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Merge branch 'mq-filter-stack' of gitlab.labs.nic.cz:labs/bird into mq-filter-stack

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This commit is contained in:
Maria Matejka 2019-07-03 08:44:42 +02:00
commit 8816b6cdd9
17 changed files with 453 additions and 258 deletions
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4
conf/confbase.Y
View file

@ -64,7 +64,9 @@ CF_DECLS
struct rtable_config *r; struct rtable_config *r;
struct channel_config *cc; struct channel_config *cc;
struct f_inst *x; struct f_inst *x;
struct f_inst *xp[2]; struct {
struct f_inst *begin, *end;
} xp;
enum filter_return fret; enum filter_return fret;
enum ec_subtype ecs; enum ec_subtype ecs;
struct f_dynamic_attr fda; struct f_dynamic_attr fda;

47
filter/config.Y
View file

@ -447,7 +447,7 @@ CF_KEYWORDS(FUNCTION, PRINT, PRINTN, UNSET, RETURN,
%nonassoc ELSE %nonassoc ELSE
%type <xp> cmds_int %type <xp> cmds_int
%type <x> term block cmd cmds constant constructor print_one print_list var_list function_call symbol_value bgp_path_expr bgp_path bgp_path_tail %type <x> term block cmd cmds constant constructor print_list var_list function_call symbol_value bgp_path_expr bgp_path bgp_path_tail
%type <fda> dynamic_attr %type <fda> dynamic_attr
%type <fsa> static_attr %type <fsa> static_attr
%type <f> filter where_filter %type <f> filter where_filter
@ -621,11 +621,21 @@ function_def:
/* Programs */ /* Programs */
cmds: /* EMPTY */ { $$ = NULL; } cmds: /* EMPTY */ { $$ = NULL; }
| cmds_int { $$ = $1[0]; } | cmds_int { $$ = $1.begin; }
; ;
cmds_int: cmd { $$[0] = $$[1] = $1; } cmds_int: cmd {
| cmds_int cmd { $$[1] = $2; $1[1]->next = $2; $$[0] = $1[0]; } $$.begin = $$.end = $1;
while ($$.end->next)
$$.end = $$.end->next;
}
| cmds_int cmd {
$$.begin = $1.begin;
$1.end->next = $2;
$$.end = $2;
while ($$.end->next)
$$.end = $$.end->next;
}
; ;
block: block:
@ -960,17 +970,13 @@ break_command:
| PRINTN { $$ = F_NONL; } | PRINTN { $$ = F_NONL; }
; ;
print_one:
term { $$ = f_new_inst(FI_PRINT, $1); }
;
print_list: /* EMPTY */ { $$ = NULL; } print_list: /* EMPTY */ { $$ = NULL; }
| print_one { $$ = $1; } | term { $$ = $1; }
| print_one ',' print_list { | term ',' print_list {
if ($1) { ASSERT($1);
ASSERT($1->next == NULL);
$1->next = $3; $1->next = $3;
$$ = $1; $$ = $1;
} else $$ = $3;
} }
; ;
@ -1011,7 +1017,22 @@ cmd:
| UNSET '(' dynamic_attr ')' ';' { | UNSET '(' dynamic_attr ')' ';' {
$$ = f_new_inst(FI_EA_UNSET, $3); $$ = f_new_inst(FI_EA_UNSET, $3);
} }
| break_command print_list ';' { $$ = f_new_inst(FI_PRINT_AND_DIE, $2, $1); } | break_command print_list ';' {
struct f_inst *breaker = NULL;
struct f_inst *printer = NULL;
if ($2)
printer = f_new_inst(FI_PRINT, $2);
if ($1 != F_NONL)
breaker = f_new_inst(FI_DIE, $1);
if (printer && breaker)
printer->next = breaker;
if (printer)
$$ = printer;
else
$$ = breaker;
}
| function_call ';' { $$ = f_new_inst(FI_DROP_RESULT, $1); } | function_call ';' { $$ = f_new_inst(FI_DROP_RESULT, $1); }
| CASE term '{' switch_body '}' { | CASE term '{' switch_body '}' {
$$ = f_new_inst(FI_SWITCH, $2, build_tree($4)); $$ = f_new_inst(FI_SWITCH, $2, build_tree($4));

