## G.3 Statistical testing of Performance Requirements with throughput

36.521-13GPPEvolved Universal Terrestrial Radio Access (E-UTRA)Part 1: Conformance testingRadio transmission and receptionRelease 17TSUser Equipment (UE) conformance specification

## G.3.1 General

The test of receiver performance characteristics is two fold.

1. A signal or a combination of signals is offered to the RX port(s) of the receiver.

2. The ability of the receiver to demodulate /decode this signal is verified by measuring the throughput.

In (2) is the statistical aspect of the test and is treated here.

The minimum requirement for all receiver performance tests is either 70% or 30% of the maximum throughput.

All receiver performance tests are performed in fading conditions. In addition to the statistical considerations, this requires the definition of a minimum test time.

G.2.2 applies

## G.3.3 Design of the test

The test is defined by the following design principles (see clause G.x, Theory….):

1. The standard concept is applied. (not the early decision concept)

2. A second limit is introduced: The second limit is different, whether 30% or 70% throughput is tested.

3. To decide the test pass:

Supplier risk is applied based on the Bad DUT quality

To decide the test fail:

Customer Risk is applied based on the specified DUT quality

The test is defined by the following parameters:

1a) Limit Error Ratio = 0.3 (in case 70% Throughput is tested) or

1b) Limit Throughput = 0.3 (in case 30% Throughput is tested)

2a) Bad DUT factor M=1.378 (selectivity)

2b) Bad DUT factor m=0.692 (selectivity)

justification see: TS 34.121 Clause F.6.3.3

3) Confidence level CL = 95% (for specified DUT and Bad DUT-quality)

## G.3.4 Pass Fail limit

Testing Throughput = 30%, then the test limit is

Number of successes (ACK) / number of samples ≥ 59 / 233

Testing Throughput = 70% then the test limit is

Number of fails (NACK and statDTX) / number of samples ≤ 66 / 184

We have to distinguish 3 cases:

a) The duration for the number of samples (233 or 184) is greater than the minimum test time:

Then the number of samples (233 or 184) is predefined and the decision is done according to the number of events (59 successes or 66 fails)

b) Since subframe 0 and 5 contain less bits than the remaining subframes, it is allowed to predefine a number of samples contained in an integer number of frames. In this case test-limit-ratio applies.

c) The minimum test time is greater than the duration for the number of samples:

The minimum test time is predefined and the decision is done comparing the measured ratio at that instant against the test-limit-ratio.

NOTE: The test time for most of the tests is governed by the Minimum Test Time

## G.3.5 Minimum Test time

If a pass fail decision in G.3.4 can be achieved earlier than the minimum test time, then the test shall not be decided, but continued until the minimum test time is elapsed.

The tables below contain the minimum number of subframes for FDD and TDD.

By simulations the minimum number of active subframes (carrying DL payload) was derived (MNAS),

then adding inactive subframes to the active ones (e.g. subframe 5 contains no DL payload. For TDD additional subframes contain no DL payload)

then rounding up to full thousand and

then adding a bias of 1000 (BMNSF).

Simulation method to derive minimum test time:

With a level, corresponding a throughput at the test limit (here 30% or 70% of the max. throughput) the preliminary throughput versus time converges towards the final throughput. The allowance of ± 0.2 dB around the above mentioned level is predefined by RAN5 to find the minimum test time. The allowance of ±0.2 dB maps through the function “final throughput versus level” into a throughput corridor. The minimum test time is achieved when the preliminary throughput escapes the corridor the last time. The two functions “final throughput versus level” and “preliminary throughput versus time” are simulation results, which are done individual for each demodulation scenario. HST-scenarios and scenarios with MNAS ≥ 50000 are derived differently.

