Reef Safe Personal Care Products and Biodegradability

The oceans’ coral reefs, often called the “rainforests of the sea,” are one of the most biodiverse ecosystems on the planet. However, they face many threats, including climate change, overfishing, and pollution. Among the pollutants are chemicals found in skincare products, such as chemical sunscreens. As awareness grows about the impact of these substances on marine life, the demand for reef-safe products and biodegradability is increasing. In this article, we go into the importance of reef-safe sunscreens and the importance of biodegradability in preserving our valuable marine environments.

Coral reefs support a quarter of ocean life, providing habitat, shelter, and sustenance for many species. However, corals are highly sensitive to environmental changes, including chemical pollutants. Certain ingredients commonly found in personal care products, such as oxybenzone and octinoxate in sunscreens, have been related to coral bleaching, DNA damage, and coral death. These chemicals can disrupt coral reproduction, impair growth, and make corals more susceptible to disease.

Recently, several of these chemicals have fallen out of favor with the FDA. Unfortunately, the full extent of the consequences of sunscreen ingredients being absorbed into the bloodstream remains largely unknown. Further investigation needs to be done to find out the actual safety of chemical sunscreens, particularly with prolonged use. Research indicates that numerous chemical sunscreen ingredients have the potential to be absorbed into the skin of humans, too, and potentially enter the bloodstream. Moreover, these ingredients pose risks to marine life, including fish, dolphins, whales, algae, and more, potentially causing mutations and reproductive issues.

 

How Testing Works

Testing reef-safe sunscreens includes various methods to check if they’re safe for coral reefs and marine life. First, scientists study the effects of sunscreen ingredients on cells from marine organisms in a lab setting. Then, they test these ingredients on living organisms in controlled environments to see how they affect growth, reproduction, and behavior. They also assess the impact of sunscreens on a wide range of marine life, including algae, fish, and crustaceans, by exposing them to different concentrations of sunscreen and observing their survival and behavior.

Diver over bleached and dying Acropora coral

To specifically assess the risk of coral bleaching, researchers expose coral fragments or colonies to sunscreens to see if they cause coral to lose their color or become unhealthy. They also study how sunscreen ingredients break down in water and if they build up in marine animals. Finally, regulators ensure that reef-safe sunscreens meet environmental standards before they can be sold. By using these methods, scientists can develop sunscreens that protect against sun damage while being safe for coral reefs and marine ecosystems.

Unfortunately, all of these test methods for marine toxicity require testing on actual organisms. This presents a dilemma for consumers who want products that haven’t been animal tested. Researchers are trying to develop new in vitro tests that can stand in for an actual in vivo test but there aren’t any available yet. One good indication may be how rapidly a product biodegrades.

Several places around the world have implemented bans or restrictions on the use of non-reef-safe sunscreens and certain sunscreen ingredients to protect coral reefs and marine ecosystems. For example, Hawaii was one of the first states to enact a legislation, banning the sale and distribution of sunscreens containing oxybenzone and octinoxate, two chemicals known to harm coral reefs. Other places in the United States, such as Key West in Florida, have also implemented similar bans on these ingredients.

Great Barrier Reef

In addition to Hawaii and Key West, other regions and countries have taken steps to restrict or regulate sunscreen ingredients to protect marine environments. Palau, a Pacific island nation, implemented a ban on sunscreens containing oxybenzone, octinoxate, and other harmful chemicals in 2020. The Caribbean island of Bonaire has also banned the sale and use of sunscreens containing oxybenzone and octinoxate to protect its coral reefs.

Furthermore, some marine protected areas and national parks, such as the Great Barrier Reef Marine Park in Australia, have regulations in place to encourage the use of reef-safe sunscreens. These regulations typically recommend or require the use of sunscreens that do not contain oxybenzone, octinoxate, or other harmful chemicals to minimize the impact on coral reefs and marine life.

Overall, the bans and regulations on non-reef-friendly sunscreens and ingredients are implemented in various regions globally to promote the conservation of coral reefs and marine ecosystems.

 

Biodegradability

As awareness of these harmful effects grow, consumers are seeking out safer alternatives. Reef-safe products are formulated without the harmful chemicals mentioned above. Instead, they utilize mineral-based sunscreens like zinc oxide and titanium dioxide, which provide effective UV protection without posing a risk to coral reefs. Additionally, reef-safe products often feature biodegradable formulations that break down naturally without harming the environment.

Recycle global rubbish for the environment

Biodegradability is the ability of a substance to decompose naturally through microorganisms, such as bacteria and fungi, into harmless compounds. Regarding personal care products, biodegradability is very important for minimizing environmental impact, especially in ecosystems like oceans and rivers. Unlike non-biodegradable substances that remain in the environment for years, biodegradable ingredients break down into simpler components, reducing the risk of accumulation and pollution.

When consumers choose biodegradable products, they contribute to the health of aquatic ecosystems by reducing the invasion of harmful chemicals and pollutants. Also, biodegradability extends past personal care products to packaging materials, detergents, and household cleaners. By opting for biodegradable alternatives, individuals can lessen their ecological footprint and promote sustainable practices.

 

Are zinc oxide and titanium dioxide-based sunscreens a great solution?

Sadly, they have challenges in achieving high SPF levels compared to their chemical counterparts. This difficulty comes from issues related to the particle size of these minerals. Larger particles also cause a noticeable white cast on the skin, which worsens aesthetic appeal to consumers. This poses a problem between attaining a very high SPF and avoiding the characteristic whitening effect.

Nano zinc oxide, which is zinc oxide processed into very tiny particles, is used in many products like sunscreen and cosmetics. However, there are worries about itssafety. One concern is that because a nano zinc particle is so small, it might enter the skin more easily and cause irritation, especially for those with sensitive skin. Some studies suggest it might even enter the bloodstream, but scientists are not sure yet.

Another worry is its impact on the environment. When sunscreen with nano zinc oxide washes off into the ocean, the tiny particles can harm marine life like coral reefs and other sea creatures. They might affect the growth of corals and other marine organisms. While nano zinc oxide is good at protecting against the sun, there are concerns about its safety for people and its effects on the environment. Scientists are still studying to understand these concerns better.

 

Is there a solution? Yes!

Methods exist for upping the SPF in sunscreens using SPF boosters which enhance sunscreens’ ability to safeguard the skin from harmful UV radiation. These boosters are frequently integrated into sunscreen formulations to elevate the overall SPF rating, giving consumers heightened protection against both UVA and UVB rays. One prevalent category of SPF boosters is antioxidants.

Neutralizing free radicals made by UV exposure, antioxidants lessen potential skin damage and signs of aging. Through the addition of antioxidants or botanical extracts in sunscreen formulations, personal care manufacturers can bolster the sunscreen’s efficacy in combating oxidative stress made by UV radiation. This additional protection pairs with the primary UV-blocking agents in mineral sunscreens, strengthening its defensive capabilities.

