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gridcraft/crates/engine/src/cmd/edit/tests.rs
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use super::*;
/// Sheet1 and Sheet2 with a workbook range name, a name scoped to each sheet, a constant, a
/// formula and a hidden name.
fn go_to_workbook() -> Session {
let mut s = Session::new();
s.new_workbook();
s.execute("home.insertSheet", json!({"name": "Sheet2"})).unwrap();
s.execute("selection.set", json!({"sheet": 0})).unwrap();
let define = |s: &mut Session, name: &str, refers: &str, scope: &str| {
s.execute("formulas.defineName", json!({"name": name, "refersTo": refers, "scope": scope})).unwrap();
};
define(&mut s, "Price", "=Sheet1!$B$2:$B$5", "Workbook");
define(&mut s, "type", "=Sheet1!$D$2:$D$5", "Workbook");
define(&mut s, "Areas", "=Sheet1!$A$1,Sheet1!$C$3:$C$4", "Workbook");
define(&mut s, "Local", "=Sheet2!$C$3", "Sheet2");
define(&mut s, "Own", "=Sheet1!$E$1", "Sheet1");
define(&mut s, "Rate", "=0.07", "Workbook");
define(&mut s, "Total", "=SUM(Sheet1!$B$2:$B$5)", "Workbook");
let wb = std::sync::Arc::make_mut(&mut s.doc_mut().unwrap().wb);
wb.names.push(gridcraft_model::DefinedName {
name: "Secret".into(),
scope: None,
formula: "Sheet1!$Z$9".into(),
comment: String::new(),
hidden: true,
});
s
}
/// "The Go to popup window shows named ranges on every worksheet in your workbook." Names
/// that are not ranges, and hidden names, are not listed.
#[test]
fn go_to_lists_the_named_ranges_of_every_sheet() {
let mut s = go_to_workbook();
let list = s.execute("edit.goTo", json!({"list": true})).unwrap();
assert_eq!(list["names"], json!(["Areas", "Own", "Price", "Sheet2!Local", "type"]), "{list}");
assert_eq!(list["recent"], json!([]), "{list}");
// Seen from Sheet2, its own name is bare and Sheet1's is qualified.
s.execute("selection.set", json!({"sheet": 1})).unwrap();
let list = s.execute("edit.goTo", json!({"list": true})).unwrap();
assert_eq!(list["names"], json!(["Areas", "Local", "Price", "Sheet1!Own", "type"]), "{list}");
}
#[test]
fn go_to_a_name_scoped_to_another_sheet_goes_to_that_sheet() {
let mut s = go_to_workbook();
let out = s.execute("edit.goTo", json!({"reference": "Sheet2!Local"})).unwrap();
assert_eq!(out["selection"], "C3", "{out}");
assert_eq!(s.doc().unwrap().wb.active_sheet(), 1);
// A name of several areas selects all of them.
let out = s.execute("edit.goTo", json!({"reference": "Areas"})).unwrap();
assert_eq!(out["selection"], "A1,C3:C4", "{out}");
assert_eq!(s.doc().unwrap().wb.active_sheet(), 0);
}
/// A name matches in any case and any script, as a formula matches it.
#[test]
fn go_to_matches_a_sheet_name_in_any_case() {
let mut s = go_to_workbook();
s.execute("formulas.defineName", json!({"name": "Größe", "refersTo": "=Sheet2!$D$4", "scope": "Sheet2"})).unwrap();
s.execute("formulas.defineName", json!({"name": "GRÖSSE", "refersTo": "=Sheet1!$F$6", "scope": "Workbook"})).unwrap();
let out = s.execute("edit.goTo", json!({"reference": "Sheet2!GRÖSSE"})).unwrap();
assert_eq!(out["selection"], "D4", "{out}");
// Seen from Sheet2, its own name hides the workbook name it shares.
let list = s.execute("edit.goTo", json!({"list": true})).unwrap();
assert_eq!(list["names"], json!(["Areas", "Größe", "Local", "Price", "Sheet1!Own", "type"]), "{list}");
}
/// "You can enter multiple named ranges or cell references in the Reference box. Separating
/// each with a comma ... Excel will highlight all the ranges."
