2-8.4 mM, uncompetitive)
→ Glucose AUC ↓21%
→ Insulin AUC ↓21-35%
→ Insulin sensitivity ↑
→ AMPK activation (3.23x at 20mM)
→ PPP flux (NADPH ↑200-300%, GSH ↑150%)
→ ROS ↓50%
→ SCFA production (prebiotic)
→ Gut barrier integrity → Endotoxemia ↓
→ Sleep quality → Cortisol regulation
→ [LOOP BACK TO STEP 1]
Why this prevents cancer: AMPK activation, pentose phosphate pathway flux, and reactive oxygen species reduction are three of the most validated anti-cancer metabolic pathways in published literature. D-Xylose delivers all three in a sugar that costs a penny.
| Property | Value |
|---|---|
| Molecule | D-Xylose (CHEMBL1236821) |
| MW | 150.13 g/mol |
| Calories | 2.4 kcal/g ("right-calorie" — routes through PPP, not stored as fat) |
| GRAS | Since 1982 |
| Allergenicity | Zero (pure monosaccharide, no protein epitopes, no IgE binding) |
| Drug interactions | Zero (no CYP metabolism) |
| Cost/dose | $0.01-0.12/day |
Complementary prevention stack (all in the candy):
| Compound | Mechanism | $/day |
|---|---|---|
| D-Xylose | Glycemic + AMPK + PPP + prebiotic | $0.01-0.12 |
| XOS (xylo-oligosaccharides) | Targeted Bifidobacteria prebiotic | $0.10-0.30 |
| D-Allulose | Hepatic lipogenesis inhibition, GLP-1 | $0.30-0.60 |
| Myo-Inositol | PI3K/Akt insulin signaling | $0.15-0.25 |
| TOTAL | <$1.30/day retail |
Critical unsolved safety gap: Platelet activation assay needed ($30K-150K). Xylitol (alditol) = 1.57x MACE risk. Erythritol (alditol) = 2x MACE risk. D-Xylose retains its aldehyde group (NOT an alditol) and should NOT activate P2Y12 — but the assay proving this hasn't been run. Not solved means go faster.
D-Xylose surface functionalization exploiting GLUT1 overexpression in tumor cells (Warburg effect). The sugar IS the targeting vector.
You eat a candy. Within 24 hours, your skin tells the story. Color-coded splotches map where cancer is, what type it is, and how far it has spread. Then it fades. Penny per patient.
- Ingestion — D-Xylose-functionalized nanocapsules enter circulation
- Targeting — GLUT1 overexpression on tumor cells pulls nanocapsules in preferentially (Warburg effect)
- Accumulation — Nanocapsules concentrate at tumor sites and along metastatic pathways
- pH-triggered release — Tumor microenvironment pH (6.2-6.8 vs normal 7.4) ruptures the capsule
- Chromophore migration — Released chromophores migrate to skin surface via dermal vasculature and lymphatic drainage
- Visible splotch — Color appears on skin overlying the tumor/metastatic region
- 24-hour fade — Chromophores are metabolized/cleared within 24 hours. Temporary by design. Non-toxic.
Every cancer type maps to a unique hex color. This isn't cosmetic — it's computational. A smartphone camera can read the hex values off the skin, map the splotch positions, and render the full cancerome in 3D.
