The hot water needs of a household are to be met by heating water at 15°C to 95°C by a parabolic solar collector at a rate of 1.8 kg/s. Water flows through a 4-cm-diameter thin aluminum tube whose...


The hot water needs of a household are to be met by heating water at 15°C to 95°C by a parabolic<br>solar collector at a rate of 1.8 kg/s. Water flows through a 4-cm-diameter thin aluminum tube whose<br>outer surface is blackanodized in order to maximize its solar absorption ability. The centerline of the<br>tube coincides with the focal line of the collector, and a glass sleeve is placed outside the tube to<br>minimize the heat losses. If solar energy is transferred to water at a net rate of 200 W per meter length<br>of the tube, determine the required length of the parabolic collector to meet the hot water requirements<br>of this house. Also, determine the surface temperature of the tube at the exit.<br>Parabolic<br>solar collector<br>Water<br>95°C<br>1.8 kg/s<br>Glass tube<br>Water tube<br>

Extracted text: The hot water needs of a household are to be met by heating water at 15°C to 95°C by a parabolic solar collector at a rate of 1.8 kg/s. Water flows through a 4-cm-diameter thin aluminum tube whose outer surface is blackanodized in order to maximize its solar absorption ability. The centerline of the tube coincides with the focal line of the collector, and a glass sleeve is placed outside the tube to minimize the heat losses. If solar energy is transferred to water at a net rate of 200 W per meter length of the tube, determine the required length of the parabolic collector to meet the hot water requirements of this house. Also, determine the surface temperature of the tube at the exit. Parabolic solar collector Water 95°C 1.8 kg/s Glass tube Water tube

Jun 11, 2022
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