OGNJANOVIC, Milosav ;AGEMI, Fathi . Gear Vibrations in Supercritical Mesh-Frequency Range Caused by Teeth Impacts. Strojniški vestnik - Journal of Mechanical Engineering, [S.l.], v. 56, n.10, p. 653-662, october 2017. ISSN 0039-2480. Available at: <https://www.sv-jme.eu/article/gear-vibrations-in-supercritical-mesh-frequency-range-caused-by-teeth-impacts/>. Date accessed: 20 dec. 2024. doi:http://dx.doi.org/.
Ognjanovic, M., & Agemi, F. (2010). Gear Vibrations in Supercritical Mesh-Frequency Range Caused by Teeth Impacts. Strojniški vestnik - Journal of Mechanical Engineering, 56(10), 653-662. doi:http://dx.doi.org/
@article{., author = {Milosav Ognjanovic and Fathi Agemi}, title = {Gear Vibrations in Supercritical Mesh-Frequency Range Caused by Teeth Impacts}, journal = {Strojniški vestnik - Journal of Mechanical Engineering}, volume = {56}, number = {10}, year = {2010}, keywords = {gears; vibration; singular system; frequency spectrum; }, abstract = {After gear teeth impact, natural free vibrations arise, attenuating in a short period of time. Teeth impacts repeat with the frequency of teeth entering the mesh, vibrations become restorable, and restore with teeth mesh frequency. In the range of sub-critical teeth mesh frequency range these natural free vibrations are covered by forced vibrations caused by the fluctuation of teeth deformations. In the supercritical mesh frequency range, restorable free vibrations dominate in the frequency spectrum of gear system vibrations. These restorable free vibrations effectuate the increase of total vibration level with the speed of rotation increase. Also, in this frequency range the modal structure (natural frequency) of the gear system is not stable and effectuates super-critical resonances arising. Gear vibration measurements and frequency analysis (FFT-Analysis) are performed in very high speeds of gear rotations as high as 40,000 rpm. A mathematical model for experimental results synthesis is established. For this purpose, the theory of singular systems is used. Gear teeth mesh is treated as a singular system, with a continual process of load transmission with singularities caused by teeth impacts. Damping coefficients and energy attenuation is determined using the developed mathematical model.}, issn = {0039-2480}, pages = {653-662}, doi = {}, url = {https://www.sv-jme.eu/article/gear-vibrations-in-supercritical-mesh-frequency-range-caused-by-teeth-impacts/} }
Ognjanovic, M.,Agemi, F. 2010 October 56. Gear Vibrations in Supercritical Mesh-Frequency Range Caused by Teeth Impacts. Strojniški vestnik - Journal of Mechanical Engineering. [Online] 56:10
%A Ognjanovic, Milosav %A Agemi, Fathi %D 2010 %T Gear Vibrations in Supercritical Mesh-Frequency Range Caused by Teeth Impacts %B 2010 %9 gears; vibration; singular system; frequency spectrum; %! Gear Vibrations in Supercritical Mesh-Frequency Range Caused by Teeth Impacts %K gears; vibration; singular system; frequency spectrum; %X After gear teeth impact, natural free vibrations arise, attenuating in a short period of time. Teeth impacts repeat with the frequency of teeth entering the mesh, vibrations become restorable, and restore with teeth mesh frequency. In the range of sub-critical teeth mesh frequency range these natural free vibrations are covered by forced vibrations caused by the fluctuation of teeth deformations. In the supercritical mesh frequency range, restorable free vibrations dominate in the frequency spectrum of gear system vibrations. These restorable free vibrations effectuate the increase of total vibration level with the speed of rotation increase. Also, in this frequency range the modal structure (natural frequency) of the gear system is not stable and effectuates super-critical resonances arising. Gear vibration measurements and frequency analysis (FFT-Analysis) are performed in very high speeds of gear rotations as high as 40,000 rpm. A mathematical model for experimental results synthesis is established. For this purpose, the theory of singular systems is used. Gear teeth mesh is treated as a singular system, with a continual process of load transmission with singularities caused by teeth impacts. Damping coefficients and energy attenuation is determined using the developed mathematical model. %U https://www.sv-jme.eu/article/gear-vibrations-in-supercritical-mesh-frequency-range-caused-by-teeth-impacts/ %0 Journal Article %R %& 653 %P 10 %J Strojniški vestnik - Journal of Mechanical Engineering %V 56 %N 10 %@ 0039-2480 %8 2017-10-24 %7 2017-10-24
Ognjanovic, Milosav, & Fathi Agemi. "Gear Vibrations in Supercritical Mesh-Frequency Range Caused by Teeth Impacts." Strojniški vestnik - Journal of Mechanical Engineering [Online], 56.10 (2010): 653-662. Web. 20 Dec. 2024
