Wavetek 3000 Service manual

INSTRUCTION
MANUAL
MODEL
SIGNAL
3000
GENERATOR
WAvaTE
K
INSTRUCTION
MODEL
SIGNAL
GENERATOR
MANUAL
3000
Serial
.
/2_5
1
q
s
THIS IS
DOCUMENT
TOBEUSED
CONTAINSINFORMATION
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IN
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MANNER
RF
5808
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INFORMATION
IN
IN
THIS
WRITINGOF
2-88
DOCUMENT
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.
WARRANTY
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of
component
Transfermatic
life
such
warranty
factoryorservice
prior
This
warranty Wavetek, defective be
billed at
Wavetek either be
dangerousifmisused.Special liability breachofwarranty specific
reliable,
of
instruments
after
year
(except
Switch
of the
instrument.Wavetek's
instrument
when
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does
or
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as a
result
cost
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assumes
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instrumentshipped
recommendations
other
forth herein
no
conjunctionwith
secondary
Wavetek warranties, assume
date of
batteries)
assemblies,
which,inWavetek's
returnedtothe
centeristo
Wavetek
by
accordance
of misuse,
responsibility
chargesorconsequential
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Wavetek
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with
instructions
improper
other
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contractorotherwise
against
whichaclaimismade
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no
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or implied,
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This
manual
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descriptive
of the
WAVE-IEKModel
SCOPE
material
OF
THIS
3000
MANUAL
instructions
Generator
Signal
for the
installation,
operation,
main-
CONTENTS
SECTION
SECTION
SECTION
1
2
3
THEORY
3.3
3.4
3.5
3
3 3
3
3
.10
3
.11
3
.12
3
.13
3
.14
3
.15
GENERAL
1
.1
1
.2
1
.3
1
.4 OPERATION 2
.1 2
.2 2
.3 2
.4
2.5 2
.6
2.7
3
.1
3
.2
.6 .7
.8 .9
INFORMATION
INTRODUCTION SPECIFICATIONS
OPTIONS ACCESSORIES
INTRODUCTION
MECHANICAL
ELECTRICAL DESCRIPTION DESCRIPTION INSTALLATION OPERATING
OF
INTRODUCTION
OVERALLBLOCKDIAGRAM C315 C316
DPS2A
DELETED M9W
M10W M172
M29-1
M30 M31
M32 - MHz M33
M34
.
OPERATION
- METERBOARD
-
MODULATION
-
POWER
-
SWEEP
-
OUTPUT
-
SWEEP
FM
-
CRYSTAL
-
kHz
-
NARROW
-
WIDE
. . . . .
. . . . ...
. . . . .
.
. . . .
. . . . . .
INSTALLATION INSTALLATION
OF
FRONTPANEL
OF
REARPANEL
CHECKS
PROCEDURE
.
. . . . . . . .
BOARD
SUPPLY
OSCILLATOR
AMPLIFIER
DRIVE/DAC
REFERENCE
SOURCE
STEPS.. . . . . . . . . . .
STEPS..
OSCILLATOR
OSCILLATOR
. . . .
. . . . .
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. . .
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.
... .
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. ...
.
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LOCK
LOCK
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.
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. . ..2-4 . .
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..3-8 . .
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.
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.
.
.
. .
. .
1-1 1-2
1-4 1-4
2-1 2-1
2-2 2-2
2-5
3-1
3-1 3-9
3-10 3-10 3-11 3-12 3-13 3-14
3-15 3-16 3-17 3-19 3-20
SECTION
4
PERFORMANCE
4.1
4.2 4
.3
4
.4
4
.5
4.6 4
.7
4
.8
4
.9
4
.10
4
.11
4
.12
4
.13
4
.14
4
.15
TESTS
INTRODUCTION FREQUENCY FREQUENCY FREQUENCY OUTPUT
HARMONICS NON-HARMONIC RESIDUAL RESIDUAL
INTERNAL
PERCENTAM AM AM
FM FM BANDWIDTH
LEVEL
AM MODULATION
BANDWIDTHTEST DISTORTION
DEVIATION
. . . . . . . . . . .
RANGE
ACCURACYTEST
STABILITY
TEST
FM TEST
ACCURACYTEST
AND
RESOLUTIONTEST
. . . . . . . .
TEST
ACCURACY
. . . . . . ... . . .
TEST
TEST
TEST ACCURACY TEST
TESTS
. . . . . . . . . . .
. . . . . . . . .
. . . . . . . . . . .
FREQUENCYTEST
. .
. . .
.
. . .
TEST
. . . . .
. . . . . .
. . . . . . .
. . . . . .
.
. . .
. . . . . . .
. . . .
. . . . . . .
. . .
. . . . .
. . .
. . . .
4-1 4-2
.
4-3
.
4-5
.
4-5
.
4-11
.
4-12
.
.
4-14
.
4-15
4-16
.
4-17 4-19 4-21
4-22
.
.
4-23
CONTENTS
4
.16
4
.17
4
.18
DISTORTION
FM
IMPEDANCE RFI
TEST.. . . . . . ... . .
TEST
CONTINUED
TEST
. . . . . . . . . .
. . . . .
.
. . . . ...
. . " "
.
4-25 4-26 4-27
SECTION
SECTION
SECTION
SECTION
5
MAINTENANCE
5.1 5
.2
5
.3
5
.4
REPLACEABLE
6
6.1 6
.2
SCHEMATICS
7
7
.1
7
.2
7.3
7.4
8
MANUAL
8
.1
8
.2
8.3
INTRODUCTION
SERVICE CALIBRATION
TROUBLESHOOTING
INTRODUCTION
MANUFACTURER'S
INTRODUCTION SCHEMATICNOTES
ABBREVIATION
SCHEMATIC
CHANGES
INTRODUCTION MANUAL OPTIONS
...
INFORMATION
PROCEDURE
PARTS
INDEX AND
CHANGES
. .
. . . .
. . . . . . . . . .
.
. . .
. . . . . . . . . . . .
CODE
.
. . . .
CODE
OPTIONS
.
. . . . . .
. . . . . .
. . . . . .
. . . . . .
. .
. . .
. . . .
. . .
. . .
. . . . . . . . .
.
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. . . . . . .
. . . .
. .
. . .
.
. .
. . " " .
. . . . .
. . . . .
. .
. .
. . . .
. .
. . "
5-1
.
5-1 5-3
.
5-7
6-1 6-1
7-1
"
.
7-1 7-2 7-2
8-1 8-1 8-1
INTRODUCTION
1
.1
The
Model
solid-state
the
frequency
The
output modulated tween
1
The front
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overall including
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instrument
SECTION
INFORMATION
capabilities
frequencies
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GENERAL
1
.2
SPECIFICATIONS
1
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RANGE READOUT RESOLUTION
ACCURACY
STABILITY
1.2.2
INFORMATION
Frequency
RF
OutputLevel
1
MHz
to
520
6
digit
1
kHz
CW andAM modes
FMx1 FMx100
CW
and
FMx1
lever/indicator
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3
months
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MHz
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POWER
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TOTALLEVEL
ACCURACYBREAKDOWN
1
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IMPEDANCE SWR
LEVEL
CONTROL
Output
RANGE
ACCURACY
Characteristics
+13
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Continuously with dicated
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Step
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frontpanelmeter
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to -7 dBm)
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HARMONIC
SUB-HARMONICS
Spectral
Purity
OUTPUT
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Nonedetectable
below
dB below
fundamental fundamental
from
from
10
520
10
MHz MHz
to
1
to
NON-HARMONICS
RESIDUAL
RESIDUAL
1
.2.5
FREQUENCY
AM
Amplitude
Internal
External
FM
Modulation
Fundamental
(MHz)
3
1
to
250
3
to
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post-detection
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bandwidth
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400 DC
required vide
350
to
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1
to
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to
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to 1000
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bandwidth
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thepeak
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(MHz)
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to
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600
control
INFORMATION
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(dB
fundamental)
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to
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kHz
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Hz
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above
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to
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RANGE DISTORTION
MODULATIONCONTROL
ACCURACY
1
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Frequency
FREQUENCY
Internal External
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ACCURACY
DISTORTION
Modulation
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a
Calibratedfrom
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and
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level
at
kHz
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500
GENERAL
1
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1
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OPERATING
OUTPUT
RFI
POWER DIMENSIONS
INFORMATION
Programmability
General
TEMPERATURE
CONNECTOR
Frequency
input
or
BCD-coded
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1.3:1
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Programming
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For are
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1
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1
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1
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Furnishedwithinstrument
Additional
Auxiliary
Low
ACCESSORIES
PowerProtection
RF
Output
Leakage
Accessories
Option
if
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are
accidentally
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whenusingoption
Option"4" signal nector.Normally
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Option of
Section
Instruction
Rear-panel Rack
Mount Programmers control
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available
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7
Service
max)
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provides
reduces
1
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Manual
PROGRAMMING
Kit,
for
of
selectedfrequencies
Series
GENERAL
or RF
applied
option
lA
or
a
fromarear
used
K108
single
3900 Kit,
to
the
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by a factor
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K004
INFORMATION
the
to
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panel
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pins
or GPIB
and
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dBm)
con-
2
.1
INTRODUCTION
This
lation
Wavetek
The installation, front lationchecks
2.2
2.2
sectionprovides
and
operating
Model
instructions
and
rear
MECHANICAL
.1
Initial
complete
instructions
3000 electrical
panel
and
Inspection
signal
consist
operatingprocedures
INSTALLATION
of
installation,
features,
instal-
for the
generator
mechanical
instal-
SECTION
2
OPERATION
and
Retain material
The
.
.
will replacement without ments
2
.2 .3
the
local
immediately
.
ZackMounting
Item
shipping
for the
representative,
or
repair
waiting
for
CONTENTS Qty
carton
carrier's
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of
damage
(K108)
or
for
your
claim
packing
inspection the
factory
either the
instrument,
settle-
PartNo
.
.
After
inspect to knobs, The erialshould necessary
2.2 .2 If
damaged and
representative
unpacking
the
connectors,
shippingcontainer
to
DamageClaims
the
instrument
in
either
the
external
be
reship
transit,
the
or
instrument,
parts
surface
and
saved
is
receivedmechanically
nearest
the
the
notify
factory
in
unit
visually
for
areas,
packing
case
.
the
Wavetek
in
damage
etc
mat-
it is
carrier
area
Indiana
A
(Insert)
B
(Side)
.
.
C
(Screw)
D
(Screw) Procedure Remove
Mount panel
the
screws
longer eration
:
the items
of
the
than
for the
2
ea
2
ea
8
ea
4
ea
(See
Figure
screws
A
and
instrument
provided
screwsC.)Repeat
other
from B
.
2-1) one
against
and
(Screws
side
B001-145 0001-146 HS101-808 HS101-810
side secure
of
the
the
the
panel
side
with
D
unit
.
are op-
.
Figure
2-1.
K108 Rack
Mount
OPERATION
2
.3
ELECTRICAL
The
instrument
volt
AC
selected the
rear
instrument, in
the
Rear
ponds
to
or
by a panel
the
INSTALLATION
operates
230
volt
SlideSwitch
.
Before
check
Panel
that
Fuse Holder
correct
from
AC
supplymains
the
value
FREQUENCY
I-SYO
MH
either
located
operating
fuse
for
-
mounted
corres­the
O
~
115
as on
the
se-
1007
ACCURACY
3700td0
-KHZ
lected volt
The
voltage,
AC
power
operate
mains
.
Instruments for
operation
less
specified
operation
.
5
KH
RMS VOLTS
and
from
.
0
supply
are
OU
dBm
i.e
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either
shipped
at
115
for
PUT
.,1.0
amp for
has
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50 or 60
volt
230
7
9
from
volt
amp
for
230
volt
designed
Hz
the
AC
60
AC
UNlE0LE0
a
115
AC
to
supply
factory
Hz
un-
or 50 Hz
a
.
MODULATION
VERNIER
400Hz
EXT
-
POWER
off
~~
WAvET
CW
AM
FM
V
iE
Figure
2
.4
DESCRIPTION
OF
FRONT
PANEL
AM
FM
4 3
z
I
0 0
90
50
model3000
2-2
VERNIER
\
a
RF
out
.
Front
Panel
SIGNAL
GENERATOR
0
2-2
Lever
Indicator
Switches
Select from
and
indicatedesired
1
to
520 MHz
witha1kHz
output
frequency
resolution
.
OPERATION
O2
AccuracyLamps
O3
Output
4O
Unlevel
LevelMeter
Lamp
Indicate and
AM
modes, ±(0
±(0
.001%
lamp
willflash
is
turned steady phase-locked dication light lock
identified looking light
Indicates in
VRMS
Indicates
not
light
indicates
loops
for the
.)
and
validwhen
frequency
.001%
+
45 kHz)
for
on
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indicates
and the
is
valid
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by
outputlevel
dBm
that
.
that
open
removing
corresponding
.
the
the
accuracy
in
FMx100
a
few
frequency
A continuouslyflashing
one
.(The
outputlevel
lamp is on
.±0
+
10
.Typically
seconds
normal
that
or
more
open
the top
over
.001%
kHz) in
after
operationa the accuracy
of
loop
cover
"module
a
10 dB
accuracy
.
FMxl
unit
thephase
in
CW
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the
power
is
in-
canbe
and
fault"
range
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O5
Attenuator
6O
Vernier
O7
AM/FMVernier
FrequencySwitch
Controls from+10to
is
calibrated
Controls range
Is
calibrated
tion mits precise mode
tively
1
kHz
manualamplitude
the
frequency
provides
the
modeswitch
vides
quency
FMxl
Selects frequencyicontrol,
modulation
.
and
switch
and the
or
up
change
and
the
outputlevel
theoutputlevelover
from
in
Ext
.
up
toa+5
FMx100 vernier,
and
-130
dBm
in
dB
from
O to
0
to
90%
AM
and
AM
and
frequency
Thevernier
and
switch
to
+6 dB
is
in
kHz
when
respectively
for
400Hz
external
over
a140
.TheAttenuator
and
VRMS
.
kHz
FM
5
AM
.This
FM FMxlor
frequency
vernier
in
amplitude
the
or up
mode
the
manual
modulation
settings
switch
also
AM
to
and1kHz
peak
control
FMx100
serves
control
.Thevernier
change
and +500
switch
.
amplitude
dB
range
dial
an
11
devia
per-
with
respec-
in
400
as
with when
also pro-
kHz
fre-
is
internal
.
dB
the
Hz,
a
in
or
O9
Ext
Modulation
nal for
V peak-to-peak
dance
A
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AM
calibrates
full
.
signal
input and
acceptsaDC to 20
a
DC
signal
the
voltagewill
scale
Therefore,
into
600
to
25
into
AM/FM
vernier
calibration
a1volt
ohms
kHz for
a
600 ohm
result
will
kHz
FM
full
in
of
peak-to-
result
sig-
.
A
impe
scale
a pro-
the
in
2-3
10
.
AM/
a
OPERATION
(D
continued
Ext
ModeSwitch
RF
out
Power
Switch
WARNING TO
PREVENT
WARNING FOR FIRE
SAME
ELECTRIC
COVERS.NO
INSIDE.REFER
PERSONNEL
:
CONTINUED
TYPE
AND
SHOCK,DONOT
USER
SERVICING
PROTECTION
ONLYWITH
REPLACE
RATINGOFFUSE
SERVICEABLE
TO
AGAINST
THE
full
tion
FMx100 Selects
Type the
RF
Provides
scale in
or
CW, AM,
connector
N
output
calibration
FMxl,
10%
AC
power
a
50
amplitude
FMxl
provides
signal
to
kHz
.
of
or
the
Hz
500
peak
deviation
modulation
FMx100
a
connection
power
peak
operation
supply
devia-
in
.
AM
for
in
.
.
2
O
.5
DESCRIPTION
Switch
AC
Input
Line
115/230
Fuse
50/60
OF
Hz
REAR
V
PANEL
Figure
2-3
Rear
.
Selectseither
supply ment Panel value
1 .0
amp
volt
3
prong
mains
Panel
115
mains
checkthat
FuseHolder
fortheselected
AC
.
.
for
AC
.
115
plug
Before the
volt
operating
fuse
mounted
correspondsto
voltage
volt
AC or0.5
provides
AC
or
connection
230
volt
the
instru-
in
the
the
correct
.
ampfor230
to
AC
Rear
AC
OPFRATION
Programming
O5
Modulation
2.6
INSTALLATION
The
following
termine
properly
ibration in
other it is operating specifications,refer
on
2.6.1 Verify
is
matched
and
(See Turn "ON" panel
that
.
of
sections
determined
the
back TurnOn
that
to
that
Section2.3
position
the
front
accuracy
the
Performance
properly
procedure
the
the
of
the
the
proper
.
lights
Test
CHECKS
instrument
instrument
of
that
title
the
power
line
Electrical
panel
One
Point
is
testing
this
the
or is
the
to
page
transformer
voltage
fuse
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power
or
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willbe
used
operating
is
and
contained
are
manual
unit
meeting
not
warranty
.
primary available, installed
switch of
the
illuminated
to
.
is
to
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not
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Providesconnection
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Monitors
lation
If
.
.
.
indicating
warmup
2.6 .2 Set the
as
follows
Output
ModeSwitch
Frequency
AM/FM
Vernier
Attenuator
for
internal
is
ControlAdjustment
Model
Frequency
Vernier
an
needed
:
Switch
or
external
operating
for
3000
programming
AM
condition
following
the
frontpanel
10
MHz
(Lever
cator
010..000) CW
1
kHz
0
(Down
Full
CW
0
dBm
of
or
FM modu-
.No
checks
controls
switches
.
Position)
fre-
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indi
to
NOTE
SCOPE
VERTICAL
BNC
TEE
SO
SZ
LOAD
MUST
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BE
HIGH
FREQUENCY
Figure 2-4
OSCILLOSCOPE
.
Test
(GREATERTHAN
Setup
10
MHz)
2-5
OPERATION
2
.6 .3
RF
Output
Check
Connect
2-4
.
0.9V must
p-p
be
The
the
(a
used
equipment
10
MHz signal
high
for
as
frequency these
checks)
shown
must
beat
oscilloscope
in
.
Figure
least
Figure 2-6
.
FM
Modulation
Figure
2.6 .4 Switch
AM/FMvernier
point played to-valley
.45 2-5)
2
.6.5
Move
position
iod 2
.6.6
Switch the that
play
AM
Modulation
the
Verify
.
on
the
V
andaperiod
.
AM Modulation
the
frequency
.
is
2.5ms
FMxl
the
AM/FMVernierup
oscilloscope
the
(See
Figure
2-5
mode
voltage
switch
up to
that
oscilloscope
Verify
. Check mode
AM
.
Check
the 50%
the
difference
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Check
switch the
switch
and
2-6)
.
Modulation
(1000
to
AM
AM
envelope
showsa
.(See
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to
AM
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to
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down
shows
Hz)
.
Move
modulation
peak-
of
about
Figure
Hz)
the
400
.Move
.Verify
FM dis-
an
the
dis-
Hz
2
.6 .7
Switch repeat
2
.6 .8
Leaving positionplace
the
the an
scope 2
.6
Switch tion
in light
2.6 Switch
that controls
FMx100Check
the
mode
the
above
FrequencyVernierCheck
the
Vernier
AM/FMVernierfrom
increase
.
.9
.
output
.10
the
position
Vernier
the
mode
Verify
from
amplitude
may
come
AttenuationCheck
the
mode
output change
mode
the
in
frequency
Output
0
to 50
switch
check
switch
frequency
.
switch
that
.
on
during
switch
vernier
the
to
FMx100
.
in
the switch
Verify
0
Check
moving
shows
(NOTE:The
amplitude
that
to
5
on
the
to
theAM posi-
an
this test
to
CW
and
attenuator
and
FMx100 moving
kHz
shows
oscillo-
AM/FM
the
increase
unlevel
.Verify
of
the
in
.)
2-6
OPFRATION
signal
The
2.7
No
beyond stallation
2.6.
perform
the
warmup
2.7 .1
Verify mary
available installed Installation switch
accuracy
indicating NOTE lights This onds refer title to be
specifications,
ately, required
NOTE
transceivers, to
applied Damage circuitry pens
2
.7 .2
Select six
front 520 MHz can
resolution
displayed
instrument
OPERATINGPROCEDURE
preparation
completion
To
insure
as
stated
instrument
before TurnOn
that
is
matched
and
"ON"
lights
:A
.If
:Whenworking
keep
.
