Dynamic Asset Allocation - Identifying Regime Shifts in Financial Time Series to Build Robust Portfolios
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1 Downloaded from orbit.dtu.dk on: Jan 22, 2019 Dynamic Asset Allocation - Identifying Regime Shifts in Financial Time Series to Build Robust Portfolios Nystrup, Peter Publication date: 2018 Document Version Publisher's PDF, also known as Version of record Link back to DTU Orbit Citation (APA): Nystrup, P. (2018). Dynamic Asset Allocation - Identifying Regime Shifts in Financial Time Series to Build Robust Portfolios. DTU Compute. DTU Compute PHD-2017, Vol General rights Copyright and moral rights for the publications made accessible in the public portal are retained by the authors and/or other copyright owners and it is a condition of accessing publications that users recognise and abide by the legal requirements associated with these rights. Users may download and print one copy of any publication from the public portal for the purpose of private study or research. You may not further distribute the material or use it for any profit-making activity or commercial gain You may freely distribute the URL identifying the publication in the public portal If you believe that this document breaches copyright please contact us providing details, and we will remove access to the work immediately and investigate your claim.
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62 {S t : t N} t N (S t+1 S t,..., S 1 ) = (S t+1 S t ). (S u+t = j S u = i) = γ ij (t) u Γ (t) = {γ ij (t)} π πγ = π π = 1 π = δ δ δ i = (S 1 = i) {S t } m {X t : t N} m X (t) S (t) t ( S t S (t 1)) = (S t S t 1 ), t = 2, 3,..., ( X t X (t 1), S (t)) = (X t S t ), t N. S t X t S t X t S t {S t } {X t } X t = µ St + ε St, ε St N ( 0, σ 2 S t ),
63 µ St = { { µ 1, S t = 1, σ 2 [ µ 2, S t = 2, σ2 S t = 1, S t = 1, 1 σ2, 2 S t = 2, Γ = γ12 γ 12 γ 21 1 γ 21 k ρ Xt (k θ) = π 1 (1 π 1 ) (µ 1 µ 2 ) 2 σ 2 λ k, ρ X 2 t (k θ) = π 1 (1 π 1 ) ( µ 2 1 µ σ1 2 σ2 2 [Xt 4 θ] [Xt 2 θ] 2 λ k, θ σ 2 = [X t θ] λ = γ 11 + γ 22 1 Γ λ ) L T (θ) = (X (T ) = x (T ) θ = δ (x 1 ) Γ (x 2 ) Γ (x T ), (x) p i (x) = (X t = x S t = i) i {1, 2,..., m} X t ) 2 ].
64 ( t i ) = γ t 1 ii (1 γ ii ). i d i (u) = (S t+u+1 i, S t+u v = i, v = 0,..., u 2 S t+1 = i, S t i) γ ij = (S t+1 = j S t+1 i, S t = i) i j γ ii = 0 j γ ij = 1 t p ij ( t) = (S (t + t) = j S (t) = i) t 0 p ij (0) = 0 i j (t) =. t 0
65 p ij ( t) p p ij ( t) p ij (0) ij (0) = t 0 t = t 0 = q ij (S (t + t) = j S (t) = i) t q ii = q i = j i q ij = {q ij } q ij q i π { π = π = 1. π (t) = {p ij (t)} (t) t (0) = = (t) (t) = e t (0) = e t. i q i > 0 j i q ij /q i δ (t) = e t = (1). q i γ ii q i = ˆγ ii.
66 q i q i 1 t p ij = o ( t), i j 2, p ii ( t) = 1 q i t + o ( t), p i,i 1 ( t) = w i q i t + o ( t), p i,i+1 ( t) = (1 w i ) q i t + o ( t), i {1, 2,..., m}, t 0 o( t) t = 0 m = m (m + 1) = i i + 2 i + 1 i i + 2 q 1 (1 w 1 ) q w 1 q 1 w 2 q 2 q 2 (1 w 2 ) q =. (1 w m ) q m 0 0 w m q m q m
67 r t = (P t ) (P t 1 ) P t t
68 rt r t JB [ ; ] [0.0116; ] [ 0.75; 0.30] [8.5; 14.1] [6356; 25803] JB = T ( ) 2 + ( 3)2 T 6 24
69 ( rt θ) θ = 1 θ = 0.75 θ = 0.5 θ = 0.25 ( rt θ) θ = 1 θ = 1.25 θ = 1.5 θ = 1.75 N N t N N t N t t
70 N (2) N (2) t (2) N (3) N (3) t (3) N (3) N (4) N (4) t (4) N (4) k 0.95 (100 k) t t
71 r t [ ; ] [0.0116; ] [ 0.75; 0.30] [8.5; 14.1] N (2) N (2) t (2) N (3) N (3) t (3) N (3) N (4) N (4) t (4) N (4) N N t N N t N r t ± 4 σ
72 N (2) N (2) t (2) N (3) N (3) t (3) N (3) N (4) N (4) t (4) N (4) t = 2 L + p T T p = 2 L + 2p
73 ( rt θ) θ = 1 θ = 0.75 θ = 0.5 θ = 0.25 ( rt θ) θ = 1 θ = 1.25 θ = 1.5 θ = 1.75
74 t
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76 m Γ µ 10 4 σ δ (0.002) (1.1) (0.01) (0.2) (0.004) (4.9) (0.14) (0.004) (0.001) (0.003) (0.002) (0.003) (0.010) 10.1 (1.3) 0.5 (2.5) 12.4 (12.8) 0.32 (0.01) 1.28 (0.04) 7.08 (0.50) 1.0 (0.1) 0.0 (0.1) (0.005) (0.006) (0.00) (0.005) (0.003) (0.001) (0.000) (0.006) (0.004) (0.000) (0.002) (0.026) 10.8 (1.5) 3.3 (2.7) 2.9 (5.7) 29.9 (31.2) 0.29 (0.01) 0.96 (0.05) 2.39 (0.14) (1.73) 1.0 (0.2) 0.0 (0.2) 0.0 (0.1) 0.0 m
