NDPipe: Exploiting Near-data Processing for Sca... Kim, Jungwoo ;  Oh, Seonggyun ;  Kung, Jaeha ;  Kim, Yeseong ;  Lee, Sungjin

This paper proposes a novel photo storage system called NDPipe, which accelerates the performance...

A Proof of Concept: Optimized Jawbone-Reduction... Kim, Jinmin ;  Jeung, Deokgi ;  Cho, Ranyeong ;  Yang, Byoungeun ;  Hong, Jaesung

Previous research on computer-assisted jawbone reduction for mandibular fracture surgery has only...

Towards Forward-Only Learning for Hyperdimensio... Lee, Hyunsei ;  Kwon, HyukJun ;  Kim, Jiseung ;  Kim, Seohyun ;  Imani, Mohsen ;  et al

Hyperdimensional (HD) Computing is a lightweight representation system that symbolizes data as hi...

Intelligent Bladder Volume Monitoring for Weara... Lee, Kyungsu ;  Lee, Moonhwan ;  Kang, Dongho ;  Kim, Sewoong ;  Chang, Jin Ho ;  et al

Accurate and continuous bladder volume monitoring is crucial for managing urinary dysfunctions. W...

Development of New Protection Tech that Doubles the Lifespan of Next-Generation Li-S Batteries!

- DGIST Prof. Lee Hongkyung, LG ENERGY SOLUTION, and Yonsei Univ. Prof. Lee Yong-min collaboratively develop a protective film for lithium metal cathodes to improve the lifespan of Li-S batteries - Unlike conventional methods, the film prevents the initial protective layer from peeling off, which is expected to lengthen the operation time of Li-S batteries

Precise package delivery in cells? Successful observation of endosome behavior provides new clues for disease treatment

- DGIST Professor Seo Dae-ha’s team has developed a methodology that combines nanoparticles, high-resolution microscopy, and analytical algorithms to observe intracellular cargo transport strategies. - They observed the three-dimensional movement of endosomes during intracellular transport and discovered the real-time strategy of cells for efficient transport. - The research findings were published in Advanced Science.

Dopamine Physiology in the Brain Unveiled through Cutting-Edge Brain Engineering!

- DGIST Prof. Lee Kwang and team propose new neural law of dopamine that differs from existing theory - Developed original technology that simultaneously monitors electrical and chemical brain signals, redefining the correlation between changes in dopamine signaling within physiological range and neural signal processing in the brain - Findings are published in Nature Neuroscience