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Hair is composed of keratin proteins, held together by disulfide bonds. These bonds are crucial for maintaining hair’s strength and resilience. Daily exposure to chemical treatments, heat styling, and a myriad of environmental factors can break these bonds, leading to weakened and damaged hair.
The Role of Disulfide Bonds
Disulfide bonds act as molecular anchors within the hair fibers. When these bonds are intact, hair is strong and flexible. Broken disulfide bonds compromise hair’s structure, making it susceptible to breakage. Repairing these bonds is essential for restoring hair health.
Thiol Recombination:
A Revolutionary Approach
Thiol recombination involves using specially designed sulfur-reactive compounds, to restore disulfide bonds in hair. This method is highly effective because it directly addresses damage at the molecular level, effectively reforming these critical bonds and restoring hair's natural strength and flexibility.
Hair is composed of keratin proteins, held together by disulfide bonds. These bonds are crucial for maintaining hair’s strength and resilience. Daily exposure to chemical treatments, heat styling, and a myriad of environmental factors can break these bonds, leading to weakened and damaged hair.
The Role of Disulfide Bonds
Disulfide bonds act as molecular anchors within the hair fibers. When these bonds are intact, hair is strong and flexible. Broken disulfide bonds compromise hair’s structure, making it susceptible to breakage. Repairing these bonds is essential for restoring hair health.
Thiol Recombination:
A Revolutionary Approach
Thiol recombination involves using specially designed sulfur-reactive compounds, to restore disulfide bonds in hair. This method is highly effective because it directly addresses damage at the molecular level, effectively reforming these critical bonds and restoring hair's natural strength and flexibility.
Thiol -ene and -yne click chemistry involve adding free thiols to alkenes and alkynes, forming strong, flexible compounds that mimic natural disulfide bonds in hair. Advantages include:
High Efficiency: The reaction is very fast yielding robust linkers that integrate seamlessly into the hair structure.
Mild Conditions: The process occurs at room temperature and mild conditions, preventing further damage to hair fibers.
Versatility: Thiol -ene and -yne click chemistry technology creates various two- and three- dimensional linkers to fully repair damaged hair and address specific hair-care needs.
Thiol -ene and -yne click chemistry involve adding free thiols to alkenes and alkynes, forming strong, flexible compounds that mimic natural disulfide bonds in hair. Advantages include:
High Efficiency: The reaction is very fast yielding robust linkers that integrate seamlessly into the hair structure.
Mild Conditions: The process occurs at room temperature and mild conditions, preventing further damage to hair fibers.
Versatility: Thiol -ene and -yne click chemistry technology creates various two- and three- dimensional linkers to fully repair damaged hair and address specific hair-care needs.
FUNCTION
Rebuilds disulfide bonds, restoring hair's natural strength and flexibility.
BENEFITS
Significantly improves hair elasticity and reduces breakage. Studies show that hair treated with Aminalyl-S has a notable decrease in e-modulus, indicating increased flexibility and resilience.
FUNCTION
Enhances hair resilience by repairing internal bonds and protects hair from damage.
BENEFITS
Increases hair's tensile strength and overall health. Clinical tests demonstrate that Pro-Amino-X effectively reduces tensile strength at 15% extension, reducing brittleness and enhancing manageability besides future-proofing the repaired hair fibers from any damage.
FUNCTION
Rebuilds disulfide bonds, restoring hair's natural strength and flexibility.
BENEFITS
Significantly improves hair elasticity and reduces breakage. Studies show that hair treated with Aminalyl-S has a notable decrease in e-modulus, indicating increased flexibility and resilience.
FUNCTION
Enhances hair resilience by repairing internal bonds and protects hair from damage.
BENEFITS
Increases hair's tensile strength and overall health. Clinical tests demonstrate that Pro-Amino-X effectively reduces tensile strength at 15% extension, reducing brittleness and enhancing manageability besides future-proofing the repaired hair fibers from any damage.
Elastic Modulus (E-Modulus):
Significant reduction in E-modulus indicates increased hair flexibility. Hair treated with ANATOMY® molecules showed a substantial decrease of their E-modulus, making it more elastic and less prone to breakage.
Tensile Strength:
Lower tensile strength at 15% extension signifies reduced brittleness.
Elastic Modulus (E-Modulus):
Significant reduction in E-modulus indicates increased hair flexibility. Hair treated with ANATOMY® molecules showed a substantial decrease of their E-modulus, making it more elastic and less prone to breakage.
Tensile Strength:
Lower tensile strength at 15% extension signifies reduced brittleness.
Traditional Methods: Primarily work on the surface of the hair, providing a temporary fix.
Thiol Recombination: Penetrates deep into the hair shaft, repairing disulfide bonds at the molecular level for long-lasting results.
Traditional Methods: Use conditioning agents and proteins that temporarily bind to the hair surface.
Thiol Recombination: Involves chemical reactions that rebuild the hair’s internal structure, restoring its natural strength and elasticity.
Traditional Methods: Provide immediate but short-lived benefits, often requiring frequent reapplication.
Thiol Recombination: Offers durable repair and protection, with improvements that accumulate over time with regular use.
Traditional Methods: Provide minimal protection against future damage.
Thiol Recombination: Creates a protective barrier that shields hair from environmental and chemical stressors, reducing the risk of future damage.
Traditional Methods: Primarily work on the surface of the hair, providing a temporary fix.
Thiol Recombination: Penetrates deep into the hair shaft, repairing disulfide bonds at the molecular level for long-lasting results.
Traditional Methods: Use conditioning agents and proteins that temporarily bind to the hair surface.
Thiol Recombination: Involves chemical reactions that rebuild the hair’s internal structure, restoring its natural strength and elasticity.
Traditional Methods: Provide immediate but short-lived benefits, often requiring frequent reapplication.
Thiol Recombination: Offers durable repair and protection, with improvements that accumulate over time with regular use.
Traditional Methods: Provide minimal protection against future damage.
Thiol Recombination: Creates a protective barrier that shields hair from environmental and chemical stressors, reducing the risk of future damage.