Lever
flashing
indicates
should
to
thewarranty
page
.If
used
otherwise
.
voltage
to
may
occur of
Frequency
the
panel
.
on
the
is
now
for
operation
checks
the
(See
.Turn
.One
an
cease
the
to
the
etc
the
the
frequencydesired
Indicator switches
.
A frequency
be
that
in
should
using
power
to
that
Section
or
will be
operating
an
in
flashing
the
extreme
it
a
.,
or RF
RF
to
the
Model
Selection
selected
contained
withactive
ready foruse
of
the
the
Model
the
specifications,
have
.
transformer
the
the
proper 2
.3
the
more
indication
unlocked
a
matter
does
on
the
unit
can
be
two
hour warmup
care
output
should
power
output
3000
is limits
between with
oscilloscope
is
required
initial
in
Section
3000
a
two
line
front
usedimmedi-
voltage
fuse
Electrical
panel
frontpanel
illuminated
condition
on
condition
of
not
cease,
back
if this
of
not
going
of
circuits,
be used
from
being connector attenuator
hap-
with
on
1
a
1
in-
will
hour
pri-
the
sec-
the its
the
the and kHz
is
is
2,7
. .
. .
.
.3
OutputLevel
Set
the
output
to
the
desired
continuously
-137 attenuator equals
dBm output
imum ceeded indicating
2.7 .4 Set
quency modulation nier depth
2
CAUTION ±10
to
nector
circuitry Set
quencyswitch
V nal
calibrates The
set input
NOTE
taken level
unlevelcondition
cases, cause
the This PINdiode causean
lation
.7
.5
the
p-p
modulation desired
.The
RF
dBm
range
the is
as
long
does
output
the
unlevel
AM
Modulation
the
mode
switch
to
indicate
.
AM Modulation
:
Input
VDC
or 10 external or
damagemay of
the
mode
signal
upper
is
20
:
When
not
to
or
excessive
a
high
the
unlevel
vernier
is
caused
leveler
increase
added RF possible
as
not
level
an unleveledcondition
switch
rate
the
switch
into
the'AM/FM
modulation kHz AM
exceed
Selection
attenuator
level
adjustable
.The
to
the
output the
to
.
VRMS
to
.
modulating,
%
by
.NOTE
at
peak
exceed
.If
light
to
either
Adjust
the
desired
voltages
should
modulation Model
to
external
600
input
frequency
the
distortion
can
of
AM modulationmay
light
control
the
which
in
and
.
The
output
over
level shown
meter
levels
of the
this
will
-
Internal
AM
-
External
occur
3000
AM
ohms
connector Vernier
depth
+13
exist
to is
bottoming distortion
indication
:
the
+13 dBmmax-
level
illuminate
and the
400
or 1000
the
AM/FMver­modulation
greater
not
be input to
.
and the
.
Apply
to
the
can
limit
care
dBm
.In
come
at
in
vernier
a
+13
on
AM
modu-
above
modulated
is
ex-
.
fre-
than
applied
con-
internal
fre­a 10
Exter
.
This
control
then
of
this
must maximum
and
some
on
when
minimum
of
the
turn
can
.If
is to
the
+3
Hz
.
be
be an
.
2-7
OPERATION
this
is
the attenuationand control
light
2.7.6 Set
and the
Adjust
peak
2.7 .7 CAUTION
t10 VDC to nector
circuitry
Set and the Apply
the
This
trol
set
quencylimit
toward
should
FM Modulation
the
modeswitch
frequency
the
deviation
FM
:
or
the
external or
the
modeswitch
a 1OVp-p
external
calibrates
.The
.For
then
AM/FM
Modulation
Input
10
VRMS
damage of
the
frequency
modulation
desired FM modulation
is 25
case,
maximum
vernier
.
voltages modulation
.may
Model
signal
the
10
dB of RF
the .
The
.
Internal
FMxl
or
or 1000 Hz
to
the
External
turn go
to
add
out
-
to
400
­greater
should
not
be applied
input
occur
to
switch
3000
FMxl
into
input
to
.
to
600
connector
or external
AM/FMverniercon-
deviation
peak
the
upper
kHz
.
fixed vernier unlevel
FMx100
desired
than con-
internal
FMx100
ohms
canbe
fre-
to
2.7 .8
Switch FMx100
to
output
in
the
.
position
2.7 .9 Switch
tion
Using
output enables obtained
2.7
.
Frequency panel
.
8-4-2-1 connector See identification in
VernierControl
the position
Vernier
.
control,
positive
a
xl
position
.
Vernier
the
mode
and
the
the
AM/FM
amplitudecan
more
over
Programming
.10
is
input
BCD
is
Figure
parallel
mode
switch
and the
Using
frequency
direction
or
Control
switch
frequency
than
portions
programmable
connector
contact
supplied
2-7 for
.
with
the
Indicatorswitches programming
switches
panel
Rear plemented
is
should
BCD
by
referring
used,
programming
FM
frequency
the
500 kHz
switch
vernier
be
20
mW
closures
pin
These
front
.If
indicate
Position
to
the
AM/FM
can
up to
in
-
AM
Position
to
the
to
control
varied
of
of
.
power
the
via
set
by
.
with
each
location
connections
panelLever
the
rear
the
frontpanel all canbe
Table
to
FMxl or
switch
vernier
be
varied kHz
5 the
AM posi­Vernier
It
to
band
a
rear
standard
mating
A
unit
panel
zeros
2-1
in
x100
.
the
also
be
.
. and are
.
im-
.
33 29
25
21
17 13
9
5
Figure
2-8
2-7
PIN
MOD
T.P
7
.3V
.
Pin
Location
1 2
3
4
5
6
7
8
9
10 11
12 13 14 15 16 17 18 19
20 21
22 23
24 25 26 - 31 32
33-35 36
&
Identification
CONNECTION
N.C. 400 200
100
80 40 20 10
.08 .04 .02 .O1
.
oo8
ground
N.C.
7.3V N.C
MOD.T.P.
100's
8 4
1's 2 1
.8 .4
.2 .1
.O1's
.001's
.
TABLE
Logic Logic
2-1
"0" "1"
.
PROGRAMMING
Switch
Open
Ground
TTL
>2 <0
.2V .4V
3.1 Section
analysis brief the contain each
For
subassemblies, in
3.2
TheModel
controlledoscillator locked havebeen resolution
Thediscussionwill basic scribehow vide
3.2 This
RF is
amplified, lated
Refer
of
phase RF
The twoUHF outputs
erodyned
INTRODUCTION
3.2presents to
enable
overall
instrument
more
subassembly actual
Section
OVERALL
loops
signal
the
additional
.1
Basic
discussionbriefly
is
generated
controlled,
.
to
Figure
the
basic
locking
GENERATION
RF
output
oscillators
of
in
view
.
detailed
wiring
7
of BLOCK
3000
is
and
added
.
generator
the
Signal
also
leveledand
3-1'
signal
.
frequency
the two
the
mixer
.
refer
the
essentially
for the
phase-locked
and
a
block
the
reader
of
the
Sections
descriptions
of
the
to
the
manual
DIAGRAM
to
which
a
crystal reference
highfrequency
first
accuracy Generator
how how
for
and
oscillatorsare
dealwith
then
describes
its the signal
amplitude
a
block
generator
is
a mixer
.Thedifference
to
operation
3
.3
chassis
schematics
.
a
it
will
loops
.
frequency
without
generatedby
diagram
get
-3.15
and
voltage
phase-
the de-
pro-
how
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modu-
diagram
.
The
het
of of
is
a
THEORY
frequency output
The are their
Oscillator
The WideOscillator
over Narrow Narrow
RF FREQUENCY
The by programming
Wide
tor front panelFREQUENCY
BCDoutput verted
grams This
mately
RF
The
stage, output leveling lifier
The Error
Attenuator peak This
reference of
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changes Amp
a
DC
amplifier
frequencies
controlled
varactor diodes
a
range Oscillator frequency
RF
output
Oscillator
is
ultimately
to the
analog
3
AMPLIFICATION
RF
power wide-band
is
.
Leveler
Amplifierand
of detected
Error
the
the
until
level
OF
is
amplified
byDC voltages
yields
from
CONTROL
frequency
of
these
an
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oscillator
signal
MHz accuracy
is
maintained
system
includesaMonitor
.
The
the
output
level
by
the
Amp
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inputlevel
the
monitored
equal
SECTION
OPERATION
and fed
.
of
these
.
a
single
can
the
frequency
to
520
.
the
frequency
.
TheWide Oscilla-
controlled
switches
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.
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.4
the
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variablefrequency VCO
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out
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1200
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to of
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3-18
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cated
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pass
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in
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Signal
3.15 .2 The
verted
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Refer for
Mixer with
quency frequency,
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42
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300
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the
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Circuits
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to
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to
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4
.1
INTRODUCTION
The
purpose
the
following
that
the
Model meets agraph
tests
be list
test
a
Critical of 4-1 cept
ment
all tails
The top
performance
its
published
1
.2)
consist
verified,
of
equipmentrequired
procedure
simplifiedsetup
specifications
test
equipment
of
RecommendedTest
as
detailed
apply
other
Signal and
to
test
are
omitted
bottomcovers
of
the
performance
paragraphs
3000
Signal
specifications
.Individual
of
:
the
the
method
including
drawing
are
settings
performance
equipmentoperating
.
Generator
installed
tests
.
All
testsin
is to
Generator
performance
specification
of
testing,
andadetailed
in
some
.
for
each
listed
Equipment
of test
test
should
in
procedures,
have
of
the
for the
verify
(par-
cases
item
Table
.
Ex-
equip-
de-
its
tests
to
SECTION
PERFORMANCE
can
be
performedwithout internal controls power
tion
lation
maintained
or performance
a
after Signal
ambient
A copy
(PTR) section the performance out and incoming as ing basic of
to
the
Signal
2
for
details
.
The
at
60
Hz
throughout
test
a
two-hour
Generator
temperature
of
the
is
provided
for
convenience
performance
tests
used
inspection
a
guide
.The
the
for
PTR
controlsettings
tests
refer
.
Generator
of
line
115
Performance
of as routineperformance
lists
voltage
or
procedures
minimum
in
range
at
the
.
a permanent
the
to
access
Before
electrical 230
volts
the
tests
warmup
a
+20
.
Test
the end
in
Model
It
can
or it
can
paragraph,
and
limits
this test
to
3000
4
TESTS
to
applying
see
instal-
should
±10%,
.The
are
begun
of
+30
record
of
recording
during
be
filled
record
be
test
test,
.
record
the
Sec-
be 50
the
0 C
this
for
used
All
.
INSTRUMENT
DigitalMultimeter
Distortion
FrequencyCounter Function
Analyzer
Generator
TABLE
4-1
FOR
MODEL
10
VDC Range Range
Level
600 Range Distortion
.
RECOMMENDED
3000
CRITICAL
:
t(0
:
5
:
to
:
10
ohm
:
>0
PERFORMANCE
REQUIREMENT
.07IR+0
Hz
to
525
Vp-p
load
.2
Hz
:
<1%
MHz
>25
sine to
TEST
.02%FS)
kHz
wave
>25
kHz
EQUIPMENT
TESTS
into
RECOMMENDED Keithley
HP334A
HP5300B/5303B Wavetek
179
130
PERFORMANCE
PowerMeter
ModulationMeter
Oscilloscope
Spectrum
PrecisionAttenuator
Pads
TESTS
Analyzer
TABLE
Range
Input
Accuracy Range
Residual
ResidualAM AM
Range
Sensitivity
Range Display
10, 20,
:10
Level
: :5 to (quiet
(in CW)
Accuracy
:
DC
:500 kHz
:
30
FM
4-1
.
(Cont'd)
to
>520
MHz
:
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t1I
FS
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MHz
:
<100
Hz
room)
:
<0
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:±(2%R+1IFS)
to2MHz
:
2
V/cm
to 1200
2
dB
log and
and
40 dB
+13
(rms)
(rms)
(AC
dBm
coupled)
MHz
10
dB
log
HP435A/8481A
AFM2
HP8554L/8552B/
Weinschel
Radiometer
Tektronix
5A18N/5B10N
141T
50-20, and
50-40
D10/
50-30,
50-10,
WidebandAmplifier
Sweep/Signal
VSWR
Coaxial
Loop
4.2 SPECIFICATION
METHOD
Bridge
50
ohm
Probe
FREQUENCY
Range Resolution
Short
Load
Range Gain
Impedance
GeneratorRange
5
to
50 Type
BNC
See
RANGE
AND
RESOLUTION
1
MHz
1
kHz
A
frequencycounter and the modes
indicatorswitches
lector digits
1
to
;
:
26 dB
:
525
dB directivity
N
female
Figure
to
520
frequency
between
(a
provide
:
1
to
MHz,
TEST
total
520
50
520
4-9
MHz
1
and 520
1
MHz HP8447D
ohm
MHz Wavetek
ohm Wiltron
50
.
1
selectable
is
used
resolution
MHzare
.Each
of
56)
kHz resolution
of
will
kHz
in
to measure
.
All
selected
the
digits
be
tested
.
steps
frequencies
.
the
by
front-panel
of
the
.The
HP11511A HP11593A
frequency
in
frequency
0
through
CW
2001 60N50
range and lever/
9
AM
se-
kHz
2
EQUIPMENT
Frequency
PROCEDURE
Counter
HP5300B/5303B
1.Set the
FREQUENCY MODULATIONMODE
MODULATION
MODULATIONFM/AM OUTPUTVERNIER
OUTPUT
2.Connect
ohm
inputof
frequency
3.Observe setting steps
by1.00
9 specification
and
kHz
.Theforegoingprocedureverifies
step
to
of
verify
kHz
Signal
selector
FREQ
the the
the
the
±1
Generatorcontrols
050
CW
(Inactive (Inactive
Fully
attenuator
Signal frequency
seven
frequencycounter reading
Signal
that
count
.
Generator
digits
Generator
the
for
+10
counter
.
FREQUENCY
frequencycounter
each step
PERFORMANCE
as
.000
MHz
in in
Clockwise
dBm
RF
out
connector
.
Set the
increasefrom
the1kHz
follows
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MODE) MODE)
CW
counter
.Increase
selector
reading
TESTS
:
to
the
to
in1kHz
increases
1
through
resolution
50
read
the
4
.3
FREQUENCYACCURACY
SPECIFICATION
Accuracy
4.Repeat creases
kHz
step for
mark
FREQUENCY
Ran_&e
050 050
050
050 001 0
.20
TEST
CW FMxl
FMxl00mode
digits
is
each
in
.000-050 .000-050 .000-050 .000-059 .000-091 .000-520
and
AM
mode
indicated
equal
the
(MHz
the
.
of
the applicable
Selector
)
.009 .090 .900 .000 .000 .000
modes
procedure
in
If
the
to
the
steps
Increase per
the actual
allowable indicated
step
1
10
100
1
10
100
±0
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2
hours ±(0 ±(0
table
space
kHz kHz
kHz MHz MHz
MHz
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within
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3
for
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the
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.
Digits
7 7 6 5 5 10 6
15
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1
ncy
min
months
per table, of
the
Counter
Allowable per
step
100
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.
of
step
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PTR
1
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10
.00 100 1
.000
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Reading
Increase
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count
kHz kHz
.0
kHz MHz MHz MHz
.002%
the
count check
after
in-
10
per
4-3
PERFORMANCE
METHOD
EQUIPMENT
Frequency
PROCEDURE
TESTS
Counter
A
frequencycounter
In
CW
and
AM modes
derived
Signal that
specified
Frequencyaccuracyin accuracy a voltage-controlledoscillator of
in
FMx1
tionwith
mum
HP5300B/5303B
FREQUENCY
MODULATION MODULATION
MODULATION
OUTPUT OUTPUT
from
Generatorwill
the
crystal-controlled
limits
.
The
the
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and
FMx100
a
DC
sinusoidal
Set
the
Signal
selector
MODE
FREQ FM/AM
VERNIER
step
attenuator
allfrequencies
a
single
.
FM systemaccuracy
modes
modulation modulation
used
is
crystal-controlled
be
tested
FM
modesdepends upon
will
signalequal signals
Generator
to
measure
between
one
includes addition
.
.000
CW
.
Frequencyaccuracy
to
as
MHz
at oscillator
in
be measured
controls
040 CW
(Inactive
(Inactive FullyClockwise +10dBm
frequency
1
and 520
oscillator
frequency
operates
the
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to
in
VERNIER
the
peak
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in
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accuracy
to
FM
accuracy
accuracy
the
of
:
MHz are
.
The
verify within
system
of
posi­maxi-
.
2
.
Connect
Signal
3.The kHz of
4
.
FREQUENCY
MODULATION MODULATION MODULATION
5.The
1,015
3
6.Set the Signal
7.The
1,545
line
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the
Set the
of
the
4
GeneratorRF
Record PTR
.01
.01
of
the
counter
the
.
Signal
selector
MODE FREQ FM/AM
frequency counter
the
. .
.
Record
PTR
kHz
PTR
frequency
kHz
50
ohm
should
counter
Generator
Generator
counter
Record
.
out
the
input
read
of
the
connector
between
readingto
should
counterreading
should
the
counter
.
controls
001
.000 FMx1 VERNIER 5
kHz
MODULATION
frequencycounter
.60
39,999
seven
as MHz
readbetween
MODE
read
between
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and
places
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to
40,000
on
:
994
FMx100
1,454
6
placeson
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on
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to
line
.
the
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2
and
line
and
4.4
METHOD
EQUIPMENT
PROCEDURE
FREQUENCY
STABILITY
Frequency
STABILITY
Counter
TEST
<0
.2
PPM/hour
500
Hz/10
The
frequency
at
the
warmup
HP5300B/5303B
1.Set the FREQUENCY
MODULATIONMODE MODULATION MODULATIONFM/AM OUTPUT OUTPUT
minutes
indicated
.
Signal
selector
FREQ
VERNIER
step
in
CW
in
stability
time
Generator
attenautor
and
FMx1
intervals
AM modes
mode
is
measured
PERFORMAKE
with
after
controls
520
.000
CW
(Inactive)
(Inactive) FullyClockwise +10
dBm
a
the
as
MHz
frequency
2
follows
hour
:
TESTS
counter
minimum
4.5
OUTPUT
SPECIFICATION
LEVEL
ACCURACY
2
.
Connect
the
Signal
3
.Allow
imum
.
Record
at
15-minuteintervals
ence
between
hour
period between of
the
PTR
4
.Set
MODULATION
control 5
.After
readings
minuteperiod mum
readings
Hz
.Record
frequencyreadings
TESTS
the
Generator
the
the
should
the
maximum
.
the
Signal
FREQ
to5kHz
a
one-minute
to
nine-places
.The in the
Signal the
50
ohm
input
RF
out
Generator
frequencycounterreadings
for
maximum
not
exceed
and
Generator
to
VERNIER
.
interval
at
difference
the
ten-minute
difference
in
Hz
on
of
the
connector
to
warmup
a one-hourperiod
and
minimum
104
Hz
.Record
minimumreadings
MODULATION
and
adjust
record
five-minute
between
period between line
themaximumandminimum
6
of
frequencycounter
.
for two
readings
in
MODE
the
MODULATIONFM/AM
the
frequencycounter
intervals
the
maximumandmini-
should
PTR
the
hours
to
nine-places
.The
in
the
difference
Ha
to
FMx1,the
for
not
exceed
.
min-
differ-
the
one-
on line
a
ten
to
5
500
Power
AttenuatorRange
Level
+13
to
-137
dBm
(1
Continuously and
an
11
panelmetercalibrated
adjustablefrom+13
dB
vernier
V
to0.03 PV)
.Output
in
dBm
to level and
-137 is
volts
dBm, in
indicated
rms
.
10
on
dB
steps
a front-
4-
5
PERFORMANCE
TotalLevel
Accuracy
Accuracy
Flatness OutputMeter
Step
METHOD
TESTS
Breakdown
Attenuator
+13
-7
to -77
<-77
(+13
±0
.5
±0
.5
±1 .0
The
±1
of
the
ness
meter
The
output
output
The between
to
-7
dBm
to
-7
dB
dB
to
dB
to
.25
sum
(±0
.75
.
ranges
flatness
10
dBm dBm
dBm)
70
dB
of
and
:
±1
.25
:
±1
.95
±2
.75
±0
.75
dB
(±0
.2
130
dB
(±0
level
dB)
meter
is
accuracy
the
outputmetererror
.