Cultivated soybean furrow

While numerous SPF boosters are derived from petroleum-based chemicals, natural or biobased alternatives are scarce. Ferulic acid, sourced from plants, emerges as a notable photoprotectant in the skincare industry. Recognized for its potent antioxidant properties, ferulic acid effectively neutralizes free radicals and shields the skin from oxidative stress. Extracted from diverse plant sources like rice, corn, or others, ferulic acid has garnered considerable attention as a valuable ingredient in skincare formulations.

Unfortunately, formulating skincare products with ferulic acid can pose challenges due to its stability, solubility, and pH sensitivity. It must be carefully formulated. Also, ferulic acid has a tough time being soluble in water, making it difficult to include in water-based formulations. Special techniques are necessary to improve its solubility and ensure even distribution within the product.

Ferulic acid’s stability depends on the product’s pH, with it being most stable at acidic pH levels. This means skincare products with ferulic acid need to be formulated with the right pH to keep it stable while being gentle on the skin – a difficult task. Also, it’s important to consider how ferulic acid interacts with other skincare ingredients, as it can affect their stability and effectiveness. Testing for compatibility is crucial to ensure these interactions are addressed, and the formulation is optimized. Overall, creating skincare products with ferulic acid requires careful consideration of pH, ingredient interactions, and regulatory standards to make sure they’re both effective and safe for use.

 

Feruloyl glycerides addresses these issues

Feruloyl glycerides offer an innovative solution to the challenges associated with formulating skincare products containing ferulic acid. Developed by researchers at the U.S. Department of Agriculture, feruloyl glycerides combine the beneficial properties of ferulic acid with the lipophilic characteristics of natural oils. Feruloyl glycerides are now being made available to formulators under the trade name “FeruliShield” by the Midwest Bioprocessing Center, a company focused on bringing sustainable technologies to market for human health, nutrition, and personal care.

By utilizing a natural enzymatic process to link ferulic acid with natural triglycerides like soybean oil or coconut oil, feruloyl glycerides provide an effective barrieragainst environmental damage. These modified oils are more lipophilic, facilitating their formulation into skincare and haircare products. They offer long-lasting SPF-boosting and antioxidant effects, enhancing the durability and efficacy of other active ingredients by protecting against photodegradation.

Incorporating feruloyl glycerides into sunscreens, cosmetics, anti-aging skincare, and haircare products not only improves their performance but also ensures the preservation of active ingredients and extends their shelf life. As all-natural lipid-based antioxidants, feruloyl glycerides products serve as an SPF booster while providing added protection against environmental stressors.

Feruloyl glycerides are also biodegradable. A new study conducted by researchers at the USDA (ACS Sustainable Chem. Eng. 2024, 12, 10, 3899–3908) compared the biodegradation rates of the typical sunscreen ingredients such as octinoxate (EHMC), homosalate (HMS), and avobenzone (AVO) with bioderived UV absorbers ferulic acid (FA), ethyl ferulate (ETF), feruloylated soybean oil (FSO), and feruloylated coconut oil (FCO) in different marine conditions. By monitoring CO2 production over time, researchers found that the bioderived absorbers broke down significantly faster (1 to 2 orders of magnitude) than chemical ones in all of the environments that were tested. Overall, the results suggest that bioderived boosters like feruloyl glycerides offer faster environmental degradation compared to conventional ones, addressing concerns about their persistence in the environment.

Looking at the feruloylated oils (or lipids) in particular, the process starts with the lipids breaking down into glycerol and fatty acids. Then, bacteria in the water eat up these components, turning them into simpler substances like CO2 and water. Ferulic acid, linked to these lipids, also breaks down into smaller molecules through bacterial processes. This means that these feruloylated lipids are likely better for the environment. This gives new hope for the evolution and potential of safer sunscreens. Though more research needs to be done, feruloylated oils show promise as reef-safe ingredients due to their faster biodegradation compared to conventional sunscreen chemicals.

This discovery offers hope for the development of safer sunscreens. By choosing reef-safe and biodegradable products, like those developed by Midwest Bioprocessing Center, consumers can contribute to the preservation of marine ecosystems for future generations. Sustainability lies at the heart of our commitment at Midwest Bioprocessing Center. We understand the interconnectedness of human health and the health of our planet, particularly our oceans and marine life.

By prioritizing the development and promotion of reef-safe personal care products and biodegradable formulations, we can all help to mitigate the harmful impact of conventional skincare on marine ecosystems. At MBC our efforts extend beyond product formulation—we continually seek innovative solutions, such as patented FeruliShield, that not only enhance product performance but also align with sustainable practices. Through research, collaboration, and consumer education, we strive to foster a culture of environmental stewardship, empowering individuals to make informed choices that safeguard our planet for future generations. Together, let’s make conscious choices to protect our oceans and ensure a sustainable future.

 

 

 

References:

https://pubs.acs.org/doi/10.1021/acssuschemeng.3c05002

https://www.bbc.com/news/world-asia-50963080

https://www.tripsavvy.com/sunscreen-bans-what-you-need-to-know-4692629

https://www.nytimes.com/2019/02/07/us/sunscreen-coral-reef-key-west.html?smid=url-share

https://www.colorescience.com/blogs/blog/sunscreen-bans

https://pubs.acs.org/doi/10.1021/acssuschemeng.3c05002

https://www.ncbi.nlm.nih.gov/pmc/articles/PMC3781714/

https://www.cancer.org.au/cancer-information/causes-and-prevention/sun-safety/about-sunscreen/nanoparticles-and-sunscreen

https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10239112/

https://www.ewg.org/news-insights/news/do-chemicals-your-sunscreen-damage-fragile-coral-reefs

https://www.nps.gov/puhe/protect-yourself-protect-the-reef.htm#:~:text=Look%20for%20NON%2DSPRAY%20sunscreens%20with%20ZINC%20OXIDE%20and%20TITANIUM%20DIOXIDE

https://savethereef.org/about-reef-save-sunscreen.html#:~:text=To%20keep%20ocean%20life%20happy,zinc%20oxide%20and%20titanium%20dioxide

https://www.sciencedirect.com/science/article/pii/S1773224723005725

https://www.icriforum.org/wp-content/uploads/2019/12/ICRI_Sunscreen_0.pdf

Delving Deeper into Sunscreens

Sunscreen should be a crucial part of our skincare routine, providing protection against the harmful effects of ultraviolet rays from the sun—both outdoors and indoors. However, as awareness about the environmental impact of skincare products grows, it becomes important to delve deeper into the ingredients that make up sunscreens. We will explore the various components of sunscreens, their effectiveness, potential environmental impacts, and the ongoing efforts to strike a balance between sun protection and environmental sustainability.

 

Types of Sunscreens

Sunscreens generally fall into two categories: chemical and physical. Chemical sunscreens contain compounds that absorb UV radiation and transform it into heat, releasing it from the body. Common chemical sunscreen ingredients include avobenzone, octocrylene, and oxybenzone. On the other hand, physical sunscreens use mineral-based ingredients like zinc oxide or titanium dioxide to create a protective barrier on the skin, reflecting UV rays away.

