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Control of circular-disk stability with membrane stresses

Paper theoretically and experimentally investigates the relationship between the state of disk-membrane stress, critical rotation speed, and the frequency spectrum in radially symmetric disk problems

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Abstract

Membrane stresses alter the dynamic behavior and stability of circular-disk elements, such as circular saws and grinding wheels, by shifting the disk's natural frequency spectrum. Such shifts are directly related to variation in the critical rotation speed at which standing-wave-resonance instability occurs. Negative critical-speed variations reduce the disk stability, and positive critical-speed variations increase stability.

The present paper theoretically and experimentally investigates the relationship between the state of disk-membrane stress, critical rotation speed, and the frequency spectrum in radially symmetric disk problems. The observed critical-speed variations are theoretically predictable and well understood. The approach of a shifting critical-speed instability can be predicted by monitoring the disk-frequency spectrum.

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Abbreviations

a :

clamping radius

a :

a/b normalized clamping radius

b :

peripheral radius

c :

Initial-stress radius at which the plate is compressed between rollers at gage pressure, P

c :

c/d normalized initial-stress radius

\(\tilde H\) :

1/2 disk thickness

n :

number of nodal diameters

P :

gage pressure applied to initial stressing rollers

ωo :

rotation speed

Ωc :

critical rotation speed

References

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  4. Mote, C. D., Jr., “Natural Frequencies in Annuli with Induced Thermal Membrane Stresses,”Trans. ASME,89B (4),611–618 (Nov.1967).

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  6. Nieh, L. T. and Mote, C. D., Jr., “An Experimental Investigation of the Dynamic Stability of Thin Circular Disks,” Univ. of Calif. Forest Prod. Lab. Report No. 35.01.73 (June 1969).

  7. Mote, C. D., Jr., “Formulation of Discrete Element Models for Stress and Vibration Analysis of Plates,” Univ. of Calif. Forest Prod. Lab. Report No. 35.01.77, (Jan. 1970).

  8. Mote, C. D., Jr., “Unsymmetrical Transient Heat Conduction: Rotating Disk Applications,”Trans. ASME,92B (1),181–190 (Feb.1970).

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Mote, C.D., Nieh, L.T. Control of circular-disk stability with membrane stresses. Experimental Mechanics 11, 490–498 (1971). https://doi.org/10.1007/BF02327688

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  • DOI: https://doi.org/10.1007/BF02327688

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