This technology is a resin-based sheet coating method that involves molding scratches onto a resin substrate, applying a UV coating layer, and then performing curing, heating, pressing, and cooling processes.
Previously, there were issues with poor adhesion when forming coating layers on resin sheets, which made the coating prone to peeling and made it difficult to maintain consistent surface quality.
By forming a UV coating layer over the scratched surface and using heat and pressure to ensure strong adhesion, this technology improves both the durability and surface quality of resin sheet products.
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 when applying for priority procurement of excellent inventions.
This technology synchronizes and fuses data from fixed sensors installed in control infrastructure with onboard sensor data from Autonomous Mobile Robots (AMRs) based on a spatio-temporal grid. By doing so, it detects hazards in the robot's blind spots and generates avoidance paths.
AMRs often face collision risks because their onboard sensors have limitations, making it difficult to detect objects located behind obstacles or within blind spots in advance.
This technology establishes a path-generation control system that receives data from control infrastructure sensors (cameras, LiDAR, etc.) and the robot's own sensors, synchronizes them with the robot's location, and fuses them using a grid fusion method to avoid paths containing hazards. Applicable to logistics transport, service robots, and autonomous driving platforms, it prevents collisions with obstacles in blind spots and enhances the ability of mobile objects to actively manage objects in their path, thereby improving safety and efficiency across various fields.
This invention was developed with support from the Ministry of Science and ICT for the development of autonomous avoidance driving technology for the pre-recognition and protection of traffic objects through infrastructure linkage.
This technology is a simulation-based system that calculates the optimal installation locations for surveillance sensors based on movement path scenarios of objects and mobile units within an indoor monitoring area. By simulating the total time during which the detection ranges of surveillance sensors and mobile unit sensors overlap, it identifies the sensor placement configuration that maximizes object detection time.
The risk of collision with objects due to blind spots in autonomous robot detection ranges, and the inefficiencies of existing surveillance sensor installation methods (increased costs due to over-installation or blind spots caused by under-installation).
This technology is a device and method that performs simulations by inputting time-based movement path scenarios for objects and mobile units along with monitoring area maps. It calculates the 'object detection time' for various combinations of potential surveillance sensor locations and identifies the optimal installation index that maximizes this time. Applicable to logistics transport, service robots, and autonomous driving platforms, it improves object detection efficiency, reduces the number of required control sensors, and enhances the overall safety of autonomous robots within the monitored area.
This invention was developed with support from the Ministry of Science and ICT for the development of an autonomous mobile robot blind-spot avoidance path optimization algorithm based on multi-sensor fusion for efficient manufacturing process automation.
This technology is a complex sensing control system that precisely estimates the positions of a robot and surrounding objects by arranging multiple sensor units at equal angles around the robot's exterior and integrating vision, depth, and marker tracking information. It updates real-time position data by converting individual sensor reference coordinates into a single coordinate system centered on the robot.
Existing LiDAR and radar sensors are limited in their ability to perform precise autonomous driving and tasks due to narrow fields of view, low resolution, and limited accuracy. Furthermore, it has been difficult to reliably estimate posture when the robot's position fluctuates.
This technology utilizes a housing containing vision cameras, depth sensors, and marker trackers, arranged around the robot's body to acquire multi-angle environmental information. A processor maps the reference coordinates of each sensor to the robot's origin coordinates and updates map and position data complementarily based on marker recognition to control autonomous navigation. Applicable to robot gripping, precision measurement, and automated facilities, this technology improves the accuracy of position estimation for both the robot and objects in the workspace, thereby enhancing overall operational performance.
This technology allows users to simply enter a store's phone number to have the membership management server automatically connect them to that store's dedicated app page. It integrates the website management, app download management, and delivery management servers into a unified management server to process orders and payments.
Traditional ordering and payment methods require customers to visit in person and wait in line, while stores must maintain dedicated staff to handle payments, leading to significant labor cost burdens.
