Calibration Estimators in Survey Sampling
By J. Deville, C. Särndal. 1992
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
- Jouni Siipilehto
- Yixin Wang
- Matti Maltamo
- Jean D. Opsomer
- F. J. Breidt
- José R. Zubizarreta
- Lauri Mehtätalo
- Eli Ben-Michael
Citations in the corpus
- Nonparametric Model Calibration Estimation in Survey Sampling (2005, methodology): “More general situations are handled by generalized regression estimation (Särndal 1980; Särndal, Swensson, and Wretman 1992) and calibration estimation (Deville and Särndal 1992).”
- Multiply robust imputation procedures for the treatment of item nonresponse in surveys (2017, background): “Furthermore, the function satisfies G(w̃i/wi) 0 and G(1) = 0; see Deville & Särndal (1992).”
- Spatial prediction of forest stand variables (2009, methodology): “Deville and Särndal (1992) present regression estimators with weights for the auxiliary variables being calibrated, so that weights are as close to the design-based weights as possible.”
- Estimation With Survey Data Under Nonignorable Nonresponse or Informative Sampling (2002, methodology): “By using calibration, Deville and Särndal (1992) investigated estimation of nite population totals in the presence of known population totals of covariates.”
- Using Calibration Weighting to Adjust for Nonignorable Unit Nonresponse (2010, unknown): “For example, Deville and Särndal (1992) have shown that if the wk are chosen to minimize ∑ k∈S(wk −dk)2/dk such that Tx = ∑ k∈S wkxk, then wk = dk(1 + xTk g), where g = (∑j∈S djxjxTj )−1(Tx − t̂xπ ).”
- Teacher Attrition and Mobility: Results from the 2012-13 Teacher Follow-Up Survey. First Look. NCES 2014-077. (2014, methodology): “This improves the precision of survey estimates (Deville and Särndal 1992).”
- Calibration estimation using empirical likelihood in survey sampling (2009, methodology): “The classical regression estimator described in Cochran (1977) uses a Euclidian distance function.”
- Globally efficient non-parametric inference of average treatment effects by empirical balancing calibration weighting (2015, methodology): “The general idea of calibration as in Deville and Särndal (1992) is to minimize the aggregate distance between the final weights w = .w1, : : : , wN/ to a given vector of design weights d = .d1, : : : , dN/ subject to moment constraints.”
- Variance estimation for complex indicators of poverty and inequality using linearization techniques (2009, methodology): “When sample weights are adjusted to auxiliary variables which are correlated with the survey target variables, one can expect the accuracy to be better (Deville and Särndal, 1992).”
- Calibration Estimation in Survey Sampling (2010, unknown): “Instead of using (19), Deville and S¨arndal (1992) proposed a variance estimator of the form (20) with If h i ( λ ) satisfies (16), the term (23) is equivalent to (19).”
- Modelling the diameter distribution of Pinus sylvestris, Pinus nigra and Pinus halepensis forest stands in Catalonia using the truncated Weibull function (2006, methodology): “However, since the predicted distribution may sometimes substantially deviate from the true distribution, calibration estimation could be used to improve the fi t (see Deville and Särndal, 1992 ; Kangas and Maltamo, 2003 ).”
- Covariate balancing propensity score by tailored loss functions (2016, background): “They belong to a general distance measure ∑n i=1D(wi, vi) in Deville and Särndal [11], where D(w,v) is a continuously differentiable and strongly convex function in w and achieves its minimum at w = v.”
- Taylor linearization sampling errors and design effects for poverty measures and other complex statistics (2011, background): “The impact of calibration on variance can be highly dependent on the particular situation, and special procedures are required to take this effect into account [10].”