TY - JOUR AU - Ognjanovic, Milosav AU - Agemi, Fathi PY - 2010 TI - Gear Vibrations in Supercritical Mesh-Frequency Range Caused by Teeth Impacts JF - Strojniški vestnik - Journal of Mechanical Engineering DO - KW - gears; vibration; singular system; frequency spectrum; N2 - After gear teeth impact, natural free vibrations arise, attenuating in a short period of time. Teeth impacts repeat with the frequency of teeth entering the mesh, vibrations become restorable, and restore with teeth mesh frequency. In the range of sub-critical teeth mesh frequency range these natural free vibrations are covered by forced vibrations caused by the fluctuation of teeth deformations. In the supercritical mesh frequency range, restorable free vibrations dominate in the frequency spectrum of gear system vibrations. These restorable free vibrations effectuate the increase of total vibration level with the speed of rotation increase. Also, in this frequency range the modal structure (natural frequency) of the gear system is not stable and effectuates super-critical resonances arising. Gear vibration measurements and frequency analysis (FFT-Analysis) are performed in very high speeds of gear rotations as high as 40,000 rpm. A mathematical model for experimental results synthesis is established. For this purpose, the theory of singular systems is used. Gear teeth mesh is treated as a singular system, with a continual process of load transmission with singularities caused by teeth impacts. Damping coefficients and energy attenuation is determined using the developed mathematical model. UR - https://www.sv-jme.eu/article/gear-vibrations-in-supercritical-mesh-frequency-range-caused-by-teeth-impacts/
@article{{}{.}, author = {Ognjanovic, M., Agemi, F.}, title = {Gear Vibrations in Supercritical Mesh-Frequency Range Caused by Teeth Impacts}, journal = {Strojniški vestnik - Journal of Mechanical Engineering}, volume = {56}, number = {10}, year = {2010}, doi = {}, url = {https://www.sv-jme.eu/article/gear-vibrations-in-supercritical-mesh-frequency-range-caused-by-teeth-impacts/} }
TY - JOUR AU - Ognjanovic, Milosav AU - Agemi, Fathi PY - 2017/10/24 TI - Gear Vibrations in Supercritical Mesh-Frequency Range Caused by Teeth Impacts JF - Strojniški vestnik - Journal of Mechanical Engineering; Vol 56, No 10 (2010): Strojniški vestnik - Journal of Mechanical Engineering DO - KW - gears, vibration, singular system, frequency spectrum, N2 - After gear teeth impact, natural free vibrations arise, attenuating in a short period of time. Teeth impacts repeat with the frequency of teeth entering the mesh, vibrations become restorable, and restore with teeth mesh frequency. In the range of sub-critical teeth mesh frequency range these natural free vibrations are covered by forced vibrations caused by the fluctuation of teeth deformations. In the supercritical mesh frequency range, restorable free vibrations dominate in the frequency spectrum of gear system vibrations. These restorable free vibrations effectuate the increase of total vibration level with the speed of rotation increase. Also, in this frequency range the modal structure (natural frequency) of the gear system is not stable and effectuates super-critical resonances arising. Gear vibration measurements and frequency analysis (FFT-Analysis) are performed in very high speeds of gear rotations as high as 40,000 rpm. A mathematical model for experimental results synthesis is established. For this purpose, the theory of singular systems is used. Gear teeth mesh is treated as a singular system, with a continual process of load transmission with singularities caused by teeth impacts. Damping coefficients and energy attenuation is determined using the developed mathematical model. UR - https://www.sv-jme.eu/article/gear-vibrations-in-supercritical-mesh-frequency-range-caused-by-teeth-impacts/
Ognjanovic, Milosav, AND Agemi, Fathi. "Gear Vibrations in Supercritical Mesh-Frequency Range Caused by Teeth Impacts" Strojniški vestnik - Journal of Mechanical Engineering [Online], Volume 56 Number 10 (24 October 2017)
Strojniški vestnik - Journal of Mechanical Engineering 56(2010)10, 653-662
© The Authors, CC-BY 4.0 Int. Change in copyright policy from 2022, Jan 1st.
After gear teeth impact, natural free vibrations arise, attenuating in a short period of time. Teeth impacts repeat with the frequency of teeth entering the mesh, vibrations become restorable, and restore with teeth mesh frequency. In the range of sub-critical teeth mesh frequency range these natural free vibrations are covered by forced vibrations caused by the fluctuation of teeth deformations. In the supercritical mesh frequency range, restorable free vibrations dominate in the frequency spectrum of gear system vibrations. These restorable free vibrations effectuate the increase of total vibration level with the speed of rotation increase. Also, in this frequency range the modal structure (natural frequency) of the gear system is not stable and effectuates super-critical resonances arising. Gear vibration measurements and frequency analysis (FFT-Analysis) are performed in very high speeds of gear rotations as high as 40,000 rpm. A mathematical model for experimental results synthesis is established. For this purpose, the theory of singular systems is used. Gear teeth mesh is treated as a singular system, with a continual process of load transmission with singularities caused by teeth impacts. Damping coefficients and energy attenuation is determined using the developed mathematical model.