Stainless steel flanged 150LBS ball valve for low temperature use (BV-40-6SL)
Quick Detail：Stainless steel flanged 150LBS ball valve for low temperature use
√ 15+ Years’ Experience in Flow control valve
Design standard: ANSI B16.34 API600
Body material: stainless steel CF3M
Nominal diameter: DN150
Pressure: PN40
End connection: Flanged Ends EN1092-1
Seal: Metal to Metal
Face to face: ANSI B16.10
Mode of operation: ISO5211 Branches for Pneumatic Actuator ?
Test and inspection: API 598.
Low temperature test as JB/T7749
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Key Specifications / Features
silica sol precision casting
Full bore or reduced bore;
Low emission packing;
anti-static and anti-blowout stem design;
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Product Range:
Optional Construction: 3pcs, 1pcs, 2pcs body.
Full Bore/ Reducing Bore
Floating Ball Design or Trunnion Mounted ball.
Optional Ends: flanged RTJ RF FF, NPT, BSP.
Optional seal: PTFE ,RPTF, TEFLON, Metal Seated
Available Body Material: LCC/LCB/LC1/LC2/LCF3/CF8/CF3M/CF8M
Available Ball : SS304, SS316, Solid type
Pressure Range: 150LBS-1500LBS , PN10-PN250
Size Range: 2”-48” DN50-DN1200mm
Optional Operation； ISO5211 PAD+ pneumatic Actuator / Elec. Actuator /Gearbox + wheel
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Performance:
1. In the closed position, the ball is pressed against the valve seat by the mechanical pressure of the valve stem.
2. When open the valve, the valve stem moves in reverse, and the angular plane at the bottom makes the ball disengage from the valve seat.
3. The stem continues to lift and interacts with the guide pin in the spiral groove of the stem to make the ball start to rotate without friction.
4. Until the fully open position, the valve stem is raised to the limit position, and the ball rotates to the fully open position.
5. When closed, turn the handwheel clockwise, the valve stem starts to lower and the ball leaves the valve seat and starts to rotate.
6. Continue to rotate the handwheel, the valve stem is subjected to the guide pin embedded in the spiral groove on it, so that the valve stem and the ball rotate 90 ° at the same time.
7. When it is about to close, the ball has rotated 90 ° without contact with the valve seat.
8. In the last few rotations of the handwheel, the angled plane at the bottom of the valve stem mechanically wedges the ball, pressing it tightly against the valve seat to achieve a complete seal.
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Application:
Liquid cryogenic media such as ethylene, liquid oxygen, liquid hydrogen, liquefied natural gas, liquefied petroleum products, etc.
Optional Construction: 3pcs, 1pcs, 2pcs body.
Full Bore/ Reducing Bore
Floating Ball Design or Trunnion Mounted ball.
Optional Ends: flanged RTJ RF FF, NPT, BSP.
Optional seal: PTFE ,RPTF, TEFLON, Metal Seated
Available Body Material: LCC/LCB/LC1/LC2/LCF3/CF8/CF3M/CF8M
Available Ball : SS304, SS316, Solid type
Pressure Range: 150LBS-1500LBS , PN10-PN250
Size Range: 2”-48” DN50-DN1200mm
Optional Operation； ISO5211 PAD+ pneumatic Actuator / Elec. Actuator /Gearbox + wheel
1. In the closed position, the ball is pressed against the valve seat by the mechanical pressure of the valve stem.
2. When open the valve, the valve stem moves in reverse, and the angular plane at the bottom makes the ball disengage from the valve seat.
3. The stem continues to lift and interacts with the guide pin in the spiral groove of the stem to make the ball start to rotate without friction.
4. Until the fully open position, the valve stem is raised to the limit position, and the ball rotates to the fully open position.
5. When closed, turn the handwheel clockwise, the valve stem starts to lower and the ball leaves the valve seat and starts to rotate.
6. Continue to rotate the handwheel, the valve stem is subjected to the guide pin embedded in the spiral groove on it, so that the valve stem and the ball rotate 90 ° at the same time.
7. When it is about to close, the ball has rotated 90 ° without contact with the valve seat.
8. In the last few rotations of the handwheel, the angled plane at the bottom of the valve stem mechanically wedges the ball, pressing it tightly against the valve seat to achieve a complete seal.
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Liquid cryogenic media such as ethylene, liquid oxygen, liquid hydrogen, liquefied natural gas, liquefied petroleum products, etc.
