B.6 Multislot capabilities for Downlink Multi Carrier mobile stations

3GPP45.002GSM/EDGE Multiplexing and multiple access on the radio pathRelease 17TS

For mobile stations supporting DLMC configurations (see 3GPP TS 44.060), the multislot capability applicable to DLMC operation is dependent on the EGPRS (high) multislot class (see subclause B.1), on the Maximum number of downlink timeslots field (see 3GPP TS 24.008) and, if provided, on the Alternative EFTA multislot class field (see subclause B.5) as signalled by the mobile station as defined in Table B.2. Only mobile stations of multislot classes listed in Table B.2 can support DLMC. The equivalent multislot class does not apply for a mobile station supporting DLMC.

The values of Rx’ and Tx’ as defined in subclause B.4 apply for DLMC configurations.

The values of Sum’’ and Rx_Sum’’ apply for downlink DLMC configurations as defined below.

If the MS has not indicated support for Enhanced Flexible Timeslot Assignment (see 3GPP TS 24.008), then Rx’, Tx’ and Sum’’ correspond to Rx, Tx and Sum for the signalled multislot class and the switching times T_ta, T_tb, T_ra and T_rb of the signalled multislot class shall apply.

If the MS has indicated support for Enhanced Flexible Timeslot Assignment (see 3GPP TS 24.008), then Rx’, Tx’ and Sum’’, T_ta, T_tb, T_ra and T_rb all correspond to Rx, Tx, Sum, T_ta, T_tb, T_ra and T_rb respectively as defined in subclause B.5.Rx_Sum’ is given by the Maximum Number of downlink timeslots indicated by the MS (see 3GPP TS 24.008) and applies irrespective of whether EFTA operation is used or not.

Sum’’:

Sum’’ is the total number of uplink TS and downlink TS (on either radio frequency channel) that can be used by the MS per TDMA frame. The MS must be able to support all combinations of integer values of 1 <= dX <= Rx’, and u <= Tx’ TS where 1 <= dX + u <= Sum’ (depending on the services supported by the MS). dX can be either of [d1, d2 …., d15, d16] depending on the maximum number of carriers supported by the MS, see 3GPP TS 24.008.

Rx_Sum’:

Rx_Sum’ is the total number of downlink TS (assigned across, at most, the maximum number of carriers, , supported by the mobile, see 3GPP TS24.008), that can be received by the MS per TDMA frame. The MS must be able to support all combinations of integer values of dX where 1 <=  <= Rx_Sum’ (depending on the services supported by the MS).

Annex C (informative):
CTSBCH Timeslot shifting example

With the following parameters :

– TNI = 4

– TNSCN = 9

TNSCO = 1 i.e. (TNS1 = TNS_9,1 = (0, 3, 7, 6, 5, 2, 4, 1) and TNS2 = TNS_9,0 = (0, 1, 4, 5, 7, 3, 6, 2)

– x0 = 2

– x1 = 3

– x2 = 5

– x3 = 4

and the timeslot shifting algorithm defined in section 6.3.3, the CTSBCH TN used in set 0 of the shifting sequence is :

(FN div 52) mod 51 0 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17

TNS used 1 1 1 1 1 1 1 1 2 2 2 2 1 1 1 1 1 2

CTSBCH TN 4 1 0 3 7 6 5 2 0 1 4 5 2 4 1 0 3 6

(FN div 52) mod 51 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35

TNS used 2 2 1 1 2 2 2 2 2 2 2 2 1 1 1 1 1 1

CTSBCH TN 2 0 3 7 3 6 2 0 1 4 5 7 6 5 2 4 1 0

(FN div 52) mod 51 36 37 38 39 40 41 42 43 44 45 46 47 48 49 50

TNS used 2 2 2 2 2 1 1 1 2 2 2 2 1 1 1

CTSBCH TN 1 4 5 7 3 7 6 5 7 3 6 2 4 1 0

For the next sets, same mechanism applies, with

set 1 beginning with CTSBCH TN = 3

set 2 beginning with CTSBCH TN = 5

set 3 beginning with CTSBCH TN = 1

set 4 beginning with CTSBCH TN = 7

set 5 beginning with CTSBCH TN = 2

set 6 beginning with CTSBCH TN = 0

set 7 beginning with CTSBCH TN = 6

Annex D (informative):
COMPACT multiframe structure examples

In the figures, the 52-multiframe number (MFN) shall have a range of 0 to 3 and can be calculated from the TDMA frame number (FN) as follows:

MFN = (FN div 52) mod 4

For COMPACT, timeslot mapping and rotation of the control channels is used such that control channels belonging to a serving time group are rotated over odd timeslot numbers as follows: 7, 5, 3, 1, 7, 5,  . The rotation occurs between frame numbers (FN) mod 52 = 3 and 4. The timeslot mapping and rotation of the control channels in this manner allows the mobile station to measure the received signal level from surrounding cells in its normal measurement window. Since the rotation repeats itself every 208 frames, the 52-multiframe number (MFN) allows the mobile station to determine its location in the time group rotation during selection and re-selection.

The following relates to Figures D.1 through D.7:

i) B(x)^y = time group y uses CPBCCH in block x;

ii) C(x)^y = time group y uses CPCCCH in block x;

iii) PTCCH = PTCCH as norma;

iv) CFCCH^y = time group y uses CFCCH;

v) CSCH^y = time group y uses CSCH;

vi) IDLE = idle burst;

vii) X^y = block designated as idle for time group y;

viii) Empty = used for traffic as normal.

	Frames 0-51 of a 208-multiframe									Frames 0-51 of a 208-multiframe									Frames 0-51 of a 208-multiframe									Frames 0-51 of a 208-multiframe
	MFN = 0									MFN = 0									MFN = 0									MFN = 0
	TG = 0									TG = 1									TG = 2									TG = 3
TS FN	0	1	2	3	4	5	6	7	TS FN	0	1	2	3	4	5	6	7	TS FN	0	1	2	3	4	5	6	7	TS FN	0	1	2	3	4	5	6	7
0		B(0)0		X1		X2		X3	0		X0		B(0)1		X2		X3	0		X0		X1		B(0)2		X3	0		X0		X1		X2		B(0)3
1		B(0)0		X1		X2		X3	1		X0		B(0)1		X2		X3	1		X0		X1		B(0)2		X3	1		X0		X1		X2		B(0)3
2		B(0)0		X1		X2		X3	2		X0		B(0)1		X2		X3	2		X0		X1		B(0)2		X3	2		X0		X1		X2		B(0)3
3		B(0)0		X1		X2		X3	3		X0		B(0)1		X2		X3	3		X0		X1		B(0)2		X3	3		X0		X1		X2		B(0)3
4									4									4									4
5									5									5									5
6									6									6									6
7									7									7									7
8									8									8									8
9									9									9									9
10									10									10									10
11									11									11									11
12	PTCCH								12	PTCCH								12	PTCCH								12	PTCCH
13		X1		X2		X3		C(3)0	13		C(3)1		X2		X3		X0	13		X1		C(3)2		X3		X0	13		X1		X2		C(3)3		X0
14		X1		X2		X3		C(3)0	14		C(3)1		X2		X3		X0	14		X1		C(3)2		X3		X0	14		X1		X2		C(3)3		X0
15		X1		X2		X3		C(3)0	15		C(3)1		X2		X3		X0	15		X1		C(3)2		X3		X0	15		X1		X2		C(3)3		X0
16		X1		X2		X3		C(3)0	16		C(3)1		X2		X3		X0	16		X1		C(3)2		X3		X0	16		X1		X2		C(3)3		X0
17									17									17									17
18									18									18									18
19									19									19									19
20									20									20									20
21									21									21									21
22									22									22									22
23									23									23									23
24									24									24									24
25	IDLE							CFCCH0	25	ID	CFCCH1	IDLE						25	IDLE			CFCCH2	IDLE				25	IDLE					CFCCH3	IDLE
26		X1		X2		X3		C(6)0	26		C(6)1		X2		X3		X0	26		X1		C(6)2		X3		X0	26		X1		X2		C(6)3		X0
27		X1		X2		X3		C(6)0	27		C(6)1		X2		X3		X0	27		X1		C(6)2		X3		X0	27		X1		X2		C(6)3		X0
28		X1		X2		X3		C(6)0	28		C(6)1		X2		X3		X0	28		X1		C(6)2		X3		X0	28		X1		X2		C(6)3		X0
29		X1		X2		X3		C(6)0	29		C(6)1		X2		X3		X0	29		X1		C(6)2		X3		X0	29		X1		X2		C(6)3		X0
30									30									30									30
31									31									31									31
32									32									32									32
33									33									33									33
34									34									34									34
35									35									35									35
36									36									36									36
37									37									37									37
38	PTCCH								38	PTCCH								38	PTCCH								38	PTCCH
39		X1		X2		X3		C(9)0	39		C(9)1		X2		X3		X0	39		X1		C(9)2		X3		X0	39		X1		X2		C(9)3		X0
40		X1		X2		X3		C(9)0	40		C(9)1		X2		X3		X0	40		X1		C(9)2		X3		X0	40		X1		X2		C(9)3		X0
41		X1		X2		X3		C(9)0	41		C(9)1		X2		X3		X0	41		X1		C(9)2		X3		X0	41		X1		X2		C(9)3		X0
42		X1		X2		X3		C(9)0	42		C(9)1		X2		X3		X0	42		X1		C(9)2		X3		X0	42		X1		X2		C(9)3		X0
43									43									43									43
44									44									44									44
45									45									45									45
46									46									46									46
47									47									47									47
48									48									48									48
49									49									49									49
50									50									50									50
51	IDLE							CSCH0	51	ID	CSCH1	IDLE						51	IDLE			CSCH2	IDLE				51	IDLE					CSCH3	IDLE