77 m Γ 1 p r 10 µ 10 4 σ δ (0.002) (0.1) (1.3) (0.01) (0.4) (0.010) (0.2) (5.7) (0.18) (0.000) (0.013) (0.000) (0.003) (0.037) (0.052) 0.3 (0.1) 1.7 (1.7) 5.5 (33.0) 10.5 (1.3) 1.0 (3.0) 14.3 (12.7) 0.31 (0.01) 1.51 (0.07) 7.26 (0.54) 1.0 (0.3) 0.0 (0.3) (0.000) (0.000) (0.022) (0.020) (0.000) (0.161) (0.000) (0.000) (0.006) (0.024) (0.124) (0.098) 0.5 (0.5) 1.0 (0.7) 31.2 (124.8) 4.2 (68.9) 11.6 (1.4) 2.1 (2.8) 2.4 (5.2) 30.6 (31.8) 0.25 (0.01) 1.05 (0.06) 2.38 (0.17) (2.26) 1.0 (0.3) 0.0 (0.2) 0.0 (0.2) 0.0 m p r m Γ 1 p r 10 µ 10 4 σ t δ (0.002) (0.1) (1.2) (0.02) (1.2) (0.4) (0.008) (0.2) (4.8) (0.17) (1.0) (0.042) (0.144) (0.045) (0.009) (0.047) (0.055) 7.4 (7.8) 10.5 (22.2) 5.2 (28.5) 10.5 (1.1) 1.3 (2.7) 12.2 (13.1) 0.25 (0.01) 1.16 (0.07) 4.96 (0.75) 6.7 (1.4) 22.4 (467.9) 7.2 (7.4) 1.0 (0.3) 0.0 (0.3) (0.000) (0.000) (0.103) (0.106) (0.000) (0.148) (0.000) (0.000) (0.013) (0.052) (0.115) (0.110) 8.9 (10.2) 18.6 (34.2) 34.3 (115.9) 3.9 (61.9) 10.6 (1.4) 4.1 (2.2) 1.9 (5.2) 29.3 (31.6) 0.23 (0.01) 0.86 (0.05) 2.22 (0.16) 9.56 (2.44) 6.8 (1.5) 24.8 (16.4) 49.0 (98.2) 13.8 (11968) 1.0 (0.2) 0.0 (0.2) 0.0 (0.0) 0.0 m t p r t t
78 m µ 10 4 σ δ (0.003) (1.4) (0.01) (0.003) (2.5) (0.03) (0.019) (0.003) (0.003) (12.1) (0.26) (0.005) (0.001) (0.004) (0.002) (0.003) (0.002) (0.005) (0.013) 11.1 (1.6) 3.6 (2.6) 3.2 (5.2) 29.2 (25.9) 0.29 (0.01) 0.95 (0.03) 2.39 (0.10) (0.82) m N N t N N t N
79 r t [ ; ] [0.0113; ] [ 0.56; 0.24] [7.0; 10.9] N (2) N (2) t (2) N (3) N (3) t (3) N (4) N N t N N t N N (2) N (2) t (2) N (3) N (3) t (3) N (4)
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83 t
84 t {S t : t N} t N (S t+1 S t,..., S 1 ) = (S t+1 S t ). (S u+t = j S u = i) = γ ij (t) u {S t } m {(S t, X t )} m S (t) X (t) t ( S t S (t 1)) = (S t S t 1 ), t = 2, 3,..., ( X t X (t 1), S (t)) = (X t S t ), t N.
85 S t X t S t {X t } {S t } {S t } {X t } X t = µ St + ε St, ε St N ( 0, σ 2 S t ), { µ 1, S t = 1, µ St = µ 2, S t = 2, { σs 2 σ 2 t = 1, S t = 1, σ2, 2 S t = 2, [ 1 γ12 γ Γ = 12 γ 21 1 γ 21 k ]. ρ Xt (k θ) = π 1 (1 π 1 ) (µ 1 µ 2 ) 2 σ 2 λ k ρ X 2 t (k θ) = π 1 (1 π 1 ) ( ) µ 2 1 µ σ1 2 σ2 2 2 [Xt 4 θ] [Xt 2 θ] 2 λ k, π 1 λ = γ 11 + γ 22 1 Γ λ Γ λ = 1
86 ( t i ) = γ t 1 ii (1 γ ii ).
87 2 f f f = 10
88 ˆθ t = θ t n=1 ( ) X w n X (n 1) n, θ = l t (θ) θ w n = 1 w n = λ t n
89 0 < λ < 1 N = 1 1 λ. l t (θ) ˆθ t 1 θ ˆθ t ˆθ t = ˆθ )] 1 ) t 1 [ θθ lt (ˆθt 1 θ lt (ˆθt 1. ) t θθ lt (ˆθt 1 = θθ λ t n X (X (n 1) n, ˆθ ) t 1 = n=1 t λ t n X θθ (X (n 1) n, ˆθ ) t 1 n=1 t ( )) λ t n I t (ˆθt 1 n=1 = 1 λt 1 λ ˆθ t ˆθ t 1 + ( I t (ˆθt 1 )), A )] 1 ) [I t (ˆθt 1 θ lt (ˆθt 1, (t, N ) A
90 1 λ 1 λ t 1 (t,n ) N t t 0 > 0 [ θθ l t ] = [ θ l t θ l t] ) I t (ˆθ = 1 t t n=1 = t 1 t ) ) θ l n (ˆθ θ l n (ˆθ 1 t 1 { t 1 n=1 ) ) θ l n (ˆθ θ l n (ˆθ } ( X + θ X (t 1) t, ˆθ ) ( X θ X (t 1) t, ˆθ ) ) = I t 1 (ˆθ + 1 [ ( X θ X (t 1) t, t ˆθ ) ( X θ X (t 1) t, ˆθ ) (ˆθ) ] It 1. r t = (P t ) (P t 1 ) P t t
91 rt r t t 2.53 t t 22.9 r t ± 4 σ r t σ
92 (r 2 t ) (r 2 t ) (r 2 t ) r t ± 4 σ
93 t
94 µ1 µ2 σ 2 1 σ 2 2 γ11 γ22
95 µ1 µ2 σ 2 1 σ 2 2 γ11 γ22 ν t
96 t t t N = 250 t 0 = 250 A = 1.25
97 -0.02 µ µ Long memory and time-varying parameters Year σ σ12 1e-04 3e-04 5e-04 Year Year Year Year 2000 γ Year γ Figure 5: Parameters of a two-state Gaussian HMM estimated adaptively using an effective memory length Neff = 250. The dashed lines are the MLE for the full series and the gray areas are approximate 95% confidence intervals based on the profile likelihood functions.
98 (r 2 t ) (r 2 t ) r t ± 4 σ =1700 N =1700 Nt N=250 N ( ) N =250 N t ( =1700 ) Nt r t ± 4 σ
99 1: : : : =1700 =1700 N Nt N =250 N t t t t
100 N Nt N =1700 =1700 Nt N =250 N t t t t θ t X t+1 t t + 1
101 N =1700 =1700 Nt N =250 N θ t t θ t t θ t
102 t t
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111 {X t : t N} t N (X t+1 X t,..., X 1 ) = (X t+1 X t ). (X t+1 = j X t = i) = γ ij r t = (P t) (P t 1 ) P t t
112 Y t X t N ( µ Xt, σ 2 X t ), µ Xt = { { µ 1, X t = 1, σ 2 [ µ 2, X t = 2, σ2 X t = 1, X t = 1, 1 σ2, 2 X t = 2, Γ = γ12 γ 12 γ 21 1 γ 21 ]. X t Y t X t ( t i ) = γ t 1 ii (1 γ ii ).
