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RF-Emission Test Report

COOSEA GROUP (HK) COMPANY LIMITED SN339D Smart Phone 2A28USN339D 2A28USN339D sn339d

COOSEA GROUP (HK) COMPANY LIMITED SN339D 2A28USN339D 2A28USN339D sn339d

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SGS-CSTC Standards Technical Services (Suzhou) Co., Ltd.

Report No.: SEWM2311000466RG10

Rev.:

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Page:

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RF-Emission Test Report

Application No.:

SEWM2311000466RG

Applicant:

COOSEA GROUP (HK) COMPANY LIMITED

Manufacturer:

COOSEA GROUP (HK) COMPANY LIMITED

Product Name:

Smart Phone

Model No.(EUT):

SN339D

FCC ID:

2A28USN339D

Standards:

ANSI C63.19-2019 CFR 47 FCC Part 20

Date of Receipt:

2023-11-17

Date of Test:

2024-01-24 to 2024-01-24

Date of Issue:

2024-01-31

Test conclusion:

PASS *

* In the configuration tested, the EUT detailed in this report complied with the standards specified above.

Authorized Signature:
Well Wei Wireless Laboratory Manager

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SGS-CSTC Standards Technical Services (Suzhou) Co., Ltd.

Version 01

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REVISION HISTORY

Chapter

Revision Record Date

Modifier

Remark

2023-01-31

Original

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TEST SUMMARY

Frequency Band

HAC RF Emission Test result*

Results

GSM 850

E-Field dB(V/m)

30.86

PASS

PCS 1900

E-Field dB(V/m)

14.29

PASS

WCDMA band 2

E-Field dB(V/m)

/

PASS

WCDMA band 5

E-Field dB(V/m)

/

PASS

LTE band 2

E-Field dB(V/m)

/

PASS

LTE band 4

E-Field dB(V/m)

/

PASS

LTE band 5

E-Field dB(V/m)

/

PASS

LTE band 12

E-Field dB(V/m)

/

PASS

LTE band 14

E-Field dB(V/m)

/

PASS

LTE band 17

E-Field dB(V/m)

/

PASS

LTE band 26

E-Field dB(V/m)

/

PASS

LTE band 30

E-Field dB(V/m)

/

PASS

LTE band 48

E-Field dB(V/m)

/

PASS

LTE band 66

E-Field dB(V/m)

/

PASS

LTE band 71

E-Field dB(V/m)

/

PASS

n2

E-Field dB(V/m)

/

PASS

n5

E-Field dB(V/m)

/

PASS

n25

E-Field dB(V/m)

/

PASS

n26

E-Field dB(V/m)

/

PASS

n30

E-Field dB(V/m)

/

PASS

n41

E-Field dB(V/m)

/

PASS

n48

E-Field dB(V/m)

/

PASS

n66

E-Field dB(V/m)

/

PASS

n70

E-Field dB(V/m)

/

PASS

n71

E-Field dB(V/m)

/

PASS

n77

E-Field dB(V/m)

/

PASS

WLAN2.4GHz

E-Field dB(V/m)

/

PASS

WLAN5GHz

E-Field dB(V/m)

/

PASS

HAC ResultS: PASS

Note: 1) This portable wireless equipment has been shown to be hearing-aid compatible under the above rated category, specified in ANSI/IEEE Std.C63.19-2019 and had been tested in accordance with the specified measurement procedures, Hear-Aid Compatibility is based on the assumption that all production units will be designed electrically identical to the device tested in this report. Test results reported herein relate only to the item(s) tested and are for North American Bands only. 2) *- HAC RF Emission Test for low power exemption according to ANSI C63.19-2019 and HAC RF Emission rating is PASS.

Reviewed by

Prepared by

Nick Hu

Leon Xu

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CONTENTS
1 General Information .............................................................................................................................................. 5
1.1 Introduction .......................................................................................................................................................... 5 1.2 Details of Client ................................................................................................................................................... 5 1.3 Test Location ....................................................................................................................................................... 5 1.4 Test Facility .......................................................................................................................................................... 6 1.5 General Description of EUT ............................................................................................................................. 7
1.5.1 DUT Antenna Locations .................................................................................................................................. 9 1.5.2 List of air interfaces/frequency bands ......................................................................................................... 10 1.6 Test Specification ............................................................................................................................................. 11 1.7 ANSI C63.19-2011 limits .................................................................................................................................. 11
2 Calibration certificate ..........................................................................................................................................11
3 HAC (T Coil) Measurement System...................................................................................................................12
3.1 Measurement System Diagram for SPEAG Robotic ................................................................................ 12 3.2 E-Field Probe ..................................................................................................................................................... 13 3.3 Test Arch............................................................................................................................................................. 13 3.4 Phone Holder ..................................................................................................................................................... 13
4 Measurement uncertainty evaluation ...............................................................................................................14
5 RF Emission Measurements Reference and Plane ........................................................................................15
6 System Verification Procedure ..........................................................................................................................16
6.1 System Check .................................................................................................................................................... 16 6.2 System Check Result....................................................................................................................................... 16
7 Modulation Interference Factor .........................................................................................................................17
8 HAC Measurement Procedure ...........................................................................................................................19
9 HAC RF Measurement Results ..........................................................................................................................20
9.1 Max Tune-up....................................................................................................................................................... 20 9.2 Conducted RF Output Power ......................................................................................................................... 23 9.3 Low-power Exemption..................................................................................................................................... 24 9.4 HAC RF Emission Test Results..................................................................................................................... 28
10 Equipment list .......................................................................................................................................................29

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SGS-CSTC Standards Technical Services (Suzhou) Co., Ltd.

