# rm(list=ls()) # library(testthat) # test_file("tests/testthat/test-calc_rate.R") # covr::file_coverage("R/calc_rate.R", "tests/testthat/test-calc_rate.R") # cvr <- covr::package_coverage() # covr::report(cvr) # covr::report(covr::package_coverage()) capture.output({ ## stops printing outputs on assigning # this avoids hundreds of "multi column detected" warnings sard_data <- sardine.rd[,1:2] test_that("calc_rate - outputs object of class calc_rate", { cr <- calc_rate(sard_data, plot = F) expect_is(cr, "calc_rate") }) test_that("calc_rate - subsetting methods work and produce correct outputs", { cr <- calc_rate(sard_data, from = 2000, to = 4000, by = "time", plot = F) expect_is(cr, "calc_rate") expect_equal(as.numeric(cr$subsets[[1]][1,1]), 2000) expect_equal(as.numeric(cr$subsets[[1]][nrow(cr$subsets[[1]]),1]), 4000) cr <- calc_rate(sard_data, 2000, 4000, by = "row", plot = F) expect_is(cr, "calc_rate") expect_equal(nrow(cr$subsets[[1]]), 2001) cr <- calc_rate(sard_data, 94, 93, by = "oxygen", plot = F) expect_is(cr, "calc_rate") expect_equal(as.numeric(cr$subsets[[1]][1,2]), 94) expect_equal(as.numeric(cr$subsets[[1]][nrow(cr$subsets[[1]]),2]), 93) }) test_that("calc_rate - S3 generics work", { cr <- calc_rate(sard_data, from = 2000, to = 4000, plot = F) expect_output(print(cr)) expect_output(summary(cr)) expect_output(plot(cr)) expect_output(suppressWarnings(mean(cr))) # multiple rates and 'pos' cr <- calc_rate(sard_data, from = 2000:2020, to = 4000:4020, plot = F) expect_output(print(cr, pos = 2)) expect_error(print(cr, pos = 2:3), "print.calc_rate: 'pos' must be a single value. To examine multiple results use summary().") expect_error(print(cr, pos = 30), "print.calc_rate: Invalid 'pos' rank: only 21 rates found.") expect_output(summary(cr, pos = 2:3)) expect_error(summary(cr, pos = 40), "summary.calc_rate: Invalid 'pos' rank: only 21 rates found.") expect_is(summary(cr, pos = 2:3, export = TRUE), "data.frame") expect_output(mean(cr, pos = 2:3)) expect_error(mean(cr, pos = 40), "mean.calc_rate: Invalid 'pos' rank: only 21 rates found.") expect_is(mean(cr, pos = 2:3, export = TRUE), "numeric") expect_equal(mean(cr, pos = 2:3, export = TRUE), mean(cr$rate[2:3])) # pos default applied expect_output(plot(cr, pos = NULL)) expect_output(plot(cr, pos = 1)) expect_output(plot(cr, pos = 3)) expect_error(plot(cr, pos = 50), "calc_rate: Invalid 'pos' rank: only 21 rates found.") expect_error(plot(cr, pos = 1:2), "calc_rate: 'pos' should be a single value.") # panel expect_output(plot(cr, panel = 1)) expect_error(plot(cr, panel = 5), "plot.calc_rate: 'panel' input should be 1 to 4 or 'NULL' for all.") }) test_that("calc_rate - calling linear_fit (calc_rate) produces coefficients", { expect_equal(c("intercept_b0", "slope_b1", "rsq"), names(linear_fit(sard_data))) }) test_that("calc_rate works with variations of `by` input", { expect_error(calc_rate(sard_data, plot = F, by = "Time"), regexp = NA) expect_error(calc_rate(sard_data, plot = F, by = "T"), regexp = NA) expect_error(calc_rate(sard_data, plot = F, by = "Oxygen"), regexp = NA) expect_error(calc_rate(sard_data, plot = F, by = "oxygen"), regexp = NA) expect_error(calc_rate(sard_data, plot = F, by = "Row"), regexp = NA) expect_error(calc_rate(sard_data, plot = F, by = "r"), regexp = NA) }) test_that("calc_rate - stops with wrong 'by' inputs", { expect_error(calc_rate(sard_data, plot = F, by = "tttimmmeee"), "'by' input not valid or not recognised") }) test_that("calc_rate - correctly extracts dataframe from 