RED (2014/53/EU) ETSI EN 300 328 - Blue RadiosOfficial]E2-2017-30038 EN300... · Report No.:...

Report No.: E2/2017/30038Page: 1 of 66

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台灣檢驗科技股份有限公司 t (886-2) 2299-3279 f (886-2) 2298-0488 www.tw.sgs.com

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RED (2014/53/EU)ETSI EN 300 328 V2.1.1: 2016

TEST REPORT

FOR

Product Name: Bluetooth Module ( BT )

Brand Name: MITSUMI

Model No.: WML-C40, WML-C40AS,WML-C40AB,WML-C40AH,WML-C40NS,WML-C40NB,WML-C40NH

Model Different: with/without antenna, different software

Report No.: E2/2017/30038

Issue Date: Mar. 29, 2017

Prepared for: MITSUMI ELECTRIC CO.,LTD.2-11-2, Tsurumaki, Tama-Shi, TOKYO, 206-8567JAPAN

Prepared by: SGS Taiwan Ltd.Electronics & Communication LaboratoryNo.2, Keji 1st Rd., Guishan District, Taoyuan City,Taiwan 333

Note: This report shall not be reproduced except in full, withoutthe written approval of SGS Taiwan Ltd. This document may bealtered or revised by SGS Taiwan Ltd. personnel only, and shallbe noted in the revision section of the document.






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VERIFICATION OF COMPLIANCE

Applicant: MITSUMI ELECTRIC CO.,LTD.2-11-2, Tsurumaki, Tama-Shi, TOKYO, 206-8567 JAPAN


Brand Name: MITSUMI

Model No.: WML-C40, WML-C40AS,WML-C40AB,WML-C40AH,WML-C40NS,WML-C40NB,WML-C40NH

Model Difference: with/without antenna, different software

File Number: E2/2017/30038

Date of test: Mar. 09, 2017~ Mar. 28, 2017

Date of EUT Received: Mar. 09, 2017

APPLICABLE STANDARDS

STANDARD TEST RESULT

ETSI EN 300 328 V2.1.1: 2016 Complied

The above equipment was tested by SGS Taiwan Ltd., Electronics & CommunicationLaboratory for compliance with the requirements set forth in the European Standard ETSI EN300 328 V2.1.1: 2016 under RED 2014/53/EU Class II. The results of testing in this report apply tothe product system that was tested only. Other similar equipment will not necessarily producethe same results due to production tolerance and measurement uncertainties.

Test By: Date: Mar. 29, 2017

Jazz Huang / Engineer

Prepared By: Date: Mar. 29, 2017

Stefanie Yu/ Clerk

ApprovedBy:

Date: Mar. 29, 2017

Jim Chang / Asst. Manager






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Revision History

Report Number Revision Description Issue Date

E2/2017/30038 Rev.00 Initial creation of document Mar. 29, 2017






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TABLE OF CONTENTS1 DESCRIPTION OF EQUIPMENT UNDER TEST (EUT).................................................................5

2 DESCRIPTION OF TEST MODES ...............................................................................................6

3 TEST CONDITIONS: ....................................................................................................................8

4 GENERAL DESCRIPTION OF APPLIED STANDARDS..............................................................8

5 TEST FACILITY ...........................................................................................................................8

6 SUPPORT EQUIPMENT ..............................................................................................................9

7 MEASUREMENT UNCERTAINTY .............................................................................................10

8 SUMMARY OF TEST RESULTS................................................................................................11

9 MEASUREMENT EQUIPMENT USED.......................................................................................12

10 ETSI EN 300 328 SUB-CLAUSE 4.3.1.2 RF OUTPUT POWER.................................................14

11 ETSI EN 300 328 SUB-CLAUSE 4.3.1.3 DUTY CYCLE, TX-SEQUENCE, TX-GAP..................17

12 ETSI EN 300 328 SUB-CLAUSE 4.3.1.4 ACCUMULATED TRANSMIT TIME, MINIMUMFREQUENCT OCCUPATION AND HOPPING SEQUENCE ......................................................18

13 ETSI EN 300 328 SUB-CLAUSE 4.3.1.5 HOPPING FREQUENCY SEPARATION....................36

14 ETSI EN 300 328 SUB-CLAUSE 4.3.1.6 MEDIUM UTILISATION..............................................40

15 ETSI EN 300 328 SUB-CLAUSE 4.3.1.7 ADAPTIVITY (ADAPTIVE FREQUENCY HOPPING)...................................................................................................................................................41

16 ETSI EN 300 328 SUB-CLAUSE 4.3.1.8 OCCUPIED CHANNEL BANDWIDTH .......................44

17 ETSI EN 300 328 SUB-CLAUSE 4.3.1.9 TRANSMITTER UNWANTED EMISSIONS IN THEOOB DOMAIN............................................................................................................................48

18 ETSI EN 300 328 SUB-CLAUSE 4.3.1.10 TRANSMITTER UNWANTED EMISSIONS IN THESPURIOUS DOMAIN..................................................................................................................52

19 ETSI EN 300 328 SUB-CLAUSE 4.3.1.11 RECEIVER SPURIOUS EMISSIONS .......................57

20 ETSI EN 300 328 SUB-CLAUSE 4.3.1.12 RECEIVER BLOCKING ...........................................60

21 ETSI EN 300 328 SUB-CLAUSE 4.3.1.13 GEO-LOCATION CAPABILLITY .............................63

PHOTOGRAPHS OF SET UP ...............................................................................................................64

PHOTOGRAPHS OF EUT .....................................................................................................................66






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1 DESCRIPTION OF EQUIPMENT UNDER TEST (EUT)

General:


Brand Name: MITSUMI

Model No.:WML-C40, WML-C40AS,WML-C40AB,WML-C40AH,WML-C40NS,WML-C40NB,WML-C40NH

Model difference: with/without antenna, different software

Hardware Version: NA

Software Version: NA

Power Supply: 3.3V DC from power supply.

Bluetooth_BR+EDR:

Bluetooth Version: Bluetooth V2.1 (dual mode)

Channel number: 79 channels

Modulation type: GFSK + π/4DQPSK + 8DPSK

Rated Power (EIRP): 9.37dBm

Frequency Range: 2.402GHz – 2.480GHz

Antenna Designation: Chip Antenna, antenna Gain:-1.03dBi

The EUT is compliance with Bluetooth standard.This test report applies for Bluetooth function.






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2 DESCRIPTION OF TEST MODES

The EUT has been tested under Operating and standby condition. And used to control theEUT for staying in engineering mode that enables selectable of channel, and capable ofcontinuous transmitting and constant receiving mode.

