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opennurbs/opennurbs_textlog.cpp
Bozo the Builder 7ab15c3169 Sync changes from upstream repository
2024-02-15 08:00:36 -08:00

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//
// Copyright (c) 1993-2022 Robert McNeel & Associates. All rights reserved.
// OpenNURBS, Rhinoceros, and Rhino3D are registered trademarks of Robert
// McNeel & Associates.
//
// THIS SOFTWARE IS PROVIDED "AS IS" WITHOUT EXPRESS OR IMPLIED WARRANTY.
// ALL IMPLIED WARRANTIES OF FITNESS FOR ANY PARTICULAR PURPOSE AND OF
// MERCHANTABILITY ARE HEREBY DISCLAIMED.
//
// For complete openNURBS copyright information see <http://www.opennurbs.org>.
//
////////////////////////////////////////////////////////////////
#include "opennurbs.h"
#if !defined(ON_COMPILING_OPENNURBS)
// This check is included in all opennurbs source .c and .cpp files to insure
// ON_COMPILING_OPENNURBS is defined when opennurbs source is compiled.
// When opennurbs source is being compiled, ON_COMPILING_OPENNURBS is defined
// and the opennurbs .h files alter what is declared and how it is declared.
#error ON_COMPILING_OPENNURBS must be defined when compiling opennurbs
#endif
//////////////////////////////////////////////////////////////////////////////
ON_TextLogIndent::ON_TextLogIndent(ON_TextLog& text_log)
: m_text_log(text_log)
, m_bEnabled(true)
{
m_text_log.PushIndent();
}
ON_TextLogIndent::ON_TextLogIndent(ON_TextLog& text_log, bool bEnable)
: m_text_log(text_log)
, m_bEnabled(bEnable)
{
if ( m_bEnabled )
m_text_log.PushIndent();
}
ON_TextLogIndent::~ON_TextLogIndent()
{
if ( m_bEnabled )
m_text_log.PopIndent();
}
ON_TextLogLevelOfDetail::ON_TextLogLevelOfDetail(
class ON_TextLog& text_log,
ON_TextLog::LevelOfDetail level_of_detail
)
: m_text_log(text_log)
, m_saved_level_of_detail(text_log.GetLevelOfDetail())
{
m_text_log.SetLevelOfDetail(level_of_detail);
}
ON_TextLogLevelOfDetail::ON_TextLogLevelOfDetail(
class ON_TextLog& text_log,
int delta_lod
)
: m_text_log(text_log)
, m_saved_level_of_detail(text_log.GetLevelOfDetail())
{
const int new_lod = ((int)static_cast<unsigned>(m_saved_level_of_detail)) + delta_lod;
if (new_lod <= 0)
m_text_log.SetLevelOfDetail(ON_TextLog::LevelOfDetail::Minimum);
else if (((unsigned)new_lod) >= static_cast<unsigned>(ON_TextLog::LevelOfDetail::Maximum))
m_text_log.SetLevelOfDetail(ON_TextLog::LevelOfDetail::Maximum);
else
m_text_log.SetLevelOfDetail(ON_TextLog::LevelOfDetailFromUnsigned((unsigned)new_lod));
}
ON_TextLogLevelOfDetail::~ON_TextLogLevelOfDetail()
{
m_text_log.SetLevelOfDetail(m_saved_level_of_detail);
}
ON_TextLog::LevelOfDetail ON_TextLogLevelOfDetail::SavedLevelOfDetail() const
{
return m_saved_level_of_detail;
}
//////////////////////////////////////////////////////////////////////////////
ON_TextLog::ON_TextLog()
{
SetFloatFormat("%g");
SetDoubleFormat("%.17g");
}
ON_TextLog::ON_TextLog( FILE* pFile )
: m_pFile(pFile)
, m_bNullTextLog(((ON__UINT_PTR)pFile) <= ON_PTR_SEMAPHORE_MAX)
{
if (m_bNullTextLog)
{
m_pFile = nullptr;
}
SetFloatFormat("%g");
SetDoubleFormat("%.17g");
}
ON_TextLog::ON_TextLog( ON_wString& wstr )
: m_pString(&wstr)
, m_bNullTextLog(((ON__UINT_PTR)&wstr) <= ON_PTR_SEMAPHORE_MAX)
{
if (m_bNullTextLog)
{
m_pString = nullptr;
}
SetFloatFormat("%g");
SetDoubleFormat("%.17g");
}
ON_TextLog::~ON_TextLog()
{
}
ON_TextLog::LevelOfDetail ON_TextLog::LevelOfDetailFromUnsigned(
unsigned int level_of_detail
)
{
switch (level_of_detail)
{
