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Biotechnologia w kosmetykach - rewolucja w pielęgnacji skóry

Biotechnology in cosmetics - a revolution in skin care

Did you know that the collagen in your favorite serum can be derived from bacteria, not dead fish scales? This is just one example of the revolution currently underway in the world of cosmetics. Cosmetic biotechnology is transforming the way skincare products are created, offering not only greater effectiveness but also more ethical and sustainable solutions.

The numbers speak for themselves – the global cosmetic biotechnology market will reach $25.8 billion by 2030, growing at a rate of 7.8% annually. This isn't a coincidence, but a response to the growing demands of conscious consumers who increasingly seek effective , safe , and environmentally friendly products.

Cosmetic biotechnology is the use of living organisms—bacteria, yeast, fungi, or plant cells—to produce active ingredients used in cosmetics. It marks a shift from traditional synthetic chemistry to "living chemistry," where nature becomes a laboratory for creating the most advanced molecules .


Why is biotechnology having such a strong impact on the beauty industry right now? There are several reasons:

  • Consumer awareness is growing at a rapid pace. Research from 2024 shows that as many as 73% of buyers actively seek out sustainable products, and 68% are willing to pay more for cruelty-free cosmetics. Modern consumers are no longer satisfied with effectiveness alone; they want to know where ingredients come from and how they impact the environment.
  • Legal regulations are becoming increasingly restrictive. The European Union has banned animal testing for cosmetics since 2013, and other countries are introducing similar regulations. This forces manufacturers to seek alternative methods for testing product safety and effectiveness.
  • Technological advances have made biotechnology economically viable. Fermentation process costs have fallen by more than 40% over the past decade, and advances in genetic engineering have enabled the precise design of molecules with desired properties.
  • The trend toward wellness and a holistic approach to health has led consumers to increasingly perceive skincare as part of a broader self-care routine. Biotechnology fits perfectly into this philosophy, offering ingredients that work in tandem with the skin's natural processes.

Cosmetic biotechnology is much more than a fashionable trend—it's a fundamental paradigm shift in the beauty industry. It offers solutions to problems that for years seemed insoluble: how to create cosmetics that are simultaneously effective, safe, ethical, and sustainable.

In this article, I'll introduce you to the fascinating world of cosmetic biotechnology, which is also the world of Orientana. You'll learn about innovations—from basic fermentation processes to the latest advances in plant stem cells. You'll learn which ingredients on your cosmetics labels are derived from biotechnology, the benefits they bring, and how to recognize products utilizing these innovative solutions.

After reading this guide, you'll be able to confidently navigate the world of biotechnological cosmetics, understand their labels, and make choices that align with your values ​​and beauty needs. Prepare for a journey into the future of cosmetics—a future already available on store shelves today.


What is biotechnology in cosmetics?


Cosmetic biotechnology is an interdisciplinary field of science that combines biology, chemistry, and engineering to create cosmetic ingredients using living organisms or their parts. Unlike traditional synthetic chemistry, where molecules are created in the laboratory through chemical reactions, biotechnology uses natural biological processes to produce desired substances.

The key difference between biotechnology and traditional chemistry lies in the source and method of producing active ingredients. Traditional cosmetic chemistry relies on synthesizing molecules from petrochemical or mineral raw materials, often requiring high temperatures, pressures, and aggressive solvents. Biotechnology, on the other hand, mimics and utilizes processes that occur naturally in nature , but under controlled laboratory conditions.

Imagine that instead of building a house from scratch with bricks and concrete, you ask an expert carpenter (in this case, a microorganism) to create perfectly matched wooden elements for you. Biotechnology works similarly— it "programs" microorganisms to produce the exact molecules we need in cosmetics.

The history of cosmetic biotechnology dates back to the 1980s, when the first commercially available hyaluronic acid was produced by bacterial fermentation. This was a breakthrough, as previously this valued ingredient had been obtained exclusively from rooster combs, which was expensive, ethically questionable, and limited availability.

However, the real boom in cosmetic biotechnology came in the 21st century, with the development of genetic engineering and the decline in the cost of fermentation technologies. Today, we can "program" bacteria to produce not only hyaluronic acid but also collagen, peptides, vitamins, and even entirely new molecules that do not occur naturally.

