14.1.3 General information interoperability radio bearer tests for HS-DSCH

34.123-13GPPPart 1: Protocol conformance specificationRelease 15TSUser Equipment (UE) conformance specification

Tools: ARFCN - Frequency Conversion for 5G NR/LTE/UMTS/GSM

14.1.3.1 HS-DSCH radio bearer test parameters

In the radio bearer tests on radio bearers mapped on HS-DSCH, the following UE specific parameters should be used.

Table 14.1.3.1.1: FDD HS-DSCH physical layer parameters for FDD HS-DSCH physical layer categories

HS-DSCH category	Maximum number of HS-DSCH codes received	Minimum inter-TTI interval	Maximum number of bits of an HS-DSCH transport block received within an HS-DSCH TTI NOTE 1	Total number of soft channel bits	Supported modula-tions without MIMO operation or dual cell operation	Supported modula-tions with MIMO operation and without dual cell operation	Supported modula-tions with dual cell operation	Supported modula-tions with simulta-neous dual cell and MIMO operation
Category 1	5	3	7298	19200	QPSK, 16QAM	Not applicable (MIMO not supported)	Not applicable (dual cell operation not supported)	Not applicable (simultaneous dual cell and MIMO operation not supported)
Category 2	5	3	7298	28800
Category 3	5	2	7298	28800
Category 4	5	2	7298	38400
Category 5	5	1	7298	57600
Category 6	5	1	7298	67200
Category 7	10	1	14411	115200
Category 8	10	1	14411	134400
Category 9	15	1	20251	172800
Category 10	15	1	27952	172800
Category 11	5	2	3630	14400	QPSK
Category 12	5	1	3630	28800	QPSK
Category 13	15	1	35280	259200	QPSK, 16QAM, 64QAM
Category 14	15	1	42192	259200	QPSK, 16QAM, 64QAM
Category 15	15	1	23370	345600	QPSK, 16QAM
Category 16	15	1	27952	345600	QPSK, 16QAM
Category 17 NOTE 2	15	1	35280	259200	QPSK, 16QAM, 64QAM	–
Category 17 NOTE 2	15	1	23370	345600	–	QPSK, 16QAM
Category 18 NOTE 3	15	1	42192	259200	QPSK, 16QAM, 64QAM	–
Category 18 NOTE 3	15	1	27952	345600	–	QPSK, 16QAM
Category 19	15	1	35280	518400	QPSK, 16QAM, 64QAM
Category 20	15	1	42192	518400	QPSK, 16QAM, 64QAM
Category 21	15	1	23370	345600	–	–	QPSK, 16QAM
Category 22	15	1	27952	345600			QPSK, 16QAM
Category 23	15	1	35280	518400			QPSK, 16QAM, 64QAM
Category 24	15	1	42192	518400			QPSK, 16QAM, 64QAM
Category 25	15	1	23370	691200	–	–	–	QPSK, 16QAM
Category 26	15	1	27952	691200	–	–	–	QPSK, 16QAM
Category 27	15	1	35280	1036800	–	–	–	QPSK, 16QAM, 64QAM
Category 28	15	1	42192	1036800	–	–	–	QPSK, 16QAM, 64QAM

NOTE 1: Depending on the HS-DSCH configuration, the indicated maximum number of bits of an HS-DSCH transport block does not have to correspond exactly to an entry in the transport block size table to be applied [9].

NOTE 2: A UE of category 17 supports the physical capabilities of categories 13 and 15, but not simultaneously. The first row of category 17 in table 5.1a specifies the capabilities when MIMO is not configured and the capabilities of category 13 apply, the second row specifies the capabilities when MIMO is configured and the capabilities of category 15 apply.

NOTE 3: A UE of category 18 supports the physical capabilities of categories 14 and 16, but not simultaneously. The first row of category 18 in table 5.1a specifies the capabilities when MIMO is not configured and the capabilities of category 14 apply, the second row specifies the capabilities when MIMO is configured and the capabilities of category 16 apply.

14.1.3.2 Selecting TFRC test points

14.1.3.2.1 Principle for non-enhanced Layer 2

The transport format and resource combination (TFRC) is identified by the UE by the type of modulation, number of channalisation codes and the transport format and resource identifier (TFRI) signalled on the HS-SCCH.

For the HSDPA radio bearer test cases the principle for selecting typical test points for TFRC is:

1. Select one TFRC per modulation scheme and number of MAC-d PDUs.

2. For each number of MAC-d PDUs select the TFRC minimizing padding.

3. Any TFRC that would cause turbo coder irregularities should be avoided.

The problem with turbo coder regularities appears at certain coding rates. The coding rate for a certain TFCR is:

, where

TB_size is the selected transport block,

N_CRCis the number of CRC bits,

N_codesis the number of channelistion codes, and

N_{phy_bits}is the number physical bits per code (960 for QPSK, 1920 for 16QAM and 2880 for 64 QAM).

Table 14.1.3.2.1 lists the coding rates that cause turbo coder irregularities. In case a candidate TFRC value is causing turbo coder irregularities then the closest higher TFRI value, which do not cause any turbo coder irregularities, is selected.

Table 14.1.3.2.1: Coding rates causing degradation due to turbo coder irregularities

Coding rate	Comment
0.77-0.79	Cause loss up to 3.5 dB
0.835-0.84	Cause loss up to 1.5 dB
0.871-0.878	Cause loss up to 2 dB
0.91-0.914	Cause loss up to 2 dB

NOTE The coding rates in Table 14.2.3.2.1 is based on the simulations as described in RAN WG1 document R1-030444 (Turbo-coding and puncturing interactions on HS-DSCH in R5 HSDPA)

The selection algorithm for the TFRC test points for a certain UE category and MAC-d PDU size is:

1. Set the number of MAC-d PDUs, N_PDU, to 1

2. Calculate the minimum transport block size to fit the number of MAC-d PDUs.

3. If the transport block size is less or equal to the UE capability for “Maximum number of bits of an HS-DSCH transport block received within an HS-DSCH TTI” in Table 14.1.3.1.1 then continue with step 4 else there is no more testing points.

4. Select the QPSK test point:
If it, for the actual UE category and for the selected transport block size, exists a TFRI for QPSK then select the TFRI that maximises the number of codes.

5. Select the 16QAM test point:
If it, for the actual UE category and for the selected transport block size, exists a TFRI for 16QAM then select the TFRI that maximises the number of codes.

6. Check that the coding rate for the selected TFRC does not cause turbo coder irregularities, see Table 14.1.3.2.1. If the coding rate is ok then accept the testing point and continue with step 8 else continue with step 7.

7. If the coding rate is not ok then select the next higher TFRI value that corresponds to an acceptable coding rate. Calculate the transport block size correspondent to the modified TFRI values and if it is less or equal to the UE capability for “Maximum number of bits of an HS-DSCH transport block received within an HS-DSCH TTI” in Table 14.1.3.1.1 then accept the testing point else skip it.

8. Increment N_PDUs. If N_PDU is less or equal to 70 then repeat from step 2 else there are no more testing points.

14.1.3.2.1a Principle for enhanced Layer 2

For the combination of MAC-ehs and Fixed RLC then the same principle to select test points as for the non-enhanced Layer 2 case as described in sub-clause 14.1.3.2.1 is used (MAC-d PDU size 336 and 656 bits).

For the combination of MAC-ehs and Flexible RLC then the same TFRI test points as for the fixed MAC-d PDU size=656 bits case are used.

14.1.3.3 TFRC test points for MAC-d PDU size=336

Table 14.1.3.3.1: TFRC test points for UE category 1 to UE category 6 for MAC-d PDU size=336

Number of MAC-d PDUs	Selected transport block size [bits]	Modulation scheme	Number of codes	TFRI	Comments
1	365	QPSK	1	19
2	699	QPSK	2	8
2	699	16QAM	1	8
3	1036	QPSK	3	7
3	1036	16QAM	1	30
4	1380	QPSK	4	7
4	1380	16QAM	2	7
5	1711	QPSK	5	6
5	1711	16QAM	2	19
6	2046	QPSK	5	16
6	2046	16QAM	3	6
7	2404	QPSK	5	25
7	2404	16QAM	3	15
8	2726	QPSK	5	32
8	2726	16QAM	4	6
9	3090	QPSK	5	39
9	3090	16QAM	5	0
10	3440	QPSK	5	45
10	3440	16QAM	5	6
11	3830	QPSK	5	51	TFRI = 50 would have minimised padding but is not acceptable as the coding rate (0.78875) would have given 3.5 dB due to turbo coder irregularities. TFRI=51 is selected.
11	3762	16QAM	5	11
12	4115	QPSK	5	55
12	4115	16QAM	5	16
13	4420	QPSK	5	59
13	4420	16QAM	5	20
14	4748	16QAM	5	24
15	5101	16QAM	5	28
16	5480	16QAM	5	32
17	5782	16QAM	5	35
18	6101	16QAM	5	38
19	6438	16QAM	5	41
20	6793	16QAM	5	44
21	7168	16QAM	5	47

Table 14.1.3.3.2: TFRC test points for UE category 7 and UE category 8 for MAC-d PDU size=336

Number of MAC-d PDUs	Selected transport block size [bits]	Modulation scheme	Number of codes	TFRI	Comments
1	365	QPSK	1	19
2	699	QPSK	2	8
2	699	16QAM	1	8
3	1036	QPSK	3	7
3	1036	16QAM	1	30
4	1380	QPSK	4	7
4	1380	16QAM	2	7
5	1711	QPSK	5	6
5	1711	16QAM	2	19
6	2046	QPSK	6	6
6	2046	16QAM	3	6
7	2404	QPSK	7	6
7	2404	16QAM	3	15
8	2726	QPSK	8	6
8	2726	16QAM	4	6
9	3090	QPSK	10	0
9	3090	16QAM	5	0
10	3440	QPSK	10	6
10	3440	16QAM	5	6
11	3762	QPSK	10	11
11	3762	16QAM	6	1
12	4115	QPSK	10	16
12	4115	16QAM	6	6
13	4420	QPSK	10	20
13	4420	16QAM	7	1
14	4748	QPSK	10	24
14	4748	16QAM	7	5
15	5101	QPSK	10	28
15	5101	16QAM	8	2
16	5480	QPSK	10	32
16	5480	16QAM	8	6
17	5782	QPSK	10	35
17	5782	16QAM	9	2
18	6101	QPSK	10	38
18	6101	16QAM	10	0
19	6438	QPSK	10	41
19	6438	16QAM	10	3
20	6793	QPSK	10	44
20	6793	16QAM	10	6
21	7168	QPSK	10	47
21	7168	16QAM	10	9
22	7564	QPSK	10	50	TFRI = 49 would have minimised padding but is not acceptable as the coding rate (0.7765) would have given 3.5 dB due to turbo coder irregularities. TFRI=50 is selected.
22	7430	16QAM	10	11
23	7981	QPSK	10	52
23	7840	16QAM	10	14
24	8125	QPSK	10	54
24	8125	16QAM	10	16
25	8422	QPSK	10	56
25	8422	16QAM	10	18
26	8886	QPSK	10	59
26	8886	16QAM	10	21
27	9210	QPSK	10	61
27	9210	16QAM	10	23
28	9546	16QAM	10	25
29	9894	16QAM	10	27
30	10255	16QAM	10	29
31	10440	16QAM	10	30
32	10821	16QAM	10	32
33	11216	16QAM	10	34
34	11625	16QAM	10	36
35	11835	16QAM	10	37
36	12266	16QAM	10	39
37	12488	16QAM	10	40
38	12943	16QAM	10	42
39	13177	16QAM	10	43
40	13657	16QAM	10	45
41	13904	16QAM	10	46
42	14155	16QAM	10	47

Table 14.1.3.3.3: TFRC test points for UE category 9 for MAC-d PDU size=336

Number of MAC-d PDUs	Selected transport block size [bits]	Modulation scheme	Number of codes	TFRI	Comments
1	365	QPSK	1	19
2	699	QPSK	2	8
2	699	16QAM	1	8
3	1036	QPSK	3	7
3	1036	16QAM	1	30
4	1380	QPSK	4	7
4	1380	16QAM	2	7
5	1711	QPSK	5	6
5	1711	16QAM	2	19
6	2046	QPSK	6	6
6	2046	16QAM	3	6
7	2404	QPSK	7	6
7	2404	16QAM	3	15
8	2726	QPSK	8	6
8	2726	16QAM	4	6
9	3090	QPSK	10	0
9	3090	16QAM	5	0
10	3440	QPSK	11	1
10	3440	16QAM	5	6
11	3762	QPSK	12	1
11	3762	16QAM	6	1
12	4115	QPSK	13	2
12	4115	16QAM	6	6
13	4420	QPSK	14	1
13	4420	16QAM	7	1
14	4748	QPSK	15	2
14	4748	16QAM	7	5
15	5101	QPSK	15	6
15	5101	16QAM	8	2
16	5480	QPSK	15	10
16	5480	16QAM	8	6
17	5782	QPSK	15	13
17	5782	16QAM	9	2
18	6101	QPSK	15	16
18	6101	16QAM	10	0
19	6438	QPSK	15	19
19	6438	16QAM	10	3
20	6793	QPSK	15	22
20	6793	16QAM	11	0
21	7168	QPSK	15	25
21	7168	16QAM	11	3
22	7430	QPSK	15	27
22	7430	16QAM	12	0
23	7840	QPSK	15	30
23	7840	16QAM	12	3
24	8125	QPSK	15	32
24	8125	16QAM	13	1
25	8422	QPSK	15	34
25	8422	16QAM	13	3
26	8886	QPSK	15	37
26	8886	16QAM	14	2
27	9210	QPSK	15	39
27	9210	16QAM	15	0
28	9546	QPSK	15	41
28	9546	16QAM	15	2
29	9894	QPSK	15	43
29	9894	16QAM	15	4
30	10255	QPSK	15	45
30	10255	16QAM	15	6
31	10440	QPSK	15	46
31	10440	16QAM	15	7
32	10821	QPSK	15	48
32	10821	16QAM	15	9
33	11418	QPSK	15	51	TFRI = 50 would have minimised padding but is not acceptable as the coding rate (0.78056) would have given 3.5 dB due to turbo coder irregularities. TFRI=51 is selected.
33	11216	16QAM	15	11
34	11625	QPSK	15	52
34	11625	16QAM	15	13
35	11835	QPSK	15	53
35	11835	16QAM	15	14
36	12266	QPSK	15	55
36	12266	16QAM	15	16
37	12488	QPSK	15	56
37	12488	16QAM	15	17
38	12943	QPSK	15	58
38	12943	16QAM	15	19
39	13177	QPSK	15	59
39	13177	16QAM	15	20
40	13657	QPSK	15	61
40	13657	16QAM	15	22
41	13904	QPSK	15	62
41	13904	16QAM	15	23
42	14155	16QAM	15	24
43	14671	16QAM	15	26
44	14936	16QAM	15	27
45	15206	16QAM	15	28
46	15481	16QAM	15	29
47	16045	16QAM	15	31
48	16335	16QAM	15	32
49	16630	16QAM	15	33
50	16931	16QAM	15	34
51	17237	16QAM	15	35
52	17548	16QAM	15	36
53	17865	16QAM	15	37
54	18188	16QAM	15	38
55	18517	16QAM	15	39
56	18851	16QAM	15	40
57	19192	16QAM	15	41
58	19538	16QAM	15	42
59	19891	16QAM	15	43
60	20251	16QAM	15	44

