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src/g23m-*: initial import from Magnetite
author Mychaela Falconia <falcon@freecalypso.org>
date Sun, 15 Jul 2018 04:40:46 +0000
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0:b6a5e36de839 1:d393cd9bb723
1 /*
2 +-----------------------------------------------------------------------------
3 | Project :
4 | Modul :
5 +-----------------------------------------------------------------------------
6 | Copyright 2002 Texas Instruments Berlin, AG
7 | All rights reserved.
8 |
9 | This file is confidential and a trade secret of Texas
10 | Instruments Berlin, AG
11 | The receipt of or possession of this file does not convey
12 | any rights to reproduce or disclose its contents or to
13 | manufacture, use, or sell anything it may describe, in
14 | whole, or in part, without the specific written consent of
15 | Texas Instruments Berlin, AG.
16 +-----------------------------------------------------------------------------
17 | Purpose : This Module defines the engineering mode (EM) device driver for the
18 | G23 protocol stack. This driver is used to control all engineering
19 | mode related functions.
20 +-----------------------------------------------------------------------------
21 */
22
23 #ifndef RR_EM_C
24 #define RR_EM_C
25
26 #define ENTITY_RR
27
28 /*==== INCLUDES ===================================================*/
29
30 #include <string.h>
31 #include <stdlib.h>
32 #include <stddef.h> /* offsetof */
33 #include <stdio.h> /* sprintf */
34 #include "typedefs.h"
35 #include "pcm.h"
36 #include "pconst.cdg"
37 #include "mconst.cdg"
38 #include "message.h"
39 #include "ccdapi.h"
40 #include "vsi.h"
41 #include "custom.h"
42 #include "gsm.h"
43 #include "prim.h"
44 #include "cnf_rr.h"
45 #include "tok.h"
46 #include "rr.h"
47 #include "rr_em.h"
48
49 /*==== EXPORT =====================================================*/
50
51 /*==== VARIABLES ==================================================*/
52
53 #ifdef FF_EM_MODE
54
55 /*
56 These variables are used between entities. Even this is not a clean solution it is a straigth forward
57 way to reduce the overhead to a minimum. A clean solution would be based on an only usage of primitives
58 which would stress the os with no aditional advantage!!
59 */
60 /* these are accessed by ACI */
61 GLOBAL UBYTE em_rr_sem_buffer [EM_RR_SEM_SIZE]; /*lint -esym(552,em_rr_sem_buffer) -esym(765,em_rr_sem_buffer ) */
62 GLOBAL UBYTE em_rr_sem_index; /*lint -esym(765,em_rr_sem_index)*/
63 GLOBAL UBYTE em_act_dlt = 0; /*lint -esym(765,em_act_dlt) | used by ALR */
64 GLOBAL UBYTE em_act_rlt = 0; /*lint -esym(765,em_act_rlt) | used by ALR */
65
66 static USHORT ma [MAX_MA_CHANNELS]; /* MA list after starting time */
67 static USHORT ma2[MAX_MA_CHANNELS]; /* MA list before starting time if available */
68 static UBYTE v_start=0; /* starting time valid */
69 static UBYTE maio2=0;
70
71 static T_HANDLE sem_EM_RR;
72 static UBYTE em_rr_trace_occured;
73
74
75 /* Event tracing flags for EM */
76 GLOBAL BOOL rr_v[EM_MAX_RR_EVENTS];
77 GLOBAL USHORT em_assign_fail_rr_cause;
78 GLOBAL USHORT em_handover_fail_rr_cause;
79
80 LOCAL void em_rr_sem_clear (void);
81 LOCAL void rr_em_first_event_check(void);
82
83 #endif /* FF_EM_MODE */
84
85 /*==== FUNCTIONS ==================================================*/
86 #ifdef FF_EM_MODE
87
88
89 /*
90 +------------------------------------------------------------------------------
91 | Function : dat_em_get_hchn
92 +------------------------------------------------------------------------------
93 | Description : This function stores the hopping channels after change occured.
94 |
95 | Parameters : channel_array - channel mode 1
96 | channel2_array - channel mode 2
97 | start - valid flag for channel mode2
98 | maio_2 - MAIO for before time configuration
99 |
100 | Return : void
101 +------------------------------------------------------------------------------
102 */
103
104 GLOBAL void dat_em_get_hchn (USHORT* channel_array, USHORT* channel2_array, UBYTE start,UBYTE maio_2)
105 {
106 TRACE_FUNCTION ("dat_em_get_hchn()");
107
108 memset(ma, 0, 65);
109 memset(ma2, 0, 65);
110 memcpy(ma, channel_array, 65);
111 v_start = start;
112 if (v_start) {
113 maio2 = maio_2;
114 memcpy(ma2, channel2_array, 65); }
115 }
116 /*
117 +------------------------------------------------------------------------------
118 | Function : em_init_get_hchn
119 +------------------------------------------------------------------------------
120 | Description : initiates the hopping list. This is necessary, because a request
121 | of the hopping list immideatly after switch on causes a reset.
122 |
123 | Return : void
124 +------------------------------------------------------------------------------
125 */
126
127 GLOBAL void em_init_get_hchn ()
128 {
129 TRACE_FUNCTION ("em_init_get_hchn()");
130
131 ma[0] = NOT_PRESENT_16BIT;
132 ma2[0] = NOT_PRESENT_16BIT;
133 }
134
135 /*
136 +------------------------------------------------------------------------------
137 | Function : em_get_first_codec
138 +------------------------------------------------------------------------------
139 | Description : Returns the highest bit rate AMR codec mode
140 |
141 | Parameters : acs - Active codec set
142 |
143 | Return : void
144 +------------------------------------------------------------------------------
145 */
146
147 GLOBAL UBYTE em_get_first_codec(UBYTE acs)
148 {
149 UBYTE i;
150
151 /* Find Highest bit rate codec mode from ACS */
152 for(i=0;i<8;i++)
153 {
154 if((0x80>>i) & acs )
155 break;
156 }
157
158 /* First codec( Highest bit rate codec mode) */
159 return (EM_AMR_MODE_12_2-i);
160 }
161
162 /*
163 +------------------------------------------------------------------------------
164 | Function : dat_em_sc_info_req
165 +------------------------------------------------------------------------------
166 | Description : Process the primitive EM_SC_INFO_REQ.
167 |
168 | Parameters : Primitive from EM - T_EM_SC_INFO_REQ
169 |
170 | Return : void
171 +------------------------------------------------------------------------------
172 */
173 GLOBAL void dat_em_sc_info_req (T_EM_SC_INFO_REQ *em_sc_info_req)
174 {
175 GET_INSTANCE_DATA;
176 PALLOC(em_sc_info_cnf, EM_SC_INFO_CNF);
177 memset (em_sc_info_cnf, 0, sizeof (T_EM_SC_INFO_CNF));
178
179 PFREE(em_sc_info_req);
180 TRACE_FUNCTION ("dat_em_sc_info_req()");
181
182 em_sc_info_cnf->vocoder = EM_VOC_NA;
183
184 switch (GET_STATE (STATE_ATT))
185 {
186 case ATT_IDLE:
187 if (rr_data->nc_data[SC_INDEX].bcch_status EQ DECODED)
188 {
189 em_sc_info_cnf->arfcn = rr_data->nc_data[SC_INDEX].arfcn;
190 em_sc_info_cnf->c1 = rr_data->nc_data[SC_INDEX].c1;
191 em_sc_info_cnf->c2 = rr_data->nc_data[SC_INDEX].c2;
192 em_sc_info_cnf->rxlev = rr_data->nc_data[SC_INDEX].rxlev;
193 em_sc_info_cnf->bsic = rr_data->nc_data[SC_INDEX].bsic;
194 em_sc_info_cnf->dsc = em_act_dlt;
195 em_sc_info_cnf->txlev = rr_data->sc_data.cd.cell_options.pow_ctrl;
196 em_sc_info_cnf->tn = rr_data->sc_data.chan_desc.tn;
197 em_sc_info_cnf->lac = rr_data->nc_data[SC_INDEX].lai.lac;
198 em_sc_info_cnf->cba = rr_data->nc_data[SC_INDEX].rach.cell_bar_access;
199 em_sc_info_cnf->cbq = rr_data->nc_data[SC_INDEX].c2_par.cbq;
200 em_sc_info_cnf->cell_id = rr_data->nc_data[SC_INDEX].cell_id;
201 em_sc_info_cnf->cell_type_ind = EM_CELL_GSM;
202 #ifdef GPRS
203 if(rr_data->nc_data[SC_INDEX].rac NEQ NOT_PRESENT_8BIT)
204 em_sc_info_cnf->cell_type_ind = EM_CELL_GPRS;
205 #endif
206 }
207 else if (rr_data->nc_data[SC_INDEX].bcch_status EQ NON_DECODED)
208 {
209 em_sc_info_cnf->arfcn = rr_data->nc_data[SC_INDEX].arfcn;
210 em_sc_info_cnf->rxlev = rr_data->nc_data[SC_INDEX].rxlev;
211 em_sc_info_cnf->bsic = rr_data->nc_data[SC_INDEX].bsic;
212 }
213 break;
214
215 case ATT_DEDICATED:
216 if (!rr_data->ms_data.measurement_report.valid)
217 break;
218
219 em_sc_info_cnf->arfcn = rr_data->ms_data.measurement_report.arfcn;
220 em_sc_info_cnf->bsic = rr_data->nc_data[SC_INDEX].bsic;
221 em_sc_info_cnf->txlev = rr_data->sc_data.cd.cell_options.pow_ctrl;
222 em_sc_info_cnf->tn = rr_data->sc_data.chan_desc.tn;
223 em_sc_info_cnf->lac = rr_data->nc_data[SC_INDEX].lai.lac;
224 em_sc_info_cnf->cell_id = rr_data->nc_data[SC_INDEX].cell_id;
225 em_sc_info_cnf->rxlev_f = rr_data->ms_data.measurement_report.rx_lev_full;
226 em_sc_info_cnf->rxlev_s = rr_data->ms_data.measurement_report.rx_lev_sub;
227 em_sc_info_cnf->rlt = em_act_rlt;
228 em_sc_info_cnf->tav = rr_data->sc_data.new_ta;
229 em_sc_info_cnf->rxqual_f = rr_data->ms_data.measurement_report.rx_qual_full;
230 em_sc_info_cnf->rxqual_s = rr_data->ms_data.measurement_report.rx_qual_sub;
231 em_sc_info_cnf->vocoder = rr_data->sc_data.ch_mode;
232 if (rr_data->nc_data[SC_INDEX].bcch_status EQ DECODED)
233 {
234 em_sc_info_cnf->cell_type_ind = EM_CELL_GSM;
235 #ifdef GPRS
236 if(rr_data->nc_data[SC_INDEX].rac NEQ NOT_PRESENT_8BIT)
237 em_sc_info_cnf->cell_type_ind = EM_CELL_GPRS;
238 #endif
239 }
240 break;
241
242 default:
243 break;
244 }/*switch*/
245 PSENDX(MMI, em_sc_info_cnf);
246 } /*dat_em_sc_info_req*/
247
248 /*
249 +------------------------------------------------------------------------------
250 | Function : dat_em_nc_info_req
251 +------------------------------------------------------------------------------
252 | Description : Process the primitive EM_NC_INFO_REQ.
