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1. Measurement principle of wedge-shaped flowmeter
When a fluid passes through a wedge-shaped flowmeter, due to the throttling effect of the wedge block, a differential pressure equal to the square of the flow rate is generated on the upstream and downstream sides. This differential pressure is led out from the pressure taps on both sides of the wedge block and sent to the differential pressure transmitter for conversion into an electrical signal output. After being calculated by a dedicated intelligent flow integrator, the flow rate value can be obtained. The flow equation of a wedge-shaped flowmeter is C επ D2 2 Δ Pqv=m1-m2 4 ρ, where qv represents fluid flow rate and m3/sC represents outflow coefficient; ε - swelling coefficient of expandable bonds; π D2m - the ratio of opening to pipe surface turbulence, S1/-4S1- bow shaped flow area, m2D - pipe inner diameter, m; Δ P - differential pressure, Pa ρ - measured medium density, kg/m3
2. Measurement principle of wedge-shaped flowmeter
When the fluid passes through the beam dynamic wedge-shaped flowmeter, the wedge-shaped structure plays a key throttling role. This throttling process results in a pressure difference on the upstream and downstream sides of the flowmeter that has a square relationship with the actual flow rate. This pressure difference is cleverly introduced from the pressure taps on both sides. These differential pressure signals are then sent to the differential pressure transmitter, which converts them into electrical signals for output. Furthermore, these electrical signals are processed and calculated by specially designed intelligent flow integrators, and ultimately, we can obtain flow values from these tedious mathematical rel


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