Both
error
(+13
to +3
measuredrelative
520
MHz
.5
dB dB
dB
dB dB
dB
errors
is
at
(Typ (Typ (Typ
(Typ
calibration
calibration
between
measured
dBm
and
+12,
+3
to and
.75 .25 .5
.5
+13
(±O
at to
dB) dB) dB)
dB)
error)
error)
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-7
50
-7
and
50
MHz
dB)
dBm)
dBm
-7
MHz
in 10
dBm
and
in
.
output
±0 ±1
±1
±0
are measuredwith
+3
consists
the
flat-
a
power
two
10
MHz
steps
levels
dB
.
The
level
step
attenuator
and the The
output
tions
programmed
10
dB
OUTPUT ATTENUATORPOSITION ACTIVE
dBm
+
10
- 10
- 20
-
30
-
40
-
50
-
60
- 70
flatness
of
10, 20,
steps
STEP
0
accuracy
error
step
attenuator
by
cams
shown
as
.
30,
below
to
in
30
and
provide
in
the
10
addition
- 80
-
90
-100
-
-
III
-130
-7
dBm
depends to
the
is
a
combination
40 dB table
dB 20 dB 30
x
x
.
0
to
STEP
x
x x
These
130
below
ATTENUATOR
x
x x x x
x x
I
x x
'
x
x
upon
outputmeter
of
fivepi-pads
dB of
.
attenuation
dB
30
x x
x x
x x
x
x
output
the
pi-pad
PADS
dB
(X)
40 dB
x x x
x x x
x
error
sec-
are
x
x x
in
i
PERFORMANCE
TESTS
4.5.1
EQUIPMENT
Output
Meter
Note
and the
step entire
is
The stitution
attenuator and pads A
standard
the
stituted
reference
level measured
level
levels
Accuracy
that
0
dBm
output
attenuator
range
controlled
output
the
.A
reference
output
.The
.A
below
Test
no
step
positions
level
of
step
method
is
40 dB
reference
trace
attenuator
step
.The
level
and
compared
26
the
attenuatorpads
.Aleveled
10
by
below
+13
by
the
attenuator
. measuredat padare
is
attenuatorposition
spectrum
by
resulting
RF
dB
-60dBm
dB
+10
dBm
to
-137
leveler
pin
Each
of
measured
output
obtainedwithaspectrum
pad
.The
analyzer
resetting
Signal
to
theoriginal
amplifier
level
pin-diode
all
in
dBm
.The
dBm
error the
fivepads
520
MHz
in
level
standardpad
the
Generator
is
.
are
positions
including
system
is
measured
.
combination
is
set
trace
Signal
required
active
attenuator
output
.
in
the
The
second
with
is
to be
measured
is
returned
Generator
output
powermeter
to
in
the
+10dBm reduces
of
levelover
a10dB
by
an output
with
a
power
analyzerand
removed
boost
output
the
vernier
RF
30
dB
meter
is
to output
level
reference
signal
other
the
sub­step
pad
.
a
and
sub-
the
is
Power
PROCEDURE
and
Meter
Sensor
HP435A/8481A
1.Setthe
FREQUENCY MODULATION MODULATION MODULATION
OUTPUT
OUTPUT
2
.
power to power cates
NOTE
to setting reading error for attenuator is
+13
Calibrate
meter
the
Signal
meter,
between
:
The
thesum
.The
.
an
.15
VERNIER step
andthe
OUTPUT
selector
Signal
of
For
setting
dBm,
Signal
MODE FREQ FM/AM
attenuator
the
to
the+15dBm
Generator
set 0
and
the
OUTPUT
difference
indicated
example,
meter
the
Generator
powermeter
RF
the
range
dBm)
-5
Generator
meter
the
reading
of
+10
OUTPUT
controls
050 CW
(Inactive
(Inactive
Fully
+10
range
out
connector
switch
.
indicated
reading
between
output
indicated
of
dBm
.If
meter
as
.000
MHz
Clockwise
dBm
and
power
.Connect
so that
output
and
the
level
output
+3
dBmand the
error
is
follows
in
CW
in
CW
sensor
the
.(When
the
the
step
actual
is
the level
power
+0
.15
:
MODE) MODE)
Set the
.
power
reading meterindi-
level
an
meter
is
attenuator power meter OUTPUT
is
+13dBm
OUTPUT
reading
dB
.
sensor
the
equal
meter
step
4-7
PERFORMANCE
4.5 .2 EQUIPMENT
Flatness
PowerMeter
and
Sensor
TESTS
Test
Adjust
3
.
OUTPUTmeterreading make
OUTPUTmeter reading dBm,
dB PTR
HP435A/8481A
a
dB
(4
and
the
test
error
.
Record
.
4
.Set the
and
repeat
error
the
note
division)
note progresses
to
the
the
Signal
step
on
line
Signal
of
theOUTPUTmeter
.
Continue
the OUTPUTmeter
nearest
maximumOUTPUTmeter
3
above
8
of
GeneratorOUTPUTVERNIER
.
Observe
increments
make
GeneratorOUTPUT thePTR
a
0
.05
.Record
note
dB
.
the
power
error
to
adjust
.The allowable
of error of
the
the
1
the
error
step
meterreading
to
the
OUTPUT
dB
between+3
at
each
maximum
on
attenuatorto
maximum
for
a
+3
nearest
VERNIER
and
reading
OUTPUTmeter error line
OUTPUTmeter
.As
is ±0
of
7
0
0
dBm and
.05
for
-7
.5
the
dBm
PROCEDURE
1.Set the FREQUENCY
MODULATION MODULATION
MODULATIONFM/AM OUTPUTVERNIER
OUTPUT
2.Set
powersensor
Adjustthe
3
.
dBm
power
4.Set the
steps in step3. the line
5
MHz and reading
the
.
between
maximum
9
Set the
Signal
selector
MODE
FREQ
step
thepower
meterreading
power
The
of
the
Signal
adjust
.
Generator
attenuator
meter
to
theSignalGenerator
Signal
Signal
10 meter readingsfrom maximum
change
PTR
the
GeneratorOUTPUT VERNIER
.
GeneratorFREQUENCYselector
and520
allowable
to
thenearest
.
Generator
OUTPUTVERNIER
to
the
MHz and
controls
050 CW
(Inactive (Inactive
Fully
+10 dBm
FREQUENCY
.000
Clockwise
+15 dBm
observe
the
change
0
for
RF
.05
as
MHz
in in
range
out
+12
is ±0
dB
selector
a
+3 dBm
follows
CW
MODE)
CW
MODE)
.Connect
connector
the
maximum
dBmreading
.75
(k
:
.
for
a
in
10
change
.
Record
dB
division)
to
050
powermeter
the
+12
MHz
in
on
.000
4-8
6.Repeat in
the
5.Recordthe
nearest
power
0
.05
step
meter
maximum
dB
4
above readings
on line
exceptobserve
from
change
10 of
from the
the
PTR
the
dBm
+3
+3 dBm
.
the
maximum
reading
reading
change
in step
to
the
4.5 .3 EQUIPMENT
Power
and
Spectrum
10
Pad
20 dB
Pad
Step
Meter
Sensor
Attenuator
dB
Attenuator
7.Set
MHz OUTPUT
Repeat
8
.
in
the
7.Record
nearest
AttenuatorAccuracy
HP435A/8481A
Analyzer
HP8554L/8552B/141T Weinschel
Weinschel
the
and the
VERNIER
powermeter
0.05
Test
50-10
50-20
Signal
step
the
OUTPUT
for
maximum
dB
on
GeneratorFREQUENCY
step
attenuator
a
-7
dBmpowermeter
4
aboveexcept readings
change
line
11
from
from
of
observe
thePTR
the
the
to
-7 dBm .
PERFORMAMCF
selector 0
dBm
.
reading the
-7
dBm
.
maximum
reading
reading
TESTS
to
050
Adjust
in step
.000
the
change
to
the
30 dB
40 dB
WidebandAmplifier
PROCEDURE
Attenuator
Pad
Attenuator
Pad
26 dB
Weinschel
Weinschel
HP8447D
1.Set the FREQUENCY
MODULATION MODULATION MODULATION
OUTPUT OUTPUT
2.Set
power
3.Adjust
erator NOTE
:Increasing
thepreceeding
off
scale
50-30
50-40
VERNIER step
thepower
sensor
for
.
Signal
selector
MODE FREQ
FM/AM
attenuator
to
the
MODULATION
a
+7 dBm
step
This
Generator
meter
the
the
is
Signal
power
MODULATION
causes
normal
to
the Generator
FM/AM meter
.
controls
520
.000 AM VERNIER 0%
AM Fully 0
dBm
+10 dBm range
control
reading
FM/AM
the
OUTPUT
as
follows
MHz
Clockwise
RF
out
of
.
control
meter
:
.Connect
connector the
Signal
setting
needle
to
the
.
Gen-
in
read
4.Disconnect RF
out
to
the
uator
5.Set 10
kHz, tuning and
theverticaldisplay
MODEL
SIGNAL
Figure
4-1
connector RF
out
pad
to
the
the
stabilizer
3000
GENERATOR
RF
Out O
.
Step
the
power
.Connect
connector
the spectrum
spectrum
analyzer
frequency
switch
Attenuator
sensor
a
.Connect
analyzer
span
per
on
.
to
2
STANDARD
ATTENUATOR
PAD
Accuracy
from
standard
the
to
520
division
Setthe
per
dB
Setup
the
Signal
10
dB attenuator
output
as
shown
MHz,
to
the
2 video filter division
SPECTRUMANALYZER
of
the
in
Figure
bandwidth
kHz,
.
Generator
pad
atten-
4-1
and the
to
100
to
Hz
RF
Input
.
6.Use one
the log
division
below analyzerdisplay fine
tuning
7.Set the to
-10 dBm Disconnect
8
. reconnect the
Signal
9
.
Adjust
erator the log
Disconnect
10
.
connector
RF
out
.
OUTPUT
.
the
Generator
the
to
realign
reference
.
Connect
connector
11.Observe reading difference error
on
and the
or
line
reference
the log
.Center
step
attenuator
the
10
dB
attenuator
spectrumanalyzer
.
MODULATION
line
the
.
the
difference +7
the
the
Set
dBm
FM/AM
peak
as
in
cable
powersensor the
reference
errorshould
12
of
the
PTR
controls
reference
the
of
the
step6.
to
the
OUTPUT
between
be ±0
.
to
trace
of
to
the
control
trace
Signal
to
step
setting
.7
dB
obtain line in
the
the
pad
from
RF
of
one
the
attenuator
the
actual
maximum
a
of
the
display with
Signal
the
out
connector
the
Signal
division
Generator
Signal
power
in
step3.The
.Record
peak
spectrum
Generator
setup
below
RF
Generator
0
to
meter
trace
and
Gen-
out
dBm
the
of
.
12
.Repeat
pads
and
the
indicated Steps
Attenuator
NOTE RF
wideband
the for the step if to
4
and
dB
10 20 30 60 90
:
To
amplifier
amplifier
spectrumanalyzer
-90 dBm
attenuator
a
40 dB
properly
in
8
pad
test
RF
shield
steps Signal
the
--
the
(>20 dB
can
amplifier
3
through
GeneratorOUTPUT
following
Step
OUTPUT
-
setting
OUTPUT
gain)
between
be
the
dBm
tested RF
table
7
Step setting
-10
-20
-30
-60
-90 step
(Figure
(step
is
used output
11
is the
using
.
Attenuator
attenuator
required
standard
4-1)
11)
down
and
from
PERFORMANCE
the
standard
step
attenuator
.
attenuator
.The
is
±1
.5
to
the
if
precautions
the
attenuator
settings
Step RecordError
Line
below-60dBm Insert
allowable
dB
-130 Signal
11
of
12 13
14 15 16
the
pad and
.
The
dBmposition
are
Generator
TESTS
PTR
26 error
OUTPUT
taken
on
an
dB
.
4.6
HARMONICS
SPECIFICATION
Harmonics
METHOD
EQUIPMENT
Spectrum
PROCEDURE
TEST
Outputs
Analyzer
dB
>30
>26
A spectrumanalyzer
frequency
output
HP8554L/8552B/141T
1.Set the FREQUENCY
MODULATION MODULATION MODULATION OUTPUTVERNIER OUTPUT
2.Connect
RF
dB
input
below below
range
levels
step
of
fundamental fundamental
of
.
Signal
selector
MODE FREQ FM/AM
attenuator
the the
spectrumanalyzer
from from
is
used
the
Signal
Generatorcontrols
Signal
Generator
10 1
to Generator
001
CW
(Inactive)
(Inactive)
Fully
+10 dBm
to
to
10
measure
.000
Clockwise
RF
.
520
MHz
MHz
as
MHz
out
harmonics at
+13
follows
connector
and
the
in
+3 dBm
to
the
3.Set the tortion
between
of
1
spectrumanalyzer the and
Signal
10
MHz
Generator
.Set
to
the
measure
for
fundamental
bandwidth
the
to
harmonic
frequencies
100
kHz,
dis-
the
11
PERFORMANCE
TESTS
frequency dB/div graticule, reference
4
.
selector the dB below served
17
5
.Setthe
andrepeat
the
on line
6.Set the
and
7 tortion
between
the
.
Locate
Increase
in
spectrumanalyzer
the
in
of
the
PTR
maximumharmonic
18 of
the
OUTPUT
Set the
.
of
10
frequency
span
per division
the
zero
and
adjust
line
the
(0
dB)
the
setting
MHz
1
Signal steps
the and 520
steps
fundamental
display
.
Generator
3
and
the
PTR
Signal
spectrumanalyzer
Generator
step
attenuator
Signal
MHz
spanper
to
5
reference
thefundamental
in
the
display
of
the
between
display
.
in
dB below
4
at
observed
.
Generator
.Set the
division
1
.
Record
OUTPUT
the
+3
in dB
FREQUENCYselector
to
MHz,
Signal and
The
the the
step
dBm
+10 dBm
to
measure
for
bandwidth
to
100
and the
at
the
left edge
amplitude
.
Generator
10
MHz
harmonics
maximum
fundamental
attenuator
outputlevel
below
fundamental
MHz
the
.
.
display
while
should
harmonic
fundamental
harmonic
frequencies
to
300 kHz
to 10
of
to
the log
FREQUENCY observing
be
on
to
0
.Record
to
10
the
>26
ob-
line
dBm,
MHz
dis-
and
4.7
NON-HARMONICS
SPECIFICATION
METHOD
TEST
8.Increase selector ing the >30
dB
below
observed
19
of
the
9.Set the dBm
and Record mental
Non-harmonicsare FundamentalRange
A spectrumanalyzer harmonics
specified
1 3 3 3
(MHz)
to to to to
the on
3 250 350 520
the
setting
in
10
MHz
spectrumanalyzer
the
in
the
display
PTR
.
Signal
repeat
maximumharmonic
line
in
output
steps
20 of
the
level
of
the
steps fundamental
shown
1
between
display
.
in dB
Generator
7
and
the
in
Non-harmonicRange
­1
to
3
to
3
to
3
to 1000
is
to
520
of
below
OUTPUT
8
at
observed
PTR
.
the
PiHz
3 250
350
used
to
MHz range
the
Signal
following
Signal
and520MHz
10
Theharmonics
.
Record
the
the
+3
in
measure
at
Generator
Generator
the
maximum
fundamental
step
attenuator
dBm
dB
below
table
Non-harmonic
dB
below
the
+13
dBm,/the
FREQUENCY
while
output level
:
>60 >65 >55 >35
level
.
observ-
should
harmonic
on
line
to
the
funda-
level
fundamental
of
non-
maximum
be
0
.
12
EQUIPMENT PROCEDURE
HP8554L/8552B/141T
1.Set the FREQUENCYselector
MODULATION MODULATION
MODULATION
OUTPUT OUTPUT
2.Connect input
3.Set the content Set the to1MHz and reference fundamental
4.Increase selector
monicsbetween
damental display line
of
21 of
Signal
MODE FREQ
FM/AM
VERNIER
step
attenuator
the
the
spectrum
spectrum
of
the
bandwidth
at
the
to
the
in1MHz
.Record
between
the
Generator
Signal
Signal
to 30 kHz,
the
display
left edge
the log
setting
steps
1
and
the
1
and
PTR
.
controls
001 CW
(Inactive)
(Inactive) FullyClockwise +10
Generator
analyzer analyzer
Generator
reference
of
between
MHz
3
maximum
MHz in dB below
3
.
to
ouptut
thefrequency to 10 of
the
line
theSignalGenerator
should
non-harmonic
.000
dBm
RF out
measure
dB/div
graticule,
1
and be
PERFORMAMCF
as
follows
MHz
connector
the
between
span
Locate
.
and
(0
dB)
in
MHz
3 60 dB
.
below
observed
the
fundamental
TESTS
:
to
the
non-harmonic
1
and
3
MHz
per
division
the
adjust
the
FREQUENCY
The
zero
display
non-har-
the
fun
in
RF
.
the
.
the
on
Set the
5
. content Set ision
6
. selector
steps
analyzer
maximum
shown each of
Frequency Non-harmonic Non-harmonic RecordMax Range
Fundamental
of
(MHz)
3-250 3-250 3-350 3-350 3-520
FrequencyRange
3-1000 >35
of
the
bandwidth
to
Increase
between
non-harmonic
.Record
range
thePTR
MHz
spectrum
the
Signal
100 MHz
the
in1MHz
10
display
indicated
.
.
the
Level low
analyzer
Generator
to
300 kHz and the
setting
steps
and 520
.
maximum
of between
MHz while observing
Use the
level in
the
(dB
be- Non-harmonic
fundamental)
>65 >55
to
measure
outputbetween
frequency
theSignalGenerator
3
and
10
MHz
tablebelow in each non-harmonic
tableon
of
(Line
in
the
level
the
number
PTR)
22 23
24
the
non-harmonic
3
and
span
and
the
to
determine
frequency
observed
applicable
250
MHz
per
div-
FREQUENCY in
10
MHz
spectrum
the
ranges
line
.
in
PERFORMANCE
4
.8
RESIDUAL
SPECIFICATION
METHOD
EQUIPMENT
Modulation
Distortion
PROCEDURE
TESTS
AM
TEST
>65
bandwidth
A
late point ating
the
is
theresidual
level AM
Meter
AnalyzerHP334A
Radiometer
1.Set
dB
below
modulation
the
where
in
demodulated
calibrated
.
to
the
.
Signal
level
20
carrier
the
meter
AM
dB
AFM2
Signal
carrier
Generator
noise
mode)
output
at
AM
added
is
operating
is
a
10%
read
is
.
Generator
in
a
maximum
is
of
AM
to
50
output
used
the
level indB the
Hz
to
in
AM
at
.
A
distortion
to
increase
modulation
.
The
below
reading
controls
15
kHz
post-detection
mode
the
is
minimum
used
analyzer
the
resolution
meter
10%
AM
.
is
thecalibrated
to
relate
as
follows
to
The
removed
the
:
demodu-
leveler
(oper-
of
system
and
10%AM
residual
FREQUENCY
MODULATION
MODULATION MODULATION
OUTPUT OUTPUT
2.Connect
Model
Generator
RF
Out
RF
the
meter
kHz
3000
input
Signal
3
.Set
the kHz, the Hz-15
selector
VERNIER
step
the
meter
range
.
MODE
FREQ FM/AM
attenuator
the
equipment
Figure
modulation
attenuation
response
switch
as
Modulation Meter
RF
Input
4-2
.
Residual
meter
10
to
to
fast,
to
10
500
AM
1 0%
-7 0
shown
OutDut
to
dB,
and
kHz
dBm
AF
the
.000
AM
dBm
read
the
MHz
reading
Figure
in
AM
%AM
the
function
filter
Setup
IF
on
4-2
Distortion
at
500
bandwidth
switch
bandwidth
OUTPUT
.
MHz
meter
Analyzer
Input
O
.Set to to +AM,
to 50
±400
4.:Adjust a
modulation
obtainedat
meterrange
5.With calibrate
nowcalibrated Since
at
100%
is 20
6
.Set the
"EXT"
7.Without
meter AM
.
between
the
above
(For +20 AM
should
AM
in
the
AM,
dB below
.
controls, Set the
0
0
dB reading
example,
dB =
dB
the
it
modulating
and -10
reference
68
be
below
the
Signal
meter
a
full-scale
switch
distortion
for
at
it
follows the
Signal
disturbing
range switch
to
a
dB
residual
>65
the
set
a
0
a
reference
carrier
Generator
set
the
dB
.First,
level
obtain
48 dB
dB below
carrier
Generator reading
reading
to
analyzer
dB
panel-meterreading
signal
that at
the
distortion
in the
residualAM
AM below
of
10
.
and
.
