FreeCalypso > hg > fc-magnetite

comparison src/g23m-gsm/rr/rr_srv.c @ 104:27a4235405c6

Find changesets by keywords (author, files, the commit message), revision number or hash, or revset expression.
src/g23m-gsm: import from LoCosto source
author Mychaela Falconia <falcon@freecalypso.org>
date Tue, 04 Oct 2016 18:24:05 +0000
parents
children
comparison
equal deleted inserted replaced
103:76d139c7a25e 104:27a4235405c6
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 functions for the common
18 | services of the component RR of the mobile station.
19 +-----------------------------------------------------------------------------
20 */
21
22 #ifndef RR_SRV_C
23 #define RR_SRV_C
24
25 #define ENTITY_RR
26
27 /*==== INCLUDES ===================================================*/
28
29 #include <string.h>
30 #include <stdlib.h>
31 #include <stddef.h> /* offsetof */
32 #include "typedefs.h"
33 #include "pcm.h"
34 #include "pconst.cdg"
35 #include "mconst.cdg"
36 #include "message.h"
37 #include "ccdapi.h"
38 #include "vsi.h"
39 #include "custom.h"
40 #include "gsm.h"
41 #include "prim.h"
42 #include "cnf_rr.h"
43 #include "tok.h"
44 #include "rr.h"
45
46
47 /*==== EXPORT =====================================================*/
48
49 /*==== PRIVAT =====================================================*/
50 LOCAL UBYTE srv_is_not_in_list (USHORT * channels,
51 USHORT new_channel,
52 USHORT size);
53 /*==== VARIABLES ==================================================*/
54
55 /*==== FUNCTIONS ==================================================*/
56 /*
57 +--------------------------------------------------------------------+
58 | PROJECT : GSM-PS (6147) MODULE : RR_SRV |
59 | STATE : code ROUTINE : srv_store_prim |
60 +--------------------------------------------------------------------+
61
62 PURPOSE : stores a primitive into a ring buffer. The buffer contains
63 up to MAX_RR_STORED_PRIM primitives. The ring buffer is
64 controlled by the variables stored_prim_in, which is the
65 index of the next free place in the buffer. The variable
66 stored_prim_read defines the number of stored primitives,
67 which are already indicated as to be read again (by function
68 srv_use_stored_prim. The variable stored_prim_write indicates
69 the number of stored primitives, which are not indicated as
70 to be read again (by function srv_use_stored_prim).
71 The return value of the function indicates whether the storing
72 was successful or not.
73
74 */
75
76 BOOL srv_store_prim (T_PRIM * prim)
77 {
78 GET_INSTANCE_DATA;
79 TRACE_FUNCTION ("srv_store_prim()");
80
81 /*
82 * check the limits. If buffer is full, return false.
83 */
84 if (rr_data->stored_prim_read + rr_data->stored_prim_write >=
85 MAX_RR_STORED_PRIM)
86 {
87 TRACE_EVENT ("Buffer overrun");
88 return FALSE;
89 }
90
91
92 /*
93 * Else store the primitive
94 */
95 TRACE_EVENT ("save prim");
96
97 /*
98 * store primitive address and increment stored_prim_in
99 * to next free location.
100 */
101 rr_data->stored_prim [rr_data->stored_prim_in++] = prim;
102
103 /*
104 * set stored_prim_in to 0 if at the boarder of the ring buffer
105 */
106 if (rr_data->stored_prim_in EQ MAX_RR_STORED_PRIM)
107 {
108 rr_data->stored_prim_in = 0;
109 }
110
111 /*
112 * increment Number of the stored primitives which are not
113 * indicated as to be read again.
114 */
115 rr_data->stored_prim_write++;
116
117 /*
118 * return the success of storing of the primitive.
119 */
120 return TRUE;
121 }
122
123 /*
124 +--------------------------------------------------------------------+
125 | PROJECT : GSM-PS (6147) MODULE : RR_SRV |
126 | STATE : code ROUTINE : srv_use_stored_prim |
127 +--------------------------------------------------------------------+
128
129 PURPOSE : The function re-send all stored primitives to RR. This
130 function is called by RR whenever a stored primitive must
131 be taken in account, e.g. after cell reselection to handle
132 a stored paging.
133
134 */
135
136 GLOBAL void srv_use_stored_prim (void)
137 {
138 GET_INSTANCE_DATA;
139 TRACE_FUNCTION ("srv_use_stored_prim()");
140
141 ENTITY_DATA->use_stored_entries = FALSE;
142
143 /*
144 * Only if anything new has been stored
145 */
146 if (rr_data->stored_prim_write > 0)
147 {
148 /*
149 * increment the number of primitives which
150 * must be re-send to RR by the number of
151 * newly stored primitives and reset this variable
152 * to zero.