The biotechnological process in cosmetics usually takes place in several stages:

  • First, scientists identify the desired molecule and analyze its chemical structure.
  • They then select a suitable host organism (usually bacteria, yeast or plant cells) and "program" it genetically to produce that particular substance.
  • The organism is then grown in special bioreactors , where it produces the desired ingredient under controlled conditions.
  • Finally, the ingredient is purified, clarified and prepared for use in cosmetics.
Fascinatingly, biotechnology also allows for the modification of existing molecules to improve their properties. For example, it is possible to create variants of hyaluronic acid with different molecular weights, which influences its depth of penetration into the skin and its mode of action.

Cosmetic biotechnology represents the future of the beauty industry - it combines the best features of nature with the precision of modern science, creating ingredients that are both effective, safe and sustainable.

The most important biotechnological methods in cosmetics


Modern cosmetic biotechnology utilizes three main technologies, each offering unique opportunities and applications in the creation of active ingredients.

Microbiological fermentation

Fermentation is the oldest and most widespread biotechnological method used in cosmetics. This process harnesses the natural abilities of microorganisms—bacteria, yeasts, and fungi—to transform simple nutrients into complex, active molecules.

The fermentation mechanism in cosmetics is similar to the process of making wine or bread, but is much more precisely controlled. Microorganisms are cultivated in sterile bioreactors where ideal conditions prevail – the right temperature, pH, access to oxygen and nutrients. Under these conditions, the microorganisms produce the desired substances as natural byproducts of their metabolism.

The key advantages of fermentation include the ability to mass-produce ingredients at relatively low costs. The process is also highly predictable—once optimized, it can be repeated with identical results. Furthermore, fermentation products are usually very chemically pure, as the microorganisms produce exactly the molecules they were "programmed" to produce.

The most famous example of fermentation in cosmetics is the production of hyaluronic acid by the bacteria Streptococcus zooepidemicus. These safe bacteria naturally produce hyaluronic acid as part of their cell wall, and scientists have learned how to "milk" them of this valuable ingredient.
The result? Hyaluronic acid identical to that found in human skin, but produced in a completely ethical manner.

Another fascinating example is vegan snail mucin—from fermented aloe vera —which has significantly higher bioavailability than its non-vegan counterpart, snail slime. The fermentation process modifies the molecular structure in a way that facilitates its absorption through the skin.
Check:

Biosynthesis of active ingredients

Biosynthesis is an advanced biotechnological technique in which microorganisms (e.g., bacteria, yeast, fungi) are used to produce complex active molecules , often difficult or expensive to obtain from plants traditionally. This works on a similar principle to the production of hyaluronic acid or vitamin B12 by bacterial strains – these organisms are genetically programmed to produce selected components in large quantities and with high purity.

The advantage of biosynthesis is the ability to produce ingredients identical to nature , but without environmental exploitation. This allows for the production of biomimetic peptides, plant-derived collagen, EGF (epidermal growth factor), ceramides, enzymes, and even natural retinoids , among others. This technology is key to the future of anti-aging and regenerative cosmetics, in line with the trends of "skin longevity," cruelty-free, and sustainable beauty .

Examples:




Enzymatic biotechnology


Enzymes are proteins that catalyze biochemical reactions, and in cosmetics, they act as precise "molecular tools." Enzymatic biotechnology uses these natural catalysts to modify cosmetic ingredients, increasing their effectiveness, or creating entirely new properties.

Unlike aggressive chemical processes, enzymatic reactions occur under gentle conditions—at room temperature, at a neutral pH, and without the use of toxic solvents. This makes them an ideal tool for creating gentle cosmetic ingredients.

Enzymes can also modify the properties of existing ingredients. For example, hyaluronidase enzymes can be used to control the breakdown of high-molecular-weight hyaluronic acid into smaller fragments that better penetrate the skin. This allows for the creation of products with "multi-level" moisturizing effects.

Of particular interest are enzymes derived from extremophiles—bacteria that thrive in extreme environments, such as hot springs or highly saline lakes. These enzymes remain active under conditions that would destroy normal proteins, making them ideal for use in cosmetics exposed to high temperatures or fluctuating pH.

The most commonly used biotechnological ingredients in cosmetics


The biotechnology cosmetics market today offers a wide range of active ingredients, each derived from different biotechnological processes. Understanding the most important ones will help you make informed product choices and understand their labels.

Biotechnological hyaluronic acid


Hyaluronic acid is a true star of cosmetic biotechnology and a prime example of how modern science can replace problematic traditional ingredient sources. Just twenty years ago, this prized ingredient was obtained exclusively from rooster combs, which was expensive, ethically questionable, and limited its availability.
Today, biotechnological hyaluronic acid is produced by bacterial fermentation, primarily using strains of Streptococcus zooepidemicus. These safe bacteria naturally produce hyaluronic acid as a component of their cell wall. The production process is extremely precise – bacteria grown in sterile bioreactors "produce" the exact molecule we need.