Figure D.1: COMPACT downlink 52-multiframe structure using 4 time groups for nominal cells (based on an assignment of 1 CPBCCH and 3 CPCCCHs with NIB_CCCH_0 = NIB_CCCH_1 = NIB_CCCH_2 = NIB_CCCH_3 = 4). NIB_CCCH is not broadcast for serving cell time group

NOTE: For uplink 52-multiframe structure (based on an assignment of 16 prioritized CPRACHs, see subclause 6.3.2.2.3a), replace B( ) by R( ) where R( ) denotes CPRACH, move down one block, and rotate according to subclause 6.3.2.1. Replace C( ) by R( ) and move down one block. CPRACH in general can be mapped as PRACH in table 6 of clause 7.

	Frames 0-51 of a 208-multiframe									Frames 0-51 of a 208-multiframe									Frames 0-51 of a 208-multiframe
	MFN = 0									MFN = 0									MFN = 0
	TG = 0									TG = 1									TG = 2
TS FN	0	1	2	3	4	5	6	7	TS FN	0	1	2	3	4	5	6	7	TS FN	0	1	2	3	4	5	6	7
0		B(0)0		X1		X2			0		X0		B(0)1		X2			0		X0		X1		B(0)2
1		B(0)0		X1		X2			1		X0		B(0)1		X2			1		X0		X1		B(0)2
2		B(0)0		X1		X2			2		X0		B(0)1		X2			2		X0		X1		B(0)2
3		B(0)0		X1		X2			3		X0		B(0)1		X2			3		X0		X1		B(0)2
4									4									4
5									5									5
6									6									6
7									7									7
8									8									8
9									9									9
10									10									10
11									11									11
12	PTCCH								12	PTCCH								12	PTCCH
13		X1		X2				C(3)0	13		C(3)1		X2				X0	13		X1		C(3)2				X0
14		X1		X2				C(3)0	14		C(3)1		X2				X0	14		X1		C(3)2				X0
15		X1		X2				C(3)0	15		C(3)1		X2				X0	15		X1		C(3)2				X0
16		X1		X2				C(3)0	16		C(3)1		X2				X0	16		X1		C(3)2				X0
17									17									17
18									18									18
19									19									19
20									20									20
21									21									21
22									22									22
23									23									23
24									24									24
25	IDLE							CFCCH0	25	ID	CFCCH1	IDLE						25	IDLE			CFCCH2	IDLE
26		X1		X2				C(6)0	26		C(6)1		X2				X0	26		X1		C(6)2				X0
27		X1		X2				C(6)0	27		C(6)1		X2				X0	27		X1		C(6)2				X0
28		X1		X2				C(6)0	28		C(6)1		X2				X0	28		X1		C(6)2				X0
29		X1		X2				C(6)0	29		C(6)1		X2				X0	29		X1		C(6)2				X0
30									30									30
31									31									31
32									32									32
33									33									33
34									34									34
35									35									35
36									36									36
37									37									37
38	PTCCH								38	PTCCH								38	PTCCH
39		X1		X2				C(9)0	39		C(9)1		X2				X0	39		X1		C(9)2				X0
40		X1		X2				C(9)0	40		C(9)1		X2				X0	40		X1		C(9)2				X0
41		X1		X2				C(9)0	41		C(9)1		X2				X0	41		X1		C(9)2				X0
42		X1		X2				C(9)0	42		C(9)1		X2				X0	42		X1		C(9)2				X0
43									43									43
44									44									44
45									45									45
46									46									46
47									47									47
48									48									48
49									49									49
50									50									50
51	IDLE							CSCH0	51	ID	CSCH1	IDLE						51	IDLE			CSCH2	IDLE

Figure D.2: COMPACT downlink 52-multiframe structure using 3 time groups for nominal cells (based on an assignment of 1 CPBCCH and 3 CPCCCHs with NIB_CCCH_0 = NIB_CCCH_1 = NIB_CCCH_2 = 4, NIB_CCCH_3 = 0). NIB_CCCHis not broadcast for serving cell time group

NOTE: For uplink 52-multiframe structure (based on an assignment of 16 prioritized CPRACHs, see subclause 6.3.2.2.3a), replace B( ) by R( ) where R( ) denotes CPRACH, move down one block, and rotate according to subclause 6.3.2.1. Replace C( ) by R( ) and move down one block. CPRACH in general can be mapped as PRACH in table 6 of clause 7.

