Jonathan B Snively
- Title
- Professor and Director of the Center for Space and Atmospheric Research (CSAR)
- Jonathan.Snively@erau.edu Email
- Department
- Physical Sciences Department
- College
- College of Arts & Sciences
Office Hours
M/W/F 9:30-11:00AMExternal Links
The views expressed on faculty and external web pages are those of the author and do not necessarily represent those of Embry-Riddle Aeronautical University.
Education
- Ph.D. - Doctor of Philosophy in Electrical Engineering, Pennsylvania State University-Main Campus
- M.S. - Master of Science in Electrical Engineering, Pennsylvania State University-Main Campus
- B.S. - Bachelor of Science in Engineering Physics: Computer Science and Philosophy, Elizabethtown College
Currently Teaching
- EP 800: Dissertation
Publications
- The Dynamics of Nonlinear Atmospheric Acoustic-Gravity Waves Generated by Tsunamis Over Realistic Bathymetry M. Zettergren (2023)
- Latitude and Longitude Dependence of Ionospheric Tec and Magnetic Perturbations From Infrasonic-Acoustic Waves Generated by Strong Seismic Events M. Zettergren (2023)
- Ionospheric Response to Infrasonic-Acoustic Waves Generated by Natural Hazard Events M. Zettergren (2023)
- Inferring the Evolution of a Large Earthquake from Its Acoustic Impacts on the Ionosphere M. Zettergren (2023)
- Mesopause Airglow Disturbances Driven by Nonlinear Infrasonic Acoustic Waves Generated by Large Earthquakes M. Zettergren (2023)
- Modeling of Ionospheric Responses to Atmospheric Acoustic and Gravity Waves Driven by the 2015 Nepal M w 7.8 Gorkha Earthquake M. Zettergren (2023)
- OH and OI Airglow Layer Modulation by Ducted Short-Period Gravity Waves: Effects of Trapping Altitude Jonathan B. Snively (2023)
- Thermospheric Dissipation of Upward Propagating Gravity Wave Packets Jonathan B. Snively (2023)
- Secondary Gravity Waves Generated by Breaking Mountain Waves Over Europe Jonathan B. Snively (2023)
- Self-Accleration and Instability of Gravity Wave Packets: 1. Effects of Temporal Localization Jonathan B. Snively (2023)
- Momentum Flux Spectra of a Mountain Wave Event Over New Zealand Jonathan B. Snively (2023)
- Numerical Modeling of the Propagation of Infrasonic Acoustic Waves Through the Turbulent Field Generated by the Breaking of Mountain Gravity Waves Jonathan B. Snively (2023)
- Very Low Frequency Subionospheric Remote Sensing of Thunderstorm-Driven Acoustic Waves in the Lower Ionosphere Jonathan B. Snively (2023)
- Gravity Wave Propagation Through a Vertically and Horizontally Inhomogeneous Background Wind Jonathan B. Snively (2023)
- Inferring the Evolution of a Large Earthquake from Its Acoustic Impacts on the Ionosphere Jonathan B. Snively (2023)
- Ionospheric Response to Infrasonic-Acoustic Waves Generated by Natural Hazard Events Jonathan B. Snively (2023)
- Localization Effects on the Dissipation of Gravity Wave Packets in the Upper Mesophere and Lower Thermosphere Jonathan B. Snively (2023)
- Analysis of Energy Transfer among Background Flow, Gravity Waves and Turbulence in the mesopause region in the process of Gravity Wave Breaking from a High-resolution Atmospheric Model Jonathan B. Snively (2023)
- Accelerating Atmospheric Gravity Wave Simulations using Machine Learning: Kelvin-Helmholtz Instability and Mountain Wave Sources Driving Gravity Wave Breaking and Secondary Gravity Wave Generation Jonathan B. Snively (2023)
- Analysis of Energy Transfer among Background Flow, Gravity Waves and Turbulence in the mesopause region in the process of Gravity Wave Breaking from a High-resolution Atmospheric Model Alan Z Liu (2023)
- Accelerating Atmospheric Gravity Wave Simulations using Machine Learning: Kelvin-Helmholtz Instability and Mountain Wave Sources Driving Gravity Wave Breaking and Secondary Gravity Wave Generation Alan Z Liu (2023)
