Agilent N2775A Specifications Sheet

High-Speed Tester for NADC/PDC/PHS
MS8604A
Digital Mobile Radio Transmitter Tester
100 Hz to 8.5 GHz
2
Burst Modulation Accuracy Measured in Under ONE Second
3
DSP (digital signal processing) and high­speed measurement function based on a unique measurement algorithm combine to greatly reduce the time required for manu­facturing and inspecting transmitters. PTA functions enabling free programming of test procedures are provided as a standard feature.
• Major transmitter functions evaluated by single system
• Compatible with NADC/PDC/PHS systems (compatibility with single system provided as standard; optional expansion to all three systems)
• High-speed measurement (under 1 second for modulation-accuracy measurements)
• Input up to 10 W (internal 20 dB attenuator and power meter for high power levels)
• Superior operability
• I/Q signal input (option)
Fast, Accurate Measurement of
Digital Modulated Signals
A unique high-speed measurement method is available for measuring occupied band­width and leakage power of adjacent channel in addition to RCR (Research & Development Center for Radio Systems) standards and Specifications for the type approval test of the Ministry of Posts and Telecommunications of Japan. For RCR standards, a spectrum analyzer is used to determine the occupied bandwidth and leakage power of adjacent channel from the burst signal frequency spectrum. In this method, frequency sweeps must be
performed slowly to obtain an accurate burst wave spectrum, so measurement speed falls. For example, more than 10 seconds are required when measuring PDC. With Anritsu's unique measurement method, digital signal processing is used to compute the frequency components from a single burst signal waveform, and the occupied bandwidth and leakage power of adjacent channel are computed from the results. Measurement times of 2 seconds and less are possible for PDC transmitters.
Unique High-Speed Measurement Method
MS8604A
4
Evaluation of Digital Mobile Transmitters
Automated Measurement by Simple key Operations
Quick Configuration for Different Communication Systems
Measurement software for one communication system is provided as a standard feature; others can be added as options. When these options are chosen, the communication system can be selected by pressing a single key.
Measurement of Frequency, Modulation Accuracy, Signal Transmission Rate
Both absolute frequencies and deviations can be read directly. Measurement of modulation accuracy includes both vector errors within burst signals, amplitude errors, phase errors, origin offset and droop factors, and vector errors for first ten symbols immediately following startup. Ten-burst averages and signal transmission rates can also be measured.
Measurement of Antenna Power and Leakage Power during Carrier-Off
At measurement of burst signal antenna power, the power-on intervals are auto-detected based on the modulated wave, so an external synchronization trigger is not needed. In addition, the average power during power-on intervals is automatically matched to a tem­plate value, simplifying measurement automation. Any template can be set, and three types can be stored. The leakage power during carrier-off can be measured as either an absolute value or as an on/off ratio. When the carrier-off power is low, measurements can be performed in a wide-dynamic-range mode (during single-mode measurements with synchronizing word).
One-Touch Selection of Measurement Items
Measurement items can be selected by pressing a single key. The input connector (RF/IQ), maximum input power, and type of signal for measurement (uplink/downlink, number of slots per carrier, channel number/frequency, frequency steps, synchronizing words, root Nyquist filter switching) can be preset. In particular, synchronizing words can be predefined to any value. Measurement can be performed in either the single-measurement mode (one measurement performed each time key pressed), or in the automatic continuous repeat mode.
Example of burst rise characteristics (PHS)
NORMAL mode
WIDE DYNAMIC
RANGE mode
Measurement of Transmission Ramp-up and Ramp-down Power
Transmission ramp-up and ramp-down power can be measured simultaneously with antenna power measure­ments. In addition, the marker points can be moved and the marker point symbol power can be read directly.
Measurement of Leakage Power of Adjacent Channel
Users can select either a standard mode using spectrum-analyzer methods, or a high-speed mode to reduce measurement time.
Measurement of Occupied Bandwidth
Users can select either a standard mode using spectrum-analyzer methods, or a high-speed mode to reduce measurement time.
Measurement of Spurious Emissions
Up to 15 spurious measurement frequencies can be stored in one memory table and three memory tables are provided. In addition, a function is provided for automatic measurement of the highest level within a ±500 kHz range of a specified frequency. By using spectrum-analysis functions, spurious emissions can be detected over a wide frequency range.
