Medical Innovation Through Nanotechnology
One of the most important advances in modern medical technology is precision medicine and advanced therapies.
While conventional treatments are applied broadly, precision medicine using nanotechnology focuses on
delivering therapeutic agents directly to disease sites, minimizing side effects and maximizing treatment efficacy.
Our Top-Down Nano technology can process all natural substances into uniform nano powders within the 30–900 nm range (D50 or higher)
without altering their original taste, aroma, or color, and also includes precision classification technology that allows particles to be sorted to the desired size. When applied to the medical field, this technology can bring about the following groundbreaking changes.
| Enhancing Precision Drug Delivery Systems | Existing Problems |
| Many current treatments are lost during digestion or distributed throughout the body via the bloodstream, causing side effects. In particular, anticancer drugs and immunotherapies can attack even healthy cells, leading to serious side effects. | |
| Effects of Applying Nano Solutions | |
| By processing active drug ingredients into ultra-fine nanoparticles ranging from 30 to 900 nm, they can pass through cell membranes more easily and reach target tissues directly. Nano-encapsulation technology can control the sustained release of drugs in the bloodstream over a long period, reducing dosing frequency and maximizing therapeutic efficacy. Both lipid-soluble and water-soluble drugs can be converted into uniform particles, dramatically improving drug absorption. |
| Nano-Based Regenerative Medicine and Cell Therapy | Existing Problems |
| Stem cell therapy and tissue regeneration treatments for repairing damaged tissues have low cell engraftment rates and low tissue survival rates after transplantation. Conventional biomaterials may trigger immune responses after implantation, making it difficult to ensure long-term therapeutic effects. | |
| Effects of Applying Nano Solutions | |
| Natural biocompatible materials can be processed into uniform nanoparticles and used as scaffolds for stem cells. When applied to damaged tissues, they can maximize cell adhesion and growth rates, enhancing tissue regeneration effects. They can also reduce immune responses and improve biocompatibility, increasing the survival rate of transplanted tissues. |
| Early Disease Diagnosis and Biosensors | Existing Problems |
| Early diagnosis of cancer and neurological diseases such as Alzheimer’s and Parkinson’s disease is difficult, and many cases are detected only after the disease has developed. Current diagnostic methods often have low sensitivity or require long testing times, making real-time monitoring difficult. | |
| Effects of Applying Nano Solutions | |
| Nano-based biosensors can detect specific disease biomarkers in blood, urine, and saliva with ultra-high precision. Using our nanotechnology, biological materials can be converted into uniform nanoparticles to develop highly sensitive sensors. With sensitivity 100 to 1,000 times higher than conventional methods, early disease detection becomes possible, enabling early diagnosis of cancer, diabetes, and cardiovascular diseases. |
| Medical Devices and Implants Using Nano Coating | Existing Problems |
| Medical implants, such as artificial joints and dental implants, face issues such as bacterial infection and immune rejection. Conventional antibacterial coatings lose their effectiveness over time. | |
| Effects of Applying Nano Solutions | |
| Antibacterial coating using nanoparticles provides long-lasting antibacterial effects, minimizing the risk of infection. Coating with biocompatible nano materials can reduce immune rejection, enabling long-term use. Nano surface treatment increases cell adhesion, improving the speed of osseointegration. |
| Vaccine Development and Delivery Systems Using Nanotechnology | Existing Problems |
| Traditional vaccines are difficult to store and transport, and their antigen delivery efficiency is often low, requiring booster shots in many cases. Because their ability to induce an immune response is limited, larger doses are often needed to achieve sufficient effectiveness. | |
| Effects of Applying Nano Solutions | |
| By applying a nano vaccine platform, antigens can be converted into nanoscale particles so that immune cells can recognize them more easily. Nano-encapsulation technology improves vaccine stability and enables long-term storage without refrigeration. It maximizes reactivity with immune cells, inducing a strong immune response even with a small dose. |
Our technology, which processes natural substances into ultra-fine nanoparticles without alteration and classifies them into desired sizes,
enables innovation across various areas of the medical industry, including drug delivery, diagnostics, tissue regeneration, and vaccine development.
By maximizing drug absorption in the body, stronger and more precise therapeutic effects can be expected even with lower doses than conventional treatments.
By guiding drugs to act selectively only on affected areas, it helps prevent damage to normal cells and minimizes side effects that may occur during treatment.
By combining nano coating technology with highly sensitive biosensors, early signs of disease can be detected, helping secure the golden time for treatment and improve recovery rates.
By optimizing biological responses on the surfaces of medical devices and implants, it reduces rejection reactions within the human body and increases the long-term success rate of surgeries and implant procedures.
Based on an innovative nano platform, it enhances vaccine efficiency, enables rapid responses to emerging infectious diseases, and expands the scope of immunotherapy.
Medical innovation through nanotechnology is only just beginning.
We are leading the future of the medical industry with more precise and more effective treatments.
Medical innovation through nanotechnology is only just beginning. We are leading the future of the medical industry with more precise and more effective treatments.
ACENANO | CEO: Hyejun Jeon
[ Address ]
Seoul Office: Baeksan-Bluewin Building, 157 Jeongneung-ro, Seongbuk-gu, Seoul, Korea
Seoul R&D Center: 1F, APEXEL Nano Science Museum, 63 World Cup buk-ro, Mapo-gu, Seoul, Korea
GMP Factory: 97-87, Daejeon-gil, Songna-myeon, Buk-gu, Pohang-si, Gyeongsangbuk-do, Korea
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