Serial/Series Title

Language

Stresses in Reinforcing Rings Due to Axial Forces in Cylindrical and Conical Stressed Skins (open access)

Stresses in Reinforcing Rings Due to Axial Forces in Cylindrical and Conical Stressed Skins

"At the ends of a monocoque fuselage concentrated axial forces in the skin must generally be taken up. Such axial forces must also be taken up in the case of other members where axial forces from the neighboring stressed skin construction must be considered. In order to take up these axial forces two bulkheads or reinforcing frames may be arranged at the positions where the forces are applied" (p. 1).
Date: January 1938
Creator: Drescher, K. & Gropler, H.
System: The UNT Digital Library
The Buckling of Curved Tension-Field Girders (open access)

The Buckling of Curved Tension-Field Girders

"The present paper reports on experiments made to determine the buckling load under shear of circular curved tension-field webs. The buckling load of the webs may be expressed with reference to the buckling load of the stiffeners. It is found that within the explored range the buckling load is approximately twice as great as that of the identically stiffened flat wall of equal web depth" (p. 1).
Date: January 1938
Creator: Limpert, G.
System: The UNT Digital Library
On the Theory of Hydrofoils and Planing Surfaces (open access)

On the Theory of Hydrofoils and Planing Surfaces

The present article describes the application of the results of airfoil theory to hydrofoils and planing surfaces with consideration of the boundary conditions of the free upper surface.
Date: January 1938
Creator: Weinig, F.
System: The UNT Digital Library
Flow in Smooth Straight Pipes at Velocities Above and Below Sound Velocity (open access)

Flow in Smooth Straight Pipes at Velocities Above and Below Sound Velocity

"To investigate the laws of flow of compressible fluids in pipes, tests were carried out with air flowing at velocities below and above that of sound in straight smooth pipes. Air was chosen as the flow medium. In order that the effect of compressibility may be brought out most effectively, the velocity should lie between 100 and 500 m/s (200 and 1,000 mph); that is, be of the order of magnitude of the velocity of sound in air. The behavior of the compression shock in a smooth cylindrical pipe was also investigated" (p. 1).
Date: January 1938
Creator: Frössel, W.
System: The UNT Digital Library