This list shows keyword variations and their frequency in individual articles - the frequency can be used to assess the relevance of the article to the search topic. The symbol (P) for a keyword means the word "Problem", respectively the keyword also appears in the specification of a problem. So far only article No. 1. - 5., 10., 13., 14. are indexed.
4. . . . . . . .
● Blade cascade(P) ● Blade oscillation ● Diagonal blade cascade ● Radial blade cascade ● Twisted blade
5. . . . . . . .
● Bowed-twisted blade ● Inlet guide vane ● Sloping blade ● Turnable blades ● Twisted blade(P)
10. . . . . . . .
● Blade ● Blade aeroelasticity ● Blade bending ● Blade root ● Turnable blades ● Shell blade ● Straight blade
13. . . . . . . .
● Blade cooling ● Materials of blades ● Steam turbine blade ● Straight blade ● Symmetric blades ● Twisted blade
Brake10. . . . . . . .
● Aerodynamic brake
Branche1. . . . . . . .
● Branches
3. . . . . . . .
● Axial branches ● Branches ● Side branches
Calculation1. . . . . . . .
● 1D calculation ● 2D calculation(P) ● 3D calculation
5. . . . . . . .
● 2D calculation(P)
10. . . . . . . .
● 2D calculation
13. . . . . . . .
● 1D calculation
14. . . . . . . .
● Calculation of radial rotor
Camber3. . . . . . . .
● Camber
Cascade3. . . . . . . .
● Confuser cascade ● Density of profile cascade ● Pressureless cascade ● Width of profile cascade
13. . . . . . . .
● Profile cascade
Casing2. . . . . . . .
● Spiral casings(P)
3. . . . . . . .
● Spiral casings(P)
Cavitation3. . . . . . . .
● Cavitation
Characteristics10. . . . . . . .
● Power characteristics
13. . . . . . . .
● Dimensionless characteristic
Chord● Chord
Circulation5. . . . . . . .
● Opposite circulation
CMC13. . . . . . . .
● CMC
Coating13. . . . . . . .
● Anti-corrosion coating ● Protective coating
Coefficient3. . . . . . . .
● Zweifel coefficient
|
4. . . . . . . .
● Drag coefficient ● Lift coefficient ● Loss coefficient ● Weining coefficient
5. . . . . . . .
● Loss coefficient ● Slip coefficient
10. . . . . . . .
● Angular induction coefficient ● Axial induction coefficient ● Capacity coefficient ● Power coefficient(P) ● Prandtl coefficient ● Thrust coefficient(P)
13. . . . . . . .
● Flow coefficient ● Head coefficient ● Velocity coefficient ● Reheat coefficient ● Zweifel coefficient
14. . . . . . . .
● Preheat coefficient(P)
Compression14. . . . . . . .
● Adiabatic compression ● Air compression ● Helium compression ● Isoentropic compression ● Methane compression ● Multi-stage compression ● Polytropic compression ● Reversible polytropic compression ● Steam compression
Condensation14. . . . . . . .
● Condensation
Conductivity13. . . . . . . .
● Thermal conductivity
Confuser● Bladeless confuser (see Bladeless stator)
Contaminants3. . . . . . . .
● Contaminants
Control10. . . . . . . .
● Stall control ● Yaw control
Cooling13. . . . . . . .
● Air cooling
14. . . . . . . .
● Casing cooling ● Cooling ● Cooling by coolant injection ● Cooling effectiveness ● Intercooling(P)
Coordinate● Cylindrical coordinate system
Diffuser● Bladeless diffuser (see Bladeless stator)
Direction● Meridional direction
Drag● Drag
Drop13. . . . . . . .
● Entalpic drop
Eddy5. . . . . . . .
● Relative eddy (see Opposite circulation)
Edge1. . . . . . . .
● Leading edge ● Trailing edge
4. . . . . . . .
● Trailing edge
|
Effect3. . . . . . . .
● Coanda effect
10. . . . . . . .
● Unsteady aerodynamics effects
Efficiency1. . . . . . . .
● Hydraulic efficiency ● Internal efficiency(P) ● Thermodynamics efficiency
2. . . . . . . .
● Euler work efficiency ● Internal efficiency
5. . . . . . . .
● Internal efficiency
14. . . . . . . .
● Internal efficiency(P) ● Isentropic efficiency(P) ● Isothermal efficiency(P) ● Polytropic efficiency(P)
Energy1. . . . . . . .
● Head of energy
Engine● Jet engine
Equation1. . . . . . . .
● Bernoulli equation
2. . . . . . . .
● Euler equation of hydrodynamics ● Euler turbomachinery equation
4. . . . . . . .
● Transformation equations
Expansion13. . . . . . . .
● Adiabatic expansion● Cooled expansion ● Expansion ● Multi-stage expansion ● Steam expansion(P) ● Polytropic expansion ● Polytropic ideal expansion
Extraction5. . . . . . . .
● Extraction
Failure1. . . . . . . .