ON_ENUM_FROM_UNSIGNED_CASE(ON_TextLog::LevelOfDetail::Minimum);
ON_ENUM_FROM_UNSIGNED_CASE(ON_TextLog::LevelOfDetail::Medium);
ON_ENUM_FROM_UNSIGNED_CASE(ON_TextLog::LevelOfDetail::Maximum);
}
ON_ERROR("Invalid level_of_detail parameter value");
return (ON_TextLog::LevelOfDetail::Medium);
}
void ON_TextLog::SetLevelOfDetail(ON_TextLog::LevelOfDetail level_of_detail)
{
if (false == IsNull() && false == IsTextHash())
{
if (level_of_detail == ON_TextLog::LevelOfDetailFromUnsigned(static_cast<unsigned int>(level_of_detail)))
m_level_of_detail = level_of_detail;
}
}
ON_TextLog::LevelOfDetail ON_TextLog::GetLevelOfDetail() const
{
return m_level_of_detail;
}
ON_TextLog::LevelOfDetail ON_TextLog::IncreaseLevelOfDetail()
{
ON_TextLog::LevelOfDetail prev_lod = m_level_of_detail;
if (prev_lod < ON_TextLog::LevelOfDetail::Maximum)
SetLevelOfDetail(ON_TextLog::LevelOfDetailFromUnsigned(static_cast<unsigned>(prev_lod) + 1u));
return prev_lod;
}
ON_TextLog::LevelOfDetail ON_TextLog::DecreaseLevelOfDetail()
{
ON_TextLog::LevelOfDetail prev_lod = m_level_of_detail;
if (prev_lod > ON_TextLog::LevelOfDetail::Minimum)
SetLevelOfDetail(ON_TextLog::LevelOfDetailFromUnsigned(static_cast<unsigned>(prev_lod) - 1u));
return prev_lod;
}
bool ON_TextLog::LevelOfDetailIsAtLeast(ON_TextLog::LevelOfDetail level_of_detail)
{
return static_cast<unsigned int>(m_level_of_detail) >= static_cast<unsigned int>(level_of_detail);
}
void ON_TextLog::SetColorFormat(ON_Color::TextFormat color_format)
{
if (ON_Color::TextFormat::Unset == color_format)
ClearColorFormat();
else
m_color_format = (color_format);
}
ON_Color::TextFormat ON_TextLog::GetColorFormat()
{
return m_color_format;
}
void ON_TextLog::ClearColorFormat()
{
m_color_format = ON_Color::TextFormat::DecimalRGBa;
}
void ON_TextLog::SetDoubleFormat(const char* sFormat)
{
m_double_format = sFormat;
m_double2_format = m_double_format + ", " + m_double_format;
m_double3_format = m_double2_format + ", " + m_double_format;
m_double4_format = m_double3_format + ", " + m_double_format;
}
void ON_TextLog::GetDoubleFormat( ON_String& s ) const
{
s = m_double_format;
}
void ON_TextLog::SetFloatFormat(const char* sFormat)
{
m_float_format = sFormat;
m_float2_format = m_float_format + ", " + m_float_format;
m_float3_format = m_float2_format + ", " + m_float_format;
m_float4_format = m_float3_format + ", " + m_float_format;
}
void ON_TextLog::GetFloatFormat( ON_String& s ) const
{
s = m_float_format;
}
void ON_TextLog::PushIndent()
{
if ( m_indent_size > 0 )
{
for ( int i = 0; i < m_indent_size; i++ )
{
m_indent += ' ';
}
}
else
{
m_indent += "\t";
}
m_indent_count++;
}
void ON_TextLog::PopIndent()
{
const int length = m_indent.Length();
const int indent_lenth = m_indent_size>0 ? m_indent_size : 1;
if ( length >= indent_lenth && m_indent_count > 0)
{
m_indent_count--;
m_indent.SetLength(length-indent_lenth);
}
else
{
m_indent.Destroy();
m_indent_count = 0;
}
}
int ON_TextLog::IndentSize() const
{
// 0: one tab per indent
// >0: number of spaces per indent
return m_indent_size;
}
void ON_TextLog::SetIndentSize(int indent_size)
{
m_indent_size = (indent_size>0) ? indent_size : 0;
}
int ON_TextLog::IndentCount()
{
return m_indent_count;
}
void ON_TextLog::SetIndentCount(
int indent_count
)
{
if (indent_count < 0)
indent_count = 0;
while (m_indent_count > indent_count)
{
PopIndent();
}
while (m_indent_count < indent_count)
{
PushIndent();
}
}
void ON_VARGS_FUNC_CDECL ON_TextLog::Print(const char* format, ...)
