Jaeseung Jeong

Decision Neuroscience Laboratory (Principal investigator: Jaeseung Jeong, Ph.D) aims at discovering fundamental principles underlying decision processes of the brain and at ultimately understanding human minds. We use neuroimaging tools including the EEG and fMRI and utilize advanced analysis methods, such as nonlinear brain dynamics, complex network theory, Bayesian inference and machine learning techniques, to explore brain dynamics of decision-making. Behavioral economics paradigm has been used to examine the economic and social decision-making in humans. Based on this complex brain dynamics of decision, we clinically investigate psychiatric disorders (depression, suicide, addiction, autism etc.) and neurological disorders (Alzheimer's disease, Parkinson's disease, stroke etc.) in the frame of computational psuchiatry and apply to brain-robot interface and brain-inspired artificial intelligence within brain engineering.

Daesoo Kim

We utilize various neural manipulation and recording techniques such as optogenetics and calcium imaging to identify the function of neural circuits. Our behavioral analytics platform, developed using computer vision, allows us to analyze effects of drugs and neural manipulation on behavior in detail.

Se-Bum Paik

We perform research using tools from computational and theoretical neuroscience, to comprehend a wide range of topics including the origin and development of cognitive intelligence in both biological and artificial neural networks, the principles of evolution and the behavioral diversity of individuals in multi-agent systems, and many more.

Sang Wan Lee

Our lab uses machine learning theory and algorithms to understand "how" the brain thinks (Brain↦AI) and "why" the brain implements such computations (AI↦Brain).

Jeong-tae Kwon

We study about the principles of neural circuits and neuromodulators responsible for sociality and emotions.

Seungwoo Lee

The BINP Lab at KAIST develops novel brain interfaces and neural prosthetic technologies that can help diagnose and treat a wide range of neurological and cognitive disorders.

Minee-Liane Choi

The Brain Repair Lab at KAIST specializes in the use of human-induced pluripotent stem cells (hiPSCs) obtained from individuals with neurodegenerative diseases. The primary objectives of this laboratory arefirstly, to gain insights into the underlying causes of different neurodegenerative disorders for therapeutics, and secondly, to create an AI-driven platform for personalizing drug and therapeutic solutions to meet the specific needs of individual patients.

Tae-In Kam

The Brain and Integrated Neurodegenerative disease (BRaIN) Laboratory focuses on the neuronal and non-neuronal (neuroinflammation) mechanisms of the pathogenesis of neurological disorders. We attempt to understand events in the brains of those with neurodegenerative diseases such as Alzheimer's and Parkinson's disease using a variety of research techniques, including high-throughput screening, molecular and cellular biology, human stem cells, and preclinical animal models. The overarching goal of the research is to understand death and survival mechanisms in order to identify novel targets that are essential for the pathogenesis of neurodegenerative diseases and for developing disease-modifying therapies.

Hyeongdong Park

We investigate interactions between the brain and body (e.g., heart, lung, stomach) and their functional roles in conscious experiences (e.g., perception, self-consciousness, voluntary action, emotion, and meditation), and other cognitive processes. For this, we are mainly using neuroscientific (e.g., EEG, MEG, intracranial EEG), engineering (e.g., virtual reality, robotics) and neurophilosophical approaches.

Soo Hyun Park

The Visual Neurodynamics Lab studies how the neurons in the primate visual system enable us to interact with the physical and social world.

Yeongjun Lee

The Soft NeuroElectronics Lab studies next-generation neural interfaces, low-power neuroprosthetics, and flexible/stretchable bioelectronics based on soft electronic materials and neuromorphic engineering.

Staci Jakyong Kim

At KAIST, Dr. Kim leads a dynamic research laboratory dedicated to unraveling the intricate relationship between genetics, neuroplasticity, and sleep behavior. The sleep genetics research lab focuses on understanding how changes in gene expression affect sleep-wake patterns and cognitive functions. Using animal models of sleep disorders, we aim to identify the "switches" in transitioning from wakefulness to sleep. We combine multiomics approach with advanced imaging and behavioral analyses to uncover the mechanisms underlying the onset and maintenance of sleep. Ultimately, we seek to establish the neuroscience behind questions such as 'Why do we sleep?' 'Why do we need to sleep?' and 'What makes us fall asleep?' This will lead to development of better diagnostic tools and personalize treatment method for sleep disorders and associated conditions.

Jae-Hyun Yang

We are on a quest to decode and reverse brain aging, aiming to understand its underlying causes and pioneer reprogramming strategies that safely rejuvenate the brain.

Dae Wook Kim

With the acceleration of digital technology development in the Fourth Industrial Revolution, large amounts of data are generated and collected daily. However, most of this data is unstructured or noisy, making it difficult to extract useful information. This issue is particularly prominent in the fields of life sciences and medicine, with increasing interest in the utilization of biometric time-series data collected from wearable devices. Our research team is working on developing personalized digital medical solutions by applying mathematical and statistical methodologies and artificial intelligence in the fields of computational neuroscience, computational psychiatry, and digital medicine.

Sung Ik Cho

Recently, the field of genome editing has gained significant attention from both the scientific community and the industry. Genome editing has attracted considerable interest due to its potential to offer solutions to virtually all diseases. The fact that this field has led to a Nobel Prize in just eight years and an FDA-approved drug in eleven years exemplifies this rapid progress. Our lab's goal is to challenge new biological discoveries in this innovative field. We aim to develop novel editing technologies, propose new paradigms, and ultimately create therapies and technologies that contribute to society. Through these efforts, we strive to expand the boundaries of knowledge and make a positive impact on the world.

Jihun Lee

The Neuro-Electronic Prosthetics Lab designs integrated circuits for neural sensors and stimulators and conducts research on next-generation brain-machine interfaces and neuroprosthetic devices capable of revealing the complex mechanisms of brain function.

Byeongwook Lee

By integrating cognitive, systems neuroscience, and computational models with advanced functional neuroimaging techniques, our lab investigates dynamic connectivity-based mechanisms underlying cognitive resilience and decline in aging and neurodegenerative diseases. Our ultimate goal is to advance fundamental understanding of the human brain, provide insights into healthy aging, and drive applications in artificial intelligence.