Nonparametric cointegration analysis



Var If(xx )w [ nx ] dx


= ∫jf(X fy )C0V(W [ ], W [ „y ]) dxdy

(A.19)


fjʃ(Xfy)I(x=y)dxdy Var(w0) = 0.


Furthermore, denoting

S w(1) S w(x)
s(F) F F(1)  „ - ʃfx)   „.lx,

and using the easy equality

∑E(w,wnT) = ∑' (w0'w) - £E(w0wτ),
t= 1                         t= 1                          j=0


(A.20)


(A.21)


Assumption 1 implies that sn(F) and wn are jointly normally distributed with covariance


n-[ nx ]-1

e(w 0wT)

Covars(F) , w„) = ʃf(x) — —-----dx O О(1/n ).

„П


(A.22)


Finally, (A.2) implies that

s(F) D(1)(F(1) W(1) - ʃf(x) W(x)dx),
whereas


(A.23)


wn ~ Nq(0,DDtT)                                                            (A.24)


cf. (4). Lemma 2 now easily follows from these results. Q.E.D.


Proof of Lemma 3 : Let z = exp(2 ikπ/n ) = cos(2 kπ/n ) + i .sin(2 kπ/n ), and observe that zn = 1. Then


41




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