1 General Information

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1.1 Introduction
The purpose of the Hearing Aid Compatibility is to enable measurements of the near electric fields generated by wireless communication devices in the region controlled for use by a hearing aid in accordance with ANSIC63.19-2019.

The purpose of this standard is to establish categories for hearing aids and for WD (wireless communications devices) that can indicate to health care practitioners and hearing aid users which hearing aids are compatible with which WD, and to provide tests that can be used to assess the electromagnetic characteristics of hearing aids and WD and assign them to these categories. The various parameters required, in order to demonstrate compatibility and accessibility are measured. The design of the standard is such that when a hearing aid and WD achieve one of the categories specified, as measured by the methodology of this standard, the indicated performance is realized.

In order to provide for the usability of a hearing aid with a WD, several factors must be coordinated: a) Radio frequency (RF) measurements of the near-field electric fields emitted by a WD to categorize these emissions for correlation with the RF immunity of a hearing aid.

Hence, the following are measurements made for the WD: RF E-Field emissions

The measurement plane is parallel to, and 1.5cm in front of, the reference plane.

Applications for certification of equipment operation under part 20, that a manufacturer is seeking to certify as hearing aid compatible, as set forth in §20.19 of that part, shall include a statement indication compliance with the test requirements of §20.19 and indicating the appropriate U-rating for the equipment. The manufacturer of the equipment shall be responsible for maintaining the test results.

1.2 Details of Client

Applicant: Address: Manufacturer: Address:

COOSEA GROUP (HK) COMPANY LIMITED UNIT 5-6 16/F MULTIFIELD PLAZA 3-7A PRAT AVENUE TSIMSHATSUI KL COOSEA GROUP (HK) COMPANY LIMITED UNIT 5-6 16/F MULTIFIELD PLAZA 3-7A PRAT AVENUE TSIMSHATSUI KL

1.3 Test Location

Company:

SGS-CSTC Standards Technical Services (Suzhou) Co., Ltd.

Address:

South of No. 6 Plant, No. 1, Runsheng Road, Suzhou Industrial Park, Suzhou Area, China (Jiangsu) Pilot Free Trade Zone

Post code:

215000

Test Engineer: Leon Liu

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1.4 Test Facility
The test facility is recognized, certified, or accredited by the following organizations: · A2LA (Certificate No. 6336.01) SGS-CSTC STANDARDS TECHNICAL SERVICES (SUZHOU) CO., LTD. is accredited by the American Association for Laboratory Accreditation(A2LA). Certificate No. 6336.01. · Innovation, Science and Economic Development Canada SGS-CSTC STANDARDS TECHNICAL SERVICES (SUZHOU) CO., LTD. has been recognized by ISED as an accredited testing laboratory. CAB identifier: CN0120. IC#: 27594. · FCC ­Designation Number: CN1312 SGS-CSTC STANDARDS TECHNICAL SERVICES (SUZHOU) CO., LTD. has been recognized as an accredited testing laboratory.

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1.5 General Description of EUT

Device Type :

portable device

Exposure Category:

uncontrolled environment / general population

Product Name:

smart phone

Model No.(EUT):

SN339D

FCC ID:

2A28USN339D

Product Phase:

Identical Prototype

IMEI:

356704760005055

Hardware Version:

1.0

Software Version:

SN339DD10010

Antenna Type:

Integrated Antenna

Device Operating Configurations :

Modulation Mode:

GSM: GMSK, 8PSK; WCDMA: QPSK; LTE: QPSK,16QAM; NR:BPSK,QPSK,16QAM,64QAM,256QAM,CP-OFDM WIFI: DSSS, OFDM; BT: GFSK, /4DQPSK,8DPSK

Device Class:

B

GPRS Multi-slots Class:

12

EGPRS Multi-slots Class: 12

HSDPA UE Category:

24

HSUPA UE Category

7

4,tested with power level 5(GSM850)

Power Class

1,tested with power level 0(GSM1900) 3, tested with power control "all 1"(WCDMA Band)

3, tested with power control Max Power(LTE Band)

Band

Tx (MHz)

Rx (MHz)

GSM 850

824 - 849 MHz

869 - 894 MHz

PCS 1900

1850 - 1910 MHz

1930 - 1990 MHz

WCDMA band 2

1850 -1910 MHz

1930 - 1990 MHz

WCDMA band 5

824 - 849MHz

869 - 894MHz

LTE band 2

1850 - 1910 MHz

1930 - 1990 MHz

LTE band 4

1710 - 1755 MHz

2110 - 2155 MHz

LTE band 5

824 - 849 MHz

869 - 894 MHz

LTE band 12

699 - 716 MHz

729 - 746 MHz

LTE band 14

788 - 798 MHz

758 - 768 MHz

Frequency Bands:

LTE band 17

704 - 716 MHz

734 - 746 MHz

LTE band 26

814 - 849 MHz

859 - 894 MHz

LTE band 30

2305 - 2315 MHz

2350 - 2360 MHz

LTE band 48

3550 - 3700 MHz

3550 - 3700 MHz

LTE band 66

1710 - 1780 MHz

2110 - 2200 MHz

LTE band 71

663 - 698 MHz

617 - 652 MHz

n2

1850 - 1910 MHz

1930 - 1990 MHz

n5

824 - 849 MHz

869 - 894 MHz

n25

1850 - 1915 MHz

1930 - 1995 MHz

n26

814 - 849 MHz

859 - 894 MHz

n30

2305 - 2315 MHz

2350 - 2360 MHz

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n41

2496 - 2690 MHz

2496 - 2690 MHz

n48

3550 - 3700 MHz

3550 - 3700 MHz

n66

1710 - 1780 MHz

2110 - 2200 MHz

n70

1695 - 1710 MHz

1995 - 2020 MHz

n71

663 - 698 MHz

617 - 652 MHz

WLAN2.4GHz

2400~2483.5 5150~5250MHz

2400~2483.5 5150~5250MHz

WLAN5GHz

5250~5350MHz 5470~5725MHz 5725~5850MHz

5250~5350MHz 5470~5725MHz 5725~5850MHz

Battery Information:

Bluetooth Model: Normal Voltage: Rated capacity: Manufacturer:

2400~2483.5

2400~2483.5

BL-A62CT

+3.87V

4900mAh

Guangdong Fenghua New Energy Co.,Ltd.

Note: *Since the above data and/or information is provided by the client relevant results or conclusions of this report are only made for these data and/or information, SGS is not responsible for the authenticity, integrity and results of the data and information and/or the validity of the conclusion.
Remark: As above information is provided and confirmed by the applicant. SGS is not liable to the accuracy, suitability, reliability or/and integrity of the information.

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1.5.1 DUT Antenna Locations

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Note: 1) The diversity Antenna does not support transmitter function.

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1.5.2 List of air interfaces/frequency bands

Air Interface

Band (MHz)

Type

ANSI C63.19 Tested

Simultaneous Transmitter

Name of Voice Service

Power Reduction

GSM

850 1900

VO

NA

BT, Wi-Fi

CMRS Voice

NA

EDGE

VD

NA

Google Duo*

WCDMA

Band II Band V

VO

Yes

BT, Wi-Fi

CMRS Voice

NA

HSPA

VD

Yes

Google Duo*

LTE Band 2

LTE Band 4

LTE Band 5

LTE Band 12

LTE (FDD)

LTE Band 14 LTE Band 17 LTE Band 26

VD

Yes

BT, Wi-Fi

VoLTE Google Duo*

NA

LTE Band 30

LTE Band 48

LTE Band 66

LTE Band 71

LTE (TDD)

Band 48

VD

Yes

BT, Wi-Fi

VoLTE Google Duo*

NA

NR Band n2

NR Band n5

NR Band n25

5G NR (FDD)

NR Band n26 NR Band n30

VD

Yes

BT, Wi-Fi

VoNR Google Duo*

NA

NR Band n66

NR Band n70

NR Band n71

5G NR (FDD

NR Band n41 NR Band n48 NR Band n77

VD

Yes

BT, Wi-Fi

VoNR Google Duo*

NA

Wi-Fi

2450

VD

Yes

WWAN

Google Duo*

NA

BT

2450

DT

NA

WWAN

NA

NA

VO: Legacy Cellular Voice Service

DT: Digital Transport (no voice)

VD: IP Voice Service over Digital Transport

* For protocols not listed in Table 6.1 of ANSI C63.19-2019, the average speech level of -16 dBm0 should

be used.

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1.6 Test Specification

Identity

Document Title

CFR 47 FCC Part 20

§20.19 Hearing aid-compatible mobile handsets.

ANSI C63.19-2019

American National Standard for Methods of Measurement of Compatibility between Wireless Communication Devices

KDB 285076 D01

HAC Guidance v06r04

1.7 ANSI C63.19-2011 limits

Emission Categories

E-field emissions dB(V/m)

E field level

< 960 MHz <= 39dB (V/m)

960MHz-2000MHz <= 36dB (V/m)

>2000 MHz
<= 35dB (V/m)

Table 1 Telephone near-field categories in linear units

2 Calibration certificate

Temperature

Min. = 18C, Max. = 25 C

Relative humidity

Min. = 30%, Max. = 70%

Table 2 The Ambient Conditions

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3 HAC (T Coil) Measurement System