{
if (m_bNullTextLog)
return;
// NOTE:
// This code does not work on Traditional Chinese Windows 10.
//
if (nullptr == format || 0 == format[0])
return;
// format message and append it to the log
char stack_buffer[2048];
ON_StringBuffer buffer(stack_buffer, sizeof(stack_buffer) / sizeof(stack_buffer[0]));
va_list args;
va_start(args, format);
ON_String::FormatVargsIntoBuffer(buffer, format, args);
va_end(args);
char* s0 = buffer.m_buffer;
if (nullptr == s0 || 0 == s0[0])
return;
for ( char* s1 = s0; *s1; s1++)
{
if ( *s1 == '\n' )
{
*s1 = 0;
if ( m_beginning_of_line && m_indent.IsNotEmpty() )
AppendText( static_cast< const char* >(m_indent) );
if (*s0)
AppendText(s0);
AppendText("\n");
m_beginning_of_line = 1;
s0 = s1+1;
}
}
if (*s0)
{
if ( m_beginning_of_line && m_indent.IsNotEmpty() )
AppendText( static_cast< const char* >(m_indent) );
AppendText(s0);
m_beginning_of_line = 0;
}
}
void ON_VARGS_FUNC_CDECL ON_TextLog::Print(const wchar_t* format, ...)
{
if (m_bNullTextLog)
return;
if (nullptr == format || 0 == format[0])
return;
// format message and append it to the log
wchar_t stack_buffer[2048];
ON_wStringBuffer buffer(stack_buffer, sizeof(stack_buffer) / sizeof(stack_buffer[0]));
va_list args;
va_start(args, format);
ON_wString::FormatVargsIntoBuffer(buffer, format, args);
va_end(args);
wchar_t* s0 = buffer.m_buffer;
if (nullptr == s0 || 0 == s0[0])
return;
for ( wchar_t* s1 = s0; *s1; s1++)
{
if ( *s1 == '\n' )
{
*s1 = 0;
if ( m_beginning_of_line && m_indent.IsNotEmpty() )
AppendText( static_cast< const char* >(m_indent) );
if (*s0)
AppendText(s0);
AppendText(L"\n");
m_beginning_of_line = 1;
s0 = s1+1;
}
}
if (*s0)
{
if ( m_beginning_of_line && m_indent.IsNotEmpty() )
AppendText( static_cast< const char* >(m_indent) );
AppendText(s0);
m_beginning_of_line = 0;
}
}
void ON_TextLog::AppendText( const char* s )
{
// This is a virtual function
if (m_bNullTextLog)
return;
if ( s && *s )
{
if ( nullptr != m_pString)
{
(*m_pString) += s;
}
else if ( nullptr != m_pFile )
{
fputs( s, m_pFile );
}
else
{
printf("%s",s);
}
}
}
void ON_TextLog::AppendText( const wchar_t* s )
{
// This is a virtual function
if (m_bNullTextLog)
return;
if ( nullptr != m_pString )
{
(*m_pString) += s;
}
else
{
// If sizeof(wchar_t) = 2, str = s performs
// performs UTF-16 to UTF-8 conversion.
// If sizeof(wchar_t) = 4, str = s performs
// performs UTF-32 to UTF-8 conversion.
