Used ANRITSU MT8860B #144746 for sale
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ID: 144746
WLAN test set
Includes options: 011, 013
Support 802.11b/g
Transmit Spectrum Mask IEEE 802.11b–1999 (18.4.7.3)
Definition Spectrum measurement derived from gate 1 or 2
Gate Width From gate 1 or 2, 50 μs to 5.95 ms
Dither Mode OFF - Default mode
ON - Additional Signal processing removes spurs from the spectral measurement
Frequency Span 70 MHz (fc ±35 MHz)
Flatness Over Frequency Span ±1 dB
Linearity ±0.8 dB (50 dB dynamic range CW measurements)
Resolution 0.1 dB
Range +20 dBm to –40 dBm modulated carrier power
Dynamic Range >50 dB (usable dynamic range with Dither Mode set to ON)
Receiver Resolution Bandwidth Equivalent to 100 kHz Gaussian
Noise floor (for all supported channels) –110 dBm
Spurious specification (supported channels) <–56 dBc
Transmit Center Frequency Tolerance IEEE 802.11b–1999 (18.4.7.4)
Accuracy ±1 kHz ± reference frequency oscillator error (ppm) for gate >1 ms
Resolution 100 Hz
Chip Clock Frequency Tolerance IEEE 802.11b–1999 (18.4.7.5)
Definition Frequency error relative to 11MHz Chip clock. Measurement averaged over a fully coded
DSSS packet with minimum payload length of 3,300 chips (300 μs)
Display Format Hz and ppm
Range ±50 ppm
Resolution 0.1 Hz, 0.1 ppm
Analysis Length 3,300 to 30,250 chips (default 5,500 chips)
Transmit Power-On & Power-Down Ramp IEEE 802.11b–1999 (18.4.7.6)
Definition Time for 802.11 burst to transit from 10% to 90% or 90% to 10% of linear power
Resolution 0.1 μs
Data Outputs 10%, 90% and delta values
RF Carrier Suppression IEEE 802.11b–1999 (18.4.7.7)
Definition Relative Level of the carrier to highest sideband for a 10101010 test pattern
with scrambler disabled, data rate 2 Mbps
Range As spectral mask range
Dynamic Range As spectral mask dynamic range
Flatness As spectral mask flatness
Linearity As spectral mask linearity
Resolution As spectral mask resolution
Transmit Modulation Accuracy IEEE 802.11b–1999 (18.4.7.8)
Definition
Peak and Average Error Vector Magnitude measurement performed as defined in 802.11b
specification for DBPSK and DQPSK modulated packets. Measurement averaged over a fully coded
DSSS packet with minimum payload length of 220 chips (20 μs)
Measurement Accuracy <10% residual RMS EVM +18 dBm to –45 dBm
Modulation Setting Data rate 1, 2, 5.5 or 11 Mbps. (NOTE: 1 Mbps analysis only available if Option 11 is fitted)
Displayed Measurement Range 1% to 100% dependent on modulation
Measurement Configuration
RX Filter Selection
Selectable between:
None
Gaussian, BT 0.3 to 1.0 (default 0.5), resolution 0.1
Root Raised Cosine, a 0.30 to 1.00 (default 0.35), resolution 0.01
(NOTE: Rx filter selection only available if Option 11 is fitted and DSSS EVM filter calibration implemented.)
Averaging Single measurements, or averaging applied to the EVM results
Analysis Length 220 to 11,000 chips (default 1,000 chips)
Receiver Minimum Input Sensitivity IEEE 802.11b–1999 (18.4.8.1)
Definition Packet Error Rate (PER) at defined power level
Power Range See Reference Radio Transmitter section
Mode Network: MT8860B forms connection with the DUT. Unicast and Broadcast packets supported
Direct: MT8860B transmits a defined number of packets
Data Packet Structure Complies with 802.11 specifications for MAC header formatting, scrambling, encoding, interleaving
and calculation of the appropriate CRC/FCS checksum
Number of Transmitted Packets 1 to 1000 (default 500)
Payload Length 1 to 1500 bytes (default 1,024 bytes)
Preamble Format Long or Short
Payload All 1’s, all 0’s, 0101, Counting, PN7, PN9, 1010 or Random. Payload data is scrambled over air
Data Rates 1, 2, 5.5 or 11 Mbps
Network Mode Settings
Inter-packet Interval 0 to 65535 ms
Inter-packet Resolution 1 ms
DUT Tx Power Level
–30 to + 30 dBm
This is the expected power level of the ACK packet transmitted by the DUT in response to a correctly
received Unicast packet. This value is used by the MT8860B to calculate the amount of return path
attenuation required to prevent MT8860B reference radio receiver saturation.