3.1 Measurement System Diagram for SPEAG Robotic

Fig. 1. The SPEAG Robotic Diagram
The DASY8 system for performing compliance tests consists of the following items: · A standard high precision 6-axis robot (Stabile RX family) with controller, teach pendant and software. An arm
extension is for accommodating the data acquisition electronics (DAE). · An Audio Magnetic probe. · A data acquisition electronics (DAE) which performs the signal amplification, signal multiplexing, AD-conversion,
offset measurements, mechanical surface detection, collision detection, etc. The unit is battery powered with standard or rechargeable batteries. The signal is optically transmitted to the EOC. · The Electro-optical converter (EOC) performs the conversion between optical and electrical of the signals for the digital communication to the DAE and for the analog signal from the optical surface detection. The EOC is connected to the measurement server. · The function of the measurement server is to perform the time critical tasks such as signal filtering, control of the robot operation and fast movement interrupts. · A probe alignment unit which improves the (absolute) accuracy of the probe positioning. · A computer operating Windows 7. · DASY8 software. · Remote control with teach pendant and additional circuitry for robot safety such as warning lamps, etc. · The Test Arch SAM phantom · The device holder for handheld mobile phones. · Validation dipole kits allowing to validate the proper functioning of the system.

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3.2 E-Field Probe

Construction Calibration Frequency Directivity

One dipole parallel, two dipoles normal to probe axis Built-in shielding against static charges PEEK enclosure material In air from 100 MHz to 6.0 GHz (absolute accuracy ±6.0%, k=2) (extended to 20 MHz for MRI), Linearity: ± 0.2 dB (100 MHz to 6 GHz)
± 0.2 dB in air (rotation around probe axis) ±0.4 dB in air (rotation normal to probe axis)

Dynamic Range 2 V/m to > 1000 V/m; Linearity: ± 0.2 dB

Dimensions

Tip diameter: 8 mm Distance from probe tip to dipole centers: 2.5 mm

EF3DV3 E-Field Probe

3.3 Test Arch

Description

Enables easy and well defined positioning of the phone and validation dipoles as well as simple teaching of the robot.

Dimensions

length: 370 mm width: 370 mm height: 370 mm

Test Arch

3.4 Phone Holder

Description

Supports accurate and reliable positioning of any phone Effect on near field <+/- 0.5 dB

Phone Holder

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4 Measurement uncertainty evaluation

Uncertainty Component

Uncertainty Probability Value (%) Distribution

Divisor

ci 

Measurement system Probe calibration Axial isotropy
Sensor position

±5.1

N

1

1

±4.7

R

3

1

±16.5

R

3

1

Boundary effect

±2.4

R

3

1

Phantom Boundary Effect

±7.2

R

3

1

Linearity

±4.7

R

3

1

Scaling with PMR calibration

±10.0

R

3

1

System Detection limit

±1.0

R

3

1

Readout Electronics

±0.3

N

1

1

Response time

±0.8

R

3

1

Integration time

±2.6

R

3

1

RF ambient conditions

±3.0

R

RF reflection

±12.0

R

Probe positioner

±1.2

R

Probe positioning

±4.7

R

Extrapolation and interpolation

±1.0

R

Related to test samples

Device Positioning Vertical

±4.7

R

Device Positioning Lateral

±1.0

R

Device Holder and Phantom

±2.4

R

Power drift

±5.0

R

Phantom and Setup Related

3

1

3

1

3

1

3

1

3

1

3

1

3

1

3

1

3

1

Phantom Thickness

±2.4

R

3

1

Combined Std. Uncertainty
Expanded Std. Uncertainty on Power (K=2)
Expanded Std. Uncertainty on Field (K=2)
Table 3 Measurement uncertainties for RF

21

 uc' =

ci2ui2

i =1

Standard Uncertainty
 (%)
±5.1 ±2.7 ±9.5 ±1.4 ±4.1 ±2.7 ±5.8 ±0.6 ±0.3 ±0.5 ±1.5 ±1.7 ±6.9 ±0.7 ±2.7 ±0.6
±2.7 ±0.6 ±1.4 ±2.9
±1.4
±16.3
±32.6
±16.3

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5 RF Emission Measurements Reference and Plane

Fig.3 illustrate the references and reference plane that shall be used in a typical EUT emissions measurement. The principle of this section is applied to EUT with similar geometry. Please refer to Appendix C for the setup photographs.  The area is 5 cm by 5 cm.  The area is centered on the audio frequency output transducer of the EUT.  The area is in a reference plane, which is defined as the planar area that contains the highest point in the area of the phone that normally rests against the user's ear. It is parallel to the centerline of the receiver area of the phone and is defined by the points of the receiver-end of the EUT handset, which, in normal handset use, rest against the ear.  The measurement plane is parallel to, and 10 mm in front of, the reference plane.

Fig.3 WD reference and plane for RF emission measurements

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6 System Verification Procedure
6.1 System Check
Place a dipole antenna meeting the requirements given in ANSI C63.19-2019 in the position normally occupied by the WD. The dipole antenna serves as a known source for an electrical and magnetic output. Position the E-field probe so that the following occurs: · The probes and their cables are parallel to the coaxial feed of the dipole antenna · The probe cables and the coaxial feed of the dipole antenna approach the measurement area from opposite directions · The center point of the probe element(s) are 15 mm from the closest surface of the dipole elements. Scan the length of the dipole with the E-field probe and record the two maximum values found near the dipole ends. Average the two readings and compare the reading to the expected value in the calibration certificate or the expected value in this standard.

