This technology is a brown rice processing device for making scorched rice, consisting of an inclined brown rice supply chute, a compression roller assembly with first and second rollers that feature textured surfaces and rotate in opposite directions, and a twisting drive mechanism that eccentrically rotates the rollers.
Scorched rice made from brown rice often has a hard texture that does not soften easily in water, creating a need for a processing device that can soften the brown rice.
This technology uses compression rollers to press and crush the brown rice, while the twisting drive mechanism creates a rubbing effect through eccentric rotation, allowing the brown rice to soften easily in water when used in the scorched rice manufacturing process.
This patent is owned by IP Bank. Upon purchase, you may receive support through commercialization programs, recommendations for technology transfer and commercialization funding guarantees, and additional points during evaluations for the priority procurement of excellent inventions.
This technology relates to a method of manufacturing a fiber network of extracellular matrix (ECM) proteins. Existing methods of manufacturing extracellular matrix protein networks were different from in vivo mechanisms or difficult to control the shape.
This technology utilizes anionic copolymer micropatterns to precisely manufacture an extracellular matrix protein fiber network similar to that in vivo, making it possible to effectively control the shape and arrangement of a single or complex protein network.
This technology contributes to in vitro development, cell adsorption and differentiation research of various tissues, and can be used as a cell culture scaffold essential for the development of biomaterials and medical devices, and as a restorative material for tissue regeneration.
This technology was developed through support from the National Research Foundation of Korea's artificial cell structure and function simulation research project.
This technology involves mixing waste artificial marble powder with sodium hydroxide to dissolve and react with aluminum hydroxide to produce sodium aluminate, which is then separated and recovered from PMMA through solid-liquid separation.
Conventional recovery methods suffer from high energy consumption due to thermal decomposition and difficulty in efficiently recovering aluminum compounds using alkalis.
By recovering sodium aluminate and PMMA through alkali treatment and solid-liquid separation without the need for thermal decomposition, this technology can be applied to waste recycling processes to recover resources with minimal energy.
This patent is owned by IP Bank. Upon purchase, you may receive support through commercialization programs, recommendations for technology transfer and commercialization funding guarantees, and additional points during evaluations for priority procurement of excellent inventions.
This technology concerns the manufacturing method of an amalgam electrode and the electrochemical reduction method of carbon dioxide using an amalgam electrode.
The existing amalgam electrode manufacturing method had difficulties in efficiently converting carbon dioxide due to limitations in implementing porous electrodes, but this technology provides a method of forming an amalgam layer on the surface of a porous substrate electrode by electrodepositing mercury and metal.
This technology overcomes the shortcomings of existing methods and utilizes a large surface area to achieve excellent conversion efficiency of up to 90% or more in the electrochemical reduction reaction of carbon dioxide. It also provides environmental benefits by utilizing safe dental amalgam formulations.
This technology was developed through support from the Korea Institute of Energy Technology Evaluation and Planning's research project to develop innovative technology for the existing production process of high-value chemical products using captured CO₂.
This technology is about cell-like liposomes. Existing liposomes have limitations in drug delivery due to instability in the body and low delivery efficiency, but it provides cell-like liposomes and an improved drug delivery system using them.
The developed liposome contains an extracellular matrix (ECM) and cytoskeleton in a phospholipid membrane composed of anionic lipids and neutral lipids, so it has strength and flexibility similar to real cells and can dramatically increase drug delivery efficiency by securing high stability and affinity in vivo.
This technology overcomes the shortcomings of existing drug delivery systems and builds a next-generation drug delivery system that is biocompatible and stable, and cell-like liposomes have the characteristics of improved strength and flexibility.
This technology was developed through support from the National Research Foundation of Korea's artificial cell structure and function simulation research project.
This technology involves turning waste artificial marble powder into a slurry and reacting it with an acid compound to extract aluminum components, followed by solid-liquid separation to isolate and recover aluminum compounds and PMMA.
Conventional recovery methods rely on thermal decomposition, which is energy-intensive and makes it difficult to efficiently separate and recover aluminum and MMA from waste artificial marble.
By recovering resources through acid treatment and solid-liquid separation without the need for thermal decomposition, this technology can be applied to waste recycling processes to recover aluminum compounds and MMA with minimal energy consumption.
This patent is owned by IP Bank. Upon purchase, you may receive support through commercialization programs, recommendations for technology transfer and commercialization funding guarantees, and additional points during evaluations for priority procurement of excellent inventions.
This technology is about an electrochemical conversion system of carbon dioxide in which carbon dioxide is electrochemically reduced to produce oxalate.
Reducing carbon dioxide emissions, the main cause of global warming, is an urgent task, but existing carbon dioxide conversion systems had limitations in terms of efficiency, purity, and environmental friendliness.
This technology is a system that electrochemically converts carbon dioxide into high-purity oxalate, using an amalgam electrode, an aprotic polar organic solvent (DMSO), and a specific By using auxiliary electrolyte (TBA·PF6), high purity oxalate of more than 90% can be produced in an environmentally friendly manner, solving the problems of volatility, explosion risk, and low purity of the existing system.
This technology was developed through support from the Korea Evaluation Institute of Industrial Technology's research project to develop innovative technologies for existing production processes for high value-added chemical products using captured CO2.
