public virtual bool startSubAllocator(int SASize) { int num = SASize; if (this.subAllocatorSize != num) { this.stopSubAllocator(); int num2 = ((num / 12) * UNIT_SIZE) + UNIT_SIZE; int num3 = (1 + num2) + (4 * N_INDEXES); this.tempMemBlockPos = num3; num3 += 12; this.heap = new byte[num3]; this.heapStart = 1; this.heapEnd = (this.heapStart + num2) - UNIT_SIZE; this.subAllocatorSize = num; this.freeListPos = this.heapStart + num2; int index = 0; for (int i = this.freeListPos; index < this.freeList.Length; i += 4) { this.freeList[index] = new RarNode(this.heap); this.freeList[index].Address = i; index++; } this.tempRarNode = new RarNode(this.heap); this.tempRarMemBlock1 = new RarMemBlock(this.heap); this.tempRarMemBlock2 = new RarMemBlock(this.heap); this.tempRarMemBlock3 = new RarMemBlock(this.heap); } return(true); }
private void glueFreeBlocks() { RarMemBlock prev = this.tempRarMemBlock1; prev.Address = this.tempMemBlockPos; RarMemBlock block2 = this.tempRarMemBlock2; RarMemBlock block3 = this.tempRarMemBlock3; if (this.loUnit != this.hiUnit) { this.heap[this.loUnit] = 0; } int index = 0; prev.SetPrev(prev); prev.SetNext(prev); while (index < N_INDEXES) { while (this.freeList[index].GetNext() != 0) { block2.Address = this.removeNode(index); block2.InsertAt(prev); block2.Stamp = 0xffff; block2.SetNU(this.indx2Units[index]); } index++; } block2.Address = prev.GetNext(); while (block2.Address != prev.Address) { block3.Address = this.MBPtr(block2.Address, block2.GetNU()); while ((block3.Stamp == 0xffff) && ((block2.GetNU() + block3.GetNU()) < 0x10000)) { block3.Remove(); block2.SetNU(block2.GetNU() + block3.GetNU()); block3.Address = this.MBPtr(block2.Address, block2.GetNU()); } block2.Address = block2.GetNext(); } block2.Address = prev.GetNext(); while (block2.Address != prev.Address) { block2.Remove(); int nU = block2.GetNU(); while (nU > 0x80) { this.insertNode(block2.Address, N_INDEXES - 1); nU -= 0x80; block2.Address = this.MBPtr(block2.Address, 0x80); } if (this.indx2Units[index = this.units2Indx[nU - 1]] != nU) { int num2 = nU - this.indx2Units[--index]; this.insertNode(this.MBPtr(block2.Address, nU - num2), num2 - 1); } this.insertNode(block2.Address, index); block2.Address = prev.GetNext(); } }
internal void Remove() { RarMemBlock block = new RarMemBlock(base.Memory); block.Address = this.GetPrev(); block.SetNext(this.GetNext()); block.Address = this.GetNext(); block.SetPrev(this.GetPrev()); }
internal void InsertAt(RarMemBlock p) { RarMemBlock temp = new RarMemBlock(Memory); SetPrev(p.Address); temp.Address = GetPrev(); SetNext(temp.GetNext()); // prev.getNext(); temp.SetNext(this); // prev.setNext(this); temp.Address = GetNext(); temp.SetPrev(this); // next.setPrev(this); }
internal void Remove() { RarMemBlock temp = new RarMemBlock(Memory); temp.Address = GetPrev(); temp.SetNext(GetNext()); // prev.setNext(next); temp.Address = GetNext(); temp.SetPrev(GetPrev()); // next.setPrev(prev); // next = -1; // prev = -1; }
internal void InsertAt(RarMemBlock p) { RarMemBlock block = new RarMemBlock(base.Memory); this.SetPrev(p.Address); block.Address = this.GetPrev(); this.SetNext(block.GetNext()); block.SetNext(this); block.Address = this.GetNext(); block.SetPrev(this); }
