gzdoom/src/p_ceiling.cpp
Randy Heit 7e7ab6b4ec - Fixed compilation with mingw again.
- Added multiple-choice sound sequences. These overcome one of the major
  deficiences of the Hexen-inherited SNDSEQ system while still being Hexen
  compatible: Custom door sounds can now use different opening and closing
  sequences, for both normal and blazing speeds.
- Added a serializer for TArray.
- Added a countof macro to doomtype.h. See the1's blog to find out why
  it's implemented the way it is.
    <http://blogs.msdn.com/the1/articles/210011.aspx>
- Added a new method to FRandom for getting random numbers larger than 255,
  which lets me:
- Fixed: SNDSEQ delayrand commands could delay for no more than 255 tics.
- Fixed: If you're going to have sector_t.SoundTarget, then they need to
  be included in the pointer cleanup scans.
- Ported back newer name code from 2.1.
- Fixed: Using -warp with only one parameter in Doom and Heretic to
  select a map on episode 1 no longer worked.
- New: Loading a multiplayer save now restores the players based on
  their names rather than on their connection order. Using connection
  order was sensible when -net was the only way to start a network game,
  but with -host/-join, it's not so nice. Also, if there aren't enough
  players in the save, then the extra players will be spawned normally,
  so you can continue a saved game with more players than you started it
  with.
- Added some new SNDSEQ commands to make it possible to define Heretic's
  ambient sounds in SNDSEQ: volumerel, volumerand, slot, randomsequence,
  delayonce, and restart. With these, it is basically possible to obsolete
  all of the $ambient SNDINFO commands.
- Fixed: Sound sequences would only execute one command each time they were
  ticked.
- Fixed: No bounds checking was done on the volume sound sequences played at.
- Fixed: The tic parameter to playloop was useless and caused it to
  act like a redundant playrepeat. I have removed all the logic that
  caused playloop to play repeating sounds, and now it acts like an
  infinite sequence of play/delay commands until the sequence is
  stopped.
- Fixed: Sound sequences were ticked every frame, not every tic, so all
  the delay commands were timed incorrectly and varied depending on your
  framerate. Since this is useful for restarting looping sounds that got
  cut off, I have not changed this. Instead, the delay commands now
  record the tic when execution should resume, not the number of tics
  left to delay.


SVN r57 (trunk)
2006-04-21 01:22:55 +00:00

509 lines
13 KiB
C++

// Emacs style mode select -*- C++ -*-
//-----------------------------------------------------------------------------
//
// $Id:$
//
// Copyright (C) 1993-1996 by id Software, Inc.
//
// This source is available for distribution and/or modification
// only under the terms of the DOOM Source Code License as
// published by id Software. All rights reserved.
//
// The source is distributed in the hope that it will be useful,
// but WITHOUT ANY WARRANTY; without even the implied warranty of
// FITNESS FOR A PARTICULAR PURPOSE. See the DOOM Source Code License
// for more details.
//
// $Log:$
//
// DESCRIPTION: Ceiling animation (lowering, crushing, raising)
//
//-----------------------------------------------------------------------------
#include "m_alloc.h"
