本色视频

Dr. Seung-Jae Kim received his B.S. and M.S degrees in Mechanical engineering from Han-Yang University, and Pohang University of Science & Technology, Korea,
respectively. He then received his M.S. and Ph.D. degrees in Bioengineering from the University of Utah, Salt Lake City, Utah.

In the fall of 2011, Dr. Kim joined the College of Engineering at 本色视频. Prior to this, from 2006-2011, he worked as a post-doctoral research fellow conducting multiple research projects in the fields of biomechanics and neural engineering at the Newman Laboratory for Biomechanics and Human Rehabilitation at the Massachusetts Institute of Technology and the Center for Adaptive Neural Systems at Arizona State University.

Dr. Kim has extensive experience in the field of biomedical research, especially in the areas of neural prostheses, biomechanics, and rehabilitation research. Inspired by his hemophiliac brother, Dr. Kim鈥檚 interest in assistive technologies also led him to conduct several studies where nerve stimulation and neural recording techniques were employed in attempts to regain sensorimotor functions. His recent research focuses on developing better forms of rehabilitative gait training by employing visual feedback technologies (for more details on Dr. Kim鈥檚 research topic, visit http://biokimcom.g3.cc/BioKimLab/BKL_Home.html) .

He also has a strong interest in education. He worked as a consultant at colleges in the Philippines as he organized and expanded the curriculum of the Department of Mechanical Engineering. He also has had many years of consulting experience with the exhibit development teams at the Utah Science Center, a program providing education and skills to both students and adults in science, engineering, and mathematics.

He is married and they have two sons. He enjoys playing tennis, reading, and writing essays.

B.S., Mechanical Engineering, Han-Yang University (in Korea), 1993

EGR344 Dynamics
EGR305 Engineering Statistics
EGR261/262 Fundamental of Bioengineering-I & II
EGR361 Biomechanics and Human Rehabilitation
EGR367 Machine Learning for Bioengineering
EGR464 Neural Engineering

Biomechanics
Neural Engineering
Rehabilitation Engineering

2.5 years at Cebu College and Bicol University in Philippines

[Research Lab Web] https:/bit.ly/biokimlab

From 2006-2011, Dr. Kim worked as a post-doctoral research fellow conducting multiple research projects in the fields of neuro-rehabilitation engineering and biomechanics at the Center for Adaptive Neural Systems at Arizona State University and the Newman Laboratory for Biomechanics and Human Rehabilitation at the Massachusetts Institute of Technology.
Dr. Kim has extensive experience in the field of biomedical research, especially in the areas of neural prostheses, biomechanics, and rehabilitation research. His recent research focuses on developing better forms of rehabilitative gait training by employing combinational strategies that include robot-assisted, functional electrical stimulation, and visual feedback technologies. Inspired by his hemophiliac brother, Dr. Kim鈥檚 interest in assistive technologies also led him to conducting several studies where nerve stimulation and neural recording techniques were employed to regain sensorimotor functions. The long-term goals of his research are to understand and improve rehabilitation therapy and to develop assistive devices that help people with disabilities to regain their lost functions.