RF Output Power:Test Condition: The measurement is performed with simulation of normal operation. Thehopping is on, modulation scheme is switched to supported one, and channel is fixed atselected channel.The Normal, and Extreme Condition of the Temperature is applicable.

AVAILABLECHANNEL

TESTEDCHANNEL

MODULATIONPACKET

TYPE

0 to 78 0,39,78GFSK, π/4DQPSK,

8DPSKDH5

Dwell Time, Minimum Frequency Occupation and Hopping Sequence:Configure UE to be hopped with maximum dwell time, and maximum duty cycle. Switch thechannel to be the representative frequency with the representative modulation schemerespectively. Hopping behavior is enabled.The Normal Condition is applicable.

Hopping Frequency Separation:Switch the channel to be low, middle, and high frequency with representative modulationscheme respectively. Hopping behavior is enabled Configure UE to be hopped with maximumdwell time, and maximum duty cycle.The Normal Condition is applicable.

Occupied Bandwidth:Configure channel to be fixed at channel of the default test channel for each respective modulationThe Normal Condition is applicable.

AVAILABLECHANNEL

TESTEDCHANNEL

MODULATIONPACKET

TYPE

0 to 78 0,78GFSK, π/4DQPSK,

8DPSKDH5

Transmitter unwanted emissions in the out-of-band domain:Configure the modulation to each supported modulation with hopping mode on. Switch to each of thethree default test channel* The selection of modulation scheme is based on output power that reveals the highest value (Theworst case)The normal condition is applicable.

AVAILABLECHANNEL

TESTEDCHANNEL

MODULATIONPACKET

TYPE

0 to 78 0,78GFSK, π/4DQPSK,

8DPSKDH5






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Transmitter unwanted emissions in the spurious domain:Configure the modulation to each supported modulation with hopping mode off. Switch to each of thetwo default test channel.* The selection of modulation scheme is based on output power that reveals the highest value (Theworst case). The normal and the extreme condition of temperature is applicable.

AVAILABLECHANNEL

TESTEDCHANNEL

MODULATIONPACKET

TYPE

0 to 78 0,78 GFSK, 8DPSK DH5

Note:The field strength of radiation emission was measured as EUT stand-up position (H mode) andlie down position (E1, E2 mode).Transmitter for channel Low, Mid and High, the worst case E2position was reported.

Receiving Spurious Emission:Configure the modulation to each supported modulation with hopping mode off. Switch to each of thetwo default test channels, and in receiving mode.The normal condition is applicable.

AVAILABLECHANNEL

TESTEDCHANNEL

MODULATIONPACKET

TYPE

0 to 78 0,78 GFSK DH5

Receiver Blocking:Configure the modulation to each supported modulation with hopping mode off. Switch to each of thetwo default test channels, and in receiving mode.The normal condition is applicable.

AVAILABLECHANNEL

TESTEDCHANNEL

MODULATIONPACKET

TYPE

0 to 78 0,78 GFSK DH5






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3 TEST CONDITIONS:

Normal Temperature 15 ℃ to 35 ℃

Normal Voltage 3.3 VExtreme Temperature -40℃ to 80 ℃

the extremes of the operating temperature range as declared by the manufacturer

4 GENERAL DESCRIPTION OF APPLIED STANDARDS

The EUT According to the Specifications, it must comply with the requirements of the followingstandards:ETSI EN 300 328 V2.1.1:2016–Wideband transmission systems; Data transmission equipmentoperating in the 2,4 GHz ISM band and using wide band modulation techniques.

5 TEST FACILITY

SGS Taiwan Ltd.Electronics & Communication LaboratoryNo.2, Keji 1st Rd., Guishan District, Taoyuan City, Taiwan 333

A 11m*6m*6m fully anechoic chamber was used for the radiated spurious emissions test.






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6 SUPPORT EQUIPMENT

Fig. 6-1 Configuration of Conducted Tested System

Fig. 6-1 Configuration of Radiated Emission Tested System

Table 5-1 Equipment Used in Tested System

Item Equipment Mfr/BrandModel/

Model No.Series No. Data Cable Power Cord

1.Bluetooth Test

SoftwareN/A N/A N/A N/A N/A

2. Notebook Lenovo L420 LR-7HXZA Shielded Unshielded

3. Test Kit N/A N/A N/A N/A N/A






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7 MEASUREMENT UNCERTAINTY

Where relevant, the following measurement uncertainty levels have been calculated inaccordance with TR 100 028-1

This uncertainty represents an expanded uncertainty expressed at approximatelythe 95% confidence level using a coverage factor of k=2.

This lab’s measurement uncertainty ULab, is low than Table 7: Maximum measurementuncertainty of ETSI EN 300 328, therefore compliance is deemed to occur if no measureddisturbance exceeds the disturbance limit.

ParameterUncertainty

CriterionMeasurementUncertainty

Occupied Channel Bandwidth ± 5% ± 0.4%

RF Output Power, conducted ± 1.5 dB ± 1.13dBPower Spectral Density,conducted ± 3 dB ± 2.35dB

Unwanted Emission, conducted ± 3 dB ± 2.39dB

All emissions, radiated ± 6 dB ± 5.04dB

Temperature ± 1℃ ± 0.8℃

Supply voltages ± 3% ± 1.0%

Time ± 5% ± 0.585%






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8 SUMMARY OF TEST RESULTS

The EUT has been tested according to the following specifications:

EN 300 328 V2.1.1 (2016-11)

Clause Test Parameter Remarks Pass/Fail

4.3.1.2 RF Output Power Applicable Pass

4.3.1.3 Duty cycle, Tx-Sequence, Tx-gap N/A N/A

4.3.1.4Accumulated Transmit Time, Frequency

Occupation and Hopping SequenceApplicable Pass

4.3.1.5 Hopping Frequency Separation Applicable Pass

4.3.1.6 Medium Utilisation N/A N/A

4.3.1.7 Adaptivity N/A N/A

4.3.1.8 Occupied Channel Bandwidth Applicable Pass

4.3.1.9Transmitter unwanted emissions in

the OOB domainApplicable Pass

4.3.1.10Transmitter unwanted emissions in

the spurious domainApplicable Pass

4.3.1.11 Receiver spurious emissions Applicable Pass

4.3.1.12 Receiver Blocking Applicable Pass

4.3.1.13 Geo-location capability N/A N/A






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9 MEASUREMENT EQUIPMENT USED

9.1Conducted Emission

Conducted Emission Test Site

EQUIPMENTTYPE

MFRMODEL

NUMBERSERIAL

NUMBERLASTCAL.

CAL DUE.

