// examples/parse translated by mycpp
#include "mycpp/examples/parse_preamble.h"
// BEGIN mycpp output
#include "mycpp/runtime.h"
GLOBAL_STR(str0, "(");
GLOBAL_STR(str1, ")");
GLOBAL_STR(str2, "_");
GLOBAL_STR(str3, "T");
GLOBAL_STR(str4, "F");
GLOBAL_STR(str5, "\n\n \n Oils AST\n \n \n \n \n");
GLOBAL_STR(str6, "\n
\n \n\n ");
GLOBAL_STR(str7, "n");
GLOBAL_STR(str8, "s");
GLOBAL_STR(str9, "o");
GLOBAL_STR(str10, "o");
GLOBAL_STR(str11, "o");
GLOBAL_STR(str12, "");
GLOBAL_STR(str13, "");
GLOBAL_STR(str14, " ");
GLOBAL_STR(str15, "\n");
GLOBAL_STR(str16, " ");
GLOBAL_STR(str17, "]");
GLOBAL_STR(str18, " ");
GLOBAL_STR(str19, " ");
GLOBAL_STR(str20, "\n");
GLOBAL_STR(str21, "\n");
GLOBAL_STR(str22, " ");
GLOBAL_STR(str23, "%s%s: [");
GLOBAL_STR(str24, "\n");
GLOBAL_STR(str25, "\n");
GLOBAL_STR(str26, "%s]");
GLOBAL_STR(str27, "%s%s: ");
GLOBAL_STR(str28, "\n");
GLOBAL_STR(str29, "\n");
GLOBAL_STR(str30, " ");
GLOBAL_STR(str31, "UNTYPED any");
GLOBAL_STR(str32, "...0x%s");
GLOBAL_STR(str33, " ");
GLOBAL_STR(str34, " ");
GLOBAL_STR(str35, " %s:");
GLOBAL_STR(str36, "UNTYPED any");
GLOBAL_STR(str37, "[");
GLOBAL_STR(str38, " ");
GLOBAL_STR(str39, "]");
GLOBAL_STR(str40, "...0x%s");
GLOBAL_STR(str41, "foo");
GLOBAL_STR(str42, "\n");
GLOBAL_STR(str43, "\u001b[0;0m");
GLOBAL_STR(str44, "\u001b[1m");
GLOBAL_STR(str45, "\u001b[4m");
GLOBAL_STR(str46, "\u001b[7m");
GLOBAL_STR(str47, "\u001b[31m");
GLOBAL_STR(str48, "\u001b[32m");
GLOBAL_STR(str49, "\u001b[33m");
GLOBAL_STR(str50, "\u001b[34m");
GLOBAL_STR(str51, "\u001b[35m");
GLOBAL_STR(str52, "\u001b[36m");
GLOBAL_STR(str53, "\u001b[37m");
GLOBAL_STR(str54, "\n");
GLOBAL_STR(str55, "");
GLOBAL_STR(str56, "+-");
GLOBAL_STR(str57, "*/");
GLOBAL_STR(str58, "()");
GLOBAL_STR(str59, "");
GLOBAL_STR(str60, "Expected ");
GLOBAL_STR(str61, "(");
GLOBAL_STR(str62, ")");
GLOBAL_STR(str63, "Unexpected token ");
GLOBAL_STR(str64, "abc");
GLOBAL_STR(str65, "tok_val %s");
GLOBAL_STR(str66, "1+2");
GLOBAL_STR(str67, "1+2*3");
GLOBAL_STR(str68, "1*2+3");
GLOBAL_STR(str69, "(1+2)*3");
GLOBAL_STR(str70, "a+b+c+d");
GLOBAL_STR(str71, "a*b*3*4");
GLOBAL_STR(str72, "1");
GLOBAL_STR(str73, "a");
GLOBAL_STR(str74, "(");
GLOBAL_STR(str75, ")");
GLOBAL_STR(str76, "(a+b");
GLOBAL_STR(str77, " ");
GLOBAL_STR(str78, " $$ ");
GLOBAL_STR(str79, "");
GLOBAL_STR(str80, "--");
GLOBAL_STR(str81, "%s =>");
GLOBAL_STR(str82, "Parse error: %s");
GLOBAL_STR(str83, "\n");
GLOBAL_STR(str84, "Const %d");
GLOBAL_STR(str85, "Var %s");
GLOBAL_STR(str86, "Other");
GLOBAL_STR(str87, "c.i %d");
GLOBAL_STR(str88, "v.name %r");
GLOBAL_STR(str89, "b.op %r");
GLOBAL_STR(str90, "+");
GLOBAL_STR(str91, "\n");
GLOBAL_STR(str92, "a*b*3*4");
GLOBAL_STR(str93, "result = %d");
GLOBAL_STR(str94, "iterations = %d");
GLOBAL_STR(str95, "&");
GLOBAL_STR(str96, "&");
GLOBAL_STR(str97, "<");
GLOBAL_STR(str98, "<");
GLOBAL_STR(str99, ">");
GLOBAL_STR(str100, ">");
namespace runtime { // forward declare
class TraversalState;
} // forward declare namespace runtime
namespace format { // forward declare
class ColorOutput;
class TextOutput;
class HtmlOutput;
class AnsiOutput;
class _PrettyPrinter;
} // forward declare namespace format
namespace j8_lite { // forward declare
} // forward declare namespace j8_lite
namespace ansi { // forward declare
} // forward declare namespace ansi
namespace pretty { // forward declare
class PrettyPrinter;
} // forward declare namespace pretty
namespace parse { // forward declare
class Lexer;
class ParseError;
class Parser;
} // forward declare namespace parse
namespace cgi { // forward declare
} // forward declare namespace cgi
namespace runtime { // declare
using hnode_asdl::hnode;
extern int NO_SPID;
hnode::Record* NewRecord(BigStr* node_type);
hnode::Leaf* NewLeaf(BigStr* s, hnode_asdl::color_t e_color);
class TraversalState {
public:
TraversalState();
Dict* seen{};
Dict* ref_count{};
static constexpr ObjHeader obj_header() {
return ObjHeader::ClassScanned(2, sizeof(TraversalState));
}
DISALLOW_COPY_AND_ASSIGN(TraversalState)
};
extern BigStr* TRUE_STR;
extern BigStr* FALSE_STR;
} // declare namespace runtime
namespace format { // declare
using hnode_asdl::hnode;
format::ColorOutput* DetectConsoleOutput(mylib::Writer* f);
class ColorOutput {
public:
ColorOutput(mylib::Writer* f);
virtual format::ColorOutput* NewTempBuffer();
virtual void FileHeader();
virtual void FileFooter();
virtual void PushColor(hnode_asdl::color_t e_color);