The key advantages of biotechnological hyaluronic acid include its identity with that naturally found in human skin. The molecule, created through fermentation, is chemically identical to the one our own cells produce, eliminating the risk of allergic reactions or incompatibility.

Moreover, biotechnology allows for precise control of hyaluronic acid's molecular weight. While hyaluronic acid from animal sources has a diverse structure, fermentation can produce molecules of precisely defined sizes. This is crucial because molecular weight determines how hyaluronic acid works:

High molecular weight (1000-1800 kDa) creates an occlusive layer on the skin surface, preventing moisture loss
Medium molecular weight (50-1000 kDa) penetrates into the upper layers of the epidermis, providing long-lasting hydration
Low molecular weight (below 50 kDa) reaches the deeper layers of the skin, stimulating the production of its own collagen and elastin

Its applications in various cosmetic products are incredibly wide. In moisturizing serums and creams, hyaluronic acid provides intense and long-lasting hydration, in anti-aging products it helps fill fine lines, and in sheet masks it creates an intense "flood" of moisture.

Biotechnological collagen


Collagen is the second most important biotechnological ingredient in anti-aging cosmetics after hyaluronic acid. Traditionally obtained from animal skins—primarily cattle, pigs, or fish—currently most often obtained from fish, it can now be produced in a completely vegan and ethical manner.

Biotechnological collagen is produced primarily in two ways: through bacterial fermentation or by culturing yeast cells genetically modified to produce human collagen. The latter method is particularly revolutionary because it allows the creation of collagen identical to that found in human skin.

The greatest advantage of vegan collagen is the elimination of the risk of transmitting animal diseases and allergic reactions to foreign proteins. Animal collagen may contain residues of antibiotics, hormones, and other substances used in animal husbandry. Biotechnological collagen is completely pure and safe.
The production process is fascinating: yeast or bacteria are genetically "reprogrammed" to produce human procollagen, a precursor to collagen. This procollagen is then converted by enzymes into full-value collagen, which can be directly utilized by skin cells.

What's particularly interesting is that biotechnology allows for the production of different types of collagen. Human skin primarily contains type I collagen (responsible for strength) and type III collagen (providing elasticity). Traditionally, it has been very difficult to obtain pure preparations of each type, whereas biotechnology allows for the precise production of each type individually.

The effectiveness of biotechnological collagen in cosmetics is the subject of intense research. Although collagen molecules are too large to penetrate the epidermal barrier, recent studies suggest that biotechnological collagen fragments can stimulate the fibroblasts in the dermis to produce their own collagen.
Orientana cosmetic with biotechnological collagen:

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Biotechnological peptides


Peptides are short chains of amino acids that act as "chemical messages" between skin cells. In cosmetic biotechnology, peptides are designed to deliver specific "instructions" to the skin—for example, to increase collagen production, reduce inflammation, or improve cell renewal.

Types of cosmetic peptides can be divided into several main categories:
Signal peptides are the true "conductors of the cellular orchestra." They mimic the natural signals that young, healthy skin sends to its cells. Matrixyl (palmitoyl-5 pentapeptides) is one of the most famous signaling peptides, which "tells" fibroblasts to increase collagen and elastin production.

Carrier peptides act as "molecular couriers," delivering essential trace elements to skin cells. GHK-Cu (copper peptide) not only transports copper—a key component of collagen synthesis—but also stimulates tissue regeneration and has anti-inflammatory properties.

The mechanism of action of peptides is based on their ability to penetrate the epidermal barrier and reach living skin cells. Unlike large collagen molecules, short peptide chains can squeeze through intercellular spaces and directly influence cell metabolism.

Biotechnological peptide production is primarily performed via solid-phase synthesis, an advanced method that allows for the precise assembly of amino acids into desired sequences. This process ensures high purity and reproducibility of the final product.

The anti-aging effects of biotechnological peptides are clinically proven. Studies show that regular use of peptides can improve skin elasticity and reduce the appearance of wrinkles.

Excitingly, new generations of peptides are being designed using artificial intelligence, which analyzes thousands of possible amino acid combinations and predicts their biological activity. This opens the door to creating peptides with previously unattainable efficacy and specificity of action.
An example of such a peptide is Pentapeptide-48 in the RoyalEpigen P5 complex.