437
filter/decl.m4
View file

@ -6,177 +6,123 @@ m4_divert(-1)m4_dnl
# #
# Can be freely distributed and used under the terms of the GNU GPL. # Can be freely distributed and used under the terms of the GNU GPL.
# #
# THIS IS A M4 MACRO FILE GENERATING 3 FILES ALTOGETHER.
# KEEP YOUR HANDS OFF UNLESS YOU KNOW WHAT YOU'RE DOING.
# EDITING AND DEBUGGING THIS FILE MAY DAMAGE YOUR BRAIN SERIOUSLY.
# #
# Global Diversions: # But you're welcome to read and edit and debug if you aren't scared.
# 4 enum fi_code #
# 5 enum fi_code to string # Uncomment the following line to get exhaustive debug output.
# 6 dump line item # m4_debugmode(aceflqtx)
# 7 dump line item callers #
# 8 linearize # How it works:
# 9 same (filter comparator) # 1) Instruction to code conversion (uses diversions 100..199)
# 1 union in struct f_inst # 2) Code wrapping (uses diversions 1..99)
# 3 constructors + interpreter # 3) Final preparation (uses diversions 200..299)
# 4) Shipout
#
# See below for detailed description.
#
#
# 1) Instruction to code conversion
# The code provided in f-inst.c between consecutive INST() calls
# is interleaved for many different places. It is here processed
# and split into separate instances where split-by-instruction
# happens. These parts are stored in temporary diversions listed:
# #
# Per-inst Diversions:
# 101 content of per-inst struct # 101 content of per-inst struct
# 102 constructor arguments # 102 constructor arguments
# 103 constructor body # 103 constructor body
# 104 dump line item content # 104 dump line item content
# (there may be nothing in dump-line content and
# it must be handled specially in phase 2)
# 105 linearize body # 105 linearize body
# 106 comparator body # 106 comparator body
# 107 struct f_line_item content # 107 struct f_line_item content
# 108 interpreter body # 108 interpreter body
# #
# Final diversions # Here are macros to allow you to _divert to the right directions.
# 200+ completed text before it is flushed to output
m4_dnl m4_debugmode(aceflqtx)
m4_define(FID_ZONE, `m4_divert($1) /* $2 for INST_NAME() */')
m4_define(FID_INST, `FID_ZONE(1, Instruction structure for config)')
m4_define(FID_LINE, `FID_ZONE(2, Instruction structure for interpreter)')
m4_define(FID_NEW, `FID_ZONE(3, Constructor)')
m4_define(FID_ENUM, `FID_ZONE(4, Code enum)')
m4_define(FID_ENUM_STR, `FID_ZONE(5, Code enum to string)')
m4_define(FID_DUMP, `FID_ZONE(6, Dump line)')
m4_define(FID_DUMP_CALLER, `FID_ZONE(7, Dump line caller)')
m4_define(FID_LINEARIZE, `FID_ZONE(8, Linearize)')
m4_define(FID_SAME, `FID_ZONE(9, Comparison)')
m4_define(FID_STRUCT_IN, `m4_divert(101)') m4_define(FID_STRUCT_IN, `m4_divert(101)')
m4_define(FID_NEW_ARGS, `m4_divert(102)') m4_define(FID_NEW_ARGS, `m4_divert(102)')
m4_define(FID_NEW_BODY, `m4_divert(103)') m4_define(FID_NEW_BODY, `m4_divert(103)')
m4_define(FID_DUMP_BODY, `m4_divert(104)m4_define([[FID_DUMP_BODY_EXISTS]])') m4_define(FID_DUMP_BODY, `m4_divert(104)m4_define([[FID_DUMP_BODY_EXISTS]])')
m4_define(FID_LINEARIZE_BODY, `m4_divert(105)m4_define([[FID_LINEARIZE_BODY_EXISTS]])') m4_define(FID_LINEARIZE_BODY, `m4_divert(105)')
m4_define(FID_SAME_BODY, `m4_divert(106)') m4_define(FID_SAME_BODY, `m4_divert(106)')
m4_define(FID_LINE_IN, `m4_divert(107)') m4_define(FID_LINE_IN, `m4_divert(107)')
m4_define(FID_INTERPRET_BODY, `m4_divert(108)') m4_define(FID_INTERPRET_BODY, `m4_divert(108)')
m4_define(FID_ALL, `FID_INTERPRET_BODY'); # Sometimes you want slightly different code versions in different
# outputs.
# Use FID_HIC(code for inst-gen.h, code for inst-gen.c, code for inst-interpret.c)
# and put it into [[ ]] quotes if it shall contain commas.
m4_define(FID_HIC, `m4_ifelse(TARGET, [[H]], [[$1]], TARGET, [[I]], [[$2]], TARGET, [[C]], [[$3]])') m4_define(FID_HIC, `m4_ifelse(TARGET, [[H]], [[$1]], TARGET, [[I]], [[$2]], TARGET, [[C]], [[$3]])')
# In interpreter code, this is quite common.
m4_define(FID_INTERPRET_EXEC, `FID_HIC(,[[FID_INTERPRET_BODY()]],[[m4_divert(-1)]])') m4_define(FID_INTERPRET_EXEC, `FID_HIC(,[[FID_INTERPRET_BODY()]],[[m4_divert(-1)]])')
m4_define(FID_INTERPRET_NEW, `FID_HIC(,[[m4_divert(-1)]],[[FID_INTERPRET_BODY()]])') m4_define(FID_INTERPRET_NEW, `FID_HIC(,[[m4_divert(-1)]],[[FID_INTERPRET_BODY()]])')
# If the instruction is never converted to constant, the interpret
# code is not produced at all for constructor
m4_define(NEVER_CONSTANT, `m4_define([[INST_NEVER_CONSTANT]])') m4_define(NEVER_CONSTANT, `m4_define([[INST_NEVER_CONSTANT]])')
m4_define(FID_IFCONST, `m4_ifdef([[INST_NEVER_CONSTANT]],[[$2]],[[$1]])') m4_define(FID_IFCONST, `m4_ifdef([[INST_NEVER_CONSTANT]],[[$2]],[[$1]])')
m4_define(INST_FLUSH, `m4_ifdef([[INST_NAME]], [[ # If the instruction has some attributes (here called members),
FID_ENUM # these are typically carried with the instruction from constructor
INST_NAME(), # to interpreter. This yields a line of code everywhere on the path.
FID_ENUM_STR # FID_MEMBER is a macro to help with this task.
[INST_NAME()] = "INST_NAME()",
FID_INST
struct {
m4_undivert(101)
} i_[[]]INST_NAME();
FID_LINE
struct {
m4_undivert(107)
} i_[[]]INST_NAME();
FID_NEW
FID_HIC(
[[
struct f_inst *f_new_inst_]]INST_NAME()[[(enum f_instruction_code fi_code
m4_undivert(102)
);]],
[[
case INST_NAME():
#define whati (&(what->i_]]INST_NAME()[[))
m4_ifelse(m4_eval(INST_INVAL() > 0), 1, [[if (fstk->vcnt < INST_INVAL()) runtime("Stack underflow"); fstk->vcnt -= INST_INVAL(); ]])
m4_undivert(108)
#undef whati
break;
]],
[[
struct f_inst *f_new_inst_]]INST_NAME()[[(enum f_instruction_code fi_code
m4_undivert(102)
)
{
struct f_inst *what = fi_new(fi_code);
FID_IFCONST([[uint constargs = 1;]])
#define whati (&(what->i_]]INST_NAME()[[))
m4_undivert(103)
FID_IFCONST([[if (!constargs)]])
return what;
FID_IFCONST([[m4_undivert(108)]])
#undef whati
}
]])
FID_DUMP_CALLER
case INST_NAME(): f_dump_line_item_]]INST_NAME()[[(item, indent + 1); break;
FID_DUMP
m4_ifdef([[FID_DUMP_BODY_EXISTS]],
[[static inline void f_dump_line_item_]]INST_NAME()[[(const struct f_line_item *item_, const int indent)]],
[[static inline void f_dump_line_item_]]INST_NAME()[[(const struct f_line_item *item UNUSED, const int indent UNUSED)]])
m4_undefine([[FID_DUMP_BODY_EXISTS]])
{
#define item (&(item_->i_]]INST_NAME()[[))
m4_undivert(104)
#undef item
}
FID_LINEARIZE
case INST_NAME(): {
#define whati (&(what->i_]]INST_NAME()[[))
#define item (&(dest->items[pos].i_]]INST_NAME()[[))
m4_undivert(105)
#undef whati
#undef item
dest->items[pos].fi_code = what->fi_code;
dest->items[pos].lineno = what->lineno;
break;
}
m4_undefine([[FID_LINEARIZE_BODY_EXISTS]])
FID_SAME
case INST_NAME():
#define f1 (&(f1_->i_]]INST_NAME()[[))
#define f2 (&(f2_->i_]]INST_NAME()[[))
m4_undivert(106)
#undef f1
#undef f2
break;
m4_divert(-1)FID_FLUSH(101,200)
]])')
m4_define(INST, `m4_dnl
INST_FLUSH()m4_dnl
m4_define([[INST_NAME]], [[$1]])m4_dnl
m4_define([[INST_INVAL]], [[$2]])m4_dnl
m4_undefine([[INST_NEVER_CONSTANT]])m4_dnl
FID_ALL() m4_dnl
')
m4_define(FID_MEMBER, `m4_dnl m4_define(FID_MEMBER, `m4_dnl
FID_LINE_IN FID_LINE_IN()m4_dnl
$1 $2; $1 $2;
