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aed8ef4d4c
zephyr/scripts/sysgen
Daniel Leung aed8ef4d4c microkernel: events: fix undefined function error 
The handler of the microkernel events are not declared properly.
This causes the public event objects to complain about
undefined functions. Fix this by declaring the function
before using it.

JIRA: ZEP-85
Change-Id: I68afe777bad66e010c92e637806a48911b2f52f4
Signed-off-by: Daniel Leung <daniel.leung@intel.com>
2016-05-04 15:16:55 +00:00

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#! /usr/bin/env python
#
# sysgen - System Generator
#
#
# Copyright (c) 2015, Wind River Systems, Inc.
#
# Licensed under the Apache License, Version 2.0 (the "License");
# you may not use this file except in compliance with the License.
# You may obtain a copy of the License at
#
# http://www.apache.org/licenses/LICENSE-2.0
#
# Unless required by applicable law or agreed to in writing, software
# distributed under the License is distributed on an "AS IS" BASIS,
# WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
# See the License for the specific language governing permissions and
# limitations under the License.
#
# Arguments:
# - name of MDEF file
# - name of directory for output files (optional)
# Generates:
# - kernel_main.c file
# - kernel_main.h file (local copy)
# - micro_private_types.h file (local copy)
# - sysgen.h file
import os
import sys
import subprocess
# global variables describing system
MIN_HEAP = 64
heap_pos_in_pool_list = -1
num_kargs = 0
num_timers = 0
num_prios = 0
num_task_irqs = 0
task_list = []
event_list = []
mutex_list = []
sema_list = []
fifo_list = []
pipe_list = []
mbx_list = []
map_list = []
pool_list = []
group_dictionary = {}
group_key_list = []
# global variables used during generation of output files
do_not_edit_warning = \
"\n\n\n/* THIS FILE IS AUTOGENERATED -- DO NOT MODIFY! */\n\n\n"
copyright = \
"/*\n" + \
" * Copyright (c) 2015 Wind River Systems, Inc.\n" + \
" *\n" + \
" * Licensed under the Apache License, Version 2.0 (the \"License\");\n" + \
" * you may not use this file except in compliance with the License.\n" + \
" * You may obtain a copy of the License at\n" + \
" *\n" + \
" * http://www.apache.org/licenses/LICENSE-2.0\n" + \
" *\n" + \
" * Unless required by applicable law or agreed to in writing, software\n" + \
" * distributed under the License is distributed on an \"AS IS\" BASIS,\n" + \
" * WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.\n" + \
" * See the License for the specific language governing permissions and\n" + \
" * limitations under the License.\n" + \
" */\n"
output_dir = ""
def get_output_dir():
""" Handle optional output directory argument """
global output_dir
if len(sys.argv) > 2:
output_dir = sys.argv[2]
def write_file(filename, contents):
""" Create file using specified name and contents """
f = open(filename, 'w') # overwrites file if it already exists
f.write(contents)
f.close()
#
# ERROR HANDLING
#
def sysgen_error(msg):
print("\n*** sysgen error: " + msg + "\n")
sys.exit(1)
def error_arg_count(line):
sysgen_error("invalid number of arguments on following line\n" + line)
#
# CREATE INTERNAL REPRESENTATION OF SYSTEM
#
def mdef_parse():
""" Parse MDEF file """
global num_kargs
global num_timers
global num_prios
global MIN_HEAP
global heap_pos_in_pool_list
# read file contents in a single shot
with open(sys.argv[1], 'r') as infile:
data = infile.read()
# create list of the lines, breaking at line boundaries
my_list = data.splitlines()
# process each line
for line in my_list:
words = line.split()
if (len(words) == 0):
continue # ignore blank line
if (words[0][0] == "%"):
continue # ignore comment line
if (words[0] == "CONFIG"):
if (len(words) != 4):
error_arg_count(line)
num_kargs = int(words[1])
num_timers = int(words[2])
num_prios = int(words[3])
continue
if (words[0] == "TASK"):
if (len(words) != 6):
error_arg_count(line)
task_list.append((words[1], int(words[2]), words[3],
int(words[4]), words[5]))
continue
if (words[0] == "TASKGROUP"):
