def __init__(self, w, num_btb_entries, num_ras_entries, num_bht_entries):
Predictor.__init__(self, w, "Rocket")
assert (self.width == 1)
self.btb = BTB(w, int(num_btb_entries),(0x0, False))
self.ras = RAS(int(num_ras_entries))
nbht = num_bht_entries
self.bht = BHT(nbht, int(math.floor(math.log(nbht, 2))))
class RocketPredictor(Predictor):
def __init__(self, w, num_btb_entries, num_ras_entries, num_bht_entries):
Predictor.__init__(self, w, "Rocket")
assert (self.width == 1)
self.btb = BTB(w, int(num_btb_entries),(0x0, False))
self.ras = RAS(int(num_ras_entries))
nbht = num_bht_entries
self.bht = BHT(nbht, int(math.floor(math.log(nbht, 2))))
def predict(self, pc):
bht_pred_taken = self.bht.predict(pc)
(btb_hit, btb_pred) = self.btb.predict(pc)
(pred_target, pred_is_ret) = btb_pred
br_offset = 0
if (pred_is_ret and not self.ras.isEmpty()):
return (True, self.ras.pop(), br_offset)
if (bht_pred_taken and btb_hit):
return (True, pred_target, br_offset)
else:
return (False, pc+4, br_offset)
def update(self, fetch_pc, f_taken, next_pc, commit_bundle, taken_br_offset):
(pc, taken, target, is_ret, is_call, return_addr) = commit_bundle[0]
self.btb.update(fetch_pc, f_taken, (target, is_ret))
self.bht.update(fetch_pc, f_taken)
if (is_call):
self.ras.push(return_addr)
return
def __init__(self, w, num_btb_entries, num_ras_entries, num_bht_entries):
Predictor.__init__(self, w, "SS-Version 3 (multiple bht counters per packet)")
nbht = num_bht_entries
self.shamt = 2 + int(math.floor(math.log(w,2)))
self.btb = BTB(w, int(num_btb_entries),(0, False, 0))
self.ras = RAS(int(num_ras_entries))
self.bht = BHT(nbht, int(math.floor(math.log(nbht, 2))), 2)
def __init__(self, w, num_btb_entries, num_ras_entries, num_bht_entries):
Predictor.__init__(self, w, "SS-Version 2 (fine-grain PC prediction)")
nbht = num_bht_entries
self.shamt = 2 + int(math.floor(math.log(w,2)))
self.btb = BTB(w, int(num_btb_entries),(0, False, 0))
self.ras = RAS(int(num_ras_entries))
self.bht = BHT(nbht, int(math.floor(math.log(nbht, 2))), self.shamt)
def __init__(self, w, num_btb_entries, num_ras_entries, num_bht_entries):
Predictor.__init__(self, w, "SS-Version 1 (predicts on aligned fetch PC)")
nbht = num_bht_entries
# # mask to help generate aligned PCs on fetch witdh
self.shamt = 2 + int(math.floor(math.log(w,2)))
print "width=%d, shamt=%d" % (self.width, self.shamt)
self.btb = BTB(w, int(num_btb_entries),(0, False, 0))
self.ras = RAS(int(num_ras_entries))
self.bht = BHT(nbht, int(math.floor(math.log(nbht, 2))))
class SSVer3Predictor(Predictor):
def __init__(self, w, num_btb_entries, num_ras_entries, num_bht_entries):
Predictor.__init__(self, w, "SS-Version 3 (multiple bht counters per packet)")
nbht = num_bht_entries
self.shamt = 2 + int(math.floor(math.log(w,2)))
self.btb = BTB(w, int(num_btb_entries),(0, False, 0))
self.ras = RAS(int(num_ras_entries))
self.bht = BHT(nbht, int(math.floor(math.log(nbht, 2))), 2)
def predict(self, pc):
bht_pred_taken = False
aligned_pc = (pc >> self.shamt) << self.shamt
for i in xrange(0,self.width):
curr_pc = aligned_pc + i*4
if (curr_pc >= pc and self.bht.predict(curr_pc)):
bht_pred_taken = True
(btb_hit, btb_pred) = self.btb.predict(pc)
(pred_target, pred_is_ret, br_offset) = btb_pred
if ((aligned_pc+4*br_offset) < pc):
return (False, 1337, 0)
if (pred_is_ret and not self.ras.isEmpty()):
return (True, self.ras.pop(), br_offset)
if (bht_pred_taken and btb_hit):
return (True, pred_target, br_offset)
else:
return (False, 0, 0)
def update(self, fetch_pc, taken, next_pc, commit_bundle, taken_br_offset):
