Air flow.
Guage measurement:
at gap 10 kg/hr, or 22lbs/hr.
Guage opening at gap:
3/4” x1.5”= 1,125 sq.in.
Gap area measures
3/4”x 27” = 20.25 sq.in.
Total mass is of air going through gap =
Mass of measured air flow at gap area x gap area divided by area of adgested measurement.
22lbs x 20.25 sq.in./1.125sq.in. = 396lbs/hr
Radiator opening measured 26” x 18” = 468 sq.in.
Measurement at guage at radiator was a little less at 9kg/hr or 19.8lbs/hr.
Guage opening was 1.5 diameter circle. Area of circle is pi r squared or 3.14x .75” x.75” = 1.77 sq.in.
Doing the same as above to calculate the mass/hr going through the radiator and we get 5235.25 lbs/hr
Comparatively, the gap accounts for approximately 7% of the total air volume. I would call that significant but not critical.
Guage measurement:
at gap 10 kg/hr, or 22lbs/hr.
Guage opening at gap:
3/4” x1.5”= 1,125 sq.in.
Gap area measures
3/4”x 27” = 20.25 sq.in.
Total mass is of air going through gap =
Mass of measured air flow at gap area x gap area divided by area of adgested measurement.
22lbs x 20.25 sq.in./1.125sq.in. = 396lbs/hr
Radiator opening measured 26” x 18” = 468 sq.in.
Measurement at guage at radiator was a little less at 9kg/hr or 19.8lbs/hr.
Guage opening was 1.5 diameter circle. Area of circle is pi r squared or 3.14x .75” x.75” = 1.77 sq.in.
Doing the same as above to calculate the mass/hr going through the radiator and we get 5235.25 lbs/hr
Comparatively, the gap accounts for approximately 7% of the total air volume. I would call that significant but not critical.
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