#include "doomdef.h"
#include "p_local.h"
#include "s_sound.h"
#include "s_sndseq.h"
#include "doomstat.h"
#include "r_state.h"
#include "gi.h"
//
// CEILINGS
//
IMPLEMENT_CLASS (DCeiling)
DCeiling::DCeiling ()
{
}
void DCeiling::Serialize (FArchive &arc)
{
Super::Serialize (arc);
arc << m_Type
<< m_BottomHeight
<< m_TopHeight
<< m_Speed
<< m_Speed1
<< m_Speed2
<< m_Crush
<< m_Silent
<< m_Direction
<< m_Texture
<< m_NewSpecial
<< m_Tag
<< m_OldDirection;
}
void DCeiling::PlayCeilingSound ()
{
if (m_Sector->seqType >= 0)
{
SN_StartSequence (m_Sector, m_Sector->seqType, SEQ_PLATFORM, 0);
}
else
{
if (m_Silent == 2)
SN_StartSequence (m_Sector, "Silence", 0);
else if (m_Silent == 1)
SN_StartSequence (m_Sector, "CeilingSemiSilent", 0);
else
SN_StartSequence (m_Sector, "CeilingNormal", 0);
}
}
//
// T_MoveCeiling
//
void DCeiling::Tick ()
{
EResult res;
switch (m_Direction)
{
case 0:
// IN STASIS
break;
case 1:
// UP
res = MoveCeiling (m_Speed, m_TopHeight, m_Direction);
if (res == pastdest)
{
switch (m_Type)
{
case ceilCrushAndRaise:
m_Direction = -1;
m_Speed = m_Speed1;
if (!SN_IsMakingLoopingSound (m_Sector))
PlayCeilingSound ();
break;
// movers with texture change, change the texture then get removed
case genCeilingChgT:
case genCeilingChg0:
m_Sector->special = m_NewSpecial;
// fall through
case genCeilingChg:
m_Sector->ceilingpic = m_Texture;
// fall through
default:
SN_StopSequence (m_Sector);
Destroy ();
break;
}
}
break;
case -1:
// DOWN
res = MoveCeiling (m_Speed, m_BottomHeight, m_Crush, m_Direction);
if (res == pastdest)
{
switch (m_Type)
{
case ceilCrushAndRaise:
case ceilCrushRaiseAndStay:
m_Speed = m_Speed2;
m_Direction = 1;
if (!SN_IsMakingLoopingSound (m_Sector))
PlayCeilingSound ();
break;
// in the case of ceiling mover/changer, change the texture
// then remove the active ceiling
case genCeilingChgT:
case genCeilingChg0:
m_Sector->special = m_NewSpecial;
// fall through
case genCeilingChg:
m_Sector->ceilingpic = m_Texture;
// fall through
default:
SN_StopSequence (m_Sector);
Destroy ();
break;
}
}
else // ( res != pastdest )
{
if (res == crushed)
{
switch (m_Type)
{
case ceilCrushAndRaise:
case ceilLowerAndCrush:
if (m_Speed1 == FRACUNIT && m_Speed2 == FRACUNIT)
m_Speed = FRACUNIT / 8;
break;
default:
break;
}
}
}
break;
}
}
DCeiling::DCeiling (sector_t *sec)
: DMovingCeiling (sec)
{
}
DCeiling::DCeiling (sector_t *sec, fixed_t speed1, fixed_t speed2, int silent)
: DMovingCeiling (sec)
{
m_Crush = -1;
m_Speed = m_Speed1 = speed1;
m_Speed2 = speed2;
m_Silent = silent;
}
//
// EV_DoCeiling
// Move a ceiling up/down and all around!
//
// [RH] Added tag, speed, speed2, height, crush, silent, change params
bool EV_DoCeiling (DCeiling::ECeiling type, line_t *line,
int tag, fixed_t speed, fixed_t speed2, fixed_t height,
int crush, int silent, int change)
{
int secnum;
bool rtn;
sector_t* sec;
DCeiling* ceiling;
bool manual = false;
fixed_t targheight = 0; // Silence, GCC
vertex_t* spot;
rtn = false;
// check if a manual trigger, if so do just the sector on the backside
if (tag == 0)
{
if (!line || !(sec = line->backsector))
return rtn;
secnum = (int)(sec-sectors);
manual = true;
// [RH] Hack to let manual crushers be retriggerable, too
tag ^= secnum | 0x1000000;
P_ActivateInStasisCeiling (tag);
goto manual_ceiling;
}
// Reactivate in-stasis ceilings...for certain types.
