/** * @file llpathfindinglinksets.cpp * @author William Todd Stinson * @brief Definition of a pathfinding linkset that contains various properties required for havok pathfinding. * * $LicenseInfo:firstyear=2002&license=viewerlgpl$ * Second Life Viewer Source Code * Copyright (C) 2010, Linden Research, Inc. * * This library is free software; you can redistribute it and/or * modify it under the terms of the GNU Lesser General Public * License as published by the Free Software Foundation; * version 2.1 of the License only. * * This library is distributed in the hope that it will be useful, * but WITHOUT ANY WARRANTY; without even the implied warranty of * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU * Lesser General Public License for more details. * * You should have received a copy of the GNU Lesser General Public * License along with this library; if not, write to the Free Software * Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301 USA * * Linden Research, Inc., 945 Battery Street, San Francisco, CA 94111 USA * $/LicenseInfo$ */ #include "llviewerprecompiledheaders.h" #include "llpathfindinglinksets.h" #include "llsd.h" #include "v3math.h" #include "lluuid.h" //--------------------------------------------------------------------------- // LLPathfindingLinkset //--------------------------------------------------------------------------- const S32 LLPathfindingLinkset::MIN_WALKABILITY_VALUE(0); const S32 LLPathfindingLinkset::MAX_WALKABILITY_VALUE(100); LLPathfindingLinkset::LLPathfindingLinkset(const std::string &pUUID, const LLSD& pNavMeshItem) : mUUID(pUUID), mName(), mDescription(), mLandImpact(0U), mLocation(), mPathState(kIgnored), mIsPhantom(false), #ifdef XXX_STINSON_WALKABILITY_COEFFICIENTS_TYPE_CHANGE mIsWalkabilityCoefficientsF32(false), #endif // XXX_STINSON_WALKABILITY_COEFFICIENTS_TYPE_CHANGE mWalkabilityCoefficientA(MIN_WALKABILITY_VALUE), mWalkabilityCoefficientB(MIN_WALKABILITY_VALUE), mWalkabilityCoefficientC(MIN_WALKABILITY_VALUE), mWalkabilityCoefficientD(MIN_WALKABILITY_VALUE) { llassert(pNavMeshItem.has("name")); llassert(pNavMeshItem.get("name").isString()); mName = pNavMeshItem.get("name").asString(); llassert(pNavMeshItem.has("description")); llassert(pNavMeshItem.get("description").isString()); mDescription = pNavMeshItem.get("description").asString(); llassert(pNavMeshItem.has("landimpact")); llassert(pNavMeshItem.get("landimpact").isInteger()); llassert(pNavMeshItem.get("landimpact").asInteger() >= 0); mLandImpact = pNavMeshItem.get("landimpact").asInteger(); llassert(pNavMeshItem.has("permanent")); llassert(pNavMeshItem.get("permanent").isBoolean()); bool isPermanent = pNavMeshItem.get("permanent").asBoolean(); llassert(pNavMeshItem.has("walkable")); llassert(pNavMeshItem.get("walkable").isBoolean()); bool isWalkable = pNavMeshItem.get("walkable").asBoolean(); mPathState = getPathState(isPermanent, isWalkable); llassert(pNavMeshItem.has("phantom")); llassert(pNavMeshItem.get("phantom").isBoolean()); mIsPhantom = pNavMeshItem.get("phantom").asBoolean(); llassert(pNavMeshItem.has("A")); #ifdef XXX_STINSON_WALKABILITY_COEFFICIENTS_TYPE_CHANGE mIsWalkabilityCoefficientsF32 = pNavMeshItem.get("A").isReal(); if (mIsWalkabilityCoefficientsF32) { // Old server-side storage was real mWalkabilityCoefficientA = llround(pNavMeshItem.get("A").asReal() * 100.0f); llassert(pNavMeshItem.has("B")); llassert(pNavMeshItem.get("B").isReal()); mWalkabilityCoefficientB = llround(pNavMeshItem.get("B").asReal() * 100.0f); llassert(pNavMeshItem.has("C")); llassert(pNavMeshItem.get("C").isReal()); mWalkabilityCoefficientC = llround(pNavMeshItem.get("C").asReal() * 100.0f); llassert(pNavMeshItem.has("D")); llassert(pNavMeshItem.get("D").isReal()); mWalkabilityCoefficientD = llround(pNavMeshItem.get("D").asReal() * 100.0f); } else { // New server-side storage will be integer llassert(pNavMeshItem.get("A").isInteger()); mWalkabilityCoefficientA = pNavMeshItem.get("A").asInteger(); llassert(mWalkabilityCoefficientA >= MIN_WALKABILITY_VALUE); llassert(mWalkabilityCoefficientA <= MAX_WALKABILITY_VALUE); llassert(pNavMeshItem.has("B")); llassert(pNavMeshItem.get("B").isInteger()); mWalkabilityCoefficientB = pNavMeshItem.get("B").asInteger(); llassert(mWalkabilityCoefficientB >= MIN_WALKABILITY_VALUE); llassert(mWalkabilityCoefficientB <= MAX_WALKABILITY_VALUE); llassert(pNavMeshItem.has("C")); llassert(pNavMeshItem.get("C").isInteger()); mWalkabilityCoefficientC = pNavMeshItem.get("C").asInteger(); llassert(mWalkabilityCoefficientC >= MIN_WALKABILITY_VALUE); llassert(mWalkabilityCoefficientC <= MAX_WALKABILITY_VALUE); llassert(pNavMeshItem.has("D")); llassert(pNavMeshItem.get("D").isInteger()); mWalkabilityCoefficientD = pNavMeshItem.get("D").asInteger(); llassert(mWalkabilityCoefficientD >= MIN_WALKABILITY_VALUE); llassert(mWalkabilityCoefficientD <= MAX_WALKABILITY_VALUE); } #else // XXX_STINSON_WALKABILITY_COEFFICIENTS_TYPE_CHANGE llassert(pNavMeshItem.get("A").isInteger()); mWalkabilityCoefficientA = pNavMeshItem.get("A").asInteger(); llassert(mWalkabilityCoefficientA >= MIN_WALKABILITY_VALUE); llassert(mWalkabilityCoefficientA <= MAX_WALKABILITY_VALUE); llassert(pNavMeshItem.has("B")); llassert(pNavMeshItem.get("B").isInteger()); mWalkabilityCoefficientB = pNavMeshItem.get("B").asInteger(); llassert(mWalkabilityCoefficientB >= MIN_WALKABILITY_VALUE); llassert(mWalkabilityCoefficientB <= MAX_WALKABILITY_VALUE); llassert(pNavMeshItem.has("C")); llassert(pNavMeshItem.get("C").isInteger()); mWalkabilityCoefficientC = pNavMeshItem.get("C").asInteger(); llassert(mWalkabilityCoefficientC >= MIN_WALKABILITY_VALUE); llassert(mWalkabilityCoefficientC <= MAX_WALKABILITY_VALUE); llassert(pNavMeshItem.has("D")); llassert(pNavMeshItem.get("D").isInteger()); mWalkabilityCoefficientD = pNavMeshItem.get("D").asInteger(); llassert(mWalkabilityCoefficientD >= MIN_WALKABILITY_VALUE); llassert(mWalkabilityCoefficientD <= MAX_WALKABILITY_VALUE); #endif // XXX_STINSON_WALKABILITY_COEFFICIENTS_TYPE_CHANGE llassert(pNavMeshItem.has("position")); llassert(pNavMeshItem.get("position").isArray()); mLocation.setValue(pNavMeshItem.get("position")); } LLPathfindingLinkset::LLPathfindingLinkset(const LLPathfindingLinkset& pOther) : mUUID(pOther.mUUID), mName(pOther.mName), mDescription(pOther.mDescription), mLandImpact(pOther.mLandImpact), mLocation(pOther.mLocation), mPathState(pOther.mPathState), mIsPhantom(pOther.mIsPhantom), #ifdef XXX_STINSON_WALKABILITY_COEFFICIENTS_TYPE_CHANGE mIsWalkabilityCoefficientsF32(pOther.mIsWalkabilityCoefficientsF32), #endif // XXX_STINSON_WALKABILITY_COEFFICIENTS_TYPE_CHANGE mWalkabilityCoefficientA(pOther.mWalkabilityCoefficientA), mWalkabilityCoefficientB(pOther.mWalkabilityCoefficientB), mWalkabilityCoefficientC(pOther.mWalkabilityCoefficientC), mWalkabilityCoefficientD(pOther.mWalkabilityCoefficientD) { } LLPathfindingLinkset::~LLPathfindingLinkset() { } LLPathfindingLinkset& LLPathfindingLinkset::operator =(const LLPathfindingLinkset& pOther) { mUUID = pOther.mUUID; mName = pOther.mName; mDescription = pOther.mDescription; mLandImpact = pOther.mLandImpact; mLocation = pOther.mLocation; mPathState = pOther.mPathState; mIsPhantom = pOther.mIsPhantom; #ifdef XXX_STINSON_WALKABILITY_COEFFICIENTS_TYPE_CHANGE mIsWalkabilityCoefficientsF32 = pOther.mIsWalkabilityCoefficientsF32; #endif // XXX_STINSON_WALKABILITY_COEFFICIENTS_TYPE_CHANGE mWalkabilityCoefficientA = pOther.mWalkabilityCoefficientA; mWalkabilityCoefficientB = pOther.mWalkabilityCoefficientB; mWalkabilityCoefficientC = pOther.mWalkabilityCoefficientC; mWalkabilityCoefficientD = pOther.mWalkabilityCoefficientD; return *this; } const LLUUID& LLPathfindingLinkset::getUUID() const { return mUUID; } const std::string& LLPathfindingLinkset::getName() const { return mName; } const std::string& LLPathfindingLinkset::getDescription() const { return mDescription; } U32 