頑健な推定方法(アウトプット)

 Current sample:  1965 to 1994

 Current sample:  1966 to 1994


                                      Equation   1
                                      ============

                    FIRST-ORDER SERIAL CORRELATION OF THE ERROR

                    Objective function:  Exact ML (keep first obs.)
 Working space used: 667
                                 STARTING VALUES

                      C            YD           RHO 
 VALUE        -13.54048       0.90469       0.00000 

 F=   92.010     FNEW=   69.550     ISQZ=  1 STEP= 0.50000     CRIT=  38.735    
 F=   69.550     FNEW=   67.911     ISQZ=  0 STEP=  1.0000     CRIT=  4.3899    
 F=   67.911     FNEW=   67.608     ISQZ=  0 STEP=  1.0000     CRIT=  1.6846    
 F=   67.608     FNEW=   67.532     ISQZ=  2 STEP= 0.25000     CRIT=  1.5270    
 F=   67.532     FNEW=   67.272     ISQZ=  0 STEP=  1.0000     CRIT= 0.62601    
 F=   67.272     FNEW=   67.249     ISQZ=  0 STEP=  1.0000     CRIT= 0.49449E-01
 F=   67.249     FNEW=   67.248     ISQZ=  0 STEP=  1.0000     CRIT= 0.85135E-03
 F=   67.248     FNEW=   67.248     ISQZ=  0 STEP=  1.0000     CRIT= 0.36608E-06
 F=   67.248     FNEW=   67.248     ISQZ=  0 STEP=  1.0000     CRIT= 0.38184E-13
 F=   67.248     FNEW=   67.248     ISQZ=  1 STEP= 0.50000     CRIT= 0.77169E-27

 CONVERGENCE ACHIEVED AFTER  10 ITERATIONS


    23 FUNCTION EVALUATIONS.

 Dependent variable: CP
 Current sample:  1966 to 1994
 Number of observations:  29

        Mean of dep. var. = 173.620           Adjusted R-squared = .998226
   Std. dev. of dep. var. = 56.8939                Durbin-Watson = 1.15431
 Sum of squared residuals = 164.155  Rho (autocorrelation coef.) = .926127
    Variance of residuals = 6.31364               Schwarz B.I.C. = 72.2991
 Std. error of regression = 2.51270               Log likelihood = -67.2482
                R-squared = .998353

                          Standard
 Parameter  Estimate        Error       t-statistic   P-value
 C          .190906       10.3039       .018528       [.985]
 YD         .850070       .042830       19.8476       [.000]
 RHO        .926127       .063642       14.5522       [.000]

 Standard Errors computed from   analytic second derivatives 
 (Newton)

 Current sample:  1965 to 1994


                                      Equation   2
                                      ============

                       Method of estimation = Ordinary Least Squares


 Dependent variable: CP
 Current sample:  1965 to 1994
 Number of observations:  30

        Mean of dep. var. = 170.137      LM het. test = 1.60150 [.206]
   Std. dev. of dep. var. = 59.0697     Durbin-Watson = .170327 [.000,.000]
 Sum of squared residuals = 1039.17  Jarque-Bera test = 2.11490 [.347]
    Variance of residuals = 37.1132   Ramsey's RESET2 = 40.7643 [.000]
 Std. error of regression = 6.09206   F (zero slopes) = 2698.46 [.000]
                R-squared = .989730    Schwarz B.I.C. = 99.1441
       Adjusted R-squared = .989363    Log likelihood = -95.7429

            Estimated    Standard
 Variable  Coefficient     Error       t-statistic   P-value
 C         -11.4246      3.87448       -2.94867      [.006]
 YD        .895756       .016876       53.0781       [.000]
 Standard Errors are heteroskedastic-consistent (HCTYPE=2).

                          GENERALIZED METHOD OF MOMENTS
                          =============================

                            WITH STARTING VALUES VIA:
                        NONLINEAR TWO STAGE LEAST SQUARES

 EQUATIONS: EQ1

 INSTRUMENTS: C YD


                            OPTIONS FOR THIS ROUTINE
                            ========================

   COVOC    =                COVU     =                DEBUG    = FALSE        
   HETERO   = TRUE           INST     = O 0001         ITEROC   = FALSE        
   ITERU    = TRUE           KERNEL   = BARTLETT       LSQSTART = TRUE         
   MASK     =                MAXITW   = 20             NMA      = 2            
   OPTCOV   = FALSE          ROBUST   = TRUE           WNAME    =              
 NOTE => The model is linear in the parameters.
 Working space used: 699
                                 STARTING VALUES

                     B0            B1 
 VALUE          0.00000       0.00000 

 F=  0.96855E+06 FNEW=  0.10273E-22 ISQZ=  0 STEP=  1.0000     CRIT=  27.970    

 CONVERGENCE ACHIEVED AFTER   1 ITERATIONS


     2 FUNCTION EVALUATIONS.

 Working space used: 699
 F=  0.44785E-26 FNEW=  0.64797E-30 ISQZ=  0 STEP=  1.0000     CRIT= 0.13436E-24

 CONVERGENCE ACHIEVED AFTER   1 ITERATIONS


     4 FUNCTION EVALUATIONS.

                  Covariance Matrix of Orthogonality Conditions

                      1             2 
        1      91.38913               
        2   17216.34687 3548845.60729 

