Lg Electronics Inc.

The Asan Foundation

Samsung Display Co., Ltd.

University of Ulsan Foundation for Industry Cooperation

Samsung Electronics Co., Ltd.

Korea Advanced Institute of Science and Technology

Seoul National University

Ewha University-Industry Collaboration Foundation

Other

Yonsei University

Cj Cheiljedang Corporation

Kyungpook National University Industry-Academic Cooperation Foundation

National Cancer Center

Korea Institute of Radiological & Medical Sciences

The Industry & Academic Cooperation in Chungnam National University

Sang Wook Lee

Su Hwan Lim

In Kwon Seo

Man Young Jung

In Jae Jung

Tae Hee Lee

Sang Ho Kim

Jong Won Lee

Seung-hoon Han

Jae-Jin Song

Dae Cheol Kim

Heon Sik Ha

Joon Kui Ahn

Bong Hoe Kim

Dong Won Kim

Tae Hyun Kim

Jong Jin Park

Sang Chul Lee

Ki-Hun Jeong

Young Goo Song

Jung Suk Bang

Jang Seok Lee

Dong Wook Kim

Sang Il Park

Jin Hee Jang

Jin Ha Kim

Sung-Jun Kim

Kwang Hyun Kim

Chang Hee Lee

Sang Wol Lee

Kyung Tae Chae

Ho-Jun Lee

Gyung Min Baek

Sung-Ryul Kim

Joon Yong Park

Dong Min Lee

Chang Oh Jeong

Jung-Suk Bang

Man Sik Myeong

Seung Seob Lee

Seung Kook Park

Younggoo Song

Jung Won Kwak

Yoon Oh Yang

Byung Chul Cho

Seung Do Ahn

Gui Won Seo

Chang Won Kim

Seung Soo Baek

Woong Kwon Kim

Dong Ik Lee

Guk Bae Kim

Nam-Heon Kim

Sung Ryul Kim

Kyoung Jun Yoon

Young Woong Kim

Beom Seok Ko

Nurihyun Jung

Young Goo Park

Sei Hyun Ahn

Jae Beom Bae

Hea Chun Lee

Ki Hun Jeong

Dong Hoon Shin

Chang Ok Kim

Kug Sun Hong

Jun Hong Noh

Kwang Ha Suh

Nam Kug Kim

Sang Kil Lee

Se Yoon Oh

Hyeok Kim

Young Kyung Lim

Namkug Kim

Sang Eon Lee

Min Young Park

Kyoung Sik Jo

Seungryong Cho

Chung Hwan Lee

Joon Pio Hong

Ui Jung Hwang

Jin Hwan Lee

Jae Jin Song

Won Sik Choi

Changhwan Kim

Kang Won Lee

Taeyoon Lee

Moon Chang Choi

Jeom Yul Yun

Chin Moo Cho

Ka Young Lee

Jeong Joo Kim

Sang Hyoun Choi

Seong Soo Shin

Changsoo Je

Sang Hyub Kim

Ja Hoon Koo

Gu Hoan Cha

A quantum dot light emitting diode according to various embodiments of the present disclosure includes a first electrode and a second electrode that are opposite to each other; a light emitting layer that is located between the first electrode and the second electrode and includes a quantum dot; and an electron transport layer that is arranged between the first electrode and the light emitting layer and includes a metal oxide thin film, wherein the metal oxide thin film has a composition including at least one selected from the group consisting of InO, ZnO, SiOand SnO.

Light-emitting diode and method for producing same

The present invention relates to a method, a device, and a program for calculating a brachytherapy plan, and a brachytherapy apparatus. The method comprises: a step in which a computer obtains the number of radiation irradiation spots on the basis of radiation irradiation information (a radiation irradiation spot number obtaining step (S)); a step in which the computer obtains target area information from a body model of a patient generated on the basis of medical image data of the patient (a target area information obtaining step (S)); and a therapy plan calculating step (S) in which the computer calculates, on the basis of the radiation irradiation information and the target area information, the radiation irradiation spots to which radiation is irradiated and the time length of irradiation to each radiation irradiation spot.

Method, device, and program for calculating brachytherapy plan, and brachytherapy apparatus

A method for manufacturing an implant for implantation into a human body, includes preparing a mold having an inner space part so as to have an inner shape corresponding to a defective portion in a human body; injecting silicone foam into the space part of the mold; curing the silicone foam while applying pressure to same; and removing the mold.

Implant for implantation into human body and manufacturing method thereof

A display device, including a content receiving unit configured to receive a high dynamic range image, an image processing unit configured to detect a first region whose luminance value is equal to or greater than a reference luminance value within the high dynamic range image and perform tone mapping on an image of the first region based on feature information of the image of the first region, and a display unit configured to display a low dynamic range image on which the tone mapping is performed.

Display device and method of controlling the same

The present invention relates to a customized surgical guide device and a customized surgical guide generating method and program. A customized surgical guide generating method comprises the steps of: acquiring body surface data and treatment area data from medical image data by a computer; a first shape data generating step, wherein the first shape data is data which corresponds to the shape of the body part cover; a target point setting step of setting one or more target points; setting individual first points on the body surface accessible to the target point with a medical tool; setting a guide tube length on the basis of a distance from the first point to the target point; and generating final shape data in which one or more guide tubes are combined to the first shape data by applying the guide tube length to the first point.