if (len(words) != 2):
error_arg_count(line)
if words[1] in group_dictionary:
continue # ignore re-definition of a task group
group_bitmask = 1 << len(group_dictionary)
group_dictionary[words[1]] = group_bitmask
group_key_list.append(words[1])
continue
if (words[0] == "EVENT"):
if (len(words) != 3):
error_arg_count(line)
event_list.append((words[1], words[2]))
continue
if (words[0] == "SEMA"):
if (len(words) != 2):
error_arg_count(line)
sema_list.append((words[1],))
continue
if (words[0] == "MUTEX"):
if (len(words) != 2):
error_arg_count(line)
mutex_list.append((words[1],))
continue
if (words[0] == "FIFO"):
if (len(words) != 4):
error_arg_count(line)
fifo_list.append((words[1], int(words[2]), int(words[3])))
continue
if (words[0] == "PIPE"):
if (len(words) != 3):
error_arg_count(line)
pipe_list.append((words[1], int(words[2])))
continue
if (words[0] == "MAILBOX"):
if (len(words) != 2):
error_arg_count(line)
mbx_list.append((words[1],))
continue
if (words[0] == "MAP"):
if (len(words) != 4):
error_arg_count(line)
map_list.append((words[1], int(words[2]), int(words[3])))
continue
if (words[0] == "POOL"):
if (len(words) != 5):
error_arg_count(line)
pool_list.append((words[1], int(words[2]), int(words[3]),
int(words[4])))
continue
if (words[0] == "HEAP_SIZE"):
if (len(words) != 2):
error_arg_count(line)
heap_size = int(words[1])
heap_pos_in_pool_list = len(pool_list)
pool_list.append(("_HEAP_MEM_POOL", MIN_HEAP, heap_size, 1))
continue
sysgen_error("unrecognized keyword %s on following line\n%s" %
(words[0], line))
#
# GENERATE kernel_main.c FILE
#
kernel_main_c_data = ""
kernel_main_c_filename_str = \
"/* kernel_main.c - microkernel objects */\n\n"
def kernel_main_c_out(string):
""" Append a string to kernel_main.c """
global kernel_main_c_data
kernel_main_c_data += string
def kernel_main_c_header():
""" Generate initial portion of kernel_main.c """
kernel_main_c_out(
kernel_main_c_filename_str +
copyright +
do_not_edit_warning +
"\n" +
"#include <sysgen.h>\n" +
"#include <misc/debug/object_tracing_common.h>\n" +
"#include <micro_private_types.h>\n" +
"#include <kernel_main.h>\n" +
"#include <toolchain.h>\n" +
"#include <sections.h>\n")
def kernel_main_c_kargs():
""" Generate command packet variables """
# command packets
kernel_main_c_out("\n" +
"struct k_args _k_server_command_packets[%s] =\n" % (num_kargs) +
"{\n" +
" {NULL, NULL, 0, 0, _K_SVC_UNDEFINED},\n")
for i in range(1, num_kargs - 1):
kernel_main_c_out(
" {&_k_server_command_packets[%d], " % (i - 1) +
"NULL, 0, 0, _K_SVC_UNDEFINED},\n")
kernel_main_c_out(
" {&_k_server_command_packets[%d], " % (num_kargs - 2) +
"NULL, 0, 0, _K_SVC_UNDEFINED}\n" +
"};\n")
# linked list of free command packets
kernel_main_c_out("\n" +
"struct nano_lifo _k_server_command_packet_free = " +
"{{NULL, &_k_server_command_packet_free.wait_q.head}, " +
"(void *) &_k_server_command_packets[%d]};\n" % (num_kargs - 1))
def kernel_main_c_timers():
""" Generate timer system variables """
if (num_timers == 0):
return
# timer descriptors
kernel_main_c_out("\n" +
"struct k_timer _k_timer_blocks[%d] =\n" % (num_timers) +
"{\n" +
" {NULL, NULL, 0, 0, (struct k_args *)0xffffffff},\n")
for i in range(1, num_timers - 1):
kernel_main_c_out(
" {&_k_timer_blocks[%d], " % (i - 1) +
"NULL, 0, 0, (struct k_args *)0xffffffff},\n")
kernel_main_c_out(
" {&_k_timer_blocks[%d], " % (num_timers - 2) +
"NULL, 0, 0, (struct k_args *)0xffffffff}\n" +
"};\n")
# linked list of free timers
kernel_main_c_out("\n" +
"struct nano_lifo _k_timer_free = " +
"{{NULL, &_k_timer_free.wait_q.head}, " +
"(void *) &_k_timer_blocks[%d]};\n" % (num_timers - 1))
def kernel_main_c_tasks():
""" Generate task variables """
global num_prios
# task stack areas
kernel_main_c_out("\n")
for task in task_list:
kernel_main_c_out("char __noinit __stack __%s_stack[%d];\n" %
(task[0], task[3]))
kernel_main_c_out("extern char main_task_stack[CONFIG_MAIN_STACK_SIZE];\n")
# declare task entry points
kernel_main_c_out("\n")
for task in task_list:
kernel_main_c_out("EXTERN_C void %s(void);\n" % task[2])
