Description Usage Format Details See Also Examples
Results: Simple Mediation Model - Multivariate Normal Distribution - Standardized - Complete Data - Fit Structural Equation Modeling
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A data frame with the following variables
Simulation task identification number.
Sample size.
Monte Carlo replications.
Population slope of path from x
to y
≤ft( \dot{τ} \right).
Population slope of path from m
to y
≤ft( β \right).
Population slope of path from x
to m
≤ft( α \right).
Population indirect effect of x
on y
through m
≤ft( α β \right).
Population variance of x
≤ft( σ_{x}^{2} \right).
Population error variance of m
≤ft( σ_{\varepsilon_{m}}^{2} \right).
Population error variance of y
≤ft( σ_{\varepsilon_{y}}^{2} \right).
Population mean of x
≤ft( μ_x \right).
Population intercept of m
≤ft( δ_m \right).
Population intercept of y
≤ft( δ_y \right).
Mean of estimated factor loading xlatent ~ x
≤ft( λ_x \right). Numerically equivalent to the standard deviation of x
.
Mean of estimated factor loading mlatent ~ m
≤ft( λ_m \right). Numerically equivalent to the standard deviation of m
.
Mean of estimated factor loading ylatent ~ y
≤ft( λ_y \right). Numerically equivalent to the standard deviation of y
.
Mean of estimated standardized slope of path from x
to y
≤ft( \hat{\dot{τ}}^{\prime} \right).
Mean of estimated standardized slope of path from m
to y
≤ft( \hat{β}^{\prime} \right).
Mean of estimated standardized slope of path from x
to m
≤ft( \hat{α}^{\prime} \right).
Mean of estimated error variance of y
≤ft( \hat{σ}_{\varepsilon_{y_{\mathrm{latent}}}}^{2} \right).
Mean of estimated error variance of m
≤ft( \hat{σ}_{\varepsilon_{m_{\mathrm{latent}}}}^{2} \right).
Mean of estimated standardized indirect effect of x
on y
through m
≤ft( \hat{α}^{\prime} \hat{β}^{\prime} \right).
Mean of estimated standard error of estimated factor loading xlatent ~ x
≤ft( λ_x \right).
Mean of estimated standard error of estimated factor loading mlatent ~ m
≤ft( λ_m \right).
Mean of estimated standard error of estimated factor loading ylatent ~ y
≤ft( λ_y \right).
Mean of estimated standard error of estimated standardized slope of path from x
to y
≤ft( \hat{\dot{τ}}^{\prime} \right).
Mean of estimated standard error of estimated standardized slope of path from m
to y
≤ft( \hat{β}^{\prime} \right).
Mean of estimated standard error of estimated standardized slope of path from x
to m
≤ft( \hat{α}^{\prime} \right).
Mean of estimated standard error of estimated error variance of y
≤ft( \hat{σ}_{\varepsilon_{y_{\mathrm{latent}}}}^{2} \right).
Mean of estimated standard error of estimated error variance of m
≤ft( \hat{σ}_{\varepsilon_{m_{\mathrm{latent}}}}^{2} \right).
Population parameter α^{\prime} β^{\prime}.
Variance of estimated standardized slope of path from x
to y
≤ft( \hat{\dot{τ}}^{\prime} \right).
Variance of estimated standardized slope of path from m
to y
≤ft( \hat{β}^{\prime} \right).
Variance of estimated standardized slope of path from x
to m
≤ft( \hat{α}^{\prime} \right).
Variance of estimated standardized indirect effect of x
on y
through m
≤ft( \hat{α}^{\prime} \hat{β}^{\prime} \right).
Standard deviation of estimated standardized slope of path from x
to y
≤ft( \hat{\dot{τ}}^{\prime} \right).
Standard deviation of estimated standardized slope of path from m
to y
≤ft( \hat{β}^{\prime} \right).
Standard deviation of estimated standardized slope of path from x
to m
≤ft( \hat{α}^{\prime} \right).
Standard deviation of estimated standardized indirect effect of x
on y
through m
≤ft( \hat{α}^{\prime} \hat{β}^{\prime} \right).
Skewness of estimated standardized slope of path from x
to y
≤ft( \hat{\dot{τ}}^{\prime} \right).
Skewness of estimated standardized slope of path from m
to y
≤ft( \hat{β}^{\prime} \right).