153 */
154 rr_data->stored_prim_read +=
155 rr_data->stored_prim_write;
156 rr_data->stored_prim_write = 0;
157
158 /*
159 * For all stored primitives
160 */
161 while (rr_data->stored_prim_read NEQ 0)
162 {
163 T_PRIM * prim;
164
165 rr_data->stored_prim_read--;
166
167 /*
168 * get the primitive address
169 */
170 prim = rr_data->stored_prim[rr_data->stored_prim_out];
171 rr_data->stored_prim[rr_data->stored_prim_out ] = NULL;
172 rr_data->stored_prim_out++;
173 /*
174 * set the stored_prim_out pointer to the start of the
175 * ring buffer, if it is at the end of the buffer
176 */
177 if (rr_data->stored_prim_out EQ MAX_RR_STORED_PRIM)
178 rr_data->stored_prim_out = 0;
179
180 /*
181 * If the stored primitive is a paging_ind clear the stored paging flag
182 * right away. If not the paging will be thrown away if the flag was
183 * not reset propperly on the outside
184 */
185 if(prim NEQ NULL AND prim->custom.opc EQ MPH_PAGING_IND)
186 {
187 rr_data->pag_rec = FALSE;
188 }
189
190 /*
191 * call the protocol entity interface function to handle
192 * the stored primitive.
193 */
194 rr_pei_primitive (prim);
195 }
196 }
197 }
198
199 /*
200 +--------------------------------------------------------------------+
201 | PROJECT : GSM-PS (6147) MODULE : RR_SRV |
202 | STATE : code ROUTINE : srv_clear_stored_prim |
203 +--------------------------------------------------------------------+
204
205 PURPOSE : The function clears all primitives with the given opcode
206 from the ring buffer. If the opcode matches, it releases
207 the partition and stores instead a NULL pointer.
208
209 */
210
211 GLOBAL void srv_clear_stored_prim (ULONG opc)
212 {
213 GET_INSTANCE_DATA;
214 USHORT i, out;
215
216 TRACE_FUNCTION ("srv_clear_stored_prim()");
217
218 /*
219 * Only if anything is stored
220 */
221 if (rr_data->stored_prim_read + rr_data->stored_prim_write > 0)
222 {
223 /*
224 * Calculate the number of stored primitives and the beginning
225 */
226 i = rr_data->stored_prim_read + rr_data->stored_prim_write;
227 out = rr_data->stored_prim_out;
228
229 while (i NEQ 0)
230 {
231 /*
232 * for each stored primitive
233 */
234 T_PRIM * prim;
235
236 i--;
237
238 /*
239 * Get the partition
240 */
241 prim = rr_data->stored_prim[out];
242 if (prim NEQ NULL AND prim->custom.opc EQ opc)
243 {
244 /*
245 * If a primitive is stored and it has the
246 * exspected opcode, release the primitive
247 * and store instead a NULL pointer.
248 */
249 PFREE (P2D(prim));
250 rr_data->stored_prim[out] = NULL;
251 }
252 /*
253 * increment out index and set it to 0 if
254 * it is on the right boarder of the ring buffer
255 */
256 out++;
257 if (out EQ MAX_RR_STORED_PRIM)
258 out = 0;
259 }
260 }
261 }
262
263 /*
264 +--------------------------------------------------------------------+
265 | PROJECT : GSM-PS (6147) MODULE : RR_SRV |
266 | STATE : code ROUTINE : srv_check_stored_prim |
267 +--------------------------------------------------------------------+
268
269 PURPOSE : Check specific stored primitives. Indicates whether
270 a primitive with opcode opc is already stored.
271
272 */
273
274 GLOBAL UBYTE srv_check_stored_prim (ULONG opc)
275 {
276 GET_INSTANCE_DATA;
277 USHORT i, out;
278
279 TRACE_FUNCTION ("srv_check_stored_prim()");
280
281 /*
282 * only if a primitve is stored
283 */
284 if (rr_data->stored_prim_read + rr_data->stored_prim_write > 0)
285 {
286 /*
287 * calculate number of stored primitives and the beginning
288 */
289 i = rr_data->stored_prim_read + rr_data->stored_prim_write;
290 out = rr_data->stored_prim_out;
291
292 while (i NEQ 0)
293 {
294 /*
295 * for all stored primitives
296 */
297 T_PRIM * prim;
298
299 i--;
300 /*
301 * get the primitive address
302 */
303 prim = rr_data->stored_prim[out];
304 if (prim NEQ NULL AND prim->custom.opc EQ opc)
305 {
306 /*
307 * return TRUE if a primitive is stored and the opcode
308 * is as expected.
