Skip to main content
Ctrl+K
engineeringkit logo engineeringkit logo
  • Subpackages
  • History
  • Examples
  • API
  • Subpackages
  • History
  • Examples
  • API

Section Navigation

  • Examples
    • Beams
    • Energy methods
    • Frames
    • Members
    • Plasticity
    • Stability
    • Stress
    • Trusses
  • Examples
    • Dynamics
    • Machine elements
    • Mechanisms
    • Rotordynamics
    • Transmission
    • Vibration
  • Examples
    • Cycles
    • Exergy
    • Laws
    • Properties
    • Psychrometrics
    • Refrigeration
  • Examples
    • Hydrostatics
    • Measurement
    • Networks
    • Open channels
    • Pipe flow
    • Pumps
    • Similarity
    • Transients
  • Examples
    • Conduction
    • Convection
    • Heat exchangers
    • Phase change
    • Radiation
    • Transient conduction
  • Examples
    • Airfoils
    • Standard atmosphere
    • Boundary layers
    • Circulation
    • Compressible flow
    • Forces and coefficients
    • Performance
    • Finite wings
  • Examples
    • AC circuits
    • DC circuits
    • Networks
    • Power
    • Transients
    • Transmission lines
  • Examples
    • Feedback
    • Frequency response
    • Optimal control and estimation
    • Root locus
    • Sampled-data control
    • Stability
    • State space
    • Time response
  • Examples
    • Filters
    • Fourier analysis
    • Sampling
    • Spectral analysis
    • Wavelets
  • Examples
    • Coding
    • Decibels
    • Detection
    • Information and capacity
    • Modulation
    • Multiplexing
    • Noise
    • Propagation
  • Examples
    • Composites
    • Creep
    • Elasticity
    • Fatigue
    • Fracture
    • Plasticity
    • Yield
  • Examples
    • Growth
    • Lifetimes
    • Maintenance
    • Risk
    • Structural reliability
    • Systems
  • Tutorials
    • A beam from load to fatigue life
    • A feedback loop in the time and frequency domains
    • A power plant from cycle to cooling tower
    • A radio link from antenna to bit errors
  • Exercises
    • Structural engineering exercises
    • Mechanical engineering exercises
    • Thermodynamics exercises
    • Fluid engineering exercises
    • Heat transfer exercises
    • Aerodynamics exercises
    • Electrical engineering exercises
    • Control systems exercises
    • Signal processing exercises
    • Communications exercises
    • Materials exercises
    • Reliability exercises
  • Installation and quickstart
  • Numerical methods and inspectable histories
  • Structural engineering: loads, signs and linear elasticity
  • Mechanical engineering: power, vibration and mechanism geometry
  • Thermodynamics: total versus specific quantities and cycle states
  • Fluid engineering: flow regimes and signed quantities
  • Heat transfer: absolute temperatures and resistance accounting
  • Aerodynamics: incompressible limits and compressible conservation
  • Electrical engineering: passive components and circuit responses
  • Control systems: matrix contracts and numerical stability
  • Signal processing: sampled energy, spectra and quantization
  • Communications: linear ratios, modulation phase and channel scope
  • Materials: elasticity, yield, fatigue, fracture and creep conventions
  • Reliability: distributions, independence and rate units
  • Examples
  • Examples
  • Heat exchangers

Heat exchangers#

The LMTD and effectiveness-NTU methods.

Kays and London: the effectiveness-NTU method (1955)

Kays and London: the effectiveness-NTU method (1955)

previous

Churchill and Chu: natural convection over all Rayleigh numbers (1975)

next

Kays and London: the effectiveness-NTU method (1955)
Show Source

Created using Sphinx 9.1.0.

Built with the PyData Sphinx Theme 0.22.0.