'inspect' objects", { insp <- inspect(sard_data[1000:2000,], plot = F) cr <- calc_rate(insp, plot = F) expect_identical(cr$dataframe, insp$dataframe) }) test_that("calc_rate - stops with non data.frame 'x' input", { expect_error(calc_rate(as.matrix(sard_data), plot = F), "calc_rate: Input must be a 'data.frame' or 'inspect' object.") }) test_that("calc_rate - stops when 'x' input has only 1 row of data", { expect_error(calc_rate(sardine.rd[1,], plot = F), "calc_rate: Input data contains only 1 row. Please check inputs.") }) test_that("calc_rate - message with multi column input", { expect_message(calc_rate(urchins.rd, plot = F), "calc_rate: Multi-column dataset detected in input.") }) test_that("calc_rate - calcs rate over all available data if to and from are NULL", { cr <- calc_rate(sard_data[1000:2000,], from = NULL, to = NULL, plot = F) expect_identical(cr$dataframe, cr$subsets[[1]]) expect_identical(nrow(cr$dataframe), cr$summary$endrow) }) test_that("calc_rate - correctly handles 'from' NULL", { urch <- urchins.rd[20:200,1:2] expect_error(calc_rate(urch, from = NULL, to = 20, by = "time", plot = FALSE), regexp = NA) expect_equal(calc_rate(urch, from = NULL, to = 20, by = "time", plot = FALSE)$summary$time, urch[[1]][1]) expect_error(calc_rate(urch, from = NULL, to = 20, by = "row", plot = FALSE), regexp = NA) expect_equal(calc_rate(urch, from = NULL, to = 20, by = "row", plot = FALSE)$summary$row, 1) expect_error(calc_rate(urch, from = NULL, to = 7, by = "oxygen", plot = FALSE), regexp = NA) expect_equal(calc_rate(urch, from = NULL, to = 7, by = "oxygen", plot = FALSE)$summary$oxy, urch[[2]][1]) }) test_that("calc_rate - correctly handles 'to' NULL", { urch <- urchins.rd[20:200,1:2] expect_error(calc_rate(urch, from = 5, to = NULL, by = "time", plot = FALSE), regexp = NA) expect_equal(calc_rate(urch, from = 5, to = NULL, by = "time", plot = FALSE)$summary$endtime, urch[[1]][181]) expect_error(calc_rate(urch, from = 5, to = NULL, by = "row", plot = FALSE), regexp = NA) expect_equal(calc_rate(urch, from = 5, to = NULL, by = "row", plot = FALSE)$summary$endrow, 181) expect_error(calc_rate(urch, from = 7.5, to = NULL, by = "oxygen", plot = FALSE), regexp = NA) expect_equal(calc_rate(urch, from = 7.5, to = NULL, by = "oxygen", plot = FALSE)$summary$endoxy, urch[[2]][181]) }) test_that("calc_rate - correctly handles 'from' and 'to' NULL", { urch <- urchins.rd[20:200,1:2] # all NULL - deafults - applies by= "time" expect_error(calc_rate(urch), regexp = NA) expect_equal(calc_rate(urch)$summary$time, urch[[1]][1]) expect_equal(calc_rate(urch)$summary$endtime, urch[[1]][nrow(urch)]) expect_equal(calc_rate(urch)$summary$oxy, urch[[2]][1]) expect_equal(calc_rate(urch)$summary$endoxy, urch[[2]][nrow(urch)]) # by "row" expect_error(calc_rate(urch, by = "row"), regexp = NA) expect_equal(calc_rate(urch, by = "row")$summary$row, 1) expect_equal(calc_rate(urch, by = "row")$summary$endrow, 181) expect_equal(calc_rate(urch, by = "row")$summary$oxy, urch[[2]][1]) expect_equal(calc_rate(urch, by = "row")$summary$endoxy, urch[[2]][nrow(urch)]) # by "oxygen" expect_error(calc_rate(urch, by = "oxygen"), regexp = NA) expect_equal(calc_rate(urch, by = "oxygen")$summary$row, 1) expect_equal(calc_rate(urch, by = "oxygen")$summary$endrow, 181) expect_equal(calc_rate(urch, by = "oxygen")$summary$oxy, urch[[2]][1]) expect_equal(calc_rate(urch, by = "oxygen")$summary$endoxy, urch[[2]][nrow(urch)]) }) test_that("calc_rate - stops if 'from' and 'to' are unequal length", { expect_error(calc_rate(sard_data[1000:2000,], from = c(5,10,15), to = c(100,105), plot = F, by = "time"), "calc_rate: 'from' and 'to' have unequal lengths.") expect_error(calc_rate(sard_data[1000:2000,], from = 5, to = c(100,105), plot = F, by = "oxy"), "calc_rate: 'from' and 'to' have unequal lengths.") expect_error(calc_rate(sard_data[1000:2000,], from = c(5,10,15), to = c(100,105), plot = F, by = "row"), "calc_rate: 'from' and 'to' have unequal lengths.") }) test_that("calc_rate - stops if any paired 'from' and 'to' are of equal value", { expect_error(calc_rate(sard_data[1000:2000,], from = 5, to = 5, plot = F, by = "time"), "some 'from' values are equal to the paired values in 'to'.") expect_error(calc_rate(sard_data[1000:2000,], from = c(5,6,7), to = c(4,6,8), plot = F, by = "oxy"), "some 'from' values are equal to the paired values in 'to'.") expect_error(calc_rate(sard_data[1000:2000,], from = c(5,6,7), to = c(4,6,8), plot = F, by = "row"), "some 'from' values are equal to the paired values in 'to'.") expect_error(calc_rate(sard_data[1000:2000,], from = c(4,4,6), to = c(6,6,6), plot = F, by = "oxy"), "some 'from' values are equal to the paired values in 'to'.") }) # by = "time" checks ------------------------------------------------------ test_that("calc_rate - by = 'time' stops with time values out of order", { by <- "time" expect_error(calc_rate(sard_data[1000:2000,], from = 1600, to = 1500, plot = F, by = by), "calc_rate: some 'from' time values are later than the paired values in 'to'.") expect_error(calc_rate(sard_data[1000:2000,], from = c(1200, 1600), to = c(1300, 1500), plot = F, by = by), "calc_rate: some 'from' time values are later than the paired values in 'to'.") expect_error(calc_rate(sard_data[1000:2000,], from = c(1200, 1600, 1800), to = c(1300, 1500, 1900), plot = F, by = by), "calc_rate: some 'from' time values are later than the paired values in 'to'.") }) test_that("calc_rate - by = 'time' stops with time values out of range of available data", { by <- "time" expect_error(calc_rate(sard_data[1000:2000,], from = 2000, to = 2500, plot = F, by = by), "calc_rate: some 'from' time values are higher than the values present in 'x'") expect_error(calc_rate(sard_data[1000:2000,], from = c(1500, 1600, 2100), to = c(1800, 1900, 2200), plot = F, by = by), "calc_rate: some 'from' time values are higher than the values present in 'x'.") expect_error(calc_rate(sard_data[1000:2000,], from = 400, to = 800, plot = F, by = by), "calc_rate: some 'to' time values are lower than the values present in 'x'") expect_error(calc_rate(sard_data[1000:2000,], from = c(1500, 1600, 400), to = c(1800, 1900, 600), plot = F, by = by), "calc_rate: some 'to' time values are lower than the values present in 'x'") }) test_that("calc_rate - by = 'time' warns with time values out of range, but uses closest available value", { by <- "time" expect_message(calc_rate(sard_data[1000:2000,], from = 900, to = 1500, plot = F, by = by), "calc_rate: some 'from' time values are lower than the values present in 'x'. The lowest time value will be used instead.") expect_equal(suppressWarnings(calc_rate(sard_data[1000:2000,], from = 900, to = 1500, plot = F, by = by)$summary$time[1]), 999) expect_message(calc_rate(sard_data[1000:2000,], from = c(800, 900, 1000), to = c(1500, 1600, 1700), plot = F, by = by), "calc_rate: some 'from' time values are lower than the values present in 'x'. The lowest time value will be used instead.") expect_equal(suppressWarnings(calc_rate(sard_data[1000:2000,], from = c(800, 900, 