void runsyslinuxcmd(const char *cmd)
{
strcpy(__com32.cs_bounce, cmd);
REG_AX(inreg) = 0x0003; // Run command
REG_BX(inreg) = OFFS(__com32.cs_bounce);
REG_ES(inreg) = SEG(__com32.cs_bounce);
__intcall(0x22, &inreg, &outreg);
}
/**********************************************************************************
函数功能：点亮或者熄灭某一个显示标志
入口： Flag----1:显示;0:熄灭
出口： 1---------有此设备；0------找不到设备
**********************************************************************************/
INT8U SetOrClrPixPiyDot(INT16U ShouID,INT8U ClrOrSet,INT8U Type)
{
INT16U Pos,Seg,Com;
INT8U Flag,i,temp;
Pos=GetPixySegPos_SxNxDx(ShouID,Type);
if(!Pos)
return 0;
switch(Type)
{
case Sx:
Seg=SEG(LCD_S_Const[Pos].x);
Com=COM(LCD_S_Const[Pos].y);
Flag=SetOrClrAndChkSEGCOM(Seg,Com,Type,ClrOrSet);
return Flag;
case Dx:
Seg=SEG(LCD_D_Const[Pos].x);
Com=COM(LCD_D_Const[Pos].y);
Flag=SetOrClrAndChkSEGCOM(Seg,Com,Type,ClrOrSet);
return Flag;
case Nx:
//#ifdef CONFLICT_TAB_CHKEN
// temp=7;
//#else
temp=1;
//#endif
for(i=0;i<temp;i++)
{
Seg=SEG(LCD_N_Const[Pos+i].x);
Com=COM(LCD_N_Const[Pos+i].y);
Flag=SetOrClrAndChkSEGCOM(Seg,Com,Type,ClrOrSet);
if(!Flag)
return 0;
}
return 1;
}
return 0;
}
void EC_CONVERGING::Apply( EDIT_LINE& aHandle )
{
// The dragged segment endpoints
EDIT_POINT& origin = aHandle.GetOrigin();
EDIT_POINT& end = aHandle.GetEnd();
if( m_colinearConstraint )
{
m_colinearConstraint->Apply( origin );
m_colinearConstraint->Apply( end );
}
// The dragged segment
SEG dragged( origin.GetPosition(), origin.GetPosition() + m_draggedVector );
// Do not allow points on the adjacent segments move freely
m_originSideConstraint->Apply();
m_endSideConstraint->Apply();
EDIT_POINT& prevOrigin = *m_editPoints.Previous( origin, false );
EDIT_POINT& nextEnd = *m_editPoints.Next( end, false );
// Two segments adjacent to the dragged segment
SEG originSide = SEG( origin.GetPosition(), prevOrigin.GetPosition() );
SEG endSide = SEG( end.GetPosition(), nextEnd.GetPosition() );
// First intersection point (dragged segment against origin side)
if( OPT_VECTOR2I originIntersect = dragged.IntersectLines( originSide ) )
origin.SetPosition( *originIntersect );
// Second intersection point (dragged segment against end side)
if( OPT_VECTOR2I endIntersect = dragged.IntersectLines( endSide ) )
end.SetPosition( *endIntersect );
// Check if adjacent segments intersect (did we dragged the line to the point that it may
// create a selfintersecting polygon?)
originSide = SEG( origin.GetPosition(), prevOrigin.GetPosition() );
endSide = SEG( end.GetPosition(), nextEnd.GetPosition() );
if( OPT_VECTOR2I originEndIntersect = endSide.Intersect( originSide ) )
{
origin.SetPosition( *originEndIntersect );
end.SetPosition( *originEndIntersect );
}
}
int getVBEInfo( void *infoBlock )
{
bb.intno = 0x10;
bb.eax.rr = funcGetControllerInfo;
bb.es = SEG( infoBlock );
bb.edi.rr = OFF( infoBlock );
bios( &bb );
return(bb.eax.r.h);
}
const SHAPE_LINE_CHAIN ConvexHull( const SHAPE_CONVEX& aConvex, int aClearance )
{
// this defines the horizontal and vertical lines in the hull octagon
BOX2I box = aConvex.BBox( aClearance + HULL_MARGIN );
box.Normalize();
SEG topline = SEG( VECTOR2I( box.GetX(), box.GetY() + box.GetHeight() ),
VECTOR2I( box.GetX() + box.GetWidth(), box.GetY() + box.GetHeight() ) );
SEG rightline = SEG( VECTOR2I( box.GetX() + box.GetWidth(), box.GetY() + box.GetHeight() ),
VECTOR2I( box.GetX() + box.GetWidth(), box.GetY() ) );
SEG bottomline = SEG( VECTOR2I( box.GetX() + box.GetWidth(), box.GetY() ),
box.GetOrigin() );
SEG leftline = SEG( box.GetOrigin(), VECTOR2I( box.GetX(), box.GetY() + box.GetHeight() ) );
const SHAPE_LINE_CHAIN& vertices = aConvex.Vertices();
// top right diagonal
VECTOR2I corner = box.GetOrigin() + box.GetSize();
SEG toprightline = SEG( corner,
corner + VECTOR2I( box.GetHeight(), -box.GetHeight() ) );
MoveDiagonal( toprightline, vertices, aClearance );