Direct Mode Settings
Inter-packet Spacing 0 to 200 slots (default 5 slots)
Inter-packet Resolution 20 μs
DUT MAC Address Range 00-00-00-00-00-00 to FF-FF-FF-FF-FF-FF
Receiver Maximum Input Level IEEE 802.11b–1999 (18.4.8.2)
Definition Receiver PER specification as for 18.4.8.1
Receiver Adjacent Channel Rejection IEEE 802.11b–1999 (18.4.8.3)
Definition Adjacent Channel measurements made with external modulated signal source (e.g.MG3700A)
using one of the interferer ports
Additional Measurements
Occupied Bandwidth Measures the frequency range within which the specified percentage power is contained
Occupied Bandwidth Percentage 1 to 99%
Frequency vs Time Frequency drift measured over packet transmission
802.11g Measurements
(Option 13)
The following applies to data rates that use OFDM modulation. For DSSS data rates,
please refer to the 802.11b measurement section
Transmitter Power Levels IEEE 802.11g–2003 (19.4.7.1)
Definition Average, peak and crest factor power measurements on OFDM
modulated signals on the supported channels
Damage Levels > +27 dBm
Dynamic Range +18 dBm to –50 dBm average power (+27 dBm peak)
Accuracy (CW) ±0.6 dB (+18 dBm to –30 dBm), ±1.0 dB (–30 dBm to –50 dBm)
Resolution 0.1 dB
Capture Width 10 μs to 5.95 ms
Time Resolution 0.1 μs marker resolution with 10 μs time window
Transmitter Spectrum Mask IEEE 802.11g–2003 (19.5.4)
Definition Display of Spectrum measurement derived from gate 1 or 2
Gate Width (spectral measurement) From gate 1 or 2, 50 μs to 5.95 ms
Dither Mode OFF - Default mode
ON - Additional Signal processing removes spurs from the spectral measurement
Flatness Over Frequency Span ±1 dB
Linearity ±0.8 dB (50 dB dynamic range CW measurements)
Resolution 0.1 dB
Frequency Span 70 MHz (fc ±35 MHz)
Range +18 dBm to –40 dBm modulated carrier power
Dynamic Range
(Useable dynamic range for signals with 8 dB crest factor and Dither Mode set to ON)
±11 MHz from fc 30 dB (typical 46 dB)
±20 MHz from fc 40 dB (typical 48 dB)
±30 MHz from fc 43 dB (typical 50 dB)
Receiver Resolution Bandwidth Equivalent to 100 kHz Gaussian
Noise floor (for supported channels) –110 dBm
Spurious Specification <–56 dBc
Transmit Center Frequency Tolerance IEEE 802.11g–2003 (19.4.7.2)
Definition Average Frequency of the OFDM carrier signal
Data Output Format Hz and ppm
Accuracy ±1 kHz ± reference frequency oscillator error (ppm) for gate >1 ms
Resolution 100 Hz
Symbol Clock Frequency Tolerance IEEE 802.11g–2003 (19.4.7.3)
Definition Frequency error relative to 250 kHz symbol clock as per 802.11g. Measurement averaged over a fully
coded OFDM packet with minimum payload length of 16 symbols (64 μs)
Data Output Format Hz and ppm
Range ±40 ppm
Resolution 0.01 Hz, 0.1 ppm
Analysis Length 16 to 500 symbols (default 55 symbols)
Transmitter Center Frequency Leakage IEEE 802.11g–2003 (19.4.7)
Reference IEEE 802.11a–1999 (17.3.9.6.1)
Definition Measurement of the leakage of the center carrier
Data Output Format dB
Resolution 0.1 dB
Transmitter Spectral Flatness IEEE 802.11g–2003 (19.4.7)
Reference IEEE 802.11a–1999 (17.3.9.6.2)
Definition
Graphical display of the RF sub-carrier power level
Display includes limit lines (IEEE802.11a-1999)
Overall Pass/Fail status indicated
For measurement failure, a numeric measurement result of the failing sub-carrier(s) is reported
Unit of measurement dBr
Transmitter Modulation Accuracy IEEE 802.11g–2003 (19.7.2.7)
Definition Peak and Average EVM. Measurement averaged over a fully coded OFDM packet with minimum
payload length of 16 symbols (64 μs)
Measurement Accuracy <2% residual RMS EVM for 54 Mbps OFDM +18 dBm to –45 dBm
Modulation Setting Data rates 6, 9, 12, 18, 24, 36, 48 or 54 Mbps
Data Output Format
Peak and average EVM all sub-carriers, dB or percentage
Peak and average EVM on each sub carrier (frequency domain), % vs sub carrier –26 to +26
EVM vs symbol (time domain), % vs symbol number, 1 to specified analysis length
Analysis Length 16 to 500 symbols (default 40 symbols)
OFDM Pilot Tracking User selection of Phase tracking only or Phase and Amplitude tracking
Receiver Minimum Input Sensitivity IEEE 802.11g–2003 (19.5.1)
Definition Packet Error Rate (PER) at defined power level