#[test]
fn go_to_selects_every_reference_and_name_in_a_list() {
let mut s = go_to_workbook();
let out = s.execute("edit.goTo", json!({"reference": "B14:C22,F19:G30,H21:H29"})).unwrap();
assert_eq!(out["selection"], "B14:C22,F19:G30,H21:H29", "{out}");
let out = s.execute("edit.goTo", json!({"reference": "Price, Type"})).unwrap();
assert_eq!(out["selection"], "B2:B5,D2:D5", "{out}");
let out = s.execute("edit.goTo", json!({"reference": "Sheet2!$A$1,Sheet2!B2"})).unwrap();
assert_eq!(out["selection"], "A1,B2", "{out}");
assert_eq!(s.doc().unwrap().wb.active_sheet(), 1);
// Areas on two sheets, and a part that is not a reference, leave the selection alone.
for bad in ["A1,Sheet1!B2", "A1,Rate", "A1,", "Total"] {
assert!(s.execute("edit.goTo", json!({"reference": bad})).is_err(), "{bad}");
assert_eq!(s.doc().unwrap().selection.a1(), "A1,B2", "{bad}");
}
}
#[test]
fn go_to_reads_the_parts_of_a_long_reference_one_at_a_time() {
let mut parts = reference_parts("A1, 'Q1, Q2'!B2,SUM(C3,D4)");
assert_eq!(parts.next(), Some("A1"));
assert_eq!(parts.next(), Some("'Q1, Q2'!B2"));
assert_eq!(parts.next(), Some("SUM(C3,D4)"));
assert_eq!(parts.next(), None);
assert_eq!(reference_parts("").collect::<Vec<_>>(), vec![""]);
let mut s = go_to_workbook();
let err = s.execute("edit.goTo", json!({"reference": "A1,".repeat(GO_TO_MAX_AREAS + 1)})).unwrap_err();
assert!(err.to_string().contains("at most"), "{err}");
let bad = format!("Total{}", ",".repeat(1_000_000));
assert!(s.execute("edit.goTo", json!({"reference": bad})).is_err());
}
/// "The Go to box keeps track of ranges as you enter them, and you can return to any of them."
#[test]
fn go_to_keeps_the_references_entered_newest_first() {
let mut s = go_to_workbook();
s.execute("edit.goTo", json!({"reference": "B14:C22,F19:G30", "record": true})).unwrap();
s.execute("edit.goTo", json!({"reference": "Sheet2!A5", "record": true})).unwrap();
// Names are listed already; a call without `record` (the Name Box) is not kept.
s.execute("edit.goTo", json!({"reference": "Price", "record": true})).unwrap();
s.execute("edit.goTo", json!({"reference": "Z9"})).unwrap();
s.execute("edit.goTo", json!({"reference": "b14:c22,f19:g30", "record": true})).unwrap();
let list = s.execute("edit.goTo", json!({"list": true})).unwrap();
assert_eq!(list["recent"], json!(["Sheet1!B14:C22,Sheet1!F19:G30", "Sheet2!A5"]), "{list}");
// Going back from Sheet2 to a recent reference returns to its sheet.
s.execute("selection.set", json!({"sheet": 1})).unwrap();
let out = s.execute("edit.goTo", json!({"reference": "Sheet1!B14:C22,Sheet1!F19:G30", "record": true})).unwrap();
assert_eq!(out["selection"], "B14:C22,F19:G30", "{out}");
assert_eq!(s.doc().unwrap().wb.active_sheet(), 0);
for i in 0..GO_TO_RECENT + 2 {
s.execute("edit.goTo", json!({"reference": format!("A{}", i + 1), "record": true})).unwrap();
}
let list = s.execute("edit.goTo", json!({"list": true})).unwrap();
assert_eq!(list["recent"].as_array().map(Vec::len), Some(GO_TO_RECENT), "{list}");
assert_eq!(list["recent"][0], format!("Sheet1!A{}", GO_TO_RECENT + 2), "{list}");
}
#[test]
fn cell_set_takes_numbers_for_input_and_value() {
// #697: a JSON number for `input` used to clear the cell instead of entering it.
let mut s = Session::new();
s.new_workbook();
s.execute("cell.set", json!({"cell": "A1", "input": 123.5})).unwrap();
s.execute("cell.set", json!({"cell": "A2", "value": 77})).unwrap();
s.execute("cell.set", json!({"cell": "A3", "input": true})).unwrap();
s.execute("cell.set", json!({"cell": "A4", "input": "=A1+A2"})).unwrap();
let get = |s: &mut Session, a: &str| s.execute("cell.get", json!({"cell": a})).unwrap();
assert_eq!(get(&mut s, "A1")["value"], json!(123.5));
assert_eq!(get(&mut s, "A2")["value"], json!(77.0));
assert_eq!(get(&mut s, "A3")["value"], json!(true));
assert_eq!(get(&mut s, "A4")["value"], json!(200.5));
assert!(s.execute("cell.set", json!({"cell": "A5"})).is_err());
}
/// Every string in `values` went through typed input, read with en-US rules, in silence: a
/// caller sending "05.04.2026" from a dd.mm.yyyy export stored 4 May, "2.500" became 2.5 and
/// "4.25 %" became a percentage (#2255). `parse: false` stores a string as the text it is.
