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RADIO TEST REPORT
Report No.: STS2204238W01
Issued for: Vasco Electronics Goralski Group S.K.A.
Address: Al. 29 listopada 20, post code: 31-401 city: Krakow, Poland
Product Information Summary
Product Name: Vasco Smart Voice Translator
Brand Name: Vasco
Model Name: V4
Series Model: V4+, V4 Pro, V5, Shop&Office, X3, X4, X5, T3, G3, E4, E5, E5 Pro
FCC ID: 2A6YYVASCO50
Test Standard: FCC Part 22H and 24E
TEST RESULT CERTIFICATION
Applicant's Name: Vasco Electronics Goralski Group S.K.A.
Address: Al. 29 listopada 20, post code: 31-401 city: Krakow, Poland
Manufacturer's Name: SHENZHEN SET INNOVATION LIMITED
Address: B203, Liuwei business center, Yangmei community, Bantian street, Longgang District, Shenzhen, China.
Product Name: Vasco Smart Voice Translator
Brand Name: Vasco
Model Name: V4
Series Model: V4+, V4 Pro, V5, Shop&Office, X3, X4, X5, T3, G3, E4, E5, E5 Pro
Test Standards: FCC Part 22H and 24E
Test Procedure: KDB 971168 D01 v03r01, ANSI C63.26(2015)
Date of receipt of test item: 05 May 2022
Date(s) of performance of tests: 05 May 2022 ~ 16 June 2022
Date of Issue: 16 June 2022
Test Result: Pass
Testing Engineer: Chris Chen
Technical Manager: Sean She
Authorized Signatory: Bovey Yang
Note: This device described above has been tested by STS, the test results show that the equipment under test (EUT) is in compliance with the FCC requirements. And it is applicable only to the tested sample identified in the report. This report shall not be reproduced except in full, without the written approval of STS, this document may be altered or revised by STS, personal only, and shall be noted in the revision of the document.
Revision History
Rev.
Issue Date
Report NO.
Effect Page
Contents
00
16 June 2022
STS2204238W01
ALL
Initial Issue
SUMMARY OF TEST RESULTS
Test procedures according to the technical standards:
The radiated emission testing was performed according to the procedures of KDB 971168 D01 v03r01 and ANSI C63.26(2015)
FCC Rules
Test Description
Test Limit
Test Result
Reference
2.1046 22.913d 24.232d
Conducted Output Power Peak-to-Average Ratio
Reporting Only < 13 dB
PASS PASS
2.1046 22.913 24.232
Effective Radiated Power/Equivalent Isotropic Radiated Power
< 2.5 ppm (Part 22) Emission must remain in band (Part 24)
PASS
2.1051 22.917 24.238
Spurious Emission at Antenna Terminals
< 43+10log10(P[Watts])
PASS
2.1053 22.917 24.238
Field Strength of Spurious Radiation
< 43+10log10(P[Watts])
PASS
2.1051 22.917 24.238
Band Edge
< 43+10log10(P[Watts])
PASS
1 INTRODUCTION
1.1 TEST FACTORY
SHENZHEN STS TEST SERVICES CO., LTD
Address: A 1/F, Building B, Zhuoke Science Park, No.190 Chongqing Road, HepingShequ, Fuyong Sub-District, Bao'an District, Shenzhen, Guang Dong, China
FCC test Firm Registration Number: 625569
IC test Firm Registration Number: 12108A
A2LA Certificate No.: 4338.01
1.2 MEASUREMENT UNCERTAINTY
The measurement uncertainties shown below were calculated in accordance with the requirements of ANSI C63.4-2014. All measurement uncertainty values are shown with a coverage factor of k = 2 to indicate a 95% level of confidence. The measurement data shown herein meets or exceeds the UCISPR measurement uncertainty values specified in CISPR 16-4-2 and, thus, can be compared directly to specified limits to determine compliance.
Input: AC 100-240V 50/60hz 0.4A Max Output: DC 5V 1A
GPRS/EDGE Class:
Multi-Class12
Product Information (Continued)
Extreme Vol. Limits:
DC 3.7V~ DC 4.35V(Normal: DC 3.8V)
Extreme Temp. Tolerance:
-10°C to +55°C
Hardware version number:
G211_MB_V02
Software version number:
V1.0
Note: The High Voltage 4.35V and Low Voltage 3.7V was declared by manufacturer, The EUT couldn't be operate normally with higher or lower voltage, the antenna information refer the manufacturer provide report, applicable only to the tested sample identified in the report.