Power Range See Reference Radio Transmitter section
Mode Network: MT8860B forms connection with DUT. Unicast and Broadcast packets supported
Direct: MT8860B transmits defined number of packets
Data Packet Structure Complies with 802.11 specifications for MAC header formatting, scrambling, encoding, interleaving and
calculation of the appropriate CRC/FCS checksum
Number of Transmitted Packets 1 to 1000 (default 500)
Payload Length 1 to 1,500 bytes (default 1,024 bytes)
Payload All 1’s, all 0’s, 0101, Counting, PN7, PN9, 1010 or Random. Payload data is scrambled over air
Data Rates 6, 9, 12, 18, 24, 36, 48 or 54 Mbps
Network Mode Settings
Inter-packet Interval 0 to 65535 ms
Inter-packet Resolution 1 ms
DUT Tx Power Level
–30 to + 30 dBm
This is the expected power level of the ACK packet transmitted by the DUT in response to a correctly
received Unicast packet. This value is used by the MT8860B to calculate the amount of return path
attenuation required to prevent MT8860B reference radio receiver saturation.
Direct Mode Settings
Inter-packet Spacing 0 to 200 slots (default 5 slots)
Inter-packet Resolution 9 μs (OFDM)
DUT MAC Address Range 00-00-00-00-00-00 to FF-FF-FF-FF-FF-FF
Receiver Adjacent Channel Rejection IEEE 802.11g–2003 (19.5.2)
Definition Adjacent Channel measurements made with external modulated signal source (e.g. MG3700A) using
external interferer port
Receiver Maximum Input Level IEEE 802.11g–2003 (19.5.3)
Definition As per IEEE 802.11g-2003 (19.5.1)
Additional Measurements
CCDF
CCDF defined as percentage of samples against dB, where percentage of samples is
normalized to the average power in the gate, and dB is defined as the relative value of samples greater
than the average
Measurement Scales Y-axis, Log scale, fixed values of 100, 10, 1, 0.1, 0.01%
X-axis, dB scale, fixed values of 0 to 12 dB
TX Measurement Controls
Triggers
Free Run Continuous unsynchronised
RF Edge RF triggering on rising or falling edge, detected at RF input
User set level
RF Edge Dynamic Range +18 dBm to –40 dBm average power in auto range mode
Video Video triggering on rising or falling edge, detected at IF, trigger level auto set
Video Trigger Dynamic Range
802.11b/802.11g (DSSS): Triggers at –10 dB below average power
802.11g (OFDM): Triggers at –20 dB below average power level
+18 dBm to –50 dBm average power in auto range mode
External TTL input, BNC on Rear Panel
Measurement Gates Two gates for Power, Spectrum, Frequency and CCDF measurements. Gate positions set directly by
GPIB
Settable Gate Range 10 μs to 5.95 ms
Tx Analysis auto-configure function
Using this function, the following parameters are automatically configured by the MT8860B;
Input Level Range
Pre-trigger
Capture Width
Trigger settings
Measurement Gate settings
Reference Radio Transmitter Network and Direct Modes
Supported Channels
Channels 1-14 (802.11b)
Channels 1-14 (802.11g DSSS)
Channels 1-13 (802.11g OFDM)
Output power (for supported channels) –3 to –100 dBm (settable to 0 dBm but performance unwarranted)
Power Accuracy (for supported channels)
±1.0 dB (–3 dBm to –90 dBm, CW 18 to 28° C)
±2.0 dB typical (<–90 dBm to –100 dBm, CW 18 to 28 degrees)
Specification warranted for packets transmitted during receiver sensitivity
Settable Resolution 0.1 dB
Output Impedance 50 ½ < 2:1 VSWR
Frequency Accuracy ±20 ppm
Modulation Accuracy (channels 1 to 13)
802.11b / 802.11g (DSSS)
802.11g (OFDM)
<10%, RMS EVM, 11 Mbps, <–20 dBm
<5.6%, RMS EVM, 54 Mbps, <–20 dBm
Nominally <4%, RMS EVM, 54 Mbps, <–20 dBm
Nominally <5.6%, RMS EVM, 54 Mbps, –3 to –20 dBm
Reference Radio Receiver Network and Direct Modes
Supported Channels See Reference Radio Transmitter Section (above)
Maximum Safe Input +27 dBm Peak Power
Damage level +32 dBm Peak power (Excluding range 3)
Input VSWR (for supported channels) <1.5:1
Sensitivity –40 dBm (for <0.1% PER)
General
Reference Frequency Oscillator
Frequency 10 MHz
Aging <±1 ppm/year, <±2.5 ppm/10 years
Drift <±0.5 ppm 0 to +45° C
Inputs & Outputs
Front Panel Inputs & Outputs
Test Port In/Out Provides connection to DUT, N-type (f), 50 ½ nominal
Interferer Inputs 1 & 2
Provides input for external signal source (e.g. MG3700A), N-type (f), 1.5:1 VSWR