253 |
254 | Parameters : Primitive from EM - T_EM_NC_INFO_REQ
255 |
256 | Return : void
257 +------------------------------------------------------------------------------
258 */
259 GLOBAL void dat_em_nc_info_req (T_EM_NC_INFO_REQ *em_nc_info_req)
260 {
261 GET_INSTANCE_DATA;
262 UBYTE index = 0;
263 UBYTE index2 = 0;
264 PALLOC(em_nc_info_cnf, EM_NC_INFO_CNF);
265 memset (em_nc_info_cnf, 0, sizeof (T_EM_NC_INFO_CNF));
266 memset (em_nc_info_cnf->rac, 0xff, EM_MAX_NUM_NC);
267
268 PFREE(em_nc_info_req);
269 TRACE_FUNCTION ("dat_em_nc_info_req()");
270
271 switch (GET_STATE (STATE_ATT))
272 {
273 case ATT_IDLE:
274 for (index = 0 , index2 = 0 ; index < EM_MAX_NUM_NC ; index++)
275 {
276 if (rr_data->nc_data[index].bcch_status EQ DECODED)
277 {
278 em_nc_info_cnf->arfcn_nc[index2] = rr_data->nc_data[index].arfcn;
279 em_nc_info_cnf->c1_nc[index2] = rr_data->nc_data[index].c1;
280 em_nc_info_cnf->c2_nc[index2] = rr_data->nc_data[index].c2;
281 em_nc_info_cnf->rxlev_nc[index2] = rr_data->nc_data[index].rxlev;
282 em_nc_info_cnf->bsic_nc[index2] = rr_data->nc_data[index].bsic;
283 em_nc_info_cnf->cell_id_nc[index2] = rr_data->nc_data[index].cell_id;
284 em_nc_info_cnf->lac_nc[index2] = rr_data->nc_data[index].lai.lac;
285 em_nc_info_cnf->frame_offset[index2] = rr_data->ms_data.measurement_report.ncells.frame_offset[index];
286 em_nc_info_cnf->time_alignmt[index2] = rr_data->ms_data.measurement_report.ncells.time_alignmt[index];
287 em_nc_info_cnf->cba_nc[index2] = rr_data->nc_data[index].rach.cell_bar_access;
288 em_nc_info_cnf->cbq_nc[index2] = rr_data->nc_data[index].c2_par.cbq;
289 em_nc_info_cnf->cell_type_ind[index2] = EM_CELL_GSM;
290 #ifdef GPRS
291 em_nc_info_cnf->rac[index2] = rr_data->nc_data[index].rac;
292
293 /* rac in nc_data is set only when v_gprs_ind is present in SI3/SI4 rest
294 octets. Since v_gprs_ind is not stored,rac is used to check gprs
295 support in the cell */
296 if(em_nc_info_cnf->rac[index2] NEQ NOT_PRESENT_8BIT)
297 em_nc_info_cnf->cell_type_ind[index2] = EM_CELL_GPRS;
298 #endif
299 em_nc_info_cnf->cell_resel_offset[index2] = rr_data->nc_data[index].c2_par.cell_reselect_offset;
300 em_nc_info_cnf->temp_offset[index2] = rr_data->nc_data[index].c2_par.temp_offset;
301 em_nc_info_cnf->rxlev_acc_min[index2] = rr_data->nc_data[index].select_para.rxlev_access_min;
302 index2++;
303 } /* if decoded */
304
305 else if (rr_data->nc_data[index].bcch_status EQ NON_DECODED)
306 {
307 em_nc_info_cnf->arfcn_nc[index2] = rr_data->nc_data[index].arfcn;
308 em_nc_info_cnf->rxlev_nc[index2] = rr_data->nc_data[index].rxlev;
309 em_nc_info_cnf->bsic_nc[index2] = rr_data->nc_data[index].bsic;
310 index2++;
311 } /* if non decoded */
312 } /* for */
313 em_nc_info_cnf->no_ncells = rr_data->ms_data.measurement_report.ncells.no_of_ncells;
314 break;
315
316 case ATT_DEDICATED:
317 {
318 if (!rr_data->ms_data.measurement_report.valid)
319 break;
320
321 em_nc_info_cnf->no_ncells = rr_data->ms_data.measurement_report.ncells.no_of_ncells;
322
323 for (index = 0; index< rr_data->ms_data.measurement_report.ncells.no_of_ncells; index++)
324 {
325 /*in the measurement report the cells are ordered by fieldstrength*/
326 em_nc_info_cnf->arfcn_nc[index] = rr_data->ms_data.measurement_report.ncells.arfcn[index];
327 em_nc_info_cnf->rxlev_nc[index] = rr_data->ms_data.measurement_report.ncells.rx_lev[index];
328 em_nc_info_cnf->bsic_nc[index] = rr_data->ms_data.measurement_report.ncells.bsic[index];
329 em_nc_info_cnf->frame_offset[index]= rr_data->ms_data.measurement_report.ncells.frame_offset[index];
330 em_nc_info_cnf->time_alignmt[index]= rr_data->ms_data.measurement_report.ncells.time_alignmt[index];
331 } /*for*/
332 }/*case*/
333 break;
334
335 default:
336 break;
337 }/*switch*/
338 PSENDX(MMI, em_nc_info_cnf);
339 }/*dat_em_nc_info_req*/
340
341 /*
342 +------------------------------------------------------------------------------
343 | Function : dat_em_loc_pag_info_req
344 +------------------------------------------------------------------------------
345 | Description : Process the primitive EM_LOC_PAG_INFO_REQ.
346 |
347 | Parameters : Primitive from EM - T_EM_LOC_PAG_INFO_REQ
348 |
349 | Return : void
350 +------------------------------------------------------------------------------
351 */
352 GLOBAL void dat_em_loc_pag_info_req (T_EM_LOC_PAG_INFO_REQ *em_loc_pag_info_req)
353 {
354 GET_INSTANCE_DATA;
355 PALLOC(em_loc_pag_info_cnf, EM_LOC_PAG_INFO_CNF);
356 memset (em_loc_pag_info_cnf, 0, sizeof (T_EM_LOC_PAG_INFO_CNF));
357
358 PFREE(em_loc_pag_info_req);
359 TRACE_FUNCTION ("dat_em_loc_pag_info_req()");
360
361 if (rr_data->nc_data[SC_INDEX].bcch_status EQ DECODED)
362 {
363 memcpy(em_loc_pag_info_cnf->mcc, rr_data->nc_data[SC_INDEX].lai.mcc, SIZE_MCC);
364
365 /*check for MNC with 2 digits*/
366 /* Fixed for Issue 21468 */
367 if (rr_data->nc_data[SC_INDEX].lai.mnc[2] NEQ 0xF) /*defines a 3 digit NMC*/
368 {
369 memcpy(em_loc_pag_info_cnf->mnc, rr_data->nc_data[SC_INDEX].lai.mnc, SIZE_MNC);
370 }
371 else /*2 digit -> leave the first value empty*/
372 {
373 em_loc_pag_info_cnf->mnc[1] = rr_data->nc_data[SC_INDEX].lai.mnc[0];
374 em_loc_pag_info_cnf->mnc[2] = rr_data->nc_data[SC_INDEX].lai.mnc[1];
375 }
376
377 em_loc_pag_info_cnf->bs_pa_mfrms = rr_data->nc_data[SC_INDEX].control_descr.bs_pa_mfrms;
378 em_loc_pag_info_cnf->t3212 = rr_data->nc_data[SC_INDEX].control_descr.t3212;
379 }
380
381 if (rr_data->ms_data.tmsi_available EQ TRUE)
382 em_loc_pag_info_cnf->tmsi = rr_data->ms_data.tmsi_binary;
383
384 PSENDX(MMI, em_loc_pag_info_cnf);
385 }/*dat_em_loc_pag_info_req*/
386
387 /*
388 +------------------------------------------------------------------------------
389 | Function : dat_em_plmn_info_req
390 +------------------------------------------------------------------------------
391 | Description : Process the primitive EM_PLMN_INFO_REQ.
392 |
393 | Parameters : Primitive from EM - T_EM_PLMN_INFO_REQ
394 |
395 | Return : void
396 +------------------------------------------------------------------------------
397 */
398 GLOBAL void dat_em_plmn_info_req (T_EM_PLMN_INFO_REQ *em_plmn_info_req)
399 {
400 GET_INSTANCE_DATA;
401 PALLOC(em_plmn_info_cnf, EM_PLMN_INFO_CNF);
402 memset (em_plmn_info_cnf, 0, sizeof (T_EM_PLMN_INFO_CNF));
403
404 PFREE(em_plmn_info_req);
405 TRACE_FUNCTION ("dat_em_plmn_info_req()");
406
407 em_plmn_info_cnf->no_creq_max = rr_data->nc_data[SC_INDEX].rach.max_retrans;
408 em_plmn_info_cnf->reest_flag = rr_data->nc_data[SC_INDEX].rach.re;
409 em_plmn_info_cnf->txpwr_max = rr_data->nc_data[SC_INDEX].select_para.ms_txpwr_max_cch;
410 em_plmn_info_cnf->rxlev_min = rr_data->nc_data[SC_INDEX].select_para.rxlev_access_min;
411 em_plmn_info_cnf->rel_cause = 0xff; /* these info will be parsed by aci */
412
413 PSENDX(MMI, em_plmn_info_cnf);
414 }/*dat_em_plmn_info_req*/
415 /*
416 +------------------------------------------------------------------------------
417 | Function : dat_em_cip_hop_dtx_info_req
418 +------------------------------------------------------------------------------
419 | Description : Process the primitive EM_CIP_HOP_DTX_INFO_REQ.
420 |
421 | Parameters : Primitive from EM - T_EM_CIP_HOP_DTX_INFO_REQ
422 |
423 | Return : void
424 +------------------------------------------------------------------------------
425 */
426 GLOBAL void dat_em_cip_hop_dtx_info_req (T_EM_CIP_HOP_DTX_INFO_REQ *em_cip_hop_dtx_info_req)
427 {
428 GET_INSTANCE_DATA;
429 UBYTE i;
430 PALLOC(em_cip_hop_dtx_info_cnf, EM_CIP_HOP_DTX_INFO_CNF);
431 memset (em_cip_hop_dtx_info_cnf, 0, sizeof (T_EM_CIP_HOP_DTX_INFO_CNF));
432
433 PFREE(em_cip_hop_dtx_info_req);
434 TRACE_FUNCTION ("dat_em_cip_hop_dtx_info_req()");
435
436 /* Intialize to 0xffff. No hopping channels */
437 em_cip_hop_dtx_info_cnf->hop_chn.ma[0] = NOT_PRESENT_16BIT;
438 em_cip_hop_dtx_info_cnf->hop_chn2.ma[0] = NOT_PRESENT_16BIT;
439
440 if((GET_STATE(STATE_ATT) EQ ATT_DEDICATED) AND
441 (GET_STATE(STATE_DAT) EQ DAT_DEDICATED))
442 {
443 /* cipher status */
444 em_cip_hop_dtx_info_cnf->ciph_stat = rr_data->sc_data.ciph_on;
445
446 /* Hopping status */
447 em_cip_hop_dtx_info_cnf->hop = rr_data->sc_data.chan_desc.hop;
448
449 if (rr_data->sc_data.chan_desc.hop EQ H_NO)
450 { /* Hopping is not configured */
451 em_cip_hop_dtx_info_cnf->arfcn = rr_data->sc_data.chan_desc.arfcn;
452 }
453 else
454 { /* hopping sequence no */
455 em_cip_hop_dtx_info_cnf->hsn = rr_data->sc_data.chan_desc.hsn;
456 }
457
458 if(em_cip_hop_dtx_info_cnf->hop NEQ H_NO)
459 {
460 /* MAIO */
461 em_cip_hop_dtx_info_cnf->hop_chn.maio = rr_data->sc_data.chan_desc.maio;
462
463 i=0;
464 while((i<MAX_MA_CHANNELS) AND (ma[i] NEQ NOT_PRESENT_16BIT))
465 {
466 em_cip_hop_dtx_info_cnf->hop_chn.ma[i] = ma[i];
467 i++;
468 }
469
470 /* Number of hopping channels */
471 em_cip_hop_dtx_info_cnf->hop_chn.nr_arfcns = i;
472 if(i < MAX_MA_CHANNELS)
473 {
474 em_cip_hop_dtx_info_cnf->hop_chn.ma[i] = NOT_PRESENT_16BIT;
475 }
476
477 /* starting time status */
478 em_cip_hop_dtx_info_cnf->v_start = v_start;
479
480 /* Hopping list after time */
481 if (v_start)
482 {
483 /* MAIO */
484 em_cip_hop_dtx_info_cnf->hop_chn2.maio = maio2;
485
486 i=0;
487 while((i<MAX_MA_CHANNELS) AND (ma2[i] NEQ NOT_PRESENT_16BIT))
488 {
489 em_cip_hop_dtx_info_cnf->hop_chn2.ma[i] = ma2[i];
490 i++;
491 }
492 /* Number of hopping channels */
493 em_cip_hop_dtx_info_cnf->hop_chn2.nr_arfcns = i;
494 if(i < MAX_MA_CHANNELS)
495 {
496 em_cip_hop_dtx_info_cnf->hop_chn2.ma[i] = NOT_PRESENT_16BIT;
497 }
498 } /* v_start */
499
500 } /* hop NEQ H_NO */
501
502 } /* dedicated state */
503
504 /* DTX status */
505 em_cip_hop_dtx_info_cnf->dtx_stat = rr_data->sc_data.cd.dtx;
506
507 PSENDX(MMI, em_cip_hop_dtx_info_cnf);
508 }/*dat_em_cip_hop_dtx_info_req*/
509
510 /*
511 +------------------------------------------------------------------------------
512 | Function : dat_em_mobdata_power_info_req
513 +------------------------------------------------------------------------------
514 | Description : Process the primitive EM_POWER_INFO_REQ.