// bottom right diagonal
corner = box.GetOrigin() + VECTOR2I( box.GetWidth(), 0 );
SEG bottomrightline = SEG( corner + VECTOR2I( box.GetHeight(), box.GetHeight() ),
corner );
MoveDiagonal( bottomrightline, vertices, aClearance );
// bottom left diagonal
corner = box.GetOrigin();
SEG bottomleftline = SEG( corner,
corner + VECTOR2I( -box.GetHeight(), box.GetHeight() ) );
MoveDiagonal( bottomleftline, vertices, aClearance );
// top left diagonal
corner = box.GetOrigin() + VECTOR2I( 0, box.GetHeight() );
SEG topleftline = SEG( corner + VECTOR2I( -box.GetHeight(), -box.GetHeight() ),
corner );
MoveDiagonal( topleftline, vertices, aClearance );
SHAPE_LINE_CHAIN octagon;
octagon.SetClosed( true );
octagon.Append( *leftline.IntersectLines( bottomleftline ) );
octagon.Append( *bottomline.IntersectLines( bottomleftline ) );
octagon.Append( *bottomline.IntersectLines( bottomrightline ) );
octagon.Append( *rightline.IntersectLines( bottomrightline ) );
octagon.Append( *rightline.IntersectLines( toprightline ) );
octagon.Append( *topline.IntersectLines( toprightline ) );
octagon.Append( *topline.IntersectLines( topleftline ) );
octagon.Append( *leftline.IntersectLines( topleftline ) );
return octagon;
}
static int pxeapi_call(int func, const uint8_t *buf)
{
static com32sys_t inargs, outargs;
inargs.eax.w[0] = 0x0009; /* Call PXE Stack */
inargs.ebx.w[0] = func; /* PXE function number */
inargs.edi.w[0] = OFFS(buf);
inargs.es = SEG(buf);
__intcall(0x22, &inargs, &outargs);
return outargs.eax.w[0] == PXENV_EXIT_SUCCESS;
}
PNS_ITEM* PNS_ROUTER::syncTrack( TRACK* aTrack )
{
PNS_SEGMENT* s =
new PNS_SEGMENT( SEG( aTrack->GetStart(), aTrack->GetEnd() ), aTrack->GetNetCode() );
s->SetWidth( aTrack->GetWidth() );
s->SetLayers( PNS_LAYERSET( aTrack->GetLayer() ) );
s->SetParent( aTrack );
return s;
}
int getVBEModeInfo( int mode, void *minfo_p )
{
bb.intno = 0x10;
bb.eax.rr = funcGetModeInfo;
bb.ecx.rr = mode;
bb.es = SEG(minfo_p);
bb.edi.rr = OFF(minfo_p);
bios(&bb);
return(bb.eax.r.h);
}
static void dump_e820(void)
{
com32sys_t ireg, oreg;
struct e820_data ed;
uint32_t type;
void *low_ed;
low_ed = lmalloc(sizeof ed);
if (!low_ed)
return;
memset(&ireg, 0, sizeof ireg);
ireg.eax.w[0] = 0xe820;
ireg.edx.l = 0x534d4150;
ireg.ecx.l = sizeof(struct e820_data);
ireg.edi.w[0] = OFFS(low_ed);
ireg.es = SEG(low_ed);
memset(&ed, 0, sizeof ed);
ed.extattr = 1;
do {
memcpy(low_ed, &ed, sizeof ed);
__intcall(0x15, &ireg, &oreg);
if (oreg.eflags.l & EFLAGS_CF ||
oreg.eax.l != 0x534d4150 || oreg.ecx.l < 20)
break;
memcpy(&ed, low_ed, sizeof ed);
if (oreg.ecx.l >= 24) {
/* ebx base length end type */
printf("%8x %016llx %016llx %016llx %d [%x]",
ireg.ebx.l, ed.base, ed.len, ed.base + ed.len, ed.type,
ed.extattr);
} else {
/* ebx base length end */
printf("%8x %016llx %016llx %016llx %d [-]",
ireg.ebx.l, ed.base, ed.len, ed.base + ed.len, ed.type);
ed.extattr = 1;
}
type = ed.type - 1;
if (type < sizeof(e820_types) / sizeof(e820_types[0]))
printf(" %s", e820_types[type]);
putchar('\n');
ireg.ebx.l = oreg.ebx.l;
} while (ireg.ebx.l);
lfree(low_ed);
}
int setVBEMode(unsigned short mode, const VBECRTCInfoBlock * timing)
{
bb.intno = 0x10;
bb.eax.rr = funcSetMode;
bb.ebx.rr = mode;
if (timing) {
bb.es = SEG(timing);
bb.edi.rr = OFF(timing);
}
bios(&bb);
return(bb.eax.r.h);
}
int getVBEPalette(void *palette)
{
bb.intno = 0x10;
bb.eax.rr = funcGetSetPaletteData;
bb.ebx.r.l = subfuncGet;
bb.ecx.rr = 256;
bb.edx.rr = 0;
bb.es = SEG(palette);
bb.edi.rr = OFF(palette);
bios(&bb);
return(bb.eax.r.h);
}
int getEDID(void * edidBlock, UInt8 block)
{
bzero(&bb, sizeof(bb));
bb.intno = 0x10;
bb.eax.rr = funcGetEDID;
bb.ebx.r.l= 0x01;
bb.edx.rr = block;
bb.es = SEG(edidBlock);
bb.edi.rr = OFF(edidBlock);
bios(&bb);
return(bb.eax.r.h);
}
/*
* Boot a specified local disk. AX specifies the BIOS disk number; or
* -1 in case we should execute INT 18h ("next device.")
