This technology is a plastic fluorescent panel-based system and method for real-time monitoring of radiation irradiated by a radiation therapy device.
During radiation therapy, accurately verifying the irradiated dose in real-time was challenging, leading to limitations in treatment quality control.
This technology uses a plastic fluorescent panel on the front of the gantry to generate visible light corresponding to the amount of radiation transmitted. A processor then analyzes the size and color of the dose distribution map captured by a camera to measure and output the dose in real-time.
This technology describes a method for enhancing extracellular vesicle secretion through the inhibition of SCOTIN protein expression or activity, and a method for producing extracellular vesicles using this approach.
The limited quantity of extracellular vesicles secreted from cells has restricted their application in areas such as diagnostics, therapeutics, and cosmetics.
This technology identifies the correlation between SCOTIN protein expression/activity inhibition and enhanced extracellular vesicle secretion, thereby increasing the number of vesicles secreted within a given period and improving the efficiency of extracellular vesicle production.
This technology relates to a vehicle braking system comprising a pair of brake members and a cylinder unit positioned adjacent to the driving wheels, and an interlocking wire connecting them.
Existing vehicles faced accident risks such as slipping or overturning due to brake malfunctions, sudden acceleration, or when parked on inclines.
To address this, this technology allows the cylinder rod to sequentially descend and make contact with the ground, lifting the driving wheels. This reduces driving speed and prevents slipping and overturning, enabling safe braking even in uncontrollable situations such as sudden acceleration.
This technology consists of a blockchain server that performs authorization verification, quality compliance checks, latest block generation, and anti-tampering measures in response to quality management information generation requests from worker terminals, along with an off-chain database that stores the verified original data.
Existing construction quality management systems have limitations in ensuring the reliability of quality information due to the potential for record tampering.
By verifying and recording quality management information on a blockchain while storing the original data off-chain, this technology can be applied to construction quality management to prevent record tampering and enhance overall reliability.
This technology relates to a method for producing phosphorylated starch with improved properties by phosphorylating starch through the addition of phytic acid, a natural product.
Existing modified starches, produced using chemical substances, faced limitations in terms of safety and consumer acceptance.
This technology phosphorylates starch with natural phytic acid, improving transparency, solubility, swelling power, and storage stability. As a result, it can replace chemically modified starches and be widely utilized in the food industry.
This technology is an ultrasound-nuclear medicine fusion portable imaging device that simultaneously provides anatomical, functional, and biochemical information of the human body.
Existing fusion imaging devices, such as PET/CT and SPECT/CT, have limitations due to high radiation exposure and difficulty in real-time localization.
This technology fuses an ultrasound transducer and a gamma-ray detection scintillator with a coupling layer, sound-absorbing material, and collimator into a single probe. This allows for accurate lesion localization and real-time measurement throughout the surgical process with low radiation exposure.
This technology relates to a vehicle braking device that includes a cylinder body with hydraulic/pneumatic inlets, upper and lower plates, a fixing rod, a piston member, and a compression spring.
Existing vehicles faced risks of sliding when parked or stopped on slopes, or sudden acceleration accidents due to vehicle defects or operational errors.
To address this, this technology uses hydraulic/pneumatic pressure to move the piston member, lifting the drive wheels off the ground during parking/stopping or sudden acceleration, thereby fundamentally preventing human and property damage caused by sliding on slopes and sudden acceleration.
This technology relates to a method for synthesizing microparticles composed of a polymer network using fluid lithography.
There has been a demand for a method to uniformly manufacture microparticles capable of precisely binding various functional materials.
This technology involves a step of binding desired materials to the unreacted carbon double bond termini of the polymer network, enabling the efficient manufacturing of functionalized microparticles.
This technology is a final bolting robot consisting of a ground-supported base, an elevating lift, an articulated robotic arm mounted on the lift, a bolting module attached to the robotic arm for final tightening of pre-bolted fasteners, and a fixing tower that attaches to steel columns.
Conventional steel final bolting work involves high-altitude tasks that pose significant safety risks and rely heavily on manual labor, making it difficult to ensure both construction efficiency and worker safety.
By automating the final bolting process with an articulated robotic arm and a bolting module, this technology can be applied to steel structure construction to enhance both safety in high-altitude work and overall construction efficiency.
This technology concerns lipid nanoparticles containing hyaluronic acid-lipid derivatives and their uses as carriers for delivering mRNA, proteins, and drugs into the body.
Existing mRNA vaccine delivery systems have faced issues with chronic immunogenicity, low protein expression rates, and stability.
This technology consists of hyaluronic acid-lipid derivatives, ionizable lipids, cholesterol, and phosphatidylcholine, and exhibits excellent mucosal adhesiveness and permeability, thereby enhancing mRNA stability and delivery efficiency and enabling nasal and pulmonary delivery.
This technology is an O-shaped buckling-restrained brace consisting of a hollow circular tube, a core member housed within the tube featuring end plates and a hollow hole, and a filling layer formed by an internal filler injected between the tube and the core to connect them as a single unit.
Conventional buckling-restrained braces typically use mortar as a filler, which makes it difficult to achieve both high load-bearing capacity and superior deformation capability.
By using an advanced internal filler instead of mortar to increase both load-bearing capacity and deformation capability, this technology can be applied to steel braced structures to improve resistance against external forces.
This technology relates to a hypochlorous acid water production system that includes a raw material tank, an electrolytic cell, a raw water supply unit, a generation tank, a reaction time control system, and a storage tank.
Existing chemical substances used for sterilization and cleaning are highly toxic and harmful to the human body, making it difficult to ensure stable sterilization power.
To address this, this technology reacts chlorine gas, generated by electrolyzing hydrochloric acid, with raw water to produce mildly acidic (pH 5~6.5) hypochlorous acid water with consistent quality, which possesses excellent sterilization power without emitting harmful substances.
This technology relates to an antibiotic-modified anticancer drug compound for gene non-toxic anticancer therapy and an anticancer pharmaceutical composition comprising the same.
Conventional chemotherapy damages nuclear DNA to kill cancer cells, leading to problems such as genetic alteration, cancer recurrence, and drug resistance.
The modified anticancer drug of this technology selectively targets only the mitochondria of cancer cells to exert therapeutic effects without causing genetic alteration, thereby preventing recurrence and effectively treating malignant tumors that are difficult to treat due to drug resistance.
This technology relates to a nanobarcode that regulates macrophage adhesion and polarization, and a method of regulation using it.
A precise means of regulating macrophage polarization, a key aspect of immune responses, was lacking.
By controlling the periodicity and arrangement sequence of the nanobarcode's ligand peptide (RGD), this technology can efficiently regulate macrophage adhesion and phenotypic polarization both in vitro and in vivo, making it applicable to immunomodulation and related therapeutic research.
This technology relates to a nano-coil-substrate composite for regulating stem cell attachment and differentiation, its manufacturing method, and a method for controlling stem cell behavior using it.
While the technology to reversibly control stem cell attachment and differentiation at desired times is essential for regenerative medicine, its implementation has been challenging.
This technology is useful for regenerative medicine and cell therapy research because it can temporally and reversibly regulate stem cell attachment and phenotypic differentiation both in vitro and in vivo by controlling the application of a magnetic field to the nano-coil-substrate composite.
