SZ23120301S03 BLU C5L MAX FCC HAC RF Emission

HAC RF Emission

BLU Products, Inc. BLUC5LMX177 Smart Phone YHLBLUC5LMX177 YHLBLUC5LMX177 bluc5lmx177

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REPORT No.SZ23120301S03

Hearing Aid Compatibility (HAC) RF Emission Test Report

APPLICANT

: BLU Products, Inc.

PRODUCT NAME : Smart Phone

MODEL NAME

: C5L MAX

BRAND NAME

: BLU

FCC ID STANDARD(S)
RECEIPT DATE

: YHLBLUC5LMX177
: FCC 47 CFR Part 20 (20.19) ANSI C63.19-2019
: 2023-12-26

TEST DATE

: 2024-03-19

ISSUE DATE

: 2024-04-17

Edited by:

Xie Yiyun (Rapporteur)

Approved by: Gan Yueming (Supervisor)

NOTE: This document is issued by Shenzhen Morlab Communications Technology Co., the test report shall not be reproduced except in full without prior written permission of the company. The test results apply only to the particular sample(s) tested and to the specific tests carried out which is available on request for validation and information confirmed at our website.

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 1 of 28

REPORT No.SZ23120301S03

DIRECTORY
1. Statement of RF Emission  4 2. Technical Information 5 2.1. Applicant and Manufacturer Information 5 2.2. Equipment under Test (EUT) Description 5 2.3. Photographs of the EUT 7 2.4. Applied Reference Documents  7 3. Air Interface and Operating Mode  8 4. WD Emission Requirements  10 5. HAC (RF) Measurement System  11 5.1. RF Measurement Setup 11 5.2. E-Field Probe  12 5.3. Data Acquisition Electronics (DAE) 14 6. RF Emission Measurement Procedure  15 6.1. Test Procedure: Direct Measurement--Alternative 15 6.2. Test Procedure: Indirect Measurement--Preferred 16 7. Test Equipment List 18 8. System Validation  19 8.1. Test setup 19 8.2. Validation Result  20 9. Modulation Interference Factor  21 10. RF Audio Interference Power Level Evaluation  23 11. Summary Test Results  24 12. Uncertainty Assessment 25 Annex A General Information  27

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 2 of 28

REPORT No.SZ23120301S03
Annex B Test Setup Photos 28 Annex C Plots of Performance System Check  28 Annex D Plots of RF Emission 28 Annex E DASY Calibration Certificate  28

Version 1.0

Change History Date 2024-04-17

Reason for change First edition

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 3 of 28

1. Statement of RF Emission

REPORT No.SZ23120301S03

The lowest RF audio interference level found during test as bellows:

Air Interface

Frequency Band

RFAIL (dBm)

GSM CMRS Voice

GSM850 GSM1900

32.78 31.38

Note: 1. This device is in compliance with compliance with RFAIL requirements specified in FCC 47
CFR Part 20.19 and tested in accordance with the measurement methods and procedures specified in ANSI C63.19-2019 and FCC KDB publications. 2. When the test result is a critical value, we will use the measurement uncertainty give the judgment result based on the 95% confidence intervals.

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 4 of 28

2. Technical Information

REPORT No.SZ23120301S03

Note: Provide by applicant.
2.1. Applicant and Manufacturer Information

Applicant: Applicant Address: Manufacturer: Manufacturer Address:

BLU Products, Inc. 8600 NW 36th Street, Suite #300 Miami, FL 33166, USA BLU Products, Inc. 8600 NW 36th Street, Suite #300 Miami, FL 33166, USA

2.2. Equipment under Test (EUT) Description

Product Name: EUT IMEI: Hardware Version: Software Version: Frequency Bands:
Modulation Mode:

Smart Phone
864913043933067/78
YK507-MB-V1.0
BLU_C0176_V13.0.G.03.08_GENERIC_6-12-2023_1930
GSM 850: 824 MHz ~ 849 MHz GSM 1900: 1850 MHz ~ 1910 MHz WCDMA Band II: 1850 MHz ~ 1910 MHz WCDMA Band IV: 1710 MHz ~ 1755 MHz WCDMA Band V: 824 MHz ~ 849 MHz LTE Band 2: 1850 MHz ~ 1910 MHz LTE Band 4: 1710 MHz ~ 1755 MHz LTE Band 5: 824 MHz ~ 849 MHz LTE Band 12: 699 MHz ~ 716 MHz LTE Band 17: 704 MHz ~ 716 MHz LTE Band 25: 1850 MHz ~ 1915 MHz LTE Band 26: 814 MHz ~ 849 MHz LTE Band 41: 2496 MHz ~ 2690 MHz LTE Band 66: 1710 MHz ~ 1780 MHz LTE Band 71: 663 MHz ~ 698 MHz WLAN 2.4GHz: 2412 MHz ~ 2472 MHz WLAN 5.2GHz: 5180 MHz ~ 5240 MHz WLAN 5.3GHz: 5260 MHz ~ 5320 MHz WLAN 5.5GHz: 5500 MHz ~ 5720 MHz WLAN 5.8GHz: 5745 MHz ~ 5825 MHz Bluetooth: 2402 MHz ~ 2480 MHz GSM/GPRS: GMSK EDGE: 8PSK

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 5 of 28

REPORT No.SZ23120301S03

WCDMA: QPSK, 16QAM LTE: QPSK, 16QAM, 64QAM

802.11b: DSSS

802.11a/g/n-HT20/HT40/ac-VHT20/40/80: OFDM

BR+EDR: GFSK(1Mbps), /4-DQPSK(2Mbps), 8-DPSK(3Mbps)

Bluetooth LE: GFSK(1Mbps, 2Mbps)

Antenna type:

WWAN: PIFA Antenna

WLAN: PIFA Antenna Bluetooth: PIFA Antenna

VoLTE Mode:

Support

VoWi-Fi Mode:

Support

SIM Cards Description: SIM 1

GSM+WCDMA+LTE

SIM 2

GSM+WCDMA+LTE

For dual SIM card version, both the SIM 1 and SIM 2 are the same

chipset unit and tested as a single chipset, the SIM 1 was selected

for testing.

Note: For more detailed description, please refer to specification or user manual supplied by the

applicant and/or manufacturer.

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 6 of 28

2.3. Photographs of the EUT

REPORT No.SZ23120301S03

Note: Please refer to the External Photos for the Photos of the EUT

2.4. Applied Reference Documents

Leading reference documents for testing:

Identity

Document Title

FCC 47 CFR Part 20 (20.19) ANSI C63.19-2019 KDB 285076 D01v06r04

Hearing aid-compatible mobile handsets American National Standard Methods of Measurement of Compatibility between Wireless Communications Devices and Hearing Aids HAC Guidance

Method determination
/Remark No deviation
No deviation
No deviation

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 7 of 28

REPORT No.SZ23120301S03
3. Air Interface and Operating Mode

Air Interface

Band

Transport Type

Simultaneous Transmitter

Name of

Power

Voice Service Reduction

GSM850

GSM

VO

GSM1900

WLAN, BT

No CMRS Voice
No

Band II

WCDMA

Band IV

VO

(UMTS)

Band V

WLAN, BT

No

CMRS Voice

No

No

Band 2

No

Band 4

No

Band 5

No

Band 12

FDD-LTE

Band 17

&

VD

TDD-LTE

Band 25

Band 26

WLAN, BT

No No VoLTE No No

Band 41

No

Band 66

No

Band 71

No

2450

No

5200

(U-NII-1)

No

5300

WiFi

(U-NII-2A)

VD

GSM, UMTS, LTE

VoWiFi

No

5500 No
(U-NII-2C)

5800

No

(U-NII-3)

BT

2450

DT

GSM, UMTS, LTE

N/A

No

Note:

1) Air Interface/Band MHz: List of all air interfaces and bands supported by the handset.

