THE MATERIAL CONTAINED IN THIS DOCUMENT IS PROVIDED "AS IS," AND IS
SUBJECT TO BEING CHANGED, WITHOUT NOTICE, IN FUTURE EDITIONS. FURTHER, TO THE MAXIMUM EXTENT PERMITTED BY APPLICABLE LAW, AGILENT
DISCLAIMS ALL WARRANTIES, EITHER EXPRESS OR IMPLIED WITH REGARD TO
THIS MANUAL AND ANY INFORMATION CONTAINED HEREIN, INCLUDING BUT
NOT LIMITED TO THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE. AGILENT SHALL NOT BE LIABLE FOR
ERRORS OR FOR INCIDENTAL OR CONSEQUENTIAL DAMAGES IN CONNECTION
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SEPARATE WRITTEN AGREEMENT WITH WARRANTY TERMS COVERING THE
MATERIAL IN THIS DOCUMENT THAT CONFLICT WITH THESE TERMS, THE WARRANTY TERMS IN THE SEPARATE AGREEMENT WILL CONTROL.
DFARS/Restricted Rights Notice
If software is for use in the performance of a U.S. Government prime contract or
subcontract, Software is delivered and licensed as “Commercial computer software” as
defined in DFAR 252.227-7014 (June 1995), or as a “commercial item” as defined in FAR
2.101(a) or as “Restricted computer software” as defined in FAR 52.227-19 (June 1987) or
any equivalent agency regulation or contract clause. Use, duplication or disclosure of
Software is subject to Agilent Technologies’ standard commercial license terms, and
non-DOD Departments and Agencies of the U.S. Government will receive no greater than
Restricted Rights as defined in FAR 52.227-19(c)(1-2) (June 1987). U.S. Government users
will receive no greater than Limited Rights as defined in FAR 52.227-14 (June 1987) or
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Documentation Warranty
THE MATERIAL CONTAINED IN THIS DOCUMENT IS PROVIDED "AS IS," AND IS SUBJECT
TO BEING CHANGED, WITHOUT NOTICE, IN FUTURE EDITIONS. FURTHER, TO THE
MAXIMUM EXTENT PERMITTED BY APPLICABLE LAW, AGILENT DISCLAIMS ALL
WARRANTIES, EITHER EXPRESS OR IMPLIED WITH REGARD TO THIS MANUAL AND ANY
INFORMATION CONTAINED HEREIN, INCLUDING BUT NOT LIMITED TO THE IMPLIED
WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE.
AGILENT SHALL NOT BE LIABLE FOR ERRORS OR FOR INCIDENTAL OR
CONSEQUENTIAL DAMAGES IN CONNECTION WITH THE FURNISHING, USE, OR
PERFORMANCE OF THIS DOCUMENT OR ANY INFORMATION CONTAINED HEREIN.
SHOULD AGILENT AND THE USER HAVE A SEPARATE WRITTEN AGREEMENT WITH
WARRANTY TERMS COVERING THE MATERIAL IN THIS DOCUMENT THAT CONFLICT
WITH THESE TERMS, THE WARRANTY TERMS IN THE SEPARATE AGREEMENT WILL
CONTROL.
DFARS/Restricted Rights Notice
If software is for use in the performance of a U.S. Government prime contract or subcontract,
Software is delivered and licensed as “Commercial computer software” as defined in DFAR
252.227-7014 (June 1995), or as a “commercial item” as defined in FAR 2.101(a) or as
“Restricted computer software” as defined in FAR 52.227-19 (June 1987) or any equivalent
agency regulation or contract clause. Use, duplication or disclosure of Software is subject to
Agilent Technologies’ standard commercial license terms, and non-DOD Departments and
Agencies of the U.S. Government will receive no greater than Restricted Rights as defined in
FAR 52.227-19(c)(1-2) (June 1987). U.S. Government users will receive no greater than Limited
Rights as defined in FAR 52.227-14 (June 1987) or DFAR 252.227-7015 (b)(2) (November 1995),
as applicable in any technical data.
Test Set Block Diagrams .................................................................. 83
3
This is a complete list of the technical specifications for the N5242A PNA-X network analyzer with
the following options:
Option 200, 2-port standard test set (includes six front-panel access loops) and power range.
See the block diagram
Option 219, adds 2-port extended power range, source and receiver attenuators, and bias-tees
(requires Option 200). See the block diagram
Option 224, adds an internal second source, a combiner, and mechanical switches to the 2-port
analyzer (requires Option 200, 219, and 080). See the block diagram
Option 400, 4-port standard test set (includes twelve front-panel access loops), power range, and
an internal second source (Option 080 recommended). See the block diagram
Option 419, adds 4-port extended power range, source and receiver attenuators, and bias-tees
(requires Option 400). See the block diagram
Option 423, adds an internal combiner, and mechanical switches to the 4-port analyzer (requires
Option 400, 419, and 080). See the block diagram
Note
This document provides technical specifications for the 85052B calibration kit, the N4433A 4-Port
ECal module, and the N4691B 2-Port ECal module.Please download our free Uncertainty
Calculator from http://www.agilent.com/find/na_calculator to generate the curves for your
calibration kit and PNA setup.
.
.
.
.
.
.
Definitions
All specifications and characteristics apply over a 25 °C ±5 °C range (unless otherwise stated)
and 90 minutes after the instrument has been turned on.