is_ret = False
found_call = False
for uop in commit_bundle:
(pc, taken, target, u_ret, u_call, return_addr) = uop
self.bht.update(pc, taken)
if (u_ret):
is_ret = True
if (u_call and not found_call):
found_call = True
self.ras.push(return_addr)
self.btb.update(fetch_pc, taken, (next_pc, is_ret, taken_br_offset))
return
class SSVer1Predictor(Predictor):
def __init__(self, w, num_btb_entries, num_ras_entries, num_bht_entries):
Predictor.__init__(self, w, "SS-Version 1 (predicts on aligned fetch PC)")
nbht = num_bht_entries
# # mask to help generate aligned PCs on fetch witdh
self.shamt = 2 + int(math.floor(math.log(w,2)))
print "width=%d, shamt=%d" % (self.width, self.shamt)
self.btb = BTB(w, int(num_btb_entries),(0, False, 0))
self.ras = RAS(int(num_ras_entries))
self.bht = BHT(nbht, int(math.floor(math.log(nbht, 2))))
def predict(self, pc):
aligned_pc = (pc >> self.shamt) << self.shamt
bht_pred_taken = self.bht.predict(aligned_pc)
(btb_hit, btb_pred) = self.btb.predict(aligned_pc)
(pred_target, pred_is_ret, br_offset) = btb_pred
#print "aligned pc: 0x%x ret:%d" % (aligned_pc, pred_is_ret)
if ((aligned_pc+4*br_offset) < pc):
return (False, 1337, 0)
if (pred_is_ret and not self.ras.isEmpty()):
return (True, self.ras.pop(), br_offset)
if (bht_pred_taken and btb_hit):
return (True, pred_target, br_offset)
else:
return (False, 0, 0)
def update(self, fetch_pc, taken, next_pc, commit_bundle, taken_br_offset):
is_ret = False
found_call = False
aligned_pc = (fetch_pc >> self.shamt) << self.shamt
for uop in commit_bundle:
(pc, taken, target, u_ret, u_call, return_addr) = uop
self.bht.update(aligned_pc, taken)
if (u_ret):
is_ret = True
if (u_call and not found_call):
found_call = True
self.ras.push(return_addr)
self.btb.update(aligned_pc, taken, (next_pc, is_ret, taken_br_offset))
return
rules = []
model1 = np.zeros((10, 16, 16), dtype=np.float)
model2 = np.zeros((10, 16, 16, 16), dtype=np.float)
model3 = np.zeros((10, 16, 16, 16, 16), dtype=np.float)
for i in range(10):
rule1 = np.zeros((16, 16), dtype=np.float)
rule2 = np.zeros((16, 16, 16), dtype=np.float)
rule3 = np.zeros((16, 16, 16, 16), dtype=np.float)
idxes = check_data(i, training_size)
size = len(idxes)
d = prep_training_data(idxes)
for img in d:
btb = BTB(2, img)
btb.perception()
rule1 = rule1 + btb.lvl1
rule2 = rule2 + btb.lvl2
rule3 = rule3 + btb.lvl3
rule1 = rule1 / size
rule2 = rule2 / size
rule3 = rule3 / size
model1[i, :, :] = rule1
model2[i, :, :, :] = rule2
model3[i, :, :, :, :] = rule3
"""
for i in range(10):
print(i)
def __init__(self, component_id, component_name, \
stat_dict, config_dict, sim_dict, ruby, core_i=0):
self.name = "core"
self.id = "core"
self.parameters = \
{
"clock_rate" : ["1000","Clock Rate in MHz"],
"vdd" : ["0","0 means using ITRS default vdd"],
"power_gating_vcc" : \
["-1","\"-1\" means using default power gating virtual power"
"supply voltage constrained by technology and computed"
"automatically"],
"opt_local" : \
["0","for cores with unknown timing, set to 0 to"
"force off the opt flag"],
"instruction_length" : ["32",""],
"opcode_width" : ["16",""],
"x86" : ["1",""],
"micro_opcode_width" : ["8",""],
"machine_type" : \
["0","Specifies the machine type inorder/OoO; 1"
"inorder; 0 OOO"],
"number_hardware_threads" : \
["2","number_instruction_fetch_ports(icache ports) is always 1"
"in single-thread processor, it only may be more than one in"
"SMT processors. BTB ports always equals to fetch ports since"
"branch information in consecutive branch instructions in the"
"same fetch group can be read out from BTB once."