- Accelerating Atmospheric Gravity Wave Simulations using Machine Learning: Kelvin-Helmholtz Instability and Mountain Wave Sources Driving Gravity Wave Breaking and Secondary Gravity Wave Generation Publications (2023)
- GPU Accelerated Adaptive Wave Propagation Algorithm Research Computing Days 2023 (2023)
- Analysis of Energy Transfer among Background Flow, Gravity Waves and Turbulence in the mesopause region in the process of Gravity Wave Breaking from a High-resolution Atmospheric Model Publications (2023)
- The Dynamics of Tsunamigenic Acoustic-Gravity Waves and Bathymetry Effect Publications (2022)
- The Dynamics of Nonlinear Atmospheric Acoustic-Gravity Waves Generated by Tsunamis Over Realistic Bathymetry Jonathan B. Snively (2022)
- Evidence for Horizontal Blocking and Reflection of a Small-Scale Gravity Wave in the Mesosphere Jonathan B. Snively (2022)
- A Comparison of Small- And Medium-Scale Gravity Wave Interactions in the Linear and Nonlinear Limits Jonathan B. Snively (2022)
- Multilayer Observations and Modeling of Thunderstorm-Generated Gravity Waves Over the Midwestern United States Jonathan B. Snively (2022)
- Mesopause Airglow Disturbances Driven by Nonlinear Infrasonic Acoustic Waves Generated by Large Earthquakes Jonathan B. Snively (2022)
- Gravity Wave Ducting Observed in the Mesosphere Over Jicamarca, Peru Jonathan B. Snively (2022)
- Simulation of Infrasonic Acoustic Wave Imprints on Airglow Layers During the 2016 M7.8 Kaikoura Earthquake Jonathan B. Snively (2022)
- Primary Versus Secondary Gravity Wave Responses at F-Region Heights Generated by a Convective Source Jonathan B. Snively (2022)
- Latitude and Longitude Dependence of Ionospheric Tec and Magnetic Perturbations From Infrasonic-Acoustic Waves Generated by Strong Seismic Events Jonathan B. Snively (2022)
- Modeling of Ionospheric Responses to Atmospheric Acoustic and Gravity Waves Driven by the 2015 Nepal M w 7.8 Gorkha Earthquake Jonathan B. Snively (2022)
- Observation and Modeling of Gravity Wave Propagation through Reflection and Critical Layers above Andes Lidar Observatory at Cerro Pach\u00f3n, Chile Alan Z Liu (2022)
- An Analysis of the Atmospheric Propagation of Underground-Explosion-Generated Infrasonic Waves Based on the Equations of Fluid Dynamics: Ground Recordings Jonathan B. Snively (2022)
- Simulation of Infrasonic Acoustic Wave Imprints on Airglow Layers During the 2016 M7.8 Kaikoura Earthquake Publications (2022)
- Numerical Modeling of the Propagation of Infrasonic Acoustic Waves Through the Turbulent Field Generated by the Breaking of Mountain Gravity Waves Michael P. Hickey (2022)
- Simulation results with kinematic slip model #1 Simulation of Infrasonic Acoustic Wave Imprints on Airglow Layers During the 2016 m7.8 Kaikoura Earthquake (2022)
- Simulation results with kinematic slip model #2 Simulation of Infrasonic Acoustic Wave Imprints on Airglow Layers During the 2016 m7.8 Kaikoura Earthquake (2022)
- Simulation results with kinematic slip model #4 Simulation of Infrasonic Acoustic Wave Imprints on Airglow Layers During the 2016 m7.8 Kaikoura Earthquake (2022)
- Supporting information for Figure 3 Simulation of Infrasonic Acoustic Wave Imprints on Airglow Layers During the 2016 m7.8 Kaikoura Earthquake (2022)
- Temporal evolution of rupture in kinematic slip model #3 Simulation of Infrasonic Acoustic Wave Imprints on Airglow Layers During the 2016 m7.8 Kaikoura Earthquake (2022)
- Table of maximum peak-to-peak perturbations Simulation of Infrasonic Acoustic Wave Imprints on Airglow Layers During the 2016 m7.8 Kaikoura Earthquake (2022)
- Synthetic images Simulation of Infrasonic Acoustic Wave Imprints on Airglow Layers During the 2016 m7.8 Kaikoura Earthquake (2022)