Table 14.1.3.3.4: TFRC test points for UE category 10 for MAC-d PDU size=336

Number of MAC-d PDUs	Selected transport block size [bits]	Modulation scheme	Number of codes	TFRI	Comments
1	365	QPSK	1	19
2	699	QPSK	2	8
2	699	16QAM	1	8
3	1036	QPSK	3	7
3	1036	16QAM	1	30
4	1380	QPSK	4	7
4	1380	16QAM	2	7
5	1711	QPSK	5	6
5	1711	16QAM	2	19
6	2046	QPSK	6	6
6	2046	16QAM	3	6
7	2404	QPSK	7	6
7	2404	16QAM	3	15
8	2726	QPSK	8	6
8	2726	16QAM	4	6
9	3090	QPSK	10	0
9	3090	16QAM	5	0
10	3440	QPSK	11	1
10	3440	16QAM	5	6
11	3762	QPSK	12	1
11	3762	16QAM	6	1
12	4115	QPSK	13	2
12	4115	16QAM	6	6
13	4420	QPSK	14	1
13	4420	16QAM	7	1
14	4748	QPSK	15	2
14	4748	16QAM	7	5
15	5101	QPSK	15	6
15	5101	16QAM	8	2
16	5480	QPSK	15	10
16	5480	16QAM	8	6
17	5782	QPSK	15	13
17	5782	16QAM	9	2
18	6101	QPSK	15	16
18	6101	16QAM	10	0
19	6438	QPSK	15	19
19	6438	16QAM	10	3
20	6793	QPSK	15	22
20	6793	16QAM	11	0
21	7168	QPSK	15	25
21	7168	16QAM	11	3
22	7430	QPSK	15	27
22	7430	16QAM	12	0
23	7840	QPSK	15	30
23	7840	16QAM	12	3
24	8125	QPSK	15	32
24	8125	16QAM	13	1
25	8422	QPSK	15	34
25	8422	16QAM	13	3
26	8886	QPSK	15	37
26	8886	16QAM	14	2
27	9210	QPSK	15	39
27	9210	16QAM	15	0
28	9546	QPSK	15	41
28	9546	16QAM	15	2
29	9894	QPSK	15	43
29	9894	16QAM	15	4
30	10255	QPSK	15	45
30	10255	16QAM	15	6
31	10440	QPSK	15	46
31	10440	16QAM	15	7
32	10821	QPSK	15	48
32	10821	16QAM	15	9
33	11418	QPSK	15	51	TFRI = 50 would have minimised padding but is not acceptable as the coding rate (0.78056) would have given 3.5 dB due to turbo coder irregularities. TFRI=51 is selected.
33	11216	16QAM	15	11
34	11625	QPSK	15	52
34	11625	16QAM	15	13
35	11835	QPSK	15	53
35	11835	16QAM	15	14
36	12266	QPSK	15	55
36	12266	16QAM	15	16
37	12488	QPSK	15	56
37	12488	16QAM	15	17
38	12943	QPSK	15	58
38	12943	16QAM	15	19
39	13177	QPSK	15	59
39	13177	16QAM	15	20
40	13657	QPSK	15	61
40	13657	16QAM	15	22
41	13904	QPSK	15	62
41	13904	16QAM	15	23
42	14155	16QAM	15	24
43	14671	16QAM	15	26
44	14936	16QAM	15	27
45	15206	16QAM	15	28
46	15481	16QAM	15	29
47	16045	16QAM	15	31
48	16335	16QAM	15	32
49	16630	16QAM	15	33
50	16931	16QAM	15	34
51	17237	16QAM	15	35
52	17548	16QAM	15	36
53	17865	16QAM	15	37
54	18188	16QAM	15	38
55	18517	16QAM	15	39
56	18851	16QAM	15	40
57	19192	16QAM	15	41
58	19538	16QAM	15	42
59	19891	16QAM	15	43
60	20251	16QAM	15	44
61	20617	16QAM	15	45
62	20989	16QAM	15	46
63	21368	16QAM	15	47
64	21754	16QAM	15	48
65	22147	16QAM	15	49
66	22955	16QAM	15	51	TFRI = 50 would have minimised padding but is not acceptable as the coding rate (0.78375) would have given 3.5 dB due to turbo coder irregularities. TFRI=51 is selected.
67	22955	16QAM	15	51	TFRI = 50 would have minimised padding but is not acceptable as the coding rate (0.78375) would have given 3.5 dB due to turbo coder irregularities. TFRI=51 is selected.
68	22955	16QAM	15	51
69	23370	16QAM	15	52
70	23792	16QAM	15	53

Table 14.1.3.3.5: TFRC test points for UE category 11 and UE category 12 for MAC-d PDU size=336

Number of MAC-d PDUs	Selected transport block size [bits]	Modulation scheme	Number of codes	TFRI
1	365	QPSK	1	19
2	699	QPSK	2	8
3	1036	QPSK	3	7
4	1380	QPSK	4	7
5	1711	QPSK	5	6
6	2046	QPSK	5	16
7	2404	QPSK	5	25
8	2726	QPSK	5	32
9	3090	QPSK	5	39
10	3440	QPSK	5	45

14.1.3.4 TFRC test points for MAC-d PDU size=656

Table 14.1.3.4.1: TFRC test points for UE category 1 to UE category 6 for MAC-d PDU size=656

Number of MAC-d PDUs	Selected transport block size [bits]	Modulation scheme	Number of codes	TFRI	Comments
1	686	QPSK	2	7
1	686	16QAM	1	7
2	1356	QPSK	4	6
2	1356	16QAM	2	6
3	2010	QPSK	5	15
3	2010	16QAM	3	5
4	2677	QPSK	5	31
4	2677	16QAM	4	5
5	3319	QPSK	5	43
5	3319	16QAM	5	4
6	3970	QPSK	5	53
6	3970	16QAM	5	14
7	4664	QPSK	5	62
7	4664	16QAM	5	23
8	5287	16QAM	5	30
9	5993	16QAM	5	37
10	6673	16QAM	5	43
11	7298	16QAM	5	48

Table 14.1.3.4.2: TFRC test points for UE category 7 and UE category 8 for MAC-d PDU size=656

Number of MAC-d PDUs	Selected transport block size [bits]	Modulation scheme	Number of codes	TFRI
1	686	QPSK	2	7
1	686	16QAM	1	7
2	1356	QPSK	4	6
2	1356	16QAM	2	6
3	2010	QPSK	6	5
3	2010	16QAM	3	5
4	2677	QPSK	8	5
4	2677	16QAM	4	5
5	3319	QPSK	10	4
5	3319	16QAM	5	4
6	3970	QPSK	10	14
6	3970	16QAM	6	4
7	4664	QPSK	10	23
7	4664	16QAM	7	4
8	5287	QPSK	10	30
8	5287	16QAM	8	4
9	5993	QPSK	10	37
9	5993	16QAM	9	4
10	6673	QPSK	10	43
10	6673	16QAM	10	5
11	7298	QPSK	10	48
11	7298	16QAM	10	10
12	7981	QPSK	10	53
12	7981	16QAM	10	15
13	8574	QPSK	10	57
13	8574	16QAM	10	19
14	9210	QPSK	10	61
14	9210	16QAM	10	23
15	9894	16QAM	10	27
16	10629	16QAM	10	31
17	11216	16QAM	10	34
18	11835	16QAM	10	37
19	12488	16QAM	10	40
20	13177	16QAM	10	43
21	13904	16QAM	10	46

Table 14.1.3.4.3: TFRC test points for UE category 9 for MAC-d PDU size=656

Number of MAC-d PDUs	Selected transport block size [bits]	Modulation scheme	Number of codes	TFRI	Comments
1	686	QPSK	2	7
1	686	16QAM	1	7
2	1356	QPSK	4	6
2	1356	16QAM	2	6
3	2010	QPSK	6	5
3	2010	16QAM	3	5
4	2677	QPSK	8	5
4	2677	16QAM	4	5
5	3319	QPSK	10	4
5	3319	16QAM	5	4
6	3970	QPSK	13	0
6	3970	16QAM	6	4
7	4664	QPSK	15	1
7	4664	16QAM	7	4
8	5287	QPSK	15	8
8	5287	16QAM	8	4
9	5993	QPSK	15	15
9	5993	16QAM	9	4
10	6673	QPSK	15	21
10	6673	16QAM	10	5
11	7298	QPSK	15	26
11	7298	16QAM	11	4
12	7981	QPSK	15	31
12	7981	16QAM	13	0
13	8574	QPSK	15	35
13	8574	16QAM	14	0
14	9210	QPSK	15	39
14	9210	16QAM	15	0
15	9894	QPSK	15	43
15	9894	16QAM	15	4
16	10629	QPSK	15	47
16	10629	16QAM	15	8
17	11418	QPSK	15	51	TFRI = 50 would have minimised padding but is not acceptable as the coding rate (0.7806) would have given 3.5 dB due to turbo coder irregularities TFRI=51 is selected.
17	11216	16QAM	15	11
18	11835	QPSK	15	53
18	11835	16QAM	15	14
19	12488	QPSK	15	56
19	12488	16QAM	15	17
20	13177	QPSK	15	59
20	13177	16QAM	15	20
21	13904	QPSK	15	62
21	13904	16QAM	15	23
22	14671	16QAM	15	26
23	15206	16QAM	15	28
24	16045	16QAM	15	31
25	16630	16QAM	15	33
26	17237	16QAM	15	35
27	17865	16QAM	15	37
28	18517	16QAM	15	39
29	19192	16QAM	15	41
30	19891	16QAM	15	43

Table 14.1.3.4.4: TFRC test points for UE category 10 for MAC-d PDU size=656

Number of MAC-d PDUs	Selected transport block size [bits]	Modulation scheme	Number of codes	TFRI	Comments
1	686	QPSK	2	7
1	686	16QAM	1	7
2	1356	QPSK	4	6
2	1356	16QAM	2	6
3	2010	QPSK	6	5
3	2010	16QAM	3	5
4	2677	QPSK	8	5
4	2677	16QAM	4	5
5	3319	QPSK	10	4
5	3319	16QAM	5	4
6	3970	QPSK	13	0
6	3970	16QAM	6	4
7	4664	QPSK	15	1
7	4664	16QAM	7	4
8	5287	QPSK	15	8
8	5287	16QAM	8	4
9	5993	QPSK	15	15
9	5993	16QAM	9	4
10	6673	QPSK	15	21
10	6673	16QAM	10	5
11	7298	QPSK	15	26
11	7298	16QAM	11	4
12	7981	QPSK	15	31
12	7981	16QAM	13	0
13	8574	QPSK	15	35
13	8574	16QAM	14	0
14	9210	QPSK	15	39
14	9210	16QAM	15	0
15	9894	QPSK	15	43
15	9894	16QAM	15	4
16	10629	QPSK	15	47
16	10629	16QAM	15	8
17	11418	QPSK	15	51	TFRI = 50 would have minimised padding but is not acceptable as the coding rate (0.7806) would have given 3.5 dB due to turbo coder irregularities TFRI=51 is selected.
17	11216	16QAM	15	11
18	11835	QPSK	15	53
18	11835	16QAM	15	14
19	12488	QPSK	15	56
19	12488	16QAM	15	17
20	13177	QPSK	15	59
20	13177	16QAM	15	20
21	13904	QPSK	15	62
21	13904	16QAM	15	23
22	14671	16QAM	15	26
23	15206	16QAM	15	28
24	16045	16QAM	15	31
25	16630	16QAM	15	33
26	17237	16QAM	15	35
27	17865	16QAM	15	37
28	18517	16QAM	15	39
29	19192	16QAM	15	41
30	19891	16QAM	15	43
31	20617	16QAM	15	45
32	21368	16QAM	15	47
33	21754	16QAM	15	48
34	22955	16QAM	15	51	TFRI = 50 would have minimised padding but is not acceptable as the coding rate (0.78375) would have given 3.5 dB due to turbo coder irregularities TFRI=51 is selected.
35	23370	16QAM	15	52
36	23792	16QAM	15	53
37	24659	16QAM	15	55
38	25558	16QAM	15	57	TFRI = 56 would have minimised padding but is not acceptable as the coding rate (0.8725) would have given 2 dB due to turbo coder irregularities TFRI=57 is selected.
39	26020	16QAM	15	58
40	26490	16QAM	15	59
41	26969	16QAM	15	60
42	27952	16QAM	15	62

Table 14.1.3.4.5: TFRC test points for UE category 11 and UE category 12 for MAC-d PDU size=656

Number of MAC-d PDUs	Selected transport block size [bits]	Modulation scheme	Number of codes	TFRI
1	686	QPSK	2	7
2	1356	QPSK	4	6
3	2010	QPSK	5	15
4	2677	QPSK	5	31
5	3319	QPSK	5	43

14.1.3.4b TB test points for enhanced Layer 2

14.1.3.4b.1 TFRC test points for MAC-ehs and QPSK with fixed MAC-d PDU size=336

NOTE 1 For M= QPSK then table 14.1.3.4b.1.1 is used. For M= 16QAM then table 14.1.3.4b.1.2 is used. For M= 64QAM then table 14.1.3.4b.1.3 is used.

NOTE 2 Column “Applicable Physical HS-DSCH UE categories” defines the applicability of test points vs. Physical HS-DSCH UE categories.