2) Type: For each air interface, indicate the type of voice transport mode:

i. VO = legacy Cellular Voice Service, from ANSI C63.19-2019;

ii. DT = Digital Transport only (no voice); and

iii. VD = IP Voice Service over Digital Transport.

3) Simultaneous Transmitter: Indicate any air interface/bands that operate in simultaneous or

concurrent service transmission mode.

4) Name of Voice Service: See Q4 in 285076 D03 HAC FAQ for further clarification.

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 8 of 28

REPORT No.SZ23120301S03
5) Power Reduction: If the 1900 MHz band GSM air interface was tested using the option to reduce the power, state in the test report the maximum power in the 1900 MHz band, and the reduced power used for testing compliance to demonstrate compliance to the requirement that power be reduced by no more than 2.5 dB.

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 9 of 28

REPORT No.SZ23120301S03
4. WD Emission Requirements

According to ANSI C63.19-2019, 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.

Table 4.1--Wireless device RF audio interference power level

Frequency Range (MHz)

RFAIPL (dBm)

<960

29

960­2000

26

>2000

25

Table 4.2--Wireless device RF peak power level

Frequency Range (MHz)

RFPeak Power (dBm)

<960

35

960­2000

32

>2000

31

Table 4.3--Wireless device RF audio interference level

Frequency Range (MHz)

RFAIL (dBm)

<960

39

960­2000

36

>2000

35

Table 4.4--Wireless device RF peak near-field level

Frequency Range (MHz)

RFPeak [dB(V/m)]

<960

45

960­2000

42

>2000

41

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 10 of 28

REPORT No.SZ23120301S03
5. HAC (RF) Measurement System
5.1. RF Measurement Setup

Fig 5.1 Typical DASY6/8 setup for HAC RF signal test

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 11 of 28

5.2. E-Field Probe

REPORT No.SZ23120301S03

The RF measurement is conducted with the dosimetric probe (manufactured by SPEAG).The probe is specially designed and calibrated for use with high permittivity. The dosimetric probe has special calibration at different frequency. This probe has a built in optical surface detection system to prevent from collision with phantom.

E-Field Probe Specification

<ER3DV6>

One dipole parallel, two dipoles normal to

Construction probe axis

Built-in shielding against static charges

Calibration

In air from 100 MHz to 3.0 GHz (Absolute accuracy ±6.0%, k=2)

Frequency

10 MHz to 6 GHz;Linearity: ± 0.2 dB

± 0.2 dB in HSL (rotation around probe axis)

Directivity

± 0.4 dB in HSL (rotation normal to probe

axis)

2 V/m to 1000 V/m

Dynamic

(M3 or better device readings fall well below

Range

diode

compression point)

Linearity

± 0.2 dB

Overall length: 330 mm (Tip: 16 mm)

Dimensions

Tip diameter: 8 mm (Body: 12 mm) Distance from probe tip to dipole centers: 2.5

mm

Fig 5.2 Photo of ER3DV6

Probe Tip Description:

HAC field measurements take place in the close near field with high gradients. Increasing the

measuring distance from the source will generally decrease the measured field values (in case

of the validation dipole approx. 10per mm).

<Voltage to E-field Conversion> The measured voltage is first linearized to a quantity proportional to the square of the E-field using the (a, b, c, d) set of parameters specific to the communication system and sensor:

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 12 of 28

REPORT No.SZ23120301S03

where

Vcompi = compensated voltage of channel i (V) Ui = input voltage of channel i (V) d = PMR factor d (dB) dcpi = diode compression point of channel i (V)

(i = x,y,z) (i = x,y,z) (Probe parameter) (Probe parameter, i = x,y,z)

where corri

= correction factor of channel i (dB)

VcompidB VV = compensated voltage of channel i (dB V)

ai

= PMR factor a of channel i (dB)

bi

= PMR factor b of channel i (dB V)

ci

= PMR factor c of channel i

The voltage VidB V is the linearized voltage in dB V

(i = x,y,z) (i = x,y,z) (Probe parameter, i = x,y,z) (Probe parameter, i = x,y,z) (Probe parameter, i = x,y,z).