# task descriptors (including one for idle task)
#
# compiler puts these objects into the section as if
# it is a stack. hence the need to reverse the list.
# this is to preseve the order defined in MDEF file.
kernel_main_c_out("\n")
for task in reversed(task_list):
name = task[0]
prio = task[1]
entry = task[2]
size = task[3]
obj_name = "_k_task_obj_%s" % (name)
stack = "__" + task[0] + "_stack"
# create bitmask of group(s) task belongs to
group_bitmask = 0
group_set = task[4][1:len(task[4]) - 1] # drop [] surrounding groups
if (group_set != ""):
group_list = group_set.split(',')
for group in group_list:
group_bitmask |= group_dictionary[group]
# invert bitmask to convert SYS indication to non-SYS indication
#
# NOTE: There actually is no SYS group; instead, there is a non-SYS
# group that all tasks belong to unless they specify the 'SYS' name.
# This approach allows the kernel to easily suspend all non-SYS tasks
# during debugging, while minimizing the number of task entries that
# have to explicitly indicate their SYS/non-SYS status.
group_bitmask ^= group_dictionary['SYS']
kernel_main_c_out(
"struct k_task %s " % (obj_name)+
"__in_section(_k_task_list, public, task) =\n" +
" {NULL, NULL, %d, (ktask_t)&%s,\n" % (prio, obj_name) +
" 0x00000001, %#010x,\n" % (group_bitmask) +
" %s, %s, %d,\n" % (entry, stack, size) +
" (taskabortfunction)NULL, NULL};\n" +
"ktask_t _k_task_ptr_%s " % (name) +
" __in_section(_k_task_ptr, public, task) = " +
" (ktask_t)&%s;\n" % (obj_name))
kernel_main_c_out(
"struct k_task _k_task_idle " +
"__in_section(_k_task_list, idle, task) =\n" +
" {NULL, NULL, %d, 0x00000000,\n" % (num_prios - 1) +
" 0x00000000, 0x00000000,\n" +
" (taskstartfunction)NULL, main_task_stack,\n"
" CONFIG_MAIN_STACK_SIZE,\n" +
" (taskabortfunction)NULL, NULL};\n" +
"ktask_t _k_task_ptr_idle " +
" __in_section(_k_task_ptr, idle, task) = " +
" (ktask_t)&_k_task_idle;\n")
# currently scheduled task (idle task)
kernel_main_c_out("\n" +
"struct k_task * _k_current_task = &_k_task_idle;\n")
def kernel_main_c_priorities():
""" Generate task scheduling variables """
global num_prios
total_tasks = len(task_list) + 1
# priority queue descriptors (lowest priority queue contains idle task)
kernel_main_c_out("\n" +
"struct k_tqhd _k_task_priority_list[%d] =\n" % (num_prios) +
"{\n")
for i in range(1, num_prios):
kernel_main_c_out(
" {NULL, (struct k_task *)&_k_task_priority_list[%d]},\n" %
(i - 1))
kernel_main_c_out(
" {&_k_task_idle, &_k_task_idle}\n" +
"};\n")
# active priority queue (idle task's queue)
kernel_main_c_out("\n" +
"struct k_tqhd * K_Prio = &_k_task_priority_list[%d];\n" %
(num_prios - 1))
# priority queue bit map (indicates which priority queues are non-empty;
# initially only the idle task's queue has a runnable task)
num_bit_maps = ((num_prios + 31) // 32)
kernel_main_c_out("\n" +
"uint32_t _k_task_priority_bitmap[%d] = {" % (num_bit_maps))
for i in range(1, num_bit_maps):
kernel_main_c_out("0, ")
kernel_main_c_out("(1u << %d)};\n" % ((num_prios - 1) & 0x1f))
def kernel_main_c_events():
""" Generate event variables """
global num_task_irqs
# event descriptors
# pre-defined event for timer
if (num_timers > 0):
kernel_main_c_out("DEFINE_EVENT(TICK_EVENT, _k_ticker);\n")