The effectiveness of sunscreen ingredients has become an important consideration for consumers. FDA-approved ingredients, such as avobenzone, octocrylene, and zinc oxide, and others are reviewed to ensure their safety and efficacy. However, recent concerns have arisen about certain chemical sunscreen ingredients because they may be absorbed into the bloodstream. Others, such as oxybenzone, has potentially been linked to coral reef damage. Researchers are actively exploring alternative formulations to address these concerns.

 

Consumer Concerns With Sunscreens

The environmental impact of sunscreen use has gained significant attention in recent years. Studies suggest that some chemical sunscreen ingredients can contribute to coral bleaching and negatively impact marine ecosystems. To address this, Hawaii and other locations have banned the sale of sunscreens containing oxybenzone and octinoxate.

Furthermore, most chemical sunscreens are not natural or biobased. The synthesis of these compounds typically involves starting materials derived from petrochemicals. Petrochemicals are chemical compounds derived from petroleum, which is a fossil fuel composed mainly of hydrocarbons. These hydrocarbons, which consist of carbon and hydrogen atoms, are the building blocks of various organic compounds. Petrochemicals play a crucial role in the production of a wide range of products that are integral to modern life. This includes chemical sunscreens. With the current market demanding more sustainable products, the search for environmentally friendly alternatives has led to the development of both “reef-safe” and biobased products for sunscreens, which avoid harmful ingredients and prioritize environmental sustainability.

Furthermore, some products, such as oxybenzone, in addition to their impact on coral reefs, have been criticized for potential hormone-disrupting effects. As a result, consumers are seeking alternatives that offer effective sun protection without compromising health or the environment. Researchers are actively exploring alternative sunscreen formulations that balance sun protection with environmental sustainability. Additionally, plant-based ingredients and antioxidants are being incorporated into sunscreen formulations to enhance protection and minimize environmental impact.

 

Physical Sunscreen Alternatives

Zinc oxide and titanium dioxide-based sunscreens have challenges in achieving extremely high SPF compared to their chemical counterparts. The difficulty arises from the limitations associated with the particle size of these minerals and in FDA restrictions on the maximum amounts that can be used in a consumer product. In general,larger particles of zinc oxide and titanium dioxide are more effective at blocking UV rays, leading to higher SPF values. However, larger particles are also more

likely to result in a visible white cast on the skin, making them less aesthetically pleasing. This presents a trade-off between achieving a very high SPF and avoiding the characteristic whitening effect.

Additionally, there are concerns that the smaller available sizes of physical sunscreens, nanoparticles, may be toxic and require further study therefore many companies ban their use. Ultimately, the challenge remains in striking the right balance between achieving a high SPF and maintaining the cosmetic preferences of the sunscreen. While they

may not always reach the extremely high SPFs associated with some chemical sunscreens, mineral sunscreens are valued for their broad-spectrum protection, suitability for sensitive skin, and reduced environmental impact.

 

SPF Boosters to the Rescue

There are alternative options to increasing SPF in sunscreens, which are SPF boosters that help improve their ability to shield the skin from harmful ultraviolet radiation. These boosters are often added to sunscreen formulations to increase the overall SPF value, providing consumers with stronger protection against both UVA and UVB rays. One common class of SPF boosters are antioxidants. Antioxidants work by neutralizing free radicals generated by UV exposure, which can contribute to skin damage and aging. By incorporating antioxidants or botanical extracts into sunscreen formulations, manufacturers can enhance the sunscreen’s ability to combat oxidative stress caused by UV radiation. This additional protection complements the primary UV-blocking agents in the sunscreen.

While many SPF boosters are chemically derived from petroleum products, there are very few natural or biobased sources. Ferulic acid, a plant derived photoprotectant, is a potent antioxidant that has gained significant attention in the skincare industry for its ability to neutralize free radicals and protect the skin from oxidative stress. Extracted from various plant sources, such as rice, corn or other sources, ferulic acid is now recognized as a valuable ingredient in skincare formulations.

One of the key benefits of ferulic acid is its ability to enhance the photoprotective properties in formulations. When combined with other antioxidants like vitamins C and E, ferulic acid creates a harmonious effect, boosting the overall effectiveness of the product in shielding the skin from the damaging effects of the environment. UV exposure generates free radicals in the skin, leading to premature aging and an increased risk of skin cancers. Ferulic acid helps combat these free radicals, reducing the oxidative damage caused by UV rays.

Ferulic acid is known for its photostabilizing properties. It can enhance the stability of certain sunscreen ingredients, particularly those prone to degradation when exposed to sunlight. This contributes to the longevity of the sunscreen’s effectiveness, ensuring that it maintains its protective qualities over extended periods of sun exposure. In addition to its antioxidant and photostabilizing benefits, ferulic acid may also have anti-inflammatory properties. This can be particularly beneficial in sunscreens, as it helps lessen inflammation caused by UV exposure, providing soothing effects to the skin.

Unfortunately, formulating with ferulic acid has many challenges due to its inherent properties. It is not soluble in water or lipids and in its free form is an acid, making it a difficult ingredient to incorporate into a wide range of skincare formulations The inability to dissolve in water makes its integration difficult, limiting its use in conventional formulations such as moisturizers and toners. Additionally, its insolubility in lipids poses challenges for oil-based formulations, impeding its potential application in various skincare products.  In plants, there is very little free ferulic acid where it is bound up in lignin and cellulosics.

 

A New Discovery

Taking direction from nature FeruliShield™, an advanced biotech ingredient, was developed as a significant improvement over conventional ferulic acid in personal care products. Derived from nature’s photoprotectant and antioxidant, ferulic acid, FeruliShield’s ferulic acid moiety is enzymatically linked to soybean oil and coconut oil to create a feruloyl glyceride.  This signifantly simplifies the formulation processes and enhances effectiveness in a range of applications. This innovation not only serves as an SPF booster, reducing the white cast associated with ZnO or TiO₂-based products, but it also acts as a rapid antioxidant, safeguarding the skin from environmental damage. Beyond its antioxidant properties, FeruliShield extends the longevity and efficacy of active ingredients, addressing a limitation often faced by ferulic acid in cosmetic and personal care formulations.

FeruliShield’s stability, ease of formulation, and lipophilic nature contribute to its role as a long-lasting shield against environmental damage, preventing photodegradation and oxidation. This not only aids in maintaining the efficacy of other active ingredients but positions FeruliShield as a versatile SPF booster. Its certification as a USDA Certified Biobased product aligns with the growing demand for sustainable options, emphasizing the commitment to environmentally conscious practices.

Backed by over a decade of scientific research, FeruliShield’s efficacy is well-documented in peer-reviewed journals, while computer modeling studies highlight its surface-based protection, staying on the skin’s surface for optimal impact without absorbing into the skin. Its liphophilic nature further ensures ease of formulation in both water-in-oil (w/o) and oil-in-water (o/w) formulations, making FeruliShield a versatile and effective addition to clean and science-based beauty regimens, aligning with the contemporary emphasis on sun protection and overall health preservation.

 

Conclusion

As researchers delve into innovative approaches to enhance sun protection and address challenges associated with prolonged sun exposure, feruloyl glycerides emerge as a promising ingredient that complements the existing arsenal of UV filters and boosters in sunscreen formulations. Its multifaceted benefits, including antioxidant properties and photostabilization, make it a valuable addition to skincare products. These not only enhances protection against the harmful effects of UV radiation but also contributes to overall skin health.