Table 14.1.3.4b.1.1: Test points for QPSK and fixed MAC-d PDU size=336

# MAC-d PDUs	Selected TBS	Modulation scheme	Number of codes	TFRI	Applicable Physical HS-DSCH UE categories	Comments
1	360	QPSK	1	30	1 to 20
2	712	QPSK	2	9	1 to 20
3	1072	QPSK	3	9	1 to 20
4	1432	QPSK	4	9	1 to 20
5	1776	QPSK	5	9	1 to 20
6	2128	QPSK	5	19	1 to 6,11 and 12
6	2128	QPSK	7	0	7 to 10 and 13 to 20
7	2496	QPSK	5	28	1 to 6,11 and 12
7	2496	QPSK	8	1	7 to 10 and 13 to 20
8	2832	QPSK	5	35	1 to 6,11 and 12
8	2832	QPSK	9	2	7 to 10 and 13 to 20
9	3208	QPSK	5	42	1 to 6,11 and 12
9	3208	QPSK	10	3	7 to 10 and 13 to 20
10	3576	QPSK	5	48	1 to 6,11 and 12
10	3576	QPSK	10	9	7 and 8
10	3576	QPSK	11	4	9 to 10 and 13 to 20
11	3912	QPSK	5	53	1 to 6
11	3912	QPSK	10	14	7 and 8
11	3912	QPSK	12	4	9 to 10 and 13 to 20
12	4272	QPSK	5	58	1 to 6
12	4272	QPSK	10	19	7 and 8
12	4272	QPSK	14	0	9 to 10 and 13 to 20
13	4592	QPSK	5	62	1 to 6
13	4592	QPSK	10	23	7 and 8
13	4592	QPSK	15	0	9 to 10 and 13 to 20
14	4936	QPSK	10	27	7 and 8
14	4936	QPSK	15	4	9 to 10 and 13 to 20
15	5296	QPSK	10	31	7 and 8
15	5296	QPSK	15	8	9 to 10 and 13 to 20
16	5688	QPSK	10	35	7 and 8
16	5688	QPSK	15	12	9 to 10 and 13 to 20
17	6008	QPSK	10	38	7 and 8
17	6008	QPSK	15	15	9 to 10 and 13 to 20
18	6448	QPSK	10	42	7 and 8
18	6448	QPSK	15	19	9 to 10 and 13 to 20
19	6808	QPSK	10	45	7 and 8
19	6808	QPSK	15	22	9 to 10 and 13 to 20
20	7056	QPSK	10	47	7 and 8
20	7056	QPSK	15	24	9 to 10 and 13 to 20
21	7576	QPSK	10	51	7 and 8	TFRI = 50 would have minimised padding but is not acceptable as the coding rate (0.777) would have given 3.5 dB due to turbo coder irregularities. TFRI=51 is selected.
21	7440	QPSK	15	27	9 to 10 and 13 to 20
22	7856	QPSK	10	53	7 and 8
22	7856	QPSK	15	30	9 to 10 and 13 to 20
23	8136	QPSK	10	55	7 and 8
23	8136	QPSK	15	32	9 to 10 and 13 to 20
24	8592	QPSK	10	58	7 and 8
24	8592	QPSK	15	35	9 to 10 and 13 to 20
25	8904	QPSK	10	60	7 and 8
25	8904	QPSK	15	37	9 to 10 and 13 to 20
26	9224	QPSK	10	62	7 and 8
26	9224	QPSK	15	39	9 to 10 and 13 to 20

Table 14.1.3.4b.1.2: Test points for 16QAM and fixed MAC-d PDU size=336

# MAC-d PDUs	Selected TBS	Modulation scheme	Number of codes	TFRI	Applicable Physical HS-DSCH UE categories	Comments
2	712	16QAM	1	9	1 to 10 and 13 to 20
3	1072	16QAM	1	32	1 to 10 and 13 to 20
4	1432	16QAM	2	9	1 to 10 and 13 to 20
5	1776	16QAM	2	21	1 to 10 and 13 to 20
6	2128	16QAM	3	9	1 to 10 and 13 to 20
7	2496	16QAM	4	1	1 to 10 and 13 to 20
8	2832	16QAM	4	8	1 to 10 and 13 to 20
9	3208	16QAM	5	3	1 to 10 and 13 to 20
10	3576	16QAM	5	9	1 to 10 and 13 to 20
11	3912	16QAM	5	14	1 to 6
11	3912	16QAM	6	4	7 to 10 and 13 to 20
12	4272	16QAM	5	19	1 to 6
12	4272	16QAM	7	0	7 to 10 and 13 to 20
13	4592	16QAM	5	23	1 to 6
13	4592	16QAM	7	4	7 to 10 and 13 to 20
14	4936	16QAM	5	27	1 to 6
14	4936	16QAM	8	1	7 to 10 and 13 to 20
15	5296	16QAM	5	31	1 to 6
15	5296	16QAM	8	5	7 to 10 and 13 to 20
16	5688	16QAM	5	35	1 to 6
16	5688	16QAM	9	2	7 to 10 and 13 to 20
17	6008	16QAM	5	38	1 to 6
17	6008	16QAM	9	5	7 to 10 and 13 to 20
18	6448	16QAM	5	42	1 to 6
18	6448	16QAM	10	3	7 to 10 and 13 to 20
19	6808	16QAM	5	45	1 to 6
19	6808	16QAM	10	6	7 and 8
19	6808	16QAM	11	1	9 to 10 and 13 to 20
20	7056	16QAM	5	47	1 to 6
20	7056	16QAM	10	8	7 and 8
20	7056	16QAM	11	3	9 to 10 and 13 to 20
21	7440	16QAM	10	11	7 and 8
21	7440	16QAM	12	1	9 to 10 and 13 to 20
22	7856	16QAM	10	14	7 and 8
22	7856	16QAM	13	0	9 to 10 and 13 to 20
23	8136	16QAM	10	16	7 and 8
23	8136	16QAM	13	2	9 to 10 and 13 to 20
24	8592	16QAM	10	19	7 and 8
24	8592	16QAM	14	0	9 to 10 and 13 to 20
25	8904	16QAM	10	21	7 and 8
25	8904	16QAM	14	2	9 to 10 and 13 to 20
26	9224	16QAM	10	23	7 and 8
26	9224	16QAM	15	1	9 to 10 and 13 to 20

Table 14.1.3.4b.1.3: Test points for 64QAM and fixed MAC-d PDU size=336

# MAC-d PDUs	Selected TBS	Modulation scheme	Number of codes	TFRI	Applicable Physical HS-DSCH UE categories	Comments
3	1072	64QAM	1	9	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
4	1432	64QAM	1	25	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
5	1776	64QAM	1	37	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
6	2128	64QAM	2	9	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
7	2496	64QAM	2	18	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
8	2832	64QAM	3	2	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
9	3208	64QAM	3	9	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
10	3576	64QAM	3	15	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
11	3912	64QAM	4	4	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
12	4272	64QAM	4	9	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
13	4592	64QAM	5	0	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
14	4936	64QAM	5	4	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
15	5296	64QAM	5	8	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
16	5688	64QAM	6	2	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
17	6008	64QAM	6	5	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
18	6448	64QAM	7	0	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
19	6808	64QAM	7	3	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
20	7056	64QAM	7	5	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
21	7440	64QAM	8	1	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
22	7856	64QAM	8	4	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
23	8136	64QAM	8	6	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
24	8592	64QAM	9	2	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
25	8904	64QAM	9	4	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20
26	9224	64QAM	10	1	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20

14.1.3.4b.2 TFRC test points for MAC-ehs and fixed MAC-d PDU size=656 or flexible MAC-d PDU size; or for radio bearer combinations with mix of fixed and flexible MAC-d PDU sizes

NOTE 1 For M= QPSK then table 14.1.3.4b.2.1 is used. For M= 16QAM then table 14.1.3.4b.2.2 is used. For M= 64QAM then table 14.1.3.4b.2.3 is used. For the case of Dual Cell or MIMO and mix of QPSK and 16QAM for MIMO data flow#1 and MIMO data flow#2 then table 14.1.3.4b.2.4 is used. For the case of 3C-HSDPA without MIMO or 4C-HSDPA without MIMO and M=QPSK then table 14.1.3.4b.2.1 is used. For the case of 3C-HSDPA without MIMO or 4C-HSDPA without MIMO and M=16QAM then table 14.1.3.4b.2.2 is used. For the case of 3C-HSDPA without MIMO or 4C-HSDPA without MIMO and M=64QAM then table 14.1.3.4b.2.3 is used.

NOTE 2 Column “Applicable Physical HS-DSCH UE categories” defines the applicability of test points vs. Physical HS-DSCH UE categories.

NOTE 3 For the case a configuration with flexible MAC-d PDU size is under test then the parameter as denoted N_PDUs is only used to index the test points. For the case of configuration with fixed MAC-d PDU size=656 then this parameter also indicates the number of MAC-d PDUs the SS use when transmitting the test data in downlink.

Table 14.1.3.4b.2.1: Test points for QPSK, fixed MAC-d PDU size=656 or flexible MAC-d PDU size; or for radio bearer combinations with mix of fixed and flexible MAC-d PDU sizes

# MAC-d PDUs# MAC-d PDUs for the fixed RLC case	Selected TBS	Modulation scheme	Number of codes	TFRI	Applicable Physical HS-DSCH UE categories	Comments
1	688	QPSK	2	7	1 to 24
2	1360	QPSK	4	6	1 to 24
3	2048	QPSK	5	17	1 to 6,11 and 12
3	2048	QPSK	6	7	7 to 10 and 13 to 24
4	2736	QPSK	5	33	1 to 6,11 and 12
4	2736	QPSK	9	0	7 to 10 and 13 to 24
5	3384	QPSK	5	45	1 to 6,11 and 12
5	3384	QPSK	10	6	7 and 8
5	3384	QPSK	11	1	9 to 10 and 13 to 24
6	4048	QPSK	5	55	1 to 6
6	4048	QPSK	10	16	7 and 8
6	4048	QPSK	13	1	9 to 10 and 13 to 24
7	4760	QPSK	10	25	7 and 8
7	4760	QPSK	15	2	9 to 10 and 13 to 24 29 and 31
8	5392	QPSK	10	32	7 and 8
8	5392	QPSK	15	9	9 to 10 and 13 to 24 29 and 31
9	6112	QPSK	10	39	7 and 8
9	6112	QPSK	15	16	9 to 10 and 13 to 24 29 and 31
10	6808	QPSK	10	45	7 and 8
10	6808	QPSK	15	22	9 to 10 and 13 to 24 29 and 31
11	7576	QPSK	10	51	7 and 8	TFRI = 50 would have minimised padding but is not acceptable as the coding rate (0.777) would have given 3.5 dB due to turbo coder irregularities. TFRI=51 is selected.
11	7440	QPSK	15	27	9 to 10 and 13 to 24 29 and 31
12	8136	QPSK	10	55	7 and 8
12	8136	QPSK	15	32	9 to 10 and 13 to 24 29 and 31
13	8904	QPSK	10	60	7 and 8	TFRI = 59 would have minimised padding but is not acceptable as the coding rate (0.913) would have given 2 dB due to turbo coder irregularities. TFRI=60 is selected.
13	8744	QPSK	15	36	9 to 10 and 13 to 24 29 and 31
14	9560	QPSK	15	41	9 to 10 and 13 to 24 29 and 31
15	10088	QPSK	15	44	9 to 10 and 13 to 24 29 and 31
16	10840	QPSK	15	48	9 to 10 and 13 to 24 29 and 31
17	11432	QPSK	15	51	9 to 10 and 13 to 24 29 and 31
18	12280	QPSK	15	55	9 to 10 and 13 to 24 29 and 31
19	12960	QPSK	15	58	9 to 10 and 13 to 24 29 and 31
20	13672	QPSK	15	61	9 to 10 and 13 to 24 29 and 31

Table 14.1.3.4b.2.2: Test points for 16QAM, fixed MAC-d PDU size=656 or flexible MAC-d PDU size; or for radio bearer combinations with mix of fixed and flexible MAC-d PDU sizes

# MAC-d PDUs# MAC-d PDUs for the fixed RLC case	Selected TBS	Modulation scheme	Number of codes	TFRI	Applicable Physical HS-DSCH UE categories	Comments
1	688	16QAM	1	7	1 to 10 and 13 to 28
2	1360	16QAM	2	6	1 to 10 and 13 to 28
3	2048	16QAM	3	7	1 to 10 and 13 to 28
4	2736	16QAM	4	6	1 to 10 and 13 to 28
5	3384	16QAM	5	6	1 to 10 and 13 to 28
6	4048	16QAM	5	16	1 to 6
6	4048	16QAM	6	6	7 to 10 and 13 to 28
7	4760	16QAM	5	25	1 to 6
7	4760	16QAM	7	6	7 to 10 and 13 to 28
8	5392	16QAM	5	32	1 to 6
8	5392	16QAM	8	6	7 to 10 and 13 to 28
9	6112	16QAM	5	39	1 to 6
9	6112	16QAM	10	0	7 to 10 and 13 to 28
10	6808	16QAM	5	45	1 to 6
10	6808	16QAM	10	6	7 and 8
10	6808	16QAM	11	1	9 to 10 and 13 to 28
11	7440	16QAM	10	11	7 and 8
11	7440	16QAM	12	1	9 to 10 and 13 to 28
12	8136	16QAM	10	16	7 and 8
12	8136	16QAM	13	2	9 to 10 and 13 to 28
13	8744	16QAM	10	20	7 and 8
13	8744	16QAM	14	1	9 to 10 and 13 to 28

14	9560	16QAM	10	25	7 and 8
14	9560	16QAM	15	3	9 to 10 and 13 to 28 29 and 31
15	10088	16QAM	10	28	7 and 8
15	10088	16QAM	15	6	9 to 10 and 13 to 28 29 and 31
16	10840	16QAM	10	32	7 and 8
16	10840	16QAM	15	10	9 to 10 and 13 to 28 29 and 31
17	11432	16QAM	10	35	7 and 8
17	11432	16QAM	15	13	9 to 10 and 13 to 28 29 and 31
18	12280	16QAM	10	39	7 and 8
18	12280	16QAM	15	17	9 to 10 and 13 to 28 29 and 31
19	12960	16QAM	10	42	7 and 8
19	12960	16QAM	15	20	9 to 10 and 13 to 28 29 and 31
20	13672	16QAM	10	45	7 and 8
20	13672	16QAM	15	23	9 to 10 and 13 to 28 29 and 31
21	14168	16QAM	10	47	7 and 8
21	14168	16QAM	15	25	9 to 10 and 13 to 28 29 and 31
22	14952	16QAM	15	28	9 to 10 and 13 to 28 29 and 31
23	15496	16QAM	15	30	9 to 10 and 13 to 28 29 and 31
24	16352	16QAM	15	33	9 to 10 and 13 to 28 29 and 31
25	16944	16QAM	15	35	9 to 10 and 13 to 28 29 and 31
26	17568	16QAM	15	37	9 to 10 and 13 to 28 29 and 31
(27)	17880	16QAM	15	38	9 to 10 and 13 to 28 29 and 31	See Note 1
(28)	18536	16QAM	15	40	9 to 10 and 13 to 28 29 and 31	See Note 1
(29)	19208	16QAM	15	42	9 to 10 and 13 to 28 29 and 31	See Note 1
(30)	19904	16QAM	15	44	9 to 10 and 13 to 28 29 and 31	See Note 1
(31)	20632	16QAM	15	46	10 and 13 to 28 29 and 31	See Note 1
(32)	21384	16QAM	15	48	10 and 13 to 28	See Note 1
(33)	21768	16QAM	15	49	10 and 13 to 28 29 and 31	See Note 1
(34)	22968	16QAM	15	52	10 and 13 to 28 29 and 31	See Note 1 TFRI = 51 would have minimised padding but is not acceptable as the coding rate (0.784) would have given 3.5 dB due to turbo coder irregularities TFRI=52 is selected.
(35)	23384	16QAM	15	53	10, 13, 14,16, 17 non-MIMO, 20, 24 and 28 29 and 31	See Note 1
(36)	23808	16QAM	15	54	10, 13, 14,16, 17 non-MIMO, 20, 24 and 28 29 and 31	See Note 1
(37)	24672	16QAM	15	56	10, 13, 14,16, 17 non-MIMO, 20, 24 and 28 29 and 31	See Note 1
(38)	25568	16QAM	15	58	10, 13, 14,16, 17 non-MIMO, 20, 24 and 28 29 and 31	See Note 1 TFRI = 57 would have minimised padding but is not acceptable as the coding rate (0.873) would have given 2 dB due to turbo coder irregularities TFRI=58 is selected.
(39)	26032	16QAM	15	59	10, 13, 14,16, 17 non-MIMO, 20, 24 and 28 29 and 31	See Note 1
(40)	26504	16QAM	15	60	10, 13, 14,16, 17 non-MIMO, 20, 24 and 28 29 and 31	See Note 1
(41)	26976	16QAM	15	61	10, 13, 14,16, 17 non-MIMO, 20, 24 and 28 29 and 31	See Note 1
Note 1: This test point is not applicable for the fixed RLC case as the number of MAC-d PDUs would have exceeded the maximum limit of 26 as specified by TS 25.321 clause 9.1.4. When flexible MAC-d PDU size is under test then the parameter as denoted (x) is only used to index the test points