FID_STRUCT_IN FID_STRUCT_IN()m4_dnl
$1 $2; $1 $2;
FID_NEW_ARGS FID_NEW_ARGS()m4_dnl
, $1 $2 , $1 $2
FID_NEW_BODY FID_NEW_BODY()m4_dnl
whati->$2 = $2; whati->$2 = $2;
FID_LINEARIZE_BODY FID_LINEARIZE_BODY()m4_dnl
item->$2 = whati->$2; item->$2 = whati->$2;
m4_ifelse($3,,,[[ m4_ifelse($3,,,[[
FID_SAME_BODY FID_SAME_BODY()m4_dnl
if ($3) return 0; if ($3) return 0;
]]) ]])
m4_ifelse($4,,,[[ m4_ifelse($4,,,[[
FID_DUMP_BODY FID_DUMP_BODY()m4_dnl
debug("%s$4\n", INDENT, $5); debug("%s$4\n", INDENT, $5);
]]) ]])
FID_INTERPRET_EXEC FID_INTERPRET_EXEC()m4_dnl
const $1 $2 = whati->$2 const $1 $2 = whati->$2
FID_ALL') FID_INTERPRET_BODY')
m4_define(FID_MEMBER_IN, `m4_dnl
FID_LINE_IN()m4_dnl
$1 $2;
FID_STRUCT_IN()m4_dnl
$1 $2;
FID_LINEARIZE_BODY()m4_dnl
item->$2 = whati->$2;
m4_ifelse($3,,,[[
FID_SAME_BODY()m4_dnl
if ($3) return 0;
]])
m4_ifelse($4,,,[[
FID_DUMP_BODY()m4_dnl
debug("%s$4\n", INDENT, $5);
]])
FID_INTERPRET_EXEC()m4_dnl
const $1 $2 = whati->$2
FID_INTERPRET_BODY')
# Instruction arguments are needed only until linearization is done.
# This puts the arguments into the filter line to be executed before
# the instruction itself.
#
# To achieve this, ARG_ANY must be called before anything writes into
# the instruction line as it moves the instruction pointer forward.
m4_define(ARG_ANY, ` m4_define(ARG_ANY, `
FID_STRUCT_IN FID_STRUCT_IN()m4_dnl
struct f_inst * f$1; struct f_inst * f$1;
FID_NEW_ARGS FID_NEW_ARGS()m4_dnl
, struct f_inst * f$1 , struct f_inst * f$1
FID_NEW_BODY FID_NEW_BODY
whati->f$1 = f$1; whati->f$1 = f$1;
for (const struct f_inst *child = f$1; child; child = child->next) { for (const struct f_inst *child = f$1; child; child = child->next) {
@ -188,14 +134,17 @@ FID_IFCONST([[
} }
FID_LINEARIZE_BODY FID_LINEARIZE_BODY
pos = linearize(dest, whati->f$1, pos); pos = linearize(dest, whati->f$1, pos);
FID_ALL()') FID_INTERPRET_BODY()')
# Some arguments need to check their type. After that, ARG_ANY is called.
m4_define(ARG, `ARG_ANY($1) m4_define(ARG, `ARG_ANY($1)
FID_INTERPRET_EXEC() FID_INTERPRET_EXEC()m4_dnl
if (v$1.type != $2) runtime("Argument $1 of instruction %s must be of type $2, got 0x%02x", f_instruction_name(what->fi_code), v$1.type)m4_dnl if (v$1.type != $2) runtime("Argument $1 of instruction %s must be of type $2, got 0x%02x", f_instruction_name(what->fi_code), v$1.type)m4_dnl
FID_ALL()') FID_INTERPRET_BODY()')
m4_define(LINEX, `FID_INTERPRET_EXEC()LINEX_($1)FID_INTERPRET_NEW()return $1 FID_ALL()') # Executing another filter line. This replaces the recursion
# that was needed in the former implementation.
m4_define(LINEX, `FID_INTERPRET_EXEC()LINEX_($1)FID_INTERPRET_NEW()return $1 FID_INTERPRET_BODY()')
m4_define(LINEX_, `do { m4_define(LINEX_, `do {
fstk->estk[fstk->ecnt].pos = 0; fstk->estk[fstk->ecnt].pos = 0;
fstk->estk[fstk->ecnt].line = $1; fstk->estk[fstk->ecnt].line = $1;
@ -206,47 +155,212 @@ m4_define(LINEX_, `do {
} while (0)') } while (0)')
m4_define(LINE, ` m4_define(LINE, `
FID_LINE_IN FID_LINE_IN()m4_dnl
const struct f_line * fl$1; const struct f_line * fl$1;
FID_STRUCT_IN FID_STRUCT_IN()m4_dnl
struct f_inst * f$1; struct f_inst * f$1;
FID_NEW_ARGS FID_NEW_ARGS()m4_dnl
, struct f_inst * f$1 , struct f_inst * f$1
FID_NEW_BODY FID_NEW_BODY()m4_dnl
whati->f$1 = f$1; whati->f$1 = f$1;
FID_DUMP_BODY FID_DUMP_BODY()m4_dnl
f_dump_line(item->fl$1, indent + 1); f_dump_line(item->fl$1, indent + 1);
FID_LINEARIZE_BODY FID_LINEARIZE_BODY()m4_dnl
item->fl$1 = f_linearize(whati->f$1); item->fl$1 = f_linearize(whati->f$1);
FID_SAME_BODY FID_SAME_BODY()m4_dnl
if (!f_same(f1->fl$1, f2->fl$1)) return 0; if (!f_same(f1->fl$1, f2->fl$1)) return 0;
FID_INTERPRET_EXEC FID_INTERPRET_EXEC()m4_dnl
do { if (whati->fl$1) { do { if (whati->fl$1) {
LINEX_(whati->fl$1); LINEX_(whati->fl$1);
} } while(0) } } while(0)
FID_INTERPRET_NEW FID_INTERPRET_NEW()m4_dnl
return whati->f$1 return whati->f$1
FID_ALL()') FID_INTERPRET_BODY()')
# Some of the instructions have a result. These constructions
# state the result and put it to the right place.
m4_define(RESULT, `RESULT_VAL([[ (struct f_val) { .type = $1, .val.$2 = $3 } ]])') m4_define(RESULT, `RESULT_VAL([[ (struct f_val) { .type = $1, .val.$2 = $3 } ]])')
m4_define(RESULT_VAL, `FID_HIC(, [[do { res = $1; fstk->vcnt++; } while (0)]], m4_define(RESULT_VAL, `FID_HIC(, [[do { res = $1; fstk->vcnt++; } while (0)]],
[[return fi_constant(what, $1)]])') [[return fi_constant(what, $1)]])')
m4_define(RESULT_VOID, `RESULT_VAL([[ (struct f_val) { .type = T_VOID } ]])') m4_define(RESULT_VOID, `RESULT_VAL([[ (struct f_val) { .type = T_VOID } ]])')
m4_define(SYMBOL, `FID_MEMBER(struct symbol *, sym, # Some common filter instruction members
[[strcmp(f1->sym->name, f2->sym->name) || (f1->sym->class != f2->sym->class)]], symbol %s, item->sym->name)') m4_define(SYMBOL, `FID_MEMBER(struct symbol *, sym, [[strcmp(f1->sym->name, f2->sym->name) || (f1->sym->class != f2->sym->class)]], symbol %s, item->sym->name)')
m4_define(RTC, `FID_MEMBER(struct rtable_config *, rtc, [[strcmp(f1->rtc->name, f2->rtc->name)]], route table %s, item->rtc->name)') m4_define(RTC, `FID_MEMBER(struct rtable_config *, rtc, [[strcmp(f1->rtc->name, f2->rtc->name)]], route table %s, item->rtc->name)')
m4_define(STATIC_ATTR, `FID_MEMBER(struct f_static_attr, sa, f1->sa.sa_code != f2->sa.sa_code,,)') m4_define(STATIC_ATTR, `FID_MEMBER(struct f_static_attr, sa, f1->sa.sa_code != f2->sa.sa_code,,)')
m4_define(DYNAMIC_ATTR, `FID_MEMBER(struct f_dynamic_attr, da, f1->da.ea_code != f2->da.ea_code,,)') m4_define(DYNAMIC_ATTR, `FID_MEMBER(struct f_dynamic_attr, da, f1->da.ea_code != f2->da.ea_code,,)')
m4_define(ACCESS_RTE, `NEVER_CONSTANT()') m4_define(ACCESS_RTE, `NEVER_CONSTANT()')
# 2) Code wrapping
# The code produced in 1xx temporary diversions is a raw code without
# any auxiliary commands and syntactical structures around. When the
# instruction is done, INST_FLUSH is called. More precisely, it is called
# at the beginning of INST() call and at the end of file.
#
# INST_FLUSH picks all the temporary diversions, wraps their content
# into appropriate headers and structures and saves them into global
# diversions listed:
#
# 4 enum fi_code
# 5 enum fi_code to string
# 6 dump line item
# 7 dump line item callers
# 8 linearize
# 9 same (filter comparator)
# 1 union in struct f_inst
# 3 constructors + interpreter
#
# These global diversions contain blocks of code that can be directly
# put into the final file, yet it still can't be written out now as
# every instruction writes to all of these diversions.
# Code wrapping diversion names. Here we want an explicit newline
# after the C comment.
m4_define(FID_ZONE, `m4_divert($1) /* $2 for INST_NAME() */
')
m4_define(FID_INST, `FID_ZONE(1, Instruction structure for config)')
m4_define(FID_LINE, `FID_ZONE(2, Instruction structure for interpreter)')
m4_define(FID_NEW, `FID_ZONE(3, Constructor)')
m4_define(FID_ENUM, `FID_ZONE(4, Code enum)')
m4_define(FID_ENUM_STR, `FID_ZONE(5, Code enum to string)')
m4_define(FID_DUMP, `FID_ZONE(6, Dump line)')
m4_define(FID_DUMP_CALLER, `FID_ZONE(7, Dump line caller)')