Fig.4 System verification

6.2 System Check Result

Mode

Frequency (MHz)

Input Power (mW)

E-Field (V/m)

Target Value (V/m)

Deviation (%)

CW

835

100

114.00 112.2

1.60

CW

1880

100

91.10

86.6

5.20

Note:

* Please refer to the appendix A for detailed measurement data and plot.

** Target value is provided by SPEAD in the calibration certificate of specific dipoles.

*** Deviation (%) = 100 * (Measured value minus Target value) divided by Target value.

**** ANSI C63.19 requires values within ± 18% are acceptable.

Limit (%)
±18 ±18

Test Date
2024/1/24 2024/1/24

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7 Modulation Interference Factor
For any specific fixed and repeatable modulated signal, a modulation interference factor (MIF, expressed in dB) may be developed that relates its interference potential to its steady-state rms signal level or average power level. This factor is a function only of the audio-frequency amplitude modulation characteristics of the signal and is the same for field-strength and conducted power measurements. It is important to emphasize that the MIF is valid only for a specific repeatable audio-frequency amplitude modulation characteristic. Any change in modulation characteristic requires determination and application of a new MIF The Modulation Interference factor (MIF, in dB) is added to the measured average E-field (in dBV/m) and converts it to the RF Audio Interference level (in dBV/m). This level considers the audible amplitude modulation components in the RF E-field. CW fields without amplitude modulation are assumed to not interfere with the hearing aid electronics. Modulations without time slots and low fluctuations at low frequencies have low MIF values, TDMA modulations with narrow transmission and repetition rates of few 100 Hz have high MIF values and give similar classifications as ANSI C63.19-2019. DASY8 is therefore using the indirect measurement method according to ANSI C63.19-2019 which is the primary method. These near field probes read the averaged E-field measurement. Especially for the new high peak-toaverage (PAR) signal types, the probes shall be linearized by PMR calibration in order to not overestimate the field reading. Probe Modulation Response (PMR) calibration linearizes the probe response over its dynamic range for specific modulations which are characterized by their UID and result in an uncertainty specified in the probe calibration certificate. The MIF is characteristic for a given waveform envelope and can be used as a constant conversion factor if the probe has been PMR calibrated. The evaluation method for the MIF is defined in ANSI C63.19-2019 section D.7. An RMS demodulated RF signal is fed to a spectral filter (similar to an A weighting filter) and forwarded to a temporal filter acting as a quasi-peak detector. The averaged output of these filtering is scaled to a 1 kHz 80% AM signal as reference. MIF measurement requires additional instrumentation and is not well suited for evaluation by the end user with reasonable uncertainty. It may alliteratively be determined through analysis and simulation, because it is constant and characteristic for a communication signal. DASY8 uses well-defined signals for PMR calibration. The MIF of these signals has been determined by simulation and it is automatically applied.
The MIF measurement uncertainty is estimated as follows, declared by HAC equipment provider SPEAG, for modulation frequencies from slotted waveforms with fundamental frequency and at least 2 harmonics within 10 kHz: 1. 0.2 dB for MIF: -7 to +5 dB 2. 0.5 dB for MIF: -13 to +11 dB 3. 1 dB for MIF: > -20 dB MIF values applied in this test report were provided by the HAC equipment provider of SPEAG, and the worst values for all air interface are listed below to be determine the Low-power Exemption.

SPEAG UID 10021 10025 10460 10225 10169 10170 10172 10173 10173

UID version DAC DAC AAA AAA CAE CAE CAG CAG CAG

Communication system GSM-FDD (TDMA,GMSK) EDGE-FDD (TDMA, 8PSK, TN 0) UMTS-FDD (WCDMA, AMR)
UMTS-FDD (HSPA+) LTE-FDD (SC-FDMA, 1 RB, 20 MHz, QPSK) LTE-FDD (SC-FDMA,1RB, 20 MHz,16-QAM) LTE-TDD (SC-FDMA, 1 RB, 20 MHz, QPSK) 5G NR (CP-OFDM, 1 RB, 15 MHz, QPSK, 15 kHz) LTE-TDD (SC-FDMA,1RB, 20 MHz,16-QAM)

MIF(dB) 3.63 3.75 -25.43 -20.39 -15.63 -9.76 -1.62 -12.08 -1.44

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10061 10077 10427 10069 10616 10671

CAB CAB AAB CAC AAB AAB

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IEEE 802.11b WiFi 2.4 GHz (DSSS, 11 Mbps)

-2.02

IEEE 802.11g WiFi 2.4 GHz (DSSS-OFDM, 54 Mbps)

0.12

IEEE 802.11n (HT Green eld, 150 Mbps, 64-QAM)

-13.44

IEEE 802.11a/h WiFi 5 GHz (OFDM, 54 Mbps)

-3.15

IEEE 802.11ac WiFi (40MHz, MCS0, 90pc duty cycle)

-5.57

IEEE 802.11ax WiFi (20MHz, MCS0, 90pc duty cycle)

-5.58

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Report No.: SEWM2311000466RG10