Figure G.3.5-1: Simulation method to derive minimum test time

Table G.3.5-1: Minimum Test time for PDSCH Single Antenna Port Performance

 Test No Demodulation scenario plain text: RMC (Bandwidth, allocated RBs, modulation, coding) Antenna (configuration, correlation) Propagation condition, Doppler [additional parameters, if applicable] (info only) Minimum Number of Active Subframes (MNAS) to reach the corridor (Simulation, info only) Minimum Number of Subframes (MNS) to reach the corridor (MNS = active and inactive subframes) (Calculation, info only) Biased Minimum Number of SubFrames (BMNSF) BMNSF= +1000 (mandatory) FDD TDD FDD TDD 1 R.2 (10 MHz, full, QPSK, 1/3) (1×2 Low) EVA,5 38 764 43 072 77 528 45 000 79 000 2 R.2 (10 MHz, full, QPSK, 1/3) (1×2 Low) ETU,70 2 764 3 072 5 528 5 000 7 000 3 R.2 (10 MHz, full, QPSK, 1/3) (1×2 Low) ETU,300 1 424 1 583 2 848 3 000 4 000 4 R.2 (10 MHz , full, QPSK, 1/3) (1×2) HST 28 800 NA NA 28 800 57 600 5 R.4 (1.4 MHz, full, QPSK, 1/3) (1×2 Low) EVA,5 44 354 49 283 147 847 51 000 149 000 6 R.3 (10 MHz, full, 16QAM, ½) (1×2 Low) EVA,5 39 020 43 356 78 040 45 000 80 000 R.3-1 (5 MHz, full, 16QAM, ½) (1×2 Low) EVA,5 39 020 43 356 78 040 45 000 80 000 6 Rel-9 R.3-1 (5MHz, full, 16QAM, ½) (1×2 Low) EVA5 39 020 (MNAS is not simulated, but estimated based on similar scenario in Table G.3.5-1 Test6) 43 356 78 040 45 000 80 000 7 R.3 (10 MHz, full, 16QAM, ½) (1×2 Low) ETU,70 1 366 1 518 2 732 3 000 4 000 R.3-1 (5 MHz, full, 16QAM, ½) (1×2 Low) ETU70 1 366 1 518 2 732 3 000 4 000 7 Rel-9 R.3-1 (5MHz, full, 16QAM, ½) (1×2 Low) ETU70 1 366 (MNAS is not simulated, but estimated based on similar scenario in Table G.3.5-1 Test7) 1 518 2 732 3 000 4 000 8 R.3 (10 MHz, full, 16QAM, ½) (1×2 High) ETU,300 3 189 3 544 6 378 5 000 8 000 R.3-1 (5MHz, full, 16QAM, ½) (1×2 High) ETU300 3 189 3 544 6 378 5 000 8 000 8 Rel-9 R.3-1 (5MHz, full, 16QAM, ½) (1×2 High) ETU300 3 189 (MNAS is not simulated, but estimated based on similar scenario in Table G.3.5-1 Test8) 3 544 6 378 5 000 8 000 9 R.5 (3 MHz, full, 64QAM, ¾) (1×2 Low) EVA,5 50 000 55 556 100 000 57 000 101 000 10 R.6 (5 MHz, full, 64QAM, 3/4) (1×2 Low) EVA,5 48 847 54 275 97 694 56 000 99 000 10 Rel-9 R.6-1 (5MHz, partial, 64QAM, ¾) (1×2 Low) EVA5 48 847 (MNAS is not simulated, but estimated based on similar scenario in Table G.3.5-1 Test10) 54 275 97 694 56 000 99 000 11 R.7 (10 MHz, full, 64QAM, ¾) (1×2 Low) EVA,5 46 524 51 694 93 048 53 000 95 000 11 Rel-9 R.7-1 (10MHz, partial, 64QAM, ¾) (1×2 Low) EVA5 46 524 (MNAS is not simulated, but estimated based on similar scenario in Table G.3.5-1 Test11) 51 694 93 048 53 000 95 000 12 R.7 (10 MHz, full, 64QAM, ¾) (1×2 Low) ETU,70 4 722 5 247 9 444 7 000 11 000 12 Rel-9 R.7-1 (10MHz, partial, 64QAM, ¾) (1×2 Low) ETU70 4 722 (MNAS is not simulated, but estimated based on similar scenario in Table G.3.5-1 Test12) 5 247 9 444 7 000 11 000 13 R.7 (10 MHz, full, 64 QAM, 3/4) (1x2High) EVA,5 100 000 111 112 200 000 113 000 201 000 13 Rel-9 R.7-1 (10MHz, partial, 64QAM, ¾) (1×2 High) EVA5 100 000 (MNAS is not simulated, but estimated based on similar scenario in Table G.3.5-1 Test13) 111 112 200 000 113 000 201 000 14 R.8 (15 MHz, full, 64QAM, ¾) (1×2 Low) EVA,5 48 434 53 816 96 868 55 000 98 000 14 Rel-9 R.8-1 (15MHz, partial, 64QAM, ¾) (1×2 Low) EVA5 48 434 (MNAS is not simulated, but estimated based on similar scenario in Table G.3.5-1 Test14) 53 816 96 868 55 000 98 000 15 R.9 (20 MHz, full, 64QAM,3/4) (1×2 Low) EVA,5 100 000 111 112 200 000 113 000 201 000 15 Rel-9 R.9-1 (20MHz, partial, 64QAM, ¾) (1×2 Low) EVA5 100 000 (MNAS is not simulated, but estimated based on similar scenario in Table G.3.5-1 Test15) 111 112 200 000 113 000 201 000 15 Rel-9 R.9-2 (20MHz, partial, 64QAM, ¾) (1×2 Low) EVA5 100 000 (MNAS is not simulated, but estimated based on similar scenario in Table G.3.5-1 Test15) 111 112 200 000 113 000 201 000 16 R.0 (3 MHz, 1PRB,16QAM, ½) (1×2 Low) ETU,70 5 710 6 345 11 420 8 000 13 000 17 R.1 (10MHz,1PRB,16QAM, ½) (1×2 Low) ETU,70 9 234 10 260 18 468 12 000 20 000 18 R.1 (20MHz,1PRB,16QAM, ½) (1×2 Low) ETU,70 13 373 14 859 26 746 16 000 28 000

Table G.3.5-2: Minimum Test time for PDSCH Single Antenna Port Performance with 1 PRB

 Test No Demodulation scenario (info only) MNAS (Simulation) MNS (Calculation) MNSF (Min No Sub Frames, mandatory) FDD TDD FDD TDD 1 R.29 (10MHz,1PRB,16QAM,½) (1×2 Low) ETU,70 [MBSFN] 5 246 17 487 17 487 19 000 19 000

Table G.3.5-3: Minimum Test time for PDSCH Transmit diversity 2×2

 Test No Demodulation scenario (info only) MNAS (Simulation) MNS (Calculation) MNSF (Min No Sub Frames, mandatory) FDD TDD FDD TDD 1 R.11 (10MHz, full, 16QAM, ½) (2×2 Med) EVA,5 [SFBC, Space Frequency Block Code] 50 000 55 556 100 000 57 000 101 000 R.11-1 (5MHz, full, 16QAM, ½) (2×2 Med) EVA5 [SFBC, Space Frequency Block Code] 50 000 55 556 100 000 57 000 101 000 1 Rel-9 R.11-2 (5MHz, full, 16QAM, ½) (2×2 Med) EVA5 [SFBC] 50 000 (MNAS is not simulated, but estimated based on similar scenario in Table G.3.5-3 Test1) 55 556 100 000 57 000 101 000 2 R.10 (10MHz, Full, QPSK, 1/3) (2×2) HST [SFBC] 28 800 NA NA 28 800 57 600

Table G.3.5-3a: Minimum Test time for PDSCH Transmit diversity 2×2 for eICIC

 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.11-4 (10MHz, full, QPSK, ½) (2×2 Med) EVA,5 [SFBC, Space Frequency Block Code] 50 000 (MNAS is not simulated, but estimated based on similar scenario in Table G.3.5-3 Test1) 224 000 501 000

Table G.3.5-3b: Minimum Test time for PDSCH Transmit diversity 2×2 for feICIC

 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.11-4 (10MHz, full, QPSK, ½) (2×2 Med) EVA,5 [SFBC, Space Frequency Block Code] 50 000 MNAS is not simulated, but estimated based on similar scenario in Table G.3.5-3 Test1 224 000 501 000

Table G.3.5-4: Minimum Test time for PDSCH Transmit diversity 4×2

 Test No Demodulation scenario (info only) MNAS (Simulation) MNS (Calculation) MNSF (Min No Sub Frames, mandatory) FDD TDD FDD TDD 1 R.12 (1.4MHz, full, QPSK, 1/3) (4×2 med) EPA,5 [SFBC-FSTD, SFBC-Frequency Shifted Transmit Diversity] 150 000 166 667 300 000 168 000 301 000 1 Rel-9 R.13 (10 MHz, full, QPSK, 1/3) (4×2 Low) ETU70 [SFBC-FSTD] 10 000 (MNAS is not simulated, but estimated based on similar scenarios in Table G.3.5-4 Test1) 11 112 20 000 13 000 21 000

