StormSense: Difference between revisions
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{{ActionCluster | {{ActionCluster | ||
|image=stormsense-logo.png | |||
| | |team=Virginia Institute of Marine Science (VIMS), College of William and Mary, Commonwealth Center for Recurrent Flooding Resilience, State of VA, Department of Health | ||
| team | |leader=Jon Loftis | ||
| leader | |imagecaption=StormSense | ||
|municipalities=Newport News VA, City of Virginia Beach, City of Norfolk, City of Hampton, City of Portsmouth, City of Chesapeake, City of Williamsburg, York County VA | |||
| imagecaption | |status=Implemented | ||
| municipalities | |website=https://vims-wm.maps.arcgis.com/apps/MapJournal/index.html?appid=62c80853313743f3acf5a83ab420d015 | ||
| status | |description=* Apply modeling to address multiple-flood types to determine the probable areas at risk by utilizing fixed sensors, crowd-sourced data collection verified by post-flood analysis. | ||
| website | |||
| description | |||
* Apply modeling to address multiple-flood types to determine the probable areas at risk by utilizing fixed sensors, crowd-sourced data collection verified by post-flood analysis. | |||
* Use new state-of-the-art high resolution hydrodynamic models driven with atmospheric model weather predictions to forecast flooding from storm surge, rain, and tides at the street-level scale to improve disaster preparedness. | * Use new state-of-the-art high resolution hydrodynamic models driven with atmospheric model weather predictions to forecast flooding from storm surge, rain, and tides at the street-level scale to improve disaster preparedness. | ||
|challenges=* Communities are often at risk from different types for flooding, however, current models tend to focus on a single type/source | |||
| challenges | |||
* Communities are often at risk from different types for flooding, however, current models tend to focus on a single type/source | |||
* Sensors and gauges are typically deployed to detect single types of flooding (riverine, tidal, rainfall, etc.) | * Sensors and gauges are typically deployed to detect single types of flooding (riverine, tidal, rainfall, etc.) | ||
* Forecast model integration with existing GIS systems for short term pre-disaster planning and deployment of resources | * Forecast model integration with existing GIS systems for short term pre-disaster planning and deployment of resources | ||
|solutions=A Long-Term Predictive Modeling Plan for local, regional, national, and global applications described [https://wm1693.app.box.com/s/v2nw4b01cwj1py6xwaxi6i7r0hbl9s57 here]. | |||
| solutions | |requirements=* Determine applicable models best suited to local conditions | ||
A Long-Term Predictive Modeling Plan for local, regional, national, and global applications described [https://wm1693.app.box.com/s/v2nw4b01cwj1py6xwaxi6i7r0hbl9s57 here]. | |||
| requirements | |||
* Determine applicable models best suited to local conditions | |||
* Beginning with tidal/surge modeling, conduct local verification of models vs. “ground truth” | * Beginning with tidal/surge modeling, conduct local verification of models vs. “ground truth” | ||
* Determine locations for additional sensors and types | * Determine locations for additional sensors and types | ||
Line 32: | Line 19: | ||
* Recruit/train local personnel to take real-time readings to update the forecasting | * Recruit/train local personnel to take real-time readings to update the forecasting | ||
* Expand the program to neighboring jurisdictions, then regionally | * Expand the program to neighboring jurisdictions, then regionally | ||
|kpi=* Verify the accuracy of the VIMS TideWatch predictions with post-storm analysis | |||
| kpi | |||
* Verify the accuracy of the VIMS TideWatch predictions with post-storm analysis | |||
* Verify the accuracy of the multi-flood type models with post-storm analysis with future goals are to improve prediction of flood depths and extents by 10% between stages 2 and 3; data was collected during Jan. 2016 winter storm event; not yet validated. | * Verify the accuracy of the multi-flood type models with post-storm analysis with future goals are to improve prediction of flood depths and extents by 10% between stages 2 and 3; data was collected during Jan. 2016 winter storm event; not yet validated. | ||
|measurement=* Statistical analysis of forecasts vs. time issued, actual flood area and depth. | |||
| measurement | |||
* Statistical analysis of forecasts vs. time issued, actual flood area and depth. | |||
* Emergency response-time analytics during upcoming flood scenarios | * Emergency response-time analytics during upcoming flood scenarios | ||
|standards=* Sensors utilizing common internet protocols over the city’s WiFi and existing SCADA systems | |||
| standards | |||
* Sensors utilizing common internet protocols over the city’s WiFi and existing SCADA systems | |||
* Crowd sourced data collection via a smartphone application | * Crowd sourced data collection via a smartphone application | ||
* Modeling will be accessible via a website | * Modeling will be accessible via a website | ||