Frames 0-51 of a 208-multiframe

Frames 0-51 of a 208-multiframe

Frames 0-51 of a 208-multiframe

Frames 0-51 of a 208-multiframe

MFN = 0

MFN = 0

MFN = 0

MFN = 0

TG = 0

TG = 1

TG = 2

TG = 3

TS FN

0

1

2

3

4

5

6

7

TS FN

0

1

2

3

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TS FN

0

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TS FN

0

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0

X3

B(0)0

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0

X0

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B(0)1

X2

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0

X0

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X1

X1

X1

B(0)2

X3

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0

X0

X0

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X1

X2

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B(0)3

1

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B(0)0

X1

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1

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B(0)1

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1

X0

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B(0)2

X3

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1

X0

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B(0)3

2

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B(0)0

X1

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2

X0

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B(0)1

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B(0)2

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B(0)3

3

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B(0)0

X1

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3

X0

X0

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B(0)1

X2

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3

X0

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B(0)2

X3

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3

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B(0)3

4

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PTCCH

12

PTCCH

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PTCCH

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PTCCH

13

X1

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X3

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C(3)0

13

X0

C(3)1

X2

X2

X3

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X0

X0

13

X1

X1

X1

C(3)2

X3

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X0

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13

X1

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X2

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C(3)3

X0

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14

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C(3)0

14

X0

C(3)1

X2

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14

X1

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C(3)2

X3

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14

X1

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C(3)3

X0

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15

X1

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C(3)0

15

X0

C(3)1

X2

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15

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C(3)2

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15

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C(3)3

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16

X1

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C(3)0

16

X0

C(3)1

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16

X1

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C(3)2

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C(3)3

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IDLE

CFCCH0

25

ID

CFCCH1

IDLE

25

IDLE

CFCCH2

IDLE

25

IDLE

CFCCH3

IDLE

26

X1

X1

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C(6)0

26

X0

C(6)1

X2

X2

X3

X3

X0

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26

X1

X1

X1

C(6)2

X3

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26

X1

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C(6)3

X0

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27

X1

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C(6)0

27

X0

C(6)1

X2

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X0

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27

X1

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C(6)2

X3

X3

X0

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27

X1

X1

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C(6)3

X0

X0

28

X1

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C(6)0

28

X0

C(6)1

X2

X2

X3

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X0

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28

X1

X1

X1

C(6)2

X3

X3

X0

X0

28

X1

X1

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C(6)3

X0

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29

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C(6)0

29

X0

C(6)1

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29

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X1

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C(6)2

X3

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29

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C(6)3

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PTCCH

38

PTCCH

38

PTCCH

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PTCCH

39

X1

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C(9)0

39

X0

C(9)1

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39

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C(9)2

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39

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C(9)3

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40

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C(9)0

40

X0

C(9)1

X2

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X3

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40

X1

X1

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C(9)2

X3

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40

X1

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C(9)3

X0

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41

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C(9)0

41

X0

C(9)1

X2

X2

X3

X3

X0

X0

41

X1

X1

X1

C(9)2

X3

X3

X0

X0

41

X1

X1

X2

X2

X2

C(9)3

X0

X0

42

X1

X1

X2

X2

X3

X3

X3

C(9)0

42

X0

C(9)1

X2

X2

X3

X3

X0

X0

42

X1

X1

X1

C(9)2

X3

X3

X0

X0

42

X1

X1

X2

X2

X2

C(9)3

X0

X0

43

43

43

43

44

44

44

44

45

45

45

45

46

46

46

46

47

47

47

47

48

48

48

48

49

49

49

49

50

50

50

50

51

IDLE

CSCH0

51

ID

CSCH1

IDLE

51

IDLE

CSCH2

IDLE

51

IDLE

CSCH3

IDLE

Figure D.3: COMPACT downlink 52-multiframe structure using 4 time groups for large cells (based on an assignment of 1 CPBCCH and 3 CPCCCHs with NIB_CCCH_0 = NIB_CCCH_1 = NIB_CCCH_2 = NIB_CCCH_3 = 4). NIB_CCCH is not broadcast for serving cell time group

NOTE: For uplink 52-multiframe structure (based on an assignment of 16 prioritized CPRACHs, see subclause 6.3.2.2.3a), replace B( ) by R( ) where R( ) denotes CPRACH, move down one block, and rotate according to subclause 6.3.2.1. Replace C( ) by R( ) and move down one block. CPRACH in general can be mapped as PRACH in table 6 of clause 7.

Frames 0-51 of a 208-multiframe

Frames 0-51 of a 208-multiframe

Frames 0-51 of a 208-multiframe

MFN = 0

MFN = 0

MFN = 0

TG = 0

TG = 1

TG = 2

TS FN

0

1

2

3

4

5

6

7

TS FN

0

1

2

3

4

5

6

7

TS FN

0

1

2

3

4

5

6

7

0

B(0)0

X1

X1

X12

X2

X2

0

X0

X0

X0

B(0)1

X2

X2

X2

0

X0

X0

X01

X1

X1

B(0)2

1

B(0)0

X1

X1

X12

X2

X2

1

X0

X0

X0

B(0)1

X2

X2

X2

1

X0

X0

X01

X1

X1

B(0)2

2

B(0)0

X1

X1

X12

X2

X2

2

X0

X0

X0

B(0)1

X2

X2

X2

2

X0

X0

X01

X1

X1

B(0)2

3

B(0)0

X1

X1

X12

X2

X2

3

X0

X0

X0

B(0)1

X2

X2

X2

3

X0

X0

X01

X1

X1

B(0)2

4

4

4

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5

5

6

6

6

7

7

7

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9

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10

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11

11

12

PTCCH

12

PTCCH

12

PTCCH

13

X1

X1

X12

X2

X2

C(3)0

13

X0

C(3)1

X2

X2

X2

X0

X0

13

X01

X1

X1

C(3)2

X0

X0

14

X1

X1

X12

X2

X2

C(3)0

14

X0

C(3)1

X2

X2

X2

X0

X0

14

X01

X1

X1

C(3)2

X0

X0

15

X1

X1

X12

X2

X2

C(3)0

15

X0

C(3)1

X2

X2

X2

X0

X0

15

X01

X1

X1

C(3)2

X0

X0

16

X1

X1

X12

X2

X2

C(3)0

16

X0

C(3)1

X2

X2

X2

X0

X0

16

X01

X1

X1

C(3)2

X0

X0

17

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19

20

20

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IDLE

CFCCH0

25

ID

CFCCH1

IDLE

25

IDLE

CFCCH2

IDLE

26

X1

X1

X12

X2

X2

C(6)0

26

X0

C(6)1

X2

X2

X2

X0

X0

26

X01

X1

X1

C(6)2

X0

X0

27

X1

X1

X12

X2

X2

C(6)0

27

X0

C(6)1

X2

X2

X2

X0

X0

27

X01

X1

X1

C(6)2

X0

X0

28

X1

X1

X12

X2

X2

C(6)0

28

X0

C(6)1

X2

X2

X2

X0

X0

28

X01

X1

X1

C(6)2

X0

X0

29

X1

X1

X12

X2

X2

C(6)0

29

X0

C(6)1

X2

X2

X2

X0

X0

29

X01

X1

X1

C(6)2

X0

X0

30

30

30

31

31

31

32

32

32

33

33

33

34

34

34

35

35

35

36

36

36

37

37

37

38

PTCCH

38

PTCCH

38

PTCCH

39

X1

X1

X12

X2

X2

C(9)0

39

X0

C(9)1

X2

X2

X2

X0

X0

39

X01

X1

X1

C(9)2

X0

X0

40

X1

X1

X12

X2

X2

C(9)0

40

X0

C(9)1

X2

X2

X2

X0

X0

40

X01

X1

X1

C(9)2

X0

X0

41

X1

X1

X12

X2

X2

C(9)0

41

X0

C(9)1

X2

X2

X2

X0

X0

41

X01

X1

X1

C(9)2

X0

X0

42

X1

X1

X12

X2

X2

C(9)0

42

X0

C(9)1

X2

X2

X2

X0

X0

42

X01

X1

X1

C(9)2

X0

X0

43

43

43

44

44

44

45

45

45

46

46

46

47

47

47

48

48

48

49

49

49

50

50

50

51

IDLE

CSCH0

51

ID

CSCH1

IDLE

51

IDLE

CSCH2

IDLE

Figure D.4: COMPACT downlink 52-multiframe structure using 3 time groups for large cells (based on an assignment of 1 CPBCCH and 3 CPCCCHs with NIB_CCCH_0 = NIB_CCCH_1 = NIB_CCCH_2 = 4, NIB_CCCH_3 = 0). NIB_CCCH is not broadcast for serving cell time group

NOTE: For uplink 52-multiframe structure (based on an assignment of 16 prioritized CPRACHs, see subclause 6.3.2.2.3a), replace B( ) by R( ) where R( ) denotes CPRACH, move down one block, and rotate according to subclause 6.3.2.1. Replace C( ) by R( ) and move down one block. CPRACH in general can be mapped as PRACH in table 6 of clause 7.