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8 HAC Measurement Procedure

The evaluation was performed with the following procedure: a) Confirm the proper operation of the field probe, probe measurement system, and other instrumentation and the positioning system. b) Position the WD in its intended test position. c) Set the WD to transmit a fixed and repeatable combination of signal power and modulation characteristic that is representative of the worst case (highest interference potential) encountered in normal use. Transiently occurring start-up, changeover, or termination conditions, or other operations likely to occur less than 1% of the time during normal operation, may be excluded from consideration. d) The center subgrid shall be centered on the T-Coil mode perpendicular measurement point or the acoustic output, as appropriate. Locate the field probe at the initial test position in the 50 mm by 50 mm grid, which is contained in the measurement plane, refer to illustrated in Figure 3. If the field alignment method is used, align the probe for maximum field reception. e) Record the reading at the output of the measurement system. f) Scan the entire 50 mm by 50 mm region in equally spaced increments and record the reading at each measurement point. The distance between measurement points shall be sufficient to assure the identification of the maximum reading. g) Identify the five contiguous subgrids around the center subgrid whose maximum reading is the lowest of all available choices. This eliminates the three subgrids with the maximum readings. Thus, the six areas to be used to determine the WD's highest emissions are identified. h) Identify the maximum reading within the nonexcluded subgrids identified in step g). i) Convert the maximum reading identified in step h) to RF audio interference level, in, V/m, by taking the square root of the reading and then dividing it by the measurement system transfer function, established in 5.5.1.1. Convert the result to dB(V/m) by taking the base-10 logarithmand multiplying it by 20. Indirect measurement method Replacing step i) of 5.5.1.2, the RF audio interference level in dB(V/m) is obtained by adding the MIF (in dB) to the maximum steady-state rms field-strength reading, in dB(V/m), from step h). Use this result to determine the category rating. j) Compare this RF audio interference level with the categories in Clause 8 and record the resulting WD category rating. k) For the T-Coil mode M-rating assessment, determine whether the chosen perpendicular measurement point is contained in an included subgrid of the first scan. If so, then a second scan is not necessary. The first scan and resultant category rating may be used for the T-Coil mode M rating. Otherwise, repeat step a) through step i), with the grid shifted so that it is centered on the perpendicular measurement point. Record the WD category rating.

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SGS-CSTC Standards Technical Services (Suzhou) Co., Ltd.

9 HAC RF Measurement Results
9.1 Max Tune-up
Ant0

Frequency Band

Channel

GSM WCDMA FDD LTE 5G NR FDD 2.4GHz WLAN
5GHz WLAN

GSM850 EDGE850
Band V HSPA Band 5 Band 12 Band 14 Band 17 Band 26 Band 71
n5 n26 n71 802.11b 802.11g 802.11n-HT20 802.11n-HT40 802.11a 802.11n-HT20 802.11n-HT40 802.11ac-VHT20 802.11ac-VHT40 802.11ac-VHT80

251 251 4233 4233 2060 23130 23330 23800 26965 133372 169800 169800 139600
6 6 6 6 40 40 40 40 40 40

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Frequency(MHz)
848.8 848.8 846.6 846.6 844 711 793 711 841.5 688 849 849 698 2437 2437 2437 2437 5200 5200 5200 5200 5200 5200

Average Power (dBm)
34.00 28.00 24.50 24.50 24.50 25.00 25.00 25.00 24.50 25.00 25.00 25.00 25.00 11.50 11.50 11.50 11.50 15.00 14.50 14.50 14.50 13.50 13.00

Frequency Band

FDD LTE

Band 2 Band 4 Band 30

Ant2
Channel
19100 20300 27710

Frequency(MHz)
1900 1745 2310

Average Power (dBm)
23.00 24.50 20.00

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SGS-CSTC Standards Technical Services (Suzhou) Co., Ltd.

5G NR FDD 2.4GHz WLAN
5GHz WLAN

Band 66 n2 n66
802.11b 802.11g 802.11n-HT20 802.11n-HT40 802.11a 802.11n-HT20 802.11n-HT40 802.11ac-VHT20 802.11ac-VHT40 802.11ac-VHT80

Frequency Band

GSM WCDMA FDD LTE
5G NR FDD 5G NR TDD 2.4GHz WLAN 5GHz WLAN

GSM1900 EDGE1900
Band II HSPA Band 2 Band 4 Band 30 Band 66
n2 n25 n30 n66 n70 n41 802.11b 802.11g 802.11n-HT20 802.11n-HT40 802.11a 802.11n-HT20

132572 382000 356000
6 6 6 6 40 40 40 40 40 40

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1770

24.50

1910

18.50

1780

25.00

2437

11.50

2437

11.50

2437

11.50

2437

11.50

5200

15.00

5200

14.50

5200

14.50

5200

14.50

5200

13.50

5200

13.00

Ant3
Channel
810 810 9538 9538 19100 20300 27710 132572 382000 383000 463000 356000 342000 528000
6 6 6 6 40 40

Frequency(MHz)
1909.8 1909.8 1907.6 1907.6 1900 1745 2310 1770 1910 1915 2315 1780 1710 2640 2437 2437 2437 2437 5200 5200

Average Power (dBm)
24.50 20.50 16.00 16.00 17.00 18.00 21.00 18.00 18.00 18.00 21.00 18.00 19.50 19.00 11.50 11.50 11.50 11.50 15.00 14.50

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SGS-CSTC Standards Technical Services (Suzhou) Co., Ltd.