113 t t t + 1 (γ ii 0.5) t + 1 t t + 1 t t + 1 t+1
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126 r t = (P t) (P t 1 ) P t t
127 p = 0.5 1/N
128 p = 0.5 p = 0.5 p = 1 p X w (p, X) = p w (X) + (1 p) w w (X) = (25, 5, 10, 5, 5, 5, 5, 0, 0, 0) /60 (X) + (0, 0, 0, 0, 0, 0, 0, 10, 10, 20) /40 (X) (X) 1 X = (X) 0 X =
129 {X t : t N} t N (X t+1 X t,..., X 1 ) = (X t+1 X t ). (X t+1 = j X t = i) = γ ij Y t X t N ( µ Xt, σ 2 X t ), µ Xt = { { µ 1, X t = 1, σ 2 µ 2, X t = 2, σ2 X t = 1, X t = 1, σ2, 2 X t = 2, Γ = [ ] 1 γ12 γ 12. γ 21 1 γ 21 X t Y t Y t X t ( t i ) = γ t 1 ii (1 γ ii ).
130 {Y t : t 1, 2,..., T } 1 1/ T T
131 t = T = 1 T ( X t = i Y 1, Y 2,..., Y T ) i t T T i ( X t = i Y 1, Y 2,..., Y T ) > X t = i ( X t = i Y 1, Y 2,..., Y T ) t = t + 1 T = (t, T ) T = T + 1 t t (γ ii 0.5) t + 1 t
132 t + 1 t t + 1 t t T t T + 1 T t t + 1 t + 1 T T + 1 t + 2 T t t + 1
133 p p p p p = 0 p p p p
134 (p = 0.5) p = 0.5 p = 0.5
135 (p = 0.5) (p = 0.8) p = 0.5 p = 0.5 p = 0.8 p = 0.5 p = 0.8 p = 0.5 t
136 (p = 0.5) p = 0.5 t X ( f t [ = Xt 20, X t 19,..., X )] t, [ ] X t = i ( X t = i Y 1, Y 2,..., Y t)
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138 t 1/N
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144 t r r t t = t i=t 20 (P i/p i 1 ) 2 P t t
145 t t+21 r t = (P t/p t 1 )
146 r t t r 0.24
147 τ X i { F 0 i < τ, F 1 i τ. F 0 t = τ F 1 x 1, x 2,... X 1, X 2,... X i τ t k < t k { F 0 i < k, H 0 : i X i F 0, H 1 : X i F 1 i k.
148 k D k,t D k,t t D k,t > h k,t h k,t k D k,t 1 < k < t D,t = D k,t, k t D,t > h t h t ˆτ k D k,t D k,t h t F 0 F 1 (x) = F 0 (x + δ) F 1 (x) = F 0 (δx) F 0 t F
149 n = n A + n B A B (n + 1) /2 M = (r (x i ) (n + 1) /2) 2, x i A r (x i ) x i µ M = n A ( n 2 1 ) /12, σ 2 M = n An B (n + 1) ( n 2 4 ) /180. M = (M µ M )/ σ M i t r (x i ) = t i j I (x i x j ), I
150 t r τ < t t
151 τ t t + 1 t + 1 t = λ t 1 + (1 λ) r 2 t. λ
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155 100
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166 l 1 l 2 l 0
167 x 1,..., x T R n t = 1,..., T x t x t N (µ t, Σ t ) µ t Σ t K T b 1,..., b K T K + 1 x t K b 1,..., b K µ (1),..., µ (K+1), Σ (1),..., Σ (K+1) K + 1 b 0 b K+1 1 = b 0 < b 1 < < b K < b K+1 = T + 1, (µ t, Σ t ) = (µ (i), Σ (i) ), b i 1 t < b i, i = 1,..., K. t t (i) b i x 1,..., x T x 1,..., x T l(b, µ, Σ) = = = T t=1 K+1 ( 1 2 (x t µ t ) T Σ 1 t (x t µ t ) 1 2 Σ t n 2 (2π) ) b i 1 i=1 t=b i 1 K+1 i=1 ( 1 2 (x t µ (i) ) T (Σ (i) ) 1 (x t µ (i) ) 1 2 Σ(i) n 2 (2π) ) l (i) (b i 1, b i, µ (i), Σ (i) ),
168 l (i) (b i 1, b i, µ (i), Σ (i) ) = b i 1 ( 1 2 (x t µ (i) ) T (Σ (i) ) 1 (x t µ (i) ) t=b i Σ(i) n 2 (2π) ) b i 1 = 1 (x t µ (i) ) T (Σ (i) ) 1 (x t µ (i) ) 2 t=b i 1 b i b ( ) i 1 Σ (i) + n (2π) 2 i b = (b 1,..., b K ) µ = (µ (1),..., µ (K+1) ) Σ = (Σ (1),..., Σ (K+1) ) Σ Σ b i b i 1 i K b µ Σ K+1 ϕ(b, µ, Σ) = l(b, µ, Σ) λ (Σ (i) ) 1 = K+1 i=1 i=1 ( l (i) (b i 1, b i, µ (i), Σ (i) ) λ (Σ (i) ) 1), λ 0 K λ K ( ) T 1 K b 1,..., b K µ Σ λ = 0 λ > 0 b i
169 b i 1 µ (i) 1 = x t, b i b i 1 t=b i 1 i Σ (i) = S (i) + λ b i b i 1 I, S (i) b i 1 S (i) 1 = (x t µ (i) )(x t µ (i) ) T. b i b i 1 t=b i 1 S (i) b i b i 1 < n λ > 0 Σ (i) b b ϕ(b) = C 1 K+1 ( (b i b i 1 ) (S (i) λ + I) 2 b i=1 i b i 1 ) λ (S (i) λ + I) 1 b i b i 1 K+1 = C + ψ(b i 1, b i ), i=1 C = (T n/2)((2π) + 1) b ψ(b i 1, b i ) = 1 ( (b i b i 1 ) (S (i) λ + I) 2 b i b i 1 ) λ (S (i) λ + I) 1. b i b i 1 S (i) b i 1 b i λ = 0 ψ(b i 1, b i ) = 1 2 (b i b i 1 ) S (i).