*/
__export void local_boot(int16_t ax)
{
com32sys_t ireg, oreg;
int i;
memset(&ireg, 0, sizeof(ireg));
syslinux_force_text_mode();
writestr(LOCALBOOT_MSG);
crlf();
cleanup_hardware();
if (ax == -1) {
/* Hope this does the right thing */
__intcall(0x18, &zero_regs, NULL);
/* If we returned, oh boy... */
kaboom();
}
/*
* Load boot sector from the specified BIOS device and jump to
* it.
*/
memset(&ireg, 0, sizeof ireg);
ireg.edx.b[0] = ax & 0xff;
ireg.eax.w[0] = 0; /* Reset drive */
__intcall(0x13, &ireg, NULL);
memset(&ireg, 0, sizeof(ireg));
ireg.eax.w[0] = 0x0201; /* Read one sector */
ireg.ecx.w[0] = 0x0001; /* C/H/S = 0/0/1 (first sector) */
ireg.ebx.w[0] = OFFS(trackbuf);
ireg.es = SEG(trackbuf);
for (i = 0; i < retry_count; i++) {
__intcall(0x13, &ireg, &oreg);
if (!(oreg.eflags.l & EFLAGS_CF))
break;
}
if (i == retry_count)
kaboom();
cli(); /* Abandon hope, ye who enter here */
memcpy((void *)0x07C00, trackbuf, 512);
ireg.esi.w[0] = OFFS(trackbuf);
ireg.edi.w[0] = 0x07C00;
ireg.edx.w[0] = ax;
call16(local_boot16, &ireg, NULL);
}
void AddDirections( VECTOR2D aP, int aMask, int aColor )
{
BOX2I b( aP - VECTOR2I( 10000, 10000 ), VECTOR2I( 20000, 20000 ) );
AddBox( b, aColor );
for( int i = 0; i < 8; i++ )
{
if( ( 1 << i ) & aMask )
{
VECTOR2I v = DIRECTION_45( ( DIRECTION_45::Directions ) i ).ToVector() * 100000;
AddSegment( SEG( aP, aP + v ), aColor );
}
}
}
// Set up CPU's kernel segment descriptors.
// Run once on entry on each CPU.
void seginit(void) {
struct cpu *c;
// Map "logical" addresses to virtual addresses using identity map.
// Cannot share a CODE descriptor for both kernel and user
// because it would have to have DPL_USR, but the CPU forbids
// an interrupt from CPL=0 to DPL=3.
c = &cpus[cpunum()];
c->gdt[SEG_KCODE] = SEG(STA_X|STA_R, 0, 0xffffffff, 0);
c->gdt[SEG_KDATA] = SEG(STA_W, 0, 0xffffffff, 0);
c->gdt[SEG_UCODE] = SEG(STA_X|STA_R, 0, 0xffffffff, DPL_USER);
c->gdt[SEG_UDATA] = SEG(STA_W, 0, 0xffffffff, DPL_USER);
// Map cpu, and curproc
c->gdt[SEG_KCPU] = SEG(STA_W, &c->cpu, 8, 0);
lgdt(c->gdt, sizeof(c->gdt));
loadgs(SEG_KCPU << 3);
// Initialize cpu-local storage.
cpu = c;
proc = 0;
}
std::unique_ptr<PNS::SEGMENT> PNS_KICAD_IFACE::syncTrack( TRACK* aTrack )
{
std::unique_ptr< PNS::SEGMENT > segment(
new PNS::SEGMENT( SEG( aTrack->GetStart(), aTrack->GetEnd() ), aTrack->GetNetCode() )
);
segment->SetWidth( aTrack->GetWidth() );
segment->SetLayers( LAYER_RANGE( aTrack->GetLayer() ) );
segment->SetParent( aTrack );
if( aTrack->IsLocked() )
segment->Mark( PNS::MK_LOCKED );
return segment;
}
static void
segmentremove(Chan *c)
{
Globalseg *g;
int x;
if(TYPE(c) != Qsegdir)
error(Eperm);
lock(&globalseglock);
x = SEG(c);
g = globalseg[x];
globalseg[x] = nil;
unlock(&globalseglock);
if(g != nil)
putgseg(g);
}
bool is_gpxe(void)
{
const struct syslinux_version *sv;
com32sys_t reg;
struct s_PXENV_FILE_CHECK_API *fca;
bool gpxe;
sv = syslinux_version();
if (sv->filesystem != SYSLINUX_FS_PXELINUX)
return false; /* Not PXELINUX */
fca = lzalloc(sizeof *fca);
if (!fca)
return false;
fca->Size = sizeof *fca;
fca->Magic = 0x91d447b2;
memset(®, 0, sizeof reg);
reg.eax.w[0] = 0x0009;
reg.ebx.w[0] = 0x00e6; /* PXENV_FILE_API_CHECK */
/* reg.edi.w[0] = OFFS(fca); */
reg.es = SEG(fca);
__intcall(0x22, ®, ®);
gpxe = true;