| Cancer Type | Hex Code | Skin Color | Chromophore Class |
|---|---|---|---|
| Breast | #FF1493 |
Deep Pink | Rhodamine derivative |
| Lung | #4169E1 |
Royal Blue | Cyanine derivative |
| Colorectal | #8B4513 |
Saddle Brown | Azo compound |
| Prostate | #00CED1 |
Dark Turquoise | Phthalocyanine |
| Melanoma | #2F4F4F |
Dark Slate Gray | Carbon dot |
| Lymphoma | #9370DB |
Medium Purple | Anthracyanin derivative |
| Leukemia | #FFD700 |
Gold | Fluorescein derivative |
| Liver (HCC) | #B22222 |
Firebrick | Hematoporphyrin |
| Pancreatic | #556B2F |
Dark Olive Green | Chlorophyll derivative |
| Kidney (RCC) | #FF6347 |
Tomato Red | Squaraine dye |
| Bladder | #87CEEB |
Sky Blue | Coumarin derivative |
| Thyroid | #DA70D6 |
Orchid | BODIPY derivative |
| Brain/CNS | #C0C0C0 |
Silver | Gadolinium chelate-linked |
| Ovarian | #FF69B4 |
Hot Pink | Cy5.5 derivative |
| Uterine | #DB7093 |
Pale Violet Red | Alexa Fluor analog |
| Stomach | #CD853F |
Peru | Curcuminoid |
| Esophageal | #D2691E |
Chocolate | Natural phenazine |
| Cervical | #FF4500 |
Orange Red | Porphyrin derivative |
| Testicular | #1E90FF |
Dodger Blue | Indocyanine derivative |
| Bone/Sarcoma | #F5F5DC |
Beige | Calcium-responsive luminophore |
| Head & Neck | #FFA500 |
Orange | Carotenoid derivative |
| Non-Hodgkin | #7B68EE |
Medium Slate Blue | Perylene diimide |
| Mesothelioma | #708090 |
Slate Gray | Naphthalocyanine |
| Neuroblastoma | #ADFF2F |
Green Yellow | Quantum dot (CdSe-free) |
Why hex codes matter: A splotch on the skin is data. With hex encoding:
- A phone camera reads the splotch RGB values
- Software maps splotch position on the body to anatomical coordinates
- Splotch size correlates with tumor burden
- Splotch spread pattern maps metastatic pathways
- Multiple colors = multiple cancer types detected simultaneously
- Time-series (eat a candy quarterly) = progression tracking
- The full dataset IS the cancerome — a complete spatial map of every cancer in the body, readable from the skin surface
| Feature | What It Means |
|---|---|
| Color | Cancer type (see hex table above) |
| Position | Tumor location (splotch appears over the affected organ/region) |
| Size | Tumor burden (larger splotch = more chromophore accumulated = larger tumor mass) |
| Intensity | Metabolic activity (brighter = more GLUT1 expression = more aggressive) |
| Satellite splotches | Metastatic spread (small distant splotches = lymphatic/hematogenous metastasis) |
| Gradient edges | Tumor margin definition (sharp = well-defined, diffuse = invasive) |
| Fade rate | Vascularity (fast fade = well-perfused, slow fade = hypoxic core) |
The chromophores are designed to be temporary — metabolically cleared within 24 hours.
- Hour 0-4: Nanocapsule circulation, GLUT1-mediated uptake, pH-triggered release
- Hour 4-12: Chromophore dermal migration, splotch development, peak intensity
- Hour 12-18: Maximum signal — this is the imaging/screening window
- Hour 18-24: Hepatic metabolism + renal clearance, splotch fading
- Hour 24+: Clear skin. No permanent marking. No tattoo. No stigma.
The 24hr window is critical for two reasons: (1) repeated screening — eat a candy quarterly, map the cancerome, track changes; (2) no permanent visible marker that could cause social stigma or discrimination.
Same candy. Different encapsulation. One week of continuous cancer mapping — no extra purchases required.
The 7-day variant uses a PLGA depot (poly-lactic-co-glycolic acid) secondary encapsulation around the chromophore payload. Instead of releasing all chromophore at once (bolus → 24hr fade), the PLGA microsphere sits at the tumor site and erodes over 7 days, leaking chromophore to the skin surface continuously.
Why PLGA:
- FDA-approved biodegradable polymer (used in Lupron Depot, Zoladex, Risperdal Consta)
- Tunable degradation rate: 50:50 PLGA = ~2 weeks, 75:25 PLGA = ~5 weeks. A 65:35 ratio targets the 7-day sweet spot.
- Same D-Xylose/GLUT1 targeting. Same pH-triggered primary release. The PLGA is the secondary slow-release layer.