	Frames 0-51 of a 208-multiframe									Frames 52-103 of a 208-multiframe									Frames 104-155 of a 208-multiframe									Frames 156-207 of a 208-multiframe
	MFN = 0									MFN = 1									MFN = 2									MFN = 3
TS FN	0	1	2	3	4	5	6	7	TS FN	0	1	2	3	4	5	6	7	TS FN	0	1	2	3	4	5	6	7	TS FN	0	1	2	3	4	5	6	7
0		B(0)0		X1		X2		X3	52		X1		X2		X3		B(0)0	104		X2		X3		B(0)0		X1	156		X3		B(0)0		X1		X2
1		B(0)0		X1		X2		X3	53		X1		X2		X3		B(0)0	105		X2		X3		B(0)0		X1	157		X3		B(0)0		X1		X2
2		B(0)0		X1		X2		X3	54		X1		X2		X3		B(0)0	106		X2		X3		B(0)0		X1	158		X3		B(0)0		X1		X2
3		B(0)0		X1		X2		X3	55		X1		X2		X3		B(0)0	107		X2		X3		B(0)0		X1	159		X3		B(0)0		X1		X2
4									56									108									160
5									57									109									161
6									58									110									162
7									59									111									163
8									60									112									164
9									61									113									165
10									62									114									166
11									63									115									167
12	PTCCH								64	PTCCH								116	PTCCH								168	PTCCH
13		X1		X2		X3		C(3)0	65		X2		X3		C(3)0		X1	117		X3		C(3)0		X1		X2	169		C(3)0		X1		X2		X3
14		X1		X2		X3		C(3)0	66		X2		X3		C(3)0		X1	118		X3		C(3)0		X1		X2	170		C(3)0		X1		X2		X3
15		X1		X2		X3		C(3)0	67		X2		X3		C(3)0		X1	119		X3		C(3)0		X1		X2	171		C(3)0		X1		X2		X3
16		X1		X2		X3		C(3)0	68		X2		X3		C(3)0		X1	120		X3		C(3)0		X1		X2	172		C(3)0		X1		X2		X3
17									69									121									173
18									70									122									174
19									71									123									175
20									72									124									176
21									73									125									177
22									74									126									178
23									75									127									179
24									76									128									180
25	IDLE							CFCCH0	77	IDLE					CFCCH1	IDLE		129	IDLE			CFCCH2	IDLE				181	ID	CFCCH3	IDLE
26		X1		X2		X3		C(6)0	78		X2		X3		C(6)0		X1	130		X3		C(6)0		X1		X2	182		C(6)0		X1		X2		X3
27		X1		X2		X3		C(6)0	79		X2		X3		C(6)0		X1	131		X3		C(6)0		X1		X2	183		C(6)0		X1		X2		X3
28		X1		X2		X3		C(6)0	80		X2		X3		C(6)0		X1	132		X3		C(6)0		X1		X2	184		C(6)0		X1		X2		X3
29		X1		X2		X3		C(6)0	81		X2		X3		C(6)0		X1	133		X3		C(6)0		X1		X2	185		C(6)0		X1		X2		X3
30									82									134									186
31									83									135									187
32									84									136									188
33									85									137									189
34									86									138									190
35									87									139									191
36									88									140									192
37									89									141									193
38	PTCCH								90	PTCCH								142	PTCCH								194	PTCCH
39		X1		X2		X3		C(9)0	91		X2		X3		C(9)0		X1	143		X3		C(9)0		X1		X2	195		C(9)0		X1		X2		X3
40		X1		X2		X3		C(9)0	92		X2		X3		C(9)0		X1	144		X3		C(9)0		X1		X2	196		C(9)0		X1		X2		X3
41		X1		X2		X3		C(9)0	93		X2		X3		C(9)0		X1	145		X3		C(9)0		X1		X2	197		C(9)0		X1		X2		X3
42		X1		X2		X3		C(9)0	94		X2		X3		C(9)0		X1	146		X3		C(9)0		X1		X2	198		C(9)0		X1		X2		X3
43									95									147									199
44									96									148									200
45									97									149									201
46									98									150									202
47									99									151									203
48									100									152									204
49									101									153									205
50									102									154									206
51	IDLE							CSCH0	103	IDLE					CSCH1	IDLE		155	IDLE			CSCH2	IDLE				207	ID	CSCH3	IDLE

Figure D.5: Example of COMPACT downlink timeslot mapping and rotation of control channels using 4 time groups for nominal cells (based on an assignment of 1 CPBCCH and 3 CPCCCHs with NIB_CCCH_0 = NIB_CCCH_1 = NIB_CCCH_2 = NIB_CCCH_3 = 4). TG = 0 is illustrated. NIB_CCCH is not broadcast for serving cell time group

NOTE: For uplink 52-multiframe structure (based on an assignment of 16 prioritized CPRACHs, see subclause 6.3.2.2.3a), replace B( ) by R( ) where R( ) denotes CPRACH, move down one block, and rotate according to subclause 6.3.2.1. Replace C( ) by R( ) and move down one block. CPRACH in general can be mapped as PRACH in table 6 of clause 7.

	Frames 0-51 of a 208-multiframe									Frames 52-103 of a 208-multiframe									Frames 104-155 of a 208-multiframe									Frames 156-207 of a 208-multiframe
	MFN = 0									MFN = 1									MFN = 2									MFN = 3
TS FN	0	1	2	3	4	5	6	7	TS FN	0	1	2	3	4	5	6	7	TS FN	0	1	2	3	4	5	6	7	TS FN	0	1	2	3	4	5	6	7
0		B(0)0		X1		X2			52		X1		X2				B(0)0	104		X2				B(0)0		X1	156				B(0)0		X1		X2
1		B(0)0		X1		X2			53		X1		X2				B(0)0	105		X2				B(0)0		X1	157				B(0)0		X1		X2
2		B(0)0		X1		X2			54		X1		X2				B(0)0	106		X2				B(0)0		X1	158				B(0)0		X1		X2
3		B(0)0		X1		X2			55		X1		X2				B(0)0	107		X2				B(0)0		X1	159				B(0)0		X1		X2
4									56									108									160
5									57									109									161
6									58									110									162
7									59									111									163
8									60									112									164
9									61									113									165
10									62									114									166
11									63									115									167
12	PTCCH								64	PTCCH								116	PTCCH								168	PTCCH
13		X1		X2				C(3)0	65		X2				C(3)0		X1	117				C(3)0		X1		X2	169		C(3)0		X1		X2
14		X1		X2				C(3)0	66		X2				C(3)0		X1	118				C(3)0		X1		X2	170		C(3)0		X1		X2
15		X1		X2				C(3)0	67		X2				C(3)0		X1	119				C(3)0		X1		X2	171		C(3)0		X1		X2
16		X1		X2				C(3)0	68		X2				C(3)0		X1	120				C(3)0		X1		X2	172		C(3)0		X1		X2
17									69									121									173
18									70									122									174
19									71									123									175
20									72									124									176
21									73									125									177
22									74									126									178
23									75									127									179
24									76									128									180
25	IDLE							CFCCH0	77	IDLE					CFCCH1	IDLE		129	IDLE			CFCCH2	IDLE				181	ID	CFCCH3	IDLE
26		X1		X2				C(6)0	78		X2				C(6)0		X1	130				C(6)0		X1		X2	182		C(6)0		X1		X2
27		X1		X2				C(6)0	79		X2				C(6)0		X1	131				C(6)0		X1		X2	183		C(6)0		X1		X2
28		X1		X2				C(6)0	80		X2				C(6)0		X1	132				C(6)0		X1		X2	184		C(6)0		X1		X2
29		X1		X2				C(6)0	81		X2				C(6)0		X1	133				C(6)0		X1		X2	185		C(6)0		X1		X2
30									82									134									186
31									83									135									187
32									84									136									188
33									85									137									189
34									86									138									190
35									87									139									191
36									88									140									192
37									89									141									193
38	PTCCH								90	PTCCH								142	PTCCH								194	PTCCH
39		X1		X2				C(9)0	91		X2				C(9)0		X1	143				C(9)0		X1		X2	195		C(9)0		X1		X2
40		X1		X2				C(9)0	92		X2				C(9)0		X1	144				C(9)0		X1		X2	196		C(9)0		X1		X2
41		X1		X2				C(9)0	93		X2				C(9)0		X1	145				C(9)0		X1		X2	197		C(9)0		X1		X2
42		X1		X2				C(9)0	94		X2				C(9)0		X1	146				C(9)0		X1		X2	198		C(9)0		X1		X2
43									95									147									199
44									96									148									200
45									97									149									201
46									98									150									202
47									99									151									203
48									100									152									204
49									101									153									205
50									102									154									206
51	IDLE							CSCH0	103	IDLE					CSCH1	IDLE		155	IDLE			CSCH2	IDLE				207	ID	CSCH3	IDLE

Figure D.6: Example of COMPACT downlink timeslot mapping and rotation of control channels using 3 time groups for nominal cells (based on an assignment of 1 CPBCCH and 3 CPCCCHs with NIB_CCCH_0 = NIB_CCCH_1 = NIB_CCCH_2 = 4, NIB_CCCH_3 = 0). TG = 0 is illustrated. NIB_CCCH is not broadcast for serving cell time group

NOTE: For uplink 52-multiframe structure (based on an assignment of 16 prioritized CPRACHs, see subclause 6.3.2.2.3a), replace B( ) by R( ) where R( ) denotes CPRACH, move down one block, and rotate according to subclause 6.3.2.1. Replace C( ) by R( ) and move down one block. CPRACH in general can be mapped as PRACH in table 6 of clause 7.

