Sk on Co., Ltd.

Korea Institute of Machinery & Materials

Center for Advanced Meta-materials

Lg Chem, Ltd

Smart Power Solutions, Inc.

Lg Energy Solution, Ltd.

Sang Min Kim

Jae-Hyun Kim

Hak Joo Lee

Bongkyun Jang

Kwangseop Kim

Yun Hwangbo

Dong Whan Shin

Chang Hyun Kim

Jae Hyun Kim

Jung Yup Kim

Yong Hee Kang

Kwang Seop Kim

Byung-Ik Choi

Se Jeong Won

Hyun Soo Park

Kyung-Sik Kim

Sejeong Won

Jae Gu Kim

Young Jun Lee

Hyo Nam Kim

Jong Joo Min

Hyun June Kim

Euiseok Sa

Hyeon-Don Kim

Dae Young Youn

Yong Jung Kim

Sung Uk Yoon

Jae Pil Lee

An embodiment of the present invention provides an element transferring method that may increase a yield of transferring an element, and an electronic panel manufacturing method using the same. The element transferring method includes: preparing a carrier film in which a first surface of an element on which a terminal is formed is adhered to an adhesive surface; providing a cover adhesive layer on the adhesive surface so that the second surface of the element that is opposite to the first surface and where the terminal is not formed is covered; transferring the element to the target substrate by adhering the cover adhesive layer to the target substrate while the second surface is facing the target substrate; and separating the carrier film from the element, wherein in transferring the element, the carrier film is pressed so that the surface of the cover adhesive layer is flat at the same height as the terminal.

Element transferring method and electronic panel manufacturing method using the same

A carrier substrate includes a base layer, an antireflection layer, and an energy absorption layer, wherein the antireflection layer is formed on one surface of the base layer and allows an elastic wave generated by a first laser beam transmitted through an element adhesively bonded to the antireflection layer to be transmitted through the base layer without being reflected towards the element, the first laser beam being applied to the element through a source substrate of the element, and the energy absorption layer is formed between the base layer and the antireflection layer to be aligned with the element, and evaporates upon energy absorption.

Carrier substrate and element transfer method using the same

The present invention relates to a battery cell of a secondary battery, and more particularly, to a battery cell inspection device and system for deciding whether a battery cell is good or bad based on a bent degree of a bend formed on one side surface of the battery cell.

Battery cell inspection device and battery cell inspection system including the same

Provided is a tape inspection device. The tape inspection device according to the present invention includes: a vision unit for acquiring imaging information by imaging a tape attached to an outer wall of a secondary battery in order to fix a folding portion of the secondary battery; a light reflection unit disposed to be spaced apart from the secondary battery and reflecting light; and an optical path compensation unit disposed between the vision unit and the light reflection unit and compensating for an optical path between the tape and the vision unit.

Tape inspection device and secondary battery manufacturing system having the same

An exemplary embodiment of the present invention provides a method of transferring a micro device. The method of transferring the micro device includes: separating a transferring film from a micro device transferred to a target substrate and bending the transferring film upwardly to form a bent circular arc, and pressurizing an upper transferring film fed after the bent circular arc is formed by a pressurizing roller rotating at an upper side of the target substrate.

Method and apparatus for transferring micro device, and electronic product using the same

Disclosed is a gravure coating apparatus including: two frames; a first support shaft which is installed between the two frames; a rotary spline which is installed between the two frames and in parallel with the first support shaft; and multiple gravure roller modules which are installed to be fitted with the first support shaft and the rotary spline; in which the multiple gravure roller modules receive rotational force from the rotary spline and move independently along the first support shaft.

Gravure coating apparatus

A switching mode power supply (SNIPS) includes a rectifying unit transforming AC power input from outside to DC power, a main transformer transforming and outputting the rectified DC power, a pulse width modulation control unit controlling output voltage by applying a pulse signal to a primary winding of the main transformer, and a feedback control unit controlling an output signal of the pulse width modulation control unit by detecting output voltage of the main transformer, including: a first state transform unit, including: a second photo diode; and a second photo transistor included between an AC power input unit and the pulse width modulation control unit to form a photo coupler with the second photo diode, and a second state transform unit, including: a comparator connected to a secondary winding of the main transformer to apply the output voltage and reference voltage to an inverting terminal and a noninverting terminal, and compare the output voltage with the reference voltage and output the voltage through an output terminal.

Switching mode power supply for reducing power consumption in a waiting mode

Growing community of inventors

Daejeon, South Korea

Sang Min Kim