Table 14.1.3.4b.2.3: Test points for 64QAM, fixed MAC-d PDU size=656 or flexible MAC-d PDU size; or for radio bearer combinations with mix of fixed and flexible MAC-d PDU sizes

# MAC-d PDUs# MAC-d PDUs for the fixed RLC case	Selected TBS	Modulation scheme	Number of codes	TFRI	Applicable Physical HS-DSCH UE categories	Comments
2	1360	64QAM	1	22	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
3	2048	64QAM	2	7	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
4	2736	64QAM	3	0	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
5	3384	64QAM	3	12	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
6	4048	64QAM	4	6	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
7	4760	64QAM	5	2	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
8	5392	64QAM	5	9	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
9	6112	64QAM	6	6	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
10	6808	64QAM	7	3	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
11	7440	64QAM	8	1	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
12	8136	64QAM	8	6	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
13	8744	64QAM	9	3	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
14	9560	64QAM	10	3	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
15	10088	64QAM	11	0	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
16	10840	64QAM	11	4	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
17	11432	64QAM	12	2	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
18	12280	64QAM	13	2	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
19	12960	64QAM	14	1	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
20	13672	64QAM	14	4	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28
21	14168	64QAM	15	1	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31
22	14952	64QAM	15	4	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31
23	15496	64QAM	15	6	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31
24	16352	64QAM	15	9	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31
25	16944	64QAM	15	11	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31
26	17568	64QAM	15	13	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31
(27)	17880	64QAM	15	14	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(28)	18536	64QAM	15	16	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(29)	19208	64QAM	15	18	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(30)	19904	64QAM	15	20	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(31)	20632	64QAM	15	22	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(32)	21384	64QAM	15	24	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(33)	21768	64QAM	15	25	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(34)	22560	64QAM	15	27	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(35)	23384	64QAM	15	29	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(36)	23808	64QAM	15	30	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(37)	24672	64QAM	15	32	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(38)	25120	64QAM	15	33	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(39)	26032	64QAM	15	35	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(40)	26504	64QAM	15	36	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(41)	26976	64QAM	15	37	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(42)	27960	64QAM	15	39	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(43)	28464	64QAM	15	40	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(44)	28976	64QAM	15	41	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(45)	30032	64QAM	15	43	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(46)	30576	64QAM	15	44	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(47)	31128	64QAM	15	45	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(48)	31688	64QAM	15	46	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(49)	32264	64QAM	15	47	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(50)	32848	64QAM	15	48	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(51)	Void
(52)	34656	64QAM	15	51	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(53)	35280	64QAM	15	52	13, 14, 17 non-MIMO, 18 non-MIMO, 19, 20, 23, 24, 27, 28 29 and 31	See Note 1
(54)	35920	64QAM	15	53	14 and 18 non-MIMO, 20, 24, 28 29 and 31	See Note 1
(55)	36568	64QAM	15	54	14 and 18 non-MIMO, 20, 24, 28 29 and 31	See Note 1
(56)	37224	64QAM	15	55	14 and 18 non-MIMO, 20, 24, 28 29 and 31	See Note 1
(57)	Void
(58)	38576	64QAM	15	57	14 and 18 non-MIMO, 20, 24, 28 29 and 31	See Note 1
(59)	39272	64QAM	15	58	14 and 18 non-MIMO, 20, 24, 28 29 and 31	See Note 1
(60)	39984	64QAM	15	59	14 and 18 non-MIMO, 20, 24, 28 29 and 31	See Note 1
(61)	40704	64QAM	15	60	14 and 18 non-MIMO, 20, 24, 28 29 and 31	See Note 1
(62)	Void
(63)	Void
(64)	42192	64QAM	15	62	14 and 18 non-MIMO, 20, 24, 28 29 and 31	See Note 1
Note 1: This test point is not applicable for the fixed RLC case as the number of MAC-d PDUs would have exceeded the maximum limit of 26 as specified by TS 25.321 clause 9.1.4. When flexible MAC-d PDU size is under test then the parameter as denoted (x) is only used to index the test points

Table 14.1.3.4b.2.4: Test points for Dual Cell or MIMO and mix of 16QAM and QPSK for Dual Cell or MIMO data flow#1 and Dual Cell or MIMO data flow#2, fixed MAC-d PDU size=656 or flexible MAC-d PDU size; or for radio bearer combinations with mix of fixed and flexible MAC-d PDU sizes

Test point Index See note 1	Number of codes	Dual Cell or MIMO Flow#1				Dual Cell or MIMO Flow#2				Applicable Physical HS-DSCH UE categories	Comments
Test point Index See note 1	Number of codes	# MAC-d PDUs# MAC-d PDUs for the fixed RLC case	Selected TBS (TBS1)	Modulation scheme (M1)	TFRI1	# MAC-d PDUs# MAC-d PDUs for the fixed RLC case	Selected TBS (TBS2)	Modulation scheme (M2)	TFRI2	Applicable Physical HS-DSCH UE categories	Comments
1	2	2	1360	16QAM	6	1	688	QPSK	7	15 to 24
2	4	4	2736	16QAM	6	2	1360	QPSK	6	15 to 24
3											Void
4	6	6	4048	16QAM	6	3	2048	QPSK	7	15 to 24
5											Void
6	9	8	6112	16QAM	6	4	2736	QPSK	0	15 to 24
7											Void
8											Void
9	11	10	6608	16QAM	1	5	3384	QPSK	1	15 to 24
10											Void
11											Void
12	13	12	8136	16QAM	2	6	4048	QPSK	1	15 to 24
13											Void
14	15	14	9560	16QAM	3	7	4760	QPSK	2	15 to 24
15											Void
16	15	15	10088	16QAM	6	8	5392	QPSK	9	15 to 24
17											Void
18	15	16	10840	16QAM	10	9	6112	QPSK	16	15 to 24
19											Void
20	15	17	11432	16QAM	13	10	6808	QPSK	22	15 to 24
21											Void
22	15	18	12280	16QAM	17	11	7440	QPSK	27	15 to 24
23											Void
24	15	19	12960	16QAM	20	12	8136	QPSK	32	15 to 24
25											Void
26	15	20	13672	16QAM	23	13	8744	QPSK	36	15 to 24
27	Void
28	15	21	14168	16QAM	25	14	9560	QPSK	41	15 to 24
29	15	22	14952	16QAM	28	15	10088	QPSK	44	15 to 24
30	15	23	15496	16QAM	30	16	10840	QPSK	48	15 to 24
31	15	24	16352	16QAM	33	17	11432	QPSK	51	15 to 24
32	15	25	16944	16QAM	35	18	12280	QPSK	55	15 to 24
33	15	26	17568	16QAM	37	19	12960	QPSK	58	15 to 24
34	15	n/a (27)	17880	16QAM	38	20	13672	QPSK	61	15 to 24	See note 2
35											Void
Note 1: The test point index is included to provide a unique reference to the different test points for the Dual Cell or MIMO mixed modulation case. Note 2: This test point is not applicable for the fixed RLC case as the number of MAC-d PDUs would have exceeded the maximum limit of 26 as specified by TS 25.321 clause 9.1.4.

Table 14.1.3.4b.2.5: Test points for Dual Cell or MIMO and mix of 64QAM and QPSK for Dual Cell or MIMO data flow#1 and Dual Cell or MIMO data flow#2, fixed MAC-d PDU size=656 or flexible MAC-d PDU size; or for radio bearer combinations with mix of fixed and flexible MAC-d PDU sizes

Test point Index See note 1	Number of codes	Dual Cell or MIMO Flow#1				Dual Cell or MIMO Flow#2				Applicable Physical HS-DSCH UE categories	Comments
Test point Index See note 1	Number of codes	# MAC-d PDUs# MAC-d PDUs for the fixed RLC case	Selected TBS (TBS1)	Modulation scheme (M1)	TFRI1	# MAC-d PDUs# MAC-d PDUs for the fixed RLC case	Selected TBS (TBS2)	Modulation scheme (M2)	TFRI2	Applicable Physical HS-DSCH UE categories	Comments
1	2	3	2048	64QAM	7	1	688	QPSK	7	19, 20, 23, 24
2	4	6	4048	64QAM	6	2	1360	QPSK	6	19, 20, 23, 24
3											Void
4	6	9	6112	64QAM	6	3	2048	QPSK	7	19, 20, 23, 24
5											Void
6	8	12	8136	64QAM	6	4	2736	QPSK	6	19, 20, 23, 24
7											Void
8											Void
9	11	16	10840	64QAM	4	5	3384	QPSK	1	19, 20, 23, 24
10											Void
11											Void
12	13	18	12280	64QAM	2	6	4048	QPSK	1	19, 20, 23, 24
13											Void
14	15	21	14168	64QAM	1	7	4760	QPSK	2	19, 20, 23, 24
15											Void
16	15	22	14952	64QAM	4	8	5392	QPSK	9	19, 20, 23, 24
17											Void
18	15	23	15496	64QAM	6	9	6112	QPSK	16	19, 20, 23, 24
19											Void
20	15	24	16352	64QAM	9	10	6808	QPSK	22	19, 20, 23, 24
21											Void
22	15	25	16944	64QAM	11	11	7440	QPSK	27	19, 20, 23, 24
23											Void
24	15	26	17568	64QAM	13	12	8136	QPSK	32	19, 20, 23, 24
25											Void
26	15	(27)	17880	64QAM	14	13	8744	QPSK	36	19, 20, 23, 24	See note 2
27											Void
28	15	(32)	21384	64QAM	24	14	9560	QPSK	41	19, 20, 23, 24	See note 2
29	15	(37)	24672	64QAM	32	15	10088	QPSK	44	19, 20, 23, 24	See note 2
30	15	(42)	27960	64QAM	39	16	10840	QPSK	48	19, 20, 23, 24	See note 2
31	15	(46)	30576	64QAM	44	17	11432	QPSK	51	19, 20, 23, 24	See note 2
32	15	(50)	32848	64QAM	48	18	12280	QPSK	55	19, 20, 23, 24	See note 2
33	15	(56)	37224	64QAM	55	19	12960	QPSK	58	20, 24	See note 2
34	15	(59)	39272	64QAM	58	20	13672	QPSK	61	20, 24	See note 2
35											Void
Note 1: The test point index is included to provide a unique reference to the different test points for the Dual-Cell or MIMO mixed modulation case. Note 2: This test point is not applicable for the fixed RLC case as the number of MAC-d PDUs would have exceeded the maximum limit of 26 as specified by TS 25.321 clause 9.1.4.

Table 14.1.3.4b.2.6: Test points for Dual-Cell or MIMO and mix of 64QAM and 16QAM for Dual-Cell or MIMO data flow#1 and Dual-Cell or MIMO data flow#2, fixed MAC-d PDU size=656 or flexible MAC-d PDU size; or for radio bearer combinations with mix of fixed and flexible MAC-d PDU sizes

Test point Index See note 1	Number of codes	Dual-Cell or MIMO Flow#1				Dual-Cell or MIMO Flow#2				Applicable Physical HS-DSCH UE categories	Comments
Test point Index See note 1	Number of codes	# MAC-d PDUs# MAC-d PDUs for the fixed RLC case	Selected TBS (TBS1)	Modulation scheme (M1)	TFRI1	# MAC-d PDUs# MAC-d PDUs for the fixed RLC case	Selected TBS (TBS2)	Modulation scheme (M2)	TFRI2	Applicable Physical HS-DSCH UE categories	Comments
1	2	3	2048	64QAM	7	2	1360	16QAM	6	19, 20, 23, 24, 27, 28
2	4	6	4048	64QAM	6	4	2736	16QAM	6	19, 20, 23, 24, 27, 28
3	5	8	5392	64QAM	9	5	3384	16QAM	6	19, 20, 23, 24, 27, 28
4	6	9	6112	64QAM	6	6	4048	16QAM	6	19, 20, 23, 24, 27, 28
5	7	10	6808	64QAM	3	7	4760	16QAM	6	19, 20, 23, 24, 27, 28
6	8	12	8136	64QAM	6	8	5392	16QAM	6	19, 20, 23, 24, 27, 28
7	10	14	9560	64QAM	3	9	6112	16QAM	0	19, 20, 23, 24, 27, 28
8											Void
9	11	16	10840	64QAM	4	10	6808	16QAM	1	19, 20, 23, 24, 27, 28
10											Void
11	12	17	11432	64QAM	2	11	7440	16QAM	1	19, 20, 23, 24, 27, 28
12	13	18	12280	64QAM	2	12	8136	16QAM	2	19, 20, 23, 24, 27, 28
13	14	20	13672	64QAM	4	13	8744	16QAM	1	19, 20, 23, 24, 27, 28
14	15	21	14168	64QAM	1	14	9560	16QAM	3	19, 20, 23, 24, 27, 28
15											Void
16	15	22	14952	64QAM	4	15	10088	16QAM	6	19, 20, 23, 24, 27, 28
17											Void
18	15	23	15496	64QAM	6	16	10840	16QAM	10	19, 20, 23, 24, 27, 28
19											Void
20	15	24	16352	64QAM	9	17	11432	16QAM	13	19, 20, 23, 24, 27, 28
21											Void
22	15	25	16944	64QAM	11	18	12280	16QAM	17	19, 20, 23, 24, 27, 28
23											Void
24	15	26	17568	64QAM	13	19	12960	16QAM	20	19, 20, 23, 24, 27, 28
25											Void
26	15	(27)	17880	64QAM	14	20	13672	16QAM	23	19, 20, 23, 24, 27, 28	See note 2
27						–	–	–	–	–	Void
28	15	(32)	21384	64QAM	24	21	14168	16QAM	25	19, 20, 23, 24, 27, 28	See note 2
29	15	(37)	24672	64QAM	32	22	14952	16QAM	28	19, 20, 23, 24, 27, 28	See note 2
30	15	(42)	27960	64QAM	39	23	15496	16QAM	30	19, 20, 23, 24, 27, 28	See note 2
31	15	(46)	30576	64QAM	44	24	16352	16QAM	33	19, 20, 23, 24, 27, 28	See note 2
32	15	(50)	32848	64QAM	48	25	16944	16QAM	35	19, 20, 23, 24, 27, 28	See note 2
33	15	(56)	37224	64QAM	55	26	17568	16QAM	37	20, 24, 28	See note 2
34	15	(59)	39272	64QAM	58	(27)	17880	16QAM	38	20, 24, 28	See note 2
35	15	(64)	42192	64QAM	62	(28)	18536	16QAM	40	20, 24, 28	See note 2
Note 1: The test point index is included to provide a unique reference to the different test points for the Dual-Cell or MIMO mixed modulation case. Note 2: This test point is not applicable for the fixed RLC case as the number of MAC-d PDUs would have exceeded the maximum limit of 26 as specified by TS 25.321 clause 9.1.4.

