mixing constant (k) = 0 = 0 |

fluid dynamic viscosity (μ) = 0 = 0 newton-second/meter^2 |

revolution per second (n) = 0 = 0 |

impeller diameter (D) = 0 = 0 meter |

power requirement (P) = NOT CALCULATED |

Select to solve for a different unknown

propeller and turbine mixers

power requirement (laminar flow) Reynolds number < 10 | |

mixing constant (laminar flow) | |

fluid dynamic viscosity | |

rotation speed revolutions per second (laminar flow) | |

impeller diameter (laminar flow) |

power requirement (turbulent flow) Reynolds number >10000 | |

mixing constant (turbulent flow) | |

fluid mass density | |

rotation speed revolutions per second (turbulent flow) | |

impeller diameter (turbulent flow) |

Reynolds number | |

impeller diameter | |

rotation speed revolutions per second | |

liquid mass density | |

fluid dynamic viscosity |

static mixers

dissipated power | |

specific weight water | |

flowrate | |

dissipated headloss |

pneumatic bubble mixers

power dissipated | |

volume of air at atmospheric pressure | |

discharge point air pressure |

power dissipated | |

volume of air at atmospheric pressure | |

discharge point air pressure |

References - Books:

George Tchobanoglous, Franklin L. Burton. 1991. Wastewater Engineering Treatment, Disposal and Reuse. McGraw Hill, Inc.

Home: PopularIndex 1Index 2Index 3Index 4Infant ChartMath GeometryPhysics ForceFluid MechanicsFinanceLoan CalculatorNursing Math

Online Web Apps, Rich Internet Application, Technical Tools, Specifications, How to Guides, Training, Applications, Examples, Tutorials, Reviews, Answers, Test Review Resources, Analysis, Homework Solutions, Worksheets, Help, Data and Information for Engineers, Technicians, Teachers, Tutors, Researchers, K-12 Education, College and High School Students, Science Fair Projects and Scientists

By Jimmy Raymond

Contact: aj@ajdesigner.com

Privacy Policy, Disclaimer and Terms

Copyright 2002-2015