ucg/src/parse.rs

1832 lines
58 KiB
Rust

// Copyright 2017 Jeremy Wall <jeremy@marzhillstudios.com>
//
// Licensed under the Apache License, Version 2.0 (the "License");
// you may not use this file except in compliance with the License.
// You may obtain a copy of the License at
//
// http://www.apache.org/licenses/LICENSE-2.0
//
// Unless required by applicable law or agreed to in writing, software
// distributed under the License is distributed on an "AS IS" BASIS,
// WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
// See the License for the specific language governing permissions and
// limitations under the License.
//! The Parsing stage of the ucg compiler.
use std::str::FromStr;
use std::borrow::Borrow;
use nom_locate::LocatedSpan;
use nom;
use nom::InputLength;
use nom::IResult;
use ast::*;
use tokenizer::*;
use error;
type NomResult<'a, O> = nom::IResult<TokenIter<'a>, O, error::Error>;
type ParseResult<O> = Result<O, error::Error>;
fn symbol_to_value(s: &Token) -> ParseResult<Value> {
Ok(Value::Symbol(value_node!(
s.fragment.to_string(),
s.pos.clone()
)))
}
// symbol is a bare unquoted field.
named!(symbol<TokenIter, Value, error::Error>,
match_type!(BAREWORD => symbol_to_value)
);
fn str_to_value(s: &Token) -> ParseResult<Value> {
Ok(Value::String(value_node!(
s.fragment.to_string(),
s.pos.clone()
)))
}
// quoted_value is a quoted string.
named!(quoted_value<TokenIter, Value, error::Error>,
match_type!(STR => str_to_value)
);
// Helper function to make the return types work for down below.
fn triple_to_number(v: (Option<Token>, Option<Token>, Option<Token>)) -> ParseResult<Value> {
let (pref, mut pref_pos) = match v.0 {
None => ("", Position::new(0, 0)),
Some(ref bs) => (bs.fragment.borrow(), bs.pos.clone()),
};
let has_dot = v.1.is_some();
if v.0.is_some() && !has_dot && v.2.is_none() {
let i = match FromStr::from_str(pref) {
Ok(i) => i,
Err(_) => {
return Err(error::Error::new(
format!("Not an integer! {}", pref),
error::ErrorType::UnexpectedToken,
pref_pos,
))
}
};
return Ok(Value::Int(value_node!(i, pref_pos)));
}
if v.0.is_none() && has_dot {
pref_pos = v.1.unwrap().pos;
}
let (maybepos, suf) = match v.2 {
None => (None, "".to_string()),
Some(bs) => (Some(bs.pos), bs.fragment),
};
let to_parse = pref.to_string() + "." + &suf;
// TODO(jwall): if there is an error we should report where that error occured.
let f = match FromStr::from_str(&to_parse) {
Ok(f) => f,
Err(_) => {
return Err(error::Error::new(
format!("Not a float! {}", to_parse),
error::ErrorType::UnexpectedToken,
maybepos.unwrap(),
))
}
};
return Ok(Value::Float(value_node!(f, pref_pos)));
}
// trace_macros!(true);
// NOTE(jwall): HERE THERE BE DRAGONS. The order for these matters
// alot. We need to process alternatives in order of decreasing
// specificity. Unfortunately this means we are required to go in a
// decreasing size order which messes with alt!'s completion logic. To
// work around this we have to force Incomplete to be Error so that
// alt! will try the next in the series instead of aborting.
//
// *IMPORTANT*
// It also means this combinator is risky when used with partial
// inputs. So handle with care.
named!(number<TokenIter, Value, error::Error>,
map_res!(alt!(
complete!(do_parse!( // 1.0
prefix: match_type!(DIGIT) >>
has_dot: punct!(".") >>
suffix: match_type!(DIGIT) >>
(Some(prefix.clone()), Some(has_dot.clone()), Some(suffix.clone()))
)) |
complete!(do_parse!( // 1.
prefix: match_type!(DIGIT) >>
has_dot: punct!(".") >>
(Some(prefix.clone()), Some(has_dot.clone()), None)
)) |
complete!(do_parse!( // .1
has_dot: punct!(".") >>
suffix: match_type!(DIGIT) >>
(None, Some(has_dot.clone()), Some(suffix.clone()))
)) |
do_parse!( // 1
prefix: match_type!(DIGIT) >>
// The peek!(not!(..)) make this whole combinator slightly
// safer for partial inputs.
(Some(prefix.clone()), None, None)
)),
triple_to_number
)
);
// trace_macros!(false);
named!(boolean_value<TokenIter, Value, error::Error>,
do_parse!(
b: match_type!(BOOLEAN) >>
(Value::Boolean(Positioned{
val: b.fragment == "true",
pos: b.pos,
}))
)
);
named!(
field_value<TokenIter, (Token, Expression), error::Error>,
do_parse!(
field: match_type!(BAREWORD) >>
punct!("=") >>
value: expression >>
(field, value)
)
);
// Helper function to make the return types work for down below.
fn vec_to_tuple(t: (Position, Option<FieldList>)) -> ParseResult<Value> {
Ok(Value::Tuple(value_node!(
t.1.unwrap_or(Vec::new()),
t.0.line as usize,
t.0.column as usize
)))
}
named!(field_list<TokenIter, FieldList, error::Error>,
separated_list!(punct!(","), field_value)
);
named!(
#[doc="Capture a tuple of named fields with values. {<field>=<value>,...}"],
tuple<TokenIter, Value, error::Error>,
map_res!(
do_parse!(
pos: pos >>
punct!("{") >>
v: field_list >>
punct!("}") >>
(pos, Some(v))
),
vec_to_tuple
)
);
fn tuple_to_list<Sp: Into<Position>>(t: (Sp, Vec<Expression>)) -> ParseResult<Value> {
return Ok(Value::List(ListDef {
elems: t.1,
pos: t.0.into(),
}));
}
named!(list_value<TokenIter, Value, error::Error>,
map_res!(
do_parse!(
start: punct!("[") >>
elements: separated_list!(punct!(","), expression) >>
punct!("]") >>
(start.pos, elements)
),
tuple_to_list
)
);
named!(empty_value<TokenIter, Value, error::Error>,
do_parse!(
pos: pos >>
match_type!(EMPTY) >>
(Value::Empty(pos))
)
);
named!(value<TokenIter, Value, error::Error>,
alt!(
boolean_value |
empty_value |
number |
quoted_value |
list_value |
tuple |
selector_value )
);
fn value_to_expression(v: Value) -> ParseResult<Expression> {
Ok(Expression::Simple(v))
}
named!(simple_expression<TokenIter, Expression, error::Error>,
map_res!(
value,
value_to_expression
)
);
fn tuple_to_binary_expression(
tpl: (Position, BinaryExprType, Value, Expression),
) -> ParseResult<Expression> {
Ok(Expression::Binary(BinaryOpDef {
kind: tpl.1,
left: tpl.2,
right: Box::new(tpl.3),
pos: Position::new(tpl.0.line as usize, tpl.0.column as usize),
}))
}
macro_rules! do_binary_expr {
($i:expr, $subrule:ident!( $($args:tt)* ), $typ:expr) => {
// NOTE(jwall): Nom macros do magic with their inputs. They in fact
// rewrite your macro argumets for you. Which means we require this $i
// paramater even though we don't explicitely pass it below. I don't
// particularly like this but I'm living with it for now.