Table 14.1.3.4b.2.7: Test points for Three-Cell and mix of 64QAM and 16QAM for Three-Cell data flow#1 and Three-Cell data flow#2 and Three-Cell data flow#3, fixed MAC-d PDU size=656 or flexible MAC-d PDU size; or for radio bearer combinations with mix of fixed and flexible MAC-d PDU sizes

Test point Index See note 1	Number of codes	Three-Cell Flow#1				Three-Cell Flow#2				Three-Cell Flow#3				Applicable Physical HS-DSCH UE categories	Comments
Test point Index See note 1	Number of codes	# MAC-d PDUs# MAC-d PDUs for the fixed RLC case	Selected TBS (TBS1)	Modulation scheme (M1)	TFRI1	# MAC-d PDUs# MAC-d PDUs for the fixed RLC case	Selected TBS (TBS2)	Modulation scheme (M2)	TFRI2	# MAC-d PDUs# MAC-d PDUs for the fixed RLC case	Selected TBS (TBS3)	Modulation scheme (M3)	TFRI3	Applicable Physical HS-DSCH UE categories	Comments
1	2	3	2048	64QAM	7	3	2048	64QAM	7	2	1360	16QAM	6	29-32
2	4	6	4048	64QAM	6	6	4048	64QAM	6	4	2736	16QAM	6	29-32
3	5	8	5392	64QAM	9	8	5392	64QAM	9	5	3384	16QAM	6	29-32
4	6	9	6112	64QAM	6	9	6112	64QAM	6	6	4048	16QAM	6	29-32
5	7	10	6808	64QAM	3	10	6808	64QAM	3	7	4760	16QAM	6	29-32
6	8	12	8136	64QAM	6	12	8136	64QAM	6	8	5392	16QAM	6	29-32
7	10	14	9560	64QAM	3	14	9560	64QAM	3	9	6112	16QAM	0	29-32
8															Void
9	11	16	10840	64QAM	4	16	10840	64QAM	4	10	6808	16QAM	1	29-32
10															Void
11	12	17	11432	64QAM	2	17	11432	64QAM	2	11	7440	16QAM	1	29-32
12	13	18	12280	64QAM	2	18	12280	64QAM	2	12	8136	16QAM	2	29-32
13	14	20	13672	64QAM	4	20	13672	64QAM	4	13	8744	16QAM	1	29-32
14	15	21	14168	64QAM	1	21	14168	64QAM	1	14	9560	16QAM	3	29-32
15															Void
16	15	22	14952	64QAM	4	22	14952	64QAM	4	15	10088	16QAM	6	29-32
17															Void
18	15	23	15496	64QAM	6	23	15496	64QAM	6	16	10840	16QAM	10	29-32
19															Void
20	15	24	16352	64QAM	9	24	16352	64QAM	9	17	11432	16QAM	13	29-32
21															Void
22	15	25	16944	64QAM	11	25	16944	64QAM	11	18	12280	16QAM	17	29-32
23															Void
24	15	26	17568	64QAM	13	26	17568	64QAM	13	19	12960	16QAM	20	29-32
25															Void
26	15	(27)	17880	64QAM	14	(27)	17880	64QAM	14	20	13672	16QAM	23	29-32	See Note 2
27										–	–	–	–	–	Void
28	15	(32)	21384	64QAM	24	(32)	21384	64QAM	24	21	14168	16QAM	25	29-32	See Note 2
29	15	(37)	24672	64QAM	32	(37)	24672	64QAM	32	22	14952	16QAM	28	29-32	See Note 2
30	15	(42)	27960	64QAM	39	(42)	27960	64QAM	39	23	15496	16QAM	30	29-32	See Note 2
31	15	(46)	30576	64QAM	44	(46)	30576	64QAM	44	24	16352	16QAM	33	29-32	See Note 2
32	15	(50)	32848	64QAM	48	(50)	32848	64QAM	48	25	16944	16QAM	35	29-32	See Note 2
33	15	(56)	37224	64QAM	55	(56)	37224	64QAM	55	26	17568	16QAM	37	29-32	See Note 2
34	15	(59)	39272	64QAM	58	(59)	39272	64QAM	58	(27)	17880	16QAM	38	29-32	See Note 2
35	15	(64)	42192	64QAM	62	(64)	42192	64QAM	62	(28)	18536	16QAM	40	29-32	See Note 2
Note 1: The test point index is included to provide a unique reference to the different test points for the Three-Cell mixed modulation case. Note 2: This test point is not applicable for the fixed RLC case as the number of MAC-d PDUs would have exceeded the maximum limit of 26 as specified by TS 25.321 clause 9.1.4.

Table 14.1.3.4b.2.8: Test points for Three-Cell and mix of 64QAM and 16QAM and QPSK for Three-Cell data flow#1 and Three-Cell data flow#2 and Three-Cell data flow#3, fixed MAC-d PDU size=656 or flexible MAC-d PDU size; or for radio bearer combinations with mix of fixed and flexible MAC-d PDU sizes

Test point Index See note 1	Number of codes	Three-Cell Flow#1				Three-Cell Flow#2				Three-Cell Flow#3				Applicable Physical HS-DSCH UE categories	Comments
Test point Index See note 1	Number of codes	# MAC-d PDUs# MAC-d PDUs for the fixed RLC case	Selected TBS (TBS1)	Modulation scheme (M1)	TFRI1	# MAC-d PDUs# MAC-d PDUs for the fixed RLC case	Selected TBS (TBS2)	Modulation scheme (M2)	TFRI2	# MAC-d PDUs# MAC-d PDUs for the fixed RLC case	Selected TBS (TBS3)	Modulation scheme (M3)	TFRI3	Applicable Physical HS-DSCH UE categories	Comments
1	2	3	2048	64QAM	7	2	1360	16QAM	6	1	688	QPSK	7	29-32
2	4	6	4048	64QAM	6	4	2736	16QAM	6	2	1360	QPSK	6	29-32
3															Void
4	6	9	6112	64QAM	6	6	4048	16QAM	6	3	2048	QPSK	7	29-32
5															Void
6															Void
7	10	14	9560	64QAM	3	9	6112	16QAM	0	4	2736	QPSK	0	29-32
8															Void
9	11	16	10840	64QAM	4	10	6808	16QAM	1	5	3384	QPSK	1	29-32	Void
10															Void
															Void
12	13	18	12280	64QAM	2	12	8136	16QAM	2	6	4048	QPSK	1	29-32
															Void
14	15	21	14168	64QAM	1	14	9560	16QAM	3	7	4760	QPSK	2	29-32
15															Void
16	15	22	14952	64QAM	4	15	10088	16QAM	6	8	5392	QPSK	9	29-32
17															Void
18	15	23	15496	64QAM	6	16	10840	16QAM	10	9	6112	QPSK	16	29-32
19															Void
20	15	24	16352	64QAM	9	17	11432	16QAM	13	10	6808	QPSK	22	29-32
21															Void
22	15	25	16944	64QAM	11	18	12280	16QAM	17	11	7440	QPSK	27	29-32
23															Void
24	15	26	17568	64QAM	13	19	12960	16QAM	20	12	8136	QPSK	32	29-32
25															Void
26	15	(27)	17880	64QAM	14	20	13672	16QAM	23	13	8744	QPSK	36	29-32	See Note 2
27															Void
28	15	(32)	21384	64QAM	24	21	14168	16QAM	25	14	9560	QPSK	41	29-32	See Note 2
29	15	(37)	24672	64QAM	32	22	14952	16QAM	28	15	10088	QPSK	44	29-32	See Note 2
30	15	(42)	27960	64QAM	39	23	15496	16QAM	30	16	10840	QPSK	48	29-32	See Note 2
31	15	(46)	30576	64QAM	44	24	16352	16QAM	33	17	11432	QPSK	51	29-32	See Note 2
32	15	(50)	32848	64QAM	48	25	16944	16QAM	35	18	12280	QPSK	55	29-32	See Note 2
33	15	(56)	37224	64QAM	55	26	17568	16QAM	37	19	12960	QPSK	58	29-32	See Note 2
34	15	(59)	39272	64QAM	58	(27)	17880	16QAM	38	20	13672	QPSK	61	29-32	See Note 2
35															Void
Note 1: The test point index is included to provide a unique reference to the different test points for the Three-Cell mixed modulation case. Note 2: This test point is not applicable for the fixed RLC case as the number of MAC-d PDUs would have exceeded the maximum limit of 26 as specified by TS 25.321 clause 9.1.4.

14.1.3.5 Generic test procedure for HS-DSCH radio bearer combinations with non-enhanced Layer 2

This procedure is used to test HS-DSCH radio bearer combinations with non-enhanced layer 2. The procedure is run once for each sub-test of the actual HS-DSCH radio bearer test case.

Definition of test variables:

N_codes	Number of HS-DSCH codes (1..15, maximum number dependent on UE category)
M	Type of modulation scheme (QPSK, 16QAM, 64QAM)
TB_size	Transport Block size
N_PDUs	Number of MAC-d PDUs
H_ID	HARQ process identifier (0..7)

Initial conditions

UE in idle mode

Test procedure

a) The SS establish the reference radio bearer configuration as specified in TS 34.108, clause 6.10 for the actual radio bearer test. For the case when the reference radio bearer configuration includes radio bearers for both CS and PS domain then the radio bearer setup procedure has to be performed once per domain. The first radio bearer setup procedure shall perform configuration of the physical channel for the radio bearer combination under test as well as the transport channels for the CS radio bearer(s). The second radio bearer procedure shall perform the configuration for the transport channel for the PS radio bearers . The Physical channel configuration shall be done for both CS and PS radio bearers combined. Here the transport format combination set for both CS and PS radio bearers shall be provided. See note 1 and note 3.

b) The SS limits the UE allowed uplink transport format combinations according to the "Restricted UL TFCIs", as specified for the sub-test of the actual radio bearer test, using the RRC transport format combination control procedure. See note 2.

c) The SS closes the test loop using UE test loop mode 1 and setting the UL RLC SDU size parameter, for all radio bearers under test, according to the "UL RLC SDU size" value as specified for the sub-test of the actual radio bearer test.

d) The SS selects the first TFRC test point (N_PDUs , M, N_codes and TFRI) according to the applicable table in sub-clauses 14.1.3.3 (MAC-d PDU size=336) or 14.1.3.4 (MAC-d PDU size=656).

e) The SS sets H_ID= 0.

f) The SS creates 4 DL RLC SDUs of size (N_PDUs * MAC-d PDU payload size) / 4 minus 8 bits (size of 7 bit length indicator and expansion bit). See note 4.

g) The SS transmits, for each DTCH mapped to HS-DSCH, 4 DL RLC SDUs concatenated into a MAC-hs PDU using the selected TFRC and H_ID. If the radio bearer combination under test includes downlink DTCHs mapped to DCH then the SS transmits, for all DTCHs mapped to DCH, one or more RLC SDUs having the size equal to the "Test data size" as specified for the sub-test of the actual radio bearer test case.

h) The SS checks that the content of the UE returned RLC SDUs have the correct content and are received having the correct transport format. See TS 34.109 [10] clause 5.3.2.6.2 for details regarding the UE loopback of RLC SDUs.

i) The SS sets H_ID= (H_ID + 1) modulo Max_H_ID, where Max_H_ID equals the number of HARQ processes to be verified by the actual sub-test

j) The SS repeats steps f) to i) for the remaining TFRC test point (N_PDUs , M, N_codes and TFRI) according to the applicable table in sub-clauses 14.1.3.3 (MAC-d PDU size=336) or 14.1.3.4 (MAC-d PDU size=656) for the UE category and MAC-d PDU size under test.

k) The SS opens the UE test loop.

l) The SS release the radio bearer. See note 5.

m) Steps a) to l) are repeated for all sub-tests. See note 6.

n) The SS may optionally deactivate the radio bearer test mode.

NOTE 1: The SS configures the physical channel parameters according to the actual UE category under test. The number of soft channel bits per HARQ process is split equally among the number of HARQ processes configured for the actual sub-test – i.e. “Total number of soft channel bits” for the UE category according to table 14.1.3.1.1 divided by the number of HARQ processes under test. The number of reordering queues is 1 for single HS-DSCH radio bearer configurations. The MAC-hs window size, RLC Transmission window size and RLC Receiving window size shall be configured as specified for the actual sub-test.

NOTE 2: The restricted set of uplink TFCIs shall contain all possible TFCI that could happen in a sub-test. The actual TTI of the different radio bearers and signalling radio bearers as well as the possible UE processing delays shall be taken into consideration. The restricted set of TFCIs must comply with the minimum set of TFCIs as specified in TS 25.331, clause 8.6.5.2.

NOTE 3: The MAC-hs window size and RLC Receiver and transmitter window sizes need to be chosen such that the UE capability for “Minimum total RLC AM and MAC-hs buffer size” is not exceeded for the UE category under test.

NOTE 4: The test data for DTCHs mapped on HS-DSCH is divided into 4 RLC SDUs to keep the maximum SDU size below or equal to 1500 octets (1500 octets is the limit of QoS parameter “Max SDU size” in SM).

NOTE 5: The Secondary scrambling code in the RADIO BEARER RELEASE message is set to the same value used in the RADIO BEARER SETUP MESSAGE.

NOTE 6: CS radio bearer is setup once during the first sub-test.