else:
kernel_main_c_out("DEFINE_EVENT(TICK_EVENT, NULL);\n")
# project-specific events
for event in event_list:
# if there is a handler function, it needs to be declared
# before setting up the object via DEFINE_EVENT()
#
# in other words, no declaration if handler is NULL or 0
handler = event[1].strip().lower()
if handler != "null" and handler != "0":
kernel_main_c_out("extern int %s(int event);\n"% (event[1]))
kernel_main_c_out("DEFINE_EVENT(%s, %s);\n" % (event[0], event[1]))
if (event[0].startswith("_TaskIrqEvt")):
num_task_irqs += 1
if (num_task_irqs > 0):
kernel_main_c_out("const kevent_t _TaskIrqEvt_objIds[] = {\n")
for i in range(0, num_task_irqs):
kernel_main_c_out(
" (kevent_t)&_k_event_obj__TaskIrqEvt%d,\n" % (i)
)
kernel_main_c_out("};\n")
def kernel_main_c_mutexes():
""" Generate mutex variables """
total_mutexes = len(mutex_list)
if (total_mutexes == 0):
return
# mutex descriptors
kernel_main_c_out("\n")
for mutex in mutex_list:
name = mutex[0]
kernel_main_c_out("struct _k_mutex_struct _k_mutex_obj_%s = " % (name) +
"__MUTEX_DEFAULT;\n")
def kernel_main_c_semas():
""" Generate semaphore variables """
total_semas = len(sema_list)
if (total_semas == 0):
return
# semaphore descriptors
kernel_main_c_out("\n")
for semaphore in sema_list:
name = semaphore[0]
kernel_main_c_out("struct _k_sem_struct _k_sem_obj_%s = " % (name) +
"__K_SEMAPHORE_DEFAULT;\n")
def kernel_main_c_fifos():
""" Generate FIFO variables """
total_fifos = len(fifo_list)
if (total_fifos == 0):
return
# FIFO buffers
kernel_main_c_out("\n")
for fifo in fifo_list:
kernel_main_c_out(
"char __noinit __%s_buffer[%d];\n" % (fifo[0], fifo[1] * fifo[2]))
# FIFO descriptors
kernel_main_c_out("\n")
for fifo in fifo_list:
name = fifo[0]
depth = fifo[1]
width = fifo[2]
buffer = "__" + fifo[0] + "_buffer"
kernel_main_c_out("struct _k_fifo_struct _k_fifo_obj_%s = " % (name) +
"__K_FIFO_DEFAULT(%d, %d, %s);\n" % (depth, width, buffer))
kernel_main_c_out("\n")
def kernel_main_c_pipes():
""" Generate pipe variables """
total_pipes = len(pipe_list)
if (total_pipes == 0):
return
# pipe buffers
kernel_main_c_out("\n")
for pipe in pipe_list:
kernel_main_c_out(
"char __noinit __%s_buffer[%d];\n" % (pipe[0], pipe[1]))
# pipe descriptors
for pipe in pipe_list:
name = pipe[0]
size = pipe[1]
buffer = "__" + pipe[0] + "_buffer"
kernel_main_c_out("struct _k_pipe_struct _k_pipe_obj_%s = " % (name) +
" __K_PIPE_INITIALIZER(%d, %s);\n" % (size, buffer) +
"kpipe_t _k_pipe_ptr_%s " % (name) +
" __in_section(_k_pipe_ptr, public, pipe) =\n" +
" (kpipe_t)&_k_pipe_obj_%s;\n" % (name))
def kernel_main_c_mailboxes():
""" Generate mailbox variables """
total_mbxs = len(mbx_list)
if (total_mbxs == 0):
return
# mailbox descriptors
kernel_main_c_out("\n")
for mbx in mbx_list:
name = mbx[0]
kernel_main_c_out("struct _k_mbox_struct _k_mbox_obj_%s = " % (name) +
"__K_MAILBOX_DEFAULT;\n")
kernel_main_c_out("\n")
def kernel_main_c_maps():
""" Generate memory map variables """
total_maps = len(map_list)
if (total_maps == 0):
return
# memory map buffers
kernel_main_c_out("\n")
for map in map_list:
blocks = map[1]
block_size = map[2]
kernel_main_c_out("char __noinit __MAP_%s_buffer[%d];\n" %
