Untitled - Aerobib - Universidad Politécnica de Madrid

11.5. FLAME STABILIZATION 279
which is the reason for the special behavior of the holders observed by Longwell [18].
In this formulae, D is a linear dimension of the holder.
The problem which remains to be solved is the process in the mixing zone
which determines the value for τ i .
References
[1] Schultz-Grunow, F.: Similarity Laws of Deflagration. Fourth Symposium (International)
on Combustion, Williams and Wilkins Co., Baltimore, 1953, pp. 439-
443.
[2] Damköhler, G.: Einflüsse der Strömung, Diffusion and des Warmeliberganges
auf die Leistung von Reaktionsofen. Z. Elektrochem., Vol. 42, 1936, pp. 846-
862.
[3] Penner, S. S.: Similarity Analysis for Chemical Reactors and the Scaling of
Liquid Fuel Rocket Engines. Combustion Researches and Reviews, AGARD,
1955.
[4] von Kármán, Th.: Dimensionslose Grösen in Grenzgebieten der Aerodynamik.
Z. F. W., Jan-Febr. 1956, pp. 3-5.
[5] Weller, A. E.: Similarities in Combustion, a Review. Selected Combustion Problems,
Vol. II, AGARD, 1956, pp. 371-383.
[6] Penner, S. S.: Models in Aerothermochemistry. International Symposium on
Models in Engineering, Venice, Italy, 1955.
[7] Ross, Ch. C.: Scaling of Liquid Fuel Rocket Combustion Chambers. Selected
Combustion Problems, Vol. II, AGARD, 1956, pp. 444-456.
[8] Crooco, L.: Considerations on the Problem of Scaling Rocket Motors. Selected
Combustion Problems, Vol. II, AGARD, 1956, pp. 457-468.
[9] Barrère, M.: Similarity of Liquid Fuel Rocket Combustion Chambers. ONERA,
Paris, 1956.
[10] Penner, S. S. and Fuhs, A. E.: On Generalized Scaling Procedures for Liquid-
Fuel Rocket Engines. Combustion and Flame, Vol. I, June 1957, pp. 229-240.
[11] Ross, Ch. C. and Datner, P. P.: Combustion Instability in Liquid Propellant
Rocket Motors. A Survey. Selected Combustion Problems, Vol I, AGARD,
1954, pp. 352-380.