- Fully metabolized to lactic acid + glycolic acid → CO2 + H2O. No accumulation.
7-Day Timeline:
| Day | What Happens | Splotch State |
|---|---|---|
| Day 0 | Candy ingested. Nanocapsules circulate. GLUT1 uptake at tumor sites. pH triggers primary capsule rupture. PLGA depots anchor at tumor site. | No visible splotch yet |
| Day 1 | PLGA surface erosion begins. First chromophore reaches dermis. | Faint splotch appears — initial detection signal |
| Day 2 | Steady-state chromophore release. Splotch intensifies. | Color readable. Position mappable. Scan window opens. |
| Day 3 | Peak depot release rate. Maximum chromophore at skin surface. | Peak signal — optimal imaging day. Best day for phone scan. |
| Day 4 | Sustained release continues. Splotch stable. | Doctor visit window. Splotch still strong. |
| Day 5 | PLGA bulk erosion phase begins. Release rate starts declining. | Splotch beginning to fade at edges. Core still vivid. |
| Day 6 | PLGA fragments fully. Remaining chromophore released. | Splotch fading. Still identifiable by app. |
| Day 7 | Chromophore cleared. PLGA metabolized completely. | Clear skin. Full cycle complete. |
Why 7 days matters:
| Problem with 24hr-only | How 7-day solves it |
|---|---|
| Need to schedule doctor visit within 6hr peak window | 7 days to get to a doctor — especially in rural areas |
| Must buy another candy if splotch fades before scan | One candy is enough. No repeat purchase. No cost barrier. |
| Single timepoint = snapshot | Daily progression tracking over the week shows tumor behavior |
| Rural/underserved patients can't reach clinic in 24hr | A week to travel. Even the most remote patient has time. |
| Phone was dead during the 6hr window | Multiple scan opportunities across 7 days |
| Anxiety of "I have to check NOW" | Calm monitoring. Day 3 is optimal but Days 2-5 all work. |
Two-tier product line:
| Tier | Duration | Use Case | Cost |
|---|---|---|---|
| FLASH (24hr) | 24 hours | Rapid screening events, clinical settings, mass screening campaigns | $0.01-0.10/dose |
| WATCH (7-day) | 7 days | Take-home monitoring, rural deployment, self-screening, progression tracking | $0.05-0.30/dose |
Both tiers available in all 24 flavors. Same candy forms. The difference is the chromophore encapsulation layer — FLASH uses free chromophore (immediate release, fast clearance). WATCH wraps the chromophore in 65:35 PLGA (sustained release, 7-day clearance).
| Version | Architecture | Status |
|---|---|---|
| V1 — LNP Nanocapsule | Lipid nanoparticle + D-xylose surface ligands + type-specific chromophore payload + pH-triggered release (tumor pH 6.2-6.8 vs normal 7.4) | Achievable with existing nanomedicine infrastructure |
| V2 — Bucky Mesh | Sugar-polymer cage with fullerene-derived mesh, chemo-osmotic drift, self-assembling, multi-chromophore payload | Architecture defined |
| V2.2 — Janus Hollow Shell | Half-hydrophilic/half-hydrophobic asymmetric nanocell, rolling chemotaxis toward glucose gradients, centrifugal chromophore launch, mixed-type detection | Architecture defined, 3-SAT manufacturing constraints mapped |
Multi-type detection: V2.2 can carry mixed chromophore payloads — different chromophores release based on different tumor microenvironment signatures (pH, hypoxia markers, enzyme expression). One candy detects all types simultaneously.
Estimated cost: $0.01-0.10/dose at LNP manufacturing scale.
- Chromophore dermal migration specificity — ensuring splotch position accurately maps to tumor position, not just general lymphatic drainage patterns. Needs: anatomical validation studies.
- Multi-cancer discrimination — when two cancer types are co-located, the hex colors blend. Needs: spectral separation or sequential chromophore release timing.
- Skin tone calibration — hex readout varies with melanin content. Needs: calibration algorithm per Fitzpatrick scale, or fluorescent chromophores readable under UV rather than visible light.