"(cpu.numThreads)"],
"fetch_width" : ["16","(cpu.fetchWidth)"],
"number_instruction_fetch_ports" : \
["1","fetch_width determines the size of cachelines of L1"
"cache block"],
"decode_width" : \
["16","decode_width determines the number of ports of the"
"renaming table (both RAM and CAM) scheme (cpu.decodeWidth)"],
"issue_width" : ["16","(cpu.issueWidth)"],
"peak_issue_width" : \
["16","issue_width determines the number of ports of Issue"
"window and other logic as in the complexity effective"
"processors paper; issue_width==dispatch_width"
"(cpu.issueWidth)"],
"commit_width" : \
["16","commit_width determines the number of ports of register"
"files (cpu.commitWidth)"],
"fp_issue_width" : \
["2","Issue width of the Floating Poing Unit"],
"prediction_width" : \
["1","number of branch instructions can be predicted"
"simultaneously"],
"pipelines_per_core" : \
["1,1","Current version of McPAT does not distinguish int and"
"floating point pipelines. Theses parameters are reserved for"
"future use. integer_pipeline and floating_pipelines, if the"
"floating_pipelines is 0, then the pipeline is shared"],
"pipeline_depth" : \
["31,31","pipeline depth of int and fp, if pipeline is shared,"
"the second number is the average cycles of fp ops issue and"
"exe unit"],
"ALU_per_core" : \
["6","contains an adder, a shifter, and a logical unit"],
"MUL_per_core" : ["1","For MUL and Div"],
"FPU_per_core" : ["2","buffer between IF and ID stage"],
"instruction_buffer_size" : \
["32","buffer between ID and sche/exe stage"],
"decoded_stream_buffer_size" : ["16",""],
"instruction_window_scheme" : \
["0","0 PHYREG based, 1 RSBASED. McPAT support 2 types of OoO"
"cores, RS based and physical reg based"],
"instruction_window_size" : ["32","(cpu.numIQEntries)"],
"fp_instruction_window_size" : \
["32","The instruction issue Q as in Alpha 21264; The RS as in"
"Intel P6 (cpu.numIQEntries)"],
"ROB_size" : \
["32","Each in-flight instruction has an entry in ROB"
"(cpu.numROBEntries)"],
"archi_Regs_IRF_size" : \
["16","Number of Architectural Integer General Purpose"
"Registers specified by the ISA: X86-64 has 16GPR"],
"archi_Regs_FRF_size" : \
["32","Number of Architectural Registers specified by the ISA:"
"MMX + XMM"],
"phy_Regs_IRF_size" : \
["32","Number of Physical Integer Registers (cpu.numPhysIntRegs)"],
"phy_Regs_FRF_size" : \
["32","Number of Physical FP Registers (cpu.numPhysFloatRegs)"],
"rename_scheme" : \
["0","can be RAM based(0) or CAM based(1) rename scheme "
"RAM-based scheme will have free list, status table; CAM-based "
"scheme have the valid bit in the data field of the CAM"],
"checkpoint_depth" : \
["0","RAM and CAM RAT contains checkpoints, checkpoint_depth=# "
"of in_flight speculations; RAM-based RAT should not have more "
"than 4 GCs (e.g., MIPS R10000). McPAT assumes the exsistance "
"of RRAT when the RAM-RAT having no GCs (e.g., Netburst) "
"CAM-based RAT should have at least 1 GC and can have more than "
"8 GCs."],
"register_windows_size" : \
["0","How many windows in the windowed register file, sun "
"processors; no register windowing is used when this number is "
"0. In OoO cores, loads and stores can be issued whether "
"inorder(Pentium Pro) or (OoO)out-of-order(Alpha), They will "