map_res!($i,
do_parse!(
pos: pos >>
left: value >>
$subrule!($($args)*) >>
right: expression >>
(pos, $typ, left, right)
),
tuple_to_binary_expression
)
};
}
// trace_macros!(true);
named!(add_expression<TokenIter, Expression, error::Error>,
do_binary_expr!(punct!("+"), BinaryExprType::Add)
);
// trace_macros!(false);
named!(sub_expression<TokenIter, Expression, error::Error>,
do_binary_expr!(punct!("-"), BinaryExprType::Sub)
);
named!(mul_expression<TokenIter, Expression, error::Error>,
do_binary_expr!(punct!("*"), BinaryExprType::Mul)
);
named!(div_expression<TokenIter, Expression, error::Error>,
do_binary_expr!(punct!("/"), BinaryExprType::Div)
);
named!(eqeq_expression<TokenIter, Expression, error::Error>,
do_binary_expr!(punct!("=="), BinaryExprType::Equal)
);
named!(not_eqeq_expression<TokenIter, Expression, error::Error>,
do_binary_expr!(punct!("!="), BinaryExprType::NotEqual)
);
named!(lt_eqeq_expression<TokenIter, Expression, error::Error>,
do_binary_expr!(punct!("<="), BinaryExprType::LTEqual)
);
named!(gt_eqeq_expression<TokenIter, Expression, error::Error>,
do_binary_expr!(punct!(">="), BinaryExprType::GTEqual)
);
named!(gt_expression<TokenIter, Expression, error::Error>,
do_binary_expr!(punct!(">"), BinaryExprType::GT)
);
named!(lt_expression<TokenIter, Expression, error::Error>,
do_binary_expr!(punct!("<"), BinaryExprType::LT)
);
fn expression_to_grouped_expression(e: Expression) -> ParseResult<Expression> {
Ok(Expression::Grouped(Box::new(e)))
}
named!(grouped_expression<TokenIter, Expression, error::Error>,
map_res!(
preceded!(punct!("("), terminated!(expression, punct!(")"))),
expression_to_grouped_expression
)
);
fn symbol_or_expression(input: TokenIter) -> NomResult<Expression> {
let sym = do_parse!(input, sym: symbol >> (sym));
match sym {
IResult::Incomplete(i) => {
return IResult::Incomplete(i);
}
IResult::Error(_) => {
// TODO(jwall): Still missing some. But we need to avoid recursion
return grouped_expression(input);
}
IResult::Done(rest, val) => {
return IResult::Done(rest, Expression::Simple(val));
}
}
}
fn selector_list(input: TokenIter) -> NomResult<SelectorList> {
let (rest, head) = match symbol_or_expression(input) {
IResult::Done(rest, val) => (rest, val),
IResult::Error(e) => {
return IResult::Error(e);
}
IResult::Incomplete(i) => {
return IResult::Incomplete(i);
}
};
let (rest, is_dot) = match punct!(rest, ".") {
IResult::Done(rest, tok) => (rest, Some(tok)),
IResult::Incomplete(i) => {
return IResult::Incomplete(i);
}
IResult::Error(_) => (rest, None),
};
let (rest, list) = if is_dot.is_some() {
let (rest, list) = match separated_list!(
rest,
punct!("."),
alt!(match_type!(BAREWORD) | match_type!(DIGIT))
) {
IResult::Done(rest, val) => (rest, val),
IResult::Incomplete(i) => {
return IResult::Incomplete(i);
}
IResult::Error(e) => {
return IResult::Error(e);
}
};
if list.is_empty() {
return IResult::Error(nom::ErrorKind::Custom(error::Error::new(
"(.) with no selector fields after".to_string(),
error::ErrorType::IncompleteParsing,
is_dot.unwrap().pos,
)));
} else {
(rest, Some(list))
}
} else {
(rest, None)
};
let sel_list = SelectorList {
head: Box::new(head),
tail: list,
};
return IResult::Done(rest, sel_list);
}
fn tuple_to_copy(t: (SelectorDef, FieldList)) -> ParseResult<Expression> {
let pos = t.0.pos.clone();
Ok(Expression::Copy(CopyDef {
selector: t.0,
fields: t.1,
pos: pos,
}))
}
named!(copy_expression<TokenIter, Expression, error::Error>,
map_res!(
do_parse!(
pos: pos >>
selector: selector_list >>
punct!("{") >>
fields: field_list >>
punct!("}") >>
(SelectorDef::new(selector, pos.line, pos.column as usize), fields)
),
tuple_to_copy
)
);
fn tuple_to_macro(mut t: (Position, Vec<Value>, Value)) -> ParseResult<Expression> {
match t.2 {
Value::Tuple(v) => Ok(Expression::Macro(MacroDef {
argdefs: t.1
.drain(0..)
