Applications of Probiotic Constituents in Cosmetics
by
Jiaxin Dou
1,2,†,
Ning Feng
3,†,
Fangyu Guo
1,2,
Zouquan Chen
1,2,
Jie Liang
1,2,
Ting Wang
1,2,*,
Xueping Guo
4,* and
Zhenshang Xu
1,2,* 1
State Key Laboratory of Biobased Material and Green Papermaking, Qilu University of Technology, Shandong Academy of Science, Jinan 250353, China
2
School of Bioengineering, Qilu University of Technology, Shandong Academy of Science, Jinan 250353, China
3
Huaxi Biotechnology Co., Ltd., No. 678, Tianchen Road, Lixia District, Jinan 250000, China
4
Zhucheng Dongxiao Biotechnology Co., Ltd., Zhucheng 262200, China
*
Authors to whom correspondence should be addressed.
†
These authors contributed equally to this work.
Molecules 2023, 28(19), 6765; https://doi.org/10.3390/molecules28196765
Submission received: 8 August 2023
/
Revised: 19 September 2023
/
Accepted: 20 September 2023
/
Published: 22 September 2023
Abstract
:Over the past few decades, research on the benefits of beneficial microorganisms on skin health has expanded and attracted a lot of attention. Today, a wide range of probiotic products are becoming available. With their extensive component profiles and varied physiological effects, probiotics, as well as extracts of them, have a significant impact on cosmetics. However, the present boom in consumer interest in alternatives has broadened the probiotic industry’s research and development frontiers. Considering the foregoing, it should come as no surprise that probiotics are highly valued for their proven anti-aging, skin whitening, anti-inflammatory, and photoprotective effects. This review aims to compile information on probiotics’ properties, their extracts, and preparations used in cosmetics. It also further summarizes research and applications on probiotic fermentation to promote the use of probiotic fermentation products in cosmetics. Notably, this review also adds information on particular properties and mechanisms of action of probiotics, which fills a gap in the research and application of probiotics in skin treatment and care. Their antioxidant and anti-aging qualities have received particular consideration. This review provides a new basis for the broad application of probiotics in cosmetics.
1. Introduction
Cosmetics are described by the US Food and Drug Administration (FDA) as “products (excluding pure soap) used to cleanse, beautify, enhance attractiveness, or alter the appearance of the human body”. Products that care for skin, hair, and mouth meet this standard. Probiotics and postbiotics are two product categories connected to the microbiome developed by the International Cosmetic Regulatory (ICCR) Collaboration [1]. Probiotic is “a living microbe that, when administered in sufficient amounts, provides a health benefit to the host” [2]. Probiotic products must meet three essential criteria. (1) To use the strain for its intended purpose, it must be genetically and phenotypically described and supported by results from experiments published in peer-reviewed journals. (2) At the time of use, the product must have a quantity of live microorganisms similar to the product demonstrated in clinical studies to benefit the designated target site. (3) If people are the intended receivers, the delivery technique, dosage, and length of use should be determined through human studies [3,4]. The microbiological content of cosmetics is anticipated to be modest (less than 500 Colony-Forming Units/gram (CFUs/g) for eye products and less than 1000 CFUs/g for other products) for safety reasons. There can be no natural probiotic cosmetics if it is impossible to include live bacteria. They may still have advantageous components from probiotic strains, in any case. Metazoons, also called bacterial lysates, ferments, and filtrates, are “preparations of non-living microorganisms or their components that have health benefits for the target host [5].” They can also be applied to the skin and mucous membranes of the host. These criteria do not cover purified metabolites or components that are cell-free. Filtrates are not considered epigenetic if they do not have biological components. Bacterial lysates and ferments may fit into this category depending on their makeup. Safety, functionality, and technical utility have been identified as essential criteria for the selection of probiotic bacteria, according to the World Health Organization (WHO), the Food and Drug Administration (FDA), and the European Food Safety Authority (EFSA). Experiments can be used to determine if microbial strains meet the requirements mentioned above in vitro. It is possible to screen microorganisms for their potential as probiotic strains based on these selection criteria confirmed by in vitro experiments [1].
Figure 1 illustrates the main processes by which probiotics promote skin health. Probiotics have been demonstrated to possess a number of skin-beneficial features, including the ability to reduce skin inflammation, heal several skin conditions, and shield against allergic contact dermatitis. Additionally, they are essential for enhancing the skin barrier, promoting water absorption, and delaying the aging process of the skin [6]. These data offer a theoretical foundation for creating probiotic products.
More and more studies have proven that probiotics have many benefits for the skin. Figure 2 shows the effects of probiotics in terms of anti-aging, antioxidants, whitening, and anti-wrinkling, which have increased the addition of probiotics in cosmetics.
Probiotics have recently been used in common care items. These cosmetics, such as face creams, moisturizing lotions, tonics, body washes, hair products, and beauty masks, contain pieces of cell walls and inert bacteria. Since live bacteria cannot be found in cosmetics, several companies make probiotic skin care products and add some probiotics. Some people will include prebiotics (probiotic “food,” such as oligosaccharides, galactose oligosaccharides, and fructooligosaccharides), which can prevent the growth of dangerous bacteria from readjusting the makeup of the skin microbiome while supporting the growth of helpful bacteria [7]. Others will add bacteriocin (the “active products” of probiotics, metabolites, such as lactobacillus fermentation products and yeast fermentation product extracts) to skin care products in order to assist the skin in readjusting the micro-ecological balance because of its small molecules, good stability, high-temperature resistance, acid and alkaline opposition, and acid and alkaline resistance. Probiotic extracts are now utilized increasingly frequently in cosmetics; lactobacillus is the most common ingredient. Various goods are available because of the abundance of producers and cosmetic forms, and it is challenging to calculate their precise quantity because new items enter the market virtually every year. Table 1 provides examples of 35 cosmetic products using probiotics or probiotic fermentation broth.
