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•Open the PDF of your choice and print the document.
Class Assignments and Standard Definitions Values are Available on the Web . . . . . . . . . . . . . . . . . . . . . . . . A-2
iv85033E
1General Information
85033E 1-1
General Information
Calibration Kit Overview
Calibration Kit Overview
The Keysight 85033E 3.5 mm calibration kit is used to calibrate Keysight network analyzers for
measurements of components with 3.5 mm connectors up to 9 GHz.
Kit Contents
Use the Contents List in the shipping container to verify the completeness of your shipment. Although this
list is the most accurate, you can also use the illustration in Chapter 7 to verify the items in your shipment.
If your shipment is not complete, contact Keysight Technologies - refer to ‘v.
Refer to Table 6-1 on page 6-4 for part numbers of kit contents.
Broadband Loads
The broadband loads are metrology-grade, 50 ohm terminations which have been optimized for
performance up to 9 GHz. The rugged internal structure provides for highly repeatable connections. A
distributed resistive element on sapphire provides excellent stability and return loss.
Offset Opens and Shorts
The offset opens and shorts are built from parts which are machined to the current state-of-the-art in
precision machining. The offset short’s inner conductors have a one-piece construction, common with the
shorting plane. The construction provides for extremely repeatable connections. The offset opens have
inner conductors which are supported by a strong, low-dielectric-constant plastic to minimize
compensation values. Both the opens and shorts are constructed so that the pin depth can be controlled
very tightly, thereby minimizing phase errors. The lengths of the offsets in the opens and shorts are
designed so that the difference in phase of their reflection coefficients is approximately 180 degrees at all
frequencies.
Open-Short-Load Holders
The open-short-load (OSL) holders are included for your convenience. The OSL holders allow you to keep
all of the calibration devices in two handy assemblies. Load each OSL holder with calibration devices of the
same connector sex so that you can perform a calibration with just one assembly. Use the 2.5 mm hex key
included with this kit to secure the calibration devices in the holders. See Figure 1-1 on page 1-3.
1-285033E
Figure 1-1 Open-Short-Load Holder
General Information
Calibration Kit Overview
Calibration Definitions
The calibration kit must be selected and the calibration definitions for the devices in the kit installed in the
network analyzer prior to performing a calibration.
The calibration definitions can be:
•resident within the analyzer
•downloaded from the Web at http:na.support.keysight.com/pna/caldefs/stddefs.html
•manually entered from the front panel
Refer to your network analyzer user’s guide or embedded Help for instructions on manually entering
calibration definitions, selecting the calibration kit, and performing a calibration.
85033E 1-3
General Information
Calibration Kit Overview
Options
There are several adapter options available for the 85033E. Refer to Table 6-2 on page 6-5. Also, there are
calibration certificate options available. Contact Keysight for more information. See “Contacting Keysight”
on page 5-4 for contact information.
Equipment Required but Not Supplied
Gages, electrostatic discharge (ESD) protection devices, and various connector cleaning supplies are not
included with this calibration kit. Gage sets are required for measuring the connector pin depth. Refer to
Table 6-3 on page 6-5 for ordering information.
1-485033E
General Information
Incoming Inspection
Incoming Inspection
Check for damage. The foam-lined storage case provides protection during shipping. Verify that this case
and its contents are not damaged.
If the case or any device appears damaged, or if the shipment is incomplete, contact Keysight
Te ch no lo g i e s . Se e “Contacting Keysight” on page 5-4. Keysight will arrange for repair or replacement of
incomplete or damaged shipments without waiting for a settlement from the transportation company.
When you send the kit or device to Keysight, include a service tag (found near the end of this manual) with
the following information:
•your company name and address
•the name of a technical contact person within your company, and the person's complete phone number
•the model number and serial number of the kit
•the part number and serial number of the device
•the type of service required
•a detailed description of the problem
85033E 1-5
General Information
Recording the Device Serial Numbers
Recording the Device Serial Numbers
In addition to the kit serial number, the devices in this kit are individually serialized (serial numbers are
labeled onto the body of each device). Record these serial numbers in Ta bl e 1 - 1 . This can help you avoid
confusing the devices in this kit with similar devices from other kits.
The adapters included in the kit are for measurement convenience only and are not serialized.
Table 1-1 Kit and Device Serial Number Record
DeviceSerial Number
Calibration kit
-m- Broadband Load
-f- Broadband Load
-m- Open
-f- Open
-m- Short
-f- Short
_______________________________
_______________________________
_______________________________
_______________________________
_______________________________
_______________________________
_______________________________
1-685033E
General Information
Precision Slotless Connectors
Precision Slotless Connectors
The female 3.5 mm connectors in this calibration kit are metrology-grade, precision slotless connectors
(PSC). A characteristic of metrology-grade connectors is direct traceability to national measurement
standards through their well-defined mechanical dimensions.
Conventional female center conductors are slotted. When mated, the female center conductor is flared by
the male pin. Because physical dimensions determine connector impedance, electrical characteristics of
the female connector (and connection pair) are dependent upon the mechanical dimensions of the male
pin. While connectors are used in pairs, their male and female halves are always specified separately as
part of a standard, instrument, or device under test. Because of these facts, making precision
measurements with the conventional slotted connector is very difficult, and establishing a direct
traceability path to primary dimensional standards is nearly impossible.
The precision slotless connector was developed to eliminate these problems. All PSCs are female. A PSC
incorporates a center conductor with a solid cylindrical shell that defines the outside diameter of the
female center pin. Its outside diameter and, therefore, the impedance in its region does not change. The
inner part provides an internal contact that flexes to accept the allowed range of male pin diameters.