- Simulation results with kinematic slip model #3 Simulation of Infrasonic Acoustic Wave Imprints on Airglow Layers During the 2016 m7.8 Kaikoura Earthquake (2022)
- 09: Simulation results from the 2011 M9.1 Tohoku-Oki Earthquake and Tsunami Case Study with Source Model 3 Numerical Modeling of Tsunami-generated Acoustic-gravity Waves in Mesopause Airglow (2022)
- 08: Simulation results from the 2011 M9.1 Tohoku-Oki Earthquake and Tsunami Case Study with Source Model 2 Numerical Modeling of Tsunami-generated Acoustic-gravity Waves in Mesopause Airglow (2022)
- 06: Simulation results from the 2021 M8.1 Kermadec Islands Earthquake and Tsunami Case Study Numerical Modeling of Tsunami-generated Acoustic-gravity Waves in Mesopause Airglow (2022)
- Table: Spatial Extents of the Numerical Domains Numerical Modeling of Tsunami-generated Acoustic-gravity Waves in Mesopause Airglow (2022)
- 07: Simulation results from the 2011 M9.1 Tohoku-Oki Earthquake and Tsunami Case Study with Source Model 1 Numerical Modeling of Tsunami-generated Acoustic-gravity Waves in Mesopause Airglow (2022)
- 10: Simulation results from the 2011 M9.1 Tohoku-Oki Earthquake and Tsunami Case Study with Source Model 5 Numerical Modeling of Tsunami-generated Acoustic-gravity Waves in Mesopause Airglow (2022)
- 05: Simulation results from the 2010 M8.8 Bio-Bio Earthquake and Tsunami Case Study Numerical Modeling of Tsunami-generated Acoustic-gravity Waves in Mesopause Airglow (2022)
- 03: Simulation results from the 2006 M7.7 Pangandaran Earthquake and Tsunami Case Study Numerical Modeling of Tsunami-generated Acoustic-gravity Waves in Mesopause Airglow (2022)
- 01: Simulation results from the 2001 M8.3 Southern Peru Earthquake and Tsunami Case Study Description Numerical Modeling of Tsunami-generated Acoustic-gravity Waves in Mesopause Airglow (2022)
- 04: Simulation results from the 2006 M8.3 Kuril Earthquake and Tsunami Case Study Numerical Modeling of Tsunami-generated Acoustic-gravity Waves in Mesopause Airglow (2022)
- Primary Versus Secondary Gravity Wave Responses at F-Region Heights Generated by a Convective Source Publications (2021)
- Inferring the Evolution of a Large Earthquake from Its Acoustic Impacts on the Ionosphere Publications (2021)
- Modeling of Upper Atmospheric Responses to Acoustic-Gravity Waves Generated by Earthquakes and Tsunamis Publications (2021)
- Figure 7,k, animation Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Figure 3,d-f, animation, data Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Figure 3,g-i, animation, data Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Figure 7,c,g, animation Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Model 4, animation Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Figure 7,j, animation Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Figure 7,a,e, animation Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Figure 1,b, data Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Model 6, animation Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Figure 3,a-c, animation Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Figure 3,j-l, animation, data Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- The details of forward seismic wave simulation method Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Comparison of vTEC perturbations from simulations without coseismic rupturing process on Papatea fault Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Radio occultation profile Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Model 7, animation Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Figure 7,l, animation Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Figure 7,i, animation Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Figure 7,d,h, animation Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Figure 7,b,f, animation Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Figure 5,a-c, animation Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- Figure 4, animation, data Inferring the Evolution of a Large Earthquake from its Acoustic Impacts on the Ionosphere (2021)