Spectrum Analyzer R&S FSV 40 101059 12/15/2016 12/14/2017

Power Meter R&S OSP 120 26591986 04/20/2016 04/19/2017

Coaxial Cables R&S RF21 W1 12/12/2016 12/11/2017

Attenuator Marvelous MVE2213-10 RF30 12/12/2016 12/11/2017

Coaxial Cables R&S RF22 W2 12/12/2016 12/11/2017


Splitter WOKEN DOM35LW1A2 RF36 12/12/2016 12/11/2017

Coupler MIDISCO52335 MDC2044-20 RF42 12/12/2016 12/11/2017

DC Power Supply Agilent E3640A MY53140006 05/04/2016 05/03/2017

Temperature Chamber TERCHY MHK-120LK 1020582 06/16/2016 06/15/2017

Test Software R&S EMC32 Ver. 9.12.00 N.C.R. N.C.R.

Note: N.C.R refers to Not Calibrated Required






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9.2Radiated Emission

EQUIPMENTTYPE

MFRMODEL

NUMBERSERIAL

NUMBERLASTCAL.

CAL DUE.

Spectrum Analyzer R&S FSV 40 101059 12/07/2016 12/06/2017

Broadband Antenna TESEQ CBL 6112D 35243 11/06/2016 11/05/2017

Broadband Antenna TESEQ CBL 6112D 35240 11/03/2016 11/02/2017

Horn Antenna ETS-Lindgren 3117 143279 11/14/2016 11/13/2017

Horn Antenna ETS-Lindgren 3117 143272 12/15/2016 12/16/2017

Horn Antenna Schwarzbeck BBHA9170 184 12/11/2016 12/10/2017

Horn Antenna Schwarzbeck BBHA9170 185 07/18/2016 07/17/2017

Pre Amplifier EMC Instruments EMC330 980163 12/12/2016 12/11/2017

Pre Amplifier R&S SCU-18 10195 12/12/2016 12/11/2017

Pre Amplifier EMC Instruments EMC184045B 980135 12/12/2016 12/11/2017

Coaxial Cable Huber+SuhnerRG 214/U

SUCCOFLEX 1041166Rx 9K-1G 12/12/2016 12/11/2017

Coaxial Cable Huber+Suhner SUCCOFLEX 104 1166Rx 1G-18G 12/12/2016 12/11/2017

Coaxial Cable Huber+Suhnermini 141-12

SUCCOFLEX 1041166Rx 18G-40G 12/12/2016 12/11/2017

Coaxial Cable Huber+Suhner SUCCOFLEX 104 1166Tx 30M-18G 12/12/2016 12/11/2017

Coaxial Cable Huber+SuhnerMWX241-KMSKM

S/B1166Tx 18G-40G 12/12/2016 12/11/2017

Signal Generator R&S SMB100A 175936 12/07/2016 12/06/2017

Signal Generator R&S SMU200A 105303 01/22/2016 01/21/2017

Attenuator WOKEN 218FS-10 RF33 12/12/2016 12/11/2017

DC Power Supply DHA DPP-3003 9411005787 05/15/2016 05/14/2017

Controller MF MF-7802 N/A N.C.R. N.C.R.

Antenna Master MF N/A N/A N.C.R. N.C.R.

Turn Table MF N/A N/A N.C.R. N.C.R.

Test Software World-Pallas Dr. E V 3.0 Lite N.C.R. N.C.R.






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10 ETSI EN 300 328 SUB-CLAUSE 4.3.1.2 RF OUTPUT POWER

10.1 Limit:

The maximum RF output power for adaptive Frequency Hopping equipment shall be equal to orless than 20 dBm.The maximum RF output power for non-adaptive Frequency Hopping equipment shall bedeclared by the manufacturer. See clause 5.4.1 m). The maximum RF output power for thisequipment shall be equal to or less than the value declared by the manufacturer. This declaredvalue shall be equal to or less than 20 dBm.This limit shall apply for any combination of power level and intended antenna assembly.

10.2 Measurement Equipment Used:

Refer to section 9.1 in this report.

10.3 Test Setup:

10.4 Test Procedure:

See Sub-Clause 5.4.2.1 of ETSI EN 300 328 for the test conditions

See Sub-Clause 5.4.2.2.1 of ETSI EN 300 328 for conducted measurement method.

Note: 1. E.I.R.P.. shall be calculated from the measured power output , and the applicableantenna assembly gain “G” in dBi.

2. Pburst is the Pburst Value at the antenna port.

Variable AC or DC power supply

Spectrum analyzer/ AV power meter

EUT

Temperature Chamber

Sensor






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10.5 Equivalent Isotropic Radiated Power E.I.R.P.

Modulation type: GFSK Test Date: 2017/03/27

-1.03 dBiDuty Cycle:EIRP = Pbust (Burst Power) + Gain

EIRP = 6.87 dBm EIRP = 6.87 dBm EIRP = 7.07 dBm

Pburst= 7.90 dBm Pburst= 7.90 dBm Pburst= 8.10 dBm





20dBm

*offset: 14.37dB being set in compensation for the cable loss

Limit

Antenna assembly gain:

TRANSMITTER POWER (dBm)

(CH Low) (CH Mid) (CH High)Lowest Frequency Middle Frequency Highest Frequency

TEST CONDITIONS

Temperature Voltage

3.3V

(80)°C

(-40)°C

(25)°C 3.3V

3.3V

Modulation type: π/4DQPSK Test Date: 2017/03/27









Limit

(25)°C 3.3V

(80)°C 3.3V

20dBm

(-40)°C 3.3V


TEST CONDITIONSTRANSMITTER POWER (dBm)

Lowest Frequency Middle Frequency Highest Frequency(CH Low) (CH Mid) (CH High)






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Modulation type: 8DPSK Test Date: 2017/03/27









Limit 20dBm

(80)°C 3.3V

(25)°C 3.3V

(-40)°C 3.3V


TEST CONDITIONS

TRANSMITTER POWER (dBm)

Lowest Frequency Middle Frequency Highest Frequency(CH Low) (CH Mid) (CH High)






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11 ETSI EN 300 328 SUB-CLAUSE 4.3.1.3 DUTY CYCLE, TX-SEQUENCE,TX-GAP

11.1 Limit:

For non-adaptive FHSS equipment, the Duty Cycle shall be equal to or less than themaximum value declared by the manufacturer. In addition, the maximum Tx-sequence timeshall be 5 ms while the minimum Tx-gap time shall be 5 ms.



11.3 Test Setup:



See Sub-Clause 5.4.2.1 of ETSI EN 300 328 for the test conditionsSee Sub-Clause 5.4.2.2.1.3 of ETSI EN 300 328 for conducted measurement method.