Signal
so
step5.
residual
the
on
MODULATION
10%
of
operating
level
carrier 10%
MODULATION
analyzer
that
read
the carrier line
PERFORMAKE
FM/AM
AM
.NOTE
100
with
20
dB
amplitudes
AM
the
Generator
the
the
Then
AM
below
carrier
.
of
25
the
in
.
below
modulating
MODE
and
to panel residualAM
add
below
the
0
.)
Record
the
PTR
control
:10%
modulation
levelmode,
The
system
the
carrier
are
switch
modulation
read
residual
meter
20
dB
the
carrier
dB
reference
The
residual
the
residual
.
TESTS
for
AM
is
is
.
equal
signal
to
reads below
to
the
.
4.9
RESIDUAL
SPECIFICATION
METHOD
EQUIPMENT
Modulation
PROCEDURE
FM
TEST
Meter
As
many
<200
100
width
A modulation-meter
is
used
maximumfrequency
is
The
level
RadiometerAFM2
1.Set the FREQUENCY
MODULATION MODULATION MODULATION OUTPUT
OUTPUT
other
Hz in
Hz
.)
.
(Typ
operated
residual
<60
VERNIER
step
carrier
a
50
<100
50 Hz
to
measureresidual
in
an FMmodewhere
FM
dB
relative
Signal
selector
MODE
FREQ FM/AM
attenuator
Hz to
Hz
.)
is
frequencies
15
in
a
300
which
and
output
measured
to
Generator
kHz
post-detection
Hz
to3kHz post-detection
is
set
FM
.The
level
the
in an
2x10
-4
controls
520 FMx100 EXT
0 FullyClockwise
+10 dBm
maybe
to
read
frequencydeviation
test
.The Signal
.residual
environment
pbar
.
as
.000
MHz
kHz
tested
bandwidth
is
FM
where
follows
as
desired
performed
Generator
is
greatest
the
:
.
(Typ
band-
noise
.
at
.
4-15
PERFORMANCE
4
.10
INTERNAL
SPECIFICATION
Amplitude
quency
TESTS
MODULATION
&
Fre-
Modulation
2.Connect ohmRF
50
3.Set the
MHz
.Set the to 20 to
4.Measure modulationmeter dual meterwith
tions 26 of
As
dB,
fast
FM
.Record
the PTR
many
FREQUENCY
input
the
and
should
the
other
the
modulation
the
the
.
TEST
Signal
of
the
meter
range
IF
bandwidth
filter
average and
be
<200 function the
greater
frequencies
Generator
modulation
meter
switch
bandwidth
level
disregard
Hz
.
Read
switch
of
maybe
to
t400
the two
RF
out
connector
meter
to
read
to
3,
to 50
of
occasional
the
set
tested
.
FM
deviation
the
RF
input
kHz,themeterresponse
Hz-15
the
FM
deviation peaks
residual
to
+FM
and
readings
as
kHz
.
FM
then
in
desired
attenuation
on
to
the
at
520
.
on
the
The
resi-
the
panel
-FM
posi
Hz
line
on
.
METHOD
EQUIPMENT
Frequency
PROCEDURE
Internal
Counter
400
Hz
A
frequency
at
the
ator
.
for
used for
both
HP5300B/5303B
1
.
Set
FREQUENCY
MODULATION
MODULATIONFREQ
MODULATION
OUTPUT OUTPUT
2
.Connect
to
the
NOTE
:
erator
1
and
rear-panel
Since
both
modes
the
selector
VERNIER
step
rear-panel Provide and the
kHz+5I
counter
the
the
.
Signal
MODE
FM/AM
attenuator
the
lowfrequency
a
ground
counter
is
used
modulation
internal
AM
and
Generator
MODULATION
connection
.
to
400
FM
measuremodulation
test
pointof
Hz
and
1
kHz
modes,
controls
N/A N/A
400
Mid-range N/A N/A
input
T.P.
this test
(not
Hz
of of between
as
follows
applicable
the the
the
SignalGener-
oscillators
will
frequency Signal
the
Signal
frequency
suffice
to
this
counter
Generator
Gen-
are
test)
.
3.The counter
the
counter
reading
should
readbetween
on
line
27
of
the
380
PTR
and
420
Hz
.
.
Record
4
.11
PERCENT
SPECIFICATION
Accuracy
METHOD
AMACCURACY
4
.
Set the
1
kHz
.
5
.The
the
counter
TEST
±(5%
of
This
is does
The%AM
front-panel is of is
modulation
the
specificationapplies
possible
not
subtracted
the
measured
control
Signal
counter
reading
reading
above
exceed
accuracy
modulation out.The
controllinearity
in
test
point maximum
at
Generator
should
on
+5I)
+13
at
+3
dBm
dBm
is
measuredwithamodulation
terms
.The
read line
a
if
.
FM/AM
FM/AM
of
the
position
MODULATION
between
28
of
frequency
for
the
peak
control
control
andthe
DC
calibration
PFRFORMAMCF
and
950
the
PTR
.
of
1
kHz
output
modulation
voltage
is
limits
of
the
error,
accuracy,
at
of
the
checkedinitially
FREQ
control
Hz
1050
:S-+3
modulated
meter
which
which
scale
the
voltage
TESTS
.Record
dBm
.AM
output
after
is
consists
errors
rear
across
.
to
the
t4%,
panel
EQUIPMENT
Modulation
Digital
PROCEDURE
Meter
Multimeter
The
remaining
of
1%
accurately
modulation
the
reading
Radiometer
Dana
NOTE ator
4300
1
.
Set
FREQUENCY MODULATION MODULATION MODULATION
OUTPUT OUTPUT
2
.
Connect
:Provide
andthe
full
scale),
measured
system
AFM2
the
selector
MODE
VERNIER
step
%AM
+17
of
Signal
FREQ FM/AM
attenuator
the
equipment
aground
digital
accuracy,
measured
is
voltage
.
The
full
Generator
multimeter
which
applied
measurement
scale
controls
as
shown
connection
by
.
520 CW
VERNIER
0%
-3
dBm
0
.
is the
.000
AM
dBm
in
between
±(57
modulation
to
the
uncertainty
as
follows
MHz
reading
Figure
the
of
the
reading
meter
Signal
on
4-3
Generator
is
:
OUTPUT
.
SignalGener-
2%
+
with
of
meter
Figure
4-3
.
Percent
AM
Accuracy
Setup
3.Adjust to
its
maximum
4.The
DC
.
If 5
.Adjust
30%
6.The 1
.700
7.Set the
90%
8.The 4
.700
9
.Adjust
AM
OI
NOTE test
If
out
AM
.
volts
AM
.
voltsDC
.
: .
digital
of
digital
digital
This As many
the
the
limits,
the
DC
the
concludes
Signal
up
position
multimeter
voltage
the
Signal
multimeter
.Record
Signal
.Record
GeneratorMODULATIONFM/AM
multimeter
Signal
otherpoints
Generator
.
is
within
voltage Generator
the
the
Generator
the
MODULATION
MODULATION
should
should
should
reading
should
reading
maybe
read5.000
limits,
be
MODULATION
read
on
read
on
MODULATIONFM/AM
FM/AM
tested
FM/AM
continue recalibrated
FM/AM
between
.line
between line
control
as
20 of
30 of
desired
±0.020
to
control
1
.300
the
control
4
.300
the
control
accuracy
control
volts
step5.
.
to
and
PTR
to
and
PTR
to
.
.
.
10
.Set
the
meter
10
dB,
fast,
to 50
11.Adjust
for
a
meter
ULATIONMODE
the
the
Hz-15
reading
.
Set the
the
modulation
range
switch
IF
bandwidth
function
kHz
.
the
Signal
of1.500 ±0.003
MODULATION
switch
to
switch
AM
to
meter
100,
to
±400
to
Generator
volts
FREQ
.
to
the
+AM
switch
read
Hz,
%AM
RF
the
and the
MODULATION
DC on
to1kHz and the
input
the
at
520 attenuation
meter
filter
FM/AM
digital
MHz
.Set
response
bandwidth
control
multi-
to to
MOD-
12.Make Set
the
modulationmeter%AMreading
the average between
est0.5%
13
.Set the
and the
14.Adjust
for
a
meter MODULATIONMODE
15.Make the
Set lation
the two and
95
on
line
modulation
of
27
on
MODULATION
reading
.
Set the
modulation
meter
readings
.5%
32 of
a
note
the two
.5
line
a
.Record
AM
of
and
32 .5%.Record 31
Signal
FREQ
the
Signal
of4.500 ±0.003
MODULATION
switch
note
%AM
the
of
function
reading
.The
PTR
the
meter
readings of Generator
the
.
modulationmeter
function
the
PTR
switch
Generator
to
AM
.
modulation
switch
as
before
average
the
average
.
volts
switch
as
The
the
average
.
MODULATION
VERNIER
to
MODULATION
DC
FREQ
switch
to
.
%AM
PERFORMANCE
to
before
average
MODE
.
on
the
to
meter
+AM
andnote
Compute should %AM
to
reading
-AM,
.
%AM
%AM
FM/AM digital
reading
the
be between
the
in
and
Compute
should
to
the
switch
1
kHz and the
the
average
nearest
TESTS
%AM note
the
near-
to
control
multi-
%AM
in
modu-
84 0
.5%
.
be
CW
.
of
.5
4
.12
AM
BANDWIDTH
SPECIFICATION
Modulation
External
METHOD
EQUIPMENT
ModulationMeter Function Oscilloscope
TEST
Freq
Generator
.
NOTE
:
This
As
many
DC
The
in supplies
Signal modulation nal and the
from
Radiometer Wavetek Tektronix
other
to 20
AM mode
kHz
measurement
and
an
Generator
meter
modulationfrequency
AM
bandwidth
calibration
the
AFM2
130
D10/5A18N/5B10N
concludes
pointsmay
(+3
afunction
external
bandwidth)
dB
is
madewitha modulation
.
The
dB
scale
the
modulation
be
generator
sine
wave
system
(approximately
is
is
measured
level
.
tested
to
is
calibrated
increased
as
system
as
desired
.
The
amplitude
the
accuracy
.
meter
functiongenerator
at -6 dB
50%AM)
from
1
change
operating
modulate
.The exter-
kHz
to
in
dB
test
on
20
level
.
the the
kHz
PROCEDURE
1.Set FREQUENCY
MODULATION MODULATIONFREQ MODULATION
OUTPUT OUTPUT
the
Signal
selector
MODE FM/AM
VERNIER
step
Generator
attenuator
controls
050
.000
AM
EXT 0%
AM
+3
dBm
0
dBm
follows
as
MHz
reading
:
on
OUTPUTmeter
4-19
2.Connect
the
equipment
Oscilloscope
TEE
as
shown
in
Figure
4-4
.
3.Set the
kHz:,the
the 75
kHz
4.Set
and
the
5
.
for
AM)
6.Maintain
the
modulation
RF
input
meter
meter
attenuation
response
range switch
.
the
function
the
attenuator
oscilloscope
Adjust a
modulationmeter
the
.
the
functiongenerator modulationmeter dB
.Note
7.Repeat
ction
-6
dB
the
switch setting
change
steps
set as in step6.
Figure
4-4
generator
controls
.
Signal
10
Generator
volt
frequencyfrom
scale
.It
indB
4
through
to
-AM
.
AM
meter
to
20
to
fast,
to
100 and the
reading
p-p
from
6
.
Note
Bandwidth
to
read
%AM
dB,
the
IF
the
function
filter
for
a1kHz
for
a
10
volt
MODULATION
of -6
dB
output level
1
to 20
should
with
the
read
-6 dB
the
modulationmeter
the
change
Setup
50
MHz
at
bandwidth
switch
bandwidth
sine
wave
p-p
sine
FM/AM
(approximately
and
increase
kHz
.
Observe
between
-3
calibration
in dB
.Set
to
t400
to
+AM,
output
waveon
control
and
level
fun-
from
to
50%
the the
-9 .
the
8.Record steps
6
and
the 7
on line
larger
33
of
of
the two
the
PTR
dB
changesobtained
.
in
4 .13
AM
DISTORTION
SPECIFICATION
Distortion
METHOD
EQUIPMENT
ModulationMeter DistortionAnalyzerHP334A
TEST
<3%
1
kHz
distortion
(Typ
<1
to
.5% to
Thisspecificationapplies
is
possibleabove
does
not
exceed
Themeasurement
tortion modulated made
analyzer,
at
the
AM
from
minimum
normallyworst-case
Radiometer
AFM2
70%
AM
30% AM)
+3
dBm
if
+13 dBm
is
.
made
whichmeasures
the
modulationmeter
leveler
.
(<5%
with
for the
point
to
90% AM)
output peak
a
modulation
the
where
PERFORMANCE
at a
limits
of
the
distortion
.
The
the
frequency
_<+3
modulated
meter
measurement
AM
distortion
dBm
and of
TESTS
of
.
AM
output
a
dis-
the de-
is is
PROCEDURE
1.Set FREQUENCY
the
Signal
selector
MODULATIONMODE
MODULATION MODULATION
OUTPUT OUTPUT
2.Connect
Model
Signal
Generator
RF
Out
O
FREQ FM/AM
VERNIER
step
the
3000
Generator
attenuator
equipment
controls
520
AM
1
kHz
0%
-7 0
dBm
as
shown
Modulation Meter
RF
Input
AF
Output
.000
AM
dBm
reading
in
as
follows
MHz
Figure
OUTPUT
on
4-5
Distortion
:
meter
.
Analyzer
Input
O
3
.Set
RF
input
Figure
the
modulationmeter
attenuation
4-5
to
.
10
AM
DistortionSetup
to
read
dB, the
IF
%AM
at
bandwidth
520
MHz
.Set the
to
±400
kHz,
PERFORMANCE
TESTS
the
meterresponse
meter
to 15
4.Adjust for
meter meter
the
-AM equal
5.Calibrate tortion
distortionon
6.Adjust in in is
7.Calibrate tortion the
range switch kHz
.
a
modulation
function reading
average positions
to
70%
.
step
4
+AM
and
equal
distortion
to
.
The
the
until
-AMpositions
The
the
Signal
switch
.
Readjust
of
the two
of
AM
.
the
distortion
line
Signal
the
90%
AM
the
distortion on
fast,
to to
100
and the filter
Generator
meterreading
to -AM,
the
modulation
the
modulation
distortion
should
34 of
.
distortion line
Generator
average
35
the
of
should of
the
function
of
and
MODULATION
analyzer
be
PTR
.
MODULATION
of
the
the
modulation
analyzer
the
PTR
MODULATION
70%
AM
.
observe
meter meter
and
less
than
modulation
and
be less
.
switch
bandwidth
FM/AM
Set
the FM/AM readings
function
measure
3%.Record
FM/AM
meter
function
measure
than
to
the
modulation modulation
control
in switch
control
5%
+AM,
to 50 Hz
control
+AM
the
readings
switch
the
.
Record
the
until
and
is
dis-
the
as
dis-
FM
4
.14
SPECIFICATION
DeviationAccuracy
METHOD
EQUIPMENT
Frequency
PROCEDURE
DEVIATION
Counter
ACCURACYTEST
±250
Hz on
±35 kHz
The deviation DC voltage
voltages mum
deviation
HP5300B/5303B
1
.
Set
FREQUENCYselector MODULATION MODULATION MODULATION
OUTPUT
OUTPUT
FMx1
on
FMx100
equal
.
A
Signal
the
MODE
FREQ FM/AM
VERNIER
step
range
range
is
measured
to
frequencycounter
in
both
Generator
attenuator
the
FM
in peak
modes
FM
both
.
controls
050 FMx1 VERNIER
5
FullyClockwise
+10 dBm
of
is
kHz
the
used
.000
modes
as MHz
on FM
using
internal
measure
to
follows
scale
an sine
the
:
internal
wave
maxi-
2 the
.
Connect Signal
the
Generator
50
ohm
RF
input
out
of
connector
the
frequencycounter
.
to
3.Read 8
places
4.Adjust 0
kHz
deviationon
Read
5
.
places
6
.Subtract
obtained
should in
7
.Set adjust on theFM
8.Read places
9
. 0
kHz
kHz
Adjust
deviation
on
be
on
on
the
frequency
on
line
the
the
line
in
step3.Thedifferencebetween
between
line
the
Signal
the
scale
the
line
the
36
Signal
frequency
37 of
the
readingobtained
4
.749
38 of
Generator
MODULATION
.
frequency
39 of Signal
on
the
of
Generator
the
the
the
the
Generator
counter
the
PTR
FM
scale
counter
PTR
.
and5.251
PTR
.
MODULATIONMODE
FM/AM
counter
PTR
.
FM
scale
.
MODULATION
.
and
control
and
MODULATIONFM/AM
.
and
in
kHz
PERFORMANCE
record
record
step
5
.Record
to
record
the
FM/AM
the
reading
from
thetwo
the
to
5
kHz
the
reading
TESTS
reading
control
the
reading
readings
difference
FMx100
deviation
control
to
to
to
to
8
and
6
to
4
.15
FM
SPECIFICATION
Modulation
Frequency
METHOD
EQUIPMENT
BANDWIDTH
TEST
10.Read
places
11
ing readings difference
External,
The
tion
sine
system
scale ulation bandwidth calibration
on
.Subtract
obtained
measurement
generator
wave
iscalibrated
(approximately
the
frequencycounter
line
the
in
should
in
kHz
DC
to
to
frequency
frequency
is
measured
level
40 of
reading
step
be
on
>25 kHz
is
.The
is
.
the
8
between
line
made
function
modulate
at
320
increased
as
PTR
.
(1
with
kHz
and
record
.
obtained
The
464
41
of
dB
a
0
dB on
deviation)
the
instep
difference
.9
and 535
the
PTR
bandwidth)
modulationmeter
generatorsupplies
the
Signal
the
from change
1
the
10
between
.1
kHz
.
Generator
modulation
.
The
kHz
to 25
in dB
reading
from
.
Record
and
an
external
kHz and
level
the
read
the
a
func-
external
.The
meter
from
to
two the
mod-
the
6
dB FM
ModulationMeter Function Oscilloscope
Generator
RadiometerAFM2 Wavetek Tektronix
130
D10/5A18N/5B10N
23
PERFORMANCE
PROCEDURE
TESTS
1.Set
the
Signal
FREQUENCYselector MODULATION MODULATION MODULATION
OUTPUT
OUTPUT
2.Connect
MODE FREQ FM/AM
VERNIER
step
the
attenuator
Generator
equipment
Oscilloscope
controls
520
.000
as MHz
follows
:
FMx100 EXT 0
kHz +3 dBmreadingonOUTPUTmeter +10
dBm
as
shown
in
Figure
4-6
.
TEE
Figure
3
.Set the
MHz
.Set the
width
switch
to
to
bandwidth
4.Set the
put
and the
on
the
oscilloscope
5
.Adjust
a modulation
deviation) 6
.Maintain
function generator frequency
the observing read
between
0
dB
calibration
modulationmeter
RF
±400
kHz,
+FM,
to
75
the
kHz
function
attenuator
the
Signal
meter
.
the
10
the
dB
+1
and
input
the
meter
.
.
volt
scale
-1
level
4-6
generator
Generator
reading
dB.Note
.
.
FM
attenuation
meter
response
range
controls
of 0
p-p
output
on
the
Bandwidth
to
read
to 20
switch
for
a1kHz
for
a 10
MODULATION
dB
level
from
modulation
the
maximum
Setup
FM deviation
to to
dB, fast, 300 and
the the
sine
volt
p-p
FM/AMcontrol
(approximately
and
slowly
1
to 25
meter
.
change
IF function
the
wave
sine
320
increase
kHz
It
from
at
520
band-
filter
out-
wave
for
kHz
while
should
the
24
7
.Repeat
tion
switch
ting
as in step6.
steps4through
set
to
-FM
.