Expected sequence (repeated for each sub-test, see note 3)

Step	Direction		Message	Comments
Step	UE	SS	Message	Comments
Case A: PS radio bearers only
A1	<–		SYSTEM INFORMATION (BCCH)	Broadcast
A2	<–		PAGING TYPE 1 (PCCH)	Paging (PS domain, P-TMSI)
A3	–>		RRC CONNECTION REQUEST (CCCH)	RRC
A4	<–		RRC CONNECTION SETUP (CCCH)	RRC
A5	–>		RRC CONNECTION SETUP COMPLETE (DCCH)	RRC
A6	–>		SERVICE REQUEST (DCCH)	GMM
A7	<–		SECURITY MODE COMMAND	RRC see note 1
A8	–>		SECURITY MODE COMPLETE	RRC see note 1
A9	<–		ACTIVATE RB TEST MODE (DCCH)	TC
A10	–>		ACTIVATE RB TEST MODE COMPLETE (DCCH)	TC
A11	<–		RADIO BEARER SETUP (DCCH)	RRC PS radio bearer(s) are configured. For the PS radio bearer(s) the ‘pdcp info’ IE shall be omitted.
A12	–>		RADIO BEARER SETUP COMPLETE (DCCH)	RRC
End of branch for Case A
Case B: CS + PS radio bearers
B1	<–		SYSTEM INFORMATION (BCCH)	Broadcast
B2	<–		PAGING TYPE 1 (PCCH)	Paging (CS domain, TMSI)
B3	–>		RRC CONNECTION REQUEST (CCCH)	RRC
B4	<–		RRC CONNECTION SETUP (CCCH)	RRC
B5	–>		RRC CONNECTION SETUP COMPLETE (DCCH)	RRC
B6	–>		PAGING RESPONSE (DCCH)	RR
B6a	<–		AUTHENTICATION REQUEST
B6b	–>		AUTHENTICATION RESPONSE
B7	<–		SECURITY MODE COMMAND
B8	–>		SECURITY MODE COMPLETE
B9	<–		PAGING TYPE 2 (DCCH)	TMSI (GSM-MAP)/ P-TMSI
B9a	–>		SERVICE REQUEST (DCCH)	GMM
B9b	<–		SECURITY MODE COMMAND	RRC See note 2
B9c	–>		SECURITY MODE COMPLETE	RRC
B10	<–		ACTIVATE RB TEST MODE (DCCH)	TC
B10a	–>		ACTIVATE RB TEST MODE COMPLETE (DCCH)	TC
B11	<–		RADIO BEARER SETUP (DCCH)	RRC CS radio bearer(s) are configured
B12	–>		RADIO BEARER SETUP COMPLETE (DCCH)	RRC
B12a	<–		RADIO BEARER SETUP (DCCH)	RRC PS radio bearer(s) are configured. For the PS radio bearer the ‘pdcp info’ IE shall be omitted.
B12b	–>		RADIO BEARER SETUP COMPLETE (DCCH)	RRC
End of branch for Case B
13	<–		TRANSPORT FORMAT COMBINATION CONTROL (DCCH)	RRC Transport format combinations is limited to "Restricted UL TFCIs", as specified for the sub-test
14	<–		CLOSE UE TEST LOOP (DCCH)	TC UE test mode 1 RLC SDU size is for every active radio bearer set to "UL RLC SDU size", as specified for the sub-test.
15	–>		CLOSE UE TEST LOOP COMPLETE (DCCH)	TC
16	SS			For each DTCHs mapped on HS-DSCH the SS creates test data for the first TFRC . The test data shall be dived into 4 RLC SDUs of size (N_PDUs * MAC-d PDU payload size) / 4 – 8 bits. The SS sets HID = 0.
17	<–		DOWNLINK MAC-hs PDU (HS-DSCH#1) … DOWNLINK MAC-hs PDU (HS-DSCH#N) DL RLC SDU (DL DCH#1) … DL RLC SDU (DL DCH#M)	For each DTCH mapped on HS-DSCH the SS sends test data divided into 4 RLC SDUs for HARQ processed HID. For each DTCH mapped on DCH the SS sends test data using the downlink transport format combination under test.
18	–>		UPLINK RLC SDUs	The SS checks, for each DTCH, that the content and transport format of the received UL RLC SDUs are correct.
19	SS			The SS sets HID = (HID + 1) modulo Max_HID. The SS creates test data for the next TFRC and repeat steps 17 to 18 until all TFRCs have been tested.
20	<–		OPEN UE TEST LOOP (DCCH)	TC
21	–>		OPEN UE TEST LOOP COMPLETE (DCCH)	TC
22			RB RELEASE	RRC
23	<–		DEACTIVATE RB TEST MODE	TC Optional step
24	–>		DEACTIVATE RB TEST MODE COMPLETE	TC Optional step

NOTE 1: In addition to activate integrity protection Step 6 and Step 7 are inserted in order to stop T3317 timer in the UE, which starts after transmitting SERVICE REQUEST message.

NOTE 2: For case B (CS+PS radio bearers) the second security mode procedure is needed to enable testing of ciphering on the PS radio bearers.

NOTE 3: For case A (PS radio bearers) steps A1 to A10 will be executed once during first sub-test. For case B (CS+PS radio bearers) steps B1 to B12 will be executed once during first sub-test.

14.1.3.5a Generic test procedure for HS-DSCH radio bearer combinations with enhanced Layer 2

This procedure is used to test HS-DSCH radio bearer combinations with enhanced Layer 2. The procedure is run once for each sub-test of the actual HS-DSCH radio bearer test case.

Definition of test variables common for both the flexible and fixed RLC cases:

N_codes	Number of HS-DSCH codes (1..15, maximum number dependent on UE category)
M	Type of modulation scheme (QPSK, 16QAM, 64QAM)
M1	Type of modulation scheme for MIMO or Dual-Cell data flow#1 for the case different modulations schemes are used for the different data flows (QPSK, 16QAM, 64QAM)
M2	Type of modulation scheme for MIMO or Dual-Cell data flow#2 for the case different modulations schemes are used for the different data flows (QPSK, 16QAM, 64QAM)
M3	Type of modulation scheme for MIMO or Dual-Cell data flow#3 for the case different modulations schemes are used for the different data flows (QPSK, 16QAM, 64QAM)
M4	Type of modulation scheme for MIMO or Dual-Cell data flow#4 for the case different modulations schemes are used for the different data flows (QPSK, 16QAM, 64QAM)
TB_size	Transport Block size
TB_size1	Transport Block size for M1 modulation scheme. Applicable for Mimo or Dual Cell or combination of Dual Cell with MIMO
TB_size2	Transport Block size for M2 modulation scheme. Applicable for Mimo or Dual Cell or combination of Dual Cell with MIMO
TB_size3	Transport Block size for M3 modulation scheme. Applicable for combination of Dual Cell with MIMO
TB_size4	Transport Block size for M4 modulation scheme. Applicable for combination of Dual Cell with MIMO
H_ID	HARQ process identifier (0..7 when MIMO is not supported or when Dual-Cell is supported 0..15 when MIMO is supported)
H_CONF	Configured number of HARQ processes for the subtest

Definition of additional test variables for the fixed RLC case:

N_PDUs

Number of MAC-d PDUs.

Initial conditions

UE in idle mode

Test procedure

NOTE The test case should specify if the test procedure is to be executed for the MIMO case, Dual-Cell case or the combination Dual-Cell with MIMO case. If nothing is stated in the test case then the test procedure is to be executed for the non-MIMO or non-Dual-Cell case. The test case should also specify which modulation scheme M the testing is intended for, i.e. if more than one modulation schemes are to be tested then the test case need to specify multiple test executions, one for each modulation scheme. If nothing is specified in the test case then M=QPSK shall be assumed.

d) For the non-MIMO or non-Dual-Cell case: The SS selects the first TFRC test point (N_PDUs , M, N_codes and TFRI) according to the applicable table in sub-clauses 14.1.3.4b.1 (MAC-d PDU size=336) or 14.1.3.4b.2 (MAC-d PDU size=656 or Flexible MAC-d PDU size).

For the MIMO or the Dual-Cell case and M1=M2=QPSK: The SS selects the first TFRC test point (N_PDUs , M, N_codes and TFRI) according to table 14.1.3.4b.2.1. Same TFRC test point is used for both data flows and TB_size1= TB_size2.

For the MIMO or the Dual-Cell case and M1=M2=16QAM: The SS selects the first TFRC test point (N_PDUs , M, N_codes and TFRI) according to table 14.1.3.4b.2.2. Same TFRC test point is used for both data flows and TB_size1= TB_size2.

For the MIMO or the Dual-Cell case and M1=M2=64QAM: The SS selects the first TFRC test point (N_PDUs , M, N_codes and TFRI) according to table 14.1.3.4b.2.3. Same TFRC test point is used for both data flows and TB_size1= TB_size2.

For the MIMO or the Dual-Cell case and M1=16QAM and M2=QPSK: The SS selects the first TFRC test points for data flows#1 (N_PDUs1 , M1, N_codes , TB_size1and TFRI1) and data flows#2 (N_PDUs2 , M2, N_codes , TB_size2and TFRI2) according to table 14.1.3.4b.2.4.

For the MIMO or the Dual-Cell case and M1=64QAM and M2=QPSK: The SS selects the first TFRC test points for data flows#1 (N_PDUs1 , M1, N_codes , TB_size1and TFRI1) and data flows#2 (N_PDUs2 , M2, N_codes , TB_size2and TFRI2) according to table 14.1.3.4b.2.5.

For the MIMO or the Dual-Cell case and M1=64QAM and M2=16QAM: The SS selects the first TFRC test points for data flows#1 (N_PDUs1 , M1, N_codes , TB_size1and TFRI1) and data flows#2 (N_PDUs2 , M2, N_codes , TB_size2and TFRI2) according to table 14.1.3.4b.2.6.

For the MIMO and Dual-Cell case and M1=M2=M3=M4=16QAM: The SS selects the first TFRC test point (N_PDUs , N_{code, s},TB_size1 and TFRI) according to table 14.1.3.4b.2.2. The Same TFRC test point is used for all four data flows.

For the MIMO and Dual-Cell case and M1=M3=64QAM and M2=M4=16QAM: The SS selects the first TFRC test point for data flow#1 and data flow#3 in accordance to first 64QAM test point (N_PDUs , N_codes, TB_size and TFRI) in table 14.1.3.4b.2.6. The SS selects the first TFRC test point for data flow#2 and data flow#4 in accordance to first 16QAM test point (N_PDUs , N_codes, TB_size and TFRI) in table 14.1.3.4b.2.6.

For the MIMO and Dual-Cell case and M1=M2=M3=M4=64QAM: The SS selects the first TFRC test point (N_PDUs , M, N_codes and TFRI) according to table 14.1.3.4b.2.3. The Same TFRC test point is used for all four data flows.

e) The SS sets H_ID= 0.

f) For the fixed MAC-d PDU size case when neither MIMO nor Dual Cell is used: The SS creates 4 DL RLC SDUs of size (N_PDUs * MAC-d PDU payload size) / 4 minus 8 bits (size of 7 bit length indicator and expansion bit). See note 4.

For the fixed MAC-d PDU size case when MIMO or Dual-Cell is used: The SS creates 8 DL RLC SDUs of size (N_PDUs1 + N_PDUs2 )* MAC-d PDU payload size) / 8 minus 8 bits (size of 7 bit length indicator and expansion bit). See note 4.

For the fixed MAC-d PDU size case when MIMO combined with Dual-Cell is used: The SS creates 16 DL RLC SDUs of size (N_PDUs1 + N_PDUs2 + N_PDUs3 + N_PDUs4)* MAC-d PDU payload size) / 16 minus 8 bits (size of 7 bit length indicator and expansion bit). See note 4.

For the flexible MAC-d PDU size case when neither MIMO nor Dual Cell is used: If the transport block size TB_size is >12032 bits the SS creates 4 DL RLC SDUs of size 8*FLOOR ((TB_size – 136 bit)/32). If the transport block size TB_size is ≤ 12032 bits the SS creates 1 DL RLC SDUs of size 8*FLOOR((TB_size – 40 bit)/8). The SS creates a DL RLC PDU for each DL RLC SDU using the special value of HE field (‘10’) in the RLC PDU header. See note 4 and note 7.

For the flexible MAC-d PDU size case when MIMO or Dual-Cell is used and M1=M2: If the transport block size (TB_size1+TB_size2) is >12032 bits the SS creates 8 DL RLC SDUs of size 8*FLOOR (((TB_size1 + TB_size2)– 272 bit)/64). If the transport block size (TB_size1+TB_size2) is ≤ 12032 bits the SS creates 2 DL RLC SDUs of size 8*FLOOR(((TB_size1 + TB_size2)– 80 bit)/16). The SS creates a DL RLC PDU for each DL RLC SDU using the special value of HE field (‘10’) in the RLC PDU header. See note 4 and note 7.

For the flexible MAC-d PDU size case when MIMO or Dual-Cell is used and M1 is different from M2: If the transport block size (TB_size1+TB_size2) is >12032 bits the SS creates 8 DL RLC SDUs of size 8*FLOOR (((TB_size1 + TB_size2)– 288 bit)/64). If the transport block size (TB_size1+TB_size2) is ≤ 12032 bits the SS creates 2 DL RLC SDUs of size 8*FLOOR(((TB_size1 + TB_size2)– 96 bit)/16). The SS creates a DL RLC PDU for each DL RLC SDU using the special value of HE field (‘10’) in the RLC PDU header. See note 4 and note 7.

For the flexible MAC-d PDU size case when MIMO combined with Dual-Cell is used and M1=M2 and M3=M4: For Cell 1: If the transport block size (TB_size1+TB_size2) is >12032 bits the SS creates 8 DL RLC SDUs of size 8*FLOOR (((TB_size1 + TB_size2)– 272 bit)/64). If the transport block size TB_size is ≤ 12032 bits the SS creates 2 DL RLC SDUs of size 8*FLOOR(((TB_size1 + TB_size2)– 80 bit)/16). For Cell 2: If the transport block size (TB_size3+TB_size4) is >12032 bits the SS creates 8 DL RLC SDUs of size 8*FLOOR (((TB_size3 + TB_size4)– 272 bit)/64). If the transport block size (TB_size3+TB_size4) is ≤ 12032 bits the SS creates 2 DL RLC SDUs of size 8*FLOOR(((TB_size3 + TB_size4)– 80 bit)/16). The SS creates a DL RLC PDU for each DL RLC SDU using the special value of HE field (‘10’) in the RLC PDU header. See note 4.

For the flexible MAC-d PDU size case when MIMO combined with Dual-Cell is used and M1 is different from M2 and M3 is different from M4: For Cell 1: If the transport block size (TB_size1+TB_size2) is >12032 bits the SS creates 8 DL RLC SDUs of size 8*FLOOR (((TB_size1 + TB_size2)– 288 bit)/64). If the transport block size (TB_size1+TB_size2) is ≤ 12032 bits the SS creates 2 DL RLC SDUs of size 8*FLOOR(((TB_size1 + TB_size2)– 96 bit)/16). For Cell 2: If the transport block size (TB_size3+TB_size4) is >12032 bits the SS creates 8 DL RLC SDUs of size 8*FLOOR (((TB_size3 + TB_size4)– 288 bit)/64). If the transport block size (TB_size3+TB_size4) is ≤ 12032 bits the SS creates 2 DL RLC SDUs of size 8*FLOOR(((TB_size3 + TB_size4)– 96 bit)/16). The SS creates a DL RLC PDU for each DL RLC SDU using the special value of HE field (‘10’) in the RLC PDU header. See note 4.

g) If neither MIMO nor Dual-Cell is used, then the SS transmits in one TTI, for each DTCH mapped to HS-DSCH, all the DL RLC PDUs generated in step f) concatenated into a MAC-ehs PDU using the selected TFRC and H_ID.

If Dual-Cell is used then the SS transmits in one TTI, for each DTCH mapped to HS-DSCH, all the DL RLC PDUs generated in step f) concatenated into two MAC-ehs PDU using the selected TFRC and H_ID.

If the radio bearer combination under test includes downlink DTCHs mapped to DCH then the SS transmits, for all DTCHs mapped to DCH, one or more RLC SDUs having the size equal to the "Test data size" as specified for the sub-test of the actual radio bearer test case. Goto step i).

h) If MIMO for non Dual-Cell case is used then the SS transmits in one TTI, for each DTCH mapped to HS-DSCH, the DL RLC PDUs generated in step f) concatenated into two MAC-ehs PDUs using the selected TFRC and the HARQ processes H_ID and (H_ID + H_CONF/2) mod H_CONF respectively.

