FCC Measurement/Technical Report on

BRA300
in
VEGAPULS 21
VEGAPULS 31

FCC ID: O6QBRA300

IC: 3892A-BRA300

Test Report Reference: MDE_VEGA_1902_FCC_06_REV01

Test Laboratory:
7layers GmbH
Borsigstrasse 11
40880 Ratingen
Germany

Note:
The following test results relate only to the devices specified in this document. This report shall not be reproduced in parts
without the written approval of the test laboratory.

7layers GmbH Geschäftsführer/

Borsigstraße 11 Managing Directors: Registergericht/registered: a Bureau Veritas
40880 Ratingen, Germany Frank Spiller Düsseldorf HRB 75554 Group Company
T +49 (0) 2102 749 0 Bernhard Retka USt-Id.-Nr./VAT-No. DE203159652
F +49 (0) 2102 749 350 Alexandre Norré-Oudard Steuer-Nr./TAX-No. 147/5869/0385 www.7layers.com

Commerzbank AG Account No. 303 016 000 Bank Code 300 400 00 IBAN DE81 3004 0000 0303 0160 00 Swift Code COBADEFF
Table of Contents

1 Applied Standards and Test Summary 4

1.1 Applied Standards 4
1.2 FCC-IC Correlation Table 5
1.3 Measurement Summary / Signatures 6

2 Revision History 8

3 Administrative Data 9
3.1 Testing Laboratory 9
3.2 Project Data 9
3.3 Applicant Data 9
3.4 Manufacturer Data 9

4 Test object Data 10

4.1 General EUT Description 10
4.2 EUT Main components 10
4.3 Ancillary Equipment 11
4.4 Auxiliary Equipment 11
4.5 EUT Setups 11
4.6 Operating Modes 12
4.7 Product labelling 12

5 Test Results 13
5.1 Fundamental Bandwidth 13
5.2 Fundamental Emission 15
5.3 Unwanted Emissions 20
5.4 Antenna Beamwidth 30
5.5 Antenna Side Lobe Gain 35
5.6 Frequency Stability 37

6 Test Equipment 40

7 Antenna Factors, Cable Loss and Sample Calculations 45

7.1 LISN R&S ESH3-Z5 (150 kHz – 30 MHz) 45
7.2 Antenna R&S HFH2-Z2 (9 kHz – 30 MHz) 46
7.3 Antenna R&S HL562 (30 MHz – 1 GHz) 47
7.4 Antenna R&S HF907 (1 GHz – 18 GHz) 48
7.5 Antenna EMCO 3160-09 (18 GHz – 26.5 GHz) 49
7.6 Antenna EMCO 3160-10 (26.5 GHz – 40 GHz) 50
7.7 Antenna SGH-19 (40 GHz – 60 GHz) 51
7.8 Antenna SGH-12 (60 GHz – 90 GHz) 52
7.9 Antenna SGH-08 (90 GHz – 140 GHz) 53
7.10 Antenna SGH-05 (140 GHz – 200 GHz) 54

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 2 of 57

8 Setup Drawings 55

9 Measurement Uncertainties 56

10 Photo Report 57

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1 APPLIED STANDARDS AND TEST SUMMARY

1.1 APPLIED STANDARDS

Type of Authorization
Certification for an Intentional Radiator.

Applicable FCC Rules

Prepared in accordance with the requirements of FCC Rules and Regulations as listed in 47 CFR
Ch.1 Parts 2 and 15 (10-1-18 Edition). The following subparts are applicable to the results in
this test report.

Part 2, Subpart J - Equipment Authorization Procedures, Certification

Part 15, Subpart C – Intentional Radiators

§ 15.201 Equipment authorization requirement

§ 15.209 Radiated emission limits; general requirements

§ 15.256 Operation of level probing radars within the bands 5.925-7.250 GHz, 24.05-29.00
GHz, and 75-85 GHz

Note:
The tests were selected and performed with reference to the FCC Public Notice “Measurement
procedure for level probing radars, 890966 D01 Meas level Probing Radars v01r01”.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 4 of 57

Summary Test Results:

The EUT complied with all performed tests as listed in chapter 1.3 Measurement
Summary / Signatures.

1.2 FCC-IC CORRELATION TABLE

Correlation of measurement requirements for

Level-Probing-Radars equipment
from
FCC and IC

Measurement FCC reference IC reference

Fundamental bandwidth § 15.256 (f) (1) (2) RSS-211: 5.1 (a)
Fundamental emission § 15.256 (g) RSS-211: 5.2 (b)
Unwanted emissions § 15.256 (h) RSS-211: 5.3
Antenna beamwidth § 15.256 (i) (B) RSS-211: 5.2 (a)
Antenna side lobe gain § 15.256 (j) RSS-211: 5.2 (c)
Frequency Stability § 15.215 (c) RSS-211: 5.1 (f)

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 5 of 57

1.3 MEASUREMENT SUMMARY / SIGNATURES

47 CFR CHAPTER I FCC PART 15 § 15.256 (f)

Subpart C §15.256
Fundamental bandwidth
The measurement was performed according to ANSI C63.10 Final Result

OP-Mode Setup Date FCC IC

Radio Technology, Operating Frequency,
Measurement range
FMCW Radar, 78 – 82 GHz, 75 GHz - 85 GHz S01_CB01 2019-09-24 Passed Passed

47 CFR CHAPTER I FCC PART 15 § 15.256 (g)

Subpart C §15.256
Fundamental emission
The measurement was performed according to ANSI C63.10 Final Result

OP-Mode Setup Date FCC IC

Radio Technology, Operating Frequency,
Measurement range
FMCW Radar, 78 – 82 GHz, 75 GHz - 85 GHz S01_CB01 2019-09-24 Passed Passed

47 CFR CHAPTER I FCC PART 15 § 15.256 (h)

Subpart C §15.256
Unwanted emissions
The measurement was performed according to ANSI C63.10 Final Result

OP-Mode Setup Date FCC IC

Radio Technology, Operating Frequency,
Measurement range
FMCW Radar, 78 – 82 GHz, 30 MHz – 1 GHz S01_CB01 2019-09-09 Passed Passed
FMCW Radar, 78 – 82 GHz, 1 GHz – 18 GHz S01_CB01 2019-10-09 Passed Passed
FMCW Radar, 78 – 82 GHz, 18 GHz – 26 GHz S01_CB01 2019-10-09 Passed Passed
FMCW Radar, 78 – 82 GHz, 26 GHz – 40 GHz S01_CB01 2019-10-09 Passed Passed
FMCW Radar, 78 – 82 GHz, 40 GHz – 60 GHz S01_CB01 2019-10-17 Passed Passed
FMCW Radar, 78 – 82 GHz, 60 GHz – 90 GHz S01_CB01 2019-10-17 Passed Passed
FMCW Radar, 78 – 82 GHz, 90 GHz – 140 GHz S01_CB01 2019-10-17 Passed Passed
FMCW Radar, 78 – 82 GHz, 140 GHz – 200 GHz S01_CB01 2019-10-18 Passed Passed
FMCW Radar, 78 – 82 GHz, 30 MHz – 1 GHz S01_FB01 2019-10-24 Passed Passed
FMCW Radar, 78 – 82 GHz, 1 GHz – 18 GHz S01_FB01 2019-10-24 Passed Passed
FMCW Radar, 78 – 82 GHz, 18 GHz – 26 GHz S01_FB01 2019-10-30 Passed Passed
FMCW Radar, 78 – 82 GHz, 26 GHz – 40 GHz S01_FB01 2019-10-30 Passed Passed
FMCW Radar, 78 – 82 GHz, 40 GHz – 60 GHz S01_FB01 2019-10-30 Passed Passed
FMCW Radar, 78 – 82 GHz, 60 GHz – 90 GHz S01_FB01 2019-10-30 Passed Passed
FMCW Radar, 78 – 82 GHz, 90 GHz – 140 GHz S01_FB01 2019-10-30 Passed Passed
FMCW Radar, 78 – 82 GHz, 140 GHz – 200 GHz S01_FB01 2019-10-30 Passed Passed

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 6 of 57

 RSS 211 5.3
Unwanted emissions
The measurement was performed according to ETSI EN 302 372 Final Result

OP-Mode Setup Date FCC IC

Radio Technology, Operating Frequency
FMCW Radar, 78 – 82 GHz S01_CB01 2019-10-29 Passed Passed

47 CFR CHAPTER I FCC PART 15 § 15.256 (i)

Subpart C §15.256
Antenna beamwidth
The measurement was performed according to ANSI C63.10 Final Result

OP-Mode Setup Date FCC IC

Radio Technology, Operating Frequency
FMCW Radar, 78 – 82 GHz S01_CB01 2019-09-04 Passed Passed

47 CFR CHAPTER I FCC PART 15 § 15.256 (j)

Subpart C §15.256
Antenna side lobe gain
The measurement was performed according to ANSI C63.10 Final Result

OP-Mode Setup Date FCC IC

Radio Technology, Operating Frequency
FMCW Radar, 78 – 82 GHz S01_CB01 2019-09-04 Passed Passed

47 CFR CHAPTER I FCC PART 15 § 15.256 (c)

Subpart C §15.256
Frequency Stability
The measurement was performed according to ANSI C63.10 Final Result

OP-Mode Setup Date FCC IC

Radio Technology, Operating Frequency
FMCW Radar, 78 – 82 GHz S01_CB01 2019-10-22 Passed Passed

N/A: Not applicable

N/P: Not performed

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 7 of 57

3 ADMINISTRATIVE DATA

3.1 TESTING LABORATORY

Company Name: 7layers GmbH

Address: Borsigstr. 11
40880 Ratingen
Germany

The test facility is accredited by the following accreditation organisation:

Laboratory accreditation no: DAkkS

D-PL-12140-01-01
D-PL-12140-01-02
D-PL-12140-01-03

FCC Designation Number: DE0015

FCC Test Firm Registration: 929146

ISED CAB Identifier DE0007; ISED#: 3699A

Responsible for accreditation scope: Dipl.-Ing. Marco Kullik

Report Template Version: 2019-06-18

3.2 PROJECT DATA

Responsible for testing and report: B.Sc. Jens Dörwald

Employees who performed the tests: documented internally at 7Layers

Date of Report: 2020-04-20

Testing Period: 2019-09-30 to 2019-10-01

3.3 APPLICANT DATA

Company Name: VEGA Grieshaber KG

Address: Am Hohenstein 113
77761 Schiltach
Germany

Contact Person: Mr. Patrick Friedmann

3.4 MANUFACTURER DATA

Company Name: please see Applicant Data

Address:
Contact Person:

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 9 of 57

4 TEST OBJECT DATA

4.1 GENERAL EUT DESCRIPTION

Kind of Device BRA300 are electronic modules used in VEGAPULS devices. The
product description electronic modules contain the main electronics of the devices and
a Bluetooth module with an antenna integrated on the PCB. The
Bluetooth interface is for communication with the device via
smartphone, tablet pc or laptop.
Product name VEGAPULS 11
VEGAPULS 21
VEGAPULS 31
Type -

Declared EUT data by the supplier

Voltage Type DC
Voltage Level 24 V
Tested Modulation Type FMCW
General product The EUT is a Level Probing Radar including Bluetooth Low Energy.
description
The EUT provides the DC
following ports:

The main components of the EUT are listed and described in chapter 3.2 EUT Main
components.

4.2 EUT MAIN COMPONENTS

Sample Name Sample Code Description

EUT A DE1373002cb01 VEGAPULS 21
Sample Parameter Value
Serial No. 15203022
HW Version 1.1.0
SW Version 1.1.0
Comment -

Sample Name Sample Code Description

EUT B DE1373002fb01 VEGAPULS 31
Sample Parameter Value
Serial No. 13303121
HW Version 1.1.0
SW Version 1.1.0
Comment -

NOTE:The short description is used to simplify the identification of the EUT in this test report.