virtual void PopColor();
virtual void write(BigStr* s);
void WriteRaw(Tuple2* raw);
int NumChars();
Tuple2 GetRaw();
mylib::Writer* f{};
int num_chars{};
static constexpr uint32_t field_mask() {
return maskbit(offsetof(ColorOutput, f));
}
static constexpr ObjHeader obj_header() {
return ObjHeader::ClassFixed(field_mask(), sizeof(ColorOutput));
}
DISALLOW_COPY_AND_ASSIGN(ColorOutput)
};
class TextOutput : public ::format::ColorOutput {
public:
TextOutput(mylib::Writer* f);
virtual format::TextOutput* NewTempBuffer();
virtual void PushColor(hnode_asdl::color_t e_color);
virtual void PopColor();
static constexpr uint32_t field_mask() {
return ::format::ColorOutput::field_mask();
}
static constexpr ObjHeader obj_header() {
return ObjHeader::ClassFixed(field_mask(), sizeof(TextOutput));
}
DISALLOW_COPY_AND_ASSIGN(TextOutput)
};
class HtmlOutput : public ::format::ColorOutput {
public:
HtmlOutput(mylib::Writer* f);
virtual format::HtmlOutput* NewTempBuffer();
virtual void FileHeader();
virtual void FileFooter();
virtual void PushColor(hnode_asdl::color_t e_color);
virtual void PopColor();
virtual void write(BigStr* s);
static constexpr uint32_t field_mask() {
return ::format::ColorOutput::field_mask();
}
static constexpr ObjHeader obj_header() {
return ObjHeader::ClassFixed(field_mask(), sizeof(HtmlOutput));
}
DISALLOW_COPY_AND_ASSIGN(HtmlOutput)
};
class AnsiOutput : public ::format::ColorOutput {
public:
AnsiOutput(mylib::Writer* f);
virtual format::AnsiOutput* NewTempBuffer();
virtual void PushColor(hnode_asdl::color_t e_color);
virtual void PopColor();
static constexpr uint32_t field_mask() {
return ::format::ColorOutput::field_mask();
}
static constexpr ObjHeader obj_header() {
return ObjHeader::ClassFixed(field_mask(), sizeof(AnsiOutput));
}
DISALLOW_COPY_AND_ASSIGN(AnsiOutput)
};
extern int INDENT;
class _PrettyPrinter {
public:
_PrettyPrinter(int max_col);
bool _PrintWrappedArray(List* array, int prefix_len, format::ColorOutput* f, int indent);
bool _PrintWholeArray(List* array, int prefix_len, format::ColorOutput* f, int indent);
void _PrintRecord(hnode::Record* node, format::ColorOutput* f, int indent);
void PrintNode(hnode_asdl::hnode_t* node, format::ColorOutput* f, int indent);
int max_col{};
static constexpr ObjHeader obj_header() {
return ObjHeader::ClassScanned(0, sizeof(_PrettyPrinter));
}
DISALLOW_COPY_AND_ASSIGN(_PrettyPrinter)
};
bool _TrySingleLineObj(hnode::Record* node, format::ColorOutput* f, int max_chars);
bool _TrySingleLine(hnode_asdl::hnode_t* node, format::ColorOutput* f, int max_chars);
void PrintTree(hnode_asdl::hnode_t* node, format::ColorOutput* f);
void PrintTree2(hnode_asdl::hnode_t* node, format::ColorOutput* f);
} // declare namespace format
namespace j8_lite { // declare
BigStr* EncodeString(BigStr* s, bool unquoted_ok = false);
BigStr* YshEncodeString(BigStr* s);
BigStr* MaybeShellEncode(BigStr* s);
BigStr* ShellEncode(BigStr* s);
BigStr* YshEncode(BigStr* s, bool unquoted_ok = false);
} // declare namespace j8_lite
namespace ansi { // declare
extern BigStr* RESET;
extern BigStr* BOLD;
extern BigStr* UNDERLINE;
extern BigStr* REVERSE;
extern BigStr* RED;
extern BigStr* GREEN;
extern BigStr* YELLOW;
extern BigStr* BLUE;
extern BigStr* MAGENTA;
extern BigStr* CYAN;
extern BigStr* WHITE;
} // declare namespace ansi
namespace pretty { // declare
pretty_asdl::Measure* _EmptyMeasure();
pretty_asdl::Measure* _FlattenMeasure(pretty_asdl::Measure* measure);
pretty_asdl::Measure* _ConcatMeasure(pretty_asdl::Measure* m1, pretty_asdl::Measure* m2);
int _SuffixLen(pretty_asdl::Measure* measure);
pretty_asdl::MeasuredDoc* AsciiText(BigStr* string);
pretty_asdl::MeasuredDoc* _Break(BigStr* string);
pretty_asdl::MeasuredDoc* _Indent(int indent, pretty_asdl::MeasuredDoc* mdoc);
pretty_asdl::MeasuredDoc* _Concat(List* mdocs);
pretty_asdl::MeasuredDoc* _Group(pretty_asdl::MeasuredDoc* mdoc);
pretty_asdl::MeasuredDoc* _IfFlat(pretty_asdl::MeasuredDoc* flat_mdoc, pretty_asdl::MeasuredDoc* nonflat_mdoc);
pretty_asdl::MeasuredDoc* _Flat(pretty_asdl::MeasuredDoc* mdoc);
class PrettyPrinter {
public:
PrettyPrinter(int max_width);
bool _Fits(int prefix_len, doc::Group* group, pretty_asdl::Measure* suffix_measure);
void PrintDoc(pretty_asdl::MeasuredDoc* document, mylib::BufWriter* buf);
int max_width{};
static constexpr ObjHeader obj_header() {
return ObjHeader::ClassScanned(0, sizeof(PrettyPrinter));