802.11n-HT40 802.11ac-VHT20 802.11ac-VHT40 802.11ac-VHT80

Frequency Band

TDD LTE 5G NR TDD 2.4GHz WLAN
5GHz WLAN

Band 48 n48 n77
802.11b 802.11g 802.11n-HT20 802.11n-HT40 802.11a 802.11n-HT20 802.11n-HT40 802.11ac-VHT20 802.11ac-VHT40 802.11ac-VHT80

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40

5200

14.50

40

5200

14.50

40

5200

13.50

40

5200

13.00

Ant4
Channel
56640 646666 662000
6 6 6 6 40 40 40 40 40 40

Frequency(MHz)
3690 3699.99
3930 2437 2437 2437 2437 5200 5200 5200 5200 5200 5200

Average Power (dBm)
21.00 18.00 18.00 11.50 11.50 11.50 11.50 15.00 14.50 14.50 14.50 13.50 13.00

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SGS-CSTC Standards Technical Services (Suzhou) Co., Ltd.

Report No.: SEWM2311000466RG10

Rev.:

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9.2 Conducted RF Output Power

GSM 850 Ant 0

Burst Output Power(dBm)

Channel

128

GSM(GMSK)

GSM

33.19

190 33.28

251 33.28

Tune up 34.00

GSM(GMSK)

Channel

GSM 1900 Ant 3

Burst Output Power(dBm)

512

GSM

23.58

661 23.65

810 23.62

Tune up 24.50

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SGS-CSTC Standards Technical Services (Suzhou) Co., Ltd.

Report No.: SEWM2311000466RG10

Rev.:

01

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9.3 Low-power Exemption
The primary method for establishing the RF interference potential of a WD is based on conducted power to the antenna. The waveform-specific modulation interference factor (MIF) is measured separately and added to the measured average conducted power, in dBm.

The WD's conducted power must be at or below either the stated RFAIPL (Table 4.1) or the stated peak power level (Table 4.2), or the average near-field emissions over the measurement area must be at or below the stated RFAIL (Table 4.3), or the stated peak field strength (Table 4.4).

The WD may demonstrate compliance by meeting any of these four requirements, but it must do so in each of its operating bands at its established worst-case normal speech-mode operating condition.

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Report No.: SEWM2311000466RG10

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An analysis shall be performed following the guidance of the RF air interface technology being evaluated. Factors that will affect the RF interference potential shall be evaluated, and the worst-case operating mode shall be identified and used in the evaluation. Any factor that can affect the RF interference potential shall be evaluated.

Examples of such factors are those that will change the RF signal envelope, such as discontinuous transmission due to data load, power management, or configuration options of the RF air interface technology.

RF audio interference power level is compared to the limits in Sec.5 Table 4.1.

Ant0

Air Interface

Max Average Antenna Input Power (dBm)

Worst Case MIF (dB)

Power + MIF(dB)

GSM850

34.00

3.63

37.63

EDGE850

28.00

3.75

31.75

WCDMA

24.50

-25.43

-0.93

WCDMA - HSPA

24.50

-20.39

4.11

LTE - FDD

25.00

-9.76

15.24

5G FR1 - FDD

25.00

-12.08

12.92

802.11b

11.50

-2.02

9.48

802.11g

11.50

0.12

11.62

802.11n-HT20

11.50

-13.44

-1.94

802.11n-HT40

11.50

-13.44

-1.94

802.11a

15.00

-3.15

11.85

802.11n-HT20

14.50

-13.44

1.06

802.11n-HT40

14.50

-13.44

1.06

802.11ac-VHT20

14.50

-5.57

8.93

802.11ac-VHT40

13.50

-5.57

7.93

802.11ac-VHT80

13.00

-5.57

7.43

Note: Select tests with highest Power+MIF values for the same frequency band.

C63.19 test required
YES YES NO NO NO NO NO NO NO NO NO NO NO NO NO NO

Air Interface
LTE - FDD 5G FR1 - FDD
802.11b 802.11g 802.11n-HT20

Max Average Antenna Input Power (dBm)
24.50
25.00
11.50
11.50
11.50

Ant2
Worst Case MIF (dB)
-9.76 -12.08 -2.02 0.12 -13.44

Power + MIF(dB)
14.74 12.92 9.48 11.62 -1.94

C63.19 test required
NO NO NO NO NO

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SGS-CSTC Standards Technical Services (Suzhou) Co., Ltd.