- Depth-to-surface signal attenuation — deep tumors (pancreatic, ovarian) produce weaker skin signals than superficial tumors (breast, melanoma). Needs: chromophore amplification cascade or enzymatic signal boosting at depth.
- Regulatory pathway — this is a diagnostic, not a therapeutic. FDA IVD pathway vs drug pathway vs combination product. Classification determines timeline.
- False positive rate — inflammation, infection, and wound healing also lower local pH. Needs: secondary tumor-specific trigger beyond pH alone (e.g., matrix metalloproteinase cleavage, hypoxia-responsive element).
- PLGA burst release suppression — 65:35 PLGA microspheres can have a 15-30% initial burst on Day 0. Needs: surface PEGylation or double-walled PLGA-PLA core-shell microsphere to flatten the release curve.
- 7-day chromophore photo-stability — chromophores at dermal depth are exposed to ambient UV for 7 days instead of 24 hours. Potential photobleaching reduces signal by Day 5-6. Needs: UV-resistant chromophore derivatives or deeper depot placement.
- WATCH-tier regulatory classification — a 7-day sustained-release diagnostic nanocapsule may be classified differently than a 24hr cleared diagnostic. Needs: FDA pre-submission meeting to clarify IVD vs drug-device combination for sustained-release variant.
Same two mechanisms in every candy. 24 different expressions so no kid's taste is missed. Every flavor contains the D-Xylose prevention stack. Every flavor can carry the GREEN detection nanocapsule payload.
| # | Flavor | Candy Form | Color |
|---|---|---|---|
| 1 | Strawberry | Gummy bear | Red |
| 2 | Blue Raspberry | Gummy bear | Blue |
| 3 | Grape | Gummy bear | Purple |
| 4 | Green Apple | Gummy bear | Green |
| 5 | Watermelon | Gummy ring | Pink/Green |
| 6 | Mango | Gummy ring | Orange |
| 7 | Pineapple | Gummy ring | Yellow |
| 8 | Cherry | Gummy ring | Dark Red |
| 9 | Lemon | Hard candy | Yellow |
| 10 | Orange | Hard candy | Orange |
| 11 | Lime | Hard candy | Green |
| 12 | Cinnamon | Hard candy | Red |
| 13 | Vanilla | Lollipop | White |
| 14 | Cotton Candy | Lollipop | Pink/Blue |
| 15 | Bubblegum | Lollipop | Pink |
| 16 | Root Beer | Lollipop | Brown |
| 17 | Chocolate | Chew | Brown |
| 18 | Caramel | Chew | Gold |
| 19 | Peanut Butter | Chew | Tan |
| 20 | Coconut | Chew | White |
| 21 | Peach | Powder/sachet | Orange |
| 22 | Mixed Berry | Powder/sachet | Purple |
| 23 | Tropical Punch | Powder/sachet | Red |
| 24 | Unflavored | Powder/sachet | Clear |
Six candy forms × four flavors each = 24 SKUs. Gummy bears, gummy rings, hard candies, lollipops, chews, and powder sachets. The powder/sachet form factor enables the $0.025/dose minimum viable deployment for global reach.
Design constraint: Every form factor must be shelf-stable without cold chain. Every flavor must mask the D-Xylose taste profile (mildly sweet, slight woody note). Every SKU must be manufacturable with existing confectionery equipment.
Allergen-free by design: D-Xylose is a pure monosaccharide — zero protein epitopes, zero IgE binding potential. No nuts, no dairy, no gluten, no soy in the base formulation. Individual flavors that add allergens (e.g., #19 Peanut Butter) are clearly labeled; the mechanism itself is allergen-free.