}
DISALLOW_COPY_AND_ASSIGN(PrettyPrinter)
};
} // declare namespace pretty
namespace parse { // declare
class Lexer {
public:
Lexer(BigStr* s);
Tuple2 Read();
void _MethodCallingOtherMethod();
BigStr* s{};
int i{};
int n{};
static constexpr ObjHeader obj_header() {
return ObjHeader::ClassScanned(1, sizeof(Lexer));
}
DISALLOW_COPY_AND_ASSIGN(Lexer)
};
class ParseError {
public:
ParseError(BigStr* msg);
BigStr* msg{};
static constexpr ObjHeader obj_header() {
return ObjHeader::ClassScanned(1, sizeof(ParseError));
}
DISALLOW_COPY_AND_ASSIGN(ParseError)
};
class Parser {
public:
Parser(parse::Lexer* lexer);
void Next();
void Eat(BigStr* tok_val);
expr_asdl::expr_t* ParseFactor();
expr_asdl::expr_t* ParseTerm();
expr_asdl::expr_t* ParseExpr();
expr_asdl::expr_t* Parse();
parse::Lexer* lexer{};
BigStr* tok_val{};
expr_asdl::tok_t tok_type{};
static constexpr ObjHeader obj_header() {
return ObjHeader::ClassScanned(2, sizeof(Parser));
}
DISALLOW_COPY_AND_ASSIGN(Parser)
};
void TestParse();
void TestCreateNull();
void run_tests();
void run_benchmarks();
} // declare namespace parse
namespace cgi { // declare
BigStr* escape(BigStr* s);
} // declare namespace cgi
namespace runtime { // define
using hnode_asdl::hnode;
using hnode_asdl::color_t;
using hnode_asdl::color_e;
int NO_SPID = -1;
hnode::Record* NewRecord(BigStr* node_type) {
StackRoot _root0(&node_type);
return Alloc(node_type, Alloc>(), false, str0, str1, Alloc>());
}
hnode::Leaf* NewLeaf(BigStr* s, hnode_asdl::color_t e_color) {
StackRoot _root0(&s);
if (s == nullptr) {
return Alloc(str2, color_e::OtherConst);
}
else {
return Alloc(s, e_color);
}
}
TraversalState::TraversalState() {
this->seen = Alloc>();
this->ref_count = Alloc>();
}
BigStr* TRUE_STR = str3;
BigStr* FALSE_STR = str4;
} // define namespace runtime
namespace format { // define
using hnode_asdl::hnode;
using hnode_asdl::hnode_e;
using hnode_asdl::hnode_t;
using hnode_asdl::color_e;
using hnode_asdl::color_t;
format::ColorOutput* DetectConsoleOutput(mylib::Writer* f) {
StackRoot _root0(&f);
if (f->isatty()) {
return Alloc(f);
}
else {
return Alloc(f);
}
}
ColorOutput::ColorOutput(mylib::Writer* f) {
this->f = f;
this->num_chars = 0;
}
format::ColorOutput* ColorOutput::NewTempBuffer() {
FAIL(kNotImplemented); // Python NotImplementedError
}
void ColorOutput::FileHeader() {
; // pass
}
void ColorOutput::FileFooter() {
; // pass
}
void ColorOutput::PushColor(hnode_asdl::color_t e_color) {
FAIL(kNotImplemented); // Python NotImplementedError
}
void ColorOutput::PopColor() {
FAIL(kNotImplemented); // Python NotImplementedError
}
void ColorOutput::write(BigStr* s) {
StackRoot _root0(&s);
this->f->write(s);
this->num_chars += len(s);
}
void ColorOutput::WriteRaw(Tuple2* raw) {
BigStr* s = nullptr;
int num_chars;
StackRoot _root0(&raw);
StackRoot _root1(&s);
Tuple2* tup0 = raw;
s = tup0->at0();
num_chars = tup0->at1();
this->f->write(s);
this->num_chars += num_chars;
}
int ColorOutput::NumChars() {
return this->num_chars;
}
Tuple2 ColorOutput::GetRaw() {
mylib::BufWriter* f = nullptr;
StackRoot _root0(&f);
f = static_cast(this->f);
return Tuple2(f->getvalue(), this->num_chars);
}
TextOutput::TextOutput(mylib::Writer* f) : ::format::ColorOutput(f) {
}
format::TextOutput* TextOutput::NewTempBuffer() {
return Alloc(Alloc());
}
void TextOutput::PushColor(hnode_asdl::color_t e_color) {
; // pass
}
void TextOutput::PopColor() {
; // pass
}
HtmlOutput::HtmlOutput(mylib::Writer* f) : ::format::ColorOutput(f) {
}
format::HtmlOutput* HtmlOutput::NewTempBuffer() {
return Alloc(Alloc());
}
void HtmlOutput::FileHeader() {
this->f->write(str5);
}
void HtmlOutput::FileFooter() {
this->f->write(str6);
}
void HtmlOutput::PushColor(hnode_asdl::color_t e_color) {
BigStr* css_class = nullptr;
StackRoot _root0(&css_class);
if (e_color == color_e::TypeName) {
css_class = str7;
}
else {
if (e_color == color_e::StringConst) {
css_class = str8;
}
else {
if (e_color == color_e::OtherConst) {
css_class = str9;
}
else {
if (e_color == color_e::External) {
css_class = str10;
}
else {
if (e_color == color_e::UserType) {
css_class = str11;
}
else {
assert(0); // AssertionError
}
}
}
}
}
this->f->write(StrFormat("", css_class));
}
void HtmlOutput::PopColor() {
this->f->write(str13);
}
void HtmlOutput::write(BigStr* s) {
StackRoot _root0(&s);
this->f->write(cgi::escape(s));
this->num_chars += len(s);
}