if (reg.eflags.l & EFLAGS_CF)
gpxe = false; /* Cannot invoke PXE stack */
if (reg.eax.w[0] || fca->Status)
gpxe = false; /* PXE failure */
if (fca->Magic != 0xe9c17b20)
gpxe = false; /* Incorrect magic */
if (fca->Size < sizeof *fca)
gpxe = false; /* Short return */
/* XXX: The APIs to test for should be a passed-in option */
if (!(fca->APIMask & (1 << 5)))
gpxe = false; /* No FILE EXEC */
lfree(fca);
return gpxe;
}
void OS::udp_write(const void *buf, const size_t len, uint32_t to_ip)
{
t_PXENV_UDP_WRITE *pxe_write_param = (t_PXENV_UDP_WRITE *)lzalloc(sizeof(t_PXENV_UDP_WRITE) + len);
xassert(pxe_write_param);
char *buf_reloc = (char *)pxe_write_param + sizeof(*pxe_write_param);
pxe_write_param->ip = to_ip;
pxe_write_param->src_port = htons(UDP_PORT_NO);
pxe_write_param->dst_port = htons(UDP_PORT_NO);
pxe_write_param->buffer.seg = SEG(buf_reloc);
pxe_write_param->buffer.offs = OFFS(buf_reloc);
pxe_write_param->buffer_size = len;
memcpy(buf_reloc, buf, len);
pxeapi_call(PXENV_UDP_WRITE, (uint8_t *)pxe_write_param);
lfree(pxe_write_param);
}
/*
* returns with globalseg incref'd
*/
static Globalseg*
getgseg(Chan *c)
{
int x;
Globalseg *g;
x = SEG(c);
lock(&globalseglock);
if(x >= nelem(globalseg))
panic("getgseg");
g = globalseg[x];
if(g != nil)
incref(g);
unlock(&globalseglock);
if(g == nil)
error("global segment disappeared");
return g;
}
static void dump_e820(void)
{
com32sys_t ireg, oreg;
struct e820_data ed;
uint32_t type;
memset(&ireg, 0, sizeof ireg);
ireg.eax.w[0] = 0xe820;
ireg.edx.l = 0x534d4150;
ireg.ecx.l = sizeof(struct e820_data);
ireg.edi.w[0] = OFFS(__com32.cs_bounce);
ireg.es = SEG(__com32.cs_bounce);
memset(&ed, 0, sizeof ed);
ed.extattr = 1;
do {
memcpy(__com32.cs_bounce, &ed, sizeof ed);
__intcall(0x15, &ireg, &oreg);
if (oreg.eflags.l & EFLAGS_CF ||
oreg.eax.l != 0x534d4150 ||
oreg.ecx.l < 20)
break;
memcpy(&ed, __com32.cs_bounce, sizeof ed);
if (oreg.ecx.l < 24)
ed.extattr = 1;
/* ebx base length end type */
printf("%8x %016llx %016llx %016llx %d [%x]",
ireg.ebx.l, ed.base, ed.len, ed.base+ed.len, ed.type, ed.extattr);
type = ed.type - 1;
if (type < sizeof(e820_types)/sizeof(e820_types[0]))
printf(" %s", e820_types[type]);
putchar('\n');
ireg.ebx.l = oreg.ebx.l;
} while (ireg.ebx.l);
}
bool OS::memmap_entry(uint64_t *base, uint64_t *length, uint64_t *type)
{
state.eax.l = 0xe820;
state.edx.l = STR_DW_N("SMAP");
state.ecx.l = sizeof(*ent);
state.edi.w[0] = OFFS(ent);
state.es = SEG(ent);
__intcall(0x15, &state, &state);
xassert(state.eax.l == STR_DW_N("SMAP"));
// detect if bootloader is called again
if (!ent->length)
fatal("Bootloader already executed; check boot configuration!");
*base = ent->base;
*length = ent->length;
*type = ent->type;
return state.ebx.l > 0;
}
static bool is_gpxe(void)
{
const struct syslinux_version *sv;
com32sys_t reg;
struct s_PXENV_FILE_CHECK_API *fca;
sv = syslinux_version();
if (sv->filesystem != SYSLINUX_FS_PXELINUX)
return false; /* Not PXELINUX */
fca = __com32.cs_bounce;
memset(fca, 0, sizeof *fca);
fca->Size = sizeof *fca;
fca->Magic = 0x91d447b2;
memset(®, 0, sizeof reg);
reg.eax.w[0] = 0x0009;
reg.ebx.w[0] = 0x00e6; /* PXENV_FILE_API_CHECK */
reg.edi.w[0] = OFFS(fca);
reg.es = SEG(fca);
__intcall(0x22, ®, ®);
if (reg.eflags.l & EFLAGS_CF)
