Why Choose 3D Printed Skin Models?
Complex skin models are essential for advancing research and product development. Our bespoke 3D skin models provide a versatile platform to evaluate the efficacy of ingredients, formulated products, drug candidates, and medical devices. These innovative models incorporate a range of cell types, including keratinocytes, fibroblasts, immune cells, sebocytes, melanocytes, and endothelial cells, enabling highly customizable solutions tailored to your specific needs.
Model Variants
Immunized Skin Models
Incorporate immune cells (e.g., macrophages) to study inflammation and immune responses.
Sebaceous Skin Models
Combine keratinocytes, fibroblasts, and sebocytes for applications in acne, oily skin, and sebaceous gland function.
Pigmented Skin Models
Include keratinocytes, fibroblasts, and melanocytes for pigmentation studies and cosmetic applications targeting skin tone and discoloration.
Vascularized Skin Models
Integrate keratinocytes, fibroblasts, and endothelial cells to explore vascularization, wound healing, and circulatory disorders.
Applications of our Customized 3D Bioprinted Skin Models
Cosmetics Development
Test and optimize formulations for dry, atopic, oily, or pigmented skin.
Pharmaceutical Screening
Evaluate drug candidates for normal, inflamed, or diseased skin conditions.
Medical Device Testing
Assess the interaction of medical devices with complex skin structures.
Research in Skin Biology
Advance understanding of skin physiology, immune responses, and vascularization.
Atlantis Bioscience delivers advanced 3D bioprinted skin models in Southeast Asia, enabling cutting-edge research in cosmetics, pharmaceuticals, and medical devices. Our customizable models help accelerate product development and innovation. Contact us below for more information!
Publications
Lègues M, et al., 2020, The World’s First 3D Bioprinted Immune Skin Model Suitable for Screening Drugs and Ingredients for Normal and Inflamed Skin, IFCSS
Mcguckin C et al, 2022, Linking clinical vascular dark circles reduction to laboratory in vitro modelization can be achieved using vascularized 3D Bioprinted skin models, IFCSS