Probiotics themselves and their extracts play an essential role in the cosmetic market. There is an increasing number of cosmetics containing probiotics, especially those using probiotic fermentation products. Therefore, there is a need for authors to provide a review to focus on probiotics in cosmetics. Currently, old review articles in the field do not detail the mechanism of action of probiotics in cosmetic applications. The present review describes, in detail, the two significant skin challenges, anti-aging and antioxidant, from in vitro and ex vivo experiments to the mechanism of action. Below are a few older review articles that have been published in this area. Jinyan Yu et al. [8] reviewed the effects of probiotics on skin whitening, moisturizing, anti-aging, improving skin wrinkles, and deodorizing, which provided a new rationale for the broad application of probiotics in skin care. The review by Scarlett Puebla-Barragan et al. [4] discussed the current market, regulatory aspects, and potential applications of probiotics in the personal care industry. Ting Gao et al. [9] reviewed the application and mechanism of probiotic-mediated gut microbiota in skin care, providing a new rationale for the wide application of probiotics in skin care. Marco Duarte et al. [10] conducted a study on some postbiotics derived from probiotics. The review focuses on what is currently known about these compounds, the benefits of their use, the main postbiotics products available on the market and the players, the main trends in production, and the production methods available. Arun Karnwal et al. [11] reviewed the application of microbial biosurfactants instead of chemical surfactants in existing cosmetic and personal skin care pharmaceutical formulations. Some of the previously published references mentioned above also mention probiotics’ antioxidant and anti-aging properties. However, concerning skincare rather than cosmetic applications, they describe microbial biosurfactants and postbiotics rather than probiotics and their extracts. The present review aims to collect information about probiotics and their extracts and formulations for cosmetic applications.
Twenty years ago, the terms probiotics, prebiotics, and microbiome were unknown in the cosmetics industry. Although chemistry is a foundational element of the cosmetics industry, it has not yet been properly applied to molecules that identify the advantages of microbial products. Given the growth of the microbiome area, it is essential that professionals with knowledge of microbiology and chemistry arise in order to guarantee that consumers receive high-quality cosmetics that adhere to the definitions of probiotics, prebiotics, etc. There is no question that the inclusion of probiotics in cosmetics could result in novel approaches to enhancing both look and health, which would provide regulatory difficulties for the entry of cosmetics into the health sector. While promoting regulatory improvements, we must insist on clinical validation, verification of product safety, and strict guidelines for handling, storing, and using items that contain microbes and their byproducts or cell walls. Unfounded assertions are useless to everyone, while scientific research yields goods that are very beneficial to human health and well-being.
2. Application of Probiotics in Anti-Aging Cosmetics
The two types of skin aging are natural aging and photoaging. The term “natural aging” describes the contribution of internal components in the body brought on by exposed and unexposed areas, most notably manifested by wrinkles and skin relaxation. Ultraviolet radiation can cause photoaging when it enters the skin, which is a significant contributor to aging skin changes and cancer of the skin [12]. Changes in skin-related microbial communities, elevated skin pH, aberrant reactive oxygen species (ROS) generation, decreased collagen levels, and altered immune response are characteristics of photoaged skin.
The current probiotic cosmetics offer anti-aging effects on skin tissues primarily through the following mechanisms, per studies on the physiology of skin and aging mechanisms: hydrating and mending skin barrier function, replenishing collagen and elastin in the skin, and antioxidants [13]. In Table 2, various research investigations on probiotics’ antioxidant and anti-aging effects are compiled.
With the intensification of the aging of society and the pursuit of youth, the share of anti-aging skin care products in the cosmetics market has gradually increased. Consumers’ demand for the safety and efficacy of anti-aging cosmetics has also promoted the continuous improvement and improvement of the research and development technology of anti-aging cosmetics.
2.1. Hydrate and Restore the Skin’s Barrier
Moisturizing and repairing the skin’s barrier function are two crucial steps anti-aging cosmetics must take to address the issue of aging skin. Dry skin, a crucial sign of aging, will result from a reduced epidermis barrier function. Natural moisturizing components in keratinocytes and sebum membranes, which shield the skin’s surface and keep water from evaporating, keep the skin moisturized. Deteriorated sebaceous membranes, impaired epidermal barriers, and finally drier skin are all symptoms of aging skin. In order to make anti-aging cosmetics more effective, substances with moisturizing and skin barrier repair properties might be incorporated. For instance, adding the bioactive substances Streptococcus thermophilus S244 and Streptococcus salivarium spp. to cosmetic formulae can result in the production of enzymes that hydrate the skin, reducing dryness and slowing the aging process [20]. Figure 3 displays the moisturizing and anti-aging properties of probiotics.
According to clinical trials, oral probiotics can enhance skin hydration and increase skin water content, which can reduce wrinkles. In hairless mouse epidermis, oral treatment of Bifidobacterium breve or Lactobacillus plantarum decreased UV-induced water loss [21,22]. It is possible to increase skin water content and decrease wrinkles by taking a L. plantarum lysate or heat-inactivated lactococcus lactis orally [24,25]. On this basis, Hiroko Nakai et al. [27] studied the local application of heat-inactivated Lactobacillus plantarum L-137 (HK L-137). They found that treating epidermal cells with the cell fluid of HK L-137 (preparation of HK L-137 [38]) could increase the content of hyaluronic acid (HA). The mechanism of its action is that HK L-137 induces the production of cytokine IFN-γ to activate the NFκB pathway through a synergistic effect with TNF-α to enhance the expression of hyaluronate synthase mRNA in fibroblasts, thus producing more HA to play a role in moisturizing and anti-wrinkling.
The barrier and water retention functions of a healthy stratum corneum depend heavily on ceramide. According to studies, Streptococcus thermophilus preparations with ultrasonic therapy can boost the amount of ceramide in the stratum corneum, enhancing the barrier function and keeping the stratum corneum flexible [39].
2.2. Antioxidation
The excessive attack of free radicals on biological tissues like chromosomes, mitochondria, cell membranes, and connective tissues would result in the body aging, claims the free radical theory of aging [18]. Unsaturated fatty acids in the skin will be impacted by high quantities of free radicals, leading to unstable lipid peroxidation that will eventually break down into malondialdehyde. Malondialdehyde will quickly attack proteins and phospholipids and react to create lipofuscin, a lipid–protein complex that builds up in cells and is a marker of cell aging. As a result, eliminating many ROS is essential for preventing aging.
