# Synthera ## Posts - [Why Bioactive Glass is Becoming a Preferred Choice for Future Healthcare Products](https://synthera.in/why-bioactive-glass-is-becoming-a-preferred-choice-for-future-healthcare-products/): Healthcare today is changing rapidly, especially with the rise of advanced biomaterials and regenerative medicine. Earlier, most treatments depended on materials like metals and traditional polymers that were designed to support or replace damaged tissues without interacting much with the body. While these materials helped shape modern medicine, they often had limitations. They did not actively support healing, sometimes failed to integrate well with surrounding tissues, and could increase the chances of infection or additional surgeries. This is where bioactive glass is making a significant difference. Unlike traditional materials, bioactive glass does more than just provide support. It actively interacts […] - [The Future of Bioactive Glass: What It Means for Next-Gen Healthcare](https://synthera.in/the-future-of-bioactive-glass-what-it-means-for-next-gen-healthcare/): A Material That Doesn’t Just Repair — It Heals In modern healthcare, the focus is slowly shifting from simply treating problems to actually helping the body heal itself. This is where bioactive glass is making a real difference. First introduced in 1969, bioactive glass has grown from a niche discovery into one of the most promising materials in biomedical science. What makes it special is simple — instead of just sitting in the body like a replacement, it actively interacts with it and supports natural healing. And today, with advancements in regenerative medicine and tissue engineering, its potential is only […] - [Bioactive Glass: A Smart Material for Controlled Drug Delivery](https://synthera.in/bioactive-glass-a-smart-material-for-controlled-drug-delivery/): In modern medicine, scientists are constantly searching for smarter ways to deliver medicines exactly where the body needs them. One material that is gaining significant attention in this area is bioactive glass. Known for its ability to interact with the body and support healing, bioactive glass is now emerging as a powerful platform for controlled drug delivery. Originally developed in 1969 by Larry Hench, bioactive glass was designed for bone regeneration. Unlike traditional materials used in medical implants, which simply replace damaged tissue, bioactive glass actively interacts with the body. When placed in the body, it forms a layer similar […] - [Bioactive Glass in Orthopedic Surgery: Benefits, Uses, and How It Enhances Bone Healing](https://synthera.in/bioactive-glass-in-orthopedic-surgery-benefits-uses-and-how-it-enhances-bone-healing/): When it comes to modern bone repair and orthopedic surgery, innovation is moving beyond metal plates and traditional bone grafts. One material gaining major attention in regenerative medicine is bioactive glass — a scientifically engineered biomaterial that actively supports bone healing rather than simply stabilizing it. In this SEO-optimized guide, we’ll explain: What Is Bioactive Glass? Bioactive glass is a synthetic biomaterial composed primarily of: Unlike ordinary glass, bioactive glass is specifically designed to interact with biological tissue. It was first developed by Larry Hench in 1969 and introduced as 45S5 Bioglass®, marking a breakthrough in bone regeneration technology. The […] - [Bioactive glass in Orthopedic Care: A New Era in Bone Healing](https://synthera.in/bioactive-glass-in-orthopedic-care-a-new-era-in-bone-healing/): Bone injuries and disorders have been part of human life for as long as we have existed. From simple fractures caused by falls to complex bone loss following trauma, tumors, or infections, orthopedic treatments have continuously evolved to restore mobility and quality of life. For decades, surgeons have relied on bone grafts, metal implants, and ceramic substitutes to repair damaged bones. These approaches have saved countless lives and improved function for millions of patients. However, as medical science advances, expectations are changing. Today, it is no longer enough for a material to simply “fill a gap” or “hold things together.” […] - [NMR Characterization of Bioactive Glasses: Understanding the Science ](https://synthera.in/nmr-characterization-of-bioactive-glasses-understanding-the-science/): Bioactive glass are fascinating materials. Unlike conventional inert glasses used in windows or bottles, these glasses are designed to actively interact with the human body. They can bond with bone, stimulate tissue regeneration, and release ions that trigger healing responses. Because of this unique behaviour, bioactive glasses are widely researched for applications in orthopaedics, dentistry, wound healing, and even skincare. But to truly understand why a bioactive glass behaves the way it does, scientists need to look far deeper than what is