Skewness of estimated standardized slope of path from x
to m
≤ft( \hat{α}^{\prime} \right).
Skewness of estimated standardized indirect effect of x
on y
through m
≤ft( \hat{α}^{\prime} \hat{β}^{\prime} \right).
Excess kurtosis of estimated standardized slope of path from x
to y
≤ft( \hat{\dot{τ}}^{\prime} \right).
Excess kurtosis of estimated standardized slope of path from m
to y
≤ft( \hat{β}^{\prime} \right).
Excess kurtosis of estimated standardized slope of path from x
to m
≤ft( \hat{α}^{\prime} \right).
Excess kurtosis of estimated standardized indirect effect of x
on y
through m
≤ft( \hat{α}^{\prime} \hat{β}^{\prime} \right).
Bias of estimated standardized slope of path from x
to y
≤ft( \hat{\dot{τ}}^{\prime} \right).
Bias of estimated standardized slope of path from m
to y
≤ft( \hat{β}^{\prime} \right).
Bias of estimated standardized slope of path from x
to m
≤ft( \hat{α}^{\prime} \right).
Bias of estimated standardized indirect effect of x
on y
through m
≤ft( \hat{α}^{\prime} \hat{β}^{\prime} \right).
Mean square error of estimated standardized slope of path from x
to y
≤ft( \hat{\dot{τ}}^{\prime} \right).
Mean square error of estimated standardized slope of path from m
to y
≤ft( \hat{β}^{\prime} \right).
Mean square error of estimated standardized slope of path from x
to m
≤ft( \hat{α}^{\prime} \right).
Mean square error of estimated standardized indirect effect of x
on y
through m
≤ft( \hat{α}^{\prime} \hat{β}^{\prime} \right).
Root mean square error of estimated standardized slope of path from x
to y
≤ft( \hat{\dot{τ}}^{\prime} \right).
Root mean square error of estimated standardized slope of path from m
to y
≤ft( \hat{β}^{\prime} \right).
Root mean square error of estimated standardized slope of path from x
to m
≤ft( \hat{α}^{\prime} \right).
Root mean square error of estimated standardized indirect effect of x
on y
through m
≤ft( \hat{α}^{\prime} \hat{β}^{\prime} \right).
Type of missingness.
Standardized vs. unstandardize indirect effect.
Method used. Fit in this case.
Sample size labels.
α labels.
β labels.
\dot{τ} labels.
θ labels.
The standardized simple mediation model is given by the following measurement model and regression model.
Measurement model
x_{\mathrm{latent}} = λ_x x
m_{\mathrm{latent}} = λ_m m
y_{\mathrm{latent}} = λ_y y
Regression model
y_{\mathrm{latent}} = \dot{τ}^{\prime} x_{\mathrm{latent}} + β^{\prime} m_{\mathrm{latent}} + \varepsilon_{y_{\mathrm{latent}}}
m_{\mathrm{latent}} = α^{\prime} x_{\mathrm{latent}} + \varepsilon_{m_{\mathrm{latent}}}
The measurement errors in the measurement model are fixed to 0
The variance of x_{\mathrm{latent}} ≤ft( σ_{x_{\mathrm{latent}}}^{2} \right) is fixed to 1
The error variance \varepsilon_{y_{\mathrm{latent}}} ≤ft( σ_{\varepsilon_{y_{\mathrm{latent}}}}^{2} \right) is constrained to 1 - \dot{τ}^{\prime 2} - β^{\prime 2} - 2 \dot{τ}^{\prime} β^{\prime} α^{\prime}
The error variance \varepsilon_{m_{\mathrm{latent}}} ≤ft( σ_{\varepsilon_{m_{\mathrm{latent}}}}^{2} \right) is constrained to 1 - α^{\prime 2}
Other results functions:
results_mvn_std_mc.mvn.delta_ci
,
results_mvn_std_mc.mvn.sem_ci
,
results_mvn_std_mc.mvn.tb_ci
,
results_mvn_std_mc.wishart_ci
,
results_mvn_std_nb_ci
,
results_mvn_std_pb.mvn_ci
1 2 3 | data(results_mvn_std_fit.sem, package = "jeksterslabRmedsimple")
head(results_mvn_std_fit.sem)
str(results_mvn_std_fit.sem)
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