from BitMap import *
from semantic import *
## Variables de Generación de Código
executable = open("CompiledCode.asm", "w+")
dataSegment = []
textSegment = []
mainLabel = []
dictionaryVarReg = {}
currentLabel = 1
bitmap = BitMap()
def codeGenerator():
semantic()
niark = getNiark()
dataHeader = ".data\n"
textHeader = ".text\nj main\n"
mainHeader = "main:\n"
bitmap.inicializar()
dataSegment.append(dataHeader)
textSegment.append(textHeader)
q = 0
'''Inicia el algoritmo recursivo de generación de código'''
for statement in niark.statements:
if type(statement) == Method:
recursive(statement, statement.name)
elif type(statement) == FunctionCall:
codeSqrt = "sqrt: \n \
def test(size, it, ch):
""" Test of memory management algorithms.
size: total size of the memory (in number of blocks).
it: number of operations (insert, delete memory).
ch: chose type of information to be display. """
# Create structures
bf = BitMap(size) # Bit Map for use of fist fit
bn = BitMap(size) # Bit Map for use of next fit
bb = BitMap(size) # Bit Map for use of best fit
bw = BitMap(size) # Bit Map for use of worst fit
lf = LinkedList(size) # Linked List for use of fist fit
ln = LinkedList(size) # Linked List for use of next fit
lb = LinkedList(size) # Linked List for use of best fit
lw = LinkedList(size) # Linked List for use of worst fit
qf = QuickFit(size) # Adapted quick fit using fist fit
qb = QuickFit(size) # Adapted quick fit using best fit
qw = QuickFit(size) # Adapted quick fit using worst fit
bs = BuddySystem(size) # Tree for Buddy System
# Initial information for specific algorithms
if ch == 'bf':
print(bf)
elif ch == 'bn':
print(bn)
elif ch == 'bb':
print(bb)
elif ch == 'bw':
print(bw)
elif ch == 'lf':
print(lf)
elif ch == 'ln':
print(ln)
elif ch == 'lb':
print(lb)
elif ch == 'lw':
print(lw)
elif ch == 'qf':
print(qf)
print(qb)
print(qw)
elif ch == 'bs':
print(bs)
# Segmentation table header
if ch == 'seg':
print("operacao,bfblock,bnblock,bbblock,bwblock,lfblock,lnblock,lbblock,lwblock,qfblock,qbblock,qwblock,bsblock,bfspaces,bnspaces,bbspaces,bwspaces,lfspaces,lnspaces,lbspaces,lwspaces,qfspaces,qbspaces,qwspaces,bsspaces")
# Time table header
if ch == 'time':
print('operacao,','begbf,','begbn,',"begbb,","begbw,","begqf,","begqb,","begqw,","size,","id,","bftime,","bntime,","bbtime,","bwtime,","lftime,","lntime,","lbtime,","lwtime,","qftime,","qbtime,","qwtime,","bstime")
on_memory = [] # indicates processes on memory
for i in range(it):
# random choice is free memory
if(ran.random() > 0.5 and on_memory):
# Chose random process to free from memory
out = on_memory[ran.randint(0,len(on_memory) - 1)]
# Row of a time table
if ch == 'time':
times = "free" + 21 * ",{:d}"
print(times.format(new.begbf,new.begbn,new.begbb,new.begbw,new.begqf,new.begqb,new.begqw,new.size,new.id,bf.time,bn.time,bb.time,bw.time,lf.time,ln.time,lb.time,lw.time,qf.time,qb.time,qw.time,bs.time))
# Information for specific algorithms
elif ch == 'bf':
print("free: id",out.id,"beg:",out.begbf,"size:", out.size)