• Measurement Times
5
Measurement item NADC PDC PHS
Frequency, modulation accuracy
#1s
(simultaneous)
approx. 9s (fixed frequencies),
Spurious emissions (15 specified) approx. 9s (fixed frequencies),
approx. 25s (search within
waves) approx. 40s (search within 6500 kHz)
6500 kHz)
Occupied bandwidth
approx. 12s (standard mode), approx. 4s (standard mode), #1s (high-speed mode) #1s (high-speed mode)
Antenna power, leakage power during carrier-off, transmission ramp-up and #1s ramp-down power (simultaneous)
Leakage power of adjacent channel #2s
approx. 13s (standard mode, approx. 5s (standard mode) #1.5s (high-speed mode) #1.5s (high-speed mode)
Signal transmission rate #3s #2s
Note: Measurement times are for continuous measurement under identical conditions and settings.
6
The modulation error can be found by connecting the I/Q vector components of symbol points.
Intervals between symbol points are smoothly interpolated for dynamic observation of the movement of I/Q vector components.
Constellation Display Function
The I/Q vector components of measured signals are displayed as symbol points. The frequency error, RMS/PEAK vector error, and origin offset can also be displayed on the same screen.
Scaled Modulation Error Display
The modulation error scale can be switched between 5%, 10% and 20%, and can be displayed for each symbol point—a useful feature when making decisions on modulation accuracy.
For High-Speed Analysis of Digital Modulated Waveforms
Convenient for Real-time Analysis of RF, IF, I/Q Signal Constellation, Evaluation and Adjustment of Modulation Circuits
7
Zone Marker
Zone marker reduce measurement time. A marker is automatically set at the signal peak just by setting the received signal in zone marker. Zone marker can be used to set the zone position and width freely.
Multimarker
The multimarker feature displays up to ten markers on the measured waveform, and simultaneously lists the frequencies and levels at the marker points. The multi­marker feature includes harmonic measurement, measurement of the highest ten points, and manual setting function. Harmonic measurement: For measurement of high harmonic spurious emissions; markers are set automat­ically at integer multiples of the carrier frequency, and the frequencies and levels at the marker points are displayed. Measurement of highest ten points: Markers are set automatically at the ten points with the highest levels on the screen, and the frequencies and levels at each of the marker points are displayed. Manual setting function: Up to ten markers can be set manually at any frequency.
Zone Sweeping
The region inside the zone marker is swept repeatedly. For example, if a zone width of 1 division is set, sweeping is 10 times faster than for a full sweep.
Full Spectrum Analysis Functions
8
Three Measurement Modes
In addition to absolute values in W and dBm, relative values are also displayed in dB.
High-Power Measurements
Antenna power up to 10 W max. (burst average power) can be measured directly using the internal high-power attenuator. This high-power attenuator is pre-calibrated, for accurate measurement of transmitter power levels.
Direct Measurement with Broadband Power Sensor
The tester has a high-performance power meter comparable to the Anritsu ML4803A. A broadband amorphous-element power sensor is coupled directly for high-precision measurement.
USER CAL FACTOR Input
When losses from connecting cables and external attenuators are input as the “USER CAL FACTOR,” displayed results are corrected by the factor. And, the burst average power can be displayed by setting a burst wave duty factor for correction.
Internal Calibration Signal
An internal 1 mW calibration signal is provided for calibrating the sensitivity of the power sensor automatically by pressing the CAL ADJUST key.
High-Precision Power-Meter Functions
Precise Measurement of Antenna Power by Power-Meter Method
9
Just pressing the TxTest key produces rapid measure­ment results by category. And spectrum-analyzer functions can be selected with the Spectrum key for signal spectrum analysis.
1
Function keys provide one-touch selection of measurement items during transmitter testing.
2
These keys select single or repeated measurements.
3
Press the TxTest key to evaluate transmitters, and the Spectrum key for spectrum analysis.
4
For hard-copying the screen display. In addition, four parameter settings can be saved and recalled.
5
Keys for entering alphanumeric characters, units and other items.
