HP 1349A, 1349 D Operating And Service Manual

OPERATING AND SERVICE MANUAL

MODEL 1349AlD

DIGITAL DISPLAY

SERIAL NUMBERS

This manual applies directly to instruments with serial numbers prefixed

For additional important information about serial numbers, see INSTRUMENTS COVERED

2437A.

BY

MANUALin Section

I.

OCOPYRIGHT HEWLETT-PACKARD COMPANYICOLORADO SPRINGS DIVISION

Manual Part Number 01349-90901 Microfiche Part Number 01349-80901

1900

GARDEN OF THE GODS ROAD, COLORADO SPRINGS, COLORADO, U.S.A.

1984

PRINTED AUGUST

1984

I

This product has been designed and tested according to International Safety Requirements. To ensure safe operation and to keep the product safe, the information, cautions, and warnings in this manual must be heeded. Refer to Section Iand the Safety Summary forgeneral safety considerations applicable to this product.

SAFETY

CERTIFICATION

Hewlett-Packard Company certifies that this product met its published specifications at the time of shipment from the factory. Hewlett-Packard further certifies that its calibration measurements are traceable to the United States National Bureau of Standards, to the extent allowed by the Bureau's calibration facility, and to the calibration facilities of other International Standards Organization members.

WARRANTY

This Hewlett-Packard product is warranted against defects in material and workmanship for a period of one year from date of shipment. During the warranty period, Hewlett-Packard Company will, at its option, either repair or replace products which prove to be defective.

The cathode-ray tube (CRT) in the instrument and any replacement CRT purchased from HP are also warranted against electrical failure for a period of one year from the date of shipment from Colorado Springs. BROKEN TUBES NOT INCLUDED UNDER THIS WARRANTY.

ANDTUBES WITH PHOSPHOR ORMESH BURNS, HOWEVER, ARE

For warranty service or repair, this product must be returned to a service facility designated by HP. However, warranty service for products installed by HP and certain other products designated by HP will be performed at Buyer's facility at no charge within the HP service travel area. Outside HP service travel areas, warranty service will be performed at Buyer's facility only upon HP's prior agreement and Buyer shall pay HP's round trip travel expenses.

For products returned to HP for warranty service, Buyer shall prepay shipping charges to HP and HP shall pay shipping charges to return the product to Buyer. However, Buyer shall pay all shipping charges, duties, and taxes for products returned to HP from another country.

LIMITATION OF WARRANTY

The foregoing warranty shall not apply to defects resulting from improper or inadequate maintenance operation outside of the environmental specifications for the product, or improper site preparation or

maintenance. NO OTHER WARRANTY IS EXPRESSED OR IMPLIED. HP SPECIFICALLY DISCLAIMS THE

IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE.

THE REMEDIES PROVIDED HEREIN ARE BUYER'S SOLE AND EXCLUSIVE REMEDIES. HP SHALL NOT BE LIABLE FOR ANY DIRECT, INDIRECT, SPECIAL, INCIDENTAL, OR CONSEQUENTIAL DAMAGES, WHETHER BASED ON CONTRACT, TORT, OR ANY OTHER LEGAL THEORY.

by Buyer, Buyer-supplied software or interfacing, unauthorized modification or misuse,

EXCLUSIVE REMEDIES

Product maintenance agreements and other customer assistance agreements are available for Hewlett-Packard products.

For any assistance, contact your nearest Hewlett-Packard Sales and Service Office. Addresses are

provided at the back of this manual.

ASSISTANCE

S C W

8 A 9/78

(CRT)

SAFETY SUMMARY

The followlng general safety precautlons must be observed and repalr of thls Instrument. elsewhere Instrument. Hewlett-Packard Company assumes no wlth these

GROUND THE INSTRUMENT.

To mlnlmlze shock hazard, the Instrument chassls and cablnet must be connected to an electrlcal ground The Instrument must

to two-contact adapter

(safety ground) at the power outlet The power jack and lnternatlonal Electrotechnlcal Comm~ss~on (IEC) safety standards

DO NOT OPERATE IN AN EXPLOSIVE ATMOSPHERE.

Do not operate the Instrument In the presence of flammable gases or fumes

electrlcal Instrument

KEEP AWAY FROM LIVE CIRCUITS.