"always try to execute out-of-order though."],
"LSU_order" : ["inorder","Load/Store Unit (LSU) Ordering"],
"store_buffer_size" : ["16","Store Queue Entries (cpu.SQEntries)"],
"load_buffer_size" : \
["16","By default, in-order cores do not have load buffers "
"(cpu.LQEntries)"],
"memory_ports" : \
["2","max_allowed_in_flight_memo_instructions determines the # "
"of ports of load and store buffer as well as the ports of "
"Dcache which is connected to LSU. Dual-pumped Dcache can be "
"used to save the extra read/write ports. Number of ports refer "
"to sustain-able concurrent memory accesses"],
"RAS_size" : ["2","Branch Predictor RAS Size"],
"number_of_BPT" : ["2","Number of Branch Predictor Tables (BPT)"],
"number_of_BTB" : ["2","Number of Branch Target Buffers (BTB)"]
}
self.stats = \
{
"total_instructions" : ["0","cpu.iq.iqInstsIssued"],
"int_instructions" : \
["0","iq.FU_type_0::No_OpClass + iq.FU_type_0::IntAlu +"
"iq.FU_type_0::IntMult + iq.FU_type_0::IntDiv +"
"iq.FU_type_0::IprAccess"],
"fp_instructions" : \
["0","cpu.iq.FU_type_0::FloatAdd + cpu.iq.FU_type_0::FloatCmp"
"+ cpu.iq.FU_type_0::FloatCvt + cpu.iq.FU_type_0::FloatMult +"
"cpu.iq.FU_type_0::FloatDiv + cpu.iq.FU_type_0::FloatSqrt"],
"branch_instructions" : ["0","cpu.branchPred.condPredicted"],
"branch_mispredictions" : ["0","cpu.branchPred.condIncorrect"],
"load_instructions" : \
["0","cpu.iq.FU_type_0::MemRead + cpu.iq.FU_type_0::InstPrefetch"],
"store_instructions" : ["0","cpu.iq.FU_type_0::MemWrite"],
"committed_instructions" : ["0","cpu.commit.committedOps"],
"committed_int_instructions" : ["0","cpu.commit.int_insts"],
"committed_fp_instructions" : ["0","cpu.commit.fp_insts"],
"pipeline_duty_cycle" : \
["1","<=1, runtime_ipc/peak_ipc; averaged for all cores if"
"homogeneous"],
"total_cycles" : ["1","cpu.numCycles"],
"idle_cycles" : ["0","cpu.num_idle_cycles"],
"busy_cycles" : ["1","cpu.numCycles - cpu.num_idle_cycles"],
"ROB_reads" : ["0","cpu.rob.rob_reads"],
"ROB_writes" : ["0","cpu.rob.rob_writes"],
"rename_reads" : \
["0","lookup in renaming logic (cpu.rename.int_rename_lookups)"],
"rename_writes" : \
["0","cpu.rename.RenamedOperands * "
"cpu.rename.int_rename_lookups / cpu.rename.RenameLookups"],
"fp_rename_reads" : ["0","cpu.rename.fp_rename_lookups"],
"fp_rename_writes" : \
["0","cpu.rename.RenamedOperands * "
"cpu.rename.fp_rename_lookups / cpu.rename.RenameLookups"],
"inst_window_reads" : ["0","cpu.iq.int_inst_queue_reads"],
"inst_window_writes" : ["0","cpu.iq.int_inst_queue_writes"],
"inst_window_wakeup_accesses" : \
["0","cpu.iq.int_inst_queue_wakeup_accesses"],
"fp_inst_window_reads" : ["0","cpu.iq.fp_inst_queue_reads"],
"fp_inst_window_writes" : ["0","cpu.iq.fp_inst_queue_writes"],
"fp_inst_window_wakeup_accesses" : \
["0","cpu.iq.fp_inst_queue_wakeup_accesses"],
"int_regfile_reads" : ["0","cpu.int_regfile_reads"],
"float_regfile_reads" : ["0","cpu.fp_regfile_reads"],
"int_regfile_writes" : ["1","cpu.int_regfile_writes"],
"float_regfile_writes" : ["1","cpu.fp_regfile_writes"],
"function_calls" : ["0","cpu.commit.function_calls"],
"context_switches" : ["0","cpu.workload.num_syscalls"],
"ialu_accesses" : ["1","cpu.iq.int_alu_accesses"],
"fpu_accesses" : ["1","cpu.iq.fp_alu_accesses"],
"mul_accesses" : ["1","cpu.iq.fu_full::FloatMult"],