m4_define(FID_LINEARIZE, `FID_ZONE(8, Linearize)')
m4_define(FID_SAME, `FID_ZONE(9, Comparison)')
# This macro does all the code wrapping. See inline comments.
m4_define(INST_FLUSH, `m4_ifdef([[INST_NAME]], [[
FID_ENUM()m4_dnl Contents of enum fi_code { ... }
INST_NAME(),
FID_ENUM_STR()m4_dnl Contents of const char * indexed by enum fi_code
[INST_NAME()] = "INST_NAME()",
FID_INST()m4_dnl Anonymous structure inside struct f_inst
struct {
m4_undivert(101)m4_dnl
} i_[[]]INST_NAME();
FID_LINE()m4_dnl Anonymous structure inside struct f_line_item
struct {
m4_undivert(107)m4_dnl
} i_[[]]INST_NAME();
FID_NEW()m4_dnl Constructor and interpreter code together
FID_HIC(
[[m4_dnl Public declaration of constructor in H file
struct f_inst *f_new_inst_]]INST_NAME()[[(enum f_instruction_code fi_code
m4_undivert(102)m4_dnl
);]],
[[m4_dnl The one case in The Big Switch inside interpreter
case INST_NAME():
#define whati (&(what->i_]]INST_NAME()[[))
m4_ifelse(m4_eval(INST_INVAL() > 0), 1, [[if (fstk->vcnt < INST_INVAL()) runtime("Stack underflow"); fstk->vcnt -= INST_INVAL(); ]])
m4_undivert(108)m4_dnl
#undef whati
break;
]],
[[m4_dnl Constructor itself
struct f_inst *f_new_inst_]]INST_NAME()[[(enum f_instruction_code fi_code
m4_undivert(102)m4_dnl
)
{
/* Allocate the structure */
struct f_inst *what = fi_new(fi_code);
FID_IFCONST([[uint constargs = 1;]])
/* Initialize all the members */
#define whati (&(what->i_]]INST_NAME()[[))
m4_undivert(103)m4_dnl
/* If not constant, return the instruction itself */
FID_IFCONST([[if (!constargs)]])
return what;
/* Try to pre-calculate the result */
FID_IFCONST([[m4_undivert(108)]])m4_dnl
#undef whati
}
]])
FID_DUMP_CALLER()m4_dnl Case in another big switch used in instruction dumping (debug)
case INST_NAME(): f_dump_line_item_]]INST_NAME()[[(item, indent + 1); break;
FID_DUMP()m4_dnl The dumper itself
m4_ifdef([[FID_DUMP_BODY_EXISTS]],
[[static inline void f_dump_line_item_]]INST_NAME()[[(const struct f_line_item *item_, const int indent)]],
[[static inline void f_dump_line_item_]]INST_NAME()[[(const struct f_line_item *item UNUSED, const int indent UNUSED)]])
m4_undefine([[FID_DUMP_BODY_EXISTS]])
{
#define item (&(item_->i_]]INST_NAME()[[))
m4_undivert(104)m4_dnl
#undef item
}
FID_LINEARIZE()m4_dnl The linearizer
case INST_NAME(): {
#define whati (&(what->i_]]INST_NAME()[[))
#define item (&(dest->items[pos].i_]]INST_NAME()[[))
m4_undivert(105)m4_dnl
#undef whati
#undef item
dest->items[pos].fi_code = what->fi_code;
dest->items[pos].lineno = what->lineno;
break;
}
FID_SAME()m4_dnl This code compares two f_line"s while reconfiguring
case INST_NAME():
#define f1 (&(f1_->i_]]INST_NAME()[[))
#define f2 (&(f2_->i_]]INST_NAME()[[))
m4_undivert(106)m4_dnl
#undef f1
#undef f2
break;
m4_divert(-1)FID_FLUSH(101,200)m4_dnl And finally this flushes all the unused diversions
]])')
m4_define(INST, `m4_dnl This macro is called on beginning of each instruction.
INST_FLUSH()m4_dnl First, old data is flushed
m4_define([[INST_NAME]], [[$1]])m4_dnl Then we store instruction name,
m4_define([[INST_INVAL]], [[$2]])m4_dnl instruction input value count
m4_undefine([[INST_NEVER_CONSTANT]])m4_dnl and reset NEVER_CONSTANT trigger.
FID_INTERPRET_BODY()m4_dnl By default, every code is interpreter code.
')
# 3) Final preparation
#
# Now we prepare all the code around the global diversions.
# It must be here, not in m4wrap, as we want M4 to mark the code
# by #line directives correctly, not to claim that every single line
# is at the beginning of the m4wrap directive.
#
# This part is split by the final file.
# H for inst-gen.h
# I for inst-interpret.c
# C for inst-gen.c
#
# So we in cycle:
# A. open a diversion
# B. send there some code
# C. close that diversion
# D. flush a global diversion
# E. open another diversion and goto B.
#
# Final diversions
# 200+ completed text before it is flushed to output
# This is a list of output diversions
m4_define(FID_WR_PUT_LIST) m4_define(FID_WR_PUT_LIST)
# This macro does the steps C to E, see before.
m4_define(FID_WR_PUT_ALSO, `m4_define([[FID_WR_PUT_LIST]],FID_WR_PUT_LIST()[[FID_WR_DPUT(]]FID_WR_DIDX[[)FID_WR_DPUT(]]$1[[)]])m4_define([[FID_WR_DIDX]],m4_eval(FID_WR_DIDX+1))m4_divert(FID_WR_DIDX)') m4_define(FID_WR_PUT_ALSO, `m4_define([[FID_WR_PUT_LIST]],FID_WR_PUT_LIST()[[FID_WR_DPUT(]]FID_WR_DIDX[[)FID_WR_DPUT(]]$1[[)]])m4_define([[FID_WR_DIDX]],m4_eval(FID_WR_DIDX+1))m4_divert(FID_WR_DIDX)')
# These macros do the splitting between H/I/C
m4_define(FID_WR_DIRECT, `m4_ifelse(TARGET,[[$1]],[[FID_WR_INIT()]],[[FID_WR_STOP()]])') m4_define(FID_WR_DIRECT, `m4_ifelse(TARGET,[[$1]],[[FID_WR_INIT()]],[[FID_WR_STOP()]])')
m4_define(FID_WR_INIT, `m4_define([[FID_WR_DIDX]],200)m4_define([[FID_WR_PUT]],[[FID_WR_PUT_ALSO($]][[@)]])m4_divert(200)') m4_define(FID_WR_INIT, `m4_define([[FID_WR_DIDX]],200)m4_define([[FID_WR_PUT]],[[FID_WR_PUT_ALSO($]][[@)]])m4_divert(200)')
m4_define(FID_WR_STOP, `m4_define([[FID_WR_PUT]])m4_divert(-1)') m4_define(FID_WR_STOP, `m4_define([[FID_WR_PUT]])m4_divert(-1)')
# Here is the direct code to be put into the output files
# together with the undiversions, being hidden under FID_WR_PUT()
m4_changequote([[,]]) m4_changequote([[,]])
FID_WR_DIRECT(I) FID_WR_DIRECT(I)
FID_WR_PUT(3) FID_WR_PUT(3)
@ -395,7 +509,7 @@ FID_WR_PUT(9)
FID_WR_DIRECT(H) FID_WR_DIRECT(H)
/* Filter instruction codes */ /* Filter instruction codes */
enum f_instruction_code { enum f_instruction_code {
FID_WR_PUT(4) FID_WR_PUT(4)m4_dnl
} PACKED; } PACKED;
/* Filter instruction structure for config */ /* Filter instruction structure for config */
@ -405,7 +519,7 @@ struct f_inst {
int size; /* How many instructions are underneath */ int size; /* How many instructions are underneath */
int lineno; /* Line number */ int lineno; /* Line number */
union { union {
FID_WR_PUT(1) FID_WR_PUT(1)m4_dnl
}; };
}; };
@ -415,19 +529,30 @@ struct f_line_item {
enum f_instruction_flags flags; /* Flags, instruction-specific */ enum f_instruction_flags flags; /* Flags, instruction-specific */
uint lineno; /* Where */ uint lineno; /* Where */
union { union {
FID_WR_PUT(2) FID_WR_PUT(2)m4_dnl
}; };
}; };
/* Instruction constructors */ /* Instruction constructors */
FID_WR_PUT(3) FID_WR_PUT(3)
m4_divert(-1) m4_divert(-1)
# 4) Shipout
#
# Everything is prepared in FID_WR_PUT_LIST now. Let's go!
m4_changequote(`,') m4_changequote(`,')
# Flusher auxiliary macro
m4_define(FID_FLUSH, `m4_ifelse($1,$2,,[[m4_undivert($1)FID_FLUSH(m4_eval($1+1),$2)]])') m4_define(FID_FLUSH, `m4_ifelse($1,$2,,[[m4_undivert($1)FID_FLUSH(m4_eval($1+1),$2)]])')
# Defining the macro used in FID_WR_PUT_LIST
m4_define(FID_WR_DPUT, `m4_undivert($1)') m4_define(FID_WR_DPUT, `m4_undivert($1)')
# After the code is read and parsed, we:
m4_m4wrap(`INST_FLUSH()m4_divert(0)FID_WR_PUT_LIST()m4_divert(-1)FID_FLUSH(1,200)') m4_m4wrap(`INST_FLUSH()m4_divert(0)FID_WR_PUT_LIST()m4_divert(-1)FID_FLUSH(1,200)')
m4_changequote([[,]]) m4_changequote([[,]])
# And now M4 is going to parse f-inst.c, fill the diversions
# and after the file is done, the content of m4_m4wrap (see before)
# is executed.