	Frames 0-51 of a 208-multiframe									Frames 52-103 of a 208-multiframe									Frames 104-155 of a 208-multiframe									Frames 156-207 of a 208-multiframe
	MFN = 0									MFN = 1									MFN = 2									MFN = 3
TS FN	0	1	2	3	4	5	6	7	TS FN	0	1	2	3	4	5	6	7	TS FN	0	1	2	3	4	5	6	7	TS FN	0	1	2	3	4	5	6	7
0		B(0)0		X1		X2		X3	52		X1		X2		X3		B(0)0	104		X2		X3		B(0)0		X1	156		X3		B(0)0		X1		X2
1		B(0)0		X1		X2		X3	53		X1		X2		X3		B(0)0	105		X2		X3		B(0)0		X1	157		X3		B(0)0		X1		X2
2		B(0)0		X1		X2		X3	54		X1		X2		X3		B(0)0	106		X2		X3		B(0)0		X1	158		X3		B(0)0		X1		X2
3		B(0)0		X1		X2		X3	55		X1		X2		X3		B(0)0	107		X2		X3		B(0)0		X1	159		X3		B(0)0		X1		X2
4		X1							56								X1	108						X1			160				X1
5		X1							57								X1	109						X1			161				X1
6		X1							58								X1	110						X1			162				X1
7		X1							59								X1	111						X1			163				X1
8									60									112									164
9									61									113									165
10									62									114									166
11									63									115									167
12	PTCCH								64	PTCCH								116	PTCCH								168	PTCCH
13		X1		X2		X3		C(3)0	65		X2		X3		C(3)0		X1	117		X3		C(3)0		X1		X2	169		C(3)0		X1		X2		X3
14		X1		X2		X3		C(3)0	66		X2		X3		C(3)0		X1	118		X3		C(3)0		X1		X2	170		C(3)0		X1		X2		X3
15		X1		X2		X3		C(3)0	67		X2		X3		C(3)0		X1	119		X3		C(3)0		X1		X2	171		C(3)0		X1		X2		X3
16		X1		X2		X3		C(3)0	68		X2		X3		C(3)0		X1	120		X3		C(3)0		X1		X2	172		C(3)0		X1		X2		X3
17									69									121									173
18									70									122									174
19									71									123									175
20									72									124									176
21									73									125									177
22									74									126									178
23									75									127									179
24									76									128									180
25	IDLE							CFCCH0	77	IDLE					CFCCH1	IDLE		129	IDLE			CFCCH2	IDLE				181	ID	CFCCH3	IDLE
26		X1		X2		X3		C(6)0	78		X2		X3		C(6)0		X1	130		X3		C(6)0		X1		X2	182		C(6)0		X1		X2		X3
27		X1		X2		X3		C(6)0	79		X2		X3		C(6)0		X1	131		X3		C(6)0		X1		X2	183		C(6)0		X1		X2		X3
28		X1		X2		X3		C(6)0	80		X2		X3		C(6)0		X1	132		X3		C(6)0		X1		X2	184		C(6)0		X1		X2		X3
29		X1		X2		X3		C(6)0	81		X2		X3		C(6)0		X1	133		X3		C(6)0		X1		X2	185		C(6)0		X1		X2		X3
30									82									134									186
31									83									135									187
32									84									136									188
33									85									137									189
34									86									138									190
35									87									139									191
36									88									140									192
37									89									141									193
38	PTCCH								90	PTCCH								142	PTCCH								194	PTCCH
39		X1		X2		X3		C(9)0	91		X2		X3		C(9)0		X1	143		X3		C(9)0		X1		X2	195		C(9)0		X1		X2		X3
40		X1		X2		X3		C(9)0	92		X2		X3		C(9)0		X1	144		X3		C(9)0		X1		X2	196		C(9)0		X1		X2		X3
41		X1		X2		X3		C(9)0	93		X2		X3		C(9)0		X1	145		X3		C(9)0		X1		X2	197		C(9)0		X1		X2		X3
42		X1		X2		X3		C(9)0	94		X2		X3		C(9)0		X1	146		X3		C(9)0		X1		X2	198		C(9)0		X1		X2		X3
43									95									147									199
44									96									148									200
45									97									149									201
46									98									150									202
47									99									151									203
48									100									152									204
49									101									153									205
50									102									154									206
51	IDLE							CSCH0	103	IDLE					CSCH1	IDLE		155	IDLE			CSCH2	IDLE				207	ID	CSCH3	IDLE

Figure D.7: Example of COMPACT downlink timeslot mapping and rotation of control channels using 4 time groups for nominal cells (based on an assignment of 1 CPBCCH and 3 CPCCCHs with NIB_CCCH_0 = NIB_CCCH_2 = NIB_CCCH_3 = 4, NIB_CCCH_1 = 5). TG = 0 is illustrated. NIB_CCCH is not broadcast for serving cell time group

NOTE: For uplink 52-multiframe structure (based on an assignment of 16 prioritized CPRACHs, see subclause 6.3.2.2.3a), replace B( ) by R( ) where R( ) denotes CPRACH, move down one block, and rotate according to subclause 6.3.2.1. Replace C( ) by R( ) and move down one block. CPRACH in general can be mapped as PRACH in table 6 of clause 7.

Annex E (informative):
Example illustrations of neighbour cell measurements for downlink dual carrier MS

Figure E.1 illustrates possible switching and measurement timings for downlink dual carrier MSs that have a higher equivalent multislot class compared to the signalled multislot class (see subclause B.4).

Figure E.1

Annex F (informative):
Illustration of mapping restrictions in Downlink Multi Carrier

The mapping restrictions for DLMC described in subclause 6.2.7 can be illustrated by the following example with 5 carriers assigned in BTTI mode:

max_sep: 22 (corresponding to a supported DLMC – Maximum BW of 5 MHz, see 3GPP TS 45.005).

num_tdma_frames: 4.

num_carriers: 5.

arfcn[1..num_tdma_frames][1..num_carriers]: see the table below.

TDMA frame index (i)	arfcn[i][1]	arfcn[i][2]	arfcn[i][3]	arfcn[i][4]	arfcn[i][5]
1	1	10	19	37	23
2	46	1	10	28	23
3	37	46	1	19	23
4	1	10	19	37	23

Contiguous reception:

Step 1: Set carrier 1 as the anchor, and test whether carrier 2 can be selected. As shown in the table below, carrier separation is not satisfied for one or more of the 4 TDMA frames (in this case not satisfied for the second TDMA frame), hence carrier 2 is not selected. Carrier selection for the current anchor stops. The selected group of carriers for anchor carrier 1 is {1}. Since this is the first group of carriers selected, it is set as the currently selected group of carriers.

TDMA frame index (i)	arfcn[i][1]	arfcn[i][2]	min arfcn	max arfcn	delta arfcn	delta arfcn <= max_sep?
1	1	10	1	10	9	Yes
2	46	1	1	46	45	No
3	37	46	37	46	9	Yes
4	1	10	1	10	9	Yes

Step 2: Set carrier 2 as the anchor, and test whether carrier 3 can be selected. As shown in the table below, carrier separation is not satisfied for one or more of the 4 TDMA frames (in this case not satisfied for the third TDMA frame), hence carrier 3 is not selected. Carrier selection for the current anchor stops. The selected group of carriers for anchor carrier 2 is {2}. Since the size of this group of carriers is not greater than the currently selected group of carriers (i.e. {1}), the latter is not changed.

TDMA frame index (i)	arfcn[i][2]	arfcn[i][3]	min arfcn	max arfcn	delta arfcn	delta arfcn <= max_sep?
1	10	19	10	19	9	Yes
2	1	10	1	10	9	Yes
3	46	1	1	46	45	No
4	10	19	1	10	9	Yes

Step 3: Set carrier 3 as the anchor, and test whether carrier 4 can be selected. As shown in the table below, carrier separation is satisfied for all 4 TDMA frames, hence carrier 4 is selected.

TDMA frame index (i)	arfcn[i][3]	arfcn[i][4]	min arfcn	max arfcn	delta arfcn	delta arfcn <= max_sep?
1	19	37	19	37	18	Yes
2	10	28	10	28	18	Yes
3	1	19	1	19	18	Yes
4	19	37	19	37	18	Yes

Step 4: Test whether carrier 5 can be selected. As shown in the table below, carrier separation is satisfied for all 4 TDMA frames, hence carrier 5 is selected. Since there are no more carriers to be processed, carrier selection for the current anchor stops. The selected group of carriers for anchor carrier 3 is {3, 4, 5}. Since the size of this group of carriers is greater than the currently selected group of carriers (i.e. {1}), the latter is changed to {3, 4, 5}.