(map[0], blocks * block_size))
# memory map descriptors
for map in map_list:
name = map[0]
blocks = map[1]
block_size = map[2]
kernel_main_c_out(
"struct _k_mem_map_struct _k_mem_map_obj_%s = " % (name) +
" __K_MEM_MAP_INITIALIZER(%d, %d, __MAP_%s_buffer);\n" %
(blocks, block_size, map[0]) +
"kmemory_map_t _k_mem_map_ptr_%s " % (name) +
" __in_section(_k_mem_map_ptr, public, mem_map) =\n" +
" (kmemory_map_t)&_k_mem_map_obj_%s;\n" % (name))
def kernel_main_c_pools():
""" Generate memory pool variables """
global heap_pos_in_pool_list
total_pools = len(pool_list)
# pool global variables
kernel_main_c_out("\nint _k_mem_pool_count = %d;\n" % (total_pools))
if (total_pools == 0):
kernel_main_c_out("\nstruct pool_struct * _k_mem_pool_list = NULL;\n")
return
# Heap pool if present can be indexed using the below variable
if (heap_pos_in_pool_list != -1):
kernel_main_c_out("\nconst kmemory_pool_t _heap_mem_pool_id = %d;\n" \
%(heap_pos_in_pool_list))
# start accumulating memory pool descriptor info
pool_descriptors = "\nstruct pool_struct _k_mem_pool_list[%d] =\n{\n" % \
(total_pools)
ident = 0x00010000
for pool in pool_list:
kernel_main_c_out("\n")
# create local variables relating to current pool
min_block_size = pool[1]
max_block_size = pool[2]
num_maximal_blocks = pool[3]
total_memory = max_block_size * num_maximal_blocks
buffer = "__" + pool[0] + "_buffer"
frag_table = "fragtab_%#010x" % ident
# determine block sizes used by pool (including actual minimum size)
frag_size_list = [max_block_size]
while (ident != 0): # loop forever
min_block_size_actual = frag_size_list[len(frag_size_list) - 1]
min_block_size_proposed = min_block_size_actual / 4
if (min_block_size_proposed < min_block_size):
break
frag_size_list.append(min_block_size_proposed)
frag_levels = len(frag_size_list)
# determine size of block status arrays
# - largest size gets special handling
# - remainder of algorithm is a complete mystery ...
block_status_sizes = [(num_maximal_blocks + 3) / 4]
block_status_size_to_use = num_maximal_blocks
for index in range(1, frag_levels):
block_status_sizes.append(block_status_size_to_use)
block_status_size_to_use *= 4
# generate block status areas
for index in range(0, frag_levels):
kernel_main_c_out(
"struct block_stat blockstatus_%#010x_%d[%d];\n" %
(ident, index, block_status_sizes[index]))
# generate memory pool fragmentation descriptor
kernel_main_c_out("\nstruct pool_block %s[%d] =\n{\n" %
(frag_table, frag_levels))
for index in range(0, frag_levels):
kernel_main_c_out(" { %d, %d, blockstatus_%#010x_%d},\n" %
(frag_size_list[index], block_status_sizes[index],
ident, index))
kernel_main_c_out("};\n")
# generate memory pool buffer
kernel_main_c_out("\nchar __noinit %s[%d];\n" % (buffer, total_memory))
# append memory pool descriptor info
pool_descriptors += " {%d, %d, 2, %d, %d, %d, NULL, %s, %s},\n" % \
(max_block_size, min_block_size_actual, total_memory,
num_maximal_blocks, frag_levels, frag_table, buffer)
ident += 1
# generate memory pool descriptor info
pool_descriptors += "};\n"
kernel_main_c_out(pool_descriptors)
def kernel_main_c_node_init():
""" Generate node initialization routine """
kernel_main_c_out("\n" +
"void _k_init_dynamic(void)\n{\n")