The calibration of a network analyzer having a conventional slotted female connector on the test port
remains valid only when the device under test and all calibration standards have identical male pin
diameters. For this reason PSC test port adapters are supplied in most calibration kits.
Precision slotless connectors have the following characteristics:
•There is no loss of traceable calibration on test ports when the male pin diameter of the connector on
the device under test is different from the male pin diameter of the calibration standard.
•The female PSC and its mating male connector can be measured and specified separately as part of the
device either is attached to.
•All female connectors can have a known, stable impedance based only on the diameters of their inner
and outer conductors.
•Female calibration standards can be fully specified. Their specifications and traceability are unaffected
by the diameter of the male mating pin.
•A fully traceable performance verification is made using a precision 50 ohm airline having a PSC.
•Measurement repeatability is enhanced due to non-changing connector characteristics with various pin
diameters.
With PSCs on test ports and standards, the percentage of accuracy achieved when measuring at 50 dB
return loss levels is comparable to using conventional slotted connectors measuring devices having only 30
dB return loss. This represents an accuracy improvement of about 10 times.
85033E 1-7
General Information
Clarifying the Terminology of a Connector Interface
Clarifying the Terminology of a Connector Interface
In this document and in the prompts of the PNA calibration wizard, the sex of cable connectors and
adapters is referred to in terms of the center conductor. For example, a connector or device designated as
1.85 mm –f– has a 1.85 mm female center conductor.
8510-series, 872x, and 875x ONLY: In contrast, during a measurement calibration, the network analyzer
softkey menus label a 1.85 mm calibration device with reference to the sex of the analyzer’s test port
connector—not the calibration device connector. For example, the label SHORT(F) refers to the short that is
to be connected to the female test port. This will be a male short from the calibration kit.
Table 1-2 Clarifying the Terminology of Connectors: Examples
TerminologyMeaning
Short
–f–
Short (f)Male short (male center conductor) to be connected to female port
A connector gage is referred to in terms of the connector that it measures. For instance, a male connector
gage has a female connector on the gage so that it can measure male devices.
Female short (female center conductor)
Preventive Maintenance
The best techniques for maintaining the integrity of the devices in the kit include:
•routine visual inspection
•cleaning
•proper gaging
•proper connection techniques
All of these are described in Chapter 3, “Use, Maintenance, and Care of the Devices.” Failure to detect and
remove dirt or metallic particles on a mating plane surface can degrade repeatability and accuracy and can
damage any connector mated to it. Improper connections, resulting from pin depth values being out of the
observed limits (see Table 2-3 on page 2-4) or from bad connection techniques, can also damage these
devices.
1-885033E
General Information
When to Calibrate
When to Calibrate
A network analyzer calibration remains valid as long as the changes in the systematic error are
insignificant. This means that changes to the uncorrected leakages (directivity and isolation), mismatches
(source match and load match), and frequency response of the system are small (<10%) relative to
accuracy specifications.
Change in the environment (especially temperature) between calibration and measurement is the major
cause in calibration accuracy degradation. The major effect is a change in the physical length of external
and internal cables. Other important causes are dirty and damaged test port connectors and calibration
standards. If the connectors become dirty or damaged, measurement repeatability and accuracy is affected.
Fortunately, it is relatively easy to evaluate the general validity of the calibration. To test repeatability,
remeasure one of the calibration standards. If you can not obtain repeatable measurements from your
calibration standards, maintenance needs to be performed on the test port connectors, cables and
calibration standards. Also, maintain at least one sample of the device under test or some known device as
your reference device. A verification kit may be used for this purpose. After calibration, measure the
reference device and note its responses. Periodically remeasure the device and note any changes in its
corrected response which can be attributed to the test system. With experience you will be able to see
changes in the reference responses that indicate a need to perform the measurement calibration again.
85033E 1-9
General Information
When to Calibrate
1-1085033E
2Specifications
85033E 2-1
Specifications
Environmental Requirements
Environmental Requirements
Table 2-1 Environmental Requirements
Parameter Limits
Te m pe r a t ur e
Operating
Storage40 C to +75 C
Error-corrected range
Relative humidityType tested, 0% to 95%, 40 C (non-condensing)
a. The temperature range over which the calibration standards maintain conformance to their specifications.
b. The allowable network analyzer ambient temperature drift during measurement calibration and during
a
b
measurements when the network analyzer error correction is turned on. Also, the range over which the
network analyzer maintains its specified performance while correction is turned on.
+15 C to +35 C
1 C of measurement calibration temperature
Temperature—What to Watch Out For
Changes in temperature can affect electrical characteristics. Therefore, the operating temperature is a
critical factor in performance. During a measurement calibration, the temperature of the calibration devices
must be stable and within the range shown in
Ta b l e 2 -1 .
IMPORTANTAvoid unnecessary handling of the devices during calibration because your fingers are a
heat source.
2-285033E
Specifications
Mechanical Characteristics
Mechanical Characteristics
Mechanical characteristics such as center conductor protrusion and pin depth are not performance
specifications. They are, however, important supplemental characteristics related to electrical performance.
Keysight Technologies verifies the mechanical characteristics of the devices in this kit with special gaging
processes and electrical testing. This ensures that the device connectors do not exhibit any center
conductor protrusion or improper pin depth when the kit leaves the factory.
“Gaging Connectors” on page 3-7 explains how to use gages to determine if the kit devices have
maintained their mechanical integrity. (Refer to Table 2-3 on page 2-4 for typical and observed pin depth
limits.)
