internal NState GetNext(int sym)
{
NState rslt = null;
ulong key = checked(((ulong)this.serialNumber << 32) + (ulong)sym);
myNfsa.next.TryGetValue(key, out rslt);
return rslt;
}
/// <summary>
/// Add a transition from NState "this"
/// to NState "nxt", for each character
/// value in the leaf range list.
/// If the characters are packed, transform
/// from character ordinal to equivalence class
/// ordinal.
/// </summary>
/// <param name="leaf">The regex leaf node</param>
/// <param name="nxt">The destination state</param>
public void AddClsTrans(Leaf leaf, NState nxt)
{
BitArray cls = new BitArray(myNfaInst.MaxSym);
if (myNfaInst.Pack)
{
foreach (int ord in leaf.rangeLit.equivClasses)
{
cls[ord] = true;
}
}
else
{
foreach (CharRange rng in leaf.rangeLit.list.Ranges)
{
for (int i = rng.minChr; i <= rng.maxChr; i++)
{
cls[i] = true;
}
}
if (leaf.rangeLit.list.IsInverted)
{
cls = cls.Not();
}
}
AddClsTrans(cls, nxt);
}
/// <summary>
/// Add a transition from NState "this"
/// to NState "nxt", for each character
/// value in the leaf range list.
/// If the characters are packed, transform
/// from character ordinal to equivalence class
/// ordinal.
/// </summary>
/// <param name="leaf">The regex leaf node</param>
/// <param name="nxt">The destination state</param>
public void AddClsTrans(Leaf leaf, NState nxt)
{
if (myNfaInst.parent.task.CaseAgnostic)
{
leaf.rangeLit.list = leaf.rangeLit.list.MakeCaseAgnosticList();
leaf.rangeLit.list.Canonicalize();
}
BitArray cls = new BitArray(myNfaInst.MaxSym);
if (myNfaInst.Pack)
{
foreach (int ord in leaf.rangeLit.equivClasses)
{
cls[ord] = true;
}
}
else
{
foreach (CharRange rng in leaf.rangeLit.list.Ranges)
{
for (int i = rng.minChr; i <= rng.maxChr; i++)
{
cls[i] = true;
}
}
if (leaf.rangeLit.list.IsInverted)
{
cls = cls.Not();
}
}
AddClsTrans(cls, nxt);
}
internal NState GetNext(int sym)
{
NState rslt = null;
uint key = (this.serialNumber << 16) + (ushort)sym;
myNfsa.next.TryGetValue(key, out rslt);
return(rslt);
}
public bool StateTransition(EState state)
{
movementState.ExitState();
movementState = movementStates[(int)state];
movementState.EnterState();
this.state = state;
return(true);
}
internal NState MkState()
{
NState s = new NState(this);
s.ord = nStates.Count;
if (s.ord >= maxE) maxE *= 2;
nStates.Add(s);
return s;
}
private void AddTrns(int chr, NState nxt)
{
if (myNfaInst.Pack)
{
chr = myNfaInst.parent.task.partition[chr];
}
AddRawTransition(chr, nxt);
}
//
// For version 1.0.1 recognize any line-end character if /unicode
//
static void AddAnchorContext(NfsaInstance nInst, NState endS, RuleDesc rule)
{
NState nEnd = nInst.MkState();
Leaf temp = new Leaf(RegOp.charClass);
temp.rangeLit = RangeLiteral.RightAnchors;
nInst.MakePath(temp, endS, nEnd);
nInst.MarkAccept(nEnd, rule);
nEnd.rhCntx = 1;
}
/// <summary>
/// Add an epsilon transition from "this" to "nxt"
/// </summary>
/// <param name="nxt">Destination state</param>
public void AddEpsTrns(NState nxt)
{
int count = epsilons.Count;
if (count < myNfaInst.MaxEps) epsilons.Length = myNfaInst.MaxEps;
if (!epsilons[nxt.ord])
{
epsList.Add(nxt);
epsilons[nxt.ord] = true;
}
}
/// <summary>
/// Add a transition from "this" to "next"
/// for every true bit in the BitArray cls
/// </summary>
/// <param name="cls">The transition bit array</param>
/// <param name="nxt">The destination state</param>
private void AddClsTrans(BitArray cls, NState nxt)
{
for (int i = 0; i < cls.Count; i++)
{
if (cls[i])
{
AddRawTransition(i, nxt);
}
}
}
/// <summary>
/// Add a transition to the NState.
