MAC calibration results comparison

Slides:



Advertisements
Similar presentations
Submission doc.: IEEE /1447r1 Nov 2014 John Son, WILUS InstituteSlide 1 Proposed Spec Framework Document for 11ax considering potential tech features.
Advertisements

Doc.: IEEE / Submission September 2014 Slide 1 Traffic Generator for OBSS Calibration Case Date: Authors: Chao-Chun Wang (MediaTek)
Doc.: IEEE /1192r5 Submission MAC calibration results comparison Date: Authors: Zhou Lan (Huawei Technology)Slide 1 October 2014.
Doc.: ax Submission July 2014 Slide 1 Proposed Calibration For MAC simulator Date: Authors:
Doc.: IEEE /1191r0 Submission September 2014 MAC calibration results Date: Authors: Zhou Lan (Huawei Technology)Slide 1.
Submission doc.: IEEE 11-14/ axr0 May 2014 Chinghwa Yu et al., MediaTek Inc.Slide 1 Comparison of Calibration Methodology for MAC Simulation Date:
Doc.: IEEE /1392r5 SubmissionSuhwook Kim, LG ElectronicsSlide 1 Simulation results for Box 5 calibration Date: Authors: NameAffiliationsAddressPhone .
Submission doc.: IEEE 11-14/1161r0 September 2014 Eric Wong et al (Apple)Slide 1 Parameters for Power Save Mechanisms Date: Authors:
OFDMA performance in 11ax
Doc.: IEEE /1192r1 Submission September 2014 MAC calibration results comparison Date: Authors: Zhou Lan (Huawei Technology)Slide 1.
On Amplitude Drift Compensation
Simulation results for spatial reuse in 11ax
Discussion on MAC Calibration Power Saving Test
11ax PAR Verification using UL MU-MIMO
Simulation-based evaluation of DSC in enterprise scenario
MAC Simulator Calibration Results
TGax SLS MAC Calibration Test 4 Results
TG ax DSC Summary Date: Authors: July 2015 April 2013
Comparisons of Simultaneous Downlink Transmissions
Summary of Power Save Calibration Results
Parameters for Power Save Mechanisms
MAC Calibration results
Performance Evaluation of OBSS Densification
Simulation results for
Purpose of MAC calibration test cases
Power Save Calibration
July 2015 Calibration Results for PSP and U-APSD for 20MHz, 40MHz and 80 MHz band Date: Authors: Name Affiliations Address Phone Dmitry.
Additional Test Cases for MAC calibration
Simulation Results for Box5
MAC Calibration Results
Simulation Results of Box5
Reference Simulation Model for Dynamic CCA / DSC Calibration
MAC Calibration Results
MAC Calibration Results
The Effect of Preamble Error Model on MAC Simulator
Simulation Results of Box5
OFDMA performance in 11ax
Simulation Results for Box 5 Calibration
July 2015 Calibration Results for PSP and U-APSD for 20MHz, 40MHz and 80 MHz band Date: Authors: Name Affiliations Address Phone Dmitry.
Simulation Results for Box5
Multicast Scenarios for MAC Calibration
DL MU-MIMO ack protocol
May 2013 May 2014 Proposed Clarifications for MAC calibration section in Simulation Scenario Document Date: Authors: Osama Aboul-Magd (Huawei.
Power Save Calibration
Joint submission for Box 5 calibration
Power Save Calibration
Simulation results for
Effect of CCA in residential scenario part 2
Simulation Results for Box5
DL MU MIMO Error Handling and Simulation Results
July 2015 Calibration Results for PSP and U-APSD for 20MHz, 40MHz and 80 MHz band Date: Authors: Name Affiliations Address Phone Dmitry.
Simulation Results of Box5
Box5 Calibration Results
Box5 Results of 11ac SS6 Date: Authors: Jan 2015 Sept 2014
802.11ax scenario 1 CCA Date: Authors: March 2015
OFDMA performance in 11ax
Box 5 Calibration Result
July 2015 Calibration Results for PSP and U-APSD for 20MHz, 40MHz and 80 MHz band Date: Authors: Name Affiliations Address Phone Dmitry.
802.11ax scenario 1 CCA Date: Authors: March 2015
MAC Calibration Results
AP Shut Out Neighborhood Effect
System Level Simulator Evaluation with/without Capture Effect
Box 5 results for Single BSS Calibration Case
Multicast Scenarios for MAC Calibration
DSC Calibration Result
Performance on Multi-Band Operation
LC MAC submission – follow up
Consideration on System Level Simulation
LC MAC submission – follow up
802.11ax scenario 1 CCA Date: Authors: March 2015
Presentation transcript:

MAC calibration results comparison April 2013 doc.: IEEE 802.11- MAC calibration results comparison October 2014 Authors: Date: 2014-09-10 Zhou Lan (Huawei Technology) Graham Smith, DSP Group

October 2014 April 2013 doc.: IEEE 802.11- Zhou Lan (Huawei Technology) Graham Smith, DSP Group

October 2014 April 2013 doc.: IEEE 802.11- Zhou Lan (Huawei Technology) Graham Smith, DSP Group

Summary October 2014 This contribution provides result comparison of MAC calibration of test 1-3 from variety of companies [1][2][3] This contribution also proposes a criteria for result alignment There are some parameter setting in the simulation scenario document that may generate different interpretation, this contribution clarifies these parameter settings Zhou Lan (Huawei Technology)

Status Overview October 2014 Status √: aligned, −: No need to provide Calibration Box 3 – MAC Calibration Simulation Scenarios Test 1a Test 1b Test 2a Test 2b Test 3 Test 4 Scenario Names MAC overhead w/out RTS/CTS MAC overhead w RTS/CTS Deferral Test 1 Deferral Test 2 NAV deferral Deferral Test for 20 and 40MHz BSSs Configurations MCS = [0] MCS = [8] RTS/CTS [OFF] RTS/CTS [ON] Metrics MAC Tput Check Points LG √ − Huawei Qualcomm MediaTek Intel Ericsson Nokia NTT Samsung Broadcom ZTE Toshiba Newracom Criteria: Make average over most close three companies as the baseline to compare If the performance value intended for calibration is within 5% deviation, it is marked as aligned Zhou Lan (Huawei Technology)

Test 1a October 2014 Zhou Lan (Huawei Technology) Configurations AP1 October 2014 Configurations MCS0 (6.5Mbps) MCS8 (78Mbps) 500 1000 1500 2000 Huawei 4.79 5.55 5.84 6.00 21.98 34.91 43.24 48.67 LGE 4.81 5.99 22.4 35.2 43.25 48.9 Qualcomm 4.76 5.53 5.82 5.98 21.45 34.26 42.57 48.02 MediaTek 21.71 34.65 42.71 48.15 Intel 21.53 34.46 42.58 48.14 Ericsson 4.75 5.52 5.97 34.47 48.09 Nokia 5.83 21.19 34.22 41.93 47.74 NTT 5.54 22.00 35.00 43.20 48.40 Samsung 21.54 34.48 42.60 Broadcom 21.4 34.2 42.5 48.0 ZTE 21.42 34.23 42.55 48.01 Toshiba 21.94 34.87 43.19 48.62 Newracom 4.85 23.8 36.64 43.87 49.73 Test 1a Zhou Lan (Huawei Technology)

Test 1b October 2014 Zhou Lan (Huawei Technology) Configurations AP1 October 2014 Configurations MCS0 (6.5Mbps) MCS8 (78Mbps) 500 1000 1500 2000 Huawei 4.42 5.31 5.66 5.85 15.94 27.07 34.97 40.61 LGE 4.45 5.86 16.2 27.3 35 40.8 Qualcomm 4.4 5.29 5.64 5.84 15.67 26.7 34.56 40.18 MediaTek 4.40 15.79 26.90 34.62 40.24 Intel 15.7 26.8 34.55 40.26 Ericsson 4.36 5.26 5.62 5.82 15.36 26.33 34.02 40.45 Nokia 5.28 5.83 15.52 26.66 34.12 39.96 NTT 5.30 5.67 16.00 27.10 40.40 Samsung 5.63 27.09 34.59 40.35 Broadcom 5.65 15.6 34.5 40.14 ZTE 4.39 15.61 26.61 34.45 40.08 Toshiba 15.92 27.04 34.94 40.58 Newracom 4.43 5.27 16.29 27.06 34.50 39.99 Test 1b Zhou Lan (Huawei Technology)