#[test]
fn set_values_can_store_strings_as_the_text_they_are() {
let mut s = Session::new();
s.new_workbook();
let strings = ["05.04.2026", "02/11/2026", "2.500", "4.25 %", "=1+1", "'keep"];
let row: Vec<Json> = strings.iter().map(|v| json!(v)).collect();
let get = |s: &mut Session, a: &str| s.execute("cell.get", json!({"cell": a})).unwrap();
// The default is unchanged: the dates swap, the thousands separator is a decimal point.
s.execute("range.setValues", json!({"range": "A1", "values": [row.clone()]})).unwrap();
assert_eq!(get(&mut s, "A1")["text"], "5/4/2026", "dd.mm.yyyy read as mm.dd.yyyy");
assert_eq!(get(&mut s, "C1")["value"], json!(2.5), "\"2.500\" read as a decimal");
assert_eq!(get(&mut s, "D1")["value"], json!(0.0425), "\"4.25 %\" read as a percentage");
// With `parse: false` each string is the text it was given, and a formula is still a
// formula.
s.execute("range.setValues", json!({"range": "A3", "parse": false, "values": [row.clone()]})).unwrap();
for (i, want) in strings.iter().enumerate() {
let cell = format!("{}3", (b'A' + i as u8) as char);
let got = get(&mut s, &cell);
if *want == "=1+1" {
assert_eq!(got["value"], json!(2.0), "{cell} is still a formula: {got}");
assert_eq!(got["formula"], "=1+1", "{got}");
} else {
assert_eq!(got["value"], json!(*want), "{cell} is the text it was given: {got}");
assert!(got["formula"].is_null(), "{cell} is not a formula: {got}");
}
}
// Numbers and booleans are untouched either way.
s.execute("range.setValues", json!({"range": "A5", "parse": false, "values": [[12.5, true, null]]})).unwrap();
assert_eq!(get(&mut s, "A5")["value"], json!(12.5));
assert_eq!(get(&mut s, "B5")["value"], json!(true));
assert_eq!(get(&mut s, "C5")["text"], "");
// `parse` is a flag, and anything else is a usage error rather than a quiet default.
s.execute("range.setValues", json!({"range": "A7", "parse": true, "values": [["2.500"]]})).unwrap();
assert_eq!(get(&mut s, "A7")["value"], json!(2.5));
assert!(s.execute("range.setValues", json!({"range": "A8", "parse": "no", "values": [["x"]]})).is_err());
assert!(s.execute("range.setValues", json!({"range": "A8", "parse": 0, "values": [["x"]]})).is_err());
// A line break still turns on Wrap Text.
s.execute("range.setValues", json!({"range": "A9", "parse": false, "values": [["one\ntwo"]]})).unwrap();
assert_eq!(get(&mut s, "A9")["value"], json!("one\ntwo"));
let d = s.doc().unwrap();
let sh = d.wb.active().unwrap();
assert!(d.wb.styles.get(sh.style_id(CellRef::parse("A9").unwrap())).align.wrap);
}
/// The result names the strings typed input read as something else, so a script notices without
/// reading the file back (#2255). A formula and a leading apostrophe are not conversions.
#[test]
fn set_values_reports_the_strings_typed_input_read() {
let mut s = Session::new();
s.new_workbook();
let row = json!(["05.04.2026", "02/11/2026", "2.500", "4.25 %", "=1+1", "'keep"]);
let r = s.execute("range.setValues", json!({"range": "A1", "values": [row.clone()]})).unwrap();
assert_eq!(r["cells"], 6, "{r}");
assert_eq!(r["convertedCount"], 4, "{r}");
assert_eq!(r["converted"][0], json!({"cell": "A1", "input": "05.04.2026", "stored": "5/4/2026"}), "{r}");
assert_eq!(r["converted"][1], json!({"cell": "B1", "input": "02/11/2026", "stored": "2/11/2026"}), "{r}");
assert_eq!(r["converted"][2], json!({"cell": "C1", "input": "2.500", "stored": "2.5"}), "{r}");
assert_eq!(r["converted"][3], json!({"cell": "D1", "input": "4.25 %", "stored": "4.25%"}), "{r}");
// The report is a diagnostic, not a second copy of the data: a long input is cut.