ON_String str = s;
AppendText(str.Array());
}
}
void ON_TextLog::Print( float x )
{
if ( ON_UNSET_FLOAT == x )
Print("ON_UNSET_FLOAT");
else
Print(static_cast< const char* >(m_float_format),x);
}
void ON_TextLog::Print( double x )
{
if ( ON_UNSET_VALUE == x )
Print("ON_UNSET_VALUE");
else
Print(static_cast< const char* >(m_double_format),x);
}
void ON_TextLog::Print( const ON_2dPoint& p )
{
Print("(");
Print(static_cast< const char* >(m_double2_format), p.x, p.y);
Print(")");
}
void ON_TextLog::Print( const ON_3dPoint& p )
{
Print("(");
if ( ON_3dPoint::UnsetPoint == p )
Print("UnsetPoint");
else
Print(static_cast< const char* >(m_double3_format), p.x, p.y, p.z );
Print(")");
}
void ON_TextLog::Print( const ON_4dPoint& p )
{
Print("[");
Print(static_cast< const char* >(m_double4_format), p.x, p.y, p.z, p.w );
Print("]");
}
void ON_TextLog::Print( const ON_2dVector& p )
{
Print("<");
Print(static_cast< const char* >(m_double2_format), p.x, p.y);
Print(">");
}
void ON_TextLog::Print( const ON_3dVector& p )
{
Print("<");
if ( ON_3dVector::UnsetVector == p )
Print("UnsetVector");
else
Print(static_cast< const char* >(m_double3_format), p.x, p.y, p.z);
Print(">");
}
void ON_TextLog::Print( const ON_Xform& xform )
{
if (ON_Xform::IdentityTransformation == xform)
{
Print("ON_Xform::IdentityTransformation\n");
}
else if (ON_Xform::ZeroTransformation == xform)
{
Print("ON_Xform::ZeroTransformation\n");
}
else if (ON_Xform::Zero4x4 == xform)
{
Print("ON_Xform::Zero4x4\n");
}
else if (ON_Xform::Unset == xform)
{
Print("ON_Xform::Unset\n");
}
else
{
Print(static_cast< const char* >(m_double4_format),xform[0][0],xform[0][1],xform[0][2],xform[0][3]);
Print("\n");
Print(static_cast< const char* >(m_double4_format),xform[1][0],xform[1][1],xform[1][2],xform[1][3]);
Print("\n");
Print(static_cast< const char* >(m_double4_format),xform[2][0],xform[2][1],xform[2][2],xform[2][3]);
Print("\n");
Print(static_cast< const char* >(m_double4_format),xform[3][0],xform[3][1],xform[3][2],xform[3][3]);
Print("\n");
}
}
void ON_TextLog::Print( const ON_UUID& uuid )
{
if ( 0 == uuid.Data2 && 0x11dc == uuid.Data3
&& 0x98 == uuid.Data4[0]
&& 0x85 == uuid.Data4[1]
&& 0x00 == uuid.Data4[2]
&& 0x13 == uuid.Data4[3]
&& 0x72 == uuid.Data4[4]
&& 0xc3 == uuid.Data4[5]
&& 0x38 == uuid.Data4[6]
&& 0x78 == uuid.Data4[7]
)
{
// xxxxxxxx-0000-11dc-9885-001372C33878
// This uuid value is a "repeatably unique" id used
// for testing purposes.
// See ON_CreateUuid(ON_UUID&) for more details.
Print("%08X-...(runtime value varies)", uuid.Data1 );
}
else
{
Print("%08X-%04X-%04x-%02X%02X-%02X%02X%02X%02X%02X%02X",
uuid.Data1, uuid.Data2, uuid.Data3,
uuid.Data4[0], uuid.Data4[1], uuid.Data4[2], uuid.Data4[3],
uuid.Data4[4], uuid.Data4[5], uuid.Data4[6], uuid.Data4[7]
);
}
}
void ON_TextLog::Print( const ON_COMPONENT_INDEX& ci )
{
switch( ci.m_type )
{
case ON_COMPONENT_INDEX::invalid_type:
Print("invalid_type(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::brep_vertex:
Print("brep_vertex(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::brep_edge:
Print("brep_edge(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::brep_face:
Print("brep_face(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::brep_trim:
Print("brep_trim(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::brep_loop:
Print("brep_loop(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::mesh_vertex:
Print("mesh_vertex(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::meshtop_vertex:
Print("meshtop_vertex(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::meshtop_edge:
Print("meshtop_edge(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::mesh_face:
Print("mesh_face(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::mesh_ngon:
Print("mesh_ngon(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::idef_part:
Print("idef_part(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::polycurve_segment:
Print("polycurve_segment(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::pointcloud_point:
Print("pointcloud_point(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::group_member:
Print("group_member(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::extrusion_bottom_profile:
Print("extrusion_bottom_profile(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::extrusion_top_profile:
Print("extrusion_top_profile(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::extrusion_wall_edge:
Print("extrusion_wall_edge(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::extrusion_wall_surface:
Print("extrusion_wall_surface(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::extrusion_cap_surface:
Print("extrusion_cap_surface(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::extrusion_path:
Print("extrusion_path(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::subd_vertex:
Print("subd_vertex(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::subd_edge:
Print("subd_edge(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::subd_face:
Print("subd_face(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::hatch_loop:
Print("hatch_loop(%d)", ci.m_index);
break;
case ON_COMPONENT_INDEX::dim_linear_point:
Print("dim_linear_point(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::dim_radial_point:
Print("dim_radial_point(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::dim_angular_point:
Print("dim_angular_point(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::dim_ordinate_point:
Print("dim_ordinate_point(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::dim_text_point:
Print("dim_text_point(%d)",ci.m_index);
break;
case ON_COMPONENT_INDEX::dim_centermark_point:
Print("dim_centermark_point(%d)", ci.m_index);
break;
case ON_COMPONENT_INDEX::dim_leader_point:
Print("dim_leader_point(%d)", ci.m_index);
break;
case ON_COMPONENT_INDEX::no_type:
Print("no_type(%d)",ci.m_index);
break;
default:
Print("ON_COMPONENT_INDEX(%d,%d)",ci.m_type,ci.m_index);
break;
}
}
void ON_TextLog::Print( const ON_wString& string )
{
const ON_wString local(string); // increment reference count to insure s is valid for the duration of this call.