50
filter/f-inst.c
View file

@ -167,13 +167,13 @@
} }
whati->f1 = NULL; whati->f1 = NULL;
} }
FID_ALL FID_INTERPRET_BODY
FID_INTERPRET_EXEC FID_INTERPRET_EXEC
if (fstk->vcnt < whati->count) /* TODO: make this check systematic */ if (fstk->vcnt < whati->count) /* TODO: make this check systematic */
runtime("Construction of BGP path mask from %u elements must have at least that number of elements", whati->count); runtime("Construction of BGP path mask from %u elements must have at least that number of elements", whati->count);
#define pv fstk->vstk[fstk->vcnt - count + i] #define pv fstk->vstk[fstk->vcnt - whati->count + i]
FID_INTERPRET_NEW FID_INTERPRET_NEW
#define pv items[i]->i_FI_CONSTANT.val #define pv items[i]->i_FI_CONSTANT.val
@ -198,7 +198,7 @@
FID_INTERPRET_EXEC FID_INTERPRET_EXEC
fstk->vcnt -= whati->count; fstk->vcnt -= whati->count;
FID_ALL FID_INTERPRET_BODY
pm->len = whati->count; pm->len = whati->count;
RESULT(T_PATH_MASK, path_mask, pm); RESULT(T_PATH_MASK, path_mask, pm);
@ -320,11 +320,6 @@
RESULT_VAL(val); RESULT_VAL(val);
} }
INST(FI_PRINT, 1, 0) {
NEVER_CONSTANT;
ARG_ANY(1);
val_format(&(v1), &fs->buf);
}
INST(FI_CONDITION, 1, 0) { INST(FI_CONDITION, 1, 0) {
ARG(1, T_BOOL); ARG(1, T_BOOL);
if (v1.val.i) if (v1.val.i)
@ -332,28 +327,37 @@
else else
LINE(3,1); LINE(3,1);
} }
INST(FI_PRINT_AND_DIE, 0, 0) {
INST(FI_PRINT, 0, 0) {
NEVER_CONSTANT; NEVER_CONSTANT;
FID_LINEARIZE_BODY
{
uint opos = pos;
FID_ALL
ARG_ANY(1); ARG_ANY(1);
FID_MEMBER_IN(uint, count, f1->count != f2->count, number of items %u, item->count);
FID_LINEARIZE_BODY FID_NEW_BODY
if (opos < pos) uint len = 0;
dest->items[pos].flags |= FIF_PRINTED; for (const struct f_inst *tt = f1; tt; tt = tt->next, len++)
;
whati->count = len;
FID_INTERPRET_BODY
#define pv fstk->vstk[fstk->vcnt - whati->count + i]
if (whati->count)
for (uint i=0; i<whati->count; i++)
val_format(&(pv), &fs->buf);
#undef pv
fstk->vcnt -= whati->count;
} }
FID_ALL
INST(FI_DIE, 0, 0) {
NEVER_CONSTANT;
FID_MEMBER(enum filter_return, fret, f1->fret != f2->fret, %s, filter_return_str(item->fret)); FID_MEMBER(enum filter_return, fret, f1->fret != f2->fret, %s, filter_return_str(item->fret));
if ((fret == F_NOP || (fret != F_NONL && (what->flags & FIF_PRINTED))) && if (fs->buf.start < fs->buf.pos)
!(fs->flags & FF_SILENT))
log_commit(*L_INFO, &fs->buf); log_commit(*L_INFO, &fs->buf);
switch (fret) { switch (whati->fret) {
case F_QUITBIRD: case F_QUITBIRD:
die( "Filter asked me to die" ); die( "Filter asked me to die" );
case F_ACCEPT: case F_ACCEPT:
@ -361,7 +365,6 @@
case F_ERROR: case F_ERROR:
case F_REJECT: /* FIXME (noncritical) Should print complete route along with reason to reject route */ case F_REJECT: /* FIXME (noncritical) Should print complete route along with reason to reject route */
return fret; /* We have to return now, no more processing. */ return fret; /* We have to return now, no more processing. */
case F_NONL:
case F_NOP: case F_NOP:
break; break;
default: default:
@ -1045,7 +1048,8 @@
INST(FI_ASSERT, 1, 0) { /* Birdtest Assert */ INST(FI_ASSERT, 1, 0) { /* Birdtest Assert */
NEVER_CONSTANT; NEVER_CONSTANT;
ARG(1, T_BOOL); ARG(1, T_BOOL);
FID_MEMBER(char *, s, [[strcmp(f1->s, f2->s)]], string \"%s\", item->s);
FID_MEMBER(char *, s, [[strcmp(f1->s, f2->s)]], string %s, item->s);
ASSERT(s); ASSERT(s);

6
filter/f-inst.h
View file

@ -80,8 +80,10 @@ static inline struct f_line *f_linearize(const struct f_inst *root)
void f_dump_line(const struct f_line *, uint indent); void f_dump_line(const struct f_line *, uint indent);
struct filter *f_new_where(struct f_inst *); struct filter *f_new_where(struct f_inst *);
static inline struct f_dynamic_attr f_new_dynamic_attr(u8 type, u8 bit, enum f_type f_type, uint code) /* Type as core knows it, type as filters know it, and code of dynamic attribute */ static inline struct f_dynamic_attr f_new_dynamic_attr(u8 type, enum f_type f_type, uint code) /* Type as core knows it, type as filters know it, and code of dynamic attribute */
{ return (struct f_dynamic_attr) { .type = type, .bit = bit, .f_type = f_type, .ea_code = code }; } /* f_type currently unused; will be handy for static type checking */ { return (struct f_dynamic_attr) { .type = type, .f_type = f_type, .ea_code = code }; } /* f_type currently unused; will be handy for static type checking */
static inline struct f_dynamic_attr f_new_dynamic_attr_bit(u8 bit, enum f_type f_type, uint code) /* Type as core knows it, type as filters know it, and code of dynamic attribute */
{ return (struct f_dynamic_attr) { .type = EAF_TYPE_BITFIELD, .bit = bit, .f_type = f_type, .ea_code = code }; } /* f_type currently unused; will be handy for static type checking */
static inline struct f_static_attr f_new_static_attr(int f_type, int code, int readonly) static inline struct f_static_attr f_new_static_attr(int f_type, int code, int readonly)
{ return (struct f_static_attr) { .f_type = f_type, .sa_code = code, .readonly = readonly }; } { return (struct f_static_attr) { .f_type = f_type, .sa_code = code, .readonly = readonly }; }
struct f_inst *f_generate_complex(enum f_instruction_code fi_code, struct f_dynamic_attr da, struct f_inst *argument); struct f_inst *f_generate_complex(enum f_instruction_code fi_code, struct f_dynamic_attr da, struct f_inst *argument);