6
PMC (Plug-in Memory Card) slot
EThe save/recall function can be used to
save/recall parameter settings to/from the PMC
EPTA programs can be saved and loaded EPMCs can be written and read as data files
during PTA program execution
6
Intuitive Key Layout, Simple Operation
Separate Functions for Transmitter Tests and Spectrum Analysis
10
1 2 3 4
5
MS8604A
Digital Mobile Radio Transmitter Tester
Power Sensor
11
Measurement Software and Measurement Items
Option 11: Measurement Software for PDC (Personal Digital Cellular)
Measurement Item RCR STD-27B Type Approval Test*
1
Anritsu High-Speed
Measurement Method
Frequency deviation ✓✓ Strength of spurious emissions ✓✓✓ Occupied bandwidth ✓✓✓ Antenna power deviation ✓✓ Leakage power during carrier-off ✓✓ Transmission ramp-up and ramp-
down power Modulation accuracy Leakage power of adjacent channel ✓✓ Signal transmission rate
Option 12: Measurement software for PHS (Personal Handy Phone System)
Measurement Item RCR STD-28
Anritsu High-Speed Measurement
Method
Frequency deviation Strength of spurious emissions ✓✓ Occupied bandwidth ✓✓ Antenna power deviation Leakage power during carrier-off Transmission ramp-up and ramp-down
power Modulation accuracy Leakage power of adjacent channel ✓✓ Signal transmission rate
Option 13: Measurement software for NADC (North American Digital Cellular Systems)
Measurement Item*
2
EIA/TIA IS-55
Frequency stability Modulation accuracy Carrier switching time RF power output Adjacent and alternate channel power due to modulation Out of band power arising from switching transients Harmonic and spurious emissions Time alignment
: Measurement method for use with MS8604A —: Measurements not included in method for type approval test by the Ministry of Posts and Telecommunications of Japan *
1
: Method for type approval test by the Ministry of Posts and Telecommunications of Japan
*
2
: Items only for digital systems
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MS8604A-Based Automated Measurement Systems
The MS8604A includes PTA (Personal Test Automation) programming functions as a standard feature, PTA is a personal computer function that allows the user to simple programs to the function keys for controlling external devices and performing sophisticated measurements. PTA offers outstanding flexibility as a personal specialized automated measurement system.
Measurement with one original card
Programs written while checking the measurement procedure can be stored in the nonvolatile memory in the MS8604A or saved on the PMC (Plug-in Memory Card). A new card is made every time the user develops a new measurement function, thus making it possible to organize functions by cards. In addition to programs, measurement data and program control variables can also be stored on PMCs.
PTA Automated Measurement System
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Full-Featured Interface for Configuring Optimum System
Two-Port GP IB System
The MS8604A has two GP IB ports as standard equipment. Consequently, a PTA-automated measure­ment system can be expanded to a system controlled by a host. PTA-based distributed processing offers greater efficiency than systems in which several instruments are under the central control of a host.
Three-Port Interface
The MS8604A is available parallel I/Q interface and an optional RS-232C interface in addition to the two GP IB interface for configuring the ideal PTA-automated measurement system from numerous possible combinations.
Parallel I/O Application Examples
Measurement items
Antenna power (spectrum­analyzer method, power-meter method)
Frequency deviation (phase­trace method)
Occupied bandwidth Leakage power of adjacent channel
Spurious emissions Leakage power during carrier-off Modulation accuracy Signal transmission rate Transmit power control characteristics
I/Q Oscillator Evaluation (using option 03)
The modulation accuracy, amplitude and occupied bandwidth of an I/Q oscillator can be evaluated.
