The nontrivial positive equilibrium point of (4) is Eo = (w, z) = T (Wn+Wn-1) (2n-1 + Zn-2) Zn € (Wn-1 + Wn-2) (Zn + Zn-1) Wn-fl 1²2-1) ². Intl = Theorem 4.1. The positive equilibrium point Eo of system (4) is not asymptotically stable and nonhyperbolic point. Proof. The linearized system of (4) evaluated at Eo is written in the matrix form as where Ln = Q = +H, Wn, Wn-1; 3 -(e²+2e-3) 4μ 1 0 0 0 Ln+1 = (Wn, Zn, Wn-1, Zn-1, Wn-2, Zn-2) and the Jacobian matrix determined at Eo is equal 3 -(e+3) 2μ 0 0 1 0 Q Ln, 0 -(€+3) 2μ 0 0 0 0 9 -(4μ) (€²+2€-3) 1-e 2 0 1 0 0 such that € > 1. €+37 2μ €+3 2 0 0 0 1 2μ €+3 +E, Zn, 2n-1 0 0 0 0 (28)

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Chapter2: Second-order Linear Odes
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In this paper, we solve and study the properties of the following system
E Wn-p
Wn-P
> zn-h
Zn-h
h=0
p=1
+ €,
(4)
p=0
h=1
+µ and zn+1
Wn+1
Wn - H
Zn - €
where u and e are arbitrary positive real numbers with initial conditions w; and z; for i =
-2, –1,0.
Transcribed Image Text:In this paper, we solve and study the properties of the following system E Wn-p Wn-P > zn-h Zn-h h=0 p=1 + €, (4) p=0 h=1 +µ and zn+1 Wn+1 Wn - H Zn - € where u and e are arbitrary positive real numbers with initial conditions w; and z; for i = -2, –1,0.
The nontrivial positive equilibrium point of (4) is Eo = (w, z) = ( ,1) such that e > 1.
e+3
T
(wn + Wn-1) (žn-1+ žn-2)
(Wn-1 + Wn-2) (2, + 2m–1)
Ln+1
+ l, Wn, Wn-1,
+ €, Zn, Zn-1
Zn - €
Wn - l
Theorem 4.1. The positive equilibrium point E, of system (4) is not asymptotically stable
and nonhyperbolic point .
Proof. The linearized system of (4) evaluated at Eo is written in the matrix form as
Ln+1
Q Ln,
where Ln
(Wn, Zn, Wn-1, Zn–1, Wn-2, žn–2)' and the Jacobian matrix determined at Eo is equal
-2
E-1
-(4µ)
(e²+2 e-3)
2 µ
e+3
e+3
-(²+2e-3)
4 µ
-(e+3)
2 u
-(c+3)
2 u
1-e
2
(28)
1
1
1
9.
- O O o
Transcribed Image Text:The nontrivial positive equilibrium point of (4) is Eo = (w, z) = ( ,1) such that e > 1. e+3 T (wn + Wn-1) (žn-1+ žn-2) (Wn-1 + Wn-2) (2, + 2m–1) Ln+1 + l, Wn, Wn-1, + €, Zn, Zn-1 Zn - € Wn - l Theorem 4.1. The positive equilibrium point E, of system (4) is not asymptotically stable and nonhyperbolic point . Proof. The linearized system of (4) evaluated at Eo is written in the matrix form as Ln+1 Q Ln, where Ln (Wn, Zn, Wn-1, Zn–1, Wn-2, žn–2)' and the Jacobian matrix determined at Eo is equal -2 E-1 -(4µ) (e²+2 e-3) 2 µ e+3 e+3 -(²+2e-3) 4 µ -(e+3) 2 u -(c+3) 2 u 1-e 2 (28) 1 1 1 9. - O O o
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