Where

VidB VV VcompidB VV corri

VidB

= V V

compidB VV

- corri

= linearized voltage of channel i (dB V)

= compensated voltage of channel I (dB V)

= correction factor of channel i (dB)

(i = x,y,z) (i = x,y,z) (i = x,y,z)

Finally, the linearized voltage is converted in V:

The E-field data for each channel are calculated using the linearized voltage:

Where

Vi Normi ConvF Ei

= linearized voltage of channel i = sensor sensitivity (V/(V/m)2) of channel i = sensitivity enhancement in solution = electric field strength of channel i in V/m.

(i = x,y,z) (i = x,y,z)

The RMS value of the field components gives the total field strength (Hermitian magnitude):

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 13 of 28

<Averaged E-field Calculation> The averaged E-field is defined by

REPORT No.SZ23120301S03

where

n = the number of measurement grid point Ei = the E-field measured at point i.

<RFail Calculation> The RFail is finally computed with

RFail [dB(V=m)] = 20  log10(Eavg) + MIF

Where

RFail = the Radio Frequency Audio Interference Level in dB(V/m) Eavg = the averaged E-field in (V/m) calculated MIF = the Modulation Interference Factor in dB.

5.3. Data Acquisition Electronics (DAE)
The data acquisition electronics (DAE) consists of a highly sensitive electrometer-grade preamplifier with auto-zeroing, a channel and gain-switching multiplexer, a fast 16 bit AD-converter and a command decoder and control logic unit. AD-converter and a command decoder and control logic unit. Transmission to the measurement server is accomplished through an optical downlink for data and status information as well as an optical uplink for commands and the clock. The input impedance of the DAE is 200 MOhm; the inputs are symmetrical and floating. Common mode rejection is above 80 dB.

Fig 5.3 Photo of DAE

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 14 of 28

REPORT No.SZ23120301S03
6. RF Emission Measurement Procedure
6.1. Test Procedure: Direct Measurement--Alternative
The following methods are example step-by-step test procedures. Other comparable procedures may be used. Either manual or automatic test procedures may be used. The automated test procedure is preferred.

Fig 6.1 WD near-field emission scan flowchart

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 15 of 28

REPORT No.SZ23120301S03

Fig 6.2 WD measurement and reference planes for RF emission measurements

Fig 6.3 Device Under Test Positioning under the Test Arch

6.2. Test Procedure: Indirect Measurement--Preferred
1. Confirm the proper operation of the field probe, probe measurement system, and other instrumentation and the positioning system.
2. Position the WD in its intended test position. A gauge block, depicted in A.1.2, can simplify this positioning.
3. 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. 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.
4. The measurement area shall be centered on the acoustic output or the T-Coil mode measurement reference point, as appropriate. Locate the field probe at the initial test position in the 50 mm by 50 mm measurement area, which is contained in the measurement plane, described in 4.5.2 and illustrated in Figure A.1. If the field alignment method is used, align the probe for maximum field reception.

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 16 of 28

REPORT No.SZ23120301S03
5. Record the reading at the output of the measurement system. 6. Scan the entire 50 mm by 50 mm measurement area in equally spaced step sizes and record
the reading at each measurement point. The step size shall meet the specification for step size in 4.5.3. 7. Calculate the average of the measurements taken in Step 6. 8. Convert the average value found in Step g) to RF audio interference level, in volts per meter, by taking the square root of the reading and then dividing it by the measurement system transfer function, as established in 4.5.3.2.1 pre-test procedure. Convert the result to dB(V/m) by taking the base-10 logarithm and multiplying it by 20. Expressed as a formula:
RF audio interference level in db (V/m) = 20  log (Rave 1/2/ TF) Where Rave is the average reading 9. Compare this RF audio interference level to the limits in 4.7 of ANSI C63.19-2019 and record the result.