Plant mucin (vegan snail slime)

This innovative active ingredient, derived from fermented aloe vera leaf juice , is rich in polysaccharides, amino acids, and peptides . It mimics the effects of snail slime , but is 100% plant-based. During the fermentation process, aloe is processed by specially selected bacterial strains (e.g., Lactobacillus , Leuconostoc ), increasing its bioavailability and bioactivity .

Plant mucin, obtained from fermented aloe, among other sources, has a multi-level effect on the skin. Primarily, it intensively binds and retains water in the epidermis , providing long-lasting hydration, elasticity, and softness. Its polysaccharide structure resembles the skin's natural moisturizing factors (e.g., hyaluronic acid, NMF), making it well-tolerated, even by sensitive or irritated skin. Regular use of mucin-based cosmetics improves the skin's ability to regenerate and strengthens its protective barrier, which is particularly important for dryness, itching, or hyperreactivity.

Additionally, mucin has soothing, smoothing, and protective properties. It creates a thin, invisible film on the skin's surface, protecting it from external factors (e.g., smog, dry air, wind), without causing a feeling of stickiness or heaviness. This makes the skin more supple, more resistant to irritation, and slows down the aging process . Plant-based mucin is a natural alternative to snail slime – consistent with the concept of clean beauty, vegan, and friendly to even the most demanding skin.


Biotechnological retinol

NovoRetin is a groundbreaking, innovative active ingredient with retinoid-like properties that naturally increases the skin's own retinoic acid levels. This provides results similar to retinol, but without its typical side effects, such as irritation and photosensitivity.

The base of NovoRetin™ is mastic – an aromatic resin obtained from the Pistacia lentiscus tree. This raw material is valued for its anti-inflammatory, antibacterial, and nourishing properties.

NovoRetin™'s uniqueness lies in the development of a special delivery system that makes the mastic bioavailable to the skin . This allows for its effective use in skincare products. The technology used in NovoRetin™ allows for a water-soluble form, opening up new possibilities for manufacturers – especially in lightweight serums, gels, and aqueous emulsions.

NovoRetin™ is an innovative alternative to traditional retinol. By naturally supporting the skin's retinoids, it promotes cell renewal, improves skin texture, and provides anti-aging benefits while minimizing the risk of side effects.

Plant ceramides

Yuzu Ceramide B is a modern, natural complex of plant ceramides derived from the Japanese yuzu fruit (Citrus junos) . Developed using advanced biotechnology, it intelligently supports the epidermal barrier , providing skin with protection, elasticity, and a healthy appearance. It is biocompatible with human ceramides , making it exceptionally effective and well-tolerated by all skin types.

The ceramides in Yuzu Ceramide B are derived from the natural lipid fraction of the yuzu fruit skin , grown in Japan. This unique fruit, rich in antioxidants and lipids, is a source of phytoceramides , which structurally resemble ceramides found naturally in human epidermis.

Fractionated extract means that only a specific, desired fraction of ingredients is extracted from the whole plant and then concentrated.
It contains ceramides whose action and structure resemble those of type II and V ceramides naturally found in human skin and hair.

Yuzu Ceramide B:

  • rebuilds and strengthens the hydrolipid barrier, protecting the skin against water loss (TEWL),
  • increases the elasticity and softness of the skin, especially dry, sensitive and mature skin,
  • soothes irritations and reduces skin reactivity to external factors,
  • prevents premature aging by improving the structure of the stratum corneum,
  • supports regenerative processes and enhances the action of other active ingredients, such as peptides and retinoids.

High compatibility with the structure of human skin – excellent bioactivity without the risk of irritation.


Advantages of biotechnological cosmetics


Cosmetic biotechnology isn't just a scientific curiosity; it offers concrete, measurable benefits for both consumers and the environment. Understanding these benefits will help you appreciate why biotechnological cosmetics represent the future of the beauty industry.

Safety and gentleness

Biotechnology cosmetics are inherently more compatible with human skin than their synthetic counterparts. This is because the ingredients created through biotechnology processes are often identical or very similar to those naturally occurring in our bodies.
Take biotechnological hyaluronic acid as an example – it is chemically identical to that produced by our own cells. This means the risk of allergic reactions or incompatibility is virtually zero. In contrast, animal-derived hyaluronic acid may contain foreign proteins that can trigger hypersensitivity reactions in some individuals.
The reduced risk of irritation also results from the purity of biotechnological ingredients. Fermentation processes and cell cultures produce substances of very high chemical purity, free from the contaminants that can occur in plant extracts or animal-derived ingredients.
Biotechnological peptides are particularly gentle on the skin because they mimic natural intercellular signals. They therefore work in harmony with the skin's natural processes without forcing it to act in an unnatural way.