- The Dynamics of Nonlinear Atmospheric Acoustic-Gravity Waves Generated by Tsunamis Over Realistic Bathymetry Publications (2020)
- Mesopause Airglow Disturbances Driven by Nonlinear Infrasonic Acoustic Waves Generated by Large Earthquakes Publications (2020)
- Evidence for Horizontal Blocking and Reflection of a Small-Scale Gravity Wave in the Mesosphere Publications (2020)
- Vortex: A New Rocketexperiment to Studymesoscale Dynamics at the Turbopause Aroh Barjatya (2020)
- Vortex: A New Rocketexperiment to Studymesoscale Dynamics at the Turbopause Jonathan B. Snively (2020)
- Seismology on Venus with infrasound observations from balloon and orbit Jonathan B. Snively (2020)
- Secondary Gravity Waves Generated by Breaking Mountain Waves Over Europe Publications (2020)
- Modeling of Ionospheric Responses to Atmospheric Acoustic and Gravity Waves Driven by the 2015 Nepal M w 7.8 Gorkha Earthquake Publications (2020)
- 3. Figure 1, Animation 3 The dynamics of nonlinear atmospheric acoustic-gravity waves generated by tsunamis over realistic bathymetry (2020)
- Figure 2, data Mesopause Airglow Disturbances Driven by Nonlinear Infrasonic Acoustic Waves Generated by Large Earthquakes (2020)
- Figure 4, data Mesopause Airglow Disturbances Driven by Nonlinear Infrasonic Acoustic Waves Generated by Large Earthquakes (2020)
- Figure 2, animation Mesopause Airglow Disturbances Driven by Nonlinear Infrasonic Acoustic Waves Generated by Large Earthquakes (2020)
- Figure 4, animation Mesopause Airglow Disturbances Driven by Nonlinear Infrasonic Acoustic Waves Generated by Large Earthquakes (2020)
- 1. Figure 1, Animation 1 The dynamics of nonlinear atmospheric acoustic-gravity waves generated by tsunamis over realistic bathymetry (2020)
- 2. Figure 1, Animation 2 The dynamics of nonlinear atmospheric acoustic-gravity waves generated by tsunamis over realistic bathymetry (2020)
- 4. Data 1, three-dimensional volume data The dynamics of nonlinear atmospheric acoustic-gravity waves generated by tsunamis over realistic bathymetry (2020)
- 6. Data 2, meridional slice data The dynamics of nonlinear atmospheric acoustic-gravity waves generated by tsunamis over realistic bathymetry (2020)
- 5. Figure 1, Animation The dynamics of nonlinear atmospheric acoustic-gravity waves generated by tsunamis over realistic bathymetry (2020)
- An Analysis of the Atmospheric Propagation of Underground-Explosion-Generated Infrasonic Waves Based on the Equations of Fluid Dynamics: Ground Recordings Publications (2019)
- Multilayer Observations and Modeling of Thunderstorm-Generated Gravity Waves Over the Midwestern United States Publications (2019)
- Graph-based Detection of Ionosphere Perturbations Using Dense GPS Networks Michael P. Hickey (2019)
- Secondary gravity waves generated by breaking mountain waves over Europe Jonathan B. Snively (2019)
- Numerical Modeling of the Propagation of Infrasonic Acoustic Waves Through the Turbulent Field Generated by the Breaking of Mountain Gravity Waves Michael P. Hickey (2019)
- An investigation of the scattering of infrasonic acoustic waves by turbulent fluctuations generated by the breaking of gravity waves Michael P. Hickey (2019)
- Gravity Wave Ducting Observed in the Mesosphere Over Jicamarca, Peru Publications (2019)