3 TEST CONFIGURATION OF EQUIPMENT UNDER TEST
Antenna port conducted and radiated test items were performed according to KDB 971168 D01 and ANSI C63.26 2015 Power Meas. License Digital Systems with maximum output power.
Radiated measurements were performed with rotating EUT in different three orthogonal test planes to find the maximum emission.
Radiated emissions were investigated as following frequency range:
30 MHz to 10th harmonic for GSM850 and WCDMA Band V.
30 MHz to 10th harmonic for GSM1900 and WCDMA Band II.
All modes and data rates and positions were investigated.
Test modes are chosen to be reported as the worst case configuration below:
BAND
RADIATED TCS
CONDUCTED TCS
GSM 850
GSM LINK GPRS/EDGE CLASS 12 LINK
GSM LINK GPRS/EDGE CLASS 12 LINK
GSM 1900
GSM LINK GPRS/EDGE CLASS 12 LINK
GSM LINK GPRS/EDGE CLASS 12 LINK
WCDMA BAND V
RMC 12.2KBPS LINK
RMC 12.2KBPS LINK
WCDMA BAND II
RMC 12.2KBPS LINK
RMC 12.2KBPS LINK
4 MEASUREMENT INSTRUMENTS
Radiation Test equipment
Kind of Equipment
Manufacturer
Type No.
Serial No.
Last calibration
Calibrated until
Test Receiver
R&S
ESCI
101427
2021.09.30
2022.09.29
Signal Analyzer
R&S
FSV 40-N
101823
2021.09.30
2022.09.29
Signal Generator
Agilent
83752A
3610A02740
2021.09.30
2022.09.29
Wireless Communications Test Set
R&S
CMW 500
131428
2022.03.01
2023.02.28
Bilog Antenna
TESEQ
CBL6111D
34678
2020.10.12
2022.10.11
Horn Antenna
SCHWARZBECK
BBHA 9120D
02014
2021.10.11
2023.10.10
Bilog Antenna
TESEQ
CBL6111D
45873
2020.10.12
2022.10.11
Horn Antenna
SCHWARZBECK
BBHA 9120D
9120D-1343
2020.10.12
2022.10.11
SHF-EHF Horn Antenna (18G-40GHz)
A-INFO
LB-180400-KF
J211020657
2020.10.12
2022.10.11
Pre-Amplifier (0.1M-3GHz)
EM
EM330
060665
2021.10.08
2022.10.07
Pre-Amplifier (1G-18GHz)
SKET
LNPA-01018G-45
SK2018080901
2021.09.30
2022.09.29
Pre-Amplifier (18G-40GHz)
SKET
LNPA-1840-50
SK2018101801
2021.09.28
2022.09.27
Turn table
EM
SC100_1
60531
N/A
N/A
Antenna mast
EM
SC100
N/A
N/A
N/A
Temperature & Humidity
HH660
Mieo
N/A
2021.10.09
2022.10.08
Test SW
BALUN
BL410-E/18.905
RF Connected Test
Kind of Equipment
Manufacturer
Type No.
Serial No.
Last calibration
Calibrated until
Universal Radio communication tester
R&S
CMU200
111058
2021.09.29
2022.09.28
Wireless Communications Test Set
R&S
CMW 500
131428
2022.03.01
2023.02.28
Signal Analyzer
Agilent
N9020A
MY52440124
2022.03.01
2023.02.28
Temperature& Humidity test chamber
Safety test
AG80L
171200018
2022.03.01
2023.02.28
Programmable power supply
Agilent
E3642A
MY40002025
2021.10.08
2022.10.07
Temperature & Humidity Test SW
SW-108
SuWei
N/A
2022.03.02
2023.03.01
Test SW
FARAD
LZ-RF /LzRf-3A3
Equipment with a calibration date of "NCR” shown in this list was not used to make direct calibrated measurements.
5.1 CONDUCTED OUTPUT POWER&TRANSMITTER RADIATED POWER
TEST OVERVIEW
CONDUCTED OUTPUT POWER:
A system simulator was used to establish communication with the EUT. Its parameters were set to enforce EUT transmitting at the maximum power. The measured power in the radio frequency on the transmitter output terminals shall be reported.
TRANSMITTER RADIATED POWER (EIRP/ERP)
Determining ERP and/or EIRP from conducted RF output power measurements according to ANSI C63.26 2015 Section 5.2.5.5.