Evaluation of Transceiver Characteristics by PTA Control
Host
GB IB 1
MS8604 PTA
GB IB 2
IQ
I/Q Oscillator
GP IB 1
RS-232C or parallel I/O
Switch
Error rate
DUT
measuring equipment
Printer
Connection with Host
Power Sensor
SG
Digital modulated signal source
Parallel I/O
DUT Controller
(provided by user)
Frequency Range 100Hz to 8.5 GHz Max. Input Level
+40 dBm (10 W)
(Continuous wave average power)
Frequency: 10 MHz Starting characteristics: 5 x 10
-8
(option: 2 x 10-8, after 30 min. warm-up) *After 10 min. of warm-up,
Reference Oscillator compared to the frequency after 24 hour warm-up
Aging rate: 2 x 10
-8
/day(option: 5 x 10-9/day), 1 x 10-7/year (option: 5 x 10-8/year) *Compared to the frequency after 24-hour warm-up T emperatur e characteristics: 5 x 10-8(option: 3 x 10-8) *0˚ to 50˚C, relative to the frequency at 25˚C
Applicable Systems
NADC (option 13) PDC (option 11) PHS (option 12) Specifications below guaranteed after pressing key for optimizing internal level
Frequency range 400 kHz to 2.1 GHz 400 kHz to 2.1 GHz 10 MHz to 2.1 GHz Input level
–10 to 40 dBm (burst average power) When using the low power-input connector, measurement to levels 20 dB lower than the above values is possible.
Frequency accuracy
± (Accuracy of reference oscillator +1 Hz)
± (Accuracy of reference oscillator
+10 Hz) Modulation accuracy ± (2% of indicated value +0.5%) ± (2% of indicated value +0.7%) Origin offset accuracy ±0.5 dB to signal level of –30 dBc Transmission rate accuracy ±1 ppm Measuring range of
48.6 kbps ±100 ppm 42 kbps ±100 ppm 384 kbps ±100 ppm
transmission rate Waveform display Constellation display
1 s (except transmission rate Measurement time
1 s (except transmission rate measurement) measurement)3 s (transmission rate measurement) 2 s (transmission rate
measurement) Frequency range 10 MHz to 2.1 GHz Input level range +10 to +40 dBm (Average power of burst signal) Transmission power
±10% (using high-power input after calibration with Power Sensor MA4601A)
accuracy
Carrier-off power
Rise/fall edge characteristics Displays rising/falling edges while synchronizing modulation data of measured signal. Measurement time 1 s Impedance 50(VSWR: 1.2) Frequency range 10 MHz to 2.1 GHz Input level range +10 to +40 dBm (Average power of burst signal)
Standard mode (Spectrum analyzer mode)
High-speed mode Measurement: Displays r esults of occupied bandwidth measurement after FFT of measured signal
Measurement time: 1 s
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Specifications
Modulation/ Frequency Measure­ment
Amplitude Measure­ment
Occupied Bandwidth Measure­ment
G E N E R A L
T R A N S M
I T T E R
M E A S U R E M E N T
Measurement range in NORMAL
mode: 65 dB (T o average power of burst signal)
Average noise level in Wide dynamic
range mode: –60 dBm (100MHz
Freq. 2.1GHZ) *Measurement range is 96 dB for +36 dBm input level of average power of burst signal
Measurement:
Displays results of occupied bandwidth measurement after measuring
signal with spectrum analyzer Measurement time:
Approx. 12 s in full rate when number of data points set to NORMAL
Measurement:
Displays results of occupied band­width measurement after measuring signal with spectrum analyzer
Measurement time:
Approx. 4 s when number of data points set to NORMAL
Measurement range in NORMAL
mode: 65 dB (T o average power of burst signal)
Average noise level in Wide
dynamic range mode:
–60 dBm (100 MHz Freq. 2.1 GHz) *Measurement range is 95 dB for 3 W input level of average power of burst signal.
Measurement range in NORMAL
mode: 55 dB (T o average power of burst signal)
Average noise level in Wide
dynamic range mode: –50 dBm
(100 MHz Freq. 2.1 GHz) *Measurement range is 69 dB for 10 mW average power (Burst average power: 80 mW).