.map(|s| Positioned {
pos: s.pos().clone(),
val: s.to_string(),
})
.collect(),
fields: v.val,
pos: t.0,
})),
// TODO(jwall): Show a better version of the unexpected parsed value.
val => Err(error::Error::new(
format!("Expected Tuple Got {:?}", val),
error::ErrorType::UnexpectedToken,
t.0,
)),
}
}
named!(arglist<TokenIter, Vec<Value>, error::Error>, separated_list!(punct!(","), symbol));
named!(macro_expression<TokenIter, Expression, error::Error>,
map_res!(
do_parse!(
pos: pos >>
word!("macro") >>
punct!("(") >>
arglist: arglist >>
punct!(")") >>
punct!("=>") >>
map: tuple >>
(pos, arglist, map)
),
tuple_to_macro
)
);
fn tuple_to_select(t: (Position, Expression, Expression, Value)) -> ParseResult<Expression> {
match t.3 {
Value::Tuple(v) => Ok(Expression::Select(SelectDef {
val: Box::new(t.1),
default: Box::new(t.2),
tuple: v.val,
pos: t.0,
})),
val => Err(error::Error::new(
format!("Expected Tuple Got {:?}", val),
error::ErrorType::UnexpectedToken,
t.0,
)),
}
}
named!(select_expression<TokenIter, Expression, error::Error>,
map_res!(
do_parse!(
start: word!("select") >>
val: terminated!(expression, punct!(",")) >>
default: terminated!(expression, punct!(",")) >>
map: tuple >>
(start.pos.clone(), val, default, map)
),
tuple_to_select
)
);
fn tuple_to_format(t: (Token, Vec<Expression>)) -> ParseResult<Expression> {
Ok(Expression::Format(FormatDef {
template: t.0.fragment.to_string(),
args: t.1,
pos: t.0.pos,
}))
}
named!(format_expression<TokenIter, Expression, error::Error>,
map_res!(
do_parse!(
tmpl: match_type!(STR) >>
punct!("%") >>
punct!("(") >>
args: separated_list!(punct!(","), expression) >>
punct!(")") >>
(tmpl, args)
),
tuple_to_format
)
);
fn tuple_to_call(t: (Position, Value, Vec<Expression>)) -> ParseResult<Expression> {
if let Value::Selector(def) = t.1 {
Ok(Expression::Call(CallDef {
macroref: def,
arglist: t.2,
pos: Position::new(t.0.line as usize, t.0.column as usize),
}))
} else {
Err(error::Error::new(
format!("Expected Selector Got {:?}", t.0),
error::ErrorType::UnexpectedToken,
Position::new(t.0.line as usize, t.0.column as usize),
))
}
}
fn vec_to_selector_value(t: (Position, SelectorList)) -> ParseResult<Value> {
Ok(Value::Selector(SelectorDef::new(
t.1,
t.0.line as usize,
t.0.column as usize,
)))
}
named!(selector_value<TokenIter, Value, error::Error>,
map_res!(
do_parse!(
sl: selector_list >>
(sl.head.pos().clone(), sl)
),
vec_to_selector_value
)
);
named!(call_expression<TokenIter, Expression, error::Error>,
map_res!(
do_parse!(
macroname: selector_value >>
punct!("(") >>
args: separated_list!(punct!(","), expression) >>
punct!(")") >>
(macroname.pos().clone(), macroname, args)
),
tuple_to_call
)
);
fn symbol_or_list(input: TokenIter) -> NomResult<Value> {
let sym = do_parse!(input, sym: symbol >> (sym));
match sym {
IResult::Incomplete(i) => {
return IResult::Incomplete(i);
}
IResult::Error(_) => {
// TODO(jwall): Still missing some. But we need to avoid recursion
match list_value(input) {
IResult::Incomplete(i) => {
return IResult::Incomplete(i);
}
IResult::Error(e) => {
return IResult::Error(e);
}
IResult::Done(i, val) => {
return IResult::Done(i, val);
}
}
}
IResult::Done(rest, val) => {
return IResult::Done(rest, val);
}
}
}
fn tuple_to_list_op(tpl: (Position, Token, Value, Value)) -> ParseResult<Expression> {
let pos = tpl.0;
let t = if &tpl.1.fragment == "map" {
ListOpType::Map
} else if &tpl.1.fragment == "filter" {
ListOpType::Filter
} else {
return Err(error::Error::new(
format!(
"Expected one of 'map' or 'filter' but got '{}'",
tpl.1.fragment
),
error::ErrorType::UnexpectedToken,
pos,
));
};
let macroname = tpl.2;
let list = tpl.3;
if let Value::Selector(mut def) = macroname {
// First of all we need to assert that this is a selector of at least
// two sections.
let fieldname: String = match &mut def.sel.tail {
&mut None => {
return Err(error::Error::new(
format!("Missing a result field for the macro"),
error::ErrorType::IncompleteParsing,
pos,
));
}
&mut Some(ref mut tl) => {
if tl.len() < 1 {
return Err(error::Error::new(
format!("Missing a result field for the macro"),
error::ErrorType::IncompleteParsing,
def.pos.clone(),
));
}
let fname = tl.pop();
fname.unwrap().fragment
}
};
if let Value::List(ldef) = list {
return Ok(Expression::ListOp(ListOpDef {
typ: t,
mac: def,
field: fieldname,
target: ldef,
pos: pos,
}));
}
// TODO(jwall): We should print a pretter message than debug formatting here.
return Err(error::Error::new(
format!("Expected a list but got {:?}", list),
error::ErrorType::UnexpectedToken,
pos,
));
}
return Err(error::Error::new(
format!("Expected a selector but got {:?}", macroname),
error::ErrorType::UnexpectedToken,
pos,
));
}
named!(list_op_expression<TokenIter, Expression, error::Error>,
map_res!(
do_parse!(
pos: pos >>
optype: alt!(word!("map") | word!("filter")) >>
macroname: selector_value >>
list: symbol_or_list >>
(pos, optype, macroname, list)
),
tuple_to_list_op
)
);
// NOTE(jwall): HERE THERE BE DRAGONS. The order for these matters
// alot. We need to process alternatives in order of decreasing
// specificity. Unfortunately this means we are required to go in a
// decreasing size order which messes with alt!'s completion logic. To
// work around this we have to force Incomplete to be Error so that
// alt! will try the next in the series instead of aborting.