Efficacy and biocompatibility

The higher biocompatibility of biotechnological ingredients translates directly into their greater effectiveness. The skin "recognizes" these molecules as "its own" and can better utilize them in its metabolic processes.
Control over molecular structure is another key advantage. Biotechnology allows for the precise "design" of active ingredients with optimal properties. For example, hyaluronic acid can be produced with different molecular weights, each with a different action profile, and combined in a single product for maximum effect.
Standardization of active ingredients means that each batch of a biotechnological product contains exactly the same concentration of active ingredients. In the case of plant extracts, the content of active substances can vary depending on growing conditions, season, and extraction method.
Synergy is easier to achieve with biotechnological components because their properties are precisely known and controlled. Formulators can create complex ingredient systems that mutually reinforce each other's effects.

Sustainable development and environmental protection

Reducing environmental impact is one of the key advantages of cosmetic biotechnology. Traditionally, growing plants for cosmetic ingredients requires vast amounts of water, pesticides, and fertilizers, and also consumes valuable agricultural land.
Cell cultures require 99% less water than traditional plant cultivation for the same active ingredients. Bacterial fermentation can take place in closed systems that do not emit pollutants into the environment.
Protecting endangered plant species is particularly important. Many valuable plants used in cosmetics are threatened with extinction due to overexploitation. Biotechnology allows us to obtain their active ingredients without destroying natural populations.
Reduction of transport and logistics - biotechnology ingredients can be produced locally, close to cosmetics factories, which reduces the carbon footprint associated with transporting raw materials from distant regions of the world.
Eliminating seasonality means constant availability of active ingredients regardless of weather conditions or growing seasons, which increases the stability of supply chains.

Ethical aspects

Alternatives to animal-derived ingredients are a fundamental ethical advantage of cosmetic biotechnology. Collagen, hyaluronic acid, lanolin, and many other traditionally animal-derived ingredients can now be produced completely vegan.
The ability to create new molecules is an exciting prospect for cosmetic biotechnology. Scientists can design active ingredients that don't exist in nature but are specifically tailored to address specific skin concerns.
Personalizing cosmetics is becoming a reality thanks to biotechnology. In the future, we will be able to produce active ingredients tailored to the individual genetic and metabolic needs of specific users.
Multifunctionality of ingredients - biotechnology allows the creation of molecules with several different mechanisms of action simultaneously, which simplifies formulation and increases the effectiveness of final products.
These numerous advantages make cosmetic biotechnology not just a trend, but a fundamental shift in the way we think about creating cosmetics – a shift that prioritizes user safety, effectiveness, and ecological responsibility.

Challenges and limitations of cosmetic biotechnology

Despite its undeniable advantages, cosmetic biotechnology also faces a number of challenges that affect the pace of its development and the availability of end products to consumers.

High production costs

Investments in biotechnology infrastructure are enormous. Building a modern fermentation facility can cost tens of millions of dollars, and plant cell culture laboratories require specialized, expensive equipment. These capital expenditures must then be amortized in the prices of the final products.

The research and development process is lengthy and capital-intensive. From the moment a potential active ingredient is identified to its commercial launch, it can take 5-7 years of intensive research. During this time, teams of scientists, biotechnologists, and process engineers work to optimize production, generating significant costs.

Scale of production affects economics. While small quantities of biotechnological components can be produced in laboratories, scaling up to industrial scale often encounters technological challenges. Increasing the volume of bioreactors isn't always straightforward—processes that perform perfectly at a 10-liter scale may not function well in 10,000-liter reactors.

Quality control costs are higher than for traditional chemical ingredients. Every batch of a biotechnology product must be tested for purity, biological activity, endotoxins, and microbial contamination.

The complexity of technological processes

Biotechnology requires interdisciplinary knowledge combining biology, chemistry, process engineering, and information technology. Finding specialists with such broad competencies is difficult, and hiring them is expensive.

Controlling biological processes is more complex than chemical reactions. Living organisms respond to the slightest changes in environmental conditions—temperature, pH, oxygen concentration, or nutrient levels. Small variations can drastically affect production efficiency.

Scalability issues are particularly prevalent in plant cell cultures. While bacteria and yeasts can be grown relatively easily in large quantities, plant cells are more finicky and often require specialized conditions that are difficult to achieve on an industrial scale.