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 17 of 28

7. Test Equipment List

REPORT No.SZ23120301S03

Manufacturer
SPEAG
SPEAG SPEAG SPEAG SPEAG SPEAG SPEAG SPEAG
R&S Agilent
R&S Anritsu Agilent
R&S R&S PASTERNACK Woken Mini-Circuits

Name of Equipment
DOSIMETRIC ASSESSMENT SYSTEM Software
Isotropic E-Field Probe Audio Holder
835MHz Calibration Dipole 1880MHz Calibration Dipole Data Acquisition Electronics
Test Arch Phantom Phone Positioner
Power Senor Power Meter Power Sensor Power Meter Signal Generator Base Station Base Station Dual Directional Coupler
Attenuator Power Amplifier

Type/Model
cDASY6 HAC
ER3DV6 N/A
CD835V3 CD1880V3
DAE4 N/A N/A NRP8S E4416A NRP8S E4418B N5182B CMU200 CMW500 PE2214-10 WK0602-XX ZHL-42W+

Serial Number
V1.2
2434 1094 1113 1111 480 N/A N/A 103215 MY45102093 103240 GB43318055 MY53050509 107082 165755 N/A N/A 608501717

Calibration

Last Cal.

Due Date

NCR

NCR

2024.02.17 NCR
2021.10.23 2021.10.23 2023.09.19
NCR NCR 2024.01.25 2023.09.19 2024.01.25 2023.06.21 2023.09.19 2023.06.21 2024.01.25 NA NA NCR

2025.02.16 NCR
2024.10.22 2024.10.22 2024.09.18
NCR NCR 2025.01.24 2024.09.18 2025.01.24 2024.06.20 2024.09.18 2024.06.20 2025.01.24 NA NA NCR

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 18 of 28

8. System Validation

REPORT No.SZ23120301S03

According to ANSI C63.19, before hearing aid testing commences, the experimental setup shall be validated. Sub clauses 6.3.1through 6.3.5 include a set of pretest procedures designed to validate the experimental setup to ensure the accuracy of the results. To verify that the hearing aid performs per the manufacturer's specifications, 6.3.5 advises that the hearing aid be pretested per ANSI S3.22.

8.1. Test setup
1. In the simplified setup for system evaluation, the EUT is replaced by a calibrated dipole and the power source is replaced by a continuous wave which comes from a signal generator.
2. Position the E-field probe at a 15 mm distance from the top surface of the dipole, which is also fixed in an appropriate fixture.
3. Make sure that the desired measuring channel of the probe is aligned for maximum reception of the E-field generated by the dipole. This may be accomplished by rotating the probe until the maximum value is located. The E-field probe shall have been calibrated over the frequency range to be measured using standard calibration techniques.
4. Adjust the power level (20dBm100mW) of the signal generator at the initial starting frequency such that the desired E-field strength at the 15 mm distance from the tip of the dipole is achieved. Setting the field strength to be in the range of category M2 is advised.
5. Step the frequency in increments of 1%, adjusting the power fed into the dipole such that the desired E-field strength is maintained.

Fig 8.1 WD dipole calibration procedure

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 19 of 28

8.2. Validation Result

REPORT No.SZ23120301S03

After testing, record the frequency and signal generator setting at each frequency for use during the actual immunity test. Comparing to the original E-field value provided by SPEAG, the verification data should be within its specification of 25 %. Table 6.1 shows the target value and measured value. The table below indicates the system performance check can meet the variation criterion and the plots can be referred to appendix A of this report. Deviation = ((Average E-field Value) - (Target value)) / (Target value) * 100%

Frequency (MHz)

Input Power (mW)

Target Value (V/m)

Emax (V/m)

Deviation (%)

Limit (%)