11.5 Test Result:

N/A, These requirements do not apply for equipment with a maximum declared RF Outputpower of less than 10 dBm e.i.r.p.or for equipment when operating in a mode where theRF Output power is less than 10 dBm e.i.r.p.






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12 ETSI EN 300 328 SUB-CLAUSE 4.3.1.4 ACCUMULATED TRANSMIT TIME,MINIMUM FREQUENCT OCCUPATION AND HOPPING SEQUENCE

12.1 Limit:

Non-adaptive frequency hopping systemsThe Accumulated Transmit Time on any hopping frequency shall not be greater than 15 mswithin any observation period of 15 ms multiplied by the minimum number of hoppingfrequencies (N) that have to be used. In order for the equipment to comply with the FrequencyOccupation requirement, it shall meet either of the following two options:Option 1: Each hopping frequency of the hopping sequence shall be occupied at least once

within a period not exceeding four times the product of the dwell time and thenumber of hopping frequencies in use.

Option 2: The occupation probability for each frequency shall be between ((1 / U) × 25 %) and77 % where U is the number of hopping frequencies in use.

The hopping sequence(s) shall contain at least N hopping frequencies where N is either 5 orthe result of 15 MHz divided by the minimum Hopping Frequency Separation in MHz,whichever is the greater. According to clause 4.3.1.5.3.1 the minimum Hopping FrequencySeparation for non-adaptive equipment is equal to the Occupied Channel Bandwidth with aminimum of 100 kHz.

Adaptive frequency hopping systemsAdaptive Frequency Hopping equipment shall be capable of operating over a minimum of 70% of the band specified in table 1. The Accumulated Transmit Time on any hopping frequencyshall not be greater than 400 ms within any observation period of 400 ms multiplied by theminimum number of hopping frequencies (N) that have to be used. In order for the equipmentto comply with the Frequency Occupation requirement, it shall meet either of the following twooptions:Option 1: Each hopping frequency of the hopping sequence shall be occupied at least once

within a period not exceeding four times the product of the dwell time and thenumber of hopping frequencies in use.

Option 2: The occupation probability for each frequency shall be between ((1 / U) × 25 %) and77 % where U is the number of hopping frequencies in use.

The hopping sequence(s) shall contain at least N hopping frequencies at all times, where N iseither 15 or the result of 15 MHz divided by the minimum Hopping Frequency Separation inMHz, whichever is the greater.

Other RequirementsFor non-Adaptive Frequency Hopping equipment, from the N hopping frequencies defined inclause 4.3.1.4.3.1 above, the equipment shall transmit on at least one hopping frequencywhile other hopping frequencies are blacklisted. For equipment that blacklists one or morehopping frequencies, these blacklisted frequencies are considered as active transmitting forthe calculation of the MU factor of the equipment. See also clause 5.4.2.2.1.3, step 4, firstbullet item and clause 5.4.2.2.1.4, step 3, first bullet item, second paragraph.For Adaptive Frequency Hopping equipment, from the N hopping frequencies defined inclause 4.3.1.4.3.2 above, the equipment shall consider at least one hopping frequency for itstransmissions. Providing that there is no interference present on this hopping frequency with a






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level above the detection threshold defined in clause 4.3.1.7.2.2, point 5 or clause 4.3.1.7.3.2,point 5, then the equipment shall have transmissions on this hopping frequency. Fornon-Adaptive Frequency Hopping equipment, when not transmitting on a hopping frequency,the equipment has to occupy that frequency for the duration of the typical dwell time (see alsodefinition for blacklisted frequency in clause 3.1).For Adaptive Frequency Hopping equipment using LBT based DAA, if a signal is detectedduring the CCA, the equipment may jump immediately to the next frequency in the hoppingsequence (see clause 4.3.1.7.2.2, point 2) provided the limit for maximum dwell time isrespected.



12.3 Test Setup:



See Sub-Clause 5.4.4.1 of ETSI EN 300 328 for the test conditionsSee Sub-Clause 5.4.4.2 of ETSI EN 300 328 for conducted measurement method






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12.5 Test Result:

DH1Dwell Time per hops

Number of Hops in Define Period (31600ms)

Note: Period = 400 X 79 = 31600






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Minimum Frequency Occupation Time

Note: period = 4 X dwell time per hops X number of channel (79)






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Note: Period = 400 X 79 = 31600






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Note: Period = 400 X 79 = 31600






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3DH1Dwell Time per hops


Note: Period = 400 X 79 = 31600






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Note: Period = 400 X 79 = 31600






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Note: Period = 400 X 79 = 31600






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Result:Result Test Date: 2017/03/27

DH1 2441 DH5 79 0.51 318 31.6 162.18 400

DH3 2441 DH5 79 1.76 151 31.6 265.76 400

DH5 2441 DH5 79 3.01 116 31.6 349.16 400

3DH1 2441 DH5 79 0.53 320 31.6 169.60 400

3DH3 2441 DH5 79 1.78 158 31.6 281.24 400

3DH5 2441 DH5 79 3.03 99 31.6 299.97 400

Dell Time (DT) Result

Result Complied

Number of

Hoppin

[N x MDT]

Mseauremen

t Time

[N x MDT]

(S)

Dwell Time

in

[N x MDT]

(ms)

Max.

Dwell

Time

(MDT)

Limit

(ms)

Dwell Time

per

Hop(ms)

Modulation

Mode

Freq.

(MHz)

Duty

Cycle

Data

Packet

Minimum

Number of

Hop Freq.

(N)

DH1 2441 DH5 79 0.51 2 161.16 1.02 0.51

DH3 2441 DH5 79 1.76 3 556.16 5.28 1.76

DH5 2441 DH5 79 3.01 2 951.16 6.02 3.01

3DH1 2441 DH5 79 0.53 3 167.48 1.59 0.53

3DH3 2441 DH5 79 1.78 3 562.48 5.34 1.78

3DH5 2441 DH5 79 3.03 3 957.48 9.09 3.03

Result Complied

Modulation

Mode

Freq.

(MHz)

Worst

Duty

Cycle

Data

Packet

Min.

