Research and Markets, the largest resource for market research information in world providing essential market research reports, industry research, industry analysis, forecasts, market studies, company profiles and country reports.
Welcome - Register - Login - Help/FAQ - 0 items View Basket
Worlds Largest Market Research Resource - 1516374 Live Reports
Search Research and Markets
  Search
Enter keywords, a title or
a report id number below.





Advanced   
Company search
Register for free email updates of market research
Currency
  Select a currency for use throughout the site



Viewing report

Order by Fax
Ask a Question
Printer Friendly
PDF Brochure
Hard CopyAdd to Basket
Live Chat Live Help Software for Website

BEAM VIBRATION INDUCED ACOUSTIC STREAMING. Edition No. 1

VDM Publishing House, June 2009, Pages: 176


  Description  
   Authors   
    
    
    
     
  Enquire before Buying   
  Send to a Friend   

The purpose of this research is to investigate the
beam vibration induced acoustic streaming. Analytical
results show that the beam vibrating in standing
waveforms scatters the acoustic waves into the free
space with a larger attenuation coefficient and
longer propagating traveling wavelength than those of
the plane wave. In contrast to a constant Reynolds
stress in the plane wave, the Reynolds stress
generated by such acoustic wave is expected to drive
the free space streaming away from the anti-nodes and
towards nodes of the standing wave vibration. The
sonic and ultrasonic streamings within the channel
between the vibrating beam and a parallel stationary
beam are also investigated. The sonic streaming is
found to be mainly the boundary layer streaming
dominating the whole channel while the ultrasonic
streaming is clearly composed of two boundary layer
streamings near both beams and a core region
streaming, which is driven by the streaming velocity
at the edge of the boundary layer near the vibrating
beam. The acoustic streaming cooling effect is
analyzed. The hysteresis and driven cavity phenomena
are explored with discovery of interesting
interactions among the primary eddies.



For enquiries please call us on:
  +353-1-415-1241 (GMT Office Hours)
  1-917-300-0470 (EST Office Hours)

   All rights reserved. © Copyright 2012 Research and Markets
   Terms and conditions Privacy Policy Publishers Employment Opportunities Site Map Link to us Webmaster Affiliate Network


Research and Markets RSS Feeds