In our ongoing commitment to prioritize sun protection, it becomes imperative to stay informed about the ingredients in our sunscreens and their potential impact on both our health and the environment. The industry’s shift towards more sustainable options and the development of innovative formulations underscores the importance of finding a balance between effective sun protection and environmental responsibility. Through making informed choices, we can safely enjoy the sun while actively contributing to the preservation of our planet.

 

Sources

https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6122478/

https://www.fda.gov/drugs/understanding-over-counter-medicines/sunscreen-how-help-protect-your-skin-sun

https://coralreef.noaa.gov/

https://www.skincancer.org/skin-cancer-prevention/sun-protection/sunscreen/

https://www.aad.org/media/stats-sunscreen

What is the Skin Barrier?

By: Elena Chaikin

 

“Replenish your skin barrier,” “Repair damage in your skin barrier,” “Improve your skin barrier.”

We often hear these phrases and more about skincare.

 

But what do these mean? What is our “skin barrier”?

 

Anatomical structure of the skin. Elastin, Hyaluronic acid, Collagen. Infographics. causes of wrinkles on the skin. Vector illustration on isolated background

Our skin is the largest organ in our bodies. It helps protect everything inside us. The skin can be split into three general layers: the outer layer called the epidermis; the middle layer, called the dermis; and the third, innermost layer, which is called the subcutaneous (or hypodermis) layer. The outer layer has two major sections itself —the surface, a thin, slightly acidic layer of oils (called sebum) and sweat; and the actual layers of cells below, which is the skin barrier. Imagine it as a wall of bricks.

A healthy, functioning skin barrier keeps your body protected against pollution, toxins and irritants, and keeps the lower skin layers from losing water. The part right at the top of our epidermis, under the layer of sebum, is formally called the stratum corneum. There are 10 to 30 layers of tough protein cells that are called corneocytes, which are stuck together by lipids. These cells naturally slough from our bodies and are continually replaced by the cells underneath them in the epidermis. But the epidermis has to be kept healthy in order to replenish the corneocytes.

These lipids include cholesterol, fatty acids, and ceramides. Without them holding the corneocytes together, toxins and pathogens from our environment would penetrate the skin and cause bad effects inside our bodies. So, the skin barrier is one of our bodies’ first lines of defense. It controls water loss, retains moisture, and keeps your body hydrated. If your skin barrier isn’t maintained, it will be prone to damage, including water loss, aka dehydration. Have you ever lightly skinned your knuckle or finger (so that it doesn’t bleed) and then seen a small pool of fluid form on your skin? You knocked the stratum corneum off.

Signs of a damaged skin barrier include dry, itchy, or flaking skin that might be sensitive, red, and inflamed. A weak barrier will leave the second and third layers of the skin prone to injury.

 

How can the Skin Barrier be damaged?

Skin barrier

Daily, our skin is confronted with threats from our environments—dry environments (especially during winter), or even environments that are too humid; irritants such as air pollutants or allergens; products that we may use on our bodies, such as soaps; or detergents that we use to wash our clothes; harsh chemicals that we clean with; and sun exposure to name a few.

We can also put our skin barriers at risk by too much exfoliation, doing too many skin peels, or even over-washing. That squeaky clean feeling after you wash your face? Don’t leave your skin that way. Following a skin routine will bring your skin back to its normal pH level and return moisture with creams. You can also damage your skin barrier if you use water that’s too hot, or if you change too many products in your skin routine.

Also, topical steroids that doctors may prescribe us will cause our skin to get thinner if they are used for too long. And some people may have genetic conditions that will affect their skin, such as atopic dermatitis and psoriasis.

 

The Sun

The sun is a double-edged sword. Sunlight, or solar radiation, contains heat (infra-red radiation), visible light, and ultra-violet light (UV radiation). On one hand, the UV radiation helps our skin produce vitamin D, essential to our bodies. On the other, UV radiation is what causes sunburn and is responsible for most of the skin cancer cases across the world. There are three types of UV radiation: UVC which is filtered by the ozone layer in the sky; UVB, which is absorbed by the epidermis, and UVA, which penetrates both the epidermis and the dermis.

Even low levels of UV radiation will cause damage. That is why experts recommend that you still use sunscreen on a cloudy day, if you’re inside a building and there are lots of uncovered windows, or driving your car. While most UVB radiation is blocked by window glass, UVA radiation passes through it, and is responsible for significant damage to your skin.

Damage to the skin barrier happens because UV rays affect the proteins in your skin cells, the corneocytes. The UV rays break down skin cells, oxidize the lipids holding them together, and damage DNA. Redness and burning are usually the immediate effects from the sun, while sped up aging (fine lines and wrinkles, even dark spots) are some of the later effects of sun exposure.

 

UV Rays

UVA and UVB rays could account for 80% of skin aging, including increased dryness, wrinkling, increased pigmentation, and photoaging. Collagen is a building block for many parts of your body: bones, skin, hair, muscles, just to name a few. Naturally with age, the collagen in our bodies decrease. Collagen is an ingredient in skincare that is often mentioned because it is what keeps skin plump and youthful. However, skin, unprotected from the sun, will lose its collagen faster, giving way to premature wrinkles and decreasing skin elasticity.

The worst effect from the sun is, of course, skin cancer, which is caused by DNA damage. UV rays create free radicals (unstable molecules) that break down the collagen, healthy skin cells, and ultimately lead to cell damage. The cells malfunction and this causes them to multiply and replicate too much.

The sun’s UV rays also damage fibers in your skin called elastin. Elastin is often confused with collagen. Collagen provides the skin with structure and support, while elastin gives skin stretch. So, when elastin fibers breakdown, your skin loses its ability to snap back in place to its original shape and will also take longer to heal. Luckily, using sunscreens and other sun protection options will help prevent these unfortunate results from sun exposure.

 

How to maintain a healthy skin barrier?

Young Woman Applying Cream On Her Face Over White Background

You’re now an expert in what can cause skin barrier damage, but the next step is learning how to prevent it. Let’s start with skin routines, as it will be one of the most effective ways to repair and support your skin barrier. If you don’t have a skin routine, starting simple is the best way. A gentle facewash, which you should use in the morning and night, followed by a serum, which can also be specific to repairing and improving the skin barrier, and lastly a moisturizer. Serums are great because you can give your skin an added treatment that can be for hydration (there are different kinds that are targeted for different skin concerns; you can even look for serums that specifically mention the skin barrier).

As mentioned before, over-exfoliating with scrubs or skin peels can damage your skin. You will know if you have over-exfoliated your skin if it is red, sensitive, or stinging. It could also be dry and/or flaky. You might feel that your skin is tight. If you’re acne-prone, you may have increased breakouts since a damaged skin barrier means bacteria and other toxins can get through. If you have dry skin in general, extra hydration is key to maintaining a healthy skin barrier. You can include simple oils such as jojoba oil or rosehip oil in your routine. Squalene oil, in particular, is very popular nowadays. Or you can find products that contain these oils already. Just stay away from oils that are fragranced, as fragrance can irritate skin and even cause breakouts.