170 K λ 1 K+1 ( (b i b i 1 ) (S (i) λ + I) 2 b i=1 i b i 1 ) λ (S (i) λ + I) 1, b i b i 1 b = (b 1,..., b K ) ( ) T 1 K bi S (i) b S (i) T n 2 K + 1 Kn 2 T n Kn T n S (i) i = 1,..., K + 1 ψ(b i 1, b i ) LL T = S (i) λ + I, b i b i 1 L n 3 n 2 n i=1 (L ii) n 3 L 1 2 F T n 2 + Kn 3 K + 1 T n K K < T T = Kn n K n T n 2 T = 1000 n = 100
171 (b i 1, b i ) b i 1 < b i T (T 1)/2 K (p, q) (q, r) n 3 KT 2 T T (b i 1, b i ) i t ψ(b i 1, t)+ψ(t, b i ) t b i 1 b i b i b i 1 > 1 i t = (b i 1, b i ) b i 1 b i ψ(b i 1, t) + ψ(t, b i ) ψ(b i 1, b i ) t t = (b i 1, b i ) b i 1 b i t
172 x bi 1,..., x bi µ Σ µ = 0 µ = µ Σ = λi Σ = Σ + λi t = b i 1 + 1,..., b i 1 µ µ Σ Σ ψ t = ψ(b i 1, t) + ψ(t, b i) t ψ t ψ t ψ(b i 1, b i) t x 1,..., x T K b 0 = 1 b 1 = T + 1 K = 0,..., K i = 1,..., K + 1 (t i, ψ ) (b i 1, b i) ψ K > 0 (b 1,..., b K) ψ () t i ψ 1 = b 0 < b 1 < < b K+1 < b K+2 = T + 1 i = 1,..., K (t i, l ) (b i 1, b i+1) t i b i b i = t i (b 1,..., b K) n 2 ψ t n 3 (b i b i 1 )n 3 K K = 1,..., K
173 K = 1,..., K (b i 1, b i+1 ) K K + 1 Kn 2 K KLn 3 T L Ln 3 T L K K = 1 K = K L (K ) 2 n 3 T K n 3 T K n 3 T 2 λ K K λ 0.9T K
174 K = (T /n)/3 3n T /n λ λ K l(x t ) = 1 2 (x t µ (i) ) T (Σ (i) ) 1 (x t µ (i) ) 1 2 Σ(i) n 2 (2π), t i 1 X X x l(x t X t) t λ K K λ K K = 0 K
175 O(K T n 3 ) O(T n 3 ) K 1 T 1 K M λ K t t T x T x 1 t = 1,..., 365
176 (Σ (i), µ (i) ) (Σ (i 1), µ (i 1) ) λ
177 n = 3 µ (i) Σ (i) n = 3 T = 4943 K = 30 λ = 10 4 K K = 8 K = 10 n
178 ϕ(b) λ = 10 4 K λ K λ λ K = K K K = 30 K λ λ = 10 4 K = 10 λ = 10 4 K λ K λ λ = 10 4 K = 10 t
179 λ = 10 6 λ = 10 5 λ = 10 4 λ = 10 3 λ K 30
180 λ = 10 4 K = 10 K = 10 λ = 10 4 K = 8 K = 11 K = 9
181 K K K = 10 K (K ) 2 LT n
182 ϕ(b) K = 10 λ = 10 4 K λ K n = K = 3 λ =
183 λ = λ = 10 2 λ = λ = 10 1 λ λ K = 10
184 K = 3 λ = K = 4 λ = 10 3 λ
185
186 λ = 10 K = 9 Σ i = A (i) A (i)t, i = 1,..., 10 A (i) R A (i) j,k K = 9 i Σ i K = 9 K + 1 = 10 λ λ = 10 λ = 10 λ λ λ λ
187 [100, 200, 300, 400, 500, 600, 700, 800, 900] [100, 200, 300, 400, 500, 600, 663, 700, 800] n K T /(K + 1) K T /K n
188 t l 1
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198 {S t : t N} t N (S t+1 S t,..., S 1 ) = (S t+1 S t ). (S t+1 = j S t = i) = γ ij Γ = {γ ij } π π T Γ = π T T π = 1 δ = π δ δ i = (S 1 = i) Y t S t N ( µ St, σ 2 S t ),
199 µ St = { { µ 1, S t = 1, σ 2 [ ] µ 2, S t = 2, σ2 S t = 1, S t = 1, 1 σ2, 2 S t = 2, Γ = γ12 γ 12. γ 21 1 γ 21 S t Y t S t ( t i ) = γ t 1 ii (1 γ ii ).
200 ˆθ t = θ t n=1 w n (Y n Y n 1,..., Y 1, θ ) = lt (θ) θ w n = 1 w n = f t n 0 < f < 1 N = 1 1 f. l t (θ) ˆθ t 1 θ ˆθ t ˆθ t = ˆθ )] 1 ) t 1 [ θθ lt (ˆθt 1 θ lt (ˆθt 1. I t (θ) = [ θθ l t ] = [ θ l t θ lt T ]. ˆθ t ˆθ )] 1 ) t 1 + A [I t (ˆθt 1 θ lt (ˆθt 1.
201 A A 1/N t > 1 t α T T T = δt 1 (y 1 ) T t=2 Γ t t (y t ( δ T T ), 1 (y 1 ) t=2 Γ t t (y t ) i ( α T T )i = (S T = i Y T,..., Y 1 ) t (y t ) p i (y t ) = (Y t = y t S t = i, θ t ) k α T T k α T T +k T = αt T T Γk T.
202 µ = σ 2 = m µ i α i i=1 m i=1 ( µ 2 i + σi 2 ) αi µ 2 α i r t (1 + r t ) N ( µ, σ 2), µ σ 2 [r t ] = ( µ + σ 2/ 2 ) 1 [r t ] = ( ( σ 2) 1 ) ( 2µ + σ 2). λ 2 = γ 11 + γ 22 1 λ 2
203 h t R n t (h t ) i i t (h t ) i < 0 i u t R n (u t ) i > 0 i t h + t = h t + u t, t = 0,..., T 1, t + 1 V t = T h t
204 V + t = T h + t V t h t h t /V t T u t + κ T u t = 0, t = 0,..., T 1, κ T u t κ T u t T u t + κ T u t 0, t = 0,..., T 1, u 0 u 1 u 2 r 1 r 2... h t+1 = ( + r t+1 ) h + t, t = 0,..., T 1, r t+1 R n t t + 1 t h 0 h + 0 h 1 h + 1 h 2 h + 2 t = 0 t = 1 t = 2 r t [ ] [r t ] = r t, (r t r t ) (r t r t ) T = Σ t, t = 1,..., T. ϕ t : R n R n u t = ϕ t (h t ), t = 0,..., T 1. C t R n C t h t u t h + t = h t + u t C t.