802.11n-HT40 802.11a
802.11n-HT20 802.11n-HT40 802.11ac-VHT20 802.11ac-VHT40 802.11ac-VHT80
Air Interface
GSM1900 EDGE1900
WCDMA WCDMA - HSPA
LTE - FDD 5G FR1 - FDD 5G NR - TDD
802.11b 802.11g 802.11n-HT20 802.11n-HT40 802.11a 802.11n-HT20 802.11n-HT40 802.11ac-VHT20 802.11ac-VHT40 802.11ac-VHT80
Air Interface
LTE ­ TDD 5G NR - TDD
802.11b 802.11g 802.11n-HT20

11.50 15.00 14.50 14.50 14.50 13.50 13.00
Max Average Antenna Input Power (dBm)
24.50 20.50 16.00 16.00 21.00 21.00 19.00 11.50 11.50 11.50 11.50 15.00 14.50 14.50 14.50 13.50 13.00
Max Average Antenna Input Power (dBm)
21.00 18.00 11.50 11.50 11.50

-13.44

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-1.94

NO

-3.15

11.85

NO

-13.44

1.06

NO

-13.44

1.06

NO

-5.57

8.93

NO

-5.57

7.93

NO

-5.57

7.43

NO

Ant3
Worst Case MIF (dB)
3.63 3.75 -25.43 -20.39 -9.76 -12.08 -12.08 -2.02 0.12 -13.44 -13.44 -3.15 -13.44 -13.44 -5.57 -5.57 -5.57

Power + MIF(dB)
28.13 24.25 -9.43 -4.39 11.24 8.92 6.92 9.48 11.62 -1.94 -1.94 11.85 1.06 1.06 8.93 7.93 7.43

C63.19 test required
YES NO NO NO NO NO NO NO NO NO NO NO NO NO NO NO NO

Ant4
Worst Case MIF (dB)
-1.44 -12.08 -2.02 0.12 -13.44

Power + MIF(dB)
19.56 5.92 9.48 11.62 -1.94

C63.19 test required
NO NO NO NO NO

`
SGS-CSTC Standards Technical Services (Suzhou) Co., Ltd.

802.11n-HT40 802.11a
802.11n-HT20 802.11n-HT40 802.11ac-VHT20 802.11ac-VHT40 802.11ac-VHT80

11.50 15.00 14.50 14.50 14.50 13.50 13.00

-13.44

Report No.: SEWM2311000466RG10

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01

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-1.94

NO

-3.15

11.85

NO

-13.44

1.06

NO

-13.44

1.06

NO

-5.57

8.93

NO

-5.57

7.93

NO

-5.57

7.43

NO

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SGS-CSTC Standards Technical Services (Suzhou) Co., Ltd.

Report No.: SEWM2311000466RG10

Rev.:

01

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28 of 29

9.4 HAC RF Emission Test Results

Air Interface

Modulation / Mode

GSM850 GSM Voice

Channel 128

Frequency(MHz) 824.2

Ant Ant 0

Average Antenna
Input Power (dBm)
33.19

MIF 3.63

E-Field RF Limit RF (dBV/m) (dB V/m) Pass/Fail
30.86 39.00 PASS

Date 2024/1/24

GSM850 GSM Voice

190

836.6

Ant 0

33.28

3.63 30.86 39.00 PASS 2024/1/24

GSM850 GSM Voice

251

848.8

Ant 0

33.28

3.63 30.48 39.00 PASS 2024/1/24

GSM1900 GSM Voice

512

1850.2

GSM1900 GSM Voice

661

1880

GSM1900 GSM Voice

810

1909.8

Remark: 1. The detail RF Emission results please refer to appendix B.

Ant 3 Ant 3 Ant 3

23.58 23.65 23.62

3.63 14.29 3.63 13.36 3.63 12.68

36.00 36.00 36.00

PASS PASS PASS

2024/1/24 2024/1/24 2024/1/24

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SGS-CSTC Standards Technical Services (Suzhou) Co., Ltd.

Report No.: SEWM2311000466RG10

Rev.:

01

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29 of 29

10 Equipment list

Equipment

Manufacturer

Model

Serial Number

Software

SPEAG DASY52 52.10.4

NA

DAE

SPEAG

DAE4

1484

E-Field Probe

SPEAG

EF3DV3

4051

Validation Kits

SPEAG

CD835V3

1052

Validation Kits

SPEAG

CD1880V3

1044

Test Arch SD HAC

SPEAG

NA

NA

Universal Radio Communication Tester

R&S

CMW500

111637

Signal Generator

R&S

SMB100A

182393

Preamplifier

Qiji

YX28980933

202104001

Power Sensor

Keysight

U2002H

MY5639004

Power Sensor

Agilent

U2002H

MY48200110

Coaxial low pass filter Mini-Circuits VLF-2500(+)

NA

Coaxial low pass filter Microlab Fxr

LA-F13

NA

DC POWER SUPPLY SAKO

SK1730SL5A

NA

Humidity and Temperature Indicator

MingGao

MingGao

NA

Note: 1. All the equipments are within the valid period when the tests are performed.

Calibration Date NCR
2023-06-05 2023-06-02 2022-05-25 2022-05-25
NCR
2023-09-13
2023-02-06 NCR
2023-09-13 2023-11-21
NCR NCR NCR
2023-06-15

Due date of calibration
NCR 2024-06-04 2024-06-01 2025-05-24 2025-05-24
NCR
2024-09-12
2024-02-05 NCR
2024-09-12 2024-11-20
NCR NCR NCR
2024-06-14

---END---



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