Specification (spec.): Warranted performance. Specifications include guardbands to account for
the expected statistical performance distribution, measurement uncertainties, and changes in
performance due to environmental conditions.
Characteristic (char.): A performance parameter that the product is expected to meet before it
leaves the factory, but that is not verified in the field and is not covered by the product warranty. A
characteristic includes the same guardbands as a specification.
Typical (typ.): Expected performance of an average unit which does not include guardbands. It is
not covered by the product warranty.
Nominal (nom.): A general, descriptive term that does not imply a level of performance. It is not
covered by the product warranty.
Calibration: The process of measuring known standards to characterize a network analyzer's
systematic (repeatable) errors.
Corrected (residual): Indicates performance after error correction (calibration). It is determined
by the quality of calibration s tandards and ho w well "known" they are, plus system repeatabili t y,
stability, and noise.
Uncorrected (raw): Indicates instrument performance without error correction. The uncorrected
performance affects the stability of a calibration.
Standard: When referring to the analyzer, this includes no options unless noted otherwise.
4
Corrected System Performance
The specifications in this section apply for measurements made with the N5242A analyzer with
the following conditions:
• 10 Hz IF bandwidth
• No averaging applied to data
• Isolation calibration with an averaging factor of 8
Table 1a. System Dynamic Range at Test Port
1
Option 200 or 400
Description Specification (dB) at Test Port Typical (dB) at Test Port
Port 1 or 32 Port 2 or 42 Port 1 or 32 Port 2 or 42
10 MHz to 50 MHz3 93 93 106 104
50 MHz to 100 MHz3 103 103 116 115
100 MHz to 500 MHz3 117 117 131 130
500 MHz to 3.2 GHz 124 127 130 135
3.2 GHz to 10 GHz 127 127 137 136
10 GHz to 16 GHz 127 127 134 133
16 GHz to 20 GHz 127 124 133 129
20 GHz to 24 GHz 122 117 130 126
24 GHz to 26.5 GHz 112 109 124 120
1. The system dynamic range is calculated as the difference between the noise floor and the
specified source maximum output power. The effective dynamic range must take
measurement uncertainties and interfering signals into account.
2. Either port can be used as the source port. Any other port can be used as the receiver port.
3. May typically be degraded at particular frequencies below 500 MHz due to spurious receiver
residuals.
5
Table 1b. System Dynamic Range at Test Port
1
Option 219 or 419
Description Specification (dB) at Test Port Typical (dB) at Test Port
Port 1 or
2
3
Port 2 or 4
2
Port 1 or 32 Port 2 or 42
10 MHz to 50 MHz3 93 93 106 104
50 MHz to 100 MHz3 103 103 115 114
100 MHz to 500 MHz3 117 117 130 129
500 MHz to 3.2 GHz 124 127 130 135
3.2 GHz to 10 GHz 127 127 135 134
10 GHz to 16 GHz 126 125 132 131
16 GHz to 20 GHz 124 122 130 127
20 GHz to 24 GHz 118 117 127 124
24 GHz to 26.5 GHz 110 106 121 117
1
The system dynamic range is calculated as the difference between the noise floor and the
specified source maximum output power. The effective dynamic range must take measurement
uncertainties and interfering signals into account.
2
Either port can be used as the source port. Any other port can be used as the receiver port.
3
May typically be degraded at particular frequencies below 500 MHz due to spurious receiver
residuals.
6
Table 1c. System Dynamic Range at Test Port
1
Option 224
Description Specification (dB) at Test Port Typical (dB) at Test Port
Source 2,
Out 1
Source 2,
Out 2
Source 2,
Out 1
Source 2,
Out 2
10 MHz to 50 MHz2 98 93 108 105
50 MHz to 100 MHz2 108 107 117 116
100 MHz to 500 MHz2 122 121 132 131
500 MHz to 3.2 GHz 128 128 134 136
3.2 GHz to 10 GHz 132 132 139 139
10 GHz to 16 GHz 130 130 138 137
16 GHz to 20 GHz 129 127 136 134
20 GHz to 24 GHz 123 122 133 132
24 GHz to 26.5 GHz 114 112 127 124
1
The system dynamic range is calculated as the difference between the noise floor and the
specified source maximum output power. The effective dynamic range must take measurement
uncertainties and interfering signals into account.
2
May typically be degraded at particular frequencies below 500 MHz due to spurious receiver
residuals.
7
Table 1d. System Dynamic Range at Test Port
Option 224 or 423
1
Description Specification
Typical (dB) at Test Port
(dB) at Test Port
Port 1
or 3
Port 2
2
or 42
Port 1
or 32
Port 2
or 42
Source 1, Port
1 Combine
Mode
Source 2, Port
1 Combine
Mode
10 MHz to 50 MHz3 93 93 106 104 104 80
50 MHz to 100
The system dynamic range is calculated as the difference between the noise floor and the
specified source maximum output power. The effective dynamic range must take measurement
uncertainties and interfering signals into account.
2
Either port can be used as the source port. Any other port can be used as the receiver port.
3
May typically be degraded at particular frequencies below 500 MHz due to spurious receiver
residuals.