● Fatigue failure
Fan1. . . . . . . .
● Fans ● Low pressure fan ● Radial fan
2. . . . . . . .
● Fans
3. . . . . . . .
● Radial fan
Flow2. . . . . . . .
● Axisymmetric potential flow ● Flow separation ● Potential flow
3. . . . . . . .
● Camber of flow ● Flow separation
4. . . . . . . .
● Camber of flow ● Flow separation(P) ● Flow with losses ● Ideal flow ● Laminar flow ● Turbulent flow
5. . . . . . . . ● Axisymmetric potential flow ● Backflow ● Flow separation ● Secondary flow ● Specific mass flow
10. . . . . . . .
● Camber of flow ● Flow separation ● Unsteady flow
14. . . . . . . .
● Flow separation
Fluid1. . . . . . . .
● Working fluid state
Force2. . . . . . . .
● Axial force ● Force from bodies ● Force on blade(P) ● Force on pipe(P) ● Radial force ● Tangential force ● Pressure forces
4. . . . . . . .
● Force on blade
10. . . . . . . .
● Force on blade(P)
|
Friction4. . . . . . . .
● Internal friction
5. . . . . . . . ● Friction
Generator10. . . . . . . . ● Asynchronous generator ● Multi-frequency generator
Governing5. . . . . . . .
● Nozzle governing
Gradient2. . . . . . . .
● Pressure gradinet
Head1. . . . . . . .
● Head
Heat13. . . . . . . . ● Heat transfer ● Re-used heat
5. . . . . . . . ● Heat transfer
Heating14. . . . . . . .
● Heating
HAWT10. . . . . . . .
● HAWT
Humidity10. . . . . . . .
● Humidity
14. . . . . . . .
● Relative humidity
h-s chart● h-s chart
5. . . . . . . .
● h-s chart of branche
Impeller● (see Rotor)
Inducer1. . . . . . . .
● Inducer(P)
● Inducer
Ingredients13. . . . . . . .
● Ingredients
Law1. . . . . . . .
● First law of thermodynamics
Layer● Boundary layer
Leakage5. . . . . . . .
● External leakage ● Tip leakage losses
Lift4. . . . . . . .
● Lift
|
Limit10. . . . . . . .
● Betz limit
Line3. . . . . . . .
● Camber line(P)
Live10. . . . . . . .
● Service life
Losses1. . . . . . . .
● Internal losses(P) ● Losses
2. . . . . . . .
● Losses
4. . . . . . . .
● Pressure loss ● Profile loss(P)
5. . . . . . . .
● Calculation of losses ● Internal losses ● Rotor friction loss ● Tip clearance losses
10. . . . . . . .
● Helical vortex loss ● Losses ● Profile loss ● Tip clearence loss
13. . . . . . . .
● Internal losses ● Profile losses ● Total losses
14. . . . . . . .
● Additional losses(P) ● Loss heat ● Pressure loss ● Reverse flow losses ● Rotor friction loss
Machine1. . . . . . . .
● Heat machine ● Hydraulic machine ● Vortex machine ● Working machine
2. . . . . . . .
● Hydraulic machine
3. . . . . . . .
● Working machine
Model5. . . . . . . . ● Model
Moisture14. . . . . . . .
● Moisture
Momentum● Theorem of momentum change
Monopile10. . . . . . . .
● Monopile
Noise3. . . . . . . .
● Noise
Number4. . . . . . . .
● Critical Mach number ● Reynolds number
5. . . . . . . .
● Machovo číslo
Passage1. . . . . . . .
● Blade passage
3. . . . . . . .
● Mean width of blade passage
4. . . . . . . .
● Blade passage
13. . . . . . . .
● Cooling passages
Pitch● Pitch
Power1. . . . . . . .
● Internal power ● Nominal power ● Optimal power ● Power input(P)
10. . . . . . . .
● Nominal power ● Wind power plant ● Wind power plant Smith-Putnam
|
Process5. . . . . . . .
● Ideal process
Profile1. . . . . . . .
● Blade profile ● Profile cascade
3. . . . . . . .
● Blade profile ● Angles of profile ● Diffuser profil cascade ● Profile cascade ● Profile coordinates ● Profile cross-section
4. . . . . . . .
● Diffuser profil cascade ● Profile cascade(P)
10. . . . . . . .
● Blade profile
Propeller● Propeller
Pump1. . . . . . . .
● Feed pump ● Circualtion pump ● Condensate pump ● Rotodynamic pump
Radius1. . . . . . . .
● Mean radius ● Mean square radius
2. . . . . . . .
● Mean radius
Ratio14. . . . . . . .
● Compression ratio
10. . . . . . . .
● Tip speed ratio
Reaction2. . . . . . . . ● Reaction(P)
● Reaction
14. . . . . . . . ● Reaction
Resistance13. . . . . . . .
● Corrosion resistance
Refurbishing10. . . . . . . .
● Refurbishing
Roughness4. . . . . . . .
