自主研發平台|Proprietary R&D Platform
自主研發平台|Proprietary R&D Platform
OmicSyn|AlgéNova® Platform
In this project, we employ glyco-engineering approaches to systematically characterize the glycosylation patterns of microalgae, gaining insights into their structural and functional properties. By elucidating the glycosylation pathways, we are able to precisely regulate and design the glycan modifications, thereby guiding targeted expression of bioactive compounds. This strategy not only enhances the functionality and stability of bioproducts but also provides a solid scientific foundation for the development of high-value marine-derived biomolecules.
©2023 OmicSyn TechThis project is dedicated to establishing an intelligent marine biotechnology platform that integrates Network Pharmacology Microalgae (NPMA) with a Biomimetic Engineering System (BES), aiming to develop zero-carbon marine bio-resource cultivation technologies. By integrating genomic, transcriptomic, and metabolomic data, and leveraging AI to predict optimal enzyme activation pathways, the platform enables the development of efficient, low-carbon, and industrially valuable bioproducts. It focuses on the biomimetic applications of microalgae and marine-derived organisms, with broad applications across healthcare, medical aesthetics, chemical engineering, and environmental sustainability. Ultimately, the platform seeks to construct the next-generation model of green biotechnology and to usher in a new era of the marine bioeconomy.
OmicSyn|Synflora® Platform
In this project, we apply synthetic biology and genome engineering approaches to redesign and regulate the metabolic networks of yeast strains, reconstructing and optimizing both endogenous and heterologous enzyme pathways to enable the biosynthesis of specific fragrance molecules. Through systematic optimization of key enzyme activities, precursor availability, and regulatory nodes, we achieve efficient, stable, and scalable production of the target aroma compounds.
©2024 OmicSyn TechThis project leverages Synthetic Biology to optimize yeast and microbial systems through genetic engineering, enabling the precise biosynthesis of key fragrance molecules originally derived from plants and animals within controlled fermentation platforms. Our aim is not only to recreate rare and precious scents, but also to adhere to the principles of low carbon emissions, scalability, and zero animal harm, ushering the fragrance industry into a new era of sustainable transformation. This is more than a scientific innovation—it is a gentle response to ecology, to the future, and to the sensory civilization of humankind.