205 h + t u t h t r t h t h + t h t, h t h t h = 0 H t R n y t + V t + Ht, [ ] T 1 J = V T ψ t (h t, u t ), t=0 r 1,..., r T V T = T h T ψ t : R n R n R t r t ψ t h 0 ] ( ) h + T t Σt+1 h + t ψ t (h t, u t ) = γ [ V t+1 h + t V t + = γ V + t, γ 0 V t +
206 ψ t (u t ) = ρ T u t, ρ κ l 1 V t
207 u t ˆr τ τ = t+1,..., T. V T T 1 τ=t ψ τ (h τ, u τ ) h τ+1 = ( + ˆr τ+1 ) (h τ + u τ ), τ = t,..., T 1 h t+1,..., h T u t,..., u T 1 h t u t,..., u T 1 ϕ (h t ) = u t h t+1 r t u t,..., u T 1 t,..., T K
208 K u t,..., u t+k 1 u t t Vt+K (h t+k) t+k 1 τ=t ψ τ (h τ, u τ ) h τ+1 = ( + ˆr τ+1 ) (h τ + u τ ), τ = t,..., t + K 1 h t+1,..., h t+k u t,..., u t+k 1 K Vt+K K Vt+K (h t+k) V t+k = T h t+k K K t K u t,..., ut+k 1 K = 100
209 r t = (P t) (P t 1 ) P t t
210 µ1 µ2 σ 2 1 σ 2 2 γ11 γ22 N = 260 N = 260 A = 1/N
211 γ 11 γ 22 1/ (1 0.99) = 100 K γ = 0 γ = 2 K λ 2 = 1 γ 11 γ 22
212 (γ = 0, κ = 0) (γ = 2, κ = 0) (γ = 0, κ = 0.02) (St = 1) (St = 1) (St = 1) γ κ κ = K = 100 κ = (γ = 0, ρ = 0) γ = 2
213 (γ = 0, ρ = 0) (γ = 2, ρ = 0) (γ = 0, ρ = 0.02) γ (γ = 0, ρ = 0.02) ρ = 0.02 κ = γ = 2
214 (γ = 0, κ = 0.001, ρ = 0) ut/vt ut/vt ut/vt (γ = 2, κ = 0.001, ρ = 0) (γ = 0, κ = 0.001, ρ = 0.02)
215 (γ = 0, ρ = 0) (γ = 0, ρ = 0.02) u 0 u 1 u 2 h 0 h + 0 r 1 h 1 h + 1 r 2 h 2 h + 2 t = 0 t = 1 t = 2... t t + 1
216
217 (γ = 0, κ = 0.001, ρ = 0) (κ = 0.001) (γ = 0, ρ = 0)
218
219 t
220 1/N
221
222
223
224
225
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228
229 n t = 1,..., T t t t t + 1 n h t R n+1 t (h t ) i i t (h t ) i < 0 i i = 1,..., n (h t ) i 0 i = 1,..., n (h t ) n+1 (h t ) n+1 < 0 p t R n +
230 t (h t ) n+1 = 0 v t t v t = T h t v t > 0 (h t ) 1:n = ((h t ) 1,..., (h t ) n ) (h t ) 1:n 1 = (h t ) (h t ) n, (h t ) 1:n 1 /v t w t R n+1 h t w t = h t /v t v t > 0 T w t = 1 (w t ) n+1 h t = v t w t w 1:n 1 l 1 u t R n (u t ) i > 0 i (u t ) i < 0 i t i = 1,..., n (u t ) n+1 z t = u t /v t w t h + t = h t + u t, t = 1,..., T.
231 t v + t = T h + t v + t v t = T h + t T h t = T u t. (u t ) 1:n R n l 1 (u t ) 1:n 1 /2 t (u t ) 1:n 1 /(2v t ) = z 1:n 1 /2 w t = h t /v t h + t /v t = w t + z t. ϕ t (u t ) ϕ t : R n+1 R ϕ t (u t ) n+1 ϕ t ((u t ) 1:n ) ϕ t (0) = 0 ϕ t (u t ) ϕ t ϕ t (x) = n i=1 (ϕ t ) i (x i ), (ϕ t ) i R R i t (ϕ t ) i x a x + bσ x 3/2 + cx, V 1/2 a b σ V c x a
232 b V x 3/2 /V 1/2 σ b b c c = 0 x c > 0 c > a i t 3/2 3/2 v t z i i t a i z i + b i σ i z i 3/2 (V i /v) 1/2 + c iz i. V i /v V i t ϕ t (z t ) ϕ t (z t ) v t
233 z i h + t t ϕ t (h + t ) ϕ t : R n+1 R (h + t ) n+1 ϕ t (h + t ) = s T t (h + t ), (s t ) i 0 t i (z) = { z, 0} z (s t ) n+1 = 0 (s t ) n+1 > 0 ϕ t (h + t )/v t = s T t (w t + z t ). ϕ t (w t + z t )
234 ϕ t h i ϕ t (w t + z t ) = s T t (w t + z t ) + f T t (w t + z t ), f t (f t ) i i i T u t + ϕ t (u t ) + ϕ t (h + t ) = 0. T u t v t + = v t ϕ t (u t ) ϕ t (h + t ) (u t ) n+1 (u t ) 1:n (u t ) n+1 = ( T (u t ) 1:n + ϕ t ((h t + u t ) 1:n ) + ϕ t ((u t ) 1:n ) ). n + 1 n (u t ) 1:n (u t ) n+1 (u t ) 1:n ϕ t
235 ϕ t v t T z t + ϕ t (v t z t )/v t + ϕ t (v t (w t + z t ))/v t = 0, u t = v t z t h + t = v t (w t + z t ) T z t + ϕ t (z t ) + ϕ t (w t + z t ) = 0, (z t ) n+1 (z t ) 1:n (z t ) n+1 = ( T (z t ) 1:n + ϕ t ((w t + z t ) 1:n ) + ϕ t ((z t ) 1:n ) ). h t+1 = h + t + r t h + t = ( + r t ) h + t, t = 1,..., T 1, r t R n+1 t t + 1 i t (r t ) i = (p t+1) i (p t ) i (p t ) i, i = 1,..., n, + r t 0 (p t+1) i (p t ) i = (1 + (r t ) i ), i = 1,..., n.
236 (r t ) n+1 (s t ) n+1 > 0 (u t ) 1:n (r t ) 1:n (r t ) n+1 v t+1 = T h t+1 = ( + r t ) T h + t = v t + r T t h t + ( + r t ) T u t = v t + rt T h t + rt T u t ϕ t (u t ) ϕ t (h + t ). t R t = v t+1 v t v t, R t = rt T w t + rt T z t ϕ t (z t ) ϕ t (w t + z t ). t r T t w t r T t z t ϕ t (z t ) ϕ t (w t + z t ) w t+1 w t z t r t 1 w t+1 = 1 + R ( + r t ) (w t + z t ). t T w t+1 = 1 w t+1 = w t + z t r t = 0 w t+1 w t + z t
237 d T t h t d t t h t+1 = ( + r t ) (h t + u t ) h t+1 = ( + r t ) h t + (1 θ t /2)( + r t ) u t, θ t θ t > 0 u t u t
238 t = 1,..., T h 1 R n+1 (u t ) 1:n (u t ) n+1 a t R n b t R n c t R n σ t R n V t R n s t R n r t R n+1 d t R n (u t ) 1:n
239 t = 1,..., T R = 1 T R t. T t=1
240 t G t = (v t+1 /v t ) = (1 + R t ). G t t = 1,..., T G t R t P P P 250 σ = ( 1 T ) 1/2 T (R t R ) 2. t=1 1/T 1/(T 1) R t (σ ) 2 1 T T (R t ) 2. t=1 P P wt R n+1 T wt = 1 wt wt = e n+1 t Rt = rt T wt (r t ) n+1