const wchar_t* s = static_cast< const wchar_t* >(local);
if ( s && *s )
{
if (m_beginning_of_line && m_indent.IsNotEmpty())
AppendText(static_cast<const char*>(m_indent));
AppendText(s);
}
}
void ON_TextLog::Print( const ON_String& string )
{
const ON_String local(string); // increment reference count to insure s is valid for the duration of this call.
const char* s = static_cast< const char* >(local);
if (s && *s)
{
if (m_beginning_of_line && m_indent.IsNotEmpty())
AppendText(static_cast<const char*>(m_indent));
AppendText(s);
}
}
void ON_TextLog::PrintString( const char* s )
{
if (s && *s)
{
if (m_beginning_of_line && m_indent.IsNotEmpty())
AppendText(static_cast<const char*>(m_indent));
AppendText(s);
}
}
void ON_TextLog::PrintString(ON_String s)
{
PrintString(static_cast<const char*>(s));
}
void ON_TextLog::PrintNewLine()
{
Print("\n");
}
void ON_TextLog::PrintSpace()
{
Print("\n");
}
void ON_TextLog::PrintTab()
{
Print("\t");
}
void ON_TextLog::PrintString( const wchar_t* s )
{
if (s && *s)
{
if (m_beginning_of_line && m_indent.IsNotEmpty())
AppendText(static_cast<const char*>(m_indent));
AppendText(s);
}
}
void ON_TextLog::PrintString(ON_wString s)
{
PrintString(static_cast<const wchar_t*>(s));
}
void ON_TextLog::PrintRGB(const ON_Color& color)
{
color.ToText(ON_Color::TextFormat::DecimalRGB, 0, true, *this);
}
void ON_TextLog::PrintColor(const ON_Color& color)
{
color.ToText(this->GetColorFormat(), 0, true, *this);
}
void ON_TextLog::PrintCurrentTime()
{
struct tm current_time;
memset(&current_time, 0, sizeof(current_time));
time_t uct = time(nullptr);
const struct tm* t = gmtime(&uct);
if (t)
{
current_time = *t;
}
PrintTime(current_time);
}
void ON_TextLog::PrintTime( const struct tm& t )
{
if ( 0 != t.tm_sec
|| 0 != t.tm_min
|| 0 != t.tm_hour
|| 0 != t.tm_mday
|| 0 != t.tm_mon
|| 0 != t.tm_year
|| 0 != t.tm_wday
)
{
const char* sDayName[8] = {"Sunday","Monday","Tuesday","Wednesday","Thursday","Friday","Saturday","<invalid day>"};
const char* sMonName[13] = {"January","February","March","April","May","June",
"July","August","September","October","November","December","<invalid month>"};
int wday = t.tm_wday;
if ( wday < 0 || wday > 6 )
wday = 7;
int mon = t.tm_mon;
if ( mon < 0 || mon > 11 )
mon = 12;
Print("%s %s %02d %02d:%02d:%02d %4d",
sDayName[wday],
sMonName[mon],
t.tm_mday,
t.tm_hour,
t.tm_min,
t.tm_sec,
t.tm_year+1900);
}
}
void ON_TextLog::PrintPointList( int dim, bool is_rat, int count, int stride, const double* P,
const char* sPreamble )
{
double w, x;
int i, j, cvdim;
ON_String preamble = "";
if ( sPreamble && *sPreamble )
preamble += sPreamble;
cvdim = (is_rat) ? dim+1 : dim;
if ( count == 0 ) {
Print( "%sEMPTY point list\n", preamble.Array() );
}
else if ( !P ) {
Print( "%sNULL point list\n", preamble.Array() );
}
for ( i = 0; i < count; i++ ) {
Print( "%s[%2d] %c", preamble.Array(), i, (is_rat) ? '[' : '(' );
Print( static_cast< const char* >(m_double_format), P[0] );
for ( j = 1; j < cvdim; j++ ) {
Print( ", ");
Print(static_cast< const char* >(m_double_format), P[j] );
}
Print("%c", (is_rat) ? ']' : ')' );
if ( is_rat )
{
w = P[dim];
if ( w != 0.0 )
{
// print euclidean coordinates
w = 1.0/w;
x = w*P[0];
Print( " = (");
Print( static_cast< const char* >(m_double_format), x );