//
// *IMPORTANT*
// It also means this combinator is risky when used with partial
// inputs. So handle with care.
named!(expression<TokenIter, Expression, error::Error>,
do_parse!(
expr: alt!(
complete!(list_op_expression) |
complete!(add_expression) |
complete!(sub_expression) |
complete!(mul_expression) |
complete!(div_expression) |
complete!(eqeq_expression) |
complete!(not_eqeq_expression) |
complete!(lt_eqeq_expression) |
complete!(gt_eqeq_expression) |
complete!(gt_expression) |
complete!(lt_expression) |
complete!(grouped_expression) |
complete!(macro_expression) |
complete!(format_expression) |
complete!(select_expression) |
complete!(call_expression) |
complete!(copy_expression) |
simple_expression
) >>
(expr)
)
);
fn expression_to_statement(v: Expression) -> ParseResult<Statement> {
Ok(Statement::Expression(v))
}
named!(expression_statement<TokenIter, Statement, error::Error>,
map_res!(
terminated!(expression, punct!(";")),
expression_to_statement
)
);
fn tuple_to_let(t: (Token, Expression)) -> ParseResult<Statement> {
Ok(Statement::Let(LetDef {
name: t.0,
value: t.1,
}))
}
named!(let_statement<TokenIter, Statement, error::Error>,
map_res!(
do_parse!(
word!("let") >>
name: match_type!(BAREWORD) >>
punct!("=") >>
val: expression >>
punct!(";") >>
(name, val)
),
tuple_to_let
)
);
fn tuple_to_import(t: (Token, Token)) -> ParseResult<Statement> {
Ok(Statement::Import(ImportDef {
path: t.0,
name: t.1,
}))
}
named!(import_statement<TokenIter, Statement, error::Error>,
map_res!(
do_parse!(
word!("import") >>
path: match_type!(STR) >>
word!("as") >>
name: match_type!(BAREWORD) >>
punct!(";") >>
(path, name)
),
tuple_to_import
)
);
named!(statement<TokenIter, Statement, error::Error>,
do_parse!(
stmt: alt_complete!(
import_statement |
let_statement |
expression_statement
) >>
(stmt)
)
);
/// Parses a LocatedSpan into a list of Statements or an error::Error.
pub fn parse(input: LocatedSpan<&str>) -> Result<Vec<Statement>, error::Error> {
match tokenize(input) {
Ok(tokenized) => {
let mut out = Vec::new();
let mut i_ = TokenIter {
source: tokenized.as_slice(),
};
loop {
let i = i_.clone();
if i[0].typ == TokenType::END {
break;
}
match statement(i) {
IResult::Error(nom::ErrorKind::Custom(e)) => {
return Err(e);
}
IResult::Error(e) => {
return Err(error::Error::new_with_errorkind(
format!("Statement Parse error: {:?} current token: {:?}", e, i_[0]),
error::ErrorType::ParseError,
Position {
line: i_[0].pos.line,
column: i_[0].pos.column,
},
e,
));
}
IResult::Incomplete(ei) => {
return Err(error::Error::new(
format!("Unexpected end of parsing input: {:?}", ei),
error::ErrorType::IncompleteParsing,
Position {
line: i_[0].pos.line,
column: i_[0].pos.column,
},
));
}
IResult::Done(rest, stmt) => {
out.push(stmt);
i_ = rest;
if i_.input_len() == 0 {
break;
}
}
}
}
return Ok(out);
}
Err(e) => {
return Err(error::Error::new(
format!("Tokenization Error {:?}", e.1),
error::ErrorType::ParseError,
e.0,
));
}
}
}
#[cfg(test)]
mod test {
use super::*;
use tokenizer::{tokenize, TokenIter};
use nom_locate::LocatedSpan;
use nom::IResult;
macro_rules! assert_parse {
($parsemac:ident( $i:expr ), $out:expr) => {
assert_parse!($i, $parsemac, $out)
};
($i:expr, $f:expr, $out:expr) => {
{
let input = LocatedSpan::new($i);
match tokenize(input) {
Err(e) => assert!(false, format!("Tokenizer Error: {:?}", e)),
Ok(val) => {
match $f(TokenIter{source: val.as_slice()}) {
IResult::Done(_, result) => assert_eq!(result, $out),
other => assert!(false, format!("Expected Done got {:?}", other)),
}
},
}
};
}
}
macro_rules! assert_error {
($parsemac:ident( $i:expr )) => {
assert_error!($i, $parsemac)
};
($i:expr, $f:expr) => {
{
let input = LocatedSpan::new($i);
match tokenize(input) {
Err(_) => assert!(true),
Ok(val) => {
let result = $f(TokenIter{source: val.as_slice()});
assert!(result.is_err(), format!("Not an error: {:?}", result))
},
}
}
}
}
#[test]
fn test_null_parsing() {
assert_parse!(empty_value("NULL"), Value::Empty(Position::new(1, 1)));
}
#[test]
fn test_boolean_parsing() {
assert_parse!(
boolean_value("true"),
Value::Boolean(Positioned::new(true, 1, 1))
);
assert_parse!(
boolean_value("false"),
Value::Boolean(Positioned::new(false, 1, 1))
);
assert_error!(boolean_value("truth"));
}
#[test]
fn test_symbol_parsing() {
assert_parse!(
symbol("foo"),
Value::Symbol(value_node!("foo".to_string(), 1, 1))
);
assert_parse!(
symbol("foo-bar"),
Value::Symbol(value_node!("foo-bar".to_string(), 1, 1))
);
assert_parse!(
symbol("foo_bar"),
Value::Symbol(value_node!("foo_bar".to_string(), 1, 1))
);
}
#[test]
fn test_selector_parsing() {
assert_error!(selector_value("foo."));
assert_parse!(
selector_value("foo.bar "),
Value::Selector(make_selector!(make_expr!("foo".to_string(), 1, 1) => [
make_tok!("bar", 1, 5)] =>
1, 1))
);
assert_parse!(
selector_value("foo.0 "),
Value::Selector(make_selector!(make_expr!("foo".to_string(), 1, 1) => [
make_tok!(DIGIT => "0", 1, 5)] =>
1, 1))
);
assert_parse!(
selector_value("foo.bar;"),
Value::Selector(make_selector!(make_expr!("foo", 1, 1) =>
[
make_tok!("bar", 1, 5)
] =>
1, 1))
);
