Do not connect or disconnect probes or test leads while they are connected to a voltage source. Use only insulated voltage probes, test leads, and adapters supplied with the product, or indicated by Tektronix to be suitable for the product.
Be sure your work area meets applicable ergonomic standards. Consult with an ergonomics professional to avoid stress injuries. Use only the Tektronix rackmount hardware specified for this product. Service safety summary The Service safety summary section contains additional information required to safely perform service on the product. Only qualified personnel should perform service procedures.
(This symbol may also be used to refer the user to ratings in the manual.) The following symbol(s) may appear on the product: RSA306B Specifications and Performance Verification...
The SignalVu-PC software version must be version 3.11.0x or greater. Purpose This manual lists the electrical, mechanical, and environmental specifications, and the certification and compliance statements for the Tektronix RSA306B USB Spectrum Analyzer. Also provided are procedures for verifying the performance of the instrument. Documentation The following table lists some of the documentation that is available for this product.
The instrument must have been operating for a warm-up period of at least for 30 minutes (after being connected to the PC, starting the SignalVu-PC application, and SignalVu-PC is connected to the RSA306B instrument and continuously acquiring data).
Maximum RF input operating The maximum level at the RF input for which the instrument will meet its level measurement specifications. Center frequency < 22 MHz +15 dBm Center frequency ≥ 22 MHz +20 dBm RSA306B Specifications and Performance Verification...
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Humidity Error (4 GHz, 21.8 g/ m3) = -0.62 dB P-TYP-S95 error from table = +1, -1 dB Sum of table plus hum. error= (1-0.62)=0.38 dB, (-1-0.62)= -1.62 dB Worst case amplitude error = +1 dB, -1.62 dB RSA306B Specifications and Performance Verification...
<–80 dBm, Center Frequency 3895 -3945 MHz <–85 dBm, Center Frequency 4780-4810 MHz Input related spurious response Conditions: 18 °C to 28 °C, auto settings on, reference level -30 dBm, input (SFDR) amplitude at or below reference level. RSA306B Specifications and Performance Verification...
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RFx2LO: ≤ –25 dBc for 4800 MHz – 5150 MHz center frequency, typical ≤ –40 dBc for 5150 MHz – 5800 MHz center frequency, typical RFx3LO: ≤ –40 dBc for 4150 MHz – 4250 MHz center frequency, typical RSA306B Specifications and Performance Verification...
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< –60 dBc, 300 MHz to 3.1 GHz, reference level = 0 dBm < –50 dBc, 10 MHz to 1850 MHz, and 2330 MHz to 3100 MHz, reference level = –40 dBm < –45 dBc , 1850 MHz to 2330 MHz, reference level = –40 dBm RSA306B Specifications and Performance Verification...
≤ 10,000 per second (span independent) Due to the nondeterministic execution time of programs running under Microsoft Windows OS, this specification may not be met when the host PC is heavily loaded with other processing tasks RSA306B Specifications and Performance Verification...
Transit drop, nonoperating Per MIL-PRF-28800F Class 2 nonoperating: Transit drops onto six faces and four corners of the equipment, from a height of 30 cm (11.8 in.) for a total of 10 impacts RSA306B Specifications and Performance Verification...
The instrument must be completely assembled and covers installed per factory specification. The instrument must have been operating for a warm-up period of at least for 30 minutes (after being connected to the PC, starting the SignalVu-PC application, and SignalVu-PC is connected to the RSA306B instrument and continuously acquiring data).
Performance verification Required equipment These procedures use external, traceable signal sources to directly check warranted characteristics. The following table lists the equipment required for this procedure. Table 2: RSA306B required test equipment Item Description Model Number Purpose Desktop or Laptop PC...
Do these steps before starting the performance verification procedures. Warm up the instrument 1. Connect the RSA306B USB cable to the host PC. The LED on the RSA306B should initially glow red then turn green after a few moments. 2. Make sure the SignalVu-PC application is connected to the RSA306B over USB.