515 |
516 | Parameters : Primitive from EM - T_EM_POWER_INFO_REQ
517 |
518 | Return : void
519 +------------------------------------------------------------------------------
520 */
521 GLOBAL void dat_em_mobdata_power_info_req (T_EM_POWER_INFO_REQ *em_power_info_req)
522 {
523 GET_INSTANCE_DATA;
524 PALLOC(em_power_info_cnf, EM_POWER_INFO_CNF);
525
526 PFREE(em_power_info_req);
527
528 TRACE_FUNCTION ("dat_em_mobdata_power_info_req()");
529
530 memset (em_power_info_cnf, 0, sizeof (T_EM_POWER_INFO_CNF));
531 memcpy(&em_power_info_cnf->classm2, &rr_data->ms_data.classmark2, sizeof (T_classm2));
532 memcpy(&em_power_info_cnf->classm3, &rr_data->ms_data.classmark3, sizeof (T_classm3));
533
534 PSENDX(MMI, em_power_info_cnf);
535 }/*dat_em_mobdata_power_info_req*/
536
537 /*
538 +------------------------------------------------------------------------------
539 | Function : dat_em_mobdata_id_info_req
540 +------------------------------------------------------------------------------
541 | Description : Process the primitive EM_IDENTITY_INFO_REQ.
542 |
543 | Parameters : Primitive from EM - T_EM_IDENTITY_INFO_REQ
544 |
545 | Return : void
546 +------------------------------------------------------------------------------
547 */
548 GLOBAL void dat_em_mobdata_id_info_req (T_EM_IDENTITY_INFO_REQ *em_identity_info_req)
549 {
550 GET_INSTANCE_DATA;
551 PALLOC(em_identity_info_cnf, EM_IDENTITY_INFO_CNF);
552 memset (em_identity_info_cnf, 0, sizeof (T_EM_IDENTITY_INFO_CNF));
553
554 PFREE(em_identity_info_req);
555 TRACE_FUNCTION ("dat_em_mobdata_id_info_req()");
556
557 /*
558 * The values for IMEI and IMEISV are identical up to the last 4bits. The 'ident_type' distinguish
559 * IMEI and IMEISV where ident_type = 3 is synonymously with IMEISV. In case only IMEI is needed,
560 * em_mm_mobdata_id_info_req->em_imei.ident_dig[16] should not considered.
561 */
562
563 em_identity_info_cnf->em_imeisv.ident_type = rr_data->ms_data.imei.ident_type;
564 em_identity_info_cnf->em_imeisv.v_ident_dig = rr_data->ms_data.imei.v_ident_dig;
565 em_identity_info_cnf->em_imeisv.c_ident_dig = rr_data->ms_data.imei.c_ident_dig;
566 em_identity_info_cnf->em_imeisv.odd_even = rr_data->ms_data.imei.odd_even;
567 memcpy (em_identity_info_cnf->em_imeisv.ident_dig, rr_data->ms_data.imei.ident_dig, 16);
568
569 if (rr_data->ms_data.imsi_available) /* SIM available */
570 {
571 em_identity_info_cnf->em_imsi.ident_type = rr_data->ms_data.imsi.ident_type;
572 em_identity_info_cnf->em_imsi.v_ident_dig = rr_data->ms_data.imsi.v_ident_dig;
573 em_identity_info_cnf->em_imsi.c_ident_dig = rr_data->ms_data.imsi.c_ident_dig;
574 em_identity_info_cnf->em_imsi.odd_even = rr_data->ms_data.imsi.odd_even;
575 memcpy (em_identity_info_cnf->em_imsi.ident_dig, rr_data->ms_data.imsi.ident_dig, 16);
576 }
577
578 if (rr_data->ms_data.tmsi_available EQ TRUE)
579 em_identity_info_cnf->tmsi = rr_data->ms_data.tmsi_binary;
580
581 PSENDX(MMI, em_identity_info_cnf);
582 } /*dat_em_mobdata_id_info_req*/
583
584 /*
585 +------------------------------------------------------------------------------
586 | Function : dat_em_mobdata_version_info_req
587 +------------------------------------------------------------------------------
588 | Description : Process the primitive EM_SW_VERSION_INFO_REQ.
589 |
590 | Parameters : Primitive from EM - T_EM_SW_VERSION_INFO_REQ
591 |
592 | Return : void
593 +------------------------------------------------------------------------------
594 */
595 GLOBAL void dat_em_mobdata_version_info_req (T_EM_SW_VERSION_INFO_REQ *em_sw_version_info_req)
596 {
597 PALLOC(em_sw_version_info_cnf, EM_SW_VERSION_INFO_CNF);
598 PFREE(em_sw_version_info_req);
599
600
601 TRACE_FUNCTION ("dat_em_mobdata_version_info_req()");
602
603 memset (em_sw_version_info_cnf, 0, sizeof (T_EM_SW_VERSION_INFO_CNF));
604
605 em_sw_version_info_cnf->v_mmi = 0xFF;
606 em_sw_version_info_cnf->v_sim = 0xFF;
607 em_sw_version_info_cnf->v_cc = 0xFF;
608 em_sw_version_info_cnf->v_ss = 0xFF;
609 em_sw_version_info_cnf->v_sms = 0xFF;
610 em_sw_version_info_cnf->v_mm = 0xFF;
611 em_sw_version_info_cnf->v_rr = 0xFF;
612 em_sw_version_info_cnf->v_dl = 0xFF;
613 em_sw_version_info_cnf->v_l1 = 0xFF;
614
615 PSENDX(MMI, em_sw_version_info_cnf);
616 }/*dat_em_mobdata_version_info_req*/
617
618
619 /*
620 +------------------------------------------------------------------------------
621 | Function : dat_em_amr_info_req
622 +------------------------------------------------------------------------------
623 | Description : Process the primitive EM_AMR_INFO_REQ.
624 |
625 | Parameters : Primitive from EM - T_EM_AMR_INFO_REQ
626 |
627 | Return : void
628 +------------------------------------------------------------------------------
629 */
630 GLOBAL void dat_em_amr_info_req (T_EM_AMR_INFO_REQ *em_amr_info_req)
631 {
632 GET_INSTANCE_DATA;
633 UBYTE i=0;
634 PALLOC(em_amr_info_cnf, EM_AMR_INFO_CNF);
635 memset (em_amr_info_cnf, 0, sizeof (T_EM_AMR_INFO_CNF));
636
637 PFREE(em_amr_info_req);
638 TRACE_FUNCTION ("dat_em_amr_info_req()");
639
640 /* AMR information is valid only in dedicated state, when chan mode is AMR */
641 if((GET_STATE(STATE_ATT) EQ ATT_DEDICATED) AND
642 (GET_STATE(STATE_DAT) EQ DAT_DEDICATED))
643 {
644 if(rr_data->sc_data.ch_mode EQ CM_AMR)
645 {
646 /* AMR vocoder type */
647 em_amr_info_cnf->amr_vocoder = rr_data->sc_data.chan_desc.chan_type;
648
649 /* Initial codec mode indicator */
650 em_amr_info_cnf->amr_icmi = rr_data->sc_data.amr_conf.icmi;
651
652 /* Initial codec mode. Valid if icmi = 1(Start mode signalled) */
653 em_amr_info_cnf->amr_icm = rr_data->sc_data.amr_conf.st_mode;
654
655 /* Active codec set */
656 em_amr_info_cnf->amr_acs = rr_data->sc_data.amr_conf.set_amr;
657
658 /* First codec( Highest bit rate codec mode) */
659 em_amr_info_cnf->amr_first_codec =
660 em_get_first_codec(rr_data->sc_data.amr_conf.set_amr);
661
662 if(rr_data->sc_data.amr_conf.v_cod_prop)
663 {
664 /* Number of codec modes */
665 em_amr_info_cnf->amr_nr_modes = rr_data->sc_data.amr_conf.c_cod_prop + 1;
666
667 /* Threshold and Hysteresis properties between codec modes */
668 for(i=0;i<rr_data->sc_data.amr_conf.c_cod_prop;i++)
669 {
670 memcpy(&em_amr_info_cnf->amr_cod_prop[i],&rr_data->sc_data.amr_conf.cod_prop[i],
671 sizeof(T_amr_cod_prop));
672 }
673 }
674 else
675 {
676 /* Number of codec modes */
677 em_amr_info_cnf->amr_nr_modes = 1;
678 }
679 } /* CM_AMR */
680 } /* ATT DEDICATED */
681
682 PSENDX(MMI, em_amr_info_cnf);
683 } /*dat_em_amr_info_req*/
684
685 /*
686 +------------------------------------------------------------------------------
687 | Function : em_init_rr_event_trace
688 +------------------------------------------------------------------------------
689 | Description : Initialize the event tracing flags for RR
690 |
691 | Parameters : void
692 |
693 | Return : void
694 |
695 +------------------------------------------------------------------------------
696 */
697 GLOBAL void em_init_rr_event_trace(void)
698 {
699 UBYTE i;
700
701 TRACE_FUNCTION ("em_init_rr_event_trace()");
702
703 for (i=0; i< EM_MAX_RR_EVENTS; i++)
704 rr_v[i] = 0;
705 }
706
707 /*
708 +------------------------------------------------------------------------------
709 | Function : rr_em_rr_event_req
710 +------------------------------------------------------------------------------
711 | Description : Set the event tracing flags according the bitmask
712 |
713 | Parameters : Primitive - Bitmask(T_EM_RR_EVENT_REQ)
714 |
715 | Return : void
716 |
717 +------------------------------------------------------------------------------
718 */
719 GLOBAL void rr_em_rr_event_req (T_EM_RR_EVENT_REQ *em_rr_event_req)
720 {
721 UBYTE i;
722
723 TRACE_FUNCTION ("rr_em_rr_event_req()");
724
725 /*
726 * The event tracing flags are set according the bitmask. rr_v[i] are
727 * the flags belonging to the event number described in 8443.601
728 */
729 for(i=1; i<33; i++)
730 rr_v[i] = ((em_rr_event_req->bitmask_rr_l & (0x01<<(i-1))) > 0) ? TRUE : FALSE;
731
732 for(i=33; i<(EM_MAX_RR_EVENTS); i++)
733 rr_v[i] = ((em_rr_event_req->bitmask_rr_h & (0x01<<(i-1))) > 0) ? TRUE : FALSE;
734
735 /*
736 A new event trace is generated therefor the flag is set to 0.
737 */
738 em_rr_trace_occured = 0;
739
740 PFREE(em_rr_event_req);
741 }
742
743 /*
744 +------------------------------------------------------------------------------
745 | Function : em_write_buffer_2
746 +------------------------------------------------------------------------------
747 | Description : Perform buffer check and store corresponding data in it.
748 |
749 | Parameters : Event number
750 |
751 | Return : TRUE/FALSE
752 |
753 +------------------------------------------------------------------------------
754 */
755 #define EVT_LEN_OFFSET 2 /* Event Number and Length value bytes */
756 #define BUFFER_2_LENGTH 2
757 GLOBAL UBYTE em_write_buffer_2 (UBYTE event_no)
758 {
759 UBYTE em_rr_event_buffer[BUFFER_2_LENGTH];
760 UBYTE em_rr_buffer_write = 0;
761
762 TRACE_FUNCTION ("rr_em_write_buffer_2()");
763
764 /*
765 ACI is informed about the first event trace, used for later data processing.
766 */
767 rr_em_first_event_check();
768
769 em_rr_event_buffer[em_rr_buffer_write++] = event_no; /* Event number */
770 em_rr_event_buffer[em_rr_buffer_write] = 0x00; /* Value length - 0 equals no data */
771
772 return (em_rr_sem (BUFFER_2_LENGTH, em_rr_event_buffer)); /* Data is stored inside buffer, reset flag */
773 }
774
775 /*
776 +------------------------------------------------------------------------------
777 | Function : em_write_buffer_3
778 +------------------------------------------------------------------------------
779 | Description : Perform buffer check and store corresponding data in it.
780 |
781 | Parameters : Event number, data value
782 |
783 | Return : TRUE/FALSE
784 |
785 +------------------------------------------------------------------------------
786 */
787 #define BUFFER_3_LENGTH 3
788 GLOBAL UBYTE em_write_buffer_3 (UBYTE event_no, UBYTE value)
789 {
790 UBYTE em_rr_event_buffer[BUFFER_3_LENGTH];
791 UBYTE em_rr_buffer_write = 0;
792
793 TRACE_FUNCTION ("rr_em_write_buffer_3()");
794
795 /*
796 ACI is informed about the first event trace, used for later data processing.
797 */
798 rr_em_first_event_check();
799
800 em_rr_event_buffer[em_rr_buffer_write++] = event_no; /* Event number */
801 em_rr_event_buffer[em_rr_buffer_write++] = BUFFER_3_LENGTH-EVT_LEN_OFFSET; /* Value length - 0 equals no value */
802 em_rr_event_buffer[em_rr_buffer_write] = value; /* Data to be stored */
803
804 return (em_rr_sem (BUFFER_3_LENGTH, em_rr_event_buffer)); /* Data is stored inside buffer, reset flag */
805 }
806
807 /*
808 +------------------------------------------------------------------------------
809 | Function : em_write_buffer_3a
810 +------------------------------------------------------------------------------
811 | Description : Perform buffer check and store corresponding data in it.