assert_parse!(
selector_value("({foo=1}).foo "),
Value::Selector(
make_selector!(Expression::Grouped(Box::new(Expression::Simple(
Value::Tuple(value_node!(
vec![(make_tok!("foo", 1, 3), Expression::Simple(Value::Int(Positioned::new(1, 1, 7))))],
1, 3))
))) => [ make_tok!("foo", 1, 11) ] => 1, 2)
)
);
}
#[test]
fn test_statement_parse() {
let stmt = "import \"foo\" as foo;";
assert_parse!(
statement(stmt),
Statement::Import(ImportDef {
path: make_tok!(QUOT => "foo", 1,8),
name: make_tok!("foo", 1, 17),
})
);
assert_error!(import_statement("import \"foo\""));
assert_parse!(
statement("let foo = 1.0 ;"),
Statement::Let(LetDef {
name: make_tok!("foo", 1, 5),
value: Expression::Simple(Value::Float(value_node!(1.0, 1, 11))),
})
);
assert_parse!(
statement("// comment\nlet foo = 1.0 ;"),
Statement::Let(LetDef {
name: make_tok!("foo", 2, 5),
value: Expression::Simple(Value::Float(value_node!(1.0, 2, 11))),
})
);
assert_parse!(
statement("1.0;"),
Statement::Expression(Expression::Simple(Value::Float(value_node!(1.0, 1, 1))))
);
}
#[test]
fn test_import_statement_parse() {
assert_error!(import_statement("import"));
assert_error!(import_statement("import \"foo\""));
assert_error!(import_statement("import \"foo\" as"));
assert_error!(import_statement("import \"foo\" as foo"));
let import_stmt = "import \"foo\" as foo;";
assert_parse!(
import_statement(import_stmt),
Statement::Import(ImportDef {
path: make_tok!(QUOT => "foo", 1, 8),
name: make_tok!("foo", 1, 17),
})
);
}
#[test]
fn test_let_statement_parse() {
assert_error!(let_statement("foo"));
assert_error!(let_statement("let \"foo\""));
assert_error!(let_statement("let 1"));
assert_error!(let_statement("let"));
assert_error!(let_statement("let foo"));
assert_error!(let_statement("let foo ="));
assert_error!(let_statement("let foo = "));
assert_error!(let_statement("let foo = 1"));
assert_parse!(
let_statement("let foo = 1.0 ;"),
Statement::Let(LetDef {
name: make_tok!("foo", 1, 5),
value: Expression::Simple(Value::Float(value_node!(1.0, 1, 11))),
})
);
assert_parse!(
let_statement("let foo = // comment\n1.0 ;"),
Statement::Let(LetDef {
name: make_tok!("foo", 1, 5),
value: Expression::Simple(Value::Float(value_node!(1.0, 2, 1))),
})
);
assert_parse!(
let_statement("let foo = 1.0 // comment\n;"),
Statement::Let(LetDef {
name: make_tok!("foo", 1, 5),
value: Expression::Simple(Value::Float(value_node!(1.0, 1, 11))),
})
);
assert_parse!(
let_statement("let foo= 1.0;"),
Statement::Let(LetDef {
name: make_tok!("foo", 1, 5),
value: Expression::Simple(Value::Float(value_node!(1.0, 1, 10))),
})
);
assert_parse!(
let_statement("let foo =1.0;"),
Statement::Let(LetDef {
name: make_tok!("foo", 1, 5),
value: Expression::Simple(Value::Float(value_node!(1.0, 1, 10))),
})
);
}
#[test]
fn test_expression_statement_parse() {
assert_error!(expression_statement("foo"));
assert_parse!(
expression_statement("1.0;"),
Statement::Expression(Expression::Simple(Value::Float(value_node!(1.0, 1, 1))))
);
assert_parse!(
expression_statement("1.0 ;"),
Statement::Expression(Expression::Simple(Value::Float(value_node!(1.0, 1, 1))))
);
assert_parse!(
expression_statement(" 1.0;"),
Statement::Expression(Expression::Simple(Value::Float(value_node!(1.0, 1, 2))))
);
assert_parse!(
expression_statement("foo;"),
Statement::Expression(Expression::Simple(Value::Selector(make_selector!(
make_expr!("foo", 1, 1),
1,
1
))))
);
assert_parse!(
expression_statement("foo ;"),
Statement::Expression(Expression::Simple(Value::Selector(make_selector!(
make_expr!("foo", 1, 2),
1,
1
))))
);
assert_parse!(
expression_statement(" foo;"),
Statement::Expression(Expression::Simple(Value::Selector(make_selector!(
make_expr!("foo", 1, 2),
1,
2
))))
);
assert_parse!(
expression_statement("\"foo\";"),
Statement::Expression(Expression::Simple(Value::String(value_node!(
"foo".to_string(),
1,
1
))))
);
assert_parse!(
expression_statement("\"foo\" ;"),
Statement::Expression(Expression::Simple(Value::String(value_node!(
"foo".to_string(),
1,
1
))))
);
assert_parse!(
expression_statement(" \"foo\";"),
Statement::Expression(Expression::Simple(Value::String(value_node!(
"foo".to_string(),
1,
2
))))
);
}
#[test]
fn test_expression_parse() {
assert_parse!(
expression("NULL"),
Expression::Simple(Value::Empty(Position::new(1, 1)))
);
assert_parse!(
expression("\"foo\""),
Expression::Simple(Value::String(value_node!("foo".to_string(), 1, 1)))
);
assert_parse!(
expression("1"),
Expression::Simple(Value::Int(value_node!(1, 1, 1)))
);
assert_parse!(
expression("foo "),
Expression::Simple(Value::Selector(make_selector!(
make_expr!("foo", 1, 1),
1,
1
)))
);
assert_parse!(
expression("foo.bar "),
Expression::Simple(Value::Selector(make_selector!(make_expr!("foo", 1, 1) =>
[ make_tok!("bar", 1, 5) ] =>
1, 1)))
);
assert_parse!(
expression("1 + 1"),
Expression::Binary(BinaryOpDef {
kind: BinaryExprType::Add,
left: Value::Int(value_node!(1, 1, 1)),
right: Box::new(Expression::Simple(Value::Int(value_node!(1, 1, 5)))),
pos: Position::new(1, 1),
})
);
assert_parse!(
expression("1 - 1"),
Expression::Binary(BinaryOpDef {