Table G.3.5-5: Minimum Test time for PDSCH Open Loop Spacial Multiplexing 2×2

 Test No Demodulation scenario (info only) MNAS (Simulation) MNS (Calculation) MNSF (Min No Sub Frames, mandatory) FDD TDD FDD TDD 1 FDD R.11 (10MHz, Full, 16QAM, ½) (2×2 Low) EVA70 [LD-CDD, Large Delay-Cyclic Delay Diversity] 7 600 8 445 – 10 000 – 1 TDD R.11-1 (10MHz, Full, 16QAM, ½) (2×2 Low) EVA70 [LD-CDD, Large Delay-Cyclic Delay Diversity] 7 600 – 19 000 – 20 000 2 R.11-2 (5MHz, Full, 16QAM, ½) (2×2 Low) EVA,70 [LD-CDD, Large Delay-Cyclic Delay Diversity] 7 600 (MNAS is not simulated, just follow the similar 10MHz test scenario in Test 1) 8 445 – 10 000 –

Table G.3.5-5a: Minimum Test time for PDSCH Open Loop Spacial Multiplexing 2×2 for eICIC

 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.11 (10MHz, Full, 16QAM, ½) (2×2 Low) EVA,5 [LD-CDD, Large Delay-Cyclic Delay Diversity, Non-MBSFN ABS] 7 600 (MNAS is not simulated, but estimated based on similar scenario in Table G.3.5-5 Test1) 35 000 77 000 1 R.11 (10MHz, Full, 16QAM, ½) (2×2 Low) EVA,5 [LD-CDD, Large Delay-Cyclic Delay Diversity, MBSFN ABS] 7 600 (MNAS is not simulated, but estimated based on similar scenario in Table G.3.5-3 Test1) 77 000 77 000

Table G.3.5-5b: Minimum Test time for PDSCH Open Loop Spacial Multiplexing 2×2 for feICIC

 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.11 (10MHz, Full, 16QAM, ½) (2×2 Low) EVA,5 [LD-CDD, Large Delay-Cyclic Delay Diversity] 7 600 MNAS is not simulated, but estimated based on similar scenario in Table G.3.5-5 Test1 35 000 77 000 2 R.35 (10MHz, full, 64QAM, ½) (2×2 Low) EVA,5 [LD-CDD, Large Delay-Cyclic Delay Diversity] 7 600 MNAS is not simulated, but estimated based on similar scenario in Table G.3.5-5 Test1 35 000 77 000

Table G.3.5-6: Minimum Test time for PDSCH Open Loop Spacial Multiplexing 4×2

 Test No Demodulation scenario (info only) MNAS (Simulation) MNS (Calculation) MNSF (Min No Sub Frames, mandatory) FDD TDD FDD TDD 1 R.14 (10MHz, full, 16 QAM, ½) (4×2 low) EVA,70 [LD-CDD] 4 860 5 400 12 150 7 000 14 000

Table G.3.5-7: Minimum Test time for PDSCH Closed LoopSingle/Multilayer Spacial Multiplexing 2×2

 Test No Demodulation scenario (info only) MNAS (Simulation) MNS (Calculation) MNSF (Min No Sub Frames, mandatory) FDD TDD FDD TDD 1 R.10 (10MHz, Full, QPSK,1/3) (2×2 Low) EVA5 [SCW, Single CodeWord] 49 140 54 600 98 280 56 000 100 000 1A R.10-2 (5MHz, Full, QPSK,1/3) (2×2 Low) EVA5 [SCW, Single CodeWord] 49 140 54 600 98 280 56 000 100 000 2 R.10 (10MHz, Full, QPSK, 1/3) (2×2 High) EPA5 [SCW] 50 000 55 556 100 000 57 000 101 000 3 FDD R.11 (10MHz,full, 16QAM, ½) (2x2Low) EVA5 [MCW, Multiple Code Word] 34 266 38 074 – 40 000 – 3 TDD R.11-1 (10MHz,full, 16QAM, ½) (2x2Low) EVA5 [MCW, Multiple Code Word] 34 266 – 85 665 – 87 000 3 Rel-9 R.35 (10MHz, full, 64QAM, ½) (2×2 Low) EPA5 [MCW] 48 000 (MNAS is not simulated, but estimated based on similar scenarios in Table G.3.5-12 Test5) 53 333 120 000 55 000 121 000 4 FDD R.11 (10MHz, full, 16QAM, ½) (2x2Low) ETU70 [MCW] 2 736 3 040 – 5 000 – 4 TDD R.11-1 (10MHz, full, 16QAM, ½) (2x2Low) ETU70 [MCW] 2 736 – 6840 – 8000 4A R.11-2 (5MHz, full, 16QAM, ½) (2x2Low) ETU70 [MCW] 2 736 3 040 – 5 000 –

Table G.3.5-8: Minimum Test time for PDSCH Closed Loop Single/Multilayer Spacial Multiplexing 4×2

 Test No Demodulation scenario (info only) MNAS (Simulation) MNS (Calculation) MNSF (Min No Sub Frames, mandatory) FDD TDD FDD TDD 1 R.13 (10 MHz, Full, QPSK, 1/3) (4×2 Low) EVA,5 [SCW] 26 528 29 476 53 056 31 000 55 000 2 R.14 (10MHz, Full, 16QAM, ½) (4x2low) EVA5 [MCW] 26 066 28 963 65 165 30 000 67 000 2 Rel-9 R.36 (10MHz, full, 64QAM 1/2) (4×2 Low) EPA5[MCW] 30 000 (MNAS is not simulated, but estimated based on similar scenarios in Table G.3.5-4 Test1) 33 333 75 000 35 000 76 000

Table G.3.5-9: Minimum Test time for PDSCH Single-layer Spatial Multiplexing on antenna port 5 (Release 8 and forward)

 Test No Demodulation scenario (info only) MNAS (Simulation) MNS (Calculation) MNSF (Min No Sub Frames, mandatory) FDD TDD FDD TDD 1 R.25 (10 MHz, full, QPSK, 1/3) (1×2 Low) EPA,5 38 879 43 199 77 758 45 000 79 000 2 R.26 (10MHz, full, 16QAM, ½) (1×2 Low) EPA5 47 781 53 090 95 562 55 000 97 000 3 R.27 (10MHz, full, 64QAM, 3/4) (1×2 Low) EPA,5 48 685 54 095 97 370 56 000 99 000 4 R.28 (10MHz, 1PRB, 16QAM, ½) (1×2 Low) EPA,5 100 000 111 112 200 000 113 000 201 000

Table G.3.5-10: Minimum Test time for PDSCH Single-layer Spatial Multiplexing on antenna port 5 (Release 9 and forward)

 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 NA 2 R.26-1 (5MHz, full, 16QAM ½) (2×2 Low) EPA5 Note: MNAS is not simulated. Because of same demodulation scenario except for antenna configuration, MNSF is reused from Table G.3.5-9, Test 2 55 000 97 000 3 R.27-1 (10MHz, part, 64QAM 3/4) (2×2 Low) EPA,5 Note: MNAS is not simulated. Because of same demodulation scenario except for antenna configuration, MNSF is reused from Table G.3.5-9, Test 3 56 000 99 000 4 NA