241 R t = R t R t. R t = R t (r t ) n+1. R R t Rt = R t Rt = rt T ( wt wt ) + r T t z t ϕ t (z t ) ϕ t (w t + z t ). z t = 0 w t = wt ϕ t (wt ) = 0 Rt σ σ σ R σ = R /σ. = R /σ. t (u t ) 1:n (z t ) 1:n (z t ) n+1
242 (z t ) 1:n r t ϕ t Z t (z t ) 1:n Ẑ ˆϕ t r t ˆr t Ẑ Z t r t ˆR t = ˆr T t w t + ˆr T t z t ˆϕ t (z t ) ˆϕ t (w t + z t ), r t ˆr t ˆR t = ˆr T t (w t w t ) + ˆr T t z t ˆϕ t (z t ) ˆϕ t (w t + z t ). ˆr T t z t ˆϕ t (z t ) ˆϕ t (w t + z t ),
243 z t ˆR t γ t ψ t (w t + z t ) z t Z t, w t + z t W t T z t + (z t ) + ˆϕ t ˆϕ t (w t + z t ) = 0, z t ψ t : R n+1 R γ t > 0 Z t W t w t v t ˆR t ˆR t ˆR t z t ˆr T t z t ˆϕ t (z t ) ˆϕ t (w t + z t ). ˆϕ t ˆr t T z t (z t ) z t Z t, w t + z t W t T z t + (z t ) + ˆϕ t ˆϕ t (w t + z t ) γ t ψ t (w t + z t ) ˆϕ t (w t + z t ) = 0, z t z t w t + z t (z t ) 1:n = (zt ) 1:n zt (u t ) 1:n = v t (zt ) 1:n (z t ) n+1 (zt ) 1:n (zt ) n+1 (z t ) n+1
244 (z t ) n+1 (z t ) n+1 (zt ) n+1 w t + zt W t w t + z t w t + zt (w t + zt ) 1:n T z t + ˆϕ t (z t ) + ˆϕ t (w t + z t ) = 0 T z t = 0 T z = 0 ˆϕ t ˆϕ t (w t + z t ) γ t ψ t (w t + z t ) ˆr t T z t (z t ) T z t = 0, z t Z t, w t + z t W t. zt (z t ) n+1 (w t + z t ) n+1 T z t = 0 w t + z t T (w t + z t ) = 1 T (w t + z t ) w t+1 = w t + z t ˆϕ t ˆϕ t (w t+1 ) γ t ψ t (w t+1 ) ˆr t T w t+1 (w t+1 w t ) T w t+1 = 1, w t+1 w t Z t, w t+1 W t,
245 w t+1 ψ t r t Σ t R (n+1) (n+1) R t [R t ] = (w t + z t ) T Σ t (w t + z t ). t ψ t (x) = x T Σ t x. Σ t (r t ) n+1 Σ t r t Σ t Rt [R t] = (w t + z t w t ) T Σ t (w t + z t w t ). ψ t (x) = (x w t ) T Σ t (x w t ). x T Σ t x Σ t γ t γ t = 1/2 r t w R t = w T r t [(1 + R t )] T w = 1 w 0
246 (1 + a) a (1/2)a 2 [(1 + R t )] [ R t (1/2)(R t ) 2] = µ T w (1/2)w T (Σ + µµ T )w, µ = [r t ] Σ = [(r t µ)(r t µ) T ] r t µµ T Σ µ T w (1/2)w T Σw γ t = 1/2 γ t 1/2 n Σ t Σ t = F t Σ tft T + D t, F t R (n+1) k Σ t R k k F T r t D t R (n+1) (n+1) k n (F t ) ij i j D t O(n 3 ) O(nk 2 ) O((n/k) 2 ) n k
247 ψ t (x) = φ((x w t ) T Σ t (x w t )), φ : R R φ(x) = (x a) + a a φ(x) = (x/η) η > 0 η x ψ t (x) = (x i=1,...,m w t ) T Σ (i) t (x wt ). Σ (i) i = 1,..., M M i M Σ (i) M Σ (i)
248 ˆr ˆr + δ δ ρ ρ R n ρ ˆr i ρ i ρ i 6 ± (ˆr t + δ t ) T (w t + z t ) δ ρ δ ˆr i + ρ i ˆr i ρ i ˆR t = ˆr T t (w t + z t w t ) ρ T w t + z t w t. δ ψ t (x) = ρ T x w t. l 1
249 Σ Σ = Σ +, ij κ (Σ ii Σ jj ) 1/2, κ [0, 1) κ κ κ κ = v = x w t v T (Σ )v = v T (Σ + )v ij κ(σ iiσ jj) 1/2 ij κ(σ iiσ jj) 1/2 = v T Σv + ij κ(σ iiσ jj) 1/2 = v T Σv + κ v i v j (Σ ii Σ jj ) 1/2 ij ( 2 = v T Σv + κ Σ 1/2 ii v i ). i ij v i v j ij ψ t (x) = (x w t ) T Σ(x w t ) + κ ( σ T x w t ) 2, σ = (Σ 1/2 11,..., Σ1/2 nn ) l 1 w t +z t w t+1
250 w t+1 w t + z t w t + z t w t+1 w t+1 w t + z t w t + z t w t w t + z t w t + z t 0. (w t +z t ) 1:n 0 w t + z t ( + r t ) (h t + z t ) + r t 0 (w t + z t ) 1:n 1 L, L L C t (w t + z t ) i δ C t /v t, δ 0 / i δ i w w t + z t w, w w w = w = (0.05)
251 c (w t + z t ) n+1 c /v t. i i (w t + z t ) i = 0. β β R R Σ t [r t ] w t + z t β (w t ) T Σ t (w t + z t ) = 0. σi i ( ) σ 2 i = (wt + z t ) T (F t ) i (Σ t) ii (F t ) T i (w t + z t ). i σi (F t ) T i (w t + z t ) = 0. = 0 1,..., K i c i c i i i c T i (w t + z t ) R, i R R i
252 T h + T ˆϕ (w t + z t )/T δ T ˆϕ t ((w t + z t )/T ) δ. T ω K K (w t + z t ) [i] ω, i=1 a [i] i a K K = 20 ω = K z t (z t ) 1:n (z t ) n+1 t (z t ) 1:n 1 /2 δ (z t ) 1:n 1 /2 δ. δ V t (z t ) 1:n δ(v t /v t ),
253 i (z t ) i 0, (z t ) i 0. h(x) = 0 x γ h(x) 1 γ > 0 γ T h(x) γ h(x) h(x) 0 γ T (h(x)) + γ > 0 F T t (w t + z t ) = 0 γ F T t (w t + z t ) 1 γ > 0 γ F T t (w t + z t ) = 0 T z t + T z t + ˆϕ t (z t ) + ˆϕ t (w t + z t ) = 0, ˆϕ t (z t ) + ˆϕ t (w t + z t ) 0. T z t = 0
254 O(nk 2 ) n k k n 3/ O(nk 2 )
255 (z t ) i (z t ) i ϵ ϵ > 0 (z t ) i ϵ (z t ) i 0 z z (z t ) i = 0 ( z t ) i = 0 (z t ) i 0 ( z t ) i > 0 (z t ) i 0 ( z t ) i < 0
256 K l 1 K ϕ t γ 1/γ a t 3/2 3/2
257 γ γ κ T (w t +z t ) 2 κ 0 ( ˆr t T z t γt ˆϕ t (z t ) ) γt ˆϕ t (w t + z t ) γt ψ t (w t + z t ) T z t = 0, z t Z t, w t + z t W t. γt γt γt
258
259
260 L V t z t H t, t + 1,..., t + H 1. H = 1 t, t + 1,..., t + H 1 t Z Ẑτ t Z τ t τ t Ẑτ t = Z τ Z τ ˆr t t t t ˆr t ˆr t+2 t t t + 2 z t, z t+1,..., z t+h 1 t+h 1 τ=t ( ˆr T τ t (w τ + z τ ) γ τ ψ τ (w τ + z τ ) ) ˆϕ τ (w τ + z τ ) ˆϕ τ (z τ ).