1000), to = c(1500, 1600, 1700), plot = F, by = by)$summary$time[1:3]), c(999,999,1000)) expect_message(calc_rate(sard_data[1000:2000,], from = 1500, to = 2200, plot = F, by = by), "calc_rate: some 'to' time values are higher than the values present in 'x'. The highest time value will be used instead.") expect_equal(suppressWarnings(calc_rate(sard_data[1000:2000,], from = 1500, to = 2200, plot = F, by = by)$summary$endtime[1]), 1999) expect_message(calc_rate(sard_data[1000:2000,], from = c(1500, 1600, 1700), to = c(1900, 2200, 2500), plot = F, by = by), "calc_rate: some 'to' time values are higher than the values present in 'x'. The highest time value will be used instead.") expect_equal(suppressWarnings(calc_rate(sard_data[1000:2000,], from = c(1500, 1600, 1700), to = c(1900, 2200, 2500), plot = F, by = by)$summary$endtime[1:3]), c(1900,1999,1999)) }) test_that("calc_rate - by = 'time' outputs correct results", { by <- "time" from <- 1000 to <- 1999 expect_equal(calc_rate(sard_data, from = from, to = to, plot = F, by = by)$rate, as.numeric(lm(sard_data$Oxygen[(from+1):(to+1)]~sard_data$Time[(from+1):(to+1)])$coefficients[2])) ## try a bunch of values from <- round(seq(1000, 5000, length.out = 20)) to <- round(seq(2000, 7000, length.out = 20)) mapply(function(p,q) expect_equal(calc_rate(sard_data, from = p, to = q, plot = F, by = by)$rate, as.numeric(lm(sard_data$Oxygen[(p+1):(q+1)]~sard_data$Time[(p+1):(q+1)])$coefficients[2])), p = from, q = to) ## as a multiple from/to input rates <- mapply(function(p,q) as.numeric(lm(sard_data$Oxygen[(p+1):(q+1)]~sard_data$Time[(p+1):(q+1)])$coefficients[2]), p = from, q = to) expect_equal(calc_rate(sard_data, from = from, to = to, plot = F, by = by)$rate, rates) }) test_that("calc_rate - by = 'time' outputs correct results with oxygen production data", { by <- "time" sardine_rev <- sard_data sardine_rev[[2]] <- rev(sardine_rev[[2]]) from <- 1000 to <- 1999 expect_equal(calc_rate(sardine_rev, from = from, to = to, plot = F, by = by)$rate, as.numeric(lm(sardine_rev$Oxygen[(from+1):(to+1)]~sardine_rev$Time[(from+1):(to+1)])$coefficients[2])) ## try a bunch of values from <- round(seq(1000, 5000, length.out = 20)) to <- round(seq(2000, 7000, length.out = 20)) mapply(function(p,q) expect_equal(calc_rate(sardine_rev, from = p, to = q, plot = F, by = by)$rate, as.numeric(lm(sardine_rev$Oxygen[(p+1):(q+1)]~sardine_rev$Time[(p+1):(q+1)])$coefficients[2])), p = from, q = to) ## as a multiple from/to input rates <- mapply(function(p,q) as.numeric(lm(sardine_rev$Oxygen[(p+1):(q+1)]~sardine_rev$Time[(p+1):(q+1)])$coefficients[2]), p = from, q = to) expect_equal(calc_rate(sardine_rev, from = from, to = to, plot = F, by = by)$rate, rates) ## same region from reversed data outputs same rate from <- 1000 to <- 1999 from_rev <- nrow(sard_data)-to-1 to_rev <- nrow(sard_data)-from-1 expect_equal(calc_rate(sard_data, from = from, to = to, plot = F, by = by)$rate, calc_rate(sardine_rev, from = from_rev, to = to_rev, plot = F, by = by)$rate * -1) ## try a bunch of values from <- round(seq(1000, 5000, length.out = 20)) to <- round(seq(2000, 7000, length.out = 20)) from_rev <- nrow(sard_data)-to-1 to_rev <- nrow(sard_data)-from-1 mapply(function(p,q,r,s) expect_equal(calc_rate(sard_data, from = p, to = q, plot = F, by = by)$rate, calc_rate(sardine_rev, from = r, to = s, plot = F, by = by)$rate * -1), p = from, q = to, r = from_rev, s = to_rev) }) # by = "row" checks ------------------------------------------------------- test_that("calc_rate - by = 'row' errors with row values out of order", { by <- "row" expect_error(calc_rate(sard_data, from = 600, to = 500, plot = F, by = by), "calc_rate: some 'from' row numbers are higher than the paired values in 'to'.") expect_error(calc_rate(sard_data, from = c(1200, 1600), to = c(1300, 1500), plot = F, by = by), "calc_rate: some 'from' row numbers are higher than the paired values in 'to'.") expect_error(calc_rate(sard_data, from = c(1200, 1600, 1800), to = c(1300, 1500, 1900), plot = F, by = by), "calc_rate: some 'from' row numbers are higher than the paired values in 'to'.") }) test_that("calc_rate - by = 'row' stops with 'from' row numbers out of range of available data", { by <- "row" expect_error(calc_rate(sard_data[1000:2000,], from = 2000, to = 2500, plot = F, by = by), "calc_rate: some 'from' row numbers are beyond the number of rows present in 'x'.") expect_error(calc_rate(sard_data[1000:2000,], from = c(100, 200, 1100), to = c(300, 400, 1400), plot = F, by = by), "calc_rate: some 'from' row numbers are beyond the number of rows present in 'x'.") }) test_that("calc_rate - by = 'row' warns with 'to' row values out of range, but uses last row value", { by <- "row" expect_message(calc_rate(sard_data[1000:2000,], from = 900, to = 1500, plot = F, by = by), "calc_rate: some 'to' row numbers are higher than the number of rows present in 'x'. The final row number will be used instead.") expect_equal(suppressWarnings(calc_rate(sard_data[1000:2000,], from = 900, to = 1500, plot = F, by = by)$summary$endrow[1]), 1001) expect_message(calc_rate(sard_data[1000:2000,], from = c(500, 600, 700), to = c(900, 1000, 1100), plot = F, by = by), "calc_rate: some 'to' row numbers are higher than the number of rows present in 'x'. The final row number will be used instead.") expect_equal(suppressWarnings(calc_rate(sard_data[1000:2000,], from = c(500, 600, 700), to = c(900, 1000, 1100), plot = F, by = by)$summary$endrow[1:3]), c(900,1000,1001)) }) test_that("calc_rate - by = 'row' outputs correct results", { by <- "row" from <- 1000 to <- 1999 expect_equal(calc_rate(sard_data, from = from, to = to, plot = F, by = by)$rate, as.numeric(lm(sard_data$Oxygen[(from):(to)]~sard_data$Time[(from):(to)])$coefficients[2])) ## try a bunch of values from <- round(seq(1000, 5000, length.out = 20)) to <- round(seq(2000, 7000, length.out = 20)) mapply(function(p,q) expect_equal(calc_rate(sard_data, from = p, to = q, plot = F, by = by)$rate, as.numeric(lm(sard_data$Oxygen[(p):(q)]~sard_data$Time[(p):(q)])$coefficients[2])), p = from, q = to) ## as a multiple from/to input rates <- mapply(function(p,q) as.numeric(lm(sard_data$Oxygen[(p):(q)]~sard_data$Time[(p):(q)])$coefficients[2]), p = from, q = to) expect_equal(calc_rate(sard_data, from = from, to = to, plot = F, by = by)$rate, rates) }) test_that("calc_rate - by = 'row' outputs correct results with oxygen production data", { by <- "row" sardine_rev <- sard_data sardine_rev[[2]] <- rev(sardine_rev[[2]]) from <- 1000 to <- 1999 expect_equal(calc_rate(sardine_rev, from = from, to = to, plot = F, by = by)$rate, as.numeric(lm(sardine_rev$Oxygen[(from):(to)]~sardine_rev$Time[(from):(to)])$coefficients[2])) ## try a bunch of values from <- round(seq(1000, 5000, length.out = 20)) to <- round(seq(2000, 7000, length.out = 20)) mapply(function(p,q) expect_equal(calc_rate(sardine_rev, from = p, to = q, plot = F, by = by)$rate, as.numeric(lm(sardine_rev$Oxygen[(p):(q)]~sardine_rev$Time[(p):(q)])$coefficients[2])), p = from, q = to) ## as a multiple from/to