If MIMO combined with Dual Cell is used then the SS transmits in one TTI, for each DTCH mapped to HS-DSCH, the DL RLC PDUs generated in step f) concatenated into two MAC-ehs PDUs per cell using the selected TFRC and the HARQ processes H_ID , (H_ID + H_CONF/4) mod H_CONF , (H_ID + H_CONF/2) mod H_CONF and (H_ID + 3*H_CONF/4) mod H_CONF respectively.

i) The SS checks that the content of the UE returned RLC SDUs have the correct content and are received having the correct transport format. See TS 34.109 [10] clause 5.3.2.6.2 for details regarding the UE loopback of RLC SDUs.

j) The SS sets H_ID= (H_ID + 1) modulo H_CONFwhere H_CONF is the configured number of processes and equals the number of HARQ processes to be verified by the actual sub-test

k) The SS repeats steps e) to j) for the remaining TFRC test points according to the applicable table in sub-clause 14.1.3.2.1a (principle for Enhanced Layer 2)

l) The SS repeats steps e) to j) for the remaining TFRC test point (N_PDUs , M, N_codes and TFRI) according to the applicable table in sub-clauses 14.1.3.4b.1 (MAC-d PDU size=336) or 14.1.3.4b.2 (MAC-d PDU size=656 or Flexible MAC-d PDU size). m) The SS opens the UE test loop.

n) The SS release the radio bearer. See note 5.

o) Steps a) to n) are repeated for all sub-tests. See note 6.

p) The SS may optionally deactivate the radio bearer test mode.

NOTE 4: The test data for DTCHs mapped on HS-DSCH is divided into multiple RLC SDUs to keep the maximum SDU size below or equal to 1500 octets (1500 octets is the limit of QoS parameter “Max SDU size” in SM). To allow for testing of the smallest TB sizes a single RLC PDU is used when the TB size is equal or below 12032 bits to reduce the L2 header overhead. 12032 bits corresponds to maximum RLC SDU size of 1500 octets (12000 bits) plus MAC-ehs header size of 24 bits and minimum possible RLC PDU header (8 bits for UM RLC). The actual maximum RLC SDU size to be used will depend of the RLC configuration for the radio bearer under test. For UM radio bearer the maximum RLC SDU will be 1500 octets for the case UMD PDU header of 8 bits. For AM radio bearers the maximum RLC SDU size will be 1499 octets for AMD PDU header of 16 bits.

NOTE 5: The Secondary scrambling code in the RADIO BEARER RELEASE message is set to the same value used in the RADIO BEARER SETUP MESSAGE.

NOTE 6: CS radio bearer is setup once during the first sub-test.

NOTE 7: The formulas for calculating the largest possible RLC SDU sizes take into account the required MAC-ehs headers and maximum RLC PDU AM headers to concatenate the RLC PDUs into MAC-ehs PDU(s). For the case when two MAC-ehs PDUs are used (MIMO or Dual-Cell) and the transport block sizes for the two data streams are different then additional space is reserved for the MAC-ehs header due to the MAC-ehs SDU segmentation between the two MAC-ehs PDUs (additional 16 bit LCH-ID+L+F MAC-ehs header). In the test procedure this will happen when the different data streams use different modulation schemes (M1 and M2 not equal).

Expected sequence (repeated for each sub-test, see note 3)

Step	Direction		Message	Comments
Step	UE	SS	Message	Comments
Case A: PS radio bearers only
A1	<–		SYSTEM INFORMATION (BCCH)	Broadcast
A2	<–		PAGING TYPE 1 (PCCH)	Paging (PS domain, P-TMSI)
A3	–>		RRC CONNECTION REQUEST (CCCH)	RRC
A4	<–		RRC CONNECTION SETUP (CCCH)	RRC
A5	–>		RRC CONNECTION SETUP COMPLETE (DCCH)	RRC
A6	–>		SERVICE REQUEST (DCCH)	GMM
A7	<–		SECURITY MODE COMMAND	RRC see note 1
A8	–>		SECURITY MODE COMPLETE	RRC see note 1
A9	<–		ACTIVATE RB TEST MODE (DCCH)	TC
A10	–>		ACTIVATE RB TEST MODE COMPLETE (DCCH)	TC
A11	<–		RADIO BEARER SETUP (DCCH)	RRC PS radio bearer(s) are configured. For the PS radio bearer(s) the ‘pdcp info’ IE shall be omitted.
A12	–>		RADIO BEARER SETUP COMPLETE (DCCH)	RRC
End of branch for Case A
Case B: CS + PS radio bearers
B1	<–		SYSTEM INFORMATION (BCCH)	Broadcast
B2	<–		PAGING TYPE 1 (PCCH)	Paging (CS domain, TMSI)
B3	–>		RRC CONNECTION REQUEST (CCCH)	RRC
B4	<–		RRC CONNECTION SETUP (CCCH)	RRC
B5	–>		RRC CONNECTION SETUP COMPLETE (DCCH)	RRC
B6	–>		PAGING RESPONSE (DCCH)	RR
B6a	<–		AUTHENTICATION REQUEST
B6b	–>		AUTHENTICATION RESPONSE
B7	<–		SECURITY MODE COMMAND
B8	–>		SECURITY MODE COMPLETE
B9	<–		PAGING TYPE 2 (DCCH)	TMSI (GSM-MAP)/ P-TMSI
B9a	–>		SERVICE REQUEST (DCCH)	GMM
B9b	<–		SECURITY MODE COMMAND	RRC See note 2
B9c	–>		SECURITY MODE COMPLETE	RRC
B10	<–		ACTIVATE RB TEST MODE (DCCH)	TC
B10a	–>		ACTIVATE RB TEST MODE COMPLETE (DCCH)	TC
B11	<–		RADIO BEARER SETUP (DCCH)	RRC CS radio bearer(s) are configured
B12	–>		RADIO BEARER SETUP COMPLETE (DCCH)	RRC
B12a	<–		RADIO BEARER SETUP (DCCH)	RRC PS radio bearer(s) are configured. For the PS radio bearer the ‘pdcp info’ IE shall be omitted.
B12b	–>		RADIO BEARER SETUP COMPLETE (DCCH)	RRC
End of branch for Case B
13	<–		TRANSPORT FORMAT COMBINATION CONTROL (DCCH)	RRC Transport format combinations is limited to "Restricted UL TFCIs", as specified for the sub-test Not applicable for Cell-FACH state
14	<–		CLOSE UE TEST LOOP (DCCH)	TC UE test mode 1 RLC SDU size is for every active radio bearer set to "UL RLC SDU size", as specified for the sub-test.
15	–>		CLOSE UE TEST LOOP COMPLETE (DCCH)	TC
16	SS			For each DTCHs mapped on HS-DSCH the SS creates test data for the first test point.
17	<–		DOWNLINK MAC-ehs PDU (HS-DSCH#1) … DOWNLINK MAC-ehs PDU (HS-DSCH#N) DL RLC SDU (DL DCH#1) … DL RLC SDU (DL DCH#M)	For each DTCH mapped on HS-DSCH the SS sends test for HARQ processed HID. For each DTCH mapped on DCH the SS sends test data using the downlink transport format combination under test.
18	–>		UPLINK RLC SDUs	The SS checks, for each DTCH, that the content and transport format of the received UL RLC SDUs are correct.
19	SS			The SS sets HID = (HID + 1) modulo H_CONF. The SS creates test data for the next TFRC and repeat steps 17 to 18 until all TFRCs have been tested.
20	<–		OPEN UE TEST LOOP (DCCH)	TC
21	–>		OPEN UE TEST LOOP COMPLETE (DCCH)	TC
22			RB RELEASE	RRC
23	<–		DEACTIVATE RB TEST MODE	TC Optional step
24	–>		DEACTIVATE RB TEST MODE COMPLETE	TC Optional step

NOTE 1: In addition to activate integrity protection Step 6 and Step 7 are inserted in order to stop T3317 timer in the UE, which starts after transmitting SERVICE REQUEST message.

NOTE 2: For case B (CS+PS radio bearers) the second security mode procedure is needed to enable testing of ciphering on the PS radio bearers.

NOTE 3: For case A (PS radio bearers) steps A1 to A10 will be executed once during first sub-test. For case B (CS+PS radio bearers) steps B1 to B12 will be executed once during first sub-test.

Specific Message Content:

Use the same RADIO BEARER SETUP message as specified in 34.108 with the following exceptions for step A11, B12a :

Information Element	Value/remark	Version
HS-DSCH TB size table	octet aligned	Rel-7

14.1.3.5b Generic test procedure for HS-DSCH radio bearer combinations with enhanced Layer 2 for Three-Cell case

This procedure is used to test HS-DSCH radio bearer combinations with enhanced Layer 2 for three-cell case. The procedure is run once for each sub-test of the actual HS-DSCH radio bearer test case.

Definition of test variables common for both the flexible and fixed RLC cases:

N_codes	Number of HS-DSCH codes (1..15, maximum number dependent on UE category)
M	Type of modulation scheme (QPSK, 16QAM, 64QAM)
M1	Type of modulation scheme for Three-Cell data flow#1 for the case different modulations schemes are used for the different data flows (QPSK, 16QAM, 64QAM)
M2	Type of modulation scheme for Three-Cell data flow#2 for the case different modulations schemes are used for the different data flows (QPSK, 16QAM, 64QAM)
M3	Type of modulation scheme for Three-Cell data flow#3 for the case different modulations schemes are used for the different data flows (QPSK, 16QAM, 64QAM)
TB_size	Transport Block size
TB_size1	Transport Block size for M1 modulation scheme. Applicable for Three-Cell
TB_size2	Transport Block size for M2 modulation scheme. Applicable for Three-Cell
TB_size3	Transport Block size for M3 modulation scheme. Applicable for Three-Cell
H_ID	HARQ process identifier (0..7)
H_CONF	Configured number of HARQ processes for the subtest

Definition of additional test variables for the fixed RLC case:

N_PDUs

Number of MAC-d PDUs.

Initial conditions

UE in idle mode

Test procedure

NOTE The test case should specify if the test procedure is to be executed for Three-Cell case. If nothing is stated in the test case then the test procedure is to be executed for the non-Three-Cell case. The test case should also specify which modulation scheme M the testing is intended for, i.e. if more than one modulation schemes are to be tested then the test case need to specify multiple test executions, one for each modulation scheme. If nothing is specified in the test case then M=QPSK shall be assumed.

a) The SS establish the reference radio bearer configuration as specified in TS 34.108, clause 6.10 for the actual radio bearer test. For the case when the reference radio bearer configuration includes radio bearers for both CS and PS domain then the radio bearer setup procedure has to be performed once per domain. The first radio bearer setup procedure shall perform configuration of the physical channel for the radio bearer combination under test as well as the transport channels for the CS radio bearer(s). The second radio bearer procedure shall perform the configuration for the transport channel for the PS radio bearers. The Physical channel configuration shall be done for both CS and PS radio bearers combined. Here the transport format combination set for both CS and PS radio bearers shall be provided. See NOTE 1 and NOTE 3.

d) For the non-Three-Cell case: The SS selects the first TFRC test point (N_PDUs, M, N_codes and TFRI) according to the applicable table in sub-clauses 14.1.3.4b.1 (MAC-d PDU size=336) or 14.1.3.4b.2 (MAC-d PDU size=656 or Flexible MAC-d PDU size).

For the Three-Cell case and M1=M2=M3=QPSK: The SS selects the first TFRC test point (N_PDUs, M, N_codes and TFRI) according to table 14.1.3.4b.2.1. Same TFRC test point is used for all data flows and TB_size1=TB_size2=TB_size3.

For the Three-Cell case and M1=M2=M3=16QAM: The SS selects the first TFRC test point (N_PDUs, M, N_codes and TFRI) according to table 14.1.3.4b.2.2. Same TFRC test point is used for all data flows and TB_size1=TB_size2=TB_size3.

For the Three-Cell case and M1=M2=M3=64QAM: The SS selects the first TFRC test point (N_PDUs, M, N_codes and TFRI) according to table 14.1.3.4b.2.3. Same TFRC test point is used for all data flows and TB_size1=TB_size2=TB_size3.

For the Three-Cell case and M1=M2=64QAM and M3=16QAM: The SS selects the first TFRC test points for data flows#1 (N_PDUs1, M1, N_codes, TB_size1and TFRI1) and data flows#2 (N_PDUs2, M2, N_codes, TB_size2and TFRI2) and data flows#3 (N_PDUs2, M3, N_codes, TB_size3and TFRI3) according to table 14.1.3.4b.2.7.

For the Three-Cell case and M1= 64QAM and M2=16QAM and M3=QPSK: The SS selects the first TFRC test points for data flows#1 (N_PDUs1, M1, N_codes, TB_size1and TFRI1) and data flows#2 (N_PDUs2, M2, N_codes, TB_size2and TFRI2) and data flows#3 (N_PDUs3, M3, N_codes, TB_size3and TFRI3) according to table 14.1.3.4b.2.8.

e) The SS sets H_ID= 0.

f) For the fixed MAC-d PDU size case when no Three-Cell is used: The SS creates 4 DL RLC SDUs of size (N_PDUs * MAC-d PDU payload size) / 4 minus 8 bits (size of 7 bit length indicator and expansion bit). See NOTE 4.

For the fixed MAC-d PDU size case when Three-Cell is used: The SS creates 12 DL RLC SDUs of size (N_PDUs1 + N_PDUs2 + N_PDUs3)* MAC-d PDU payload size) / 12 minus 8 bits (size of 7 bit length indicator and expansion bit). See NOTE 4.

For the flexible MAC-d PDU size case when no Three-Cell is used: If the transport block size TB_size is >12032 bits the SS creates 4 DL RLC SDUs of size 8*FLOOR ((TB_size – 136 bit)/32). If the transport block size TB_size is ≤ 12032 bits the SS creates 1 DL RLC SDUs of size 8*FLOOR((TB_size – 40 bit)/8). The SS creates a DL RLC PDU for each DL RLC SDU using the special value of HE field (‘10’) in the RLC PDU header. See NOTE 4 and NOTE 7.

For the flexible MAC-d PDU size case Three-Cell is used and M1=M2=M3: If the transport block size (TB_size1+TB_size2+TB_size3)is >12032 bits the SS creates 12 DL RLC SDUs of size 8*FLOOR (((TB_size1 + TB_size2+TB_size3)– 408 bit)/96). If the transport block size (TB_size1+TB_size2+TB_size3) is ≤ 12032 bits the SS creates 3 DL RLC SDUs of size 8*FLOOR(((TB_size1 + TB_size2 +TB_size3)– 120 bit)/24). The SS creates a DL RLC PDU for each DL RLC SDU using the special value of HE field (‘10’) in the RLC PDU header. See NOTE 4 and NOTE 7.

For the flexible MAC-d PDU size case Three-Cell is used and M1= M2 but different to M3: If the transport block size (TB_size1+TB_size2+TB_size3)is >12032 bits the SS creates 12 DL RLC SDUs of size 8*FLOOR (((TB_size1 + TB_size2+TB_size3)– 440 bit)/96). If the transport block size (TB_size1+TB_size2+TB_size3) is ≤ 12032 bits the SS creates 3 DL RLC SDUs of size 8*FLOOR(((TB_size1 + TB_size2 +TB_size3)– 152 bit)/24). The SS creates a DL RLC PDU for each DL RLC SDU using the special value of HE field (‘10’) in the RLC PDU header. See NOTE 4 and NOTE 7.

