voltando a versao de n aberturas e fechamentos de sockets data 19/09
Dependencies: EthernetInterface NTPClient mbed-rtos mbed EALib
Fork of header_main_publish by
test.h
- Committer:
- klauss
- Date:
- 2014-09-09
- Revision:
- 0:4d17cd9c8f9d
File content as of revision 0:4d17cd9c8f9d:
#ifndef __TEST_H__ #define __TEST_H__ typedef struct{ uint8_t * buffer_ptr; volatile uint8_t * status_ptr; int * dest_ext; bool * __symbolic_flag__; }test_control; void _unit_test_( void const * args ); //#define test_mode_on #ifdef test_mode_on void test_registry( void const * args ); void test_aging_registry( void const * args ); void __unit_test_invite__( void const * args ); void test_many_cb_registry( void const * args ); void change_buffer( void const * args ); void unit_test_cb_to_server( void const * args ); void unit_test_cb_from_server( void const * args ); void change_buffer( void const * args ){ if( args != NULL ){ uint8_t * buffer = ( uint8_t *)args; uint8_t ref = 0x21; while( true ){ for( register int i = 0; i < __CB_BUFFER_SIZE__ - 5 ; i++ ) buffer[ i ] = ref; ref++; } } } void unit_test_cb_to_server( void const * args ){ if( args != NULL ){ test_control * tc = ( test_control * )args; /* Como vai acontecer esse teste o que eu tenho que mudar no buffer mandar o invite da primeira chamada, depois mandar o invite da segunda chamada depois ficar trocando dados */ tc->buffer_ptr[ 0 ] = 0x03; tc->buffer_ptr[ 1 ] = 0x59; // ext 857 tc->buffer_ptr[ 2 ] = 0x12; tc->buffer_ptr[ 3 ] = 0x12; // port 4626 tc->buffer_ptr[ 4 ] = __INVITE__; *( tc->status_ptr ) = (uint8_t)0x01; while( *( tc->status_ptr ) == 0x01 ) continue; tc->buffer_ptr[ 0 ] = 0x03; tc->buffer_ptr[ 1 ] = 0x79; // ext 889 tc->buffer_ptr[ 2 ] = 0x12; tc->buffer_ptr[ 3 ] = 0x13; // port 4627 tc->buffer_ptr[ 4 ] = __INVITE__; *( tc->status_ptr ) = (uint8_t)0x01; while( *( tc->status_ptr ) == 0x01 ) continue; led3 = 1; tc->buffer_ptr[ 4 ] = __AUDIO__; Timer time_out; time_out.start(); while( time_out.read() < 10 ){ while( *( tc->status_ptr ) == 0x01 ) continue; // nao posso escrever se isso nao estiver em 0 tc->buffer_ptr[ 0 ] = 0x03; tc->buffer_ptr[ 1 ] = 0x59; // ext 857 tc->buffer_ptr[ 2 ] = 0x12; tc->buffer_ptr[ 3 ] = 0x12; // port 4626 *(tc->dest_ext) = 813; *(tc->status_ptr) = (uint8_t)0x01; while( *( tc->status_ptr ) == 0x01 ) continue; // nao posso escrever se isso nao estiver em 0 tc->buffer_ptr[ 0 ] = 0x03; tc->buffer_ptr[ 1 ] = 0x79; // ext 889 tc->buffer_ptr[ 2 ] = 0x12; tc->buffer_ptr[ 3 ] = 0x13; // port 4627 *(tc->dest_ext) = 814; // ??? confirmar nro do ramal *(tc->status_ptr) = (uint8_t)0x01; } led3 = 0; } } void unit_test_cb_from_server( void const * args ){ if( args != NULL ){ test_control * tc = ( test_control * )args; tc->buffer_ptr[ 0 ] = 0x03; tc->buffer_ptr[ 1 ] = 0x59; // ext 857 tc->buffer_ptr[ 2 ] = 0x12; tc->buffer_ptr[ 3 ] = 0x12; // port 4626 tc->buffer_ptr[ 4 ] = __INVITE__; *( tc->status_ptr ) = (uint8_t)0x01; while( *( tc->status_ptr ) == 0x01 ) continue; led3 = 1; tc->buffer_ptr[ 4 ] = __AUDIO__; Timer time_out; time_out.start(); while( time_out.read() < 10 ){ // *(tc->status_ptr) = (uint8_t)0x01; *(tc->__symbolic_flag__) = false; } led3 = 0; } } void test_registry( void const * args ){ if( args != NULL ){ test_control * tc = ( test_control * )args; if( tc == NULL ) return; uint16_t cc = __checksum__( tc->buffer_ptr + __CHECKSUM_OFFSET__, __CB_BUFFER_SIZE__ - __CHECKSUM_OFFSET__ ); tc->buffer_ptr[ 0 ] = 0x03; tc->buffer_ptr[ 1 ] = 0x5d; // 861 tc->buffer_ptr[ 2 ] = 0x10; tc->buffer_ptr[ 3 ] = 0x11; // 4113 