8
1
Table 2a Extended Dynamic Range at Direct Receiver Access Input
Option 200 or 400
Description Typical (dB) at Direct Receiver Access Input
Port 1 or 32 Port 2 or 42
10 MHz to 50 MHz3 128 128
50 MHz to 100 MHz3 115 115
100 MHz to 500MHz3 129 129
500 MHz to 3.2 GHz 136 139
3.2 GHz to 10 GHz 139 139
10 GHz to 16 GHz 139 139
16 GHz to 20 GHz 139 136
20 GHz to 24 GHz 134 129
24 GHz to 26.5 GHz 124 121
1
The direct receiver access input extended dynamic range is calculated as the difference
between the direct receiver access input noise floor and the source maximum output power. The
effective dynamic range must take measurement uncertainties and interfering signals into
account. This set-up should only be used when the receiver input will never exceed its maximum
receiver input. When the analyzer is in segment sweep mode, it can have predefined frequency
segments which will output a higher power level when the extended dynamic range is required
(i.e. devices with high insertion loss), and reduced power when the maximum receiver input level
will occur (i.e. devices with low insertion loss). The extended range is only available in one-path
transmission measurements.
2
Either port can be used as the source port. Any other port can be used as the receiver port.
3
May typically be degraded at particular frequencies below 500 MHz due to spurious receiver
residuals.
9
Table 2b. Extended Dynamic Range at Direct Receiver Access Input1
Option 219 or 419
Description Typical (dB) at Direct Receiver Access Input
Port 1 or 32 Port 2 or 42
10 MHz to 50 MHz3 128 128
50 MHz to 100 MHz3 115 115
100 MHz to 500MHz3 129 129
500 MHz to 3.2 GHz 136 139
3.2 GHz to 10 GHz 139 139
10 GHz to 16 GHz 138 137
16 GHz to 20 GHz 136 134
20 GHz to 24 GHz 130 129
24 GHz to 26.5 GHz 122 118
1
The direct receiver access input extended dynamic range is calculated as the difference
between the direct receiver access input noise floor and the source maximum output power. The
effective dynamic range must take measurement uncertainties and interfering signals into
account. This set-up should only be used when the receiver input will never exceed its maximum
receiver input. When the analyzer is in segment sweep mode, it can have predefined frequency
segments which will output a higher power level when the extended dynamic range is required
(i.e. devices with high insertion loss), and reduced power when the maximum receiver input level
will occur (i.e. devices with low insertion loss). The extended range is only available in one-path
transmission measurements.
2
Either port can be used as the source port. Any other port can be used as the receiver port.
3
May typically be degraded at particular frequencies below 500 MHz due to spurious receiver
residuals.
10
Table 2c. Extended Dynamic Range at Direct Receiver Access Input1
Option 224
Description Typical (dB) at Direct Receiver Access Input
Source 2, Out 1 Source 2, Out 2
10 MHz to 50 MHz2 133 128
50 MHz to 100 MHz2 120 119
100 MHz to 500MHz2 134 133
500 MHz to 3.2 GHz 140 140
3.2 GHz to 10 GHz 144 144
10 GHz to 16 GHz 142 142
16 GHz to 20 GHz 141 139
20 GHz to 24 GHz 135 134
24 GHz to 26.5 GHz 126 124
1
The direct receiver access input extended dynamic range is calculated as the difference
between the direct receiver access input noise floor and the source maximum output power. The
effective dynamic range must take measurement uncertainties and interfering signals into
account. This set-up should only be used when the receiver input will never exceed its
compression or damage level. When the analyzer is in segment sweep mode, it can have
predefined frequency segments which will output a higher power level when the extended
dynamic range is required (i.e. devices with high insertion loss), and reduced power when
receiver compression or damage may occur (i.e. devices with low insertion loss). The extended
range is only available in one-path transmission measurements.
2
May typically be degraded at particular frequencies below 500 MHz due to spurious receiver
residuals.
11
Table 2d. Extended Dynamic Range at Direct Receiver Access Input1
Option 224 or 423
Description Typical (dB) at Direct Receiver Access Input
Port 1
or 3
Port 2
2
or 42
Source 1, Port 1
Combine Mode
Source 2, Port 1
Combine Mode
10 MHz to 50 MHz3 128 128 139 115
50 MHz to 100 MHz3 115 115 124 102
100 MHz to 500MHz3 129 129 133 111
500 MHz to 3.2 GHz 136 139 139 124
3.2 GHz to 10 GHz 139 139 144 131
10 GHz to 16 GHz 138 136 140 127
16 GHz to 20 GHz 136 133 137 125
20 GHz to 24 GHz 129 127 133 121
24 GHz to 26.5 GHz 119 121 127 114
1
The direct receiver access input extended dynamic range is calculated as the difference
between the direct receiver access input noise floor and the source maximum output power. The
effective dynamic range must take measurement uncertainties and interfering signals into
account. This set-up should only be used when the receiver input will never exceed its
compression or damage level. When the analyzer is in segment sweep mode, it can have
predefined frequency segments which will output a higher power level when the extended
dynamic range is required (i.e. devices with high insertion loss), and reduced power when
receiver compression or damage may occur (i.e. devices with low insertion loss). The extended
range is only available in one-path transmission measurements.
2
Either port can be used as the source port. Any other port can be used as the receiver port.
3
May typically be degraded at particular frequencies below 500 MHz due to spurious receiver
residuals.