a. PEER-REVIEWED JOURNAL PUBLICATIONS:
19. SJ Kim, O. Save, A. Marquez, HL Lee, 鈥淕ait Symmetric Adaptation and Retention through Concurrent Split-Belt Treadmill Walking and Explicit Visual Feedback Distortion鈥�, IEEE TBME (under review), 2024
18. Kim S-J, Worthy A, Lee B, Jafari S, Dyke O, Cho J, et al. (2024) "Adapting spatiotemporal gait symmetry to functional electrical stimulation during treadmill walking", PLoS ONE 19(10): e0312285. https://doi.org/10.1371/journal.pone.0312285
17. SJ Kim, S. Howsden, N. Bartels, H. Lee, "Concurrent Locomotor Adaptation and Retention to Visual and Split-Belt Perturbations", PLOS ONE, Dec. 2022;17(2)e0279585
16. J. Pontius, SJ Kim (2021), "Alignment-Free Joint Angles Measurement Using Virtual Reference Coordinate System", Int. J Foot Ankle, 5:060. doi.org/10.23937/2643-3885/1710060
15. Pranathi C., SJ Kim* (corresponding), Hyunglae L., "Gait Symmetric Adaptation: Comparing effects of Implicit Visual Distortion Versus Split-belt Treadmill on Retention of Adapted Step Length Symmetry", Human Movement Science, 2019 (6)
14. Kailey N., Eva M, Alex L., Jessica P., SJ Kim, "'Effects of Periodic Sensory Perturbations during Electrical Stimulation on Gait Cycle", PLOS ONE, 2018
13. Maestas G, Hu J, Trevino J, Chunduru P, Kim S-J* (Corresponding) and Lee H, "Walking Speed Influences the Effects of Implicit Visual Feedback Distortion on Modulation of Gait Symmetry", Front. Hum. Neurosci. 12:114. doi: 10.3389/fnhum.2018.00114, March, 2018
12. Carlos Tobar, Eva Martinez, Nada Rhouni, Seung-Jae Kim, "The effects of visual feedback distortion with unilateral leg loading on gait symmetry", Annals of Biomedical Engineering, 46(2), 323-333, 2017
11. Kim SJ, Kayitesi M, Chan A, Graham K, 鈥淓ffects of Absence of Visual Feedback on Gait Pattern鈥�, Applied Psychophysiology and Biofeedback , DOI: 10.1007/s10484-017-9358-0, March 2017.
10. Muqatach R, Kim SJ, 鈥淭he Effects of Visual Feedback on Treadmill Walking Speed鈥�, 2016, International Journal of Physical Medicine & Rehabilitation
9. Kim SJ, Ogilvie M, Shimabukuro N, Stewart T, Shin JH, "Effects of Visual Feedback Distortion on Gait Adaptation: Comparison of Implicit Visual Distortion vs. Conscious Modulation on Retention of Motor Learning鈥�, 2015 Apr 8., IEEE Transactions on Biomedical Engineering.
8. Kim SJ, Manzi D, "Effects of explicit visual feedback distortion on human gait鈥�, Journal of NeuroEngineering and Rehabilitation 2014 Apr 28; 11(1):74
7. SJ Kim, HI Krebs, 鈥淓ffects of implicit visual feedback distortion on human gait鈥�, Experimental Brain Research, 2012, 218:495-502
6. M Fairchild, SJ Kim, A Iarkov, JJ Abbas, R Jung, 鈥淩epetitive hindlimb movement using intermittent adaptive neuromuscular electrical stimulation in an incomplete spinal cord injury rodent model鈥�, Experimental Neurology, 2010 Jun;223(2):623-33.
5. Kim SJ, Mallika F., Alexandre I., James A., Ranu J., 鈥淎daptive control for functional neuromuscular stimulation movement therapy鈥�, IEEE Trans Biomed Eng. 2009 Feb; 56(2):452-61.
4. Kim SJ, Badi AN, Normann RA, 鈥淣euronal Responses in Cat Primary Auditory Cortex to Direct Intraneural Auditory Nerve Stimulation鈥�, Laryngoscope. 2007 Jun;117(6):1053-62.
3. Kim SJ, Manyam S, Warren D, Normann RA, 鈥淓lectrophysiological Mapping of Cat in Primary Auditory Cortex with Microelectrode Arrays鈥�, Ann Biomed Eng. 2006 Feb;34(2):300-9. Epub 2006 Feb 16.
2. Seung-Jae Kim, Hwasoon Choi, Yougil Youm, 鈥淒evelopment of strategies for myoelectric prosthetic control鈥�, J. Biomed. Eng. 2005; Res. Vol.26, No. 243-249.
1. D'astous JL, Macwilliams BA, Kim SJ, Bachus KN, 鈥淪uperficial Versus Deep Transfer of the Posterior Tibialis Tendon鈥�, J Pediatr Orthop. 2005 March/April; 25(2):245-248.