2. Set the signal generator to output a 0 dBm, 1 GHz CW frequency. 3. Reset the RSA306B to factory defaults: (Presets > Main) (The center frequency will be set to 1 GHz via Preset.) 4. Set the frequency span to 10 kHz.
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0 to 3 months ±1 ppm ±0.5 ppm 3 to 6 months ±2 ppm ±0.8 ppm 6 to 12 months ±3 ppm ±1 ppm 1 year to 2 years ±4 ppm ±2 ppm RSA306B Specifications and Performance Verification...
This check is a functional check. It is an important check for customer use, but does not check warranted specification limits. 1. Connect a signal generator RF output to the N-connector Ref input of the RSA306B, as shown. The signal generator accuracy must be better than ±0.05 ppm.
For 1 MHz ≤ CF ≤ 30 MHz, RBW = 10 kHz For CF > 30 MHz, RBW = 100 kHz 5. Set the signal generator output amplitude to +12 dBm. The RF amplitude at the power sensor and RSA306B input = +6 dBm nominal.
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Performance verification 8. On the RSA306B, peak the marker on the signal at the center frequency; measure and record the amplitude. 9. Measure and record the power meter amplitude. 10. Repeat steps 6 through 8 for all of the +20 dBm reference level frequencies in the table, measuring power meter amplitude and RSA306B amplitude.
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5.701 GHz 5.804 GHz 5.806 GHz 6.200 GHz Table 6: Amplitude accuracy, 0 dBm reference level measurements Center/signal RSA306B reading, Power meter value, Error (RSA306B – frequency Pwr meter), dB 9 kHz 20 kHz 50 kHz RSA306B Specifications and Performance Verification...
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3 GHz to 6.2 GHz ±1.65 dB 0 dBm 9 kHz to ±1.2 dB 2.701 GHz ±1.65 dB 3 GHz to 6.2 GHz -13 dBm 9 kHz to ±1.2 dB 2.701 GHz 3 GHz to 6.2 GHz ±1.65 dB RSA306B Specifications and Performance Verification...
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Performance verification Table 9: Amplitude accuracy results (cont.) Frequency Maximum Maximum Reference level range +error –error Specification -30 dBm 9 kHz to ±1.2 dB 2.701 GHz 3 GHz to 6.2 GHz ±1.65 dB RSA306B Specifications and Performance Verification...
7. Record the power meter reading in the 2 MHz – 42 MHz channel flatness table. (See Table 10.) 8. On the RSA306B, position the marker on the peak amplitude of the signal; record the amplitude in the channel flatness table.
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17. Repeat steps 5 through 8 to measure and record for all the frequencies in the channel flatness table, 2140 MHz through 2180 MHz. (See Table 12.) Do not change the RSA306B center frequency setting. An alternate IF setting is used in this range.
Turn on marker (Markers > Define Markers > Add) 6. Set the RSA306B to each of the center frequencies listed in the DANL frequencies of interest table. (See Table 13 on page 32.) After averaging is completed, move the marker near the center screen to the baseline noise on either side of the center screen spurious.
Connect the signal generator and RSA306B as shown in the following figure. 1. Reset the RSA306B to factory defaults (Presets > Main). 2. Run the RSA306B alignment procedure (Tools > Alignments > Align Now). Note: the Center frequency should be 1 GHz.
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After averaging is completed, enter the raw noise amplitude in dBm/Hz in the measurement table. (See Table 14.) g. Calculate and record Phase noise, the difference of CW amplitude in 100 Hz filter and noise measured with the POWER marker.(See Table 14.) RSA306B Specifications and Performance Verification...
4. Set one RF signal generator frequency to 2.1295 GHz. Set the second RF signal generator frequency to 2.1305 GHz. 5. Set each of the RF signal generators to provide a power level of –20 dBm each at the RSA306B. The initial generator amplitude setting is should be -13 dBm, and the amplitude is fine-tuned as follows:...