"cdb_alu_accesses" : ["1","cpu.iq.int_alu_accesses"],
"cdb_mul_accesses" : ["1","cpu.iq.fp_alu_accesses"],
"cdb_fpu_accesses" : ["1","cpu.iq.fp_alu_accesses"],
"IFU_duty_cycle" : ["0.25",""],
"LSU_duty_cycle" : ["0.25",""],
"MemManU_I_duty_cycle" : ["0.25",""],
"MemManU_D_duty_cycle" : ["0.25",""],
"ALU_duty_cycle" : ["1",""],
"MUL_duty_cycle" : ["0.3",""],
"FPU_duty_cycle" : ["0.3",""],
"ALU_cdb_duty_cycle" : ["1",""],
"MUL_cdb_duty_cycle" : ["0.3",""],
"FPU_cdb_duty_cycle" : ["0.3",""]
}
self.predictor = None
self.itlb = None
self.icache = None
self.dtlb = None
self.dcache = None
self.btb = None
self.name = component_name
self.id = component_id
# Init the Directory Parameters and Stats:
self.parameters["clock_rate"][0]= \
str(float(sim_dict["frequency"][core_i]))
self.parameters["vdd"][0] = str(float(sim_dict["voltage"]))
self.parameters["power_gating_vcc"][0] = "-1"
self.parameters["opt_local"][0] = "0"
self.parameters["instruction_length"][0] = "32"
self.parameters["opcode_width"][0] = "16"
self.parameters["x86"][0] = "1"
self.parameters["micro_opcode_width"][0] = "8"
self.parameters["machine_type"][0] = "0"
self.parameters["number_hardware_threads"][0]= \
str(int(config_dict["numThreads"]))
self.parameters["fetch_width"][0] = str(int(config_dict["fetchWidth"]))
self.parameters["number_instruction_fetch_ports"][0] = "1"
self.parameters["decode_width"][0]= \
str(int(config_dict["decodeWidth"]))
self.parameters["issue_width"][0] = str(int(config_dict["issueWidth"]))
self.parameters["peak_issue_width"][0]= \
str(int(config_dict["issueWidth"]))
self.parameters["commit_width"][0]= \
str(int(config_dict["commitWidth"]))
self.parameters["fp_issue_width"][0]= \
str(int(config_dict["fuPool.FUList2.count"]))
self.parameters["prediction_width"][0]= \
str(int(config_dict["branchPred.numThreads"]))
self.parameters["pipelines_per_core"][0] = "1,1"
self.parameters["pipeline_depth"][0] = "31,31"
self.parameters["ALU_per_core"][0]= \
str(int(config_dict["fuPool.FUList0.count"]))
self.parameters["MUL_per_core"][0]= \
str(int(config_dict["fuPool.FUList1.count"]))
self.parameters["FPU_per_core"][0]= \
str(int(config_dict["fuPool.FUList2.count"]) \
+int(config_dict["fuPool.FUList3.count"]))
self.parameters["instruction_buffer_size"][0]= \
str(int(config_dict["fetchBufferSize"]))
self.parameters["decoded_stream_buffer_size"][0] = "16"
self.parameters["instruction_window_scheme"][0] = "0"
self.parameters["instruction_window_size"][0]= \
str(int(config_dict["numIQEntries"]))
self.parameters["fp_instruction_window_size"][0]= \
str(int(config_dict["numIQEntries"]))
self.parameters["ROB_size"][0] = str(int(config_dict["numROBEntries"]))
self.parameters["archi_Regs_IRF_size"][0] = "16"
self.parameters["archi_Regs_FRF_size"][0] = "32"
self.parameters["phy_Regs_IRF_size"][0]= \
str(int(config_dict["numPhysIntRegs"]))
self.parameters["phy_Regs_FRF_size"][0]= \
str(int(config_dict["numPhysFloatRegs"]))
self.parameters["rename_scheme"][0] = "0"
self.parameters["checkpoint_depth"][0] = "0"
self.parameters["register_windows_size"][0] = "0"
self.parameters["LSU_order"][0] = "inorder"
self.parameters["store_buffer_size"][0]= \
str(int(config_dict["SQEntries"]))
self.parameters["load_buffer_size"][0]= \