● Surface roughness
Rotor● Rotor
5. . . . . . . . ● Disc type rotor ● Rotor
Shape3. . . . . . . .
● Droplet shape
Shroud● Shroud
● Shroud ● Shroud disc
Shutdown10. . . . . . . . ● Shutdown
Slip5. . . . . . . . ● Slip
|
Snubber3. . . . . . . . ● Integral snubber
Spacer1. . . . . . . .
● Spacer
Speed1. . . . . . . . ● Blade speed ● Rotational speed ● Specific speed
10. . . . . . . .
● Wind speed
4. . . . . . . . ● Supersonic speed
5. . . . . . . . ● Rotational speed
10. . . . . . . .
● Rotational speed(P)
Spiral2. . . . . . . .
● Logarithmic spiral(P)
Stability13. . . . . . . .
● Temperature stability
Stage1. . . . . . . .
● Axial stage ● Elementary stage ● Diagonal stage ● Radial stage(Ú) ● Turbomachine stage
2. . . . . . . .
● Axial stage ● Impulse stage ● Reaction stage ● Turbomachine stage
3. . . . . . . .
● Axial stage ● Radial stage
5. . . . . . . . ● Axial stage ● Conical stage ● Normal stage ● Radial stage
13. . . . . . . .
● Axial stage ● Conical stage ● Curtis stage ● Heat turbine stage ● Impulse stage ● Reaction stage(P) ● Radial stage
14. . . . . . . .
● Axial stage ● Conical stage ● Radial stage ● Turbocompressor stage
Start10. . . . . . . .
● Start
Stator● Bladeless stator ● Stator
2. . . . . . . .
● Bladeless stator(P) ● Stator
Steel13. . . . . . . .
● Steel
Stream● Stream tube
Strength3. . . . . . . .
● Strength
Surface1. . . . . . . .
● Pressure surface ● Suction surface
Thrust1. . . . . . . .
● Thrust
Titan13. . . . . . . .
● Titan
Torque10. . . . . . . .
● Torque
|
Tunnel4. . . . . . . .
● Wind tunnel
Turbine1. . . . . . . .
● Combustion turbine ● Francis turbine ● Gas turbine ● Kaplan turbine ● Laval turbine(P) ● Multi-casing turbine ● Multi-stage steam turbine ● Pelton turbine ● Steam turbine ● Water turbine ● Wind turbine
2. . . . . . . .
● Francis turbine ● Kaplan turbine(P) ● Laval turbine ● Pelton turbine ● Water turbine
3. . . . . . . .
● Francis turbine
4. . . . . . . . ● Wind turbine
5. . . . . . . . ● Combustion turbine ● Francis turbine ● Kaplan turbine ● Laval turbine
10. . . . . . . .
● Wind turbine
13. . . . . . . .
● Combustion turbines ● Heat turbine ● Multi-stage turbine ● Radial turbine ● Steam turbine(P)
Turbocharger1. . . . . . . .
● Turbocharger
Turbocompressor1. . . . . . . .
● Turbocompressor
14. . . . . . . .
● Efficiency of turbocompressor ● Multi-stage turbocompressor ● Thermodynamics of turbocompressors ● Turbocompressor(P) ● Turbocompressor blades ● Turbocompressors cooling
Turbomachine● Turbomachines
1. . . . . . . .
● Multi-stage turbomachine ● Radial turbomachine ● Tangential turbomachine
Turboset1. . . . . . . .
● Turboset(P)
T-s chart● T-s chart
Vane● Vane (see Blade) ● Quide vanes (see Stator)
VAWT10. . . . . . . .
● VAWT
Velocity1. . . . . . . .
● Absolute velocity ● Mean velocity ● Relative velocity ● Velocity triangle(P)
2. . . . . . . .
● Absolute velocity ● Circulation of velocity ● Mean aerodynamic velocity ● Relative velocity ● Velocity triangle
3. . . . . . . .
● Mean aerodynamic velocity
5. . . . . . . . ● Meridional velocity ● Outlet velocity ● Radial velocity component ● Tangential velocity component ● Uneven velocity distribution ● Velocity triangle
10. . . . . . . .
● Mean aerodynamic velocity ● Velocity profile
13. . . . . . . .
● Meridian velocity ● Outlet velocity ● Velocity triangle
14. . . . . . . .
● Outlet velocity
Volume2. . . . . . . .
● Control volume
|
Vortex4. . . . . . . .
● Vortexing
5. . . . . . . .
● Passage vortices ● Counter vortices
10. . . . . . . .
● Helical vortex ● Tip vortex ● Vortex generator
Wave4. . . . . . . .
● Shock wave
Weight2. . . . . . . .
● Weight
Work1. . . . . . . .
● Ideal internal work ● Internal work(P)
2. . . . . . . . ● Euler work(P) ● Internal work
5. . . . . . . . ● Euler work
13. . . . . . . . ● Euler work ● Internal work
14. . . . . . . .
● Euler work ● Internal work
|