/// Assert: if the symbol ordinals are packed
/// the mapping has already been performed
/// </summary>
/// <param name="ord">The symbol index</param>
/// <param name="nxt">The destination state</param>
private void AddRawTransition(int ord, NState nxt)
{
if (GetNext(ord) == null)
SetNext(ord, nxt);
else // state must have overlapping alternatives
{
NState temp = myNfaInst.MkState();
this.AddEpsTrns(temp);
temp.AddRawTransition(ord, nxt);
}
}
public NfsaInstance(StartState ss, NFSA parent)
{
myStartCondition = ss;
this.parent = parent;
this.pack = parent.task.ChrClasses;
if (pack)
maxS = parent.task.partition.Length; // Number of equivalence classes
else
maxS = parent.task.TargetSymCardinality; // Size of alphabet
entryState = MkState();
}
internal NState MkState()
{
NState s = new NState(this);
s.ord = nStates.Count;
if (s.ord >= MaxEps)
{
MaxEps *= 2;
}
nStates.Add(s);
return(s);
}
void Start()
{
rigidBody = GetComponent <Rigidbody2D>();
boxCollider = GetComponent <BoxCollider2D>();
animator = GetComponent <Animator>();
spriteRenderer = GetComponent <SpriteRenderer>();
fireParticles = transform.GetChild(0).GetComponent <ParticleSystem>();
bloodParticles = transform.GetChild(1).GetComponent <ParticleSystem>();
joystick = ReInput.players.GetPlayer(playerNumber);
movementBools = new Dictionary <string, bool>();
movementBools["pushed"] = false;
movementBools["succed"] = false;
movementBools["bounced"] = false;
movementBools["frozen"] = false;
movementBools["ashed"] = false;
movementBools["spiked"] = false;
movementBools["slipped"] = false;
movementBools["doubled"] = false;
movementBools["active"] = false;
NStateInfo info = new NStateInfo(this, rigidBody, boxCollider, joystick, animator, spriteRenderer, balanceData);
movementStates = new NState[13];
movementStates[0] = new NStateNormal(info, EState.normal);
movementStates[1] = new NStateJump1(info, EState.jump1);
movementStates[2] = new NStateJump2(info, EState.jump2);
movementStates[3] = new NStateAshes(info, EState.ashes);
movementStates[4] = new NStateAirborne(info, EState.airborne);
movementStates[5] = new NStateSucc(info, EState.succ, transform.position);
movementStates[6] = new NStatePushed(info, EState.pushed, Vector2.zero);
movementStates[7] = new NStateBounced(info, EState.bounced, info.bd.bouncedInitialVelocity, info.bd.bouncedTransitionLockoutFrames);
movementStates[8] = new NStateSpiked(info, EState.spiked, Vector2.zero);
movementStates[9] = new NStateSlipped(info, EState.slipped);
movementStates[10] = new NStateSlam(info, EState.slam);
movementStates[11] = new NStateBounced(info, EState.boinked, info.bd.boinkedInitialVelocity, info.bd.boinkedTransitionLockoutFrames);
movementStates[12] = new NStateInactive(info, EState.inactive);
movementState = movementStates[12];
weapons = new SortedList <EElement, Queue <NWeapon> >(6);
weapons[EElement.air] = new Queue <NWeapon>(weaponCounts[0]);
weapons[EElement.fire] = new Queue <NWeapon>(weaponCounts[1]);
weapons[EElement.water] = new Queue <NWeapon>(weaponCounts[2]);
weapons[EElement.earth] = new Queue <NWeapon>(weaponCounts[3]);
weapons[EElement.plasma] = new Queue <NWeapon>(weaponCounts[4]);
weapons[EElement.none] = new Queue <NWeapon>(1);
weaponEquipped = EElement.air;
weapon = null;
totem = null;
totemDist = Mathf.Infinity;
living = true;
avatar = false;
}
/// <summary>
/// Add a transition from NState "this"
/// to NState "nxt", for the character "chr".
/// If the characters are packed, transform
/// from character ordinal to equivalence class
/// ordinal.