kernel_main_c_out(" _k_pipe_init();\n")
kernel_main_c_out(" _k_mem_map_init();\n")
if (len(pool_list) > 0):
kernel_main_c_out(" _k_mem_pool_init();\n")
kernel_main_c_out("#ifdef CONFIG_DEBUG_TRACING_KERNEL_OBJECTS\n")
# mutex object ids
for mutex in mutex_list:
name = mutex[0]
kernel_main_c_out("\tSYS_TRACING_OBJ_INIT(micro_mutex, " +
"&_k_mutex_obj_%s);\n" % (name))
# semaphore object ids
for semaphore in sema_list:
name = semaphore[0]
kernel_main_c_out("\tSYS_TRACING_OBJ_INIT(micro_sem, " +
"&_k_sem_obj_%s);\n" % (name))
# fifo object ids
for fifo in fifo_list:
name = fifo[0]
kernel_main_c_out("\tSYS_TRACING_OBJ_INIT(micro_fifo, " +
"&_k_fifo_obj_%s);\n" % (name))
# mailbox object ids
for mbx in mbx_list:
name = mbx[0]
kernel_main_c_out("\tSYS_TRACING_OBJ_INIT(micro_mbox, " +
"&_k_mbox_obj_%s);\n" % (name))
# pipe object id
for pipe in pipe_list:
name = pipe[0];
kernel_main_c_out("\tSYS_TRACING_OBJ_INIT(micro_pipe, " +
"&_k_pipe_obj_%s);\n" % (name))
# memory map object id
for map in map_list:
name = map[0];
kernel_main_c_out("\tSYS_TRACING_OBJ_INIT(micro_mem_map, " +
"&_k_mem_map_obj_%s);\n" % (name))
# memory pool object id
pool_count = 0;
total_pools = len(pool_list);
while (pool_count < total_pools):
kernel_main_c_out("\tSYS_TRACING_OBJ_INIT(micro_mem_pool, " +
"&(_k_mem_pool_list[%d]));\n" % (pool_count))
pool_count = pool_count + 1;
# event map object id
for event in event_list:
# no need to expose the irq task events
if not (event[0].startswith("_TaskIrqEvt")):
name = event[0];
kernel_main_c_out("\tSYS_TRACING_OBJ_INIT(micro_event, " +
"&_k_event_obj_%s);\n" % (name))
kernel_main_c_out("#endif\n")
kernel_main_c_out("}\n")
def kernel_main_c_generate():
""" Generate kernel_main.c file """
global kernel_main_c_data
kernel_main_c_header()
kernel_main_c_kargs()
kernel_main_c_timers()
kernel_main_c_tasks()
kernel_main_c_priorities()
kernel_main_c_events()
kernel_main_c_mutexes()
kernel_main_c_semas()
kernel_main_c_fifos()
kernel_main_c_pipes()
kernel_main_c_mailboxes()
kernel_main_c_maps()
kernel_main_c_pools()
kernel_main_c_node_init()
write_file(output_dir + 'kernel_main.c', kernel_main_c_data)
#
# GENERATE kernel_main.h FILE
#
def kernel_main_h_generate():
""" Generate kernel_main.h file """
global output_dir
subprocess.check_call([
"cp",
"-f",
os.environ["ZEPHYR_BASE"] +
"/kernel/microkernel/include/kernel_main.h",
output_dir])
#
# GENERATE micro_private_types.h FILE
#
def micro_private_types_h_generate():
""" Generate micro_private_types.h file """
global output_dir
subprocess.check_call([
"cp",
"-f",
os.environ["ZEPHYR_BASE"] +
"/kernel/microkernel/include/micro_private_types.h",
output_dir])
#
# GENERATE sysgen.h FILE
#
sysgen_h_data = ""
sysgen_h_filename_str = \
"/* sysgen.h - system generated microkernel definitions */\n\n"
sysgen_h_include_guard = "_SYSGEN__H_"
sysgen_h_header_include_guard_str = \
"#ifndef " + sysgen_h_include_guard + "\n" \
"#define " + sysgen_h_include_guard + "\n\n"
def generate_sysgen_h_header():
global sysgen_h_data
sysgen_h_data += \
sysgen_h_filename_str + \
copyright + \
do_not_edit_warning + \
"#include <microkernel.h>\n" + \
sysgen_h_header_include_guard_str + \
"\n"
def generate_taskgroup_line(taskgroup, group_id):