For the flexible MAC-d PDU size case Three-Cell is used and M1, M2 and M3 are different: If the transport block size (TB_size1+TB_size2+TB_size3)is >12032 bits the SS creates 12 DL RLC SDUs of size 8*FLOOR (((TB_size1 + TB_size2+TB_size3)– 456 bit)/96). If the transport block size (TB_size1+TB_size2+TB_size3) is ≤ 12032 bits the SS creates 3 DL RLC SDUs of size 8*FLOOR(((TB_size1 + TB_size2 +TB_size3)– 168 bit)/24). The SS creates a DL RLC PDU for each DL RLC SDU using the special value of HE field (‘10’) in the RLC PDU header. See NOTE 4 and NOTE 7

g) If no Three-Cell is used, then the SS transmits in one TTI, for each DTCH mapped to HS-DSCH, all the DL RLC PDUs generated in step f) concatenated into a MAC-ehs PDU using the selected TFRC and H_ID.

If Three-Cell is used then the SS transmits in one TTI, for each DTCH mapped to HS-DSCH, all the DL RLC PDUs generated in step f) concatenated into two MAC-ehs PDU using the selected TFRC and H_ID.

i) The SS sets H_ID= (H_ID + 1) modulo H_CONFwhere H_CONF is the configured number of processes and equals the number of HARQ processes to be verified by the actual sub-test

j) The SS repeats steps e) to i) for the remaining TFRC test points according to the applicable table in sub-clause 14.1.3.2.1a (principle for Enhanced Layer 2)

k) The SS repeats steps e) to j) for the remaining TFRC test point (N_PDUs , M, N_codes and TFRI) according to the applicable table in sub-clauses 14.1.3.4b.1 (MAC-d PDU size=336) or 14.1.3.4b.2 (MAC-d PDU size=656 or Flexible MAC-d PDU size).

l) The SS opens the UE test loop.

m) The SS release the radio bearer. See NOTE 5.

n) Steps a) to m) are repeated for all sub-tests. See NOTE 6.

o) The SS may optionally deactivate the radio bearer test mode.

NOTE 5: The Secondary scrambling code in the RADIO BEARER RELEASE message is set to the same value used in the RADIO BEARER SETUP MESSAGE.

NOTE 6: CS radio bearer is setup once during the first sub-test.

NOTE 7: The formulas for calculating the largest possible RLC SDU sizes take into account the required MAC-ehs headers and maximum RLC PDU AM headers to concatenate the RLC PDUs into MAC-ehs PDU(s). For the case when three MAC-ehs PDUs are used (Three-Cell) and the transport block sizes for the three data streams are different then additional space is reserved for the MAC-ehs header due to the MAC-ehs SDU segmentation between the three MAC-ehs PDUs (additional 16 bit LCH-ID+L+F MAC-ehs header). In the test procedure this will happen when the different data streams use different modulation schemes (M1 and M2 and M3 not equal).

Expected sequence (repeated for each sub-test, see note 3)

Step	Direction		Message	Comments
Step	UE	SS	Message	Comments
Case A: PS radio bearers only
A1	<–		SYSTEM INFORMATION (BCCH)	Broadcast
A2	<–		PAGING TYPE 1 (PCCH)	Paging (PS domain, P-TMSI)
A3	–>		RRC CONNECTION REQUEST (CCCH)	RRC
A4	<–		RRC CONNECTION SETUP (CCCH)	RRC
A5	–>		RRC CONNECTION SETUP COMPLETE (DCCH)	RRC
A6	–>		SERVICE REQUEST (DCCH)	GMM
A7	<–		SECURITY MODE COMMAND	RRC see note 1
A8	–>		SECURITY MODE COMPLETE	RRC see note 1
A9	<–		ACTIVATE RB TEST MODE (DCCH)	TC
A10	–>		ACTIVATE RB TEST MODE COMPLETE (DCCH)	TC
A11	<–		RADIO BEARER SETUP (DCCH)	RRC PS radio bearer(s) are configured. For the PS radio bearer(s) the ‘pdcp info’ IE shall be omitted.
A12	–>		RADIO BEARER SETUP COMPLETE (DCCH)	RRC
End of branch for Case A
Case B: CS + PS radio bearers
B1	<–		SYSTEM INFORMATION (BCCH)	Broadcast
B2	<–		PAGING TYPE 1 (PCCH)	Paging (CS domain, TMSI)
B3	–>		RRC CONNECTION REQUEST (CCCH)	RRC
B4	<–		RRC CONNECTION SETUP (CCCH)	RRC
B5	–>		RRC CONNECTION SETUP COMPLETE (DCCH)	RRC
B6	–>		PAGING RESPONSE (DCCH)	RR
B6a	<–		AUTHENTICATION REQUEST
B6b	–>		AUTHENTICATION RESPONSE
B7	<–		SECURITY MODE COMMAND
B8	–>		SECURITY MODE COMPLETE
B9	<–		PAGING TYPE 2 (DCCH)	TMSI (GSM-MAP)/ P-TMSI
B9a	–>		SERVICE REQUEST (DCCH)	GMM
B9b	<–		SECURITY MODE COMMAND	RRC See note 2
B9c	–>		SECURITY MODE COMPLETE	RRC
B10	<–		ACTIVATE RB TEST MODE (DCCH)	TC
B10a	–>		ACTIVATE RB TEST MODE COMPLETE (DCCH)	TC
B11	<–		RADIO BEARER SETUP (DCCH)	RRC CS radio bearer(s) are configured
B12	–>		RADIO BEARER SETUP COMPLETE (DCCH)	RRC
B12a	<–		RADIO BEARER SETUP (DCCH)	RRC PS radio bearer(s) are configured. For the PS radio bearer the ‘pdcp info’ IE shall be omitted.
B12b	–>		RADIO BEARER SETUP COMPLETE (DCCH)	RRC
End of branch for Case B
13	<–		TRANSPORT FORMAT COMBINATION CONTROL (DCCH)	RRC Transport format combinations is limited to "Restricted UL TFCIs", as specified for the sub-test Not applicable for Cell-FACH state
14	<–		CLOSE UE TEST LOOP (DCCH)	TC UE test mode 1 RLC SDU size is for every active radio bearer set to "UL RLC SDU size", as specified for the sub-test.
15	–>		CLOSE UE TEST LOOP COMPLETE (DCCH)	TC
16	SS			For each DTCHs mapped on HS-DSCH the SS creates test data for the first test point.
17	<–		DOWNLINK MAC-ehs PDU (HS-DSCH#1) … DOWNLINK MAC-ehs PDU (HS-DSCH#N) DL RLC SDU (DL DCH#1) … DL RLC SDU (DL DCH#M)	For each DTCH mapped on HS-DSCH the SS sends test for HARQ processed HID. For each DTCH mapped on DCH the SS sends test data using the downlink transport format combination under test.
18	–>		UPLINK RLC SDUs	The SS checks, for each DTCH, that the content and transport format of the received UL RLC SDUs are correct.
19	SS			The SS sets HID = (HID + 1) modulo H_CONF. The SS creates test data for the next TFRC and repeat steps 17 to 18 until all TFRCs have been tested.
20	<–		OPEN UE TEST LOOP (DCCH)	TC
21	–>		OPEN UE TEST LOOP COMPLETE (DCCH)	TC
22			RB RELEASE	RRC
23	<–		DEACTIVATE RB TEST MODE	TC Optional step
24	–>		DEACTIVATE RB TEST MODE COMPLETE	TC Optional step

NOTE 1: In addition to activate integrity protection Step 6 and Step 7 are inserted in order to stop T3317 timer in the UE, which starts after transmitting SERVICE REQUEST message.

NOTE 2: For case B (CS+PS radio bearers) the second security mode procedure is needed to enable testing of ciphering on the PS radio bearers.

NOTE 3: For case A (PS radio bearers) steps A1 to A10 will be executed once during first sub-test. For case B (CS+PS radio bearers) steps B1 to B12 will be executed once during first sub-test.

Specific Message Content:

Use the same RADIO BEARER SETUP message as specified in 34.108 with the following exceptions for step A11, B12a:

Information Element	Value/remark	Version
HS-DSCH TB size table	octet aligned	Rel-7

14.1.3.6 Generic test procedure for HS-DSCH radio bearer combinations with AMR RB configurations using SRB#5 for TFC control

This procedure is used to test AMR radio bearer using SRB#5 for TFC control in combination with HS-DSCH radio bearers. The procedure is run once for each sub-test of the actual HS-DSCH radio bearer test case.

Definition of test variables:

N_codes	Number of HS-DSCH codes (1..15, maximum number dependent on UE category)
M	Type of modulation scheme (QPSK, 16QAM)
TB_size	Transport Block size
N_PDUs	Number of MAC-d PDUs
H_ID	HARQ process identifier (0..7)

Initial conditions

UE in idle mode

Test procedure

a) The SS establish the reference radio bearer configuration as specified in TS 34.108, clause 6.10 for the actual radio bearer test. As part of the RADIO BEARER SETUP the TFC subsets as defined for the actual radio bearer configuration is setup. The radio bearer setup procedure has to be performed once per domain. The first radio bearer setup procedure shall perform configuration of the physical channel for the radio bearer combination under test as well as the transport channels for the CS radio bearer(s). The second radio bearer procedure shall perform the configuration for the transport channel for the PS radio bearers . The Physical channel configuration shall be done for both CS and PS radio bearers combined. Here the transport format combination set for both CS and PS radio bearers shall be provided. See note 1 and note 3.

b) The SS signals the “TFC subset identity” in the TRANSPORT FORMAT COMBINATION CONTROL message on SRB#5 as specified for the sub-test of the actual AMR radio bearer test. See note 6.

d) The SS selects the first TFRC test point (N_PDUs , M, N_codes and TFRI) according to the applicable table in sub-clauses 14.1.3.3 (MAC-d PDU size=336) or 14.1.3.4 (MAC-d PDU size=656).

e) The SS sets H_ID= 0.

f) The SS creates 4 DL RLC SDUs of size (N_PDUs * MAC-d PDU payload size) / 4 minus 8 bits (size of 7 bit length indicator and expansion bit). See note 4.

i) The SS sets H_ID= (H_ID + 1) modulo Max_H_ID, where Max_H_ID equals the number of HARQ processes to be verified by the actual sub-test

k) The SS opens the UE test loop.

l) The SS release the radio bearer. See note 5.

m) Steps a) to l) are repeated for all sub-tests. See note 7.

n) The SS may optionally deactivate the radio bearer test mode.

NOTE 2: Void

NOTE 5: The Secondary scrambling code in the RADIO BEARER RELEASE message is set to the same value used in the RADIO BEARER SETUP MESSAGE.

NOTE 6: The TFC subset associated with the signalled “TFC subset identity” in the TRANSPORT FORMAT COMBINATION CONTROL message is defined by the actual AMR reference radio bearer under test.

NOTE 7: CS radio bearer is setup once during the first sub-test.

Expected sequence (repeated for each sub-test, see note 3)

Step	Direction		Message	Comments
Step	UE	SS	Message	Comments
1	<–		SYSTEM INFORMATION (BCCH)	Broadcast
2	<–		PAGING TYPE 1 (PCCH)	Paging (CS domain, TMSI)
3	–>		RRC CONNECTION REQUEST (CCCH)	RRC
4	<–		RRC CONNECTION SETUP (CCCH)	RRC
5	–>		RRC CONNECTION SETUP COMPLETE (DCCH)	RRC
6	–>		PAGING RESPONSE (DCCH)	RR
6a	<–		AUTHENTICATION REQUEST
6b	–>		AUTHENTICATION RESPONSE
7	<–		SECURITY MODE COMMAND
8	–>		SECURITY MODE COMPLETE
9	<–		PAGING TYPE 2 (DCCH)	TMSI (GSM-MAP)/ P-TMSI
9a	–>		SERVICE REQUEST (DCCH)	GMM
9b	<–		SECURITY MODE COMMAND	RRC See note 2
9c	–>		SECURITY MODE COMPLETE	RRC
10	<–		ACTIVATE RB TEST MODE (DCCH)	TC
10a	–>		ACTIVATE RB TEST MODE COMPLETE (DCCH)	TC
11	<–		RADIO BEARER SETUP (DCCH)	RRC CS radio bearer(s) are configured The TFC subsets associated with the signalling of the TFC subset identity in the TRANSPORT FORMAT COMBINATION CONTROL message on SRB#5 are setup as part of the RADIO BEARER SETUP message.
12	–>		RADIO BEARER SETUP COMPLETE (DCCH)	RRC
12a	<–		RADIO BEARER SETUP (DCCH)	RRC PS radio bearer(s) are configured. For the PS radio bearer the ‘pdcp info’ IE shall be omitted.
12b	–>		RADIO BEARER SETUP COMPLETE (DCCH)	RRC
12c	<–		TRANSPORT FORMAT COMBINATION CONTROL message	SRB#5, includes the TFS subset identity IE
13			Void
14	<–		CLOSE UE TEST LOOP (DCCH)	TC UE test mode 1 RLC SDU size is for every active radio bearer set to "UL RLC SDU size", as specified for the sub-test.
15	–>		CLOSE UE TEST LOOP COMPLETE (DCCH)	TC
16	SS			For each DTCHs mapped on HS-DSCH the SS creates test data for the first TFRC . The test data shall be dived into 4 RLC SDUs of size (N_PDUs * MAC-d PDU payload size) / 4 – 8 bits. The SS sets HID = 0.
17	<–		DOWNLINK MAC-hs PDU (HS-DSCH#1) … DOWNLINK MAC-hs PDU (HS-DSCH#N) DL RLC SDU (DL DCH#1) … DL RLC SDU (DL DCH#M)	For each DTCH mapped on HS-DSCH the SS sends test data divided into 4 RLC SDUs for HARQ processed HID. For each DTCH mapped on DCH the SS sends test data using the downlink transport format combination under test.
18	–>		UPLINK RLC SDUs	The SS checks, for each DTCH, that the content and transport format of the received UL RLC SDUs are correct.
19	SS			The SS sets HID = (HID + 1) modulo Max_HID. The SS creates test data for the next TFRC and repeat steps 17 to 18 until all TFRCs have been tested.
20	<–		OPEN UE TEST LOOP (DCCH)	TC
21	–>		OPEN UE TEST LOOP COMPLETE (DCCH)	TC
22			RB RELEASE	RRC
23	<–		DEACTIVATE RB TEST MODE	TC Optional step
24	–>		DEACTIVATE RB TEST MODE COMPLETE	TC Optional step

NOTE 1: In addition to activate integrity protection Step 6 and Step 7 are inserted in order to stop T3317 timer in the UE, which starts after transmitting SERVICE REQUEST message.

NOTE 2: The second security mode procedure is needed to enable testing of ciphering on the PS radio bearers.

NOTE 3: Steps 1 to 12 will be executed once during first sub-test.