Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space...

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Lecture 9 Solar Heating – Ch. 6 • Solar Heating Today • Domestic Water Heating • Passive Solar Space Heating • Active Solar Space Heating • Thermal Energy Storage
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Transcript of Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space...

Page 1: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.

Lecture 9 Solar Heating – Ch. 6

• Solar Heating Today

• Domestic Water Heating

• Passive Solar Space Heating

• Active Solar Space Heating

• Thermal Energy Storage

Page 2: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.

Fig. 6-17, p. 177

Page 3: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.

p. 178

Page 4: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.

Fig. 6-18, p. 179

Page 5: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.
Page 6: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.

Fig. 6-20, p. 182

Page 7: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.

Fig. 6-21, p. 182

Page 8: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.
Page 9: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.

Fig. 6-24, p. 185

Direct Gain Solar Heating

Page 10: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.

Fig. 6-26, p. 186

Indirect Gain With A Trombe Wall

Page 11: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.

Fig. 6-27, p. 188

Indirect Gain & Direct Combination as Greenhouse

Page 12: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.

Fig. 6-28, p. 188

Thermosiphoning Air Panel Collector

Page 13: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.

Table 6-4, p. 189

Page 14: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.

Fig. 6-29, p. 190

Page 15: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.

Active SolarFig. 6-30, p. 191

Page 16: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.

Fig. 6-31, p. 192

Page 17: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.

Fig. 6-32, p. 192

Page 18: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.

Important Equations In Solar Energy

Q = I.ε.AI = average insolation ε = efficiency of collectorA = surface area of collector

Q = m.c.∆T m = mass of storage substancec = specific heat of storage substance∆T = storage temp - ambient temp

Understand examples on page193 & 194

Page 19: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.

Table 6-5, p. 194

Page 20: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.

Table 6-6, p. 195

Page 21: Lecture 9 Solar Heating – Ch. 6 Solar Heating Today Domestic Water Heating Passive Solar Space Heating Active Solar Space Heating Thermal Energy Storage.