All Stories

  1. Active control of transverse viscoelastic damping in the tectorial membrane: A second mechanism for traveling-wave amplification?
  2. Contribution of the reticular lamina motion to the traveling wave: a WKB approach
  3. A Quick Introduction to the Phenomenology of Hearing
  4. A Schematic View of the Human Auditory System
  5. Diagnostic Applications of Otoacoustic Emissions
  6. Mathematical Models of the Cochlear Function
  7. Modeling the Generation and Suppression of Otoacoustic Emissions
  8. Optimizing the Diagnostic Power of Otoacoustic Emissions Using Theoretical Cochlear Mechanics
  9. Otoacoustic Emission Measurements
  10. Otoacoustic Emission Signal Analysis
  11. Otoacoustic Estimate of Astronauts’ Intracranial Pressure Changes During Spaceflight
  12. The tonotopic cochlea puzzle: A resonant transmission line with a “non-resonant” response peak
  13. Optimal Scale-Invariant Wavelet Representation and Filtering of Human Otoacoustic Emissions
  14. Hearing dysfunction heralds an increase in non-motor burden and a worse quality of life in Parkinson’s disease: new insights from non-motor spectrum
  15. Maternal exposure to zinc oxide nanoparticles causes cochlear dysfunction in the offspring
  16. Fluid focusing contributes to the BM vibration amplification by boosting the pressure
  17. Enhanced suppression of otoacoustic emissions by contralateral stimulation in Parkinson's disease
  18. Association between hearing sensitivity and dopamine transporter availability in Parkinson’s disease
  19. Long-latency component of stimulus frequency otoacoustic emissions: Relationship to behavioral measures
  20. Crucial 3-D viscous hydrodynamic contributions to the theoretical modeling of the cochlear response
  21. MicroRNA expression is associated with auditory dysfunction in workers exposed to ototoxic solvents and noise
  22. Early Noise-Induced Hearing Loss Accelerates Presbycusis Altering Aging Processes in the Cochlea
  23. Fluid focusing and viscosity allow high gain and stability of the cochlear response
  24. The Elusive Cochlear Filter: Wave Origin of Cochlear Cross-Frequency Masking
  25. Cochlear tuning estimates from level ratio functions of distortion product otoacoustic emissions
  26. Low-passed outer hair cell response and apical-basal transition in a nonlinear transmission-line cochlear model
  27. Styrene targets sensory and neural cochlear function through the crossroad between oxidative stress and inflammation
  28. Does the “Reticular Lamina Nonlinearity” Contribute to the Basal DPOAE Source?
  29. Lateralization of cochlear dysfunction as a specific biomarker of Parkinson’s disease
  30. Laterality of Auditory Dysfunction in Parkinson's Disease
  31. Suppression tuning curves in a two-degrees-of-freedom nonlinear cochlear model
  32. Relationship Between Behavioral and Stimulus Frequency Otoacoustic Emissions Delay-Based Tuning Estimates
  33. Mission Beyond: The Acoustic Diagnostics Experiment on Board the International Space Station
  34. Distortion product otoacoustic emission sensitivity to different solvents in a population of industrial painters
  35. Constraints imposed by zero-crossing invariance on cochlear models with two mechanical degrees of freedom
  36. Is there a risk for the astronauts' hearing in a microgravity environment? The Acoustic Diagnostics experiment on board the ISS
  37. Environmental ototoxicants, a potential new class of chemical stressors
  38. Modeling the dependence of the distortion product otoacoustic emission response on primary frequency ratio
  39. Negative-delay sources in distortion product otoacoustic emissions
  40. Cochlear tuning and DPOAE dependence on the primary tone frequency ratio
  41. Introducing causality violation for improved DPOAE component unmixing
  42. Synergistic effects of noise and hand-arm vibration on distortion product otoacoustic emissions in healthy subjects
  43. Intensimetric detection of distortion product otoacoustic emissions with ear canal calibration
  44. Evidence for apical-basal transition in the delay of the reflection components of otoacoustic emissions
  45. Otoacoustic Emissions as a Promising Diagnostic Tool for the Early Detection of Mild Hearing Impairment - Technical Advances in Acquisition, Analysis and Modeling
  46. PCB exposure and cochlear function at age 6 years
  47. DPOAEs in infants developmentally exposed to PCBs show two differently time spaced exposure sensitive windows
  48. Localization of the Reflection Sources of Stimulus-Frequency Otoacoustic Emissions
  49. Estimating cochlear tuning dependence on stimulus level and frequency from the delay of otoacoustic emissions
  50. Oxidative stress biomarkers and otoacoustic emissions in humans exposed to styrene and noise