Table 2-2 Mechanical Characteristics
DimensionTypical Value
Inside diameter of outer conductor3.5 0.0025 mm
Outside diameter of center conductor1.51990.002 mm
Pin depth
Pin depth
a
: -m- devices
a
: -f- devices
a. See Figure 2-1 on page 2-4.
0 to 0.0127 mm
0.0025 to 0.0254 mm
Pin Depth
Pin depth is the distance the center conductor mating plane differs from being flush with the outer
conductor mating plane. See Figure 2-1. The pin depth of a connector can be in one of two states: either
protruding or recessed. Protrusion is the condition when the center conductor extends beyond the outer
conductor mating plane, and will measure a positive value on the connector gage. Recession is when the
center conductor is set back from the outer conductor mating plane and will measure negative.
The pin depth value of each calibration device in this kit is not specified, but is an important mechanical
parameter. The electrical performance of the device depends, to some extent, on its pin depth. The
electrical specifications for each device in this kit take into account the effect of pin depth on the device’s
performance. Tab le 2- 3 lists the typical pin depths and measurement uncertainties, and provides observed
pin depth limits for the devices in the kit. If the pin depth of a device does not measure within the observed
pin depth limits, it may be an indication that the device fails to meet electrical specifications. Refer to
Figure 2-1 for a visual representation of proper pin depth (slightly recessed).
85033E 2-3
Specifications
Mechanical Characteristics
Figure 2-1 Connector Pin Depth
Table 2-3 Pin Depth Limits
DeviceTypical Pin Depth
Opens0 to -0.0127 mm
0 to -0.0005 in.
Shorts0 to -0.0127 mm
0 to -0.0005 in.
Fixed Loads-0.0025 to -0.0254 mm
-0.0001 to -0.001 in.
Adapters
(3.5 mm end)
Adapters (APC-7
end)
Adapters
(type-N end)
a. Approximately +2 sigma to 2 sigma of gage uncertainty based on studies done at the factory according to
recommended procedures.
b. Observed pin depth limits are the range of observation limits seen on the gage reading due to measurement
uncertainty. The depth could still be within specifications.
0 to -0.0762 mm
0 to -0.0030 in.
0 to -0.0762 mm
0 to -0.0030 in.
0 to -0.0508 mm
0 to -0.0020 in.
Measurement Uncertainty
+0.0064 to -0.0064 mm
+0.00025 to -0.00025 in.
+0.0041 to -0.0041 mm
+0.00016 to -0.00016 in.
+0.0041 to -0.0041 mm
+0.00016 to -0.00016 in.
+0.0041 to -0.0041 mm
+0.00016 to -0.00016 in
+0.0038 to -0.0038 mm
+0.00015 to -0.00015 in.
+0.0038 to -0.0038 mm
+0.00015 to -0.00015 in.
a
Observed Pin Depth Limits
+0.0064 to -0.0191 mm
+0.00025 to -0.00075 in.
+0.0041 to -0.0168 mm
+0.0016 to -0.00066 in.
+0.0016 to -0.02953 mm
+0.00006 to -0.00116 in.
+0.0041 to -0.0803 mm
+0.00016 to -0.00316 in.
+0.0038 to -0.0800 mm
+0.00015 to -0.00315 in
+0.0038 to -0.0546 mm
+0.00015 to -0.00215 in
b
2-485033E
Specifications
Electrical Specifications
Electrical Specifications
The electrical specifications in Ta bl e 2 -4 apply to the devices in your calibration kit when connected with a
Keysight precision interface.
Table 2-4 Electrical Specifications for 3.5 mm Devices
DeviceSpecificationFrequency (GHz)
Broadband Loads Return Loss 46dB0.005)DC to 2
(-m- and -f-)Return Loss 44dB0.006)>2 to 3
Return Loss 38dB0.013)>3 to 9
Offset Opens
(-m- and -f-)0.65 from Nominal>2 to 3
Offset Shorts
(-m- and -f-)0.50 from Nominal>2 to 3
a. The specifications for the opens and shorts are given as allowed deviation from the nominal model
a
a
as defined in the standard definitions.
0.55 from Nominal
0.85 from Nominal>3 to 6
1.00 from Nominal>6 to 9
0.48 from Nominal
0.55 from Nominal>3 to 6
0.65 from Nominal>6 to 9
DC to 2
DC to 2
85033E 2-5
Specifications
Electrical Specifications
Supplemental Characteristics
Supplemental characteristics are provided as additional information that may be helpful in applying the
devices. These characteristics are typical of most devices but are not warranted. Ta b l e 2- 5 lists the typical
characteristics of the adapters.
Table 2-5 Supplemental Electrical Characteristics of the Adapters
AdapterReturn Loss, TypicalFrequency (GHz)
Option 100
3.5 mm -f- to -f-Return Loss 32d0.025)DC to 26.5
Option 200
3.5 mm -m- to -m-Return Loss 32d0.025)DC to 26.5
Option 300
3.5 mm -m- to -f-Return Loss 32d0.025)DC to 26.5
Option 400
Type-N -m- to 3.5 mm -m-Return Loss 28d0.040)DC to 18
Type-N -m- to 3.5 mm -f-Return Loss 28d0.040)DC to 18
Type-N -f- to 3.5 mm -f-Return Loss 28d0.040)DC to 18
Type-N -f- to 3.5 mm -m-
Option 500
3.5 mm -m- to APC-7Return Loss 34d0.020)DC to 18
3.5 mm -f- to APC-7Return Loss 28d0.040)DC to 18
Return Loss 24d0.060)DC to 18
Certification
Keysight Technologies certifies that this product met its published specifications at the time of shipment
from the factory. Keysight further certifies that its calibration measurements are traceable to the United
States National Institute of Standards and Technology (NIST) to the extent allowed by the Institute's
calibration facility, and to the calibration facilities of other International Standards Organization members.