AnsiOutput::AnsiOutput(mylib::Writer* f) : ::format::ColorOutput(f) {
}
format::AnsiOutput* AnsiOutput::NewTempBuffer() {
return Alloc(Alloc());
}
void AnsiOutput::PushColor(hnode_asdl::color_t e_color) {
if (e_color == color_e::TypeName) {
this->f->write(ansi::YELLOW);
}
else {
if (e_color == color_e::StringConst) {
this->f->write(ansi::BOLD);
}
else {
if (e_color == color_e::OtherConst) {
this->f->write(ansi::GREEN);
}
else {
if (e_color == color_e::External) {
this->f->write(str_concat(ansi::BOLD, ansi::BLUE));
}
else {
if (e_color == color_e::UserType) {
this->f->write(ansi::GREEN);
}
else {
assert(0); // AssertionError
}
}
}
}
}
}
void AnsiOutput::PopColor() {
this->f->write(ansi::RESET);
}
int INDENT = 2;
_PrettyPrinter::_PrettyPrinter(int max_col) {
this->max_col = max_col;
}
bool _PrettyPrinter::_PrintWrappedArray(List* array, int prefix_len, format::ColorOutput* f, int indent) {
bool all_fit;
int chars_so_far;
int i;
format::ColorOutput* single_f = nullptr;
BigStr* s = nullptr;
int num_chars;
StackRoot _root0(&array);
StackRoot _root1(&f);
StackRoot _root2(&single_f);
StackRoot _root3(&s);
all_fit = true;
chars_so_far = prefix_len;
i = 0;
for (ListIter it(array); !it.Done(); it.Next(), ++i) {
hnode_asdl::hnode_t* val = it.Value();
StackRoot _for(&val );
if (i != 0) {
f->write(str14);
}
single_f = f->NewTempBuffer();
if (_TrySingleLine(val, single_f, (this->max_col - chars_so_far))) {
Tuple2 tup1 = single_f->GetRaw();
s = tup1.at0();
num_chars = tup1.at1();
f->WriteRaw((Alloc>(s, num_chars)));
chars_so_far += single_f->NumChars();
}
else {
f->write(str15);
this->PrintNode(val, f, (indent + INDENT));
chars_so_far = 0;
all_fit = false;
}
}
return all_fit;
}
bool _PrettyPrinter::_PrintWholeArray(List* array, int prefix_len, format::ColorOutput* f, int indent) {
bool all_fit;
List*>* pieces = nullptr;
int chars_so_far;
format::ColorOutput* single_f = nullptr;
BigStr* s = nullptr;
int num_chars;
int i;
StackRoot _root0(&array);
StackRoot _root1(&f);
StackRoot _root2(&pieces);
StackRoot _root3(&single_f);
StackRoot _root4(&s);
all_fit = true;
pieces = Alloc*>>();
chars_so_far = prefix_len;
for (ListIter it(array); !it.Done(); it.Next()) {
hnode_asdl::hnode_t* item = it.Value();
StackRoot _for(&item );
single_f = f->NewTempBuffer();
if (_TrySingleLine(item, single_f, (this->max_col - chars_so_far))) {
Tuple2 tup2 = single_f->GetRaw();
s = tup2.at0();
num_chars = tup2.at1();
pieces->append((Alloc>(s, num_chars)));
chars_so_far += single_f->NumChars();
}
else {
all_fit = false;
break;
}
}
if (all_fit) {
i = 0;
for (ListIter*> it(pieces); !it.Done(); it.Next(), ++i) {
Tuple2* p = it.Value();
StackRoot _for(&p );
if (i != 0) {
f->write(str16);
}
f->WriteRaw(p);
}
f->write(str17);
}
return all_fit;
}
void _PrettyPrinter::_PrintRecord(hnode::Record* node, format::ColorOutput* f, int indent) {
BigStr* ind = nullptr;
BigStr* prefix = nullptr;
int prefix_len;
bool all_fit;
BigStr* name = nullptr;
hnode_asdl::hnode_t* val = nullptr;
BigStr* ind1 = nullptr;
hnode_asdl::hnode_t* UP_val = nullptr;
int tag;
BigStr* name_str = nullptr;
format::ColorOutput* single_f = nullptr;
BigStr* s = nullptr;
int num_chars;
StackRoot _root0(&node);
StackRoot _root1(&f);
StackRoot _root2(&ind);
StackRoot _root3(&prefix);
StackRoot _root4(&name);
StackRoot _root5(&val);
StackRoot _root6(&ind1);
StackRoot _root7(&UP_val);
StackRoot _root8(&name_str);
StackRoot _root9(&single_f);
StackRoot _root10(&s);
ind = str_repeat(str18, indent);
if (node->abbrev) {
prefix = str_concat(ind, node->left);
f->write(prefix);
if (len(node->node_type)) {
f->PushColor(color_e::TypeName);
f->write(node->node_type);
f->PopColor();
f->write(str19);
}
prefix_len = ((len(prefix) + len(node->node_type)) + 1);
all_fit = this->_PrintWrappedArray(node->unnamed_fields, prefix_len, f, indent);
if (!all_fit) {
f->write(str20);
f->write(ind);
}
f->write(node->right);
}
else {
f->write(str_concat(ind, node->left));
f->PushColor(color_e::TypeName);
f->write(node->node_type);
f->PopColor();
f->write(str21);
for (ListIter it(node->fields); !it.Done(); it.Next()) {
hnode_asdl::Field* field = it.Value();
StackRoot _for(&field );
name = field->name;
val = field->val;
ind1 = str_repeat(str22, (indent + INDENT));
UP_val = val;
tag = val->tag();
if (tag == hnode_e::Array) {
hnode::Array* val = static_cast(UP_val);
name_str = StrFormat("%s%s: [", ind1, name);
f->write(name_str);
prefix_len = len(name_str);