- Numerical Modeling of the Propagation of Infrasonic Acoustic Waves Through the Turbulent Field Generated by the Breaking of Mountain Gravity Waves Publications (2019)
- Nonlinear Gravity Wave Forcing as a Source of Acoustic Waves in the Mesosphere, Thermosphere, and Ionosphere Jonathan B. Snively (2019)
- Unexpected Occurrence of Mesospheric Frontal Gravity Wave Events Over the South Pole (90 degrees S) Jonathan B. Snively (2019)
- Modulation of Low-Altitude Ionospheric Upflow by Linear and Nonlinear Atmospheric Gravity Waves Jonathan B. Snively (2019)
- Latitude and Longitude Dependence of Ionospheric Tec and Magnetic Perturbations From Infrasonic-Acoustic Waves Generated by Strong Seismic Events Publications (2019)
- Figure 2 Secondary Gravity Waves Generated by Breaking Mountain Waves over Europe (2019)
- Figure 1 Secondary Gravity Waves Generated by Breaking Mountain Waves over Europe (2019)
- Vortex: A New Rocketexperiment to Studymesoscale Dynamics at the Turbopause Publications (2019)
- Figure 13, data Modeling of Ionospheric Responses to Atmospheric Acoustic and Gravity Waves Driven by the 2015 Nepal Mw7.8 Gorkha Earthquake (2019)
- Figure 9, data Modeling of Ionospheric Responses to Atmospheric Acoustic and Gravity Waves Driven by the 2015 Nepal Mw7.8 Gorkha Earthquake (2019)
- Figure 10, data Modeling of Ionospheric Responses to Atmospheric Acoustic and Gravity Waves Driven by the 2015 Nepal Mw7.8 Gorkha Earthquake (2019)
- Figure 12, data Modeling of Ionospheric Responses to Atmospheric Acoustic and Gravity Waves Driven by the 2015 Nepal Mw7.8 Gorkha Earthquake (2019)
- Figure 11, data Modeling of Ionospheric Responses to Atmospheric Acoustic and Gravity Waves Driven by the 2015 Nepal Mw7.8 Gorkha Earthquake (2019)
- Figure 13, animation Modeling of Ionospheric Responses to Atmospheric Acoustic and Gravity Waves Driven by the 2015 Nepal Mw7.8 Gorkha Earthquake (2019)
- Figure 10, animation Modeling of Ionospheric Responses to Atmospheric Acoustic and Gravity Waves Driven by the 2015 Nepal Mw7.8 Gorkha Earthquake (2019)
- Figure 9, animation Modeling of Ionospheric Responses to Atmospheric Acoustic and Gravity Waves Driven by the 2015 Nepal Mw7.8 Gorkha Earthquake (2019)
- Momentum Flux Spectra of a Mountain Wave Event Over New Zealand Publications (2018)
- Localization Effects on the Dissipation of Gravity Wave Packets in the Upper Mesophere and Lower Thermosphere Publications (2018)
- Modulation of Low-Altitude Ionospheric Upflow by Linear and Nonlinear Atmospheric Gravity Waves Publications (2018)
- A Comparison of Small- And Medium-Scale Gravity Wave Interactions in the Linear and Nonlinear Limits Publications (2018)
- Unexpected Occurrence of Mesospheric Frontal Gravity Wave Events Over the South Pole (90 degrees S) Publications (2018)
- Nonlinear Gravity Wave Forcing as a Source of Acoustic Waves in the Mesosphere, Thermosphere, and Ionosphere Publications (2017)
- Secondary Gravity Wave Generation Over New Zealand During the DEEPWAVE Campaign Jonathan B. Snively (2017)
- Observation and Modeling of Gravity Wave Propagation through Reflection and Critical Layers above Andes Lidar Observatory at Cerro Pach\u00f3n, Chile Jonathan B. Snively (2017)
- Numerical Modeling of a Multiscale Gravity Wave Event and Its Airglow Signatures over Mount Cook, New Zealand, During the DEEPWAVE Campaign Jonathan B. Snively (2017)
- Nonlinear Ionospheric Responses to Large-Amplitude Infrasonic-Acoustic Waves Generated by Undersea Earthquakes Jonathan B. Snively (2017)
- Secondary Gravity Wave Generation Over New Zealand During the DEEPWAVE Campaign Publications (2017)
- Numerical Simulation of the Long-Range Propagation of Gravity Wave Packets at High Latitudes Jonathan B. Snively (2017)