kind: BinaryExprType::Sub,
left: Value::Int(value_node!(1, 1, 1)),
right: Box::new(Expression::Simple(Value::Int(value_node!(1, 1, 5)))),
pos: Position::new(1, 1),
})
);
assert_parse!(
expression("1 * 1"),
Expression::Binary(BinaryOpDef {
kind: BinaryExprType::Mul,
left: Value::Int(value_node!(1, 1, 1)),
right: Box::new(Expression::Simple(Value::Int(value_node!(1, 1, 5)))),
pos: Position::new(1, 1),
})
);
assert_parse!(
expression("1 / 1"),
Expression::Binary(BinaryOpDef {
kind: BinaryExprType::Div,
left: Value::Int(value_node!(1, 1, 1)),
right: Box::new(Expression::Simple(Value::Int(value_node!(1, 1, 5)))),
pos: Position::new(1, 1),
})
);
assert_parse!(
expression("1 > 1"),
Expression::Binary(BinaryOpDef {
kind: BinaryExprType::GT,
left: Value::Int(value_node!(1, 1, 1)),
right: Box::new(Expression::Simple(Value::Int(value_node!(1, 1, 5)))),
pos: Position::new(1, 1),
})
);
assert_parse!(
expression("1 < 1"),
Expression::Binary(BinaryOpDef {
kind: BinaryExprType::LT,
left: Value::Int(value_node!(1, 1, 1)),
right: Box::new(Expression::Simple(Value::Int(value_node!(1, 1, 5)))),
pos: Position::new(1, 1),
})
);
assert_parse!(
expression("1 <= 1"),
Expression::Binary(BinaryOpDef {
kind: BinaryExprType::LTEqual,
left: Value::Int(value_node!(1, 1, 1)),
right: Box::new(Expression::Simple(Value::Int(value_node!(1, 1, 5)))),
pos: Position::new(1, 1),
})
);
assert_parse!(
expression("1 >= 1"),
Expression::Binary(BinaryOpDef {
kind: BinaryExprType::GTEqual,
left: Value::Int(value_node!(1, 1, 1)),
right: Box::new(Expression::Simple(Value::Int(value_node!(1, 1, 5)))),
pos: Position::new(1, 1),
})
);
assert_parse!(
expression("1+1"),
Expression::Binary(BinaryOpDef {
kind: BinaryExprType::Add,
left: Value::Int(value_node!(1, 1, 1)),
right: Box::new(Expression::Simple(Value::Int(value_node!(1, 1, 3)))),
pos: Position::new(1, 1),
})
);
assert_parse!(
expression("1-1"),
Expression::Binary(BinaryOpDef {
kind: BinaryExprType::Sub,
left: Value::Int(value_node!(1, 1, 1)),
right: Box::new(Expression::Simple(Value::Int(value_node!(1, 1, 3)))),
pos: Position::new(1, 1),
})
);
assert_parse!(
expression("1*1"),
Expression::Binary(BinaryOpDef {
kind: BinaryExprType::Mul,
left: Value::Int(value_node!(1, 1, 1)),
right: Box::new(Expression::Simple(Value::Int(value_node!(1, 1, 3)))),
pos: Position::new(1, 1),
})
);
assert_parse!(
expression("1/1"),
Expression::Binary(BinaryOpDef {
kind: BinaryExprType::Div,
left: Value::Int(value_node!(1, 1, 1)),
right: Box::new(Expression::Simple(Value::Int(value_node!(1, 1, 3)))),
pos: Position::new(1, 1),
})
);
assert_parse!(
expression("macro (arg1, arg2) => { foo = arg1 }"),
Expression::Macro(MacroDef {
argdefs: vec![
value_node!("arg1".to_string(), 1, 8),
value_node!("arg2".to_string(), 1, 14),
],
fields: vec![
(
make_tok!("foo", 1, 25),
Expression::Simple(Value::Selector(make_selector!(
make_expr!("arg1", 1, 31),
1,
31
))),
),
],
pos: Position::new(1, 1),
})
);
assert_parse!(
expression("select foo, 1, { foo = 2 }"),
Expression::Select(SelectDef {
val: Box::new(Expression::Simple(Value::Selector(make_selector!(
make_expr!("foo", 1, 8),
1,
8
)))),
default: Box::new(Expression::Simple(Value::Int(value_node!(1, 1, 13)))),
tuple: vec![
(
make_tok!("foo", 1, 18),
Expression::Simple(Value::Int(value_node!(2, 1, 24))),
),
],
pos: Position::new(1, 1),
})
);
assert_parse!(
expression("foo.bar (1, \"foo\")"),
Expression::Call(CallDef {
macroref: make_selector!(make_expr!("foo", 1, 1) =>
[ make_tok!("bar", 1, 5) ] =>
1, 1),
arglist: vec![
Expression::Simple(Value::Int(value_node!(1, 1, 10))),
Expression::Simple(Value::String(value_node!("foo".to_string(), 1, 13))),
],
pos: Position::new(1, 1),
})
);
assert_parse!(
expression("(1 + 1)"),
Expression::Grouped(Box::new(Expression::Binary(BinaryOpDef {
kind: BinaryExprType::Add,
left: Value::Int(value_node!(1, 1, 2)),
right: Box::new(Expression::Simple(Value::Int(value_node!(1, 1, 6)))),
pos: Position::new(1, 2), // FIXME(jwall): grouped expressions appear to be getting positioned wrong
})))
);
assert_parse!(
expression("[1, 1]"),
Expression::Simple(Value::List(ListDef {
elems: vec![
Expression::Simple(Value::Int(value_node!(1, 1, 2))),
Expression::Simple(Value::Int(value_node!(1, 1, 5))),
],
pos: Position::new(1, 1),
}))
);
}
#[test]
fn test_format_parse() {
assert_error!(format_expression("\"foo"));
assert_error!(format_expression("\"foo\""));
assert_error!(format_expression("\"foo\" %"));
assert_error!(format_expression("\"foo\" % (, 2"));
assert_parse!(
format_expression("\"foo @ @\" % (1, 2)"),
Expression::Format(FormatDef {
template: "foo @ @".to_string(),
args: vec![
Expression::Simple(Value::Int(value_node!(1, 1, 14))),
Expression::Simple(Value::Int(value_node!(2, 1, 17))),
],
pos: Position::new(1, 1),
})
);
assert_parse!(
format_expression("\"foo @ @\"%(1, 2)"),
Expression::Format(FormatDef {
template: "foo @ @".to_string(),
args: vec![
Expression::Simple(Value::Int(value_node!(1, 1, 12))),
Expression::Simple(Value::Int(value_node!(2, 1, 15))),
],
pos: Position::new(1, 1),
})
);
}
#[test]
fn test_call_parse() {
assert_error!(call_expression("foo"));