10
filter/f-util.c
View file

@ -33,17 +33,17 @@ filter_name(const struct filter *filter)
struct filter *f_new_where(struct f_inst *where) struct filter *f_new_where(struct f_inst *where)
{ {
struct f_inst acc = { struct f_inst acc = {
.fi_code = FI_PRINT_AND_DIE, .fi_code = FI_DIE,
.lineno = ifs->lino, .lineno = ifs->lino,
.size = 1, .size = 1,
.i_FI_PRINT_AND_DIE = { .fret = F_ACCEPT, }, .i_FI_DIE = { .fret = F_ACCEPT, },
}; };
struct f_inst rej = { struct f_inst rej = {
.fi_code = FI_PRINT_AND_DIE, .fi_code = FI_DIE,
.lineno = ifs->lino, .lineno = ifs->lino,
.size = 1, .size = 1,
.i_FI_PRINT_AND_DIE = { .fret = F_REJECT, }, .i_FI_DIE = { .fret = F_REJECT, },
}; };
struct f_inst i = { struct f_inst i = {
@ -174,7 +174,7 @@ ca_lookup(pool *p, const char *name, int f_type)
} }
cas = mb_allocz(&root_pool, sizeof(struct ca_storage) + strlen(name) + 1); cas = mb_allocz(&root_pool, sizeof(struct ca_storage) + strlen(name) + 1);
cas->fda = f_new_dynamic_attr(ea_type, 0, f_type, EA_CUSTOM(id)); cas->fda = f_new_dynamic_attr(ea_type, f_type, EA_CUSTOM(id));
cas->uc = 1; cas->uc = 1;
strcpy(cas->name, name); strcpy(cas->name, name);

38
filter/filter.c
View file

@ -482,3 +482,41 @@ filter_commit(struct config *new, struct config *old)
break; break;
} }
} }
void filters_dump_all(void)
{
struct symbol *sym;
WALK_LIST(sym, config->symbols) {
switch (sym->class) {
case SYM_FILTER:
debug("Named filter %s:\n", sym->name);
f_dump_line(sym->filter->root, 1);
break;
case SYM_FUNCTION:
debug("Function %s:\n", sym->name);
f_dump_line(sym->function, 1);
break;
case SYM_PROTO:
{
debug("Protocol %s:\n", sym->name);
struct channel *c;
WALK_LIST(c, sym->proto->proto->channels) {
debug(" Channel %s (%s) IMPORT", c->name, net_label[c->net_type]);
if (c->in_filter == FILTER_ACCEPT)
debug(" ALL\n");
else if (c->in_filter == FILTER_REJECT)
debug(" NONE\n");
else if (c->in_filter == FILTER_UNDEF)
debug(" UNDEF\n");
else if (c->in_filter->sym) {
ASSERT(c->in_filter->sym->filter == c->in_filter);
debug(" named filter %s\n", c->in_filter->sym->name);
} else {
debug("\n");
f_dump_line(c->in_filter->root, 2);
}
}
}
}
}
}

6
filter/filter.h
View file

@ -64,9 +64,11 @@ int f_same(const struct f_line *f1, const struct f_line *f2);
void filter_commit(struct config *new, struct config *old); void filter_commit(struct config *new, struct config *old);
void filters_dump_all(void);
#define FILTER_ACCEPT NULL #define FILTER_ACCEPT NULL
#define FILTER_REJECT ((void *) 1) #define FILTER_REJECT ((struct filter *) 1)
#define FILTER_UNDEF ((void *) 2) /* Used in BGP */ #define FILTER_UNDEF ((struct filter *) 2) /* Used in BGP */
#define FF_SILENT 2 /* Silent filter execution */ #define FF_SILENT 2 /* Silent filter execution */

1
nest/a-path.c
View file

@ -271,7 +271,6 @@ as_path_to_old(struct linpool *pool, const struct adata *path)
/* /*
* Cut the path to the length @num, measured to the usual path metric. Note that * Cut the path to the length @num, measured to the usual path metric. Note that
* AS_CONFED_* segments have zero length and must be added if they are on edge. * AS_CONFED_* segments have zero length and must be added if they are on edge.
* In contrast to other as_path_* functions, @path is modified in place.
*/ */
struct adata * struct adata *
as_path_cut(struct linpool *pool, const struct adata *path, uint num) as_path_cut(struct linpool *pool, const struct adata *path, uint num)

4
nest/config.Y
View file

@ -731,6 +731,8 @@ CF_CLI(DUMP ROUTES,,, [[Dump routing table]])
{ rt_dump_all(); cli_msg(0, ""); } ; { rt_dump_all(); cli_msg(0, ""); } ;
CF_CLI(DUMP PROTOCOLS,,, [[Dump protocol information]]) CF_CLI(DUMP PROTOCOLS,,, [[Dump protocol information]])
{ protos_dump_all(); cli_msg(0, ""); } ; { protos_dump_all(); cli_msg(0, ""); } ;
CF_CLI(DUMP FILTER ALL,,, [[Dump all filters in linearized form]])
{ filters_dump_all(); cli_msg(0, ""); } ;
CF_CLI(EVAL, term, <expr>, [[Evaluate an expression]]) CF_CLI(EVAL, term, <expr>, [[Evaluate an expression]])
{ cmd_eval(f_linearize($2)); } ; { cmd_eval(f_linearize($2)); } ;
@ -791,7 +793,7 @@ proto_patt2:
| TEXT { $$.ptr = $1; $$.patt = 1; } | TEXT { $$.ptr = $1; $$.patt = 1; }
; ;
dynamic_attr: IGP_METRIC { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_GEN_IGP_METRIC); } ; dynamic_attr: IGP_METRIC { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_GEN_IGP_METRIC); } ;
CF_CODE CF_CODE

2
proto/babel/config.Y
View file

@ -125,7 +125,7 @@ babel_iface_opt_list:
babel_iface: babel_iface:
babel_iface_start iface_patt_list_nopx babel_iface_opt_list babel_iface_finish; babel_iface_start iface_patt_list_nopx babel_iface_opt_list babel_iface_finish;
dynamic_attr: BABEL_METRIC { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_BABEL_METRIC); } ; dynamic_attr: BABEL_METRIC { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_BABEL_METRIC); } ;
CF_CLI_HELP(SHOW BABEL, ..., [[Show information about Babel protocol]]); CF_CLI_HELP(SHOW BABEL, ..., [[Show information about Babel protocol]]);

