Abstract: Methods and systems for electronically tracking the progress of teams as they cover an assigned geographic area are described herein. A server computer establishes a coverage area, divides the coverage area into a plurality of regions, and assigns each region to a team. Each team carries a tracking device capable of autonomously determining its present location without user assistance, thus allowing the team to focus on the assigned task, such as searching for a missing person, plowing a field, paving a road, etc. The server monitors the location of each tracking device as each team covers its assigned region, and updates on a visually displayed geographic map a historical path associated with each tracking device based on the monitored location of each tracking device. In this manner, users can quickly view the visual depiction of the historical to determine as yet uncovered areas.

Abstract: The invention provides a system and method for reporting hazard and event information from a mobile unit, and using that information to warn a user of an event or future hazard with reference to the mobile unit's location and/or intended direction of travel. Users may wirelessly report events or hazards to a central server in an event center by sending data to the event center via a wireless communications network. Secondary information may be included, based on the selected event type, along with images, audio, and video of the event. The event center stores event information, including event locations based on the locations of the transmitting mobile units, and makes this information available to allow other users to respond to the hazard or event.

Abstract: A computer-implemented method and system evaluates and displays a return on investment for using weather-related risk-management services. The system includes user interfaces, databases containing information about the accuracy of different forms of weather-related risk-management services and the types and frequency of weather events in different geographical areas, and return on investment functions. The system accepts information about a user's costs of responding to weather warnings and events, retrieves information from its databases and applies the appropriate function to determine a return on investment. The result is then displayed to the user. The method determines the costs of weather-related risks faced by a user under two different risk-management services and compares them, determining a return on investment for the use of one service over the other.

Abstract: The invention provides a system and method for receiving hazard and event information in a mobile unit and using that information to warn a user of an event or future hazard with reference to the mobile unit's location and/or intended direction of travel. A hazard location algorithm compares a forecast location of each mobile unit with a forecast hazard and transmits a warning to each mobile unit that is predicted to encounter the hazard. As the mobile unit moves, its actual position is updated in an event center, and a revised warning is transmitted to the mobile unit as applicable. Warnings include audio warnings for playback and/or visual warnings for display on the mobile device. Users may also wirelessly report events or hazards to a central server in an event center by sending data to the event center via a wireless communications network. Secondary information may be included, based on the selected event type.

Abstract: Methods and systems for normalizing flood warnings and potential flood levels across multiple river gauges by converting localized flood stage levels to a datum-based normalized value are disclosed. The normalized flood levels can then be used to plot flood levels from multiple river gauges on an inundation map. Methods and systems are also disclosed for creating animated inundation maps that illustrate flood levels geographically, and may include an indication of the certainty that flooding will reach one or more of the indicated flood levels through the use of multiple colors, shades, dithering, or the like.

Abstract: The invention provides a system and method for receiving hazard and event information in a mobile unit and using that information to warn a user of an event or future hazard with reference to the mobile unit's location and/or intended direction of travel. A hazard location algorithm compares a forecast location of each mobile unit with a forecast hazard and transmits a warning to each mobile unit that is predicted to encounter the hazard. As the mobile unit moves, its actual position is updated in an event center, and a revised warning is transmitted to the mobile unit as applicable. Warnings include audio warnings for playback and/or visual warnings for display on the mobile device. Users may also wirelessly report events or hazards to a central server in an event center by sending data to the event center via a wireless communications network. Secondary information may be included, based on the selected event type.

Abstract: The invention provides a system and method for receiving weather forecast information in a mobile unit (MU) and using that information to warn a user of a future weather hazard with reference to the MU's location and/or intended direction of travel. A hazard location algorithm compares a forecast location of each MU with a forecast hazard and transmits a warning to each MU that is predicted to encounter the hazard. As the MU moves, its actual position is updated in the forecasting center, and a revised warning is transmitted to the MU. The hazard information may be displayed on the user's system in the form of a rotating map with an automatically adjustable range to display warning information in relation to the system's location. Warnings, including audio warnings for playback and crawls for display on a television, can be automatically generated and spoken or displayed to a user.

Abstract: The invention provides a system and method for receiving weather forecast information in a mobile unit and using that information to warn a user of a future weather hazard with reference to the mobile unit's location and/or intended direction of travel. A hazard location algorithm compares a forecast location of each mobile unit with a forecast hazard and transmits a warning to each mobile unit that is predicted to encounter the hazard. As the mobile unit moves, its actual position is updated in the forecasting center, and a revised warning is transmitted to the mobile unit. The hazard information may be displayed on the user's system in the form of a rotating map with an automatically adjustable range to display warning information in relation to the system's location. Warnings, including audio warnings for playback and crawls for display on a television, can be automatically generated and spoken or displayed to a user.

Abstract: The invention provides a system and method for activating one or more warning devices, such as weather warning sirens, environmental warning devices, flash flood gates, and the like, from a remote or central location. Warning devices situated across geographically dispersed areas can be remotely controlled from a central location, such as a weather center, on the basis of detected and predicted weather patterns and other environmentally hazardous events. One or more warning devices can be quickly and easily activated through a computer-implemented user interface that allows a user to select a group of warning devices that are in the path of an approaching hazardous event. Each warning device is activated through a communication line that transmits an activation code to each device. Each device provides confirmation that it has been activated, and the resulting activation is indicated on a computer screen.

Abstract: The invention provides a system and method for receiving weather forecast information in a vehicle and using that information to warn a vehicle operator of a future weather hazard with reference to the vehicle's intended direction of travel. A weather forecasting center maintains a database and display of forecast weather hazards across a large area. The forecasting center also receives information regarding the, location of each of a plurality of vehicles, such as automobiles or a fleet of commercial trucks. A hazard location algorithm compares a forecast location of each vehicle with a forecast weather hazard and transmits a warning to each vehicle that is predicted to encounter the hazard. The warning can take the form of text, audio, and/or a visual display indicating, for example, that the weather hazard will continue for a certain period of time. As the vehicle moves, its actual position is updated in the forecasting center, and a revised warning is transmitted to the vehicle.

Abstract: A user-selectable cursor can be positioned over a portion of a cloud formation displayed on a computer display, where the portion corresponds to precipitation that is expected to move over a target point or area. Predicted precipitation amounts corresponding to the portion are calculated and displayed, allowing the user to see how much precipitation is expected to occur over the target point or area. In one variation, radar reflectivity data indicating relative storm intensities is displayed on the computer screen, and the cursor is used to select a region of interest including one or more cells that are expected to move over a target area. Reflectivity values for each cell that is expected to move over the target area are converted into predicted precipitation rates, and are multiplied by the time that each cell is expected to remain over the target area.