if (!this->_PrintWholeArray(val->children, prefix_len, f, indent)) {
f->write(str24);
for (ListIter it(val->children); !it.Done(); it.Next()) {
hnode_asdl::hnode_t* child = it.Value();
StackRoot _for(&child );
this->PrintNode(child, f, ((indent + INDENT) + INDENT));
f->write(str25);
}
f->write(StrFormat("%s]", ind1));
}
}
else {
name_str = StrFormat("%s%s: ", ind1, name);
f->write(name_str);
prefix_len = len(name_str);
single_f = f->NewTempBuffer();
if (_TrySingleLine(val, single_f, (this->max_col - prefix_len))) {
Tuple2 tup3 = single_f->GetRaw();
s = tup3.at0();
num_chars = tup3.at1();
f->WriteRaw((Alloc>(s, num_chars)));
}
else {
f->write(str28);
this->PrintNode(val, f, ((indent + INDENT) + INDENT));
}
}
f->write(str29);
}
f->write(str_concat(ind, node->right));
}
}
void _PrettyPrinter::PrintNode(hnode_asdl::hnode_t* node, format::ColorOutput* f, int indent) {
BigStr* ind = nullptr;
format::ColorOutput* single_f = nullptr;
BigStr* s = nullptr;
int num_chars;
hnode_asdl::hnode_t* UP_node = nullptr;
int tag;
StackRoot _root0(&node);
StackRoot _root1(&f);
StackRoot _root2(&ind);
StackRoot _root3(&single_f);
StackRoot _root4(&s);
StackRoot _root5(&UP_node);
ind = str_repeat(str30, indent);
single_f = f->NewTempBuffer();
single_f->write(ind);
if (_TrySingleLine(node, single_f, (this->max_col - indent))) {
Tuple2 tup4 = single_f->GetRaw();
s = tup4.at0();
num_chars = tup4.at1();
f->WriteRaw((Alloc>(s, num_chars)));
return ;
}
UP_node = node;
tag = node->tag();
if (tag == hnode_e::Leaf) {
hnode::Leaf* node = static_cast(UP_node);
f->PushColor(node->color);
f->write(j8_lite::EncodeString(node->s, true));
f->PopColor();
}
else {
if (tag == hnode_e::External) {
hnode::External* node = static_cast(UP_node);
f->PushColor(color_e::External);
// if not PYTHON
{
f->write(str31);
}
// endif MYCPP
f->PopColor();
}
else {
if (tag == hnode_e::Record) {
hnode::Record* node = static_cast(UP_node);
this->_PrintRecord(node, f, indent);
}
else {
if (tag == hnode_e::AlreadySeen) {
hnode::AlreadySeen* node = static_cast(UP_node);
f->write(StrFormat("...0x%s", mylib::hex_lower(node->heap_id)));
}
else {
assert(0); // AssertionError
}
}
}
}
}
bool _TrySingleLineObj(hnode::Record* node, format::ColorOutput* f, int max_chars) {
int i;
StackRoot _root0(&node);
StackRoot _root1(&f);
f->write(node->left);
if (node->abbrev) {
if (len(node->node_type)) {
f->PushColor(color_e::TypeName);
f->write(node->node_type);
f->PopColor();
f->write(str33);
}
i = 0;
for (ListIter it(node->unnamed_fields); !it.Done(); it.Next(), ++i) {
hnode_asdl::hnode_t* val = it.Value();
StackRoot _for(&val );
if (i != 0) {
f->write(str34);
}
if (!_TrySingleLine(val, f, max_chars)) {
return false;
}
}
}
else {
f->PushColor(color_e::TypeName);
f->write(node->node_type);
f->PopColor();
for (ListIter it(node->fields); !it.Done(); it.Next()) {
hnode_asdl::Field* field = it.Value();
StackRoot _for(&field );
f->write(StrFormat(" %s:", field->name));
if (!_TrySingleLine(field->val, f, max_chars)) {
return false;
}
}
}
f->write(node->right);
return true;
}
bool _TrySingleLine(hnode_asdl::hnode_t* node, format::ColorOutput* f, int max_chars) {
hnode_asdl::hnode_t* UP_node = nullptr;
int tag;
int i;
int num_chars_so_far;
StackRoot _root0(&node);
StackRoot _root1(&f);
StackRoot _root2(&UP_node);
UP_node = node;
tag = node->tag();
if (tag == hnode_e::Leaf) {
hnode::Leaf* node = static_cast(UP_node);
f->PushColor(node->color);
f->write(j8_lite::EncodeString(node->s, true));
f->PopColor();
}
else {
if (tag == hnode_e::External) {
hnode::External* node = static_cast(UP_node);
f->PushColor(color_e::External);
// if not PYTHON
{
f->write(str36);
}
// endif MYCPP
f->PopColor();
}
else {
if (tag == hnode_e::Array) {
hnode::Array* node = static_cast(UP_node);
f->write(str37);
i = 0;
for (ListIter it(node->children); !it.Done(); it.Next(), ++i) {
hnode_asdl::hnode_t* item = it.Value();
StackRoot _for(&item );
if (i != 0) {
f->write(str38);
}
if (!_TrySingleLine(item, f, max_chars)) {
return false;
}
}
f->write(str39);
}
else {
if (tag == hnode_e::Record) {
hnode::Record* node = static_cast(UP_node);
return _TrySingleLineObj(node, f, max_chars);
}
else {
if (tag == hnode_e::AlreadySeen) {
hnode::AlreadySeen* node = static_cast(UP_node);
f->write(StrFormat("...0x%s", mylib::hex_lower(node->heap_id)));
}
else {
assert(0); // AssertionError
}
}
}
}
}
num_chars_so_far = f->NumChars();
if (num_chars_so_far > max_chars) {