let long = s.execute("range.setValues", json!({"range": "J1", "values": [["9".repeat(100)]]})).unwrap();
assert_eq!(long["convertedCount"], 1, "{long}");
let input = long["converted"][0]["input"].as_str().unwrap_or_default();
assert_eq!(input.chars().count(), 33, "32 characters and the ellipsis: {input}");
assert!(input.ends_with('…'), "{input}");
// Nothing is read with `parse: false`, so nothing is reported.
let verbatim = s.execute("range.setValues", json!({"range": "A3", "parse": false, "values": [row]})).unwrap();
assert_eq!(verbatim["convertedCount"], 0, "{verbatim}");
assert_eq!(verbatim["converted"], json!([]), "{verbatim}");
}
/// An empty string clears the cell with `parse: false` too, as `null` and the default path do: a
/// script clearing cells with "" must not leave cells `COUNTA` counts.
#[test]
fn set_values_parse_false_clears_an_empty_string() {
let mut s = Session::new();
s.new_workbook();
s.execute("range.setValues", json!({"range": "A1:B1", "values": [["keep", "keep"]]})).unwrap();
s.execute("home.bold", json!({"range": "A1"})).unwrap();
s.execute("range.setValues", json!({"range": "A1", "parse": false, "values": [["", ""]]})).unwrap();
let get = |s: &mut Session, a: &str| s.execute("cell.get", json!({"cell": a})).unwrap();
assert_eq!(get(&mut s, "A1")["type"], "empty");
assert_eq!(get(&mut s, "B1")["type"], "empty");
let d = s.doc().unwrap();
let sh = d.wb.sheet(0).unwrap();
assert!(d.wb.styles.get(sh.style_id(CellRef::parse("A1").unwrap())).font.bold, "clearing with \"\" keeps the formatting");
assert_eq!(s.execute("formulas.evaluate", json!({"formula": "=COUNTA(A1:B1)"})).unwrap(), json!(0.0));
}
/// The text `parse: false` stores is still text after the workbook is saved and reopened, and the
/// default's reading of a date survives as a date (#2255).
#[test]
fn set_values_text_survives_an_xlsx_roundtrip() {
let mut s = Session::new();
s.new_workbook();
let values = json!([["05.04.2026", "2.500", "4.25 %", "=1+1", 3, true]]);
s.execute("range.setValues", json!({"range": "A1", "parse": false, "values": values})).unwrap();
s.execute("range.setValues", json!({"range": "A3", "values": [["05.04.2026"]]})).unwrap();
let bytes = crate::io::save_bytes(&s.doc().unwrap().wb, "book.xlsx").unwrap();
let (wb, _) = crate::io::open_bytes("book.xlsx", &bytes).unwrap();
let sh = wb.sheet(0).unwrap();
for (col, want) in [(0, "05.04.2026"), (1, "2.500"), (2, "4.25 %")] {
assert_eq!(sh.value(CellRef::new(0, col)), Value::text(want), "column {col} is the text it was given");
}
assert_eq!(sh.value(CellRef::new(0, 3)), Value::number(2.0), "=1+1 is still a formula");
assert_eq!(sh.value(CellRef::new(0, 4)), Value::number(3.0));
assert_eq!(sh.value(CellRef::new(0, 5)), Value::Bool(true));
// The default read the date, and the file keeps it as one.
let at = CellRef::new(2, 0);
assert_eq!(crate::display::cell_text(&wb, sh, at), "5/4/2026");
assert_eq!(wb.styles.get(sh.style_id(at)).num_fmt.as_str(), "m/d/yyyy");
}
#[test]
fn legacy_array_entry() {
let mut s = Session::new();
s.new_workbook();
s.execute("range.setValues", json!({"range": "B2", "values": [[1], [2]]})).unwrap();
s.execute("cell.set", json!({"cell": "C4", "input": "old"})).unwrap();
s.execute("selection.set", json!({"range": "C2:C4"})).unwrap();
s.execute("cell.set", json!({"cell": "C2", "input": "=B2:B3*2", "array": true})).unwrap();
let get = |s: &mut Session, a: &str| s.execute("cell.get", json!({"cell": a})).unwrap();
assert_eq!(get(&mut s, "C3")["value"], json!(4.0));
// Past the result Excel shows #N/A; the old content of the range is replaced.
