Multi-rider rafts (4-person and 6-person) achieve up to 800+ PPH throughput with high excitement ratings. To prevent raft hydroplaning stalls, ensure bottom run-out deceleration basins maintain at least 4.0 feet of water depth and 600+ GPM flow.
Slide Physics & G-Force Calculator
Simulate drop velocity, lateral/vertical G-forces, splashdown braking runout, excitement ratings, and theoretical queue throughput (PPH).
Slide Geometry & Fluid Parameters
Elevation (m) & Velocity (mph) vs Track Distance
Duration: 8.1s- Lateral G-Forces (3.02G) exceed human safety threshold (2.8G). Increase curve radius.
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Frequently Asked Questions
How does the Slide Physics Calculator compute terminal velocity?
Terminal velocity is calculated via conservation of energy with water-lubricated fiberglass friction loss: v = √(2 · g · h · (1 − μ · cot(θ))). Water flow rates above 600 GPM reduce friction by up to 40%.
What is the maximum safe lateral G-force on slide curves?
International aquatic safety standards (ASTM F2376) enforce a 2.80G maximum lateral limit. Curves exceeding 2.80G risk rider rollover and require widening the track radius or increasing wall banking angles.
How do I maximize theoretical queue throughput (PPH)?
Theoretical throughput depends on vehicle rider capacity (e.g. 4-person raft vs single body) and block-braking dispatch intervals. Installing automated optical sensors allows dispatching a new rider every 8-12 seconds safely.