Since one of the lipids that hold together the corneocytes in our skin are ceramides, moisturizers that contain ceramides are a very effective choice to include in your skincare routine! Not only are skincare products containing ceramide great for dry skin, but ceramides are also especially great for acne-prone skin because acne leaves skin red and dry. But there are other great active ingredients.

Beautiful girl choosing beauty products from the bathroom cabinet

Hyaluronic acid is another popular ingredient in skincare because it’s a humectant—a substance that draws moisture into the skin. Working in conjunction with ceramides—which will mimic the natural ceramides found in your skin—hyaluronic acid will pull water from the upper layer of skin, the dermis, further into the epidermis. Old-school petroleum jelly also works by creating a layer over the skin and keeping moisture in. This technique is a recent K-beauty trend known as “Slugging.”

Another important skin factor to take note of is that we must balance the pH of our skin, which can be tricky. The skin barrier has a slightly acidic pH at around 5.5. It is very possible to throw that number off, which will disturb the natural ecosystem of our skin. When looking for skincare products, you can keep an eye out for those that mention “pH balancing.” When considering cleansers, remember not to use regular, classic soap as it’s too alkaline. Never use regular soap to wash your face!

There are some things that you should keep in mind while discovering what skincare you’ll need. Not all ingredients and products work for everyone, so you should try different kinds and see what works best for you. If you’re uncertain, you can consult a dermatologist or esthetician and get the exact knowledge about your skin and which products will work best. A dermatologist also has the authority to prescribe you medications if you need them.

In addition to skincare, there are lifestyle choices that will help your skin in general. Stay hydrated. Eating healthy foods that are rich in antioxidants is also important. Foods that are good for your skin include carrots, and other yellow or orange foods; green, leafy vegetables, tomatoes, berries, beans, and nuts; and in terms of protein: fish because fish oil will help promote good skin elasticity. Blueberries, pomegranates, and other fruits and vegetables that are rich in vitamin C—are full of those antioxidants.

 

Antioxidants

Three molecules inside the human cell: Free radical with missing electron, Normal stable molecule with paired electrons and Antioxidant with extra electrons which can be donated to free radical

Antioxidants are important to consume through food, and they are also important for your skin. Why are they so great? They have the ability to halt the chemical reactions that may damage skin cells. Those free radicals mentioned earlier—antioxidants actually adsorb them and neutralize them, preventing them from wreaking havoc. Skin damage due to free radicals will lead to inflammation, which keeps cells from working properly and repairing themselves.

Think of antioxidants as defenders for our bodies. They can do many miraculous things: such as improve signs of aging, prevent sun damage by stopping your skin’s inflammatory response to sunrays, which prevents sunburns, and give protection against sun damage and photoaging. The list goes on—antioxidants can even help skin cells repair themselves.

 

 

Let’s look at the most important and clinically proven antioxidants many of which also have other beneficial effects as active ingredients:

        Vitamin C (also called ascorbic acid) has many vital functions inside your body. It is needed for blood vessels, cartilage, muscle, collagen, and more. Being a powerful antioxidant, it neutralizes free radicals, whether they are from tobacco smoke, UV light, or X-rays. It also boosts your immune system and fights diseases such as heart disease, cancer, eye diseases, and even the common cold. Have you been told to take vitamin C when you’re sick or when you feel a cold coming on? It won’t prevent the common cold, but it can control symptoms and maybe even shorten the span of the cold. Since our bodies don’t produce vitamin C, we need to eat foods that contain it or take supplements available over the counter.

For skin, vitamin C works by fighting free radicals. It helps protect from sun damage, reduces signs of aging, and can improve your skin’s entire appearance. Vitamin C stimulates collagen production, which as mentioned before promotes a youthful appearance to your skin. Adding vitamin C, whether in serum form or already in a moisturizer, to your skincare routine (preferably used in the morning before adding your sunscreen) is a great option.

        Vitamin E is another amazing antioxidant and is generally considered the most powerful antioxidant. In our bodies, Vitamin E helps to protect cells from free radicals found in our environments. Overall, our bodies need vitamin E for our immune systems, as it can help fight bacteria and viruses as well as keep our blood from clotting.

Applied topically, vitamin E fights free radicals. Protecting the skin barrier, it works in two ways: as a humectant (attracting water) and as an emollient (trapping water). Among other great benefits vitamin E provides, it helps to relieve eczema and reduce scars and stretch marks. It’s a natural anti-inflammatory, soothing and calming skin. It comes in oil, creams, and serum versions. Overall, vitamin E is a great moisturizer for your whole body.

        Retinol is a form of vitamin A and part of a family of ingredients called retinoids—which are actually considered antioxidants. Retinol was first used for acne, which it is still great for. Nowadays, it is marketed as one of the best ingredients for aging skin. You can get it over the counter in various skin care products and from a dermatologist for more potent uses. Retinol works deep in the skin, promoting the production of collagen and elastin. It is highly recommended that you use any type of retinol at night, as it will make your skin sensitive to UV rays.

        Niacinamide, which is vitamin B3, is amazing for improving skin texture and fine lines, soothing acne breakouts, and for your skin barrier.

        Resveratrol, which comes from grapes and is known for its anti-aging properties, is great for inflammation, has antibacterial and antifungal properties, and helps keep skin free from infections.

These antioxidants and active ingredients all have one major problem: They are susceptible to photodegradation in the sun and break down rapidly if not protected.

 

Improving Antioxidant Performance

Ferulic Acid and Feruloyl Glycerides. 

One way formulators of cosmetics use to protect these molecules from photodegrading is to recommend consumers to use a sunscreen, or formulators use an SPF booster to help preserve their properties. You may have seen “ferulic acid” or “feruloyl glycerides” in the ingredients list of your products. These molecules are antioxidants in their own right but also provide additional protection.

        Ferulic Acid. Ferulic Acid is an antioxidant that has many benefits for your skin. Ferulic acid is found in plants and is one way that nature uses to protect plant cells from the damaging effects of the sun and other pollutants. Not only does it have anti-inflammatory and antimicrobial properties, but it is also a free radical scavenger that reduces signs of aging when used in cosmetics. Unfortunately, ferulic acid is difficult to formulate in cosmetic products since it is not soluble in either oil or water.

        Feruloyl glycerides. More recently, a new advanced form of ferulic acid has been developed that is easier to formulate and has enhanced properties. Feruloyl glycerides have a ferulic acid attached to an oil such as soybean oil, coconut oil, or hemp seed oil. This powerful ingredient combines the amazing properties of ferulic acid with the formulation advantages of natural oils. Researchers have shown that feruloyl glycerides are rapid antioxidants (1), and have strong broad-spectrum UV absorbance (2).   Feruloyl glycerides are also “photoprotectants” and protect other active ingredients in skin care products such as Vitamin C and Vitamin E from being damaged by sunlight (3).  Furthermore, when combined with sunscreens, feruloyl glycerides have the ability to increase the SPF of the sunscreen product. Feruloyl glycerides were initially developed at the USDA’s National Center for Agricultural Utilization Research (NCAUR) in Peoria Illinois*. They are now produced as FeruliShield™ products by the Midwest Bioprocessing Center.