- Evidence of Dispersion and Refraction of a Spectrally Broad Gravity Wave Packet in the Mesopause Region Observed by the Na Lidar and Mesospheric Temperature Mapper Above Logan, Utah Jonathan B. Snively (2017)
- Excitation of Ducted Gravity Waves in the Lower Thermosphere by Tropospheric Sources Jonathan B. Snively (2017)
- Ionospheric Signatures of Acoustic Waves Generated by Transient Tropospheric Forcing Jonathan B. Snively (2017)
- Breaking of Thunderstorm-Generated Gravity Waves as a Source of Short-Period Ducted Waves at Mesopause Altitudes Jonathan B. Snively (2017)
- Correction to \"Breaking of Thunderstorm-Generated Gravity Waves as a Source of Short-Period Ducted Waves at Mesopause Altitudes\" Jonathan B. Snively (2017)
- Analysis and Modeling of Ducted and Evanescent Gravity Waves Observed in the Hawaiian Airglow Jonathan B. Snively (2017)
- Doppler Ducting of Short-Period Gravity Waves by Midaltitude Tidal Wind Structure Jonathan B. Snively (2017)
- Antiphase OH and OI Airglow Emissions Induced By a Short-Period Ducted Gravity Wave Jonathan B. Snively (2017)
- Nonlinear Ionospheric Responses to Large-Amplitude Infrasonic-Acoustic Waves Generated by Undersea Earthquakes Publications (2017)
- Numerical Modeling of a Multiscale Gravity Wave Event and Its Airglow Signatures over Mount Cook, New Zealand, During the DEEPWAVE Campaign Publications (2017)
- Observational and Modeling Study of Gravity Wave Propagation Through Reflection and Critical Layers Space Traffic Management Conference (2016)
- Observation and Modeling of Gravity Wave Propagation through Reflection and Critical Layers above Andes Lidar Observatory at Cerro Pach\u00f3n, Chile Publications (2016)
- Ionospheric Signatures of Tohoku-Oki Tsunami of March 11, 2011: Model Comparisons Near the Epicenter Jonathan B. Snively (2016)
- Numerical and Statistical Evidence for Long-Range Ducted Gravity Wave Propagation Over Halley, Antarctica Jonathan B. Snively (2016)
- Evidence of Dispersion and Refraction of a Spectrally Broad Gravity Wave Packet in the Mesopause Region Observed by the Na Lidar and Mesospheric Temperature Mapper Above Logan, Utah Publications (2016)
- Evidence of Dispersion and Refraction of a Spectrally Broad Gravity Wave Packet in the Mesopause Region Observed By the Na Lidar and Mesospheric Temperature Mapper Above Logan, Utah (In Press) Jonathan B. Snively (2015)
- Ionospheric Response to Infrasonic-Acoustic Waves Generated By Natural Hazard Events Jonathan B. Snively (2015)
- Ionospheric Response to Infrasonic-Acoustic Waves Generated by Natural Hazard Events Publications (2015)
- Numerical and Statistical Evidence for Long-Range Ducted Gravity Wave Propagation Over Halley, Antarctica Michael P. Hickey (2015)
- Thermospheric Dissipation of Upward Propagating Gravity Wave Packets Michael P. Hickey (2015)
- Numerical Simulation of the Long-Range Propagation of Gravity Wave Packets at High Latitudes Michael P. Hickey (2015)
- Ionospheric Signatures of Tohoku-Oki Tsunami of March 11, 2011: Model Comparisons Near the Epicenter Michael P. Hickey (2015)
- Self-Acceleration and Instability of Gravity Wave Packets: 1. Effects of Temporal Localization Jonathan B. Snively (2015)
- Self-Accleration and Instability of Gravity Wave Packets: 1. Effects of Temporal Localization Publications (2015)
- Gravity Wave Propagation Through a Vertically and Horizontally Inhomogeneous Background Wind Jonathan B. Snively (2015)
- Gravity Wave Propagation Through a Vertically and Horizontally Inhomogeneous Background Wind Publications (2015)
- Numerical Simulation of the Long-Range Propagation of Gravity Wave Packets at High Latitudes Publications (2014)
- Numerical Simulation of the Long-Range Propagation of Gravity Wave Packets At High Latitudes Jonathan B. Snively (2014)
