test_that("Proximal Quasi-Newton: gaussian, n>p case", {
library(SLOPE)
set.seed(5)
n = 100
p = 10
d <- solvers::randomProblem(n, p, response="gaussian", density = 0.5)
admm_solvers <- ADMM(d$x, d$y, family="gaussian", alpha=c(1.0,0.005), opt_algo="nr")
pqn_solvers <- PN(d$x, d$y, family="gaussian", alpha=c(1.0,0.005), hessian_calc="lbfgs")
expect_equivalent(coef(admm_solvers), coef(pqn_solvers), tol = 1e-2)
})
test_that("Proximal Quasi-Newton: gaussian, n<p case", {
library(SLOPE)
set.seed(34)
n = 10
p = 20
d <- solvers::randomProblem(n, p, response="gaussian", density = 0.5)
admm_solvers <- ADMM(d$x, d$y, family="gaussian",alpha=c(1.0,0.005),opt_algo="nr")
pqn_solvers <- PN(d$x, d$y, family="gaussian",alpha=c(1.0,0.005), hessian_calc="lbfgs")
expect_equivalent(coef(admm_solvers), coef(pqn_solvers), tol = 1e-2)
})
test_that("Proximal Quasi-Newton: binomial, n>p case", {
library(SLOPE)
set.seed(15)
n = 100
p = 10
d <- solvers::randomProblem(n, p, response="binomial", density = 0.5)
admm_solvers <- ADMM(d$x, d$y, family="binomial",alpha=c(1.0,0.005),opt_algo="nr")
pqn_solvers <- PN(d$x, d$y, family="binomial",alpha=c(1.0,0.005), hessian_calc="lbfgs")
expect_equivalent(coef(admm_solvers), coef(pqn_solvers), tol = 1e-2)
})
test_that("Proximal Quasi-Newton: binomial, n<p case", {
library(SLOPE)
set.seed(454)
n = 10
p = 20
d <- solvers::randomProblem(n, p, response="binomial", density = 0.5)
admm_solvers <- ADMM(d$x, d$y, family="binomial",alpha=c(1.0,0.005),opt_algo="nr", tol_abs=0,tol_rel=0,max_passes=10000)
pqn_solvers <- PN(d$x, d$y, family="binomial",alpha=c(1.0,0.005), hessian_calc="lbfgs")
expect_equivalent(coef(admm_solvers), coef(pqn_solvers), tol = 1e-2)
})
test_that("Proximal Quasi-Newton: poisson, n>p case", {
library(SLOPE)
set.seed(17)
n = 100
p = 10
d <- solvers::randomProblem(n, p, response="poisson", density = 0.5)
admm_solvers <- ADMM(d$x, d$y, family="poisson",alpha=c(1.0,0.005),opt_algo="nr")
pqn_solvers <- PN(d$x, d$y, family="poisson",alpha=c(1.0,0.005), hessian_calc="lbfgs")
expect_equivalent(coef(admm_solvers), coef(pqn_solvers), tol = 1e-2)
})
test_that("Proximal Quasi-Newton: poisson, n<p case", {
library(SLOPE)
set.seed(1)
n = 10
p = 20
d <- solvers::randomProblem(n, p, response="poisson", density = 0.5)
admm_solvers <- ADMM(d$x, d$y, family="poisson",alpha=c(1.0,0.005),opt_algo="nr")
pqn_solvers <- PN(d$x, d$y, family="poisson",alpha=c(1.0,0.005), hessian_calc="lbfgs")
expect_equivalent(coef(admm_solvers), coef(pqn_solvers), tol = 1e-2)
})
test_that("Proximal Quasi-Newton: multinomial, n>p case", {
library(SLOPE)
set.seed(57)
n = 100
p = 10
d <- solvers::randomProblem(n, p, response="multinomial", density = 0.5)
admm_solvers <- ADMM(d$x, d$y, family="multinomial",alpha=c(1.0,0.005),opt_algo="nr")
pn_solvers <- PN(d$x, d$y, family="multinomial",alpha=c(1.0,0.005), hessian_calc="lbfgs")
expect_equivalent(coef(admm_solvers), coef(pn_solvers), tol = 1e-2)
})
test_that("Proximal Quasi-Newton: multinomial, n<p case", {
library(SLOPE)
set.seed(85)
n = 10
p = 20
d <- solvers::randomProblem(n, p, response="multinomial", density = 0.5)
admm_solvers <- ADMM(d$x, d$y, family="multinomial",alpha=c(1.0,0.005),opt_algo="nr")
pn_solvers <- PN(d$x, d$y, family="multinomial",alpha=c(1.0,0.005), hessian_calc="lbfgs")
expect_equivalent(coef(admm_solvers), coef(pn_solvers), tol = 1e-2)
})
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