// This restarts a crusher after it has been stopped
if (type == DCeiling::ceilCrushAndRaise)
{
P_ActivateInStasisCeiling (tag);
}
secnum = -1;
// affects all sectors with the same tag as the linedef
while ((secnum = P_FindSectorFromTag (tag, secnum)) >= 0)
{
sec = &sectors[secnum];
manual_ceiling:
// if ceiling already moving, don't start a second function on it
if (sec->ceilingdata)
{
if (!manual)
continue;
else
return false;
}
// new door thinker
rtn = 1;
ceiling = new DCeiling (sec, speed, speed2, silent);
spot = sec->lines[0]->v1;
switch (type)
{
case DCeiling::ceilCrushAndRaise:
case DCeiling::ceilCrushRaiseAndStay:
ceiling->m_TopHeight = sec->ceilingplane.d;
case DCeiling::ceilLowerAndCrush:
targheight = sec->FindHighestFloorPoint (&spot);
if (type != DCeiling::ceilLowerAndCrush || gameinfo.gametype != GAME_Strife)
{
targheight += 8*FRACUNIT;
}
ceiling->m_BottomHeight = sec->ceilingplane.PointToDist (spot, targheight);
ceiling->m_Direction = -1;
break;
case DCeiling::ceilRaiseToHighest:
targheight = sec->FindHighestCeilingSurrounding (&spot);
ceiling->m_TopHeight = sec->ceilingplane.PointToDist (spot, targheight);
ceiling->m_Direction = 1;
break;
case DCeiling::ceilLowerByValue:
targheight = sec->ceilingplane.ZatPoint (spot) - height;
ceiling->m_BottomHeight = sec->ceilingplane.PointToDist (spot, targheight);
ceiling->m_Direction = -1;
break;
case DCeiling::ceilRaiseByValue:
targheight = sec->ceilingplane.ZatPoint (spot) + height;
ceiling->m_TopHeight = sec->ceilingplane.PointToDist (spot, targheight);
ceiling->m_Direction = 1;
break;
case DCeiling::ceilMoveToValue:
{
int diff = height - sec->ceilingplane.ZatPoint (spot);
targheight = height;
if (diff < 0)
{
ceiling->m_BottomHeight = sec->ceilingplane.PointToDist (spot, height);
ceiling->m_Direction = -1;
}
else
{
ceiling->m_TopHeight = sec->ceilingplane.PointToDist (spot, height);
ceiling->m_Direction = 1;
}
}
break;
case DCeiling::ceilLowerToHighestFloor:
targheight = sec->FindHighestFloorSurrounding (&spot);
ceiling->m_BottomHeight = sec->ceilingplane.PointToDist (spot, targheight);
ceiling->m_Direction = -1;
break;
case DCeiling::ceilRaiseToHighestFloor:
targheight = sec->FindHighestFloorSurrounding (&spot);
ceiling->m_TopHeight = sec->ceilingplane.PointToDist (spot, targheight);
ceiling->m_Direction = 1;
break;
case DCeiling::ceilLowerInstant:
targheight = sec->ceilingplane.ZatPoint (spot) - height;
ceiling->m_BottomHeight = sec->ceilingplane.PointToDist (spot, targheight);
ceiling->m_Direction = -1;
ceiling->m_Speed = height;
break;
case DCeiling::ceilRaiseInstant:
targheight = sec->ceilingplane.ZatPoint (spot) + height;
ceiling->m_TopHeight = sec->ceilingplane.PointToDist (spot, targheight);
ceiling->m_Direction = 1;
ceiling->m_Speed = height;
break;
case DCeiling::ceilLowerToNearest:
targheight = sec->FindNextLowestCeiling (&spot);
ceiling->m_BottomHeight = sec->ceilingplane.PointToDist (spot, targheight);
ceiling->m_Direction = -1;
break;
case DCeiling::ceilRaiseToNearest:
targheight = sec->FindNextHighestCeiling (&spot);
ceiling->m_TopHeight = sec->ceilingplane.PointToDist (spot, targheight);
ceiling->m_Direction = 1;
break;
case DCeiling::ceilLowerToLowest:
targheight = sec->FindLowestCeilingSurrounding (&spot);
ceiling->m_BottomHeight = sec->ceilingplane.PointToDist (spot, targheight);
ceiling->m_Direction = -1;
break;
case DCeiling::ceilRaiseToLowest:
targheight = sec->FindLowestCeilingSurrounding (&spot);
ceiling->m_TopHeight = sec->ceilingplane.PointToDist (spot, targheight);
ceiling->m_Direction = 1;
break;
case DCeiling::ceilLowerToFloor:
targheight = sec->FindHighestFloorPoint (&spot);
ceiling->m_BottomHeight = sec->ceilingplane.PointToDist (spot, targheight);
ceiling->m_Direction = -1;
break;
case DCeiling::ceilRaiseToFloor: // [RH] What's this for?