5. Set the signal generator frequency to 21 MHz. 6. Set the signal generator output level for –30 dBm on the power meter. This amplitude is also at the RSA306B input (the signal generator setting will be near –24 dBm).
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19. Set the signal generator amplitude for –30 dBm on the power meter. This amplitude is also at the RSA306B input. 20. Set the RSA306B marker on the image spur seen at 120.2 MHz, at left edge of the span. Record the amplitude in the ADC measurements table.
5. Set the signal generator frequency to 1.0 GHz. 6. Set the signal generator for –30 dBm at the power meter and RSA306B input. Monitor and set the signal generator amplitude to -30 dBm at the power meter when changing frequency settings during this test.
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11. Calculate the difference between the image amplitude and the CW amplitude. This is the image spur magnitude in dBc. 12. Set the signal generator frequency to 2 GHz. 13. Set the RSA306B center frequency to 2 GHz. 14. Measure the CW amplitude at 2 GHz and note it in the second converter image measurements table. (See Table 17.) 15.
5. Set the signal generator output for –30 dBm at the power meter and RSA306B input. 6. Set the RSA306B to the Center frequency shown in the First converter images table. (See Table 18 on page 44.) 7. Set the signal generator frequency to the Image frequency value in the table.
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If the spur seen on screen is a residual, it will still be present with the input to the signal analyzer terminated in 50 Ω. Residual spurs are subject to separate specification limits. Table 18: First converter images: RSA306B and signal generator settings Specification, dBc...
5. Set the signal generator to 1190 MHz. 6. Set the signal generator for –30 dBm at the power meter. This is also the amplitude at the input of the RSA306B. The generator amplitude will be close to –24 dBm.
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12. Set the signal generator to 2440 MHz. 13. Set the signal generator for -30 dBm at the power meter. This is also the amplitude at the input of the RSA306B. The generator amplitude will be close to -24 dBm.
–24 dBm. 6. Set the RSA306B to the center frequency shown in the first column of the RF X 2LO table. (See Table 21 on page 48.) 7. Set the signal generator to the frequency shown in the second column of the RF X 2LO table.
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–30 dBm at the power meter for each frequency change. 12. Record results in the Test record. NOTE. This table includes the worst RF X 2LO spurs observed on the RSA306B. Table 21: RF X 2LO: RSA306B and signal generator frequencies Specification, dBc...
-24 dBm. 6. Set the RSA306B to the center frequency shown in the first column of the RF X 3LO table. (See Table 22 on page 50.) 7. Set the signal generator to the frequency shown in the second column of the RF X 3LO table.
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–30 dBm at the power meter for each frequency change. 12. Record results in the Test record. NOTE. This table includes the worst RF X 3LO spurs observed on the RSA306B. Table 22: RF X 3LO: RSA306B and signal generator frequencies Specification, dBc...
NOTE. The 2RF X 2LO specification applies when the second harmonic distortion of the signal at the input of the RSA306B is less than -60 dBc. A band pass filter or low pass filter is used to attenuate the second harmonic distortion of the generator.
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9. Adjust the tunable filter for maximum power on the power meter. 10. Set the signal generator output to –30 dBm at the power meter. This is also the amplitude at the input of the RSA306B. The generator amplitude will be close to –23 dBm.
Performance verification Test record Print out the following test record pages and use them to record the performance test results for the RSA306B spectrum analyzer. Table 24: Test record: RSA306B Instrument Serial Number: Certificate Number: Temperature: RH %: Date of Calibration:...
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< –84 dBc/Hz 10 kHz < –84 dBc/Hz 100 kHz < –88 dBc/Hz 1 MHz < –118 dBc/Hz Third Order intermodulation distortion at 2130 MHz center frequency Test Measurement Specification, dBc Pass/Fail < –63 dBc RSA306B Specifications and Performance Verification...
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