309 */
310 return TRUE;
311 }
312 /*
313 * increase out index to the next entry
314 */
315 out++;
316 if (out EQ MAX_RR_STORED_PRIM)
317 out = 0;
318 }
319 }
320
321 /*
322 * nothing found
323 */
324 return FALSE;
325 }
326
327 /*
328 +---------------------------------------------------------------------------+
329 | PROJECT : GSM-PS (6147) MODULE : RR_SRV |
330 | STATE : code ROUTINE : srv_compare_used_frequency_bands |
331 +---------------------------------------------------------------------------+
332
333 PURPOSE : Looks at the frequency bands which were used and compares
334 them with the supported bands. Checks if the MA spans more
335 then one band (exception is the EGSM part).
336
337 */
338
339 LOCAL int srv_compare_used_frequency_bands (int frequency_bands_used)
340 {
341 int nr_of_frequency_bands_used;
342 switch(frequency_bands_used)
343 {
344 case LOW_BAND_USED:
345 if(std EQ STD_900 OR std EQ STD_EGSM OR std EQ STD_850 OR
346 std EQ STD_DUAL OR std EQ STD_DUAL_EGSM OR std EQ STD_DUAL_US
347 #ifdef TI_PS_FF_QUAD_BAND_SUPPORT
348 OR std EQ STD_850_1800 OR std EQ STD_900_1900 OR std EQ STD_850_900_1800 OR
349 std EQ STD_850_900_1900
350 #endif
351 )
352 nr_of_frequency_bands_used = 1;
353 else
354 nr_of_frequency_bands_used = 0;
355 break;
356 case HIGH_BAND_USED:
357 if(std EQ STD_1800 OR std EQ STD_1900 OR
358 std EQ STD_DUAL OR std EQ STD_DUAL_EGSM OR std EQ STD_DUAL_US
359 #ifdef TI_PS_FF_QUAD_BAND_SUPPORT
360 OR std EQ STD_850_1800 OR std EQ STD_900_1900 OR std EQ STD_850_900_1800 OR
361 std EQ STD_850_900_1900
362 #endif
363 )
364 nr_of_frequency_bands_used = 1;
365 else
366 nr_of_frequency_bands_used = 0;
367 break;
368 case EXT_BAND_USED:
369 case LOW_BAND_USED|EXT_BAND_USED:
370 if(std EQ STD_EGSM OR std EQ STD_DUAL_EGSM
371 #ifdef TI_PS_FF_QUAD_BAND_SUPPORT
372 OR std EQ STD_900_1900 OR std EQ STD_850_900_1800 OR std EQ STD_850_900_1900
373 #endif
374 )
375 nr_of_frequency_bands_used = 1;
376 else
377 nr_of_frequency_bands_used = 0;
378 break;
379 default:
380 nr_of_frequency_bands_used = 0;
381 break;
382 }
383
384 return nr_of_frequency_bands_used;
385 }
386
387 /*
388 +--------------------------------------------------------------------+
389 | PROJECT : GSM-PS (6147) MODULE : RR_SRV |
390 | STATE : code ROUTINE : srv_create_chan_mob_alloc |
391 +--------------------------------------------------------------------+
392
393 PURPOSE : create a frequency hopping list from channel list and
394 mobile allocation. The mobile allocation is a bitmap.
395 if the n-th bit of the mobile allocation is set to zero,
396 the n-th channel in the channel list is not member of the
397 frequency hopping list. If the n-th bit of the mobile
398 allocation is set to one, the n-th channel in the channel list
399 is member of the frequency hopping list.
400
401 e.g: channel list has the members 10,20,30,40,50,60,70 and
402 in the mobile allocation the bits 1,3 and 4 are set :
403
404 channel list: 10 20 30 40 50 60 70
405 mobile allocation: 0 1 0 1 1 0 0
406
407 that means the hopping list is 20, 40, 50.
408
409 The format of the mobile allocation is an UBYTE array with the
410 end identifier NOT_PRESENT_8BIT (0xFF).
411
412 The function returns TRUE if the Mobile Allocation is in one
413 frequency band. If the Mobile Allocation is spread over multiple
414 frequency bands FALSE is returned and the values returned are
415 invalid.