 

More information on feruloyl glycerides.

 

 

Peer-reviewed Research Paper References

  1. Compton, D. L., Laszlo, J. A., & Evans, K. O. (2012) Antioxidant properties of feruloyl glycerol derivatives. Industrial Crops and Products, 36:217–221.
  2. Compton, D. L., Goodell, J. R., Evans, K. O., & Palmquist, D. E. (2018) Ultraviolet absorbing efficacy and photostability of feruloylated soybean oil. Journal of the American Oil Chemists’ Society, 95:421–431.
  3. Compton, D.L., Evans, K.O., Appell, M., & Goodell,   (2019) Protection of Antioxidants, Vitamins E and C, from Ultravoilet Degradation using Feruloylated Vegetable Oil. 2019.  J Am Oil Chem Soc.

 

Other References

https://www.healthline.com/health/skin-barrier#how-to-protect
https://www.healthline.com/health/atopic-dermatitis/what-is-atopic-dermatitis
https://www.webmd.com/skin-problems-and-treatments/skin-barrier-what-to-know
https://www.californiaskininstitute.com/do-these-5-things-to-strengthen-your-skin-barrier/
https://my.clevelandclinic.org/health/diseases/10985-ultraviolet-radiation
https://my.clevelandclinic.org/health/body/22482-elastin
https://www.cdc.gov/cancer/skin/basic_info/sun-safety.htm#:~:text=Most%20skin%20cancers%20are%20caused,not%20just%20during%20the%20summer
https://www.mayoclinic.org/diseases-conditions/wrinkles/symptoms-causes/syc-20354927#:~:text=Exposure%20to%20ultraviolet%20(UV)%20light,layer%20of%20skin%20(dermis)
https://www.ncbi.nlm.nih.gov/pmc/articles/PMC4344124/#:~:text=UV%20exposure%20may%20account%20for,photoaging%20correlates%20with%20cancer%20risk
https://www.healthline.com/health/retinol-for-acne#how-we-chose
https://www.lifegate.com/antioxidant#:~:text=Glutathione%20is%20the%20most%20powerful,and%20it%20keeps%20them%20young
https://www.medicalnewstoday.com/articles/ferulic-acid#benefits

 

Other

*Mention of trade names or commercial products in the referenced publications and in this document is solely for the purpose of providing specific information and does not imply recommendation or endorsement by the United States Department of Agriculture (USDA). USDA is an equal opportunity provider and employer. Research was supported in part by the U.S. Department of Agriculture, Agricultural Research Service.

Blog post: Viral Glycobiology Research

Application Focus:  Viral Glycobiology Research

Glycobiology is important in a number of ways for viral research.  Viral surface proteins are often heavily glycosylated to both avoid recognition by the host cell and, in some cases, interact with host receptors.  For example, the spike protein glycosylation of the SARS-CoV-2 virus is usually the extension of an N-linked core pentasaccharide compound, composed of a stem of chitobiose followed by mannoses to form two antennary complexes.  Understanding glycosylation of viral spike proteins and their potential epitope masking is of fundamental importance for vaccine research.

Viral receptors recognized by many viruses are glycosylated proteins, as well.  SARS-CoV-2 and others uses angiotensin-converting enzyme 2, (ACE2) as their receptor, while other ß-coronaviruses utilize sialic acid residues on cellular glycoproteins.

Glycans are currently being studied as vaccines against viruses (Dengue, Hepatitis C), parasites (Plasmodium) and fungi (Candida).  Human milk oligosaccharides (HMOs) have been shown to reduce the possibility of infections through interference with adhesion of pathogenic bacteria and potentially viruses.   Galectins have pro- or anti-viral properties and play an important role in innate immunity.  Finally, some galectin inhibitors may block HIV infection of T cells.

Oligosaccharides are currently isolated from nature or synthesized at extremely low yield via a complex set of protection and deprotection steps. At the Midwest Bioprocessing Center we are developing new enzymatic technologies to build the key activated sugar building blocks needed to make important glycans, as well as custom oligosaccharides required to support and create additional research in this important field.

 

Peoria, And the Birth of Industrial Fermentation and Bioprocessing – Part I: Whiskey Capital

By Elena Chaikin

The Midwest Bioprocessing Center is proud to have gotten our start in Peoria, IL.  Located halfway between St. Louis and Chicago, Peoria and the surrounding area has a rich history as a fermentation and bioprocessing technology hub.

In a series of posts, we will take a walk-through Peoria’s early days as the whiskey capital of the world; visit the formation of the USDA’s National Center for Agricultural Utilization Research to produce penicillin, house the NRRL strain collection and innovate agricultural fermentation and bioprocessing; through to its role as a modern bioprocessing center.

In this first post, we start with the birth of Peoria as a center for fermentation and the colorful history this generated.

Peoria’s Distilleries

From 1837 to 1919, Peoria was the center for distilling and brewery industries. An eclectic group of immigrants, who knew what they were doing, coupled with the needed ingredients to produce alcohol, helped Peoria thrive on innovative fermentation. Peoria was called the “Alcohol Capital of the World.”

By 1880, the city was producing 18 million gallons of liquor a year, which was more than Kentucky at 15 million gallons. Between the years 1837 and 1919, there were 24 breweries and 73 distilleries in central Illinois, making it one of the centers for the world’s largest fermentation industry. There is a good reason for why this area was chosen: the clean, natural spring water available (filtered through limestone), the ample amount of corn, and the vast transportation channels (the river and the railway) by which goods could come and go in barrels or bottles.

Many people who settled in Peoria were immigrants. The demand for distilling was immediate. Peoria’s first brewery was established in 1837 by Andrew Eitle. Then in 1843, Almiron Cole became the first commercial distiller, who opened up shop by the river. He was a wealthy merchant and steamboat captain. By 1865, there were 14 distilleries. Most of them were located at ‘Distillery Row” along the Illinois River. Peoria became a boom town and its rich expertise in fermentation had begun.

Whiskey Barons in the Sin City

Some of the influential whiskey barons that established themselves in Peoria included Joseph Greenhut, from Chicago, the Hungarian Woolner Brothers, and the Clarke Brothers. At the time, Greenhut’s Great Western Distillery was the largest in the world. Peoria’s liquor barons and brew masters helped shape the foundation of the city’s society and culture. Many being Chicago transplants, they helped Peoria prosper. They built mansions, civic centers, theaters, hotels and more. Peoria was a city of entertainment. In fact, many called it a sin city.

Halfway between St. Louis and Chicago, Peoria was a stop for all sorts of people, from gamblers, traders, and laborers to many types in between. Because of this, Peoria thrived on vice. Aside from the booze, Peoria traded in gambling, racketeering, and bawdy houses.

Joseph Greenhut helped establish The Whiskey Trust in 1887. His goal was to gain power over the distilling industry, essentially creating a monopoly to reduce competition and ensure profit for the Trust’s members.