6
Note
with
the
the
modulationmeter
change
from
the
func-
0
dB
set-
4
.16
FM
DISTORTION
SPECIFICATION
Distortion
METHOD
EQUIPMENT
ModulationMeter DistortionAnalyzerHP334A
8.Record steps
TEST
<4%
(3
at
a
The
measurement
tortion
modulatedFM kHz
deviationincreases
distortion
where
RadiometerAFM2
the
6
and
to
10
frequency
analyzer,
at
the
noise level
7
larger
on
line
kHz
deviation),
of
1
is
madewith
whichmeasures
from
the
3
kHz
of
42 of
kHz
modulation
because
deviation
<60
dB
the two
the
a
dB
PTR
.
-<2%
(10
modulationmeter
the meter
of
residualFM noise
is
measured
relative
PERFORMANCE
changesobtained
to
500 kHz
distortion
.
Distortionbelow
in an
to
2x10
-4
TESTS
deviation)
and
a
dis-
of
the
. environment ubar
.
in
de-
3
The
PROCEDURE
1
.
Set the
FREQUENCY
Signal
selector MODULATIONMODE MODULATION
FREQ
MODULATIONFM/AM OUTPUTVERNIER
OUTPUT
2.Connect
Signal
Model
RF
step
3000
Generator
Out
O
attenuator
the
Generator
equipment
as
Modulation
RF
IrIput
controls
520
.000
FMxl
1
kHz
3
kHz
Fully
+10 dBm
shown
Meter
AF
Output
as MHz
Clockwise
in
Figure
follows
4-7
:
.
Distortion
Input
O
An
alyzer
3
.Setthe Set the t400
kHz,
Figure
modulationmeter
RF
input
the
meterresponse
attenuation
4-7
.
FM
Distortion
to
readFMdeviation
to 20
to
dB, the
fast,
the
Setup
IF
function
at
520
bandwidth
switch
MHz
.
to
to
25
PERFORMANCE
4
.17
IMPEDANCE
SPECIFICATION
TESTS
TEST
+FM,the
to 50
mately
4
.Calibrate
The
distortion
tion 5
.Set
300
.
6
.Adjust
ing
of
7
.Calibrate
tion
.The distortion
distortion
meter
Hz-15
3
kHz
on
line
the
Set theSignal
300 kHz
range
kHz
.
The
.
the
distortion
should
43 of
meter
the Signal
deviation
the
distortion
on
line
switch
modulation
be less
the
PTR
range
Generator
Generator
44 of
.
switch
on
should
the
to
3
meter
analyzer
than
of
MODULATION
MODULATION
modulation
the analyzer
less
be
PTR
.
and the
should
and
4%
.
the
and
than
filter
measuredistortion
Record
modulationmeter
MODE
FM/AM meter
measure
2%
bandwidth
read
approxi-
thedistor-
to
foraread-
.
the
Record
.
FMx100
distor
.
to
.
the
Impedance
METHOD
EQUIPMENT
Spectrum Sweep/Signal
VSWR
Coaxial
PROCEDURE
Analyzer
Generator
Bridge
Short,
Type
N
Female
50 ohm, The
loss
sweep/signal
a A reference
output
the from displayed
HP8554L/8552B/141T Wavetek
Wiltron
HP11511A
1.Set FREQUENCY
MODULATIONMODE MODULATIONFREQ MODULATIONFM/AM OUTPUT OUTPUT
.VSWR1.2
measurement
is
displayed
port
.The
Signal
1
Generator
to
520MHz and
.
2001 60N50
the
selector
VERNIER
step
level
Signal
attenuator
RF
at
made
is
onaspectrum
generator
is short
.The
Generator
output
witha VSWRbridge
established
the
levels
is
fed
is
replaced
sweep/signal return
controls
520
CW
(Inactive) (Inactive)
+3
-10
analyzer
to
the
by
loss
.000
dBm
dBm
reading
below0.1
and
.An input shorting
by
the
RF
generator
versus
follows
as
MHz
on
V
.
the
return
RF
signal
of
the
bridge
the
bridge
impedance
is
frequency
:
OUTPUTmeter
from
.
of
tuned
is
26
2.Use generator reflected under-test
3.Set the the
4
.Set thespectrumanalyzer
bandwidth
calibrate
to ence)
5
.
under-test RF
out
frequency the
reference reading
the
setup
to
the
output
port
sweep/signal
mode
to
to
CW
300 kHz
the250
of
the
displaygraticule
Disconnect
port
connector
control
signallevel
.
Disregard
in dB
in input
port
of
the
and the
the
of
.
to in
below
Figure
port,
and the
VSWR
center
.
Use the log
MHz
signal
coaxial
VSWRbridge
the
Use
the
tune the
the
the
4-8
.Connect
the
spectrum
coaxial
bridge
generator
frequency
to
span
at
the
.
short
sweep/signal
from
display
signal
1
to is
at
referenceon
PERFORMANCE
the
short
.
outputlevel
to
250
0
to
reference
top
line
and
connect
to
the
Signal
generator
520
MHz
>21
dB
MHz
520
line
sweep/signal
analyzer
to
the
to
-10
MHz
.
500
MHz
level
(0
controls
dB
the
Generator
and
verify
below
the
.Record
45 of
the
TESTS
to
the
device-
dBm,
and the
refer-
device-
center
that
dB
0
the
PTR
.
4
.18 RFI
TEST
Sweep/Signal
Generator
Figure4-8
Model
3000
Signal
Generator
Step
2
Coaxial
SMrt
.
Test
Setup
SPECIFICATION
<1
.0
pV
which
ohmreceiver
50
is
is
held
induced
one
.
in
a
inch away
two-turn,
fromany
one-inch diameter
surface
.
Loop
feeds
loop
a
PERFORMANCE
METHOD
EQUIPMENT
Spectrum
WidebandAmplifier
50
ohm LoopProbe Attenuator
(100
PROCEDURE
Analyzer
Load
dB)
TESTS
Pads
A
50
ohm
receiver
trum
analyzer
nal
Generator and the externalsurfaces put
for
HP8544L/8552B/141T HP3447D HP11593A
See
Weinschel
1.Set the FREQUENCYselector
MODULATION MODULATION MODULATION
OUTPUT OUTPUT
leakage
terminated
this
Figure
VERNIER
step
are
.Aloop
measurement
4-9
50-10,
Signal
MODE FREQ FM/AM
attenuator
consisting
calibrated
probe
is
measured
of
in 50
.
50-20,
Generator
the ohms
is
Signal
.
50-30,
ofa26 dB
at
a
1
then
connected
a
one-inch
at
Generatorwith
A
screen
50-40
controls
500
.000
CW
(Inactive) (Inactive)
Set
to
-110dBm
amplifier
pV
level
room
as MHz
+3 dBm
using
to
distance
may
follows
on
and
a
spec-
the
Sig-
receiver
the
from
the
RF
the be
:
OUTPUTmeter
out-
required
1
.
Rexolite
11
in
.
2.Hole
.
3
4
.
5.Wind mylar
:1.00
deep
.
Groove
in
Coaxial diameterby
shield shield
sulation center
rod ductor, joint
turn
(three
:
deep
to
in
.
.Solder
.
loop,
1
Cable for
Wind
conductor
places)
Rod
.00
1
and
0
.120
in
from
in
7
tape and
:1
dia
in.wide from
in
:
(RG-174/U)
19"
in,
length
center
2
turns
shield
insulate
.
.25
in.dia.b
.
by0.80
end
long
and cut
.Strip
of
in
to
around around
by0.125
of
.
conductor
insulated
groove
center
the
the the rod
in
rod
0
.110"
Strip
off in-
con-
solder
two-
y
.
.
of
Figure 4-9
.
6.BNC
Loop
Probe
male
connector
.
2.Connect
Model
3000
Signal
Generator
PFRFORMANCF
the
equipment
RF
Out
Figure
4-10
as
26 dB RF
.
shown
Amplifier
Input
RF
00
Step
Leakage
in
Output
4
Figure
Setup
4-10
.
Spectrum
TESTS
Analyzer
RF
Input
3.Set the scan
width
the
input
to
-50
dBm
nal
in
the
brate
the
graticule
spectrumanalyzer bandwidth
to
0.5
attenuation
witha
10 display analyzer
MHz/div,
to
dB/divvertical
using
for
the
the
the
0 dB and
center
-107
usingthelog reference
video
frequency
dBm
controls
4.Disconnectthe RF amplifierfrom and
connect
RF
out
connector
attenuatorin
5.Set the
dBm,
and the
meter
6
Move
tor signal
the
.
.Connect
the
with
(step
2)
PTR
loop
the
plus
.Recordthemaximum
.
a
OUTPUTVERNIER
the
noiseshouldbe
dB
100
of
a
50 ohmload
Signal
loop
probeover
two-turn
attenuatorpad
the
Signal
Generator
.
GeneratorOUTPUT
toa+3 dBm
.probetothe
the loop
input
surfaces
at
less than
reading
a
to
100
filter
the log
scale
.
to reference Center control
at
signal
the -31
.
the
SignalGenerator,
(10+20+30+40)
.
Terminate
step
attenuator
reading
of
of
the
the
on
RF
Signal
one-inchdistance
the
-107
dBmreference
in
dBmon
kHz,
100
level
the
.
Cali-
to
to
OUTPUT
the
amplifier
Genera-
.
line
46 of
the
Hz,
sig-
dBm
the the
-10
.
The
PERFORMANCE
MODEL
SEC
.1
4 .5 .2
4 .5 .3
4
.6
4
.7
4
.8
4
.9
4
.10
.11
4
.12
4
4
.13
4
.14
4
.15
4
.16
4
.17
4
.18
3000
FREQ
RANGE
FREQ
ACCURACY
FREQ
STABILITY
METER
ACCURACY
FLATNESS
STEP
ATT
HARMONICS
NON-HARMONICS
RESIDUAL RESIDUAL
INT
MOD
CONTROL
FM/AM
AM
SYSTEM
AM
BANDWIDTH
AM
DISTORTION
FM
DEVIATION
BANDWIDTH
FM
FM
DISTORTION
IMPEDANCE
RFI
TEST
ACCURACY
AM
FM
FREQUENCY
ACCURACY
ACC
ACC
TEST
MINIMUM
39,999
1,454
RECORD
SPECIFICATION
.60
994
.99 .99
-0.5dB
-0
.75
-0
.7
-1
.5
26dBdown
dB
down
30
60 dB
down
dB
down
65 55 dB
down down
35 dB 65 dB
down
380 950
1
.300
4
.300
27.5% 84
.5 %
4
.749
464.9kHz
21dBdown
MEASUREMENT
( )
kHz kHz kHz
dB
dB
dB dB
Hz
Hz
VDC VDC
kHz
CHECK
kHz kHz kHz
VDC VDC
kHz kHz
kHz kHz kHz kHz
dBm
S/N
DATE
MAXIMUM
Hz Hz
dB +0.5dB
dB
dB dB dB
dB dB
dB dB
dB dB
dB dB
dB dB
dB dB
dB Hz
Hz Hz
% 32 .5 % %
dB
dB
% dB
40,000
1,015 1,545
SPECIFICATION
.40 .01
.01 104 500
+0
.75
+0.7dB
+1.5dB
200
420
1050
1
.700
4
.700
95
.5 %
3 3
5
.251
5
535
.1
-107
kHz kHz
kHz Hz
Hz 6
dB
Hz Hz
Hz VDC VDC
dB 33
%
%
kHz
kHz
1
dB 42
4
%
2
%
dBm
LINE
1
2
3
4
5
7 8
9
10 11 12
13 14
15 16
17 18 19
20 21
22 23 24
25 26
27 28 29 30
31 32
34 35
36 37
38 39
40 41
43 44
45 46
5
.1
INTRODUCTION
This disassembling,
shooting
Measurements
facilitated its
to
ments
5 5
sectionprovides
the
right
top and
and
.2
SERVICE
.2 .1
Disassembly
Model
and
by
side,
bottom
test
INFORMATION
calibrating
Signal
3000
adjustments
placing
as
access
of
points
.
Information
information
and
Generator
instrument
is
unit
for
trouble-
will
required
adjust-
for
be on
SECTION
S
MAINTENANCE
by
removing
side
panel
.
the six
to
the
screws
instrument
(E) .
holding
Refer form part
bottom
should side
be
One strument
sembly
REMOVAL
rear feet slight
by REMOVAL
screw
with
cover
REMOVAL may
the removed
and
REMOVAL
can
to
panel
removed
side
reversing
a
by
be
meter
lifting
be
Figure
of covers;therefore, be
removed
.The
as
panel
to
to
the
OF
(A)
rear
OF
TOP
(B)
from
slight
reversing
OF
FRONT removed
board
by
OF
SIDE removed
5-1
.The
the
support
before
covers
indicated
must
remain
secure
chassis
BOTTOMCOVER
and
movement
COVER rear
removing rail
PANEL to
the
.
lift
.Reinstall
the
removal procedure
-
top
and
movement
the
removal
TOP
RAIL
to
facilitate
assembly
upward
-
providebetter
Remove
side
for
the top and
these
removing
and
panels
below
front-panel
-
cover
lift
-
.
threescrews
.
Either
.NOTE
on
Remove
off
the
off
.
Reinstall
procedure
The
removal
The
side
top
panels
covers either
can
the in-
as-
two
with
cover
single
cover
rail
rail
(D)
panel
access
of
is
:
Figure
5
.2 .2
a
.
.
REMOVAL moved
to
down
slightly
module
REINSTALLINGMODULE
the straight carefully
chassis down
connectionbetweenmodule and of
shown
by
top
screw
module,
screw
replace
module
in
Module
OF
of
while
from
socket,
.Module-cable
Figure
5-1
.
Servicing
MODULE
removing the
(C)
chassis
and seat
(C)
any
-
Modules
any
module
from
bottom
lifting
socket
-
check
properly aligned
module to cables
5-6
that
replace
insure
.NOTE
Disassembly
may
cables
and
removing
.
upward
.
Beforeinstalling
module
pins
module
a
and attached connections
:If
Rock
good
be
attached
hold-
module
to
pins
;
into
hold-
ground
chassis,
to
a
module
re-
free
are
then,
the
top
are
MAINTENANCE
is
replaced
be
necessary locked See
CalibrationProcedure
tion
.
MODULE-PIN pins
are
The
off-centerindex
module's also
provides
#1
.
NOTE
in
each
used
are
system
INDEXSTUD
center)
Figure
5
.2 .3
PRINTED-CIRCUIT reinstalling printed-circuit
is
properly nector proper CAUTION
the
connector
modules
Figure
METER-BOARD
the
meter-board
the
attenuator
potentiometerretaining
with
to
loop
or
other
NUMBERING
numbered
being
:
module
All
plugged
a
method
16pins
;
installed,
remains
5-2
.
the
BOTTOM
Module
Printed-Circuit
BOARDCONNECTORS
a
board,
aligned
pins
and
direction
:
Failure
can
or
power
CABLE
CONNECTOR
PCB
CONNECTOR
5-3
.
(C315)
dial,
a
new
module,
calibrate
circuits
the
involved
in this
as
SYSTEM
shown
stud
in
for
-The Figure
in
prevents backward locating
arenot
only
the
pins
butthe
same
Pin
cable
be
with
that
(See
to
properly
result
supply
Connector
REMOVAL
.
Numbering
Board
connector
connector
.
_
END
Servicing
sure the
board
Figure
in
J
Alignment
-
Removal
numbering
connector
orientate damage
assemblyrequires
VERNIER
nutand
it
will
phase-
sec-
module
5-2
required
actually
PIN
System
-
When
on
con-
faces
5-3)
RETAINING CL
IP
that
knob
front
the and pin
SOCKET
of
and
to
top
rail
be
removed
secured
.
one uator of screws
from
.
on switch
thenbe
VERNIER LEDand panel
from
The versing When
care
MODULATION
to
through
dial)
meter
and
meter
wire
.
potentiometer
;
then
instrument
meter
the
installing
not
frontpanel
front
and one board disengagesix-pinconnector
board
connectors The moved
meter
the
board
removal
to
damage
BOARD modulation-boardassembly moved
engage six
black LATIONMODE
retaining
connector
a
from
screw board moved
.
clear may
The reversing
When
switches, correct
of
switches
POWER
Supply
by the
ment
connecting carefully
by
the
following
the
slip-on
BCD
FREQUENCY
spring-loaded
and
nut
;
disengage
modulation
at
each
.The
board
toward
the
frontpanel;then,
be
lifted
board
assembly
the
placing
connectors
be
sureeach
switch,
main
harness
appear
SUPPLY
board
removing
BOARD and
the
printedcircuit
rear
panel
harnesses,
lifted
.The
panel
.Remove
Remove
.
meterboard
by
three
(behindatten-
at
each
these three
three
from
meter-board
toward
assemblycan
rear
shaft,
board
clear
can
case
.
is
reinstalled procedure
the
meter
the
UNLEVELED
(C316)
REMOVAL
can
procedure
connectors
from
switches
knobs
FREQ
EXT
;
from
switches
modulation
nine-pin
board
top
corner
;
and of
assembly
rear
from
until
instrument
is
switch
reinstalled
removalprocedure
on
connector
switchcables
in
same
order
.
heatsink
four
.
from
REMOVAL
screws
board
After
the the
-
can
which
to
removal
board
instrument
screws
top
attenuator
until
UNLEVELED
the
be
.
board,
-The
be
from
remove
the
;
connector
remove
modulation
can
then
the
assembly
.
.
FREQUENCY
break
The
be
removed
the
instru-
corner
slip-
front
lifted
by
NOTE
Lamp
:
MODU-
remove
levers
NOTE
is
Power
secure
of can
the
re-
use
re-
Dis-
the the
BNC
one
out
that
the
.
is
-
.
:
.
be
by
:
on
be
The
Power Supply raised of
many harnesses power instrument
must
CAUTION
far
enough components
sti11connected
NOT
unless
be
to
board
allow
with
applied
the
may
checking
;
however,
to
negative
be
the
the
(ground)
to
the
and
of
C9
Power Supplyboard
The by reversing
instrument
to
the
(jumper
side
of
positive
wires
the
removal
C10
chassis
(ground)
are
MAINTENANCE
is
connected
ground,
sufficient)
reinstalled
is
procedure
side
.
INSTRUMENT
Digital Oscilloscope
Power
FrequencyCounter
Spectrum
5.3
Remove
bottom
cover by reference
screw
off
.
before
In
general,
formed Figures and measurements
chassis
.1
5.3
Connectdigital volt +18V +18
.00V.(See
Voltmeter
Meter
Analyzer
CALIBRATION
the
cover,
.
The
from
top
Allow
calibrating
in
the
5-4,
adjustment
ground
+18VoltAdjustment
line
on pin3of
ADJ
.
PROCEDURE
instrument
and the
M172
module
to
Figure
of
module
a
two-hour
.
calibration
sequence
5-5 and 5-6
locations
are
madewith
.
voltmeter
on power
Figures
TABLE
module
supply
5-1
top
cover,
M172
can
5-6;then
and
slidecover
warmup period
should
given
.
for
.
reference
to
M30
5-5
.
RECOMMENDED
Accuracy
AC
dBm
to
the
per-
to
point
All
to
+18
5-6)
REQUIREMENT
50
.
CRITICAL
.04%
DC
and
At
least
Highfrequency
10
MHz
10-520MHz
-10
module
located
be
remove
be
Refer
test
NOTE
:
orange
and set produce
to
and
TEST
coupled
mV/cmsensitivity
FrequencyRange +15 dBm
5 Connect
volt
-18V ADJ
5.3.3
Connect volt readingmust
5.3 .4
Connectfrequency
input Set the switches
within
500
as AM/FM +10 dBm
- at
.3 .2
follows
EQUIPMENT
least
Power
-18
line
+7
line
Crystal-Frequency
ModuleM30
to
.000
MHz
Vernier
Range Model
Volt
digital
on
pin4of
on
power
.3
VoltCheck
digital
on
the
signal to
the
:MODE
and
voltmeter
pin be
+7
Model
a
high
counter's
.Set
at
VERNIER
RECOMMENDED
Keithley Tektronix
HP
Model
Sensor
HP Model
Model
HP
Adjustment voltmeter
moduleM30
supply
2
of
module
V
.3
counter
3000
RF
generator
frequency
front to
CW,
minimum,
Maximum
8481A
to for -18
to
±100
Adjustment
having
OUT
range
panel
FREQ
OUTPUT
179
5400
with
435A
Power
5303B 8558B
­yellow
and
green
M30
.
mV
.
connector
FREQUENCY which
s
such controls
to dial
clockwise
-18 set
.00h.