In many cases, RF output power limits are specified in terms of the ERP or the EIRP. Typically, ERP is specified when the operating frequency is less than or equal to 1 GHz and EIRP is specified when the operating frequency is greater than 1 GHz. Both are defined as the product of the power supplied to the antenna and its gain (relative to a dipole antenna in the case of ERP, and relative to an isotropic antenna in the case of EIRP); however, when working in decibels (i.e., logarithmic scale), the ERP and EIRP represent the sum of the transmit antenna gain (in dBd or dBi, respectively) and the conducted RF output power (expressed in dB relative to watts or milliwatts).
The relevant equation for determining the maximum ERP or EIRP from the measured RF output power is given in Equation (1) as follows:
(1) ERP or EIRP = PMeas + GT
ERP= EIRP-2.15
where
ERP or EIRP effective radiated power or equivalent isotropically radiated power, respectively (expressed in the same units as PMeas, e.g., dBm or dBW)
PMeas measured transmitter output power or PSD, in dBm or dBW
GT gain of the transmitting antenna, in dBd (ERP) or dBi (EIRP)
For devices utilizing multiple antennas, see 6.4 for guidance with respect to determining the effective array transmit antenna gain term to be used in the above equation.
The following equations demonstrate the mathematical relationship between ERP and EIRP:
ERP = EIRP – 2.15, where ERP and EIRP are expressed in consistent units.
EIRP = ERP + 2.15, where ERP and EIRP are expressed in consistent units.
TEST PROCEDURES
The transmitter output port was connected to the system simulator.
Set eut at maximum power through the system simulator.
Select lowest, middle, and highest channels for each band and different modulation.
Measure and record the power level from the system simulator.
TEST SETUP
[Diagram description: System Simulator connected to EUT]
TEST RESULT
Note: The test data please reference to attachment “STS2204238W01_Appendix GSM” and “STS2204238W01_Appendix WCDMA”.
5.2 PEAK TO AVERAGE RATIO
TEST OVERVIEW
According to 24.232(d), power measurements for transmissions by stations authorized under this section may be made either in accordance with a commission-approved average power technique or in compliance with paragraph (e) of this section. In both instances, equipment employed must be authorized in accordance with the provisions of 24.51. In measuring transmissions in this band using an average power technique, the peak-to-average ratio (PAR) of the transmission may not exceed 13 db.
TEST PROCEDURES
The testing follows FCC KDB 971168 v03r01 section.
The eut was connected to the peak and av system simulator& spectrum analyzer.
Select lowest, middle, and highest channels for each band and different modulation.
Set the test probe and measure average power of the spectrum analysis,
TEST SETUP
[Diagram description: System Simulator connected via Power Divider to EUT and Spectrum Analyzer]
TEST RESULT
Note: The test data please reference to attachment “STS2204238W01_Appendix GSM” and “STS2204238W01_Appendix WCDMA”.
5.4 FREQUENCY STABILITY
TEST OVERVIEW
Frequency stability testing is performed in accordance with the guidelines of ANSI C63.26 2015.
The frequency stability of the transmitter is measured by:
a.) Temperature: The temperature is varied from -30°C to +50°C in 10°C increments using an environmental chamber.
b.) Primary Supply Voltage: The primary supply voltage is varied from 85% to 115% of the nominal value for non hand-carried battery and AC powered equipment. For hand-carried, battery-powered equipment, primary supply voltage is reduced to the battery operating end point which shall be specified by the manufacturer.
For Part 22, the frequency stability of the transmitter shall be maintained within ±0.00025% (±2.5 ppm) of the center frequency. For Part 24 the frequency stability shall be sufficient to ensure that the fundamental emission stays within the authorized frequency block.
TEST PROCEDURE
Temperature Variation
The testing follows FCC KDB 971168 D01 section 9.0
The EUT was set up in the thermal chamber and connected with the system simulator.
With power OFF, the temperature was decreased to -30°C and the EUT was stabilized before testing. Power was applied and the maximum change in frequency was recorded within one minute.
With power OFF, the temperature was raised in 10°C steps up to 50°C. The EUT was stabilized at each step for at least half an hour. Power was applied and the maximum frequency change was recorded within one minute.
Voltage Variation
The testing follows FCC KDB 971168 D01 Section 9.0.
The EUT was placed in a temperature chamber at 25±5°C and connected with the system simulator.
The power supply voltage to the EUT was varied from 85% to 115% of the nominal value measured at the input to the EUT.
The variation in frequency was measured for the worst case.
