"The Future of Meteorology: Research, Design, and Practice" Friday’s Fearless Forecast: Meteorology in 20 Years: “… it is important to look at the past to look at the future We terribly underestimate look at the future. We terribly underestimate what we can do in the next decades.”
The Importance of Meteorology The Importance of Meteorology • Value: Value: diagnostic and prognostic views of the diagnostic and prognostic views of the atmosphere and related environment to support decision making support decision making • Changing missions – – Protect life and property P t t lif d t – Enhance economic competiveness – Support environmental quality (stewardship) l l ( dh ) – Foster a sustainable society
Meteorology: A field with multiple Meteorology: A field with multiple dimensions, or one with a multiple personality disorder? li l li di d ? • Science vs Engineering or Discipline vs Profession or Pure vs Applied • Climate vs Weather Ocean vs Atmosphere • Enter the social/behavioral/decision sciences / /
Science vs Engineering g g Scientists study the world as it is; engineers create the world that has never been. —Theodore von Kármán
• Assertion: Many current weather products p and services could be improved and new ones developed through an “engineering approach” g to their design and realization.
Design • Design = problem‐solving through the application of scientific and mathematical principles, supplemented by empirical techniques and best practices learned through experience, to achieve a practical end • In addition to the underlying science, design normally requires consideration of the aesthetic, functional, and many other aspects of an object or a process, which usually requires considerable research, thought, modeling, i id bl h th ht d li interactive adjustment, and re‐design. • Meteorology is involved in producing and distributing time‐ sensitive “information”, with the relevant physical systems iti “i f ti ” ith th l t h i l t being information generating ones, consisting of sensing/processing/display devices.
Balance Between “Climate” and “ “Weather” h ” • Climate change Æ g change in weather regimes g g – Its real, its happening; significant environmental changes underway
• National National research portfolio – research portfolio emphasis on climate emphasis on climate and ocean research producing an imbalance?? – Climate vs Weather = An artificial division Æ nature is a continuum – Ocean vs atmosphere Æ interacting components of one global system one global system • A strong, proactive weather enterprise is essential for adaption, coping in the face of environmental change • National Climate Service??? National Climate Service???
The importance of social/economic/political dimensions l/ / l ld • Improve the value of weather information products to the user • Provide users (= consumers) with information needed to make informed decisions make informed decisions – – – – – –
Government at all levels Business and commerce T Transportation t ti Agriculture Homeland security/Military operations General public
• Sustainability – mitigation, adaptation, coping/muddling through
OPPORTUNITIES
Observation, Data Assimilation, Modeling •
Hurricanes – – – –
• •
Track Structure Evolution of intensity Post landfall
Wildfire Æ wildfires versus prescribed burns; “management” of resources, cost/benefit; smoke Æ major health concern cost/benefit; smoke Æ major health concern Environmental quality, regional to local scale (street canyon winds; pollution; disease spread) – Microscale urban environment Æ re‐urbanization of city cores will lead to new economic drivers d
• •
Energy productionÆ wind/solar, other renewables Æ growth market; exploration for fossil fuels in every harsher environments Water Æ hydromet; water for people, agriculture, industry Water Æ hydromet; water for people, agriculture, industry
Challenges – Resolution Æ hardware – Interface characterization Æ mapping, measurements; data assimilation – Parameterization Æ physics
Geographic Information Systems Geographic Information Systems • Relates Relates “weather” weather to to “society” society • Ubiquitous • Number of users of weather information is b f f h i f i i becoming overwhelming – change from “ h” “ ll” Æ provide constantly “push” to “pull” Æ id l updated data bases + tools for users = users configure own portfolio fi f li
Software Tools Software Tools • Downscaling Downscaling tools Æ tools Æ first generation first generation “smart” smart decision aides”? – Nowcasting on the meso‐ and microscale • Wildfire • Plume spread • Road surface conditions Road surface conditions
– Interpolate mesoscale model output down to micro‐ (landscape) scale; combination of physics, statistics, and GIS; aggressive verification/validation d GIS i ifi ti / lid ti
• Continuity in displays showing past, present, and future
Sensors • “Smart” Smart – Asynchronous – Deployed in auto‐configuring, collaborative Deployed in auto configuring collaborative networks – Self‐maintaining (on‐board diagnostic tools) Self‐maintaining (on‐board diagnostic tools)
• Lidar to complement, extend radar in many applications
Radar Meteorology Radar Meteorology • Dual Dual‐polarization polarization applications applications • Refractivity • Non‐meteorological targets l i l – Aerobiology Æ atmospheric analog to marine b l biology • Birds/bats/insects Æ census, migration; spread of disease
• Fire smoke and other plume monitoring
Climate System Climate System • Threat Assessment Threat Assessment – refine models but also … refine models but also • Stability of a highly non‐linear system – Sudden/Rapid Climate Change Æ S dd /R id Cli t Ch Æ unpleasant l t surprises
Uncertainty • Ensemble Ensemble prediction systems Æ prediction systems Æ Probabalistic Forecasting – Characterization – Communication
• H How we do this on the meso d thi th and smaller d ll scales? Some blend of ensembles and statistics? t ti ti ?
Closing Thoughts Closing Thoughts • Striking Striking balances balances • Flexibility and agility • Entrepreneurial spirit i l ii