Any time we come up with an idea for a new product, the idea usually directly stems from a need we have experienced in our own lives. Dealing with damaged hair can be difficult and costly, and many of us feel that we don’t have time for regular salon treatment. On top of that, there are so many options flooding the marketplace it can be difficult to discern what works and what is a marketing bluster.
We created The Mane Agent | Advanced Molecular Bond Repair to work – and to work exceptionally well with a patent pending formulation that is serious about achieving transformative results.
When we set out to formulate a new product, we refuse to compromise on its efficacy. Our formulator, Susanne, created over 100 iterations of The Mane Agent | Advanced Molecular Bond Repair in the lab until she found the right balance and felt as though she had created something unique – and most importantly, something wildly efficacious. Not only do we feel thrilled with the final product, but it seems as though our clients feel the same way.
Before our product was ever introduced in market, a 3rd party conducted a two-week long Consumer Usage Study. The results blew us away, to say the least. According to the study, 86% of participants said The Mane Agent is better than any hair treatment product they had previously tried. After hearing these results, we couldn’t wait for product launch day. Since then, The Mane Agent has received a lot more love – and we are so grateful!
So, what makes The Mane Agent different from other hair repair products? We’ve found that many leave-in treatments mask signs of damage without offering any opportunity for real repair. We didn’t want our product to solely make hair look healthier for the short term; we needed it to actively repair and strengthen each strand. Let’s look at the science behind our latest product and find out why The Mane Agent works.
Before we delve into how The Mane Agent works to repair the hair, let’s do a little refresh on hair anatomy.Each individual strand of hair consists of three layers:
There are three types of bonds in the hair. Each type has a special role in the composition and strength of the hair shaft:
+ Disulfide bonds are permanent bonds that determine the hair’s natural shape, stability, and texture. These bonds are broken by chemical treatments as well as permanent styling methods.3
The hair shaft is made up of microscopic keratin proteins that are linked together by disulfide bonds to form long molecular chains throughout the hair. The more disulfide bonds that are present, the stronger the keratin proteins become – and the stronger the hair shaft will be. When hair is damaged, these bonds are broken, causing the molecular chains to be disrupted.2,3
The Mane Agent | Advanced Molecular Bond Repair works to reconstruct all three of these different bonds. As well as the molecular chains within the hair shaft, resulting in healthier, stronger strands. Let’s dig a little deeper into our innovative formulation.
The Science Behind The Mane Agent | Advanced Molecular Bond Repair
We tested over 100 iterations of The Mane Agent before we formulated a version that we are confident performs above and beyond your traditional conditioning treatments. Unlike other leave-in products, this innovative formulation works to transform your hair from deep inside the hair shaft.
The foundational element of The Mane Agent | Advanced Molecular Bond Repair is our proprietary technology – a complex comprised of chia seed, polysaccharides, and amino acids. This reactive system works to covalently bond to broken disulfide bonds within keratin proteins in the cortex, repairing damaged links between keratin fibers and working to restore hair structure and strength.
In addition to disulfide bond repair, the proprietary formulation seals loose ionic bonds to strengthen the hair shaft and promote elasticity. It also addresses hydrogen bonds by locking in moisture and hydration within the hair shaft.
The goal is to not only have your hair look and feel healthier – but to actually be healthier! Our unique bonding agent aims to fills gaps in the hair follicle and improve porosity, increase resistance to water and humidity, reinforce the cuticle of the hair fiber and volumize each individual hair shaft – resulting in truly stronger, smoother, bouncier, healthier hair.
In addition to bond-forming benefits, our proprietary complex is clinically proven to increase hydration. It actively forms a protective, yet conditioning shield in the cuticle to lock in moisture and protect your hair from future damage. Even better, The Mane Agent works in conjunction with heat to smooth hair cuticles and retain style.
During a recent study, standard electron microscopy (SEM) imaging was used to develop high resolution images of various hair cuticles, some of which were treated with our proprietary technology and some left untreated during a bleaching process. The hairs treated with our proprietary bonding and moisturizing technology showed a significant decrease in hair cuticle damage. Unlike conventional brands, our unique formulation is free from controversial ethoxylated chemicals and is clean and renewable.
So, let’s get down to the bottom line; The Mane Agent | Advanced Molecular Bond Repair is suitable for all hair types and textures, and blends seamlessly into any hair routine. Just spray through the lengths of clean, towel-dried hair and continue to style as usual. Before you know it, your hair will be the healthiest you’ve ever experienced!
- Gavazzoni Dias, M. F. R. (2015). Hair cosmetics: An overview. International journal of trichology. Retrieved December 29, 2022, from https://www.ncbi.nlm.nih.gov/pmc/articles/PMC4387693/
- Zviak, C. (2008). The Science of Hair Care. (C. Bouillon & J. D. Wilkinson, Eds.) Canadian Cosmetic Cluster. Informa Healthcare. Retrieved January 13, 2023, from https://www.canadiancosmeticcluster.com/uploads/3/7/9/8/37984461/epdf.pub_the-science-of-hair-care.pdf.
- Sinclair, R. D. (2015, December 16). Healthy hair: What is it? Journal of Investigative Dermatology Symposium Proceedings. Retrieved January 13, 2023, from https://www.sciencedirect.com/science/article/pii/S0022202X15526559