812 |
813 | Parameters : Event number, data value (USHORT)
814 |
815 | Return : TRUE/FALSE
816 |
817 +------------------------------------------------------------------------------
818 */
819 #define BUFFER_3A_LENGTH 4
820 GLOBAL UBYTE em_write_buffer_3a (UBYTE event_no, USHORT value)
821 {
822 UBYTE em_rr_event_buffer[BUFFER_3A_LENGTH];
823 UBYTE em_rr_buffer_write = 0;
824
825 TRACE_FUNCTION ("rr_em_write_buffer_3a()");
826
827 /*
828 ACI is informed about the first event trace, used for later data processing.
829 */
830 rr_em_first_event_check();
831
832 em_rr_event_buffer[em_rr_buffer_write++] = event_no; /* Event number */
833 em_rr_event_buffer[em_rr_buffer_write++] = BUFFER_3A_LENGTH-EVT_LEN_OFFSET; /* Value length - 0 equals no value */
834 em_rr_event_buffer[em_rr_buffer_write++] = (UBYTE)(value >> 8); /* Data to be stored - MSB first */
835 em_rr_event_buffer[em_rr_buffer_write++] = (UBYTE)(value ); /* LSB second */
836
837 return (em_rr_sem (BUFFER_3A_LENGTH, em_rr_event_buffer)); /* Data is stored inside buffer, reset flag */
838 }
839
840 /*
841 +------------------------------------------------------------------------------
842 | Function : em_write_buffer_4
843 +------------------------------------------------------------------------------
844 | Description : Perform buffer check and store corresponding data in it.
845 |
846 | Parameters : Event number, length of data and value1 and value2
847 |
848 | Return : TRUE/FALSE
849 |
850 +------------------------------------------------------------------------------
851 */
852 #define BUFFER_4_LENGTH 4
853 GLOBAL UBYTE em_write_buffer_4 (UBYTE event_no, UBYTE value1, UBYTE value2)
854 {
855 UBYTE em_rr_event_buffer[BUFFER_4_LENGTH];
856 UBYTE em_rr_buffer_write = 0;
857
858 TRACE_FUNCTION ("rr_em_write_buffer_4()");
859
860 /*
861 ACI is informed about the first event trace, used for later data processing.
862 */
863 rr_em_first_event_check();
864
865 em_rr_event_buffer[em_rr_buffer_write++] = event_no; /* Event number */
866 em_rr_event_buffer[em_rr_buffer_write++] = BUFFER_4_LENGTH-EVT_LEN_OFFSET; /* Value length - 0 equals no value */
867 em_rr_event_buffer[em_rr_buffer_write++] = value1; /* Value 1 */
868 em_rr_event_buffer[em_rr_buffer_write++] = value2; /* Value 2 */
869
870 return (em_rr_sem (BUFFER_4_LENGTH, em_rr_event_buffer)); /* Data is stored inside buffer, reset flag */
871 }
872
873 /*
874 +------------------------------------------------------------------------------
875 | Function : em_write_buffer_4a
876 +------------------------------------------------------------------------------
877 | Description : Perform buffer check and store corresponding data in it.
878 |
879 | Parameters : Event number, data value, data cs (USHORT)
880 |
881 | Return : TRUE/FALSE
882 |
883 +------------------------------------------------------------------------------
884 */
885 #define BUFFER_4A_LENGTH 5
886 GLOBAL UBYTE em_write_buffer_4a (UBYTE event_no, UBYTE value, USHORT cs)
887 {
888 UBYTE em_rr_event_buffer[BUFFER_4A_LENGTH];
889 UBYTE em_rr_buffer_write = 0;
890
891 TRACE_FUNCTION ("rr_em_write_buffer_4a()");
892
893 /*
894 ACI is informed about the first event trace, used for later data processing.
895 */
896 rr_em_first_event_check();
897
898 em_rr_event_buffer[em_rr_buffer_write++] = event_no; /* Event number */
899 em_rr_event_buffer[em_rr_buffer_write++] = BUFFER_4A_LENGTH-EVT_LEN_OFFSET; /* Value length - 0 equals no value */
900 em_rr_event_buffer[em_rr_buffer_write++] = value; /* first data info */
901 em_rr_event_buffer[em_rr_buffer_write++] = (UBYTE)(cs >> 8); /* Data to be stored - MSB first */
902 em_rr_event_buffer[em_rr_buffer_write++] = (UBYTE)(cs); /* LSB second */
903
904 return (em_rr_sem (BUFFER_4A_LENGTH, em_rr_event_buffer)); /* Data is stored inside buffer, reset flag */
905 }
906
907 /*
908 +------------------------------------------------------------------------------
909 | Function : em_write_buffer_4b
910 +------------------------------------------------------------------------------
911 | Description : Perform buffer check and store corresponding data in it.
912 |
913 | Parameters : Event number, data value, data plmn (T_plmn)
914 |
915 | Return : TRUE/FALSE
916 |
917 +------------------------------------------------------------------------------
918 */
919 #define BUFFER_4B_LENGTH 9
920 GLOBAL UBYTE em_write_buffer_4b (UBYTE event_no, UBYTE value, T_plmn plmn)
921 {
922 UBYTE em_rr_event_buffer[BUFFER_4B_LENGTH];
923 UBYTE em_rr_buffer_write = 0;
924
925 TRACE_FUNCTION ("rr_em_write_buffer_4b()");
926
927 /*
928 ACI is informed about the first event trace, used for later data processing.
929 */
930 rr_em_first_event_check();
931
932 memset(em_rr_event_buffer, 0, BUFFER_4B_LENGTH);
933 em_rr_event_buffer[em_rr_buffer_write++] = event_no; /* Event number */
934 em_rr_event_buffer[em_rr_buffer_write++] = BUFFER_4B_LENGTH-EVT_LEN_OFFSET; /* Value length - 0 equals no value */
935 em_rr_event_buffer[em_rr_buffer_write++] = value;
936 if(plmn.v_plmn)
937 {
938 memcpy(&em_rr_event_buffer[em_rr_buffer_write], plmn.mcc, SIZE_MCC);
939 em_rr_buffer_write += SIZE_MCC;
940 memcpy(&em_rr_event_buffer[em_rr_buffer_write], plmn.mnc, SIZE_MNC);
941 }
942
943 return (em_rr_sem (BUFFER_4B_LENGTH, em_rr_event_buffer)); /* Data is stored inside buffer, reset flag */
944 }
945
946 /*
947 +------------------------------------------------------------------------------
948 | Function : em_write_buffer_4c
949 +------------------------------------------------------------------------------
950 | Description : Perform buffer check and store corresponding data in it.
951 |
952 | Parameters : Event number, data value1, data plmn (T_plmn)
953 |
954 | Return : TRUE/FALSE
955 |
956 +------------------------------------------------------------------------------
957 */
958 #define BUFFER_4C_LENGTH ((MAX_PLMN*(SIZE_MCC+SIZE_MNC))+EVT_LEN_OFFSET)
959 GLOBAL UBYTE em_write_buffer_4c (UBYTE event_no, UBYTE value1, T_plmn plmn[MAX_PLMN])
960 {
961 UBYTE em_rr_event_buffer[BUFFER_4C_LENGTH];
962 UBYTE em_rr_buffer_write = 0;
963 UBYTE length = 0;
964 UBYTE i;
965
966 TRACE_FUNCTION ("rr_em_write_buffer_4c()");
967 /* Ensure value1 is within specified boundaries */
968 if( value1 > MAX_PLMN )
969 {
970 value1 = MAX_PLMN;
971 }
972
973 /*
974 ACI is informed about the first event trace, used for later data processing.
975 */
976 rr_em_first_event_check();
977
978 memset(em_rr_event_buffer, 0, BUFFER_4C_LENGTH);
979 em_rr_event_buffer[em_rr_buffer_write++] = event_no; /* Event number */
980 em_rr_event_buffer[em_rr_buffer_write++] = 1+value1*(SIZE_MCC + SIZE_MNC); /* Value length - 0 equals no value */
981 for (i=0; i<value1; i++) {
982 if(plmn[i].v_plmn)
983 {
984 memcpy(em_rr_event_buffer + em_rr_buffer_write, plmn[i].mcc, SIZE_MCC);
985 em_rr_buffer_write += SIZE_MCC;
986 memcpy(em_rr_event_buffer + em_rr_buffer_write, plmn[i].mnc, SIZE_MNC);
987 em_rr_buffer_write += SIZE_MNC;
988 }
989 }
990 length = (EVT_LEN_OFFSET + value1*(SIZE_MCC + SIZE_MNC));
991
992 return (em_rr_sem (length, em_rr_event_buffer)); /* Data is stored inside buffer, reset flag */
993 }
994
995 /*
996 +------------------------------------------------------------------------------
997 | Function : em_write_buffer_5
998 +------------------------------------------------------------------------------
999 | Description : Perform buffer check and store corresponding data in it.
1000 |
1001 | Parameters : Event number, data value1, data value2, data cs (USHORT)
1002 |
1003 | Return : TRUE/FALSE
1004 |
1005 +------------------------------------------------------------------------------
1006 */
1007 #define BUFFER_5_LENGTH 5
1008 GLOBAL UBYTE em_write_buffer_5 (UBYTE event_no, UBYTE value1, UBYTE value2, UBYTE value3)
1009 {
1010 UBYTE em_rr_event_buffer[BUFFER_5_LENGTH];
1011 UBYTE em_rr_buffer_write = 0;
1012
1013 TRACE_FUNCTION ("rr_em_write_buffer_5()");
1014
1015 /*
1016 ACI is informed about the first event trace, used for later data processing.
1017 */
1018 rr_em_first_event_check();
1019
1020 em_rr_event_buffer[em_rr_buffer_write++] = event_no; /* Event number */
1021 em_rr_event_buffer[em_rr_buffer_write++] = BUFFER_5_LENGTH-EVT_LEN_OFFSET; /* Value length - 0 equals no value */
1022 em_rr_event_buffer[em_rr_buffer_write++] = value1; /* first data info */
1023 em_rr_event_buffer[em_rr_buffer_write++] = value2; /* second data info */
1024 em_rr_event_buffer[em_rr_buffer_write++] = value3; /* Data */
1025
1026 return (em_rr_sem (BUFFER_5_LENGTH, em_rr_event_buffer)); /* Data is stored inside buffer, reset flag */
1027 }
1028
1029 /*
1030 +------------------------------------------------------------------------------
1031 | Function : em_write_buffer_5c
1032 +------------------------------------------------------------------------------
1033 | Description : Perform buffer check and store corresponding data in it.
1034 |
1035 | Parameters : Event number, data value, data plmn (T_plmn)
1036 |
1037 | Return : TRUE/FALSE
1038 |
1039 +------------------------------------------------------------------------------
1040 */
1041 #define BUFFER_5C_LENGTH 10
1042 GLOBAL UBYTE em_write_buffer_5c (UBYTE event_no, UBYTE value1, UBYTE value2, T_plmn plmn)
1043 {
1044 UBYTE em_rr_event_buffer[BUFFER_5C_LENGTH];
1045 UBYTE em_rr_buffer_write = 0;
1046
1047 TRACE_FUNCTION ("rr_em_write_buffer_5c()");
1048
1049 /*
1050 ACI is informed about the first event trace, used for later data processing.
1051 */
1052 rr_em_first_event_check();
1053
1054 memset(em_rr_event_buffer, 0, BUFFER_5C_LENGTH);
1055 em_rr_event_buffer[em_rr_buffer_write++] = event_no; /* Event number */
1056 em_rr_event_buffer[em_rr_buffer_write++] = BUFFER_5C_LENGTH-EVT_LEN_OFFSET; /* Value length - 0 equals no value */
1057 em_rr_event_buffer[em_rr_buffer_write++] = value1;
1058 em_rr_event_buffer[em_rr_buffer_write++] = value2;
1059 if(plmn.v_plmn)
1060 {
1061 memcpy(em_rr_event_buffer + em_rr_buffer_write, plmn.mcc, SIZE_MCC);
1062 em_rr_buffer_write += SIZE_MCC;
1063 memcpy(em_rr_event_buffer + em_rr_buffer_write, plmn.mnc, SIZE_MNC);
1064 }
1065
1066 return (em_rr_sem (BUFFER_5C_LENGTH, em_rr_event_buffer)); /* Data is stored inside buffer, reset flag */
1067 }
1068
1069 /*
1070 +------------------------------------------------------------------------------
1071 | Function : em_write_buffer_8
1072 +------------------------------------------------------------------------------
1073 | Description : Perform buffer check and store corresponding data in it.
