This technology is about a method of producing glutathione using glutamic acid, cysteine, and glycine as reaction substrates by combining photosynthetic cell membrane vesicles and an enzyme that catalyzes glutathione synthesis.
The existing glutathione production method has the limitation of high production cost due to the problem of continuous supply of expensive adenosine triphosphate (ATP).
This technology is based on photosynthetic cell membrane This is a method of efficiently producing glutathione by continuously reproducing ATP through light energy by combining vesicles and glutathione synthase. It is a method that can dramatically reduce production costs by stably mass producing glutathione without additional ATP input.
This technology is about a method of producing glutathione using glutamic acid, cysteine, and glycine as reaction substrates by combining photosynthetic cell membrane vesicles and an enzyme that catalyzes glutathione synthesis.
The existing glutathione production method has the limitation of high production cost due to the problem of continuous supply of expensive adenosine triphosphate (ATP).
This technology is based on photosynthetic cell membrane This is a method of efficiently producing glutathione by continuously reproducing ATP through light energy by combining vesicles and glutathione synthase. It is a method that can dramatically reduce production costs by stably mass producing glutathione without additional ATP input.
This technology relates to a composite combining hydroxyapatite, a chitosan-based polymer, and catechol-based components to improve both mechanical strength and biocompatibility.
Conventional composite materials for bone regeneration have had difficulty balancing strength and biocompatibility. This technology forms an organically reinforced composition by combining hydroxyapatite with chitosan derivatives and catechol derivatives.
As a result, it can simultaneously improve mechanical strength and biocompatibility, making it useful in bone regeneration, tissue engineering, and medical composite materials.
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This technology relates to a compound containing both a catechol group and a thiol group, and to a bioadhesive/anti-fouling composition using the same.
Conventional DOPA-based adhesive materials have been vulnerable to oxidation, making it difficult to secure adhesive strength and long-term stability. This technology designs a compound containing both catechol and thiol groups to secure both adhesion functionality and stability.
As a result, high adhesion and durability can be expected in bioadhesives, surface coatings, and anti-fouling materials, enabling various functional-material applications.
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This technology relates to a binary-phase biomemory device implemented by directly immobilizing fusion proteins having redox potential on a substrate.
Conventional silicon-based memory has had limitations in miniaturization and biocompatible information storage. This technology uses directly immobilizable fusion proteins as a memory-active material to realize a single-molecule-level information storage structure.
As a result, it can increase the feasibility of protein-based information storage systems and can be utilized in next-generation bioelectronic devices and novel memory devices.
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This technology relates to a hydrogel manufacturing technology that uses a composition containing an anemone-derived recombinant protein to improve mechanical properties.
Conventional hydrogels have offered excellent biocompatibility but limited mechanical properties such as strength and elasticity. This technology strengthens the gel network by introducing anemone-derived silk-like and collagen-like recombinant proteins into the composition.
As a result, it can improve the strength and structural stability of hydrogels, enhancing applicability in tissue engineering, regenerative medicine, and biomaterials.
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This technology relates to a lithium metal electrode technology that suppresses dendrite formation by using a metal-organic framework and lithium-philic metal ions.
Conventional lithium metal electrodes have continuously suffered from dendritic growth and low interfacial stability, causing lifespan reduction and safety issues. This technology coats a current collector with a metal-organic framework and organic linkers to provide lithium-ion guiding pathways and a uniform nucleation environment.
As a result, it can reduce dendrites and improve lithium-ion conductivity, thereby enhancing the safety, power density, and cycle life of high-capacity secondary batteries.
Key Features:
This technology relates to a cathode structure for lithium secondary batteries that increases energy density and driving stability by combining organic and inorganic active materials.
Conventional single organic or single inorganic cathodes have had performance limitations in conductivity, binding strength, and internal resistance. This technology designs a composite cathode including a current collector, conductive material, organic-compound-based active material, and inorganic active material to improve interfacial binding force and charge-transfer characteristics.
As a result, it can lower internal electrode resistance and increase utilization of active components, thereby improving output characteristics, energy density, and cycle stability of lithium secondary batteries.
Key Features:
This technology relates to an organic synthesis method for regioselectively alkylating heterocyclic N-oxides by using 1,1-alkyl diboron compounds.
Conventional alkylation reactions have faced issues such as the cost and inefficiency of transition-metal catalysts and difficulty separating isomers in radical pathways. This technology reacts a heterocyclic N-oxide with a 1,1-alkyl diboron compound in the presence of a base to realize selective alkylation without a catalyst.
As a result, it can reduce process cost and separation burden while improving alkylation efficiency at the desired position, making it useful in pharmaceutical and fine-chemical synthesis.
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This technology relates to a conductive composite film that secures both elasticity and conductive stability through a buckled conductive nanowire structure.
Conventional conductive films have had difficulty maintaining conductive pathways under repeated deformation, limiting application to flexible electronics. This technology forms buckled nanowires on a flexible substrate and polymer layer so that stable conductivity is maintained even during deformation.
As a result, it can improve stretchability, bending durability, and conductive stability, making it useful as a conductive film for wearable electronics and flexible displays.
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