See “How Keysight Verifies the Devices in This Kit” on page 4-2 for more information.
2-685033E
3Use, Maintenance, and Care of the Devices
85033E 3-1
Use, Maintenance, and Care of the Devices
Electrostatic Discharge
Electrostatic Discharge
Protection against ESD (electrostatic discharge) is essential while connecting, inspecting, or cleaning
connectors attached to a static-sensitive circuit (such as those found in test sets).
Static electricity can build up on your body and can easily damage sensitive internal circuit elements when
discharged. Static discharges too small to be felt can cause permanent damage. Devices such as
calibration components and devices under test (DUTs), can also carry an electrostatic charge. To prevent
damage to the test set, components, and devices:
•always wear a grounded wrist strap having a 1 M resistor in series with it when handling components
and devices or when making connections to the test set.
•always use a grounded, conductive table mat while making connections.
•always wear a heel strap when working in an area with a conductive floor. If you are uncertain about
the conductivity of your floor, wear a heel strap.
•always ground yourself before you clean, inspect, or make a connection to a static-sensitive device or
test port. You can, for example, grasp the grounded outer shell of the test port or cable connector briefly.
•always ground the center conductor of a test cable before making a connection to the analyzer test port
or other static-sensitive device. This can be done as follows:
1. Connect a short (from your calibration kit) to one end of the cable to short the center conductor to
the outer conductor.
2. While wearing a grounded wrist strap, grasp the outer shell of the cable connector.
3. Connect the other end of the cable to the test port.
4. Remove the short from the cable.
Refer to Chapter 6, “Replaceable Parts,” for part numbers and instructions for ordering ESD protection
devices.
Figure 3-1 ESD Protection Setup
3-285033E
Use, Maintenance, and Care of the Devices
Visual Inspection
Visual Inspection
Visual inspection and, if necessary, cleaning should be done every time a connection is made. Metal
particles from the connector threads may fall into the connector when it is disconnected. One connection
made with a dirty or damaged connector can damage both connectors beyond repair.
Magnification is helpful when inspecting connectors, but it is not required and may actually be misleading.
Defects and damage that cannot be seen without magnification generally have no effect on electrical or
mechanical performance. Magnification is of great use in analyzing the nature and cause of damage and in
cleaning connectors, but it is not required for inspection.
Look for Obvious Defects and Damage First
Examine the connectors first for obvious defects and damage: badly worn plating on the connector
interface, deformed threads, or bent, broken, or misaligned center conductors.
What Causes Connector Wear?
Connector wear is caused by connecting and disconnecting the devices. The more use a connector gets,
the faster it wears and degrades. The wear is greatly accelerated when connectors are not kept clean, or
are not properly connected.
Connector wear eventually degrades the performance of the device. Calibration devices should have a long
life if their use in on the order of a few times per week.
The test port connectors on the network analyzer test set may have many connections each day, and are
therefore more subject to wear. It is recommend that an adapter be used as a test port saver to minimize
the wear on the test set’s connectors. Replace devices with worn connectors.
Inspect the Mating Plane Surfaces
Flat contact between the connectors at all points on their mating plane surfaces is required for a good
connection. See Figure 3-2. Look especially for deep scratches or dents, and for dirt and metal particles on
the connector mating plane surfaces. Also look for signs of damage due to excessive or uneven wear or
misalignment.
Light burnishing of the mating plane surfaces is normal, and is evident as light scratches or shallow
circular marks distributed more or less uniformly over the mating plane surface. Other small defects and
cosmetic imperfections are also normal. None of these affect electrical or mechanical performance. If a
connector shows deep scratches or dents, particles clinging to the mating plane surfaces, or uneven wear,
clean and inspect it again.
85033E 3-3
Use, Maintenance, and Care of the Devices
Visual Inspection
Figure 3-2 Mating Plane Surfaces
Inspect Female Connectors
When using female connectors, pay special attention to the contact fingers in the female center conductor.
These can be bent or broken, and damage to them is not always easy to see. A connector with damaged
contact fingers will not make good electrical contact and must be replaced.
NOTEThis is particularly important when you are mating nonprecision to precision devices.
3-485033E
Use, Maintenance, and Care of the Devices
Cleaning Connectors
Cleaning Connectors
Clean connectors are essential for ensuring the integrity of RF and microwave coaxial connections. Refer to
Table 6-3 on page 6-5 for part numbers for isopropyl alcohol and cleaning swabs.
WARNINGAlways use protective eyewear when using compressed air or nitrogen.
1. Use Compressed Air or Nitrogen
Use compressed air (or nitrogen) to loosen particles on the connector mating plane surfaces. Clean air
cannot damage a connector or leave particles or residues behind.
You can use any source of clean, dry, low-pressure compressed air or nitrogen that has an effective
oil-vapor filter and liquid condensation trap placed just before the outlet hose.
Ground the hose nozzle to prevent electrostatic discharge, and set the air pressure to less than 414 kPa
(60 psi) to control the velocity of the air stream. High-velocity streams of compressed air can cause
electrostatic effects when directed into a connector. These electrostatic effects can damage the device.
Refer to “Electrostatic Discharge” on page 3-2 for additional information.
WARNINGKeep isopropyl alcohol away from heat, sparks, and flame. Store in a tightly closed
container. Isopropyl alcohol is extremely flammable. In case of fire, use alcohol foam, dry
chemical, or carbon dioxide: water may be ineffective.