Limit

(ms)

Actual

Number

of

Hopping

Freq. (N)

Dwell Time

per

Hop (ms)

Number of

Hoppin

[4 X dwell

time per

hop X N]

[4 X dwell

time per

hop X N]

(ms)

Dwell Time

in

[4 X dwell

time per

hop X N]

(ms)

Minimum Frequency Occupation Result






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Hopping Sequence - Adpative Mode:DH5

Mode: DH520dB BW (MHz)

80.84

Hopping Sequence(%)

96.814

Limit

>70%

Remark:1. Hopping Sequence(%) = (20dB BW/83.5)*100%

Result

Dwell Time Compliant

Minimum Frequency Occupation Compliant

Hopping Sequence Compliant






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2DH5

Mode: 2DH520dB BW (MHz)

81.39Hopping Sequence(%)

97.473

Limit

>70%


Result









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3DH5

Mode: 3DH520dB BW (MHz)

81.55Hopping Sequence(%)

97.665

Limit

>70%


Result









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13 ETSI EN 300 328 SUB-CLAUSE 4.3.1.5 HOPPING FREQUENCY SEPARATION

13.1 Limit:

For non-adaptive Frequency Hopping equipment, the Hopping Frequency Separation shall beequal to or greater than the Occupied Channel Bandwidth (see clause 4.3.1.8), with a minimumseparation of 100 kHz.

For equipment with a maximum declared RF Output power level of less than 10 dBm e.i.r.p. orfor non-adaptive Frequency Hopping equipment operating in a mode where the RF Output poweris less than 10 dBm e.i.r.p. only the minimum Hopping Frequency Separation of 100 kHz applies.

For adaptive Frequency Hopping equipment, the minimum Hopping Frequency Separationshall be 100 kHz.

Adaptive Frequency Hopping equipment that switched to a non-adaptive mode for one ormore hopping frequencies because interference was detected on these hopping frequencies witha level above the threshold level defined in clause 4.3.1.7.2.2, point 5 or clause 4.3.1.7.3.2, point5, is allowed to continue to operate with a minimum Hopping Frequency Separation of 100 kHz aslong as the interference remains present on these hopping frequencies. The equipment shallcontinue to operate in an adaptive mode on other hopping frequencies.

Adaptive Frequency Hopping equipment which decided to operate in a non-adaptive mode onone or more hopping frequencies without the presence of interference, shall comply with the limitfor Hopping Frequency Separation for non-adaptive equipment defined in clause 4.3.1.5.3.1 (firstparagraph) for these hopping frequencies as well as with all other requirements applicable tonon-adaptive frequency hopping equipment.



13.3 Test Setup:




See Sub-Clause 5.4.5.2 of ETSI EN 300 328

13.5 Test Result:






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Mode: GFSK

Mode: GFSK

Channel

Separation

(MHz)

Result

1.0029 Pass






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Mode: π/4DQPSK

Mode: π/4DQPSK

Channel

Separation

(MHz)

Result

1.0029 Pass






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Mode: 8DPSK

Mode: 8DPSK

Channel

Separation

(MHz)

Result

1.0072 Pass






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14 ETSI EN 300 328 SUB-CLAUSE 4.3.1.6 MEDIUM UTILISATION

14.1 Limit:

The maximum Medium Utilisation factor for non-adaptive Frequency Hopping equipmentshall be 10%.



14.3 Test Setup:



See Sub-Clause 5.4.2.1 of ETSI EN 300 328 for the test conditionsSee Sub-Clause 5.4.2.2.1.4 of ETSI EN 300 328

14.5 Test Result:

N/A , this requirement does not apply for equipment with a maximum declared RF Outputpower level of less than 10 dBm e.i.r.p. or for equipment when operating in a modewhere the RF Output power is less than 10 dBm e.i.r.p..






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15 ETSI EN 300 328 SUB-CLAUSE 4.3.1.7 ADAPTIVITY (ADAPTIVEFREQUENCY HOPPING)

15.1 Requirement & Limits:

Adaptive Frequency Hopping using LBT based DAAAdaptive Frequency Hopping equipment using LBT based DAA shall comply with the following minimum set of

requirements:

1) At the start of every dwell time, before transmission on a hopping frequency, the equipment shall perform aClear Channel Assessment (CCA) check using energy detect. The CCA observation time shall be not less than0,2 % of the Channel Occupancy Time with a minimum of 18 μs. If the equipment finds the hopping frequency to be clear, it may transmit immediately.

2) If it is determined that a signal is present with a level above the detection threshold defined in step 5 thehopping frequency shall be marked as 'unavailable'. Then the equipment may jump to the next frequency in thehopping scheme even before the end of the dwell time, but in that case the 'unavailable' channel cannot beconsidered as being 'occupied' and shall be disregarded with respect to the requirement of the minimumnumber of hopping frequencies as defined in clause 4.3.1.4.3.2. Alternatively, the equipment can remain onthe frequency during the remainder of the dwell time. However, if the equipment remains on the frequency withthe intention to transmit, it shall perform an Extended CCA check in which the (unavailable) channel isobserved for a random duration between the value defined for the CCA observation time in step 1 and 5 % ofthe Channel Occupancy Time defined in step 3. If the Extended CCA check has determined the frequency tobe no longer occupied, the hopping frequency becomes available again. If the Extended CCA time hasdetermined the channel still to be occupied, it shall perform new Extended CCA checks until the channel is nolonger occupied.

3) The total time during which an equipment has transmissions on a given hopping frequency withoutre-evaluating the availability of that frequency is defined as the Channel Occupancy Time.

The Channel Occupancy Time for a given hopping frequency, which starts immediately after a successful CCA,shall be less than 60 ms followed by an Idle Period of minimum 5 % of the Channel Occupancy Time with aminimum of 100 μs.

After the Idle Period has expired, the procedure as in step 1 shall be repeated before having newtransmissions on this hopping frequency during the same dwell time.

EXAMPLE: An equipment with a dwell time of 400 ms can have 6 transmission sequences of 60 ms each,separated with an Idle Period of 3 ms. Each transmission sequence was preceded with a successfulCCA check of 120 μs.

For LBT based adaptive frequency hopping equipment with a dwell time < 60 ms, the maximum ChannelOccupancy Time is limited by the dwell time.

4) 'Unavailable' channels may be removed from or may remain in the hopping sequence, but in any case:

- apart from Short Control Signalling Transmissions referred to in clause 4.3.1.7.4, there shall be notransmissions on 'unavailable' channels;

- a minimum of N hopping frequencies as defined in clause 4.3.1.4.3.2 shall always be maintained.

5) The detection threshold shall be proportional to the transmit power of the transmitter: for a 20 dBme.i.r.p.transmitter the detection threshold level (TL) shall be equal to or less than -70 dBm/MHz at the input tothe receiver assuming a 0 dBi (receive) antenna assembly. This threshold level (TL) may be corrected for the(receive) antenna assembly gain (G); however, beamforming gain (Y) shall not be taken into account. Forpower levels less than 20 dBm e.i.r.p., the detection threshold level may be relaxed to:

TL = -70 dBm/MHz + 10 × log10 (100 mW / Pout) (Pout in mW e.i.r.p.)