The information indicates that superoxide dismutase (SOD), glutathione (GSH), vitamin E (VE), and coenzyme Q10 (Q10) are the primary active raw materials with antioxidant action. A biological antioxidant enzyme called SOD efficiently eliminates too many superoxide free radicals from the body. The primary function of VE in the body is as an antioxidant; on the one hand, it can eliminate free reactive oxygen radicals and stop the production of lipid peroxide. On the other hand, it can safeguard SOD and lessen the pace at which soluble collagen becomes insoluble. Similar to VE, coenzyme Q10 is a naturally occurring antioxidant made by the cell itself and one of the elements that make up the mitochondrial respiratory chain.
We are aware that ROS generated by UV irradiation can increase the expression level of matrix metalloproteinases (MMPs), leading to the induction of apoptosis. ROS are also known to contribute to skin aging and pigmentation. Experimental proof of the antioxidant activity of heat-killed Lactobacillus acidophilus KCCM12625P (AL) was provided by Hye Yeon Lim et al. [40]. In human keratinocytes and human dermal fibroblasts (HDFs) exposed to UV light, AL was discovered to regulate the levels of ROS and MMPs. AL is, therefore, a cosmetic component that has anti-aging properties. AL can also dilute UV-induced melanin and reduce UV-induced pigmentation in B16F10 murine melanoma cells at the same time. Additionally, research has shown that heat-inactivated Lactobacillus acidophilus can reverse UV-induced skin damage [41] and boost the antioxidant defenses of the skin [17], which is therapeutically employed to prevent wrinkle formation.
Through an experimental study, Xiaofang Zhang et al. [16] discovered the anti-wrinkle effect of heat-killed Lactobacillus rhamnosus (RL). After receiving RL, mouse skin fibroblasts’ antioxidant capacity was increased and their ROS content was decreased, and human epidermal melanocytes were also able to produce anti-melanin, which might be used as an anti-photoaging ingredient in cosmetics.
In the realm of antioxidant research, where the combination of probiotics and antioxidants has synergistic effects on one another, β-Nicotinamide Mononucleotide (NMN) and lactic acid bacteria (LAB) have been investigated more and more. The combination of NMN and Lactobacillus fermentum TKSN041 has been shown in studies to be able to increase the levels of SOD, catalase (CAT), and interleukin in the skin, reduce UV-induced oxidative damage to the skin, and improve the overall antioxidant capacity of the skin. It is anticipated to become a potent drug for the prevention and treatment of skin photoaging [42].
Probiotics can create metabolites such as probiotic peptides, organic acids, flavonoids, alcohols, and polyphenols after heating some bacterial components such as lipoteichoic acid, peptidoglycan, exopolysaccharides (EPS), and cell surface proteins. Human dermal fibroblasts’ oxidative damage and photoaging have been shown to be reduced by lipoteichoic acid, which is extracted from probiotics [15]. In normal dermal fibroblasts and mouse melanoma cells, heat-killed Lacticaseibacillus paracasei (PL) can reduce UV-B-related oxidative damage and photoaging [14]. MMP expression, as well as extracellular matrix-degrading enzymes, were enhanced by UVR irradiation. MMP-1 is an interstitial collagenase that breaks down collagen’s triple helix among the MMP family of enzymes. We discovered that MMP-1 expression was reduced by lipoteichoic acid that was extracted from the cell wall of L. plantarum. Additionally, it can encourage collagen synthesis and hinder its breakdown, which both aid in lowering ROS production [43]. The theoretical underpinnings for the creation of active ingredients in skin antioxidants and anti-photoaging treatments are provided by this evidence.
2.3. Other Anti-Aging Effects
Probiotics include bioactive compounds in their extracellular vesicles, which are beneficial for skin health and anti-aging. Lipopolysaccharides, for instance, are found in the extracellular vesicles of gram-negative bacteria [26], while lipoteichoic acid is found in the extracellular vesicles of gram-positive bacteria [44]. These chemicals have a wide range of response mechanisms at their disposal. According to Chan Song Jo et al.’s research [45], women in their 20s had an average of more L. plantarum in their skin than women in their 50s. Extracellular vesicles (EVs) secreted by L. plantarum were found to have a number of anti-aging properties. These characteristics include their ability to prevent the activity of MMP-1 and elastase, enhance skin elasticity, and preserve cell shape. Second, they raises the level of filaggrin mRNA expression, which is necessary for epidermal homeostasis and the preservation of skin barrier function. With age, the expression of filaggrin is usually decreased [28], which increases the composition of the extracellular matrix, which is conducive to maintaining cell morphology.
Additionally, studies in humans have shown that EVs can lessen photoaging and age-related pigmentation of eye wrinkles. EVs are thus a potent anti-aging ingredient for skin treatments. By concurrently inhibiting melanin development and enhancing UV-A absorption with the help of L. plantarum SM4 biotransformation, the inner shell of the chestnut can be used as a cosmetic material [46].
3. Using Probiotics to Whiten Skin and Get Rid of Freckles
The amount of melanin produced by pigmented cells in the epidermis and its distribution in the top layer of skin, where melanin is transferred and amplified by prolonged exposure to sunlight or ultraviolet radiation, determines the color of human skin.
The need for whitening goods among young people is rising in modern society. There are several diets, medications, and cosmetics on the market today that have whitening properties. Arbutin, kojic acid, and niacinamide are a few melanin-producing inhibitors that have recently been discovered and utilized as skin lighteners [47,48,49]. However, the usage of naturally occurring chemicals rather than chemically synthesized ones has drawn greater attention.
