PL EN


Preferencje help
Widoczny [Schowaj] Abstrakt
Liczba wyników
2014 | 14 | 2 |

Tytuł artykułu

Pressure losses design while bulk solids pneumatic conveying

Autorzy

Treść / Zawartość

Warianty tytułu

RU
Raschet poter' davlenija pri pnevmotrans portirovanii sypuchikh materialov

Języki publikacji

EN

Abstrakty

EN
RU

Wydawca

-

Rocznik

Tom

14

Numer

2

Opis fizyczny

p.20-25,ref.

Twórcy

autor
  • Automobile and Highway Institute of State Higher Educational Establishment, "Donetsk National Technical University", 51 Kirova Street, Horlivka city, Donetsk region, 84646, Ukraine

Bibliografia

  • 1. Bart W., 1960.: Chemie Ingenieur Technic, № 3, 164-171.
  • 2. Bhusarapu S., Al-Dahhan M.H., Dudukovic M.P., Trujillo S., O’Hern T.J., 2005.: Experimental study of the solids velocity field in gas-solid risers, Industrial & Engineering Chemistry Research, № 44 (25), 9739-9749.
  • 3. Carter R.M., Yan Y., 2005.: An instrumentation system using combined sensing strategies for online mass flow rate measurement and particle sizing, IEEE Transactions on Instrumentation and Measurement, № 54 (4), 1433-1437.
  • 4. Carter R.M., Yan Y., Cameron S.D., 2005.: On-line measurement of particle size distribution and mass flow rate of particles in a pneumatic suspension using combined imaging and electrostatic sensors, Flow Measurement and Instrumentation, № 16 (5), 309-314.
  • 5. Chaltsev M.N., 2000.: Concerning pipeline hydraulic design for pneumatic conveying systems, Journal of Mechanical Engineering of National Technical University of Ukraine (Kyiv Polytechnic Institute), Vol. 1, № 38, 50-54.
  • 6. Chaltsev M.N., 2011.: Analytical investigation into velocity change of the transported material in a pipeline bend TEKA: Commission of motorisation and power industry in agriculture (Lublin university of technology Volodymyr Dal East-ukrainian national university of Lugansk), Vol. XI B, 20-29.
  • 7. Chaltsev M.N., 2011.: Design technique of the pneumotransport critical regime at minor differential pressure, TEKA: Commission of motorisation and power industry in agriculture (Lublin university of technology Volodymyr Dal East-ukrainian national university of Lugansk), Vol. XA, 29-38.
  • 8. Chan C.K., Guo Y.C., Lau K.S., 2005.: Numerical modeling of gas-particle flow using a comprehensive kinetic theory with turbulence modulation, Powder Technology, № 150 (1), 42-55.
  • 9. Cowell A., McGlinchey D., Ansell R., 2005.: Determination of pneumatic transport capabilities of dry pulverised coal suitable for entrained flow processes, Fuel, № 84 (17), 2256-2266.
  • 10. Datta B.K., Ratnayaka C., 2005.: A possible scaling-up technique for dense phase pneumatic conveying, Particulate Science and Technology, № 23 (2), 201-204.
  • 11. Eskin D., 2005.: Modeling dilute gas-particle flows in horizontal channels with different wall roughness, Chemical Engineering Science, № 60 (3), 655-663.
  • 12. Gastershtadt I., 1927.: Pneumatic conveying, Leningrad, North-West Regional Industrial Bureau of Supreme Council of National Economy, 119.
  • 13. Henthorn K.H., Park K., Curtis J.S., 2005.: Measurement and prediction of pressure drop in pneumatic conveying: Effect of particle characteristics, mass loading, and Reynolds number, Industrial & Engineering Chemistry Research, № 44 (14), 5090-5098.
  • 14. Kalman H., Tardos G. I., 2005.: Elements of particle technology in the chemical industry, Particulate Science and Technology, № 23 (1), 1-19.
  • 15. Khrustalev B. M., 1998.: Pneumatic conveying (theory, engineering, implementation): diss D. Sc. in engineering, Moscow, 51. (in Russian).
  • 16. Klinzing G.E., Marcus R.D., Rizk F.,. Leung L.S., 1997.: Pneumatic conveying of solids, London, Chapman and Holl, 599.
  • 17. Koksal M., Hamdullahpur F., 2005.: CFD simulation of the gas-solid flow in the riser and a circulating fluidized bed with secondary air injection, Chemical Engineering Communications, № 192 (7–9), 1151-1179.
  • 18. Kryl S.I., Chaltsev M.N., 2004.: Bernoulli equation for gas suspension flow, Applied Hydromechanics, Vol. 6, № 1.
  • 19. Mills D., 2005.: Pneumatic conveying: Dilute vs. dense phase, Chemical Engineering, № 112 (1), 51-57.
  • 20. Ratnayake C., 2005.: A comprehensive scaling up technique for pneumatic transport systems: Thesis, Porsgrunn, Norway, Telemark University College, 299.
  • 21. Rundqvist R., Ljus C., van Wachem B., 2005.: Experimental and numerical investigation of particle transport in a horizontal pipe, AICHE Journal, № 51 (12), 3101-3108.
  • 22. Sanchez L., Vasquez N.A., Klinzing G.E., Dhodapkar S., 2005.: Evaluation of models and correlations for pressure drop estimation in dense phase pneumatic conveying and an experimental analysis, Powder Technology, № 153 (3), 142-147.
  • 23. Zegler G., Shreder P., 1937.: Pneumatic grain conveying pneumatically, Kharkov, Department of Scientific and Technical Information, 152. (in Russian).
  • 24. Zuyev F.G., 1976.: Pneumatic conveying at grain processing enterprises, Moscow, Kolos,344. (in Russian).

Typ dokumentu

Bibliografia

Identyfikatory

Identyfikator YADDA

bwmeta1.element.agro-496ae46c-a6b1-4e2d-ba4a-df523c99c11e
JavaScript jest wyłączony w Twojej przeglądarce internetowej. Włącz go, a następnie odśwież stronę, aby móc w pełni z niej korzystać.