2dDR Research Grade Compound: Advancing Hair Biology Studies
Published Research Pubmed Research Paper
Research-Grade Material for Preclinical Investigation
Our 2-deoxy-D-ribose (2dDR) research compound is designed for scientists investigating hair follicle biology and angiogenesis pathways. Recent preclinical studies have demonstrated promising results in animal models of androgenic alopecia.
Published Research Findings
In a controlled preclinical study, researchers observed that 2dDR demonstrated 80-90% of the effectiveness of minoxidil doi in promoting hair regrowth in mouse models of androgenic alopecia.
Key Study Observations
Research using 2dDR in animal models documented:
Increased follicle length – Comparable measurements to control groups within 21-day study periods
Enhanced follicular density – Greater number of active follicles per measured area
Improved hair shaft diameter – Increased thickness measurements in treated specimens
Modified anagen/telogen ratios – Extended active growth phase in follicular cycling
Neovascularization – Increased blood vessel formation in dermal tissue surrounding follicles
Mechanism of Interest
The research suggests 2dDR may work through angiogenic pathways. Hair follicles require adequate vascularization for nutrient and oxygen delivery. Studies indicate 2dDR may stimulate blood vessel formation in tissue, potentially creating favorable conditions for follicular activity in experimental models.
Formulation Characteristics
The published research utilized an alginate-based gel formulation with sustained release properties, demonstrating gradual compound release over multiple days in vitro.
Research Applications
This compound may be of interest for studies investigating:
Androgenic alopecia mechanisms
Hair follicle biology and cycling
Angiogenesis in dermal tissue
Alternative approaches to chemotherapy-induced alopecia research
VEGF pathway modulation
Research-Grade Quality
Our 2dDR is suitable for preclinical research applications and in vitro studies exploring hair follicle biology and vascular development.