The stability of biotechnological products can be problematic. Proteins and peptides are sensitive to temperature, pH, and the action of proteolytic enzymes. This requires the development of specialized stabilization and protection systems, further complicating the formulation process .

Consumer education

Consumers ' lack of familiarity with cosmetic biotechnology can lead to misunderstandings and resistance. Many people associate biotechnology solely with GMOs in food, failing to understand its cosmetic applications.

"Chemophobia" can paradoxically be detrimental to biotechnological ingredients. Some consumers may perceive them as "artificial" or "unnatural," failing to understand that they are often identical to naturally occurring substances.

The need to educate consumers about the benefits requires significant investments in marketing and communications. Brands must spend significant resources educating consumers about the benefits of biotechnology, which increases the cost of bringing products to market.

Skepticism toward new technologies is a natural reaction among some consumers. It takes time for new biotechnology solutions to gain widespread trust and acceptance.

Despite these challenges, technological advances are systematically eliminating them. Production costs are falling with increased scale and process optimization, regulations are becoming more specific, and consumer awareness is growing. Cosmetic biotechnology is well on its way to becoming a standard in the beauty industry.

Not just new ingredients or processes—this is a fundamental shift in how we think about cosmetics. We will move from mass-produced products to personalized solutions, from static ingredients to dynamic systems that respond to skin needs in real time. This is a fascinating prospect that will soon become a reality.

Summary: Cosmetic Biotechnology - an investment in the future

Cosmetic biotechnology is much more than just another trend in the beauty industry—it's a fundamental revolution that's redefining how skincare products are created, used, and thought about. After analyzing all aspects of this fascinating field, from basic fermentation processes to the latest ingredients like Novo-Retin and Yuzu Ceramide B, we can draw several key conclusions.

The most important benefits in a nutshell

The safety and compatibility of biotechnological ingredients with human skin are unparalleled. Nature-identical molecules virtually eliminate the risk of allergic reactions, while precise control of manufacturing processes guarantees high purity and quality of the final products. Novo-Retin demonstrates this perfectly – it offers the effectiveness of retinol without its traditional side effects.

The effectiveness of biotechnological active ingredients surpasses traditional alternatives thanks to improved biocompatibility and the ability to precisely "design" molecules with optimal properties. Yuzu Ceramide B, with its 127% improvement in hydration, and signaling peptides that stimulate collagen production are examples of ingredients impossible to obtain using traditional methods.

Sustainability is a natural consequence of biotechnology. Reducing water consumption by 99%, eliminating the need for pesticide-treated crops, protecting endangered plant species, and enabling local production of ingredients are environmental benefits that cannot be ignored in times of climate crisis.

The ethical dimension of cosmetic biotechnology responds to growing consumer expectations. Vegan alternatives to animal ingredients, the elimination of animal testing, and fair working conditions are values ​​that are increasingly important to conscious buyers.

Industry development prospects

Cosmetic biotechnology will become the norm , not the exception. Forecasts predict the market will grow to $35 billion by 2035, meaning biotechnological ingredients will become increasingly common and accessible. New ingredients like Novo-Retin and Yuzu Ceramide B are just the beginning—laboratories are already developing new generations of even more advanced molecules.

Personalization and AI will shape the future of cosmetics. Soon, we'll be able to order products tailored to our skin genome, and algorithms will design active ingredients perfectly tailored to our individual needs. Imagine a personalized Novo-Retin tailored to your genetic sensitivity to retinol.

Sustainability will no longer be an added value, but a fundamental requirement. Consumers will increasingly choose environmentally responsible brands, and biotechnology offers the best tools for creating such products.

A revolution that has already begun

Cosmetic biotechnology is a bridge that combines the best of nature with the precision of modern science. It doesn't replace nature—it collaborates with it, leveraging its processes to create ingredients impossible to obtain through traditional methods. Novo-Retin mimics and enhances the effects of retinol, Yuzu Ceramide B utilizes Japanese wisdom about the properties of yuzu, and the peptide "speaks" to the skin in its own molecular language.

It's a revolution that's already begun. Hyaluronic acid in your serum, peptides in your anti-aging cream, ceramides in your body lotion, and maybe even Novo-Retin in your night cream or Yuzu Ceramide B in your regenerating concentrate – biotechnology is already part of our daily skincare routine.

The future of cosmetics is biotechnological – safe, effective, ethical, and sustainable. By investing in biotechnological products, you not only care for the health and beauty of your skin but also support the development of technologies that can positively change the entire world of beauty.

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