visible to the naked eye. The real story lies at the atomic level—how atoms are arranged, how they […] - [NMR in Bioactive Glass Research](https://synthera.in/nmr-in-bioactive-glass-research/): Introduction Nuclear Magnetic Resonance (NMR) spectroscopy is one of the most reliable and informative techniques used to study the internal structure of bioactive glass. Unlike crystalline materials, bioactive glasses are amorphous, meaning they do not have a regular, repeating atomic arrangement. Because of this lack of long-range order, traditional techniques such as X-ray diffraction are limited in the kind of structural information they can provide. Bioactive glass was originally developed for biomedical uses such as bone repair and regeneration. Its ability to interact with living tissue comes from its atomic-level structure, which controls how the glass dissolves, releases ions, and […] - [Differential Thermal Analysis (DTA) of Bioactive Glass: Principles, Thermal Behaviour, and Scientific Interpretation](https://synthera.in/differential-thermal-analysis-dta-of-bioactive-glass-principles-thermal-behaviour-and-scientific-interpretation/): Bioactive glasses constitute a distinct class of amorphous inorganic materials capable of forming a strong interfacial bond with bone and soft tissues through the in situ development of a hydroxyapatite (HA) layer. Since the development of Hench’s 45S5 Bioglass® in 1969, understanding the thermal behaviour of these materials has been central to their successful processing and biomedical application. Thermal analysis techniques, particularly Differential Thermal Analysis (DTA), have provided critical insight into how bioactive glass compositions respond to heating, structural relaxation, and crystallization. Among available thermoanalytical methods, DTA remains a robust and informative approach for evaluating phase transformations and thermal stability […] - [FTIR Analysis of Bioactive Glass: Understanding Structure and Surface Reactions](https://synthera.in/ftir-analysis-of-bioactive-glass-understanding-structure-and-surface-reactions/): Fourier Transform Infrared Spectroscopy (FTIR) remains one of the most indispensable analytical techniques in the characterization of bioactive glass systems. For manufacturers, product developers, and clinicians working with regenerative biomaterials, FTIR offers a direct, molecular-level insight into both the bulk silicate network and the surface transformations that drive bioactivity. Because bioactive glass is structurally defined by a disrupted SiO₂-based network modified with Na₂O, CaO, P₂O₅, and other oxide components, even subtle variations in connectivity or bonding configuration can significantly alter ion release, dissolution rates, and hydroxycarbonate apatite (HCA) formation. FTIR is uniquely capable of tracking these variations in real time […] - [Measurement of Ion Release from Bioactive Glass – Part II](https://synthera.in/measurement-of-ion-release-from-bioactive-glass-part-ii/): Understanding the Science Behind Dissolution, Therapeutic Ions, and Analytical Methods Bioactive glass is one of the most influential materials in modern regenerative medicine. Its ability to dissolve in physiological environments and release therapeutic ions is the very foundation of its bioactivity. These ions — calcium, silicon, phosphorus, and sometimes dopants such as strontium or magnesium — do far more than simply enter the surrounding fluid. They actively trigger cellular processes related to tissue healing, bone formation, and vascularization. Because of this, studying ion release is not an optional research step; it is the central scientific indicator of how a bioactive […] - [Measurement of Ion Release from Bioactive Glass — Part I](https://synthera.in/measurement-of-ion-release-from-bioactive-glass-part-i/): A deep scientific dive for professionals, researchers, and anyone curious about how bioactive glass truly interacts with the human body. Bioactive glass has earned a reputation in materials science and regenerative medicine for one powerful reason: it communicates with the body. Unlike inert biomaterials that simply “exist” inside tissues, bioactive glass actively participates in healing by releasing ions that stimulate biological processes. Whether the goal is bone repair, soft-tissue enhancement, or advanced regenerative therapies, ion release is the first and most important step in the chain of events that gives bioactive glass its bioactivity. In our laboratory—and in countless studies […] - [Methods of Staining for Stem Cell Differentiation Using Bioactive Glass](https://synthera.in/methods-of-staining-for-stem-cell-differentiation-using-bioactive-glass/): Introduction: The Promise of Bioactive Glass in Regenerative Medicine In the modern pursuit of bone regeneration and tissue engineering, the combination of stem cells with bioactive materials has emerged as one of the most promising