TEST SETUP
[Diagram description: System Simulator connected to EUT inside a Thermal Chamber]
TEST RESULT
GSM 850 /836.6MHz
Temperature (°C)
Voltage (Volt)
Freq. Dev. (Hz)
Freq. Dev. (ppm)
Limit
Result
50
23.33
0.028
2.5ppm
PASS
40
32.17
0.038
30
23.09
0.028
20
21.22
0.025
10
Normal Voltage
29.02
0.035
0
26.42
0.032
-10
33.24
0.040
-20
19.17
0.023
-30
21.46
0.026
20
Maximum Voltage
24.97
0.030
20
BEP
27.70
0.033
GPRS 850/836.6MHz
Temperature (°C)
Voltage (Volt)
Freq. Dev. (Hz)
Freq. Dev. (ppm)
Limit
Result
50
16.01
0.019
2.5ppm
PASS
40
16.82
0.020
30
14.01
0.017
20
31.35
0.037
10
Normal Voltage
26.50
0.032
0
11.99
0.014
-10
22.06
0.026
-20
34.35
0.041
-30
29.85
0.036
20
Maximum Voltage
34.47
0.041
20
BEP
24.13
0.029
EGPRS 850/836.6MHz
Temperature (°C)
Voltage (Volt)
Freq. Dev. (Hz)
Freq. Dev. (ppm)
Limit
Result
50
30.93
0.037
2.5ppm
PASS
40
17.75
0.021
30
25.27
0.030
20
18.14
0.022
10
Normal Voltage
19.11
0.023
0
27.18
0.032
-10
27.81
0.033
-20
15.12
0.018
-30
12.44
0.015
20
Maximum Voltage
24.23
0.029
20
BEP
29.80
0.036
GSM 1900 / 1880MHz
Temperature (°C)
Voltage (Volt)
Freq. Dev. (Hz)
Freq. Dev. (ppm)
Limit
Result
50
14.83
0.008
Within Authorized Band
PASS
40
12.70
0.007
30
21.57
0.011
20
35.96
0.019
10
Normal Voltage
21.61
0.011
0
16.89
0.009
-10
18.10
0.010
-20
16.87
0.009
-30
29.07
0.015
20
Maximum Voltage
26.73
0.014
20
BEP
25.71
0.014
GPRS 1900 / 1880MHz
Temperature (°C)
Voltage (Volt)
Freq. Dev. (Hz)
Freq. Dev. (ppm)
Limit
Result
50
21.74
0.012
Within Authorized Band
PASS
40
15.00
0.008
30
28.79
0.015
20
22.44
0.012
10
Normal Voltage
12.84
0.007
0
29.70
0.016
-10
21.23
0.011
-20
18.40
0.010
-30
24.29
0.013
20
Maximum Voltage
26.49
0.014
20
BEP
24.78
0.013
EGPRS 1900 / 1880MHz
Temperature (°C)
Voltage (Volt)
Freq. Dev. (Hz)
Freq. Dev. (ppm)
Limit
Result
50
31.04
0.017
Within Authorized Band
PASS
40
29.83
0.016
30
23.59
0.013
20
34.21
0.018
10
Normal Voltage
22.17
0.012
0
30.01
0.016
-10
22.01
0.012
-20
26.99
0.014
-30
23.97
0.013
20
Maximum Voltage
31.19
0.017
20
BEP
23.80
0.013
UMTS Band 2 /1880MHz
Temperature (°C)
Voltage (Volt)
Freq. Dev. (Hz)
Freq. Dev. (ppm)
Limit
Result
50
15.11
0.008
Within Authorized Band
PASS
40
28.42
0.015
30
24.27
0.013
20
17.56
0.009
10
Normal Voltage
29.20
0.016
0
35.23
0.019
-10
20.18
0.011
-20
30.60
0.016
-30
35.47
0.019
20
Maximum Voltage
26.01
0.014
20
BEP
36.30
0.019
HSDPA Band 2 /1880MHz
Temperature (°C)
Voltage (Volt)
Freq. Dev. (Hz)
Freq. Dev. (ppm)
Limit
Result
50
32.01
0.017
Within Authorized Band
PASS
40
27.51
0.015
30
16.36
0.009
20
34.94
0.019
10
Normal Voltage
36.29
0.019
0
21.60
0.011
-10
22.79
0.012
-20
22.18
0.012
-30
34.84
0.019
20
Maximum Voltage
23.04
0.012
20
BEP
15.31
0.008
HSUPA Band 2 /1880MHz
Temperature (°C)
Voltage (Volt)
Freq. Dev. (Hz)
Freq. Dev. (ppm)
Limit
Result
50
13.12
0.007
Within Authorized Band
PASS
40
28.74
0.015
30
13.00
0.007
20
35.45
0.019
10
Normal Voltage
19.08
0.010
0
25.51
0.014
-10
35.12
0.019
-20
11.76
0.006
-30
29.21
0.016
20
Maximum Voltage
28.44
0.015
20
BEP
30.55
0.016
UMTS Band 5 / 836.6MHz
Temperature (°C)
Voltage (Volt)
Freq. Dev. (Hz)
Freq. Dev. (ppm)
Limit
Result
50
16.15
0.019
2.5ppm
PASS
40
17.37
0.021
30
31.91
0.038
20
15.69
0.019
10
Normal Voltage
19.75
0.024
0
29.28
0.035
-10
31.98
0.038
-20
24.53