1074 |
1075 | Parameters : Event number, data value1, data value2, data cs (USHORT)
1076 |
1077 | Return : TRUE/FALSE
1078 |
1079 +------------------------------------------------------------------------------
1080 */
1081 #define BUFFER_8_LENGTH 8
1082 GLOBAL UBYTE em_write_buffer_8 (UBYTE event_no, UBYTE value1, UBYTE value2, UBYTE value3, UBYTE value4,
1083 UBYTE value5, UBYTE value6)
1084 {
1085 UBYTE em_rr_event_buffer[BUFFER_8_LENGTH];
1086 UBYTE em_rr_buffer_write = 0;
1087
1088 TRACE_FUNCTION ("rr_em_write_buffer_8()");
1089
1090 /*
1091 ACI is informed about the first event trace, used for later data processing.
1092 */
1093 rr_em_first_event_check();
1094
1095 em_rr_event_buffer[em_rr_buffer_write++] = event_no; /* Event number */
1096 em_rr_event_buffer[em_rr_buffer_write++] = BUFFER_8_LENGTH-EVT_LEN_OFFSET; /* Value length - 0 equals no value */
1097 em_rr_event_buffer[em_rr_buffer_write++] = value1; /* first data info */
1098 em_rr_event_buffer[em_rr_buffer_write++] = value2; /* second data info */
1099 em_rr_event_buffer[em_rr_buffer_write++] = value3; /* data */
1100 em_rr_event_buffer[em_rr_buffer_write++] = value4; /* data */
1101 em_rr_event_buffer[em_rr_buffer_write++] = value5; /* data */
1102 em_rr_event_buffer[em_rr_buffer_write++] = value6; /* data */
1103
1104 return (em_rr_sem (BUFFER_8_LENGTH, em_rr_event_buffer)); /* Data is stored inside buffer, reset flag */
1105 }
1106
1107 /*
1108 +------------------------------------------------------------------------------
1109 | Function : em_write_buffer_9
1110 +------------------------------------------------------------------------------
1111 | Description : Perform buffer check and store corresponding data in it.
1112 |
1113 | Parameters : Event number, data value1, data value2, data cs (USHORT)
1114 |
1115 | Return : TRUE/FALSE
1116 |
1117 +------------------------------------------------------------------------------
1118 */
1119 #define BUFFER_9_LENGTH 9
1120 GLOBAL UBYTE em_write_buffer_9 (UBYTE event_no, UBYTE value1, UBYTE value2, UBYTE value3,
1121 UBYTE value4, UBYTE value5, UBYTE value6, UBYTE value7)
1122 {
1123 UBYTE em_rr_event_buffer[BUFFER_9_LENGTH];
1124 UBYTE em_rr_buffer_write = 0;
1125
1126 TRACE_FUNCTION ("rr_em_write_buffer_9()");
1127
1128 /*
1129 ACI is informed about the first event trace, used for later data processing.
1130 */
1131 rr_em_first_event_check();
1132
1133 em_rr_event_buffer[em_rr_buffer_write++] = event_no; /* Event number */
1134 em_rr_event_buffer[em_rr_buffer_write++] = BUFFER_9_LENGTH-EVT_LEN_OFFSET; /* Value length - 0 equals no value */
1135 em_rr_event_buffer[em_rr_buffer_write++] = value1; /* first data info */
1136 em_rr_event_buffer[em_rr_buffer_write++] = value2; /* second data info */
1137 em_rr_event_buffer[em_rr_buffer_write++] = value3; /* data */
1138 em_rr_event_buffer[em_rr_buffer_write++] = value4; /* data */
1139 em_rr_event_buffer[em_rr_buffer_write++] = value5; /* data */
1140 em_rr_event_buffer[em_rr_buffer_write++] = value6; /* data */
1141 em_rr_event_buffer[em_rr_buffer_write++] = value7; /* data */
1142
1143 return (em_rr_sem (BUFFER_9_LENGTH, em_rr_event_buffer)); /* Data is stored inside buffer, reset flag */
1144 }
1145
1146 /*
1147 +------------------------------------------------------------------------------
1148 | Function : rr_semaphore_err
1149 +------------------------------------------------------------------------------
1150 | Description : Semaphor error
1151 |
1152 |
1153 | Parameters : void
1154 |
1155 | Return : void
1156 |
1157 +------------------------------------------------------------------------------
1158 */
1159 static void rr_semaphore_err (void)
1160 {
1161 static UCHAR out = 0;
1162 if (!out)
1163 {
1164 out = 1;
1165 /* Implements Measure#32: Row 224 */
1166 TRACE_EVENT ("semaphore error");
1167
1168 }
1169 }
1170
1171
1172 /*
1173 +------------------------------------------------------------------------------
1174 | Function : rr_enter_critical_section
1175 +------------------------------------------------------------------------------
1176 | Description :
1177 | Attempt to access critical section by taking control
1178 | of the semaphore
1179 |
1180 | Parameters : void
1181 |
1182 | Return : int
1183 |
1184 +------------------------------------------------------------------------------
1185 */
1186 static int rr_enter_critical_section (T_HANDLE sem)
1187 {
1188 if (vsi_s_get (VSI_CALLER sem) NEQ VSI_OK)
1189 {
1190 SYST_TRACE ( "** Enter Critical Sec:semaphore NOT cleared **");
1191 rr_semaphore_err();
1192 return -1;
1193 }
1194 else
1195 {
1196 return 0;
1197 }
1198 }
1199
1200 /*
1201 +------------------------------------------------------------------------------
1202 | Function : rr_leave_critical_section
1203 +------------------------------------------------------------------------------
1204 | Description :
1205 | Relinquish control of semaphore and release access to
1206 | critical section
1207 |
1208 | Parameters : void
1209 |
1210 | Return : int
1211 |
1212 +------------------------------------------------------------------------------
1213 */
1214 static int rr_leave_critical_section (T_HANDLE sem)
1215 {
1216 if (vsi_s_release (VSI_CALLER sem) NEQ VSI_OK)
1217 {
1218 SYST_TRACE ( "** Leave Critical Sec:semaphore NOT cleared **");
1219 rr_semaphore_err();
1220 return -1;
1221 }
1222 else
1223 {
1224 return 0;
1225 }
1226 }
1227
1228 /*
1229 +------------------------------------------------------------------------------
1230 | Function : em_rr_sem_init
1231 +------------------------------------------------------------------------------
1232 | Description :
1233 | Initialise Semaphore
1234 |
1235 | Parameters : void
1236 |
1237 | Return : int
1238 |
1239 +------------------------------------------------------------------------------
1240 */
1241 GLOBAL void em_rr_sem_init (void)
1242 {
1243 sem_EM_RR = vsi_s_open (VSI_CALLER "EM_RR_SEM",1);
1244
1245 if (sem_EM_RR NEQ VSI_ERROR)
1246 em_rr_sem_clear ();
1247 else
1248 SYST_TRACE ("RR:can´t open semaphore \"EM_RR_SEM\"");
1249 }
1250
1251 /*
1252 +------------------------------------------------------------------------------
1253 | Function : em_rr_sem_exit
1254 +------------------------------------------------------------------------------
1255 | Description :
1256 | Close the semaphore
1257 |
1258 | Parameters : void
1259 |
1260 | Return : void
1261 |
1262 +------------------------------------------------------------------------------
1263 */
1264 GLOBAL void em_rr_sem_exit (void)
1265 {
1266 if (sem_EM_RR NEQ VSI_ERROR)
1267 vsi_s_close (VSI_CALLER sem_EM_RR);
1268 }
1269
1270 /*
1271 +------------------------------------------------------------------------------
1272 | Function : em_rr_sem_clear
1273 +------------------------------------------------------------------------------
1274 | Description :
1275 | Clear semaphore
1276 |
1277 | Parameters : void
1278 |
1279 | Return : void
1280 |
1281 +------------------------------------------------------------------------------
1282 */
1283 LOCAL void em_rr_sem_clear (void)
1284 {
1285 if (rr_enter_critical_section(sem_EM_RR))
1286 {
1287 return;
1288 }
1289
1290 em_rr_sem_index = 0;
1291 if(rr_leave_critical_section(sem_EM_RR))
1292 {
1293 return;
1294 }
1295 SYST_TRACE ( "RR:em_rr_sem_index cleared");
1296 }
1297
1298 /*
1299 +------------------------------------------------------------------------------
1300 | Function : em_rr_sem_reset
1301 +------------------------------------------------------------------------------
1302 | Description :
1303 | Reset the semaphore
1304 |
1305 | Parameters : void
1306 |
1307 | Return : UBYTE
1308 |
1309 +------------------------------------------------------------------------------
1310 */
1311 /*lint -esym(714,em_rr_sem_reset) | Symbol not referenced | used by ACI */
1312 /*lint -esym(765,em_rr_sem_reset) | external could be made static | used by ACI */
1313
1314 GLOBAL void em_rr_sem_reset (void)
1315 {
1316 em_rr_sem_index = 0;
1317 if(rr_leave_critical_section(sem_EM_RR))
1318 {
1319 return;
1320 }
1321
1322 SYST_TRACE ( "RR:em_rr_sem_index reset OK");
1323 }
1324
1325 /*
1326 +------------------------------------------------------------------------------
1327 | Function : em_rr_sem_read
1328 +------------------------------------------------------------------------------
1329 | Description :
1330 | Read state of the semaphore. The rr semaphor will be read by
1331 | the engineering mode via aci.
1332 |
1333 | Parameters : void
1334 |
1335 | Return : UBYTE
1336 |
1337 +------------------------------------------------------------------------------
1338 */
1339 /*lint -esym(714,em_rr_sem_read) | Symbol not referenced | used by ACI */
1340 /*lint -esym(765,em_rr_sem_read) | external could be made static | used by ACI */
1341
1342 GLOBAL void em_rr_sem_read (void)
1343 {
1344 TRACE_FUNCTION ("em_rr_sem_read()");
1345
1346 {
1347 USHORT semCount;
1348
1349 if (vsi_s_status (VSI_CALLER sem_EM_RR, &semCount) NEQ VSI_OK)
1350 {
1351 SYST_TRACE ( "** RR:sem status error **");
1352 rr_semaphore_err();
1353 return;
1354 }
1355 if (semCount EQ 0)
1356 {
1357 vsi_o_ttrace(VSI_CALLER TC_EVENT, "semCount = %d", semCount);
1358 SYST_TRACE ( "semCount EQ 0");
1359 return;
1360 }
1361 }
1362
1363 rr_enter_critical_section(sem_EM_RR);
1364 }
1365
1366 /*
1367 +------------------------------------------------------------------------------
1368 | Function : em_rr_sem
1369 +------------------------------------------------------------------------------
1370 | Description :
1371 |
1372 |
1373 | Parameters : void
1374 |
1375 | Return : TRUE/FALSE - TRUE keeps the event flag valid,
1376 | FALSE indicates a successful flag handle
1377 |
1378 +------------------------------------------------------------------------------
1379 */
1380 /*lint -esym(714,em_rr_sem) | Symbol not referenced | used by ACI */
1381 /*lint -esym(765,em_rr_sem) | external could be made static | used by ACI */
1382 GLOBAL UBYTE em_rr_sem (UBYTE length, UBYTE *data)
1383 {
1384 UBYTE i;
1385
1386 TRACE_FUNCTION ("em_rr_sem()");
1387
1388 {
1389 USHORT semCount;
1390
1391 if (vsi_s_status (VSI_CALLER sem_EM_RR, &semCount) NEQ VSI_OK)
1392 {
1393 rr_semaphore_err();
1394 return FALSE;
1395 }
1396 if (semCount EQ 0)
1397 {
1398 vsi_o_ttrace(VSI_CALLER TC_EVENT, "semCount = %d", semCount);
1399 SYST_TRACE ( "semCount EQ 0");
1400 return FALSE;
1401 }
1402 }
1403
1404 /*
1405 * buffer overflow protection
1406 */
1407 if (( em_rr_sem_index + length) > EM_RR_SEM_SIZE )
1408 {
1409 TRACE_FUNCTION ("rr buffer overflow");
1410 return FALSE;
1411 }
1412
1413 if(rr_enter_critical_section(sem_EM_RR))
1414 return FALSE;
1415
1416 for (i=0; i<length; i++)
1417 em_rr_sem_buffer[em_rr_sem_index++] = *(data++);
1418
1419 if(rr_leave_critical_section(sem_EM_RR))
1420 {
1421 SYST_TRACE ( "** Unable to clear semaphore **");
1422 return FALSE;
1423 }
1424
1425 return TRUE; /* indicates that flag was handled */
1426 } /* endfunc em_rr_sem */
1427
1428
1429 /*
1430 +------------------------------------------------------------------------------
1431 | Function : rr_em_first_event_check()
1432 +------------------------------------------------------------------------------
1433 | Description : Checks if first EM-Event ocured
1434 |
1435 | Parameters : None
1436 |
1437 | Return : None
1438 |
1439 +------------------------------------------------------------------------------
1440 */
1441
1442 /*
1443 ACI is informed about the first event trace, used for later data processing.
1444 */
1445
1446 LOCAL void rr_em_first_event_check(void)
1447 {
1448 TRACE_FUNCTION("rr_em_first_event_check()");
1449
1450 if(em_rr_trace_occured EQ 0)
1451 {
1452 PALLOC(em_notification, EM_DATA_IND);
1453 em_notification->entity = EM_RR;
1454 PSENDX(MMI, em_notification);
1455 em_rr_trace_occured++;
1456 }
1457 }
1458
1459 /*
1460 +------------------------------------------------------------------------------
1461 | Function : rr_em_pco_trace_req
1462 +------------------------------------------------------------------------------
1463 | Description : Process the primitive EM_PCO_TRACE_REQ.