6) The equipment shall comply with the requirements defined in step 1 to step 4 of the present clause in thepresence of an unwanted CW signal as defined in table 2.






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Adaptive Frequency Hopping using other forms of DAA (non-LBT based)Adaptive Frequency Hopping equipment using non-LBT based DAA, shall comply with the following minimum setof requirements:1) During normal operation, the equipment shall evaluate the presence of a signal for each of its hopping

frequencies. If it is determined that a signal is present with a level above the detection threshold defined instep 5 the hopping frequency shall be marked as 'unavailable'.

2) The hopping frequency shall remain unavailable for a minimum time equal to 1 second or 5 times the actualnumber of hopping frequencies in the current (adapted) channel map used by the equipment, multiplied withthe Channel Occupancy Time whichever is greater. There shall be no transmissions during this period on thishopping frequency. After this, the hopping frequency may be considered again as an 'available' frequency.

3) The total time during which an equipment has transmissions on a given hopping frequency withoutre-evaluating the availability of that hopping frequency is defined as the Channel Occupancy Time. TheChannel Occupancy Time for a given hopping frequency shall be less than 40 ms. For equipment using adwell time > 40 ms that wants to have other transmissions during the same hop (dwell time) an Idle Period (notransmissions) of minimum 5 % of the Channel Occupancy Period with a minimum of 100 μs shall be implemented.

After the Idle Period has expired, the procedure as in step 1 needs to be repeated before having newtransmissions on this hopping frequency during the same dwell time.

EXAMPLE: An equipment with a dwell time of 400 ms can have 9 transmission sequences of 40 ms each,separated with an Idle Period of 3 ms.

For non-LBT based frequency hopping equipment with a dwell time < 40 ms, the maximum Channel OccupancyTime may be non-contiguous, i.e. spread over a number of hopping sequences (equal to 40 ms divided by thedwell time [ms]).4) 'Unavailable' channels may be removed from or may remain in the hopping sequence, but in any case:- apart from the Short Control Signalling Transmissions referred to in clause 4.3.1.7.4, there shall be notransmissions on 'unavailable' channels; - a minimum of N hopping frequencies as defined in clause 4.3.1.4.3.2

shall always be maintained.5) The detection threshold shall be proportional to the transmit power of the transmitter: for a 20 dBm e.i.r.p.transmitter the detection threshold level (TL) shall be equal to or less than -70 dBm/MHz at the input to thereceiver assuming a 0 dBi (receive) antenna assembly. This threshold level (TL) may be corrected for the

(receive) antenna assembly gain (G); however, beamforming gain (Y) shall not be taken into account. Forpower levels below 20 dBm e.i.r.p., the detection threshold level may be relaxed to:

TL = -70 dBm/MHz + 10 × log10 (100 mW / Pout) (Pout in mW e.i.r.p.)

6) The equipment shall comply with the requirements defined in step 1 to step 4 of the present clause in thepresence of an unwanted CW signal as defined in table 3.






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15.3 Test Setup:


See Sub-Clause 5.4.6.1 of ETSI EN 300 328 for the test conditionsSee Sub-Clause 5.4.6.2 of ETSI EN 300 328 conducted measurement method.

15.5 Result:

N/A for equipment with a maximum declared RF Output power level of less than 10 dBm e.i.r.p.or for equipment when operating in a mode where the RF Output power is less than 10 dBme.i.r.p..






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16 ETSI EN 300 328 SUB-CLAUSE 4.3.1.8 OCCUPIED CHANNEL BANDWIDTH

16.1 Limits:

The Occupied Channel Bandwidth for each hopping frequency shall fall completely within theband given in table 1.

For non-adaptive Frequency Hopping equipment with e.i.r.p. greater than 10 dBm, theOccupied Channel Bandwidth for every occupied hopping frequency shall be equal to or lessthan the Nominal Channel Bandwidth declared by the manufacturer. See clause 5.4.1 j). Thisdeclared value shall not be greater than 5 MHz.



16.3 Test Setup:



See Sub-Clause 5.4.7.1 of ETSI EN 300 328 for the test conditionsSee Sub-Clause 5.4.7.2.1 of ETSI EN 300 328 conducted measurement method.

16.5 Test results:

ModulationChannel Center

Frequency (MHz)

Occupied Channel

Bandwidth (MHz)2402.00 0.88664

2480.00 0.88364

2402.00 1.1791

2480.00 1.1641

2402.00 1.1994

2480.00 1.1826

DH5

2DH5

3DH5






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GFSK / CH Low

GFSK / CH High






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π/4DQPSK / CH Low

4DQPSK / CH High






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8DPSK / CH Low

8DPSK / CH High






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17 ETSI EN 300 328 SUB-CLAUSE 4.3.1.9 TRANSMITTER UNWANTEDEMISSIONS IN THE OOB DOMAIN

17.1 Limits:

The transmitter unwanted emissions in the out-of-band domain but outside the allocated band,shall not exceed the values provided by the mask in figure 1.

Within the band specified in table 1, the Out-of-band emissions are fulfilled by compliance withthe Occupied Channel Bandwidth requirement in clause 4.3.1.8..



17.3 Test Setup:



See Sub-Clause 5.4.8.1 of ETSI EN 300 328 for the test conditionsSee Sub-Clause 5.4.8.2.1 of ETSI EN 300 328 conducted measurement method.






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17.5 Test Result:

Test results: GFSK Test Date: 2017/03/27

Temp Voltage2398.500000 -48.600000 -202399.500000 -39.800000 -102484.000000 -50.200000 -102485.000000 -51.200000 -20

2398.500000 -48.300000 -202399.500000 -39.400000 -10

2484.000000 -50.200000 -102485.000000 -50.600000 -202398.500000 -50.500000 -20

2399.500000 -44.600000 -102484.000000 -50.800000 -10

2485.000000 -50.700000 -20

Frequency

MHz

(25)°C

(80)°C

3.3V

3.3V

Test Condition

Out of Band Emissions

(-40)°C 3.3V

Measure Power Result

dBm / MHz (e.i.r.p)

Limit

dBm / MHz(e.i.r.p)






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Test results: π/4DQPSK

Temp Voltage2398.141800 -50.900000 -202398.320900 -50.100000 -20

2399.320900 -42.100000 -102399.500000 -40.500000 -102484.000000 -47.200000 -10

2484.179100 -49.200000 -102485.179100 -52.200000 -20

2485.358200 -52.300000 -202398.141795 -47.200000 -202398.320897 -46.100000 -202399.320897 -37.400000 -102399.500000 -35.800000 -102484.000000 -42.900000 -102484.164104 -45.300000 -102485.164104 -49.500000 -202485.328209 -49.500000 -202398.141800 -44.100000 -20

