Association of Plasma Leptin Concentrations with Adiposity Measurements in Rural Chinese Adolescents -- Zhang et al. 94 (9): 3497 Data Supplement - Supplemental Data -- Journal of Clinical Endocrinology & Metabolism

Association of Plasma Leptin Concentrations with Adiposity Measurements in Rural Chinese Adolescents
J Clin Endocrinol Metab Zhang et al. 94: 3497

Supplemental Data

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Supplemental Figure 1a and 1b - Supplemental figure.1a. Genetic and environmental contributions to leptin-BMI association in 218 male adolescent twin pairs adjusted with age, and tanner stages.
AE model was the best-fitting model for the bivariate analyses of BMI and leptin in males; r_G, and r_E denoted genetic, and unique environmental correlations, respectively; a² and e² denoted percentage of total phenotypic variance accounted for genetic factors, and unique environmental factors; r_TP, total phenotypic correlation; C_GCP, Genetic contribution to total phenotypic correlation; C_UCP, unique environmental contribution to total phenotypic correlation.
Supplemental figure.1b. Genetic and environmental contributions to leptin-BMI association in 243 female adolescent twin pairs adjusted with age, and tanner stages.
AE model was the best-fitting model for the bivariate analyses of BMI and leptin in females; r_G, and r_E denoted genetic, and unique environmental correlations, respectively; a² and e² denoted percentage of total phenotypic variance accounted for genetic factors, and unique environmental factors; r_TP, total phenotypic correlation; C_GCP, Genetic contribution to total phenotypic correlation; C_UCP, unique environmental contribution to total phenotypic correlation.
Supplemental Figure 2a and 2b - Supplemental figure.2a. Genetic and environmental contributions to leptin-FMI association in 218 male adolescent twin pairs adjusted with age, and tanner stages.
AE model was the best-fitting model for the bivariate analyses of FMI and leptin in males; r_G, and r_E denoted genetic, and unique environmental correlations, respectively; a>² and e² denoted percentage of total phenotypic variance accounted for genetic factors, and unique environmental factors; r_TP, total phenotypic correlation; C_GCP, Genetic contribution to total phenotypic correlation; C_UCP, unique environmental contribution to total phenotypic correlation.
Supplemental figure.2b. Genetic and environmental contributions to leptin-FMI association in 243 female adolescent twin pairs adjusted with age, and tanner stages.
AE model was the best-fitting model for the bivariate analyses of FMI and leptin in females; r_G, and r_E denoted genetic, and unique environmental correlations, respectively; a² and e² denoted percentage of total phenotypic variance accounted for genetic factors, and unique environmental factors; r_TP, total phenotypic correlation; C_GCP, Genetic contribution to total phenotypic correlation; C_UCP, unique environmental contribution to total phenotypic correlation.
Supplemental Figure 3a and 3b - Supplemental figure.3a. Genetic and environmental contributions to leptin-WC association in 218 male adolescent twin pairs adjusted with age, and tanner stages.
AE model was the best-fitting model for the bivariate analyses of WC and leptin in males; r_G, and r_E denoted genetic, and unique environmental correlations, respectively; a² and e^2> denoted percentage of total phenotypic variance accounted for genetic factors, and unique environmental factors; r_TP, total phenotypic correlation; C_GCP, Genetic contribution to total phenotypic correlation; C_UCP, unique environmental contribution to total phenotypic correlation.
Supplemental figure.3b. Genetic and environmental contributions to leptin-WC association in 243 female adolescent twin pairs adjusted with age, and tanner stages.
AE model was the best-fitting model for the bivariate analyses of WC and leptin in females; r_G, and r_E denoted genetic, and unique environmental correlations, respectively; a² and e² denoted percentage of total phenotypic variance accounted for genetic factors, and unique environmental factors; r_TP, total phenotypic correlation; C_GCP, Genetic contribution to total phenotypic correlation; C_UCP, unique environmental contribution to total phenotypic correlation.
Supplemental Figure 4a and 4b - Supplemental figure.4a. Genetic and environmental contributions to leptin-%TF association in 218 male adolescent twin pairs adjusted with age, and tanner stages.
None common environmental correlation model was the best-fitting model for the bivariate analyses of %TF and leptin in males; r_G and r_E denoted genetic, common, and unique environmental correlations, respectively; a², c² and e² denoted percentage of total phenotypic variance accounted for genetic factors, common environmental, and unique environmental factors; r_TP, total phenotypic correlation; C_GCP, Genetic contribution to total phenotypic correlation; C_UCP, unique environmental contribution to total phenotypic correlation.
Supplemental figure.4b. Genetic and environmental contributions to leptin-%TF association in 243 female adolescent twin pairs adjusted with age, and tanner stages. AE model was the best-fitting model for the bivariate analyses of %TFI and leptin in females; r_G and r_E denoted genetic, and unique environmental correlations, respectively; a² and e² denoted percentage of total phenotypic variance accounted for genetic factors, and unique environmental factors; r_TP, total phenotypic correlation; C_GCP, Genetic contribution to total phenotypic correlation; C_UCP, unique environmental contribution to total phenotypic correlation.