This technology is a magnetic actuation control system that utilizes an electromagnet array with curved magnetic cores to minimize the occupied footprint and concentrate magnetic force toward a target location.
Conventional radial electromagnet arrangements occupy significant space, making them difficult to install due to interference issues with medical imaging equipment such as C-arms, and limiting the precision of magnetic field formation.
By forming the tips of the magnetic cores into a curved shape, this technology allows electromagnets to be arranged on a flat plane while still being oriented toward the target, thereby increasing layout flexibility and improving space efficiency. It can be applied to industrial robots and automation systems to enhance output magnetic fields and magnetic force, allowing for increased control and precision in the movement of self-propelled robots.
This invention was developed with the support of the Ministry of Science and ICT’s project for the development of magnetic multi-sequential multi-bot-based neural network reconstruction platform technology.
This technology consists of a compact urinal with an open cylindrical top and a bottom outlet that connects to a toilet, a one-touch hose connector, an adjustable height rod, and a cleaning water supply hose, allowing for detachable installation even in small bathrooms.
In many existing bathrooms, it is difficult to install both a toilet and a urinal due to limited space, which reduces convenience in homes or small buildings where a separate male urinal cannot be easily accommodated.
This technology can be mounted on a toilet tank or wall and attached or detached via a one-touch connector. By connecting it in parallel with the water refill hose, it enables automatic flushing, allowing for the installation and cleaning of a urinal in cramped bathrooms without the need for additional plumbing work.
This technology involves manufacturing water-repellent knitted fabric by immersing dyed and knitted fabric into a water-repellent solution to ensure deep penetration, followed by partial drying, heat setting, washing, and final drying.
Knitted fabrics typically have large gaps between fibers, making it difficult for water-repellent solutions to penetrate evenly or adhere securely to the fabric.
By utilizing a process of partial drying and heat setting after immersion, this technology ensures the water-repellent solution is firmly bonded to the yarn, providing durable water repellency that withstands repeated washing.
This patent is owned by IP Bank. Purchasing this patent provides access to commercialization support programs, recommendations for technology transfer and commercialization funding guarantees, and additional points during evaluations for priority procurement of excellent inventions.
This technology involves a two-stage process: first, indigo-dyed denim fabric is dip-coated in a water-repellent solution before being cut and sewn into a garment; then, the finished garment is dipped again and dried to achieve superior water repellency.
Conventional denim apparel often suffers from poor water repellency because the treatment is only applied to the surface, causing it to wash off easily and failing to penetrate the fibers.
By double-dipping both the fabric and the finished garment, this technology ensures the water-repellent solution penetrates deep into the fibers, providing long-lasting protection for apparel.
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 bonus points during evaluations for the priority procurement of excellent inventions.
This technology relates to an antioxidant composition containing, as an active ingredient, starfish extract fermented with a mixture of Cordyceps mycelium and grains, as well as its manufacturing process.
Starfish are largely discarded due to low resource utilization, and there have been difficulties in using them as functional antioxidant materials through fermentation.
By inoculating and fermenting starfish with Cordyceps mycelium to obtain an extract, this technology enables the conversion of waste resources into useful antioxidant compositions for functional material applications.
This patent is owned by IPBank. Upon purchase, you may receive support through commercialization programs, recommendations for technology transfer and commercialization funding guarantees, and bonus points during evaluations for priority procurement of excellent inventions.
This technology relates to an anti-inflammatory composition containing caffeoyldihydrosyringin and glehnoside compounds isolated from Aster glehni fractions as active ingredients.
While natural products are gaining attention as materials for treating inflammatory diseases, there have been difficulties in identifying and isolating compounds with excellent anti-inflammatory activity for use in compositions.
By using active compounds isolated from Aster glehni as active ingredients to inhibit inflammation, this technology can be applied to pharmaceuticals, health foods, and cosmetics to prevent and improve various inflammatory diseases.
This patent is owned by IPBank. 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 features left and right barriers that monitor entry from both directions, each equipped with cameras, ultrasonic distance sensors, and lighting. It integrates with wired and wireless EV chargers to control parking within charging zones.
Existing EV charging stations often face issues where non-electric vehicles occupy spaces unnecessarily, preventing EVs that actually need to charge from accessing the facilities.
By using left and right barriers to independently monitor and control vehicles entering from either direction and utilizing variable locking heights, this technology can be applied to EV charging infrastructure to prevent unauthorized parking by non-electric vehicles and improve charging efficiency.
This technology is a skin whitening cosmetic composition that inhibits melanin production by using 2,4-dinitrotoluene or 2,6-dinitrotoluene as an active ingredient.
Existing whitening cosmetics have faced challenges in securing ingredients with significant whitening activity due to limited efficacy or low stability of their active components.
By utilizing nitrotoluene derivatives as an active ingredient to inhibit melanin production, this technology can be applied to whitening cosmetic products to provide effective skin brightening.