return false;
}
return true;
}
void PrintTree(hnode_asdl::hnode_t* node, format::ColorOutput* f) {
format::_PrettyPrinter* pp = nullptr;
StackRoot _root0(&node);
StackRoot _root1(&f);
StackRoot _root2(&pp);
pp = Alloc<_PrettyPrinter>(100);
pp->PrintNode(node, f, 0);
}
void PrintTree2(hnode_asdl::hnode_t* node, format::ColorOutput* f) {
pretty_asdl::MeasuredDoc* doc = nullptr;
pretty::PrettyPrinter* printer = nullptr;
mylib::BufWriter* buf = nullptr;
StackRoot _root0(&node);
StackRoot _root1(&f);
StackRoot _root2(&doc);
StackRoot _root3(&printer);
StackRoot _root4(&buf);
doc = pretty::AsciiText(str41);
printer = Alloc(20);
buf = Alloc();
printer->PrintDoc(doc, buf);
f->write(buf->getvalue());
f->write(str42);
}
} // define namespace format
namespace j8_lite { // define
BigStr* EncodeString(BigStr* s, bool unquoted_ok) {
StackRoot _root0(&s);
if ((unquoted_ok and fastfunc::CanOmitQuotes(s))) {
return s;
}
return fastfunc::J8EncodeString(s, 1);
}
BigStr* YshEncodeString(BigStr* s) {
StackRoot _root0(&s);
return fastfunc::ShellEncodeString(s, 1);
}
BigStr* MaybeShellEncode(BigStr* s) {
StackRoot _root0(&s);
if (fastfunc::CanOmitQuotes(s)) {
return s;
}
return fastfunc::ShellEncodeString(s, 0);
}
BigStr* ShellEncode(BigStr* s) {
StackRoot _root0(&s);
return fastfunc::ShellEncodeString(s, 0);
}
BigStr* YshEncode(BigStr* s, bool unquoted_ok) {
StackRoot _root0(&s);
if ((unquoted_ok and fastfunc::CanOmitQuotes(s))) {
return s;
}
return fastfunc::ShellEncodeString(s, 1);
}
} // define namespace j8_lite
namespace ansi { // define
BigStr* RESET = str43;
BigStr* BOLD = str44;
BigStr* UNDERLINE = str45;
BigStr* REVERSE = str46;
BigStr* RED = str47;
BigStr* GREEN = str48;
BigStr* YELLOW = str49;
BigStr* BLUE = str50;
BigStr* MAGENTA = str51;
BigStr* CYAN = str52;
BigStr* WHITE = str53;
} // define namespace ansi
namespace pretty { // define
using pretty_asdl::doc;
using pretty_asdl::doc_e;
using pretty_asdl::DocFragment;
using pretty_asdl::Measure;
using pretty_asdl::MeasuredDoc;
using mylib::BufWriter;
pretty_asdl::Measure* _EmptyMeasure() {
return Alloc(0, -1);
}
pretty_asdl::Measure* _FlattenMeasure(pretty_asdl::Measure* measure) {
StackRoot _root0(&measure);
return Alloc(measure->flat, -1);
}
pretty_asdl::Measure* _ConcatMeasure(pretty_asdl::Measure* m1, pretty_asdl::Measure* m2) {
StackRoot _root0(&m1);
StackRoot _root1(&m2);
if (m1->nonflat != -1) {
return Alloc((m1->flat + m2->flat), m1->nonflat);
}
else {
if (m2->nonflat != -1) {
return Alloc((m1->flat + m2->flat), (m1->flat + m2->nonflat));
}
else {
return Alloc((m1->flat + m2->flat), -1);
}
}
}
int _SuffixLen(pretty_asdl::Measure* measure) {
StackRoot _root0(&measure);
if (measure->nonflat != -1) {
return measure->nonflat;
}
else {
return measure->flat;
}
}
pretty_asdl::MeasuredDoc* AsciiText(BigStr* string) {
StackRoot _root0(&string);
return Alloc(Alloc(string), Alloc(len(string), -1));
}
pretty_asdl::MeasuredDoc* _Break(BigStr* string) {
StackRoot _root0(&string);
return Alloc(Alloc(string), Alloc(len(string), 0));
}
pretty_asdl::MeasuredDoc* _Indent(int indent, pretty_asdl::MeasuredDoc* mdoc) {
StackRoot _root0(&mdoc);
return Alloc(Alloc(indent, mdoc), mdoc->measure);
}
pretty_asdl::MeasuredDoc* _Concat(List* mdocs) {
pretty_asdl::Measure* measure = nullptr;
StackRoot _root0(&mdocs);
StackRoot _root1(&measure);
measure = _EmptyMeasure();
for (ListIter it(mdocs); !it.Done(); it.Next()) {
pretty_asdl::MeasuredDoc* mdoc = it.Value();
StackRoot _for(&mdoc );
measure = _ConcatMeasure(measure, mdoc->measure);
}
return Alloc(Alloc(mdocs), measure);
}
pretty_asdl::MeasuredDoc* _Group(pretty_asdl::MeasuredDoc* mdoc) {
StackRoot _root0(&mdoc);
return Alloc(Alloc(mdoc), mdoc->measure);
}
pretty_asdl::MeasuredDoc* _IfFlat(pretty_asdl::MeasuredDoc* flat_mdoc, pretty_asdl::MeasuredDoc* nonflat_mdoc) {
StackRoot _root0(&flat_mdoc);
StackRoot _root1(&nonflat_mdoc);
return Alloc(Alloc(flat_mdoc, nonflat_mdoc), Alloc(flat_mdoc->measure->flat, nonflat_mdoc->measure->nonflat));
}
pretty_asdl::MeasuredDoc* _Flat(pretty_asdl::MeasuredDoc* mdoc) {
StackRoot _root0(&mdoc);
return Alloc(Alloc(mdoc), _FlattenMeasure(mdoc->measure));
}
PrettyPrinter::PrettyPrinter(int max_width) {
this->max_width = max_width;
}
bool PrettyPrinter::_Fits(int prefix_len, doc::Group* group, pretty_asdl::Measure* suffix_measure) {
pretty_asdl::Measure* measure = nullptr;
StackRoot _root0(&group);