Use isopropyl alcohol with adequate ventilation and avoid contact with eyes, skin, and
clothing. It causes skin irritation, may cause eye damage, and is harmful if swallowed or
inhaled. It may be harmful if absorbed through the skin. Keep away from heat, sparks,
and flame. Wash thoroughly after handling.
In case of spill, soak up with sand or earth. Flush spill area with water.
Dispose of isopropyl alcohol in accordance with all applicable federal, state, and local
environmental regulations.
85033E 3-5
Use, Maintenance, and Care of the Devices
Cleaning Connectors
2. Clean the Connector Threads
Use a lint-free swab or cleaning cloth moistened with isopropyl alcohol to remove any dirt or stubborn
contaminants on a connector that cannot be removed with compressed air or nitrogen. Refer to Ta b le
6-3 on page 6-5 for a cleaning swab part number.
a. Apply a small amount of isopropyl alcohol to the lint-free cleaning swab.
b. Clean the connector threads.
c. Let the alcohol evaporate, then blow the threads dry with a gentle stream of clean, low-pressure
compressed air or nitrogen. Always completely dry a connector before you reassemble or use it.
3. Clean the Mating Plane Surfaces
a. Apply a small amount of isopropyl alcohol to a new swab.
b. Clean the center and outer conductor mating plane surfaces. Refer to Figure 3-2 on page 3-4. When
cleaning a female connector, avoid snagging the swab on the center conductor contact fingers by
using short strokes.
c. Let the alcohol evaporate, then blow the threads dry with a gentle stream of clean, low-pressure
compressed air or nitrogen. Always completely dry a connector before you reassemble or use it.
4. Inspect Each Connector
Inspect the connector again to make sure that no particles or residue are present.
3-685033E
Use, Maintenance, and Care of the Devices
Gaging Connectors
Gaging Connectors
The gages available from Keysight Technologies (see Table 6-3 on page 6-5 for part number information) are
intended for preventive maintenance and troubleshooting purposes only. They are effective in detecting
excessive center conductor protrusion or recession, and conductor damage on DUTs, test accessories, and
the calibration kit devices.Do not use the gages for precise pin depth measurements.
Connector Gage Accuracy
The connector gages are only capable of performing coarse measurements. They do not provide the degree
of accuracy necessary to precisely measure the pin depth of the kit devices. This is partially due to the
repeatability uncertainties that are associated with the measurement. Only the factory—through special
gaging processes and electrical testing— can accurately verify the mechanical characteristics of the
devices.
With proper technique, however, the gages are useful in detecting gross pin depth errors on device
connectors. To achieve maximum accuracy, random errors must be reduced by taking the average of at
least three measurements having different gage orientations on the connector. Even the resultant average
can be in error by as much as 0.0001 inch due to systematic (biasing) errors usually resulting from worn
gages and gage masters. The information in Table 2-3 on page 2-4 assumes new gages and gage masters.
Therefore, these systematic errors were not included in the uncertainty analysis. As the gages endure more
use, the systematic errors can become more significant in the accuracy of the measurement.
The measurement uncertainties are primarily a function of the assembly materials and design, and the
unique interaction each device type has with the gage. Therefore, these uncertainties can vary among the
different devices. For example, note the difference between the uncertainties of the opens and shorts in
Table 2-3 on page 2-4.
The observed pin depth limits add these uncertainties to the typical factory pin depth values to provide
practical limits that can be referenced when using the gages. See “Pin Depth” on page 2-3. Refer to “Kit
Contents” on page 1-2 for more information on the design of the calibration devices in this kit.
NOTEWhen measuring pin depth, the measured value (resultant average of three or more
measurements) contains measurement uncertainty and is not necessarily the true value.
Always compare the measured value with the observed pin depth limits (which account for
measurement uncertainties) in Table 2-3 on page 2-4 to evaluate the condition of device
connectors.
85033E 3-7
Use, Maintenance, and Care of the Devices
Gaging Connectors
When to Gage Connectors
Gage a connector at the following times:
•Prior to using a device for the first time: record the pin depth measurement so that it can be compared
with future readings. This serves as a good troubleshooting tool when you suspect damage may have
occurred to the device.
•If either visual inspection or electrical performance suggests that the connector interface may be out of
typical range (due to wear or damage, for example).
•If a verification device is used by someone else or on another system or piece of equipment.
Initially after every 100 connections, and after that as often as experience indicates.
Gaging Procedures
Gaging Male 3.5 mm Connectors
NOTEAlways hold a connector gage by the gage barrel, below the dial indicator. This gives the
best stability, and improves measurement accuracy. (Cradling the gage in your hand or
holding it by the dial applies stress to the gage plunger mechanism through the dial
indicator housing.)
1. Select the proper gage for your connector. Refer to Table 6-3 on page 6-5 for gage part numbers.
2. Inspect and clean the gage, gage master, and device to be gaged. Refer to “Visual Inspection” on
page 3-3 and “Cleaning Connectors” on page 3-5.
3. Zero the connector gage (refer to Figure 3-3 on page 3-10):
a. While holding the gage by the barrel, and without turning the gage or the device, screw the male
gage master connecting nut onto the male gage, just until you meet resistance. Connect the nut
finger tight. Do not overtighten.
b. Use the torque wrench recommended for use with the kit to tighten the connecting nut to 90 N-cm
(8 in-lb). Refer to “Connections” on page 3-13 for more information.
c. As you watch the gage pointer, gently tap the barrel of the gage to settle the reading.
The gage pointer should line up exactly with the zero mark on the gage. If not, adjust the zero set
knob until the gage pointer lines up exactly with zero.
d. Remove the gage master.