1464 |
1465 | Parameters : UBYTE pco_bitmap
1466 |
1467 | Return : void
1468 |
1469 | Purpose : with this primitive the requested EM Data is traced in the PCO.
1470 +------------------------------------------------------------------------------
1471 */
1472 GLOBAL void rr_em_pco_trace_req (T_EM_PCO_TRACE_REQ *em_pco_trace_req)
1473 {
1474 GET_INSTANCE_DATA;
1475 UBYTE em_cell_type = EM_CELL_NA;
1476 TRACE_FUNCTION("rr_em_pco_trace_req()");
1477
1478 /*check for SC data*/
1479 if(em_pco_trace_req->pco_bitmap & EM_PCO_SC_INFO)
1480 {
1481 switch (GET_STATE (STATE_ATT))
1482 {
1483 case ATT_IDLE:
1484
1485 if (rr_data->nc_data[SC_INDEX].bcch_status EQ DECODED)
1486 {
1487 em_cell_type = EM_CELL_GSM;
1488 #ifdef GPRS
1489 if(rr_data->nc_data[SC_INDEX].rac NEQ NOT_PRESENT_8BIT)
1490 em_cell_type = EM_CELL_GPRS;
1491 #endif
1492
1493 TRACE_EVENT_EM_P8("EM_SC_INFO_REQ_IDLE_DECODED: arfcn:%d c1:%d c2:%d rxlev:%d bsic:%d cell_id:%d dsc:%d cell_type:%d",
1494
1495 rr_data->nc_data[SC_INDEX].arfcn,
1496 rr_data->nc_data[SC_INDEX].c1,
1497 rr_data->nc_data[SC_INDEX].c2,
1498 rr_data->nc_data[SC_INDEX].rxlev,
1499 rr_data->nc_data[SC_INDEX].bsic,
1500 rr_data->nc_data[SC_INDEX].cell_id,
1501 em_act_dlt,
1502 em_cell_type);
1503
1504 TRACE_EVENT_EM_P5("EM_SC_INFO_REQ_IDLE_DECODED: txlev:%d tn:%d lac:%d cba:%d cbq:%d",
1505 rr_data->sc_data.cd.cell_options.pow_ctrl,
1506 rr_data->sc_data.chan_desc.tn,
1507 rr_data->nc_data[SC_INDEX].lai.lac,
1508 rr_data->nc_data[SC_INDEX].rach.cell_bar_access,
1509 rr_data->nc_data[SC_INDEX].c2_par.cbq);
1510 }
1511 else if (rr_data->nc_data[SC_INDEX].bcch_status EQ NON_DECODED)
1512 {
1513 TRACE_EVENT_EM_P4("EM_SC_INFO_REQ_IDLE_NON_DECODED: cell_type:%d arfcn:%d rxlev:%d bsic:%d",
1514 em_cell_type,
1515 rr_data->nc_data[SC_INDEX].arfcn,
1516 rr_data->nc_data[SC_INDEX].rxlev,
1517 rr_data->nc_data[SC_INDEX].bsic);
1518 }
1519 break;
1520
1521 case ATT_DEDICATED:
1522 if (!rr_data->ms_data.measurement_report.valid)
1523 break;
1524
1525 em_cell_type = EM_CELL_GSM;
1526
1527 #ifdef GPRS
1528 if(rr_data->nc_data[SC_INDEX].rac NEQ NOT_PRESENT_8BIT)
1529 em_cell_type = EM_CELL_GPRS;
1530 #endif
1531
1532 TRACE_EVENT_EM_P1("EM_SC_INFO_REQ_DEDICATED: cell_type:%d", em_cell_type);
1533
1534 TRACE_EVENT_EM_P6("EM_SC_INFO_REQ_DEDICATED: arfcn:%d bsic:%d cell_id:%d txlev:%d tn:%d rxlev_f:%d",
1535 rr_data->ms_data.measurement_report.arfcn,
1536 rr_data->nc_data[SC_INDEX].bsic,
1537 rr_data->nc_data[SC_INDEX].cell_id,
1538 rr_data->sc_data.cd.cell_options.pow_ctrl,
1539 rr_data->sc_data.chan_desc.tn,
1540 rr_data->ms_data.measurement_report.rx_lev_full);
1541
1542 TRACE_EVENT_EM_P6("EM_SC_INFO_REQ_DEDICATED: rxlev_s:%d rlt:%d ta:%d rxqual_f:%d rxqual_s:%d vocoder:%d",
1543 rr_data->ms_data.measurement_report.rx_lev_sub,
1544 em_act_rlt,
1545 rr_data->sc_data.new_ta,
1546 rr_data->ms_data.measurement_report.rx_qual_full,
1547 rr_data->ms_data.measurement_report.rx_qual_sub,
1548 rr_data->sc_data.ch_mode);
1549
1550 break;
1551
1552 default:
1553 break;
1554 }/*switch - state*/
1555 }/*if - SC data*/
1556
1557 /*check NC data*/
1558 if(em_pco_trace_req->pco_bitmap & EM_PCO_NC_INFO)
1559 {
1560 UBYTE index = 0;
1561 UBYTE rac = 0xff;
1562
1563 switch (GET_STATE (STATE_ATT))
1564 {
1565 case ATT_IDLE:
1566
1567 TRACE_EVENT_EM_P1("EM_NC_INFO_REQ_IDLE: num_nc:%d", /*number of neighbour cells*/
1568 rr_data->ms_data.measurement_report.ncells.no_of_ncells);
1569
1570 for (index = 0; index < EM_MAX_NUM_NC ; index++) /*report cells ordered by index in NC list*/
1571 {
1572 em_cell_type = EM_CELL_NA;
1573
1574 if (rr_data->nc_data[index].bcch_status EQ DECODED)
1575 {
1576 em_cell_type = EM_CELL_GSM;
1577 rac = 0xff;
1578 #ifdef GPRS
1579 rac = rr_data->nc_data[index].rac;
1580 if(rr_data->nc_data[index].rac NEQ NOT_PRESENT_8BIT)
1581 em_cell_type = EM_CELL_GPRS;
1582 #endif
1583
1584 TRACE_EVENT_EM_P8("EM_NC_INFO_REQ_IDLE_DECODED: cell_type:%d rac:%d index:%d arfcn:%d c1:%d c2:%d rxlev:%d bsic:%d",
1585 em_cell_type,
1586 rac,
1587 index,
1588 rr_data->nc_data[index].arfcn,
1589 rr_data->nc_data[index].c1,
1590 rr_data->nc_data[index].c2,
1591 rr_data->nc_data[index].rxlev,
1592 rr_data->nc_data[index].bsic);
1593
1594 TRACE_EVENT_EM_P6("EM_NC_INFO_REQ_IDLE_DECODED: cid:%d lac:%d f_o:%ld t_a:%ld cba:%d cbq:%d",
1595 rr_data->nc_data[index].cell_id,
1596 rr_data->nc_data[index].lai.lac,
1597 rr_data->ms_data.measurement_report.ncells.frame_offset[index],
1598 rr_data->ms_data.measurement_report.ncells.time_alignmt[index],
1599 rr_data->nc_data[index].rach.cell_bar_access,
1600 rr_data->nc_data[index].c2_par.cbq);
1601
1602 TRACE_EVENT_EM_P3("EM_NC_INFO_REQ_IDLE_DECODED: cell_resel_off:%d temp_off:%d rxlev_acc_min:%ld",
1603 rr_data->nc_data[index].c2_par.cell_reselect_offset,
1604 rr_data->nc_data[index].c2_par.temp_offset,
1605 rr_data->nc_data[index].select_para.rxlev_access_min);
1606
1607 } /* if decoded */
1608
1609 else if (rr_data->nc_data[index].bcch_status EQ NON_DECODED)
1610 {
1611 TRACE_EVENT_EM_P4("EM_NC_INFO_REQ_IDLE_NON_DECODED: cell_type:%d arfcn:%d rxlev:%d bsic:%d",
1612 em_cell_type,
1613 rr_data->nc_data[index].arfcn,
1614 rr_data->nc_data[index].rxlev,
1615 rr_data->nc_data[index].bsic);
1616 } /* if non decoded */
1617 } /* for */
1618
1619 break;
1620
1621 case ATT_DEDICATED:
1622 {
1623 if (!rr_data->ms_data.measurement_report.valid)
1624 break;
1625
1626 TRACE_EVENT_EM_P1("EM_NC_INFO_REQ_DEDICATED: num_nc:%d",
1627 rr_data->ms_data.measurement_report.ncells.no_of_ncells);
1628
1629 for (index = 0; index< rr_data->ms_data.measurement_report.ncells.no_of_ncells; index++)
1630 {
1631 /*in the measurement report the cells are ordered by fieldstrength -
1632 non valid measurements are at the end*/
1633 TRACE_EVENT_EM_P6("EM_NC_INFO_REQ_DEDICATED: index:%d arfcn:%d rx_lev:%d bsic:%d f_o:%ld t_a:%ld",
1634 index,
1635 rr_data->ms_data.measurement_report.ncells.arfcn[index],
1636 rr_data->ms_data.measurement_report.ncells.rx_lev[index],
1637 rr_data->ms_data.measurement_report.ncells.bsic[index],
1638 rr_data->ms_data.measurement_report.ncells.frame_offset[index],
1639 rr_data->ms_data.measurement_report.ncells.time_alignmt[index]);
1640 }/*for*/
1641
1642 }/*case*/
1643 break;
1644
1645 default:
1646 break;
1647 }/*switch - state*/
1648 }/*if - NC data*/
1649
1650 /*check Location and Paging data*/
1651 if(em_pco_trace_req->pco_bitmap & EM_PCO_LOC_PAG_INFO)
1652 {
1653 if (rr_data->nc_data[SC_INDEX].bcch_status EQ DECODED)
1654 {
1655 TRACE_EVENT_EM_P8("EM_LOC_PAG_INFO_REQ_DECODED: mcc:%d %d %d mnc:%d %d %d bs_pa_mfrms:%d t3212:%d",
1656 rr_data->nc_data[SC_INDEX].lai.mcc[0],
1657 rr_data->nc_data[SC_INDEX].lai.mcc[1],
1658 rr_data->nc_data[SC_INDEX].lai.mcc[2],
1659
1660 /*2 digits vs. 3 digits*/
1661 rr_data->nc_data[SC_INDEX].lai.mnc[2] NEQ 0xF ? rr_data->nc_data[SC_INDEX].lai.mnc[0] :
1662 0 ,
1663 rr_data->nc_data[SC_INDEX].lai.mnc[2] NEQ 0xF ? rr_data->nc_data[SC_INDEX].lai.mnc[1] :
1664 rr_data->nc_data[SC_INDEX].lai.mnc[0],
1665 rr_data->nc_data[SC_INDEX].lai.mnc[2] NEQ 0xF ? rr_data->nc_data[SC_INDEX].lai.mnc[2] :
1666 rr_data->nc_data[SC_INDEX].lai.mnc[1],
1667
1668 rr_data->nc_data[SC_INDEX].control_descr.bs_pa_mfrms,
1669 rr_data->nc_data[SC_INDEX].control_descr.t3212);
1670 }
1671 if (rr_data->ms_data.tmsi_available EQ TRUE)
1672 TRACE_EVENT_EM_P1("EM_LOC_PAG_INFO_REQ_TMSI: %d", rr_data->ms_data.tmsi_binary);
1673 }/*if - Location and Paging data*/
1674
1675 /*check PLMN parameters*/
1676 if(em_pco_trace_req->pco_bitmap & EM_PCO_PLMN_INFO)
1677 {
1678 TRACE_EVENT_EM_P4("EM_PLMN_INFO_REQ: no_creq_max:%d re_flag:%d TXPOW_max:%d RXLEV_acc_min:%d",
1679 rr_data->nc_data[SC_INDEX].rach.max_retrans,
1680 rr_data->nc_data[SC_INDEX].rach.re,
1681 rr_data->nc_data[SC_INDEX].select_para.ms_txpwr_max_cch,
1682 rr_data->nc_data[SC_INDEX].select_para.rxlev_access_min);
1683
1684 }/* if - PLMN parameters*/
1685
1686 /*check Ciphering Hopping DTX data*/
1687 if(em_pco_trace_req->pco_bitmap & EM_PCO_CIPH_HOP_DTX_INFO)
1688 {
1689 UBYTE i,offset;
1690 /* Implements Measure#32: Row 242 */
1691 char *basestr="EM_CIP_HOP_DTX_INFO_REQ_FREQ";
1692
1693 /*to store the trace output*/
1694 char hop_freq_list[MAX_SPRINTF_STRING_LEN]; /*lint !e813 , info about length*/
1695
1696 if((GET_STATE(STATE_ATT) EQ ATT_DEDICATED) AND
1697 (GET_STATE(STATE_DAT) EQ DAT_DEDICATED))
1698 {
1699
1700 TRACE_EVENT_EM_P6("EM_CIP_HOP_DTX_INFO_REQ_DEDICATED: ciph:%d dtx:%d v_start:%d hop:%d hsn:%d arfcn:%d",
1701 rr_data->sc_data.ciph_on,
1702 rr_data->sc_data.cd.dtx,
1703 v_start,
1704 rr_data->sc_data.chan_desc.hop,
1705 rr_data->sc_data.chan_desc.hop NEQ H_NO ? rr_data->sc_data.chan_desc.hsn : NOT_PRESENT_16BIT,
1706 rr_data->sc_data.chan_desc.arfcn);
1707
1708 if(rr_data->sc_data.chan_desc.hop NEQ H_NO)
1709 {
1710 /* Implements Measure#32: Row 242 */
1711 offset = sprintf(hop_freq_list, "%s1: ", basestr);
1712
1713
1714 for (i = 0; (i < MAX_MA_CHANNELS) AND (ma[i] NEQ NOT_PRESENT_16BIT); i++)
1715 {
1716 offset += sprintf(hop_freq_list+offset, "%u ", ma[i]);
1717 /*
1718 * 4 spaces for freq + 1 blank space + 1 space for '\0'
1719 */
1720 if(offset > MAX_SPRINTF_STRING_LEN - 6)
1721 {