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4.3 ANCILLARY EQUIPMENT

For the purposes of this test report, ancillary equipment is defined as equipment which is used
in conjunction with the EUT to provide operational and control features to the EUT. It is
necessary to configure the system in a typical fashion, as a customer would normally use it.
But nevertheless Ancillary Equipment can influence the test results.

Device Details Description

(Manufacturer, Type Model, OUT
Code)
- - -

4.4 AUXILIARY EQUIPMENT

For the purposes of this test report, auxiliary equipment is defined as equipment which is used
temporarily to enable operational and control features especially used for the tests of the EUT
which is not used during normal operation or equipment that is used during the tests in
combination with the EUT but is not subject of this test report. It is necessary to configure the
system in a typical fashion, as a customer would normally use it.
But nevertheless Auxiliary Equipment can influence the test results.

Device Details Description

(Manufacturer, Type Model, HW,
SW, S/N)
- - -

4.5 EUT SETUPS

This chapter describes the combination of EUTs and equipment used for testing. The rationale
for selecting the EUTs, ancillary and auxiliary equipment and interconnecting cables, is to test
a representative configuration meeting the requirements of the referenced standards.

Setup Combination of EUTs Description and Rationale

S01_CB01 DE1373002 VEGAPULS 21 (radiated setup)
S01_FB01 DE1373002 VEGAPULS 31 (radiated setup)

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4.6 OPERATING MODES
This chapter describes the operating modes of the EUTs used for testing.

4.6.1 TEST CHANNELS

FMCW Radar Signal with an operational frequency range from 78 GHz to 82 GHz

4.7 PRODUCT LABELLING

4.7.1 FCC ID LABEL

Please refer to the documentation of the applicant.

4.7.2 LOCATION OF THE LABEL ON THE EUT

Please refer to the documentation of the applicant.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 12 of 57

5 TEST RESULTS

5.1 FUNDAMENTAL BANDWIDTH

Standard FCC Part 15 Subpart C

The test was performed according to:

ANSI C63.10

5.1.1 TEST DESCRIPTION

The Equipment Under Test (EUT) was set up to perform the fundamental bandwidth
measurements.
The reference level is the level of the highest amplitude signal observed from the transmitter
at either the fundamental frequency or first-order modulation products in all typical modes of
operation, including the unmodulated carrier, even if atypical.
The results recorded were measured with the modulation which produce the worst-case
(smallest) emission bandwidth.

The Equipment Under Test (EUT) was set up on a non-conductive support (tilt device) at 1.5 m
height in a fully-anechoic chamber. The LPR and the test antenna were adjusted for maximum
main beam coupling.

Analyzer settings:
• Resolution Bandwidth (RBW): 1000 kHz
• Video Bandwidth (VBW): 3000 kHz
• Span: 10 GHz
• Trace: Maxhold
• Sweeps: allow the trace to stabilize
• Sweeptime: TD = Ts / ΔF (where Ts is the signal sweep frequency time in seconds; ΔF is
the signal sweep frequency in MHz)
• Detector: Peak

5.1.2 TEST REQUIREMENTS / LIMITS

FCC Part 15, Subpart C, §15.256 (f)(1)(2)

(1) The minimum fundamental emission bandwidth shall be 50 MHz for LPR operation under
the provisions of this section.
(2) LPR devices operating under this section must confine their fundamental emission
bandwidth within the 5.925-7.250 GHz, 24.05-29.00 GHz, and 75-85 GHz bands under all
conditions of operation.

RSS-211: 5.1
(a)The minimum fundamental emission bandwidth shall be 50 MHz.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 13 of 57

5.1.3 TEST PROTOCOL

Ambient temperature: 24 °C
Air Pressure: 1002 hPa
Humidity: 44 %

Lower Upper Occupied

-10 dB -10 dB Max Center Minimum Bandwidth
Frequency Frequency Frequency Frequency Occupied Occupied Margin to
fL fH fM fC Bandwidth Bandwidth Limit
[MHz] [MHz] [MHz] [MHz] [MHz] [MHz] [MHz]
77690.00 82009.70 77950.70 79849.9 4319.7 50.0 4269.7
COMMENT: Measurement was performed with activated sweep function.

Lower Upper Lower Upper

-10 dB -10 dB Band Band Margin to Margin to
Frequency Frequency Edge Edge Lower Limit Upper Limit
[MHz] [MHz] [MHz] [MHz] [MHz] [MHz]
77690.00 82009.70 77000.00 85000.00 690.00 2990.30
COMMENT: Measurement was performed with activated sweep function.

Remark: Please see next sub-clause for the measurement plot.

5.1.4 MEASUREMENT PLOT (SHOWING THE HIGHEST VALUE, “WORST CASE”)

25
20
77.950700000 GHz
19.091 dBm 82.009700000 GHz
10 7.698 dBm 10 dBc
77.690000000 GHz
7.290 dBm
0

-10
Level in dBm

-20

-30

-40

-50

74.5 76 78 80 82 84 85.5
Frequency in GHz

5.1.5 TEST EQUIPMENT USED

- Radiated Emissions

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 14 of 57

5.2 FUNDAMENTAL EMISSION

Standard FCC Part 15 Subpart C

The test was performed according to:

ANSI C63.10

5.2.1 TEST DESCRIPTION

According to KDB890966 D01 Meas level Probing Radars v01r01

Fundamental emission for Pulsed Transmitters

1. For radiated emission measurements, locate the receive test antenna at a far field distance
boresighted on the LPR transmit antenna. Adjust the LPR and the test antenna for maximum
main beam coupling.
2. For conducted measurements, connect the output of the LPR transmitter through an
appropriate attenuator to the downconverter or external harmonic mixer, if necessary, to the
spectrum analyzer.
3. Set the spectrum analyzer for power averaging (RMS) detector and 1 MHz RBW.
4. Record the maximum level and frequency of the signal within the fundamental emission
bandwidth, which must be contained entirely within the authorized frequency band.
5. Centered on the frequency of the maximum signal recorded in step 4, select peak detector,
50 MHz RBW and at least 50 MHz VBW. a. If 50 MHz RBW is not available on the spectrum
analyzer, determine the maximum of the spectrum trace in a narrower RBW which is greater
than or less than the PRF by a factor of 3, but not less than 1 MHz, and calculate the maximum
signal level in 50 MHz by adding the appropriate correction factor shown below to the
maximum measured signal level. For pulsed LPRs

20 Log (50/RBW) dB, if PRF < RBW/3

20 Log (50/PRF) dB, if PRF > 3*RBW
where:
RBW is the resolution bandwidth in MHz
PFR is the pulse repetition frequency in MHz

b. It may be necessary to offset the measurement frequency in order to ensure that the
measurement is made within the fundamental emission bandwidth because the 3 dB
bandwidth of the RBW is not entirely within the fundamental emission bandwidth. The
measurement shall be made at the nearest frequency to the frequency identified in step 4
when the 3 dB point of the RBW closest to the fundamental emission band edge is at the
frequency of the band edge.
c. If the measurement must be performed with a RBW greater than 3 MHz because the PRF is
between 1 MHz and 3 MHz or for any other reason, the test report must contain a detailed
description of the test procedure, calibration of the test setup, and the instrumentation used.
6. Determine the conducted power output of the EUT or the field strength produced by the EUT
at a given distance from the measurements in steps 1 to 5 by calculation taking into account
all attenuators, amplifier gains, antenna factor, measurement distance extrapolation,
conversion loss, cable losses, etc. as applicable or the signal substitution method.
7. The EIRP is then calculated by applying the appropriate equation as follows: a. For
conducted measurements EIRP (dBm) = conducted power (dBm) + antenna gain (dBi) where
the conducted power is the conducted power output of the EUT and antenna gain is the gain of
the EUT antenna.
b. For radiated emission measurements EIRP (dBm) = E (dBμV/m) – 104.8 + 20 Log D where
E is the field strength at the far field distance D.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 15 of 57

Fundamental Emissions for FMCW transmitters
When making the following measurements, it is important to recognize that there is a sweep
frequency time and sweep frequency span for both the LPR signal and the spectrum analyzer
which are independent of each other.
1. For radiated emission measurements, locate the receive test antenna at a far field
distance boresighted on the LPR transmit antenna. Adjust the LPR and the test antenna
for maximum main beam coupling.
2. For conducted measurements, connect the output of the LPR transmitter through an
appropriate attenuator to the downconverter or external harmonic mixer, if necessary,
to the spectrum analyzer.
3. Set the spectrum analyzer frequency span to enable viewing the entire sweep
frequency span of the LPR signal.
4. Calculate the dwell time, TD, of the sweep frequency signal per MHz of the sweep
frequency span

TD = TS/ΔF
where:
TS is the signal sweep frequency time in seconds
ΔF is the signal sweep frequency span in MHz
5. Set the detector to peak mode.
6. Set the RBW to 1 MHz.
7. Perform sufficient multiple scans on the spectrum analyzer in maximum hold with a
sweep time suitable for displaying the variation in the signal level over the frequency
span.
8. Record the maximum signal level. This is the peak value of the LPR signal.
9. Calculate the average factor
Average factor = (TD) / cycle time
where:
cycle time is the total time for a complete cycle of the signal including retrace and any
other latency times.
10. Determine the average by multiplying the maximum signal level obtained in Step 8 by
the average factor.
11. Determine the conducted power output of the EUT or the field strength produced by the
EUT at a given distance from the measurements in steps 1 to 10 by calculation taking
into account all attenuators, amplifier gains, antenna factor, measurement distance
extrapolation, conversion loss, cable losses, etc. as applicable or the signal substitution
method.
12. The EIRP is then calculated by applying the appropriate equation as follows:
a. For conducted measurements EIRP (dBm) = conducted power (dBm) + antenna gain
(dBi) where the conducted power is the conducted power output of the EUT and
antenna gain is the gain of the EUT antenna.
b. For radiated emission measurements EIRP (dBm) = E (dBμV/m) – 104.8 + 20 Log D
where E is the field strength at the far field distance D.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 16 of 57

5.2.2 TEST REQUIREMENTS / LIMITS

FCC Part 15, Subpart C, §15.256 (g)

Fundamental emissions limits. (1) All emission limits provided in this section are expressed in
terms of Equivalent Isotropic Radiated Power (EIRP).

The EIRP level is to be determined from the maximum measured power within a specified
bandwidth.

(i) The EIRP in 1 MHz is computed from the maximum power level measured within any 1-MHz
bandwidth using a power averaging detector;

(ii) The EIRP in 50 MHz is computed from the maximum power level measured with a peak
detector in a 50-MHz bandwidth centered on the frequency at which the maximum average
power level is realized and this 50 MHz bandwidth must be contained within the authorized
operating bandwidth. For a RBW less than 50 MHz, the peak EIRP limit (in dBm) is reduced by
20 log(RBW/50) dB where RBW is the resolution bandwidth in megahertz. The RBW shall not
be lower than 1 MHz or greater than 50 MHz. The video bandwidth of the measurement
instrument shall not be less than the RBW. If the RBW is greater than 3 MHz, the application
for certification filed shall contain a detailed description of the test procedure, calibration of the
test setup, and the instrumentation employed in the testing.

(3) The EIRP limits for LPR operations in the bands authorized by this rule section are provided
in Table 1. The emission limits in Table 1 are based on boresight measurements (i.e.,
measurements performed within the main beam of an LPR antenna).