This technology is a skewer manufacturing system consisting of a meat supply unit, a cutting unit with grid-shaped blades, a conveyor for transporting molds, a skewer supply and insertion unit, and a control unit.
Traditional manual methods of cutting meat and skewering it are inefficient and make it difficult to maintain consistent quality.
This technology cuts meat using grid-shaped blades and automatically inserts skewers into the meat pieces held in molds, thereby increasing manufacturing efficiency and consistency when applied to meat skewer production equipment.
This patent is owned by IP Bank. Upon purchase, you can receive support through commercialization programs, recommendations for technology transfer and commercialization funding guarantees, and additional points during evaluations for priority procurement of excellent inventions.
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 involves a manufacturing process for disposable scouring pads where an antibacterial agent is first coated and cured onto a melt-blown non-woven fabric, followed by a coating and curing process for dish soap, allowing the detergent to be released gradually.
Conventional methods that combine detergent and antibacterial agents often suffer from reduced antibacterial efficacy and the issue of the detergent washing away all at once upon contact with water, making the product difficult to use for an extended period.
By treating the fabric with an antibacterial agent first and then controlling the humidity during the detergent coating and curing process, this technology ensures that the disposable antibacterial scouring pad produces a rich lather while releasing the detergent at a consistent, slow rate.
This patent is owned by IP Bank. Upon acquisition, you may receive support through commercialization programs, recommendations for technology transfer and commercialization funding guarantees, and additional points during evaluations for priority procurement of excellent inventions.
This technology is about a microwave near-field imaging microscope. Circularly polarized light is incident on an irradiation object, the reflected light is analyzed, and the heat distribution can be optically imaged using an indicator.
As the demand for wide-area communication systems in the high-frequency band is rapidly increasing, technology for verifying and investigating microwave devices is required, but the existing technology has the disadvantage of long measurement time and difficulty in designing a probe for measurement. There was.
Through this technology, it is possible to investigate the driving method of the device and verify the reliability of the device by providing a microscope that images the microwave near-field by optically imaging the distribution of heat generated by the microwave near-field using an indicator.
This technology relates to a livestock feed composition and its manufacturing process, created by mixing nutritional formula feed with red shale powder finely pulverized to 200–800 mesh.
Conventional formula feeds struggle to consistently improve livestock immunity and health, creating a need for supplementary feeds that utilize natural mineral components.
By pulverizing raw red shale and mixing it with nutritional formula feed, this technology can be applied as a natural mineral supplement to enhance the immunity and health of livestock.
This patent is owned by IP Bank. Upon purchase, you may receive support through commercialization programs, recommendations for technology transfer and commercialization funding guarantees, and additional points during the evaluation for priority procurement of excellent inventions.
This technology relates to a charging and discharging scheduling device and method for energy storage devices. It minimizes operating costs and enables stable and planned power grid operation by establishing a charging and discharging scheduling plan in consideration of load pattern data and the internal chemical characteristics of the energy storage device.
Energy storage devices are secondary batteries that can be charged and discharged multiple times, but because their lifespan is limited, efficient charging and discharging scheduling according to the usage environment and purpose is required. It is necessary. However, in terms of the operating cost of supplying power in connection with the power grid, there is a limitation in not considering the internal chemical characteristics of the energy storage device, and the cost-effective management of the energy storage device is not implemented, which can lead to problems that bring a burden of charges to consumers.
This technology considers changes in electricity rates over time, load pattern data, and the internal chemical characteristics of the energy storage device under the condition that the output drawn from the power grid does not exceed the range, and performs charging and discharging scheduling that enables the minimum operating cost. By making it possible to establish a plan, not only can power be supplied cost-effectively in the demand power market, but it can also improve the stability and reliability of the entire power grid by appropriately limiting the amount of power drawn from the power grid and used.
This technology was developed through the support of the National Research Foundation of Korea's research project on ESS operation cost minimization algorithm and hardware-linked charging and discharging test bed construction.
This technology is about a large-scale rainbow generating device that can generate large, natural rainbows while minimizing components.
Generally, a rainbow is created when the observer turns his back to the sun and looks at a large group of water droplets, and the light refracted by the water droplets forms on the retina. If you spray water droplets by installing multiple water droplet spraying devices in a large area, you can create a group of water droplets with a large length and width. However, installing a water droplet spraying system including multiple water droplet spraying devices is very cumbersome and difficult to maintain, making it difficult to use in amusement parks or events.
This technology can create a natural large rainbow, such as by spraying water droplets with the spray guns arranged symmetrically left and right, giving the feeling of seeing a natural large rainbow in an empty field with just two guns.
This technology was developed with the support of the Korea Creative Content Agency's research project on artificial rainbow implementation technology by size/color.
This technology is about the optimization method of the dialogue policy model and the dialogue system that implements it.
The dialogue policy model of the existing dialogue system had limitations in flexibility and scalability due to being rule-based. In particular, application of reinforcement learning in large conversation state spaces has been difficult. To solve this problem, this technology expresses the conversation state, including the trust score of the user's speech intention, as a continuous vector.
The conversation policy model is reinforced and learned through the Experience Replay technique that utilizes the data received at each time step. This allows us to implement a next-generation conversation system capable of natural conversations by efficiently reusing experience data and significantly improving data efficiency by reducing inter-sample correlation.