Customized surgical guide and customized surgical guide generating method and generating program

A method of manufacturing an electronic device is provided to realize efficient large-scale transferring. The method includes locating a transfer film over a plurality of functional layers separated from each other over a source substrate; attaching a support frame to the transfer film, the support frame having a plurality of holes spaced apart from each other; removing the source substrate from the transfer film, with the plurality of functional layers being in close contact with a bottom surface of the transfer film; locating the transfer film over a target substrate, with the plurality of functional layers being in close contact with the bottom surface of the transfer film; detaching the support frame from the transfer film; and removing the transfer film from the target substrate.

Method of manufacturing electronic device using large-scale transferring method

Provided are a method for manufacturing an electronic device capable of efficiently utilizing a material and a method for removing impurities using the same. The method for manufacturing an electronic device comprises the steps of: placing a transfer film on a plurality of functional layers which are positioned apart from each other on a source substrate; bringing a first transfer target into close contact with the lower surface of the transfer film by applying pressure to a portion of the transfer film that corresponds to the first transfer target from among the plurality of functional layers by using a probe; separating the transfer film from the source substrate in a state in which the first transfer target is in close contact with the lower surface; placing the transfer film on a target substrate in the state in which the first transfer target is in close contact with the lower surface; placing the first transfer target on the target substrate by applying pressure to a portion of the transfer film that corresponds to the first transfer target; and separating the transfer film from the target substrate in a state in which the first transfer target is positioned on the target surface.

Method for manufacturing electronic device and method for removing impurity using same

A display device includes a light-emitting element, a thin film encapsulation layer disposed on the light-emitting element, a protection layer disposed on the thin film encapsulation layer, a first sensing electrode disposed on the protection layer, an insulating layer disposed on the first sensing electrode, and a second sensing electrode disposed on the insulating layer, in which at least one of the thin film encapsulation layer and the insulating layer has a multi-layer structure including first and second alternating layers forming at least three layers, and the first layer includes a first material having a first refractive index and the second layer includes a second material having a second refractive index different from the first refractive index.

Display device

A method of reducing an artifact by using structural similarity. The method includes at least: obtaining a plurality of input Computed Tomography (CT) images including a first CT image and a second CT image, generating an artifact map in which anatomical information is removed and artifacts information is remained, by subtracting the second. CT image from the first CT image, generating, by the computer, a structural similarity map between each CT image and the artifact map, and generating, by the computer, a final reconstructed image by comparing particular parts on images of a plurality of structural similarity maps with each other and selecting data of an input CT image which has been used to generate a particular part of a structural similarity map having a lowest degree of structural similarity, as data of a particular part on the final reconstructed image.

Method and program for reducing artifacts by structural similarity, and medial imaging device

Disclosed are a radiotherapy assistant apparatus for modulating a build-up region of a photon beam for a radiotherapy, a radiotherapy system including the radiotherapy assistant apparatus, and method for the radiotherapy system. The radiotherapy assistant apparatus for modulating a build-up region of a photon beam for a radiotherapy, including at least: a magnetic field generator that generates a magnetic field that has a direction perpendicular to a movement direction of the photon beam, the magnetic field generator is disposed on a movement route along which the photon beam moves toward a target portion of the radiotherapy; and a magnetic field intensity adjuster that adjusts an intensity of the magnetic field generated by the magnetic field generator. The magnetic field generator disperses secondary electrons that have particular energy levels equal to or lower than a preset value.

Radiotherapy assistant apparatus for modulating build-up region of photon beam, radiotherapy system and method therefor

Disclosed is a tumor surface dose enhancing radiotherapy apparatus using a magnetic field, including a radiation beam generating unit that irradiates a radiation beam towards a tumor of a patient, a magnetic field generating unit that forms a magnetic field that is parallel to the radiation beam between the radiation beam generating unit and the tumor of the patient, and a control unit that controls a surface dose of the tumor by adjusting an intensity and an effective area of the magnetic field of the magnetic field generating unit.

Tumor surface dose enhancing radiotherapy apparatus using magnetic field

A method of manufacturing a display device, including: providing a display element layer on a substrate; forming a thin film encapsulation layer covering the display element layer; aging the thin film encapsulation layer by using a light source emitting artificial sunlight; and forming a window on the aged thin film encapsulation layer.

Manufacturing method of display device and thin-film deposition apparatus using the same

An apparatus for supporting a display panel includes: first and second supports configured to support the display panel, the first and second supports being rotatable about a rotation axis; a first frame coupled to a side of the first support and configured to be rotated with the first support; and a second frame coupled to a side of the second support and configured to be rotated with the second support, wherein the first support includes a first supporting pin having ends coupled to the first frame and being parallel to the rotation axis, and first and second support plates at opposite sides of the first supporting pin, wherein the first supporting plate is pivotably coupled to the first supporting pin.

Apparatus for supporting display panel

Growing community of inventors

Seoul, South Korea

Sang Wook Lee