private void glueFreeBlocks() { RarMemBlock s0 = tempRarMemBlock1; s0.Address = tempMemBlockPos; RarMemBlock p = tempRarMemBlock2; RarMemBlock p1 = tempRarMemBlock3; int i, k, sz; if (loUnit != hiUnit) { heap[loUnit] = 0; } for (i = 0, s0.SetPrev(s0), s0.SetNext(s0); i < N_INDEXES; i++) { while (freeList[i].GetNext() != 0) { p.Address = removeNode(i); // =(RAR_MEM_BLK*)RemoveNode(i); p.InsertAt(s0); // p->insertAt(&s0); p.Stamp = 0xFFFF; // p->Stamp=0xFFFF; p.SetNU(indx2Units[i]); // p->NU=Indx2Units[i]; } } for (p.Address = s0.GetNext(); p.Address != s0.Address; p.Address = p.GetNext()) { // while ((p1=MBPtr(p,p->NU))->Stamp == 0xFFFF && int(p->NU)+p1->NU // < 0x10000) // Bug fixed p1.Address = MBPtr(p.Address, p.GetNU()); while (p1.Stamp == 0xFFFF && p.GetNU() + p1.GetNU() < 0x10000) { p1.Remove(); p.SetNU(p.GetNU() + p1.GetNU()); // ->NU += p1->NU; p1.Address = MBPtr(p.Address, p.GetNU()); } } // while ((p=s0.next) != &s0) // Bug fixed p.Address = s0.GetNext(); while (p.Address != s0.Address) { for (p.Remove(), sz = p.GetNU(); sz > 128; sz -= 128, p.Address = MBPtr(p.Address, 128)) { insertNode(p.Address, N_INDEXES - 1); } if (indx2Units[i = units2Indx[sz - 1]] != sz) { k = sz - indx2Units[--i]; insertNode(MBPtr(p.Address, sz - k), k - 1); } insertNode(p.Address, i); p.Address = s0.GetNext(); } }
internal void Remove() { RarMemBlock temp = new RarMemBlock(Memory); temp.Address = GetPrev(); temp.SetNext(GetNext()); // prev.setNext(next); temp.Address = GetNext(); temp.SetPrev(GetPrev()); // next.setPrev(prev); // next = -1; // prev = -1; }
internal void InsertAt(RarMemBlock p) { RarMemBlock temp = new RarMemBlock(Memory); SetPrev(p.Address); temp.Address = GetPrev(); SetNext(temp.GetNext()); // prev.getNext(); temp.SetNext(this); // prev.setNext(this); temp.Address = GetNext(); temp.SetPrev(this); // next.setPrev(this); }
internal void InsertAt(RarMemBlock p) { RarMemBlock block = new RarMemBlock(base.Memory); this.SetPrev(p.Address); block.Address = this.GetPrev(); this.SetNext(block.GetNext()); block.SetNext(this); block.Address = this.GetNext(); block.SetPrev(this); }
public virtual void stopSubAllocator() { if (this.subAllocatorSize != 0) { this.subAllocatorSize = 0; this.heap = null; this.heapStart = 1; this.tempRarNode = null; this.tempRarMemBlock1 = null; this.tempRarMemBlock2 = null; this.tempRarMemBlock3 = null; } }
public virtual void stopSubAllocator() { if (subAllocatorSize != 0) { subAllocatorSize = 0; //ArrayFactory.BYTES_FACTORY.recycle(heap); heap = null; heapStart = 1; // rarfree(HeapStart); // Free temp fields tempRarNode = null; tempRarMemBlock1 = null; tempRarMemBlock2 = null; tempRarMemBlock3 = null; } }
public virtual bool startSubAllocator(int SASize) { int t = SASize; if (subAllocatorSize == t) { return(true); } stopSubAllocator(); int allocSize = t / FIXED_UNIT_SIZE * UNIT_SIZE + UNIT_SIZE; // adding space for freelist (needed for poiters) // 1+ for null pointer int realAllocSize = 1 + allocSize + 4 * N_INDEXES; // adding space for an additional memblock tempMemBlockPos = realAllocSize; realAllocSize += RarMemBlock.size; heap = new byte[realAllocSize]; heapStart = 1; heapEnd = heapStart + allocSize - UNIT_SIZE; subAllocatorSize = t; // Bug fixed freeListPos = heapStart + allocSize; //UPGRADE_ISSUE: The following fragment of code could not be parsed and was not converted. "ms-help://MS.VSCC.v80/dv_commoner/local/redirect.htm?index='!DefaultContextWindowIndex'&keyword='jlca1156'" //assert(realAllocSize - tempMemBlockPos == RarMemBlock.size): realAllocSize //+ + tempMemBlockPos + + RarMemBlock.size; // Init freeList for (int i = 0, pos = freeListPos; i < freeList.Length; i++, pos += RarNode.size) { freeList[i] = new RarNode(heap); freeList[i].Address = pos; } // Init temp fields tempRarNode = new RarNode(heap); tempRarMemBlock1 = new RarMemBlock(heap); tempRarMemBlock2 = new RarMemBlock(heap); tempRarMemBlock3 = new RarMemBlock(heap); return(true); }