* Linkages to alerting would be via the flood model’s Online GIS Data Release Platform and potentially through the SLR mobile App | * Linkages to alerting would be via the flood model’s Online GIS Data Release Platform and potentially through the SLR mobile App | ||
* Expand the program and modeled areas to neighboring jurisdictions, then regionally via A Long-Term Predictive Modeling Plan for local, regional, national, and global applications | * Expand the program and modeled areas to neighboring jurisdictions, then regionally via A Long-Term Predictive Modeling Plan for local, regional, national, and global applications | ||
|impacts=* Predicts the timing of flooding and flooded evacuation routes | |||
| impacts | |||
* Predicts the timing of flooding and flooded evacuation routes | |||
* Aids in rerouting emergency routes for public safety | * Aids in rerouting emergency routes for public safety | ||
* Saves lives and reduces property damage | * Saves lives and reduces property damage | ||
* Identified future mitigation projects | * Identified future mitigation projects | ||
|demonstration=* Phase I Pilot/Demonstration: | |||
| demonstration | |||
* Phase I Pilot/Demonstration: | |||
# Deploy the VIMS forecast and Tidal/Surge maps | # Deploy the VIMS forecast and Tidal/Surge maps | ||
# Deploy the data collection application | # Deploy the data collection application | ||
Line 77: | Line 42: | ||
# Add additional TideWatch gauges in the James River | # Add additional TideWatch gauges in the James River | ||
# Expand the project throughout the Peninsula and into other parts of the Hampton Roads Region | # Expand the project throughout the Peninsula and into other parts of the Hampton Roads Region | ||
|supercluster=Public Safety | |||
|year=2016, 2017, 2018 | |||
| supercluster | |title=StormSense - Tidal, Riverine, Inland, Surge Flood Management Program | ||
| year | |||
}} | }} | ||
Revision as of 22:13, March 13, 2022
StormSense | |
---|---|
StormSense | |
Team Organizations | Virginia Institute of Marine Science (VIMS) College of William and Mary Commonwealth Center for Recurrent Flooding Resilience State of VA Department of Health |
Team Leaders | Jon Loftis |
Participating Municipalities | Newport News VA City of Virginia Beach City of Norfolk City of Hampton City of Portsmouth City of Chesapeake City of Williamsburg York County VA |
Status | Implemented |
Document | None |
Description
- Apply modeling to address multiple-flood types to determine the probable areas at risk by utilizing fixed sensors, crowd-sourced data collection verified by post-flood analysis.
- Use new state-of-the-art high resolution hydrodynamic models driven with atmospheric model weather predictions to forecast flooding from storm surge, rain, and tides at the street-level scale to improve disaster preparedness.
Challenges
- Communities are often at risk from different types for flooding, however, current models tend to focus on a single type/source
- Sensors and gauges are typically deployed to detect single types of flooding (riverine, tidal, rainfall, etc.)
- Forecast model integration with existing GIS systems for short term pre-disaster planning and deployment of resources
Solutions
A Long-Term Predictive Modeling Plan for local, regional, national, and global applications described here.
Major Requirements
- Determine applicable models best suited to local conditions
- Beginning with tidal/surge modeling, conduct local verification of models vs. “ground truth”
- Determine locations for additional sensors and types
- Utilize the existing WiFi connectivity for sensors, and alerting systems
- Recruit/train local personnel to take real-time readings to update the forecasting
- Expand the program to neighboring jurisdictions, then regionally
Performance Targets
Key Performance Indicators (KPIs) | Measurement Methods |
---|---|
|
|
Standards, Replicability, Scalability, and Sustainability
- Sensors utilizing common internet protocols over the city’s WiFi and existing SCADA systems
- Crowd sourced data collection via a smartphone application
- Modeling will be accessible via a website
- Linkages to alerting would be via the flood model’s Online GIS Data Release Platform and potentially through the SLR mobile App
- Expand the program and modeled areas to neighboring jurisdictions, then regionally via A Long-Term Predictive Modeling Plan for local, regional, national, and global applications
Cybersecurity and Privacy
{{{cybersecurity}}}
Impacts
- Predicts the timing of flooding and flooded evacuation routes
- Aids in rerouting emergency routes for public safety
- Saves lives and reduces property damage
- Identified future mitigation projects
Demonstration/Deployment
- Phase I Pilot/Demonstration:
- Deploy the VIMS forecast and Tidal/Surge maps
- Deploy the data collection application
- Verify accuracy of maps and forecasts as opportunities arise
- Phase II Deployment:
- Add additional flood forecasting tools and display methods
- Add additional fixed sensors and collection infrastructure
- Add additional TideWatch gauges in the James River
- Expand the project throughout the Peninsula and into other parts of the Hampton Roads Region