assert_error!(call_expression("foo ("));
assert_error!(call_expression("foo (1"));
assert_error!(call_expression("foo (1,"));
assert_error!(call_expression("foo (1,2"));
assert_parse!(
call_expression("foo (1, \"foo\")"),
Expression::Call(CallDef {
macroref: make_selector!(make_expr!("foo", 1, 1), 1, 1),
arglist: vec![
Expression::Simple(Value::Int(value_node!(1, 1, 6))),
Expression::Simple(Value::String(value_node!("foo".to_string(), 1, 9))),
],
pos: Position::new(1, 1),
})
);
assert_parse!(
call_expression("foo.bar (1, \"foo\")"),
Expression::Call(CallDef {
macroref: make_selector!(make_expr!("foo") => [ make_tok!("bar", 1, 5) ] => 1, 1),
arglist: vec![
Expression::Simple(Value::Int(value_node!(1, 1, 10))),
Expression::Simple(Value::String(value_node!("foo".to_string(), 1, 13))),
],
pos: Position::new(1, 1),
})
);
}
#[test]
fn test_select_parse() {
assert_error!(select_expression("select"));
assert_error!(select_expression("select foo"));
assert_error!(select_expression("select foo, 1"));
assert_error!(select_expression("select foo, 1, {"));
assert_parse!(
select_expression("select foo, 1, { foo = 2 }"),
Expression::Select(SelectDef {
val: Box::new(Expression::Simple(Value::Selector(make_selector!(
make_expr!("foo", 1, 8),
1,
8
)))),
default: Box::new(Expression::Simple(Value::Int(value_node!(1, 1, 13)))),
tuple: vec![
(
make_tok!("foo", 1, 18),
Expression::Simple(Value::Int(value_node!(2, 1, 24))),
),
],
pos: Position::new(1, 1),
})
);
}
#[test]
fn test_macro_expression_parsing() {
assert_error!(macro_expression("foo"));
assert_error!(macro_expression("macro \"foo\""));
assert_error!(macro_expression("macro 1"));
assert_error!(macro_expression("macro"));
assert_error!(macro_expression("macro ("));
assert_error!(macro_expression("macro (arg"));
assert_error!(macro_expression("macro (arg, arg2"));
assert_error!(macro_expression("macro (arg1, arg2) =>"));
assert_error!(macro_expression("macro (arg1, arg2) => {"));
assert_error!(macro_expression("macro (arg1, arg2) => { foo"));
assert_error!(macro_expression("macro (arg1, arg2) => { foo ="));
assert_parse!(
macro_expression("macro (arg1, arg2) => {foo=1,bar=2}"),
Expression::Macro(MacroDef {
argdefs: vec![
value_node!("arg1".to_string(), 1, 8),
value_node!("arg2".to_string(), 1, 14),
],
fields: vec![
(
make_tok!("foo", 1, 24),
Expression::Simple(Value::Int(value_node!(1, 1, 28))),
),
(
make_tok!("bar", 1, 30),
Expression::Simple(Value::Int(value_node!(2, 1, 34))),
),
],
pos: Position::new(1, 1),
})
);
}
#[test]
fn test_copy_parse() {
assert_error!(copy_expression("{}"));
assert_error!(copy_expression("foo"));
assert_error!(copy_expression("foo{"));
assert_parse!(
copy_expression("foo{}"),
Expression::Copy(CopyDef {
selector: make_selector!(make_expr!("foo", 1, 1), 1, 1),
fields: Vec::new(),
pos: Position::new(1, 1),
})
);
assert_parse!(
copy_expression("foo{bar=1}"),
Expression::Copy(CopyDef {
selector: make_selector!(make_expr!("foo", 1, 1), 1, 1),
fields: vec![
(
make_tok!("bar", 1, 5),
Expression::Simple(Value::Int(value_node!(1, 1, 9))),
),
],
pos: Position::new(1, 1),
})
);
}
#[test]
fn test_grouped_expression_parse() {
assert_error!(grouped_expression("foo"));
assert_error!(grouped_expression("(foo"));
assert_parse!(
grouped_expression("(foo)"),
Expression::Grouped(Box::new(Expression::Simple(Value::Selector(
make_selector!(make_expr!("foo", 1, 2), 1, 2)
))))
);
assert_parse!(
grouped_expression("(1 + 1)"),
Expression::Grouped(Box::new(Expression::Binary(BinaryOpDef {
kind: BinaryExprType::Add,
left: Value::Int(value_node!(1, 1, 2)),
right: Box::new(Expression::Simple(Value::Int(value_node!(1, 1, 6)))),
pos: Position::new(1, 2),
})))
);
}
#[test]
fn test_list_value_parse() {
assert_error!(list_value("foo"));
assert_error!(list_value("[foo"));
assert_error!(list_value("// commen\n[foo"));
assert_parse!(
list_value("[foo]"),
Value::List(ListDef {
elems: vec![
Expression::Simple(Value::Selector(make_selector!(
make_expr!("foo", 1, 2),
1,
2
))),
],
pos: Position::new(1, 1),
})
);
assert_parse!(
list_value("[1, 1]"),
Value::List(ListDef {
elems: vec![
Expression::Simple(Value::Int(value_node!(1, 1, 2))),
Expression::Simple(Value::Int(value_node!(1, 1, 5))),
],
pos: Position::new(1, 1),
})
);
assert_parse!(
list_value("// comment\n[1, 1]"),
Value::List(ListDef {
elems: vec![
Expression::Simple(Value::Int(value_node!(1, 2, 2))),
Expression::Simple(Value::Int(value_node!(1, 2, 5))),
],
pos: Position::new(2, 1),
})
);
assert_parse!(
list_value("[// comment\n1, 1]"),
Value::List(ListDef {
elems: vec![
Expression::Simple(Value::Int(value_node!(1, 2, 2))),
Expression::Simple(Value::Int(value_node!(1, 2, 5))),
],
pos: Position::new(1, 1),
})
);
assert_parse!(
list_value("[1, // comment\n1]"),
Value::List(ListDef {
elems: vec![
Expression::Simple(Value::Int(value_node!(1, 1, 2))),
Expression::Simple(Value::Int(value_node!(1, 2, 1))),
],
pos: Position::new(1, 1),
})
);
assert_parse!(
list_value("[1, 1 // comment\n]"),
Value::List(ListDef {
elems: vec![
Expression::Simple(Value::Int(value_node!(1, 1, 2))),