Applicable Systems NADC (option 13) PDC (option 11) PHS (option 12)
Frequency range 100 MHz to 2.1 GHz Input level range +10 to +40 dBm (Average power of burst signal)
Measurement
Measurement range
10 MHz to 8.5 GHz
10 MHz to 8.5 GHz
Frequency range
Except frequency range ±1 MHz of carrier frequency
Except frequency range ±50 MHz of carrier frequency
Input level range:
+10 to +40 dBm (Average power of burst signal)
(Transmission power)
65 dB (10 MHz to 1.7 GHz) 60 dB (10 MHz to 1.7 GHz)
Measurement range
75 dB (1.7 to 8.5 GHz) 70 dB (1.7 to 8.5 GHz) At carrier frequency range 800 MHz to 1.7 GHz At carrier frequency range 800 MHz
to 2.1 GHz
Input level range: 0.3 to 1.5 Vp-p I/Q input Input impedance: 5 k, AC/DC coupling (switchable) (option 03) Measurement items:
Modulation, Amplitude, Occupied bandwidth
Setting range: 100 Hz to 8.5 GHz (resolution: 1 Hz), 0 to 2 GHz (freq. band: 0)
1.7 to 7.5 GHz (freq. band: 1 –), 6.5 to 8.5 GHz (freq. band 1 +) Preselector range: 1.7 to 8.5 GHz (bands: 1–/1+) Display accuracy: ± (Displayed freq. x Reference freq. accuracy +Span x Span Accuracy) Span: Setting range: 0 Hz, 100 Hz to 8.5 GHz
Frequency
Accuracy: ±2.5% (Span 1 kHz), ±5% (100 Hz Span < 1 kHz) RBW: Setting range: 10 Hz to 3 MHz (3 dB), 1-3 sequence Accuracy: ±20% Selectivity (60/3 dB), 15:1 (100 kHz to 3 MHz), 12:1 (10 Hz to 30 kHz) VBW: 1 Hz to 3 MHz, Off, 1-3 sequence Signal purity (SSB, 1 MHz to 4 GHz): –100 dBc/Hz (10 kHz offset), –115 dBc/Hz (50 kHz offset),
–120 dBc/Hz (100 kHz offset)
Level measuring range: Average noise level to +40 dBm
Level measurement Average noise level: –112 dBm (10 MHz to 8.5 GHz, RBW 10 Hz, VBW 1 Hz, Input att. setting 20 dB)
Residual response: –75 dBm (1 MHz to 8.5 GHz, Input att. setting 20 dB) Setting range: -80 to +40 dBm
Accuracy: ±0.5 dB (–30 to +20 dBm), ±0.75 dB (–40 to –30 dBm, +20 to +40 dBm),
±1.5 dB (–60 to –40 dBm)
After calibration and at Freq. 100 MHz, Span 2 MHz, and in Auto mode for Input att, RBW, VBW and Sweep time
Amplitude
Reference level
settings RBW switching error (after calibration): ±0.3 dB (RBW: 300 kHz), ±0.7 dB (RBW: 1 MHz) LOG/LIN switching error: ±0.3 dB (after calibration) Input attenuator: Setting range: 20 to 75 dB in 5 dB steps Switching error: ±0.3 dB (referred to input att. 30 dB, at 100 MHz)
Frequency response
±0.5 dB (100 MHz to 2 GHz, band: 0), ±1 dB (1.7 to 8.5 GHz, bands: 1–/1+) *Referred to at 100 MHz, Input att. 30 dB, temperature 18˚ to 28˚C (after tuning Preselector at bands 1–/1+)
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T R A
N
S
M
I T T E R
M
E A S
U
R E
M
E
N
T
S P E
C
T R
U M
A
N
A L Y Z E R
High speed mode:
30 dB (30 kHz offset)60 dB (60 kHz offset)65 dB (90 kHz offset)
*Ratio of average power of burst
signal to average value of leakage power of adjacent channel at burst­on time
Standard mode:
60 dB (50 kHz offset)65 dB (100 kHz offset)
High-speed mode:
60 dB (50 kHz offset)65 dB (100 kHz offset)
*In High-speed mode, ratio of
average power of burst signal to average value of leakage power of adjacent channel at burst on time
Standard mode:
60 dB (600 kHz offset)60 dB (900 kHz offset)
High-speed mode:
60 dB (600 kHz offset)65 dB (900 kHz offset)
*In High-speed mode, ratio of