By automatically recognizing the dialed phone number to connect directly to a store-specific page without the need for app searches or QR codes, this technology can be applied to non-face-to-face ordering and payment services in sectors like food service and retail, effectively reducing wait times and labor costs.
This technology is a method for manufacturing embossing film by coating, drying, and curing a UV-curable coating onto a base film, followed by heat softening and forming identical patterns on both sides using an embossing roller and a backup roller before cooling.
Existing embossing films often suffer from issues such as patterns being limited to one side or low pattern precision, making it difficult to form uniform, identical patterns on both sides.
By heat-softening the UV-curable coating and using an embossing roller and an elastic backup roller to shape both sides, this technology enables the uniform formation of identical double-sided patterns for decorative and functional films.
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 involves manufacturing an electrically conductive mask pack sheet by laminating a silver film—featuring a silver composition layer—onto a lyocell non-woven fabric impregnated with essence gel, followed by the removal of the polypropylene film, aging, and rolling.
To impart electrical conductivity to functional mask packs, silver components must be stably bonded to the sheet; however, achieving uniform lamination has historically been a challenge.
By thermally laminating a silver film onto an essence gel-impregnated non-woven fabric to provide electrical conductivity, this technology can be applied to functional mask pack products to enhance skin care efficacy.
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 priority procurement of excellent inventions.
This technology involves manufacturing non-woven fabric by heat-laminating binder-coated aluminum foil onto hydrogel-coated fabric, removing the base, and cutting it into the shape of a mask pack.
Hydrogel sheets for mask packs often struggle with moisture evaporation and maintaining their shape, making it difficult to achieve both effective barrier properties and a secure fit.
By laminating aluminum foil onto hydrogel fabric to create a barrier layer, this technology helps mask pack products retain moisture and improve the delivery of active ingredients.
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 involves manufacturing a non-woven sheet that generates carbon dioxide by coating, drying, and aging a non-woven fabric with an acidic hydrogel composition made from an acidic solvent and an aqueous hydrogel solution, followed by cutting it into a facial mask shape.
Existing carbonated skin sheets have faced challenges in consistently generating carbon dioxide at the time of use and in ensuring the uniform distribution of ingredients across the non-woven fabric.
By coating and aging the acidic hydrogel onto the non-woven fabric to retain the reactive components, this technology allows for application in products like facial masks, where it generates carbon dioxide upon use to provide skin benefits.
This patent is owned by IP Bank. Upon purchasing this patent, 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 an automatic parking bollard system equipped with two digital cameras for front and rear surveillance. The bollard is secured with a protective connector, while a drive motor transmits rotational force through a support and base. The entire system is remotely controlled via an enclosure integrated with a mobile communication module.
Conventional parking management requires on-site personnel or the installation of complex infrastructure to prevent illegal parking, making it difficult and costly to manage private properties or small parking lots remotely.
This technology enables remote lifting, lowering, and rotation of parking bollards via mobile networks, while providing real-time camera monitoring. It allows for efficient, unmanned parking control, making it ideal for private parking lots and managing illegal parking on side streets.
This technology is a composition for preventing and treating vaginitis, formulated with specific weight percentages of glucomannan, various vitamins, guarana extract powder, sodium bicarbonate, plant extracts such as licorice and chain fern, and other extracts including thistle and oregano.
Preventing and managing vaginitis requires antibacterial and buffering functions, yet there has been a lack of compositions that safely combine various active ingredients in a balanced manner.
By combining glucomannan, plant extracts, and buffering agents to regulate the vaginal environment, this technology can be applied to products for the prevention and treatment of vaginitis to help prevent and improve the condition.
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 features a mechanism that maintains contact with objects and secures gripping force by filling an elastic body with a variable-viscosity fluid (magnetorheological fluid) and controlling the attraction and repulsion between permanent magnets to adjust the fluid's viscosity.