Table G.3.5-11: Minimum Test time for PDSCH Single-layer Spatial Multiplexing on antenna port 7 or 8 without simultaneous transmission

 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.31 (10 MHz, full, QPSK, 1/3) (2×2 Low) EVA,5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC, antenna configuration, MNSF is reused from Table G.3.5-9, Test 1 45 000 79 000 2 R.32 (10MHz, full, 16QAM, ½) (2×2 Medium) EPA5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC, antenna configuration, MNSF is reused from Table G.3.5-9, Test 2 55 000 97 000 R.32-1 (5MHz, full, 16QAM, ½) (2×2 Medium) EPA5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC, channel BW, antenna configuration, MNSF is reused from Table G.3.5-9, Test 2 3 R.33 (10MHz, full, 64QAM, 3/4) (2×2 Low) EPA,5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC, antenna configuration, MNSF is reused from Table G.3.5-9, Test 3 56 000 99 000 R.33-1 (10MHz, part, 64QAM, 3/4) (2×2 Low) EPA5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC, allocation, antenna configuration, MNSF is reused from Table G.3.5-9, Test 3

Table G.3.5-12: Minimum Test time for PDSCH Single-layer Spatial Multiplexing on antenna port 7 or 8 with a simultaneous transmission

 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 4 R.32 (10MHz, full, 16QAM, 1/2) (2×2 Medium) EPA,5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC number, antenna configuration, MNSF is reused from Table G.3.5-9, Test 2 55 000 97 000 5 R.34 (10MHz, full, 64QAM, 1/2) (2×2 Low) EPA,5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC number, target coding rate, antenna configuration, MNSF is reused from Table G.3.5-9, Test 3 56 000 99 000

Table G.3.5-12a: Minimum Test time for PDSCH Single-layer Spatial Multiplexing on antenna port 7 or 8 without simultaneous transmission for eDL-MIMO

 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.43 FDD, R50 TDD (10 MHz, full, QSPK, 1/3) (2×2 Low) EVA,5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC, antenna configuration, propagation condition, MNSF is reused from Table G.3.5-9, Test 1 45 000 79 000

Table G.3.5-12b: Minimum Test time for PDSCH Single-layer Spatial Multiplexing on antenna port 7 or 8 with a simultaneous transmission for eDL-MIMO

 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 2 R.50 FDD, R.44 TDD (10MHz, full, 64QAM, 1/2) (2×2 Low) EPA,5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC, target coding rate, antenna configuration, MNSF is reused from Table G.3.5-9, Test 3 56 000 99 000

Table G.3.5-12c: Minimum Test time for PDSCH Single-layer Spatial Multiplexing for FeICIC

 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.11 FDD, R11 TDD (10 MHz, full, 16QAM, 1/2) (2×2 High) EPA, 5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC, antenna configuration, propagation condition, MNSF is reused from Table G.3.5-9, Test 1 55 000 97 000

Table G.3.5-13: Minimum Test time for PDSCH Dual-layer Spatial Multiplexing

 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.31 (10 MHz, full, QPSK, 1/3) (2×2 Low) EVA,5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC, antenna configuration, MNSF is reused from Table G.3.5-9, Test 1 [45 000] [79 000] 2 R.32 (10MHz, full, 16QAM, ½) (2×2 Medium) EPA5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC, antenna configuration, MNSF is reused from Table G.3.5-9, Test 2 [55 000] [97 000]

Table G.3.5-13a: Minimum Test time for PDSCH Dual-layer Spatial Multiplexing for eDL-MIMO

 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.51 (10MHz, full, 16QAM, 1/2) (2×2 Low) EPA5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC, antenna configuration, MNSF is reused from Table G.3.5-9, Test 2 55 000 97 000

Table G.3.5-14: Minimum Test time for PDSCH transmit Diversity 2×2 with TM3 Interference Model – Enhanced Performance Type A

 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.46 (10MHz, full, QPSK, 1/3) (2×2 Low) EVA70 Note: MNAS is not simulated. It is estimated based on other similar test cases using EVA70 or ETU70 propagation conditions 15 000 27 000

Table G.3.5-15: Minimum Test time for PDSCH Closed Loop Single Layer Spatial Multiplexing 2×2 with TM4 Interference Model – Enhanced Performance Type A

 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.47 (10MHz, full, 16QAM, 1/3) (2×2 Low) EVA5 Note: MNAS is not simulated. It is estimated based on other similar test cases using EVA5 or ETU70 propagation conditions 56 000 100 000

Table G.3.5-16: Minimum Test time for PDSCH Single-layer Spatial Multiplexing on antenna ports 7 or 8 with TM9 Interference Model – Enhanced Performance Type A

 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.48 (10MHz, full, QPSK, 1/2) (4×2 Low) EVA5 Note: MNAS is not simulated. It is estimated based on other similar test cases using EVA5 propagation conditions 57 000 101 000

Table G.3.5-17: Minimum Test time for PDSCH Closed Loop Single layer Spacial Multiplexing 2×1 for UE Category 0

 Clause 8.9.1.1.2/8.9.1.2.2 Test No Demodulation scenario (info only) MNAS (Simulation) MNS (Calculation) MNSF (Min No Sub Frames, mandatory) HD-FDD TDD HD-FDD TDD 1 R.63 (10MHz, 1PRB, 64QAM, ½) (2×1 Low) EPA5 48 000 (MNAS is not simulated, but estimated based on similar scenarios in Table G.3.5-7 Test3 Rel-9) with HD-FDD pattern 142 222 120 000 144 000 121 000

Table G.3.5-17a: Minimum Test time for PDSCH Closed Loop Single layer Spacial Multiplexing 2×1 for UE Category M1

 Clause 8.11.1.1.1/8.11.1.2.1 Test No Demodulation scenario (info only) MNAS (Simulation) MNS (Calculation) MNSF (Min No Sub Frames, mandatory) HD-FDD TDD HD-FDD TDD 1 R.79] (10MHz, 1PRB, 16QAM, ½) (2×1 Low) EPA5 48 000 (MNAS is not simulated, but estimated based on similar scenarios in Table G.3.5-7 Test3 Rel-9) with HD-FDD pattern 240 000 120 000 241 000 121 000

Table G.3.5-18: Minimum Test time for PDSCH Open Loop Spatial Multiplexing 2×2– Enhanced Performance Type C

 Clause 8.2.1.3.1B/8.2.2.3.1B Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.11 FDD R.11-1 TDD (10MHz, Full, 16QAM, ½) (2×2 Medium) EVA70 [LD-CDD, Large Delay-Cyclic Delay Diversity] 7 600 (MNAS is not simulated, just follow the similar 10MHz test scenario in Table G.3.5-5 Test 1 FDD) 10 000 20 000