Test 2a October 2014 Zhou Lan (Huawei Technology) Configurations AP1 October 2014 Configurations Without RTS/CTS With RTS/CTS 500 1000 1500 2000 Huawei 4.56 5.25 5.51 5.66 4.46 5.33 5.68 5.87 LGE 4.62 5.28 5.54 4.5 5.34 5.88 Qualcomm 4.57 5.26 5.53 5.67 4.45 5.32 5.86 MediaTek 4.71 5.48 5.78 5.94 4.35 5.24 5.62 5.81 Intel 4.52 5.22 4.44 5.31 Ericsson 4.53 5.21 5.63 4.42 5.30 5.65 5.85 Nokia 4.58 5.29 5.56 5.71 4.48 NTT 5.45 4.49 5.35 5.70 Samsung 5.27 Broadcom 5.23 5.47 5.61 ZTE 4.39 5.82 Toshiba Newracom 4.80 5.49 5.77 5.93 5.57 Test 2a Zhou Lan (Huawei Technology)

Test 2b results L4 Tputs with MPDU Frame Aggregation (FA) October 2014 Scenarios MCS0 MCS8 noFA FA Huawei 1.62 1.01 26.54 34.75 LGE 1.7 1.02 26.8 35.0 Qualcomm 0.98 MediaTek 0.03631 Intel 1.61 26.66 35.20 Ericsson 1.78 1.22 25,49 33,52 Nokia 1.20 35.66 NTT 1.71 1.06 26.77 35.27 Samsung 37.22 Broadcom 1.05 34.30 ZTE 1.2 Toshiba 35.11 Newracom 1.03 34.21 Zhou Lan (Huawei Technology)

Test 3 results L4 Tputs with MPDU Frame Aggregation (FA) October 2014 Scenarios MCS0 MCS8 noFA FA Huawei 5.15 5.58 22.04 34.05 LGE 5.14 22.4 34.2 Qualcomm 5.55 MediaTek 5.63933 Intel 5.06 5.57 20.35 31.93 Ericsson 5.21 5.63 22.84 34.41 Nokia 5.59 31.35 NTT 5.18 5.60 22.10 34.01 Samsung 5.41 33.55 Broadcom 5.32 30.45 ZTE Toshiba 5.61 33.81 Newracom 5.78 34.24 Zhou Lan (Huawei Technology)

September 2014 Summary The functional test results from different parties are generally aligned. MAC/PHY Framing aligned very well Deferral in light collision case aligned very well Deferral in intensive collision case (with hidden node) is not so well aligned. But we shall reduce the gap among different parties to allow the simulator could be still pretty well aligned when more functions are added and applied to more general performance test scenarios. Zhou Lan (Huawei Technology)

October 2014 Reference [1]11-14-1230-00-00ax-mac-calibration-result.pptx [2]11-14-1192-00-00ax-comparing-mac-calibration-results.pptx [3] NTT UPDATE 11-14-1192-03-00ax-comparing-mac-calibration-results.pptx [4] ZTE-UPDATE 11-14-1192-04-00ax-comparing-mac-calibration-results.pptx [5] Intel UPDATE 11-14-1192-04-00ax-comparing-mac-calibration-results.pptx [6] Broadcom UPDATE 11-14-1192-04-00ax-comparing-mac-calibration-results.pptx [7] Ericsson UPDATE 11-14-1192-04-00ax-comparing-mac-calibration-results.pptx [8] Samsung UPDATE 11-14-1192-04-00ax-comparing-mac-calibration-results.pptx [9] Toshiba UPDATE 11-14-1192-04-00ax-comparing-mac-calibration-results_43991_r1.pptx Zhou Lan (Huawei Technology)