Conventional grippers require custom fabrication to handle objects of various shapes, which reduces operational efficiency and limits the ability to achieve a secure fit based on the object's geometry.
This technology consists of a module that conforms a body containing magnetorheological (MR) fluid to an object, then uses a motor to control the relative positions of first and second permanent magnets. This generates a magnetic field through repulsive force, increasing the fluid's viscosity to lock the body's shape in place. Applicable to logistics picking, service robots, and manufacturing automation, it enhances operational stability and performance by maintaining grip strength and improving the viscosity response of the fluid section.
This invention was developed with support from the Ministry of Trade, Industry and Energy for the development of a gripper system for high-mix production processes capable of securely gripping unspecified objects of various shapes, weights, and strengths.
This technology is an artificial muscle control system that applies a catalytic coating to shape-memory alloy (SMA) wires and drives them by generating heat through the catalytic combustion of chemical fuel instead of electrical heating. Fuel supply is controlled via an electromagnetic valve module, and mechanical movement is performed by inducing shape changes in the cantilever-type wire based on signals from a microcontroller.
Conventional SMA-based artificial muscles use Joule heating, which leads to high power consumption and stability issues related to electrical current usage. Furthermore, they are limited in their ability to perform diverse movements due to the short stroke of linear actuation and the lack of integrated fuel storage and precision control systems.
This technology integrates a shape-memory alloy wire coated with platinum black and carbon nanotubes, methanol fuel for chemical heating, and an electromagnetic valve module into a single unit. Upon receiving a pin signal from the control unit, the valve opens to trigger a chemical combustion reaction, which straightens the curved wire to actuate terminal devices such as artificial fingers. Applicable to industrial robots and automation systems, it utilizes chemical power and signal control within an integrated module, improving the stability and efficiency of artificial muscle operation through microcontroller-based control.
This invention was developed with support from the Ministry of Science and ICT for the localization of smart electronically controlled lower-limb prosthetics and core components for patients with bilateral lower-limb amputations.
This technology implements an autonomous collision avoidance algorithm that assesses collision probability based on the relative distance and velocity of objects surrounding the UAV, and generates flight control commands by combining user control inputs with collision avoidance vector values. In particular, when multiple objects are present, if the directions of the vectors are within a preset angle during the sequential vector summation process, an orthogonal avoidance motion vector is added to prevent inefficient behaviors such as stalling.
Conventional methods based on the Repulsive Potential Field (RPF) calculate collision avoidance forces as infinite values, necessitating converter processing. Furthermore, these methods often result in the UAV stalling due to the cancellation of user control inputs by collision avoidance values, and they suffer from an inability to provide 360-degree omnidirectional detection due to sensor Field of View (FOV) limitations.
This technology includes a collision assessment unit that determines the likelihood of a collision based on the relative distance and velocity of objects near the UAV, and a collision avoidance calculation unit that sums a first collision avoidance vector based on UAV velocity and a second collision avoidance vector based on user control input. When summing the avoidance vectors for the i-th object, if the vectors fall within a preset angle, an avoidance motion value in the orthogonal plane is added to ensure collision avoidance. Applicable to unmanned exploration, surveillance, and environmental monitoring, this technology improves the calculation of collision prevention values by accounting for both user control inputs and UAV velocity.
This invention was developed with support from the Ministry of Science and ICT for smart convergence technology for active defense systems in urban UAV safety management.
This technology features a washbasin body equipped with a basin, a drain, and handle attachment slots that connects to a fixed terminal on a shower support bar, allowing users to adjust the height as needed or detach it when not in use.
In conventional shower stalls or bathrooms, users must bend over to wash their hair or face, which poses difficulties for patients recovering from back surgery, the elderly, pregnant women, and children.
By allowing the washbasin to be attached to the shower support bar's fixed terminal for height adjustment and easy removal, this technology enables users with limited mobility to wash comfortably in hospitals, nursing facilities, and home bathrooms.