Receiver Dynamic Range technical specifications are not provided in this N5242A specs
document.
12
N5242A Corrected System Performance with 3.5mm Connectors
All Options
Note: For any Sii reflection measurement:
•Sjj = 0.
For any Sij transmission measurement:
• Sji = Sij when Sij ≤ 1
• Sji = 1/Sij when Sij ≥ 1
• Skk = 0 for all k
Table 3. 85052B Calibration Kit N5242A
All Options
Applies to the N5242A Option 200 or 219 or 224 or 400 or 419 or 423 analyzers, 85052B
(3.5mm) calibration kit, 85131F flexible test port cable set, and a full 2-port calibration. Also
applies to the following condition:
Environmental temperature 23° ±3 °C, with < 1 °C deviation from calibration temperature
Note: Uncertainty curves for the N4433A are created using a 2-port calibration. Multiport
uncertainties are not supported at this time.
Applies to the N5242A Option 200 or 219 or 224 or 400 or 419 or 423 analyzers, N4433A
(3.5mm) electronic calibration module, 85131F flexible test port cable set, and a full 2-port
calibration. Also applies to the following condition:
Environmental temperature 23° ±3 °C, with < 1 °C deviation from calibration temperature
Description Specification (dB)
50 MHz to
500 MHz
500 MHz to
2 GHz
2 to
20 GHz
Directivity 52 52 45
Source Match 42 42 31
Load Match 41 41 29
Reflection Tracking 1 ±0.060
+0.010/°C
Transmission Tracking 1 ±0.063
+0.010/°C
1
Temperature deviation is a characteristic value.
±0.060
+0.010/°C
±0.063
+0.010/°C
±0.180
+0.020/°C
±0.197
+0.020/°C
16
Transmission Uncertainty (Specifications)
17
Reflection Uncertainty (Specifications)
18
Table 5. N4691B 2- Port Electronic Calibration Module
N5242A All Options
Applies to the N5242A Option 200 or 219 or 224 or 400 or 419 or 423 analyzers, N4691B
(3.5mm) electronic calibration module, 85131F flexible test port cable set, and a full 2-port
calibration. Also applies to the following condition:
Environmental temperature 23° ±3 °C, with < 1 °C deviation from calibration temperature
This N5242A document does not present specifications for the 85052C or 85052D Calibration Kit.
Please download our free Uncertainty Calculator from http://www.agilent.com/find/na_calculator
to generate the data and curves for the 85052C or the 85052D Calibration Kit.
21
Uncorrected System Performance
Table 6. Error Terms
1
All Options - Ports 1, 2, 3, 4
Description Specification Typical
Directivity (dB)
10 MHz to 50 MHz 16 23
50 MHz to 500 MHz 24 28
500 MHz to 3.2 GHz 24 32
3.2 GHz to 10 GHz 23 25
10 GHz to 16 GHz 16 22
16 GHz to 20 GHz 16 22
20 GHz to 24 GHz 16 22
24 GHz to 26.5 GHz 16 22
Source Match (dB)
10 MHz to 50 MHz 11 14
50 MHz to 500 MHz 18 28
500 MHz to 3.2 GHz 18 22
3.2 GHz to 10 GHz 14 18
10 GHz to 16 GHz 12 16
16 GHz to 20 GHz 10 15
20 GHz to 24 GHz 10 14
24 GHz to 26.5 GHz 8 12
Load Match (dB)
10 MHz to 50 MHz 11 18
50 MHz to 500 MHz 17 25
500 MHz to 3.2 GHz 17 22
3.2 GHz to 10 GHz 13 17
10 GHz to 16 GHz 10 15
16 GHz to 20 GHz 9 14
20 GHz to 24 GHz 9 14
22
Description Specification Typical
24 GHz to 26.5 GHz 8 13
Transmission Tracking3 (dB)
10 MHz to 50 MHz
50 MHz to 500 MHz
500 MHz to 3.2 GHz
3.2 GHz to 10 GHz
10 GHz to 16 GHz
16 GHz to 20 GHz
20 GHz to 24 GHz
24 GHz to 26.5 GHz
Reflection Tracking (dB)
10 MHz to 50 MHz
50 MHz to 500 MHz
500 MHz to 3.2 GHz
3.2 GHz to 10 GHz
10 GHz to 16 GHz
-- +/-1.5
-- +/-1.5
16 GHz to 20 GHz
20 GHz to 24 GHz
24 GHz to 26.5 GHz
23
Crosstalk
10 MHz to 50 MHz -84
4
(dB)
-50 MHz to 100 MHz -90
100 MHz to 500 MHz -110
500 MHz to 3.2 GHz -120
3.2 GHz to 20 GHz -122
20 GHz to 24 GHz -117
24 GHz to 26.5 GHz
1
Specifications apply over environmental temperature of 25 °C ±5 °C, with less than 1°C variation
-114
from the calibration temperature.
3
Cable loss not included.
4
Measurement conditions: normalized to a thru, measured with two shorts, 10 Hz IF bandwidth,
averaging factor of 8, alternate mode, source power set to the lesser of the maximum power-out
or the maximum receiver power.
