checkRd: (-1) NEWS.Rd:114: Lost braces; missing escapes or markup?
   114 | { * } When fitted by "inner" estimation methods [in particular, by HLfit() or HLCor() rather than fitme()], the fit could stop in cases where the observed information matrix differs from the expected one (e.g, for the Gamma(log) response family). \cr
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checkRd: (-1) NEWS.Rd:115: Lost braces; missing escapes or markup?
   115 | { * } Using fitme() to fit such models worked for all response families, but a profile confint() procedure for fixed-effect coefficients on the resulting fit object could then stop.\cr \cr
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checkRd: (-1) NEWS.Rd:145: Lost braces; missing escapes or markup?
   145 | \item predict(., {large newdata,> 2000 rows}, binding= < some name >, ...) retained only the first 2000 element of any attribute for variances or intervals. 
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checkRd: (-1) IMRF.Rd:29: Lost braces; missing escapes or markup?
    29 | { * } for grids given by \code{model=<inla.spde2 object>}, the non-zero weights are the barycentric coordinates of the focal point in the enclosing triangle from the mesh triangulation (points from outside the mesh would have zero weights, so the predicted effect \bold{Ab=0});\cr { * }for regular grids (NULL \code{model}), the weights are computed as <Wendland function>(<scaled Euclidean distances between focal point and vertices>). 
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checkRd: (-1) IMRF.Rd:29: Lost braces; missing escapes or markup?
    29 | { * } for grids given by \code{model=<inla.spde2 object>}, the non-zero weights are the barycentric coordinates of the focal point in the enclosing triangle from the mesh triangulation (points from outside the mesh would have zero weights, so the predicted effect \bold{Ab=0});\cr { * }for regular grids (NULL \code{model}), the weights are computed as <Wendland function>(<scaled Euclidean distances between focal point and vertices>). 
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checkRd: (-1) Leuca.Rd:32: Lost braces
    32 | \seealso{\code{\link{MaternCorr}} and code{\link{composite-ranef}} for examples using these data.}
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checkRd: (-1) autoregressive.Rd:24: Lost braces
    24 | In \bold{CAR} models, the covariance matrix of random effects \bold{u} can be described as \eqn{\lambda}(\bold{I}\eqn{-\rho} \bold{W}\eqn{)^{-1}} where \bold{W} is the (symmetric) adjacency matrix. \code{HLCor} uses the spectral decomposition of the adjacency matrix, written as bold{W=VDV'} where \bold{D} is a diagonal matrix of eigenvalues \eqn{d_i}. The covariance of \bold{V'u} is 
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checkRd: (-1) corrMatrix.Rd:7: Lost braces; missing escapes or markup?
     7 | \code{corrMatrix} is an argument of \code{HLCor}, of class \code{dist} or \code{matrix}, with can be used if the model formula contains a term of the form \code{corrMatrix(1|<...>)}. It describes a correlation matrix, possibly as a \code{dist} object. A covariance matrix can actually be passed through this argument, but then it must be a full matrix, not a \code{dist} object. The way the rows and columns of the matrix are matched to the rows of the \code{data} depends on the nature of the grouping term {<...>}.
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checkRd: (-1) predict.Rd:18: Lost braces; missing escapes or markup?
    18 | { * }\code{predict} can be used for prediction of the response variable by its expected value obtained as (the inverse link transformation of) the linear predictor (\eqn{\eta}) and more generally for terms of the form \bold{X}_n\eqn{\beta}+\bold{Z}_n\bold{L}\bold{v}, for new design matrices \bold{X}_n and \bold{Z}_n.\cr 
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checkRd: (-1) predict.Rd:19: Lost braces; missing escapes or markup?
    19 | { * }Various components of prediction variances and predictions intervals can also be computed using \code{predict}. 
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checkRd: (-1) predict.Rd:21: Lost braces; missing escapes or markup?
    21 | { * }\code{get_predCov_var_fix} extracts a block of a prediction covariance matrix. It was conceived for the specific purpose of computing the spatial prediction covariances between two \dQuote{new} sets of geographic locations, without computing the full covariance matrix for both the new locations and the original (fitted) locations. When one of the two sets of new locations is fixed while the other varies, some expensive computations can be performed once for all sets of new locations, and be provided as the \code{fix_X_ZAC.object} argument. The \code{preprocess_fix_corr} extractor is designed to compute this argument. 
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checkRd: (-1) resid.model.Rd:14: Lost braces
    14 | dispersion parameter{ }=\code{ exp(}\bold{X}\eqn{\beta}\code{+offset}),\cr 
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checkRd: (-1) spaMM-conventions.Rd:11: Lost braces
    11 | The \\bold{default likelihood target} for dispersion parameters is restricted likelihood (REML estimation) for \code{corrHLfit} and (marginal) likelihood (ML estimation) for \code{fitme}. 
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checkRd: (-1) spaMM.Rd:62: Lost braces; missing escapes or markup?
    62 | If one wishes to fit uncorrelated group-specific random-effects with distinct variances for different groups or for different response variables, three syntaxes are thus possible. The most general, suitable for fitting several variances (see {help("GxE")} for an example), is to fit a (0 + <factor>| <RHS>) random-coefficient term with correlation(s) fixed to 0. Alternatively, one can define \bold{numeric} (0|1) variables for each group (as \code{as.numeric(<boolean for given group membership>)}), and use each of them in a \verb{0 + <numeric>} LHS (so that the variance of each such random effect is zero for response not belonging to the given group). See \code{\link{lev2bool}} for various ways of specifying such indicator variables for several levels.
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checkRd: (-1) update.Rd:21: Lost braces; missing escapes or markup?
    21 | However, in some cases, dynamic evaluation of the response variable may be helpful. For example, for bootstrapping hurdle models, the zero-truncated response may be specified as I({count[presence>0] <- NA; count}) (where both the zero-truncated \code{count} and binary \code{presence} variables are both updated by the bootstrap simulation). In that case the names of the two variables to be updated is provided by setting (say)\cr
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