average power of burst signal to average value of leakage power of adjacent channel at burst on time
Spectrum analyzer mode:
Displays results of leakage power of adjacent channel measurement after measuring signal with spectrum analyzer
Measurement time:
Approx. 13 s in full rate when number of data points set to Normal
High-speed mode:
Displays results of leakage power of adjacent channel measured after passing signal through internal root-Nyquist filter
Measurement time: 2 s
Standard mode:
Displays results of leakage power of adjacent channel measurement after measuring signal with spectrum analyzer
Measurement time:
Approx. 13 s in full rate when number of data points set to Normal in All mode
High-speed mode:
Displays results of leakage power of adjacent channel measured after passing signal through internal root-Nyquist filter
Measurement time: 1.5 s
Standard mode:
Displays results of leakage power of adjacent channel measurement after measuring signal with spectrum analyzer
Measurement time:
Approx. 5 s when number of data points set to Normal in All mode
High-speed mode:
Displays results of leakage power of adjacent channel measured after passing signal through internal root-Nyquist filter
Measurement time: 1.5 s
Leakage Power of Adjacent Channel Measure­ment
Spurious Measure­ment
External control
PTA
16
NADC (option 13) PDC (option 11) PHS (option 12) LOG: ±0.3 (0 to -20 dB, RBW: 1 MHz), ±1 dB (0 to –60 dB, RBW: 100 kHz),
±1.5 dB (0 to -80 dB, RBW: 10 kHz)
LIN: ±5% (to refer ence level) 2nd harmonics:
–70 dBc (5 to 800 MHz, band: 0, mixer input level: –30 dBm)–80 dBc (800 to 850 MHz, band: 0, mixer input level: –30 dBm)–90 dBc (850 MHz to 2.1 GHz, bands: 1–/1+, mixer input level: –10 dBm)
Two-single thir d-order intermodulation distortion: –70 dBc (10 to 50 MHz), –85 dBc (50 MHz to 2.1 GHz), *Frequency difference between two signals 50 kHz, mixer input level –30 dBm
Image response: –70 dBc Multiple-response: –70 dBc (bands: 1–/1+)
Sweep time: Setting range: 20 ms to 1000 s (TRACE-FREQ., Data points: NORMAL), 50 ms to 1000 s at other conditions Accuracy: ±10% (20 ms to 200 s), ±15% (200 to 1000 s) Sweep mode: CONTINUOUS, SINGLE Trigger: FREE RUN, TRIGGERED Trigger source: VIDEO, LINE, EXT (±10 V), EXT (TTL) Gate mode (OFF, Random sweep mode): GATE DELAY: 0 to 65.5 ms (in 1 µs steps, GATE END: INT) GATE END: INT/EXT
Sweep time: 50, 100 to 900 µs (Data point: NORMAL, One most significant digit can be set.) 1 ms to 1000 s (Data point: NORMAL, two most significant digits can be set.) 100, 200 to 800 µs (Data point: DOUBLE, One most significant digit can be set as even number.) 1 ms to 1000 s (Data point: DOUBLE, Two most significant digits can be set as even number Delay time: Pre-trigger: -time span to 0 s (in 1-point steps) Post trigger: 0 to 65.5 ms (in 1 µs steps) Amplitude display resolution: 50 µs to 49 ms, 10 bits (0.1% of full scale) 50 ms to 1000 s, 14 bits (0.01% of full scale)
POS PEAK, SAMPLE, NEG PEAK NORMAL: 501 points, DOUBLE: 1002 points Demodulated waveform display and monitoring demodulated audio signal with internal speaker IF output 21.4 MHz: –10 dBm ±2 dB (at top of screen, with output terminated by 50terminator.)