input rates <- mapply(function(p,q) as.numeric(lm(sardine_rev$Oxygen[(p):(q)]~sardine_rev$Time[(p):(q)])$coefficients[2]), p = from, q = to) expect_equal(calc_rate(sardine_rev, from = from, to = to, plot = F, by = by)$rate, rates) ## same region from reversed data outputs same rate from <- 1000 to <- 1999 from_rev <- nrow(sard_data)-to+1 to_rev <- nrow(sard_data)-from+1 expect_equal(calc_rate(sard_data, from = from, to = to, plot = F, by = by)$rate, calc_rate(sardine_rev, from = from_rev, to = to_rev, plot = F, by = by)$rate * -1) ## try a bunch of values from <- round(seq(1000, 5000, length.out = 20)) to <- round(seq(2000, 7000, length.out = 20)) from_rev <- nrow(sard_data)-to+1 to_rev <- nrow(sard_data)-from+1 mapply(function(p,q,r,s) expect_equal(calc_rate(sard_data, from = p, to = q, plot = F, by = by)$rate, calc_rate(sardine_rev, from = r, to = s, plot = F, by = by)$rate * -1), p = from, q = to, r = from_rev, s = to_rev) }) # by = "oxygen" checks -------------------------------------------------------- test_that("calc_rate - by = 'oxygen' stops with paired values of from and to *both* below or *both* above oxygen data range", { by <- "oxygen" expect_error(calc_rate(sard_data[1000:2000,], from = 90, to = 85, plot = F, by = by), "calc_rate: some paired 'from' and 'to' values are both below the range of oxygen data in 'x'.") expect_error(calc_rate(sard_data[1000:2000,], from = c(90,93.9), to = c(85,94.4), plot = F, by = by), "calc_rate: some paired 'from' and 'to' values are both below the range of oxygen data in 'x'.") expect_error(calc_rate(sard_data[1000:2000,], from = 100, to = 98, plot = F, by = by), "calc_rate: some paired 'from' and 'to' values are both above the range of oxygen data in 'x'.") expect_error(calc_rate(sard_data[1000:2000,], from = c(100,93.9), to = c(98,94.4), plot = F, by = by), "calc_rate: some paired 'from' and 'to' values are both above the range of oxygen data in 'x'.") }) test_that("calc_rate - by = 'oxygen' warns with oxygen values out of range, but uses closest available value", { by <- "oxygen" # range is 89.7 to 95.7 # single values, one above expect_message(calc_rate(sard_data, from = 100, to = 93, plot = F, by = by), "calc_rate: some 'from' oxygen values are higher than the values in 'x'. The highest available value will be used instead.") expect_equal(suppressWarnings(calc_rate(sard_data, from = 100, to = 93, plot = F, by = by)$summary$time[1]), 0) expect_equal(suppressWarnings(calc_rate(sard_data, from = 100, to = 93, plot = F, by = by)$summary$row[1]), 1) expect_message(calc_rate(algae.rd, from = 92, to = 97, plot = F, by = by), "calc_rate: some 'from' oxygen values are lower than the values in 'x'. The lowest available value will be used instead.") expect_equal(suppressWarnings(calc_rate(algae.rd, from = 92, to = 97, plot = F, by = by)$summary$time[1]), 0.02) expect_equal(suppressWarnings(calc_rate(algae.rd, from = 92, to = 97, plot = F, by = by)$summary$row[1]), 1) # single values, one below expect_message(calc_rate(sard_data, from = 95, to = 80, plot = F, by = by), "calc_rate: some 'to' oxygen values are lower than the values in 'x'. The lowest available value will be used instead.") expect_equal(suppressWarnings(calc_rate(sard_data, from = 95, to = 80, plot = F, by = by)$summary$endtime[1]), sard_data$Time[nrow(sard_data)]) expect_equal(suppressWarnings(calc_rate(sard_data, from = 95, to = 80, plot = F, by = by)$summary$endrow[1]), nrow(sard_data)) # single values, one above, one below expect_message(calc_rate(sard_data, from = 100, to = 80, plot = F, by = by), "calc_rate: some 'to' oxygen values are lower than the values in 'x'. The lowest available value will be used instead.") expect_message(calc_rate(sard_data, from = 100, to = 80, plot = F, by = by), "calc_rate: some 'from' oxygen values are higher than the values in 'x'. The highest available value will be used instead.") expect_equal(suppressWarnings(calc_rate(sard_data, from = 100, to = 80, plot = F, by = by)$summary$time[1]), 0) expect_equal(suppressWarnings(calc_rate(sard_data, from = 100, to = 80, plot = F, by = by)$summary$row[1]), 1) expect_equal(suppressWarnings(calc_rate(sard_data, from = 100, to = 80, plot = F, by = by)$summary$endtime[1]), sard_data$Time[nrow(sard_data)]) expect_equal(suppressWarnings(calc_rate(sard_data, from = 100, to = 80, plot = F, by = by)$summary$endrow[1]), nrow(sard_data)) # multiple values, one above expect_message(calc_rate(sard_data, from = c(100,95), to = c(93,92), plot = F, by = by), "calc_rate: some 'from' oxygen values are higher than the values in 'x'. The highest available value will be used instead.") expect_equal(suppressWarnings(calc_rate(sard_data, from = c(100,95), to = c(93,92), plot = F, by = by)$summary$time[1]), 0) expect_equal(suppressWarnings(calc_rate(sard_data, from = c(100,95), to = c(93,92), plot = F, by = by)$summary$row[1]), 1) # multiple values, one below expect_message(calc_rate(sard_data, from = c(95,94), to = c(80,92), plot = F, by = by), "calc_rate: some 'to' oxygen values are lower than the values in 'x'. The lowest available value will be used instead.") expect_equal(suppressWarnings(calc_rate(sard_data, from = c(95,94), to = c(80,92), plot = F, by = by)$summary$endtime[1]), sard_data$Time[nrow(sard_data)]) expect_equal(suppressWarnings(calc_rate(sard_data, from = c(95,94), to = c(80,92), plot = F, by = by)$summary$endrow[1]), nrow(sard_data)) # multiple values, one above, one below expect_message(calc_rate(sard_data, from = c(100,94), to = c(80,92), plot = F, by = by), "calc_rate: some 'to' oxygen values are lower than the values in 'x'. The lowest available value will be used instead.") expect_message(calc_rate(sard_data, from = c(100,94), to = c(80,92), plot = F, by = by), "calc_rate: some 'from' oxygen values are higher than the values in 'x'. The highest available value will be used instead.") expect_equal(suppressWarnings(calc_rate(sard_data, from = c(100,94), to = c(80,92), plot = F, by = by)$summary$time[1]), 0) expect_equal(suppressWarnings(calc_rate(sard_data, from = c(100,94), to = c(80,92), plot = F, by = by)$summary$row[1]), 1) expect_equal(suppressWarnings(calc_rate(sard_data, from = c(100,94), to = c(80,92), plot = F, by = by)$summary$endtime[1]), sard_data$Time[nrow(sard_data)]) expect_equal(suppressWarnings(calc_rate(sard_data, from = c(100,94), to = c(80,92), plot = F, by = by)$summary$endrow[1]), nrow(sard_data)) }) test_that("calc_rate - by = 'oxygen' outputs correct results", { by <- "oxygen" from <- 94 to <- 91 sub <- sard_data[min(which(dplyr::between(sard_data[[2]], to, from))):max(which(dplyr::between(sard_data[[2]], to, from))),] expect_equal(calc_rate(sard_data, from = from, to = to, plot = F, by = by)$rate, as.numeric(lm(sub[[2]]~sub[[1]])$coefficients[2])) ## try a bunch of values #from <- (seq(95, 91, length.out = 20)) #to <- (seq(94, 90, length.out = 20)) from <- runif(100, max = 96, min = 93) to <- runif(100, max = 93, min = 90) for(i in 1:length(from)){ sub <- sard_data[min(which(dplyr::between(sard_data[[2]], to[i], from[i]))):max(which(dplyr::between(sard_data[[2]], to[i], from[i]))),] expect_equal(calc_rate(sard_data, from = from[i], to = to[i], plot = F, by = by)$rate, as.numeric(lm(sub[[2]]~sub[[1]])$coefficients[2])) } ## as a multiple from/to input rates <- c() for(i in 1:length(from)){ sub <- sard_data[min(which(dplyr::between(sard_data[[2]], to[i], from[i]))):max(which(dplyr::between(sard_data[[2]], to[i], from[i]))),] rates[i] <- as.numeric(lm(sub[[2]]~sub[[1]])$coefficients[2]) } expect_equal(calc_rate(sard_data, from = from, to = to, plot = F, by = by)$rate, rates) }) test_that("calc_rate - by = 'oxygen' - check 'from' and 'to' are interchangeable", { by <- "oxygen" from <- 94 to <- 91 sub <- sard_data[min(which(dplyr::between(sard_data[[2]], to, from))):max(which(dplyr::between(sard_data[[2]], to, from))),] expect_equal(calc_rate(sard_data, from = from, to = to, plot = F, by = by)$rate, calc_rate(sard_data, from = to, to = from, plot = F, by = by)$rate) ## try a bunch of values from <- runif(100, max = 96, min = 93) to <- runif(100, max = 93, min = 90) for(i in 1:length(from)){ sub <- sard_data[min(which(dplyr::between(sard_data[[2]], to[i], from[i]))):max(which(dplyr::between(sard_data[[2]], to[i], from[i]))),] expect_equal(calc_rate(sard_data, from = from[i], to = to[i], plot = F, by = by)$rate, calc_rate(sard_data, from = to[i], to = from[i], plot = F, by = by)$rate) } }) test_that("calc_rate - by = 'oxygen' outputs correct results with oxygen production data", { by <- "oxygen" sardine_rev <- sard_data sardine_rev[[2]] <- rev(sardine_rev[[2]]) from <- 94 to <- 91 sub <- sardine_rev[min(which(dplyr::between(sardine_rev[[2]], to, from))):max(which(dplyr::between(sardine_rev[[2]], to, from))),] expect_equal(calc_rate(sardine_rev, from = from, to = to, plot = F, by = by)$rate, as.numeric(lm(sub[[2]]~sub[[1]])$coefficients[2])) ## try a bunch of values from <- runif(100, max = 96, min = 93) to <- runif(100, max = 93, min = 90) for(i in 1:length(from)){ sub <- sardine_rev[min(which(dplyr::between(sardine_rev[[2]], to[i], from[i]))):max(which(dplyr::between(sardine_rev[[2]], to[i], from[i]))),] expect_equal(calc_rate(sardine_rev, from = from[i], to = to[i], plot = F, by = by)$rate, as.numeric(lm(sub[[2]]~sub[[1]])$coefficients[2])) } ## as a multiple from/to input rates <- c() for(i in 1:length(from)){ sub <- sardine_rev[min(which(dplyr::between(sardine_rev[[2]], to[i], from[i]))):max(which(dplyr::between(sardine_rev[[2]], to[i], from[i]))),] rates[i] <- as.numeric(lm(sub[[2]]~sub[[1]])$coefficients[2]) } expect_equal(calc_rate(sardine_rev, from = from, to = to, plot = F, by = by)$rate, rates) ## same region from reversed data outputs same rate from <- runif(100, max = 96, min = 93) to <- runif(100, max = 93, min = 90) from_rev <- to to_rev <- from mapply(function(p,q,r,s) expect_equal(calc_rate(sard_data, from = p, to = q, plot = F, by = by)$rate, calc_rate(sardine_rev, from = r, to = s, plot = F, by = by)$rate * -1), p = from, q = to, r = from_rev, s = to_rev) }) # Plot defaults ----------------------------------------------------------- test_that("calc_rate - plot defaults are correctly restored", { # reset plotting first dev.off() # save par before parb4 <- par(no.readonly = TRUE) # now use a fn with plot suppressWarnings(calc_rate(urchins.rd)) # save after paraft <- par(no.readonly = TRUE) # mai is something changed from the default, # so if par settings not restored properly this should fail expect_identical(parb4$mai, paraft$mai) }) }) ## end capture.output