LLPathfindingLinkset::getLandImpact() const { return mLandImpact; } const LLVector3& LLPathfindingLinkset::getPositionAgent() const { return mLocation; } LLPathfindingLinkset::EPathState LLPathfindingLinkset::getPathState() const { return mPathState; } void LLPathfindingLinkset::setPathState(EPathState pPathState) { mPathState = pPathState; } LLPathfindingLinkset::EPathState LLPathfindingLinkset::getPathState(bool pIsPermanent, bool pIsWalkable) { return (pIsPermanent ? (pIsWalkable ? kWalkable : kObstacle) : kIgnored); } BOOL LLPathfindingLinkset::isPermanent(EPathState pPathState) { BOOL retVal; switch (pPathState) { case kWalkable : case kObstacle : retVal = true; break; case kIgnored : retVal = false; break; default : retVal = false; llassert(0); break; } return retVal; } BOOL LLPathfindingLinkset::isWalkable(EPathState pPathState) { BOOL retVal; switch (pPathState) { case kWalkable : retVal = true; break; case kObstacle : case kIgnored : retVal = false; break; default : retVal = false; llassert(0); break; } return retVal; } BOOL LLPathfindingLinkset::isPhantom() const { return mIsPhantom; } void LLPathfindingLinkset::setPhantom(BOOL pIsPhantom) { mIsPhantom = pIsPhantom; } S32 LLPathfindingLinkset::getWalkabilityCoefficientA() const { return mWalkabilityCoefficientA; } void LLPathfindingLinkset::setWalkabilityCoefficientA(S32 pA) { mWalkabilityCoefficientA = pA; } S32 LLPathfindingLinkset::getWalkabilityCoefficientB() const { return mWalkabilityCoefficientB; } void LLPathfindingLinkset::setWalkabilityCoefficientB(S32 pB) { mWalkabilityCoefficientB = pB; } S32 LLPathfindingLinkset::getWalkabilityCoefficientC() const { return mWalkabilityCoefficientC; } void LLPathfindingLinkset::setWalkabilityCoefficientC(S32 pC) { mWalkabilityCoefficientC = pC; } S32 LLPathfindingLinkset::getWalkabilityCoefficientD() const { return mWalkabilityCoefficientD; } void LLPathfindingLinkset::setWalkabilityCoefficientD(S32 pD) { mWalkabilityCoefficientD = pD; } LLSD LLPathfindingLinkset::getAlteredFields(EPathState pPathState, S32 pA, S32 pB, S32 pC, S32 pD, BOOL pIsPhantom) const { LLSD itemData; if (mPathState != pPathState) { itemData["permanent"] = static_cast(LLPathfindingLinkset::isPermanent(pPathState)); itemData["walkable"] = static_cast(LLPathfindingLinkset::isWalkable(pPathState)); } #ifdef XXX_STINSON_WALKABILITY_COEFFICIENTS_TYPE_CHANGE if (mIsWalkabilityCoefficientsF32) { if (mWalkabilityCoefficientA != pA) { itemData["A"] = llclamp(static_cast(pA) / 100.0f, 0.0f, 1.0f); } if (mWalkabilityCoefficientB != pB) { itemData["B"] = llclamp(static_cast(pB) / 100.0f, 0.0f, 1.0f); } if (mWalkabilityCoefficientC != pC) { itemData["C"] = llclamp(static_cast(pC) / 100.0f, 0.0f, 1.0f); } if (mWalkabilityCoefficientD != pD) { itemData["D"] = llclamp(static_cast(pD) / 100.0f, 0.0f, 1.0f); } } else { if (mWalkabilityCoefficientA != pA) { itemData["A"] = llclamp(pA, MIN_WALKABILITY_VALUE, MAX_WALKABILITY_VALUE); } if (mWalkabilityCoefficientB != pB) { itemData["B"] = llclamp(pB, MIN_WALKABILITY_VALUE, MAX_WALKABILITY_VALUE); } if (mWalkabilityCoefficientC != pC) { itemData["C"] = llclamp(pC, MIN_WALKABILITY_VALUE, MAX_WALKABILITY_VALUE); } if (mWalkabilityCoefficientD != pD) { itemData["D"] = llclamp(pD, MIN_WALKABILITY_VALUE, MAX_WALKABILITY_VALUE); } } #else // XXX_STINSON_WALKABILITY_COEFFICIENTS_TYPE_CHANGE if (mWalkabilityCoefficientA != pA) { itemData["A"] = llclamp(pA, MIN_WALKABILITY_VALUE, MAX_WALKABILITY_VALUE); } if (mWalkabilityCoefficientB != pB) { itemData["B"] = llclamp(pB, MIN_WALKABILITY_VALUE, MAX_WALKABILITY_VALUE); } if (mWalkabilityCoefficientC != pC) { itemData["C"] = llclamp(pC, MIN_WALKABILITY_VALUE, MAX_WALKABILITY_VALUE); } if (mWalkabilityCoefficientD != pD) { itemData["D"] = llclamp(pD, MIN_WALKABILITY_VALUE, MAX_WALKABILITY_VALUE); } #endif // XXX_STINSON_WALKABILITY_COEFFICIENTS_TYPE_CHANGE if (mIsPhantom != pIsPhantom) { itemData["phantom"] = static_cast(pIsPhantom); } return itemData; }