24
Test Port Output
Table 7. Frequency Information
All Options
Description Specification (dB) Typical (dB)
Frequency Range 10 MHz to 26.5 GHz -Frequency Resolution 1 Hz -Frequency Accuracy +/- 1 ppm -Frequency Stability -- +/-0.05 ppm, -10° to 70° C
+/-0.1 ppm/yr maximum
Table 8a. Maximum Leveled Power, Option 200 or 400
Description Specification (dBm) Typical (dBm)
Port 1 or
1
3
Filtered
2
Mode
See Figure
2 (Opt
200) or
Figure 5
(Opt 400)
Port 1 or
1
3
Hi Pwr
2
Mode
See
Figure 3
(Opt 200)
or Figure
6 (Opt
400)
Port 2 or
1
4
Port 1 or
31
Filtered
Mode
See
Figure 2
(Opt 200)
or Figure
5 (Opt
400)
2
Port 1 or 3
Hi Pwr
2
Mode
See Figure
3 (Opt
200) or
Figure 6
(Opt 400)
1
Port 2 or
1
4
10 MHz to 50
8 13 13 10 19 17
MHz
50 MHz to 500
10 13 13 11 21 20
MHz
500 MHz to 3.2
10 10 13 12 13 18
GHz
3.2 GHz to 10
13 13 13 20 20 19
GHz
10 GHz to 16 GHz 13 13 13 17 17 16
16 GHz to 20 GHz 13 13 10 16 16 12
20 GHz to 24 GHz 12 12 7 15 15 11
24 GHz to 26.5
5 5 2 11 11 7
GHz
1
Either port can be used as the source port.
2
In Filtered Mode, the signal path goes through filters to minimize harmonics below 3.2 GHz. In Hi Pwr Mode, the signal
Figure 3. Path Configuration Diagram, N5242A Option 200, Port 1 Hi Pwr Mode
Port 1 Reference
Mixer Switch
Front Panel
Jumper
R1
Port 1 or 3 Hi Pwr Mode
Low Bnd
Hi Pwr
Low Bnd
Filtered
OUT1
External
Internal
A
1
Src1
OUT2
Figure 4. Block Diagram, N5242A Option 400
R2B
2
27
Figure 5. Path Configuration Diagram, N5242A Option 400, Port 1 or 3 Filtered Mode
R4D
OUT2
Low Bnd
Filtered
Low Bnd
Hi Pwr
Port 1 or 3
Hi Pwr Mode
Low Bnd
Hi Pwr
Low Bnd
Filtered
OUT2
Src2
Src1
OUT1
OUT1
Port 1 Reference
Mixer Switch
Front Panel
Jumper
External
Internal
4
R3C
3
R1
A
1
R2B
2
28
Figure 6. Path Configuration Diagram, N5242A Option 400, Port 1 or 3 Hi Pwr Mode
R4D
OUT2
Low Bnd
Filtered
Low Bnd
Hi Pwr
Port 1 or 3
Filtered Mode
Low Bnd
Hi Pwr
Low Bnd
Filtered
OUT2
Src2
Src1
OUT1
OUT1
Port 1 Reference
Mixer Switch
Front Panel
Jumper
External
Internal
4
R3C
3
R1
A
1
R2B
2
29
Table 8b. Maximum Leveled Power, Option 219 or 419
Description Specification (dBm) Typical (dBm)
Port 1 or
1
3
Filtered
2
Mode
10 MHz to 50
8 13 13 10 19 17
Port 1 or
1
3
Hi Pwr
2
Mode
Port 2 or
1
4
Port 1 or
31
Filtered
2
Mode
Port 1 or
1
3
Hi Pwr
Mode
2
Port 2 or
4
MHz
50 MHz to 500
10 13 13 11 20 19
MHz
500 MHz to 3.2
10 10 13 11 13 18
GHz
3.2 GHz to 10
13 13 13 18 18 17
GHz
10 GHz to 16 GHz 12 12 11 15 15 14
16 GHz to 20 GHz 10 10 8 13 13 10
20 GHz to 24 GHz 8 8 7 12 12 9
24 GHz to 26.5
3 3 -1 8 8 4
GHz
1
1
Either port can be used as the source port.
2
In Filtered Mode, the signal path goes through filters to minimize harmonics below 3.2 GHz. In
Hi Pwr Mode, the signal bypasses the filters to maximize output power.
Figure 7. Block Diagram, N5242A Option 219
Note: The path configuration drawing for Option 219 is identical to the path configuration
drawings for Option 200, which are shown in Figure 2 and Figure 3.
30
Figure 8. Block Diagram, N5242A Option 419
Note: The path configuration drawing for Option 419 is identical to the path configuration
drawings for Option 400, which are shown in Figure 5 and Figure 6.
Table 8c. Maximum Leveled Power, Option 224
Description Specification (dBm) Typical (dBm)
Port 1
Filtered
Mode
Port 1
Hi Pwr
1
Mode
1
Port 2 Port 1
Filtered
Mode
1
Port 1
Hi Pwr
Mode
Port 2
1
10 MHz to 50 MHz 7 13 13 9 19 17
50 MHz to 500
8 13 13 11 20 20
MHz
500 MHz to 3.2
8 10 13 11 13 17
GHz
3.2 GHz to 10 GHz 13 13 13 19 19 17
10 GHz to 16 GHz 12 12 10 15 15 14
16 GHz to 20 GHz 10 10 7 13 13 10
20 GHz to 24 GHz 7 7 5 12 12 9
24 GHz to 26.5
0 0 -2 8 8 4
GHz
1
In Filtered Mode, the signal path goes through filters to minimize harmonics below 3.2 GHz. In
Hi Pwr Mode, the signal bypasses the filters to maximize output power.