for ( j = 1; j < dim; j++ )
{
x = w*P[j];
Print( ", ");
Print( static_cast< const char* >(m_double_format), x );
}
Print(")");
}
}
Print("\n");
P += stride;
}
}
void ON_TextLog::PrintPointGrid( int dim, bool is_rat,
int point_count0, int point_count1,
int point_stride0, int point_stride1,
const double* P,
const char* sPreamble )
{
char s[1024];
const size_t s_capacity = sizeof(s) / sizeof(s[0]);
int i;
if (!sPreamble || !sPreamble[0])
sPreamble = "point";
for ( i = 0; i < point_count0; i++ )
{
ON_String::FormatIntoBuffer(s, s_capacity, "%s[%2d]", sPreamble, i);
PrintPointList( dim, is_rat, point_count1, point_stride1, P + i*point_stride0, s );
}
}
void ON_TextLog::PrintKnotVector( int order, int cv_count, const double* knot )
{
int i, i0, mult, knot_count;
if ( !knot )
Print("nullptr knot vector\n");
if ( order < 2 )
Print("knot vector order < 2\n");
if ( cv_count < order )
Print("knot vector cv_count < order\n");
if ( order >= 2 && cv_count >= order && knot ) {
knot_count = ON_KnotCount( order, cv_count );
i = i0 = 0;
Print("index value mult delta\n");
while ( i < knot_count ) {
mult = 1;
while ( i+mult < knot_count && knot[i] == knot[i+mult] )
mult++;
if ( i == 0 ) {
Print( "%5d %23.17g %4d\n", i, knot[i], mult );
}
else {
Print( "%5d %23.17g %4d %10.4g\n", i, knot[i], mult, knot[i]-knot[i0] );
}
i0 = i;
i += mult;
}
}
}
void ON_TextLog::Print( const ON_3dPointArray& a, const char* sPreamble )
{
const double* p = (a.Array() ? &a.Array()[0].x : nullptr );
PrintPointList( 3, false, a.Count(), 3, p, sPreamble );
}
void ON_TextLog::Print( const ON_Matrix& M, const char* sPreamble, int precision )
{
double x;
char digit[10] = {'0','1','2','3','4','5','6','7','8','9'};
char* sRow;
char* sIJ;
int xi, row_count, column_count, row_index, column_index;
row_count = M.RowCount();
column_count = M.ColCount();
sRow = (char*)alloca( (5*column_count + 2 + 64)*sizeof(*sRow) );
if ( !sPreamble )
sPreamble = "Matrix";
Print("%s (%d rows %d columns)\n",sPreamble,row_count,column_count);
for ( row_index = 0; row_index < row_count; row_index++ ) {
sIJ = sRow;
Print("%5d:",row_index);
if ( precision > 3 ) {
for ( column_index = 0; column_index < column_count; column_index++ ) {
x = M.m[row_index][column_index];
Print( " %8f",x);
}
Print("\n");
}
else {
for ( column_index = 0; column_index < column_count; column_index++ ) {
x = M.m[row_index][column_index];
if ( x == 0.0 ) {
strcpy( sIJ, " 0 " );
sIJ += 4;
}
else {
*sIJ++ = ' ';
*sIJ++ = ( x >0.0 ) ? '+' : '-';
x = fabs( x );
if ( x >= 10.0 ) {
*sIJ++ = '*';
*sIJ++ = ' ';
*sIJ++ = ' ';
}
else if ( x <= ON_SQRT_EPSILON) {
*sIJ++ = '0';
*sIJ++ = ' ';
*sIJ++ = ' ';
}
else if ( x < 0.1) {
*sIJ++ = '~';
*sIJ++ = ' ';
*sIJ++ = ' ';
}
else if ( x < .95 ) {
*sIJ++ = '.';
xi = (int)floor(x*10.0);
if ( xi > 9 )
xi = 9;
else if (xi < 1)
xi = 1;
*sIJ++ = digit[xi];
*sIJ++ = '~';
}
else {
xi = (int)floor(x);
if ( xi < 1 )
xi = 1;
else if (xi > 9)
xi = 9;
*sIJ++ = digit[xi];
if ( x == floor(x) ) {
*sIJ++ = ' ';
*sIJ++ = ' ';
}
else {
*sIJ++ = '.';
*sIJ++ = '~';
}
}
}
}
*sIJ = 0;
Print("%s\n",sRow);
}
}
}
ON_TextLog& ON_TextLog::operator<<(const char* s)
{
Print( "%s", s );
return *this;
}
ON_TextLog& ON_TextLog::operator<<(char c)
{
Print( "%c", c );
return *this;
}
ON_TextLog& ON_TextLog::operator<<(short i)
