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Results & Lemmas (14)

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Lemma 1.1. Lemma 1.1. Let f z A  and 0 1    . Then  , f T 
Lemma 1.1. Let f z A  and 0 1     . Then   , f T 
Lemma 2.1 Lemma 2.1 (see Miller and Mocanu [5]) Let  be a set in the complex plane and let b be a complex number such that. Suppose that a function…
Lemma 2.1 (see Miller and Mocanu [5]) Let  be a set in the complex plane and let b be a complex number such that . Suppose that a function satisfies the condition  Re 0 b    i , ; z 
Theorem 2.2. Theorem 2.2. Let f A , 1 2 1    and    Re f z 
Theorem 2.2. Let f A  , 1 2 1    and    Re f z 
Theorem 2.3. Theorem 2.3. Let f A  1,  and    Re   f z z 
Theorem 2.3. Let f A  1 ,  and    Re   f z z 
Theorem 2.2 Theorem 2.2, we can get        ,:: R p z zp z
Theorem 2.2, we can get         , : : R p z zp z
Theorem 2.4. Theorem 2.4. Let  and  be real numbers such that 1 2 1   and let   f be a function in the class  , T . Then 
Theorem 2.4. Let  and  be real numbers such that 1 2 1   and let   f be a function in the class   , T . Then 
Lemma 3.1. Lemma 3.1. (see Rogosinski [6]) Let
Lemma 3.1. (see Rogosinski [6]) Let
Theorem 3.2. Theorem 3.2. Let  and  be real numbers such that 0 1       1, n n n f z
Theorem 3.2. Let  and  be real numbers such that 0 1       1 , n n n f z
Theorem 3.2 Theorem 3.2 is completed. And now, we shall solve the Fekete-Szegö problem for  , f T   and we will need the following Lemma:
Theorem 3.2 is completed. And now, we shall solve the Fekete-Szegö problem for   , f T   and we will need the following Lemma:
Lemma 3.3. Lemma 3.3. (see Keogh and Merkers [7]) Let  2 1 2 1 p z c z c z     be a function with positive real part in
Lemma 3.3. (see Keogh and Merkers [7]) Let  2 1 2 1 p z c z c z     be a function with positive real part in
Theorem 3.4. Theorem 3.4. Let    and let the function   z  n given by 2 n n z
Theorem 3.4. Let    and let the function   z  n given by 2 n n z
Corollary 3.1. Corollary 3.1. Let     and let the function f, given by 2 n , n n f z a z
Corollary 3.1. Let     and let the function f , given by 2 n  , n n f z a z
Theorem 3.5. Theorem 3.5. For given  and  such that f be given by 0 1   , let   2 n n n z
Theorem 3.5. For given  and  such that f be given by 0 1    , let   2 n n n z
Theorem 3.5 Theorem 3.5 is completed. 4. Acknowledgements The research was supported by Kyungsung University Re-search Grants in 2013. REFERENCES [1]…
Theorem 3.5 is completed. 4. Acknowledgements The research was supported by Kyungsung University Re-search Grants in 2013. REFERENCES [1] K. Kuroki and S. Owa, “Notes on New Class for Certain Analytic Functions,” RIMS Kokyuroku 1772, 2011, pp. 21-25. [2] H. M. Srivastava, A. K. Mishra and P. Gochhayat, “Cer- tain Subclasses of Analytic and Bi-Univalent Functions,” Applied Mathematics Letters, Vol. 23, No. 10, 2010, pp. 1188-1192. doi:10.1016/j.aml.2010.05.009 [3]

Definitions (1)

Def 1.1. Definition 1.1. Let  and  be real numbers such that 0 1    . The function f A 
Definition 1.1. Let  and  be real numbers such that 0 1     . The function f A 
Function classes studied:

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