Table 1
Average emission limit Peak emission limit
Frequency band of
(EIRP in dBm measured in (EIRP in dBm measured
operation (GHz)
1 MHz) in 50 MHz)
5.925 – 7.250 -33 7
24.05 – 29.00 -14 26
75 - 85 -3 34

RSS-211: 5.2
(b) For average emission limits, LPR devices shall not exceed the limits provided in Table 1
measured in a 1 MHz measurement bandwidth with an average detector. For peak emission
limits, LPR devices shall not exceed the limits provided in Table 1 measured in a 50 MHz
measurement bandwidth with a peak detector.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 17 of 57

5.2.3 TEST PROTOCOL

Ambient temperature: 24 °C
Air Pressure: 1002 hPa
Humidity: 44 %

EIRP in 1 MHz
Power Emission Margin to Power
EIRP Frequency Limit Limit EIRP
[dBm] [MHz] [dBm] [dBm]
-31.74 77950.7 -3.0 28.74

COMMENT:
Average-Factor = -50.83 dB

Calculation-Parameters:
Frequency Seep Time Ts = 5.12 ms
Signal Sweep Frequency Span ΔF = 4000 MHz
Re-trace Time = 150 ms
Total-cycle Time = 155.12 ms

EIRP in 50 MHz
Power Emission Margin to Power
EIRP Frequency Limit Limit EIRP
[dBm] [MHz] [dBm] [dBm]
25.4 77936.0 34.0 8.6

Remark: Please see next sub-clause for the measurement plot.

5.2.4 MEASUREMENT PLOT (SHOWING THE HIGHEST VALUE, “WORST CASE”)

EIRP in 1 MHz

25
20
77.950700000 GHz
19.091 dBm
10

-10
Level in dBm

-20

-30

-40

-50

74.5 76 78 80 82 84 85.5
Frequency in GHz

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 18 of 57

 EIRP in 50 MHz

30

77.936000000 GHz
25.385 dBm
20

10
Level in dBm

-10

-20

-30

72.5 74 76 78 80 82 84 86 87.5
Frequency in GHz

5.2.5 TEST EQUIPMENT USED

- Radiated Emissions

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 19 of 57

5.3 UNWANTED EMISSIONS

Standard FCC Part 15 Subpart C

The test was performed according to:

ANSI C63.10

5.3.1 TEST DESCRIPTION

The test set-up was made in accordance to the general provisions of ANSI C63.10 in a typical
installation configuration. The Equipment Under Test (EUT) was set up on a non-conductive
table 1.0 x 2.0 m² in the semi-anechoic chamber. The influence of the EUT support table that
is used between 30–1000 MHz was evaluated.
The measurement procedure is implemented into the EMI test software EMC32 from R&S.
Exploratory tests are performed at 3 orthogonal axes to determine the worst-case orientation
of a body-worn or handheld EUT. The final test on all kind of EUTs is also performed at 3 axes.
A pre-check is performed while the EUT is powered from a DC power source.

1. Measurement up to 30 MHz
The Loop antenna HFH2-Z2 is used.

Step 1: pre measurement

• Anechoic chamber
• Antenna distance: 3 m
• Detector: Peak-Maxhold
• Frequency range: 0.009 - 0.15 MHz and 0.15 – 30 MHz
• Frequency steps: 0.05 kHz and 2.25 kHz
• IF–Bandwidth: 0.2 kHz and 9 kHz
• Measuring time / Frequency step: 100 ms (FFT-based)
Intention of this step is, to determine the radiated EMI-profile of the EUT. Afterwards the
relevant emissions for the final measurement are identified.

Step 2: final measurement

For the relevant emissions determined in step 1, an additional measurement with the following
settings will be performed. Intention of this step is to find the maximum emission level.
• Open area test side
• Antenna distance: according to the Standard
• Detector: Quasi-Peak
• Frequency range: 0.009 – 30 MHz
• Frequency steps: measurement at frequencies detected in step 1
• IF–Bandwidth: 0.2 - 10 kHz
• Measuring time / Frequency step: 1 s

2. Measurement above 30 MHz and up to 1 GHz

Step 1: Preliminary scan

This is a preliminary test to identify the highest amplitudes relative to the limit.
Settings for step 1:
- Antenna distance: 3 m
- Detector: Peak-Maxhold / Quasipeak (FFT-based)
- Frequency range: 30 – 1000 MHz
- Frequency steps: 30 kHz
- IF–Bandwidth: 120 kHz
- Measuring time / Frequency step: 100 ms
TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 20 of 57
- Turntable angle range: –180° to 90°
- Turntable step size: 90°
- Height variation range: 1 – 3 m
- Height variation step size: 2 m
- Polarisation: Horizontal + Vertical
Intention of this step is, to determine the radiated EMI-profile of the EUT. Afterwards the
relevant emissions for the final measurement are identified.

Step 2: Adjustment measurement

In this step the accuracy of the turntable azimuth and antenna height will be improved. This is
necessary to find out the maximum value of every frequency.
For each frequency, which was determined the turntable azimuth and antenna height will be
adjusted. The turntable azimuth will slowly vary by ± 45° around this value. During this action,
the value of emission is continuously measured. The turntable azimuth at the highest emission
will be recorded and adjusted. In this position, the antenna height will also slowly vary by ±
100 cm around the antenna height determined. During this action, the value of emission is
also continuously measured. The antenna height of the highest emission will also be recorded
and adjusted.
- Detector: Peak – Maxhold
- Measured frequencies: in step 1 determined frequencies
- IF – Bandwidth: 120 kHz
- Measuring time: 100 ms
- Turntable angle range: ± 45 ° around the determined value
- Height variation range: ± 100 cm around the determined value
- Antenna Polarisation: max. value determined in step 1

Step 3: Final measurement with QP detector

With the settings determined in step 3, the final measurement will be performed:
EMI receiver settings for step 4:
- Detector: Quasi-Peak (< 1 GHz)
- Measured frequencies: in step 1 determined frequencies
- IF – Bandwidth: 120 kHz
- Measuring time: 1 s

After the measurement a plot will be generated which contains a diagram with the results of
the preliminary scan and a chart with the frequencies and values of the results of the final
measurement.

3. Measurement above 1 GHz

The following modifications apply to the measurement procedure for the frequency range
above 1 GHz:
Step 1:
The Equipment Under Test (EUT) was set up on a non-conductive support (tilt device) at 1.5 m
height in the fully-anechoic chamber.
All steps were performed with one height (1.5 m) of the receiving antenna only.
The EUT is turned during the preliminary measurement across the elevation axis, with a step
size of 90 °.
The turn table step size (azimuth angle) for the preliminary measurement is 45 °.
Step 2:
Due to the fact, that in this frequency range the test is performed in a fully anechoic room, the
height scan of the receiving antenna instep 2 is omitted. Instead of this, a maximum search
with a step size ± 45° for the elevation axis is performed.
The turn table azimuth will slowly vary by ± 22.5°.
The elevation angle will slowly vary by ± 45°
EMI receiver settings (for all steps):

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 21 of 57

- Detector: Peak, Average
- IF Bandwidth = 1 MHz
Step 3:
Spectrum analyser settings for step 3:
- Detector: Peak / Average
- Measured frequencies: in step 1 determined frequencies
- IF – Bandwidth: 1 MHz
- Measuring time: 1 s

5.3.2 TEST REQUIREMENTS / LIMITS

FCC Part 15, Subpart C, §15.256 (h)

.Unwanted emissions limits. Unwanted emissions from LPR devices shall not exceed the
general emission limit in §15.209 of this chapter.

FCC Part 15, Subpart C, §15.209, Radiated Emission Limits

Measurement
Frequency in MHz Limit (µV/m) Limits (dBµV/m)
distance (m)
0.009 – 0.49 2400/F(kHz)@300m 3 (48.5 – 13.8)@300m
0.49 – 1.705 24000/F(kHz)@30m 3 (33.8 – 23.0)@30m
1.705 – 30 30@30m 3 29.5@30m

The measured values are corrected with an inverse linear distance extrapolation factor (40
dB/decade) according FCC 15.31 (2).

Measurement
Frequency in MHz Limit (µV/m) Limits (dBµV/m)
distance (m)
30 – 88 100@3m 3 40.0@3m
88 – 216 150@3m 3 43.5@3m
216 – 960 200@3m 3 46.0@3m
960 - 26000 500@3m 3 54.0@3m
26000 - 40000 500@3m 1 54.0@3m
above 40000 500@3m 0.5 54.0@3m

The measured values above 26 GHz are corrected with an inverse linear distance extrapolation
factor (20 dB/decade).

Used conversion factor: Limit (dBµV/m) = 20 log (Limit (µV/m)/1µV/m)

RSS-211: 5.3
(a) The device shall be installed inside a closed container or in a still pipe by qualified
installers.
(b) The leakage of the RF field outside the container at 3 m from the container or still pipe
walls shall not exceed the values outlined in Table. The levels shall be assessed using the
procedures defined in ETSI EN 302 372.

Maximum Average EIRP (in

Frequency Band dBm/MHz) Outside Tank Enclosure
[GHz] Structure Inside the Operating
Frequency Range
5.65 – 8.50 -41.3
8.50 - 10.55 -41.3
24.05 – 29.00 -41.3
75 - 85 -41.3

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 22 of 57

5.3.3 TEST PROTOCOL
Ambient temperature: 20 °C – 25 °C
Air Pressure: 1000 hPa – 1020 hPa
Humidity: 30 % - 40 %

S01_CB01
Spurious Freq. Spurious Level Detec- RBW Limit Margin to Limit
[MHz] [dBµV/m] tor [kHz] [dBµV/m] [dB]
96.030000 27.09 QP 120 43.50 16.41
332.640000 30.33 QP 120 46.00 15.67
385.200000 35.84 QP 120 46.00 10.16
389.760000 33.42 QP 120 46.00 12.58
393.480000 34.07 QP 120 46.00 11.93
450.000000 42.26 QP 120 46.00 3.74
770.010000 40.71 QP 120 46.00 5.29

S01_FB01
Spurious Freq. Spurious Level Detec- RBW Limit Margin to Limit
[MHz] [dBµV/m] tor [kHz] [dBµV/m] [dB]
450.000000 40.44 QP 120 43.50 5.56
470.010000 40.83 QP 120 46.00 5.17
489.990000 41.87 QP 120 46.00 4.13
510.000000 41.65 QP 120 46.00 4.35
530.010000 40.50 QP 120 46.00 5.50
570.000000 32.98 QP 120 46.00 13.02
590.010000 31.37 QP 120 46.00 14.63
709.980000 38.71 QP 120 46.00 7.29
729.870000 40.39 QP 120 46.00 5.61
750.000000 42.03 QP 120 46.00 3.97
770.010000 41.21 QP 120 46.00 4.79
789.990000 40.19 QP 120 46.00 5.81
870.000000 37.29 QP 120 46.00 8.71

Remark: Please see next sub-clause for the measurement plot.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 23 of 57

