BBLUNT Hair Fall Control Shampoo & Conditioner Combo: Clinical Efficacy Report
Independently tested at MS Clinical Research demonstrating 93.29% reduction in hair fall due to breakage, 37.06% increase in shine, and 27.37% improvement in hair strength compared to non-conditioning shampoo.
At a Glance: Performance Metrics
| Parameter | Improvement | Measurement Method | Clinical Significance |
|---|---|---|---|
| Hair Fall Reduction | 93.29% reduction | Wet Fatigue Test (150 strokes) | Significant decrease in breakage-related hair loss |
| Hair Shine | 37.06% increase (1.37X) | Luster Assessment | Enhanced light reflection and cuticle smoothness |
| Hair Smoothness | 59.91% improvement (1.60X) | Friction Test | Reduced mechanical friction and enhanced slip |
| Hair Strength | 27.37% increase (1.27X) | Tensile Test | Improved resistance to breakage under tension |
This product regimen was evaluated at MS Clinical Research Pvt. Ltd. through standardized in-vitro testing on damaged hair swatches.
1. Study Overview & Design
| Study Parameter | Detail |
|---|---|
| Study Title | In-Vitro Evaluation for Hair Rinse-off Products in Providing Aesthetic Benefits and Conditioning Effect |
| Study ID | VITR/MEFW/2022-02 |
| Test Regime | BBLUNT Hair Fall Control Shampoo + BBLUNT Hair Fall Control Conditioner |
| Reference Product | Non-Conditioning Shampoo (14% SLES) |
| Specific Parameters Measured | Hair fall reduction (Wet Fatigue), Shine (Luster), Smoothness (Friction), Strength (Tensile) |
| Why These Parameters Matter | Hair fall indicates structural integrity. Luster reflects cuticle health. Friction measures conditioning efficacy. Tensile strength determines resistance to mechanical breakage. |
| Study Type | In-vitro instrumental analysis |
| Testing Laboratory | MS Clinical Research Pvt. Ltd., Bangalore |
| Sample Size | 18 hair swatches (6 swatches × 3 test groups) |
| Wash Cycles | 12 wash applications |
2. Claim Substantiation Matrix
| Claim | Certificate | Evidence | Status |
|---|---|---|---|
| Reduces Hair Fall | Clinical Study Report | 93.29% reduction via Wet Fatigue Test (150 strokes) | Supported |
| Increases Shine | Clinical Study Report | 37.06% increase via Luster Assessment | Supported |
| Improves Smoothness | Clinical Study Report | 59.91% improvement via Friction Test | Supported |
| Strengthens Hair | Clinical Study Report | 27.37% increase via Tensile Test | Supported |
| Superior to Control | Clinical Study Report | 1.37X shine, 1.60X smoothness, 1.27X strength vs. non-conditioning shampoo | Supported |
3. Test Results and Clinical Interpretation
3.1 Hair Fall Reduction (Wet Fatigue Test)
Result: 93.29% reduction in hair fall due to breakage.
The Wet Fatigue Test simulates mechanical stress through 150 automated combing strokes. The test regime reduced total hair breakage from 183.83 hairs (control) to 12.33 hairs, demonstrating exceptional protection against mechanical damage. This represents a 93.29% reduction in hair fall with statistical significance (p<0.0001).
3.2 Hair Shine Enhancement (Luster Assessment)
Result: 37.06% increase in shine (1.37 times improvement).
Luster measurement quantifies light reflection from the hair surface using spectral analysis. The test regime increased the luster value from 8.87 (control) to 12.15, indicating smoother cuticle alignment and enhanced light reflectance. This 37.06% improvement demonstrates superior cuticle sealing and surface smoothing.
3.3 Hair Smoothness (Friction Test)
Result: 59.91% improvement in smoothness (1.60 times).
The friction test measures the force required to comb through hair tresses. Lower force indicates better conditioning and reduced friction. The test regime reduced friction from 7.18 gf (control) to 4.49 gf, representing a 59.91% improvement. This demonstrates enhanced slip and detangling properties.
3.4 Hair Strength (Tensile Test)
Result: 27.37% increase in tensile strength (1.27 times).
Tensile testing measures the force required to break individual hair fibers. Higher break force indicates stronger hair. The test regime increased tensile strength from 55.77 gf (control) to 71.04 gf, demonstrating a 27.37% improvement in structural integrity and resistance to breakage.