3.1. Tyrosinase Activity Inhibition
Numerous enzymes and chemical catalytic processes are involved in the formation of skin melanin. Tyrosinase is essential for the production of melanin. Tyrosinase activity can be inhibited to reduce melanin formation, lighten the skin, and produce the effect of whitening. Figure 4 shows the mechanism of action of tyrosinase inhibition by probiotics. Because of their low toxicity and high absorption, tyrosinase inhibitors generated by probiotics are regarded as promising potential skin whitening agents [50]. Recent years have seen a rise in the use of probiotics in whitening cosmetics, such as the lactic acid in LAB, which can directly reduce melanin formation by inhibiting tyrosine. They can also whiten skin by interfering with tyrosinase expression. Tyrosinase was likewise suppressed by the probiotic culture’s supernatant. The anti-tyrosinase effect was seen in the supernatant of Bifidobacterium IDCC 4201 and L. plantarum IDCC 3501, which decreased melanin synthesis and altered the expression of proteins involved in the melanin formation pathway. A potential tyrosinase inhibitor is phenylacetic acid’s metabolite. The generation of phenylacetic acid’s anti-melanin may be boosted by the synergistic interaction of other functional molecules in the supernatant of the probiotic culture medium. Consequently, a probiotic culture medium supernatant with a high phenyl lactic acid content has the potential to be used in food and medicine as an anti-melanogenic agent [29].
The meaning of the abbreviations in the chart is as follows: adrenocorticotropic hormone (ATH), a-melanocyte activator (a-MSH), basic fibroblast growth factor (BFGF), cyclic adenosine monophosphate (cAMP), endothelin vascular peptide-1 (ET-1), granulocyte-macrophage-activating factor (GM-SCF), melanin receptor-1 (MCR-1), prostatic enzyme E2 (PGE2), protein kinase A (PKA), protein kinase C (PKC), phospholipase C (PLC), stem cell factor (SCF), and adenylate cyclase (ATC).
There are currently chemicals used in cosmetics and pharmaceutical products that can inhibit the melanin synthetase tyrosinase in melanocytes. However, the majority of the compounds that are now on the market can only stop the production of melanin; they cannot get rid of melanin that has already been created and implanted. They are less effective at lowering the amount of melanin in the skin. Kimchi-derived Staphylococcus lactis PMC48 can destroy melanin, degrade melanin, and inhibit tyrosinase, according to Sukyung Kim et al. It is superior to current melanin production inhibition approaches and is anticipated to be highly valuable as a raw material for cosmetics and medications that break down melanin [30].
3.2. The Role of Lipoteichoic Acid
Lipoteichoic acid is the main component of the cell wall of gram-positive bacteria. The modulation of the gastrointestinal and immunological systems, skin moisturization, and photoaging are only a few of the many positive effects of lipoteichoic acid, which is obtained from L. plantarum. Lipoteichoic acid’s use in the management of pigmentation was investigated by Hye Rim Kim et al. By activating the ERK and PI3K/AKT pathways, it reduced tyrosinase activity in cells and hematopoietic enzyme expression. Lipoteichoic acid, which was discovered from L. plantarum, can, therefore, treat melanosis and be employed as a cosmetic bleaching agent [31]. The formation of anti-melanin is aided by the lipoteichoic acid of L. plantarum GMNL6, which also functions as a cosmetic regulating substance [51].
3.3. Other Whitening Effects
The volunteers’ skin hydration, skin tone, spots, wrinkles, UV spots, and porphyrin syndrome were all improved after using a cream containing L. plantarum [32]. Staphylococcus sphaerus extract, an anti-melanin-producing agent, can reduce the pigmentation caused by melanocytostimulus [33]. These probiotics produce substances that are widely used in both medicine and cosmetics.
4. Probiotics Used in Anti-Inflammatory Cosmetics
In light of the rapid expansion of oral probiotics, numerous topical probiotic formulations have been proposed to treat skin micro-ecological diseases and encourage immunological homeostasis by balancing skin microbiota [52]. To maintain the skin’s micro-ecological balance, they produce antibacterial and anti-inflammatory substances to stop pathogen invasion and the growth of opportunistic microorganisms [35].
Topical probiotics dramatically reduced the signs and symptoms of rosacea, atopic dermatitis, and acne in a few small-scale clinical studies. Although the exact mechanism is uncertain, probiotics are thought to have anti-inflammatory effects via promoting regulatory T cells, producing anti-inflammatory cytokines (such IL-10), competing with pathogens for nutrients, and aggregating and replacing pathogens. Probiotic strains with symbiotic skin microorganisms, like Lactobacillus, Bifidobacterium, and Streptococcus, have been linked to skin immune-modulating effects by preventing the development of biofilms, lowering cytokines that cause systemic inflammation, and directly competitively inhibiting binding sites [53].
4.1. Cutaneous Inflammation
In their studies, Ia Khmaladze et al. [34] found that Lactobacillus reuteri DSM 17938 and its lysates might reduce skin irritation brought on by UVB (ultraviolet B, wavelength 280 nm~320 nm, mid-frequency medium-wave) exposure. Bacteria that are detrimental to the skin (Staphylococcus aureus, Streptococcus pyogenes, Bacillus acnes, and Pseudomonas aeruginosa) are inhibited by live L. reuteri DSM 17938. It is possible to cure inflammatory skin diseases using this strain. Heat-killed Lactococcus lactis H61 water extract is mixed with cosmetic ingredients for topical application. The inflammation of skin cells brought on by UVB loss was shown to be reduced by its ability to block the angiotensin-converting enzyme (ACE) (topical administration of angiotensin-converting enzyme inhibitors may enhance photoaged skin [54]). Interleukin-8 (IL-8) levels caused by UV radiation were lowered in cells pretreated with the extract, which also absorbed electromagnetic radiation in the UVB range [36]. This demonstrates that the extract has a number of advantages, such as anti-inflammation of the skin and UV damage prevention. The Bifidobacterium longum (BL) lysate possesses anti-inflammatory properties. Adding the BL lysate to cosmetics can improve various parameters related to inflammation (such as vasodilation, edema, mast cell degranulation, and reduced TNF-α release). The local use of BL preparation promotes skin homeostasis and guards against adverse environmental impacts that cause skin sensitivity (cold in winter, dry air) [37].