assert_eq!(get(&mut s, "C4")["text"], "#N/A");
let bar = s.doc().unwrap().wb.active().unwrap().cell(CellRef::parse("C2").unwrap()).map(|c| c.bar_text());
assert_eq!(bar.as_deref(), Some("{=B2:B3*2}"));
}
#[test]
fn an_array_entered_outside_the_selection_covers_only_its_cell() {
// Found by the command-sequence fuzzer: the array took the selection's range even with
// `cell` elsewhere (or on another sheet), so its formula sat outside its own range and the
// selected cells were wiped.
let mut s = Session::new();
s.new_workbook();
s.execute("cell.set", json!({"cell": "K20", "input": "keep"})).unwrap();
s.execute("selection.set", json!({"range": "K20:K22"})).unwrap();
s.execute("cell.set", json!({"cell": "H5", "input": "=1+1", "array": true})).unwrap();
let sh = s.doc().unwrap().wb.active().unwrap();
let f = sh.cell(CellRef::parse("H5").unwrap()).and_then(|c| c.formula.clone()).unwrap();
assert_eq!(f.array, Some(RangeRef::parse("H5").unwrap()));
assert_eq!(sh.value(CellRef::parse("K20").unwrap()), Value::text("keep"));
}
#[test]
fn wildcards() {
assert!(wildcard("hello", "h*o"));
assert!(wildcard("hello", "h?llo"));
assert!(!wildcard("hello", "h?lo"));
assert!(wildcard("a*b", "a~*b"));
assert!(!wildcard("axb", "a~*b"));
assert!(wildcard("", "*"));
}
/// The backtracking matcher `wildcard` replaced, as the reference for its results.
fn wildcard_backtracking(text: &str, pat: &str) -> bool {
let t: Vec<char> = text.chars().collect();
let mut p: Vec<(char, bool)> = Vec::new();
let mut it = pat.chars();
while let Some(c) = it.next() {
if c == '~' {
if let Some(n) = it.next() {
p.push((n, true));
}
} else {
p.push((c, false));
}
}
let (mut ti, mut pi) = (0usize, 0usize);
let (mut star, mut mark) = (None, 0usize);
while ti < t.len() {
if pi < p.len() && (p[pi] == ('?', false) || (p[pi].0 == t[ti] && p[pi] != ('*', false))) {
ti += 1;
pi += 1;
} else if pi < p.len() && p[pi] == ('*', false) {
star = Some(pi);
mark = ti;
pi += 1;
} else if let Some(sp) = star {
pi = sp + 1;
mark += 1;
ti = mark;
} else {
return false;
}
}
while pi < p.len() && p[pi] == ('*', false) {
pi += 1;
}
pi == p.len()
}
#[test]
fn wildcard_agrees_with_backtracking() {
// Every text up to 5 characters over a small alphabet against every pattern up to 4 items.
let alphabet = ['a', 'b', '*', '?', '~'];
let all = |n: usize, chars: &[char]| -> Vec<String> {
let mut out = vec![String::new()];
let mut level = vec![String::new()];
for _ in 0..n {
level = level.iter().flat_map(|s| chars.iter().map(move |c| format!("{s}{c}"))).collect();
out.extend(level.iter().cloned());
}
out
};
let texts = all(5, &['a', 'b', '*']);
for pat in all(4, &alphabet) {
for text in &texts {
assert_eq!(wildcard(text, &pat), wildcard_backtracking(text, &pat), "{text:?} ~ {pat:?}");
}
}
// Patterns longer than one 64-bit word.
let long = format!("*{}*b?", "a".repeat(70));
for text in [format!("x{}yb1", "a".repeat(70)), format!("{}b", "a".repeat(71)), "a".repeat(200)] {
assert_eq!(wildcard(&text, &long), wildcard_backtracking(&text, &long), "{text}");
}
}
#[test]
fn wildcard_with_many_distinct_literals_agrees_with_backtracking() {
// 600 distinct characters in the pattern: more than the masks kept, so the rest are rebuilt.
let chars: Vec<char> = (0x4E00u32..0x4E00 + 600).filter_map(char::from_u32).collect();
let word: String = chars.iter().collect();
let pat = format!("*{word}?{}", chars[3]);
for text in [format!("x{word}yq{}", chars[3]), word.clone(), format!("{word}{word}"), chars.iter().rev().collect::<String>()] {
assert_eq!(wildcard(&text, &pat), wildcard_backtracking(&text, &pat), "{} chars", text.chars().count());
}
assert!(wildcard(&format!("{word}zz{}", chars[3]).replace("zz", "z"), &pat));
}
#[test]
fn wildcard_on_long_repetitive_text_is_linear() {
// The backtracking matcher compared about text × pattern characters here (10^8).