Date

835

100

110.8

109

-1.62

±12.8

2024.03.19

1880

100

89.5

98.1

9.61

±12.8

2024.03.19

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 20 of 28

REPORT No.SZ23120301S03
9. Modulation Interference Factor
For any specific fixed and repeatable modulated signal, a Modulation Interference Factor (MIF, expressed in decibels) 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 or 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.
MIF may be determined using a radiated RF field, a conducted RF signal, or, in a preliminary stage, a mathematical analysis of a modeled RF signal.
1. Verify the slope accuracy and dynamic range capability over the desired operating frequency band of a fast probe or sensor, square-law detector, as specified in D.3, and weighting system as specified in D.4 and D.5. For the probe and instrumentation included in the measurement of MIF, additional calibration and application of calibration factors are not required.
2. Using RF illumination, or conducted coupling, apply the specific modulated signal in question to the measurement system at a level within its confirmed operating dynamic range.
3. Measure the steady-state rms level at the output of the fast probe or sensor. 4. Measure the steady-state average level at the weighting output. 5. Without changing the square-law detector or weighting system, and using RF illumination, or
conducted coupling, substitute for the specific modulated signal a 1 kHz, 80% amplitude-modulated carrier at the same frequency and adjust its strength until the level at the weighting output equals the Step d) measurement. 6. Without changing the carrier level from Step e), remove the 1 kHz modulation and again measure the steady-state rms level indicated at the output of the fast probe or sensor. 7. The MIF for the specific modulation characteristic is given by the ratio of the Step 6 measurement to the Step 3 measurement, expressed in decibels (20*log(step 6/step 3).
In practice, Step 5 and Step 6 need not be repeated for each MIF determination if the relationship between the two measurements has been pre-established for the measurement system over the operating frequency and dynamic ranges. In such cases, only the modulation characteristic being tested needs to be available during WD testing.
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.

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 21 of 28

UID
10021 10025 10460 10225 10081 10295 10403 10169 10170 10179 10181 10175 10177 10184 10187 10172 10173 10174 10240 10237 10234 10231 10228 10061 10077 10427 10069 10616

REPORT No.SZ23120301S03

Communication System Name
GSM-FDD(TDMA,GMSK) EDGE-FDD (TDMA, 8PSK, TN 0)
UMTS-FDD(WCDMA, AMR) UMTS-FDD (HSPA+)
CDMA2000 (1xRTT, RC3 Full Rate) CDMA2000 (1xRTT, RC1 SO3, 1/8th Rate 25 fr.)
CDMA2000 (1xEV-DO) LTE-FDD(SC-FDMA,1RB,20MHz,QPSK) LTE-FDD(SC-FDMA,1RB,20MHz,16-QAM) LTE-FDD(SC-FDMA,1RB,20MHz,64-QAM) LTE-FDD(SC-FDMA,1RB,15MHz,QPSK) LTE-FDD(SC-FDMA,1RB,10MHz,QPSK) LTE-FDD(SC-FDMA,1RB,5MHz,QPSK) LTE-FDD(SC-FDMA,1RB,3MHz,QPSK) LTE-FDD(SC-FDMA,1RB,1.4MHz,QPSK) LTE-TDD (SC-FDMA, 1 RB, 20 MHz, QPSK) LTE-TDD (SC-FDMA, 1 RB, 20 MHz, 16-QAM) LTE-TDD (SC-FDMA, 1 RB, 20 MHz, 64-QAM) LTE-TDD (SC-FDMA, 1 RB, 15 MHz, QPSK) LTE-TDD (SC-FDMA, 1 RB, 10 MHz, QPSK) LTE-TDD (SC-FDMA, 1 RB, 5 MHz, QPSK) LTE-TDD (SC-FDMA, 1 RB, 3 MHz, QPSK) LTE-TDD (SC-FDMA, 1 RB, 1.4 MHz, QPSK) IEEE 802.11b WiFi 2.4 GHz (DSSS, 11 Mbps) IEEE 802.11g WiFi 2.4 GHz (DSSS/OFDM, 54 Mbps) IEEE 802.11n (HT Greeneld, 150 Mbps, 64-QAM) IEEE 802.11a/h WiFi 5 GHz (OFDM, 54 Mbps) IEEE 802.11ac WiFi (40MHz, MCS0, 90pc duty cycle)