In Filtered Mode, the signal path goes through filters to minimize harmonics below 3.2 GHz. In
Hi Pwr Mode, the signal bypasses the filters to maximize output power.
10 Hz IFBW
10 MHz to 50 MHz2 -80 -87
50 MHz to 100 MHz2 -90 -95
100 MHz to 500 MHz2 -104 -110
500 MHz to 2 GHz -114 -117
2 GHz to 20 GHz -114 -117
20 GHz to 24 GHz -110 -115
24 GHz to 26.5 GHz -107 -113
Direct Receiver Access Input Noise Floor1 (dBm)
10 Hz IFBW
10 MHz to 50 MHz2 -- -130
50 MHz to 100 MHz2 -- -128
100 MHz to 500 MHz2 -- -132
500 MHz to 2 GHz -- -133
2 GHz to 20 GHz -- -129
20 GHz to 24 GHz -- -122
24 GHz to 26.5 GHz -- -119
44
Test Port Compression at 0.1 dB (dBm)
10 MHz to 50 MHz -- -50 MHz to 500 MHz -- -500 MHz to 3.2 GHz -- 13
3.2 GHz to 10 GHz -- 13
10 GHz to 16 GHz -- 13
16 GHz to 20 GHz -- 12
20 GHz to 24 GHz -- 10.5
24 GHz to 26.5 GHz -- 10
Receiver Compression @ 8 dBm Test Port Power (dB)
10 MHz to 50 MHz3 -- -50 MHz to 500 MHz3 -- -500 MHz to 3.2 GHz <0.17 --
3.2 GHz to 10 GHz <0.17 -10 GHz to 16 GHz <0.17 -16 GHz to 20 GHz <0.23 -20 GHz to 24 GHz <0.23 -24 GHz to 26.5 GHz <0.29 --
45
Table 16.(Continued) Test Port Input
All Options - Ports 1, 2, 3, 4
Description Specification Typical
Trace Noise Magnitude (dB rms)
Ratioed measurement, nominal power at test port.
1 kHz IFBW
10 MHz to 100 MHz 0.007 0.0039
100 MHz to 13.5 GHz 0.002 0.0005
13.5 GHz to 16 GHz 0.002 0.0005
16 GHz to 22.5 GHz 0.002 0.0006
22.5 GHz to 24 GHz 0.003 0.0014
24 GHz to 26.5 GHz 0.005 0.0020
100 kHz IFBW
10 MHz to 100 MHz -- 0.040
100 MHz to 13.5 GHz -- 0.005
13.5 GHz to 16 GHz -- 0.005
16 GHz to 22.5 GHz -- 0.005
22.5 GHz to 24 GHz -- 0.008
24 GHz to 26.5 GHz -- 0.008
600 kHz IFBW
10 MHz to 100 MHz -- 0.140
100 MHz to 13.5 GHz -- 0.011
13.5 GHz to 16 GHz -- 0.011
16 GHz to 22.5 GHz -- 0.012
22.5 GHz to 24 GHz -- 0.020
24 GHz to 26.5 GHz -- 0.020
46
Trace Noise Phase (deg rms)
Ratioed measurement, nominal power at test port.
1 kHz IFBW
10 MHz to 100 MHz 0.051 0.0261
100 MHz to 13.5 GHz 0.015 0.0041
13.5 GHz to 16 GHz 0.042 0.0124
16 GHz to 22.5 GHz 0.042 0.0135
22.5 GHz to 26.5 GHz 0.054 0.0225
100 kHz IFBW
10 MHz to 100 MHz -- 0.266
100 MHz to 13.5 GHz -- 0.030
13.5 GHz to 16 GHz -- 0.030
16 GHz to 22.5 GHz -- 0.033
22.5 GHz to 26.5 GHz -- 0.057
600 kHz IFBW
10 MHz to 100 MHz -- 1.053
100 MHz to 13.5 GHz -- 0.075
13.5 GHz to 16 GHz -- 0.075
16 GHz to 22.5 GHz -- 0.082
22.5 GHz to 26.5 GHz -- 0.139
Reference Level Magnitude
Range +/-500 dB -Resolution 0.001 dB --
Reference Level Phase
Range +/-500° -Resolution 0.01° --
47
Stability Magnitude (dB/°C)
Stability is defined as a ratio measurement made at the test
port.
10 MHz to 50 MHz -- 0.01
50 MHz to 500 MHz -- 0.01
500 MHz to 3.2 GHz -- 0.01
3.2 GHz to 10 GHz -- 0.02
10 GHz to 16 GHz -- 0.02
16 GHz to 20 GHz -- 0.03
20 GHz to 24 GHz -- 0.03
24 GHz to 26.5 GHz -- 0.04
Table 16. (Continued)Test Port Input
All Options - Ports 1, 2, 3, 4
Description Specification Typical
Stability Phase (dB/°C)
Stability is defined as a ratio measurement made at the test port.