str(int(config_dict["SQEntries"]))
self.parameters["memory_ports"][0] = "2"
self.parameters["RAS_size"][0]= \
str(int(config_dict["branchPred.RASSize"]))
self.parameters["number_of_BPT"][0]= \
str(int(config_dict["numThreads"]))
self.parameters["number_of_BTB"][0]= \
str(int(config_dict["numThreads"]))
self.stats["total_instructions"][0]= \
str(int(stat_dict["iq.iqInstsIssued"][1])+1)
self.stats["int_instructions"][0]= \
str(int(stat_dict["iq.FU_type_0::No_OpClass"][1]) \
+int(stat_dict["iq.FU_type_0::IntAlu"][1]) \
+int(stat_dict["iq.FU_type_0::IntMult"][1]) \
+int(stat_dict["iq.FU_type_0::IntDiv"][1]) \
+int(stat_dict["iq.FU_type_0::IprAccess"][1])+1)
self.stats["fp_instructions"][0]= \
str(int(stat_dict["iq.FU_type_0::FloatAdd"][1]) \
+int(stat_dict["iq.FU_type_0::FloatCmp"][1]) \
+int(stat_dict["iq.FU_type_0::FloatCvt"][1]) \
+int(stat_dict["iq.FU_type_0::FloatMult"][1]) \
+int(stat_dict["iq.FU_type_0::FloatDiv"][1]) \
+int(stat_dict["iq.FU_type_0::FloatSqrt"][1]))
self.stats["branch_instructions"][0]= \
str(int(stat_dict["branchPred.condPredicted"][1]))
self.stats["branch_mispredictions"][0]= \
str(int(stat_dict["branchPred.condIncorrect"][1]))
self.stats["load_instructions"][0]= \
str(int(stat_dict["iq.FU_type_0::MemRead"][1]) \
+int(stat_dict["iq.FU_type_0::InstPrefetch"][1]))
self.stats["store_instructions"][0]= \
str(int(stat_dict["iq.FU_type_0::MemWrite"][1]))
self.stats["committed_instructions"][0]= \
str(int(stat_dict["commit.committedOps"][1]))
self.stats["committed_int_instructions"][0]= \
str(int(stat_dict["commit.int_insts"][1]))
self.stats["committed_fp_instructions"][0]= \
str(int(stat_dict["commit.fp_insts"][1]))
#self.stats["pipeline_duty_cycle"][0]= \
# str(float(stat_dict["ipc_total"][1]))
self.stats["pipeline_duty_cycle"][0]= \
str(float(1.0))
# self.stats["total_cycles"][0] = str(int(stat_dict["numCycles"][1]))
# self.stats["idle_cycles"][0] = str(int(stat_dict["idleCycles"][1]))
# self.stats["busy_cycles"][0]= \
# str(int(stat_dict["numCycles"][1])-int(stat_dict["idleCycles"][1]))
self.stats["total_cycles"][0] = "1"
self.stats["idle_cycles"][0] = "0"
self.stats["busy_cycles"][0] = "1"
self.stats["ROB_reads"][0] = str(int(stat_dict["rob.rob_reads"][1]))
self.stats["ROB_writes"][0] = str(int(stat_dict["rob.rob_writes"][1]))
self.stats["rename_reads"][0]= \
str(int(stat_dict["rename.int_rename_lookups"][1]))
self.stats["rename_writes"][0]= \
str(int(stat_dict["rename.RenamedOperands"][1]) \
*int(stat_dict["rename.int_rename_lookups"][1]) \
/(1+int(stat_dict["rename.RenameLookups"][1])))
self.stats["fp_rename_reads"][0]= \
str(int(stat_dict["rename.fp_rename_lookups"][1]))
self.stats["fp_rename_writes"][0]= \
str(int(stat_dict["rename.RenamedOperands"][1]) \
*int(stat_dict["rename.fp_rename_lookups"][1]) \
/(1+int(stat_dict["rename.RenameLookups"][1])))
self.stats["inst_window_reads"][0]= \
str(int(stat_dict["iq.int_inst_queue_reads"][1]))
self.stats["inst_window_writes"][0]= \
str(int(stat_dict["iq.int_inst_queue_writes"][1]))
self.stats["inst_window_wakeup_accesses"][0]= \
str(int(stat_dict["iq.int_inst_queue_wakeup_accesses"][1]))
self.stats["fp_inst_window_reads"][0]= \
str(int(stat_dict["iq.fp_inst_queue_reads"][1]))
self.stats["fp_inst_window_writes"][0]= \