Atopic dermatitis (AD), also known as atopic eczema, is a chronic inflammatory skin condition that frequently flares up and is characterized by dry, itchy skin [55]. An essential component in the pathophysiology of atopic dermatitis is the microbial environment. Extracellular vesicles released by bacteria have been identified to affect allergic inflammatory processes, according to recent investigations. It was shown that the extracellular vesicles formed from L. plantarum were effective in avoiding skin inflammation by comparing the makeup of bacteria-released extracellular vesicles between atopic dermatitis sufferers and healthy subjects [56].
In patients with AD, Staphylococcus aureus predominates the skin microbiota, and bacterial burden is correlated with disease severity. Staphylococcus aureus colonization in patients with AD can be decreased using heat-treated cosmetic lotions containing Lactobacillus johnsonii NCC 533 (HT La1) [19].
The composition of the stratum corneum’s lipids has a crucial role in how well the osmotic barrier and water retention capacity work. Ceramide [23] is the primary component of them. Recent research has revealed that aberrant skin function in AD patients may result from a decrease in the total amount of ceramide. The increase in ceramide levels may be attributed to the hydrolysis of sphingomyelin-by-sphingomyelin enzymes present in the bacterial extract, which were used in an experimental cream to inactivate S. thermophilus using ultrasound. This finding supports the contribution of these bacterial lysates to stratum corneum barrier function. The experimental cream’s topical use also reduced the erythema, scales, and pruritus associated with AD skin [57].
4.2. Acne
Acne is a long-lasting inflammatory skin condition that affects sebaceous glands and hair follicles. Skin rashes, including whiteheads, blackheads, pustules, papules, and cysts on the face, chest, back, and shoulders are the primary clinical symptoms. The main contributory factors to acne vulgaris are androgen, excessive keratosis at the opening of hair follicles and sebaceous glands, bacterial colonization, and increased sebum output. In some patients, endocrine and genetic disorders may also play a role. Studies suggest that probiotics may reduce acne. The demand for probiotic supplements and beauty products is surging. Hope exists for acne sufferers’ skin using home remedies, like probiotic supplements and cosmetics.
Most acne cosmetics have the potential to improve clinical results. The cleanser should be used by all acne sufferers; those containing benzoyl peroxide or azelaic acid/salicylic acid/triclosan showed the most effectiveness. Products for managing sebum that contain zinc or niacinamide aid in reducing excessive sebum production. Acne healing could be sped up with the use of cosmetics containing antibacterial and anti-inflammatory substances such ethyl lactate, phytosphingosine, niacinamide, or resveratrol. Topical comedolytic drugs can help the skin absorb topical pharmaceuticals and have comedolytic effects. Examples include retinal/glycolic acid and lactic acid. Finally, a specific moisturizer should be seriously considered by all acne sufferers.
In order to get rid of potential skin pathogens, normal human skin can release a variety of antibacterial compounds. A gram-positive bacteria called L. plantarum makes antimicrobial peptides that can reduce inflammation and strengthen the skin’s natural defenses against microorganisms. We examined how lactobacillus extract affects the skin’s barrier function, the number of chemical irritants it produces, the skin microbiota, and acne-related erythema. The findings indicated that lactobacillus extract could successfully cure mild acne lesions and minimize skin erythema, repair the skin barrier, and diminish the skin microbial community [58].
The local ultrasonic treated preparation of S. thermophilus can raise the level of ceramide in the stratum corneum and assist in the treatment of acne because the ceramide (plant sphingosine) in S. thermophilus has antibacterial and anti-inflammatory effects against Cutibacterium acnes [59]. Topical applications of Lactobacillus salivary LS01 and Bifidobacterium brevis BR03 can also be used to treat rosacea [60]. Probiotics administered topically can act as a barrier to stop acne caused by other skin-invading pathogens [61]. Figure 5 demonstrates the role of the above probiotics in acne treatment. To combat harmful microbes and reduce inflammation, probiotics have lately been added to everyday skincare products.
5. Application of Probiotic Fermentation
Probiotic fermentation is a recent finding that can alter the chemical structure of medications to improve epidermal absorption and lower toxicity for the best possible pharmacological effectiveness. The aqueous extract of Acanthopanax Korean root (AE), which has undergone fermentation by L. plantarum and Bifidobacterium bifidum, can lessen intracellular ROS brought on by UVB or H2O2. Acanthopanax Korean root also exhibited much stronger antioxidant and anti-aging properties than extracts made prior to fermentation [62]. After L. rhamnosus fermentation, patchouli leaf extract can enhance the skin’s ability to fend off photoaging. According to studies, the fermented extract can increase the skin’s levels of SOD and GSH while lowering ROS [63]. Treatment with L. rhamnosus fermented jasmine extract can significantly slow down collagen breakdown, premature aging, and skin cell aging brought on by UVB and H2O2 [64]. It can also prevent excessive ROS production, collagen degradation, and premature aging in dermal fibroblasts. A possible therapeutic agent for the prevention and treatment of skin photoaging is L. plantarum fermented blackberry, which can diminish the production of wrinkles and help human dermal fibroblasts resist photoaging [65]. In human skin fibroblasts, UV-induced MMP-1 production and collagen degradation are prevented by fermenting lavender extract with Pediococcus pentosaceus DK1 [66]. The physiological activity of fructus aurantii extract is greatly enhanced by deep fermentation with Lactobacillus brevis [67]. The antioxidant activity of HaCaT cells can be increased by pomegranate peel and schisandra extracts that have been fermented by Lactobacillus acidophilus and L. plantarum, respectively [68]. Lactobacillus helveticus can ferment whey and decrease the expression of MITF, which prevents tyrosinase from blocking melanin synthesis [69]. The photoaging of fibroblasts brought on by UVA (ultraviolet A, wavelength 400 nm~320 nm, low-frequency long-wave) can be lessened by rhodiola rosea fermented by L. plantarum [70]. These fermented extracts contain anti-aging (Figure 6) and skin-lightening properties that could increase the usage of probiotics in the beauty industry. Probiotics’ fermented by-products serve a variety of purposes as well. The Lactobacillus rhamnosus LRH113 strain’s fermentation supernatant exhibits whitening and moisturizing properties, and it has a great deal of promise for use in future maintenance products.