4. Gage the device connector (refer to Figure 3-3 on page 3-10):
a. While holding the gage by the barrel, and without turning the gage or the device, screw the
connecting nut of the male device being measured onto the male gage, just until you meet
resistance. Connect the nut finger-tight. Do not overtighten.
b. Use the torque wrench recommended for use with the kit to tighten the connecting nut to 90 N-cm
(8 in-lb). Refer to “Connections” on page 3-13 for more information.
c. Gently tap the barrel of the gage with your finger to settle the gage reading.
3-885033E
Use, Maintenance, and Care of the Devices
Gaging Connectors
d. Read the gage indicator dial. Read only the black signs;not the red signs.
For maximum accuracy, measure the connector a minimum of three times and take an average of
the readings. After each measurement, rotate the gage a quarter-turn to reduce measurement
variations that result from the gage or the connector face not being exactly perpendicular to the
center axis.
e. Compare the average reading with the observed pin depth limits in Table 2-3 on page 2-4.
85033E 3-9
Use, Maintenance, and Care of the Devices
Gaging Connectors
Figure 3-3 Gaging Male 3.5 mm Connectors
3-1085033E
Use, Maintenance, and Care of the Devices
Gaging Connectors
Gaging Female 3.5 mm Connectors
NOTEAlways hold a connector gage by the gage barrel, below the dial indicator. This gives the
best stability, and improves measurement accuracy. (Cradling the gage in your hand or
holding it by the dial applies stress to the gage plunger mechanism through the dial
indicator housing.)
1. Select the proper gage for your connector. Refer to Table 6-3 on page 6-5 for gage part numbers.
2. Inspect and clean the gage, gage master, and device to be gaged. Refer to “Visual Inspection” on
page 3-3 and “Cleaning Connectors” on page 3-5 earlier in this chapter.
3. Zero the connector gage (refer to Figure 3-4 on page 3-12):
a. While holding the gage by the barrel, and without turning the gage or the device, screw the female
gage connecting nut onto the female gage master, just until you meet resistance. Connect the nut
finger-tight. Do not overtighten.
b. Use the torque wrench recommended for use with the kit to tighten the connecting nut to 90 N-cm
(8 in-lb). Refer to “Connections” on page 3-13 for more information.
c. As you watch the gage pointer, gently tap the barrel of the gage to settle the reading.
The gage pointer should line up exactly with the zero mark on the gage. If not, adjust the zero set
knob until the gage pointer lines up exactly with zero.
d. Remove the gage master.
4. Gage the device connector (refer to Figure 3-4 on page 3-12):
a. While holding the gage by the barrel, and without turning the gage or the device, screw the female
gage connecting nut onto the female device being measured, just until you meet resistance.
Connect the nut finger-tight. Do not overtighten.
b. Use the torque wrench recommended for use with the kit to tighten the connecting nut to 90 N-cm
(8 in-lb). Refer to “Connections” on page 3-13 for more information.
c. Gently tap the barrel of the gage with your finger to settle the gage reading.
d. Read the gage indicator dial. Read only the black signs;not the red signs.
For maximum accuracy, measure the connector a minimum of three times and take an average of
the readings. Use different orientations of the gage within the connector. After each measurement,
rotate the gage a quarter-turn to reduce measurement variations that result from the gage or the
connector face not being exactly perpendicular to the center axis.
e. Compare the average reading with the observed pin depth limits in Table 2-3 on page 2-4.
85033E 3-11
Use, Maintenance, and Care of the Devices
Gaging Connectors
Figure 3-4 Gaging Female 3.5 mm Connectors
3-1285033E
Use, Maintenance, and Care of the Devices
Connections
Connections
Good connections require a skilled operator. The most common cause of measurement error is poor
connections.The following procedures illustrate how to make good connections.
How to Make a Connection
Preliminary Connection
1. Ground yourself and all devices. Wear a grounded wrist strap and work on an antistatic mat. Refer to
“Electrostatic Discharge” on page 3-2 for ESD precautions.
2. Visually inspect the connectors. Refer to “Visual Inspection” on page 3-3.
3. If necessary, clean the connectors. Refer to “Cleaning Connectors” on page 3-5.
4. Use a connector gage to verify that all center conductors are within observed pin depth values in Ta b le
2-3 on page 2-4.
5. Carefully align the connectors. The male connector center pin must slip concentrically into the contact
finger of the female connector.
6. Push the connectors straight together. Do not twist or screw them together. As the center conductors
mate, there is usually a slight resistance.
CAUTIONDo not turn the device body. Only turn the connector nut. Damage to the center conductor
can occur if the device body is twisted.
7. The preliminary connection is tight enough when the mating plane surfaces make uniform, light
contact. Do not overtighten this connection.
A connection in which the outer conductors make gentle contact at all points on both mating surfaces
is sufficient. Very light finger pressure is enough.
8. Make sure the connectors are properly supported. Relieve any side pressure on the connection from
long or heavy devices or cables.
85033E 3-13
Use, Maintenance, and Care of the Devices
Connections
Final Connection Using a Torque Wrench
NOTEUsing a torque wrench guarantees that the connection is not too tight, preventing possible
connector damage. It also guarantees that all connections are equally tight.
Table 3-1 Torque Wrench Information
Co n nec tor Ty peTor q ue S e tt i ngTor q ue To le ran ce
3.5 mm90 N-cm (8 in-lb)9.0 N-cm ( in-lb)
1. Turn the connector nut. This may be possible to do by hand if one of the connectors is fixed (as on a
test port). In all situations, the use of an open-end wrench to keep the body of the device from turning is
recommended.