MIF(dB)
3.63 3.75 -25.43 -20.39 -19.71 3.26 -17.67 -15.63 -9.76 -9.93 -15.63 -15.63 -15.63 -15.62 -15.62 -1.62 -1.44 -1.54 -1.62 -1.62 -1.62 -1.62 -1.62 -2.02 0.12 -13.44 -3.15 -5.57

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 22 of 28

REPORT No.SZ23120301S03
10. RF Audio Interference Power Level Evaluation

 General Guidance 1. The maximum conducted power including tune-up limit of each air interface will be used to
plusing the MIF and evaluating whether it complies with the RFAIPL requirements defined in ANSI C63.19-2019 section 4.7 Table 4.1, or the RF Emission should be measured and the test results complies with RF audio interference level requirements of Table 4.3. 2. The EDGE mode is not required since it is less than the GSM Voice mode for the conducted power including tune-up limit. 3. When the results that the maximum conducted power each air interface plus MIF complies with the RFAIPL requirements, means it complies with the WD emission requirements per ANSI C63.19-2019. 4. The maximum power of higher frequency bands of FDD-LTE and TDD-LTE will be used to determining the RFAIPL. 5. The maximum power including tune-up limit of each air interface was recorded in SAR report SZ23120301S01.

 RFAIPL Evaluation <WWAN>

Air Interface

Max Tune-up Limit (dBm)

GSM 850

33.50

GSM 1900

30.50

UMTS

24.00

FDD - LTE

24.00

TDD - LTE

26.00

Worst Case MIF (dB) 3.63 3.63 -25.43 -9.76 -1.62

Power + MIF(dB)
37.13 34.13 -1.43 14.24 24.38

Lowest RFAIPL (dBm) 29 26 26 25 25

C63.19 Test Required Yes Yes No No No

<WWAN>
Air Interface
802.11b 802.11g 802.11n-HT20 802.11n-HT40 802.11a 802.11n-HT20 802.11n-HT40 802.11ac-VHT20

Max Tune-up Limit (dBm)
18.50 16.50 16.50 15.50 15.50 15.50 15.00 15.50

Worst Case MIF (dB) -2.02 0.12 -13.44 -13.44 -3.15 -13.44 -13.44 -5.57

Power + MIF(dB)
16.48 16.62 3.06 2.06 12.35 2.06 1.56 9.93

Lowest RFAIPL (dBm) 25 25 25 25 25 25 25 25

C63.19 Test Required No No No No No No No No

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 23 of 28

802.11ac-VHT40 802.11ac-VHT80

15.00 15.00

-5.57 -5.57

REPORT No.SZ23120301S03

9.43

25

No

9.43

25

No

11. Summary Test Results
 General Guidance This device was tested under the maximum volume, backlight off and mute on.

 RFAIL Test Results Plot Air Interface No. GSM850 GSM850 GSM850
GSM1900 GSM1900 GSM1900