strategies. Among these, bioactive glass has become a material of profound interest due to its unique ability to stimulate bone formation, enhance cell signaling, and promote biomineralization. Bioactive glass serves not only as a structural scaffold but also as a biochemical messenger, influencing cellular behavior through the release of ions such as calcium, phosphate, and silicon. These ions activate crucial pathways in stem cells, guiding […] - [Bioactive Glass and Stem Cells: The Future of Bone Regeneration](https://synthera.in/bioactive-glass-and-stem-cells-the-future-of-bone-regeneration/): Bioactive glass (BG) is a synthetic biomaterial renowned for its unique ability to interact with biological tissues and promote regeneration, especially in bone repair applications. This material is not just a scaffold; it’s an active participant in the healing process. Its unique composition, typically including silicon dioxide, calcium oxide, sodium oxide, and phosphorus pentoxide (with the 45S5 Bioglass® formulation being the most studied), allows it to mimic the body’s natural bone mineral. When immersed in physiological fluids, bioactive glass forms a hydroxycarbonate apatite (HCA) layer, creating a strong, chemical bond with surrounding tissue. Beyond this structural benefit, the material releases […] - [What is Bioactive Glass and Why is it Transforming Modern Healthcare?](https://synthera.in/what-is-bioactive-glass-and-why-is-it-transforming-modern-healthcare/): Rise of Bioactive Materials In recent decades, the field of biomaterials has witnessed revolutionary advancements, and among them, bioactive glass has emerged as a groundbreaking innovation. Initially developed in the late 1960s by Professor Larry Hench, this unique material has redefined how we approach tissue repair, regeneration, and medical implant technology. Unlike inert materials traditionally used in healthcare, bioactive glass interacts actively with the human body. It not only supports healing but also stimulates biological responses that promote new tissue formation. Today, it’s used in *bone regeneration, dentistry, wound healing, and even *drug delivery systems, making it one of the […] - [Invitro method for Bioactive Glasses-Part II](https://synthera.in/vitro-method-for-bioactive-glasses-part-ii/): Invitro cytotoxicity testingIn vitro cytotoxicity testing is a fundamental step in the biological evaluation of bioactive glasses, especially in the context of biomedical applications such as bone regeneration, tissue engineering, and implantable devices. These tests aim to assess whether the material or its degradation products have toxic effects on cultured cells, which serves as an early predictor of its compatibility with living tissues. The core concept involves exposing cultured mammalian cells to either the bioactive glass material directly or to its extracts, which are prepared by incubating the material in a culture medium. The resulting cellular responses, such as viability, […] - [Invitro method for Bioactive Glasses-Part I](https://synthera.in/invitro-methods-for-bioactive-glass-part-i/): All of the complexities in the body during in vivo tests cannot be captured by in vitro methods. However, they come before in vivo tests because they are useful predictors of how recently created biomaterials, like Bioactive glass, might behave when they come into contact with tissue in vivo. The fact that biocompatibility is a property of the entire system under study, not just a biomaterial, should not be overlooked. We refer to this as cytocompatibility, i.e. compatibility between a specific cell type and a biomaterial in vitro. Either directly (contact test), indirectly (agar or filter), or through the dissolution products released into the culture medium (elution test), cells come into contact with the Bioactive glass. A Bioactive glass’s possible cytotoxicity is assessed before its mode of action is investigated. The ISO 10993-5 standard for biological safety evaluation (Biological evaluation of […] - [Methods of preparation of Bioactive glass](https://synthera.in/methods-of-preparation-of-bioactive-glass/): Bioactive glass is one of the most ground-breaking innovations in the field of biomedical materials. Since its invention in the late 1960s, it has proven to be a versatile and highly effective material for a wide range of medical applications from repairing bone defects and promoting tissue regeneration to serving as a carrier for targeted drug delivery. Its ability to form a direct chemical bond with living tissues makes it uniquely bioactive, setting it apart from traditional inert materials used in implants and grafts. The method of preparation plays a critical role in determining the glass’s internal structure, surface area, […] - [Structure of Bioactive glass](https://synthera.in/structure-of-bioactive-glass/): Bioactive Glass has been used for centuries; the scientific study of its