elif ch == 'bn':
print("free: id",out.id,"beg:",out.begbn,"size:", out.size)
elif ch == 'bb':
print("free: id",out.id,"beg:",out.begbb,"size:", out.size)
elif ch == 'bw':
print("free: id",out.id,"beg:",out.begbw,"size:", out.size)
elif ch == 'qf':
print("free: id",out.id,"beg:",out.begqf,"size:", out.size)
print("free: id",out.id,"beg:",out.begqb,"size:", out.size)
print("free: id",out.id,"beg:",out.begqw,"size:", out.size)
elif ch == "bs":
print("free: id",out.id,"size:", out.size)
# free memory in all structures where this process is allocate
if out.begbf >= 0:
bf.free(out.begbf,out.size)
if out.begbn >= 0:
bn.free(out.begbn,out.size)
if out.begbb >= 0:
bb.free(out.begbb,out.size)
if out.begbf >= 0:
bw.free(out.begbw,out.size)
lf.free(out.id)
ln.free(out.id)
lb.free(out.id)
lw.free(out.id)
if out.begqf != -1:
qf.free(out.begqf, out.size)
if out.begqb != -1:
qb.free(out.begqb, out.size)
if out.begqw != -1:
qw.free(out.begqw, out.size)
bs.free(out.id)
# Remove process from process list
on_memory.remove(out)
# Row of a segmentation table
if ch == 'seg':
(bfblock,bfspaces) = bf.segmentation()
(bnblock,bnspaces) = bn.segmentation()
(bbblock,bbspaces) = bb.segmentation()
(bwblock,bwspaces) = bw.segmentation()
(lfblock,lfspaces) = lf.segmentation()
(lnblock,lnspaces) = ln.segmentation()
(lbblock,lbspaces) = lb.segmentation()
(lwblock,lwspaces) = lw.segmentation()
(qfblock,qfspaces) = qf.segmentation()
(qbblock,qbspaces) = qb.segmentation()
(qwblock,qwspaces) = qw.segmentation()
(bsblock,bsspaces) = bs.segmentation()
print("free",",",bfblock,",",bnblock,",",bbblock,",",bwblock,",",lfblock,",",lnblock,",",lbblock,",",lwblock,",",qfblock,",",qbblock,",",qwblock,",",bsblock,",",bfspaces,",",bnspaces,",",bbspaces,",",bwspaces,",",lfspaces,",",lnspaces,",",lbspaces,",",lwspaces,",",qfspaces,",",qbspaces,",",qwspaces,",",bsspaces)
# random choice is allocate memory
else:
# Chose random size to be allocate
alloc_size = ran.randint(0,20)
# Create new Process representation
new = Process(alloc_size)
# Allocate process memory using all the algorithms
new.begbf = bf.first_fit(new.size)
new.begbn = bn.next_fit(new.size)
new.begbb = bb.best_fit(new.size)
new.begbw = bw.worst_fit(new.size)
lf.first_fit(new.id, new.size)
ln.next_fit(new.id, new.size)
lb.best_fit(new.id, new.size)
lw.worst_fit(new.id, new.size)
new.begqf = qf.first_fit(new.size)
new.begqb = qb.best_fit(new.size)
new.begqw = qw.worst_fit(new.size)
bs.buddy_system(new.id, new.size)
# Add new process to the list of process
on_memory.append(new)
# Row of a time table
if ch == 'time':
times = "alloc" + 21 * ",{:d}"
print(times.format(new.begbf,new.begbn,new.begbb,new.begbw,new.begqf,new.begqb,new.begqw,new.size,new.id,bf.time,bn.time,bb.time,bw.time,lf.time,ln.time,lb.time,lw.time,qf.time,qb.time,qw.time,bs.time))
# Information for specific algorithms
elif ch == 'bf':
print("alloc: id",new.id,"beg:",new.begbf,"size:", new.size)
elif ch == 'bn':
print("alloc: id",new.id,"beg:",new.begbn,"size:", new.size)
elif ch == 'bb':
