Why OpenFlows Storm?

Plan, Design, and Analyze Stormwater Systems Effectively

• Conduct 1D/2D hydraulic analysis for surface flood modeling
• Design the most cost-effective pipe sizes and invert elevations
• Model complex pond outlets for a variety of tailwater conditions
• Import rainfall data and distributions Make Intelligent, Accurate Decisions
• Detect system bottlenecks, improve capacity, and limit stormwater flooding
• Automatically determine cost-effective pipe sizes and invert elevations
• Easily manage models with scenario management and 1D solver options
• Integrate data across multiple platforms with the power of real-time analysis Mitigate Risks and Ensure System Compliance
• Limit stormwater flooding and comply with regulations
• Design high-quality stormwater systems with minimal capital investments
• Perform critical storm analysis
• Perform remediation analysis for a variety of system conditions

Plan, Design, and Analyze Stormwater Systems

Analyze gravity flow, overflows, flow splits/diversions, pump stations, and force mains with various dry-weather and wet-weather calculation methods. Compare solutions with automated gravity system design and scenario management capabilities.

Scenario Management

Design and analyze stormwater systems by performing comprehensive analyses for inlet capture and bypass flows, gutters, detention facilities, open channels, and culverts.

Interoperable Hydraulic Modeling

Configure, evaluate, visualize, and compare an unlimited number of scenarios within a single file. Evaluate strategies for design, operations, sanitary loading, and network topology to improve decision-making.

Multiple 1D Hydraulic Solver Options

Model within several platforms while accessing a single, shared project data source so you can produce optimal urban sewer planning and overflow remediation analysis designs in an easy-to-use environment.

1D/2D Hydraulic Analysis

Understand surface flooding depth and velocity, flood hazard, and inundation times with user- friendly tools that connect 1D network elements with 2D surface flows.