/// </summary>
/// <param name="chr">The character value</param>
/// <param name="nxt">The destination state</param>
public void AddChrTrns(int chr, NState nxt) {
if (myNfaInst.parent.task.CaseAgnostic && chr < Char.MaxValue) {
char c = (char)chr;
char lo = Char.ToLower(c);
char hi = Char.ToUpper(c);
if (lo != hi) {
AddTrns(lo, nxt);
AddTrns(hi, nxt);
return;
}
}
AddTrns(chr, nxt);
}
public void SetState(NPCState s, bool instant = false)
{
if (State != null && State.State == s)
{
return;
}
if (!States.ContainsKey(s))
{
Debug.Log("ATTEMPTED TO USE INVALID STATE: " + s);
return;
}
if (State != null)
{
State.OnEnd(this);
}
State = States[s];
State.OnStart(this, instant);
}
//获取新闻、公告状态信息 by nstateid
public NState GetNStateById(int nstateid)
{
//sql连接字符串
string sql = "select * from NState where NStateId=@nstateid";
//参数赋值
SqlParameter[] para = new SqlParameter[]
{
new SqlParameter("@nstateid", nstateid),
};
//执行sql
SqlDataReader reader = SqlHelper.ExecuteReader(SqlHelper.ConnString, CommandType.Text, sql, para);
NState nstate = null;
if (reader.Read())
{
nstate = new NState();
nstate.NStateId = (int)reader["NStateId"];
nstate.NStateName = (string)reader["NStateName"];
}
return(nstate);
}
internal void SetNext(int sym, NState dstState)
{
ulong key = checked (((ulong)this.serialNumber << 32) + (ulong)sym);
myNfsa.next.Add(key, dstState);
}
/// <summary>
/// Build the NFSA from the abstract syntax tree.
/// There is an NfsaInstance for each start state.
/// Each rule starts with a new nfsa state, which
/// is the target of a new epsilon transition from
/// the real start state, nInst.Entry.
/// </summary>
/// <param name="ast"></param>
public void Build(AAST ast)
{
int index = 0;
DateTime time0 = DateTime.Now;
nfas = new NfsaInstance[ast.StartStateCount];
foreach (KeyValuePair <string, StartState> p in ast.startStates)
{
StartState s = p.Value;
string name = p.Key;
if (!s.IsAll)
{
NfsaInstance nInst = new NfsaInstance(s, this);
nfas[index++] = nInst;
nInst.key = name;
// for each pattern do ...
for (int i = 0; i < s.rules.Count; i++)
{
RuleDesc rule = s.rules[i];
RegExTree tree = rule.Tree;
// This test constructs the disjoint automata
// that test code points for predicate evaluation.
if (rule.isPredDummyRule)
{
NState entry = nInst.Entry;
nInst.MakePath(tree, entry, entry);
}
else
{
NState start = nInst.MkState();
NState endSt = nInst.MkState();
if (tree.op == RegOp.leftAnchor) // this is a left anchored pattern
{
nInst.AnchorState.AddEpsTrns(start);
tree = ((Unary)tree).kid;
}
else // this is not a left anchored pattern
{
nInst.Entry.AddEpsTrns(start);
}
//
// Now check for right anchors, and add states as necessary.
//
if (tree.op == RegOp.eof)
{
//
// <<EOF>> rules are always emitted outside
// of the usual subset construction framework.
// We ensure that we do not get spurious warnings.
//
rule.useCount = 1;
nInst.eofAction = rule.aSpan;
nInst.MakePath(tree, start, endSt);
nInst.MarkAccept(endSt, rule);
}
else if (tree.op == RegOp.rightAnchor)
{
tree = ((Unary)tree).kid;
nInst.MakePath(tree, start, endSt);
AddAnchorContext(nInst, endSt, rule);
}
else
{
nInst.MakePath(tree, start, endSt);
nInst.MarkAccept(endSt, rule);
}
}
}
}
}
if (task.Verbose)
{
Console.Write("GPLEX: NFSA built");
Console.Write((task.Errors ? ", errors detected" : " without error"));
Console.Write((task.Warnings ? "; warnings issued. " : ". "));
Console.WriteLine(TaskState.ElapsedTime(time0));
}
if (task.Summary)
{
WriteSummary(time0);
}
}
/// <summary>
/// Create a transition path in the NFSA from the given
/// start state to the given end state, corresponding to the
/// RegEx tree value. The method may (almost always does)
/// create new NFSA states and recurses to make paths for
/// the subtrees of the given tree.