{
int ii = (int)i;
Print("%d", ii );
return *this;
}
ON_TextLog& ON_TextLog::operator<<(int i)
{
Print("%d",i);
return *this;
}
ON_TextLog& ON_TextLog::operator<<(float x)
{
Print(static_cast< const char* >(m_float_format),x);
return *this;
}
ON_TextLog& ON_TextLog::operator<<(double x)
{
Print(static_cast< const char* >(m_double_format),x);
return *this;
}
ON_TextLog& ON_TextLog::operator<<( const ON_2dPoint& p )
{
Print(p);
return *this;
}
ON_TextLog& ON_TextLog::operator<<( const ON_3dPoint& p )
{
Print(p);
return *this;
}
ON_TextLog& ON_TextLog::operator<<( const ON_4dPoint& p )
{
Print(p);
return *this;
}
ON_TextLog& ON_TextLog::operator<<( const ON_2dVector& p )
{
Print(p);
return *this;
}
ON_TextLog& ON_TextLog::operator<<( const ON_3dVector& p )
{
Print(p);
return *this;
}
ON_TextLog& ON_TextLog::operator<<( const ON_Xform& xform )
{
Print(xform);
return *this;
}
void ON_TextLog::PrintWrappedText( const char* s, int line_length )
{
ON_wString ws = s;
PrintWrappedText(static_cast< const wchar_t* >(ws),line_length);
}
static void wsncpy(wchar_t* dst, const wchar_t* src, int n)
{
// can't use _wcsncpy() because this has to compile on UNIX boxes
if ( dst && n > 0 ) {
if ( src ) {
while ( 0 != (*dst++ = *src++) && n-- > 0 );
}
else
*dst = 0;
}
}
void ON_TextLog::PrintWrappedText( const wchar_t* s, int line_length )
{
ON_Workspace ws;
if ( s && *s && line_length > 0 ) {
const int max_line_length = line_length+255;
wchar_t* sLine = (wchar_t*)ws.GetMemory((max_line_length+1)*sizeof(*sLine));
const int wrap_length = line_length;
int i = 0;
int i1 = 0;
int isp = 0;
bool bPrintLine = false;
while ( s[i] ) {
i1 = i;
if ( s[i] == 10 || s[i] == 13 ) {
// hard break at CR or LF
i++;
if ( s[i] == 10 && s[i-1] == 13 ) {
// it's a CR+LF hard end of line - skip LF too
i++;
}
bPrintLine = true;
}
else if ( i && s[i] == 32 ) {
if ( !isp ) {
isp = i++;
}
if ( i < wrap_length ) {
isp = i++;
}
else {
bPrintLine = true;
if ( isp ) {
i1 = i = isp;
while ( s[i] == 32 )
i++;
}
else {
i++;
}
}
}
else {
i++;
}
if ( bPrintLine ) {
if ( i1 >= max_line_length )
i1 = max_line_length-1;
if ( i1 > 0 ) {
wsncpy( sLine, s, i1 );
sLine[i1] = 0;
Print( "%ls\n", sLine );
}
else {
Print("\n");
}
s += i;
i = i1 = isp = 0;
bPrintLine = false;
}
}
if ( s[0] ) {
Print( "%ls", s );
}
}
}
bool ON_TextHash::Internal_IsHexDigit(char c)
{
if (c >= '0' && c <= '9')
return true;
if (c >= 'a' && c <= 'f')
return true;
if (c >= 'A' && c <= 'F')
return true;
return false;
}
const char* ON_TextHash::Internal_ParseId(
const char* s,
ON_UUID* id
)
{
/*
XXXXXXXX-XXXX-XXXX-XXXX-XXXXXXXXXXXX
*/
const int digit_count[] = { 8,4,4,4,12,0 };
const int* count = digit_count;
int c;
const char* s1 = s;
while (0 != (c = *count++))
{
for (int i = 0; i < c; i++)
{
if ( Internal_IsHexDigit(*s1++) )
continue;
if (nullptr != id)
*id = ON_nil_uuid;
return nullptr;
}
if (0 == *count)
{
const char* s2 = ON_ParseUuidString(s, id);
if (s2 == s1
&& '-' != *s1
&& false == Internal_IsHexDigit(*s1)
)
{
return s1;
}
break;
}
if ( '-' == *s1++)
continue;
break;
}
if (nullptr != id)
*id = ON_nil_uuid;
return nullptr;
}
bool ON_TextLog::IsTextHash() const
{
return (nullptr != dynamic_cast<const ON_TextHash*>(this));
}
bool ON_TextLog::IsNull() const
{
return this == &ON_TextLog::Null;