  51. Distortion product otoacoustic emission generation mechanisms and their dependence on stimulus level and primary frequency ratio
  52. Decoupling the level dependence of the basilar membrane gain and phase in nonlinear cochlea models
  53. An investigation of hearing impairment in de-novo Parkinson's disease patients: A preliminary study
  54. Environmental exposure to organochlorine pesticides and deficits in cochlear status in children
  55. On the spatial distribution of the reflection sources of different latency components of otoacoustic emissions
  56. DPOAE generation dependence on primary frequencies ratio
  57. On the dependence of the BM gain and phase on the stimulus level
  58. Susceptibility of linear and nonlinear otoacoustic emission components to low-dose styrene exposure
  59. Prenatal and Postnatal Serum PCB Concentrations and Cochlear Function in Children at 45 Months of Age
  60. Experimental evidence for the basal generation place of the short-latency transient-evoked otoacoustic emissions
  61. Otoacoustic emission sensitivity to exposure to styrene and noise
  62. Generation place of the long- and short-latency components of transient-evoked otoacoustic emissions in a nonlinear cochlear model
  63. Analysis of 3 years of data from the gravitational wave detectors EXPLORER and NAUTILUS
  64. Input/output functions of different-latency components of transient-evoked and stimulus-frequency otoacoustic emissions
  65. Time-frequency domain filtering of evoked otoacoustic emissions
  66. Transient-evoked otoacoustic emission generators in a nonlinear cochlea
  67. Distortion products and backward-traveling waves in nonlinear active models of the cochlea
  68. Stimulus Frequency Otoacoustic Emissions in Wild-Type and TECTA Mice
  69. Forward- and Reverse-Traveling Waves in DP Phenomenology: Does Inverted Direction of Wave Propagation Occur in Classical Models?
  70. IGEC2: A 17-month search for gravitational wave bursts in 2005–2007
  71. Numerical Simulations of Otoacoustic Emissions from a Non-linear Non-local Cochlear Model
  72. Different models of the active cochlea, and how to implement them in the state-space formalism
  73. Otoacoustic emissions in time-domain solutions of nonlinear non-local cochlear models
  74. COCHLEAR REFLECTIVITY AND TEOAE TRANSFER FUNCTION
  75. Transient evoked otoacoustic emission latency and estimates of cochlear tuning in preterm neonates
  76. Transient evoked otoacoustic emission input/output function and cochlear reflectivity: Experiment and model
  77. Detection of high energy cosmic rays with the resonant gravitational wave detectors NAUTILUS and EXPLORER
  78. First joint gravitational wave search by the AURIGA–EXPLORER–NAUTILUS–Virgo Collaboration
  79. All-sky search of NAUTILUS data
  80. New parametric transducer for resonant detectors: advances and room temperature test
  81. All-sky incoherent search for periodic signals with Explorer 2005 data
  82. EXPLORER and NAUTILUS gravitational wave detectors: a status report
  83. Otoacoustic emission latency and cochlear mechanics
  84. Comparison between otoacoustic and auditory brainstem response latencies supports slow backward propagation of otoacoustic emissions
  85. Wavelet and matching pursuit estimates of the transient-evoked otoacoustic emission latency
  86. Cochlear reflectivity in transmission-line models and otoacoustic emission characteristic time delays
  87. Results of the IGEC-2 search for gravitational wave bursts during 2005
  88. Transient evoked otoacoustic emission latency and cochlear tuning at different stimulus levels
  89. Otoacoustic emission sensitivity to low levels of noise-induced hearing loss
  90. All-sky search of EXPLORER data: search for coincidences
  91. The 2003 run of the EXPLORER–NAUTILUS gravitational wave experiment
  92. Status report on the EXPLORER and NAUTILUS detectors and the present science run
  93. An all-sky search of EXPLORER data
  94. Otoacoustic emission latency, cochlear tuning, and hearing functionality in neonates
  95. MiniGRAIL progress report 2004
  96. The reflectivity function of the cochlear transmission line
  97. On the large-scale spectral structure of otoacoustic emissions
  98. Cumulative analysis of the association between the data of the gravitational wave detectors NAUTILUS and EXPLORER and the gamma ray bursts detected by BATSE and BeppoSAX
  99. Modeling the growth rate of distortion product otoacoustic emissions by active nonlinear oscillators
  100. ON THE SENSITIVITY OF GRAVITATIONAL WAVE RESONANT BAR DETECTORS
  101. Searching for counterpart of  -ray bursts with resonant gravitational wave detectors
  102. Cooling down MiniGRAIL to milli-Kelvin temperatures
  103. Increasing the Bandwidth of Resonant Gravitational Antennas: The Case of Explorer