global sysgen_h_data
sysgen_h_data += \
"#define " + taskgroup + " 0x%8.8x\n" % group_id
def generate_sysgen_h_taskgroups():
global sysgen_h_data
for group in group_key_list:
generate_taskgroup_line(group, group_dictionary[group])
sysgen_h_data += "\n"
def generate_obj_id_line(name, obj_id):
return "#define " + name + " 0x0001%4.4x\n" % obj_id
def generate_obj_id_lines(obj_types):
data = ""
for obj_type in obj_types:
for obj in obj_type[0]:
data += generate_obj_id_line(str(obj[0]), obj_type[1])
obj_type[1] += 1
if obj_type[1] > 0:
data += "\n"
return data
def generate_sysgen_h_obj_ids():
global sysgen_h_data
global num_task_irqs
# mutex object ids
sysgen_h_data += "\n"
for mutex in mutex_list:
name = mutex[0]
sysgen_h_data += \
"extern struct _k_mutex_struct _k_mutex_obj_%s;\n" % (name)
sysgen_h_data += \
"#define %s ((kmutex_t)&_k_mutex_obj_%s)\n\n" % (name, name)
# semaphore object ids
sysgen_h_data += "\n"
for semaphore in sema_list:
name = semaphore[0]
sysgen_h_data += \
"extern struct _k_sem_struct _k_sem_obj_%s;\n" % (name)
sysgen_h_data += \
"#define %s ((ksem_t)&_k_sem_obj_%s)\n\n" % (name, name)
# fifo object ids
sysgen_h_data += "\n"
for fifo in fifo_list:
name = fifo[0]
sysgen_h_data += \
"extern struct _k_fifo_struct _k_fifo_obj_%s;\n" % (name)
sysgen_h_data += \
"#define %s ((kfifo_t)&_k_fifo_obj_%s)\n\n" % (name, name)
# mailbox object ids
sysgen_h_data += "\n"
for mbx in mbx_list:
name = mbx[0]
sysgen_h_data += \
"extern struct _k_mbox_struct _k_mbox_obj_%s;\n" % (name)
sysgen_h_data += \
"#define %s ((kmbox_t)&_k_mbox_obj_%s)\n\n" % (name, name)
# pipe object id
sysgen_h_data += "\n"
for pipe in pipe_list:
name = pipe[0];
sysgen_h_data += \
"extern struct _k_pipe_struct _k_pipe_obj_%s;\n" % (name) + \
"#define %s ((kpipe_t)&_k_pipe_obj_%s)\n\n" % (name, name)
# memory map object id
sysgen_h_data += "\n"
for map in map_list:
name = map[0];
sysgen_h_data += \
"extern struct _k_mem_map_struct _k_mem_map_obj_%s;\n" % (name) + \
"#define %s ((kmemory_map_t)&_k_mem_map_obj_%s)\n" % (name, name)
# task object id
sysgen_h_data += "\n"
for task in task_list:
name = task[0];
sysgen_h_data += \
"extern struct k_task _k_task_obj_%s;\n" % (name) + \
"#define %s ((ktask_t)&_k_task_obj_%s)\n" % (name, name)
# event object id
sysgen_h_data += "\n"
for event in event_list:
# no need to expose the irq task events
if not (event[0].startswith("_TaskIrqEvt")):
name = event[0];
sysgen_h_data += \
"extern const kevent_t %s;\n" % (name)
# all other object ids
obj_types = [
[pool_list, 0],
]
sysgen_h_data += generate_obj_id_lines(obj_types)
sysgen_h_footer_include_guard_str = \
"\n#endif /* " + sysgen_h_include_guard + " */\n"
def generate_sysgen_h_footer():
global sysgen_h_data
sysgen_h_data += \
sysgen_h_footer_include_guard_str
def sysgen_h_generate():
""" Generate sysgen.h file """
generate_sysgen_h_header()
generate_sysgen_h_taskgroups()
generate_sysgen_h_obj_ids()
generate_sysgen_h_footer()
write_file(output_dir + 'sysgen.h', sysgen_h_data)
#
# SYSTEM GENERATOR MAINLINE
#
mdef_parse()
get_output_dir()
kernel_main_c_generate()
kernel_main_h_generate()
micro_private_types_h_generate()
sysgen_h_generate()
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