2398.320900 -42.800000 -202399.320900 -30.900000 -10

2399.500000 -29.800000 -102484.000000 -43.500000 -102484.179100 -45.800000 -102485.179100 -49.500000 -202485.358200 -49.200000 -20

(25)°C

(80)°C

3.3V

3.3V

Frequency

MHz


dBm / MHz (e.i.r.p)

Limit

dBm / MHz(e.i.r.p)

(-40)°C 3.3V

Test ConditionOut of Band Emissions






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Test results: 8DPSK

Temp Voltage2398.101300 -51.100000 -202398.300650 -50.300000 -202399.300650 -42.300000 -102399.500000 -40.800000 -102484.000000 -47.800000 -10

2484.199350 -49.400000 -10

2485.199350 -52.400000 -202485.398700 -52.300000 -20

2398.101300 -47.700000 -202398.300650 -46.600000 -202399.300650 -37.500000 -10

2399.500000 -36.000000 -102398.101300 -47.700000 -20

2398.300650 -46.600000 -202399.300650 -37.500000 -10

2399.500000 -36.000000 -102398.101300 -45.300000 -20

2398.300650 -43.400000 -202399.300650 -31.200000 -102399.500000 -29.700000 -10

2484.000000 -43.900000 -102484.199350 -45.700000 -10

2485.199350 -49.500000 -20

2485.398700 -49.500000 -20

(80)°C 3.3V

Test Condition

(-40)°C 3.3V

Frequency

MHz


dBm / MHz (e.i.r.p)

Limit

dBm / MHz

(e.i.r.p)

(25)°C 3.3V

Out of Band Emissions






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18 ETSI EN 300 328 SUB-CLAUSE 4.3.1.10 TRANSMITTER UNWANTEDEMISSIONS IN THE SPURIOUS DOMAIN

18.1 Limit:

The transmitter unwanted emissions in the spurious domain shall not exceed the values givenin table 4.

In case of equipment with antenna connectors, these limits apply to emissions at the antennaport (conducted). For emissions radiated by the cabinet or emissions radiated by integralantenna equipment (without antenna connectors), these limits are e.r.p. for emissions up to 1GHz and e.i.r.p. for emissions above 1 GHz.








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18.3 Test Setup:

Step1. Field Strength Measurement

Step2. Substitution MeasurementFrequency Below 1GHz

Step 3. Substitution MeasurementFrequency Above 1GHz

1.5 m high

Antenna mast

d

d: distance 3 or 1 meters

Fully Anechoic Chamber

Spectrum analyzer/pre-amp

Horn antenna

Substituted Horn antenna

1.5m

Signal Generator

Turntable

Spectrumanalyzer

AMPLIFIER

EUT3m

1.5m1.5m

Antenna mast

d: distance in meters

d: 3 meter

TurntableSignal Generator

Substituted Biconical Or LP antenna Biconical or LP antenna

1.5m

Fully Anechoic Chamber






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See Sub-Clause 5.4.9.2.2 of ETSI EN 300 328 for transmitter spurious emissions for radiatedtest method.

18.5 The Observation of the Test Results:

No value of the measurement limit is within 6dB, and therefore no further investigation and

identification to measure emission with point of measurement is required.

EIRP(dBm) = SG Level(dBm) + Antenna Gain(dBi) + Cable Loss(dB)Note : “F” : denotes Fundamental Frequency. ; “H” : denotes Harmonic Frequency.

“E” : denotes Band Edge Frequency. ; “S” : denotes Spurious Frequency.






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Transmitter Spurious Emissions:Operation Mode : BT BR Test Date : 2017/3/20

Fundamental Frequency : 2402 MHz Temp. / Humi. : 22.1/61

Operation Band : Tx CH Low Test Engineer : AkenEUT Pol. : E2 Measurement Antenna Pol. : Vertical

Freq. Note EIRP SG Output Antenna Cable Limit Margin

Level Gain Loss @3m

MHz F/H/E/S dBm dBm dBi dB dBm/m dB56.29 S -67.51 -58.99 -7.49 -1.03 -54 -13.51

351.17 S -81.07 -78.83 0.39 -2.63 -36 -45.07

540.32 S -76.53 -74.37 1.05 -3.21 -54 -22.53748.38 S -74.93 -73.51 2.50 -3.92 -54 -20.93

853.82 S -74.55 -73.13 2.51 -3.93 -54 -20.55

943.45 S -73.94 -72.44 2.76 -4.26 -36 -37.944804.00 H -51.28 -51.22 9.67 -9.73 -30 -21.28

Operation Mode : BT BR Test Date : 2017/3/20


Operation Band : Tx CH Low Test Engineer : AkenEUT Pol. : E2 Measurement Antenna Pol. : Horizontal


Level Gain Loss @3m


201.88 S -80.16 -78.92 0.74 -1.98 -54 -26.16

454.96 S -79.17 -76.64 0.51 -3.04 -36 -43.17541.58 S -75.82 -73.65 1.06 -3.23 -54 -21.82

776.32 S -74.66 -73.14 2.49 -4.01 -54 -20.66

973.52 S -73.54 -72.05 2.79 -4.28 -36 -37.544804.00 H -49.51 -49.44 9.67 -9.74 -30 -19.51






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Operation Band : Tx CH High Test Engineer : AkenEUT Pol. : E2 Measurement Antenna Pol. : Vertical


Level Gain Loss @3m


195.77 S -81.07 -79.97 0.84 -1.94 -54 -27.07

315.57 S -81.80 -79.80 0.43 -2.43 -36 -45.80539.83 S -76.77 -74.61 1.05 -3.21 -54 -22.77

729.27 S -75.14 -73.59 2.43 -3.98 -54 -21.14

851.49 S -73.31 -71.89 2.50 -3.92 -54 -19.314960.00 H -52.55 -52.68 10.01 -9.88 -30 -22.55



Operation Band : Tx CH High Test Engineer : AkenEUT Pol. : E2 Measurement Antenna Pol. : Horizontal


Level Gain Loss @3m


190.24 S -80.84 -79.91 0.98 -1.91 -54 -26.84

431.29 S -79.41 -76.90 0.43 -2.94 -36 -43.41588.43 S -76.61 -74.57 1.39 -3.43 -54 -22.61

789.90 S -74.52 -72.88 2.48 -4.12 -54 -20.52

923.18 S -74.00 -72.47 2.73 -4.26 -36 -38.004960.00 H -50.29 -50.42 10.01 -9.88 -30 -20.29






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19 ETSI EN 300 328 SUB-CLAUSE 4.3.1.11 RECEIVER SPURIOUS EMISSIONS

19.1 Limit:

The spurious emissions of the receiver shall not exceed the values given in table 5.