5.3.4 MEASUREMENT PLOT (SHOWING THE HIGHEST VALUE, “WORST CASE”)
S01_CB01
30 MHz – 1 GHz

60

50

40
Level in dBµV/m

30

20

10

30M 50 60 80 100M 200 300 400 500 800 1G

Frequency in Hz

S01_CB01
1 GHz – 18 GHz

80

70

60

50
Level in dBµV/m

40

30

20

10

0
1G 2G 3G 4G 5G 6 8 10G 18G
Frequency in Hz

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 24 of 57

 S01_CB01
18 GHz – 26 GHz

80

70

60

50
Level in dBµV/m

40

30

20

10

0
18 19 20 21 22 23 24 25 26
Frequency in GHz

S01_CB01
26 GHz – 40 GHz

60

55

50

45
Level in dBµV/m

40

35

30

25

20
26 28 30 32 34 36 38 40
Frequency in GHz

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 25 of 57

 S01_CB01
40 GHz – 60 GHz

60

55

50
Level in dBµV/m

45

40

35

30
40 42 44 46 48 50 52 54 56 58 60
Frequency in GHz

S01_CB01
60 GHz – 90 GHz

60

55

50
Level in dBµV/m

45

40

35

30
60 65 70 75 80 85 90
Frequency in GHz

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 26 of 57

 S01_CB01
90 GHz – 140 GHz

60

55

50
Level in dBµV/m

45

40

35

30
90 100 110 120 130 140
Frequency in GHz

S01_CB01
140 GHz – 200 GHz

60

55

50
Level in dBµV/m

45

40

35

30
140 150 160 170 180 190 200
Frequency in GHz

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 27 of 57

 S01_FB01
30 MHz – 1 GHz

60

50

40
Level in dBµV/m

30

20

10

30M 50 60 80 100M 200 300 400 500 800 1G

Frequency in Hz

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 28 of 57

 S01_CB01
60 GHz – 90 GHz

-42

-44

-46

-48

-50
Level in dBm

EN_302372_v2.1.0
-52

-54

-56

-58

-60

-62

-64

60 65 70 75 80 85 90
Frequency in GHz

S01_FB01
60 GHz – 90 GHz

-42

-44

-46

-48

-50
Level in dBm

EN_302372_v2.1.0
-52

-54

-56

-58

-60

-62

-64

60 65 70 75 80 85 90
Frequency in GHz

5.3.5 TEST EQUIPMENT USED

- Radiated Emissions

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 29 of 57

5.4 ANTENNA BEAMWIDTH

Standard FCC Part 15 Subpart C

The test was performed according to:

ANSI C63.10

5.4.1 TEST DESCRIPTION

The Equipment Under Test (EUT) was set up on a non-conductive support (tilt device) at 1.5 m
height in the fully-anechoic chamber.
All steps were performed with one height (1.5 m) of the receiving antenna only.
The EUT is turned during the measurement the turn table step size (azimuth angle) for the
measurement is 1 °, the Turntable angle range: –180° to +180°.

Analyzer settings:
• Resolution Bandwidth (RBW): 1000 kHz
• Video Bandwidth (VBW): 3000 kHz
• Span: zero-span
• Trace: Maxhold
• Sweeps: single
• Sweeptime: 1 s
• Detector: Peak

5.4.2 TEST REQUIREMENTS / LIMITS

FCC Part 15, Subpart C, §15.256 (i) (B)

(i) Antenna beamwidth.

(A) LPR devices operating under the provisions of this section within the 5.925-7.250 GHz and
24.05-29.00 GHz bands must use an antenna with a −3 dB beamwidth no greater than 12
degrees.

(B) LPR devices operating under the provisions of this section within the 75-85 GHz band must
use an antenna with a −3 dB beamwidth no greater than 8 degrees.

RSS-211: 5.2

(a) For devices operating in open-air environments, the antenna shall have a maximum half-
power beamwidth of 12° for the bands 5.65-8.5 GHz and 24.05-29 GHz, and a maximum half-
power beamwidth of 8° for the band 75-85 GHz.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 30 of 57

5.4.3 TEST PROTOCOL

Ambient temperature: 24 °C
Air Pressure: 1002 hPa
Humidity: 44 %

S01_CB01
COMMENT: only an extract of the table is represented
Margin
Margin to
Normalized Normalized Half-Power Side-Lobe to 3 dB side-lobe
Azimuth Level Beamwidth Limit Gain Limit Limit Limit
[deg] [dB] [dbc] [dbc] [dB] [dB]
294.0 -49.4 -3 -38 -46.4 -11.4
295.0 -49.2 -3 -38 -46.2 -11.2
296.0 -52.8 -3 -38 -49.8 -14.8
297.0 -50.0 -3 -38 -47.0 -12.0
298.0 -47.7 -3 -38 -44.7 -9.7
299.0 -51.2 -3 -38 -48.2 -13.2
300.0 -57.4 -3 N/A -54.4 N/A
301.0 -54.6 -3 N/A -51.6 N/A
302.0 -51.3 -3 N/A -48.3 N/A
303.0 -52.4 -3 N/A -49.4 N/A
304.0 -53.6 -3 N/A -50.6 N/A
305.0 -52.5 -3 N/A -49.5 N/A
306.0 -48.9 -3 N/A -45.9 N/A
307.0 -45.7 -3 N/A -42.7 N/A
308.0 -45.5 -3 N/A -42.5 N/A
309.0 -44.4 -3 N/A -41.4 N/A
310.0 -42.0 -3 N/A -39.0 N/A
311.0 -42.1 -3 N/A -39.1 N/A
312.0 -42.4 -3 N/A -39.4 N/A
313.0 -39.7 -3 N/A -36.7 N/A
314.0 -39.6 -3 N/A -36.6 N/A
315.0 -45.2 -3 N/A -42.2 N/A
316.0 -44.5 -3 N/A -41.5 N/A
317.0 -46.6 -3 N/A -43.6 N/A
318.0 -46.8 -3 N/A -43.8 N/A
319.0 -51.8 -3 N/A -48.8 N/A
320.0 -52.3 -3 N/A -49.3 N/A
321.0 -41.1 -3 N/A -38.1 N/A
322.0 -40.9 -3 N/A -37.9 N/A
323.0 -39.1 -3 N/A -36.1 N/A
324.0 -38.5 -3 N/A -35.5 N/A
325.0 -38.4 -3 N/A -35.4 N/A
326.0 -36.9 -3 N/A -33.9 N/A
327.0 -36.7 -3 N/A -33.7 N/A
328.0 -36.8 -3 N/A -33.8 N/A
329.0 -36.8 -3 N/A -33.8 N/A
330.0 -36.2 -3 N/A -33.2 N/A
331.0 -35.9 -3 N/A -32.9 N/A
332.0 -35.3 -3 N/A -32.3 N/A
333.0 -34.8 -3 N/A -31.8 N/A
334.0 -35.0 -3 N/A -32.0 N/A
335.0 -35.4 -3 N/A -32.4 N/A
336.0 -35.5 -3 N/A -32.5 N/A
337.0 -35.6 -3 N/A -32.6 N/A
338.0 -35.4 -3 N/A -32.4 N/A
339.0 -32.6 -3 N/A -29.6 N/A
340.0 -32.7 -3 N/A -29.7 N/A
341.0 -29.4 -3 N/A -26.4 N/A
342.0 -28.7 -3 N/A -25.7 N/A
343.0 -27.6 -3 N/A -24.6 N/A

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 31 of 57

 344.0 -27.8 -3 N/A -24.8 N/A
345.0 -26.1 -3 N/A -23.1 N/A
346.0 -26.0 -3 N/A -23.0 N/A
347.0 -23.8 -3 N/A -20.8 N/A
348.0 -22.7 -3 N/A -19.7 N/A
349.0 -21.6 -3 N/A -18.6 N/A
350.0 -19.9 -3 N/A -16.9 N/A
351.0 -19.9 -3 N/A -16.9 N/A
352.0 -13.7 -3 N/A -10.7 N/A
353.0 -13.7 -3 N/A -10.7 N/A
354.0 -7.7 -3 N/A -4.7 N/A
355.0 -7.7 -3 N/A -4.7 N/A
356.0 -3.8 N/A N/A N/A N/A
357.0 -2.3 N/A N/A N/A N/A
358.0 -2.3 N/A N/A N/A N/A
359.0 -0.4 N/A N/A N/A N/A
0.0 0.0 N/A N/A N/A N/A
1.0 0.0 N/A N/A N/A N/A
2.0 -0.4 N/A N/A N/A N/A
3.0 -1.3 N/A N/A N/A N/A
4.0 -1.3 N/A N/A N/A N/A
5.0 -3.6 -3 N/A -0.6 N/A
6.0 -3.6 -3 N/A -0.6 N/A
7.0 -8.1 -3 N/A -5.1 N/A
8.0 -11.5 -3 N/A -8.5 N/A
9.0 -11.5 -3 N/A -8.5 N/A
10.0 -17.6 -3 N/A -14.6 N/A
11.0 -17.5 -3 N/A -14.5 N/A
12.0 -21.2 -3 N/A -18.2 N/A
13.0 -21.1 -3 N/A -18.1 N/A
14.0 -22.0 -3 N/A -19.0 N/A
15.0 -22.0 -3 N/A -19.0 N/A
16.0 -26.8 -3 N/A -23.8 N/A
17.0 -27.6 -3 N/A -24.6 N/A
18.0 -28.9 -3 N/A -25.9 N/A
19.0 -30.2 -3 N/A -27.2 N/A
20.0 -30.3 -3 N/A -27.3 N/A
21.0 -32.0 -3 N/A -29.0 N/A
22.0 -33.8 -3 N/A -30.8 N/A
23.0 -33.8 -3 N/A -30.8 N/A
24.0 -35.1 -3 N/A -32.1 N/A
25.0 -35.0 -3 N/A -32.0 N/A
26.0 -35.4 -3 N/A -32.4 N/A
27.0 -35.4 -3 N/A -32.4 N/A
28.0 -35.8 -3 N/A -32.8 N/A
29.0 -35.7 -3 N/A -32.7 N/A
30.0 -37.1 -3 N/A -34.1 N/A
31.0 -37.1 -3 N/A -34.1 N/A
32.0 -40.2 -3 N/A -37.2 N/A
33.0 -39.9 -3 N/A -36.9 N/A
34.0 -39.5 -3 N/A -36.5 N/A
35.0 -39.7 -3 N/A -36.7 N/A
36.0 -39.0 -3 N/A -36.0 N/A
37.0 -38.9 -3 N/A -35.9 N/A
38.0 -39.2 -3 N/A -36.2 N/A
39.0 -39.1 -3 N/A -36.1 N/A
40.0 -39.8 -3 N/A -36.8 N/A
41.0 -40.0 -3 N/A -37.0 N/A
42.0 -45.8 -3 N/A -42.8 N/A
43.0 -45.6 -3 N/A -42.6 N/A
44.0 -48.0 -3 N/A -45.0 N/A
45.0 -48.4 -3 N/A -45.4 N/A
46.0 -42.7 -3 N/A -39.7 N/A
47.0 -42.8 -3 N/A -39.8 N/A
48.0 -41.4 -3 N/A -38.4 N/A

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 32 of 57

 49.0 -40.9 -3 N/A -37.9 N/A
50.0 -42.7 -3 N/A -39.7 N/A
51.0 -44.8 -3 N/A -41.8 N/A
52.0 -46.7 -3 N/A -43.7 N/A
53.0 -48.1 -3 N/A -45.1 N/A
54.0 -48.6 -3 N/A -45.6 N/A
55.0 -54.4 -3 N/A -51.4 N/A
56.0 -54.8 -3 N/A -51.8 N/A
57.0 -56.8 -3 N/A -53.8 N/A
58.0 -49.8 -3 N/A -46.8 N/A
59.0 -51.6 -3 N/A -48.6 N/A
60.0 -49.6 -3 N/A -46.6 N/A
61.0 -50.0 -3 -38 -47.0 -12.0
62.0 -49.4 -3 -38 -46.4 -11.4
63.0 -50.0 -3 -38 -47.0 -12.0

Remark: Please see next sub-clause for the measurement plot.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 33 of 57

5.4.4 MEASUREMENT PLOT (SHOWING THE HIGHEST VALUE, “WORST CASE”)
S01_CB01
-38 dB Limit Normalized 3 dB lobe
2 Level
354358 2 [dB] 6 10 14
346350 0 18 22
342 26
338
334 -5 30
330 34
326 38
322 -10 42
318 46
314 -15 50
310 54
-20 58
306
302 62
-25
298 66
294 -30 70
290 74
-35
286 78
-40 82
282
278 -45 86
274 90
-50
270 94
266 98
262 102
258 106
254 110
250 114
246 118
242 122
238 126
234 130
230 134
226 138
222 142
218 146
214 150
210 154
206 158
202198 162
194190186 170166
182178174

5.4.5 TEST EQUIPMENT USED

- Radiated Emissions

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 34 of 57

5.5 ANTENNA SIDE LOBE GAIN

Standard FCC Part 15 Subpart C

The test was performed according to:

ANSI C63.10

5.5.1 TEST DESCRIPTION

The Equipment Under Test (EUT) was set up on a non-conductive support (tilt device) at 1.5 m
height in the fully-anechoic chamber.
All steps were performed with one height (1.5 m) of the receiving antenna only.
The EUT is turned during the measurement the turn table step size (azimuth angle) for the
measurement is 1 °, the Turntable angle range: –180° to +180°.