Y output: 0 to 0.5 V ±0.1 V (at range between top and bottom of screen, LOG: 10 dB/div., LIN: 10% div.,
100 MHz and with output terminated by 75terminator), BNC connector
External trigger input: Input 1; Max. ±10 V (in 0.1 V steps, rising/falling edge, selectable and pulse width 10 µs), BNC connector
Input 2; TTL level (Rising/falling edges, selectable and pulse width 10 µs), BNC connector 100 kHz to 5.5 GHz –20 to +20 dBm ±0.5% ±0.5% of full scale at most sensitive range (100 µW range) ±0.2% of full scale after zero setting at most sensitive range Freq.: 50 MHz, Out: 1.00 mW, Accuracy ±1.2% MA4601A 640 x 400-dot, 9-inch EL Reference input: 10 MHz ±10 Hz, 2 to 5 Vp-p, 50, BNC connector
Reference buffer output: 10 MHz, 2 to 3 Vp-p (with the output terminated by a 200terminator), BNC connector Separate video output: Compatible with 8-pin DIN connector
One slot can be connected. Internal memory (4 sets of spectrum and Tx test conditions),
Can save/recall setting conditions at external memory (PMC) Can hard-copy screen via GP IB2 As device controlled by host, all functions except power switch
Control other instruments as controller using PTA SH1, AH1, T6, L4, SR1, RL1, PPO, DC1, DT1, CO (C1, C2, C3 and C24 with PTA)
Control other instruments as controller SH1, AH1, T6, L4, SR1, RL1, PPO, DCO, DTO, C1, C2, C3, C4, C28
Output port A/B: 8-bit (TTL level), Input/Output port C/D: 4-bit (TTL level), Exclusive port: 3-bit (TTL level) Control signal: 4 (TTL level), +5V output: max. 50mA
Control other instruments as controller PTL: High level language interpreter based on BASIC Using external keyboard On PMC or FD
Upload/Download from/to PC 900 Kbytes 0˚ to 50˚C 85 to 132/170 to 250 Vac, 47.5 to 63 Hz, 500 VA
221.5 H x 426 W x 451 D mm, < 27 kg EN55011: 1991, Group 1, Class A
EN50082-1: 1992
Amplitude
Linearity (after calibration)
Dynamic range
Spurious
Sweep
Time domain waveform display
Detection mode Number of points AM/FM demodulation
Auxiliary inputs/outputs
GP IB 1 (IEEE 488.2)
GP IB 2 (IEEE 488.1)
I/O port RS-232C (option 02)
Language Programming
Program memory Programming capacity
S P
E
C
T R U M
A N A
L Y
Z
E R
P O W
E R
M
E
T
E R
O
T H
E R S
Applicable System
Frequency range Level range Instrumentation accuracy Zero set Zero shift between ranges Calibration oscillator Applicable Power Sensor Display
Inputs/outputs on rear panel
External memory Save/recall
Direct plotting
Operating Temperature Power Dimensions and mass
EMC*
1
*1EMC : Electromagnetic Compatibility
Model/Order No. Name Remarks
Main frame
MS8604A Digital Mobile Radio Transmitter Tester
Standard Accessories
J0114A Coaxial cord, 1m: 1pc. UG-21D/U•RG-9A/U•UG-21D/U J0017F Power cord, 2.5m: 1 pc. P0005 PMC: 1 pc. BS32F1-C-172, 32 Kbytes MA4601A Power Sensor: 1 pc. 100 kHz to 5.5 GHz, -30 to +20 dBm J0370N Power Sensor Connector Cable, 0.5m 1 pc. F0014 Fuse, 6.3A: 2pcs. T6.3A250V W0682AE MS8604A Operation Manual: 1 pc.
Options
MS8604A-01 Reference quartz oscillator Aging rate: 5 x 10
-9
/day MS8604A-02 RS-232C Interface (for external control) MS8604A-03 I/Q input MS8604A-11 Measurement software Ver.3 (PDC) MS8604A-12 Measurement software Ver.3 (PHS) MS8604A-13 Measurement software Ver.3 (NADC) MS8604A-14 Measurement software Ver.2 (Digital MCA)
Added to the MS8604A firmware at the factory
MS8604A-15 Measurement software Ver.2 (GMSK) MS8604A-16 Measurement software (π/4 DQPSK) W0722AE Measurement software operation manual Supplied with Option 14 W0876AE Measurement software operation manual Supplied with Option 15 W0973AE Measurement software operation manual Supplied with Option 16 Z0251A MS8604A service kit
Application software Supplied with PMC (Plug-in Memory Card) MX3512A π/4 DQPSK Analysis Software For MS8604A-11/12/13 MX3513A Digital MCA Analysis Software For MS8604A-14 MX3518A GSM Application Software For MS8604A-15 MX3519A DECT Application Software For MS8604A-15 MX3520A CT2 Application Software For MS8604A-15
Peripheral Equipment and Parts
MC3305A JIS type PTA keyboard MC3306A ASCII type PTA keyboard VP-870 Printer with GP-IB (EPSON product) J0007 GP IB Cable, 1m 408JE-101 J0008 GP IB Cable, 2m 408JE-102 P0006 PMC, 64 KB BS64F1-C-173 P0007 PMC, 128 KB BS128F1-C-174 P0008 PMC, 256 KB BS256F1-C-1175 P0009 PMC, 512 KB BS512F1-C-1176 MA4001A Range Calibrator MN1607A 50Coaxial Switch DC to 3 GHz, 50(externally controlled) MP59B 50Coaxial Switch DC to 3 GHz, 50 MP640A Branch DC to 1.7 GHz, 40 dB MP654A Directional Coupler 0.8 to 3 GHz, 30 dB MP520C CM Directional Coupler 25 to 500 MHz, 50, N type J0395 Fixed Attenuator for high-power 30 dB, 30W, DC to 8 GHz J0055 Coaxial Adapter NC-P•BNC-J 562 DC Block 10 MHz to 12.4 GHz (NARDA product) B0329D Protective Cover B0331D Front Handle Kit 2 pcs/set B0332 Joint Plates 4 pcs/set B0333D Rack Mount Kit B0334D Hard Carrying Case with protective cover casters
Please specify the Model/Order No., names, and quantities when ordering.