416
417 */
418
419 GLOBAL int srv_create_chan_mob_alloc (T_LIST *clist,
420 T_LIST *list,
421 UBYTE *mobile_alloc)
422 {
423 /*
424 * index in the mobile allocation list
425 */
426 USHORT ma_index = 0;
427 /*
428 * get value of the first bit which is set in the mobile allocation
429 */
430 UBYTE ma_value = mobile_alloc [ma_index++];
431 UBYTE x = 0;
432 UBYTE result;
433 USHORT arfcn;
434 UBYTE band_used;
435 UBYTE freq_band_used = 0;
436
437 TRACE_FUNCTION ("srv_create_chan_mob_alloc()");
438
439 /*
440 * clear the result list
441 */
442 srv_clear_list (list);
443
444 /*
445 * Check all Frequencies.
446 */
447 if(ma_value NEQ NOT_PRESENT_8BIT)
448 {
449 for (arfcn=LOW_CHANNEL_900; arfcn<HIGH_CHANNEL_EGSM; arfcn++)
450 {
451 result = srv_get_channel (clist, arfcn);
452 if (result)
453 {
454 x++;
455 }
456 if (x EQ ma_value)
457 {
458 band_used = for_check_frequency(arfcn);
459 if(band_used <= INVALID_BAND_USED)
460 return FALSE;
461
462 freq_band_used = freq_band_used | band_used;
463
464 srv_set_channel (list, arfcn);
465 ma_value = mobile_alloc [ma_index++];
466 if (ma_value EQ NOT_PRESENT_8BIT)
467 break;
468 }
469 }
470 }
471 else
472 {
473 TRACE_EVENT("Mobile Allocation list empty");
474 return FALSE;
475 }
476
477 /*
478 * at last add channel 0 if needed
479 */
480
481 if (ma_value NEQ NOT_PRESENT_8BIT)
482 {
483 result = srv_get_channel (clist, CHANNEL_0);
484 if (result)
485 {
486 x++;
487 }
488 if (x EQ ma_value)
489 {
490 srv_set_channel (list, CHANNEL_0);
491 band_used = for_check_frequency(CHANNEL_0);
492 if(band_used <= INVALID_BAND_USED)
493 return FALSE;
494 freq_band_used = freq_band_used | EXT_BAND_USED;
495 }
496 }
497
498 return srv_compare_used_frequency_bands(freq_band_used);
499
500 }
501
502
503 /*
504 +----------------------------------------------------------------------+
505 | PROJECT : GSM-PS (6147) MODULE : RR_SRV |
506 | STATE : code ROUTINE : srv_check_frequencies_in_list|
507 +----------------------------------------------------------------------+
508
509 PURPOSE : Checks used frequencies and returns. Returns number
510 of frequencies used.
511
512 */
513
514 GLOBAL int srv_check_frequencies_in_list(T_LIST *clist)
515 {
516 int frequency_bands_used = 0;
517 int i;
518
519 TRACE_FUNCTION ("srv_check_frequencies_in_list()");
520
521
522 /*
523 * Depending on the frequency standard
524 */
525 switch (std)
526 {
527 case STD_900:
528 case STD_EGSM:
529 case STD_1800:
530 case STD_DUAL:
531 case STD_DUAL_EGSM:
532 /*
533 * First check GSM 900
534 */
535 for (i=LOW_CHANNEL_900; i<=HIGH_CHANNEL_900; i++)
536 {
537 if (srv_get_channel (clist, i))
538 frequency_bands_used |= LOW_BAND_USED;
539 }
540
541 for (i=LOW_CHANNEL_1800; i<=HIGH_CHANNEL_1800; i++)
542 {
543 if (srv_get_channel (clist, i))
544 frequency_bands_used |= HIGH_BAND_USED;
545 }
546 for (i=LOW_CHANNEL_EGSM; i<HIGH_CHANNEL_EGSM; i++)
547 {
548 if (srv_get_channel (clist, i))
549 frequency_bands_used |= EXT_BAND_USED;
550 }
551 if (srv_get_channel (clist, CHANNEL_0))
552 frequency_bands_used |= EXT_BAND_USED;
553 break;
554 case STD_850:
555 case STD_1900:
556 case STD_DUAL_US:
557 for (i=LOW_CHANNEL_850; i<=HIGH_CHANNEL_850; i++)
558 {
559 if (srv_get_channel (clist, i))
560 frequency_bands_used |= LOW_BAND_USED;
561 }
562