This patent is owned by IPBank. 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 involves bonding conductive particles to the surface of an actuator body—made by twisting non-conductive polymer fibers into a coil structure—using a chemical reduction technique. This enables electrothermal actuation via applied electricity and self-sensing of resistance changes based on length variations.
Existing polymer-based actuators suffer from reduced safety due to high operating temperatures (over 200°C), as well as increased weight, bulk, and compromised flexibility in wearable devices caused by the need for separate feedback sensors and mounting components.
This technology imparts conductivity to a body formed by twisting spandex and polyethylene fibers by chemically reducing silver precursors on its surface. It is designed for low-temperature operation (below 80°C) and monitors contraction deformation in real-time by measuring the actuator's own resistance changes, eliminating the need for external sensors. Applicable to robotic gripping, precision measurement, and automated equipment, it improves operating temperature ranges, reduces the need for additional sensors and components, and enhances the monitoring capabilities of fiber-type actuators.
This invention was developed with support from the Ministry of Science and ICT for the development of an in-vivo closed-loop system using electronic sutures for the treatment of inflammatory bowel disease.
This technology is a capsule structure designed for multi-site biological material sampling. It induces active sample adsorption at target locations by sequentially dissolving a pH-responsive outer protective layer and a temperature-controlled inner protective layer (via a heating layer) to expose a polymer layer. It includes a position and orientation control mechanism based on an external magnetic field using a magnetic body housed within the main unit.
Conventional sampling devices rely solely on passive movement via intestinal peristalsis, and their sampling methods depend exclusively on specific pH environments, making precise selective sampling or multi-site discrete sampling impossible.
This technology implements a structure that allows users to sequentially activate specific sampling modules at desired times and locations by applying inner protective layers with different melting points to each module and independently controlling the heating layer of each module through external signal application. Applicable to surgical robots, interventional systems, and medical automation, it provides a non-invasive method, reduces costs, and improves the ability to collect biological materials from within the digestive tract by enabling access to multiple locations within the gastrointestinal tract.
This invention was developed through support for the development of a micro-carrier-based active precision delivery medical device for multi-departmental knee cartilage regeneration.
This technology features a robot device comprising first and second arm units positioned on an arm base and a connecting unit that links them. Each arm unit performs multi-jointed movements through yaw and pitch drive units and a power transmission unit that connects them.
In conventional SCARA robots, multiple independently driven arms are not interconnected, meaning each arm must grasp objects individually, which limits the weight of the objects that can be handled.
This technology secures structural rigidity by coupling the first and second arm units via a connecting unit. By combining and applying the yaw and pitch driving forces of each arm, it improves the ability to grasp heavy objects and enhances locking force. Applicable to industrial robots and automation systems, it increases clamping and locking power while enabling the handling of significantly heavier loads during yaw and pitch movements.
This invention was developed with support for AI-based diagnostic technology and the development of minimally invasive surgical robots for the precision treatment of multi-site vascular bone diseases.
This technology relates to a knee brace for patella stabilization, which includes a first band that wraps around the upper part of the patella, a second band that diagonally wraps around the outer side of the patella, and first and second compression parts embedded in each band that compress the patella.
Existing knee braces only compressed the patella uniformly, leading to insufficient patella alignment and stabilization.
To address this, this technology effectively aligns and stabilizes the patella by using the first compression part to compress the upper patella and the second compression part to diagonally compress the outer patella.
This technology relates to a random number generation device and method, comprising an electrical signal generation unit that generates electrical signals dependent on the surface roughness of an object, and a random number generation unit that generates random numbers based on these signals.
Existing random number generation methods are algorithm-based, leading to predictability and thus limited security in security and encryption applications.
To address this, this technology generates random numbers using electrical signals derived from physically unique surface roughness, thereby providing high-quality physical random numbers that are difficult to predict.
This technology relates to a plastic raw material processing method that removes metallic substances using a magnetic component at the inlet while mixing raw resins and additives.
Conventional plastic raw material processing has faced issues with product quality and equipment damage due to metallic substances mixed into the raw materials.
To address this, the technology installs a metallic substance removal unit featuring a crawler belt and a magnetic component at the inlet of the mixing section, allowing for uniform mixing of raw materials while simultaneously removing metals.
This technology concerns a security device comprising a communication antenna that receives communication signals and a random number generation unit that generates new random numbers based on the received communication signals.
Existing random number generation methods were predictable, posing a challenge in adequately ensuring the security of encryption and authentication.
To address this, this technology enhances security by generating random numbers based on the received communication signal itself, thereby producing high-quality, unpredictable random numbers.
※ This invention is the result of the project 'Development of High-Quality Cryptographic Key Generation and Core Security Technologies Based on Electrical Signals for Secure 4th Industrial Services,' conducted with the support of the Ministry of Science and ICT.
