This technology provides a high-expression vector comprising a super promoter, which is a recombinant of a strong plant virus-derived promoter, and a strong, repeatedly linked terminator, as well as a method for mass producing target proteins using this vector.
There have been limitations in the efficient high-level production of target proteins in plant cells.
This technology significantly enhances target gene expression through increased transcription levels, enabling the mass production of target proteins in plants.
This technology relates to a control method for low-carbon renewable energy wind turbines that involves setting the braking initiation voltage and maximum braking force, checking the rectified voltage, and performing stepwise and continuous braking.
Conventional wind turbines have had issues with blades over-rotating during strong winds or squalls, leading to damage to components and reduced durability.
To address this, this technology detects the rectified voltage generated by blade rotation, initiating and maintaining braking in a stepwise manner. It also prevents over-rotation using a brake and pitch system, thereby increasing power generation efficiency through smooth operation and component protection.
This technology presents an iron and nitrogen-doped carbon composite catalyst for carbon dioxide reduction, produced by heat-treating an iron-doped metal-organic framework, along with its manufacturing method.
To address climate change and fuel depletion, CO2 conversion required catalysts with high conversion rates and carbon monoxide selectivity.
This technology provides a catalyst with a high carbon dioxide conversion rate and carbon monoxide selectivity, making it suitable for use in various electrocatalytic processes.
This technology describes a method for producing TGFβ1 recombinant protein using a gene construct and recombinant expression vector for TGFβ1 production, along with transgenic plants into which these have been introduced.
When producing human TGFβ1 protein in plants, there were challenges in achieving sufficient solubility and expression levels.
This technology introduces various functional domains to enable mass production of TGFβ1 in plants, facilitates easy isolation and purification, is endotoxin-free, and provides activity similar to existing recombinant proteins.
This technology relates to an anticancer prodrug capable of simultaneously targeting different types of tumors.
Due to the heterogeneity of cancer cells, conventional drug delivery systems have been limited to targeting only a subset of tumor characteristics, leading to drug resistance issues.
This technology introduces a dual activation mechanism that releases the active drug SN-38 in both oxidative stress environments responsive to hydrogen peroxide (H2O2) and reductive stress environments responsive to glutathione, thereby minimizing side effects and enhancing the anticancer effect against various tumors.
This technology describes an apparatus and method for classifying user intent by real-time extraction of features from different domains within EEG signals generated during motor imagery.
EEG signals have large individual variability and noise, which has made it challenging to accurately classify motor imagery intent in real-time.
This technology precisely classifies a user's motor imagery intent by real-time extraction and utilization of multi-domain features from EEG signals, enabling its application in various fields such as brain-computer interfaces.
This technology describes travel luggage with adjustable internal storage space, comprising a lower body, an upper body, a graspable handle, and a braking mechanism.
Traditional travel bags have a fixed volume and size, making it difficult to flexibly adjust their capacity when the amount of luggage varies.
To address this, this technology features a front and rear body structure connected by hinges that allows the internal space to be expanded or reduced. This enables conversion to various capacities, thereby enhancing user convenience.
This technology is a system and control method that manages functional electrical stimulation, which induces muscle movement, and vibration stimulation, which alleviates muscle fatigue, based on user fatigue levels.
Continuously applying only functional electrical stimulation leads to rapid muscle fatigue accumulation, which limits the effectiveness of rehabilitation and training.
This technology controls a unit to alternately apply electrical and vibration stimulation to the muscle, thereby reducing muscle fatigue while effectively maintaining and improving muscle function.
This technology features a brace composed of a hollow polygonal tube, a core member with a T, I, H, or + shaped cross-section housed within the tube, and a PCM layer where a phase change material is filled and integrated between the tube and the core.
Conventional braces, often used as concrete reinforcements, are heavy and difficult to adjust in length to accommodate variations in steel structure dimensions.
This technology achieves a lightweight design using a phase change material layer and allows for on-site adjustment and filling of the core, enabling stable energy dissipation in steel structures regardless of dimensional variations.
This technology is a hollow PC composite column that integrates structural steel and reinforced concrete. It consists of multiple vertically arranged steel shapes connected by tie plates, tie reinforcement wrapping around the steel shapes, and a precast concrete casing that forms a hollow section inside the steel shapes.
Conventional SRC columns often involve complex on-site construction processes, making it difficult to simultaneously improve sectional performance and simplify installation.
By utilizing precast components and incorporating a hollow section to maximize sectional performance, this technology simplifies on-site work while enhancing the structural efficiency of SRC buildings.
This technology relates to an aptamer dimer that binds to insulin receptors and its uses.
Long-term insulin therapy is associated with side effects, and the unclear molecular mechanism of insulin receptor activation has made safe alternative treatments challenging.
The aptamer dimer developed with this technology demonstrates a superior insulin receptor activation effect compared to monomers. It regulates pAKT without increasing pERK, thereby minimizing side effects and promoting glucose uptake, which leads to excellent efficacy in diabetes treatment.
This technology relates to a tarp unit comprising a tarp section, an engagement section on its side, a rope section coupled to the engagement section, and a drainage section with a hollow part through which the rope section passes.
Existing tarps had a problem where rainwater would enter and accumulate inside, causing condensation and discomfort for campers.
To address this, the technology improves user convenience by allowing rainwater to collect when the rope section is pulled, which forms a downward slope on the tarp section towards the engagement section, and then drains the collected water through the hollow part of the drainage section.
This technology relates to fluorescent probe compounds for detecting protein aggregates in cells, particularly in the endoplasmic reticulum, and fluorescent sensors comprising these compounds.
While protein aggregation is associated with various diseases, there has been a lack of methods for selectively and reliably detecting aggregates within the endoplasmic reticulum.
This technology can contribute to research into related diseases and the development of therapeutic methods by effectively detecting protein aggregates induced by endoplasmic reticulum stress, using a fluorescent probe that selectively acts on the endoplasmic reticulum.
This technology concerns an artificial skin phantom and its manufacturing method, which can be used to evaluate the in-vivo sensor insertion capability of continuous glucose monitors and for product quality control.
There was a lack of realistic and controllable test environments capable of closely replicating human skin to evaluate the sensor performance of continuous glucose monitors.
This technology features a two-layer structure composed of a silicone skin layer and a gelatin subcutaneous fat layer, mimicking the elasticity of human skin to enhance the accuracy and reliability of sensor insertion capability evaluation.
This technology relates to antimicrobial and antibiotic surfactant compounds based on natural and non-natural amino acids, and core-shell structured nanocomposites where these compounds are coated onto gold or silica nanoparticles.
Conventional synthetic surfactants posed safety and environmental concerns, leading to a demand for biodegradable and eco-friendly antimicrobial materials.
This technology is synthesized eco-friendly using nanoparticles derived from natural extracts, exhibiting high water solubility, low cytotoxicity, excellent bioavailability, and antimicrobial properties, making it useful for novel antimicrobial agents, surfactants, preservatives, and bionanomaterials.
