Copner Biotech's state of the art design and manufacturing process enables 3D cell culture scaffolds to be produced based on concentric shape constructs, such as circles, providing a consistent variability of pore size (heterogenous pore size and distribution) emanating from the centre to the periphery of scaffold.
We are a biotech startup founded in 2017, that offers fully-organic, biodegradable and microplastic-free nano, micro and macro encapsulation services to agrochemical, cosmetics, nutraceutics, pharmaceutical and smart material companies.
We create complex biological cell culture systems using our proprietary stereolithography-based bioprinting platform. We produce structures containing embedded cells as well as cell-free biopolymer scaffolds.
The core technology of Greiner Bio-One’s Magnetic 3D Cell Culture is the magnetization of cells with biocompatible NanoShuttle™-PL. The reproducible formation of one spheroid per well in an F-bottom plate with Cell-Repellent surface is forced by magnets either by levitation or bioprinting, to form structurally and biologically representative 3D models in-vitro
A future for our children and grandchildren, whose medical care is governed and guided by health and not disease: Safe cell treatments and regenerative therapies that heal and save lives; humane and accessible to everyone. We have dedicated ourselves to regenerative medicine – ethical, responsible, visionary and passionate!
Sartorius is a leading international partner of life sciences and the biopharmaceutical industry. In our ambition to simplify progress for our customers across the globe, we provide them with innovative technologies that help them develop and manufacture medications faster and more efficiently. So that more people can obtain access to better medicine.
Based in Gothenburg Sweden, Fluicell is a company that has commercialized a product portfolio to study single cells, primarily in the field of drug development. Fluicell’s existing products are the research tools Biopen® and Dynaflow® Resolve, which today allow researchers to investigate the effects of drugs on individual cells at a unique level of detail. As a further development of Fluicell's existing product portfolio, the company has developed a unique high-resolution bioprinting technology in both 2D and 3D under the name Biopixlar®. With this system, complex tissue-like structures can be created where positioning of individual cells can be controlled.
We provide a Point-Of-Care, cost efficient Tissue Engineering approach to regenerative, patient-tailored precision medicine. We focus on clinical indications performed in the operating theater by providing patient accessibility. At the heart of this revolutionary approach is a proprietary bio-processing technology:
"Sound Induced Morphogenesis " - SIMmimiX biotherapeutics aims to deliver the next generation biofabrication technology, that will enable tissue manufacturing for therapeutic and diagnostic purposes. We will make this vision a reality by providing an ultra-fast biomanufacturing technology capable of creating Point-Of-Care patient specific biological tissue equivalents for regenerative, personalized and precision medicine.
mimiX biotherapeutics’ technology has already demonstrated – with strong scientific evidence – that it offers tissue engineering strategies to overcome today’s obstacles, including the creation of dense networks of micro vascularization. Our technology is a game changer for regenerative medicine and diagnostics.
During the last few years, remarkable progress has been made in gene and cell therapy. Positive proof-of-principle results have been obtained for several diseases, such as adrenoleukodystrophy, hemophilia IX, β-thalassemia, malignant glioblastoma, leukemia and other types of cancer. Thus, it is expected that several new gene therapy products will enter the clinical arena in the not-so-distant future. In cell therapy, iPS cell technology has opened huge possibilities for cell therapy and regenerative medicine. There are still significant challenges in gene and cell therapy before these new approaches can enter main stream medicine. Significant safety issues have been reported in some trials and the need for better vectors, delivery techniques and treatment genes are widely recognized. With years of experience in providing high-quality products and services in the field of biopharmaceuticals for customers all over the world, scientists in Creative Biolabs will be more focused on developing first class product and technology to meet the need of stem cell therapy development.
3DBio Therapeutics is a biologics and bioprinting company with a focus on regenerative medicine that precision manufactures living tissues to allow replacement of each individual patient’s parts with tissues designed and created specifically for them.
We are a tech start-up based in Stockholm, Sweden. Akira Science provides pliable 3D-printed scaffolds for soft tissue engineering. Our customized scaffolds are the result of the combined expertise in degradable polymer synthesis, mechanical simulation and cell-material interaction.
Today, there is a solid clinical standard for treating joint disease: the total joint replacement. Yet, while the surgical devices and techniques used to implant them have been largely perfected, today’s standard replacement joints don’t last forever. The limited lifespan of common replacement joints limits their use to patients aged 55 or older. This leaves patients between ages 18 and 55 suffering from cartilage damage, traumatic injury, or early stage cartilage loss with limited treatment options.
Our company, Nanochon, is developing an implant that is designed to not only replace lost and damaged cartilage, but also to encourage new tissue growth. Using 3-D printing and novel material, the Nanochon implant is a sturdy medical advancement that is both an orthopedic load bearing implant as well a tissue growth scaffold. The Nanochon implant has the potential to deliver faster and more successful recoveries for patients, while reducing costs to health providers, payers, and patients. Nanochon’s aim is to set a new clinical standard for cartilage restoration.
Today, Samsara cells and tissues are enabling cutting edge research in the study of human biology and disease. In the hands of our partners and customers, our cells are contributing to the advancement of new tissue models, helping researchers identify promising new drugs that may treat life-threatening diseases, and breaking new ground in regenerative medicine.
The Foundation for Research and Science Development was established in 2009 and has the status of a Scientific Unit entered into the POLON MNiSW (Ministry of Science and Higher Education) system. The organization deals mainly with educational and research activities in the field of medical and biochemical sciences. It was created out of passion and the will to change the reality that surrounds us. The inspiration for establishing the Foundation was and is the scientific activity of Michał Wszoła MD, PhD., surgeon, transplantologist and, most of all, a dedicated doctor.