Weatherclasses.com
  • 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
METL 421 - Synoptic Meteorology Lab

This class has three goals:
  1. Attainment of meteorology analysis skills through current weather events, which will include map discussions. During the Atlantic hurricane season, this will include discussions led by the Hurricane Research Division.
  2. Training in meteorology tools, analysis, and forecast  techniques, including tropical cyclones. 
  3. Guest lectures from the government and private sector.

Grading:
  • 40% assignments
  • 20% two take-home exams (40% total)
  • 10% student-driven map discussions
  • 10% WxChallenge (www.wxchallenge.com)

During the semester, we expect 20-minute presentations from the following organizations: National Weather Service Lake Charles; Hurricane Research Division; National Hurricane Center; different units from the Environmental Modeling Center; Weatherflow; Barons Weather Services; Liquid Robotics; WorldWinds; Cooperative Institute for Research in the Atmosphere; different university graduate programs; and the Development Testbed Center. It is important to explore all your options and interests. The majority of future employment opportunities in meteorology will be in the private sector.

Class lecture schedule  (additional material related to guest lectures or current weather events will also be included):

Week Aug 22: Tropical cyclone climatology; tropical cyclone structure
Week Aug 29: Tropical cyclone forecast products; assigned reading and videos due to student conference travel
Weeks Sep 5 and 12: Tropical cyclone thermodynamics and dynamics; genesis, intensity, track
Week Sep 19: Storm surge
Week Sep 26: Exam 1; Ocean wave forecasting; ocean tides
Week Oct 3: Streamline analysis; interpolation
Weeks Oct 10 and 17: Applications of dynamics to analysis (thermal wind, geostrophic wind, advection)
Week Oct 24: Model Output Statistics (MOS) and regression
Week Oct 31 and Nov 7: Finite difference and numerical solutions; application to advection
Week Nov. 14: 1-D modeling with advection process; data assimilation
Weeks of Nov 21 and 28: Exam 2; Model validation; limits to predictability; atmospheric chaos; ensemble models
Copyright © 2020 Weather Classes
Proudly powered by Weebly
  • 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