STIM.buzz ↗
CROSS-KINGDOM PROTEOSTASIS PLATFORM

Nature-Grounded Systemic Resilience

A bio-fermented botanical platform investigating proteostatic balance across Animalia, Plantae, and Funga: spearheading frontline pollinator resilience at STIM.buzz while establishing translational research cohorts.

Explore STIM.buzz (Phase 1) ↗ Explore the Kingdoms
Interactive Systemic Visualization

Three Kingdoms of Proteostasis

A comparative biological platform exploring conserved chaperone resilience across Animalia, Plantae, and Funga.

Dynamic Molecular Chaperone Homology Engine
ANIMALIA PLANTAE FUNGA HSP70 CORE Targeted Smilax Chemotype I Animalia • RESEARCH PLATFORM
Interactive Proteostasis Stress Simulator
Homeostatic Baseline
HSP70 Reserves: 1.0x (Normative)
Baseline Thermal 105°F Agrochemical Severe Duress
Animalia HYPOTHESIZED

Human Proteostasis

Dual Chemotype: Targeted Smilax Chemotype I
Primary Actives: Standardized dihydroflavonol content (HPLC-verified per batch), Steroidal sapogenins, Flavonoid glycosides

Overview & Application

Supports whole-body protein folding equilibrium, endoplasmic reticulum (ER) stress resilience, and mucosal epithelial integrity under metabolic and environmental duress.

Molecular Pathway & Receptor Gating

Standardized dihydroflavonol glycoside fractions selectively modulate Store-Operated Calcium Entry (SOCE) at STIM1/Orai1 channels, preventing sustained intracellular Ca2+ overload and suppressing RAGE-ERK1/2-NF-kB inflammatory cascades while upregulating chaperone GRP78/BiP reserves.

Verified Scientific Evidence

  • Shin et al. (2015): PLOS ONE, 10(12), e0145876
    Dihydroflavonol SOCE inhibition & ER folding
  • Vasquez et al. (2024): PMC11936870
    Phytochemical proteostasis network modulation
Explore Human Protocol →

*These statements have not been evaluated by the Food and Drug Administration. This research framework is for scientific investigation and dietary cellular support under DSHEA principles, and is not intended to diagnose, treat, cure, or prevent any disease.

ESTABLISHED Direct peer-reviewed evidence
SUPPORTED Mechanism proven, application in testing
HYPOTHESIZED Plausible mechanism, translational model
Legacy & Philosophy

Indigenous Roots & Seventh Generation Stewardship

Guided by Creek heritage and a Seventh Generation philosophy, STIM.bio is built on the understanding that every decision we make must protect and serve the land and the people seven generations into the future.

Our journey began as a deep, five-year return to the soil, seeking natural, whole-plant balance for our family outside the boundaries of isolated synthetic chemical compounds. We honor the plant's full architecture so that it can honor yours.

Read Our Journey
A cross-section of healthy biological soil showing root networks intertwining with glowing mycorrhizal mycelium
Botanical Precision

Dual-Chemotype Targeted Botanicals

Two distinct Smilax chemotypes, each selected for its complementary phytochemical profile. One anchors human and companion-animal cellular proteostasis work; one anchors apiary thermal armor.

STIM.bio Core Platform

Targeted Smilax Chemotype I (Dihydroflavonol-Rich)

Specialized for human cellular proteostasis, companion canine metabolic and gut mobility support (hypothesized), and forest root-zone mycorrhizal development.

  • Rich in standardized dihydroflavonol content, HPLC-verified per batch
  • Inhibits store-operated calcium overload (SOCE) at STIM1/Orai1
  • Protects mucosal epithelial barriers and tight junctions
STIM.buzz Standalone Platform

Targeted Smilax Chemotype II (Brassinosteroid & Sapogenin Complex)

Specialized for apiary thermal armor, flight muscle protection, and agrochemical neonicotinoid detoxification co-factors.

  • High concentration of brassinosteroid analogue fractions
  • Bio-fermented steroidal sapogenin complex
  • Induces worker bee thoracic HSP70 & CYP9Q detox enzymes

Join the Research Registry

Phase 1 deployment is active at STIM.buzz for apiary cohorts. Register below to access technical molecular dossiers, receive longitudinal research updates, and join future batch allocation cohorts across our evolutionary spheres.