261 w t w t+1,..., w t+h z t,..., z t+h 1 1 w t+1 = 1 + R ( + r t ) (w t + z t ), t T w t = 1 T w t+1 = 1 γ τ ψ t (w τ +z τ ) γ τ ψ τ (w τ + z τ ) w t z t w t+1 R t = 0 r t = 0 w t+1 = w t + z t T z t = 0 T w τ = 1 τ = t + 1,..., t + H T z τ = 0, τ = t + 1,..., t + H 1. w t T w t = 1 T w τ = 1 τ = t + 1,..., t + H ( t+h 1 τ=t ˆr τ t T (w τ + z τ ) γ τ ψ τ (w τ + z τ ) ˆϕ τ (w τ + z τ ) ˆϕ τ (z τ ) T z τ = 0, z τ Z τ, w τ + z τ W τ, w τ+1 = w τ + z τ, τ = t,..., t + H 1, z t, z t+1,..., z t+h 1 w t+1,..., w t+h w t H = 1 ˆr T t t w t
262 w τ+1 = w τ + z τ z τ ( t+h τ=t+1 ˆr τ t T w τ γ τ ψ τ (w τ ) ) ˆϕ τ (w τ ) ˆϕ τ (w τ w τ 1 ) T w τ = 1, w τ w τ 1 Z τ, w τ W τ, τ = t + 1,..., t + H, w t+1,..., w t+h H H z t z t+1,..., z t+h 1 z t 1 w t+1 = 1 + R ( + r t ) (w t + z t ) t w t+1 = w t + z t r t = 0
263 T z τ = 0 τ = t + 1,..., t + H 1 z τ T z τ = ϕ τ (z τ ) ϕ τ (w τ +z τ ) w t+h = w w t + H w = e n+1 H w t+h w t w t+1,..., w t+h 1 Hn H H H H = 100
264 H H H w t+h = w z τ 0 τ = t, τ = t + T, τ = t + T, τ = t + H 1, 1 < T < T < H 1. z = z t z = z t+t z = z t+t z t+h 1 T = 5 T = 21 H = 100 w = w t + z, w = w + z, w = w + z. z τ t + H 1
265 t ˆr t t t (w t + z t ) T Σ t (w t + z t ) Σ t R (n+1) (n+1) Σ t
266 w t v t z t t
267 r t V t (σ t ) i = (p t ) i (p t ) i (p t ) i ) i i t (p t a t = 0.05 s t = 0.01 b t = 1 c t = 0 d t = 0 w = ( /n, 0) w 1 = w z t = w w t t z t = 0 R σ 250 T T t=1 ϕ t (z t ), 250 T T t=1 (z t) 1:n 1 /2
268 v 1 = $100 w 1 = ( /n, 0) L = 3 t t M Σ = 1 t 1 M τ=t M r τ rτ T Σ = n i=1 λ iq i qi T λ i F = [q 1 q k ], Σ = (λ,..., λ ), = = + λ ( ) ( ), k = 15 D F Σ F T + D Σ
269 (ˆr t ) n+1 = (r t ) n+1 t t (ˆr t ) 1:n = α ((r t ) 1:n + ϵ t ), ϵ t N (0, σ 2 ϵ I) σ 2 ϵ = 0.02 α [((ˆr t ) 1:n (r t ) 1:n ) 2 ] r t σ r α = σ 2 r/(σ 2 r + σ 2 ϵ ) σ 2 r = α = ±0.3 α 0.15
270 t i ( ˆV t ) i = τ=1 (V t τ ) i γ γ γ γ = 0.1, 0.3, 1, 3, 10, 30, 100, 300, 1000, γ = 1, 2, 5, 10, 20, γ = 1, R σ γ γ γ γ γ γ γ = 4, 5, 6, 7, 8, γ γ γ = 6
271
272 γ = 0.1, 0.178, 0.316, 0.562, 1, 2, 3, 6, 10, 18, 32, 56, 100, 178, 316, 562, 1000, γ = 5.5, 6, 6.5, 7, 7.5, 8, γ = 0.1, 1, 10, 100, 1000, γ = 1
273 γ γ γ H = 2 H = 2 H = 1
274 v 1 = $100 w 1 = ( /n, 0) L = 3 ˆr t t = ˆr t, ˆr t+1 t = ˆr t+1, ˆr t ˆr t+1 ˆr t+1 = ˆr t+1 t = ˆr t+1 t+1 ˆr t+1 t ˆr t+1 t+1 γ γ γ γ = 0.1, 0.3, 1, 3, 10, 30, 100, 300, 1000, γ = 1, 2, 5, 10, 20, γ = 1, R σ γ γ = 10 γ = 1, 2, 3, 6, 10, 18, 32, 56, 100, 178, 316, 562, 1000, γ = 7, 8, 9, 10, 11, 12, γ = 0.1, 1, 10, 100, 1000,
275
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277 3/2
278
279 1/N
280
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283
284
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288
289 w t R n+1 t (w t ) i V t i (w t ) i < 0 i (w t ) n+1 T w t = 1 T [ T 1 η t+1 ( rt+1w T t+1 γ t+1 ψ t+1 (w t+1 ) ) t=0 η t ( ϕ t (w t+1 w t ) + ϕ t (w t+1 ) )], r 1,..., r T R n+1 ψ t : R n+1 R γ t ϕ t : R n+1 R
290 ϕ t : R n+1 R η (0, 1) H ˆµ τ t τ = t+1,..., t+h ˆµ τ t t τ t+h τ=t+1 ( ˆµ T τ t w τ ˆϕ τ t (w τ w τ 1 ) ˆϕ τ t (w τ ) γ τ ˆψτ t (w τ ) T w τ = 1, τ = t + 1,..., t + H, w t+1,..., w t+h w t ˆϕ ˆϕ wt+1,..., wt+h H wt+1 w t w t+1 H T
291 H wt+1,..., wt+h w t w t+1 w t H = 15 n = 10
292 ψ t (w t ) = w T t Σ t w t. Σ t q q H = 1
293 V t t M t = V τ, τ t t D t = 1 V t M t. t D D t D (0, 1) γ 0 D t = 0 V t = M t V 0 = M 0 D t = D D γ t = γ 0 D. D t (D D t, ϵ) ϵ γ τ γ τ = γ t τ = t + 1,..., t + H
294 γ t γ 0 D γ 0 ϕ t (w t w t 1 ) = κ T 1 w t w t 1 + κ T 2 (w t w t 1 ) 2, κ 1 κ 2 l 1 l 2 l 1 l 2 l 1 l 2
295 w t w t 1 3/2 (w t w t 1 ) T Σ t (w t w t 1 ) w t t ϕ t (w t ) = s T t (w t ), (s t ) i 0 i t (w) = { w, 0} w (s t ) n+1 > 0 ϕ t (w t ) = ρ T 1 w t + ρ T 2 w 2 t, ρ 1 ρ 2 l 1 l 2 l 1 l 2
296 w w t w, w w w = 0 (w t ) 1:n 1 L, L k