Expression::Simple(Value::Int(value_node!(1, 1, 5))),
],
pos: Position::new(1, 1),
})
);
}
#[test]
fn test_tuple_parse() {
assert_error!(tuple("{"));
assert_error!(tuple("{ foo"));
assert_error!(tuple("{ foo ="));
assert_error!(tuple("{ foo = 1"));
assert_error!(tuple("{ foo = 1,"));
assert_error!(tuple("{ foo = 1, bar ="));
assert_error!(tuple("// comment\n{ foo = 1, bar ="));
assert_parse!(tuple("{ }"), Value::Tuple(value_node!(vec![], 1, 1)));
assert_parse!(
tuple("{ foo = 1 }"),
Value::Tuple(value_node!(
vec![
(
make_tok!("foo", 1, 3),
Expression::Simple(Value::Int(value_node!(1, 1, 9))),
),
],
1,
1
))
);
assert_parse!(
tuple("// comment\n{ foo = 1 }"),
Value::Tuple(value_node!(
vec![
(
make_tok!("foo", 2, 3),
Expression::Simple(Value::Int(value_node!(1, 2, 9))),
),
],
1,
1
))
);
assert_parse!(
tuple("{// comment\n foo = 1 }"),
Value::Tuple(value_node!(
vec![
(
make_tok!("foo", 2, 2),
Expression::Simple(Value::Int(value_node!(1, 2, 8))),
),
],
1,
1
))
);
assert_parse!(
tuple("{ foo = 1// comment\n }"),
Value::Tuple(value_node!(
vec![
(
make_tok!("foo", 1, 3),
Expression::Simple(Value::Int(value_node!(1, 1, 9))),
),
],
1,
1
))
);
assert_parse!(
tuple("{ foo = 1, bar = \"1\" }"),
Value::Tuple(value_node!(
vec![
(
make_tok!("foo", 1, 3),
Expression::Simple(Value::Int(value_node!(1, 1, 9))),
),
(
make_tok!("bar", 1, 12),
Expression::Simple(Value::String(value_node!(
"1".to_string(),
Position::new(1, 18)
))),
),
],
1,
1
))
);
assert_parse!(
tuple("{ foo = 1, // comment\nbar = \"1\" }"),
Value::Tuple(value_node!(
vec![
(
make_tok!("foo", 1, 3),
Expression::Simple(Value::Int(value_node!(1, 1, 9))),
),
(
make_tok!("bar", 2, 1),
Expression::Simple(Value::String(value_node!(
"1".to_string(),
Position::new(2, 7)
))),
),
],
1,
1
))
);
assert_parse!(
tuple("{ foo = 1, bar = {} }"),
Value::Tuple(value_node!(
vec![
(
make_tok!("foo", 1, 3),
Expression::Simple(Value::Int(value_node!(1, Position::new(1, 9)))),
),
(
make_tok!("bar", 1, 12),
Expression::Simple(Value::Tuple(value_node!(
Vec::new(),
Position::new(1, 17)
))),
),
],
1,
1
))
);
}
#[test]
fn test_field_list_parse() {
let mut f_list = "foo = 1, quux = 2;";
assert_parse!(
field_list(f_list),
vec![
(make_tok!("foo", 1, 1), make_expr!(1 => int, 1, 7)),
(make_tok!("quux", 1, 10), make_expr!(2 => int, 1, 17)),
]
);
f_list = "foo = 1, // comment\nquux = 2;";
assert_parse!(
field_list(f_list),
vec![
(make_tok!("foo", 1, 1), make_expr!(1 => int, 1, 7)),
(make_tok!("quux", 2, 1), make_expr!(2 => int, 2, 8)),
]
);
f_list = "foo = 1,\n// comment\nquux = 2;";
assert_parse!(
field_list(f_list),
vec![
(make_tok!("foo", 1, 1), make_expr!(1 => int, 1, 7)),
(make_tok!("quux", 3, 1), make_expr!(2 => int, 3, 8)),
]
);
}
#[test]
fn test_field_value_parse() {
assert_error!(field_value("foo"));
assert_error!(field_value("// comment\nfoo"));
assert_error!(field_value("foo ="));
assert_parse!(
field_value("foo = 1"),
(
make_tok!("foo", 1, 1),
Expression::Simple(Value::Int(value_node!(1, 1, 7)))
)
);
assert_parse!(
field_value("foo = 1 // foo comment\n"),
(
make_tok!("foo", 1, 1),
Expression::Simple(Value::Int(value_node!(1, 1, 7)))
)
);
assert_parse!(
field_value("foo // foo comment\n = 1"),
(
make_tok!("foo", 1, 1),
Expression::Simple(Value::Int(value_node!(1, 2, 4)))
)
);
assert_parse!(
field_value("// foo comment\nfoo = 1"),
(
make_tok!("foo", 2, 1),
Expression::Simple(Value::Int(value_node!(1, 2, 7)))
)
);
assert_parse!(
field_value("foo = \"1\""),
(
make_tok!("foo", 1, 1),
Expression::Simple(Value::String(value_node!("1".to_string(), 1, 7)))
)
);
assert_parse!(
field_value("foo = bar "),
(
make_tok!("foo", 1, 1),
Expression::Simple(Value::Selector(make_selector!(
make_expr!("bar", 1, 7),
1,
7
)))
)
);
assert_parse!(
field_value("foo = bar.baz "),
(
make_tok!("foo", 1, 1),
Expression::Simple(Value::Selector(
make_selector!(make_expr!("bar", 1, 7) => [ make_tok!("baz", 1, 11) ] => 1, 7)
))
)
);
}
#[test]
fn test_number_parsing() {
assert_error!(number("."));
assert_error!(number(". "));
assert_parse!(number("1.0"), Value::Float(value_node!(1.0, 1, 1)));
assert_parse!(number("1."), Value::Float(value_node!(1.0, 1, 1)));
assert_parse!(number("1"), Value::Int(value_node!(1, 1, 1)));
assert_parse!(number(".1"), Value::Float(value_node!(0.1, 1, 1)));
}
#[test]
fn test_parse() {
let bad_input = LocatedSpan::new("import mylib as lib;");
let bad_result = parse(bad_input);
assert!(bad_result.is_err());
// Valid parsing tree
let input = LocatedSpan::new("import \"mylib\" as lib;let foo = 1;1+1;");
let result = parse(input);
assert!(result.is_ok(), format!("Expected Ok, Got {:?}", result));
let tpl = result.unwrap();
assert_eq!(
tpl,
vec![
Statement::Import(ImportDef {
path: make_tok!(QUOT => "mylib", 1, 8),
name: make_tok!("lib", 1, 19),
}),
Statement::Let(LetDef {
name: make_tok!("foo", 1, 27),
value: Expression::Simple(Value::Int(value_node!(1, 1, 33))),
}),
Statement::Expression(Expression::Binary(BinaryOpDef {
kind: BinaryExprType::Add,
left: Value::Int(value_node!(1, 1, 35)),
right: Box::new(Expression::Simple(Value::Int(value_node!(1, 1, 37)))),
pos: Position::new(1, 35),
})),
]
);
}
}