TDMA frame index (i)	arfcn[i][3]	arfcn[i][4]	arfcn[i][5]	min arfcn	max arfcn	delta arfcn	delta arfcn <= max_sep?
1	19	37	23	19	37	18	Yes
2	10	28	23	10	28	18	Yes
3	1	19	23	1	23	22	Yes
4	19	37	23	19	37	18	Yes

Step 5: Since there are no more carriers to be processed, the carrier selection method stops. The finally selected group of carriers is {3, 4, 5}.

Non-contiguous reception:

Step 1: Perform the steps for contiguous reception with max_sep=2×22=44. The finally selected group of carriers in this step is {3, 4, 5}, i.e. not all carriers can be selected.

Step 2: Perform the steps for contiguous reception with max_sep=22. The finally selected group of carriers in this step is {3, 4, 5}.

Step 3: Perform the steps for contiguous reception with max_sep=22, num_carriers=5-3=2, and arfcn excluding vectors for carrier 3, carrier 4 and carrier 5. The finally selected group of carriers in this step is {1}.

Step 4: The carrier selection method stops. The finally selected group of carriers is {3, 4, 5}+{1}={3,4,5,1}.

Annex G (informative):
Change history

SPEC	SMG#	CR	PH	VERS	NEW_VERS	SUBJECT
05.02	s24	A020	R97	5.5.0A	6.0.0	Corrections and clarifications to GPRS
05.02	s24	A021	R97	5.5.0A	6.0.0	Multislot classes for GPRS
05.02	s24	A022	R97	5.5.0A	6.0.0	System information for GPRS on BCCH
05.02	s24	A023	R97	5.5.0A	6.0.0	Alignment of 51- and 52-multiframe PCCCH
05.02	s25	A025	R97	6.0.1	6.1.0	Corrections to the GPRS sleep mode
05.02	s25	A026	R97	6.0.1	6.1.0	Clarification of the definition of multislot classes
05.02	s25	A030	R97	6.0.1	6.1.0	14.4kbps Data Service
05.02	s25	A034	R97	6.0.1	6.1.0	Indication of PACCH logical channel type
05.02	s25	A035	R97	6.0.1	6.1.0	Renaming of GPRS RR states
05.02	s25	A036	R97	6.0.1	6.1.0	USF granularity for dynamic allocation
05.02	s26	A033	R97	6.1.0	6.2.0	GPRS SI message mapping
05.02	s26	A037	R97	6.1.0	6.2.0	Mapping of PACCH
05.02	s26	A039	R97	6.1.0	6.2.0	Mapping of SI 2 and SI 2ter on BCCH
05.02	s27	A041	R97	6.2.0	6.3.0	Clarification on PTCCH/U mapping
05.02	s27	A042	R97	6.2.0	6.3.0	Clarification on mapping PCCCH
05.02	s27	A043	R97	6.2.0	6.3.0	MS multislot classes and GPRS dynamic allocations
05.02	s28	A045	R97	6.3.0	6.4.0	Removal of System Information Type 14
05.02	s28	A052	R97	6.3.0	6.4.0	Schedule for packet System Information message on PBCCH
05.02	s28	A054	R97	6.3.0	6.4.0	Editorial correction to 05.02
05.02	s28	A055	R97	6.3.0	6.4.0	Improvements of PRS paging blocks scheduling
05.02	s28	A057	R97	6.3.0	6.4.0	51-multiframe PBCCH
05.02	s28	A060	R97	6.3.0	6.4.0	Clarification to the multislot configurations for GPRS
05.02	s28	A061	R97	6.3.0	6.4.0	Clarification to the PTCCH mapping
05.02	s28	A064	R97	6.3.0	6.4.0	Removal of inconsistency in Table 7
05.02	s28	A048	R98	6.4.0	7.0.0	Introduction of specific training sequences for CTS Synchr. bursts
05.02	s28	A049	R98	6.4.0	7.0.0	Introduction of CTS in 05.02
05.02	s28	A050	R98	6.4.0	7.0.0	CTS Frequency Hopping Algorithm
05.02	s29	A047	R98	7.0.0	7.1.0	Addition of SoLSA functionality
05.02	s29	A065	R98	7.0.0	7.1.0	Editorial modification to GSM 05.02
05.02	s29	A066	R98	7.0.0	7.1.0	Correction of TFH carrier list
05.02	s29	A067	R98	7.0.0	7.1.0	Training sequence code of normal bursts for CTS control channel
05.02	s29	A070	R98	7.0.0	7.1.0	Removal of SI15 references
05.02	s29	A071	R98	7.0.0	7.1.0	Deleting 51-multiframe PBCCH
05.02	s29	A072	R98	7.0.0	7.1.0	Modification of CTSARCH operation
05.02	s29	A077	R98	7.0.0	7.1.0	Correction to non-drx period and SPLIT_PG_CYCLE limitations
05.02	s29	A046	R99	7.1.0	8.0.0	Introduction of 8-PSK burst format
05.02	s29	A074	R99	7.1.0	8.0.1	05.02 changes for ECSD FACCH
05.02	s30	A080	R99	8.0.1	8.1.0	Introduction of AMR and EFR Traffic Channels
05.02	s30	A081	R99	8.0.1	8.1.0	Non-GSM Broadcast Information
05.02	s30	A082	R99	8.0.1	8.1.0	EDGE Compact Cell Reselection
05.02	s30	A083	R99	8.0.1	8.1.0	New training sequences for Access Burst due to EGPRS
05.02	s30	A084	R99	8.0.1	8.1.0	Introduction of Fast Power Control for ECSD in 05.02
05.02	s30	A085	R99	8.0.1	8.1.0	EDGE Compact logical channels
05.02	s30	A098	R99	8.0.1	8.1.0	Mapping of PAGCH
05.02	s30	A101	R99	8.0.1	8.1.0	Clarification pf DRX
05.02	s30	A103	R99	8.0.1	8.1.0	Correction when sending SI 16 and 17
05.02	s30b	A095	R99	8.1.0	8.2.0	MS multislot resource restriction in extended TA cells
05.02	s30b	A106	R99	8.1.0	8.2.0	Clarification of fixed allocated PRACH
05.02	s30b	A107	R99	8.1.0	8.2.0	COMPACT Logical Channels
05.02	s30b	A109	R99	8.1.0	8.2.0	Extended Training Sequence Code C-ETSC specific to COMPACT synchronization bursts only
05.02	s30b	A110	R99	8.1.0	8.2.0	Support of Slow Frequency Hopping for COMPACT
05.02	s30b	A111	R99	8.1.0	8.2.0	Synchronization of 52-multiframes in EGPRS COMPACT
05.02	s30b	A114	R99	8.1.0	8.2.0	Bi-directional channels in case of multi slot
05.02	s30b	A117	R99	8.1.0	8.2.0	Clarification of multislot configuration
05.02	s30b	A119	R99	8.1.0	8.2.0	Training Sequence to support LCS and specification of 8-PSK modulated normal bursts for compatibility with future releases, mirror CR to R’98
05.02	s30b	A120	R99	8.1.0	8.2.0	Compact FCCH
05.02	s31	A123	R99	8.2.0	8.3.0	PTCCH block numbering
05.02	s31	A126	R99	8.2.0	8.3.0	Correction of BS_PRACH_BLKS range
05.02	s31	A127	R99	8.2.0	8.3.0	COMPACT interference measurements
05.02	s31	A128	R99	8.2.0	8.3.0	Timegroup rotation and NIB Clarification
05.02	s31	A129	R99	8.2.0	8.3.0	Clarifications in 05.02
05.02	s31	A133	R99	8.2.0	8.3.0	USF Handling in COMPACT
05.02	s31	A138	R99	8.2.0	8.3.0	Correction to non-DRX mode
05.02	s31	A142	R99	8.2.0	8.3.0	GPRS & SMS-CB interworking
05.02	s31	A143	R99	8.2.0	8.3.0	Complete Frequency Hopping on COMPACT
05.02	s31b	A148	R99	8.3.0	8.4.0	New measurement order – Idle mode
05.02	s31b	A147	R99	8.3.0	8.4.0	Clarification of PBCCH message scheduling
05.02	s31b	A157	R99	8.3.0	8.4.0	FCCH decoding problem for multislot MS
05.02	s31b	A144	R99	8.3.0	8.4.0	Correction of Figure D.4
05.02	s31b	A149	R99	8.3.0	8.4.0	Correction of NIB parameters
05.02	s32	A158	R99	8.4.0	8.5.0	Clarification of COMPACT frequency hopping parameters
05.02	s32	A159	R99	8.4.0	8.5.0	Class A Dual Transfer Mode (DTM)
	GERAN#					September 2000 – 3GPP GERAN
05.02	G01	A162		8.5.0	8.6.0	DTM (R99)
05.02	G01	A163		8.5.0	8.6.0	Corrections to COMPACT (R99)
05.02	G01	A165		8.5.0	8.6.0	Editorial corrections related to COMPACT (R99)
	GERAN#					September 2000 – 3GPP GERAN#1
05.02	G01	A161		8.6.0	4.0.0	NCH clarification (Release 4)
				4.0.0	4.0.1	Oct 2000: References corrected.
						November 2000 – 3GPP GERAN#2
45.002	G02	002	1	4.0.1	4.1.0	Clarification of mapping of PDTCH and PCCCH
45.002	G02	003		4.0.1	4.1.0	Editorial corrections
45.002	G02	004	1	4.0.1	4.1.0	Possible multislot configurations for GPRS
				4.1.0	4.1.1	Front page layout correction
						January 2001 – 3GPP GERAN#3
45.002	G03	005		4.1.1	4.2.0	Possible multislot configurations for GPRS
45.002	G03	006		4.1.1	4.2.0	Clarification of the monitored GPRS control channels during GPRS attachment