- Very Low Frequency Subionospheric Remote Sensing of Thunderstorm-Driven Acoustic Waves in the Lower Ionosphere Jonathan B. Snively (2014)
- Thermospheric Dissipation of Upward Propagating Gravity Wave Packets Publications (2014)
- Thermospheric Dissipation of Upward Propagating Gravity Wave Packets Jonathan B. Snively (2014)
- Very Low Frequency Subionospheric Remote Sensing of Thunderstorm-Driven Acoustic Waves in the Lower Ionosphere Publications (2014)
- Near-Infrared Spectroscopy of Hayabusa Sample Return Capsule Reentry Jonathan B. Snively (2014)
- Ionospheric Signatures of Acoustic Waves Generated by Transient Tropospheric Forcing Publications (2013)
- Ionospheric Signatures of Acoustic Waves Generated by Transient Tropospheric Forcing Publications (2013)
- Numerical and Statistical Evidence for Long-Range Ducted Gravity Wave Propagation Over Halley, Antarctica Publications (2013)
- Mesospheric Hydroxyl Airglow Signatures of Acoustic and Gravity Waves Generated by Transient Tropospheric Forcing Publications (2013)
- Investigating Natural Hazards Using GNSS Measurements: The Chelyabinsk Meteor Ionospheric Impact Jonathan B. Snively (2013)
- Investigating Natural Hazards Using GNSS Measurements: The Chelyabinsk Meteor Ionospheric Impact Michael P. Hickey (2013)
- Ionospheric of Natural Hazard Detection Using GNSS Measurements: Investing the Chelyabinsk Meteor Impact Michael P. Hickey (2013)
- Investigating Upper Atmospheric OpticalPhenomena Using Imaging Techniques Jonathan B. Snively (2013)
- Gravity Wave Activity in the MLT Region andPossible Propagation into the Ionosphere Jonathan B. Snively (2013)
- Understanding Airglow Signaturesof Short-period Gravity Waves Jonathan B. Snively (2013)
- OH and OI airglow layer modulation by ducted shortperiod gravity waves: effects of trapping altitude Jonathan B. Snively (2013)
- InvestigatingUpper Atmospheric Optical Phenomena Using Imaging Techniques Jonathan B. Snively (2013)
- Near Infrared Imaging of the DestructiveRe-entry of the ESA \u201cJuels Verne\u201d Automated Transfer Vehicle Jonathan B. Snively (2013)
- Spectral and Spatial Signatures of UpperAtmospheric Lightning Phenomena Using Imaging Instrumentation Jonathan B. Snively (2013)
- Ionospheric Signatures of Tohoku-Oki Tsunami of March 11, 2011: Model Comparisons Near the Epicenter Publications (2012)
- Near-Infrared Spectroscopy of the Hayabusa Sample Return Capsule Re-Entry Jonathan B. Snively (2012)
- Airborne Imaging and NIR Spectroscopy of the ESA ATV Spacecraft Re-Entry: Instrument Design and Preliminary Data Description Jonathan B. Snively (2011)
- OH and OI Airglow Layer Modulation by Ducted Short-Period Gravity Waves: Effects of Trapping Altitude Publications (2010)
- Analysis and Modeling of Ducted and Evanescent Gravity Waves Observed in the Hawaiian Airglow Jonathan B. Snively (2009)
- Analysis and Modeling of Ducted and Evanescent Gravity Waves Observed in the Hawaiian Airglow Publications (2009)
- Excitation of Ducted Gravity Waves in the Lower Thermosphere by Tropospheric Sources Publications (2008)
- Doppler Ducting of Short-Period Gravity Waves by Midaltitude Tidal Wind Structure Publications (2007)
- Doppler Ducting of Short-period Waves By Mid-Latitude Tidal Wind Structure Jonathan B. Snively (2007)
- Antiphase OH and OI Airglow Emissions Induced By a Short-Period Ducted Gravity Wave Publications (2005)
- Correction to \"Breaking of Thunderstorm-Generated Gravity Waves as a Source of Short-Period Ducted Waves at Mesopause Altitudes\" Publications (2004)
- Breaking of Thunderstorm-Generated Gravity Waves as a Source of Short-Period Ducted Waves at Mesopause Altitudes Publications (2003)
- Numerical Modeling of Tsunami-Generated Acoustic-Gravity Waves in Mesopause Airglow Jonathan B. Snively (2001)