return false; /* Cannot invoke PXE stack */
if (reg.eax.w[0] || fca->Status)
return false; /* PXE failure */
if (fca->Magic != 0xe9c17b20)
return false; /* Incorrect magic */
if (fca->Size < sizeof *fca)
return false; /* Short return */
if (!(fca->APIMask & (1 << 5)))
return false; /* No FILE EXEC */
return true;
}
/*
* the ASM pxenv function wrapper, return 1 if error, or 0
*
*/
__export int pxe_call(int opcode, void *data)
{
static DECLARE_INIT_SEMAPHORE(pxe_sem, 1);
extern void pxenv(void);
com32sys_t regs;
sem_down(&pxe_sem, 0);
#if 0
dprintf("pxe_call op %04x data %p\n", opcode, data);
#endif
memset(®s, 0, sizeof regs);
regs.ebx.w[0] = opcode;
regs.es = SEG(data);
regs.edi.w[0] = OFFS(data);
call16(pxenv, ®s, ®s);
sem_up(&pxe_sem);
return regs.eflags.l & EFLAGS_CF; /* CF SET if fail */
}
MSG MenuProc( HWND HWnd, MSG Msg, MPARAM MP1, MPARAM MP2 )
{
static struct MenuPoint MenuPoints[NUMMENUPOINTS] =
{ { DOT, 0, "Einstellungen", EinstellungenProc, NULL },
{ 0, 0, "", NULL, NULL },
{ 0, 0, "", NULL, NULL },
{ 0, 0, "Durchschnitt", DurchschnittProc, NULL },
{ 0, 0, "������������", NULL, NULL },
{ DOT, 1, "Periode", PeriodeProc, NULL },
{ DOT, 1, "Abteilungen", AbteilungenProc, NULL },
{ DOT, 1, "Begr�ndungen", BegruendungenProc, NULL },
{ 0, 0, "", NULL, NULL },
{ 0, 0, "�bersicht", UebersichtProc, NULL },
{ 0, 0, "���������", NULL, NULL },
{ DOT, 1, "Periode", PeriodeProc, NULL },
{ DOT, 1, "Person(en)", PersonenProc, NULL },
{ DOT, 1, "Begr�ndungen", BegruendungenProc, NULL },
{ 0, 0, "", NULL, NULL },
{ 0, 0, "Grenzwerte �berschritten", UeberzeitProc, NULL },
{ 0, 0, "������������������������", NULL, NULL },
{ DOT, 1, "Periode", PeriodeProc, NULL },
{ DOT, 1, "Abteilungen", AbteilungenProc, NULL },
{ DOT, 1, "Begr�ndungen", PMBegruendungenProc, NULL },
{ 0, 0, "", NULL, NULL },
{ 0, 0, "Summierung Zeitkonti", ZeitKontiSumProc, NULL },
{ 0, 0, "��������������������", NULL, NULL },
{ DOT, 1, "Periode", PeriodeProc, NULL },
{ DOT, 1, "Zeitkonti", ZeitKontiProc, NULL } };
static struct HelpKey HelpKeys[NUMMENUHELPKEYS] =
{ { 0, 0, "</> Men�punkt anw�hlen" },
{ 0, 1, "<Enter> Men�punkt ausf�hren" },
{ 40, 1, "<Esc> Programm verlassen" } };
static BYTE Selection;
static BYTE TopLine;
static BOOL PanelFocus;
switch( Msg )
{
case WM_CREATE:
{
MenuPoints[5].Data = &ConfigData->Perioden[0];
MenuPoints[11].Data = &ConfigData->Perioden[1];
MenuPoints[17].Data = &ConfigData->Perioden[2];
MenuPoints[23].Data = &ConfigData->Perioden[3];
MenuPoints[6].Data = (VOID FAR *)0;
MenuPoints[12].Data = (VOID FAR *)1;
MenuPoints[18].Data = (VOID FAR *)2;
MenuPoints[7].Data = (VOID FAR *)0;
MenuPoints[13].Data = (VOID FAR *)1;
MenuPoints[19].Data = (VOID FAR *)2;
MenuPoints[24].Data = (VOID FAR *)3;
WinCreateWindow( HWnd, &MenuArrows, MenuArrowsProc, 0, 0, 25, -1, 25, 20 );
Selection = 0;
TopLine = 0;
PanelFocus = FALSE;
return( WM_PROCESSED );
}
case WM_SHOW:
{
BYTE LineCounter;
WinColor( HWnd, MENU, 0, 0, WinGetx2( HWnd ), WinGety2( HWnd ) );
WinFill( HWnd, SPACECHAR, 0, 0, WinGetx2( HWnd ), WinGety2( HWnd ) );
for( LineCounter = 0; LineCounter <= WinGety2( HWnd ); LineCounter++ )
{
if( LineCounter + TopLine == NUMMENUPOINTS )
break;
if( MenuPoints[LineCounter + TopLine].Style & DOT )
{
WinString( HWnd, "� ", LEFT, (BYTE)(MenuPoints[LineCounter + TopLine].Indent + 1), LineCounter );