6. Conclusions and Prospects
The use of probiotics and their extracts in cosmetics is discussed in this research, encompassing several application areas such as anti-aging, antioxidant, whitening, and anti-inflammatory effects. It summarizes the progress of research on probiotic fermentation. This review also collects new findings on probiotic research in dermatologic therapy and skin care. The beneficial function of probiotics on the skin has been further demonstrated with the development of analytical tools and biological activity evaluation methodologies. Since topical administration of probiotics has no known sensitizing or stimulating effects, there is still much potential for research in this area.
Based on the research progress collected in this review on probiotics in the field of cosmetics. In future research, it is crucial to undertake probiotic fermentation-type bioactivity investigations in order to learn more about the connection between the manufacturing process and the biological effects attained. On the other hand, additional studies of all probiotic strains on human skin or people are required to corroborate the therapeutic advantages shown in in vitro models.
Indeed, there should be a lot more research conducted in the future about adding probiotic ingredients to cosmetics, and some of the unexplored areas of the field will slowly come to the attention of researchers.
Author Contributions
Conceptualization, T.W. and Z.X.; methodology, N.F.; software, J.L., Z.C. and F.G.; validation, J.D., T.W. and Z.X.; writing—original draft preparation, J.D.; writing—review and editing, J.D., T.W. and Z.X.; supervision, T.W., X.G. and Z.X.; funding acquisition, T.W., X.G. and Z.X. All authors have read and agreed to the published version of the manuscript.
Funding
This work was financially supported by the Key Research and Development Program of Shandong Province (grant No. 2020CXGC010602), the Science and Technology Support Plan for Young People in Colleges and Universities of Shandong Province (grant No. 2020KJE005), the Natural Science Foundation of Shandong Province (grant No. ZR2022MC059), the Key innovation Project of Qilu University of Technology (Shandong Academy of Sciences) (grant No. 2022JBZ01-06), the Natural Science Foundation of Shandong Province (grant No. ZR2023MC087), and the Basic Research of Pilot Project for the Integration of Science, Education and Industry, Qilu University of Technology, Shandong Academy of Sciences (grant No. 2022PY074).
Data Availability Statement
Data will be made available upon request.
Conflicts of Interest
The authors declare no conflict of interest.
Abbreviations
| FDA | Food and Drug Administration |
| ICCR | International Cosmetic Regulatory |
| CFUs/g | Colony-Forming Units/gram |
| WHO | World Health Organization |
| FDA | Food and Drug Administration |
| EFSA | European Food Safety Authority |
| S. thermophilus | Streptococcus thermophilus |
| L. plantarum | Lactobacillus plantarum |
| HK L-137 | Heat-inactivated Lactobacillus plantarum L-137 |
| HA | Hyaluronic acid |
| ROS | Reactive oxygen species |
| SOD | Superoxide dismutase |
| GSH | Glutathione |
| VE | Vitamin E |
| Q10 | Coenzyme Q10 |
| MMPs | Matrix metalloproteinases |
| AL | Lactobacillus acidophilus KCCM12625P |
| HDF | Human dermal fibroblasts |
| RL | Heat-killed Lactobacillus rhamnosus |
| NMN | β-Nicotinamide Mononucleotide |
| LAB | Lactic acid bacteria |
| CAT | Catalase |
| EPS | Exopolysaccharides |
| PL | Heat-killed Lacticaseibacillus paracasei |
| EVs | Extracellular vesicles |
| IL-10 | Interleukin 10 |
| IL-8 | Interleukin 8 |
| ACE | Angiotensin-converting enzyme |
| BL | Bifidobacterium longum |
| AD | Atopic dermatitis |
| HT La1 | Heat-treated cosmetic lotions containing Lactobacillus johnsonii NCC 533 |
| AE | Acanthopanax Korean root |
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Figure 1.
The primary processes by which probiotics promote skin health.
Figure 2.
The significant cosmetic properties of probiotics. (↑—Increased expression,↓—Reduced expression)The effect of probiotics on the free radicals is multidirectional and includes the direct quenching of reactive oxygen (ROS) and matrix metalloproteinases (MMPS) species; the enhancement of endogenic antioxidant enzyme production (SOD (superoxide dismutase) and glutathione); the inhibition of enzymes involved in ROS generation (glutathione S-transferase, microsomal monooxygenase, mitochondrial succinoxidase, or NADH oxidase); the protection and regeneration of antioxidant compounds (vitamin C or E).
Figure 2.
The significant cosmetic properties of probiotics. (↑—Increased expression,↓—Reduced expression)The effect of probiotics on the free radicals is multidirectional and includes the direct quenching of reactive oxygen (ROS) and matrix metalloproteinases (MMPS) species; the enhancement of endogenic antioxidant enzyme production (SOD (superoxide dismutase) and glutathione); the inhibition of enzymes involved in ROS generation (glutathione S-transferase, microsomal monooxygenase, mitochondrial succinoxidase, or NADH oxidase); the protection and regeneration of antioxidant compounds (vitamin C or E).
Figure 3.
Anti-aging and moisturizing effects of probiotics. (A) Probiotics improve skin hydration; (B) probiotics reduce skin wrinkles.
Figure 3.
Anti-aging and moisturizing effects of probiotics. (A) Probiotics improve skin hydration; (B) probiotics reduce skin wrinkles.
Figure 4.
Mechanism of action of probiotics to inhibit melanogenesis. Probiotics inhibit tyrosinase activity by producing tyrosinase inhibitors; probiotics inhibit tyrosinase activity by promoting the production of phenylacetic acid; probiotics destroy tyrosine by producing lactic acid; probiotics destroy melanin by producing substances that degrade melanin.
Figure 4.
Mechanism of action of probiotics to inhibit melanogenesis. Probiotics inhibit tyrosinase activity by producing tyrosinase inhibitors; probiotics inhibit tyrosinase activity by promoting the production of phenylacetic acid; probiotics destroy tyrosine by producing lactic acid; probiotics destroy melanin by producing substances that degrade melanin.
Figure 5.
The role of probiotics in the treatment of acne. The main causes of acne are increased secretion of androgens, which contributes to an increased rate of sebaceous cell production; rapid multiplication of propionibacterium acnes; inflammatory reactions.
