| ![\begin{equation*}
\left[ p(t)\left[ (r(t)x^{\Delta }(t))^{\Delta }\right] ^{\gam...
...t)))=0,\text{ \ for }t\in \lbrack t_{0},\infty )_{%
\mathbb{T}},
\end{equation*}](img26.png) | 
 , where
, where  is the quotient of odd
positive integers,
 is the quotient of odd
positive integers,  ,
,  
  and
 and  are positive rd-continuous
functions defined on
 are positive rd-continuous
functions defined on  and
 and 
 ,
,  and
 and 
 for
 for  .
The results provided substantial improvement over those obtained by Yu and
Wang [J. Comp. Appl. Math. 225 (2009), 531-540] and Hassan [Oscillation of
third order nonlinear delay dynamic equations on time scales, Math. Comp.
Modelling 49 (2009), 1573-1586], in the sense that our results can be
applied when
.
The results provided substantial improvement over those obtained by Yu and
Wang [J. Comp. Appl. Math. 225 (2009), 531-540] and Hassan [Oscillation of
third order nonlinear delay dynamic equations on time scales, Math. Comp.
Modelling 49 (2009), 1573-1586], in the sense that our results can be
applied when  
 
 and do not require that
 and do not require that 
 .
Some examples illustrating the main results are given.
.
Some examples illustrating the main results are given.
Key Words: Oscillation, third-order dynamic equations, time scales.
2000 Mathematics Subject Classification: Primary: 34K11;
Secondary: 39A10, 39A99.
Download the paper in pdf format here.