| Ch 4. Energy Analysis | Multimedia Engineering Thermodynamics | ||||||
|
Steady-flow Process |
Steady-flow Devices (1) |
Steady-flow Devices (2) |
Steady-flow Devices (3) |
Unsteady-flow Process |
|||
| Steady-flow Devices (3) | Case Intro | Theory | Case Solution | Simulation |
| Chapter |
| 1. Basics |
| 2. Pure Substances |
| 3. First Law |
| 4. Energy Analysis |
| 5. Second Law |
| 6. Entropy |
| 7. Exergy Analysis |
| 8. Gas Power Cyc |
| 9. Brayton Cycle |
| 10. Rankine Cycle |
| Appendix |
| Basic Math |
| Units |
| Thermo Tables |
| Search |
| eBooks |
| Dynamics |
| Fluids |
| Math |
| Mechanics |
| Statics |
| Thermodynamics |
| Author(s): |
| Meirong Huang |
| Kurt Gramoll |
| ©Kurt Gramoll |
| Suggested Help Questions |
| If the computer has 5 PCBs installed and the room temperature is 20 oC, what are the exit temperature and the fan power? |
| Technical Help |
|
This simulation shows the computer cooling process by a fan. For a given fan, air inlet temperature and exit temperature, the number of PCBs that can be used in the computer is calculated. |
 |
Use this slider to change the temperature at the inlet of the fan. |
 |
Use this slider to change the air temperature at the exit of the enclosure. |
 |
Use this slider to change the power of the fan. |
 |
This window shows the number of the PCBs that the computer can contain. |
 |
This window shows other given conditions for this calculation. |