Operating

adjustments must be made by quallfled malntenance personnel Do not replace components w~th

power cable connected Under certaln condltlons, dangerous voltages may exist even wlth the power cable removed To

touchlng them

In

thls manual vlolates safety standards of deslgn, manufacture, and Intended use of the

requirements.

elther be plugged Into an approved three-contact electrlcal outlet or used wlth a three-contact

wlth the

In such an

personnel must not remove Instrument covers Component replacement and Internal

Fallure to comply wlth these precautlons or wlth speclflc warnlngs

llablllty for the customer's fallure to comply

1s equlpped w~th a three-conductor ac power cable The power cable

grounding

environment

avold lnjurles always

wire (green) flrmly connected to an electrlcal ground

constitutes

a deflnlte safety hazard

disconnect

durlng

matlng plug of the power cable meet

all phases of

power and discharge clrcults before

operation,

Operation

servlce,

of any

DO NOT SERVICE OR ADJUST ALONE.

Do not attempt Internal servlce or adjustment unless another person capable of

and

resuscitation

USE CAUTION WHEN EXPOSING OR HANDLING THE CRT.

Breakage of the Cathode-ray Tube (CRT) causes a hrgh-veloclty To prevent CRT ~mploslon, avoid rough handling or jarrlng of the Instrument Handllng of the CRT shall be done only by

DO NOT SUBSTITUTE PARTS OR MODIFY INSTRUMENT.

Because of the danger of lntroduclng add~tlonal hazards do not Install any

unauthorized

Sales and

DANGEROUS PROCEDURE WARNINGS.

Warnings,

manual lnstruct~ons

Serv~ce Offlce for servlce and repalr to ensure that safety features are malvtained

IS

present

scattering

quallfled malntenance personnel uslng approved safety mask and gloves

modlflcation of the ~nstrument Return the Instrument to a Hewlett-Packard

such as the example below precede potent~ally dangerous procedures throughout thls

contained

In the warnings must be followed

WARNING

of glass fragments (~mploslon)

substitute

rendering

parts or perform

first ald

u

Dangerous voltages, capable of causing death, are present in this instrument. Use extreme caution when handling, testing, and adjusting.

SS

2

1176

Table of Contents Model 1349A/D

TABLE

Section Page Section Page

.

GENERAL INFORMATION 4.5 . Calibration Cycle

I

1.1

.

Introduction

1.4

.

Specifications

1.6 . Safety Considerations 1-1

1.8 . Instruments Covered by Manual

1.13 . Descri~tion

1.15

.

Accessories Supplied

1.19 . Recommended Test Equipment

I1 . INSTALLATION

Introduction Initial Inspection 2-1 Preparation for Use 2-1 Power Requirements 2-1

Power Connector

1/0 Connector 2-2 Analog Outputs 2-3 Operating Environment 2-3

Storage and Shipment 2-3 Packaging 2-3

I11 . OPERATION

3.1

.

Introduction

.

3.3

3.4 . Handshake Timing for 1349D 3-1

3.6 Refresh Modes 3-4

3.10

IV . PERFORMANCE VERIFICATION

Signal Line Definitions

3.5 . Picture Refresh Requirements for 1349D 3-4

. .

Memory Initialization

3.7

3.8

.

1349A/D Command Set

3.9

.

Vector Drawing Examples

.

Programming the 1349D

3.11 . Write Operation

.

3.12

3.13

3.14

3.15

3.16

3.17 . Operating Considerations for the

3.18 . Signal Line Definitions

3.19 . Handshake Timing for the 1349A 3-12

3.20

3.21

4.1

4.3

Read Operation

.

Programming Summary

.

Using the Jump Instruction

.

Optimizing Picture Quality Octal and Hexadecimal Range

.

1349A/D Commands

for

1349A

.

Transfer Sequence

.

Restrictions

.

Introduction

.

Equipment Required

.....................

....................

...........

......................

.............

.....................

................

.............

................

...................

..................

..........

...........

.......................

.....................

..........

....

......................

...................

............

..........

.......

.........

.................

..................

.........

.....

......

.......

.........................

..........

...............

......................

.....................

.............

OF

1-1

.

1-1

1-4 1-4

. .

1-4

2-1

2-2

3-1 3-1

3-5

3-6 3-10 3-10 VI 3-10 3-11 3-11 3-12 3-12

3-12

3-12 VII 3-12

3-13 3-13

4-1 4-1

LIST OF ILLUSTRATIONS

................

............

...........

.................

...............

..............

...............

........

.......

.................

....................

........

....

.............

..........

...........

............

...............

..........

.......

...............

............

...............

Page Figure

1-0

2-2

3-2 3-3 3-4 3-4 3-5 3-7 3-7 3-8

3-10

8.22 . Service Sheet 2, Theory of Operation 8-10

8.23 . Service Sheets 3A. 3B. 3C Theory of Operation 8-12

Service Sheet 4. Theory of

8.24

.

Operation

8.25

Service Sheet 5. Theory of

.

Operation

Service Sheet 6. Theory of

8.26

.