b. PEER-REVIEWED CONFERENCES AND ABSTRACTS:
29. Setareh J., Olivia D., Jeonghee C., SJ Kim, 鈥淭emporal gait symmetry during treadmill walking in response to electrical stimulation鈥�, Soc. Neurosci., Chicago, Oct. 2024
28. SJ Kim, Alex W., Brandom L., 鈥淕ait symmetric adaptation to functional electrical stimulation during treadmill walking (II)鈥�, BMES, Seattle, WA., Oct. 2023.
27. SJ Kim, Bradley P., Mohammed M., Elijah B., 鈥淕ait symmetric adaptation and retention to functional electrical stimulation during treadmill walking (I)鈥�, BMES, Oct. 2022.
26. S. HOWSDEN, N. BARTELS, S.-J. KIM, 鈥淐oncurrent gait adaptation to visual and split-belt perturbations鈥�, Soc. of Neuroscience, Chicago, Nov. 2021.
25. Andrew Z., Maleah G., SJ Kim, 鈥淎 Locomotor Adaptation Using Visual Feedback Distortion: Role of Explicit and Implicit Action鈥�, BMES, Oct. 2020.
24. Eva N., Peter H., Naim L., SJ Kim, "Effects of feedback distortion on visuomotor adaptation with gait", Soc Neurosci. Abs., San Diego, Nov 2018
23. Pranathi C., SJ Kim, Hyunglae L., 鈥淟ocomotor adaptation on implicit visual feedback distortion and split-belt treadmill鈥�, BMES, Phoenix, AZ, Oct. 2017
22. Kailey N., SJ KIM, 鈥淭he effects of ankle perturbation with FES on gait cadence鈥�, BMES, Phoenix, AZ. Oct. 2017
21. Eva M., Carlos T., SJ KIM, 鈥淭he Effects of visual feedback with unilateral leg loading on gait symmetry鈥�, BMES, Phoenix, AZ, Oct. 2017
20. G. Maestas, P. Chunduru, SJ Kim, H Lee, 鈥淭he Effect of Visual Distortion on Human Gait Parameters鈥�, BMES, Minneapolis, MN, Oct. 2016
19. SJ Kim, 鈥淔unctional Electrical Stimulation Laboratory for Introductory Courses in Biomedical Engineering鈥�, BMES, Minneapolis, MN, Oct. 2016
18. Ruthie Muqatach, SJ Kim, 鈥淭he Effects of visual feedback on treadmill walking speed鈥�, SCCUR, Claremont, Nov. 2015
17. Kimberly Graham, SJ Kim, 鈥淓ffects of partially removed visual feedback on gait symmetry鈥�, Soc. Neurosci. Abs., Chicago, Oct. 2015.
16. SJ Kim, M Ogilvie, N Shimabukuro, T Stewart, 鈥淓ffects of visual feedback distortion on gait speed鈥�, BMES, San Antonio, TX, Oct. 2014.
15. SJ Kim, Joon-Ho Shin, 鈥淓ffects of visual feedback distortion on gait adaptation鈥�, Soc. Neurosci. Abs., 2013.
14. SJ Kim, D Manzi, HI Krebs, 鈥淓ffects of visual feedback distortion on human gait鈥�, Soc. Neurosci. Abs., 2012.
13. SJ Kim, HI Krebs, 鈥淚mplicit Visual Distortion Modulates Human Gait鈥�, 33rd Annual International Conference of the IEEE Engineering in Medicine and Biology Society (EMBS), Massachusetts, Sept, 2011
12. HI Krebs, S Rossi, SJ Kim, PK Artemiadis, D Williams, E Castelli, P Cappa 鈥淧ediatric Anklebot鈥�, International Conference of Rehabilitation Robotics, Zurich, Switzerland, June, 2011
11. SJ Kim, HI Krebs, 鈥淢IT-Skywalker: Preliminary Insights on Performance-Based Locomotor Training鈥�, ASME Dynamic Systems and Control Conference, Boston, Massachusetts, Sept, 2010
10. M Fairchild, JL Burton, SJ Kim, JJ Abbas, R Jung, 鈥淯se of adaptive neuromuscular electrical stimulation for hip movement in an incomplete spinal cord injury rodent model鈥�, Soc. Neurosci. Abs., 2009.
9. Abbas J, Kim SJ, Fairchild M, Allison S, Krishnamurthi N, Jung R, 鈥淥n the Use of Adaptive Control in Stimulation-Assisted Neuromotor Therapy鈥�, International FES Society Conference, German, 2008
8. Andrade J, Kim SJ, Christensen D.A., 鈥淏ioengineering Education via Projects and Activities for an Interactive Science Center: the University of Utah Experience鈥�, 3rd Biomedical Engineering Education Summit Meeting, St. Charles, IL, June, 2008.
7. Kim J, Cho S, Kim SJ, 鈥淧reliminary Studies to Develop a Ubiquitous Computing and Health-monitoring System for Wheelchair Users", BodyNets, Tempe, AZ, March, 2008.
6. Kim SJ, Mukherjee M, Jung R, 鈥淎daptive Control for Neuromuscular Stimulation Therapy in an Intermittent Training Paradigm鈥�, BMES, Los Angeles, CA., Sept, 2007.
5. Kim SJ, Mukherjee M, Jung R, 鈥淎daptive electrical stimulation for rodent locomotion training produces fatigue-resistant responses鈥�, Int. Neurotrauma Symposium, 2007.
4. Kim SJ, Badi AN, Normann RA, 鈥淓lectrophysiological Mapping of Cat Primary Auditory Cortex with Microelectrode Arrays鈥�, Soc. Neurosci. Abs., 2005.
3. Kim SJ, Manyam S, Badi AN, Normann RA, 鈥淣eural Responses in Feline Auditory Cortex to Direct Auditory Nerve Stimulation鈥�, Soc. Neurosci. Abs., 2004.
2. Badi A.N., Kim S. J., Shelton C., Normann R.A., 鈥淓lectrode Independence in a Novel VIII Nerve Auditory Prostheses鈥�. Society for Neuroscience, New Orleans, 2003.
1. Kim SJ, Boninger M, Cooper R, Koontz A, Souza A, 鈥淲heelchair Braking Biomechanics鈥�, Resna Conference, Minneapolis, Minnesota, July, 2002

c. PATENT:
2010, PCT/US/10/31936. 鈥淣eural Enabled Prosthesis-Communication Interface for Sensory Stimulation (NEP-CSS)鈥�. Ranu Jung, Kenneth Horch, James J. Abbas, Stephen Phillips, Bertan Bakkaloglu, Seung-Jae Kim. (April 21, 2009. US provisional patent, M9- 109L).

Corona Thanksgiving Church

Dr. Kim is married to Soyoung and they have two sons, Jaeson and James. Dr. Kim enjoys playing sports, reading books, and writing essays.

鈥淔ind rest, O my soul, in God alone; my hope comes from him -Psalms 62:5鈥