cancer_candy_catalogue.md — Full technical catalogue: mechanisms, costs, evidence
pharma_restriction_clause.md — Legal restriction on pharma pricing exploitation
REFERENCE.md — Quick reference
src/pwa/ — CanceromeScanner PWA (phone camera → splotch → doctor)
index.html — App shell
manifest.json — PWA install metadata
service-worker.js — Offline-first cache
styles.css — Mobile-first responsive layout
js/
app.js — Main orchestrator
camera.js — getUserMedia capture + frame extraction
hex-lookup.js — RGB → hex → cancer type identification
skin-calibration.js — Fitzpatrick I-VI melanin offset correction
body-mapper.js — Anatomical coordinate mapping
splotch-analyzer.js — Feature extraction (size, intensity, edges, satellites)
severity-scorer.js — Triage scoring from splotch features
doctor-router.js — Cancer type → specialist routing
timeline.js — Temporal progression tracking (24hr + 7-day)
cancerome-3d.js — Full-body 3D cancerome visualization
export.js — Encrypted PDF + FHIR bundle export
doctor-dashboard.html — Clinician intake view
dashboard.js — Dashboard logic + patient queue
data/
cancer-types.json — 24 cancer types, hex codes, chromophore classes
body-regions.json — Anatomical region → coordinate map
specialist-types.json — Cancer type → doctor specialty routing
fitzpatrick-calibration.json — Skin tone RGB offsets (Fitzpatrick I-VI)
severity-rules.json — Triage scoring rules
src/python/
sat_solver.py — 3-SAT feasibility solver for GREEN nanocapsule manufacturing
cost_calculator.py — Cost models for prevention + detection tiers
prior_art.py — Cryptographic prior art timestamping
Eat the candy. Open the app. Point the camera. Know everything.
The CanceromeScanner is a Progressive Web App that turns any smartphone into a cancer detection terminal. It reads the hex-coded splotches produced by the GREEN nanocapsule, maps them to cancer types, scores severity, and routes the patient to the right doctor — all offline, all encrypted, all free.
How it works:
- Scan — Phone camera captures splotch image
- Calibrate — Skin tone detection (Fitzpatrick I-VI) applies melanin correction to RGB values
- Identify — Corrected hex values matched against 24 cancer type database
- Map — Splotch position mapped to anatomical body region
- Analyze — Splotch features extracted: size, intensity, edge gradient, satellite count, fade rate
- Score — Severity triage from splotch features: LOW / MODERATE / HIGH / CRITICAL
- Route — Cancer type → specialist mapping → nearest provider (if online)
- Track — Time-series comparison: this scan vs previous scans → progression detection
- Export — Encrypted PDF report or FHIR R4 bundle for clinical handoff
Key design decisions:
- Offline-first — works without internet. Critical for rural deployment.
- No account required — no login, no cloud, no data collection. Scan data stays on-device.
- Encrypted export only — patient controls when and how data leaves their phone.
- Free forever — this is a healthcare tool, not a revenue stream.
Doctor Dashboard: A separate clinician view where doctors can receive encrypted patient scans, view the cancerome map, and triage incoming patients by severity score.
Screenshots will be added once the first prototype build is running. The app is a PWA — install it from any browser, no app store required.
Race to Cure Cancer — treatment and cure for those who already have cancer. Tiered by stage, stage 4 priority. All tiers inform all others.
Cancer Candy stops kids from getting cancer. Race to Cure Cancer helps those who already have it. If this repo does its job, that repo becomes unnecessary.
This repository constitutes published prior art under 35 U.S.C. § 102. All mechanisms, formulations, architectures, and deployment plans described herein are disclosed to the public as of their commit timestamps. No entity may patent any claim that is anticipated by or obvious in light of these disclosures.
Every mechanism cited has published evidence. Every cost estimate uses real market data. The compounds exist. The equipment exists. The manufacturing exists.
See pharma_restriction_clause.md. Any entity using these designs to charge more than 10× the documented manufacturing cost violates the spirit and intent of this disclosure. The catalogue exists to make healthcare cheaper, not to create new profit centers.
This work is licensed under The Time License — Tyler Roost / The TimeLord. Open prior art. Cannot be patented. That's the point.
Canonical: TimeLordRaps/the-time-license
$150K/year cancer treatment. Chemistry costs $12. Not solved means go faster.