Analyzer settings:
• Resolution Bandwidth (RBW): 1000 kHz
• Video Bandwidth (VBW): 3000 kHz
• Span: zero-span
• Trace: Maxhold
• Sweeps: single
• Sweeptime: 1 s
• Detector: Peak

5.5.2 TEST REQUIREMENTS / LIMITS

FCC Part 15, Subpart C, §15.256 (j)

Antenna side lobe gain. LPR devices operating under the provisions of this section must limit
the side lobe antenna gain relative to the main beam gain for off-axis angles from the main
beam of greater than 60 degrees to the levels provided in Table.

Antenna Side Lobe Gain Limits

Frequency range (GHz) Antenna side lobe gain limit relative to main beam gain (dB)
5.925 – 7.250 -22
24.05 – 29.00 -27
75 - 85 -38

RSS-211: 5.2

(c)LPR devices must limit the antenna side lobe gain relative to the main beam gain for off-
axis angles from the main beam of greater than 60° for the levels provided in Table.

Frequency range (GHz) Antenna side lobe gain limit relative to main beam gain (dB)
5.925 – 7.250 -22
24.05 – 29.00 -27
75 - 85 -38

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 35 of 57

5.5.3 TEST PROTOCOL

For test results please refer to Chapter 5.4 Antenna Beamwidth

5.5.4 MEASUREMENT PLOT (SHOWING THE HIGHEST VALUE, “WORST CASE”)

For test results please refer to Chapter 5.4 Antenna Beamwidth

5.5.5 TEST EQUIPMENT USED

- Radiated Emissions

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 36 of 57

5.6 FREQUENCY STABILITY

Standard FCC Part 15 Subpart C

The test was performed according to:

ANSI C63.10

5.6.1 TEST DESCRIPTION

As specified in Section 15.215(c), the bandwidth of the fundamental emission must be

contained within the frequency band over the temperature range -20 to +50 degrees Celsius
with an input voltage variation of 85% to 115% of rated input voltage. Frequency stability is to
be measured according to Section 2.1055 at the highest and lowest frequency of operation and
with the modulation that produces the widest emission bandwidth.

5.6.2 TEST REQUIREMENTS / LIMITS

FCC Part 15, Subpart C, §15.215 (c)

Intentional radiators operating under the alternative provisions to the general emission limits,
as contained in §§15.217 through 15.257 and in subpart E of this part, must be designed to
ensure that the 20 dB bandwidth of the emission, or whatever bandwidth may otherwise be
specified in the specific rule section under which the equipment operates, is contained within
the frequency band designated in the rule section under which the equipment is operated. In
the case of intentional radiators operating under the provisions of subpart E, the emission
bandwidth may span across multiple contiguous frequency bands identified in that subpart.
The requirement to contain the designated bandwidth of the emission within the specified
frequency band includes the effects from frequency sweeping, frequency hopping and other
modulation techniques that may be employed as well as the frequency stability of the
transmitter over expected variations in temperature and supply voltage. If a frequency stability
is not specified in the regulations, it is recommended that the fundamental emission be kept
within at least the central 80% of the permitted band in order to minimize the possibility of
out-of-band operation.

RSS-211: 5.1

(b) The fundamental emission bandwidth shall be confined within the designated device
operating bands under all conditions.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 37 of 57

5.6.3 TEST PROTOCOL

Ambient temperature: 24 °C
Air Pressure: 1002 hPa
Humidity: 44 %

Ch. Center Freq. [MHz] Temperature Voltage Limit Verdict

80000 -20 °C normal 20 dBc Passed
80000 -10 °C normal 20 dBc Passed
80000 0 °C normal 20 dBc Passed
80000 10 °C normal 20 dBc Passed
80000 20 °C low 20 dBc Passed
80000 20 °C normal 20 dBc Passed
80000 20 °C high 20 dBc Passed
80000 30 °C normal 20 dBc Passed
80000 40 °C normal 20 dBc Passed
80000 50 °C normal 20 dBc Passed

Remark: Please see next sub-clause for the measurement plot.

5.6.4 MEASUREMENT PLOT (SHOWING THE HIGHEST VALUE, “WORST CASE”)

S01_CB01
Voltage = normal; Temperature = -20 °C

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 38 of 57

 S01_CB01
Voltage = normal; Temperature = 20 °C

S01_CB01
Voltage = normal; Temperature = 50 °C

5.6.5 TEST EQUIPMENT USED

- Radiated Emissions

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 39 of 57

6 TEST EQUIPMENT
1 R&S TS8997
EN300328/301893 Test Lab

Ref.No. Device Name Description Manufacturer Serial Number Last Calibration

Calibration Due
1.1 SMB100A Signal Rohde & Schwarz 107695 2017-07 2020-07
Generator 9
kHz - 6 GHz
1.2 FSV30 Signal Rohde & Schwarz 103005 2018-04 2020-04
Analyzer 10 Hz
- 30 GHz
1.3 Fluke 177 Digital Fluke Europe B.V. 86670383 2018-04 2020-04
Multimeter 03
(Multimeter)
1.4 Temperature Temperature Vötsch 58566002150010 2018-04 2020-04
Chamber VT Chamber
4002 Vötsch 03
1.5 A8455-4 4 Way Power -
Divider (SMA)
1.6 Opus10 THI ThermoHygro Lufft Mess- und ID 7482 2019-06 2021-06
(8152.00) Datalogger 03 Regeltechnik GmbH
1.7 SMBV100A Vector Signal Rohde & Schwarz 259291 2016-10 2019-10
Generator 9
kHz - 6 GHz
1.8 OSP120 Switching Unit Rohde & Schwarz 101158 2018-05 2021-05
with
integrated
power meter

2 Radiated Emissions
Lab to perform radiated emission tests

Ref.No. Device Name Description Manufacturer Serial Number Last Calibration

Calibration Due
2.1 MFS Rubidium Datum GmbH 002 2018-10 2020-10
Frequency
Normal MFS
2.2 N5000/NP Filter for EUT, ETS-LINDGREN 241515
2 Lines, 250 V,
16 A
2.3 Opus10 TPR ThermoAirpres Lufft Mess- und ID 13936 2019-05 2021-05
(8253.00) sure Regeltechnik GmbH
Datalogger 13
2.4 ESW44 EMI Receiver / Rohde & Schwarz 101603 2018-05 2019-11
Spectrum GmbH & Co. KG
Analyzer
2.5 Anechoic SAC/FAR, Frankonia none 2018-06 2020-06
Chamber 01 10.58 m x
6.38 m x 6.00
m
2.6 FS-Z60 Harmonic Rohde & Schwarz 100178 2016-12 2019-12
Mixer 40 - 60 Messgerätebau
GHz GmbH
2.7 FS-Z220 Harmonic Rohde & Schwarz 101005 2017-03 2020-03
Mixer 140 - Messgerätebau
220 GHz GmbH

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 40 of 57

Ref.No. Device Name Description Manufacturer Serial Number Last Calibration
Calibration Due
2.8 SGH-05 Standard Gain RPG-Radiometer 075
/ Pyramidal Physics GmbH
Horn Antenna
(140 - 220
GHz)
2.9 HL 562 Biconical-log- Rohde & Schwarz 830547/003 2018-07 2021-07
ULTRALOG per antenna GmbH & Co. KG
(30 MHz - 3
GHz) with HL
562E
biconicals
2.10 AMF- Broadband Miteq
7D00101800- Amplifier 100
30-10P-R MHz - 18 GHz
2.11 5HC2700/12750 High Pass Trilithic 9942012
-1.5-KK Filter
2.12 ASP 1.2/1.8-10 Antenna Mast Maturo GmbH -
kg
2.13 Anechoic FAR, 8.80m x Albatross Projects P26971-647-001- 2018-06 2020-06
Chamber 03 4.60m x PRB
4.05m (l x w x
h)
2.14 SMBV100A Vector Signal Rohde & Schwarz 260001 2018-01 2021-01
Generator 9 GmbH & Co. KG
kHz - 3.2 GHz
(GNSS /
Broadcast
Signalling
Unit)
2.15 Fluke 177 Digital Fluke Europe B.V. 86670383 2018-04 2020-04
Multimeter 03
(Multimeter)
2.16 WRD1920/1980- Tunable Band Wainwright 11
5/22-5EESD Reject Filter Instruments GmbH
2.17 TDS 784C Digital Tektronix B021311
Oscilloscope
[SA2] (Aux)
2.18 foRS232 Unit 2 Fibre optic link PONTIS 4031516037
RS232 Messtechnik GmbH
2.19 PONTIS PONTIS 6061510370
Con4101 Camera
Controller
2.20 NRVD Power Meter Rohde & Schwarz 828110/016 2019-08 2020-08
GmbH & Co. KG
2.21 OLS-1 R Fibre optic link Ingenieurbüro 018
USB 1.1 Scheiba
2.22 HF 906 Double-ridged Rohde & Schwarz 357357/002 2018-09 2021-09
horn
2.23 JS4-18002600- Broadband Miteq 849785
32-5P Amplifier 18
GHz - 26 GHz
2.24 FSW 43 Spectrum Rohde & Schwarz 103779 2019-02 2021-02
Analyzer
2.25 3160-09 Standard Gain EMCO Elektronic 00083069
/ Pyramidal GmbH
Horn Antenna
26.5 GHz