 Number of observations = 30  E'PZ*E = .647973E-30

                          Standard
 Parameter  Estimate        Error       t-statistic   P-value
 B0         -11.4246      5.73981       -1.99041      [.047]
 B1         .895756       .024988       35.8473       [.000]

 Standard Errors computed from   heteroscedastic-consistent matrix 
 (Robust-White)
 (also robust to autocorrelation:  NMA= 2,  Kernel=Bartlett)

 Equation: EQ1
 Dependent variable: CP

        Mean of dep. var. = 170.137
   Std. dev. of dep. var. = 59.0697
 Sum of squared residuals = 1039.17
    Variance of residuals = 37.1132
 Std. error of regression = 6.09206
                R-squared = .989730
       Adjusted R-squared = .989363
            Durbin-Watson = .170327 [.000,.000]

                          GENERALIZED METHOD OF MOMENTS
                          =============================

                            WITH STARTING VALUES VIA:
                        NONLINEAR TWO STAGE LEAST SQUARES

 EQUATIONS: EQ1

 INSTRUMENTS: C YD


                            OPTIONS FOR THIS ROUTINE
                            ========================

   COVOC    =                COVU     =                DEBUG    = FALSE        
   HETERO   = TRUE           INST     = O 0001         ITEROC   = FALSE        
   ITERU    = TRUE           KERNEL   =                LSQSTART = TRUE         
   MASK     =                MAXITW   = 20             NMA      = 0            
   OPTCOV   = FALSE          ROBUST   = TRUE           WNAME    =              
 NOTE => The model is linear in the parameters.
 Working space used: 699
                                 STARTING VALUES

                     B0            B1 
 VALUE        -11.42457       0.89576 

 F=  0.10341E-26 FNEW=  0.10341E-26 ISQZ=  0 STEP= 0.00000     CRIT= 0.27865E-28

 CONVERGENCE ACHIEVED AFTER   1 ITERATIONS


     1 FUNCTION EVALUATIONS.

 Working space used: 699
                                 STARTING VALUES

                     B0            B1 
 VALUE        -11.42457       0.89576 

 F=  0.13580E-29 FNEW=  0.61006E-30 ISQZ=  0 STEP=  1.0000     CRIT= 0.40741E-28

 CONVERGENCE ACHIEVED AFTER   1 ITERATIONS


     3 FUNCTION EVALUATIONS.

                  Covariance Matrix of Orthogonality Conditions

                      1             2 
        1      34.63902               
        2    6463.54285 1327954.52336 

 Number of observations = 30  E'PZ*E = .610061E-30

                          Standard
 Parameter  Estimate        Error       t-statistic   P-value
 B0         -11.4246      3.64928       -3.13063      [.002]
 B1         .895756       .015874       56.4302       [.000]

 Standard Errors computed from   heteroscedastic-consistent matrix 
 (Robust-White)

 Equation: EQ1
 Dependent variable: CP

        Mean of dep. var. = 170.137
   Std. dev. of dep. var. = 59.0697
 Sum of squared residuals = 1039.17
    Variance of residuals = 37.1132
 Std. error of regression = 6.09206
                R-squared = .989730
       Adjusted R-squared = .989363
            Durbin-Watson = .170327 [.000,.000]


                                      Equation   3
                                      ============

                       Method of estimation = Ordinary Least Squares


 Dependent variable: CP
 Current sample:  1965 to 1994
 Number of observations:  30

        Mean of dep. var. = 170.137      LM het. test = 1.60150 [.206]
   Std. dev. of dep. var. = 59.0697     Durbin-Watson = .170327 [.000,.000]
 Sum of squared residuals = 1039.17  Jarque-Bera test = 2.11490 [.347]
    Variance of residuals = 37.1132   Ramsey's RESET2 = 40.7643 [.000]
 Std. error of regression = 6.09206   F (zero slopes) = 2698.46 [.000]
                R-squared = .989730    Schwarz B.I.C. = 99.1441
       Adjusted R-squared = .989363    Log likelihood = -95.7429

            Estimated    Standard
 Variable  Coefficient     Error       t-statistic   P-value
 C         -11.4246      3.64928       -3.13063      [.004]
 YD        .895756       .015874       56.4302       [.000]
 Standard Errors are heteroskedastic-consistent (HCTYPE=0).


                                      Equation   4
                                      ============

                       Method of estimation = Ordinary Least Squares


 Dependent variable: CP
 Current sample:  1965 to 1994
 Number of observations:  30

        Mean of dep. var. = 170.137      LM het. test = 1.60150 [.206]
   Std. dev. of dep. var. = 59.0697     Durbin-Watson = .170327 [.000,.000]
 Sum of squared residuals = 1039.17  Jarque-Bera test = 2.11490 [.347]
    Variance of residuals = 37.1132   Ramsey's RESET2 = 40.7643 [.000]
 Std. error of regression = 6.09206   F (zero slopes) = 2698.46 [.000]
                R-squared = .989730    Schwarz B.I.C. = 99.1441
       Adjusted R-squared = .989363    Log likelihood = -95.7429

            Estimated    Standard
 Variable  Coefficient     Error       t-statistic   P-value
 C         -11.4246      3.77737       -3.02448      [.005]
 YD        .895756       .016431       54.5167       [.000]
 Standard Errors are heteroskedastic-consistent (HCTYPE=1).