1722 TRACE_EVENT_EM (hop_freq_list);
1723 /* Implements Measure#32: Row 245 */
1724 offset = sprintf(hop_freq_list, "%s1_CONT: ", basestr);
1725 }
1726 }
1727 TRACE_EVENT_EM (hop_freq_list);
1728 TRACE_EVENT_EM_P2("EM_CIP_HOP_DTX_INFO_REQ_FREQ1: nr_arfcns:%d, maio:%d",
1729 i,rr_data->sc_data.chan_desc.maio);
1730 } /* If hopping valid */
1731
1732 if (v_start)
1733 {
1734
1735 /* Implements Measure#32: Row 247 */
1736 offset = sprintf(hop_freq_list, "%s2: ", basestr);/*before starting time*/
1737
1738 for (i = 0; (i < MAX_MA_CHANNELS) AND (ma2[i] NEQ NOT_PRESENT_16BIT); i++)
1739 {
1740 offset += sprintf(hop_freq_list+offset, "%u ", ma2[i]);
1741 if(offset > MAX_SPRINTF_STRING_LEN - 6)
1742 {
1743 TRACE_EVENT_EM (hop_freq_list);
1744 /* Implements Measure#32: Row 248 */
1745 offset = sprintf(hop_freq_list, "%s2_CONT: ", basestr);
1746 }
1747 }
1748 TRACE_EVENT_EM (hop_freq_list);
1749 TRACE_EVENT_EM_P2("EM_CIP_HOP_DTX_INFO_REQ_FREQ2: nr_arfcns:%d, maio:%d",i, maio2);
1750
1751 }/*if - starting time valid*/
1752 } /* ATT dedicated state */
1753 else
1754 {
1755 TRACE_EVENT_EM_P1("EM_CIP_HOP_DTX_INFO_REQ_IDLE: dtx:%d", rr_data->sc_data.cd.dtx);
1756 } /* ATT idle state */
1757 }/*if - ciphering, hopping, dtx*/
1758
1759 /*check Power (Classmark) data*/
1760 if(em_pco_trace_req->pco_bitmap & EM_PCO_POWER_INFO)
1761 {/*here the em_power_info_cnf struckture is used, because I couldn't find classmark definition*/
1762 PALLOC(em_power_info_cnf, EM_POWER_INFO_CNF);
1763 memset (em_power_info_cnf, 0, sizeof (T_EM_POWER_INFO_CNF));
1764 memcpy(&em_power_info_cnf->classm2, &rr_data->ms_data.classmark2, sizeof (T_classm2));
1765 memcpy(&em_power_info_cnf->classm3, &rr_data->ms_data.classmark3, sizeof (T_classm3));
1766
1767 TRACE_EVENT_EM_P6("EM_POWER_INFO_REQ_CLASSMARK_2: rev_lev:%d es_ind:%d a5_1:%d rf_pow_cap:%d ps_cap:%d ss_screen:%d",
1768 em_power_info_cnf->classm2.rev_lev, em_power_info_cnf->classm2.es_ind,
1769 em_power_info_cnf->classm2.a5_1, em_power_info_cnf->classm2.rf_pow_cap,
1770 em_power_info_cnf->classm2.ps_cap, em_power_info_cnf->classm2.ss_screen);
1771 TRACE_EVENT_EM_P6("EM_POWER_INFO_REQ_CLASSMARK_2: sm_cap:%d freq_cap:%d class_3:%d cmsp:%d a5_3:%d a5_2:%d",
1772 em_power_info_cnf->classm2.sm_cap, em_power_info_cnf->classm2.freq_cap,
1773 em_power_info_cnf->classm2.class_3, em_power_info_cnf->classm2.cmsp,
1774 em_power_info_cnf->classm2.a5_3, em_power_info_cnf->classm2.a5_2);
1775
1776 TRACE_EVENT_EM_P6("EM_POWER_INFO_REQ_CLASSMARK_3: mb_sub:%d a5_7:%d a5_6:%d a5_5:%d a5_4:%d v_radio_cap_2:%d",
1777 em_power_info_cnf->classm3.mb_sub, em_power_info_cnf->classm3.a5_7,
1778 em_power_info_cnf->classm3.a5_6, em_power_info_cnf->classm3.a5_5,
1779 em_power_info_cnf->classm3.a5_4, em_power_info_cnf->classm3.v_radio_cap_2);
1780 TRACE_EVENT_EM_P6("EM_POWER_INFO_REQ_CLASSMARK_3: ra_cap_2:%d v_ra_cap_1:%d ra_cap_1:%d v_r_sup:%d r_sup:%d v_m_s_class:%d",
1781 em_power_info_cnf->classm3.radio_cap_2, em_power_info_cnf->classm3.v_radio_cap_1,
1782 em_power_info_cnf->classm3.radio_cap_1, em_power_info_cnf->classm3.v_r_support,
1783 em_power_info_cnf->classm3.r_support, em_power_info_cnf->classm3.v_m_s_class);
1784 TRACE_EVENT_EM_P6("EM_POWER_INFO_REQ_CLASSMARK_3: m_s_class:%d ucs2_treat:%d ext_meas_cap:%d v_meas_cap:%d sw_time:%d sws_time:%d",
1785 em_power_info_cnf->classm3.m_s_class, em_power_info_cnf->classm3.ucs2_treat,
1786 em_power_info_cnf->classm3.ext_meas_cap, em_power_info_cnf->classm3.v_meas_cap,
1787 em_power_info_cnf->classm3.meas_cap.sw_time, em_power_info_cnf->classm3.meas_cap.sws_time);
1788
1789 PFREE(em_power_info_cnf);
1790
1791 }/* if - Power (Classmark) data*/
1792
1793 /*check Identity data*/
1794 if(em_pco_trace_req->pco_bitmap & EM_PCO_IDENTITY_INFO)
1795 {
1796 TRACE_EVENT_EM_P4("EM_IDENTITY_INFO_REQ_IMEI: id_type:%d v_id:%d c_id:%d odd_even:%d",
1797 rr_data->ms_data.imei.ident_type,
1798 rr_data->ms_data.imei.v_ident_dig,
1799 rr_data->ms_data.imei.c_ident_dig,
1800 rr_data->ms_data.imei.odd_even);
1801
1802 TRACE_EVENT_EM_P8("EM_IDENTITY_INFO_REQ: imei_1: %d %d %d %d %d %d %d %d",
1803 rr_data->ms_data.imei.ident_dig[0], rr_data->ms_data.imei.ident_dig[1],
1804 rr_data->ms_data.imei.ident_dig[2], rr_data->ms_data.imei.ident_dig[3],
1805 rr_data->ms_data.imei.ident_dig[4], rr_data->ms_data.imei.ident_dig[5],
1806 rr_data->ms_data.imei.ident_dig[6], rr_data->ms_data.imei.ident_dig[7]);
1807 TRACE_EVENT_EM_P8("EM_IDENTITY_INFO_REQ: imei_2: %d %d %d %d %d %d %d %d",
1808 rr_data->ms_data.imei.ident_dig[8], rr_data->ms_data.imei.ident_dig[9],
1809 rr_data->ms_data.imei.ident_dig[10], rr_data->ms_data.imei.ident_dig[11],
1810 rr_data->ms_data.imei.ident_dig[12], rr_data->ms_data.imei.ident_dig[13],
1811 rr_data->ms_data.imei.ident_dig[14], rr_data->ms_data.imei.ident_dig[15]);
1812
1813 if (rr_data->ms_data.imsi_available) /* SIM available */
1814 {
1815 TRACE_EVENT_EM_P4("EM_IDENTITY_INFO_REQ_IMSI: id_type:%d v_id:%d c_id:%d odd_even:%d",
1816 rr_data->ms_data.imsi.ident_type,
1817 rr_data->ms_data.imsi.v_ident_dig,
1818 rr_data->ms_data.imsi.c_ident_dig,
1819 rr_data->ms_data.imsi.odd_even);
1820 TRACE_EVENT_EM_P8("EM_IDENTITY_INFO_REQ: imsi_1: %d %d %d %d %d %d %d %d",
1821 rr_data->ms_data.imsi.ident_dig[0], rr_data->ms_data.imsi.ident_dig[1],
1822 rr_data->ms_data.imsi.ident_dig[2], rr_data->ms_data.imsi.ident_dig[3],
1823 rr_data->ms_data.imsi.ident_dig[4], rr_data->ms_data.imsi.ident_dig[5],
1824 rr_data->ms_data.imsi.ident_dig[6], rr_data->ms_data.imsi.ident_dig[7]);
1825 TRACE_EVENT_EM_P8("EM_IDENTITY_INFO_REQ: imsi_2: %d %d %d %d %d %d %d %d",
1826 rr_data->ms_data.imsi.ident_dig[8], rr_data->ms_data.imsi.ident_dig[9],
1827 rr_data->ms_data.imsi.ident_dig[10], rr_data->ms_data.imsi.ident_dig[11],
1828 rr_data->ms_data.imsi.ident_dig[12], rr_data->ms_data.imsi.ident_dig[13],
1829 rr_data->ms_data.imsi.ident_dig[14], rr_data->ms_data.imsi.ident_dig[15]);
1830 }/*if - SIM available*/
1831
1832 if (rr_data->ms_data.tmsi_available EQ TRUE)
1833 TRACE_EVENT_EM_P1("EM_IDENTITY_INFO_REQ: tmsi_bin: %ld", rr_data->ms_data.tmsi_binary);
1834 }/*if - Identity data*/
1835
1836 /*check AMR configuration data*/
1837 if(em_pco_trace_req->pco_bitmap & EM_PCO_AMR_INFO)
1838 {
1839 if((GET_STATE(STATE_ATT) EQ ATT_DEDICATED) AND
1840 (GET_STATE(STATE_DAT) EQ DAT_DEDICATED))
1841 {
1842 if(rr_data->sc_data.ch_mode EQ CM_AMR)
1843 {
1844 UBYTE amr_index,amr_nr_modes = 1;
1845
1846 TRACE_EVENT_EM_P5("EM_AMR_INFO_REQ_DEDICATED: vocoder:%d icmi:%d icm:%d acs:%d first_codec:%d",
1847 rr_data->sc_data.chan_desc.chan_type,
1848 rr_data->sc_data.amr_conf.icmi,
1849 rr_data->sc_data.amr_conf.st_mode,
1850 rr_data->sc_data.amr_conf.set_amr,
1851 em_get_first_codec(rr_data->sc_data.amr_conf.set_amr));
1852
1853 if(rr_data->sc_data.amr_conf.v_cod_prop)
1854 {
1855 /* Number of codec modes */
1856 amr_nr_modes = rr_data->sc_data.amr_conf.c_cod_prop + 1;
1857
1858 TRACE_EVENT_EM_P1("EM_AMR_INFO_REQ_DEDICATED: amr_num_modes:%d",
1859 amr_nr_modes);
1860
1861 /* Threshold and Hysteresis properties between codec modes */
1862 for(amr_index=0;amr_index<amr_nr_modes;amr_index++)
1863 {
1864 TRACE_EVENT_EM_P2("EM_AMR_COD_PROP: thr:%d hyst:%d",
1865 rr_data->sc_data.amr_conf.cod_prop[amr_index].codec_thr,
1866 rr_data->sc_data.amr_conf.cod_prop[amr_index].codec_hyst);
1867 }
1868 } /* codec properties */
1869 } /* AMR configured */
1870 else
1871 {
1872 TRACE_EVENT_EM("EM_AMR_INFO_REQ_DEDICATED: AMR not configured");
1873 } /* AMR not configured in dedicated state */
1874 } /* ATT dedicated state */
1875 else
1876 {
1877 TRACE_EVENT_EM("EM_AMR_INFO_REQ_IDLE: Not Applicable");
1878 } /* ATT idle state */
1879 } /* EM_PCO_AMR_INFO */
1880
1881 #if !defined (WIN32)
1882 /*check SW Version data*/
1883 if(em_pco_trace_req->pco_bitmap & EM_PCO_SW_VERSION_INFO)
1884 {
1885 TRACE_EVENT_EM_P1("EM_SW_SIM: %s",sim_version());
1886 TRACE_EVENT_EM_P1("EM_SW_SMS: %s",sms_version());
1887 TRACE_EVENT_EM_P1("EM_SW_SS: %s",ss_version()) ;
1888 TRACE_EVENT_EM_P1("EM_SW_CC: %s",cc_version()) ;
1889 TRACE_EVENT_EM_P1("EM_SW_MM: %s",mm_version()) ;
1890 TRACE_EVENT_EM_P1("EM_SW_RR: %s",rr_version()) ;
1891 TRACE_EVENT_EM_P1("EM_SW_DL: %s",dl_version()) ;
1892 TRACE_EVENT_EM_P1("EM_SW_L1: %s",l1_version()) ;
1893 }/*if - SW Version data*/
1894 #endif
1895
1896 PFREE(em_pco_trace_req);
1897 }/*rr_em_pco_trace_req*/
1898
1899
1900 /* ------------------ Microtec Cooperation Functions ----------*/
1901 #ifdef GPRS /* changes for later: Include extra compile switch for fmm */
1902 /*
1903 +------------------------------------------------------------------------------
1904 | Function : dat_em_fmm_sc_info_req
1905 +------------------------------------------------------------------------------
1906 | Description : This function provides the data for microtec fmm - Program
1907 |
1908 | Parameters : Primitive from EM - T_EM_FMM_SC_INFO_REQ
1909 |
1910 | Return : void
1911 +------------------------------------------------------------------------------
1912 This function sends the latest stored data of the SC. It is only interesting
1913 during a GPRS connection (PTM). Therefor the ATT_STATE is ATT_IDLE (or RE_SELECTION).