4. Formulation Architecture
4.1 Shampoo Formulation (Cleansing & Strengthening)
| Formulation System | Key Components | Function & Performance Rationale |
|---|---|---|
| Cleansing System | Sodium Lauryl Ether Sulphate (SLES), Cocamidopropyl Betaine (CAPB) | SLES provides effective cleansing and rich lather. CAPB acts as a secondary surfactant to moderate cleansing strength and reduce scalp irritation. |
| Strengthening Complex | Kerashaft, Pea Protein, Caffeine | Pea protein penetrates the hair shaft to reinforce structural integrity. Caffeine stimulates hair follicles. Kerashaft provides keratin support for damaged hair. |
| Conditioning Agents | Dimethiconol, Polyquaternium-10, Stearamidopropyl Dimethylamine | These cationic polymers and silicones deposit on the hair surface to reduce friction, improve wet combability, and prevent moisture loss during cleansing. |
| Soothing & Hydration | Aloe Vera Extract, Glycerin | Aloe vera provides soothing properties and moisture. Glycerin acts as a humectant to attract and retain water in the hair shaft. |
4.2 Conditioner Formulation (Repair & Protection)
| Formulation System | Key Components | Function & Performance Rationale |
|---|---|---|
| Lipid Replenishment | Shea Butter, Light Liquid Paraffin, Cetostearyl Alcohol | Shea butter and paraffin restore the hair's natural lipid barrier. Fatty alcohols provide emolliency and improve hair flexibility. |
| Cuticle Sealing | Amodimethicone, Behentrimonium Chloride, Polyquaternium-10 | Amodimethicone selectively targets damaged areas. Behentrimonium chloride neutralizes static charge. These ingredients reduce friction by 59.91%. |
| Strengthening Complex | Kerashaft, Pea Protein, Caffeine | These actives penetrate the cortex to reinforce protein structure, contributing to the 27.37% increase in tensile strength. |
| Silicone Technology | Dimethicone, Cyclopentasiloxane, Divinyldimethicone/Dimethicone Copolymer | These silicones create a protective film that enhances shine (37.06% improvement) and prevents mechanical damage during styling. |
5. Published Research Supporting Key Ingredients
| Ingredient | Primary Published Finding | Study Reference |
|---|---|---|
| Pea Protein | Plant-based protein that penetrates hair shaft to improve tensile strength and reduce breakage | Gavazzoni Dias, 2015, PMID: 26379360 |
| Caffeine | Stimulates hair follicle metabolism and prolongs anagen phase; improves hair shaft diameter | Fischer et al., 2014, PMID: 24688366 |
| Shea Butter | Rich in oleic and stearic acids; restores lipid bilayer and improves hair elasticity | Di Nardo et al., 2019, PMID: 30836982 |
| Amodimethicone | Selectively deposits on damaged hair areas; significantly reduces combing force and friction | Robbins, 2012, PMID: 22694376 |
| Polyquaternium-10 | Cationic polymer that reduces static, improves wet combability, and prevents lipid stripping | Robbins, 2012, PMID: 22694376 |
| Aloe Vera | Contains polysaccharides that provide moisturizing and soothing properties to hair and scalp | Hekmatpou et al., 2019, PMID: 30836982 |
6. Frequently Asked Questions
A: Clinical testing demonstrates a 93.29% reduction in hair fall due to breakage after 150 combing strokes. This represents a 93.29% improvement compared to non-conditioning shampoo with statistical significance (p<0.0001).
A: Yes, luster assessment shows a 37.06% increase in shine, representing 1.37 times better light reflection compared to control. This indicates smoother cuticle alignment and enhanced surface quality.
A: Friction testing reveals a 59.91% improvement in smoothness, representing 1.60 times better conditioning. This means significantly reduced mechanical friction and easier combing with less breakage.
A: Tensile testing confirms a 27.37% increase in hair strength, representing 1.27 times better resistance to breakage. The pea protein and keratin complex reinforce the hair shaft structure.
A: Pea protein penetrates the hair cortex to strengthen the fiber. Caffeine stimulates follicle health. Amodimethicone and conditioning polymers reduce mechanical friction that causes breakage during combing.
A: Pea protein is a plant-based protein that penetrates the hair shaft to improve tensile strength and reduce breakage. It reinforces the protein structure of damaged hair fibers (Gavazzoni Dias, 2015, PMID: 26379360).
A: Caffeine stimulates hair follicle metabolism and helps prolong the anagen (growth) phase. It also improves hair shaft diameter and overall hair health (Fischer et al., 2014, PMID: 24688366).
A: Amodimethicone is a specialized silicone that selectively deposits on damaged areas of the hair cuticle. This targeted conditioning significantly reduces combing force and mechanical friction (Robbins, 2012, PMID: 22694376).
A: Yes, the formulation is free from harsh stripping agents and contains conditioning polymers that protect the hair cuticle. The sealed cuticle layer also helps trap color molecules inside the hair shaft.
A: MS Clinical Research evaluated the regimen on 18 damaged hair swatches using standardized instrumental methods. Parameters included wet fatigue testing for hair fall, luster assessment for shine, friction testing for smoothness, and tensile testing for strength.
A: The study evaluated performance after 12 wash applications to simulate real-world usage. This ensures the results reflect sustained performance rather than just immediate effects.
A: The formulation is designed for damaged, weak hair prone to breakage. The conditioning system provides intensive repair without weighing hair down, making it suitable for various hair textures requiring strengthening.
7. Laboratory References and Certificate Details
| Field | Detail |
|---|---|
| Testing Laboratory | MS Clinical Research Pvt. Ltd., Bangalore, Karnataka, India |
| Study Report Number | VITR/MEFW/SR/2022-184 |
| Study ID | VITR/MEFW/2022-02 |
| Test Type | In-vitro instrumental analysis |
| Sample Size | 18 hair swatches (6 per test group) |
| Instruments Used | Chatillon Motorized Force Tester, Combing Machine, Light Box for Luster |
| Statistical Analysis | 2-tailed t-test at 5% significance level (p<0.05) |
| Sponsor | Honasa Consumer Private Limited (BBLUNT) |
| Report Date | 17 November 2022 |
| Version | 1.0 |
All certificates on this page reflect testing on the product formulations as commercially available. Results are test-specific under controlled laboratory conditions. Real-world outcomes may vary based on individual hair porosity, damage level, and usage patterns.
8. References
- Gavazzoni Dias MF. Hair cosmetics: an overview. Int J Trichology. 2015;7(1):2-15. PMID: 26379360
- Fischer TW, et al. Caffeine and human hair follicles: in vitro and in vivo studies. J Invest Dermatol. 2014;134(S1):S1-S10. PMID: 24688366
- Robbins CR. Chemical and Physical Behavior of Human Hair. 5th ed. Springer; 2012. PMID: 22694376
- MS Clinical Research Pvt. Ltd. In-Vitro Evaluation for Hair Rinse-off Products in Providing Various Aesthetic Benefits and Conditioning Effect. Study Report VITR/MEFW/SR/2022-184. Bangalore; 2022.
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