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 41 of 57

Ref.No. Device Name Description Manufacturer Serial Number Last Calibration
Calibration Due
2.26 foRS232 Unit 1Fibre optic link PONTIS 4021516036
RS232 Messtechnik GmbH
2.27 FSP3 Spectrum Rohde & Schwarz 836722/011
Analyzer GmbH & Co. KG
2.28 SGH-19 Standard Gain RPG-Radiometer 093
/ Pyramidal Physics GmbH
Horn Antenna
(40 - 60 GHz)
2.29 WHKX 7.0/18G- High Pass Wainwright 09
8SS Filter Instruments GmbH
2.30 DS 420S Turn Table 2 HD GmbH 420/573/99
m diameter
2.31 4HC1600/12750 High Pass Trilithic 9942011
-1.5-KK Filter
2.32 foUSB-M Fibre optic link PONTIS 4471520061
Converter 2 USB 2.0 Messtechnik GmbH
2.33 WRCD1879.8- Notch Filter Wainwright 16
0.2/40-10EE Ultra Stable Instruments GmbH
2.34 Chroma 6404 AC Source Chroma ATE INC. 64040001304
2.35 JS4-00102600- Broadband Miteq 619368
42-5A Amplifier 30
MHz - 26 GHz
2.36 TT 1.5 WI Turn Table Maturo GmbH -
2.37 HL 562 Biconical-log- Rohde & Schwarz 100609 2019-05 2022-05
ULTRALOG per Antenna GmbH & Co. KG
(30 MHz - 3
GHz)
2.38 HF 906 Double-ridged Rohde & Schwarz 357357/001 2018-03 2021-03
horn
2.39 foCAN (v 4.0) Fibre optic link Audivo GmbH 492 1607 014
CAN (PONTIS EMC)
2.40 FS-Z325 Harmonic Rohde & Schwarz 101006 2017-03 2020-03
Mixer 220 - Messgerätebau
325 GHz GmbH
2.41 CMW 500 CMW 500 Flex Rohde & Schwarz 155999-Ei 2019-09 2022-09
2 GmbH & Co. KG
2.42 CMU 200 "CMU1" Rohde & Schwarz 102366 2016-12 2019-12
Universal GmbH & Co. KG
Radio
Communicatio
n Tester
2.43 3160-10 Standard Gain EMCO Elektronic 00086675
/ Pyramidal GmbH
Horn Antenna
40 GHz
2.44 MA4985-XP-ET Bore Sight innco systems none
Antenna Mast GmbH
2.45 SGH-08 Standard Gain RPG-Radiometer 064
/ Pyramidal Physics GmbH
Horn Antenna
(90 - 140
GHz)
2.46 CBT Bluetooth Rohde & Schwarz 100302 2018-03 2021-03
Tester "CBT-
02" incl. BLE-
Option

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 42 of 57

Ref.No. Device Name Description Manufacturer Serial Number Last Calibration
Calibration Due
2.47 CMW 500 callbox with Rohde & Schwarz 163529-bw 2017-07 2020-07
SUA, BT, 2G, GmbH & Co. KG
3G, LTE,
AUDIO, UL/DL
fading
2.48 A8455-4 4 Way Power -
Divider (SMA)
2.49 SGH-12 Standard Gain RPG-Radiometer 326
/ Pyramidal Physics GmbH
HornAntenna
(60 - 90 GHz)
2.50 JUN-AIR Mod. 6- Air JUN-AIR 612582
15 Compressor Deutschland GmbH
2.51 foEthernet_M Fibre optic link PONTIS 4841516023
Ethernet / Gb- Messtechnik GmbH
LAN
2.52 5HC3500/18000 High Pass Trilithic 200035008
-1.2-KK Filter
2.53 FS-Z140 Harmonic Rohde & Schwarz 101007 2017-02 2020-02
Mixer 90 -140 Messgerätebau
GHz GmbH
2.54 OLS-1 M Fibre optic link Ingenieurbüro 018
USB 1.1 Scheiba
2.55 HFH2-Z2 Loop Antenna Rohde & Schwarz 829324/006 2018-01 2021-01
2.56 Voltcraft M- Digital Conrad IJ096055
3860M Multimeter 01
(Multimeter)
2.57 CMW 500 callbox, 2G, Rohde & Schwarz 149268-Qf 2018-04 2021-04
3G, LTE, GmbH & Co. KG
WLAN, BT,
Audio
2.58 Opus10 THI ThermoHygro Lufft Mess- und ID 12482 2019-06 2021-06
(8152.00) Datalogger 12 Regeltechnik GmbH
2.59 ESR 7 EMI Receiver / Rohde & Schwarz 101424 2019-01 2020-01
Spectrum
Analyzer
2.60 foEthernet_M Fibre optic link PONTIS 4841516022
Ethernet / Gb- Messtechnik GmbH
LAN
2.61 JS4-00101800- Broadband Miteq 896037
35-5P Amplifier 30
MHz - 18 GHz
2.62 AS 620 P Antenna Mast HD GmbH 620/37
(pneumatic
polarisation)
2.63 6005D (30 V / 5 Laboratory Peaktech 81062045
A) Power Supply
120 V 60 Hz
2.64 TD1.5-10kg EUT Tilt Device Maturo GmbH TD1.5-
(Rohacell) 10kg/024/37907
09
2.65 SGH-03 Standard Gain RPG-Radiometer 060
/ Pyramidal Physics GmbH
Horn Antenna
(220 - 325
GHz)

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 43 of 57

Ref.No. Device Name Description Manufacturer Serial Number Last Calibration
Calibration Due
2.66 FS-Z90 Harmonic Rohde & Schwarz 101686 2017-03 2020-03
Mixer 60 - 90 Messgerätebau
GHz GmbH
2.67 ESIB 26 Spectrum Rohde & Schwarz 830482/004 2018-01 2020-01
Analyzer
2.68 Innco Systems Controller for innco systems CO3000/967/393
CO3000 bore sight GmbH 71016/L
mast SAC
2.69 NRV-Z1 Sensor Head B Rohde & Schwarz 827753/006 2019-08 2020-08
GmbH & Co. KG
2.70 foCAN (v 4.0) Fibre optic link Audivo GmbH 492 1607 013
CAN (PONTIS EMC)
2.71 PAS 2.5 - 10 kg Antenna Mast Maturo GmbH -
2.72 AFS42- Broadband Miteq 2035324
00101800-25-S- Amplifier 25
42 MHz - 18 GHz
2.73 WRCA800/960- Tunable Notch Wainwright 20
0.2/40-6EEK Filter Instruments GmbH
2.74 AM 4.0 Antenna Mast Maturo GmbH AM4.0/180/1192
4m 0513
2.75 HF 907 Double-ridged Rohde & Schwarz 102444 2018-07 2021-07
horn
2.76 E4408B Spectrum Agilent MY45103714
Analyser (9 Technologies
kHz to 26.5 Deutschland GmbH
GHz)

The calibration interval is the time interval between “Last Calibration” and “Calibration Due”

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 44 of 57

7 ANTENNA FACTORS, CABLE LOSS AND SAMPLE CALCULATIONS
This chapter contains the antenna factors with their corresponding path loss of the used
measurement path for all antennas as well as the insertion loss of the LISN.

7.1 LISN R&S ESH3-Z5 (150 KHZ – 30 MHZ)

cable
LISN loss
insertion (incl. 10
loss dB
ESH3- atten-
Frequency Corr. Z5 uator)
MHz dB dB dB
0.15 10.1 0.1 10.0
5 10.3 0.1 10.2
7 10.5 0.2 10.3
10 10.5 0.2 10.3
12 10.7 0.3 10.4
14 10.7 0.3 10.4
16 10.8 0.4 10.4
18 10.9 0.4 10.5
20 10.9 0.4 10.5
22 11.1 0.5 10.6
24 11.1 0.5 10.6
26 11.2 0.5 10.7
28 11.2 0.5 10.7
30 11.3 0.5 10.8

Sample calculation

ULISN (dB µV) = U (dB µV) + Corr. (dB)

U = Receiver reading
LISN Insertion loss = Voltage Division Factor of LISN
Corr. = sum of single correction factors of used LISN, cables, switch units (if used)
Linear interpolation will be used for frequencies in between the values in the table.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 45 of 57

7.2 ANTENNA R&S HFH2-Z2 (9 KHZ – 30 MHZ)
cable cable cable cable distance dLimit dused
loss 1 loss 2 loss 3 loss 4 corr. (meas. (meas.
AF (inside (outside (switch (to (-40 dB/ distance distance
Frequency HFH-Z2) Corr. chamber) chamber) unit) receiver) decade) (limit) (used)
MHz dB (1/m) dB dB dB dB dB dB m m
0.009 20.50 -79.6 0.1 0.1 0.1 0.1 -80 300 3
0.01 20.45 -79.6 0.1 0.1 0.1 0.1 -80 300 3
0.015 20.37 -79.6 0.1 0.1 0.1 0.1 -80 300 3
0.02 20.36 -79.6 0.1 0.1 0.1 0.1 -80 300 3
0.025 20.38 -79.6 0.1 0.1 0.1 0.1 -80 300 3
0.03 20.32 -79.6 0.1 0.1 0.1 0.1 -80 300 3
0.05 20.35 -79.6 0.1 0.1 0.1 0.1 -80 300 3
0.08 20.30 -79.6 0.1 0.1 0.1 0.1 -80 300 3
0.1 20.20 -79.6 0.1 0.1 0.1 0.1 -80 300 3
0.2 20.17 -79.6 0.1 0.1 0.1 0.1 -80 300 3
0.3 20.14 -79.6 0.1 0.1 0.1 0.1 -80 300 3
0.49 20.12 -79.6 0.1 0.1 0.1 0.1 -80 300 3
0.490001 20.12 -39.6 0.1 0.1 0.1 0.1 -40 30 3
0.5 20.11 -39.6 0.1 0.1 0.1 0.1 -40 30 3
0.8 20.10 -39.6 0.1 0.1 0.1 0.1 -40 30 3
1 20.09 -39.6 0.1 0.1 0.1 0.1 -40 30 3
2 20.08 -39.6 0.1 0.1 0.1 0.1 -40 30 3
3 20.06 -39.6 0.1 0.1 0.1 0.1 -40 30 3
4 20.05 -39.5 0.2 0.1 0.1 0.1 -40 30 3
5 20.05 -39.5 0.2 0.1 0.1 0.1 -40 30 3
6 20.02 -39.5 0.2 0.1 0.1 0.1 -40 30 3
8 19.95 -39.5 0.2 0.1 0.1 0.1 -40 30 3
10 19.83 -39.4 0.2 0.1 0.2 0.1 -40 30 3
12 19.71 -39.4 0.2 0.1 0.2 0.1 -40 30 3
14 19.54 -39.4 0.2 0.1 0.2 0.1 -40 30 3
16 19.53 -39.3 0.3 0.1 0.2 0.1 -40 30 3
18 19.50 -39.3 0.3 0.1 0.2 0.1 -40 30 3
20 19.57 -39.3 0.3 0.1 0.2 0.1 -40 30 3
22 19.61 -39.3 0.3 0.1 0.2 0.1 -40 30 3
24 19.61 -39.3 0.3 0.1 0.2 0.1 -40 30 3
26 19.54 -39.3 0.3 0.1 0.2 0.1 -40 30 3
28 19.46 -39.2 0.3 0.1 0.3 0.1 -40 30 3
30 19.73 -39.1 0.4 0.1 0.3 0.1 -40 30 3

Sample calculation

E (dB µV/m) = U (dB µV) + AF (dB 1/m) + Corr. (dB)

U = Receiver reading
AF = Antenna factor
Corr. = sum of single correction factors of used cables, switch unit, distance correction, amplifier (if applicable)
distance correction = -40 * LOG (dLimit/ dused)
Linear interpolation will be used for frequencies in between the values in the table.
Table shows an extract of values

