HISTORY ABOUT THE COMMUNITY

SATURATED STEAM TABLE

DIN FLANGES

DIN 2543 Flat Flange For Welding (Slip On) PN16 DN ISO DIN d4 D t Kψ No. of Holes d2 KG 10 17.2 14 40 90 - 60 4 14 0.63 15 21.3 20 45 95 14 65 4 14 0.72 20 26.9 25 58 105 16 75 4 14 1.01 25 33.7 30 68 115 16 85 4 14 1.23 32 42.4 38 78 140 16 100 4 18 1.8 40 48.3 44.5 88 150 16 110 4 18 2.09 50 60.3 57 102 165 18 125 4 18 2.88 65 76.1 - 122 185 18 145 4 18 3.66 80 88.9 - 138 200 20 160 8 18 4.77 100 114.3 108 158 220 20 180 8 18 5.65 125 139.7 133 188 250 22 210 8 18 8.42 150 168.3 159 212 285 22 240 8 23 10.4 200 219.1 216 268 340 24 295 12 23 16.1 250 273 267 320 405 26 355 12 27 24.9 300 323.9 318 378 460 28 410 12 27 35.1 350 355.6 368 438 520 30 470 16 27 47.8 400 406.4 419 490 580 32 525 16 30 63.5 500 508 521 610 715 36 650 20 33 102

THERMODYNAMIC STEAM TRAP - HOW IT WORKS

  Thermodynamic Steam Trap Thermodynamic traps have only one moving part, the valve disc, which allows condensate to be discharged when present and closes tightly upon the arrival of steam. These traps have an inherently rugged design and are commonly used as drip traps on steam mains and supply lines. Their solid construction and single moving part make them resistant to waterhammer and are freeze-proof when installed vertically. Thermodynamic traps will only discharge small amounts of air and therefore are typically not used in process applications Valve Disc Open When condensate is present, trap remains in the open position allowing condensate to discharge. Steam pressure pushes the condensate thru the trap. Valve Disc Starting to Close When steam enters the trap, it creates an internal pressure above the disc that instantly forces the disc and seat to close tightly, preventing steam from escaping.  Valve Disc Closed Steam pressure above the disc holds the disc closed, trapping steam in the system. Trap will remain closed until the steam above the disc condenses, due to heat loss through the cap.