WinString( HWnd, MenuPoints[LineCounter + TopLine].Text, LEFT, (BYTE)(MenuPoints[LineCounter + TopLine].Indent + 3), LineCounter );
}
else
WinString( HWnd, MenuPoints[LineCounter + TopLine].Text, LEFT, (BYTE)(MenuPoints[LineCounter + TopLine].Indent + 1), LineCounter );
}
return( WM_PROCESSED );
}
case WM_SETFOCUS:
{
BYTE Length;
WinSendMsg( MenuArrows, WM_SET, (TopLine == 0 ? FALSE : TRUE ),
((BYTE)(NUMMENUPOINTS - 1 - TopLine) <= WinGety2( HWnd ) ? FALSE : TRUE ) );
WinSendMsg( MenuArrows, WM_SHOW, 0, 0 );
Length = (BYTE)strlen( MenuPoints[Selection].Text );
if( MenuPoints[Selection].Style & DOT )
Length += 2;
WinColor( HWnd, HIGHLIGHT, (BYTE)(MenuPoints[Selection].Indent), (BYTE)(Selection - TopLine), (BYTE)(MenuPoints[Selection].Indent + Length + 1), (BYTE)(Selection - TopLine) );
WinSendMsg( Bottomline, WM_HELP, (WORD)&HelpKeys, NUMMENUHELPKEYS );
WinCreateWindow( HWnd, &Panel, MenuPoints[Selection].Proc, SEG(MenuPoints[Selection].Data), OFS(MenuPoints[Selection].Data), PANELX1, PANELY1, PANELX2, PANELY2 );
WinSendMsg( Panel, WM_SHOW, 0, 0 );
return( WM_PROCESSED );
}
case WM_CLEARFOCUS:
WinDestroyWindow( Panel );
WinColor( HWnd, MENU, 0, 0, WinGetx2( HWnd ), WinGety2( HWnd ) );
return( WM_PROCESSED );
case WM_CHAR:
if( PanelFocus )
if( WinSendMsg( Panel, Msg, MP1, MP2 ) == WM_PROCESSED )
return( WM_PROCESSED );
switch( (WORD)MP1 )
{
case KBDOWN:
case KBRIGHT:
case KBTAB:
WinSendMsg( HWnd, WM_CLEARFOCUS, 0, 0 );
do
{
if( Selection == NUMMENUPOINTS - 1)
break;
Selection++;
if( Selection - TopLine > WinGety2( HWnd ) )
{
TopLine++;
WinSendMsg( HWnd, WM_SHOW, 0, 0 );
}
}
while( MenuPoints[Selection].Proc == NULL );
WinSendMsg( HWnd, WM_SETFOCUS, 0, 0 );
break;
case KBUP:
case KBLEFT:
case KBSHTAB:
WinSendMsg( HWnd, WM_CLEARFOCUS, 0, 0 );
do
{
if( Selection == 0)
break;
Selection--;
if( Selection < TopLine )
{
TopLine--;
WinSendMsg( HWnd, WM_SHOW, 0, 0 );
}
}
while( MenuPoints[Selection].Proc == NULL );
WinSendMsg( HWnd, WM_SETFOCUS, 0, 0 );
break;
case KBHOME:
WinSendMsg( HWnd, WM_CLEARFOCUS, 0, 0 );
TopLine = 0;
Selection = 0;
WinSendMsg( HWnd, WM_SHOW, 0, 0 );
WinSendMsg( HWnd, WM_SETFOCUS, 0, 0 );
break;
case KBEND:
WinSendMsg( HWnd, WM_CLEARFOCUS, 0, 0 );
Selection = NUMMENUPOINTS - 1;
if( NUMMENUPOINTS - 1 < WinGety2( HWnd ) )
TopLine = 0;
else
TopLine = (BYTE)(NUMMENUPOINTS - 1 - WinGety2( HWnd ));
WinSendMsg( HWnd, WM_SHOW, 0, 0 );
WinSendMsg( HWnd, WM_SETFOCUS, 0, 0 );
break;
case KBENTER:
if( !PanelFocus )
{
WinSendMsg( Panel, WM_SETFOCUS, 0, 0 );
PanelFocus = TRUE;
return( WM_PROCESSED );
}
else
WinSendMsg( HWnd, WM_CHAR, (MPARAM)KBESC, 0 );
case KBESC:
if( PanelFocus )
{
WinSendMsg( Panel, WM_CLEARFOCUS, 0, 0 );
PanelFocus = FALSE;
WinSendMsg( HWnd, WM_SETFOCUS, 0, 0 );
return( WM_PROCESSED );
}
default:
return( MP1 );
}
return( WM_PROCESSED );
case WM_DESTROY:
WinDestroyWindow( MenuArrows );
return( WM_PROCESSED );
}
return( WinDefWindowProc( HWnd, Msg, MP1, MP2 ) );
}
/**
* read_sectors - read several sectors from disk
* @drive_info: driveinfo struct describing the disk
* @data: Pre-allocated buffer for output
* @lba: Position to read
* @sectors: Number of sectors to read
*
* Return the number of sectors read on success or -1 on failure.
* errno_disk contains the error number.