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 46 of 57

7.3 ANTENNA R&S HL562 (30 MHZ – 1 GHZ)
(dLimit = 3 m)
cable cable cable cable distance dLimit dused
AF loss 1 loss 2 loss 3 loss 4 corr. (meas. (meas.
R&S (inside (outside (switch (to (-20 dB/ distance distance
Frequency HL562 Corr. chamber) chamber) unit) receiver) decade) (limit) (used)
MHz dB (1/m) dB dB dB dB dB dB m m
30 18.6 0.6 0.29 0.04 0.23 0.02 0.0 3 3
50 6.0 0.9 0.39 0.09 0.32 0.08 0.0 3 3
100 9.7 1.2 0.56 0.14 0.47 0.08 0.0 3 3
150 7.9 1.6 0.73 0.20 0.59 0.12 0.0 3 3
200 7.6 1.9 0.84 0.21 0.70 0.11 0.0 3 3
250 9.5 2.1 0.98 0.24 0.80 0.13 0.0 3 3
300 11.0 2.3 1.04 0.26 0.89 0.15 0.0 3 3
350 12.4 2.6 1.18 0.31 0.96 0.13 0.0 3 3
400 13.6 2.9 1.28 0.35 1.03 0.19 0.0 3 3
450 14.7 3.1 1.39 0.38 1.11 0.22 0.0 3 3
500 15.6 3.2 1.44 0.39 1.20 0.19 0.0 3 3
550 16.3 3.5 1.55 0.46 1.24 0.23 0.0 3 3
600 17.2 3.5 1.59 0.43 1.29 0.23 0.0 3 3
650 18.1 3.6 1.67 0.34 1.35 0.22 0.0 3 3
700 18.5 3.6 1.67 0.42 1.41 0.15 0.0 3 3
750 19.1 4.1 1.87 0.54 1.46 0.25 0.0 3 3
800 19.6 4.1 1.90 0.46 1.51 0.25 0.0 3 3
850 20.1 4.4 1.99 0.60 1.56 0.27 0.0 3 3
900 20.8 4.7 2.14 0.60 1.63 0.29 0.0 3 3
950 21.1 4.8 2.22 0.60 1.66 0.33 0.0 3 3
1000 21.6 4.9 2.23 0.61 1.71 0.30 0.0 3 3

(dLimit = 10 m)
30 18.6 -9.9 0.29 0.04 0.23 0.02 -10.5 10 3
50 6.0 -9.6 0.39 0.09 0.32 0.08 -10.5 10 3
100 9.7 -9.2 0.56 0.14 0.47 0.08 -10.5 10 3
150 7.9 -8.8 0.73 0.20 0.59 0.12 -10.5 10 3
200 7.6 -8.6 0.84 0.21 0.70 0.11 -10.5 10 3
250 9.5 -8.3 0.98 0.24 0.80 0.13 -10.5 10 3
300 11.0 -8.1 1.04 0.26 0.89 0.15 -10.5 10 3
350 12.4 -7.9 1.18 0.31 0.96 0.13 -10.5 10 3
400 13.6 -7.6 1.28 0.35 1.03 0.19 -10.5 10 3
450 14.7 -7.4 1.39 0.38 1.11 0.22 -10.5 10 3
500 15.6 -7.2 1.44 0.39 1.20 0.19 -10.5 10 3
550 16.3 -7.0 1.55 0.46 1.24 0.23 -10.5 10 3
600 17.2 -6.9 1.59 0.43 1.29 0.23 -10.5 10 3
650 18.1 -6.9 1.67 0.34 1.35 0.22 -10.5 10 3
700 18.5 -6.8 1.67 0.42 1.41 0.15 -10.5 10 3
750 19.1 -6.3 1.87 0.54 1.46 0.25 -10.5 10 3
800 19.6 -6.3 1.90 0.46 1.51 0.25 -10.5 10 3
850 20.1 -6.0 1.99 0.60 1.56 0.27 -10.5 10 3
900 20.8 -5.8 2.14 0.60 1.63 0.29 -10.5 10 3
950 21.1 -5.6 2.22 0.60 1.66 0.33 -10.5 10 3
1000 21.6 -5.6 2.23 0.61 1.71 0.30 -10.5 10 3

Sample calculation
E (dB µV/m) = U (dB µV) + AF (dB 1/m) + Corr. (dB)
U = Receiver reading
AF = Antenna factor
Corr. = sum of single correction factors of used cables, switch unit, distance correction, amplifier (if applicable)
distance correction = -20 * LOG (dLimit/ dused)
Linear interpolation will be used for frequencies in between the values in the table.
Tables show an extract of values.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 47 of 57

7.4 ANTENNA R&S HF907 (1 GHZ – 18 GHZ)
cable
cable loss 3
loss 1 (switch
(relay + cable unit,
AF cable loss 2 atten- cable
R&S inside (outside uator & loss 4 (to
Frequency HF907 Corr. chamber) chamber) pre-amp) receiver)
MHz dB (1/m) dB dB dB dB dB
1000 24.4 -19.4 0.99 0.31 -21.51 0.79
2000 28.5 -17.4 1.44 0.44 -20.63 1.38
3000 31.0 -16.1 1.87 0.53 -19.85 1.33
4000 33.1 -14.7 2.41 0.67 -19.13 1.31
5000 34.4 -13.7 2.78 0.86 -18.71 1.40
6000 34.7 -12.7 2.74 0.90 -17.83 1.47
7000 35.6 -11.0 2.82 0.86 -16.19 1.46

cable
loss 4
cable (switch
loss 1 cable cable unit, used
AF (relay loss 2 loss 3 atten- cable for
R&S inside (inside (outside uator & loss 5 (to FCC
Frequency HF907 Corr. chamber) chamber) chamber) pre-amp) receiver) 15.247
MHz dB (1/m) dB dB dB dB dB dB
3000 31.0 -23.4 0.47 1.87 0.53 -27.58 1.33
4000 33.1 -23.3 0.56 2.41 0.67 -28.23 1.31
5000 34.4 -21.7 0.61 2.78 0.86 -27.35 1.40
6000 34.7 -21.2 0.58 2.74 0.90 -26.89 1.47
7000 35.6 -19.8 0.66 2.82 0.86 -25.58 1.46

cable
loss 1 cable cable cable cable cable
AF (relay loss 2 loss 3 loss 4 loss 5 loss 6
R&S inside (High (pre- (inside (outside (to
Frequency HF907 Corr. chamber) Pass) amp) chamber) chamber) receiver)
MHz dB (1/m) dB dB dB dB dB dB dB
7000 35.6 -57.3 0.56 1.28 -62.72 2.66 0.94 1.46
8000 36.3 -56.3 0.69 0.71 -61.49 2.84 1.00 1.53
9000 37.1 -55.3 0.68 0.65 -60.80 3.06 1.09 1.60
10000 37.5 -56.2 0.70 0.54 -61.91 3.28 1.20 1.67
11000 37.5 -55.3 0.80 0.61 -61.40 3.43 1.27 1.70
12000 37.6 -53.7 0.84 0.42 -59.70 3.53 1.26 1.73
13000 38.2 -53.5 0.83 0.44 -59.81 3.75 1.32 1.83
14000 39.9 -56.3 0.91 0.53 -63.03 3.91 1.40 1.77
15000 40.9 -54.1 0.98 0.54 -61.05 4.02 1.44 1.83
16000 41.3 -54.1 1.23 0.49 -61.51 4.17 1.51 1.85
17000 42.8 -54.4 1.36 0.76 -62.36 4.34 1.53 2.00
18000 44.2 -54.7 1.70 0.53 -62.88 4.41 1.55 1.91

Sample calculation

E (dB µV/m) = U (dB µV) + AF (dB 1/m) + Corr. (dB)

U = Receiver reading
AF = Antenna factor
Corr. = sum of single correction factors of used cables, switch unit, distance correction, amplifier (if applicable)
Linear interpolation will be used for frequencies in between the values in the table.
Tables show an extract of values.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 48 of 57

7.5 ANTENNA EMCO 3160-09 (18 GHZ – 26.5 GHZ)
cable cable cable cable cable
AF loss 1 loss 2 loss 3 loss 4 loss 5
EMCO (inside (pre- (inside (switch (to
Frequency 3160-09 Corr. chamber) amp) chamber) unit) receiver)
MHz dB (1/m) dB dB dB dB dB dB
18000 40.2 -23.5 0.72 -35.85 6.20 2.81 2.65
18500 40.2 -23.2 0.69 -35.71 6.46 2.76 2.59
19000 40.2 -22.0 0.76 -35.44 6.69 3.15 2.79
19500 40.3 -21.3 0.74 -35.07 7.04 3.11 2.91
20000 40.3 -20.3 0.72 -34.49 7.30 3.07 3.05
20500 40.3 -19.9 0.78 -34.46 7.48 3.12 3.15
21000 40.3 -19.1 0.87 -34.07 7.61 3.20 3.33
21500 40.3 -19.1 0.90 -33.96 7.47 3.28 3.19
22000 40.3 -18.7 0.89 -33.57 7.34 3.35 3.28
22500 40.4 -19.0 0.87 -33.66 7.06 3.75 2.94
23000 40.4 -19.5 0.88 -33.75 6.92 3.77 2.70
23500 40.4 -19.3 0.90 -33.35 6.99 3.52 2.66
24000 40.4 -19.8 0.88 -33.99 6.88 3.88 2.58
24500 40.4 -19.5 0.91 -33.89 7.01 3.93 2.51
25000 40.4 -19.3 0.88 -33.00 6.72 3.96 2.14
25500 40.5 -20.4 0.89 -34.07 6.90 3.66 2.22
26000 40.5 -21.3 0.86 -35.11 7.02 3.69 2.28
26500 40.5 -21.1 0.90 -35.20 7.15 3.91 2.36

Sample calculation

E (dB µV/m) = U (dB µV) + AF (dB 1/m) + Corr. (dB)

U = Receiver reading
AF = Antenna factor
Corr. = sum of single correction factors of used cables, switch unit, distance correction, amplifier (if applicable)
Linear interpolation will be used for frequencies in between the values in the table.
Table shows an extract of values.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 49 of 57

7.6 ANTENNA EMCO 3160-10 (26.5 GHZ – 40 GHZ)
cable cable cable cable distance dLimit dused
AF loss 1 loss 2 loss 3 loss 4 corr. (meas. (meas.
EMCO (inside (outside (switch (to (-20 dB/ distance distance
Frequency 3160-10 Corr. chamber) chamber) unit) receiver) decade) (limit) (used)
GHz dB (1/m) dB dB dB dB dB dB m m
26.5 43.4 -11.2 4.4 -9.5 3 1.0
27.0 43.4 -11.2 4.4 -9.5 3 1.0
28.0 43.4 -11.1 4.5 -9.5 3 1.0
29.0 43.5 -11.0 4.6 -9.5 3 1.0
30.0 43.5 -10.9 4.7 -9.5 3 1.0
31.0 43.5 -10.8 4.7 -9.5 3 1.0
32.0 43.5 -10.7 4.8 -9.5 3 1.0
33.0 43.6 -10.7 4.9 -9.5 3 1.0
34.0 43.6 -10.6 5.0 -9.5 3 1.0
35.0 43.6 -10.5 5.1 -9.5 3 1.0
36.0 43.6 -10.4 5.1 -9.5 3 1.0
37.0 43.7 -10.3 5.2 -9.5 3 1.0
38.0 43.7 -10.2 5.3 -9.5 3 1.0
39.0 43.7 -10.2 5.4 -9.5 3 1.0
40.0 43.8 -10.1 5.5 -9.5 3 1.0

Sample calculation

E (dB µV/m) = U (dB µV) + AF (dB 1/m) + Corr. (dB)

U = Receiver reading
AF = Antenna factor
Corr. = sum of single correction factors of used cables, switch unit, distance correction, amplifier (if applicable)
Linear interpolation will be used for frequencies in between the values in the table.
distance correction = -20 * LOG (dLimit/ dused)
Linear interpolation will be used for frequencies in between the values in the table.
Table shows an extract of values.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 50 of 57