24
proto/bgp/config.Y
View file

@ -272,29 +272,29 @@ bgp_proto_channel: bgp_channel_start bgp_channel_opt_list bgp_channel_end;
dynamic_attr: BGP_ORIGIN dynamic_attr: BGP_ORIGIN
{ $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_ENUM_BGP_ORIGIN, EA_CODE(PROTOCOL_BGP, BA_ORIGIN)); } ; { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_ENUM_BGP_ORIGIN, EA_CODE(PROTOCOL_BGP, BA_ORIGIN)); } ;
dynamic_attr: BGP_PATH dynamic_attr: BGP_PATH
{ $$ = f_new_dynamic_attr(EAF_TYPE_AS_PATH, 0, T_PATH, EA_CODE(PROTOCOL_BGP, BA_AS_PATH)); } ; { $$ = f_new_dynamic_attr(EAF_TYPE_AS_PATH, T_PATH, EA_CODE(PROTOCOL_BGP, BA_AS_PATH)); } ;
dynamic_attr: BGP_NEXT_HOP dynamic_attr: BGP_NEXT_HOP
{ $$ = f_new_dynamic_attr(EAF_TYPE_IP_ADDRESS, 0, T_IP, EA_CODE(PROTOCOL_BGP, BA_NEXT_HOP)); } ; { $$ = f_new_dynamic_attr(EAF_TYPE_IP_ADDRESS, T_IP, EA_CODE(PROTOCOL_BGP, BA_NEXT_HOP)); } ;
dynamic_attr: BGP_MED dynamic_attr: BGP_MED
{ $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_CODE(PROTOCOL_BGP, BA_MULTI_EXIT_DISC)); } ; { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_CODE(PROTOCOL_BGP, BA_MULTI_EXIT_DISC)); } ;
dynamic_attr: BGP_LOCAL_PREF dynamic_attr: BGP_LOCAL_PREF
{ $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_CODE(PROTOCOL_BGP, BA_LOCAL_PREF)); } ; { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_CODE(PROTOCOL_BGP, BA_LOCAL_PREF)); } ;
dynamic_attr: BGP_ATOMIC_AGGR dynamic_attr: BGP_ATOMIC_AGGR
{ $$ = f_new_dynamic_attr(EAF_TYPE_OPAQUE, 0, T_ENUM_EMPTY, EA_CODE(PROTOCOL_BGP, BA_ATOMIC_AGGR)); } ; { $$ = f_new_dynamic_attr(EAF_TYPE_OPAQUE, T_ENUM_EMPTY, EA_CODE(PROTOCOL_BGP, BA_ATOMIC_AGGR)); } ;
dynamic_attr: BGP_AGGREGATOR dynamic_attr: BGP_AGGREGATOR
{ $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_CODE(PROTOCOL_BGP, BA_AGGREGATOR)); } ; { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_CODE(PROTOCOL_BGP, BA_AGGREGATOR)); } ;
dynamic_attr: BGP_COMMUNITY dynamic_attr: BGP_COMMUNITY
{ $$ = f_new_dynamic_attr(EAF_TYPE_INT_SET, 0, T_CLIST, EA_CODE(PROTOCOL_BGP, BA_COMMUNITY)); } ; { $$ = f_new_dynamic_attr(EAF_TYPE_INT_SET, T_CLIST, EA_CODE(PROTOCOL_BGP, BA_COMMUNITY)); } ;
dynamic_attr: BGP_ORIGINATOR_ID dynamic_attr: BGP_ORIGINATOR_ID
{ $$ = f_new_dynamic_attr(EAF_TYPE_ROUTER_ID, 0, T_QUAD, EA_CODE(PROTOCOL_BGP, BA_ORIGINATOR_ID)); } ; { $$ = f_new_dynamic_attr(EAF_TYPE_ROUTER_ID, T_QUAD, EA_CODE(PROTOCOL_BGP, BA_ORIGINATOR_ID)); } ;
dynamic_attr: BGP_CLUSTER_LIST dynamic_attr: BGP_CLUSTER_LIST
{ $$ = f_new_dynamic_attr(EAF_TYPE_INT_SET, 0, T_CLIST, EA_CODE(PROTOCOL_BGP, BA_CLUSTER_LIST)); } ; { $$ = f_new_dynamic_attr(EAF_TYPE_INT_SET, T_CLIST, EA_CODE(PROTOCOL_BGP, BA_CLUSTER_LIST)); } ;
dynamic_attr: BGP_EXT_COMMUNITY dynamic_attr: BGP_EXT_COMMUNITY
{ $$ = f_new_dynamic_attr(EAF_TYPE_EC_SET, 0, T_ECLIST, EA_CODE(PROTOCOL_BGP, BA_EXT_COMMUNITY)); } ; { $$ = f_new_dynamic_attr(EAF_TYPE_EC_SET, T_ECLIST, EA_CODE(PROTOCOL_BGP, BA_EXT_COMMUNITY)); } ;
dynamic_attr: BGP_LARGE_COMMUNITY dynamic_attr: BGP_LARGE_COMMUNITY
{ $$ = f_new_dynamic_attr(EAF_TYPE_LC_SET, 0, T_LCLIST, EA_CODE(PROTOCOL_BGP, BA_LARGE_COMMUNITY)); } ; { $$ = f_new_dynamic_attr(EAF_TYPE_LC_SET, T_LCLIST, EA_CODE(PROTOCOL_BGP, BA_LARGE_COMMUNITY)); } ;

8
proto/ospf/config.Y
View file

@ -498,10 +498,10 @@ ospf_iface:
ospf_iface_start ospf_iface_patt_list ospf_iface_opt_list { ospf_iface_finish(); } ospf_iface_start ospf_iface_patt_list ospf_iface_opt_list { ospf_iface_finish(); }
; ;
dynamic_attr: OSPF_METRIC1 { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_OSPF_METRIC1); } ; dynamic_attr: OSPF_METRIC1 { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_OSPF_METRIC1); } ;
dynamic_attr: OSPF_METRIC2 { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_OSPF_METRIC2); } ; dynamic_attr: OSPF_METRIC2 { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_OSPF_METRIC2); } ;
dynamic_attr: OSPF_TAG { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_OSPF_TAG); } ; dynamic_attr: OSPF_TAG { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_OSPF_TAG); } ;
dynamic_attr: OSPF_ROUTER_ID { $$ = f_new_dynamic_attr(EAF_TYPE_ROUTER_ID, 0, T_QUAD, EA_OSPF_ROUTER_ID); } ; dynamic_attr: OSPF_ROUTER_ID { $$ = f_new_dynamic_attr(EAF_TYPE_ROUTER_ID, T_QUAD, EA_OSPF_ROUTER_ID); } ;
CF_CLI_HELP(SHOW OSPF, ..., [[Show information about OSPF protocol]]); CF_CLI_HELP(SHOW OSPF, ..., [[Show information about OSPF protocol]]);
CF_CLI(SHOW OSPF, optproto, [<name>], [[Show information about OSPF protocol]]) CF_CLI(SHOW OSPF, optproto, [<name>], [[Show information about OSPF protocol]])

4
proto/radv/config.Y
View file

@ -332,8 +332,8 @@ radv_sensitive:
| SENSITIVE bool { $$ = $2; } | SENSITIVE bool { $$ = $2; }
; ;
dynamic_attr: RA_PREFERENCE { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_ENUM_RA_PREFERENCE, EA_RA_PREFERENCE); } ; dynamic_attr: RA_PREFERENCE { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_ENUM_RA_PREFERENCE, EA_RA_PREFERENCE); } ;
dynamic_attr: RA_LIFETIME { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_RA_LIFETIME); } ; dynamic_attr: RA_LIFETIME { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_RA_LIFETIME); } ;
CF_CODE CF_CODE

4
proto/rip/config.Y
View file

@ -186,8 +186,8 @@ rip_iface:
rip_iface_start iface_patt_list_nopx rip_iface_opt_list rip_iface_finish; rip_iface_start iface_patt_list_nopx rip_iface_opt_list rip_iface_finish;
dynamic_attr: RIP_METRIC { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_RIP_METRIC); } ; dynamic_attr: RIP_METRIC { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_RIP_METRIC); } ;
dynamic_attr: RIP_TAG { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_RIP_TAG); } ; dynamic_attr: RIP_TAG { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_RIP_TAG); } ;
CF_CLI_HELP(SHOW RIP, ..., [[Show information about RIP protocol]]); CF_CLI_HELP(SHOW RIP, ..., [[Show information about RIP protocol]]);