+7
.3
The
ohm
50
is
as
EXT,
at
.
.
3
MAINTENANCE
Adjust ure
5-5)
on
counter
QUENCYADJUST
counterindicates
ed by FREQUENCY
counter frequency
paragraph
5
.3.5
No
adjustment
5
.3.6
See
Figure
points
controls
and
other
Section meter justboth producea This
and+3 MHz,and still
Set frequency nect
to
M32A
for
a0V
queney control
indication
FREQUENCY
M30
for
minimum
;
then,
from
RF
check
5.3
.11
PHASE-LOCKED
M31A
of
PHASE-LOCKED M32A
5-5 for
and
Figure
.
Set front-panel
5.3.4
to
voltageshouldbe
.0
note
within
scope
pin
to
(B)
M32A
M30
minimum
VDC
.
vertical
15.Adjust
scope 239
to
.
.Connect
pin
that
above
.000 MHz,
ADJUST
frequency
carefully
trimmer
the
switches
OUT
connector
will be
.
LOOP
module
LOOP
location 5-6 for
frequency
14,
-1
trimmers
reading
Set
frequency
voltmeterreading
limits
to
200
indication
againproducea
trimmer
clockwiseuntil
frequency
.
#1
M31A
is
#2
to
controls
digital volt
and
input
carefully on
between
.
.000
MHz and con-
(DC,
M32A
.
and
(Fig­indication turn FRE-
select-
Disconnect
.
A
final
covered
ADJUSTMENT
necessary
ADJUSTMENT
of
M32A
adjustment
200
.000
as in
(A
and
voltmeter
+0
.
239
1
V/cm)
control
Set
adjust
0
V scope
test
MHz
ad-
B)
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(A)
Fre­M32A
in
is
to
5.3
.7
Phase-LockedLoop
P
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M33
and the
moduleM33
justment controls
(Figure
and Section
input
M9W
control
tion
.
.
.
V
Set
MODE
Vernier
input
Adjust
indication
FREQ
Set
presentation
5
.3 .8
Calibration modules
points M34
(Figure
trols
M9W
(Figures
Set
FREQUENCY
and
other
Section
meter
250
MHz
V
reading
maynowbe Connectfrequencycounter
nector
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control
should
er
MHz
. harmonics
on
to
adjust
multiples
If
this
readjust
break
to
multiple
obtained
consists
W
.
M9
(Figure
5-6)
.
Set
other
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front-panel to
(on M9W
Phase-LockedLoop
are are
to
and
1
V/cm)
NOTE
front
5
.3.4
(D)
FMx100, at
maximum
M33 pin
control
of
to
400
of
:
M172,
located 5-5),
located
front
5
.3.4
M172
control
on
disconnected
connect
(A)
for indicate
:Due
M9W
of 40
happens,
M9W
lock
of
witha250
panel
.Connect
V/cm)
for
controls
FREQ
5)
1
kHz
Hz
is
a
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M9W
while
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switches
panel
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pin
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voltmeter
to
M34
0Von
to
of
40
control
MHz
it
control
and
40
MHz
of
The
5-5),
FREQUENCY
to
.
(C)
and
on
scope
the
offset
will
MHz
#3
Adjustment
two
modules
test
point
while
are
on
controls
scope
M33 pin5.Adjust
a 0
V
scope
as
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Set
scope
for AC,
for
minimum
sine
wave
note
400
#4
and on
modules-
modulesM172and
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for 250
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pin8.Adjust
scope
a
frequency
MHz,
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5-4)
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vertical
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ust
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voltmeter
OUT
of
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possible
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reading
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scope
scope
wave
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Set
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ing 520 adjust cations
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.
FREQUENCY
M172
near
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500
at
symmetrical and
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Set 100
.
Recheck
MHz
pot.asindicated
FREQUENCY
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scope 500
switches
300MHzpot.for
reading
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of
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500
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pot
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note
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500 about
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and 520
450
Increase
scope
0
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500 and 520
to
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of
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400 and
for
M172
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for
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give
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scope
Figure
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scope
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then
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0
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520
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appropriate
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scope
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through
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frequencyrangefrom
in 10
highestleveler
adjust
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M9W
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Vernier
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of
100
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M172 pots
.,for
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at
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to
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steps
control
to
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setting
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50
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M34
pin
find fre-
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.
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1
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14
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contains
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Board
are
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and
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factory
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BAL-
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MAINTENANCE
Connectdigital MODT.P AM/FM
to adjust
+5 Vernier
indicate
5.3.10
To
rest on erating
power
zero
adjust bisect Restore
to
Set
adjust
needle meter
of
pletely
(A)
Set
FREQUENCY switches
to
dial
and its
powermeter
connect connector
Adjust
dBm panel PUTmeter
dBm
for
set
turn
peat this +3
without
pots.(E)
.Set
Verniercontrol
Figure
.00
adjust
stabilize
front
Meter
for
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power meter
range
+3 dBm
power
dBm
5-6
modulation
Vreading
to
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its position)
to
instrument
OUTPUT
screw dot
power
panel
Meter
again
scale
Board
cw
a
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front
VERNIER
to
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thermistor
thermistor
of
Meter
VERNIER
and
.
meter
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further
and
voltmeter
FREQ
for
on
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V
±20
OUTPUTmeter,
bottom
meter
.
The
at
left
to
.
VERNIER
Board bisects
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and
adjust
dBm
panel
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dBm
.
the
to
Model
Board
for
set
Adjust
powermeter
to panel paragraphuntil+13 dBm
adjustment
(F)
tochassis
switch
control location board
voltmeter
;
the
mV
.
Calibration
surface (normal
.
Momentarily
with
meter
end
instrument
pot.(B)
Figure
.
OUTPUTmeter
controls
to
Calibrate or
+15 dBm range;then
or
3000
pot.(F)
reading
-7
dBmreading
power
Meter
the +15 dBm
VERNIER
readingsare
.
to
to
maximum
pot
voltmeter
the
and
front-panel
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of
meter
fully
at
dot
5-6
Set
Meter
50.000 cw
power
sensor .
.
meter
Board
reading
fully
of
VERNIER
. .Set
mechanically
and allow
untilmeter left
for
VERNIER
Board
as
and
power
sensor
for Set
MeterBoard
and
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and
(A)
for
AM/FM
should
C315
-
unit must
op-
turn
OFF
zero should scale
ccw;then,
end
location
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pot
reading
follows
MHz,
MODE OUTPUT
meter
.
Set
to
RF
OUT
a
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front
OUT-
on
to
the
pot.(E)
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range
and
cw
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Re­and
obtained
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of
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OUTPUT
to
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.
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:
VERNIER meter
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ther and
Set follows
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Connect
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dBm
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Model
MODE
dBm
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for
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Set
power
adjust on
power
5
.3.11
erator specified quency
agree
carefully trimmer
frequency
5.3
.12
See
Figure justments frontpanel
other FREQUENCY
to
FREQ mum,
+10dBm
at
shown
dial
to 0
+5
dBm
range
cw,
adjust
dBm
power
for
and set
AdjustMeter
powermeter
readings
.
:
control
.
and adjust
-3 AM/FMVernier
meter Final frequencycounter
and set reading
accuracy
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FM Reference
.
front
VERNIER,
VERNIER
frequencycounter
on
dBm
-6 powermeter
until
3000
FREQUENCY
to
dBm meter
in
is
to
.Record
+3
are
of
front
AM,
FREQ
to OI
Set
power
reading
to
pot.(G)
.
FrequencyCheck
front panel
Section
on
with adjust
the
specifications,
M30 FREQUENCYADJUST
Figure obtained
5-6 for
Connect RF OUT
panel
40.000 AM/FMVernier
fully
dBm and
With
.
Meter meterreading
reading
Board
reading
dBm
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Meter Board
panel
switches
to
AM meter
front panel
the
to 1001
for
5
.3 .4
counter
selected
5-5)
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Adjustment
location
frequency connector controls
MHz,
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Board
to
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without
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VERNIER,
and
OUTPUT
to
on
power
dBm
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+3
dBm
to
signal
controls . ;
until
of
;
as
MODE
OUTPUT
and
CW frequency
.
pot.(C)
.
on
OUTPUT
the
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power
pots.(C)
to
520
AM/FM
the
0
VERNIER
meter
range
.
Adjust
reading
-
M30
Note
if
it
FREQUENCY
desired
-
M29-1
M29-1
counter
then follows
to
at
mini-
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this fur-
as
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MAINTENANCE
Set
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Set
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5 .4
Troubleshooting atic
A
thoroughunderstanding
diagrams in
Section the a
particular this or
board
with
In
general,
the
module
The
with
indicator"lamps
phase-locked
in
each
which
is
unlocked which module
A
problem
many
and should does problem for
example, will
lamp supply
+18,
the
DPS2
rear
mance
the
CALIBRATIONPROCEDURE
For
troubleshooting
missible
to
FMxl_
to
produce
approximately
Increase
.
and
adjust
(B)
to
increase
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5
kHz
to
FMx100
.
Adjust
.
TROUBLESHOOTING
procedure
and-circuit
3
of this
trouble
has been
the aid
front-panel
the
lights loops
is
symptoms
not
.
to
flash
willextinguish
-18
panel
of
symptom
module
can
be of
it is
or
PC-board
four
loop
loop
contains to
.
are
at
fault
in
a power
be clearly The
loss
;
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and
power supply
of
the
these
to
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and
adjust
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100
Hz AM/FM Vernier
Modulation
frequencycounter
.
and
AM/FMVernier
M29-1
reading
is
generally
of
"divide
description
manualwill
to
PC
or
accomplished
replaced, the
proper
preferable
assembly
ACCURACY
internal
aid
in
problems
an
indicate
The
lamps
unlocked,
.
supply
pointing
checked
while
.3
supplies
when indicate of
the -18
cause
loss
all
V
supplies
which
instrument
purposes,
the
M29-1
frequency
above
control
of
and of
be
board
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module
troubleshooting
.
indicatorlamp
when
indicate
but not
to
other areas
the
of
is
indicated
.
Model
control the
Board
(A)_°or a
40
.500
a
system-
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the
block
located
enable
localized
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the
module
or
repaired schematic to
replace
.
together
"unlock
Onemodule
that
which
may
cause
the
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a
specific
V
supply,
ACCURACY
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the
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comprise
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.Perfor-
it
is
3000
that
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MHz
Once
loop only
The
the
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with
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to
to
in
any
of
the
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turned
modules
available, 3000,
verifying
fective
RF
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for
powerlevel
Fabrication
cable,
.
.
V
for connector
connection
Before
cedure,be set
in
a
thorough strument loose
defectivemodule-pin cables
5
.4 .1
The
following
cal
symptoms followed cause(s) It
is
properlycalibrated
a
warmupperiodwill
shooting INTERMITTENT
ule-pin
LOWRF
is
10
rect
on
micro
actuated
LOWORNO RF
tive
attenuator
to
input
tive
meter
or
M9W
ule
MlOW
off
.
If
possibly
this
provides
if
a
.
can
output
or
spectrum
directly
of
terminated
modules
the
on
the other,
of
engaging
sure
proper
visual
for
or
missing
andburned
TroubleshootingHints
oratroubleshooting
assumed
.
OPERATION
sockets
OUTPUT
dB
lowon
the
switch
by attenuator
OUTPUT
or
output
board,
Checkvoltageonpin
.
.Thevoltage
the
when
removing
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an
suspected
be disconnectedfrom
connectors
analyzer
to
the
or
frequency
a
short
in
a mating one end and
on
test
equipment
inatroubleshooting
front-panel
operating
inspection
such
isalist
(+10
0 S1
obvious defects
screws,
sockets,
or
broken
the
instrument previously,
precede
or
loose
dBm
RANGE)
this
rangebut
dBm
range,
is
probablynotbeing
(ANY
or RF
cables
of
attenuator,
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or RF
instrument
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installing
modules another easy
method
module
;
then
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module
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position
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-
Defectivemod­RF
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RANGE)
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connector
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coax
connector
facilitate
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controls
of
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several
the
probable
procedure
has trouble-
cables
If
-
Meter
.
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connecting
15 of
be
cables should
Model
is
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power
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a
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Make
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and
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Board
Defec­defec-
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approx-
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of
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as
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5-7
MAINTENANCE
imately range VbC clockwise proper
while
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M10W
directly should If is Sweep
OUTPUT
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meter movementmay be open
IC is
UNLEVELED
terminated set
exceeds defective cables
Connect output for
50.000 from
powermeterreading withUNLEVELED
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meter
repeat is
tive connection
put
lamp defective
M10W ACCURACYLAMPS FLASH CONTINUOUSLY
steady light lights
as
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withVERNIER
on
0
dBmrange
.
These voltages
operation
other
voltages,indicate
the
directly
correct,
output
this defective
Oscillator
METER
pegged
remains defective
so
.
.
a
+13 dBm readingon
MHz
10
directly
above
correct,
RF
is
is
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3000
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5-6
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Model
Top View
6.1 This For
an
appears
The
lists
INTRODUCTION
section
assembly
first,
appear
contains
containingoneor more
and
lists
is
followedby
in
the
PARTS
1010-00-0013 1219-00-0016
1212-00-0006 1110-00-0294 1110-00-0751 1115-00-0011 1218-00-0250 1218-00-0144
of
following
LIST
all
the order
replaceable
subassemblies,
subassembly
.
SECTION
REPLACEABLE
parts
for the
the
list
.
ASSEMBLY
3000 HARNESS
POWER C315 C316
DPS2A
PC-DPS2A
LINE
SWITCH
CORD
assembly
-
3000
-
DPS2A
instrument
6
PARTS
.
list
1114-00-0020 1219-00-0055
1219-00-0054 1114-00-0360 1218-00-0600 1218-00-0610
1114-00-0016
1114-00-0012 1218-00-0192 1114-00-0143 1114-00-0215 1218-00-0022 1218-00-0021
1219-00-0117 1219-00-0118
1114-00-0011
1114-00-0008
1219-00-0129 1219-00-0019 1218-00-0314 1218-00-0334 1219-00-0020 1114-00-0320
M9W MIXER
PREAMP M10W-9
AMPLIFIER LEVELER- MIOW-9
M29-2 M30
PC M31A M32A
DIG
OSC MIXER VIDEO M33 M34 MIXER/AMP­VIDEOAMP LEVELER
PHASE VIDEO M172
-
PGM CTL
-
M9W
-
M30
BD BD
-
M32A
AMP
-
LOCK-
MIXER
M9W
-
M10W-9
- M32A
- M32A
- M32A
M34
-
M34
M34
M34
- M34
6.2
The
MANUFACTURERS
following
code
CODE is
usedon
the
parts
lists
to
identify
the
manufacturer
.
ABBRV
NAME.. .
. ... . . ...
. .
. .
. .
. .
. ...
.
.
CITY..
. .
. .
. . ... . .
. ...
ST
A-B A-D
A-H A-I A-M A-P ASAC ACEIN ACI AEG-T AER AVX AERTK
AHAM AIN ALC ALLPL AMD AMELC AMP ANZAC APL APP A-P APX
ARC ARN ARW-M
ASC ASE
ASTIRASTRO AT/IN
ATC ATR ATR AUGAT AULT AULT
AUTCP AVDELAVDEL AVT AWC
B-T
BEARIBEARINGS,
BEK
BEL
BER
BGH
BORDN
BOLE
BREZ
BSCAN
BUCK
BUD BUD
BURND
BUS
BWC
C-D
C-E
C-H CUTLER-HAMMER,
C-I
C-J
C-K
C-L
C C-W C-W
CAI
CAM
CAR
CCM
CDC
CECO
CFI
CGW
CHE
CHEMP
CHLAR
CHOM
CHRY
CIMCO
ALLEN-BRADLEY ANALOG ARROW ALANINDUSTRIES AMERICAN AMERICAN ABACUSPACKAGING ACE ADVANCE AEG-TELEFUREN
AERTECH
M
INDUSTRIAL
CERAMICS
AHAM ALPHA ALCO ALL ADVANCEDMICRO AMERICAN AMP, ADAMS-RUSSELL,ANZAC AMPHENOL
AMPEREX ARCOELECTRIC
ARNOLD ARROW-M
ASSOCIATED AIRCOSPEER
ATLANTIC AMERICAN
AUGAT, INC AUTOMATION AVANTEK,
ALPHA BEK-TEK,
BECKMAN
BELDEN
BERG
BEECH
BORDEN BOURNS, INC
BREEZE B-SCAN, BUCKEYE
BURNDYCORP BUSSMAN
BARON CORNELL CLINTON
COMPONENTS, TRW/CINCH
C & K CENTRALAB
C-M CUSTOM
CAMBION CARLING CORCOM, COMPONENT CENTRAL CIRCUIT CORNING CHERRY CHEMPLAST,INC CHARLES CHOMERICS
CHRYSLER CIMCO
COMPANY ELECTRONICS
PLASTICS,
INC
PRODUCTS
COILCO
INC
ELECTRONICS NEW
RADIO,
INDUSTRIES
DEVICES
HART,
COMPONENTS,
INDUSTRIES
INDUSTRIES,
.
ELECTRONIC
ENGINEERING
CORP
INDUSTRIES
. FASTENER WIRE
INSTRUMENTS,
CORP
GROVE
INC
CORPORATIONS,
INC
STAMPING MFG
WIRE
DUBILIER
ELECTRONICS
COMPONENTS,
ACCESSORIES,
ELECTRIC,
INC
COILCO FUNCTIONS GLASS
ELECTRICALPRODUCTS
LARSON
WIRE
INC
.
MAGNETICS PLASTICRAFT
HDWR
CORP
INC
ELECTRIC CONNECTOR
INDIA
TECHNICAL
.
INC INC
INC
.
DIV
DEVELOPMENT
INC
CORP
DEVICES
PRODUCTS SHELBYVILLE
.
SPRING
ELECTRONICS
RUBBER
.
CORP
. SYS
.
.
.
.
HARDWARE . .
INC
.
. .
AND
CABLE
INC
INC
.
.
.
.
WORKS
.
CO
. .
AND
CABLE
CO
CO
. .
INC
.
INC
.
PRODUCTS
.
CORDSETS
DIV
SYSTEMS CORP
CO
.
CERAMICS
.
INC
INC
CO
.
CORP
ELECT
.
INC
.
INC
INC
.
INC
.
.
INC
MILWAUKEE CAMBRIDGE
KETTERING COLUMBUS
CARTERVILLE
. .
INC
.
.
COMPANYCHICAGO
.
.
.
.
DIV
.
CORP
.
.
CHICAGO CHICAGO CAMDEN CENTERBROOK SOMERVILLE MYRTLE
SUNNYVALE
AZUSA
NO`RTHNANDOVER
INDIANAPOLIS SUNNYVALE BENSENVILLE HARRISBURG BURLINGTON BROADVIEW PAINESVILLE SLATERSVILLE
MARENGO CARSON BRISTOL ST.MARYS DAYTON OH
HUNTINGTON BLOOMINGTON ATTLEBORO MINNEAPOLIS PECKVILLE PARSIPPANY SANTACLARA ELIZABETH
READING CLEVELAND
FULLERTON GENEVA
CUMBERLAND BEECH COLUMBUS RIVERSIDE UNION PHILADELPHIA COLUMBUS WILLOUGHBY NORWALK ST.LOUIS NILES
.
NEWARK
ROCKFORD
MILWAUKEE
BIDDEFORD
ELK
GROVE WATERTOWN MILWAUKEE
WARMINSTER SKOKIE
CAMBRIDGE WEST CHICAGO CARSON
BRAZIL NEWBURY CORNING WAUKEGAN WAYNE STERLING WOBURN
DETROIT ALLENDALE
BEACH
GROVE
HARTFORD
PK
STATION
VILLAGE
WI MA
OH
IN IL IL
IL NJ CT NJ SC CA
CA ME
IN CA
IL PA MA
IL
OH
RI
IN IL
CA
CT PA
IL
NY
IN MA MN PA NJ CA NJ PA OH
CA
IL PA
IN OH
CA NJ PA OH OH CT MO
IL NJ
IL WI
ME
IL MA WI
PA
IL MA CT
IL CA
IN CA
NY
IL NJ
IL MA MI NJ
ABBRVNAME CKI CLAR
CLFRM
CLFX
CNCRD CPKG CPLRD CRTR CTS CTS-ECTS OF CTS-F CTS-KCTS OF CTSBRCTS OF CTSBVCTS OF CW/AL DAL DATEL DAV DAYTN DEL DEN DEW DILEC DIO DK-WR DLGHT
DNTCH DRA DRAKE DRMYR DORMEYER DYNR DYNEERCORP E-C E-I E-M EBY ECKDT ECKARDT ECMC ELC-I ELCO ELCO INDUSTRIES ELEXP ELECT ELFX ELHDW ELNA ELNA EMRON EPITK EPITEK EPOXT EPOXY ETC ETY EVRDY EXAR EZLOK F-K F-S FEDERALSCREW FAN FASTX FCD
FNWL FENWAL FRK
FRTE FRXC
G-E G-H G-I
G-T GAL
GATESGATES GBN GCE GHZ GLOBE GNATR GOU
DRIESDRIES REPRODUCER GRIP GRVCO GUDL GUDEBROD
GRAYHILL, GEN'L INSTRUMENT GRAND GALILEO
GILBERTENGINEERING GC GHZ GLOBE GENERAL GOULD,
GRIPMASTER
. . . . ... ... ... . . .