Change history
Date	TSG  GERAN#	TSG Doc.	CR	Rev	Subject/Comment	Old	New
2001-01	03	GP-010241	008		Introduction of Wideband AMR for GMSK modulated speech channel	4.2.0	5.0.0
		GP-010241	007		Correction of CR numbers ( 007 -> 006 / 008->007)	5.0.0	5.0.1
2001-04	04	GP-010872	010	1	Dynamic ARFCN mapping	5.0.1	5.1.0
2001-04	04	GP-010653	012		System Information Type 2 quater scheduling	5.0.1	5.1.0
2001-08	06	GP-011918	020	1	Introduction of enhanced power control channels	5.1.0	5.2.0
2001-08	06	GP-011787	022		Editorial corrections in the hopping sequence generation descriptions	5.1.0	5.2.0
2001-08	06	GP-011608	028		Multislot configurations for 8-PSK	5.1.0	5.2.0
2001-11	07	GP-012746	025	1	Introduction of adaptive half rate speech channels with 8-PSK modulation	5.2.0	5.3.0
2001-11	07	GP-012762	029	1	High multislot classes for type 1 mobiles	5.2.0	5.3.0
2001-11	07	GP-012649	031	1	Training Sequence Code on PBCCH/PCCCH	5.2.0	5.3.0
2001-11	07	GP-012630	033		Correction of minimum number of paging blocks "available" on one PCCCH	5.2.0	5.3.0
2001-11	07	GP-012769	035	1	Correction of references to 3GPP specifications	5.2.0	5.3.0
2002-02	08	GP-020510	036	2	Clarification of permitted channel combinations	5.3.0	5.4.0
2002-02	08	GP-020454	040	1	Multiplexing PDTCH/U,PACCH/U and PCCCH/U	5.3.0	5.4.0
2002-02	08	GP-020478	041	1	Correction on multislot classes and Tra/Tta configurations	5.3.0	5.4.0
2002-04	09	GP-020646	043		Removal of Fixed Allocation	5.4.0	5.5.0
2002-04	09	GP-021205	047	2	Multislot configuration with EPC	5.4.0	5.5.0
2002-04	09	GP-021206	048	1	Introduction of AMR-WB on 8PSK modulated speech traffic channels	5.4.0	5.5.0
2002-04	09	GP-021015	050		Definition of octal traffic channels	5.4.0	5.5.0
2002-06	10	GP-021411	051		Editorial clean up of references	5.5.0	5.6.0
2002-06	10	GP-021668	053		Multislot configurations for OTCH/F	5.5.0	5.6.0
2002-06	10	GP-021669	054		Alignment and additions for Iu mode	5.5.0	5.6.0
2002-11	12	GP-023114	055		Inclusion of DBPSCH	5.6.0	5.7.0
2002-11	12	GP-023141	058		Mapping of SI13alt message on BCCH	5.6.0	5.7.0
2002-11	12	GP-023405	059		Correction for SBPSCH in Iu Mode DTM	5.6.0	5.7.0
2003-02	13	GP-030379	060	1	Inconsistent specification of Iu-mode multislot configurations	5.7.0	5.8.0
2003-02	13	GP-030221	062		Multislot configurations for dual transfer mode	5.7.0	5.8.0
2003-02	13	GP-030222	063		Multislot configurations for DBPSCH in Iu mode	5.7.0	5.8.0
2003-02	13	GP-030261	064		Fixed allocation removal correction	5.8.0	6.0.0
2003-04	14	GP-030975	069	1	Mapping of the PDTCH/D on PCCCH in case EGPRS	6.0.0	6.1.0
2003-04	14	GP-030896	072		Corrections for DTM multislot configurations	6.0.0	6.1.0
2003-06	15	GP-031642	078	1	Mapping of the PDTCH/D on PCCCH in case EGPRS	6.1.0	6.2.0
2003-06	15	GP-031713	081	2	Clarification of the Extended Dynamic Allocation	6.1.0	6.2.0
2003-08	16	GP-031906	077	1	Improvements to Extended Dynamic Allocation for high multislot classes	6.2.0	6.3.0
2003-11	17	GP-032463	084		Flexible Layer One	6.3.0	6.4.0
2004-02	18	GP-040179	085		Restrictions on the allowed PBCCH & PCCCH frequency band	6.4.0	6.5.0
2004-04	19	GP-040698	087		Corrections on allowed packet switched multislot configurations	6.5.0	6.6.0
2004-04	19	GP-040701	088		Clarification on USF monitoring in case of extended dynamic allocation	6.5.0	6.6.0
2004-04	19	GP-040725	089		Correction to Figure 9	6.5.0	6.6.0
2004-11	22	GP-042752	090	1	Removal of PTM-M	6.6.0	6.7.0
2004-11	22	GP-042783	091	1	Introduction of MBMS	6.6.0	6.7.0
2005-01	23	GP-050094	092		Correction to mapping of uplink packet channel	6.7.0	6.8.0
2005-01	23	GP-050482	095	1	High multislot class operation on a "d = 1, u = 4" allocation in a legacy network	6.7.0	6.8.0
2005-01	23	GP-050229	096		Provision of cell reselection parameters for neighbouring cells in the serving cell	6.7.0	6.8.0
2005-04	24	GP-051064	097	1	Extension of DTM to high multislot classes	6.8.0	6.9.0
2005-04	24	GP-050709	098		Clarification on non-contiguous assigned timeslots	6.8.0	6.9.0
2005-06	25	GP-051494	100		Corrections for reception of multiple MBMS sessions	6.9.0	6.10.0
2005-09	26	GP-052236	0102	1	Correction to multislot classes allowed for MBMS	6.10.0	6.11.0
2005-11	27	GP-052847	0103	1	MBMS transfer mode	6.11.0	6.12.0
2005-11	27	GP-052849	0106		Correction on the transmission of SI1	6.11.0	6.12.0
2006-04	29	GP-060921	0107	1	Correction of Title of Clause 7 and correspondings	6.12.0	7.0.0
2006-06	30	GP-061338	0108	1	Correction of terminology: ‘allocation’ vs. ‘assignment’	7.0.0	7.1.0
2006-11	32	GP-062442	0113	3	Introduction of Downlink Dual Carrier	7.1.0	7.2.0
2007-02	33	GP-070368	0112	3	Flexible timeslot assignment	7.2.0	7.3.0
2007-02	33	GP-070465	0116	1	Clarification of multislot capabilities for non-DCDL assignments	7.2.0	7.3.0
2007-05	34	GP-070790	0118		Editorial corrections	7.3.0	7.4.0
2007-08	35	GP-071515	0117	5	Introduction of RTTI	7.4.0	7.5.0
2007-08	35	GP-071256	0121		Introduction of RED HOT and HUGE	7.4.0	7.5.0
2007-08	35	GP-071271	0122		Clarification on timeslot configurations for dual carrier in the downlink	7.4.0	7.5.0
2007-11	36	GP-071674	0124		Miscellaneous corrections on Reduced Latency	7.5.0	7.6.0
2007-11	36	GP-071694	0125		Correction on System Information Type 1 scheduling rules	7.5.0	7.6.0
2007-11	36	GP-071956	0126	1	Tail-symbols for EGPRS2	7.5.0	7.6.0
2008-05	38	GP-080783	0127	1	Clarification on guard period	7.6.0	7.7.0
2008-05	38	GP-080874	0128	3	Corrections on Multislot configurations for packet switched connections in A/Gb mode	7.6.0	7.7.0
2008-05	38	GP-080662	0130		Reduced Latency terminology alignments	7.6.0	7.7.0
2008-12	40				Version for Release 8	7.7.0	8.0.0
2009-05	42	GP-091040	0138	1	Enhanced Flexible Timeslot Assignment	8.0.0	9.0.0
2009-09	43	GP-091686	0140	1	Introduction of VAMOS multiplexing and multiple access	9.0.0	9.1.0
2009-11	44	GP-092348	0142	1	Removal of mandatory support for P-channels by mobile stations in A/Gb mode	9.1.0	9.2.0
2010-03	45	GP-100600	0137	5	Introduction of Shifted SACCH mapping for VAMOS	9.2.0	9.3.0
2010-03	45	GP-100340	0143		Clarification of DTM Support for EFTA	9.2.0	9.3.0
2010-03	45	GP-100577	0144	1	Interpretation of Multislot Class Parameters for EFTA	9.2.0	9.3.0
2010-09	47	GP-101557	0146	1	Shifted USF for EFTA	9.3.0	9.4.0
2010-09	47	GP-101407	0147		DCDL for EFTA	9.3.0	9.4.0
2010-09	47	GP-101549	0148	1	TSC allocation for VAMOS in case of DTM	9.3.0	9.4.0
2011-03	49	GP-110465	0152	1	Clarification of Shifted USF operation in combination with Dual Carrier DL	9.4.0	9.5.0
2011-03	49	GP-110454	0153	1	Clarification of Shifted USF in combination with EFTA	9.4.0	9.5.0
2011-03	49	GP-110480	0154	1	Clarifications for support of 8 DL TS operation in EFTA assignment	9.4.0	9.5.0
2011-03	49	GP-110236	0149	1	Introduction of fast downlink frequency switching capability	9.5.0	10.0.0
2011-05	50	GP-110965	0155	3	Realizing Extended Access Barring	10.0.0	10.1.0
2011-09	51	GP-111190	0158		Applicability of reduced switching times for fast downlink frequency switching	10.1.0	10.2.0
2012-03	53	GP-120150	0162	2	Alternative EFTA multislot classes and multislot capabilities applicability for EFTA	10.2.0	10.3.0
2012-08	55	GP-121129	0159	5	Introduction of SI22 message for Network Sharing	10.3.0	11.0.0
2012-11	56	GP-121387	0163	1	Introduction of inter RAT mobility on PLMN basis for Network Sharing	11.0.0	11.1.0
2013-03	57	GP-130273	0166	2	Corrections to multislot capabilities for dual carrier mobile stations	11.1.0	11.2.0
2013-08	59	GP-130881	0172	2	Clarification of VAMOS II mapping of associated control channels	11.2.0	11.3.0
2013-08	59	GP-130738	0176		Measurements and BSIC decoding for EFTA multislot configurations	11.2.0	11.3.0
2013-08	59	GP-130863	0173	1	Introduction of VAMOS III MS	11.3.0	12.0.0
2013-11	60	GP-131052	0168	7	Introduction of Downlink Multi Carrier	12.0.0	12.1.0
2014-08	63	GP-140554	0178		Correction to pseudo code indentation	12.1.0	12.2.0
2014-11	64	GP-140946	0177	4	Introduction of extended TSC sets	12.2.0	12.3.0
2015-03	65	GP-150124	0181		Extended TSC sets correction	12.3.0	12.4.0
2015-11	68	GP-151217	0182	5	Introduction of Power Efficient Operation	12.4.0	13.0.0
2016-02	69	GP-160173	0183	3	Introduction of EC-EGPRS, Multislot capabilities	13.0.0	13.1.0
2016-02	69	GP-160160	0184	6	Introduction of EC-EGPRS, Logical channels	13.0.0	13.1.0
2016-02	69	GP-160197	0185	6	Introduction of EC-EGPRS, Physical channels	13.0.0	13.1.0
2016-02	69	GP-160172	0186	6	Introduction of EC-EGPRS, Mapping of logical channels onto physical channels	13.0.0	13.1.0
2016-02	69	GP-160057	0187		Miscellaneous corrections to eDRX	13.0.0	13.1.0
2016-02	69	GP-160194	0191		Corrections to Overlaid CDMA	13.0.0	13.1.0