563 for (i=LOW_CHANNEL_1900; i<=HIGH_CHANNEL_1900; i++)
564 {
565 if (srv_get_channel (clist, i))
566 frequency_bands_used |= HIGH_BAND_USED;
567 }
568 break;
569 #ifdef TI_PS_FF_QUAD_BAND_SUPPORT
570 case STD_850_1800:
571 for (i=LOW_CHANNEL_850; i<=HIGH_CHANNEL_850; i++)
572 {
573 if (srv_get_channel (clist, i))
574 frequency_bands_used |= LOW_BAND_USED;
575 }
576
577 for (i=LOW_CHANNEL_1800; i<=HIGH_CHANNEL_1800; i++)
578 {
579 if (srv_get_channel (clist, i))
580 frequency_bands_used |= HIGH_BAND_USED;
581 }
582 break;
583 case STD_900_1900:
584 for (i=LOW_CHANNEL_900; i<=HIGH_CHANNEL_900; i++)
585 {
586 if (srv_get_channel (clist, i))
587 frequency_bands_used |= LOW_BAND_USED;
588 }
589
590 for (i=LOW_CHANNEL_1900; i<=HIGH_CHANNEL_1900; i++)
591 {
592 if (srv_get_channel (clist, i))
593 frequency_bands_used |= HIGH_BAND_USED;
594 }
595 for (i=LOW_CHANNEL_EGSM; i<HIGH_CHANNEL_EGSM; i++)
596 {
597 if (srv_get_channel (clist, i))
598 frequency_bands_used |= EXT_BAND_USED;
599 }
600 if (srv_get_channel (clist, CHANNEL_0))
601 frequency_bands_used |= EXT_BAND_USED;
602 break;
603 case STD_850_900_1800:
604 for (i=LOW_CHANNEL_900; i<=HIGH_CHANNEL_900; i++)
605 {
606 if (srv_get_channel (clist, i))
607 frequency_bands_used |= LOW_BAND_USED;
608 }
609
610 for (i=LOW_CHANNEL_1800; i<=HIGH_CHANNEL_1800; i++)
611 {
612 if (srv_get_channel (clist, i))
613 frequency_bands_used |= HIGH_BAND_USED;
614 }
615 for (i=LOW_CHANNEL_EGSM; i<HIGH_CHANNEL_EGSM; i++)
616 {
617 if (srv_get_channel (clist, i))
618 frequency_bands_used |= EXT_BAND_USED;
619 }
620 for (i=LOW_CHANNEL_850; i<=HIGH_CHANNEL_850; i++)
621 {
622 if (srv_get_channel (clist, i))
623 frequency_bands_used |= LOW_BAND_USED;
624 }
625 if (srv_get_channel (clist, CHANNEL_0))
626 frequency_bands_used |= EXT_BAND_USED;
627 break;
628 case STD_850_900_1900:
629 for (i=LOW_CHANNEL_900; i<=HIGH_CHANNEL_900; i++)
630 {
631 if (srv_get_channel (clist, i))
632 frequency_bands_used |= LOW_BAND_USED;
633 }
634 for (i=LOW_CHANNEL_EGSM; i<HIGH_CHANNEL_EGSM; i++)
635 {
636 if (srv_get_channel (clist, i))
637 frequency_bands_used |= EXT_BAND_USED;
638 }
639 for (i=LOW_CHANNEL_850; i<=HIGH_CHANNEL_850; i++)
640 {
641 if (srv_get_channel (clist, i))
642 frequency_bands_used |= LOW_BAND_USED;
643 }
644 for (i=LOW_CHANNEL_1900; i<=HIGH_CHANNEL_1900; i++)
645 {
646 if (srv_get_channel (clist, i))
647 frequency_bands_used |= HIGH_BAND_USED;
648 }
649 if (srv_get_channel (clist, CHANNEL_0))
650 frequency_bands_used |= EXT_BAND_USED;
651 break;
652 #endif
653 default:
654 /*
655 * just for LINT
656 */
657 break;
658 }
659
660 return srv_compare_used_frequency_bands (frequency_bands_used);
661 }
662
663 /*
664 +--------------------------------------------------------------------+
665 | PROJECT : GSM-PS (6147) MODULE : RR_SRV |
666 | STATE : code ROUTINE : srv_remove_frequencies_in_array_gen |
667 +--------------------------------------------------------------------+
668
669 PURPOSE : The functions manipulates the neighbourcell list send to
670 layer 1. It filters out not supported frequencies or if
671 enabled allows to configure a band restriction, that means that
672 the mobile camps inside GSM 900 or DCS 1800. The band
673 restriction can be configured by a dynamic configuration
674 command.
