Fluid Flow Systems
Nomeclature
cross-section area | |
wave propagation speed | |
channel width, water level dependent | |
Chezy number | |
specific heat of the fluid | |
specific heat of the gas at constant pressure | |
specific heat of the gas at constant volume | |
velocity difference | |
diameter | |
equivalent diameter | |
water demand | |
roughness coefficient | |
Young’s modulus | |
Froude number | |
gravitational acceleration | |
head | |
headloss | |
head | |
slope | |
roughness coefficient | |
wetted perimeter | |
length | |
mass | |
mass flow rate | |
specific energy per unit mass | |
Mach number | |
polytropic exponent | |
Manning coefficient | |
pressure | |
thermal power | |
heat | |
volumetric flow rate | |
specific gas constant | |
hydraulic radius | |
Reynolds number | |
specific entropy | |
slope | |
friction slope | |
temperature | |
time constant | |
temperature difference | |
internal energy | |
velocity | |
volume | |
pipe axis coordinate / spatial coordinate | |
water level | |
critical water level | |
uniform water level | |
geodetic height | |
relaxation factor | |
correction factor for kinetic energy | |
relative roughness | |
isentropic exponent | |
fricton factor | |
dynamic viscosity | |
kinematic viscosity | |
fluid density | |
loss coefficient | |
choking factor | |
Jacobian matrix | |
one-dimensional | |
two-dimensional | |
Thermal System | |
Hydraulic System | |
Ordinary Differential Equation | |
Open Channel Flow | |
Runge-Kutta method |
Tartalomjegyzék
- Fluid Flow Systems
- Copyright Page
- Nomeclature
- 1. Introduction to Fluid Mechanics
- 1.1. Basic principles of fluid mechanics
- 1.1.1. Continuity equation
- 1.1.2. Bernoulli equation, energy law for fluids
- 1.1.3. Ideal gas law
- 1.1.4. Energy law for compressible fluids
- 1.1.5. Flow in pipelines
- 1.1.6. Flow losses
- 1.1.7. Friction factor of straight pipes
- 1.1.8. Performance curve of pipeline systems
- 1.1.9. Pump characteristic curve
- 1.1.1. Continuity equation
- 1.2. Sample questions for the Introduction
- 1.1. Basic principles of fluid mechanics
- 2. Historical introduction to water networks
- 3. Steady-state flow modeling in pressurized networks
- 4. Open-channel flows
- 5. Stationary flow of compressible fluids in pipelines
- 6. Modelling of thermal systems
- 7. Transient cases
- Bibliography
Kiadó: Akadémiai Kiadó
Online megjelenés éve: 2024
ISBN: 978 963 664 044 6
This university textbook is the joint work of the colleagues of the Department of Hydrodynamic Systems, Faculty of Mechanical Engineering at the Budapest University of Technology and Economics. Its main aim is to help students deepen their knowledge of the subject Fluid Flow Systems. It also provides a brief historical overview and a basic introduction to fluid mechanics. It discusses each chapter in varying degrees of detail based on the course material. At the end of each chapter, check questions guide students in their learning.
Hivatkozás: https://mersz.hu/till-csizmadia-weber-fluid-flow-systems//
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