targheight = sec->FindHighestFloorPoint (&spot);
ceiling->m_TopHeight = sec->ceilingplane.PointToDist (spot, targheight);
ceiling->m_Direction = 1;
break;
case DCeiling::ceilLowerToHighest:
targheight = sec->FindHighestCeilingSurrounding (&spot);
ceiling->m_BottomHeight = sec->ceilingplane.PointToDist (spot, targheight);
ceiling->m_Direction = -1;
break;
case DCeiling::ceilLowerByTexture:
targheight = sec->ceilingplane.ZatPoint (spot) - sec->FindShortestUpperAround ();
ceiling->m_BottomHeight = sec->ceilingplane.PointToDist (spot, targheight);
ceiling->m_Direction = -1;
break;
case DCeiling::ceilRaiseByTexture:
targheight = sec->ceilingplane.ZatPoint (spot) + sec->FindShortestUpperAround ();
ceiling->m_TopHeight = sec->ceilingplane.PointToDist (spot, targheight);
ceiling->m_Direction = 1;
break;
default:
break; // Silence GCC
}
ceiling->m_Tag = tag;
ceiling->m_Type = type;
ceiling->m_Crush = crush;
// Do not interpolate instant movement ceilings.
// Note for ZDoomGL: Check to make sure that you update the sector
// after the ceiling moves, because it hasn't actually moved yet.
fixed_t movedist;
if (ceiling->m_Direction < 0)
{
movedist = sec->ceilingplane.d - ceiling->m_BottomHeight;
}
else
{
movedist = ceiling->m_TopHeight - sec->ceilingplane.d;
}
if (ceiling->m_Speed >= movedist)
{
stopinterpolation (INTERP_SectorCeiling, sec);
}
// set texture/type change properties
if (change & 3) // if a texture change is indicated
{
if (change & 4) // if a numeric model change
{
sector_t *modelsec;
//jff 5/23/98 find model with floor at target height if target
//is a floor type
modelsec = (/*type == DCeiling::ceilRaiseToHighest ||*/
type == DCeiling::ceilRaiseToFloor ||
/*type == DCeiling::ceilLowerToHighest ||*/
type == DCeiling::ceilLowerToFloor) ?
sec->FindModelFloorSector (targheight) :
sec->FindModelCeilingSector (targheight);
if (modelsec != NULL)
{
ceiling->m_Texture = modelsec->ceilingpic;
switch (change & 3)
{
case 1: // type is zeroed
ceiling->m_NewSpecial = 0;
ceiling->m_Type = DCeiling::genCeilingChg0;
break;
case 2: // type is copied
ceiling->m_NewSpecial = sec->special;
ceiling->m_Type = DCeiling::genCeilingChgT;
break;
case 3: // type is left alone
ceiling->m_Type = DCeiling::genCeilingChg;
break;
}
}
}
else if (line) // else if a trigger model change
{
ceiling->m_Texture = line->frontsector->ceilingpic;
switch (change & 3)
{
case 1: // type is zeroed
ceiling->m_NewSpecial = 0;
ceiling->m_Type = DCeiling::genCeilingChg0;
break;
case 2: // type is copied
ceiling->m_NewSpecial = line->frontsector->special;
ceiling->m_Type = DCeiling::genCeilingChgT;
break;
case 3: // type is left alone
ceiling->m_Type = DCeiling::genCeilingChg;
break;
}
}
}
ceiling->PlayCeilingSound ();
if (manual)
return rtn;
}
return rtn;
}
//
// Restart a ceiling that's in-stasis
// [RH] Passed a tag instead of a line and rewritten to use a list
//
void P_ActivateInStasisCeiling (int tag)
{
DCeiling *scan;
TThinkerIterator<DCeiling> iterator;
while ( (scan = iterator.Next ()) )
{
if (scan->m_Tag == tag && scan->m_Direction == 0)
{
scan->m_Direction = scan->m_OldDirection;
scan->PlayCeilingSound ();
}
}
}
//
// EV_CeilingCrushStop
// Stop a ceiling from crushing!
// [RH] Passed a tag instead of a line and rewritten to use a list
//
bool EV_CeilingCrushStop (int tag)
{
bool rtn = false;
DCeiling *scan;
TThinkerIterator<DCeiling> iterator;
while ( (scan = iterator.Next ()) )
{
if (scan->m_Tag == tag && scan->m_Direction != 0)
{
SN_StopSequence (scan->m_Sector);
scan->m_OldDirection = scan->m_Direction;
scan->m_Direction = 0; // in-stasis;
rtn = true;
}
}
return rtn;
}