Most don’t know that Peoria distillers helped the Union fund the Civil War through the “Sin Tax” on alcohol and tobacco. Historical records prove that 50 percent of the national “Sin Tax” during the war was collected from the Peoria area distilleries and breweries. By 1880, the “Sin Tax” was the largest revenue stream for the US Government.

Prohibition Changes Everything

Peoria’s entire economy was bolstered by its alcohol production. When Prohibition started in January 1920, half of the city’s citizens, including those with expertise in fermentation, went out of work. Bars turned to soft drink parlors where customers could smoke and listen to jazz…and they could get a little something extra—a shot of Canadian Whiskey. Illegal alcohol didn’t just become prevalent elsewhere in the United States but in Peoria, too.

Some of Peoria’s distilleries were given an exemption and continued running. The whiskey that was made was considered “medicinal” and given to those people with doctors’ prescriptions. Other parts of the work force pursued less legal methods of contining their distilling expertise. “Rotgut whiskey” or “moonshine” became available.

Moonshining

Moonshine got its name because it was made “under the moonlight.” It was also called by other names during Prohibition, such as rot gut, likker, shine, bathtub gin, white lightning, and more.

Moonshining has always been around, even in Peoria. After the Revolutionary War, taxes were placed on alcohol and most people weren’t too happy about it. The solution was natural—to ignore the law and make alcohol illegally. Before Prohibition, making homemade alcohol was just another side business for people when times were tough.  When crop yield was poor for farmers families on the frontier could make extra money.

With no legal alcohol available aside from “prescription” whiskey, people changed their opinion on moonshiners. Their businesses boomed. Suddenly, they weren’t the desperate ones. The public embraced their enterprise.

Organized Crime Gets into the Act

Organized crime took advantage of the situation, and speakeasies opened in every town. Bootleggers were the runners who would distribute the alcohol while avoiding getting caught. In colonial times, bootleggers would hide bottles in their boots, which is where the name came from. To make moonshine was simple—you basically needed corn meal, sugar, yeast, and water. In Peoria, “hooch houses” were found down by the river where a person could get a drink of homemade liquor.

The obvious difference between the liquor distilleries’ goods and what moonshiners churned out was the lack of science and sanitation when the moonshine was made. Industrial made whiskey had a color to it because it was aged for a period of time in wood barrels. Moonshine was usually colorless. Without the aging, it had what people called a “kick,” and was far from mellow in taste.

Unfortunately, during the making of moonshine, mistakes could be made. The moonshine may have needed several more runs through the still to filter out any contaminants. Sometimes, if the still got too hot, the alcohol level was even higher than anticipated, therefore producing a product with a very high proof level. Distilling was, and still is a complicated process. It is very easy to make alcohol that is dangerous to consume.

Industrial distillers like those on distillery row in Peoria used the same method as the moonshiners, although the distillers were much more professional and efficient in scale. Making moonshine was a gamble. Moonshiners weren’t inspected, they weren’t sanitary, and sometimes they used unsafe ingredients that left drinkers dead after the product reached their mouths.

 

Gangsters

Just because loopholes were granted to those distilleries and many doctors made bank from giving out prescriptions for whiskey, that didn’t mean that moonshiners and bootleggers didn’t profit from the situation.  Everyone knows Al Capone due to the huge amount of publicity he had garnered bootlegging in Chicago. In south and central Illinois, the Shelton Brothers gang were one of the most infamous mobsters and bootleggers.

Carl Shelton was the leader. Bernie and Earl managed the bootlegging operations. Most of the time they successfully got around law enforcement—well they didn’t, they just paid them off. Corruption was widespread. Bribes were a part of the business. Bootleggers had to pay off judges, government officials, and prosecutors. Because of this, law breaking and the flaunting of it was considered almost cool.

Charles Birger (who had once been a part of the Shelton gang) was a big rival and fought them over the control of the whole operation. The Brothers couldn’t win and went to jail for mail robbery in 1925. Birger controlled the bootlegging for a while, until he too was convicted. Though instead of being sentenced to prison, he was hanged for the murder of an Illinoisian mayor of West City, Joe Adams. When the Shelton Brothers got out of prison, they took on a new enterprise—gambling in Peoria.

After Prohibition

Prohibition finally ended in 1933.  Legal alcohol production started up again. National Distillers Products Corp. revamped the Clarke Brothers distillery, which once made Clarke’s Pure Rye, a popular whiskey before Prohibition. Hiram Walker, from Canada, opened a plant on the site of the Great Western Distillery, which had been operated by Joseph Greenhut. Pabst Brewing Co., opened up a brewery in Peoria Heights. Pabst had 62% of the beer market in 1976 until 1982.

Nowadays, craft beers and whiskeys are produced in Peoria and continue the fermentation legacy. One such modern distillery is J.K. Williams. The distillery was opened in 2013 by Jesse and Jon Williams, whose great-great grandfather was a whiskey master before Prohibition. After, he had to turn into a smuggler and bootlegger in order to continue his business. Decades later, his great-great grandsons continued the tradition, an echo of the glory days of Peoria’s alcohol trade. More recently others such as the Black Band Distillery have been winning national attention.

Although Peoria’s liquor trade never quite returned to its former height after Prohibition, Peoria’s reputation for fermentation and bioprocessing grew and its heritage as the former Whiskey Capital of the World is still ensconced in its memory.

Peoria’s reputation was a key factor in the city being selected as the site of the first industrial fermentation – the production of penicillin and in the increasingly important production of ethanol from corn.  But these are exciting stories for another time.

—-

Stay tuned for the next installment in our blog series where we’ll take a fascinating tour of Peoria’s USDA Ag Lab and learn about the birth of industrial fermentation.

 

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Sources:

https://chronicleillinois.com/news/tazewell-county-news/bootleggers-speakeasies-thrived-during-prohibition-in-central-illinois/

https://www.alcoholproblemsandsolutions.org/prohibition-in-illinois-beginning-end/

https://prohibition.themobmuseum.org/the-history/the-prohibition-underworld/bootleggers-and-bathtub-gin/#:~:text=They%20used%20a%20small%20still,water%20it%20down%20by%20half.

https://www.wideopeneats.com/famous-moonshiners-that-shaped-history/

https://www.nprillinois.org/illinois/2020-08-13/booze-blood-and-bombs-prohibition-in-southern-illinois

https://www.pjstar.com/story/news/2015/08/28/extra-peoria-s-hiram-walker/33618842007/

https://industrialscenery.blogspot.com/2016/02/hiram-walkers-in-peoria-worlds-largest.html

 

 

The History of Sun Protection

By Elena Chaikin, Marketing Manager

Sun protection has been important to people for centuries. Many cultures developed their own methods to keep their skin from burning, from pastes and lotions derived from ingredients found in nature, to special clothing that warded off the sun. It’s fascinating to know how far we’ve come with sun protection, especially since nowadays, sunscreen is nearly invisible on the skin. Let’s take a walk through history.