1914
1915 */
1916
1917 GLOBAL void dat_em_fmm_sc_info_req (T_EM_FMM_SC_INFO_REQ *em_fmm_sc_info_req)
1918 {
1919 /*GET_INSTANCE_DATA;*/
1920 PFREE(em_fmm_sc_info_req);
1921
1922 TRACE_FUNCTION ("dat_fmm_em_sc_info_req()");
1923
1924 #ifdef FF_WAP
1925 {
1926 PALLOC(em_fmm_sc_info_cnf, EM_FMM_SC_INFO_CNF);
1927
1928 memset (em_fmm_sc_info_cnf, 0, sizeof (T_EM_FMM_SC_INFO_CNF));
1929
1930 switch (GET_STATE (STATE_ATT))
1931 {
1932 case ATT_IDLE:
1933 if (rr_data->nc_data[SC_INDEX].bcch_status EQ DECODED)
1934 {
1935 em_fmm_sc_info_cnf->arfcn = rr_data->nc_data[SC_INDEX].arfcn;
1936 em_fmm_sc_info_cnf->c1 = rr_data->nc_data[SC_INDEX].c1;
1937 em_fmm_sc_info_cnf->c2 = rr_data->nc_data[SC_INDEX].c2;
1938 em_fmm_sc_info_cnf->rac = rr_data->nc_data[SC_INDEX].rac;
1939 em_fmm_sc_info_cnf->hyst = rr_data->nc_data[SC_INDEX].select_para.cell_resel_hyst;
1940 em_fmm_sc_info_cnf->c32 = rr_data->nc_data[SC_INDEX].c32; /*c32_used abfragen ?*/
1941 em_fmm_sc_info_cnf->gprs_prio_class = rr_data->nc_data[SC_INDEX].cr_par.priority_class;
1942 }
1943 else if (rr_data->nc_data[SC_INDEX].bcch_status EQ NON_DECODED)
1944 {
1945 em_fmm_sc_info_cnf->arfcn = rr_data->nc_data[SC_INDEX].arfcn;
1946 }
1947 break;
1948 case ATT_CS3:
1949 break; /* Cell reselection - if needed can be included later*/
1950 default:
1951 break;
1952 } /*switch*/
1953
1954 /* TRACE_EVENT_P7("arfcn:%d c1:%d c2:%d rac:%d hyst:%d c32:%d prio:%d" , em_fmm_sc_info_cnf->arfcn,\
1955 em_fmm_sc_info_cnf->c1 , em_fmm_sc_info_cnf->c2 , em_fmm_sc_info_cnf->rac , em_fmm_sc_info_cnf->hyst,\
1956 em_fmm_sc_info_cnf->c32, em_fmm_sc_info_cnf->gprs_prio_class);*/
1957
1958 PSENDX( WAP, em_fmm_sc_info_cnf);
1959 }
1960
1961 #endif /*FF_WAP*/
1962
1963 }
1964
1965
1966 /*
1967 +------------------------------------------------------------------------------
1968 | Function : dat_em_fmm_nc_info_req
1969 +------------------------------------------------------------------------------
1970 | Description : Process the primitive EM_FMM_NC_INFO_REQ.
1971 |
1972 | Parameters : Primitive from EM - T_EM_FMM_NC_INFO_REQ
1973 |
1974 | Return : void
1975 +------------------------------------------------------------------------------
1976 This function sends the latest stored data of the NC. It is only interesting
1977 during a GPRS connection (PTM). Therefor the ATT_STATE is ATT_IDLE or RE_SELECTION.
1978 So the measurement report results should also be available in the nc_data.
1979 */
1980 GLOBAL void dat_em_fmm_nc_info_req (T_EM_FMM_NC_INFO_REQ *em_fmm_nc_info_req)
1981 {
1982 /*GET_INSTANCE_DATA;*/
1983 PFREE(em_fmm_nc_info_req);
1984
1985 TRACE_FUNCTION ("dat_em_fmm_nc_info_req()");
1986
1987 #ifdef FF_WAP
1988 {
1989 UBYTE index = 0, index2 = 0;
1990 PALLOC(em_fmm_nc_info_cnf, EM_FMM_NC_INFO_CNF);
1991
1992 memset (em_fmm_nc_info_cnf, 0, sizeof (T_EM_FMM_NC_INFO_CNF));
1993
1994 switch (GET_STATE (STATE_ATT))
1995 {
1996 case ATT_IDLE:
1997 em_fmm_nc_info_cnf->no_ncells = rr_data->ms_data.measurement_report.ncells.no_of_ncells;
1998 for (index = index2 = 0; index< EM_MAX_NUM_NC; index++)
1999 {
2000 if (rr_data->nc_data[index].bcch_status EQ DECODED)
2001 {
2002 em_fmm_nc_info_cnf->arfcn_nc[index2] = rr_data->nc_data[index].arfcn;
2003 em_fmm_nc_info_cnf->c2_nc[index2] = rr_data->nc_data[index].c2;
2004 em_fmm_nc_info_cnf->rac_nc[index2] = rr_data->nc_data[index].rac;
2005 em_fmm_nc_info_cnf->c31_nc[index2] = rr_data->nc_data[index].c31;
2006 em_fmm_nc_info_cnf->c32_nc[index2] = rr_data->nc_data[index].c32;
2007 em_fmm_nc_info_cnf->gprs_prio_class_nc[index2] = rr_data->nc_data[index].cr_par.priority_class;
2008 index2++;
2009 } /* if decoded */
2010
2011 else if (rr_data->nc_data[index].bcch_status EQ NON_DECODED)
2012 {
2013 em_fmm_nc_info_cnf->arfcn_nc[index] = rr_data->nc_data[index].arfcn;
2014 } /* if non decoded */
2015 } /* for */
2016
2017 break;
2018 default:
2019 break;
2020 }/*switch*/
2021
2022 /* for (index = 0 ; index < EM_MAX_NUM_NC ; index++)
2023 TRACE_EVENT_P6("arfcn:%d c2:%d rac:%d c31:%d c32:%d prio:%d", em_fmm_nc_info_cnf->arfcn_nc[index],\
2024 em_fmm_nc_info_cnf->c2_nc[index], em_fmm_nc_info_cnf->rac_nc[index],\
2025 em_fmm_nc_info_cnf->c31_nc[index], em_fmm_nc_info_cnf->c32_nc[index],\
2026 em_fmm_nc_info_cnf->gprs_prio_class_nc[index]);*/
2027
2028 PSENDX( WAP, em_fmm_nc_info_cnf);
2029 }
2030
2031 #endif /*FF_WAP*/
2032
2033
2034 }
2035
2036 /*
2037 +------------------------------------------------------------------------------
2038 | Function : dat_em_fmm_reselection_start_ind
2039 +------------------------------------------------------------------------------
2040 | Description : Indicates the start of an cell reselection to FMM
2041 |
2042 | Parameters : void
2043 |
2044 | Return : void
2045 +------------------------------------------------------------------------------
2046 */
2047 GLOBAL void dat_em_fmm_reselection_start_ind (void)
2048 {
2049 /*GET_INSTANCE_DATA;*/
2050 TRACE_FUNCTION("dat_em_fmm_reselection_start_ind()");
2051 #ifdef FF_WAP
2052 {
2053 PALLOC(em_fmm_reselection_start_ind, EM_FMM_RESELECTION_START_IND);
2054 memset (em_fmm_reselection_start_ind, 0, sizeof (T_EM_FMM_RESELECTION_START_IND));
2055 em_fmm_reselection_start_ind->arfcn = rr_data->nc_data[rr_data->reselect_index].arfcn;
2056 em_fmm_reselection_start_ind->rac = rr_data->nc_data[rr_data->reselect_index].rac;
2057 em_fmm_reselection_start_ind->res_type = rr_data->sc_data.selection_type;
2058
2059 /* TRACE_EVENT_P3("em_fmm_reselection_start_ind %d,%d,%d",em_fmm_reselection_start_ind->arfcn,
2060 em_fmm_reselection_start_ind->rac,em_fmm_reselection_start_ind->res_type );*/
2061
2062 PSENDX(WAP, em_fmm_reselection_start_ind);
2063 }
2064
2065 #endif /*FF_WAP */
2066
2067 }
2068
2069 /*
2070 +------------------------------------------------------------------------------
2071 | Function : dat_em_fmm_reselection_end_ind
2072 +------------------------------------------------------------------------------
2073 | Description : Indicates the end of an cell reselection to FMM
2074 |
2075 | Parameters : void
2076 |
2077 | Return : void
2078 +------------------------------------------------------------------------------
2079 */
2080 GLOBAL void dat_em_fmm_reselection_end_ind (void)
2081 {
2082 /*GET_INSTANCE_DATA;*/
2083 TRACE_FUNCTION("dat_em_fmm_reselection_end_ind()");
2084 #ifdef FF_WAP
2085 {
2086 PALLOC(em_fmm_resel_end_ind, EM_FMM_RESELECTION_END_IND);
2087 memset (em_fmm_resel_end_ind, 0, sizeof (T_EM_FMM_RESELECTION_END_IND));
2088 em_fmm_resel_end_ind->arfcn = rr_data->nc_data[SC_INDEX].arfcn;
2089 em_fmm_resel_end_ind->rac = rr_data->nc_data[SC_INDEX].rac;
2090 /* TRACE_EVENT_P2("em_fmm_reselection_end_ind %d,%d",em_fmm_resel_end_ind->arfcn,
2091 em_fmm_resel_end_ind->rac);*/
2092
2093 PSENDX(WAP, em_fmm_resel_end_ind);
2094 }
2095
2096 #endif /*FF_WAP*/
2097
2098 }
2099
2100
2101 #endif /* GPRS */
2102
2103 #endif /* FF_EM_MODE */
2104
2105
2106
2107 #endif /* RR_EM_C */