let text = "a".repeat(20_000);
let pat = format!("*{}b", "a".repeat(5_000));
assert!(!wildcard(&text, &pat));
assert!(wildcard(&format!("{text}b"), &pat));
}
#[test]
fn tsv() {
assert_eq!(parse_tsv("a\tb\n1\t2\n"), vec![vec!["a", "b"], vec!["1", "2"]]);
assert_eq!(parse_tsv("\"x\ty\"\tz"), vec![vec!["x\ty", "z"]]);
assert_eq!(parse_tsv("\"he said \"\"hi\"\"\""), vec![vec!["he said \"hi\""]]);
}
#[test]
fn paste_special_operations_keep_text_errors_and_formulas() {
let mut s = Session::new();
s.new_workbook();
s.execute(
"range.setValues",
json!({"range": "A1", "values": [["'123", "Total", "=NA()", "=B3*2", 5], [1, null, null, null, null], [null, 4, null, null, null]]}),
)
.unwrap();
let get = |s: &mut Session, a: &str| s.execute("cell.get", json!({"cell": a})).unwrap();
assert_eq!(get(&mut s, "A1")["value"], "123");
s.execute("edit.copy", json!({"range": "A2"})).unwrap();
s.execute("selection.set", json!({"range": "A1:E1"})).unwrap();
s.execute("edit.pasteSpecial", json!({"what": "values", "operation": "multiply"})).unwrap();
assert_eq!(get(&mut s, "A1")["value"], json!(123.0));
assert_eq!(get(&mut s, "B1")["value"], "Total");
assert_eq!(get(&mut s, "C1")["value"]["error"], "#N/A");
assert_eq!(get(&mut s, "D1")["formula"], "=(B3*2)*1");
assert_eq!(get(&mut s, "D1")["value"], json!(8.0));
assert_eq!(get(&mut s, "E1")["value"], json!(5.0));
}
#[test]
fn cut_paste_that_overflows_the_grid_moves_nothing() {
// #997: the source was emptied first and the cells that fell off the grid were skipped.
let mut s = Session::new();
s.new_workbook();
s.execute("range.setValues", json!({"range": "A1", "values": [[1], [2]]})).unwrap();
let get = |s: &mut Session, a: &str| s.execute("cell.get", json!({"cell": a})).unwrap();
s.execute("edit.cut", json!({"range": "A1:A2"})).unwrap();
// Transposed, the 2 rows become 2 columns and the second one is past XFD.
assert!(s.execute("edit.pasteSpecial", json!({"what": "all", "transpose": true, "at": "XFD1"})).is_err());
assert_eq!(get(&mut s, "A1")["value"], json!(1.0));
assert_eq!(get(&mut s, "A2")["value"], json!(2.0));
// Not transposed, the second row would be past the last row.
assert!(s.execute("edit.pasteSpecial", json!({"what": "all", "at": "A1048576"})).is_err());
assert_eq!(get(&mut s, "A1")["value"], json!(1.0));
assert_eq!(get(&mut s, "A2")["value"], json!(2.0));
// Not transposed it still fits in column XFD.
s.execute("edit.pasteSpecial", json!({"what": "all", "at": "XFD1"})).unwrap();
assert_eq!(get(&mut s, "XFD1")["value"], json!(1.0));
assert_eq!(get(&mut s, "XFD2")["value"], json!(2.0));
}
#[test]
fn replace_case_insensitive() {
assert_eq!(replace_ci("Apple apple APPLE", "apple", "pear"), "pear pear pear");
}
#[test]
fn replace_case_insensitive_keeps_text_when_folding_moves_boundaries() {
// U+212A KELVIN SIGN folds to `k` (3→1 bytes) while U+0130 folds to `i` plus a
// combining dot (2→3 bytes): the folded text is the same length but its byte positions
// no longer line up with the original, and the old slicing dropped the tail.
let mut s = Session::new();
s.new_workbook();
let text = "\u{212A}\u{0130}\u{0130}";
s.execute("cell.set", json!({"cell": "A1", "input": text})).unwrap();
s.execute("edit.replace", json!({"what": "k", "with": "x"})).unwrap();
let sh = s.doc().unwrap().wb.active().unwrap();
assert_eq!(sh.value(CellRef::new(0, 0)), Value::text(text));
}