public virtual bool startSubAllocator(int SASize) { int t = SASize; if (subAllocatorSize == t) { return true; } stopSubAllocator(); int allocSize = t/FIXED_UNIT_SIZE*UNIT_SIZE + UNIT_SIZE; // adding space for freelist (needed for poiters) // 1+ for null pointer int realAllocSize = 1 + allocSize + 4*N_INDEXES; // adding space for an additional memblock tempMemBlockPos = realAllocSize; realAllocSize += RarMemBlock.size; heap = new byte[realAllocSize]; heapStart = 1; heapEnd = heapStart + allocSize - UNIT_SIZE; subAllocatorSize = t; // Bug fixed freeListPos = heapStart + allocSize; //UPGRADE_ISSUE: The following fragment of code could not be parsed and was not converted. "ms-help://MS.VSCC.v80/dv_commoner/local/redirect.htm?index='!DefaultContextWindowIndex'&keyword='jlca1156'" //assert(realAllocSize - tempMemBlockPos == RarMemBlock.size): realAllocSize //+ + tempMemBlockPos + + RarMemBlock.size; // Init freeList for (int i = 0, pos = freeListPos; i < freeList.Length; i++, pos += RarNode.size) { freeList[i] = new RarNode(heap); freeList[i].Address = pos; } // Init temp fields tempRarNode = new RarNode(heap); tempRarMemBlock1 = new RarMemBlock(heap); tempRarMemBlock2 = new RarMemBlock(heap); tempRarMemBlock3 = new RarMemBlock(heap); return true; }
public virtual void stopSubAllocator() { if (subAllocatorSize != 0) { subAllocatorSize = 0; //ArrayFactory.BYTES_FACTORY.recycle(heap); heap = null; heapStart = 1; // rarfree(HeapStart); // Free temp fields tempRarNode = null; tempRarMemBlock1 = null; tempRarMemBlock2 = null; tempRarMemBlock3 = null; } }
public virtual void stopSubAllocator() { if (this.subAllocatorSize != 0) { this.subAllocatorSize = 0; this.heap = null; this.heapStart = 1; this.tempRarNode = null; this.tempRarMemBlock1 = null; this.tempRarMemBlock2 = null; this.tempRarMemBlock3 = null; } }
public virtual bool startSubAllocator(int SASize) { int num = SASize; if (this.subAllocatorSize != num) { this.stopSubAllocator(); int num2 = ((num / 12) * UNIT_SIZE) + UNIT_SIZE; int num3 = (1 + num2) + (4 * N_INDEXES); this.tempMemBlockPos = num3; num3 += 12; this.heap = new byte[num3]; this.heapStart = 1; this.heapEnd = (this.heapStart + num2) - UNIT_SIZE; this.subAllocatorSize = num; this.freeListPos = this.heapStart + num2; int index = 0; for (int i = this.freeListPos; index < this.freeList.Length; i += 4) { this.freeList[index] = new RarNode(this.heap); this.freeList[index].Address = i; index++; } this.tempRarNode = new RarNode(this.heap); this.tempRarMemBlock1 = new RarMemBlock(this.heap); this.tempRarMemBlock2 = new RarMemBlock(this.heap); this.tempRarMemBlock3 = new RarMemBlock(this.heap); } return true; }
internal void Remove() { RarMemBlock block = new RarMemBlock(base.Memory); block.Address = this.GetPrev(); block.SetNext(this.GetNext()); block.Address = this.GetNext(); block.SetPrev(this.GetPrev()); }
internal void SetPrev(RarMemBlock prev) { SetPrev(prev.Address); }
internal void SetPrev(RarMemBlock prev) { this.SetPrev(prev.Address); }
internal void SetNext(RarMemBlock next) { this.SetNext(next.Address); }
internal void SetNext(RarMemBlock next) { SetNext(next.Address); }