Operation

Stroke Generator Adjustment Stroke Length Adjustment Stroke Intensity Adjustment Stroke Generator. Stroke Length and

Stroke Intensity Adjustment

Locations X-Y Vector Closure P/O Fine Focus Adjustment P/O Fine Focus Adjustment Vector Closure. Focus and Astigmatism

Adjustment Locations X-Amplifier Auxiliary Output 5-14 Y-Amplifier Auxiliary Output 5-14 Z-Amplifier Auxiliary Output 5-14

Chassis Parts and Board Assembly

Identification

CRT Removal Schematic Diagram Symbols Basic Logic Symbols Service Sheet Vector Processor Troubleshooting

Flow Chart Vector Processor Component Locator Service Sheet Vector Processor Component Locator

Service Sheet

Simplified Block Diagram of Analog

Multiplier Current Definition for Ramp

Generator

Analog X-Y-Z Troubleshooting Flow

Chart

Service Sheet 3A. P/O X-Y-Z Amp/

Stroke Generator

Analog X-Y-Z Component Locator Service Sheet 3B. P/O X-Y-Z Amp/

Stroke Generator

...............................

......................

...........

......................

Title

Page

.........

............

..........

...........................

....................

..........

...............

.........

..........

........................

.........................

..........

..................

1.

Block Diagram

.........................

2A. P/O Vector Processor 8-11 2B. P/O Vector Processor 8-13

...........................

....................

.......

...

.

.....

8-10 8-10

8-12

8-14

8-14 8-15

8-16 8-17

8-18 8-20 8-24

5-8 5-9 5-9

5-10 5-11 5-12 5-12

5-13

6-3

8-2 8-3 8-4 8-9

Table of Contents

Model

1349A/D

Figure

Table

LlST OF ILLUSTRATIONS

Title Page Figure Title Page

Analog X-Y-Z Component Locator Service Sheet 3C. P/O X-Y-Z Amp

Stroke Generator 8-19

Low Voltage Power Supply

Troubleshooting Flow Chart 8-20

Low Voltage Power Supply Component

Locator

Service Sheet 4. Low Voltage Power

Supply

High Voltage Power Supply

Troubleshooting Flow Chart 8-22

High Voltage Power Supply Component

Locator

.............................

..............................

.............................

.....................

.....

........

8-18

8-20

8-21

8-22

8.23 . Service Sheet 5. High Voltage Power

8.24

8.25

8.26

8.27 . Memory Circuit Troubleshooting Flow

8.28 . Memory Circuit Component Locator 8-26

8.29

LlST OF TABLES

Title

Specifications 1349A Functions Supplemental Characteristics Recommended Test Equipment

1349A Power Requirements

1349A Character Set Truth Table for 1349A Instructions 5.10

and Commands

Power Supply Requirements

Sequence of Adjustments

+

105V Adjustment

High Voltage Power Supply

Adjustment

2-Axis Drive Adjustment and Test 8.1

Pattern Set-up 5-5 8.2

.........................

......................

.........

........

...........

..................

.....................

...........

..............

....................

.........................

......................

Page Table

1-2 5.5 1-3 1-3 5.6 1-5 5.7

2-1 5.8

3-9 5.9

3-11 5.11

5.12

4-1

6.1 5-1 5-3 6.2

6.3 5-4

(Cont'd)

Supply

.

Read/Write Mode

.

Picture Refresh Mode

.

Service Sheet 6A, P/O Memory Circuit

(1349D Only)

Chart

.

Service Sheet 6B, P/O Memory Circuit

(1349D Only)

Preliminary Focus and Astigmatism

.

Adjustment

.

Intensity Cut-off Level Adjustment Trace Align and Writing Speed

.

Adjustment

Stroke Generator and Stroke Length

.

Adjustment

.

Stroke Intensity Adjustment

Image Size and Position Adjustment

.

Vector Closure Adjustment

.

Fine Focus and Astigmatism

.

Adjustment

.

Reference Designators and

Abbreviations

.

Replaceable Parts

.

List of Manufacturer's Codes

.

Service Sheet Quick Reference

.

Function Labels

..............................

.....................

.................

........................

...............................

........................

Title Page

.........................

............

.........................

.......................

.....................

.......................

...

....

..........

.

.........

........

8-23 8-24 8-24

8-25

8-26

8-27

5-6 5-7

5-8

5-9 5-10 5-10 5-11

5-13

6-2

6-5 6-19

8-1

8-7

General Information

ARTE K MEDIA

Digitally signed by ARTEK MEDIA DN: cn=ARTEK MEDIA, c=US, o=DC Henderson Date: 2007.04.15 15:15:11 -05'00'

Model

1349A/D

Figure 1-1. 1349A/D Digital Display

Model 1349A/D

General Information

SECTION

GENERAL INFORMATION

1-1. INTRODUCTION.