Figure 5.
The role of probiotics in the treatment of acne. The main causes of acne are increased secretion of androgens, which contributes to an increased rate of sebaceous cell production; rapid multiplication of propionibacterium acnes; inflammatory reactions.
Figure 6.
Role of probiotic fermentation in anti-aging. (↑—Increased expression, ↓—Reduced expression).
Figure 6.
Role of probiotic fermentation in anti-aging. (↑—Increased expression, ↓—Reduced expression).
Table 1.
Selected examples of cosmetic products containing probiotics. * The ingredient listed as “Bifida ferment lysate” corresponds to a lysate from Bifidobacterium longum reuter.
Table 1.
Selected examples of cosmetic products containing probiotics. * The ingredient listed as “Bifida ferment lysate” corresponds to a lysate from Bifidobacterium longum reuter.
| Product ID | Cosmetic Effects (Manufacturer′s Declaration) | Type of Product | Cosmetic Ingredient List |
|---|---|---|---|
| 1 | Skin feels soft, moisturized, and revitalized. Restore skin barrier function and seal in moisture on the skin’s surface. Skin relief and a reduction in potential irritation. | Lotion | Lactobacillus ferment |
| 2 | Enhance wrinkles, unwind, and keep skin looking young. Enhance wrinkles, unwind, and keep skin looking young. | Lotion | Lactococcus ferment extract Yeast cytolytic extract |
| 3 | To stop dry air from the outside, stop water loss and create a water-locking barrier on the skin’s surface. | Lotion | Lactobacillus ferment hyaluronic acid |
| 4 | Maintain the balance between the skin’s water and oil content. Improved skin stability. Revitalize and repair skin. | Toner | Bifida ferment lysate * |
| 5 | Multidimensional repair of skin fragility and relieving skin discomfort. | Cream | Alteromonas Baumann ferment extract |
| 6 | Adjust skin and facial flora, inhibit acne inflammation root, improve redness and sensitivity, and enhance skin defense. | Cream | Lactobacillus extract |
| 7 | Balance skin micro-ecological environment and repair the micro-ecological barrier. Intensive moisture lock water and reduce skin moisture loss. | Cream | Leuconostoc ferment filtrate Prebiotics: pentavitin |
| 8 | Balance skin flora and improve skin health. | Cream | Lactobacillus/soymilk ferment filtrate |
| 9 | Balance skin flora and improve skin health. | Cleanser | Lactobacillus/soymilk ferment filtrate Candida bobicola/glucose/methyl Rapeseedate ferment |
| 10 | Improve skin antioxidant capacity. | Cream | Lactococcus ferment Bacillus ferment |
| 11 | Produce acne suppressor, help regulate the skin surface flora, and reduce the risk of acne. | Cream | Bifidobacterium longum, lysate |
| 12 | Repair skin barrier, and relieve redness and discomfort. | Mask | Vitreoscilla ferment |
| 13 | Promotes collagen regeneration and smoothes wrinkles. | Lotion | Bifidobacterium longum, lysate Yeast extract Lactococcus ferment |
| 14 | Reduce skin redness and sensitivity. Inhibiting skin oxidation factor. | Serum | PITERATM |
| 15 | Regulate skin flora, strengthen the micro-ecological barrier, and improve skin condition. | Lotion | Lactobacillus/soymilk ferment filtrate Bifidobacterium longum, lysate |
| 16 | Strengthen the skin barrier and improve the skin quality. Strengthen the muscle base, firm the skin, and delicate skin. Promote collagen regeneration. | Serum | Bifidobacterium longum, lysate Yeast extract Vitreoscilla ferment |
| 17 | Repair the skin barrier. | Serum | Bifidobacterium longum, lysate Yeast extract Lactobacillus |
| 18 | Maintain skin micro-ecological balance and adjust skin flora. | Serum | Lactobacillus/soymilk ferment filtrate |
| 19 | Prevent the imbalance of micro-ecological barriers. Balance bacteria symbiosis, improve skin redness. | Serum | Lactobacillus ferment lysate |
| 20 | Enhance the outer strength of the skin. | Mask | Lactobacillus |
| 21 | After fermentation, lactic acid bacteria present a protective film to prevent water evaporation, water tender, and shining through the skin, and strengthen the skin cuticle. | Cream | Lactococcus ferment lysate Bifida ferment extract |
| 22 | Activate skin micro-ecological activity and inhibit harmful bacteria reproduction, and the skin becomes soft and delicate. | Lotion | Lactobacillus |
| 23 | Balance the micro-ecological barrier to help reduce repeated breakouts. Balance water and oil, stabilize skin, and maintain skin health. | Gel Cream Toner | Lactobacillus Lactobacillus ferment Lactococcus ferment lysate Prebiotics: chicory root extract |
| 24 | Make the skin moist and tender. Maintain skin elasticity and permeability. | Cream Cleansing | Original nourishing ingredient: S.E. essence Bifidobacterium/soybean ferment Lactococcus/milk ferment |
| 25 | Balance skin micro-ecology and make skin healthy and delicate. | Serum Cream | NATURAL RETM: Lactobacillus complex extract |
| 26 | Stong microbial barrier. Maintain the balance of bacteria and stabilize the healthy state of the skin. | Cleansing Toner | Lactobacillus Lactococcus ferment lysate Lactobacillus/soymilk ferment filtrate Saccharomyces/rice ferment filtrate |
| 27 | Prebiotics: maintain skin micro-ecological health. Biostime: provides an environment for probiotics to grow. | Serum Cream | Inulin Alpha-glucan oligosaccharide Yeast ferment extract filtrate Lactobacillus/soymilk ferment lysate Lactobacillus/soybean extract ferment filtrate. Lactobacillus/punica granatum feuit ferment extract |
| 28 | Extracted from the fermentation of lactic acid bacteria, it helps to reduce the effects of toxins and maintain the balance and integrity of the skin microbiome. | Serum | Lactococcus ferment extract |
| 29 | Firming skin and energizing bacteria. | Serum | Plant-derived probiotics: chicory root |
| 30 | Reduce skin redness, acne, and sunburn. Restore skin elasticity. | Serum | Lactococcus lactis fermentation lysate |
| 31 | Maintain and counterbalance facial symbiotic bacteria. Help restore the dynamic balance of bacteria on the skin surface and create a stable skin microenvironment. | Cleaning Serum Cream | Lactobacillus/soymilk ferment filtrate Lactobacillus |
| 32 | Balance skin flora and prevent aging. | Serum | Bifida ferment lysate |
| 33 | Regulate skin pH. | Cleaning | Bifidobacterium longum, lysate Lactobacillus ferment Lactobacillus ferment lysate Streptococcus thermophilus ferment Lactobacillus/soybean extract ferment |
| 34 | Maintain the balance of bacteria and stabilize the healthy state of the skin. | Serum | Bifida ferment lysate |
| 35 | Accelerate collagen regeneration and effectively improve skin fullness. | Cream | Bifidobacterium longum, lysate |
Table 2.