56
sysdep/linux/netlink.Y
View file

@ -26,39 +26,39 @@ kern_sys_item:
| METRIC expr { THIS_KRT->sys.metric = $2; } | METRIC expr { THIS_KRT->sys.metric = $2; }
; ;
dynamic_attr: KRT_PREFSRC { $$ = f_new_dynamic_attr(EAF_TYPE_IP_ADDRESS, 0, T_IP, EA_KRT_PREFSRC); } ; dynamic_attr: KRT_PREFSRC { $$ = f_new_dynamic_attr(EAF_TYPE_IP_ADDRESS, T_IP, EA_KRT_PREFSRC); } ;
dynamic_attr: KRT_REALM { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_KRT_REALM); } ; dynamic_attr: KRT_REALM { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_KRT_REALM); } ;
dynamic_attr: KRT_SCOPE { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_KRT_SCOPE); } ; dynamic_attr: KRT_SCOPE { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_KRT_SCOPE); } ;
dynamic_attr: KRT_MTU { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_KRT_MTU); } ; dynamic_attr: KRT_MTU { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_KRT_MTU); } ;
dynamic_attr: KRT_WINDOW { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_KRT_WINDOW); } ; dynamic_attr: KRT_WINDOW { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_KRT_WINDOW); } ;
dynamic_attr: KRT_RTT { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_KRT_RTT); } ; dynamic_attr: KRT_RTT { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_KRT_RTT); } ;
dynamic_attr: KRT_RTTVAR { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_KRT_RTTVAR); } ; dynamic_attr: KRT_RTTVAR { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_KRT_RTTVAR); } ;
dynamic_attr: KRT_SSTRESH { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_KRT_SSTRESH); } ; dynamic_attr: KRT_SSTRESH { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_KRT_SSTRESH); } ;
dynamic_attr: KRT_CWND { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_KRT_CWND); } ; dynamic_attr: KRT_CWND { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_KRT_CWND); } ;
dynamic_attr: KRT_ADVMSS { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_KRT_ADVMSS); } ; dynamic_attr: KRT_ADVMSS { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_KRT_ADVMSS); } ;
dynamic_attr: KRT_REORDERING { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_KRT_REORDERING); } ; dynamic_attr: KRT_REORDERING { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_KRT_REORDERING); } ;
dynamic_attr: KRT_HOPLIMIT { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_KRT_HOPLIMIT); } ; dynamic_attr: KRT_HOPLIMIT { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_KRT_HOPLIMIT); } ;
dynamic_attr: KRT_INITCWND { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_KRT_INITCWND); } ; dynamic_attr: KRT_INITCWND { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_KRT_INITCWND); } ;
dynamic_attr: KRT_RTO_MIN { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_KRT_RTO_MIN); } ; dynamic_attr: KRT_RTO_MIN { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_KRT_RTO_MIN); } ;
dynamic_attr: KRT_INITRWND { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_KRT_INITRWND); } ; dynamic_attr: KRT_INITRWND { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_KRT_INITRWND); } ;
dynamic_attr: KRT_QUICKACK { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_KRT_QUICKACK); } ; dynamic_attr: KRT_QUICKACK { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_KRT_QUICKACK); } ;
/* Bits of EA_KRT_LOCK, based on RTAX_* constants */ /* Bits of EA_KRT_LOCK, based on RTAX_* constants */
dynamic_attr: KRT_LOCK_MTU { $$ = f_new_dynamic_attr(EAF_TYPE_BITFIELD, 2, T_BOOL, EA_KRT_LOCK); } ; dynamic_attr: KRT_LOCK_MTU { $$ = f_new_dynamic_attr_bit(2, T_BOOL, EA_KRT_LOCK); } ;
dynamic_attr: KRT_LOCK_WINDOW { $$ = f_new_dynamic_attr(EAF_TYPE_BITFIELD, 3, T_BOOL, EA_KRT_LOCK); } ; dynamic_attr: KRT_LOCK_WINDOW { $$ = f_new_dynamic_attr_bit(3, T_BOOL, EA_KRT_LOCK); } ;
dynamic_attr: KRT_LOCK_RTT { $$ = f_new_dynamic_attr(EAF_TYPE_BITFIELD, 4, T_BOOL, EA_KRT_LOCK); } ; dynamic_attr: KRT_LOCK_RTT { $$ = f_new_dynamic_attr_bit(4, T_BOOL, EA_KRT_LOCK); } ;
dynamic_attr: KRT_LOCK_RTTVAR { $$ = f_new_dynamic_attr(EAF_TYPE_BITFIELD, 5, T_BOOL, EA_KRT_LOCK); } ; dynamic_attr: KRT_LOCK_RTTVAR { $$ = f_new_dynamic_attr_bit(5, T_BOOL, EA_KRT_LOCK); } ;
dynamic_attr: KRT_LOCK_SSTRESH { $$ = f_new_dynamic_attr(EAF_TYPE_BITFIELD, 6, T_BOOL, EA_KRT_LOCK); } ; dynamic_attr: KRT_LOCK_SSTRESH { $$ = f_new_dynamic_attr_bit(6, T_BOOL, EA_KRT_LOCK); } ;
dynamic_attr: KRT_LOCK_CWND { $$ = f_new_dynamic_attr(EAF_TYPE_BITFIELD, 7, T_BOOL, EA_KRT_LOCK); } ; dynamic_attr: KRT_LOCK_CWND { $$ = f_new_dynamic_attr_bit(7, T_BOOL, EA_KRT_LOCK); } ;
dynamic_attr: KRT_LOCK_ADVMSS { $$ = f_new_dynamic_attr(EAF_TYPE_BITFIELD, 8, T_BOOL, EA_KRT_LOCK); } ; dynamic_attr: KRT_LOCK_ADVMSS { $$ = f_new_dynamic_attr_bit(8, T_BOOL, EA_KRT_LOCK); } ;
dynamic_attr: KRT_LOCK_REORDERING { $$ = f_new_dynamic_attr(EAF_TYPE_BITFIELD, 9, T_BOOL, EA_KRT_LOCK); } ; dynamic_attr: KRT_LOCK_REORDERING { $$ = f_new_dynamic_attr_bit(9, T_BOOL, EA_KRT_LOCK); } ;
dynamic_attr: KRT_LOCK_HOPLIMIT { $$ = f_new_dynamic_attr(EAF_TYPE_BITFIELD, 10, T_BOOL, EA_KRT_LOCK); } ; dynamic_attr: KRT_LOCK_HOPLIMIT { $$ = f_new_dynamic_attr_bit(10, T_BOOL, EA_KRT_LOCK); } ;
dynamic_attr: KRT_LOCK_RTO_MIN { $$ = f_new_dynamic_attr(EAF_TYPE_BITFIELD, 13, T_BOOL, EA_KRT_LOCK); } ; dynamic_attr: KRT_LOCK_RTO_MIN { $$ = f_new_dynamic_attr_bit(13, T_BOOL, EA_KRT_LOCK); } ;
dynamic_attr: KRT_FEATURE_ECN { $$ = f_new_dynamic_attr(EAF_TYPE_BITFIELD, 0, T_BOOL, EA_KRT_FEATURES); } ; dynamic_attr: KRT_FEATURE_ECN { $$ = f_new_dynamic_attr_bit(0, T_BOOL, EA_KRT_FEATURES); } ;
dynamic_attr: KRT_FEATURE_ALLFRAG { $$ = f_new_dynamic_attr(EAF_TYPE_BITFIELD, 3, T_BOOL, EA_KRT_FEATURES); } ; dynamic_attr: KRT_FEATURE_ALLFRAG { $$ = f_new_dynamic_attr(3, T_BOOL, EA_KRT_FEATURES); } ;
CF_CODE CF_CODE

4
sysdep/unix/krt.Y
View file

@ -122,8 +122,8 @@ kif_iface:
kif_iface_start iface_patt_list_nopx kif_iface_opt_list; kif_iface_start iface_patt_list_nopx kif_iface_opt_list;
dynamic_attr: KRT_SOURCE { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_KRT_SOURCE); } ; dynamic_attr: KRT_SOURCE { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_KRT_SOURCE); } ;
dynamic_attr: KRT_METRIC { $$ = f_new_dynamic_attr(EAF_TYPE_INT, 0, T_INT, EA_KRT_METRIC); } ; dynamic_attr: KRT_METRIC { $$ = f_new_dynamic_attr(EAF_TYPE_INT, T_INT, EA_KRT_METRIC); } ;
CF_CODE CF_CODE