Table G.3.5-19: Minimum Test time for PDSCH Closed Loop Spatial Multiplexing 2×2– Enhanced Performance Type C

 Clause 8.2.1.4.2A/8.2.2.4.2A Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.11 FDD R.11-1 TDD (10MHz, full, 16QAM, ½) (2×2 Medium) ETU70 [MCW] 2 736 (MNAS is not simulated, but estimated based on similar scenarios in Table G.3.5-7 Test4 FDD) 5 000 8 000

Table G.3.5-20: Minimum Test time for PDSCH Open Loop Single/Multilayer Spatial Multiplexing 2×2 with TM1 Interference Model – Enhanced Performance Type C

 Clause 8.2.1.3.1C/8.2.2.3.1C Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.11-8 FDD R.11-10 TDD (10MHz, full, QPSK, 3/5, 1/2) (2×2 Medium) EVA70 Note: MNAS is not simulated. It is estimated based on other similar test cases using EVA70 or ETU70 propagation conditions 15 000 26 000

Table G.3.5-21: Minimum Test time for for CDM-multiplexed DM RS – Enhanced Performance Type C

 Clause 8.3.1.2.2/8.3.2.2.2 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.51 FDD R.32 TDD (10MHz, full, 16QAM, 1/2) (2×2 Medium) EPA5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC, antenna configuration, MNSF is reused from Table G.3.5-9, Test 2 [55 000] [97 000]

Table G.3.5-22: Minimum Test time for PDSCH transmit Diversity 2×2 with TM2 Interference Model – Enhanced Performance Type B

 Clause 8.2.1.2.5 / 8.2.2.2.6 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.11-10 FDD R.11-12 TDD (10MHz, full, QPSK, 0.67 FDD, 0.54-0.66 TDD) (2×2 Low) EPA5 48000 Note: MNAS is not simulated. It is estimated based on other similar test cases using EPA5 propagation conditions 60 000 120 000

Table G.3.5-23: Minimum Test time for PDSCH transmit Diversity 2×2 with TM9 Interference Model – Enhanced Performance Type B

 Clause 8.2.1.2.6 / 8.2.2.2.7 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.11-9 FDD R.11-11 TDD (10MHz, full, QPSK, 0.58 FDD, 0.48-0.58 TDD) (2×2 Low) EPA5 48000 Note: MNAS is not simulated. It is estimated based on other similar test cases using EPA5 propagation conditions 60 000 120 000

Table G.3.5-24: Minimum Test time for PDSCH Performance with DCI format 2D, non Quasi Co-located Antenna Ports, Same Cell ID and single NZP CSI-RS resource for CoMP

 Clause 8.3.1.3.1_F/ 8.3.2.4.1_F Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.52 FDD R.52 TDD (10MHz, full, 64QAM, 1/2) (2×2 Low) EPA,5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC number, target coding rate, antenna configuration, MNSF is reused from Table G.3.5-9, Test 3 56 000 99 000 2 R.52 FDD R.52 TDD (10MHz, full, 64QAM, 1/2) (2×2 Low) EPA,5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC number, target coding rate, antenna configuration, MNSF is reused from Table G.3.5-9, Test 3 56 000 99 000

Table G.3.5-25: Minimum Test time for PDSCH Performance with DCI format 2D, non Quasi Co-located Antenna Ports, Same Cell ID and multiple NZP CSI-RS resources for CoMP

 Clause 8.3.1.3.2_F/ 8.3.2.4.2_F Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.53 FDD R.53 TDD (10MHz, full, 64QAM, 1/2) (2×2 Low) EPA,5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC number, target coding rate, antenna configuration, MNSF is reused from Table G.3.5-9, Test 3 56 000 99 000 2 R.53 FDD R.53 TDD (10MHz, full, 64QAM, 1/2) (2×2 Low) EPA,5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC number, target coding rate, antenna configuration, MNSF is reused from Table G.3.5-9, Test 3 56 000 99 000

Table G.3.5-26: Minimum Test time for PDSCH Performance with DCI format 2D, non Quasi Co-located Antenna Ports, Different Cell ID, Colliding CRS and single NZP CSI-RS resource for CoMP

 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.54 FDD R.54 TDD (10MHz, full, 16QAM, 1/2) (2×2 Low) EPA,5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC number, antenna configuration, MNSF is reused from Table G.3.5-9, Test 2 55 000 97 000

Table G.3.5-27: Minimum Test time for PDSCH Closed Loop Single Layer Spatial Multiplexing 2×2 with TM4 Interference Model – Enhanced Performance Type B

 Clause 8.2.1.4.4 / 8.2.2.4.5 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.11-10 FDD R.11-12 TDD (10MHz, full, QPSK, 0.67 FDD, 0.54-0.66 TDD) (2×2 Low) EVA5 48000 Note: MNAS is not simulated. It is estimated based on other similar test cases using EVA5 propagation conditions 60 000 120 000 2 R.11-9 FDD R.11-11 TDD (10MHz, full, QPSK, 0.58 FDD, 0.48-0.58 TDD) (2×2 Low) EPA5 48000 Note: MNAS is not simulated. It is estimated based on other similar test cases using EPA5 propagation conditions 60 000 120 000

Table G.3.5-28: Minimum Test time for PDSCH Transmit Diversity for UE Category 0

 Clause 8.9.1.1.1/8.9.1.2.1 Test No Demodulation scenario (info only) MNAS (Simulation) MNS (Calculation) MNSF (Min No Sub Frames, mandatory) HD-FDD TDD HD-FDD TDD 1 R.62 (10MHz, 16QAM, ½) (2×1 Low) EPA5 50 000 (MNAS is not simulated, but estimated based on similar scenarios in Table G.3.5-3 Test1) with HD-FDD pattern 133 333 125 000 145 000 126 000

Table G.3.5-28a: Minimum Test time for PDSCH Transmit Diversity for UE Category M1

 Clause 8.11.1.1.3.1/8.11.1.1.3.1_1/ 8.11.1.2.3.1/8.11.1.2.3.1_1 Test No Demodulation scenario (info only) MNAS (Simulation) MNS (Calculation) MNSF (Min No Sub Frames, mandatory) HD-FDD TDD HD-FDD TDD 1 R.81 (10MHz, QPSK, 1/10) (2×1 Low) ETU1 194 560 (MNAS is not simulated but based on Table G.4.4-1) 486 400 1 167 360 488 000 1 169 000 2 R.79 (10MHz, 16QAM, ½) (2×1 Low) EPA5 48 000 (MNAS is not simulated, but estimated based on similar scenarios in Table G.3.5-9 Test2) with HD-FDD pattern 240 000 120 000 241 000 121 000