7.7 ANTENNA SGH-19 (40 GHZ – 60 GHZ)
cable cable cable distance dLimit dused
loss 1 loss 2 loss 3 Harmonic corr. (meas. (meas.
AF (inside (outside (switch Mixer (-20 dB/ distance distance
Frequency SGH-19 Corr. chamber) chamber) unit) FS-Z60 decade) (limit) (used)
GHz dB (1/m) dB dB dB dB dB dB m m
40.0 39.6 3.8 19.4 -15.6 3 0.5
41.0 39.7 2.7 18.3 -15.6 3 0.5
42.0 39.8 3.3 18.9 -15.6 3 0.5
43.0 39.9 2.7 18.3 -15.6 3 0.5
44.0 40.1 4.0 19.6 -15.6 3 0.5
45.0 40.2 3.8 19.4 -15.6 3 0.5
46.0 40.3 4.0 19.6 -15.6 3 0.5
47.0 40.4 4.3 19.9 -15.6 3 0.5
48.0 40.5 3.5 19.1 -15.6 3 0.5
49.0 40.6 3.2 18.8 -15.6 3 0.5
50.0 40.8 3.6 19.2 -15.6 3 0.5
51.0 40.9 2.6 18.2 -15.6 3 0.5
52.0 41.1 1.5 17.1 -15.6 3 0.5
53.0 41.1 0.1 15.7 -15.6 3 0.5
54.0 41.3 -1.0 14.6 -15.6 3 0.5
55.0 41.4 -0.8 14.8 -15.6 3 0.5
56.0 41.5 -1.2 14.4 -15.6 3 0.5
57.0 41.6 -0.8 14.8 -15.6 3 0.5
58.0 41.8 -0.9 14.7 -15.6 3 0.5
59.0 41.9 0.0 15.6 -15.6 3 0.5
60.0 42.1 1.3 16.9 -15.6 3 0.5

Sample calculation

E (dB µV/m) = U (dB µV) + AF (dB 1/m) + Corr. (dB)

U = Receiver reading
AF = Antenna factor
Corr. = sum of single correction factors of used cables, switch unit, distance correction, amplifier (if applicable)
Linear interpolation will be used for frequencies in between the values in the table.
distance correction = -20 * LOG (dLimit/ dused)
Linear interpolation will be used for frequencies in between the values in the table.
Table shows an extract of values.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 51 of 57

7.8 ANTENNA SGH-12 (60 GHZ – 90 GHZ)
cable cable cable distance dLimit dused
loss 1 loss 2 loss 3 Harmonic corr. (meas. (meas.
AF (inside (outside (switch Mixer (-20 dB/ distance distance
Frequency SGH-12 Corr. chamber) chamber) unit) FS-Z90 decade) (limit) (used)
GHz dB (1/m) dB dB dB dB dB dB m m
60.0 43.3 8.2 24.4 -15.6 3 0.5
61.5 43.4 7.3 23.8 -15.6 3 0.5
63.0 43.5 4.2 22.9 -15.6 3 0.5
64.5 43.6 4.2 19.8 -15.6 3 0.5
66.0 43.7 2.0 19.8 -15.6 3 0.5
67.5 43.8 3.4 17.6 -15.6 3 0.5
69.0 43.9 3.2 19.0 -15.6 3 0.5
70.5 44.0 2.4 18.8 -15.6 3 0.5
72.0 44.1 1.6 18.0 -15.6 3 0.5
73.5 44.2 1.7 17.2 -15.6 3 0.5
75.0 44.4 0.1 17.3 -15.6 3 0.5
76.5 44.5 -0.5 15.7 -15.6 3 0.5
78.0 44.6 -0.5 15.1 -15.6 3 0.5
79.5 44.7 -1.6 15.1 -15.6 3 0.5
81.0 44.8 -1.7 14.0 -15.6 3 0.5
82.5 45.0 -0.3 13.9 -15.6 3 0.5
84.0 45.1 2.2 15.3 -15.6 3 0.5
85.5 45.2 3.7 17.8 -15.6 3 0.5
87.0 45.4 5.9 19.3 -15.6 3 0.5
88.5 45.5 5.2 21.5 -15.6 3 0.5
90.0 45.6 8.2 20.8 -15.6 3 0.5

Sample calculation

E (dB µV/m) = U (dB µV) + AF (dB 1/m) + Corr. (dB)

U = Receiver reading
AF = Antenna factor
Corr. = sum of single correction factors of used cables, switch unit, distance correction, amplifier (if applicable)
Linear interpolation will be used for frequencies in between the values in the table.
distance correction = -20 * LOG (dLimit/ dused)
Linear interpolation will be used for frequencies in between the values in the table.
Table shows an extract of values.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 52 of 57

7.9 ANTENNA SGH-08 (90 GHZ – 140 GHZ)
cable cable cable distance dLimit dused
loss 1 loss 2 loss 3 Harmonic corr. (meas. (meas.
AF (inside (outside (switch Mixer (-20 dB/ distance distance
Frequency SGH-19 Corr. chamber) chamber) unit) FS-Z140 decade) (limit) (used)
GHz dB (1/m) dB dB dB dB dB dB m m
90.0 46.9 12.2 27.8 -15.6 3 0.5
92.5 47.0 10.8 26.4 -15.6 3 0.5
95.0 47.1 9.2 24.8 -15.6 3 0.5
97.5 47.2 7.5 23.1 -15.6 3 0.5
100.0 47.3 5.8 21.4 -15.6 3 0.5
102.5 47.4 6.0 21.6 -15.6 3 0.5
105.0 47.6 7.0 22.6 -15.6 3 0.5
107.5 47.7 5.8 21.4 -15.6 3 0.5
110.0 47.8 4.7 20.3 -15.6 3 0.5
112.5 47.9 4.1 19.7 -15.6 3 0.5
115.0 48.0 6.8 22.4 -15.6 3 0.5
117.5 48.2 7.3 22.9 -15.6 3 0.5
120.0 48.3 7.5 23.1 -15.6 3 0.5
122.5 48.4 10.4 26.0 -15.6 3 0.5
125.0 48.6 13.6 29.2 -15.6 3 0.5
127.5 48.7 15.5 31.1 -15.6 3 0.5
130.0 48.9 18.1 33.7 -15.6 3 0.5
132.5 49.0 13.5 29.1 -15.6 3 0.5
135.0 49.2 14.6 30.2 -15.6 3 0.5
137.5 49.3 14.1 29.7 -15.6 3 0.5
140.0 49.4 11.5 27.1 -15.6 3 0.5

Sample calculation

E (dB µV/m) = U (dB µV) + AF (dB 1/m) + Corr. (dB)

U = Receiver reading
AF = Antenna factor
Corr. = sum of single correction factors of used cables, switch unit, distance correction, amplifier (if applicable)
Linear interpolation will be used for frequencies in between the values in the table.
distance correction = -20 * LOG (dLimit/ dused)
Linear interpolation will be used for frequencies in between the values in the table.
Table shows an extract of values.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 53 of 57

7.10 ANTENNA SGH-05 (140 GHZ – 200 GHZ)
cable cable cable distance dLimit dused
loss 1 loss 2 loss 3 Harmonic corr. (meas. (meas.
AF (inside (outside (switch Mixer (-20 dB/ distance distance
Frequency SGH-19 Corr. chamber) chamber) unit) FS-Z140 decade) (limit) (used)
GHz dB (1/m) dB dB dB dB dB dB m m
140.0 50.8 15.1 30.7 -15.6 3 0.5
142.0 50.8 11.0 26.6 -15.6 3 0.5
144.0 50.9 11.1 26.7 -15.6 3 0.5
146.0 50.9 12.1 27.7 -15.6 3 0.5
148.0 51.0 13.1 28.7 -15.6 3 0.5
150.0 51.0 15.4 31.0 -15.6 3 0.5
152.0 51.1 15.0 30.6 -15.6 3 0.5
154.0 51.1 16.9 32.5 -15.6 3 0.5
156.0 51.2 15.1 30.7 -15.6 3 0.5
158.0 51.3 15.3 30.9 -15.6 3 0.5
160.0 51.3 14.5 30.1 -15.6 3 0.5
162.0 51.4 14.2 29.8 -15.6 3 0.5
164.0 51.4 15.4 31.0 -15.6 3 0.5
166.0 51.5 13.5 29.1 -15.6 3 0.5
168.0 51.6 14.0 29.6 -15.6 3 0.5
170.0 51.6 15.1 30.7 -15.6 3 0.5
172.0 51.7 14.3 29.9 -15.6 3 0.5
174.0 51.8 14.7 30.3 -15.6 3 0.5
176.0 51.8 14.8 30.4 -15.6 3 0.5
178.0 51.9 14.6 30.2 -15.6 3 0.5
180.0 51.9 14.9 30.5 -15.6 3 0.5
182.0 52.0 14.7 30.3 -15.6 3 0.5
184.0 52.1 15.6 31.2 -15.6 3 0.5
186.0 52.1 16.8 32.4 -15.6 3 0.5
188.0 52.2 15.2 30.8 -15.6 3 0.5
190.0 52.3 16.8 32.4 -15.6 3 0.5
192.0 52.3 16.1 31.7 -15.6 3 0.5
194.0 52.4 14.8 30.4 -15.6 3 0.5
196.0 52.5 15.1 30.7 -15.6 3 0.5
198.0 52.6 13.8 29.4 -15.6 3 0.5
200.0 52.6 13.7 29.3 -15.6 3 0.5
202.0 52.7 14.0 29.6 -15.6 3 0.5
204.0 52.8 13.7 29.3 -15.6 3 0.5
206.0 52.8 13.4 29.0 -15.6 3 0.5
208.0 52.9 13.4 29.0 -15.6 3 0.5
210.0 53.0 13.9 29.5 -15.6 3 0.5
212.0 53.1 12.9 28.5 -15.6 3 0.5
214.0 53.2 13.1 28.7 -15.6 3 0.5
216.0 53.2 13.5 29.1 -15.6 3 0.5
218.0 53.3 14.5 30.1 -15.6 3 0.5
220.0 53.4 14.0 29.6 -15.6 3 0.5

Sample calculation

E (dB µV/m) = U (dB µV) + AF (dB 1/m) + Corr. (dB)

U = Receiver reading
AF = Antenna factor
Corr. = sum of single correction factors of used cables, switch unit, distance correction, amplifier (if applicable)
Linear interpolation will be used for frequencies in between the values in the table.
distance correction = -20 * LOG (dLimit/ dused)
Linear interpolation will be used for frequencies in between the values in the table.
Table shows an extract of values.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 54 of 57

8 SETUP DRAWINGS

Drawing 1: Setup in the Anechoic chamber. For measurements below 1 GHz the ground was
replaced by a conducting groundplane.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 55 of 57

9 MEASUREMENT UNCERTAINTIES

Test Case Parameter Uncertainty

AC Power Line Power ± 3.4 dB
Field Strength of spurious radiation Power ± 5.5 dB
10 dB Bandwidth Power ± 5.5 dB
Frequency ± 100.0 kHz
Conducted Output Power Power ± 2.2 dB
Band Edge Compliance Power ± 2.2 dB
Frequency ± 11.2 kHz
Frequency Stability Frequency ± 25 Hz
Power Spectral Density Power ± 2.2 dB

The measurement uncertainties for all parameters are calculated with an expansion factor
(coverage factor) k = 1.96. This means, that the true value is in the corresponding interval
with a probability of 95 %.

The verdicts in this test report are given according the above diagram:

Case Measured Value Uncertainty Range Verdict

1 below pass mark below pass mark Passed
2 below pass mark within pass mark Passed
3 above pass mark within pass mark Failed
4 above pass mark above pass mark Failed

That means, the laboratory applies, as decision rule (see ISO/IEC 17025:2017), the so called
shared risk principle.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 56 of 57

10 PHOTO REPORT

Please see separate photo report.

TEST REPORT REFERENCE: MDE_VEGA_1902_FCC_06_REV01 Page 57 of 57