## Not run:
# # This example was used to numerically back into the TL-moments and the
# # relation between \alpha and \lambda_2.
# "lmomtrim1" <- function(para) {
# bigF <- 0.999
# minX <- para$para[1] - para$para[2]*qnorm(1 - bigF) / qunif(1 - bigF)
# maxX <- para$para[1] + para$para[2]*qnorm( bigF) / qunif(1 - bigF)
# minF <- cdfsla(minX, para); maxF <- cdfsla(maxX, para)
# lmr <- theoTLmoms(para, nmom = 6, leftrim = 1, rightrim = 1)
# }
#
# U <- -10; i <- 0
# As <- seq(.1,abs(10),by=.2)
# L1s <- L2s <- T3s <- T4s <- T5s <- T6s <- vector(mode="numeric", length=length(As))
# for(A in As) {
# i <- i + 1
# lmr <- lmomtrim1(vec2par(c(U, A), type="sla"))
# L1s[i] <- lmr$lambdas[1]; L2s[i] <- lmr$lambdas[2]
# T3s[i] <- lmr$ratios[3]; T4s[i] <- lmr$ratios[4]
# T5s[i] <- lmr$ratios[5]; T6s[i] <- lmr$ratios[6]
# }
# print(summary(lm(L2s~As-1))$coe)
# print(mean(T4s))
# print(mean(T6s))
# ## End(Not run)
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