10 MHz to 50 MHz -- 0.29
50 MHz to 500 MHz -- 0.06
500 MHz to 3.2 GHz -- 0.07
3.2 GHz to 10 GHz -- 0.13
10 GHz to 16 GHz -- 0.13
16 GHz to 20 GHz -- 0.40
20 GHz to 24 GHz -- 0.54
24 GHz to 26.5 GHz -- 0.56
48
Table 16. (Continued)Test Port Input
Description Typical
Damage Input Level
Test Port 1 or 2 or 3 or 4 > +30 dBm RF, 40 VDC
(Option 224 only) Source 2 Out 1
> +30 dBm RF, 0 VDC
or Source 2 Out 2
1
Total average (rms) noise power calculated as the mean value of a linear magnitude trace
expressed in dBm.
2
May typically be degraded at particular frequencies below 500 MHz due to spurious receiver
residuals.
3
Test port receiver compression at specified input levels below 500 MHz is negligible due to
coupler roll off in this frequency range.
49
Dynamic Accuracy
Table 17 Dynamic Accuracy (Specification)
Accuracy of the test port input power reading relative to the reference input power level.
Dynamic Accuracy, 0.010 GHz
50
Dynamic Accuracy, 0.050 GHz
51
Dynamic Accuracy, 0.500 GHz
52
Dynamic Accuracy, 1- 10 GHz
53
Dynamic Accuracy, 10 - 16 GHz
54
Dynamic Accuracy, 16 - 20 GHz
55
Dynamic Accuracy, 20 - 26.5 GHz
2
Dynamic accuracy is verified with the following measurements:
Compression over frequency
IF linearity at a single frequency of 1.195 GHz using a reference level of -20 dBm for an input
power range of 0 to -120 dBm.
56
Table 18. Test Port Input (Group Delay)a
Description Typical Performance
Aperture (selectable) (frequency span)/(number of points -1)
Maximum Aperture 20% of frequency span
Range 0.5 x (1/minimum aperture)
Maximum Delay Limited to measuring no more than 180° of phase change
within the minimum aperture.)
Accuracy See graph below. Char.
The following graph shows characteristic group delay accuracy with full 2-port calibration and a
10 Hz IF bandwidth. Insertion loss is assumed to be < 2 dB and electrical length to be ten meters.
For any S
Group Delay measurement, Sii = 0, Sij = 1, Sji = 0, Skl = 0 for all kl ≠ ij
ij
In general, the following formula can be used to determine the accuracy, in seconds, of specific
group delay measurement:
±Phase Accuracy (deg)/[360 × Aperture (Hz)]
Depending on the aperture and device length, the phase accuracy used is either incremental
phase accuracy or worst-case phase acc uracy.
a
Group delay is computed by measuring the phase change within a specified frequency step
(determined by the frequency span and the number of points per sweep).
57
General Information
• Miscellaneous Information
• Front Panel
• Rear Panel
• Environment and Dimensions
Table 19. Miscellaneous Information
Description Supplemental Information
System IF Bandwidth Range 1 Hz to 5 MHz, nominal
CPU Intel® 1.6 GHz Pentium® M with 1 GByte RAM
Table 20. Front Panel Information
All Options
Description Typical Performance
RF Connectors
Type Option 200 or 219 or 224 or 400 or 419 or 423: 3.5 mm (male), 50
ohm, (nominal)
Center Pin
Recession
USB 2.0 Ports
Master (4 ports)
Standard Compatible with USB 2.0
Connector USB Type-A female
Display
Size 26.3 cm (10.4 in) diagonal color active matrix LCD; 1024 (horizontal)
Refresh Rate Vertical 60 Hz; Horizontal 46.08 kHz
Pixels A display is considered faulty if:
0.002 in. (characteristic)
X 768 (vertical) resolution
More than 0.002% of the total pixels have a constant blue, green, red,
or black appearance that will not change.
Three or more consecutive pixels have a constant blue, green, red, or
black appearance that will not change.
58
Display Range
Magnitude +/-2500 dB (at 500 dB/div), max
Phase +/-2500° (at 500 dB/div), max
Polar 10 pUnits, min
10,000 Units, max
Display Resolution
Magnitude 0.001 dB/div, min
Phase 0.01°/div, min
Marker Resolution
Magnitude 0.001 dB, min
Phase 0.01°, min
Polar 10 pUnit, min
Function Internal receiver gates used for point-in-
pulse and pulse-profile measurements
Connectors 15-pin mini D-sub
Input Impedance 1 K Ohm
Minimum Pulse
Width, Source
Modulators
Minimum Pulse Width,
Receiver Gates
DC Damage Level 5.5 VDC
Drive Voltage 0 V (off), +3.3 V (on), nominal
RF Pulse Modulator Input (Source Modulator)
On/Off Ratio
10 MHz to 3.2 GHz -64
3.2 GHz to 26.5 GHz -80
Pulse Period
Minimum 33 ns
Maximum 70 s
External Test Set Driver
33 ns
20 ns
Function Used for driving remote mixers
Connections SMA (female)
RF, LO Output
Frequency Range
1.7 to 26.5 GHz
61
Table 21. (Continued) Rear Panel Information
Description Typical (dBm)
Upper Limit
(dBm)
Test Set Drivers (Continued)
Rear Panel LO Power
1.7 GHz to 18 GHz 0 -10
18 GHz to 22.5 GHz 2 -8
22.5 GHz to 26.5 GHz 6 -5
Rear Panel RF Power
3.2 GHz to 20 GHz -3 -8
20 GHz to 26.5 GHz -8 -14
Lower Limit
(dBm)
62
Table 21. (Continued) Rear Panel Information
Description Typical Performance
VGA Video Output
Connector 15-pin mini D-Sub; Drives VGA compatible monitors
Devices Supported:
Resolutions:
Flat Panel (TFT) 1024 X 768, 800 X 600, 640 X 480
Flat Panel (DSTN) 800 X 600, 640 X 480
CRT Monitor 1280 X 1024, 1024 X 768, 800 X 600, 640 X 480
Simultaneous operation of the internal and external displays is
allowed, but with 640 X 480 resolution only. If you change resolution,
you can only view the external display (internal display will "white
out").