Change history
Date	Meeting	TDoc	CR	Rev	Cat	Subject/Comment	New version
2016-05	70	GP-160472	0192	3	F	Clarifications and miscellaneous corrections to EC-GSM-IoT (including name change)	13.2.0
2016-05	70	GP-160296	0193		B	Introduction to Radio Frequency Colour Code (RCC)	13.2.0
2016-05	70	GP-160473	0194	2	F	Miscellaneous corrections to eDRX_GSM	13.2.0
2016-05	70	GP-160497	0195	4	C	Energy Efficient EC-CCCH/D Operation	13.2.0
2016-09	73	RP-161393	0198	1	F	Miscellaneous corrections for EC-GSM-IoT	13.3.0
2016-09	73	RP-1613932	0199	4	F	Corrections to EC-GSM-IoT	13.3.0
2016-09	73	RP-161393	0200	1	F	Clarification of PEO Code Point Usage	13.3.0
2016-09						Editorial corrections	13.3.1
2016-12	74	RP-162070	0201	1	F	Miscellaneous corrections	13.4.0
2016-12	74	RP-162070	0202	2	F	Miscellaneous corrections to EC-GSM-IoT	13.4.0
2016-12	74	RP-162066	0203	2	B	Introduction of Alternative Mappings for Higher Coverage Classes with 2 PDCHs	14.0.0
2017-03	75	RP-170061	0204	1	B	Introduction of compact burst mapping	14.1.0
2017-03	75	RP-170060	0205	2	B	Introduction of Extended Access Burst for connectionless Multilateration Positioning	14.1.0
2017-03	75	RP-170063	0208	–	A	Synchronization sequence bits correction	14.1.0
2017-06	76	RP-170924	0206	4	B	Introduction of uplink coverage class CC5 for UL MCL improvement	14.2.0
2017-09	77	RP-171595	0210	–	F	Remove brackets of TS8 for ESAB	14.3.0
2017-09	77	RP-171595	0211	3	F	Training Sequence Selection for CC5 EC-RACH using EDAB	14.3.0
2017-12	78	RP-172188	0212	–	F	Miscellaneous corrections related to CC5 EC-RACH	14.4.0
2018-03	79	RP-180071	0213	–	F	Miscellaneous corrections related to CC5 EC-RACH	14.5.0
2018-06	80	RP-180821	0214	3	B	Energy efficiency enhancements for EC-GSM-IoT MS in idle mode	15.0.0
2018-09	81	RP-181593	0215	–	F	Corrections for EC-PICH	15.1.0
2019-03	83	RP-190061	0216	–	F	Correction to 52-multiframe mapping description for EC-GSM-IoT	16.0.0
2020-03	87e	RP-200053	0222	–	A	Removal of brackets for extended training sequence of EC-GSM-IoT sync burst	16.1.0
2020-03	87e	RP-200054	0223	–	A	Removal of brackets for “tail bits 4” of EDAB	16.1.0
2022-03	RP-95e	–	–	–	–	Upgrade to Rel-17 version without technical change	17.0.0