In case of equipment with antenna connectors, these limits apply to emissions at the antennaport (conducted). For emissions radiated by the cabinet or emissions radiated by integralantenna equipment (without antenna connectors), these limits are e.r.p. for emissions up to 1GHz and e.i.r.p. for emissions above 1 GHz.



19.3 Test Setup:




See Sub-Clause 5.4.10.2.2 of ETSI EN 300 328 for transmitter spurious emissions forradiated test method.

EIRP(dBm) = SG Level(dBm) + Antenna Gain(dBi) + Cable Loss(dB)Note : “F” : denotes Fundamental Frequency. ; “H” : denotes Harmonic Frequency.

“E” : denotes Band Edge Frequency. ; “S” : denotes Spurious Frequency

.






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Receiver Spurious Emissions Test Results: (Radiated) (Worst Case: BR)Operation Mode : BT BR Test Date : 2017/3/20


Operation Band : Rx CH Low Test Engineer : AkenEUT Pol. : E2 Measurement Antenna Pol. : Vertical


Level Gain Loss @3m


331.19 S -81.01 -79.00 0.41 -2.42 -57 -24.01

539.83 S -76.83 -74.67 1.05 -3.21 -57 -19.83641.39 S -76.23 -74.46 1.63 -3.40 -57 -19.23

845.09 S -74.54 -73.00 2.50 -4.04 -57 -17.54

968.38 S -73.66 -72.12 2.78 -4.32 -57 -16.664804.00 H -55.80 -55.74 9.67 -9.73 -47 -8.80



Operation Band : Rx CH Low Test Engineer : AkenEUT Pol. : E2 Measurement Antenna Pol. : Horizontal


Level Gain Loss @3m


192.67 S -79.38 -78.37 0.92 -1.93 -57 -22.38

372.31 S -80.51 -78.22 0.37 -2.66 -57 -23.51540.32 S -76.95 -74.79 1.05 -3.21 -57 -19.95

729.18 S -72.82 -71.27 2.43 -3.98 -57 -15.82

890.78 S -74.65 -73.31 2.66 -4.00 -57 -17.654804.00 H -55.68 -55.62 9.67 -9.73 -47 -8.68






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Operation Band : Rx CH High Test Engineer : AkenEUT Pol. : E2 Measurement Antenna Pol. : Vertical


Level Gain Loss @3m


193.64 S -80.42 -79.38 0.89 -1.93 -57 -23.42

412.08 S -79.46 -77.02 0.38 -2.82 -57 -22.46539.83 S -76.89 -74.73 1.05 -3.21 -57 -19.89

722.48 S -74.93 -73.23 2.40 -4.10 -57 -17.93

845.38 S -73.93 -72.40 2.50 -4.03 -57 -16.934960.00 H -56.43 -56.56 10.01 -9.88 -47 -9.43



Operation Band : Rx CH High Test Engineer : AkenEUT Pol. : E2 Measurement Antenna Pol. : Horizontal


Level Gain Loss @3m


206.25 S -80.74 -79.49 0.75 -2.00 -57 -23.74

354.95 S -81.00 -78.74 0.39 -2.65 -57 -24.00542.16 S -76.58 -74.41 1.07 -3.24 -57 -19.58

806.87 S -74.61 -73.10 2.48 -3.99 -57 -17.61

957.42 S -72.97 -71.37 2.77 -4.37 -57 -15.974960.00 H -56.31 -56.44 10.01 -9.88 -47 -9.31






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20 ETSI EN 300 328 SUB-CLAUSE 4.3.1.12 RECEIVER BLOCKING

20.1 Limit:

While maintaining the minimum performance criteria as defined in clause 4.3.1.12.3, theblocking levels at specified frequency offsets shall be equal to or greater than the limitsdefined for the applicable receiver category provided in table 6, table 7 or table 8.






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EQUIPMENTTYPE

MFRMODEL

NUMBERSERIAL

NUMBERLASTCAL.

CAL DUE.

EMI Test Receiver Agilent N9038A MY52260216 11/15/2016 11/14/2017


Splitter WOKEN DOM35LW1A2 RF36 12/12/2016 12/11/2017

Coupler MIDISCO52335 MDC2044-20 RF42 12/12/2016 12/11/2017

Signal Generator R&S SMU200A 105303 01/16/2017 01/17/2018

Bluetooth Tester Anritsu MT8852B 1329002 07/17/2016 07/16/2017

Note: N.C.R refers to Not Calibrated Required






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20.3 Test Setup:


See Sub-Clause 5.4.11.1 of ETSI EN 300 328 for the test conditionsSee Sub-Clause 5.4.11.2.1 of ETSI EN 300 328 for conducted measurement method.

20.5 Test Result:

2402 MHz 2480 MHz

2380.0 0.10 0.10

2503.5 0.00 0.03

2300.0 0.10 0.00

2583.5 0.30 0.00

Limit N/A N/AResult

Wanted signal mean

power from companiondevice (dBm)

Blocking signal

frequency(MHz)

Blocking

signal power(dBm) DH5

Pmin + 6 dB -53

Pmin + 6 dB -47

Packet Error Rate (%)

Receiver Blocking Result

<10






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21 ETSI EN 300 328 SUB-CLAUSE 4.3.1.13 GEO-LOCATION CAPABILLITY

21.1 Requirements

The geographical location determined by the equipment as defined in clause 4.3.1.13.2 shallnot be accessible to the user.

21.2 Definition:

Geo-location capability is a feature of the equipment to determine its geographical locationwith the purpose to configure itself according to the regulatory requirements applicable at thegeographical location where it operates. The geo-location capability may be present in theequipment or in an external device (temporary) associated with the equipment operating at thesame geographical location during the initial power up of the equipment. The geographicallocation may also be available in equipment already installed and operating at the samegeographical location.

21.3 Test Result:

N/A for equipments that is not supports the geo-location capability






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PHOTOGRAPHS OF SET UP

Test Set up Photos – Radiated (Below 1GHz)

Test Set up Photos – Radiated (Above 1GHz)






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Front View of Radiated Test setup

Test Set up Photos – Conducted






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Test Set up Photos – Receiver Blocking

PHOTOGRAPHS OF EUT

Please refer to the attached file (EUT Photo)

~ End of Report ~

RED (2014/53/EU) ETSI EN 300 328 - Blue RadiosOfficial]E2-2017-30038 EN300... · Report No.:...

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