str(int(stat_dict["iq.fp_inst_queue_writes"][1]))
self.stats["fp_inst_window_wakeup_accesses"][0]= \
str(int(stat_dict["iq.fp_inst_queue_wakeup_accesses"][1]))
self.stats["int_regfile_reads"][0]= \
str(int(stat_dict["int_regfile_reads"][1]))
self.stats["float_regfile_reads"][0]= \
str(int(stat_dict["fp_regfile_reads"][1]))
self.stats["int_regfile_writes"][0]= \
str(int(stat_dict["int_regfile_writes"][1]))
self.stats["float_regfile_writes"][0]= \
str(int(stat_dict["fp_regfile_writes"][1]))
self.stats["function_calls"][0]= \
str(int(stat_dict["commit.function_calls"][1]))
self.stats["context_switches"][0]= \
str(int(stat_dict["workload.numSyscalls"][1]) \
if "workload.numSyscalls" in stat_dict.keys() else 0)
self.stats["ialu_accesses"][0]= \
str(int(stat_dict["iq.int_alu_accesses"][1]))
self.stats["fpu_accesses"][0]= \
str(int(stat_dict["iq.fp_alu_accesses"][1]))
self.stats["mul_accesses"][0]= \
str(int(stat_dict["iq.fu_full::FloatMult"][1]))
self.stats["cdb_alu_accesses"][0]= \
str(int(stat_dict["iq.int_alu_accesses"][1]))
self.stats["cdb_mul_accesses"][0]= \
str(int(stat_dict["iq.fp_alu_accesses"][1]))
self.stats["cdb_fpu_accesses"][0]= \
str(int(stat_dict["iq.fp_alu_accesses"][1]))
self.stats["IFU_duty_cycle"][0] = "0.25"
self.stats["LSU_duty_cycle"][0] = "0.25"
self.stats["MemManU_I_duty_cycle"][0] = "0.25"
self.stats["MemManU_D_duty_cycle"][0] = "0.25"
self.stats["ALU_duty_cycle"][0] = "1"
self.stats["MUL_duty_cycle"][0] = "0.3"
self.stats["FPU_duty_cycle"][0] = "0.3"
self.stats["ALU_cdb_duty_cycle"][0] = "1"
self.stats["MUL_cdb_duty_cycle"][0] = "0.3"
self.stats["FPU_cdb_duty_cycle"][0] = "0.3"
self.predictor = Predictor \
( \
self.id+".predictor", \
"PBT", \
prune_dict("branchPred.",stat_dict), \
prune_dict("branchPred.",config_dict, "0"), \
sim_dict \
)
self.itlb = TLB \
( \
self.id+".itlb", \
"itlb", \
prune_dict("itb_walker_cache.",stat_dict), \
prune_dict("itb.",config_dict, "0"), \
sim_dict \
)
self.icache = ICache \
( \
self.id+".icache", \
"icache", \
prune_dict("icache.",stat_dict), \
prune_dict("icache.",config_dict, "0"), \
sim_dict \
)
self.dtlb = TLB \
( \
self.id+".dtlb", \
"dtlb", \
prune_dict("dtb_walker_cache.",stat_dict), \
prune_dict("dtb.",config_dict, "0"), \
sim_dict \
)
self.dcache = DCache \
( \
self.id+".dcache", \
"dcache", \
prune_dict("dcache.",stat_dict), \
prune_dict("dcache.",config_dict, "0"), \
sim_dict \
)
self.btb = BTB \
( \
self.id+".BTB", \
"BTB", \
prune_dict("branchPred.",stat_dict), \
prune_dict("branchPred.",config_dict, "0"), \
sim_dict \
)
rules = []
model1 = np.zeros((10, 16, 16), dtype=np.float)
model2 = np.zeros((10, 16, 16, 16), dtype=np.float)
model3 = np.zeros((10, 16, 16, 16, 16), dtype=np.float)
for i in range(10):
rule1 = np.zeros((16, 16), dtype=np.float)
rule2 = np.zeros((16, 16, 16), dtype=np.float)
rule3 = np.zeros((16, 16, 16, 16), dtype=np.float)
idxes = check_data(i, training_size)
size = len(idxes)
d = prep_training_data(idxes)
for img in d:
btb = BTB(2, img)
btb.perception()
rule1 = rule1 + btb.lvl1
rule2 = rule2 + btb.lvl2
rule3 = rule3 + btb.lvl3
rule1 = rule1 / size
rule2 = rule2 / size
rule3 = rule3 / size
model1[i, :, :] = rule1
model2[i, :, :, :] = rule2
model3[i, :, :, :, :] = rule3
"""
for i in range(10):
print(i)