CTS
KNIGHTS, CLAIREX CLAROSTAT COILFORM COLE-FLEX CONCORD CREATIVEPACKAGING COMPLETE CORE-TRONICS ORANGE CHICAGO
C
.T.S.OF
C.W./ALPHA DALE DATEL HARRY DAYTON DELEVAN DENNISON DEWIREFABRICATING DILECTRON DIODES, DAKO-WARE DIALIGHT DONTECH,
ELECTRONICCRYSTALS ELECTRICAL ELECTRA/MIDLAND EBY
ELECTRI-CORD ELECTRA
ELECTRO-FLEX ELECTRONIC
ELECTRONICTRANSISTOR ERIE EVEREADY
EXAR E-Z
THERMWELL FANCOURT
FASTERDIV FAIRCHILD MOUNTAIN
FRAKO FAIR FERROXCUBEDIVISION SAUGERTIES GENERAL
ELECTRONICS
ROVE
CORP
.
MFG.C CORP
FLEX NEW
READING
TELEPHONE
ELKHART
FAIRBERRY KEENE BERNE BROWNSVILLE
TECHNOLOGY
SYSTEMS, DAVIES
ELECTRICCO
DIV
.
MFG.CO
INC
.
INC
MANUFACTURING
COMPANY
EXPEDITERS MILWAUKEE
ELECTRONICS
TECHNOLOGY,
TECHNOLOGICAL
INTEGRATED
LOK
RITE
TRANSFORMERS ENERGYPROD
DEVICES,
INC
COMPANY
.
.
INDUSTRIES,INC
LABORATORIES
HARD
PRODUCTS,
&
PRODUCTS
ELECTRIC
INC
ELECTRO-OPTICS
ATRONICS
.
BROS.SILK
. .
. ... .
INC
.
O
.
DIV
.
SYSTEMS
CORP
INC
MOLDING
CORP
MFG.CO
HEAT
SYSTEMS
.
ILL.TOOL WORKS DES
.
INC
.
.
.
.
.
.
CORP
.
. .
INC
INC
.
INC
.
CORP
PRODUCTS
INC
CORP
.
SEMICONDUCTOR
.
CO.INC
CORP
.
.
. . .
CITY.. MT.V
DOVER
GENEVA
BABYLON
INDIANAPOLIS
CHICAGO ELKHART
FAIRBERRY PASO BERNE BROWNSVILLE SOUTHAMPTON HARTSDALE
.
.
.
.
.
.
MANSFIELD
CHICAGO CHICAGO EAST AURORA NY FRAMINGHAM LOWELL MONROVIA CHATSWORTH CHICAGO BROOKLYN
HARWOODHEIGHTS ROCKVILLE CHATSWORTH KANSAS MURRAY MINERAL PHILADELPHIA ORANGE CA WESTFIELD CUMBERLAND ROCKFORD
BLOOMFIELD FARMINGDALE CARSON
KANATA, BILLERICA FLUSHING ERIE PA NEW YORK NY SUNNYVALE GARDENIA FRAMINGHAM CHICAGO GREENSBORO
FRAMINGHAM FRANKFORT, WALLKILL
INDIANAPOLIS
GRAND CARMEL
DENVER
.
PHOENIX ROCKFORD CHELMSFORD MILWAUKEE PHILADELPHIA
ST. NEW
MARLBORO DAYTON CHICAGO
. .
E
NON
YORK
ROBLES
CITY MO HILL NJ
PLAINES
GRANGE
HAVEN
PAUL ROCHELLE
;
. . ... .
WELLS
ONT
VIEW CA
GER
. ... . .
CAN
.
.
.
ABBRV
NAME
. . ...
. ...
. .
. ......... . ... .
CITY.. .
. .
. .
. ..... .
. .
.
H-P HARTW HEL HEY HERMAN HHS HERMANH HI-G HI-G HI-G HIT HITACHI HMLN HAML
HOLGW HOLUB HSD HUD
HY/PLHYDRO PLASTICS
HYSYS
HYT
ICI ICO-R IERC INDCP INDEC INLOK INT INWEB IRC IREC ITRON
ITT JAMES JAMES JAN JEF JEFWC JEW JFD JFD JFW JFW JHSN JON JUDD JUDD WIRE DIV.ECC K-L K-S K KDI-P KEENE KEM KEY KID
KIN
KMYO KRYST KSTR KSW KSW KSW KSW KUL LAURN LEYSE LIT LNMST
LOCTT LRC LRC LTRNX M-A M-D MILLERDIAL M-E MEPCO M-0 M-P MAI..
HEWLETT-PACKARD INDIANAPOLIS HARTWELL
CORP
HELIPOT
MFG.CO
.
INC
HI-G
.
INC
AMERICA,
N
I
HOLLINGSWORTH HOLUB
HARRIS HUDSON
HYBRID
DISTRIBUTING
CORP.SEMICDR TOOL
SYSTEMS BEDFORD
.
SMITH,
&
.
INC
LTD
SLDRLS DIE
INC
.
.
.
TERM .
. .
DIV
.
.
PLACENTIA ANAHEIM WAUKESHA BROOKLYN WINDSORLOCKS WINDSORLOCKS CT SAN
FRANCISCO
LAKE MILLS POTTSTOWN NEWPORT MELBOURNE NEWARK
GEORGETOWN
HYTRONICS PINELLAS
ILLINOIS
CAPACITOR
INC
.
MORTON
ICO-RALLY PALO ALTO CA INT'L INDUCTIVE INDUSTRIAL INTERLOK/WM INTERSIL, INTERNATIONAL INTERNATIONAL INT'L ISE INT'L
ELEC.RESEARCH
COMPONENTS
ELECTRONIC
J
PURDY
INC
.
WEBBING RESISTANCE
RECTIFIERCORP
ELECTRONICS
TELEPHONE
.
&
TELEGRAPH
CORP
HDWR
.
.
BURBANK CA
HAUPPAUGE
.
NEW
YORK BURLINGAME CUPERTINO WHITEHALL
.
PHILADELPHIA LOS
ANGELES
ISE,
JAPAN W.PALM
ELECTRONICS CHICAGO
JAN
HARDWARE JEFFERS JEFFERSON!
JEWELL
ELECTRICAL
ELECTRONICS
INDUSTRIES
JOHANSON
F.JOHNSON
E
.
MFG.CO
WIRE AND CABLE
INSTRUMENTS
MFG.CORP
.
.
.
LONG ISLANDCITY NY DUBOIS PA WORCHESTER MANCHESTER BROOKLYN BEECH BOONTON WASECA MN TURNERS
KERRIGAN
&
S
KDI-PYROFILM KEENE KEMTRON KEYSTONE KIDCO, KINGS KAMAYA KRYSTINEL
',(ESTER
ELECTRONICS
ELECTRONICS
KULKA LAUREN LEYSE
LITTELFUSE, LINEMASTER
LOCTITE
ELECTRONICS, LITPONIX MICROWAVEASSOCIATES
ILLUMINATEDPRODUCTS
MICRO
MALLORY
LEWISMFG
ENGINEERING
CORP
CORP
.
ELECTRON
ELECTRONIC
INC
.
ELECTRONICS
.
.
.
PRODUCTS
CORP
CHICAGO CHICAGO WHIPPANY NEWARK NEWBURYPORT
.
NEW YORK NY MEDFORD NJ TUCKAHOE
OHM JAPAN
PATERSON
SOLDER
DIV
.
CHICAGO BURLINGTON
BURLINGTON
ELECTRICCORP
MFG
ALUMINUM
.
INC
.
.
SWITCH
.
CORP
CORP
INC
.
.
.
MT.VERNON NEW
KEWANEE DES
WOODSTOCK NEWINGTON
HORNELL CUPERTINO BURLINGTON
&
ELECTRA, PLASTICS
CONTROLS
NAMEPLATE
INC
.
INC
.
.
INC
.
.
PHILADELPHIA PLAINES
MONTE
MAND MANDEX CHICAGO
MARQ J.& J.MARQUARDT MCREL MD-AM MDC MDLRS
MICRO MID MAIDA MIDLAND
FLEX
LTD
AMERICA CHICAGO
DEVELOPMENT
ROSS CINCINNATI MDTC MODUTEC MILN MILLP MIN-C MINIS
MILLEN
MFG.CO
. MILITARYSPECIFICATION WASHINGTON MINI-CIRCUITS
MINI
SYSTEMS
.
TUTTLINGEN,
HONG HAMPTON NORWALK
NEW YORK NY BROOKLYN
NORTH
PARK FL
GROVE
BEACH FL
GROVE
FALLS
ANA
GER
.
KONG
ATTLEBORO
NY
ABBRVNAME.. ... ...
MINOR MITEK
MLRJW
MMM MNO
MOL MOLEX MORAD
MOSTKMOSTK CORP MOT MRM MRO MRRUB MSN MSP MULSO MURA MURA MURA MURGA MWS
MYERS N-T
NAT NCC
NCSVC NATLCOM NEC
NEL
NEW NHWC
NICHN NMB
NMC NPC NYLO O-G 0-S OAK OAK INDUSTRIES OHM OHMITE MFG OMEGA OPTRN P-B POTTERAND P-C P-K PARKERKALON P-T P-U POLPH PACTCPACTEC PAM PAND
PARA PCC
PEC PEM
PFZR PHC
PHILPPHILPOTT PIC PIHER
PLI PLSSY
PLSTI PLASTIC PLYCL
PMCL PMI PNSNC POM PREH PRMD
PRSLK PRSN PTN PENN TRAMCORP PWRMTPOWER-MATE PYRO PYTT PYTTRONICS
Q-C
R-N
R-OHMR-OHM RAWSTRAW
MINOR RUBBERCO MITEK J.W.MILLER 3M
COMPANY
MONSANTO MORGA14 MOTOROLA
M.ROSS MASON MICRO SWITCHDIV MARION MICROSONICS MICRO MULTICORE
MURA MURATA-GEORGIA
'MAGNET
MYERS NATIONAL NATIONAL NATIONAL
NIPPON NATIONAL
NEWARKELECTRONICS NEW
HAVEN NICHICON NMB
CORP MAGNUM NUCLEONICPRODUCTS NYLOMATIC OPTI-GAGE
OMNI OMEGA
OPTRON POWER
PENN TUBE
PROJECTS POLYPHASE
PAMOTOR PANDUIT
PARAMETRIC PANEL PACIFIC PENN PFIZER, PHILADELPHIA
PRECISION PLESSEY
POLYCLAD PERMACEL PRECISION
PANASONIC POM014A
PREH PYRAMID PRESTO-LOCK PRECISION
PYROFILM QUALITY
ROBINSON-NUGENT
SPECTRA
ENGRG
VERT,MBH
STOCK
COMM.PROD
PRODUCTS
ADHESIVES
.
SEMI
RUBBER
SEMICONDUCTOR
SOLDERS
WIRE
SPRING
TEL-TRONICS SEMICONDUCTOR CERAMIC
SERV
ELECTRIC
ENGINEERING
WIRE
(AMERICA)
MICROWAVE
INC
.
WIRE COMPONENTS
COMPONENTS
INTERNATIONAL
&
INC
.
BRUMFIELD
PLASTICS
UNLIMITED
INSTR.CO .
DIV
DIV
.
CORP
INDUSTRIES
ELECTRICORD
&
.
RUBBER
LAMP,
ENG
.
TECHNIQUES,
LAMINATES
DIV
.
MONOLITHICS
ELECTRONICS
INDUSTRIES,
TUBE
CORP
CORP
INDUSTRIES,
COMPONENTS
.
. ... ... . ... . ... ..CITY
.
.
DIV
.
.
PROD
.
DIV
.
.
PROD
.
.
.
&
INC
.
CABLE CORP
.
.
CORP
INC
.
LTD
.
CORP CO
.
INC
.
.
.
CORP
.
.
LABS
. .
.
.
.
.
CORP
INC
CORP
.
.
.
INC
.
INC
.
.
.
INC
.
.
.
DIV
SUPPLY
.
.
INC
CABLE
CORP
.
MANUF HANDLE
.
.
...
.
... .
. .
. . ... . .
BLOOMFIELD LEXINGTON
COMPTON ST
.
PAUL PALO LISLE STOW CARROLLTON
INDIANAPOLIS INDIANAPOLIS
FREEPORT
INDIANAPOLIS WEYMOUTH SANTA WESTBURY
WESTBURY CHATSWORTH
LOGANSPORT LAREDO
SANTA
TRENTON
WILLOW
TOKYO
INDIANAPOLIS
INDIANAPOLIS
NEW SCHAUMBURG
ARLINGTON SUNNYVALE CANOGA MORRISVILLE DAYTON FARMINGTON CRYSTAL SKOKIE HARLEYSVILLE CARROLLTON PRINCETON WOODLAND CLIFTON CLIFTON DAYTON
BRIDGEPORT PHILADELPHIA
BURLINGAME TINLEY
NORTHFIELD BERKELEY GARDENA
DANBORO CAMDEN
CLEVELAND ARLINGTON MT.VIEW CA SCHILLER NEW BOSTON NH SOUTHFIELD NEW SANTA
POMONA GERMANY
PHOENIX GARFIELD NORTHWALES BELLEFONT HACKENSACK WHIPPANY MONTGOMERYVILLE ST.MARYS NEW
IRVINE
ALTO CA
ANA
CLARA
GROVE JAPAN
HAVEN
HEIGHTS
PARK CA
LAKE
HILLS
HEIGHTS
PARK
HEIGHTS
PARK
BRUNSWICK
CLARA
ALBANY
ABBRV NAME.. RAY
RCA RCA REL RGNCY RGR RICH RICHM RMC RMF
ROCKW ROGAN ROTRN RPBLC
RSSLL
S-C
S-G
S-I
S-S
S-T SAGE SAGE
SAYRO SCBE SCC SCX BEAST SECR SEL SEM SEMTX SGM SIGMA SGS-A
SHAM SHDW SHKMN SIEM SIG SIGPT SIGMA SINCR SINCLAIR
SKDRVSTOCK DRIVEPROD SLT SMTC
SOUTH
SPE
SPEC
SPR
SPRTX
SPST
SSS
STDPS
STKFS
STR
STSA
SYL
SYNTC
SYNTK
SYS
T-I
TCPL
TEK
TEKA TEKA
TEKNT
TELE
TELRY TFI THR TIMESTIMESWIRE
TIN TKN
TLNC TOKO TOKO TOKO TORCO TR-UT TRIYX TRU
RAYTHEON RELIANCE
REGENCY ROGERS RICHCOPLASTIC RICHARDS RADIO RMF ROCKWELL ROGAN ROTRON REPUBLIC RUSSELL SPECIALTY STANDARD SWITCHCRAFT, SERVICE SARKESTARZIAN
SAYROSA SCANBE STACKPOLE SILICONIX SEASTROM SECOR
SEALECTRO SEMTECH SEMTEX
SGS-ATES
SHAMROCK
I.E.E.SCHADOW SHACKMANINSTRUMENTS SIEMENS SIGNETICS
SOLITRONIMICROWAVE SAMTEC SOUTHCO SPECTROL SPECTRUM SPRAGUE SUPERTEX SPECTRA-STRIP
SOLID STANDARD
STAKE STETTNER
STEEL GTE
SYNTACCORP SYNERTEK SYSCON
TEXAS INSTRUMENTS
TACONICPLASTIC
TEKTRONIX
TECKNIT
TELETYPE
TELEDYNE
T&F INDUSTRIES
THERMALLOY
TINNERMAN
TECHNICAL
TELONIC
TOKO
TOR
TRIAD-UTRAD
TRIONYX
WALDES
. . .
. .
. . . .
MICA
ELECTRONICS
.
CORP
METAL
MATERIALS
PRODUCTS
CORP
INC
SUPPLY
LABORATORIES,
ENGINEERS
DIVISION
INC
INSTRUMENTS
PLASTRONICS
INC
FASTENERS ELECTRIC
STATE FASTENERS SALES
SYLVANIA
INTERNATIONAL,
PRODUCTS
ALTAIR
AMERICA AMERICA SKOKIE
CORP
. INDUSTRIES
TRUARC
INC
INTL
. . .
ELECTRONICS
CONNECTOR
GRIGSBY
INC
CARBON
INC
.
MFG
.
.
CORP
COMP PLASTICS& RUBBER
CORPORATION
RUSH,
&
.
CONTROL
INC
.
SCIENTIFIC
PRESSED TRUSHCO
.
CORP
.
RELAYS
.
AND PRODUCTS, WIRE
DIV
. .
. . . ... .
.
.
PRODUCTS
CORP .
.
LTD
.
.
ELET
INC
DIV
.
.
STEEL
.
INC
.
DIV CABLE
.
INC
.
SPA
DIV
INC
.
.
INC
.
CORP
.
.
.
INC
.
.
.
INC
. .
. .
.
.
.
CITY.. .
. .
INDIANAPOLIS
CAMDEN BROOKLYN
CHANDLER CHICAGO WOLCOTT CHICAGO BATAVIA ANAHEIM NORTHBROOK
WOODSTOCK PATTERSON
OCEANSIDE
INDIANAPOLIS
CHICAGO
INDIANAPOLIS
BLOOMINGTON
NATIC
ALTON,
ST.MARYS SANTA GLENDALE WESTWOOD MAMARONECK NEWBURY
DAYTON
BRAINTREE
AGRATE
.
INDIANAPOLIS
EDEN
CHESHAM,
ISELIN SUNNYVALE DEARBORN ST.LOUIS NEW HYDE PORT' NEW LESTER DAYTON FAIRVIEW
INDIANAPOLIS
CUPERTINO GARDEN
MONTGOMERYVILLE
JENKINTOWN
SOUTH
CAZENOVIA
INDIANAPOLIS
WALTHAM
CLEVELAND
SOUTH
DALLAS
PETERSBURG
INDIANAPOLIS
COLLEGE
CRANFORD
ELK GROVE
HAWTHORNE
ROLLING
DALLAS
CINCINNAI
CLEVELAND
CRAWFORD
LAGUNA
SKOKIE
VAN NUYS
HUNTINGTON
INDIANAPOLIS
LONG
. ... .
HANTS
MONTE
CLARA
BRIANZE,
PRAIRIE
SALERNO
ALBANY
GROVE
EL MONTE CA
BEND
BEACH
ISLAND
. .
. .
. . ...
U.K.
.
PARK
ITALY
ENGLAND
PARK
POINT NY
VILLAGE
MEADOWS
CITY
ABBRV
NAME
. . . . . ..... ... . . . ... . .
. .
. ..CITY.. .
. .
. .
. .
. .
. ... ..ST
TRW TRW TSHBA TVL TWAY TYTON U-C ULSP UNCAR
UNIC UNICORP
UNIT
USECO UTK VAC
VACO
VAR
VARIL
VELCR
VISCM
VLIERVLIER
VONGT
VRN
VTRMN
W-E
W-I
WAG WAONERELECTRICCORP
WECK
WHTMN
WKFLD
WLDM
WMBG W.M.BERG
WNSL
WNZLR
WSD
WSTN
ZEN
ZERO
ZIE
ZPT
CAPACITOR TOSHIBA TEL-VISION TWAY TYTON UNIVERSALCOMPONENTS UNDERWRITERS UNION
UNITRODE USECO UNITRACK VACTEC VACO
VARADYNE VARI-L VELCRO VISUAL
VONNEGUT VER14I VITRAMON WELLS WAVETEK
WECKESSER WHITMAN WAKEFIELD WALDOM CHICAGO
WEINSCHEL WINZLER WAVETEK WESTON
ZENITHRADIO
ZERO ZIERICK ZIPFERTUBING
COMPANY
CORP CARBIDE
CORP
DIV
. DIV
INC
PRODUCTS
CAPACITOR
. USA COMM
ENGINEERING
HARDWARE
TRON
.