Bias Tee Inputs
Connectors BNC(f) for ports 1, 2, 3 and 4
Fuse 500 mA
Maximum Bias Current +/-200 mA
Maximum Bias Voltage +/-40 VDC
Trigger Inputs/Outputs BNC(f), TTL/CMOS compatible
Test Set IO 25-pin D-Sub connector, available for external test set control.
Power IO 9-pin D-Sub, female; analog and digital IO
Handler IO 36-pin parallel I/O port; all input/output signals are default set to
negative logic; can be reset to positive logic via GPIB command.
63
GPIB (two ports dedicated controller and
dedicated talker/listener)
Parallel Port (LPT1) 25-pin D-Sub miniature connector, female; provides connection to
Serial Port (COM 1) 9-pin D-Sub, male; compatible with RS-232
USB Port Four ports on front panel (all Host) and five ports (four Host and one
LAN 10/100BaseT Ethernet, 8-pin configuration; auto selects between the
Line Power
Frequency, Voltage 50/60 Hz for 100 240 VAC
Power supply is auto switching
Max 450 watts
Note: Option H11 is not available with the N5242A network analyzer.
24-pin D-sub (Type D-24), female; compatible with IEEE-488.
printers or any other parallel port peripherals
Device) on rear panel. Type A configuration (eight Host) and Type B
configuration (one Device), USB 2.0 compatible.
two data rates
64
Table 22. Analyzer Dimensions and Weight
Cabinet
Dimensions
Excluding front and
rear panel hardware
and feet
Excluding front and
rear panel hardware
and feet. Including
rack-mount flanges.
Excluding front and
rear panel hardware
and feet. Including
rack-mount flanges
and handles.
As shipped including front panel
connectors, rear
panel bumpers, and
feet.
As shipped including
rack-mount flanges
Height Width Depth
266 mm
10.5 in
266 mm
10.5 in
EIA RU
266 mm
10.5 in
EIA RU
277 mm
10.9 in
277 mm
10.9 in
1
= 6
1
= 6
436 mm
17.4 in
482 mm
19.3 in
482 mm
19.3 in
436 mm
17.4 in
482 mm
19.3 in
514 mm
20.6 in
561 mm
22.4 in
581 mm
23.2 in
561 mm
22.4 in
561 mm
22.4 in
As shipped including
handles
As shipped including
rack-mount flanges
277 mm
10.9 in
277 mm
10.9 in
458 mm
18.3 in
482 mm
19.3 in
581 mm
23.2 in
581 mm
23.2 in
and handles
Weight
Option 200 or 219 or 224 Option 400 or 419
--
or 423
Net 27 kg (60 lb), nominal 37 kg (82 lb),
--
nominal
Shipping 43 kg (95 lb), nominal 53 kg (117 lb),
--
nominal
1
Network analyzer feet removed.
Note: For Regulatory and Environmental information, refer to the PNA Series Installation and
Quick Start Guide, located online at http://cp.literature.agilent.com/litweb/pdf/E8356-90001.pdf.
65
Measurement Throughput Summary
• Typical Cycle Time for Measurement Completion
• Cycle Time vs. IF Bandwidth
• Cycle Time vs. Number of Points
• Data Transfer Time
Table 23. Typical Cycle Timea (ms) for Measurement Completion
Option 224 or
423
Port 1 Source
Out
Port 3 Source
Out
Filtered Mode
Option 224 or
423
Port 1 Source
Out
Port 3 Source
Out
Hi Pwr Mode
Option 224 or
423
Port 2 Source
Out
Port 4 Source
Out
Damage Level
+30 dBm
Maximum DC Level
0 V
81
Table 33. Coupler Inputs
(PORT 1 CPLR THRU, PORT 2 CPLR THRU, PORT 3 CPLR THRU, PORT 4 CPLR THRU)
Insertion Loss of Coupler Thru
Description Typical
Option 200 or 400 Option 219 or 419 or
224, or 423
Maximum Input Level
10 MHz to 50 MHz 0 dB -0.5 dB
50 MHz to 500 MHz -0.25 dB -0.75 dB
500 MHz to 3.2 GHz -0.5 dB -1.0 dB
3.2 GHz to 10 GHz -0.75 dB -1.25 dB
10 GHZ to 16 GHz -1.0 dB -1.75 dB
16 GHZ to 20 GHz -1.5 dB -2.25 dB
20 GHZ to 24 GHz -1.5 dB -2.5 dB
24 GHZ to 26.5 GHz -1.75 dB -2.5 dB