2. Position both wrenches within 90 degrees of each other before applying force. Wrenches opposing
each other (greater than 90 degrees apart) will cause a lifting action that can misalign and stress the
connections of the device involved This is especially true when several devices are connected together.
See Figure 3-5.
Figure 3-5 Wrench Positions
3-1485033E
Use, Maintenance, and Care of the Devices
Connections
3. Hold the torque wrench lightly, at the end of the handle only (beyond the groove). See Figure 3-6.
Figure 3-6 Using the Torque Wrench
4. Apply force downward to the wrench handle. This applies torque to the connection through the wrench.
Do not hold the wrench so tightly that you push the handle straight down along its length rather than
pivoting it, otherwise you apply an unknown amount of torque.
CAUTIONYou don’t have to fully break the handle of the torque wrench to reach the specified torque;
doing so can cause the handle to kick back and loosen the connection. Any give at all in the
handle is sufficient torque.
5. Tighten the connection just to the torque wrench break point. The wrench handle gives way at its
internal pivot point. See Figure 3-6. Do not tighten the connection further.
Do not pivot the wrench handle on your thumb or other fingers, otherwise you apply an unknown amount of
torque to the connection when the wrench reaches its break point.
Do not twist the head of the wrench relative to the outer conductor mating plane. If you do, you apply
more than the recommended torque.
How to Separate a Connection
To avoid lateral (bending) force on the connector mating plane surfaces, always support the devices and
connections.
CAUTIONTurn the connector nut, not the device body. Major damage to the center conductor can
occur if the device body is twisted.
1. Use an open-end wrench to prevent the device body from turning.
2. Use another open-end wrench to loosen the connector nut.
3. Complete the separation by hand, turning only the connector nut.
4. Pull the connectors straight apart without twisting, rocking, or bending.
85033E 3-15
Use, Maintenance, and Care of the Devices
Handling and Storage
Handling and Storage
•Use the plastic end caps and store the calibration devices in the foam-lined storage case when not in
use.
•Never store connectors loose in a box, in a desk, or in a bench drawer. This is the most common cause
of connector damage during storage.
•Keep connectors clean.
•Do not touch mating plane surfaces. Natural skin oils and microscopic particles of dirt are easily
transferred to a connector interface and are very difficult to remove.
•Do not set connectors contact-end down on a hard surface. The plating and the mating plane surfaces
can be damaged if the interface comes in contact with any hard surface.
3-1685033E
4Performance Verification
85033E 4-1
Performance Verification
Introduction
Introduction
The performance of your calibration kit can only be verified by returning the kit to Keysight Technologies for
recertification. The equipment required to verify the specifications of the devices inside the kit has been
specially manufactured and is not commercially available.
How Keysight Verifies the Devices in This Kit
Keysight verifies the specifications of these devices as follows:
1. The residual microwave error terms of the test system are verified with precision airlines and shorts
that are directly traced to NIST (National Institute of Standards and Technology). The airline and short
characteristics are developed from mechanical measurements. The mechanical measurements and
material properties are carefully modeled to give very accurate electrical representation. The
mechanical measurements are then traced back to NIST through various plug and ring gages and other
mechanical measurements.
2. Each calibration device is electrically tested on this system. For the initial (before sale) testing of the
calibration devices, Keysight includes the test measurement uncertainty as a guardband to guarantee
each device meets the published specification. For recertifications (after sale), no guardband is used
and the measured data is compared directly with the specification to determine the pass/fail status.
The measurement uncertainty for each device is, however, recorded in the calibration report that
accompanies recertified kits.
4-285033E
Performance Verification
Recertification
Recertification
The following will be provided with a recertified kit:
•new calibration sticker affixed to the case
•certificate of calibration
•a calibration report for each device in the kit listing measured values, specification, and uncertainties
NOTEA list of NIST traceable numbers may be purchased upon request to be included in the
calibration report.
Keysight Technologies offers a Standard calibration for the recertification of this kit. For more information,
contact Keysight Technologies. For contact information, see “Contacting Keysight” on page 5-4.
How Often to Recertify
The suggested initial interval for recertification is 12 months or sooner. The actual need for recertification
depends on the use of the kit. After reviewing the results of the initial recertification, you may establish a
different recertification interval that reflects the usage and wear of the kit.
NOTEThe recertification interval should begin on the date the kit is first used after the
recertification date.
Where to Send a Kit for Recertification
Contact Keysight Technologies for information on where to send your kit for recertification. For contact
information, see “Contacting Keysight” on page 5-4.
When you return the kit, fill out and attach a service tag. Refer to “Returning a Kit or Device to Keysight” on
page 5-4 for details.
85033E 4-3
Performance Verification
Recertification
4-485033E
5 Troubleshooting
85033E 5-1
Troubleshooting
Troubleshooting Process
Troubleshooting Process
If you suspect a bad calibration, or if your network analyzer does not pass performance verification, follow
the steps in Figure 5-1.
Figure 5-1 Troubleshooting Flowchart
5-285033E
Troubleshooting
Where to Look for More Information
Where to Look for More Information
This manual contains limited information about network analyzer system operation. For detailed
information on using a VNA, ENA or PNA series network analyzer, refer to the appropriate user guide or
online Help.
•To view the ENA or PNA online Help, press the Help key on the front panel of the network analyzer.
•To view an online VNA user guide, use the following steps:
1. Go to www.keysight.com.
2. Enter your VNA model number (Ex: 8753ES) in the Search box and click Search.
3. Under the heading Manuals, click on the title/hyperlink for the document PDF you want to view.
If you need additional information, see “Contacting Keysight” on page 5-4.