Table G.3.5-28b: Minimum Test time for PDSCH Transmit Diversity for UE Category M2

 Clause 8.11.1.1.3.2/8.11.1.1.3.2_1/ 8.11.1.2.3.2/8.11.1.2.3.2_1 Test No Demodulation scenario (info only) MNAS (Simulation) MNS (Calculation) MNSF (Min No Sub Frames, mandatory) HD-FDD TDD HD-FDD TDD 1 R.90 (10MHz, QPSK, 1/3) (2×1 Low) EPA5 (38 879 (MNAS is not simulated, but estimated based on similar scenarios in Table G.3.5-9 Test1) with HD-FDD pattern 1 244 128 3 110 320 1 246 000 3 112 000 2 R.91 (10MHz, QPSK, 1/10, 2×1 Low, ETU1) (MNAS is not simulated but based on Table G.4.4-1) 389 120 778 240 391 000 780 000

Table G.3.5-29: Minimum Test time for Closed Loop spatial multiplexing, 4 Layers spatial multiplexing with 4 Tx ports and 4 Rx ports

 Clause 8.10.1.1.8/ 8.10.1.2.8 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.74 (10MHz, full, 16QAM, 1/2) (4×4 Low) EPA5 Note: MNAS is not simulated. It is estimated based on other similar test cases using EPA5 propagation conditions 168 000 301 000

Table G.3.5-30: Minimum Test time for 4 Layer Spatial Multiplexing for 4 Rx (User-Specific Reference Symbols)

 Clause 8.10.1.1.9/ 8.10.1.2.9 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.75 (10MHz, full, 16QAM, 1/2) (4×4 Low) EPA5 Note: MNAS is not simulated. It is estimated based on other similar test cases using EPA5 propagation conditions 56 000 99 000

Table G.3.5-31: Minimum Test time for Open Loop spatial multiplexing, 3 Layers with 4 Tx ports and 4 Rx ports

 Clause 8.10.1.1.7/ 8.10.1.2.7 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.73 (10MHz, full, 64QAM, 0.43) (4×4 Low) EVA70 4 860 Note: MNAS is not simulated, but estimated based on the similar scenario in Table G.3.5-6 Test1 7 000 14 000

Table G.3.5-32: Minimum Test time for 4-Rx PDSCH Closed Loop Single Layer Spatial Multiplexing 2×4 with TM4 Interference Model – Enhanced Performance Type A

 Clause 8.10.1.1.3/8.10.1.2.3 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.47 (10MHz, full, 16QAM, 1/3) (2×4 Low) EVA5 Note: MNAS is not simulated. It is estimated based on other similar test cases using EVA5 or ETU70 propagation conditions 56 000 100 000

Table G.3.5A-33: Minimum Test time for PDSCH Single-layer Spatial Multiplexing on antenna ports 7 or 8 for UE category 0

 Clause 8.9.1.1.3/8.9.1.2.3 Test No Demodulation scenario (info only) MNAS (Simulation) MNS (Calculation) MNSF (Min No Sub Frames, mandatory) HD-FDD TDD FDD TDD 1 R.64 (10 MHz, 6l, QPSK, 1/3) (2×1 Low) EPA,5 38 879 (MNAS is not simulated. It is estimated based on other similar scenarios in Table G.3.5-9 Test 1) with HD-FDD pattern 115 197 97 198 117 000 99 000

Table G.3.5-33a: Minimum Test time for PDSCH Single-layer Spatial Multiplexing on antenna ports 7 or 8 for UE category M1

 Clause 8.11.1.1.2/8.11.1.2.2 Test No Demodulation scenario (info only) MNAS (Simulation) MNS (Calculation) MNSF (Min No Sub Frames, mandatory) HD-FDD TDD FDD TDD 1 R.80 (10 MHz, 6l, QPSK, 1/3) (2×1 Low) EPA,5 38 879 (MNAS is not simulated. It is estimated based on other similar scenarios in Table G.3.5-9 Test 1) with HD-FDD pattern 1 244 128 2 138 345 1 246 000 2 140 000

Table G.3.5-33b: Minimum Test time for PDSCH Single-layer Spatial Multiplexing on antenna ports 7 or 8 for UE category 1bis

 Clause 8.9.1.1.3_1/8.9.1.2.3_1 Test No Demodulation scenario (info only) MNAS (Simulation) MNS (Calculation) MNSF (Min No Sub Frames, mandatory) HD-FDD TDD HD-FDD TDD 2 R.86 (10MHz, 16QAM, 1/3) (2×1 Low) EPA5 50 000 (MNAS is not simulated, but estimated based on similar scenarios in Table G.3.5-3 Test1) with HD-FDD pattern 133 333 125 000 145 000 126 000

Table G.3.5-34: Minimum Test time for 4-Rx PDSCH Single-layer Spatial Multiplexing on antenna ports 7 or 8 with TM9 Interference Model – Enhanced Performance Type A

 Clause 8.10.1.1.5 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.76 (10MHz, full, QPSK,) (2×4 Low) EVA5 Note: MNAS is not simulated. It is estimated based on other similar test cases using EVA5 propagation conditions 56 000 100 000

Table G.3.5-35: Minimum Test time for PDSCH Closed Loop Multi-layer Spatial Multiplexing 2×2 for 256QAM in DL

 Clause 8.2.1.4.1_H/ 8.2.2.4.1_H Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 3 R.65 FDD (10MHz, full, 256QAM,) (2×2 Low) EVA5 R.65 TDD (20MHz, full, 256QAM,) (2×2 Low) EVA5 50 000 Note: MNAS is not simulated. It is estimated based on other similar test cases using EVA5 propagation conditions 63 000 125 000

Table G.3.5-36: PDSCH Single-layer Spatial Multiplexing on antenna ports 7 or 8 without simultaneous transmission for eDL-MIMO for 256QAM in DL

 Clause 8.3.1.1.1_H /8.3.2.1.2_H Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 3 R.66 FDD (10MHz, full, 256QAM,) (2×2 Low) EPA5 R.66 TDD (20MHz, full, 256QAM,) (2×2 Low) EPA5 50 000 Note: MNAS is not simulated. It is estimated based on other similar test cases using EPA5 propagation conditions 63 000 125 000

Table G.3.5-37: PDSCH Transmit Diversity 2×4

 Clause 8.10.1.1.1 /8.10.1.2.1 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.11 (10MHz, full, 16QAM,) (2×4 Medium correlation A) EVA5 50 000 Note: MNAS is not simulated. It is estimated based on other similar test cases using EVA5 propagation conditions 56 000 100 000