structure began only in the 1920s. Early glass development relied on trial and error and practical experience. Today, a better understanding of how composition and structure affect glass properties allows scientists to design glasses for specific applications and interpret experimental results more effectively. (1) Glasses share two key characteristics: an amorphous structure and a distinct glass transition temperature range (Tg) the interval during which a material transforms from a supercooled liquid into a rigid glass. Unlike crystalline solids, glasses lack long-range atomic order. When heated, glasses exhibit a […] - [Exploring the Different Types of Bioactive Glass: Innovations in Biomaterials](https://synthera.in/exploring-the-different-types-of-bioactive-glass-innovations-in-biomaterials/): A key component of dental care, soft tissue repair, and bone regeneration, bioactive glass is one of the most innovative materials in contemporary biomedical engineering. Bioactive glass, in contrast to conventional biocompatible materials, actively engages biological tissues to facilitate integration and healing. Researchers have created a variety of bioactive glass types since its inception in the late 1960s, each with a specific use in mind. The different kinds of bioactive glass, their compositions, and their unique biomedical applications will all be covered in this blog. (1) Larry Hench discovered 45S5 Bioglass® (The Original Bioactive Glass) in 1969. (2) Its composition is as follows: It is still among the most popular and thoroughly researched kinds.  Key characteristics include: Uses include: Its composition is as follows: Key features include: Mesoporous Bioactive Glass (MBG): MBGs are perfect […] - [Role of Bioactive Glass In Regulation Of Cell Signalling Pathway](https://synthera.in/role-of-bioactive-glass-in-regulation-of-cell-signalling-pathway/): Bioactive glass (BG) interacts with cells and tissues, triggering cell signalling pathways that promote bone regeneration and other regenerative processes, including angiogenesis and wound healing. When BG comes into contact with body fluids, it undergoes ion exchange and dissolution processes, releasing ions such as calcium, phosphate, and silicate. These ions are bioactive, meaning they can influence cellular behaviour and promote tissue regeneration. The release of ions like calcium can stimulate osteoblast (bone-forming cell) differentiation, supporting bone tissue regeneration. Silicate ions are particularly known for their role in promoting angiogenesis (the formation of new blood vessels), which is essential for the […] - [Role of Bioactive glass as a replacement in Dental Implant](https://synthera.in/role-of-bioactive-glass-as-a-replacement-in-dental-implant/): Bioactive glass has gained significant attention in dental implants due to its unique properties like osteoconductive and osteo-stimulatory characteristics, along with its superior biocompatibility making it a promising material for use in dentistry. Here is an overview of the role and potential benefits of bioactive glass as a replacement or component in dental implants: Osteoconduction and Bone Regeneration Bioactive glass is a material that is known to be osteoconductive due to its capacity to form bonds with both soft tissue and bone. By promoting the formation of new bone surrounding the implant, it improves the osseointegration process. The substance releases […] - [Bioactive Glass S53P4: A Game Changer in Osteomyelitis Treatment](https://synthera.in/bioactive-glass-s53p4-a-game-changer-in-osteomyelitis-treatment/): Frequent bacterial infiltration of bone tissue results in osteomyelitis, a severe bone infection that causes inflammation, destruction, and necrosis in chronic cases. Usually, a combination of antibiotics and surgery is used to treat osteomyelitis, but these methods don’t always work as well. For persistent or complicated infections, innovative materials like bioactive glass S53P4 are showing immense potential in transforming the treatment landscape, offering both antimicrobial properties and promoting bone healing. What is Bioactive Glass S53P4? In the medical field, bioactive glass S53P4 has drawn a lot of interest because of its potential applications in infection prevention and bone repair. A combination of silica (SiO₂), calcium oxide (CaO), sodium oxide (NaO), and phosphorus pentoxide (P₂O₅) are present in this particular form […] - [Applications of Bioactive Glass in the Dental Field](https://synthera.in/applications-of-bioactive-glass-in-dentistry-field/): In the field of dentistry, bioactive glass (BG) has attracted a lot of interest because of its exceptional capacity to engage with biological tissues, encourage healing, and improve oral structure restoration. Bioactive glass is a class of materials that helps with regeneration by bonding with soft tissues or bone when injected into the body. Its special qualities