/// </summary>
/// <param name="tree">The tree to encode</param>
/// <param name="start">The start state for the pattern</param>
/// <param name="end">The end state for the pattern</param>
internal void MakePath(RegExTree tree, NState startState, NState endState)
{
NState tmp1 = null;
switch (tree.op)
{
case RegOp.eof:
break;
// Binary nodes ===================================
case RegOp.context:
case RegOp.concat:
case RegOp.alt:
// Binary nodes ===================================
Binary binNode = tree as Binary;
switch (tree.op)
{
case RegOp.context:
int rLen = binNode.rKid.contextLength();
int lLen = binNode.lKid.contextLength();
if (rLen <= 0 && lLen <= 0)
{
throw new StringInterpretException("variable right context '/' not implemented");
}
else
{
endState.rhCntx = rLen;
endState.lhCntx = lLen;
tmp1 = MkState();
MakePath(binNode.lKid, startState, tmp1);
MakePath(binNode.rKid, tmp1, endState);
}
break;
case RegOp.concat:
tmp1 = MkState();
MakePath(binNode.lKid, startState, tmp1);
MakePath(binNode.rKid, tmp1, endState);
break;
case RegOp.alt:
tmp1 = MkState();
MakePath(binNode.lKid, startState, tmp1);
tmp1.AddEpsTrns(endState);
tmp1 = MkState();
MakePath(binNode.rKid, startState, tmp1);
tmp1.AddEpsTrns(endState);
break;
}
break;
// Unary nodes ===================================
case RegOp.closure:
case RegOp.finiteRep:
// Unary nodes ===================================
Unary unaryNode = tree as Unary;
switch (tree.op)
{
case RegOp.closure:
NState tmp2 = MkState();
if (unaryNode.minRep == 0)
{
tmp1 = MkState();
startState.AddEpsTrns(tmp1);
}
else
{
NState dummy = startState;
for (int i = 0; i < unaryNode.minRep; i++)
{
tmp1 = MkState();
MakePath(unaryNode.kid, dummy, tmp1);
dummy = tmp1;
}
}
MakePath(unaryNode.kid, tmp1, tmp2);
tmp2.AddEpsTrns(tmp1);
tmp1.AddEpsTrns(endState);
break;
case RegOp.finiteRep:
{
NState dummy = tmp1 = startState;
for (int i = 0; i < unaryNode.minRep; i++)
{
tmp1 = MkState();
MakePath(unaryNode.kid, dummy, tmp1);
dummy = tmp1;
}
tmp1.AddEpsTrns(endState);
for (int i = unaryNode.minRep; i < unaryNode.maxRep; i++)
{
tmp1 = MkState();
MakePath(unaryNode.kid, dummy, tmp1);
dummy = tmp1;
dummy.AddEpsTrns(endState);
}
}
break;
}
break;
// Leaf nodes ===================================
case RegOp.litStr:
case RegOp.primitive:
case RegOp.charClass:
// Leaf nodes ===================================
Leaf leafNode = tree as Leaf;
switch (tree.op)
{
case RegOp.litStr:
{
// Make a linear sequence of states with successive
// transitions on successive string characters.
//
string text = leafNode.str;
NState dummy = startState;
// Need to deal with special case of empty string
if (text.Length == 0)
{
dummy.AddEpsTrns(endState);
}
else
{
// This code is complicated by the fact that unicode
// escape substitution may have inserted surrogate
// pairs of characters in the string. We need
// one transition for every unicode codepoint,
// not one for every char value in this string.
//
int index = 0;
int code = CharacterUtilities.CodePoint(text, ref index); // First character
int next = CharacterUtilities.CodePoint(text, ref index); // Next, possibly -1
while (next >= 0)
{
tmp1 = MkState();
dummy.AddChrTrns(code, tmp1);
dummy = tmp1;
code = next;
next = CharacterUtilities.CodePoint(text, ref index);
}
// Postcondition ==> "code" is the last char.
dummy.AddChrTrns(code, endState);
}
}
break;
case RegOp.primitive:
startState.AddChrTrns(leafNode.chVal, endState);
break;
case RegOp.charClass:
startState.AddClsTrans(leafNode, endState);
break;
}
break;
default: throw new GplexInternalException("unknown tree op");
}
}
internal void MarkAccept(NState acpt, RuleDesc rule)
{
acpt.accept = rule;
acceptStates.Add(acpt.ord);
}
public Cursor(GState g, STable klass, RxFrame feedback, NState ns, Choice xact, int pos, CapInfo captures)
{
this.mo = this.save_klass = klass;
this.xact = xact;
this.nstate = ns;
this.feedback = feedback;
this.global = g;
this.pos = pos;
this.captures = captures;
}
public NState(NState f)
{
next = f.next; name = f.name; cut_to = f.cut_to;
quant = f.quant; klass = f.klass;
}
public void AddState(NState s)
{
States.Add(s.State, s);
}
internal void SetNext(int sym, NState dstState)
{
uint key = (this.serialNumber << 16) + (ushort)sym;
myNfsa.next.Add(key, dstState);
}
public NState(Choice cut_to, string name, NState proto)
{
next = proto; this.cut_to = cut_to; this.name = name;
if (proto != null) klass = proto.klass;
}
public Cursor(GState g, DynMetaObject klass, NState ns, Choice xact, int pos, CapInfo captures)
{
this.mo = klass;
this.xact = xact;
this.nstate = ns;
this.global = g;
this.pos = pos;
this.captures = captures;
}