Max Input power +27 dBm
Loss to Test Port In/Out: 20 dB ±1 dB (for supported channels)
WLAN Reference Input
Allows an external reference radio to be used for DUT receiver measurements using only the leveling
loop and attenuator of MT8860B
Power output leveled to specified level for packets >110 ms
Power input range +12 dBm to +18 dBm
No measurements supported by MT8860B in this mode
19
Rear Panel Inputs & Outputs
GPIB IEEE 488.2 compliant
10 MHz out As Reference Frequency Oscillator specification, TTL
10 MHz in TTL
Digital Inputs
Input 1 BNC, TTL input for an external trigger source
Input 2 BNC, TTL input TX ON signal from an external reference radio. The TX ON signal must be the same
length as the RF transmission from the external WLAN radio
Digital Outputs
Output 1
BNC, TTL compatible
The user can select between one of the following:
1. The TX trigger signal from the internal reference radio
2. The trigger signal from the MT8860B when the trigger source is set to RF
3. The trigger signal from the MT8860B when the trigger source is set to Video (default setting)
Output 2
BNC, TTL compatible
The user can select between one of the following:
1. The TX trigger signal from the internal reference radio (default setting)
2. The trigger signal from the MT8860B when the trigger source is set to RF
3. The trigger signal from the MT8860B when the trigger source is set to Video
General
Power supply 85 to 264V AC
Frequency 47 to 63 Hz
Power 100 VA
Size and Weight
Dimensions 180 mm x 320 mm x 350 mm
Weight <10 kg
Operating Temperature Range +5°C to +40°C
Operating Humidity <75% non condensing
Safety Complies with BS EN 61010–1 (Equivalent to IEC 61010–1)
EMC Conforms to the protection requirements of EEC Council Directive 89/336/EEC.
ANRITSU MT8860B is a high performance, multi-port testing and validation device that is used for verification of voice, data, and video signals across wide area networks (WANs) and local area networks (LANs). It is used to simulate, measure, and analyze a wide range of protocols over a variety of network technologies such as 2G/3G/4G/5G cellular, Ethernet, SONET/SDH, PDH, OTN, DSL, Wi-Fi, UWB, and other. This helps engineer and installers to check network performance and improves overall safety and reliability. MT8860B supports multiple test configurations with up to 6 ports (4 for radio and 2 for wired), and multiple connections such as MIMO, multi-carrier, and multi-radio technologies like WLAN, WAN, and xDSL. It also offers a range of advanced measurements with near-instant speed and precision, looking for performance indicators such as jitter, throughput, Availability and Reliability, Resiliency and Load Balancing. ANRITSU MT8860B provides versatile digital protocol and RF connection testing, making it suitable for field testing and monitoring of many different types of transmitters and receivers including modems, switches, base stations, and LANs. This testing equipment can help to quickly detect and isolate sources of errors such as coding or modulation imperfection, measurement inaccuracies, or excessive interference. The MT8860 also includes other features such as 2kV ground fault detection, AWGN generation, noise measurement, and spectrum analyzer capabilities. It comes with a reliable design, intuitive user navigation, and multiple security levels to help customers maintain data privacy. MT8860B also provides advanced data capture, analysis, and reporting tools which helps to analyze customer data quickly and easily. Furthermore, it also offers built-in calibration for optimal performance and repeatability, which makes it ideal for carried and type acceptance tests. Overall, ANRITSU MT8860B is a high performance, multi-port testing and validation system that is suitable for many different types of data networks. It comes with many advanced features and capabilities, helping engineers to quickly detect and isolate sources of errors. Additionally, it also provides numerous security levels, advanced data analysis and reporting capabilities, and built-in calibration for optimal performance and repeatability.
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