Mplus ANALYSIS
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Lichaoping(讨论 | 贡献)2017年2月26日 (日) 19:40的版本 (创建页面,内容为“{| border="1" class="sortable" !ANALYSIS: |- | |- | |- | |- | |- | |- |TYPE = |- |GENERAL; |- |GENERAL |- | |- | BASIC; |- | |- | |- | RANDOM; |- | |- | |-...”)
ANALYSIS: |
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TYPE = |
GENERAL; |
GENERAL |
BASIC; |
RANDOM; |
COMPLEX; |
MIXTURE; |
BASIC; |
RANDOM; |
COMPLEX; |
TWOLEVEL; |
BASIC; |
RANDOM; |
MIXTURE; |
COMPLEX; |
THREELEVEL; |
BASIC; |
RANDOM; |
COMPLEX; |
CROSSCLASSIFIED; |
RANDOM; |
EFA # #; |
BASIC; |
MIXTURE; |
COMPLEX; |
TWOLEVEL; |
EFA # # UW* # # UB*; |
EFA # # UW # # UB; |
ESTIMATOR = |
ML; |
depends on |
MLM; |
analysis type |
MLMV; |
MLR; |
MLF; |
MUML; |
WLS; |
WLSM; |
WLSMV; |
ULS; |
ULSMV; |
GLS; |
BAYES; |
MODEL = |
CONFIGURAL; |
METRIC; |
SCALAR; |
NOMEANSTRUCTURE; |
means |
NOCOVARIANCES; |
covariances |
ALLFREE; |
equal |
ALIGNMENT = |
FIXED; |
last class |
CONFIGURAL |
FIXED (reference class CONFIGURAL); |
FIXED (reference class BSEM); |
FREE; |
last class |
CONFIGURAL |
FREE (reference class CONFIGURAL); |
FREE (reference class BSEM); |
DISTRIBUTION = |
NORMAL; |
NORMAL |
SKEWNORMAL; |
TDISTRIBUTION; |
SKEWT; |
PARAMETERIZATION = |
DELTA; |
DELTA |
THETA; |
LOGIT; |
LOGIT |
LOGLINEAR; |
PROBABILITY; |
RESCOVARIANCES; |
RESCOV |
LINK = |
LOGIT; |
LOGIT |
PROBIT; |
ROTATION = |
GEOMIN; |
GEOMIN (OBLIQUE value) |
GEOMIN (OBLIQUE value); |
GEOMIN (ORTHOGONAL value); |
QUARTIMIN; |
OBLIQUE |
CF-VARIMAX; |
OBLIQUE |
CF-VARIMAX (OBLIQUE); |
CF-VARIMAX (ORTHOGONAL); |
CF-QUARTIMAX; |
OBLIQUE |
CF- QUARTIMAX (OBLIQUE); |
CF- QUARTIMAX (ORTHOGONAL); |
CF-EQUAMAX; |
OBLIQUE |
CF- EQUAMAX (OBLIQUE); |
CF- EQUAMAX (ORTHOGONAL); |
CF-PARSIMAX; |
OBLIQUE |
CF- PARSIMAX (OBLIQUE); |
CF- PARSIMAX (ORTHOGONAL); |
CF-FACPARSIM; |
OBLIQUE |
CF- FACPARSIM (OBLIQUE); |
CF- FACPARSIM (ORTHOGONAL); |
CRAWFER; |
OBLIQUE 1/p |
CRAWFER (OBLIQUE value); |
CRAWFER (ORTHOGONAL value); |
OBLIMIN; |
OBLIQUE 0 |
OBLIMIN (OBLIQUE value); |
OBLIMIN (ORTHOGONAL value); |
VARIMAX; |
PROMAX; |
TARGET; |
BI-GEOMIN; |
OBLIQUE |
BI-GEOMIN (OBLIQUE); |
BI-GEOMIN (ORTHOGONAL); |
BI-CF-QUARTIMAX; |
OBLIQUE |
BI-CF-QUARTIMAX (OBLIQUE); |
BI-CF-QUARTIMAX (ORTHOGONAL); |
ROWSTANDARDIZATION = |
CORRELATION; |
CORRELATION |
KAISER; |
COVARIANCE; |
PARALLEL = |
number; |
0 |
REPSE = |
BOOTSTRAP; |
JACKKNIFE; |
JACKKNIFE1; |
JACKKNIFE2; |
BRR; |
FAY (#); |
.3 |
BASEHAZARD = |
ON; |
OFF; |
ON (EQUAL); |
ON (UNEQUAL); |
OFF (EQUAL); |
OFF (UNEQUAL); |
depends on |
analysis type |
EQUAL |
EQUAL |
CHOLESKY = |
ON; |
OFF; |
depends on |
analysis type |
ALGORITHM = |
EM; |
depends on |
EMA; |
analysis type |
FS; |
ODLL; |
INTEGRATION; |
INTEGRATION = |
number of integration points; |
STANDARD (number of integration points) ; |
GAUSSHERMITE (number of integration points) ; |
MONTECARLO (number of integration points); |
STANDARD |
depends on |
analysis type |
15 |
depends on |
analysis type |
MCSEED = |
random seed for Monte Carlo integration; |
0 |
ADAPTIVE = |
ON; |
OFF; |
ON |
INFORMATION = |
OBSERVED; |
depends on |
EXPECTED; |
analysis type |
COMBINATION; |
BOOTSTRAP = |
number of bootstrap draws; |
number of bootstrap draws (STANDARD); |
number of bootstrap draws (RESIDUAL): |
STANDARD |
LRTBOOTSTRAP = |
number of bootstrap draws for TECH14; |
depends on |
analysis type |
STARTS = |
number of initial stage starts and number of final stage optimizations; |
depends on |
analysis type |
STITERATIONS = |
number of initial stage iterations; |
10 |
STCONVERGENCE = |
initial stage convergence criterion; |
1 |
STSCALE = |
random start scale; |
5 |
STSEED = |
random seed for generating random starts; |
0 |
OPTSEED = |
random seed for analysis; |
K-1STARTS = |
number of initial stage starts and number of final stage optimizations for the k-1 class model for TECH14; |
20 4 |
LRTSTARTS = |
number of initial stage starts and number of final stage optimizations for TECH14; |
0 0 40 8 |
RSTARTS = |
