A solar pond, 1.5 m deep, is built in Pondicherry (11°56' N). Thehorizontal pyranometer placed beside the pond on April 20 at 1.300following values of global and diffuse radiation are measured by aIa=0.210 kW/m²Calculate the variation of the solar radiation flux as it penetratesthrough the pond.

Name: A solar pond, 1.5 m deep, is built in Pondicherry (11°56' N). Thehori
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Description: A solar pond, 1.5 m deep, is built in Pondicherry (11°56' N). Thehorizontal pyranometer placed beside the pond on April 20 at 1.300following values of global and diffuse radiation are measured by aIa=0.210 kW/m²Calculate the variation of the solar r

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A solar pond, 1.5 m deep, is built in Pondicherry (11°56' N). The following values of global and diffuse radiation are measured by a on April 20 at 1.300 h horizontal pyranometer placed beside the pond (LAT): I=0.964 kW/m² Id=0.210 kW/m² Calculate the variation of the solar radiation flux as it penetrate through the pond.

A solar pond, 1.5 m deep, is built in Pondicherry (11°56' N). The following values of global and diffuse radiation are measured by a on April 20 at 1.300 h horizontal pyranometer placed beside the pond (LAT): I=0.964 kW/m² Id=0.210 kW/m² Calculate the variation of the solar radiation flux as it penetrate through the pond.

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

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