0.029
-30
23.39
0.028
20
Maximum Voltage
19.84
0.024
20
BEP
30.96
0.037
HSDPA Band 5 / 836.6MHz
Temperature (°C)
Voltage (Volt)
Freq. Dev. (Hz)
Freq. Dev. (ppm)
Limit
Result
50
18.19
0.022
2.5ppm
PASS
40
12.27
0.015
30
11.70
0.014
20
34.55
0.041
10
Normal Voltage
29.49
0.035
0
21.10
0.025
-10
28.03
0.034
-20
36.01
0.043
-30
36.20
0.043
20
Maximum Voltage
34.54
0.041
20
BEP
15.71
0.019
HSUPA Band 5 / 836.6MHz
Temperature (°C)
Voltage (Volt)
Freq. Dev. (Hz)
Freq. Dev. (ppm)
Limit
Result
50
25.38
0.030
2.5ppm
PASS
40
21.44
0.026
30
19.55
0.023
20
19.86
0.024
10
Normal Voltage
12.50
0.015
0
30.34
0.036
-10
35.92
0.043
-20
18.49
0.022
-30
26.17
0.031
20
Maximum Voltage
23.48
0.028
20
BEP
19.46
0.023
5.5 SPURIOUS EMISSIONS AT ANTENNA TERMINALS
TEST OVERVIEW
The power of any emission outside of the authorized operating frequency ranges must be lower than the transmitter power (P) by a factor of at least 43 + 10 log (P) dB.
It is measured by means of a calibrated spectrum analyzer and scanned from 30 MHz up to a frequency including its 10th harmonic.
TEST PROCEDURE
The testing FCC KDB 971168 D01 v03r01 Section 6.0. and ANSI C63.26-2015-Section 5.7.
The EUT was connected to the spectrum analyzer and system simulator via a power divider.
The RF output of EUT was connected to the spectrum analyzer by an RF cable and attenuator. The path loss was compensated to the results for each measurement.
The middle channel for the highest RF power within the transmitting frequency was measured.
The conducted spurious emission for the whole frequency range was taken.
The RF fundamental frequency should be excluded against the limit line in the operating frequency band.
The limit line is derived from 43 + 10log(P) dB below the transmitter power P(Watts) = P(W) - [43 + 10log(P)] (dB) = [30 + 10log(P)] (dBm) - [43 + 10log(P)] (dB) = -13dBm.
TEST SETUP
[Diagram description: System Simulator connected via Power Divider to EUT and Spectrum Analyzer]
TEST RESULT
Note: The test data please reference to attachment “STS2204238W01_Appendix GSM” and “STS2204238W01_Appendix WCDMA”.
5.6 BAND EDGE
TEST OVERVIEW
All out of band emissions are measured with a spectrum analyzer connected to the antenna terminal of the EUT while the EUT is operating at maximum power, and at the appropriate frequencies. All data rates were investigated to determine the worst case configuration. All modes of operation were investigated and the worst case configuration results are reported in this section.
The minimum permissible attenuation level of any spurious emission is 43 + log10(P[Watts]), where P is the transmitter power in Watts.
TEST PROCEDURE
The testing FCC KDB 971168 D01 v03r01 Section 6.0 and ANSI C63.26-2015-Section 5.7
Start and stop frequency were set such that the band edge would be placed in the center of the Plot.
The EUT was connected to the spectrum analyzer and system simulator via a power divider.
The RF output of EUT was connected to the spectrum analyzer by an RF cable and attenuator. The path loss was compensated to the results for each measurement.
The band edges of low and high channels for the highest RF powers were measured.
The RF fundamental frequency should be excluded against the limit line in the operating frequency band.