**/
int read_sectors(struct driveinfo *drive_info, void *data,
const unsigned int lba, const int sectors)
{
com32sys_t inreg, outreg;
struct ebios_dapa *dapa = __com32.cs_bounce;
void *buf = (char *)__com32.cs_bounce + sectors * SECTOR;
char *bufp = data;
if (get_drive_parameters(drive_info) == -1)
return -1;
memset(&inreg, 0, sizeof inreg);
if (drive_info->ebios) {
dapa->len = sizeof(*dapa);
dapa->count = sectors;
dapa->off = OFFS(buf);
dapa->seg = SEG(buf);
dapa->lba = lba;
inreg.esi.w[0] = OFFS(dapa);
inreg.ds = SEG(dapa);
inreg.edx.b[0] = drive_info->disk;
inreg.eax.b[1] = 0x42; /* Extended read */
} else {
unsigned int c, h, s;
if (!drive_info->cbios) { // XXX errno
/* We failed to get the geometry */
if (lba)
return -1; /* Can only read MBR */
s = 1;
h = 0;
c = 0;
} else
lba_to_chs(drive_info, lba, &s, &h, &c);
// XXX errno
if (s > 63 || h > 256 || c > 1023)
return -1;
inreg.eax.w[0] = 0x0201; /* Read one sector */
inreg.ecx.b[1] = c & 0xff;
inreg.ecx.b[0] = s + (c >> 6);
inreg.edx.b[1] = h;
inreg.edx.b[0] = drive_info->disk;
inreg.ebx.w[0] = OFFS(buf);
inreg.es = SEG(buf);
}
/* Perform the read */
if (int13_retry(&inreg, &outreg)) {
errno_disk = outreg.eax.b[1];
return -1; /* Give up */
}
memcpy(bufp, buf, sectors * SECTOR);
return sectors;
}
static int
segmentgen(Chan *c, char*, Dirtab*, int, int s, Dir *dp)
{
Qid q;
Globalseg *g;
ulong size;
switch(TYPE(c)) {
case Qtopdir:
if(s == DEVDOTDOT){
q.vers = 0;
q.path = PATH(0, Qtopdir);
q.type = QTDIR;
devdir(c, q, "#g", 0, eve, DMDIR|0777, dp);
break;
}
if(s >= nelem(globalseg))
return -1;
lock(&globalseglock);
g = globalseg[s];
if(g == nil){
unlock(&globalseglock);
return 0;
}
q.vers = 0;
q.path = PATH(s, Qsegdir);
q.type = QTDIR;
devdir(c, q, g->name, 0, g->uid, DMDIR|0777, dp);
unlock(&globalseglock);
break;
case Qsegdir:
if(s == DEVDOTDOT){
q.vers = 0;
q.path = PATH(0, Qtopdir);
q.type = QTDIR;
devdir(c, q, "#g", 0, eve, DMDIR|0777, dp);
break;
}
/* fall through */
case Qctl:
case Qdata:
case Qfree:
g = getgseg(c);
if(waserror()){
putgseg(g);
nexterror();
}
q.vers = 0;
q.type = QTFILE;
switch(s){
case 0:
q.path = PATH(SEG(c), Qctl);
devdir(c, q, "ctl", 0, g->uid, g->perm, dp);
break;
case 1:
q.path = PATH(SEG(c), Qdata);
if(g->s != nil)
size = g->s->top - g->s->base;
else
size = 0;
devdir(c, q, "data", size, g->uid, g->perm, dp);
break;
case 2:
q.path = PATH(SEG(c), Qfree);
devdir(c, q, "free", 0, g->uid, g->perm&0444, dp);
break;
default:
poperror();
putgseg(g);
return -1;
}
poperror();
putgseg(g);
break;
}
return 1;
}
/**
* write_sectors - write several sectors from disk
* @drive_info: driveinfo struct describing the disk
* @lba: Position to write
* @data: Buffer to write
* @size: Size of the buffer (number of sectors)
*
* Return the number of sectors write on success or -1 on failure.
* errno_disk contains the error number.
**/
int write_sectors(const struct driveinfo *drive_info, const unsigned int lba,
const void *data, const int size)
{
com32sys_t inreg, outreg;
struct ebios_dapa *dapa;
void *buf;
int rv = -1;
buf = lmalloc(SECTOR * size);
if (!buf)
return -1;
dapa = lmalloc(sizeof(*dapa));
if (!dapa)
goto out;
memcpy(buf, data, SECTOR * size);
memset(&inreg, 0, sizeof inreg);
if (drive_info->ebios) {
dapa->len = sizeof(*dapa);
dapa->count = size;
dapa->off = OFFS(buf);
dapa->seg = SEG(buf);
dapa->lba = lba;
inreg.esi.w[0] = OFFS(dapa);
inreg.ds = SEG(dapa);
inreg.edx.b[0] = drive_info->disk;
inreg.eax.w[0] = 0x4300; /* Extended write */
} else {
unsigned int c, h, s;
if (!drive_info->cbios) { // XXX errno
/* We failed to get the geometry */
if (lba)
goto out; /* Can only write MBR */
s = 1;
h = 0;
c = 0;
} else
lba_to_chs(drive_info, lba, &s, &h, &c);
// XXX errno
if (s > 63 || h > 256 || c > 1023)
goto out;
inreg.eax.w[0] = 0x0301; /* Write one sector */
inreg.ecx.b[1] = c & 0xff;
inreg.ecx.b[0] = s + (c >> 6);
inreg.edx.b[1] = h;
inreg.edx.b[0] = drive_info->disk;
inreg.ebx.w[0] = OFFS(buf);
inreg.es = SEG(buf);
}
/* Perform the write */
if (int13_retry(&inreg, &outreg)) {
errno_disk = outreg.eax.b[1]; /* Give up */
} else
rv = size;
out:
lfree(dapa);
lfree(buf);
return rv;
}
Regs
int21(Regs reg)
{
static int numFiles = 0;
static FILE *files[16];
consolePollEvents();
switch (reg.ah) {
case 0x06: { /* Direct console input/output (Only input supported) */
if (reg.dl == 0xFF) {
if (keyboard.eventWaiting) {
reg.al = keyboard.ascii;
CLR_ZF;
keyboard.eventWaiting = 0;
} else {
reg.al = 0;
SET_ZF;
}
}
break;
}
case 0x25: { /* Set interrupt vector */
/* Ignored. Robot Odyssey uses this to set the INT 24h error handler. */
break;
}
case 0x2C: { /* Get system time */
/*
* XXX: This is supposed to return wallclock time, but Robot Odyssey's
* menu just uses this for calculated delays- so the offset from
* real time is not important.
