Anti aging peptides – are they really worth using (paying for?!) in your skin care products…
Simple answer: yes they are! But there are significant “buts”!
Peptides and HOW do they help in anti aging skin care
A peptide is a molecule that directs certain functions of skin.
Similar but smaller than a protein, they are made up of a chain of amino acids.
What’s cool about them: They get other molecules to do things and they cause things to happen (for example an increase in collagen production) (1):
Peptides can do the following:
- CAUSE STUFF TO HAPPEN – like stimulate collagen production within the skin or decrease its breakdown. See information about the peptide KTTKS below.
- DO STUFF – like “Botox” type muscle freezing. Or more accurately, they make it harder for a muscle to contract which results in less movement and therefore less wrinkles/fine lines over time (1). The topical application of these peptides has not yet been shown to be as effective as Botox however.
- DELIVER STUFF – like carry important molecules needed for healing and other processes within the skin. Also called “carrier peptides”, these act to both stabilize and carry these important “other” molecules into cells (1). See the information about the copper peptide and its buddy below.
Ok, so why care about peptide details?
Because: this info shows you just how beneficial they really can be for your skin.
It also highlights the importance of the right formulation for a skin care product – anything active needs to be stabilized, in a high enough dose, and in a form that can actually be delivered into skin in order to show results.
Below let’s look at 3 of the best scientifically backed anti aging peptides:
Three Anti Aging Peptides that work:
3 scientifically backed anti aging peptides:
1. Copper Peptides
What copper peptides do:
Copper plays a significant role in wound healing, new development of blood cells, and in aiding chemical processes within the skin (including collagen and elastin production) (1).
In other words, it can help smooth and thicken skin, improve its texture, and combat other signs of aging.
This is one amazing and important metal element!
- Even pillowcases infused with copper have been shown to improve the appearance of skin within two weeks (2)!
- (Yes, copper infused pillowcases are actually a thing… check this one out on Amazon.com >*)
2. KTTKS – AKA “Matrixyl”
This cool peptide has been shown to play a role in the increased production of collagen.
A well-controlled 12 week clinical trial showed significant improvement in fine lines, wrinkles and skin texture with its use (1).
In order to be devliered into the skin it needs to be linked with palmitic acid – these two combined peptides are marketed in the skin care industry as “Matrixyl*”.
3. “Botox-like” Peptides
The peptides that work in a similar way to Botox are called “neurotransmitter-affecting peptides” (1).
Basically they make it harder for muscles to move, which results in less movement (duh) and therefore a reduction in and/or prevention of fine lines and wrinkles.
Again, they have not been shown to work as well as Botox itself.
However, their results are promising, and a lot less daunting than a needle!
(Probably a lot more natural looking too).
Anti aging peptides do work and can make a significant difference to your skin.
Knowing how they work and the scientific backing behind them is really important in making the right decisions for your skin care.
It is the difference between an expensive skin care product that is essentially useless despite the promises on its label, and one that will actually make a difference!
(1): Lupo, M.P. & Cole, A.L. (2007). Cosmeceutical Peptides. Article in the journal: Dermatologic Therapy Vol. 20, p. 343-349. https://www.ncbi.nlm.nih.gov/pubmed/18045359
(2): G. Borkow, J. Gabbay, A. Lyakhovitsky & M. Hussar. (2009). Improvement of Facial Skin Characteristics Using Copper Oxide Containing Pillowcases: a double-blind, placebo-controlled, parallel, randomized study. Article in the journal: International Journal of Cosmetic Science Vol. 31, p. 437-443. https://www.ncbi.nlm.nih.gov/pubmed/19467028