85033E 5-3
Troubleshooting
Returning a Kit or Device to Keysight
Returning a Kit or Device to Keysight
If your kit or device requires service, contact Keysight Technologies for information on where to send it. See
“Contacting Keysight” on page 5-4. Include a service tag (found at the end of this manual) on which you
provide the following information:
•your company name and address
•a technical contact person within your company, and the person's complete phone number
•the model number and serial number of the kit
•the part number and serial number of each device
•the type of service required
•a detailed description of the problem and how the device was being used when the problem occurred
(such as calibration or measurement)
Contacting Keysight
Assistance with test and measurements needs and information on finding a local Keysight office are
available on the Web at:
www.keysight.com/find/assist
If you do not have access to the Internet, please contact your Keysight field engineer.
NOTEIn any correspondence or telephone conversation, refer to the Keysight product by its model
number and full serial number. With this information, the Keysight representative can
determine whether your product is still within its warranty period.
5-485033E
6Replaceable Parts
85033E 6-1
Replaceable Parts
Introduction
Introduction
Ta b l e 6 -1 lists the replacement part numbers for items included in the 85033E calibration kit and Figure 6-1
illustrates each of these items.
Ta b l e 6 -2 lists the replacement part numbers for adapters that are available as options.
Ta b l e 6 -3 lists the replacement part numbers for items not included in the calibration kit that are either
required or recommended for successful operation of the kit.
To order a listed part, note the description, the part number, and the quantity desired. Telephone or send
your order to Keysight Technologies. For contact information, see “Contacting Keysight” on page 5-4.
6-285033E
Figure 6-1 Replaceable Parts for the 85033E Calibration Kit
Replaceable Parts
Introduction
85033E 6-3
Replaceable Parts
Introduction
Table 6-1 Replaceable Parts
Item No. Description QtyKeysight Part Number
Calibration Devices
1 3.5 mm -m- broadband load1
2 3.5 mm -f- broadband load1
a
85033-60027
85033-60016
85033-60028
85033-60017
3 3.5 mm -m- offset open185033-60018
4 3.5 mm -f- offset open185033-60019
53.5 mm -m- offset short185033-60020
63.5 mm -f- offset short185033-60021
Protective End Caps for Connectors
a
73.5 mm -m- connectorsas required1401-0208
83.5 mm -f- connectorsas required1401-0202
Calibration Kit Storage Case
9Box (without foam pads) 15180-8446
10Box pad (top)185032-80028
11Box pad (bottom) 185033-80025
b
b
Miscellaneous Items
125/16 in, 90 N-cm (8 in-lb) torque wrench18710-1765
13Open-short-load holder285033-40001
142.5 mm hex key18710-1181
15
User’s and service guide
c
Connector care-quick reference card
185033-90028
108510-90360
(not shown in Figure 6-1)
a. See “Clarifying the Terminology of a Connector Interface” on page 1-8.
b. Part numbers in italic typeface are for production assemblies and cannot be ordered by
customers. Both the replacement part number and the production part number are
interchangeable and have identical performance.
c. See “Printing Copies of Documentation from the Web” on page -ii
6-485033E
Table 6-2 Adapters
Description Qty Keysight Part Number
Replaceable Parts
Introduction
Option 100
3.5 mm -f- to -f-185027-60005
Option 200
3.5 mm -m- to -m-185027-60007
Option 300
3.5 mm -f- to -m-185027-60006
Option 400
Type-N -m- to 3.5 mm -m-11250-1743
Type-N -m- to 3.5 mm -f-11250-1744
Type-N -f- to 3.5 mm -f-11250-1745
Type-N -f- to 3.5 mm -m-11250-1750
Option 500
3.5 mm -m- to APC7 21250-1746
3.5 mm -f- to APC7 21250-1747
a. See “Clarifying the Terminology of a Connector Interface” on page 1-8.
a
a
a
a
a
Table 6-3 Items Not Included in Kit
Description Keysight Part Number
3.5 mm -f- gage set 11752-60105
3.5 mm -m- gage set 11752-60106
Anhydrous isopropyl alcohol (92% pure)
Cleaning swabs (100)9301-1243
Grounding wrist strap9300-1367
5 ft. grounding cord for wrist strap9300-0980
2 x 4 ft. conductive table mat and 15 ft. ground wire9300-0797
ESD heel strap9300-1308
a
a. Keysight can no longer safely ship isopropyl alcohol, so customers should
purchase it locally.
85033E 6-5
--
Replaceable Parts
Introduction
6-685033E
AStandard Definitions
85033E 1
Standard Definitions
Class Assignments and Standard Definitions Values are Available on the Web
Class Assignments and Standard Definitions Values are Available on the
Web
Class assignments and standard definitions may change as more accurate model and calibration methods
are developed. You can download the most recent class assignments and standard definitions from
Keysight’s Calibration Kit Definitions Web page at
For a detailed discussion of calibration kits, refer to the Keysight Application Note, “Specifying Calibration
Standards and Kits for Keysight Vector Network Analyzers.” This application note covers calibration
standard definitions, calibration kit content and its structure requirements for Keysight vector network
analyzers. It also provides some examples of how to set up a new calibration kit and how to modify an
existing calibration kit definition file. To download a free copy, go to www.keysight.com and enter literature
number 5989-4840EN in the Search window.
285033E
Index
A
adapters, 6-4
B
broadband loads, 1-2
C
calibration
certificate of, 4-2
constants, See calibration definitions
definitions, 1-3
entering, 1-3
frequency, 1-9
Keysight Application Note, A-2
report, 4-2
temperature, 2-2
when to perform, 1-9