make it a material that can be used for a variety of dental procedures, from bone repair to tooth remineralization. This blog will discuss the many uses of bioactive glass in dentistry and how it has transformed contemporary dental care. 1. Tooth Remineralization Remineralizing damaged enamel is one of the most important uses of bioactive glass in dentistry. Our teeth’s enamel is continuously exposed to acidic environments, which over time can demineralize it and cause decay and cavities. When bioactive glass, especially nanoparticles, comes into contact with saliva, […] - [Role Of Ions In Bone Tissue Regeneration](https://synthera.in/role-of-ions-in-bone-regeneration/): Metal ions are essential for human health. The applications of ions cover a range of disciplines in basic science research, industrial applications, and clinical applications. Several ions have been shown to be capable of inducing osteoblast precursor differentiation through growth factor signaling pathways or to stimulate other processes in support of bone tissue growth. These ions include boron (B3+), calcium (Ca2+), cobalt (Co2+), copper (II) (Cu2+), fluoride (F–), lithium (Li+), magnesium (Mg2+), niobium (Nb5+), phosphate (PO4 3–), silicate (Si4––), silver (Ag+), strontium (Sr2+), vanadium (V5+), and zinc (Zn2+). Compared with protein growth factors, the advantages of using such ions to […] - [Skin Aging And Anti-Aging](https://synthera.in/skin-aging-and-anti-agining/): The dermis, located beneath the epidermis, is a critical layer of the skin composed primarily of the extracellular matrix (ECM) and fibroblasts. The ECM provides structural support and is mainly composed of collagen, elastin fibers, glycosaminoglycans (GAGs), and proteoglycans (PGs). Fibroblasts are responsible for producing and maintaining this matrix, which plays a significant role in the skin’s strength and elasticity. The reduction in the functional components of the dermis contributes to visible signs of aging, such as wrinkles, sagging, and reduced elasticity. However, various anti-aging interventions, including topical treatments, energy-based procedures (e.g., lasers, radiofrequency), and dermal fillers, have been developed […] - [Bioactive glass in Cosmetics](https://synthera.in/bioactive-glass-in-cosmetics/): Bioactive glass, composed of inorganic oxides such as SiO₂ (silicon dioxide), CaO (calciumoxide), Na₂O (sodium oxide), and P₂O₅ (phosphorus pentoxide), is known for its uniqueability to interact with biological systems. Its bioactivity allows it to react with aqueoussolutions (such as human perspiration, humidity, or body fluids) and elicit a range ofbeneficial biological effects. These effects make bioactive glass particularly valuable forvarious cosmetic and dermatological applications. Key Properties and Biological Effects of Bioactive Glass: Bioactive glass has promising potential as a sunscreen ingredient, primarily due to its unique ability to absorb UV light and form a mineral-rich precipitate on the skin’s […] - [The Promise of Bioactive Glass in Tissue Regeneration](https://synthera.in/the-promise-of-bioactive-glass-in-tissue-regeneration/): Bioactive materials, particularly bioactive glass, are revolutionizing regenerative medicine and tissueengineering by promoting healing and regeneration. Bioactive glass, composed of silica, sodium oxide,calcium oxide, and phosphorus pentoxide, effectively bonds with hard and soft tissues, enhancing implantintegration. Its ability to form a hydroxyapatite layer in body fluids improves biocompatibility and osteoconductive, providing a scaffold for cell attachment and growth. Upon implantation, bioactive glassreleases calcium and phosphate ions, stimulating osteoblast proliferation and differentiation, and promoting angiogenesis for nutrient supply. Its applications are broad, including bone grafts and implant coatings in orthopedics, and various uses in dentistry. Mechanisms of Action Biocompatibility and Bioactivity […] - [Bioactive glass against Microbial colonization](https://synthera.in/bioactive-glass-against-microbial-colonization/): The Promise of Bioactive Glass in Combatting Microbial Colonization Bioactive glass has become a significant innovation in materials science and biomedical engineering, particularly in its ability to combat microbial colonization. This exceptional material is both biocompatible and has properties that can prevent the proliferation of harmful bacteria, making it a potential option for a range of medical uses, such as implants, wound dressings, and dental materials.. What is Bioactive Glass? Bioactive glass is a specific kind of glass that has the ability to fuse with living tissues. It is generally made up of silica, sodium oxide, calcium oxide, and phosphorus […] ## Pages - [Blogs](https://synthera.in/blogs/): Home - [Publications](https://synthera.in/publications/): Home 2022 Chaudhari, A; Chauhan, N; Anoop, S; Patil, S; Chandra, RV; Lakhkar, N; “Histological