}
17
Ordering Information
ANRITSU CORPORATION
5-10-27, Minamiazabu, Minato-ku, Tokyo 106-8570, Japan Phone: +81- 3-3446-1111 Telex: J34372 Fax: +81-3-3442-0235
Overseas Subsidiaries
U.S.A. ANRITSU COMPANY North American Region Headquarters
1155 East Collins Blvd., Richardson, Tx 75081, U.S.A. Phone: +1-972-644-1777 Fax: +1- 972-644 -3416
Canada ANRITSU ELECTRONICS LTD.
Unit 102, 215 Stafford Road West Nepean, Ontario K2H 9C1, Canada Phone: +1-613-828-4090 Fax: +1- 613-828 -5400
Brasil ANRITSU ELETRÔNICA LTDA.
Praia de Botafogo 440, Sala 2401 CEP 22250-040, Rio de Janeiro, RJ, Brasil Phone: +55-21-5276922 Fax: +55-21-537-1456
U.K. ANRITSU LTD.
200 Capability Green, Luton, Bedfordshire LU1 3LU, U.K. Phone: +44-1582-433200 Fax: +44-1582-731303
Germany
ANRITSU GmbH
Grafenberger Allee 54-56, 40237 Düsseldorf 1, Germany Phone: +49- 211- 96855-0 Fax: +49-211-96855-55
France
ANRITSU S.A.
9, Avenue du Québec Z.A. de Courtabœuf 91951 Les Ulis Cedex, France Phone: +33- 1 -60-92-15-50 Fax: +33-1-64-46-10-65
Italy
ANRITSU S.p.A.
Via Elio Vittorini, 129, 00144 Roma EUR, Italy Phone: +39- 06 -502-26-66 Fax: +39-06-502-24-25
Sweden
ANRITSU AB
Botvid Center, Fittja Backe 1-3 145 84 Stockholm, Sweden Phone: +46- 853470700 Fax: +46-853470730
Singapore
ANRITSU PTE LTD.
6, New Industrial Rd., #06-01/02, Hoe Huat Industrial Building, Singapore 536199 Phone: +65- 282-2400 Fax: +65-282-2533
Hong Kong
ANRITSU COMPANY LTD.
Suite 719, 7/F., Chinachem Golden Plaza, 77 Mody Road, Tsimshatsui East, Kowloon, Hong Kong, China Phone: +852-2301-4980 Fax: +852-2301-3545
Korea
ANRITSU CORPORATION
14F Hyun Juk Bldg. 832-41, Yeoksam-dong, Kangnam-ku, Seoul, Korea Phone: +82-2-553-6603 Fax: +82-2-553-6604
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5
Australia
ANRITSU PTY LTD.
Unit 3/170 Forster Road Mt. Waverley, Victoria, 3149, Australia Phone: +61-3-9558-8177 Fax: +61-3-9558-8255
Taiwan
ANRITSU COMPANY INC.
6F, 96, Sec. 3, Chien Kou North Rd. Taipei, Taiwan, R.O.C. Phone: +886-2-2515-6050 Fax: +886-2-2509-5519
Specifications are subject to change without notice.
Catalog No. MS8604A-E-A- 1-(2.00) Printed in Japan 1999-10 20KL/O
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