Recent Publications

• 1. Nam JH
  2. Grant JW
  3. Rowe MH
  4. Peterson EH
  Multi-scale modeling of mechanotransduction in the utricle.; Journal of neurophysiology. 2019 Apr 17.
• 1. Zhou W
  2. Nam JH
  Probing hair cell's mechano-transduction using two-tone suppression measurements.; Scientific reports; Vol 9(1). 2019 Mar 15.
• 1. Prodanovic S
  2. Gracewski SM
  3. Nam JH
  Power Dissipation in the Cochlea Can Enhance Frequency Selectivity.; Biophysical journal. 2019 Mar 01.
• 1. Fettiplace R
  2. Nam JH
  Tonotopy in calcium homeostasis and vulnerability of cochlear hair cells.; Hearing research. 2018 Nov 16.
• 1. Marnell D
  2. Jabeen T
  3. Nam JH
  Hydrostatic measurement and finite element simulation of the compliance of the organ of Corti complex.; The Journal of the Acoustical Society of America; Vol 143(2). 2018 Feb.
• 1. Nam JH
  An operating principle of the turtle utricle to detect wide dynamic range.; Hearing research. 2017 Oct 09.
• 1. Liu Y
  2. Gracewski SM
  3. Nam JH
  Two passive mechanical conditions modulate power generation by the outer hair cells.; PLoS computational biology; Vol 13(9). 2017 Sep.
• 1. Nam JH
  2. Peng AW
  3. Ricci AJ
  Underestimated sensitivity of mammalian cochlear hair cells due to splay between stereociliary columns.; Biophysical journal; Vol 108(11). 2015 Jun 02.
• 1. Cormack J
  2. Liu Y
  3. Nam JH
  4. Gracewski SM
  Two-compartment passive frequency domain cochlea model allowing independent fluid coupling to the tectorial and basilar membranes.; The Journal of the Acoustical Society of America; Vol 137(3). 2015 Mar.
• 1. Prodanovic S
  2. Gracewski S
  3. Nam JH
  Power dissipation in the subtectorial space of the mammalian cochlea is modulated by inner hair cell stereocilia.; Biophysical journal; Vol 108(3). 2015 Feb 03.
• 1. Liu Y
  2. Gracewski SM
  3. Nam JH
  Consequences of Location-Dependent Organ of Corti Micro-Mechanics.; PloS one; Vol 10(8). 2015.
• 1. Nam JH
  Microstructures in the organ of Corti help outer hair cells form traveling waves along the cochlear coil.; Biophysical journal; Vol 106(11). 2014 Jun 03.
• 1. Nam JH
  2. Fettiplace R
  Optimal electrical properties of outer hair cells ensure cochlear amplification.; PloS one; Vol 7(11). 2012.
• 1. Beurg M
  2. Nam JH
  3. Chen Q
  4. Fettiplace R
  Calcium balance and mechanotransduction in rat cochlear hair cells.; Journal of neurophysiology; Vol 104(1). 2010 Jul.
• 1. Nam JH
  2. Fettiplace R
  Force transmission in the organ of Corti micromachine.; Biophysical journal; Vol 98(12). 2010 Jun 16.
• 1. Beurg M
  2. Fettiplace R
  3. Nam JH
  4. Ricci AJ
  Localization of inner hair cell mechanotransducer channels using high-speed calcium imaging.; Nature neuroscience; Vol 12(5). 2009 May.
• 1. Nam JH
  2. Fettiplace R
  Theoretical conditions for high-frequency hair bundle oscillations in auditory hair cells.; Biophysical journal; Vol 95(10). 2008 Nov 15.
• 1. Beurg M
  2. Nam JH
  3. Crawford A
  4. Fettiplace R
  The actions of calcium on hair bundle mechanics in mammalian cochlear hair cells.; Biophysical journal; Vol 94(7). 2008 Apr 01.
• 1. Nam JH
  2. Cotton JR
  3. Grant W
  A virtual hair cell, I: addition of gating spring theory into a 3-D bundle mechanical model.; Biophysical journal; Vol 92(6). 2007 Mar 15.
• 1. Nam JH
  2. Cotton JR
  3. Grant W
  A virtual hair cell, II: evaluation of mechanoelectric transduction parameters.; Biophysical journal; Vol 92(6). 2007 Mar 15.
• 1. Nam JH
  2. Cotton JR
  3. Peterson EH
  4. Grant W
  Mechanical properties and consequences of stereocilia and extracellular links in vestibular hair bundles.; Biophysical journal; Vol 90(8). 2006 Apr 15.
• 1. Nam JH
  2. Cotton JR
  3. Grant JW
  Effect of fluid forcing on vestibular hair bundles.; Journal of vestibular research : equilibrium & orientation; Vol 15(5-6). 2005.
• 1. Silber J
  2. Cotton J
  3. Nam JH
  4. Peterson EH
  5. Grant W
  Computational models of hair cell bundle mechanics: III. 3-D utricular bundles.; Hearing research; Vol 197(1-2). 2004 Nov.