FreeCalypso > hg > fc-tourmaline
view src/g23m-gsm/alr2/alr_test/alr_ncell_steps.cpp @ 220:0ed36de51973
ABB semaphore protection overhaul
The ABB semaphone protection logic that came with TCS211 from TI
was broken in several ways:
* Some semaphore-protected functions were called from Application_Initialize()
context. NU_Obtain_Semaphore() called with NU_SUSPEND fails with
NU_INVALID_SUSPEND in this context, but the return value wasn't checked,
and NU_Release_Semaphore() would be called unconditionally at the end.
The latter call would increment the semaphore count past 1, making the
semaphore no longer binary and thus no longer effective for resource
protection. The fix is to check the return value from NU_Obtain_Semaphore()
and skip the NU_Release_Semaphore() call if the semaphore wasn't properly
obtained.
* Some SPI hardware manipulation was being done before entering the semaphore-
protected critical section. The fix is to reorder the code: first obtain
the semaphore, then do everything else.
* In the corner case of L1/DSP recovery, l1_abb_power_on() would call some
non-semaphore-protected ABB & SPI init functions. The fix is to skip those
calls in the case of recovery.
* A few additional corner cases existed, all of which are fixed by making
ABB semaphore protection 100% consistent for all ABB functions and code paths.
There is still one remaining problem of priority inversion: suppose a low-
priority task calls an ABB function, and some medium-priority task just happens
to preempt right in the middle of that semaphore-protected ABB operation. Then
the high-priority SPI task is locked out for a non-deterministic time until
that medium-priority task finishes its work and goes back to sleep. This
priority inversion problem remains outstanding for now.
author | Mychaela Falconia <falcon@freecalypso.org> |
---|---|
date | Mon, 26 Apr 2021 20:55:25 +0000 |
parents | 3a14ee9a9843 |
children |
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#include "alr_constraints.h" #include "alr_ncell_steps.h" /*------------------------------------------------------------------------------ * * Description: Measurement reporting for the serving cell is tested. The multiframe * period is set to two multiframes. It is expected that the * initial report to RR is send after eleven reports of layer 1 * and successive reports are send to RR after ten reports. * The number of TDMA frames between measurement reports to RR is * 102 TDMA frames which is equal to two multiframes. *-------------------------------------------------------------------------------*/ T_STEP meas_rep_bs_pa_mfrms_2() { BEGIN_STEP ("measurement reporting bs_pa_mfrms=2") { SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); AWAIT ( mph_measurement_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); AWAIT ( mph_measurement_ind_2() ); } } /*------------------------------------------------------------------------------- * * Description: Measurement reporting for the serving cell is tested. The multiframe * period is set to three multiframes. It is expected that the initial * report to RR is send after eight reports of layer 1 and successive * reports are send to RR after seven reports. The number of TDMA frames * between measurement reports to RR is 153 TDMA frames which is equal to * three multiframes. *-------------------------------------------------------------------------------*/ T_STEP meas_rep_bs_pa_mfrms_3() { BEGIN_STEP ("measurement reporting bs_pa_mfrms=3") { SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); AWAIT ( mph_measurement_ind_3() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); AWAIT ( mph_measurement_ind_4() ); } } /*-------------------------------------------------------------------------------- * * Description: Measurement reporting for the serving cell is tested. The multiframe * period is set to four multiframes. It is expected that the initial * report to RR is send after six reports of layer 1 and successive * reports are send to RR after five reports. The number of TDMA frames * between measurement reports to RR is 204 TDMA frames which is * equal to four multiframes. *-------------------------------------------------------------------------------*/ T_STEP meas_rep_bs_pa_mfrms_4() { BEGIN_STEP ("measurement reporting bs_pa_mfrms=4") { SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); AWAIT ( mph_measurement_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); AWAIT ( mph_measurement_ind_5() ); } } /*------------------------------------------------------------------------------ * * Description: Measurement reporting for the serving cell is tested. * The multiframe period is set to five multiframes. It is expected * that the initial report to RR is send after five reports of * layer 1 and successive reports are send to RR after four reports. * The number of TDMA frames between measurement reports to RR is * 255 TDMA frames which is equal to five multiframes. *-------------------------------------------------------------------------------*/ T_STEP meas_rep_bs_pa_mfrms_5() { BEGIN_STEP ("measurement reporting bs_pa_mfrms=5") { SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); AWAIT ( mph_measurement_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); AWAIT ( mph_measurement_ind_6() ); } } /*----------------------------------------------------------------------------- * * Description: Measurement reporting for the serving cell is tested. The multiframe * period is set to six multiframes. It is expected that the initial * report to RR is send after five reports of layer 1 and successive * reports are send to RR after three reports. The number of TDMA frames * between measurement reports to RR is 306 TDMA frames which is equal * to six multiframes. *-------------------------------------------------------------------------------*/ T_STEP meas_rep_bs_pa_mfrms_6() { BEGIN_STEP ("measurement reporting bs_pa_mfrms=6") { SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); AWAIT ( mph_measurement_ind_7() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); AWAIT ( mph_measurement_ind_8() ); } } /*--------------------------------------------------------------------------------- * * Description: Measurement reporting for the serving cell is tested. The multiframe * period is set to eight multiframes. It is expected that the initial * report to RR is send after five reports of layer 1 and successive * reports are send to RR after two reports. The number of TDMA frames * between measurement reports to RR is 408 TDMA frames which is equal to * eight multiframes. *-------------------------------------------------------------------------------*/ T_STEP meas_rep_bs_pa_mfrms_8() { BEGIN_STEP ("measurement reporting bs_pa_mfrms=8") { SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); AWAIT ( mph_measurement_ind_10() ); SEND ( mphc_rxlev_periodic_ind_1() ); SEND ( mphc_rxlev_periodic_ind_1() ); AWAIT ( mph_measurement_ind_11() ); } } /*--------------------------------------------------------------------------------- * * Description: The 10 seconds interval for next ncell synchronization in idle * mode is effected by sending (42/bs_pa_mfrms) measurement reports. * This function sends (count*3) number of measurement reports. *-------------------------------------------------------------------------------*/ T_STEP wait_ncsync_idle_2_14(int count) { BEGIN_STEP ("wait for ncsync expiry in idle mode") { int i; for( i=1 ; i<count ; i++ ) { SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_14() ); } SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); } } /*--------------------------------------------------------------------------------- * * Description: The 10 seconds interval for next ncell synchronization in idle * mode is effected by sending (42/bs_pa_mfrms) measurement reports. * This function sends (count*2) number of measurement reports. *-------------------------------------------------------------------------------*/ T_STEP wait_ncsync_idle_2_31(int count) { BEGIN_STEP ("wait for ncsync expiry in idle mode") { int i; for( i=1 ; i<count ; i++ ) { SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_31() ); } SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); } } /*--------------------------------------------------------------------------------- * * Description: The 10 seconds interval for next ncell synchronization in idle * mode is effected by sending (42/bs_pa_mfrms) measurement reports. * This function sends (count*3) number of measurement reports. *-------------------------------------------------------------------------------*/ T_STEP wait_ncsync_idle_3_33(int count) { BEGIN_STEP ("wait for ncsync expiry in idle mode") { int i; for( i=1 ; i<count ; i++ ) { SEND ( mphc_rxlev_periodic_ind_3() ); SEND ( mphc_rxlev_periodic_ind_3() ); SEND ( mphc_rxlev_periodic_ind_3() ); AWAIT ( mph_measurement_ind_33() ); } SEND ( mphc_rxlev_periodic_ind_3() ); SEND ( mphc_rxlev_periodic_ind_3() ); SEND ( mphc_rxlev_periodic_ind_3() ); } } /*--------------------------------------------------------------------------------- * * Description: The 10 seconds interval for next ncell synchronization in dedicated * mode is effected by sending 21 measurement reports. This function sends * 'count' number of measurement reports. *-------------------------------------------------------------------------------*/ T_STEP wait_ncsync_dedicated(int count) { BEGIN_STEP ("wait for ncsync expiry in dedicated mode") { int i; for( i=1 ; i<count ; i++ ) { SEND ( mphc_meas_report_4() ); AWAIT ( mph_measurement_ind_34() ); } SEND ( mphc_meas_report_4() ); } } /*--------------------------------------------------------------------------------- * * Description: The 10 seconds interval for next ncell synchronization in dedicated * mode is effected by sending 21 measurement reports. This function sends * 'count' number of measurement reports. *-------------------------------------------------------------------------------*/ T_STEP wait_ncsync_dedicated_102(int count) { BEGIN_STEP ("wait for ncsync expiry in dedicated mode") { int i; for( i=1 ; i<count ; i++ ) { SEND ( mphc_meas_report_4() ); AWAIT ( mph_measurement_ind_dummy(ARFCN_23,25) ); } SEND ( mphc_meas_report_4() ); } } /*--------------------------------------------------------------------------------- * * Description: The 10 seconds interval for next ncell synchronization in dedicated * mode is effected by sending 21 measurement reports. This function sends * 'count' number of measurement reports. *-------------------------------------------------------------------------------*/ T_STEP wait_ncsync_dedicated_102a(int count) { BEGIN_STEP ("wait for ncsync expiry in dedicated mode") { int i; for( i=1 ; i<count ; i++ ) { SEND ( mphc_meas_report_5() ); AWAIT ( mph_measurement_ind_dummy(ARFCN_23,25) ); } SEND ( mphc_meas_report_5() ); } } /*--------------------------------------------------------------------------------- * * Description: The 10 seconds interval for next ncell synchronization in dedicated * mode is effected by sending 21 measurement reports. This function sends * 'count' number of measurement reports. *-------------------------------------------------------------------------------*/ T_STEP wait_ncsync_dedicated_102b(int count) { BEGIN_STEP ("wait for ncsync expiry in dedicated mode") { int i; for( i=1 ; i<count ; i++ ) { SEND ( mphc_meas_report_6() ); AWAIT ( mph_measurement_ind_dummy(ARFCN_23,25) ); } SEND ( mphc_meas_report_6() ); } } /*--------------------------------------------------------------------------------- * * Description: The 10 seconds interval for next ncell synchronization in dedicated * mode is effected by sending 21 measurement reports. This function sends * 'count' number of measurement reports. *-------------------------------------------------------------------------------*/ T_STEP wait_ncsync_dedicated_102c(int count) { BEGIN_STEP ("wait for ncsync expiry in dedicated mode") { int i; for( i=1 ; i<count ; i++ ) { SEND ( mphc_meas_report_6a() ); AWAIT ( mph_measurement_ind_dummy(ARFCN_23,25) ); } SEND ( mphc_meas_report_6a() ); } } /*--------------------------------------------------------------------------------- * * Description: The 10 seconds interval for next ncell synchronization in dedicated * mode is effected by sending 21 measurement reports. This function sends * 'count' number of measurement reports. *-------------------------------------------------------------------------------*/ T_STEP wait_ncsync_dedicated_1020A(int count) { BEGIN_STEP ("wait for ncsync expiry in dedicated mode alr1020A") { int i; for( i=1 ; i<count ; i++ ) { SEND (mphc_meas_report_4a() ); AWAIT ( mph_measurement_ind_dummy(ARFCN_23,0x19) ); } SEND ( mphc_meas_report_4a() ); } } /*------------------------------------------------------------------------------ * * Description: The BA list contains the serving cell 23 and * the neighbour cells 1, 14 and 124. * The fieldstrength is 56 for channel 23, 12 for channel 1, * 44 for channel 14 and 25 for channel 124 (all values in GSM range). * The ranking for the neighbour cells is 14, 124 and at least channel 1. * Each reports contains two fieldstrength values per channel. * The multiframe period is set to 6. The first measurement report * is send to RR after five reports from PL. Then after each * three reports from PL a measurement report is send to RR. * Synchronisation to channel 14 fails. *-------------------------------------------------------------------------------*/ T_STEP sync_to_ncell_14_fails_once() { BEGIN_STEP ("sync to ncell 14 failes once") { SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_14) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_124) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_1) ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_13() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_ncell_sync_ind_failed(ARFCN_14) ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_ncell_sync_ind(ARFCN_124,FN_OFF_ARFCN_124,TIME_ALIGNMT_124,BSIC_1) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_124, FN_OFF_ARFCN_124, TIME_ALIGNMT_124)); SEND ( mphc_ncell_sync_ind_3() ); AWAIT ( mphc_ncell_bcch_req (ARFCN_1, FN_OFF_ARFCN_1, TIME_ALIGNMT_1) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_1) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_1) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_124) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_124) ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_15() ); AWAIT ( mph_unitdata_ind_si3(ARFCN_1) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_124) ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_14) ); AWAIT ( mph_measurement_ind_15() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_ncell_sync_ind (ARFCN_14) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_14) ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_15() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_14) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_14) ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_14() ); AWAIT ( mph_unitdata_ind_si3(ARFCN_14) ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_14() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_14() ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mphc_ncell_list_sync_req_1a() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_ncell_sync_ind(ARFCN_124,FN_OFF_ARFCN_124,TIME_ALIGNMT_124,BSIC_1) ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_ncell_sync_ind_3() ); AWAIT ( mph_measurement_ind_14() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_14() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_14() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_14() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_ncell_sync_ind (ARFCN_14) ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_14() ); SEND ( mphc_rxlev_periodic_ind_2() ); } } /*------------------------------------------------------------------------------ * * Description: ALR requests successive reading of BCCH for all neighbour cells. * This failed for channel 14. *-------------------------------------------------------------------------------*/ T_STEP ncell_bcch_read_fails_for_ncell_14() { BEGIN_STEP ("ncell BCCH read fails for ncell 14") { SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_14) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_124) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_1) ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_13() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_ncell_sync_ind (ARFCN_14) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_14) ); SEND ( mphc_ncell_bcch_ind_invalid(ARFCN_14) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_14) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_14) ); SEND ( mphc_ncell_bcch_ind_invalid(ARFCN_14) ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_14) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_14) ); SEND ( mphc_ncell_bcch_ind_invalid(ARFCN_14) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_14) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_14) ); SEND ( mphc_ncell_bcch_ind_invalid(ARFCN_14) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_14) ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_16() ); SEND ( mphc_ncell_sync_ind(ARFCN_124,FN_OFF_ARFCN_124,TIME_ALIGNMT_124,BSIC_1) ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_ncell_sync_ind_5() ); AWAIT ( mphc_ncell_bcch_req (ARFCN_124, FN_OFF_ARFCN_124, TIME_ALIGNMT_124)); AWAIT ( mphc_ncell_bcch_req (ARFCN_1, FN_OFF_ARFCN_1, TIME_ALIGNMT_1) ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mphc_ncell_sync_req_1a() ); AWAIT ( mph_measurement_ind_16() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_124) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_124) ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_1) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_1) ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_15() ); AWAIT ( mph_unitdata_ind_si3(ARFCN_1) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_124) ); SEND ( mphc_ncell_sync_ind (ARFCN_14) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_14) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_14) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_14) ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_14() ); AWAIT ( mph_unitdata_ind_si3(ARFCN_14) ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_14() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_14() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mphc_ncell_list_sync_req_1a()); } } /*------------------------------------------------------------------------------ * * Description: The multiband parameter is set to 0, that means the neighbourcells * are ranked after the fieldstrength. The serving cell is 23 * (that means in the GSM 900 frequency band). The neighbourcell list * contains eight channels : 1, 14, 25, 124, 512 580, 637 and 885. * It is expected, that ALR starts synchronization to the six * strongest cells 637, 25, 14, 512, 580, 885. This channels must * be included in the measurement report to RR. *-------------------------------------------------------------------------------*/ T_STEP ncell_reporting_multiband_0_scell_is_gsm900() { BEGIN_STEP("ncell: multiband 0/scell is gsm900") { START_TIMEOUT(29500); SEND ( mphc_rxlev_periodic_ind_3() ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_637) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_25) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_14) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_512) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_580) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_885) ); SEND ( mphc_rxlev_periodic_ind_3() ); AWAIT ( mph_measurement_ind_7() ); SEND ( mphc_ncell_sync_ind_12() ); AWAIT ( mphc_ncell_bcch_req_10() ); SEND ( mphc_ncell_sync_ind (ARFCN_25) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_25) ); SEND ( mphc_ncell_sync_ind (ARFCN_14) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_14) ); SEND ( mphc_ncell_sync_ind (ARFCN_512) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_512) ); SEND ( mphc_ncell_sync_ind_15() ); AWAIT ( mphc_ncell_bcch_req_13() ); SEND ( mphc_ncell_sync_ind_16() ); AWAIT ( mphc_ncell_bcch_req (ARFCN_885) ); SEND ( mphc_rxlev_periodic_ind_3() ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_637) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_637) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_25) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_25) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_14) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_14) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_512) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_512) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_580) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_580) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_885) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_885) ); SEND ( mphc_rxlev_periodic_ind_3() ); SEND ( mphc_rxlev_periodic_ind_3() ); AWAIT ( mph_measurement_ind_21() ); AWAIT ( mph_unitdata_ind_si3(ARFCN_14) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_25) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_512) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_580) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_637) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_885) ); SEND ( mphc_rxlev_periodic_ind_3() ); SEND ( mphc_rxlev_periodic_ind_3() ); SEND ( mphc_rxlev_periodic_ind_3() ); AWAIT ( mph_measurement_ind_21() ); SEND ( mphc_ncell_sync_ind(ARFCN_124,FN_OFF_ARFCN_124,TIME_ALIGNMT_124,BSIC_1) ); WAIT_TIMEOUT(); } } /*--------------------------------------------------------------------------------- * * Description: The multiband parameter is set to 0, that means the neighbourcells * are ranked after the fieldstrength. The serving cell is 578 * (that means in the DCS 1800 frequency band). The neighbourcell list * contains eight channels : 1, 14, 25, 124, 512 580, 637 and 885. It is * expected, that ALR starts synchronization to the six strongest cells * 14, 25, 512, 580, 637, 885. These channels must be included in * the measurement report to RR. *-------------------------------------------------------------------------------*/ T_STEP ncell_reporting_multiband_0_scell_is_gsm1800() { BEGIN_STEP("ncell: multiband 0/scell is gsm1800") { START_TIMEOUT(29500); SEND ( mphc_rxlev_periodic_ind_4() ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_637) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_25) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_14) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_512) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_580) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_885) ); SEND ( mphc_rxlev_periodic_ind_4() ); AWAIT ( mph_measurement_ind_22() ); SEND ( mphc_ncell_sync_ind_12() ); AWAIT ( mphc_ncell_bcch_req_10() ); SEND ( mphc_ncell_sync_ind (ARFCN_25) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_25) ); SEND ( mphc_ncell_sync_ind (ARFCN_14) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_14) ); SEND ( mphc_ncell_sync_ind (ARFCN_512) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_512) ); SEND ( mphc_ncell_sync_ind_15() ); AWAIT ( mphc_ncell_bcch_req_13() ); SEND ( mphc_ncell_sync_ind_16() ); AWAIT ( mphc_ncell_bcch_req (ARFCN_885) ); SEND ( mphc_rxlev_periodic_ind_4() ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_637) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_637) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_25) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_25) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_14) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_14) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_512) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_512) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_580) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_580) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_885) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_885) ); SEND ( mphc_rxlev_periodic_ind_4() ); SEND ( mphc_rxlev_periodic_ind_4() ); AWAIT ( mph_measurement_ind_23() ); AWAIT ( mph_unitdata_ind_si3(ARFCN_14) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_25) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_512) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_580) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_637) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_885) ); SEND ( mphc_rxlev_periodic_ind_4() ); SEND ( mphc_rxlev_periodic_ind_4() ); SEND ( mphc_rxlev_periodic_ind_4() ); AWAIT ( mph_measurement_ind_23() ); WAIT_TIMEOUT(); } } /*------------------------------------------------------------------------------ * * Description: The BA list contains the serving cell 23 and the * neighbour cells 1, 14 and 124. * The fieldstrength is 56 for channel 23, 12 for channel 1, * 44 for channel 14 and 25 for channel 124 (all values in GSM range). * The ranking for the neighbour cells is 14, 124 and channel 1. * Each reports contains two fieldstrength values per channel. * The multiframe period is set to 6. The first measurement report * is send to RR after five reports from PL. Then after each three * reports from PL a measurement report is send to RR. The NCC permitted * check for neighbour cell 124 fails. The cell shall be excluded * from further attempts. *-------------------------------------------------------------------------------*/ T_STEP ncell_sync_ncc_permitted_check() { BEGIN_STEP ("ncell sync, NCC is not permitted for ncell 124") { SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_14) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_124) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_1) ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_13() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_ncell_sync_ind(ARFCN_14,FN_OFF_ARFCN_14,TIME_ALIGNMT_14,BSIC_16) ); AWAIT ( mphc_ncell_bcch_req_4() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_ncell_sync_ind(ARFCN_124,FN_OFF_ARFCN_124,TIME_ALIGNMT_124,BSIC_1) ); SEND ( mphc_ncell_sync_ind(ARFCN_1,FN_OFF_ARFCN_1,TIME_ALIGNMT_1,BSIC_16) ); AWAIT ( mphc_ncell_bcch_req_5() ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_16() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_14) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_14) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_1) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_1) ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_124) ); AWAIT ( mph_measurement_ind_17() ); AWAIT ( mph_unitdata_ind_si3(ARFCN_1) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_14) ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); SEND ( mphc_rxlev_periodic_ind_2() ); AWAIT ( mph_measurement_ind_17() ); } } /*------------------------------------------------------------------------------ * * Description: The multiband parameter is set to 1, that means at least one of * the neighbourcells is member of the non-serving cell band * (that means in the DCS 1800 frequency band). The serving cell * is 23 (that means in the GSM 900 frequency band). The neighbourcell * list contains eight channels : 1, 11, 14, 25,87, 124, 512 and 885. * It is expected, that ALR starts synchronization to the six * cells 14, 87, 25, 11, 1 and 512. This channels must be included * in the measurement report to RR. ALR shall not synchronize to 885, * although the cell has a better fieldstrength than most channels * of the GSM 900 frequency band. *-------------------------------------------------------------------------------*/ T_STEP ncell_reporting_multiband_1_scell_is_gsm900() { BEGIN_STEP("ncell: multiband 1/scell is gsm900") { SEND ( mphc_rxlev_periodic_ind_5() ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_25) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_14) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_512) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_11) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_87) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_124) ); SEND ( mphc_rxlev_periodic_ind_5() ); AWAIT ( mph_measurement_ind_13() ); SEND ( mphc_ncell_sync_ind (ARFCN_25) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_25) ); SEND ( mphc_ncell_sync_ind (ARFCN_14) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_14) ); SEND ( mphc_ncell_sync_ind (ARFCN_512) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_512) ); SEND ( mphc_ncell_sync_ind (ARFCN_11) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_11) ); SEND ( mphc_ncell_sync_ind (ARFCN_87) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_87) ); SEND ( mphc_ncell_sync_ind (ARFCN_124) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_124) ); SEND ( mphc_rxlev_periodic_ind_5() ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_25) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_25) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_14) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_14) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_512) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_512) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_11) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_11) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_87) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_87) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_124) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_124) ); SEND ( mphc_rxlev_periodic_ind_5() ); SEND ( mphc_rxlev_periodic_ind_5() ); AWAIT ( mph_measurement_ind_24() ); AWAIT ( mph_unitdata_ind_si3(ARFCN_11) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_14) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_25) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_87) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_124) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_512) ); SEND ( mphc_rxlev_periodic_ind_5() ); SEND ( mphc_rxlev_periodic_ind_5() ); SEND ( mphc_rxlev_periodic_ind_5() ); AWAIT ( mph_measurement_ind_24() ); } } T_STEP ncell_reporting_multiband_1_scell_is_gsm900_4ch() { BEGIN_STEP("ncell: multiband 1/scell is gsm900 4ch") { SEND ( mphc_rxlev_periodic_ind_6() ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_14) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_512) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_885) ); AWAIT ( mphc_ncell_sync_req_initial(ARFCN_1) ); SEND ( mphc_rxlev_periodic_ind_6() ); AWAIT ( mph_measurement_ind_13() ); SEND ( mphc_ncell_sync_ind (ARFCN_14) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_14) ); SEND ( mphc_ncell_sync_ind (ARFCN_512) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_512) ); SEND ( mphc_ncell_sync_ind_16() ); AWAIT ( mphc_ncell_bcch_req (ARFCN_885) ); SEND ( mphc_ncell_sync_ind (ARFCN_1) ); AWAIT ( mphc_ncell_bcch_req (ARFCN_1) ); SEND ( mphc_rxlev_periodic_ind_6() ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_14) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_14) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_512) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_512) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_885) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_885) ); SEND ( mphc_ncell_bcch_ind_si3(ARFCN_1) ); AWAIT ( mphc_stop_ncell_bcch_req(ARFCN_1) ); SEND ( mphc_rxlev_periodic_ind_6() ); SEND ( mphc_rxlev_periodic_ind_6() ); AWAIT ( mph_measurement_ind_25() ); AWAIT ( mph_unitdata_ind_si3(ARFCN_1) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_14) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_512) ); AWAIT ( mph_unitdata_ind_si3(ARFCN_885) ); SEND ( mphc_rxlev_periodic_ind_6() ); SEND ( mphc_rxlev_periodic_ind_6() ); SEND ( mphc_rxlev_periodic_ind_6() ); AWAIT ( mph_measurement_ind_25() ); } }