Table G.3.5-38: PDSCH Open Loop Spatial Multiplexing 2×4

 Clause 8.10.1.1.2 /8.10.1.2.2 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.11 (10MHz, full, 16QAM,) (2×4 Low) EVA70 7600 Note: MNAS is not simulated. It is estimated based on other similar test cases using EVA70 propagation conditions 10 000 17 000

Table G.3.5-39: PDSCH Open Loop Spatial Multiplexing 2×4

 Clause 8.10.1.1.4 /8.10.1.2.4 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.36 (10MHz, full, 64QAM,) (4×4 Low) EPA5 50 000 Note: MNAS is not simulated. It is estimated based on other similar test cases using EPA5 propagation conditions 56000 126 000 2 R.72 (10MHz, full, 256QAM,) (4×4 Low) EPA5 50 000 Note: MNAS is not simulated. It is estimated based on other similar test cases using EPA5 propagation conditions 56000 126 000

Table G.3.5-40: Dual-Layer Spatial Multiplexing 2×4 (User-Specific Reference Symbols)

 Clause 8.10.1.1.6 /8.10.1.2.6 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.51 (10MHz, full, 16QAM,) (2×4 Low) ETU5 50000 Note: MNAS is not simulated. It is estimated based on other similar test cases using EPA5 propagation conditions 56 000 100 000

Table G.3.5-41: Minimum Test time for PDSCH Transmit Diversity for UE Category 1bis

 Clause 8.9.1.1.1_1/8.9.1.2.1_1 Test No Demodulation scenario (info only) MNAS (Simulation) MNS (Calculation) MNSF (Min No Sub Frames, mandatory) HD-FDD TDD HD-FDD TDD 2 R.84 (10MHz, 16QAM, ½) (2×1 Low) EPA5 50 000 (MNAS is not simulated, but estimated based on similar scenarios in Table G.3.5-3 Test1) with HD-FDD pattern 133 333 125 000 145 000 126 000

Table G.3.5-42: Minimum Test time for PDSCH for UE Category NB1

 Clause 8.12.1.1.2 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) HD-FDD TDD 1 R.NB.3 FDD (200kHz, QPSK,1/2) (1×1) EPA5 3609 3466000 N/A 2 R.NB.3 FDD (200kHz, QPSK,1/2) (1×1) ETU1 3609 5544000 N/A

Table G.3.5-43: Minimum Test time for PDSCH for UE Category NB1

 Clause 8.12.1.1.1 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) HD-FDD TDD 1 R.NB.5 FDD (200kHz, QPSK,1/3) (2×1 Low) EPA5 3040 99000 N/A 2 R.NB.5 FDD (200kHz, QPSK,1/3) (2×1 Low) EPA5 97280 293000 3 R.NB.5-1 FDD (200kHz, QPSK,1/3) (2×1 Low) ETU1 778240 1752000 N/A

Table G.3.5-44: Minimum Test time for PDSCH for UE Category NB2

 Clause 8.12.1.1.3 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) HD-FDD TDD 1 R.NB.7 FDD (200kHz, QPSK,1/2) (1×1) EPA5 3609 44000 N/A

Table G.3.5-45: Minimum Test time for PDSCH Single-layer Spatial Multiplexing for FD-MIMO

 Clause 8.3.1.1.9/8.3.2.1.10 Test No Demodulation scenario (info only) MNAS (Simulation) MNSF (Min No Sub Frames, mandatory) FDD TDD 1 R.50 FDD, R.44 TDD (10MHz, full, 64QAM, 1/2) (2×2 Low) EPA5 Note: MNAS is not simulated. Because of same demodulation scenario except for RMC, target coding rate, antenna configuration, MNSF is reused from Table G.3.5-9, Test 3 56 000 99 000

## G.3.6 Test conditions for receiver performance tests

Table G.3.6: Test conditions for receiver performance tests

Table G.3.6-1: Single Antenna Port Performance (Cell-specific Reference Symbols) for test case 8.2.1.1 and 8.2.2.1 demodulation of PDSCH

 Test Statistical independence Number of components in the test vector, as specified in the test requirements and initial conditions of the applicable test Over all Pass/Fail condition 8.2.1.1 FDD PDSCH Single Antenna Port Performance (Cell-Specific Reference Symbols) subframes are independent CAT 1 2 3-5 To pass 8.2.1.1 and 8.2.2.1each component in the test vector must pass For UEs, supporting multiple E_UTRA-bands (number of bands =B), the number of repetitions must be multiplied by B. If a test is defined over a BW>(BW of the E_UTRA band), the test is not applicable and reduces the number of repetitions. If a test is defined over a BW, which is not supported in the E_UTRAN band, the test is not applicable and reduces the number of repetitions. QPSK 5 5 5 16QAM 0 3 3 8.2.1.2 TDD PDSCH Single Antenna Port Performance (Cell-Specific Reference Symbols) subframes are independent 64 QAM 1 6 7 1PRB 4 4 4 Σ 10 18 19

Table G.3.6-2: Transmit Diversity Performance (Cell-specific Reference Symbols) for test case 8.2.1.2 and 8.2.2.2 demodulation of PDSCH

 Test Statistical independence Number of components in the test vector, as specified in the test requirements and initial conditions of the applicable test Over all Pass/Fail condition 8.2.1.2 FDD PDSCH Transmit Diversity Performance (Cell-Specific Reference Symbols) subframes are independent CAT 1 2 3-5 To pass 8.2.1.2 and 8.2.2.2 each component in the test vector must pass For UEs, supporting multiple E_UTRA-bands (number of bands =B), the number of repetitions must be multiplied by B. If a test is defined over a BW, which is not supported in the E_UTRAN band, the test is not applicable and reduces the number of repetitions. QPSK 2 2 2 8.2.2.2 TDD PDSCH Transmit Diversity Performance (Cell-Specific Reference Symbols) subframes are independent 16QAM 0 1 1 Σ 2 3 3

Table G.3.6-3: Open Loop Spatial Multiplexing Performance (Cell-specific Reference Symbols) for test case 8.2.1.3 and 8.2.2.3 demodulation of PDSCH

 Test Statistical independence Number of components in the test vector, as specified in the test requirements and initial conditions of the applicable test Over all Pass/Fail condition 8.2.1.3 FDD PDSCH Open Loop Spatial Multiplexing Performance (Cell-Specific Reference Symbols) subframes are independent CAT 1 2 3-5 To pass 8.2.1.3 and 8.2.2.3 each component in the test vector must pass 16QAM 0 2 2 8.2.2.3 TDD PDSCH Open Loop Spatial Multiplexing Performance (Cell-Specific Reference Symbols) subframes are independent Σ 0 2 2

Table G.3.6-4: Closed Loop Spatial Multiplexing Performance (Cell-specific Reference Symbols) for test case 8.2.1.4 and 8.2.2.4 demodulation of PDSCH