Mode
GSM Voice GSM Voice GSM Voice
GSM Voice GSM Voice GSM Voice

Channel
128 189 251
512 661 810

RFAIL (dB V/m)
32.79 32.81 32.78
31.38 31.38 31.38

Verdict
PASS PASS PASS
PASS PASS PASS

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 24 of 28

12. Uncertainty Assessment

REPORT No.SZ23120301S03

The component of uncertainly may generally be categorized according to the methods used to evaluate them. The evaluation of uncertainly by the statistical analysis of a series of observations is termed a Type evaluation of uncertainty. The evaluation of uncertainty by means other than the statistical analysis of a series of observation is termed a Type B evaluation of uncertainty. Each component of uncertainty, however evaluated, is represented by an estimated standard deviation, termed standard uncertainty, which is determined by the positive square root of the estimated variance. The combined standard uncertainty of the measurement result represents the estimated standard deviation of the result. It is obtained by combining the individual standard uncertainties of both Type A and Type B evaluation using the usual "root-sum-squares" (RSS) methods of combining standard deviations by taking the positive square root of the estimated variances. Expanded uncertainty is a measure of uncertainty that defines an interval about the measurement result within which the measured value is confidently believed tolie. It is obtained by multiplying the combined standard uncertainty by a coverage factor. For purpose of this document, a coverage factor two is used, which corresponds to confidence interval of about 95 %.

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 25 of 28

REPORT No.SZ23120301S03

HAC Uncertainty Budget For ANSI C63.19-2019 600 - 6000 MHz, Scanning distance 15mm

Error Description

Uncertainty Value (±%)

Probe Distance

Div.

(Ci) Eav

Measurement System

Probe Calibration

5.1

Axial Isotropy

4.7

Sensor Displacement

7.2

Boundary Effects

2.4

Phantom Boundary Effect

7.2

Probe Linearity

4.7

Scaling to Peak Power with MIF

10.0

System Detection Limit

1.0

Readout Electronics

0.3

Response Time

0.8

Integration Time

0.8

RF Ambient Conditions

2.6

RF Reflections

3.0

RF Reflections

12.2

Probe Positioner

1.2

Probe Positioning

3.0

Extrapolation and Interpolation

1.0

Test Sample Related

Device Positioning Vertical

4.7

Device Positioning Lateral

1.0

Device Holder and Phantom

2.4

Power Drift

5.0

Phantom and Setup Related

Phantom Thickness

2.4

Combined Std. Uncertainty

Expanded Std. Uncertainty on Power

Expanded Std. Uncertainty on Field

N

1

1

R

1.732

1

R

1.732

0.5

R

1.732

1

R

1.732

1

R

1.732

1

R

1.732

1

R

1.732

1

N

1

1

R

1.732

0

R

1.732

0

R

1.732

1

R

1.732

1

R

1.732

1

R

1.732

1

R

1.732

1

R

1.732

1

R

1.732

1

R

1.732

1

R

1.732

1

R

1.732

1

R

Standard Uncertainty
(Eav) (±%)
5.1 2.7 2.1 1.4 4.2 2.7 5.8 0.6 0.3 0 0 1.7 6.9 6.9 0.7 1.7 0.6
2.7 0.6 1.4 2.9
13.2 26.4 13.2

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 26 of 28

Annex A General Information

REPORT No.SZ23120301S03

1. Identification of the Responsible Testing Laboratory

Laboratory Name:

Shenzhen Morlab Communications Technology Co., Ltd.

Laboratory Address:

FL.1-3, Building A, FeiYang Science Park, No.8

LongChang Road, Block 67, BaoAn District, ShenZhen,

GuangDong Province, P. R. China

Telephone:

+86 755 36698555

Facsimile:

+86 755 36698525

2. Identification of the Responsible Testing Location

Name: Address:

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block 67, BaoAn District, ShenZhen, GuangDong Province, P. R. China

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 27 of 28

Annex B Test Setup Photos
The annex B will be submitted separately.

REPORT No.SZ23120301S03

Annex C Plots of Performance System Check
The annex C will be submitted separately.

Annex D Plots of RF Emission
The annex D will be submitted separately.

Annex E DASY Calibration Certificate
The annex E will be submitted separately.

****** END OF MAIN REPORT ******

MORLAB

Shenzhen Morlab Communications Technology Co., Ltd. FL.1-3, Building A, FeiYang Science Park, No.8 LongChang Road, Block67, BaoAn District, ShenZhen , GuangDong Province, P. R. China

Tel: 86-755-36698555 Http://www.morlab.cn

Fax: 86-755-36698525 E-mail: service@morlab.cn
Page 28 of 28


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