675
676 */
677
678 GLOBAL UBYTE srv_remove_frequencies_in_array_gen (USHORT* arfcn_list, UBYTE c_arfcn_list)
679 {
680 GET_INSTANCE_DATA;
681 int in,out, ranges;
682 #ifdef TI_PS_FF_QUAD_BAND_SUPPORT
683 USHORT low[4], high[4];
684 #else
685 USHORT low[3], high[3];
686 #endif
687 UBYTE local_std = std;
688
689 TRACE_FUNCTION ("att_check_band_restrictions()");
690
691 in = out = ranges = 0;
692
693 memset (low, NOT_PRESENT_8BIT, sizeof (low));
694 memset (high, NOT_PRESENT_8BIT, sizeof (high));
695
696 if(rr_data->dyn_config.set_band)
697 {
698 /* set band is activated */
699 if (rr_data->dyn_config.set_band EQ 1) local_std = STD_900;
700 else if (rr_data->dyn_config.set_band EQ 2) local_std = STD_1800;
701 }
702
703 switch (local_std)
704 {
705 case STD_DUAL:
706 ranges=2;
707 low[0]=LOW_CHANNEL_1800;
708 low[1]=LOW_CHANNEL_900;
709 high[0]=HIGH_CHANNEL_1800;
710 high[1]=HIGH_CHANNEL_900;
711 break;
712 case STD_DUAL_EGSM:
713 /* shift the ranges to allow CHANNEL_0 */
714 ranges=3;
715 low[0]=LOW_CHANNEL_900-1;/*lint !e778 */
716 low[1]=LOW_CHANNEL_EGSM;
717 low[2]=LOW_CHANNEL_1800;
718 high[0]=HIGH_CHANNEL_900;
719 high[1]=HIGH_CHANNEL_EGSM-1;
720 high[2]=HIGH_CHANNEL_1800;
721 break;
722 case STD_DUAL_US:
723 ranges=2;
724 low[0]=LOW_CHANNEL_1900;
725 low[1]=LOW_CHANNEL_850;
726 high[0]=HIGH_CHANNEL_1900;
727 high[1]=HIGH_CHANNEL_850;
728 break;
729 case STD_EGSM:
730 low[0] = LOW_CHANNEL_EGSM;
731 low[1] = LOW_CHANNEL_900-1;/*lint !e778 */
732 high[0] = HIGH_CHANNEL_EGSM-1;
733 high[1] = HIGH_CHANNEL_900;
734 ranges=2;
735 break;
736 case STD_900:
737 low[0] = LOW_CHANNEL_900;
738 high[0] = HIGH_CHANNEL_900;
739 ranges=1;
740 break;
741 case STD_1800:
742 low[0] = LOW_CHANNEL_1800;
743 high[0] = HIGH_CHANNEL_1800;
744 ranges=1;
745 break;
746 case STD_1900:
747 low[0] = LOW_CHANNEL_1900;
748 high[0] = HIGH_CHANNEL_1900;
749 ranges=1;
750 break;
751 case STD_850:
752 low[0] = LOW_CHANNEL_850;
753 high[0] = HIGH_CHANNEL_850;
754 ranges=1;
755 break;
756 #ifdef TI_PS_FF_QUAD_BAND_SUPPORT
757 case STD_850_1800:
758 ranges=2;
759 low[0]=LOW_CHANNEL_1800;
760 low[1]=LOW_CHANNEL_850;
761 high[0]=HIGH_CHANNEL_1800;
762 high[1]=HIGH_CHANNEL_850;
763 break;
764 case STD_900_1900:
765 /* shift the ranges to allow CHANNEL_0 */
766 ranges=3;
767 low[0]=LOW_CHANNEL_900-1;/*lint !e778 */
768 low[1]=LOW_CHANNEL_EGSM;
769 low[2]=LOW_CHANNEL_1900;
770 high[0]=HIGH_CHANNEL_900;
771 high[1]=HIGH_CHANNEL_EGSM-1;
772 high[2]=HIGH_CHANNEL_1900;
773 break;
774 case STD_850_900_1800:
775 ranges=4;
776 low[0]=LOW_CHANNEL_900-1;/*lint !e778 */
777 low[1]=LOW_CHANNEL_EGSM;
778 low[2]=LOW_CHANNEL_1800;
779 low[3]=LOW_CHANNEL_850;
780 high[0]=HIGH_CHANNEL_900;
781 high[1]=HIGH_CHANNEL_EGSM-1;
782 high[2]=HIGH_CHANNEL_1800;
783 high[3]=HIGH_CHANNEL_850;
784 break;
785 case STD_850_900_1900:
786 ranges=4;
787 low[0]=LOW_CHANNEL_900-1;/*lint !e778 */
788 low[1]=LOW_CHANNEL_EGSM;
789 low[2]=LOW_CHANNEL_1900;
790 low[3]=LOW_CHANNEL_850;
791 high[0]=HIGH_CHANNEL_900;
792 high[1]=HIGH_CHANNEL_EGSM-1;
793 high[2]=HIGH_CHANNEL_1900;
794 high[3]=HIGH_CHANNEL_850;
795 break;
796 #endif