print("alloc: id",new.id,"beg:",new.begbb,"size:", new.size)
elif ch == 'bw':
print("alloc: id",new.id,"beg:",new.begbw,"size:", new.size)
elif ch == 'qf':
print("alloc: id",new.id,"beg:",new.begqf,"size:", new.size)
print("alloc: id",new.id,"beg:",new.begqb,"size:", new.size)
print("alloc: id",new.id,"beg:",new.begqw,"size:", new.size)
elif ch == "bs":
print("alloc: id",new.id,"size:", new.size)
# Row of a segmentation table
if ch == 'seg':
(bfblock,bfspaces) = bf.segmentation()
(bnblock,bnspaces) = bn.segmentation()
(bbblock,bbspaces) = bb.segmentation()
(bwblock,bwspaces) = bw.segmentation()
(lfblock,lfspaces) = lf.segmentation()
(lnblock,lnspaces) = ln.segmentation()
(lbblock,lbspaces) = lb.segmentation()
(lwblock,lwspaces) = lw.segmentation()
(qfblock,qfspaces) = qf.segmentation()
(qbblock,qbspaces) = qb.segmentation()
(qwblock,qwspaces) = qw.segmentation()
(bsblock,bsspaces) = bs.segmentation()
print("alloc",",",bfblock,",",bnblock,",",bbblock,",",bwblock,",",lfblock,",",lnblock,",",lbblock,",",lwblock,",",qfblock,",",qbblock,",",qwblock,",",bfspaces,",",bnspaces,",",bbspaces,",",bwspaces,",",lfspaces,",",lnspaces,",",lbspaces,",",lwspaces,",",qfspaces,",",qbspaces,",",qwspaces)
# state of structure after each operation for specific algorithms
if ch == 'bf':
print(bf)
elif ch == 'bn':
print(bn)
elif ch == 'bb':
print(bb)
elif ch == 'bw':
print(bw)
elif ch == 'lf':
print(lf)
elif ch == 'ln':
print(ln)
elif ch == 'lb':
print(lb)
elif ch == 'lw':
print(lw)
elif ch == 'qf':
print(qf)
print(qb)
print(qw)
elif ch == 'bs':
print(bs)
def test(size, it, ch):
""" Test of memory management algorithms.
size: total size of the memory (in number of blocks).
it: number of operations (insert, delete memory).
ch: chose type of information to be display. """
# Create structures
bf = BitMap(size) # Bit Map for use of fist fit
bn = BitMap(size) # Bit Map for use of next fit
bb = BitMap(size) # Bit Map for use of best fit
bw = BitMap(size) # Bit Map for use of worst fit
lf = LinkedList(size) # Linked List for use of fist fit
ln = LinkedList(size) # Linked List for use of next fit
lb = LinkedList(size) # Linked List for use of best fit
lw = LinkedList(size) # Linked List for use of worst fit
qf = QuickFit(size) # Adapted quick fit using fist fit
qb = QuickFit(size) # Adapted quick fit using best fit
qw = QuickFit(size) # Adapted quick fit using worst fit
bs = BuddySystem(size) # Tree for Buddy System
# Initial information for specific algorithms
if ch == 'bf':
print(bf)
elif ch == 'bn':
print(bn)
elif ch == 'bb':
print(bb)
elif ch == 'bw':
print(bw)
elif ch == 'lf':
print(lf)
elif ch == 'ln':
print(ln)
elif ch == 'lb':
print(lb)
elif ch == 'lw':
print(lw)
elif ch == 'qf':
print(qf)
print(qb)
print(qw)
elif ch == 'bs':
print(bs)
# Segmentation table header
if ch == 'seg':
print(
"operacao,bfblock,bnblock,bbblock,bwblock,lfblock,lnblock,lbblock,lwblock,qfblock,qbblock,qwblock,bsblock,bfspaces,bnspaces,bbspaces,bwspaces,lfspaces,lnspaces,lbspaces,lwspaces,qfspaces,qbspaces,qwspaces,bsspaces"