Experimental in vitro and in vivo studies of the beneficial effects of probiotics and their active ingredients on the skin and their mechanisms of action-summary.
Table 2.
Experimental in vitro and in vivo studies of the beneficial effects of probiotics and their active ingredients on the skin and their mechanisms of action-summary.
| Activity | Experimental Model | Type of Probiotics /Active Constituent | Mechanism of Action/Effect | References | |
|---|---|---|---|---|---|
| In Vitro | In Vivo/Ex Vivo | ||||
| Antioxidant | Human dermal fibroblast (HDF) | Lipoteichoic acid isolated from Lactobacillus plantarum(LTA)
|
| [14] | |
| Normal human dermal fibroblast (NHDF) cells B16F10 murine melanoma cells | Heat-killed Lacticaseibacillus paracasei (PL) |
| [15] | ||
| Murine | Nicotinamide mononucleotide (NMN) combined with Lactobacillus fermentum TKSN041 |
| [16] | ||
| Mouse skin fibroblast (MSF) cells Human epidermal melanocytes (HEM) | Heat-killed L. rhamnosus ATCC 7469 (RL) |
| [17] | ||
| Human keratinocytes Human dermal fibroblasts B16F10 murine melanoma cells | Tyndallized Lactobacillus acidophilus KCCM12625P (AL) |
| [18] | ||
| Anti-aging | HS68 cells dermal fibroblast cells | Extracts of Jasminum sambac flowers fermented by Lactobacillus rhamnosus |
| [19] | |
| Streptococcus salivarium spp. Streptococcus thermophilus S244 | Significant increase in skin moisture (immediate and long-term). | [20] | |||
| Hs68 cells Human dermal fibroblasts | Hairless mice | Administered vehicle or L. plantarum HY7714
|
| [21,22] | |
| Human foreskin fibroblast (Hs68) | SKH-1 hairless mice | Fermented blackberry (FBB) by L. plantarum JBMI F5 -FBB pretreatment -FBB administration |
| [23] | |
| HaCaT cells | SKH-1 hairless mice Volunteers | Kimchi-derived L. plantarum K8 lysates
|
| [24,25] | |
| Double-blind, placebo-controlled trial Japanese women volunteers(aged 31–62 years) 8-week treatment | Heat-killed cells of Lactococcus lactis strain H61
|
| [24,25] | ||
| UVB-irradiated normal human epidermal keratinocytes (NHEKs) | Cosmetic preparation that contained Water extract from heat-killed L.lactis H61 |
| [26] | ||
| Primary epidermal cells | Hairless mice | Heat-killed L. plantarum L-137 |
| [27] | |
| Clinical trials | Extracellular vesicles (EVs) that were secreted from L. plantarum of women in their 20s (LpEVs) |
| [28] | ||
| Spot removing and whitening | Cultures of Bifidobacterium bifidum IDCC4201 and Lactiplantibacillus plantarum IDCC 3501
|
| [29] | ||
| Kimchi-derived Pediococcus acidilactici PMC48 |
| [30] | |||
| B16F10 mouse melanoma cells | Lipoteichoic acid (LTA) isolated from Lactobacillus plantarum (pLTA) |
| [31] | ||
| Clinical observation | L. plantarum-GMNL6
|
| [32] | ||
| Anti-melanogenic signaling pathway in α-melanocyte stimulating hormone (α-MSH)-treated B16F10 melanoma cells and zebrafish | Extracts of Rhodobacter sphaeroides (Lycogen™) |
| [33] | ||
| Anti- inflammatory | Twenty-seven AD patients and six healthy control subjects Staphylococcus aureus-induced mouse AD models | Lactobacillus plantarum-derived extracellular vesicles
|
| [34] | |
| Ex vivo skin models | Live and the lysate products of probiotic strain Lactobacillus reuteri DSM 17938 |
in a healthy (unstimulated) state of RHE. | [35] | ||
| Human keratinocytes | In the forearm skin of 11 atopic dermatitis (AD) patients stratum corneum 20 healthy elderly women. | An experimental cream containing sonicated Streptococcus thermophilus
|
| [36] | |
| Nerve cell cultures in vitro | Ex vivo human skin explant model Sixty-six female volunteers | Bifidobacterium longum sp. extract (BL)
|
| [37] | |
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MDPI and ACS Style
Dou, J.; Feng, N.; Guo, F.; Chen, Z.; Liang, J.; Wang, T.; Guo, X.; Xu, Z. Applications of Probiotic Constituents in Cosmetics. Molecules 2023, 28, 6765. https://doi.org/10.3390/molecules28196765
AMA Style
Dou J, Feng N, Guo F, Chen Z, Liang J, Wang T, Guo X, Xu Z. Applications of Probiotic Constituents in Cosmetics. Molecules. 2023; 28(19):6765. https://doi.org/10.3390/molecules28196765
Chicago/Turabian StyleDou, Jiaxin, Ning Feng, Fangyu Guo, Zouquan Chen, Jie Liang, Ting Wang, Xueping Guo, and Zhenshang Xu. 2023. "Applications of Probiotic Constituents in Cosmetics" Molecules 28, no. 19: 6765. https://doi.org/10.3390/molecules28196765