797 default:
798 /* default */
799 break;
800 }
801
802 if (ranges)
803 {
804 while (arfcn_list[in] NEQ NOT_PRESENT_16BIT AND
805 in < c_arfcn_list)
806 {
807 UBYTE r = ranges;
808 while(r)
809 {
810 if (INRANGE(low[r-1],arfcn_list[in],high[r-1]))
811 {
812 arfcn_list[out] = arfcn_list[in];
813 out++;
814 }
815 r--;
816 }
817 in++;
818 }
819 arfcn_list[out] = NOT_PRESENT_16BIT;
820 }
821
822 TRACE_EVENT_WIN_P2 ("%d of %d arfcn's removed", in - out, in);
823
824 return out;
825 }
826
827 /*
828 +--------------------------------------------------------------------+
829 | PROJECT : GSM-PS (6147) MODULE : RR_SRV |
830 | STATE : code ROUTINE : srv_remove_frequencies_in_array |
831 +--------------------------------------------------------------------+
832
833 PURPOSE : The functions manipulates the neighbourcell list send to
834 layer 1. It filters out not supported frequencies or if
835 enabled allows to configure a band restriction, that means that
836 the mobile camps inside GSM 900 or DCS 1800. The band
837 restriction can be configured by a dynamic configuration
838 command.
839
840 */
841
842 GLOBAL void srv_remove_frequencies_in_array (USHORT* arfcn_list)
843 {
844 srv_remove_frequencies_in_array_gen (arfcn_list, MAX_NEIGHBOURCELLS);
845 }
846
847 /*
848 +-------------------------------------------------------------+
849 | PROJECT : GSM-PS (6147) MODULE : RR_SRV |
850 | STATE : code ROUTINE : srv_trace_black_list|
851 +-------------------------------------------------------------+
852
853 PURPOSE : Traces Black list channels
854 */
855
856 GLOBAL void srv_trace_black_list()
857 {
858 GET_INSTANCE_DATA;
859 U8 i;
860 T_LIST *list;
861
862 /* Trace Black List Channels */
863 for(i=0;i<MAX_REGIONS;i++)
864 {
865 list = &rr_data->cs_data.black_list.list[i];
866
867 TRACE_EVENT_P1("Black List:[%d]Region",i);
868
869 srv_trace_freq_in_list(list);
870
871 }
872 }
873
874 /*
875 +--------------------------------------------------------------+
876 | PROJECT : GSM-PS (6147) MODULE : RR_SRV |
877 | STATE : code ROUTINE : srv_trace_white_list |
878 +--------------------------------------------------------------+
879
880 PURPOSE : Traces White list channels
881 */
882
883 GLOBAL void srv_trace_white_list()
884 {
885 GET_INSTANCE_DATA;
886 T_LIST *list;
887
888 /* Trace White List Channels */
889 if(rr_data->cs_data.white_list.region NEQ NOT_PRESENT_8BIT)
890 {
891 list = &rr_data->cs_data.white_list.list;
892
893 TRACE_EVENT_P9 ( "[%d]Reg [%d]SC MCC/MNC r=%x%x%x/%x%x%x/%d",
894 rr_data->cs_data.white_list.region,
895 rr_data->cs_data.white_list.last_sc_arfcn,
896 rr_data->cs_data.white_list.last_sc_lac.mcc[0],
897 rr_data->cs_data.white_list.last_sc_lac.mcc[1],
898 rr_data->cs_data.white_list.last_sc_lac.mcc[2],
899 rr_data->cs_data.white_list.last_sc_lac.mnc[0],
900 rr_data->cs_data.white_list.last_sc_lac.mnc[1],
901 rr_data->cs_data.white_list.last_sc_lac.mnc[2],
902 rr_data->cs_data.white_list.last_sc_lac.lac);
903
904 srv_trace_freq_in_list(list);
905 }
906 else
907 {
908 TRACE_EVENT("White List absent");
909 }
910
911 }
912
913 #if !defined(NTRACE)