tc->buffer_ptr[ 4 ] = ( uint8_t )( ( cc & 0xFF00 ) >> 8 ); tc->buffer_ptr[ 5 ] = ( uint8_t )( cc & 0x00FF ); tc->buffer_ptr[ 6 ] = __REGISTRY__; tc->buffer_ptr[ 7 ] = 0x03; // seq for( register int i = 8; i < 8 + __CLOCK_SYNC_SIZE__; i++ )// clock tc->buffer_ptr[ i ] = 0x00; tc->buffer_ptr[ 10 ] = 0x23; *(tc->status_ptr) = (uint8_t)__READ__; } } void __unit_test_invite__( void const * args ){ if( args != NULL ){ test_control * tc = ( test_control * )args; uint16_t cc = __checksum__( tc->buffer_ptr + __CHECKSUM_OFFSET__, __CB_BUFFER_SIZE__ - __CHECKSUM_OFFSET__ ); tc->buffer_ptr[ 0 ] = 0x03; tc->buffer_ptr[ 1 ] = 0x5f; // 863 tc->buffer_ptr[ 2 ] = 0x10; tc->buffer_ptr[ 3 ] = 0x11; // 4113 tc->buffer_ptr[ 4 ] = ( uint8_t )( ( cc & 0xFF00 ) >> 8 ); tc->buffer_ptr[ 5 ] = ( uint8_t )( cc & 0x00FF ); tc->buffer_ptr[ 6 ] = __INVITE__; tc->buffer_ptr[ 7 ] = 0x07; // seq for( register int i = 8; i < 8 + __CLOCK_SYNC_SIZE__; i++ ) tc->buffer_ptr[ i ] = i; *(tc->status_ptr) = __READ__; tc->buffer_ptr[ 7 ] = 0x41; // seq for( register int i = 8; i < 8 + __CLOCK_SYNC_SIZE__; i++ ) tc->buffer_ptr[ i ] = 0x41; while( *( tc->status_ptr ) == __READ__ ) continue; led3 = 1; tc->buffer_ptr[ 6 ] = __AUDIO__; Timer time_out; time_out.start(); while( time_out.read() < 10 ){ *(tc->status_ptr) = __READ__; *(tc->__symbolic_flag__) = false; } led3 = 0; } } void test_aging_registry( void const * args ){ // single cb, try many if( args != NULL ){ test_control * tc = ( test_control * )args; if( tc == NULL ) return; uint16_t cc = __checksum__( tc->buffer_ptr + __CHECKSUM_OFFSET__, __CB_BUFFER_SIZE__ - __CHECKSUM_OFFSET__ ); tc->buffer_ptr[ 0 ] = 0x03; tc->buffer_ptr[ 1 ] = 0x5d; // 861 tc->buffer_ptr[ 2 ] = 0x10; tc->buffer_ptr[ 3 ] = 0x11; // 4113 tc->buffer_ptr[ 4 ] = ( uint8_t )( ( cc & 0xFF00 ) >> 8 ); tc->buffer_ptr[ 5 ] = ( uint8_t )( cc & 0x00FF ); tc->buffer_ptr[ 6 ] = __REGISTRY__; tc->buffer_ptr[ 7 ] = 0x03; // seq for( register int i = 8; i < 8 + __CLOCK_SYNC_SIZE__; i++ )// clock tc->buffer_ptr[ i ] = 0x00; tc->buffer_ptr[ 10 ] = 0x23; *(tc->status_ptr) = (uint8_t)__READ__; } } void test_many_cb_registry( void const * args ){ if( args != NULL ){ test_control * tc = ( test_control * )args; if( tc == NULL ) return; tc->buffer_ptr[ 0 ] = 0x03; tc->buffer_ptr[ 1 ] = 0x53; // 851 tc->buffer_ptr[ 2 ] = 0x1b; tc->buffer_ptr[ 3 ] = 0xbd; // 7101 tc->buffer_ptr[ 6 ] = __REGISTRY__; tc->buffer_ptr[ 7 ] = 0x03; // seq for( register int i = 8; i < 8 + __CLOCK_SYNC_SIZE__; i++ )// clock tc->buffer_ptr[ i ] = 0x00; tc->buffer_ptr[ 11 ] = 0x23; uint16_t cc = __checksum__( tc->buffer_ptr + __CHECKSUM_OFFSET__, __CB_BUFFER_SIZE__ - __CHECKSUM_OFFSET__ ); tc->buffer_ptr[ 4 ] = ( uint8_t )( ( cc & 0xFF00 ) >> 8 ); tc->buffer_ptr[ 5 ] = ( uint8_t )( cc & 0x00FF ); *(tc->status_ptr) = (uint8_t)__READ__; while( *(tc->status_ptr) == (uint8_t)__READ__ ); int ext = 851; int port = 7101; for( register int i = 0; i < 23; i++ ){ *(tc->status_ptr) = (uint8_t)__READ__; tc->buffer_ptr[ 0 ] = ( uint8_t )( ( ext & 0xFF00 ) >> 8 ); tc->buffer_ptr[ 1 ] = ( uint8_t )( ++ext & 0x00FF ); tc->buffer_ptr[ 2 ] = ( uint8_t )( ( port & 0xFF00 ) >> 8 ); tc->buffer_ptr[ 3 ] = ( uint8_t )( ++port & 0x00FF ); uint16_t cc = __checksum__( tc->buffer_ptr + __CHECKSUM_OFFSET__, __CB_BUFFER_SIZE__ - __CHECKSUM_OFFSET__ ); tc->buffer_ptr[ 4 ] = ( uint8_t )( ( cc & 0xFF00 ) >> 8 ); tc->buffer_ptr[ 5 ] = ( uint8_t )( cc & 0x00FF ); *(tc->status_ptr) = (uint8_t)__READ__; while( *(tc->status_ptr) == (uint8_t)__READ__ ); } } } #endif // test_mode_on #endif // test.h