StackRoot _root1(&suffix_measure);
StackRoot _root2(&measure);
measure = _ConcatMeasure(_FlattenMeasure(group->mdoc->measure), suffix_measure);
return (prefix_len + _SuffixLen(measure)) <= this->max_width;
}
void PrettyPrinter::PrintDoc(pretty_asdl::MeasuredDoc* document, mylib::BufWriter* buf) {
int prefix_len;
List* fragments = nullptr;
pretty_asdl::DocFragment* frag = nullptr;
doc::Text* text = nullptr;
BigStr* break_str = nullptr;
doc::Indent* indented = nullptr;
doc::Concat* concat = nullptr;
pretty_asdl::Measure* measure = nullptr;
doc::Group* group = nullptr;
bool flat;
doc::IfFlat* if_flat = nullptr;
pretty_asdl::MeasuredDoc* subdoc = nullptr;
doc::Flat* flat_doc = nullptr;
StackRoot _root0(&document);
StackRoot _root1(&buf);
StackRoot _root2(&fragments);
StackRoot _root3(&frag);
StackRoot _root4(&text);
StackRoot _root5(&break_str);
StackRoot _root6(&indented);
StackRoot _root7(&concat);
StackRoot _root8(&measure);
StackRoot _root9(&group);
StackRoot _root10(&if_flat);
StackRoot _root11(&subdoc);
StackRoot _root12(&flat_doc);
prefix_len = 0;
fragments = NewList(std::initializer_list{Alloc(_Group(document), 0, false, _EmptyMeasure())});
while (len(fragments) > 0) {
frag = fragments->pop();
switch (frag->mdoc->doc->tag()) {
case doc_e::Text: {
text = static_cast(frag->mdoc->doc);
buf->write(text->string);
prefix_len += frag->mdoc->measure->flat;
}
break;
case doc_e::Break: {
if (frag->is_flat) {
break_str = static_cast(frag->mdoc->doc)->string;
buf->write(break_str);
prefix_len += frag->mdoc->measure->flat;
}
else {
buf->write(str54);
buf->write_spaces(frag->indent);
prefix_len = frag->indent;
}
}
break;
case doc_e::Indent: {
indented = static_cast(frag->mdoc->doc);
fragments->append(Alloc(indented->mdoc, (frag->indent + indented->indent), frag->is_flat, frag->measure));
}
break;
case doc_e::Concat: {
concat = static_cast(frag->mdoc->doc);
measure = frag->measure;
for (ReverseListIter it(concat->mdocs); !it.Done(); it.Next()) {
pretty_asdl::MeasuredDoc* mdoc = it.Value();
StackRoot _for(&mdoc );
fragments->append(Alloc(mdoc, frag->indent, frag->is_flat, measure));
measure = _ConcatMeasure(mdoc->measure, measure);
}
}
break;
case doc_e::Group: {
group = static_cast(frag->mdoc->doc);
flat = this->_Fits(prefix_len, group, frag->measure);
fragments->append(Alloc(group->mdoc, frag->indent, flat, frag->measure));
}
break;
case doc_e::IfFlat: {
if_flat = static_cast(frag->mdoc->doc);
if (frag->is_flat) {
subdoc = if_flat->flat_mdoc;
}
else {
subdoc = if_flat->nonflat_mdoc;
}
fragments->append(Alloc(subdoc, frag->indent, frag->is_flat, frag->measure));
}
break;
case doc_e::Flat: {
flat_doc = static_cast(frag->mdoc->doc);
fragments->append(Alloc(flat_doc->mdoc, frag->indent, true, frag->measure));
}
break;
}
}
}
} // define namespace pretty
namespace parse { // define
using expr_asdl::expr;
using expr_asdl::expr_e;
using expr_asdl::expr_t;
using expr_asdl::tok_e;
using expr_asdl::tok_t;
namespace fmt = format;
Lexer::Lexer(BigStr* s) {
this->s = s;
this->i = 0;
this->n = len(s);
}
Tuple2 Lexer::Read() {
BigStr* tok = nullptr;
StackRoot _root0(&tok);
if (this->i >= this->n) {
return Tuple2(tok_e::Eof, str55);
}
tok = this->s->at(this->i);
this->i += 1;
if (tok->isdigit()) {
return Tuple2(tok_e::Const, tok);
}
if (tok->isalpha()) {
return Tuple2(tok_e::Var, tok);
}
if (str_contains(str56, tok)) {
return Tuple2(tok_e::Op1, tok);
}
if (str_contains(str57, tok)) {
return Tuple2(tok_e::Op2, tok);
}
if (str_contains(str58, tok)) {
return Tuple2(tok_e::Paren, tok);
}
return Tuple2(tok_e::Invalid, tok);
}
void Lexer::_MethodCallingOtherMethod() {
this->Read();
}
ParseError::ParseError(BigStr* msg) {
this->msg = msg;
}
Parser::Parser(parse::Lexer* lexer) {
this->lexer = lexer;
this->tok_type = tok_e::Eof;
this->tok_val = str59;
}
void Parser::Next() {
Tuple2 tup0 = this->lexer->Read();
this->tok_type = tup0.at0();
this->tok_val = tup0.at1();
}
void Parser::Eat(BigStr* tok_val) {
StackRoot _root0(&tok_val);
if (!(str_equals(this->tok_val, tok_val))) {
throw Alloc(str_concat(str60, tok_val));
}
this->Next();
}
expr_asdl::expr_t* Parser::ParseFactor() {
expr::Var* n1 = nullptr;
expr::Const* n2 = nullptr;
expr_asdl::expr_t* n3 = nullptr;
StackRoot _root0(&n1);
StackRoot _root1(&n2);
StackRoot _root2(&n3);
if (this->tok_type == tok_e::Var) {
n1 = Alloc(this->tok_val);
this->Next();
return n1;
}
if (this->tok_type == tok_e::Const) {