The limit line is derived from 43 + 10log(P) dB below the transmitter power P(Watts) = P(W) - [43 + 10log(P) ] (dB) = [30 + 10log(P)] (dBm) - [43 + 10log(P) ] (dB) = -13dBm.
TEST SETUP
[Diagram description: System Simulator connected via Power Divider to EUT and Spectrum Analyzer]
TEST RESULT
Note: The test data please reference to attachment “STS2204238W01_Appendix GSM” and “STS2204238W01_Appendix WCDMA”.
5.7 FIELD STRENGTH OF SPURIOUS RADIATION MEASUREMENT
TEST OVERVIEW
Radiated spurious emissions measurements are performed using the substitution method described in ANSI C63.26-2015 with the EUT transmitting into an integral antenna. Measurements on signals operating below 1GHz are performed using horizontally and vertically polarized tuned dipole antennas. Measurements on signals operating above 1GHz are performed using vertically and horizontally polarized horn antennas. All measurements are performed as peak measurements while the EUT is operating at maximum power and at the appropriate frequencies.
It is measured by means of a calibrated spectrum analyzer and scanned from 30 MHz up to a frequency including its 10th harmonic.
TEST PROCEDURE
The testing FCC KDB 971168 D01 Section 5.8 and ANSI C63.26-2015-Section 5.5.
RBW = 100kHz for emissions below 1GHz and 1MHz for emissions above 1GHz
VBW ≥ 3 x RBW
Span = 1.5 times the OBW
No. of sweep points > 2 x span/RBW
Detector = Peak
Trace mode = max hold
The trace was allowed to stabilize
Effective Isotropic Spurious Radiation was measured by substitution method according to TIA/EIA-603-D. The EUT was replaced by the substitution antenna at same location, and then a known power from S.G. was applied into the dipole antenna through a Tx cable, and then recorded the maximum Analyzer reading through raised and lowered the test antenna.
[Diagram description: Metal Full Soldered Ground Plane, EUT on table, System Simulator, 3m distance, RX Antenna, Ant. feed point, Spectrum Analyzer / Receiver]
For radiated test from above 1GHz
[Diagram description: Metal Full Soldered Ground Plane, EUT on table, System Simulator, 3m distance, RX Antenna, Ant. feed point, Spectrum Analyzer / Receiver]
Spurious Emissions Test Results
Note: (1) Spurious emissions which are attenuated by more than 20dB below the permissible value for frequeny below 1000MHz.
(2) Above 3.5GHz amplitude of spurious emissions which are attenuated by more than 20dB below the permissible value
(3)Test is divided into three directions, X/Y/Z. X pattern for the worst.
Vasco Smart Voice Translator Radio Test Report This document presents the Radio Test Report for the Vasco Smart Voice Translator, model V4, detailing its compliance with FCC regulations and technical specifications.
Vasco Smart Voice Translator Radio Test Report FCC Compliance This report details the radio frequency test results for the Vasco Smart Voice Translator, model V4 and series models, conducted by Shenzhen STS Test Services Co., Ltd. according to FCC Part 15.247 standards.
Vasco Smart Voice Translator V4 FCC Test Report This report details the FCC compliance testing for the Vasco Smart Voice Translator, Model V4, conducted by Shenzhen STS Test Services Co., Ltd. It covers RF emission tests, power spectral density, bandwidth, and output power.
Vasco Smart Voice Translator V4 FCC SAR Test Report STS2204238H01 Official FCC SAR test report for the Vasco Smart Voice Translator (Model V4) by Vasco Electronics. Details RF exposure levels and compliance testing conducted by Shenzhen STS Test Services according to FCC regulations.
Vasco Smart Voice Translator Model Differences Description Document detailing the differences between various Vasco Smart Voice Translator models, confirming identical electrical circuit design, layout, components, and internal wiring across models such as V4, V4+, V4 Pro, V5, Shop&Office, X3, X4, X5, T3, G3, E4, E5, and E5 Pro, with FCC ID 2A6YYVASCO50.
Vasco Smart Voice Translator User Manual Comprehensive user manual for the Vasco Smart Voice Translator, covering setup, features, operations, safety guidelines, and troubleshooting for models V4, V4+, V4 Pro, V5, Shop&Office, X3, X4, X5, T3, G3, E4, E5, E5 Pro.
Vasco Translator: AI-Powered Devices for Seamless Global Communication Explore Vasco Translator, the leading AI-powered electronic translation devices designed to break down language barriers. Discover models V4, E1, and M3, their features, and Vasco's commitment to social engagement.