*/
uint32_t ticks = SDL_GetTicks();
uint32_t seconds = ticks / 1000;
uint32_t minutes = seconds / 60;
uint32_t hours = minutes / 60;
reg.ch = hours % 24;
reg.cl = minutes % 60;
reg.dh = seconds % 60;
reg.dl = (ticks / 10) % 100;
break;
}
case 0x3D: { /* Open File */
int fd = numFiles;
const char *name = mem + SEG(reg.ds, reg.dx);
printf("DOS: Open file %04x:%04x='%s' -> #%d\n",
reg.ds, reg.dx, name, fd);
numFiles++;
files[fd] = fopen(name, "rb");
reg.ax = fd;
CLR_CF;
if (!files[fd]) {
perror("fopen");
exit(1);
}
break;
}
case 0x3E: { /* Close File */
printf("DOS: Close file #%d\n", reg.bx);
CLR_CF;
break;
}
case 0x3F: { /* Read File */
int fd = reg.bx;
int len = reg.cx;
void *dest = mem + SEG(reg.ds, reg.dx);
int result = fread(dest, 1, len, files[fd]);
printf("DOS: Read %d bytes from file #%d -> %d bytes at %04x:%04x\n",
len, fd, result, reg.ds, reg.dx);
reg.ax = result;
CLR_CF;
break;
}
case 0x4C: { /* Exit with return code */
longjmp(dosExitJump, 0x100 | reg.al);
break;
}
default:
printf("DOS: Unsupported! ax=0x%04x\n", reg.ax);
break;
}
return reg;
}
void POINT_EDITOR::addCorner( const VECTOR2I& aBreakPoint )
{
EDA_ITEM* item = m_editPoints->GetParent();
const SELECTION& selection = m_selectionTool->GetSelection();
if( item->Type() == PCB_ZONE_AREA_T )
{
getEditFrame<PCB_BASE_FRAME>()->OnModify();
getEditFrame<PCB_BASE_FRAME>()->SaveCopyInUndoList( selection.items, UR_CHANGED );
ZONE_CONTAINER* zone = static_cast<ZONE_CONTAINER*>( item );
CPolyLine* outline = zone->Outline();
// Handle the last segment, so other segments can be easily handled in a loop
unsigned int nearestIdx = outline->GetCornersCount() - 1, nextNearestIdx = 0;
SEG side( VECTOR2I( outline->GetPos( nearestIdx ) ),
VECTOR2I( outline->GetPos( nextNearestIdx ) ) );
unsigned int nearestDist = side.Distance( aBreakPoint );
for( int i = 0; i < outline->GetCornersCount() - 1; ++i )
{
side = SEG( VECTOR2I( outline->GetPos( i ) ), VECTOR2I( outline->GetPos( i + 1 ) ) );
unsigned int distance = side.Distance( aBreakPoint );
if( distance < nearestDist )
{
nearestDist = distance;
nearestIdx = i;
nextNearestIdx = i + 1;
}
}
// Find the point on the closest segment
VECTOR2I sideOrigin( outline->GetPos( nearestIdx ) );
VECTOR2I sideEnd( outline->GetPos( nextNearestIdx ) );
SEG nearestSide( sideOrigin, sideEnd );
VECTOR2I nearestPoint = nearestSide.NearestPoint( aBreakPoint );
// Do not add points that have the same coordinates as ones that already belong to polygon
// instead, add a point in the middle of the side
if( nearestPoint == sideOrigin || nearestPoint == sideEnd )
nearestPoint = ( sideOrigin + sideEnd ) / 2;
outline->InsertCorner( nearestIdx, nearestPoint.x, nearestPoint.y );
}
else if( item->Type() == PCB_LINE_T || item->Type() == PCB_MODULE_EDGE_T )
{
bool moduleEdge = item->Type() == PCB_MODULE_EDGE_T;
PCB_BASE_FRAME* frame = getEditFrame<PCB_BASE_FRAME>();
frame->OnModify();
if( moduleEdge )
frame->SaveCopyInUndoList( getModel<BOARD>()->m_Modules, UR_MODEDIT );
else
frame->SaveCopyInUndoList( selection.items, UR_CHANGED );
DRAWSEGMENT* segment = static_cast<DRAWSEGMENT*>( item );
if( segment->GetShape() == S_SEGMENT )
{
SEG seg( segment->GetStart(), segment->GetEnd() );
VECTOR2I nearestPoint = seg.NearestPoint( aBreakPoint );
// Move the end of the line to the break point..
segment->SetEnd( wxPoint( nearestPoint.x, nearestPoint.y ) );
// and add another one starting from the break point
DRAWSEGMENT* newSegment;
if( moduleEdge )
{
EDGE_MODULE* edge = static_cast<EDGE_MODULE*>( segment );
assert( segment->GetParent()->Type() == PCB_MODULE_T );
newSegment = new EDGE_MODULE( *edge );
edge->SetLocalCoord();
}
else
{
newSegment = new DRAWSEGMENT( *segment );
}
newSegment->ClearSelected();
newSegment->SetStart( wxPoint( nearestPoint.x, nearestPoint.y ) );
newSegment->SetEnd( wxPoint( seg.B.x, seg.B.y ) );
if( moduleEdge )
{
static_cast<EDGE_MODULE*>( newSegment )->SetLocalCoord();
getModel<BOARD>()->m_Modules->Add( newSegment );
}
else
{
getModel<BOARD>()->Add( newSegment );
}
getView()->Add( newSegment );
}
}
}