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  • Home
  • Contact information
  • Synoptic lab
    • Syllabus
    • Take-home exams
    • Homework
    • Tropical Cyclones
      • Tropical cyclone climatology and overview
      • Tropical cyclone life cycle and motion
      • Tropical cyclone structure
      • Hurricane forecasting learning material
      • Hurricane forecasting tools
      • Storm surge
      • TUTTs and LA/MS flood event of 2016
    • Ocean applications
      • Waves
      • Tides
      • Miscellaneous ocean products
    • Streamlines
    • Regression, MOS, and NBM
    • Forecasting baroclinic systems and other products
      • Analysis
      • Model guidance
      • Model Output Statistics and National Blend of Models
      • Useful forecast products
  • Synoptic class
    • Syllabus
    • Exam Information
    • Homework
    • Stability
      • The Basics
      • The SkewT and related diagnostic tools
      • POP, air mass thunderstorms, sea breeze thunderstorms
      • Severe Weather
    • Map analysis
      • Upper-level synoptic charts
      • Contouring
      • Surface analysis and fronts
      • Vertical structure
      • Jet Streaks
    • Dynamics
      • Review of dynamics
      • Dynamics applications
      • QG Theory and the Omega equation
      • Cyclogenesis and baroclinic instability
    • Modeling
    • Fog
    • Winter Weather
  • Intro Dynamics
    • Syllabus
    • Homework
    • Sample exam questions
    • Introduction (Chap. 1, HH)
    • Basic equations of meteorology (Chap. 2, HH)
    • Imbedded processes in equations of meteorology (Chap. 3, HH). Exam 2 material
    • Imbedded processes in equations of meteorology (Chap. 3, HH). Exam 3 material
    • Planetary boundary layer
    • Vorticity (Chap.4, HH)
    • Pertubation method and atmospheric waves (Chap 5, HH)
  • Numerical methods
    • Syllabus
    • Homework
    • Number Series
    • Interpolation
    • Basic matrix math
    • Filters And Fourier Analysis
    • Numerical derivatives
    • Numerical integration, random numbers, and Monte Carlo
    • Numerical solutions of differential equations and atmospheric modeling
    • Parameterization, data assimilation, and overview on WRF model
    • Final computer exercises
  • Dashboard
Rip currents
  • Rip currents are strong, narrow channels of water that flow out, away from shore. They tend to occur near sandy beaches, where trenches and breaks in the sandbar form off the shoreline on the lake bottom. These powerful, channeled currents often develop because of high wind, waves, shoreline structures (such as piers), and weather phenomena.  Rip currents can pull even the strongest swimmers far from the shore, at an average speed of approximately 2 feet per second.
  • More detailed information
  • Rip current safety
  • Rip current forecasting (requires COMET account)
  • Example of a rip current predictive index
  • Rip currents are now a part of the Nearshore Wave Prediction System.
  • Video lecture. Audio only.

Ocean currents
  • Overview on ocean currents . PDF of this website
  • Currents, gyres, and eddies . PDF of this website
  • Ocean Conveyor Belt , also called the Atlantic Meridional Ocean Circulation (AMOC)   PDF of this website . Note - the Ocean Conveyor Belt has a multidecadal signal related to the Atlantic Multidecadal Oscillation (AMO).
  • Regional climatologies
  • Forecast products
           1) NOAA's Ocean Prediction Center
           2) Vector forecast example, Texas and Northern GOM
           3) Vector forecast example, regional model, Tampa Bay

           4) Station current predictions
  • Video lecture. Audio only.

Tsunamis
  • Overview        PDF of this website​
  • U.S. tsunamis      PDF of this website
  • Tsunami overview from NOAA
  • Excellent tsunami COMET module: Introduction; Generation; Initiation; Propagation; Inundation; Long-term effects 
  • Inundation can arrive in different ways. In the classic scenario, it arrives as a series of waves, with the first wave with slight inundation followed by a withdrawn sea (extended dry shore) by a series of large waves. In other scenarios, this is more muted with a slight withdrawal then the sea coming in as an extended, prolonged flood such as the 2004 Indian ocean tsunami shown here. Occasionally, it can be lead by a massive shoaling wave, but this is less common.
  • Monitoring tsunamis - the DART network .
  • DART network website
  • Modeling tsunamis
  • Ten years since Sumatra (video)
  • Fukushima nuclear accident
  • Forecast products
           1) NDBC description of the DART network . Link to real-time data .
           2) Tsunami Warning Center
  • Video lecture. Audio only.
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  • Home
  • Contact information
  • Synoptic lab
    • Syllabus
    • Take-home exams
    • Homework
    • Tropical Cyclones
      • Tropical cyclone climatology and overview
      • Tropical cyclone life cycle and motion
      • Tropical cyclone structure
      • Hurricane forecasting learning material
      • Hurricane forecasting tools
      • Storm surge
      • TUTTs and LA/MS flood event of 2016
    • Ocean applications
      • Waves
      • Tides
      • Miscellaneous ocean products
    • Streamlines
    • Regression, MOS, and NBM
    • Forecasting baroclinic systems and other products
      • Analysis
      • Model guidance
      • Model Output Statistics and National Blend of Models
      • Useful forecast products
  • Synoptic class
    • Syllabus
    • Exam Information
    • Homework
    • Stability
      • The Basics
      • The SkewT and related diagnostic tools
      • POP, air mass thunderstorms, sea breeze thunderstorms
      • Severe Weather
    • Map analysis
      • Upper-level synoptic charts
      • Contouring
      • Surface analysis and fronts
      • Vertical structure
      • Jet Streaks
    • Dynamics
      • Review of dynamics
      • Dynamics applications
      • QG Theory and the Omega equation
      • Cyclogenesis and baroclinic instability
    • Modeling
    • Fog
    • Winter Weather
  • Intro Dynamics
    • Syllabus
    • Homework
    • Sample exam questions
    • Introduction (Chap. 1, HH)
    • Basic equations of meteorology (Chap. 2, HH)
    • Imbedded processes in equations of meteorology (Chap. 3, HH). Exam 2 material
    • Imbedded processes in equations of meteorology (Chap. 3, HH). Exam 3 material
    • Planetary boundary layer
    • Vorticity (Chap.4, HH)
    • Pertubation method and atmospheric waves (Chap 5, HH)
  • Numerical methods
    • Syllabus
    • Homework
    • Number Series
    • Interpolation
    • Basic matrix math
    • Filters And Fourier Analysis
    • Numerical derivatives
    • Numerical integration, random numbers, and Monte Carlo
    • Numerical solutions of differential equations and atmospheric modeling
    • Parameterization, data assimilation, and overview on WRF model
    • Final computer exercises
  • Dashboard