)
# Time table header
if ch == 'time':
print('operacao,', 'begbf,', 'begbn,', "begbb,", "begbw,", "begqf,",
"begqb,", "begqw,", "size,", "id,", "bftime,", "bntime,",
"bbtime,", "bwtime,", "lftime,", "lntime,", "lbtime,", "lwtime,",
"qftime,", "qbtime,", "qwtime,", "bstime")
on_memory = [] # indicates processes on memory
for i in range(it):
# random choice is free memory
if (ran.random() > 0.5 and on_memory):
# Chose random process to free from memory
out = on_memory[ran.randint(0, len(on_memory) - 1)]
# Row of a time table
if ch == 'time':
times = "free" + 21 * ",{:d}"
print(
times.format(new.begbf, new.begbn, new.begbb, new.begbw,
new.begqf, new.begqb, new.begqw, new.size,
new.id, bf.time, bn.time, bb.time, bw.time,
lf.time, ln.time, lb.time, lw.time, qf.time,
qb.time, qw.time, bs.time))
# Information for specific algorithms
elif ch == 'bf':
print("free: id", out.id, "beg:", out.begbf, "size:", out.size)
elif ch == 'bn':
print("free: id", out.id, "beg:", out.begbn, "size:", out.size)
elif ch == 'bb':
print("free: id", out.id, "beg:", out.begbb, "size:", out.size)
elif ch == 'bw':
print("free: id", out.id, "beg:", out.begbw, "size:", out.size)
elif ch == 'qf':
print("free: id", out.id, "beg:", out.begqf, "size:", out.size)
print("free: id", out.id, "beg:", out.begqb, "size:", out.size)
print("free: id", out.id, "beg:", out.begqw, "size:", out.size)
elif ch == "bs":
print("free: id", out.id, "size:", out.size)
# free memory in all structures where this process is allocate
if out.begbf >= 0:
bf.free(out.begbf, out.size)
if out.begbn >= 0:
bn.free(out.begbn, out.size)
if out.begbb >= 0:
bb.free(out.begbb, out.size)
if out.begbf >= 0:
bw.free(out.begbw, out.size)
lf.free(out.id)
ln.free(out.id)
lb.free(out.id)
lw.free(out.id)
if out.begqf != -1:
qf.free(out.begqf, out.size)
if out.begqb != -1:
qb.free(out.begqb, out.size)
if out.begqw != -1:
qw.free(out.begqw, out.size)
bs.free(out.id)
# Remove process from process list
on_memory.remove(out)
# Row of a segmentation table
if ch == 'seg':
(bfblock, bfspaces) = bf.segmentation()
(bnblock, bnspaces) = bn.segmentation()
(bbblock, bbspaces) = bb.segmentation()
(bwblock, bwspaces) = bw.segmentation()
(lfblock, lfspaces) = lf.segmentation()
(lnblock, lnspaces) = ln.segmentation()
(lbblock, lbspaces) = lb.segmentation()
(lwblock, lwspaces) = lw.segmentation()
(qfblock, qfspaces) = qf.segmentation()
(qbblock, qbspaces) = qb.segmentation()
(qwblock, qwspaces) = qw.segmentation()
(bsblock, bsspaces) = bs.segmentation()
print("free", ",", bfblock, ",", bnblock, ",", bbblock, ",",
bwblock, ",", lfblock, ",", lnblock, ",", lbblock, ",",
lwblock, ",", qfblock, ",", qbblock, ",", qwblock, ",",
bsblock, ",", bfspaces, ",", bnspaces, ",", bbspaces,
",", bwspaces, ",", lfspaces, ",", lnspaces, ",",
lbspaces, ",", lwspaces, ",", qfspaces, ",", qbspaces,
",", qwspaces, ",", bsspaces)
# random choice is allocate memory
else:
# Chose random size to be allocate
alloc_size = ran.randint(0, 20)