 

Ancient Times

In 3100 – 300 BC, Egyptians used crops such as rice, jasmine and lupine (flowering stalks of purple flowers). They would combine the ingredients and use them as a thick paste over their skin. The mixture absorbed ultraviolet (UV) light. In 800 – 500 BC, the ancient Greeks used olive oil to protect their skin and also used it in their daily skin care routines.

The women of Namibia coated their hair and skin in red paste called Otijize to ward off the sun. The concoction was a mixture of butter, fat, and red ochre. Burmese women made their own invention called Thanaka, a golden paste from the bark of the Limonia acidisssima tree. It’s still used as sun protection today in modern Myanmar.

Native American tribes used sunflower oil and pine needles to protect their skin. In addition, these natural ingredients were used to treat bad sunburns. Vikings created a paste made out of burned almonds, lead, copper, and ash as sort of “eyeliner” to protect their eyes during battle.

What’s more, the first use of zinc, which is in modern day sunscreens today, was found to have been used as far back as 500 BC in India.

 

Clothing

Clothing and accessories were very important to protect people from the sun as well. Parasols and silk umbrellas were popular in ancient China, especially among the higher classes. Also in Assyria, modern-day Iraq, parasols were made from palm tree leaves. In the 16th and 17th centuries, European women wore visards (velvet face masks) that kept the skin protected and preserved the beauty standard of smooth, pale skin.

Natives to the Polar Regions made goggles from leather, bone, or wood that would keep their eyes from getting snow blindness, as well as to keep out UV rays. Across Southeast Asia, people would wear conical leaf hats, and to this day they still do. In ancient Rome, sun protection was incorporated into architecture in the form of “velariums,” which were awnings. Velariums were constructed in public places like colosseums so that spectators could watch gladiators fight, chariot races, and other events.

 

Ultraviolet Rays

It wasn’t until 1801 that Johan Wilhem Ritter, a German chemist and physicist, discovered why the sun was so dangerous – not just because its light burned. It emitted ultraviolet radiation. The ozone layer is located in the stratosphere, and it can naturally absorb as much as 98% of the sun’s UV light.

Unfortunately, the thinning of this natural protective layer in the sky has caused ozone holes and increased levels of UV. So, it has become more important than ever to wear sunscreen in our daily lives. Let’s get into the difference between UVA and UVB rays.

There are two basic types of UV rays that reach us from the sun, UVA and UVB. UVB rays cause sunburn and can sometimes do much worse – cause skin cancer, particularly malignant melanoma. UVA works in tandem but penetrates the skin even further, causing skin aging and wrinkles.

 

Modern Sunscreens

Fortunately, you can protect yourself from the effects of the sun. Modern technology has given broad-spectrum sunscreens and even UV-blocking clothes, hats, and sunglasses. Let’s specifically talk about sunscreens. You can find them in many formulations and delivery types, whether in spray, stick, or cream forms. Whatever you decide to use, there is usually an SPF number on the front of the packaging. SPF stands for sun protection factor.

For example, SPF 30 would mean that it takes 30 times longer to burn under the sun as opposed to if you were not wearing any sunscreen. Broad spectrum means the sunscreen has ingredients within it to protect you against both UVA and UVB rays. Unfortunately, sunscreen cannot be waterproof, so reapplying it is key when outside, whether on the beach, poolside, or even while simply outdoors for extended periods of time. It’s important that the sunscreen you use has an SPF of at least 15.

 

 

Two Types of Sunscreens

Currently, there are two types of sunscreens: chemical (organic) and physical (inorganic). Both need to be applied evenly and uniformly onto the skin for protection before you go outside in the sun. It’s important to wait until the sunscreen is dry (about 15 minutes) to get the SPF protection on the label. Otherwise, there’s a chance that the sunscreen will move and transfer (onto clothes), or be swept away by makeup that you put over it, before it’s physically bound to your skin. After the sunscreen is dry, put your makeup on, clothes, swimsuits, and go enjoy the sun!

How the sunscreens work: Physical sunscreens allow UV rays to bounce off your skin. However, they are often thicker and known to leave a white cast on the skin, so they will be apparent on those with tanned or darker skin tones. In addition, because physical sunscreens are thick and heavy, those with oily skin may not like them.

Chemical sunscreens absorb UV rays, converting them into energy before they can burn you. These types of sunscreens are great for the face, and spray bottle sunscreens are often chemical. While chemical sunscreens are more water resistant and can provide the greatest UV protection, sometimes they can irritate the skin, particularly in children or those who have skin conditions such as eczema, psoriasis, or rosacea. Ultimately, the choice of sun protection is up to you.

 

FDA Approved Sunscreens

The FDA (U.S. Food and Drug Administration) has approved 16 types of ingredients for sunscreens, but in the United States, most sunscreen manufacturers use 8 of those: avobenzone, homosalate, octinoxate, octisalate, octocrylene, oxybenzone, titanium dioxide, and zinc oxide. Because the FDA classifies sunscreens as drugs, it is quite hard to have other ingredients (especially other types used in Europe and Asia) be approved.

Recently many of these ingredients are coming into disfavor with FDA. It turns out that many chemical sunscreen ingredients may absorb into the skin and possibly get into the bloodstream. Not to mention, Oxybenzone and Avobenzone are unfriendly to coral reefs. These can affect corals’ growth cycle, damage their DNA, and cause coral bleaching.

These ingredients can also hurt ocean life, such as fish, dolphins and whales, algae, and more, and cause problems like mutations and reproductive issues.

Unfortunately, the effects of sunscreen ingredients absorbing into your bloodstream are largely unknown. It calls for further testing to determine how safe chemical sunscreens really are, especially with chronic use.

This leaves us with the question: are there alternatives to the sunscreen ingredients currently allowed in the United States?

 

iActive™ Feruloyl Glycerides

Here is where we come in at Midwest Bioprocessing Center. We have developed an innovative proprietary ingredient for personal care use called FeruliShield™. FeruliShield is a UV stabilizer and antioxidant, which can be used on its own or in combination with approved sunscreens to enhance their properties by boosting SPF.

FeruliShield contains ferulic acid, which is known to possess powerful UV-protective and antioxidant properties due to its ability to form stabilized radicals when exposed to environmental oxidants or UV-radiation. Because of these properties, ferulic acid has found its way into numerous personal care products and is frequently combined with commonly used UV-sensitive ingredients, such as vitamin E and retinol.

FeruliShield combines the UV-stablization and antioxidant properties of ferulic acid with the formulation advantages of natural oils, such as soybean oil and coconut oil. The resulting products are stable, easy to formulate, lipophilic, and provide long-lasting protection from environmental damage. They also help maintain the efficacy of other active ingredients by protecting against photodegradation and can be used as an SPF booster.

FeruliShield can be added to many types of products, such as skincare (cleansers, serums, creams and lotions); sunscreens, of course; hair care (shampoos, conditioners, leave-in treatments, and masks); and even cosmetics (foundations, primers, settings sprays, etc.); allowing all of these potential products to shield you from the sun damage.

FeruliShield provides a sun-shielding alternative. Here at Midwest Bioprocessing Center, we are working to introduce our innovative cosmetic ingredients to products already on the market.

 

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