n2 = Alloc(to_int(this->tok_val));
this->Next();
return n2;
}
if (this->tok_type == tok_e::Paren) {
this->Eat(str61);
n3 = this->ParseExpr();
this->Eat(str62);
return n3;
}
throw Alloc(str_concat(str63, this->tok_val));
}
expr_asdl::expr_t* Parser::ParseTerm() {
expr_asdl::expr_t* node = nullptr;
BigStr* op = nullptr;
expr_asdl::expr_t* n2 = nullptr;
StackRoot _root0(&node);
StackRoot _root1(&op);
StackRoot _root2(&n2);
node = this->ParseFactor();
while (this->tok_type == tok_e::Op2) {
op = this->tok_val;
this->Next();
n2 = this->ParseFactor();
node = Alloc(op, node, n2);
}
return node;
}
expr_asdl::expr_t* Parser::ParseExpr() {
expr_asdl::expr_t* node = nullptr;
BigStr* op = nullptr;
expr_asdl::expr_t* n2 = nullptr;
StackRoot _root0(&node);
StackRoot _root1(&op);
StackRoot _root2(&n2);
node = this->ParseTerm();
while (this->tok_type == tok_e::Op1) {
op = this->tok_val;
this->Next();
n2 = this->ParseTerm();
node = Alloc(op, node, n2);
}
return node;
}
expr_asdl::expr_t* Parser::Parse() {
this->Next();
return this->ParseExpr();
}
void TestParse() {
parse::Lexer* lex = nullptr;
expr_asdl::tok_t tok_type;
BigStr* tok_val = nullptr;
List* CASES = nullptr;
parse::Parser* p = nullptr;
expr_asdl::expr_t* node = nullptr;
hnode_asdl::hnode_t* htree = nullptr;
format::AnsiOutput* ast_f = nullptr;
expr_asdl::expr_t* UP_node = nullptr;
StackRoot _root0(&lex);
StackRoot _root1(&tok_val);
StackRoot _root2(&CASES);
StackRoot _root3(&p);
StackRoot _root4(&node);
StackRoot _root5(&htree);
StackRoot _root6(&ast_f);
StackRoot _root7(&UP_node);
lex = Alloc(str64);
while (true) {
Tuple2 tup1 = lex->Read();
tok_type = tup1.at0();
tok_val = tup1.at1();
if (tok_type == tok_e::Eof) {
break;
}
mylib::print_stderr(StrFormat("tok_val %s", tok_val));
}
CASES = NewList(std::initializer_list{str66, str67, str68, str69, str70, str71, str72, str73, str74, str75, str76, str77, str78});
for (ListIter it(CASES); !it.Done(); it.Next()) {
BigStr* expr_ = it.Value();
StackRoot _for(&expr_ );
lex = Alloc(expr_);
p = Alloc(lex);
mylib::print_stderr(str79);
mylib::print_stderr(str80);
mylib::print_stderr(StrFormat("%s =>", expr_));
node = nullptr;
try {
node = p->Parse();
}
catch (ParseError* e) {
mylib::print_stderr(StrFormat("Parse error: %s", e->msg));
continue;
}
htree = node->PrettyTree();
ast_f = Alloc(mylib::Stdout());
fmt::PrintTree(htree, ast_f);
ast_f->write(str83);
UP_node = node;
switch (UP_node->tag()) {
case expr_e::Const: {
expr::Const* node = static_cast(UP_node);
mylib::print_stderr(StrFormat("Const %d", node->i));
}
break;
case expr_e::Var: {
expr::Var* node = static_cast(UP_node);
mylib::print_stderr(StrFormat("Var %s", node->name));
}
break;
default: {
mylib::print_stderr(str86);
}
}
}
}
void TestCreateNull() {
expr::Const* c = nullptr;
expr::Var* v = nullptr;
expr::Binary* b = nullptr;
hnode_asdl::hnode_t* htree = nullptr;
format::AnsiOutput* ast_f = nullptr;
StackRoot _root0(&c);
StackRoot _root1(&v);
StackRoot _root2(&b);
StackRoot _root3(&htree);
StackRoot _root4(&ast_f);
c = expr::Const::CreateNull(true);
mylib::print_stderr(StrFormat("c.i %d", c->i));
v = expr::Var::CreateNull(true);
mylib::print_stderr(StrFormat("v.name %r", v->name));
b = expr::Binary::CreateNull(true);
mylib::print_stderr(StrFormat("b.op %r", b->op));
b->op = str90;
b->left = c;
b->right = v;
htree = b->PrettyTree();
ast_f = Alloc(mylib::Stdout());
fmt::PrintTree(htree, ast_f);
ast_f->write(str91);
}
void run_tests() {
TestParse();
TestCreateNull();
}
void run_benchmarks() {
int n;
int result;
int i;
parse::Lexer* lex = nullptr;
parse::Parser* p = nullptr;
expr_asdl::expr_t* tree = nullptr;
StackRoot _root0(&lex);
StackRoot _root1(&p);
StackRoot _root2(&tree);
n = 100000;
result = 0;
i = 0;
while (i < n) {
lex = Alloc(str92);
p = Alloc(lex);
tree = p->Parse();
i += 1;
mylib::MaybeCollect();
}
mylib::print_stderr(StrFormat("result = %d", result));
mylib::print_stderr(StrFormat("iterations = %d", n));
}
} // define namespace parse
namespace cgi { // define
BigStr* escape(BigStr* s) {
StackRoot _root0(&s);
s = s->replace(str95, str96);
s = s->replace(str97, str98);
s = s->replace(str99, str100);
return s;
}
} // define namespace cgi
int main(int argc, char **argv) {
gHeap.Init();
char* b = getenv("BENCHMARK");
if (b && strlen(b)) { // match Python's logic
fprintf(stderr, "Benchmarking...\n");
parse::run_benchmarks();
} else {
parse::run_tests();
}
gHeap.CleanProcessExit();
}