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IntroductionPressure spikes can punish valves fast, so why do some still turn smoothly? A Trunnion Ball Valve stays stable because the ball is fixed, and the seats move to seal as pressure rises. That design helps keep torque predictable and shutoff reliable in demanding lines.
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IntroductionEver wondered why a valve can seal tighter as pressure rises? A Floating Ball Valve uses a simple 90-degree turn to open or block flow, yet the real magic happens at shutoff. The ball is not fixed at both ends, so it can shift slightly in the flow direction.
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IntroductionEver sized a valve by habit and regretted the torque later? A Floating Ball Valve and a trunnion ball valve both isolate flow, yet they behave very differently once pressure rises. Those differences shape sealing contact, breakaway torque, and actuator sizing, especially as valve size and pressure class increase.
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IntroductionOverflow wastes water, time, and trust. A floating ball valve helps prevent it by shutting off flow at a set level, so tanks stay stable and crews avoid surprise spills. In this guide, we walk through a clean, repeatable installation process you can use on tanks, cisterns, troughs, and many utility setups.
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In modern industrial processes, controlling the flow of fluids—whether it be gases, liquids, or slurries—is essential for maintaining system efficiency, safety, and performance. Valves play a crucial role in regulating, directing, and isolating fluid flow within a system.