}
ON_StringMapType ON_TextHash::StringMapType() const
{
return m_string_map_type;
}
const class ON_Locale& ON_TextHash::StringMapLocale() const
{
return m_string_map_local;
}
void ON_TextHash::SetStringMap(
ON_StringMapOrdinalType map_type
)
{
SetStringMap(ON_Locale::Ordinal, ON_StringMapType::Identity);
m_string_map_ordinal_type = map_type;
m_bApplyStringMap
= ON_StringMapType::Identity != m_string_map_type
|| ON_StringMapOrdinalType::Identity != m_string_map_ordinal_type;
}
void ON_TextHash::SetStringMap(
const class ON_Locale& locale,
ON_StringMapType map_type
)
{
m_string_map_local = locale;
m_string_map_type = map_type;
m_string_map_ordinal_type
= (m_string_map_local.IsOrdinalOrInvariantCulture())
? ON_StringMapOrdinalTypeFromStringMapType(m_string_map_type)
: ON_StringMapOrdinalType::Identity;
m_bApplyStringMap
= ON_StringMapType::Identity != m_string_map_type
|| ON_StringMapOrdinalType::Identity != m_string_map_ordinal_type;
}
void ON_TextHash::SetIdRemap(
bool bEnableIdRemap
)
{
m_bApplyIdRemap = bEnableIdRemap ? true : false;
}
bool ON_TextHash::IdRemap() const
{
return m_bApplyIdRemap;
}
void ON_TextHash::SetOutputTextLog(
ON_TextLog* output_text_log
)
{
m_output_text_log = output_text_log;
}
ON_TextLog* ON_TextHash::OutputTextLog() const
{
return m_output_text_log;
}
ON__UINT64 ON_TextHash::ByteCount() const
{
return m_sha1.ByteCount();
}
ON_SHA1_Hash ON_TextHash::Hash() const
{
return m_sha1.Hash();
}
void ON_TextHash::AppendText(const char* s)
{
if (false == m_bApplyIdRemap)
{
// no id remapping - just accumulate
m_sha1.AccumulateString(s, -1, m_string_map_ordinal_type);
return;
}
size_t element_count;
const char* s0;
for ( s0 = s; 0 != *s; s++ )
{
ON_UUID original_id;
const char* s1 = Internal_ParseId(s, &original_id);
if (nullptr == s1)
continue;
// A UUID beings at s and ends at s1.
// Accumulate everything up to s
element_count = s - s0;
if (element_count > 0)
{
m_sha1.AccumulateString(s0, (int)element_count, m_string_map_ordinal_type);
if (nullptr != m_output_text_log)
{
ON_String tmp(s0, (int)element_count);
m_output_text_log->AppendText(static_cast<const char*>(tmp));
}
}
// remap original_id to sequential_id
ON_UUID sequential_id;
if (false == m_remap_id_list.FindId1(original_id, &sequential_id))
{
// First time original_id has appeared in the stream.
m_remap_id = ON_NextNotUniqueId(m_remap_id);
sequential_id = m_remap_id;
m_remap_id_list.AddPair(original_id, sequential_id);
}
// accumlate string version of sequential_id
char sequential_id_str[40];
ON_UuidToString(sequential_id, sequential_id_str);
sequential_id_str[36] = 0;
m_sha1.AccumulateString(sequential_id_str, 36, m_string_map_ordinal_type);
if (nullptr != m_output_text_log)
{
m_output_text_log->AppendText(sequential_id_str);
}
s0 = s1; // s0 = first element after the original uuid.
s = s1 - 1; // because the for() loop incrementer is s++
}
element_count = s - s0;
if (element_count > 0)
{
m_sha1.AccumulateString(s0, (int)element_count, m_string_map_ordinal_type);
if (nullptr != m_output_text_log)
m_output_text_log->AppendText(s0);
}
}
void ON_TextHash::AppendText(const wchar_t* s)
{
ON_String sUTF8_buffer(s);
const char* sUTF8 = sUTF8_buffer;
AppendText(sUTF8);
}
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