and histomorphometrical evaluation of porous phosphate glass as a bone graft substitute: A pilot study”; Journal of Osseointegration Volume 14 (Pg No. 88-96) 2021 Chauhan, Niketa; Lakhkar, Nilay; Chaudhari, Amol;”Development and physicochemical characterization of novel porous phosphate glass bone graft substitute and in vitro comparison with xenograft”; Journal of Materials Science: Materials in Medicine Volume 32 (Pg No. 60) 2015 Lakhkar, Nilay J; M Day, Richard; Kim, Hae-Won; Ludka, Katarzyna; Mordan, Nicola J; Salih, Vehid; Knowles, Jonathan C; “Titanium phosphate glass microcarriers induce enhanced osteogenic […] - [Innovations](https://synthera.in/innovations/): Home Sealing Glass SynThera has recently developed and patented a unique set of bioactive glass materials and formulations that achieve disinfection of a variety of surfaces over timespans as long as 48 hours post application. SynThera’s disinfectant formulations comprise: (1) bioactive glass powder as the active ingredient for long-term disinfection and (2) a liquid disinfectant medium for instantaneous disinfection. In this system, the bioactive glass achieves long-term disinfection by release of ions of calcium, phosphorus, sodium, and metal ions of our choice over an extended period of time. The release of such ions leads to significant pH changes in the […] - [About Us](https://synthera.in/about-us/): Home Incorporated in 2015 in Pune, India, SynThera began life as a start-up that was incubated at Entrepreneurship Development Center (better known as “NCL Venture Center”), India’s largest science business incubator. The initial focus of the Company was on glass-based biomaterial technologies and products for bone tissue regeneration therapies. These therapeutic products lie at the interface of biology, material science and engineering and are fundamentally reliant on synergy between knowledge between these different fields. Thus, the name “SynThera” was conceptualised as a combination of the words “SYNergy” and “THERApy”. The Company was, and still is, India’s first and only company […] - [Porosyn](https://synthera.in/porosyn/): Bioactive Glass PoroSyn Product Overview PoroSyn® is SynThera’s flagship technology encompassing a family of multiple tissue repair and regeneration products. Developed using SynThera’s proprietary glass making and processing techniques, PoroSyn® has a novel composition that is optimized to provide the right mix of elements that are naturally present in human bone (Ca, Na, P, O) and are released at rates that provide optimum osteostimulation. SynThera’s pioneering processing technologies are used to impart porosity to the graft at values that approach the porosity of human bone tissue. Thus, PoroSyn® approaches the state-of-the-art in biomimetic material design and development for providing optimum […] - [Contact Us](https://synthera.in/contact-us/): Home Instagram Linkedin Phone-alt Icon-email Registered Office E-202, Felicita, Baner-Pashan Link Road, Baner, Pune 411045, India Factory Gala No. 5 and Gala No. A/01, Nirav 7 Industrial Premises Co. Op. Soc. Ltd., Gaondevi Industrial Complex, Survey No. 44, Sativali, Vasai East, Palghar 401208 +91 9730999356 R&D Unit 101, Whispering Wind Phase 1, S. No. 135/2, Baner-Pashan Link Road, Pashan, Pune 411021 +91 9156259665 - [Therasenz](https://synthera.in/therasenz-2/): Bioactive Glass TheraSenz Product Overview SynThera possesses unparalleled domain knowledge on bioactive glasses, and Therasenz is our brand of Calcium Sodium Phosphosilicate, which is known the world over as 45S5 Bioglass®. Over half a century since its development by the legendary Prof. Larry Hench in the 1970s, Bioglass® has become the most widely used bioactive glass composition worldwide for myriad applications relating to tissue repair and regeneration. This highly versatile biomaterial has for decades demonstrated outstanding abilities to repair and regenerate tissues such as bone, dental enamel and recently skin as well. The Product is a one-component amorphous material made […] - [Home](https://synthera.in/): India’s First Bioactive Glass Innovator Shaping the Future of Healthcare: Bioactive Glass and Biomaterials for Breakthrough Discoveries Learn More Our Products Porosyn A revolutionary material designed to optimize tissue repair and regeneration. Its unique composition mimics natural bone to promote healing. Therasenz A highly adaptable biomaterial designed to facilitate healing in a multitude of applications, including dental surgery, fracture repair, and various other medical procedures. Applications Dental Care Medical Pharmaceutical Cosmetics Oral Care Sealing Disinfection Orthoapedic Electronics At SynThera, we understand that the path to better healing begins with relentless research and development in bioactive glass technology. Our dedicated in-house […] [comment]: # (Generated by Hostinger Tools Plugin)