914 #if 0
915
916 /*
917 +--------------------------------------------------------------------+
918 | PROJECT : GSM-PS (6147) MODULE : RR_ATT |
919 | STATE : code ROUTINE : srv_list_channels |
920 +--------------------------------------------------------------------+
921
922 PURPOSE : print list of channels to the trace interface.
923 */
924 #define SRV_LIST_CHANNELS_TMPBUFSIZE 80 /* sprintf is limited to 80 characters */
925 static char src_list_channels_tmpbuf[SRV_LIST_CHANNELS_TMPBUFSIZE];
926 #if defined(_SIMULATION_)
927 int sprintf( char *buffer, const char *format, ... );
928 #endif
929
930 GLOBAL void srv_list_channels (USHORT* channel_list, USHORT size, char* titel)
931 {
932 UBYTE i,o;
933
934 o = sprintf(src_list_channels_tmpbuf, "%s ", titel);
935 for (i = 0; i < size; i++)
936 if (channel_list[i] NEQ NOT_PRESENT_16BIT)
937 {
938 if (o>SRV_LIST_CHANNELS_TMPBUFSIZE-5)
939 {
940 TRACE_EVENT (src_list_channels_tmpbuf);
941 o = 0;
942 }
943 o += sprintf(src_list_channels_tmpbuf+o, "%u,", channel_list[i]);
944 }
945 if (o)
946 {
947 src_list_channels_tmpbuf[o-1] = 0;
948 TRACE_EVENT (src_list_channels_tmpbuf);
949 }
950 }
951 #endif /* !NTRACE */
952 #endif
953
954 #ifdef GPRS
955
956 /*
957 +--------------------------------------------------------------------+
958 | PROJECT : GSM-PS (6147) MODULE : RR_SRV |
959 | STATE : code ROUTINE : srv_get_cell_alloc_list |
960 +--------------------------------------------------------------------+
961
962 PURPOSE : Access function in RR to get cell alloc list. Needed by GRR to set
963 up hopping config.
964
965 */
966 /* called by GRR */
967 /*lint -esym(714,srv_get_cell_alloc_list) | Symbol not referenced */
968 /*lint -esym(765,srv_get_cell_alloc_list) | external could be made static */
969 GLOBAL void srv_get_cell_alloc_list (T_LIST * target_list)
970 {
971 GET_INSTANCE_DATA;
972 srv_merge_list ( target_list, &rr_data->sc_data.cd.cell_chan_desc );
973 }
974
975 #endif /* GPRS */
976
977 #if defined(ARRAY_TRACE)
978 GLOBAL void array_trace (UBYTE*array, int size, char *titel)
979 {
980 #define MAXCOL 80
981 static char buf[MAXCOL+1];
982 int col=0, n=0;
983 UBYTE b, nh, nl;
984
985 memset (buf, 0, MAXCOL+1);
986 TRACE_EVENT_P2 ("%s size=%u bytes", titel, size);
987 while (n < size)
988 {
989 if (col >= MAXCOL-3)
990 {
991 TRACE_EVENT (buf);
992 col = 0;
993 memset (buf, 0, MAXCOL+1);
994 }
995 b = array[n++];
996 nh = b>>4;
997 nl = b&0x0f;
998 buf[col++] = nh > 9 ? nh + 'A' - 10 : nh + '0';
999 buf[col++] = nl > 9 ? nl + 'A' - 10 : nl + '0';
1000 buf[col++] = ' ';
1001 }
1002 if (col)
1003 {
1004 TRACE_EVENT (buf);
1005 }
1006 }
1007 #endif /* ARRAY_TRACE */
1008
1009 #if defined (REL99) AND defined (TI_PS_FF_EMR) AND defined (GPRS)
1010 #ifdef GPRS
1011
1012 /*
1013 +--------------------------------------------------------------------+
1014 | PROJECT : GSM-PS (6147) MODULE : RR_SRV |
1015 | STATE : code ROUTINE : rr_get_support_for_emr |
1016 +--------------------------------------------------------------------+
1017
1018 PURPOSE : PS-EMR flag is enabled or not.
1019 */
1020 GLOBAL BOOL rr_get_support_for_emr(void)
1021 {
1022 GET_INSTANCE_DATA;
1023 if(rr_data->ms_data.enable_ps_emr EQ TRUE) /*for grr*/
1024 {
1025 return TRUE;
1026 }
1027
1028 return FALSE;
1029 }
1030
1031 #endif /*GPRS*/
1032 #endif
1033
1034 #endif /* !RR_SRV_C */