# Create new Process representation
new = Process(alloc_size)
# Allocate process memory using all the algorithms
new.begbf = bf.first_fit(new.size)
new.begbn = bn.next_fit(new.size)
new.begbb = bb.best_fit(new.size)
new.begbw = bw.worst_fit(new.size)
lf.first_fit(new.id, new.size)
ln.next_fit(new.id, new.size)
lb.best_fit(new.id, new.size)
lw.worst_fit(new.id, new.size)
new.begqf = qf.first_fit(new.size)
new.begqb = qb.best_fit(new.size)
new.begqw = qw.worst_fit(new.size)
bs.buddy_system(new.id, new.size)
# Add new process to the list of process
on_memory.append(new)
# Row of a time table
if ch == 'time':
times = "alloc" + 21 * ",{:d}"
print(
times.format(new.begbf, new.begbn, new.begbb, new.begbw,
new.begqf, new.begqb, new.begqw, new.size,
new.id, bf.time, bn.time, bb.time, bw.time,
lf.time, ln.time, lb.time, lw.time, qf.time,
qb.time, qw.time, bs.time))
# Information for specific algorithms
elif ch == 'bf':
print("alloc: id", new.id, "beg:", new.begbf, "size:",
new.size)
elif ch == 'bn':
print("alloc: id", new.id, "beg:", new.begbn, "size:",
new.size)
elif ch == 'bb':
print("alloc: id", new.id, "beg:", new.begbb, "size:",
new.size)
elif ch == 'bw':
print("alloc: id", new.id, "beg:", new.begbw, "size:",
new.size)
elif ch == 'qf':
print("alloc: id", new.id, "beg:", new.begqf, "size:",
new.size)
print("alloc: id", new.id, "beg:", new.begqb, "size:",
new.size)
print("alloc: id", new.id, "beg:", new.begqw, "size:",
new.size)
elif ch == "bs":
print("alloc: id", new.id, "size:", new.size)
# Row of a segmentation table
if ch == 'seg':
(bfblock, bfspaces) = bf.segmentation()
(bnblock, bnspaces) = bn.segmentation()
(bbblock, bbspaces) = bb.segmentation()
(bwblock, bwspaces) = bw.segmentation()
(lfblock, lfspaces) = lf.segmentation()
(lnblock, lnspaces) = ln.segmentation()
(lbblock, lbspaces) = lb.segmentation()
(lwblock, lwspaces) = lw.segmentation()
(qfblock, qfspaces) = qf.segmentation()
(qbblock, qbspaces) = qb.segmentation()
(qwblock, qwspaces) = qw.segmentation()
(bsblock, bsspaces) = bs.segmentation()
print("alloc", ",", bfblock, ",", bnblock, ",", bbblock, ",",
bwblock, ",", lfblock, ",", lnblock, ",", lbblock, ",",
lwblock, ",", qfblock, ",", qbblock, ",", qwblock, ",",
bfspaces, ",", bnspaces, ",", bbspaces, ",", bwspaces,
",", lfspaces, ",", lnspaces, ",", lbspaces, ",",
lwspaces, ",", qfspaces, ",", qbspaces, ",", qwspaces)
# state of structure after each operation for specific algorithms
if ch == 'bf':
print(bf)
elif ch == 'bn':
print(bn)
elif ch == 'bb':
print(bb)
elif ch == 'bw':
print(bw)
elif ch == 'lf':
print(lf)
elif ch == 'ln':
print(ln)
elif ch == 'lb':
print(lb)
elif ch == 'lw':
print(lw)
elif ch == 'qf':
print(qf)
print(qb)
print(qw)
elif ch == 'bs':
print(bs)
'''
Created on 2011-7-29
@author: t-hawa
'''
from BitMap import *;
if __name__ == '__main__':
map=BitMap(10000000);
file_object=open('./randomNumbers.txt');
lines=file_object.readlines();
for row in lines :
map.set_value(int(row),1)
for i in range(0,map.get_length()-1):
if(map.get_value(i)==1):
print i;