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ARMSTRONG 571110LF-350 Image 1

ARMSTRONG 571110LF-350 1/2IN SWT CBV-VTCR 5 TURN DZR LF

MFR Part #: 571110LF-350
SKU #: 1123240
Brand: Armstrong Fluid Technology
UPC: 672807426583
Armstrong Fluid Technology ARMflo 571110LF-350 CBV-VS Venturi Style Low Flow Circuit Balancing Valve, 1/2 in Nominal, Solder Joint End Style, 0.26 to 1.98 gpm Flow Rate, Brass Body
HVAC and Plumbing Application
CW617 Body|NSF 372|UNS C46500

Armstrong Fluid Technology ARMflo Circuit Balancing Valve, Venturi Style Low Flow, Series: CBV-VS, 1/2 in Nominal, Solder Joint, 300 psi, -4 to 300 deg F, 0.26 to 1.98 gpm, Micrometer Style Handle Actuator, 3.19 in Inlet to Outlet Length, Brass Body, 4.56 in H x 2.76 in D

The Armstrong Circuit Balancing Valves (CBV) provide precision flow measurement, pump throttling and temperature measurement capabilities. 1/2 to 2 in models feature multi-turn adjustment for precise control, hidden memory stops to set balance point and soft seats for positive shutoff.

Product Details

Armstrong Fluid Technology ARMflo Circuit Balancing Valve, Venturi Style Low Flow, Series: CBV-VS, 1/2 in Nominal, Solder Joint, 300 psi, -4 to 300 deg F, 0.26 to 1.98 gpm, Micrometer Style Handle Actuator, 3.19 in Inlet to Outlet Length, Brass Body, 4.56 in H x 2.76 in D

The Armstrong Circuit Balancing Valves (CBV) provide precision flow measurement, pump throttling and temperature measurement capabilities. 1/2 to 2 in models feature multi-turn adjustment for precise control, hidden memory stops to set balance point and soft seats for positive shutoff.

Attributes

Actuator Type: Micrometer Style Handle
Body Material: Brass
Dimensions: 4.56 in H x 2.76 in D
End Style: Solder Joint
Flow Rate: 0.26 to 1.98 gpm
Inlet to Outlet Length: 3.19 in
Nominal Size: 1/2 in
Pressure Rating: 300 psi
Series: CBV-VS
Temperature Rating: -4 to 300 deg F
Type: Venturi Style Low Flow

Features

  • High precision, fixed orifice PMD assures faster setting and superior accuracy
  • Integral fixed KV primary measuring element for maximum differential pressure signal stability and optimum flow correlation accuracy