number of random starts for the rotation algorithm and number of factor solutions printed for exploratory factor analysis; |
depends on |
analysis type |
ASTARTS = |
number of random starts for the alignment |
optimization; |
30 |
H1STARTS = |
Number of initial stage starts and number of final stage optimizations for the H1 model; |
0 0 |
DIFFTEST = |
file name; |
MULTIPLIER = |
file name; |
COVERAGE = |
minimum covariance coverage with missing data; |
.10 |
ADDFREQUENCY = |
value divided by sample size to add to cells with zero frequency; |
.5 |
ITERATIONS = |
maximum number of iterations for the Quasi-Newton algorithm for continuous outcomes; |
1000 |
SDITERATIONS = |
maximum number of steepest descent iterations for the Quasi-Newton algorithm for continuous outcomes; |
20 |
H1ITERATIONS = |
maximum number of iterations for unrestricted model with missing data; |
2000 |
MITERATIONS = |
number of iterations for the EM algorithm; |
500 |
MCITERATIONS = |
number of iterations for the M step of the EM algorithm for categorical latent variables; |
1 |
MUITERATIONS = |
number of iterations for the M step of the EM algorithm for censored, categorical, and count outcomes; |
1 |
RITERATIONS = |
maximum number of iterations in the rotation algorithm for exploratory factor analysis; |
10000 |
AITERATIONS = |
maximum number of iterations in the |
5000 |
alignment optimization; |
CONVERGENCE = |
convergence criterion for the Quasi-Newton algorithm for continuous outcomes; |
depends on |
analysis type |
H1CONVERGENCE = |
convergence criterion for unrestricted model with missing data; |
.0001 |
LOGCRITERION = |
likelihood convergence criterion for the EM algorithm; |
depends on |
analysis type |
RLOGCRITERION = |
relative likelihood convergence criterion for the EM algorithm; |
depends on |
analysis type |
MCONVERGENCE = |
convergence criterion for the EM algorithm; |
depends on |
analysis type |
MCCONVERGENCE = |
convergence criterion for the M step of the EM algorithm for categorical latent variables; |
.000001 |
MUCONVERGENCE = |
convergence criterion for the M step of the EM algorithm for censored, categorical, and count outcomes; |
.000001 |
RCONVERGENCE = |
convergence criterion for the rotation algorithm for exploratory factor analysis; |
.00001 |
ACONVERGENCE = |
convergence criterion for the derivatives of |
the alignment optimization;. |
.001 |
MIXC = |
ITERATIONS; |
ITERATIONS |
CONVERGENCE; |
M step iteration termination based on number of iterations or convergence for categorical latent variables; |
MIXU = |
ITERATIONS; |
ITERATIONS |
CONVERGENCE; |
M step iteration termination based on number of iterations or convergence for censored, categorical, and count outcomes; |
LOGHIGH = |
max value for logit thresholds; |
LOGLOW = |
min value for logit thresholds; |
UCELLSIZE = |
minimum expected cell size; |
.01 |
VARIANCE = |
minimum variance value; |
.0001 |
SIMPLICITY = |
SQRT; |
SQRT |
FOURTHRT; |
TOLERANCE = |
simplicity tolerance value; |
.0001 |
METRIC= |
REFGROUP; |
REFGROUP |
PRODUCT; |
MATRIX = |
COVARIANCE; |
COVARIANCE |
CORRELATION; |
POINT = |
MEDIAN; |
MEAN; |
MODE; |
MEDIAN |
CHAINS = |
number of MCMC chains; |
2 |
BSEED = |
seed for MCMC random number generation; |
0 |
STVALUES = |
UNPERTURBED; |
PERTURBED; |
ML; |
UNPERTURBED |
MEDIATOR = |
LATENT; |
OBSERVED; |
depends on |
analysis type |
ALGORITHM = |
GIBBS; |
GIBBS (PX1); |
GIBBS (PX2); |
GIBBS (PX3); |
GIBBS (RW); |
MH; |
GIBBS (PX1) |
BCONVERGENCE = |
MCMC convergence criterion using Gelman-Rubin PSR; |
.05 |
BITERATIONS = |
maximum and minimum number of iterations for each MCMC chain when Gelman-Rubin PSR is used; |
50000 0 |
FBITERATIONS = |
fixed number of iterations for each MCMC chain when Gelman-Rubin PSR is not used; |
THIN = |
k where every k-th MCMC iteration is saved; |
1 |
MDITERATIONS = |
maximum number of iterations used to compute the Bayes multivariate mode; |
10000 |
KOLMOGOROV = |
number of draws from the MCMC chains; |
100 |
PRIOR = |
number of draws from the prior distribution; |
1000 |
INTERACTIVE = |
file name; |
PROCESSORS = |
# of processors # of threads; |
1 1 |