 Test Statistical independence Number of components in the test vector, as specified in the test requirements and initial conditions of the applicable test Over all Pass/Fail condition 8.2.1.4 FDD PDSCH Closed Loop Spatial Multiplexing Performance (Cell-Specific Reference Symbols) subframes are independent CAT 1 2 3-5 To pass 8.2.1.4 and 8.2.2.4 each component in the test vector must pass Single layer QPSK 3 3 3 8.2.2.4 TDD PDSCH Closed Loop Spatial Multiplexing Performance (Cell-Specific Reference Symbols) subframes are independent Multi layer 16QAM 0 3 3 Σ 3 6 6

Table G.3.6-5: TDD PDSCH Single-layer Spatial Multiplexing on antenna port 5 (Release 8 and forward)

 Test Statistical independence Number of components in the test vector, as specified in the test requirements and initial conditions of the applicable test Over all Pass/Fail condition 8.3.2.1.1 TDD PDSCH Single-layer Spatial Multiplexing on antenna port 5 (Release 8 and forward) subframes are independent CAT 1 2 3-5 To pass 8.3.2.1 each component in the test vector must pass QPSK 1 1 1 16QAM 1 2 2 64 QAM 0 1 1 Σ 2 4 4

Table G.3.6-6: TDD PDSCH Single-layer Spatial Multiplexing on antenna port 5 (Release 9 and forward)

 Test Statistical independence Number of components in the test vector, as specified in the test requirements and initial conditions of the applicable test Over all Pass/Fail condition 8.3.2.1.1_1 TDD PDSCH Single-layer Spatial Multiplexing on antenna port 5 (Release 9 and forward) subframes are independent CAT 1 2 3-5 To pass 8.3.2.1.1_1 each component in the test vector must pass 16QAM 1 0 0 64 QAM 1 0 0 Σ 2 0 0

Table G.3.6-7: TDD PDSCH Single-layer Spatial Multiplexing on antenna port 7 or 8 without a simultaneous transmission

 Test Statistical independence Number of components in the test vector, as specified in the test requirements and initial conditions of the applicable test Over all Pass/Fail condition 8.3.2.1.2 TDD PDSCH Single-layer Spatial Multiplexing on antenna port 7 or 8 without a simultaneous transmission subframes are independent CAT 1 2-5 To pass 8.3.2.1.2 each component in the test vector must pass QPSK 1 1 16QAM 1 1 64 QAM 1 1 Σ 3 3

Table G.3.6-8: TDD PDSCH Single-layer Spatial Multiplexing on antenna port 7 or 8 with a simultaneous transmission

 Test Statistical independence Number of components in the test vector, as specified in the test requirements and initial conditions of the applicable test Over all Pass/Fail condition 8.3.2.1.3 TDD PDSCH Single-layer Spatial Multiplexing on antenna port 7 or 8 with a simultaneous transmission subframes are independent CAT 1 2-5 To pass 8.3.2.1.3 each component in the test vector must pass 16QAM 0 1 64 QAM 0 1 Σ 0 2

Table G.3.6-8a: PDSCH Single-layer Spatial Multiplexing on antenna port 7 or 8 without a simultaneous transmission for eDL-MIMO

 Test Statistical independence Number of components in the test vector, as specified in the test requirements and initial conditions of the applicable test Over all Pass/Fail condition 8.3.1.1.1_D FDD PDSCH Single-layer Spatial Multiplexing on antenna port 7 or 8 without a simultaneous transmission subframes are independent CAT 1-8 To pass 8.3.1.1.1_D and 8.3.2.1.2_D each component in the test vector must pass QPSK 1 8.3.2.1.2_D TDD PDSCH Single-layer Spatial Multiplexing on antenna port 7 or 8 without a simultaneous transmission subframes are independent QPSK 1 Σ 2

Table G.3.6-8b: PDSCH Single-layer Spatial Multiplexing on antenna port 7 or 8 with a simultaneous transmission for eDL-MIMO

 Test Statistical independence Number of components in the test vector, as specified in the test requirements and initial conditions of the applicable test Over all Pass/Fail condition 8.3.1.1.2_D FDD PDSCH Single-layer Spatial Multiplexing on antenna port 7 or 8 with a simultaneous transmission for eDL-MIMO subframes are independent CAT 1 2-8 To pass 8.3.1.1.2_D and 8.3.2.1.3_D each component in the test vector must pass 64QAM 0 1 8.3.2.1.3_D TDD PDSCH Single-layer Spatial Multiplexing on antenna port 7 or 8 with a simultaneous transmission for eDL-MIMO subframes are independent 64QAM 0 1 Σ 0 2

Table G.3.6-8c: PDSCH Single-layer Spatial Multiplexing on antenna ports 7 or 8 with TM9 Interference Model – Enhanced Performance Requirement Type A

 Test Statistical independence Number of components in the test vector, as specified in the test requirements and initial conditions of the applicable test Over all Pass/Fail condition 8.3.1.1.3 FDD PDSCH Single-layer Spatial Multiplexing on antenna ports 7 or 8 with TM9 Interference Model – Enhanced Performance Requirement Type A subframes are independent CAT 1-8 To pass 8.3.1.1.3 and 8.3.2.1.4 each component in the test vector must pass QPSK 1 8.3.2.1.4 TDD PDSCH Single-layer Spatial Multiplexing on antenna ports 7 or 8 with TM9 Interference Model – Enhanced Performance Requirement Type A subframes are independent QPSK 1 Σ 2

Table G.3.6-9: TDD PDSCH Dual-layer Spatial Multiplexing

 Test Statistical independence Number of components in the test vector, as specified in the test requirements and initial conditions of the applicable test Over all Pass/Fail condition 8.3.2.2.1 TDD PDSCH Dual-layer Spatial Multiplexing subframes are independent CAT 1 2 3-5 To pass 8.3.2.2.1 each component in the test vector must pass QPSK 1 1 1 16QAM 1 2 2 64 QAM 0 1 1 Σ 2 4 4

Table G.3.6-9a: PDSCH Dual-layer Spatial Multiplexing for eDL-MIMO

 Test Statistical independence Number of components in the test vector, as specified in the test requirements and initial conditions of the applicable test Over all Pass/Fail condition 8.3.1.2.1_D FDD PDSCH Dual-layer Spatial Multiplexing for eDL-MIMO subframes are independent CAT 1 2-8 To pass 8.3.1.2.1_D and 8.3.2.2.1_D each component in the test vector must pass 16QAM 0 1 8.3.2.2.1_D TDD PDSCH Dual-layer Spatial Multiplexing for eDL-MIMO subframes are independent 16QAM 0 1 Σ 0 2