ELECTRONICS
INDIANA
MFG
COMPONENTS ARCHBALD
MANUFACTURING
MFG.CORP
DIV
.
LABS
.
LAB.SPEC
COMPONENTS
.
.
.
.
INC
.
CORP
INC
.
INC
INC
ENGINEERING ENGINEERING
CORP
.
.
.
.
DIV
CORP
. .
.
OGALLALA WAUCONDA
INDIANAPOLIS MILWAUKEE LOS
ANGELES
.
.
.
.
CHICAGO GREENVILLE ORANGE
WATERTOWN VAN NUYS UPPER DARBY MARYLAND NORTHBROOK SANTA
DENVER CO
NEW YORK NY
BURBANK CA
INDIANAPOLIS GREAT
BRIDGEPORT SOUTHBEND
BEECH ST.LOUIS CHICAGO CINCINNATI
WAKEFIELD ROCKAWAY
GAITHERSBURG CHICAGO SAN
DIEGO
CHICAGO BURBANK MOUNT KISCO NY LOS
ANGELES
HEIGHTS
MONICA
NECK GROVE
REFERENCE
DESIGNATORS
PART
DESCRIPTION
ORIG-MFGR-PART-NO
MFGR
WAVETEK
NO
.
QTY/PT
1
2 15
14 13
12
9 8
5 10 11
NONE t1OMF_ 3 147
1
:10
W6
till
W4
WAVETEK
PARM
LAST
TITLE
SGLGEN
METER
BOARD
C315 MOD
BD,C316 CHASSIS,3000 ATTEN,
WIDE
OSC
NAR
OSCLK.M33
XTAL
REF
FM
REF,M29-2 M29-2
SWP
OSC,M9W KHZ
STEPS
MHZ
STEPS.M32A
DAC/SWP
OUTPUT POWER
CABLE CABLEASSY
CABLE
.3000
ASSY C315
50130-01
LK.M34
.M30
.M31A
DRIVE,M172
AMP
.M10W-9
SUPPLY,DPS2A
ASSY,2-1/4
.3-1/4
ASSY,4
IN 14X2000-Al IN
IN
W-I 1110-00-0294
C316 A500-313
50130-01 M34 W-I 1114-00-0008 M33 W-I
M30 W-I 1114-00-0012
M9W W-I 1114-00-0020 M31A
M32A M172 M10W-9
DPS2A
14X3001-1410 14X3001-144
ASSEMBLYNO.
1010-00-0013
W-I W-I W-I
W-I 1114-00-0016
W-I W-I
W-I W-I 1114-00-0360
W-I W-I 1217-00-0022
W-I W-I
1110-00-0751
1111-00-0005 1113-30-0041
1114-00-0011
1114-00-0143 1114-00-0215
1114-00-0320
1115-00-0011
1217-00-0032 1217-00-0040
1
1 1 1
1 1
1 1
1 1
1 1 1
1 1
2 2
REV
0
REFERENCE
1412WS148 1413
1414 W2 W3 141
16
P101
18
DESIGNATORS
W9
PART
DESCRIPTION
CABLE
ASSY,5
CABLE
ASSY
CABLE
ASSY,10-1/4
CABLE
ASSY,5
CABLE
ASSY,2-1/4
CABLE
ASSY,7
HARNESS PLUG,36-PIN
M0000-055 TERMINAL,MALE
MCOOO-019
.3000-AB
.8-1/2
ORIG-MFGR-PART-NO
IN
IN
IN
14X3000-200-WIS
IN
14X3000-200-149
IN 14X3000-200-1421
14X3000-200-143
IN 14X3000-200-1410
14X3001-141 WY3000-AB
03-06-2362
1854
MFGR
W-I W-I 1217-00-0084
W-I 1217-00-0102 W-I 1217-90-0003
W-I 1217-90-0004 W-I 1217-90-0005 W-I 1219-00-0016
MOL 2113-04-0005
MOL
WAVETEK
1217-00-0050
2113-OS-0002
NO
Y T
4
1 1
1 1 1
1 1
36
WAVETEK
PARM
LIST
TITLE
SQL
GEN
.3000
ASSEMBLYNO 1010-00-0013
PAOF
"
3
.
REV
0
i i
REFERENCE
DESIGNATORS
PART
DESCRIPTION
ORIG-MFGR-PART-NO
MFGR
WAVETEKNO.
2
3
4 5 NONE
NONE
NONE
WAVETEK
P~4RTS
LIST
TERMINAL M0000-018
RECEP,36-PIN M0000-054
SOCKET CONTACT
JACK,FEMALE,9-CKT M0000-067
CONN,6-PIN,KONEKTON MCOOO-076
CONTACT
TITLE
HARNESS,3000-AB
.FEMALE
MCOOO-065
MCOOO-069
MCOOO-068
02-06-1131
03-06-1361
583369-1 583259-2
09-50-3091
09-50-3061
08-50-0107
ASSEMBLYNO.
1219-00-0016
PAGE:1
2113-05-0001
2113-03-0004
2113-15-0001 2113-16-0001
2113-06-0001
2113-06-0002
2113-07-0001
24
1
6 29
2
1
22
REV
B
REFERENCE
NONE_ NONE S201
DESIGNATORS
PART
DESCRIPTION
TERMINAL PLUG SWITCH,T000LE
.MALE
DPDT
ORIG-MFGR-PART-NO
02-09-2118
19-09-2042
920lP3HZQ C-K
MFGR
WAVET
K O
2113-09-0004 2113-26-0001
5106-00-0016
.
QTYIPT
4
1 1
WAVETEK
PARIS
LIST
TITLE
SW
ASSY,16-1/2
ASSEMBLYNO.
1212-00-0006
REV
REFERENCE
DESIGNATORS
PART
DESCRIPTION
ORIG-MFGR-PART-NO
MFGR
WAVETEK
NO
.
CITY
C1
CRO5 CR2
CR3
IC1 IC2
M1
PI
ROI R02
R03
R04R28
R05
R06
R07R23
ROB
WAVETEK
PARTS
IC3
LIST
CAP,TANT­CE113-447
DIODE DIODEDR000-001
IC,I0000-005 RC4558NB
METER, MI000-004
PLUO,6-PIN M0000-075
POT,5K,RP130-250 RES,
RC103-275
RES, RF213-365
RES,C,1 RC103-333
RES,MF,1/8W,1%,IOK RF213-100
RES,C,1/4W, RC103-320
RES,MF,1/8W,1 RF212-274
TITLE
METERBOARD C315
D0000-007
3
1/4W,
C,
MF,
ABBY
SCALE
1/BW,
/4W,
47MF,50V
KONEKTON
5Z,7.
1.,36.5K
5'/..
5'/.,20K
33K
,2
5K
.74K
935 TRW
5082-2800
IN4004
MI000-004
09-65-1061
89PR5K CFI/4-7
f'F55K-36.5K
CFI/4-33K
MF55KIOK
CFI/4-20K
MF55K-2
.5K
.74K
ASSEMBLY
1110-00-0294
PAGE'
H-P P-C 4806-01-4004 RAY
W-I
MOL
BEK 4610-00-2502 ASE
ASE
ASE
ASE
ASE
ASE
NO
.
1
1510-21-9470
4809-02--0001
7000--14-5800 2410-06-0001
2112-05-0002
4700-15-7501
4701-03-3652
4700-15--3302
4701-03-1002
4700-15--2002
4701-03-2741
1
1
2 3
1
1
1
1
1
2
2
2
1
REV
H
REFERENCE
R09
RIO
Ril
R12R15
R13
R14 RES
R16
R19
R21
R22 R24
R25 RES.C,
DESIGNATORS
R17R18R26
R20
PART
RES,MF,i/BW,SI,11 RF213-113
RES, RF212-392
POT,MOD,IOK,10G RP140-310
POT,20K,RP130-320
RES,C,1/4W.5'/.,5 RC103-256
.C,1/4W,5%
RC103-422 RES,
RC103-310 RES,C,1/4W,5%,IM
RC103-510 RES,MF,I/BW,1G
RF213-158 POT,2K,RP130-220
RES,C,1/4W, RC103-368
RC103-410
DESCRIPTION
1/8W,
MF,
C,1/4W,
1/4W,
1'/.,3
.220K
5'/.,1
5'/.,68K
5'/..
.3K
.92K
.6K
OK
.15.BK
100K
ORIG-MFGR-PART-NO
MF55K-11
MF55K-3
70AIN048PI03U
89PR20K
CFI/4-5
CFI/4220K
CFI
CF1/4-IM
MF55K-15
89PR2K CFI/4-68K
CFI/4-100K
.3K
.92K
.6K ASE 4700-15-5601
/4-IOK
.8K
MFGR
ASE
ASE
A-B
BEK 4610-00-2203
ASE 4700-15-2203
ASE
ASE
ASE
BEK ASE
ASE
WAVETEK
4701-03-1132
4701-03-3921
4610-11-3103
4700-15-1002
4700-15-1004
4701-03-1582
4610-00-2202 4700-15-6802
4700-15-1003
NO
OTY
.
1
1
1
5
1
1
2
1
1
1 1
1
WAVETEK
PARTS
LIST
TITLE
METERBOARD C315
ABBY
ASSEMBLYNO.
1110-00-0294 PAGE:2
REV
H
REFERENCE
DESIGNATORS
PART
DESCRIPTION
ORIG-MFGR-PART-NO
MFGR
WAVETEK
NO
.
OTY
R27 RES.C.1
R33 RES.C.1
R34
WAV
PAMS
TEK
E
UST
TITLE
METER
C315
RC103-315
RC103-212 RES
.VAR
10%
BOARD
/4W.5'/.,15K
/4W.5'/..
.CERMET
ASSY
1 .
.100
CFI/4-15K
2K
CF1
/4-1.2K
S9PR100
ASSEMBLY
1110-00-0294
PAGE:3
ASE
ASE
BEK
NO
.
4700-15-1502
4700-15-1201
4610-00-2101
1
1
1
REV
H
REFERENCE
DESIGNATORS
PART
DESCRIPTION
ORIG-MFGR-PART-NO
MFGR
WAVETEKNO.
C1
C6
C4 C9
C14 CAP
C13 CAP
CIS CAP
C2 C3C7CS
C5
ICO1
CR3 CR4
CRS LED
IC02
WAVETEK
PARTS
LIST
CAP)TANTo CE113-447
CAP,MICA,1000PF,500V CMIOI-210
C0103-350
CD103-310
CE120-010 CAP
CMIO1-147 CAP,CER,330PF,IKV
CD104-133 DIODE
HARNESS.MOD DUAL OP
I0000-027
TITLE
MODHD.C316 1110-00-0751
.47MF,50V
.CER..OOIMFD
.CER,
.05MF,100V
.CER,
.OIMF,IOOV
.TANT,IOMF,25V
.MICA
.470PF
DR000-001
DLOOO-001
AMP,RAYTHEON RC4558NB-RAY
.1KV 5GAD10
.SOOV
BD
935 TRW
DM15-102J
TG-S50
6BU103M
162Di06XO025DD2
DM15-471J
IOTCU-T33
1N4004 NSL5046 WYC317
ASSEMBLYNO.
PAGE:1
1510-21-9470
1510-50-0102
1510-10-1102
1510-10-2503
1510-10-2103
1510-21-7100
1510-50-0471
1510-10-3331
4806-01-4004 4810-02-0001
1219-00-0284
7000-45-5801
4
3
1
1
1
3
4
1
5
3
1 2
REV
I
REFERENCE
J1
Pi
01
02
03
R11 R13 R25
R14 RES.C.1/4W
DESIGNATORS
R30 RES
R9
R27 RES.C.1/4W,
R3
R54 RES
PART
DESCRIPTION
DUAL OP
IC
ICOOO-006
CONN
.UG911A/U
J3109-111
.AXIAL
MPOOO-002 CONN
.MALE
MCOOO-071
TRANS TRANS
2N3854A
.C,1/4W,5%
RC103-427 RES
RF214-340
RC103-310
.C,1/4W
RC103-410
RC103-447
GA054-580
GA038-541
.1/BW,I%,340
ORIG-MFGR-PART-NO
VACTROL
.9-PIN 09-65-1091
.270K
.S%,IOK
.57G
.1OOK
.57G
.470
K
K
RC4558NB
MC1455P1
KC79-146
VTL5C3
2N5458
2N3854A
CF1/4-270K
MF55K-340K
CFI/4-IOK
CFI/4-LOOK
CFI/4-470K
MFGR
WAVETEKNO.
7000-14-5800 7000-14-5500
2110-01-1013
3710-00-0001
2112-05-0001
4901-05-4580 4901-03-8541
4700-15-2703
4701-03-3403
4700-15-1002
4700-15-1003
4700-15-4703
1 1 1
1
1
2
1
3
2
4
4
1
WAVETEK
PAM
LIST
TITLE
MODBD.C316
ASSEMBLYNO.
1110-00-0751 PAGE:2
REV
I
REFERENCE
DESIGNATORS
PART
DESCRIPTION
ORIG-MFGR-PART-NO
MFGR
WAVETEK
NO
.
(ITY
R15*
R16
RIB*
R19
R21*
R22
R23
R28
R29
R31
R32 R33
WAVETEK
PARTS
R2
R37
R4*
R20*
R6*
R24
R42R47
R53
LIST
RES,C,1/4W,5%,390KCF1/4-390K RC103-439
R5
RES,C,1/4W,10%,10M RC104-610
RES,C,1/4W,10%,5 RC104-556
RES,C,1/4W,10%,22M RC104-622
RES,C,1/4W,10%,4 RC104-547
RES,MF,1/8W,I%,464K RF214-464
RES,MF,1/SW,I%,845K RF214-845
RES,C,1/4W,5%,560K RC103-456
RES,C,1/4W, RC103-275
RES,MF,1/SW,1%,4 RF212-487
POT,IK,RP129-210 360SI02B RES,MF,1/BW,1%,12
RF213-121
TITLE
MOD
BD,C316
5X,7.
.6M
.7M
5K
.87K
.1K
CB1061
CB5651
CB2261
CB4751
MF55K-464K
MF55K-845K
CFI/4-560K
CFI/4-7
MF55K-4
MF55K-12
.5K
.87K
.IK
ASSEMBLYNO
1110-00-0751
PAGE:3
ASE
A-B 4700-16-1005
A-B 4700-16-5604
A-B
A-B
ASE
ASE
ASE
ASE
ASE
CTS ASE
.
4700-15-3903
4700-16-22053
4700-16-47042
4701-03-4643
4701-03-8453
4700-15-5603
4700-15-7501
4701-03-4871
4610-00-1102 4701-03-1212
4
2
1
2
1
1
1
3
1
REV
1
I
REFERENCE
R34R35
R36 R38
R39
R40s
R41
R43
R44
R45
R46
RS
R48
DESIGNATORS
R7*
PART
DESCRIPTION
RES,C
.1/4W,5%,IM
RC103-510 POT,20K,RP129-320
RES,C,1/4W,5%,47K RC103-347
RES,C,1/4W,5%,ISK RC103-318
RES
.C,1/4W,5%,680K
RC103-468 RES,MF,1/BW,1%,2
RF212-274 RES,MF,1/BW,1%,5
RF212-511 RES,SLIDETROL,IOK
PERB/P RES,C,1/4W
RC103-033 RES
.MF,1/BW,I%,178K
RF214-178 RES,MF,1/8W
RF212-150
.5%,33
.I%,1
.74K
.11K
.50K
ORIG-MFGR-PART-NO
CF1/4-iM
36OS203B CF1/4-47K
CFI/4-18K
CF1/4-680K
MF55K-2
MF55K-5
RP137-310
CF1/4-33
MF55K-178K
MF55K-1
.74K
.11K
.50K
MFGR
ASE
CTS ASE
ASE
ASE
ASE
ABE
W-I 4610-12-9103
ASE
ASE
ASE
WAVETEK
4700-15-1004
4610-00-1203 4700-15-4702
4700-15-1802
4700-15-6803
4701-03-2741
4701-03-5111
4700-15-3309
4701-03-1783
4701-03-1501
NO
.
OTY
3
1 1
1
1
1
1
1
1
2
1
WAVETEK
PARTS
LIST
W
BD,
C316
l
3108OYON0751
4
PAGE
:
REV,
REFERENCE
DESIGNATORS
PART
DESCRIPTION
ORIG-MFGR-PART-NO
MFGR
WAVETEK
NO
.
CITY
R49
R50
R51
R52
R55
R56
S1
52
WAVETE
PARTS
LIST
RES.C.1/4W.S%,1 RC103-210
RES.C.1/4W,5%,20 RC103-120
RES,C,1/4W.5..4 RC103-247
RES,C,1/4W,5%,330 RC103-133
RES.C.1/4W,10%,47 RC104-647
RES,C,1/4W,5'/.,620 RC103-162
LEVER
SWITCH
FROM
:5101-00-0007
K
TITLE
MOD
BD,C316
K
.7K
CF1/4-iK
0
CF1/4-200
CFI/4-4
CF1/4-330
M
CB4761
CF1/4-620
SL000-003
.7K ASE
ASSEMBLY
1110-00-0751
PAGE:5
ASE
ASE
ASE
A-B 4700-16-4705
ASE
W-I
NO
.
4700-15-1001
4700-15-2000
4700-15-4701
4700-15-3300
4700-15-6200
5101-00-0003
1
1
1
1
1
2
REV
1
I
REFERENCEDESIGNATORS
PART
DESCRIPTION
ORIG-MFGR-PART-NO
MFGR
WAVETEKNO.
CITY
F101
IC101 J101
J201
18
0101
0102 PROT
S101
T101
23 24 LINE CORD
WAVETEK
PARTS
LIST
FUSE,SLO 250V
POS,
VOLTAGE
CONN,6-PIN,KONEKTON MCOOO-076
RECEPTACLE CONTACT,M0000-131
SWITCH,SLIDE,DPDT
XFMR,PWR 8720
PC
ASSEMBLY,
TITLE POWER
SUPPLY,DPS2A
BLO,1
AMP,
DARLINGTON
DPS2A
ASSEMBLY
MDL-1
.
LM317T 09-50-3061
19-09-1042
08-50-0106 LM395T
EPSI-SLI
1218-00-0250 1219-00-0144
ASSEMBLYNO.
1115-00-0011
PAGE:i
2410-05-0005
7000-03-1700
2113-06-0002
2113-26-0002 2113-07-0002
4902-00-3950 5105-00-0011
5610-00-0027
1218-00-0250 1219-00-0144
1
1 1
1 5
2
1 1 1
1
C
REFERENCE
C05 C07
C04 C09
CR01 CR02
CR04
CR03
CRO5 CR08
CR06
CR07
ICO1 IC02
DESIGNATORS
PART
DESCRIPTION
CAP,CER, CAP,CER,
CAP,ELECT,lMF,25V CE120-001
CAP,ELECT,IOOMF CE105-110
CAP,I000OMF,16V CE122-310
CAP,TANT,10MF,25V CE120-010
DIODE DIODE
DIODE
DIODE
FUSE,S.B.,2AMP MFOOO-002
VOLTAGE DUAL
CONN-
.005MF,IOOV .005MF,100V
BRIDGE DG109-140
DR000-001 DROOO-009
REFERENCE
OP
RECEPT-
.25V
3-PIN
ORIG-MFGR-PART-NO
TG-D50
TG-D50 162D105X9025BC2
TE1211 SPR
D76381
162D106XO025DD2
MDA101
IN4148 FCD 1N4004
IN5624 G-E
313-002
REF-02CJ TLO82CP
6-86105-3
MFGR
MU'T
WAVETEKNO.
1510-10-2502 1510-10-2502
1510-21-7010
1510-20-4101
1510-21-4103
1510-21-7100
480b-02-0003 4807-01-0914
4806-01-4004 4806-01-5624 2410-05-0001
7000-00-0200 7000-00-8200 2112-25-0001
2 2
3
2
1
1
1
2 3
2
1
1 1
3
WAVETEK
PARTS
LIST
TITLE
PC
ASSEMBLY,
DPS2A
ASSEMBLY NO
1215-00--0250
PAGE.1
.
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