  104. Comments on the 2001 run of the EXPLORER/NAUTILUS gravitational wave experiment
  105. All-sky upper limit for gravitational radiation from spinning neutron stars
  106. Methods and results of the IGEC search for burst gravitational waves in the years 1997–2000
  107. Objective estimates of cochlear tuning by otoacoustic emission analysis
  108. Linear and nonlinear transient evoked otoacoustic emissions in humans exposed to noise
  109. Search for correlation between GRB’s detected by BeppoSAX and gravitational wave detectors EXPLORER and NAUTILUS
  110. Study of the coincidences between the gravitational wave detectors EXPLORER and NAUTILUS in 2001
  111. Effect of cosmic rays on the resonant gravitational wave detector Nautilus at temperature T=1.5 K
  112. Anomalous signals due to cosmic rays observed by the bar gravitational wave detector NAUTILUS
  113. The EXPLORER gravitational wave antenna: recent improvements and performances
  114. The next science run of the gravitational wave detector NAUTILUS
  115. Search for gravitational wave bursts by the network of resonant detectors
  116. On the detection of early cochlear damage by otoacoustic emission analysis
  117. On the frequency dependence of the otoacoustic emission latency in hypoacoustic and normal ears
  118. NAUTILUS Recent Results
  119. Recent Improvements on the EXPLORER Gravitational Wave Antenna
  120. Cross-correlation between gravitational wave detectors for detecting association with gamma ray bursts
  121. Search for periodic gravitational wave sources with the Explorer detector
  122. Spontaneous otoacoustic emissions and relaxation dynamics of long decay time OAEs in audiometrically normal and impaired subjects
  123. Energetic cosmic rays observed by the resonant gravitational wave detector NAUTILUS
  124. Study of coincidences between resonant gravitational wave detectors
  125. First Search for Gravitational Wave Bursts with a Network of Detectors
  126. High-energy neutral particle measurement system in the large helical device
  127. INITIAL OPERATION OF THE INTERNATIONAL GRAVITATIONAL EVENT COLLABORATION
  128. Cosmic Rays Observed by the Resonant Gravitational Wave Detector NAUTILUS
  129. Detection of cosmic rays by NAUTILUS
  130. Recent results of NAUTILUS
  131. Tests on a prototype spherical detector
  132. Modeling otoacoustic emissions by active nonlinear oscillators
  133. Measurements with the resonant gravitational wave detector EXPLORER during the gamma-ray burst 980425
  134. Search for time correlation between gamma-ray bursts and data from the gravitational wave antenna EXPLORER
  135. Search for gravitational radiation with the Allegro and Explorer detectors
  136. Electromagnetic Radiation from VDT Units: Study of the Effectiveness of an Active Shielding Device
  137. Electromagnetic Radiation from VDT Units: Study of the Effectiveness of an Active Shielding Device
  138. Search for coincident excitation of the widely spaced resonant gravitational wave detectors EXPLORER, NAUTILUS and NIOBE
  139. Underground spherical gravitational wave detector
  140. Experimental study of the dynamic Newtonian field with a cryogenic gravitational wave antenna
  141. Mesoscopic simulations of dislocations and plasticity
  142. The gravitational wave detector NAUTILUS operating at T = 0.1 K
  143. Design study of high energy neutral particle measurements in a LHD
  144. Experiments in FTU with different limiter materials
  145. High density operation on Frascati Tokamak Upgrade
  146. Upper limit for a gravitational-wave stochastic background with the EXPLORER and NAUTILUS resonant detectors
  147. Particle transport in the Frascati Tokamak upgrade
  148. Cosmic-ray-induced cascades on the ultracryogenic antenna NAUTILUS
  149. The ultracryogenic gravitational wave detector NAUTILUS
  150. A physical mechanism for the onset of radial electric fields in magnetically confined plasmas
  151. High Z material operation in FTU
  152. Plasma characteristics in FTU with different plasma facing materials
  153. Radial particle flow, electrical conductivity and thermal energy content in the Frascati Tokamak Upgrade
  154. MHD and confinement during pellet injection on FTU
  155. Design and calibration of the JET time of flight neutral particle analyzer with high noise rejection capability
  156. Jet time of flight neutral particle analyzer (abstract)
  157. Atmospheric transmission and noise measurements in Antarctica
  158. Considerations on balloon-borne far infrared telescopes
  159. A five-band differential IR photometer for balloon-borne observations of diffuse sky radiation
  160. Ground-based atmospheric radiometry in the far-infrared
  161. Photon mass and cosmic microwave background anisotropy