297 {s t : t N} t N (s t+1 s 1,..., s t ) = (s t+1 s t ). (s t+1 = j s t = i) = γ ij Γ = {γ ij } π π T Γ = π T T π = 1 o t s t N (µ st, Σ st ). s t o t s t α t o 1,..., o t i S t (α t ) i = (s t = i, o 1,..., o t ), i S. (α 1 ) i = (δ) i (o 1 s 1 = i), i S, δ (δ) i = (s 1 = i) α j S [ ] (α t ) j = (α t 1 ) i γ ij (o t s t = j), j S. i S
298 i S t (ξ t ) i = (s t = i o 1,..., o t ) = (s t = i, o 1,..., o t ) (o 1,..., o t ) = (α t) i T α t. i j (ζ t ) ij = (s t 1 = i, s t = j o 1,..., o t ) = (s t 1 = i, o 1,..., o t 1 ) (s t = j s t 1 = i) (o t s t = j) (o 1,..., o t ) = (α t 1) i γ ij (o t s t = j) T α t. t ξ t ζ t i, j S ˆγ t ij = = ˆµ t i = t τ=2 (s τ 1 = i, s τ = j o 1,..., o τ ) t τ=2 (ξ τ ) i t 1 τ=2 (ξ τ ) i t τ=2 (ξ τ ) i ˆγ t 1 ij + (ζ t ) ij t τ=2 (ξ τ ) i t τ=1 (ξ t 1 τ ) i o τ τ=1 t τ=1 (ξ = (ξ τ ) i t τ ) i τ=1 (ξ ˆµ t 1 i + (ξ t) i o t t τ ) i τ=1 (ξ τ ) i t ˆΣ t τ=1 i = (ξ τ ) i (o τ ˆµ t i ) (o τ ˆµ t i )T t τ=1 (ξ τ ) i t 1 τ=1 = (ξ τ ) i ˆΣt 1 t τ=1 (ξ i + (ξ t) i (o t ˆµ t i ) (o t ˆµ t i )T t τ ) i τ=1 (ξ. τ ) i t = 1
299 t τ=1 ξ τ S ξ t S ξ t = λs ξ t 1 + (1 λ) ξ t, λ (0, 1) τ λ τ T = 1/ (1 λ) = (1 ν i ) ˆΣ ) i + ν i (ˆΣi n 1 I n, ˆΣ i ν i [0, 1] I n n n
300 ξ t h ˆξ t t h ˆξ t+h t T = ˆξ t t T Γh t. µ = (ξ) i µ i, i S Σ = (ξ) i Σ i + (ξ) i (µ i µ) (µ i µ) T, i S i S (ξ) i r t ( + r t ) N ( µ s t, Σ ) s t, µ s t Σ s t r t (µ s ) i = (Σ s ) ij = { { (µ ) s { (µ s i )i + ( µ s { (Σ ) s ij } ( ) Σ s 1, ii ) } 1 j }. { (Σ s )ii + ( Σ s ) jj } } i j s
301
302
303 γ = 5 γ = 5 1/n
304 T = 65, 130, 260, ν i = 0.1, 0.2,..., 0.5
305 H = 10, 15,..., 30 w = 0.2, 0.3,..., 0.5 w = 0.2 w = 0.4 (κ 1 ) 1:n = , 0.001,..., (κ 1 ) n+1 = 0 κ T 1 w t w t 1 κ T 2 (w t w t 1 ) 2 (κ 1 ) 1:n = ρ 2 = 0, ,..., ρ T 2 wt 2 ρ 2 (ρ 2 ) n+1 = 0 ρ 2 = l 1 ρ T 1 w t γ 0 = 5 γ 0 = 5 γ 0
306 Empirical results Asset weight 0.8 TBill IFL bonds CORP bonds GVT bonds EM HY bonds DM HY bonds Oil Gold Real estate EM stocks DM stocks Year 1.0 TBill IFL bonds CORP bonds GVT bonds EM HY bonds DM HY bonds Oil Gold Real estate EM stocks DM stocks Asset weight 2.0 (a) γ = 5, (κ1 )1:n = 0.004, ρ2 = , (wmax )1:n = 0.4, (wmax )n+1 = Year ) ) ( ( (b) γ = 5, (κ1 )1:n = 0.004, ρ2 = , wmin 1:n = (wmax )1:n = 0.4, wmin n+1 = (wmax )n+1 = 1, Lmax = 2. Figure 3: Asset weights over time for a long-only and a long short portfolio. mentioned in the figure captions are equal to zero. The portfolios always include multiple assets at a time due to the imposed maximum holding (wmax )1:n = 0.4. The allocations change quite a bit over the test period, especially in the LS portfolio. Leverage is primarily used between 2003 and mid-2006 and again from 2010 until mid With the exception of these two periods, the four portfolios include holdings in the risk-free asset most of the time in addition to some short positions in the LS portfolio. The impact of drawdown control on the allocation is most
307 Multi-period portfolio selection with drawdown control 1.0 TBill IFL bonds CORP bonds GVT bonds EM HY bonds DM HY bonds Oil Gold Real estate EM stocks DM stocks Asset weight Year 1.0 TBill IFL bonds CORP bonds GVT bonds EM HY bonds DM HY bonds Oil Gold Real estate EM stocks DM stocks Asset weight 2.0 ) ( (a) γ = 5, (κ1 )1:n = 0.004, ρ2 = , (wmax )1:n = 0.4, wmin n+1 = (wmax )n+1 = Year ) ( (b) γ0 = 5, (κ1 )1:n = 0.004, ρ2 = , (wmax )1:n = 0.4, wmin n+1 = (wmax )n+1 = 1, Dmax = 0.1. Figure 4: Asset weights over time for a leveraged long-only portfolio with and without drawdown control.
308 D =0.1 1/n γ 0 = 5 1/n 1/n γ 0 = 5 (1/n) 1/n 1/n L = 2 γ 0 = 5 D = 0.1
309 D =0.1 1/n γ 0 = 5 1/n
310 γ 0 D 1/n 1/n (w ) 1:n = 0.4 1/n 1/n D γ 0 = 1 γ 0 γ 0 3 D = 0.1
311 D =0.15 D =0.1 1/n D =0.15 D =0.1 1/n D γ 0 = 1, 3, 5, 10, 15, 25
312 D =0.15 D =0.1 1/n D =0.15 D =0.1 1/n D γ 0 = 1, 3, 5, 10, 15, 25
313 γ 0 D γ 0 D 1/n ( w ) 1:n = (w ) 1:n = 0.4 L = 2 γ 0
314
315
316 1/N
317
318
319
320
321
322
323
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