1-2. This Operating and Service Manual contains information required to install, operate, test, adjust, and service the HP Model

1-3. Listed on the title page of this manual is a microfiche part number. This number can be used to order 4x6-inch microfilm transparencies of the manual. Each microfiche contains up to 96 photo-duplicates of the manual pages. Themicrofiche package also includes the latest Manual Changes supplement.

1349A/D Digital Display.

1-4. SPECIFICATIONS.

Instrument specifications are listed in table 1-1.

1-5. These specifications are the performance standards or

limits against which the instrument is tested. Table

lists 1349A/D functions. Supplemental characteristics

are listed in table

typical characteristics included as additional informa-

tion for the user.

1-3 and are not specifications but are

1-2

1-6. SAFETY CONSIDERATIONS.

To prevent personal injury, observe all safety precautions and warnings stated on the instrument and in this manual.

1-7.

This product is a Safety Class 1 instrument. Review the instrument and manual for safety markings and instructions before operation. Specific warnings, cautions and instructions are placed wherever applicable. Refer to the Safety Summary in the front of this manual and to Sections These precautions must be observed

11, V, and VIII for further safety precautions.

duringall phases of

I

operation, service, and repair of this instrument. Failure to comply with these precautions or with specific warnings elsewhere in this manual violates safety standard of design, manufacture, and intended use of this instrument. Hewlett-Packard assumes no liability for the customer's failure to comply with these requirements.

1-8. INSTRUMENTS COVERED BY MANUAL.

Attached to the instrument is a serial number tag.

1-9. The serial number is in the form: parts; the first four digits and the letter are the serial prefix, and the last five digits are the suffix. The prefix is the same for all identical instruments. The suffix, however, is assigned sequentially and is different for each instrument. The contents of this manual apply to instruments with the serial number under SERIAL NUMBERS on the title page.

An instrument manufactured after the printing

1-10. of this manual may have a serial number prefix that is not listed on the title page. This unlisted serial number prefix indicates that the instrument is different from those described in this manual. The manual for this newer instrument is accompanied by a Manual Changes supplement. This supplement contains "change information" that explains how to adapt the manual to the newer instrument.

1-11.

In addition to change information, the supplement may contain information for correcting errors in the manual. The supplement for this manual is identified with the manual print date and part number, both of which appear on the manual title page.

1-12. For information concerning a serial number prefix that is not listed on the title page or in the Manual Changes supplement, contact your nearest HewlettPackard office.

0000A00000. It is in two

prefix(es) listed

General Information Model 1349A/D

Table

1-1.

Specifications: 1349A (no memory); 13490 (with internal memory)

INTERFACE

General: 16 Bit Binary.

Signal lines:

Pin Name Description

DO-Dl5 LWR LDAV LRD LRFD LDS SYNC LXACK GND DISCON

16-Bit TTL Data Bus Pos Logic Low Memory Write Low Data Available Low Memory Read Low Ready for Data Low Device Select Ext Refresh Synchronization Low Transfer Acknowledge Logic Ground Disconnect Sense. Signal connector off activates

self test when allowed to float.

Logic Level: Standard TTL.

1349A

Line Loading

1

DO-D4 D5-D7

-MOS, 1 -LSTTL, 1 -STTL

1

-MOS, 2-LSTTL, 1 -STTL D8-Dl5 1-MOS, 1-LSTTL, 1-STTL LDAV 1-MOS, 1-LSTTL, 1-STTL

Line Loading

DO-Dl3 1-MOS, 1-LSTTL D14,D15 1-MOS, 2-LSTTL LRD 1-MOS, 1-LSTTL LWR 1-MOS, 1-LSTTL

1349D

LDS 1-MOS, 1-LSTTL SYNC 1-MOS, 1-LSTTL

Mating connector: 26-pin female transition connector; mating part Ansley 609-2630 (polarized).

CATHODE RAY TUBE OPERATING ENVIRONMENT

Type: Electrostatic focus and deflection, post accel-

erated. Aluminized P31 Phosphor.

Screen Size: 204 Square cm (31.6 square in.); approx.

20.8 cm (8.2 in.) diagonal; 12 cm (4.7 in.) vertical by 17 cm (6.7 in.) horizontally.

Resolution:

Display is to be adjusted so that alllines of

the secondary test pattern are distinguishable.

Display Memory (1349D only): 8K word by 16 bits.

INPUT POWER

+

15VDC +-5% Regulated;

ripple (measured at

-15VDC +-5% Regulated; <=0.35A@<=10 mV p-p ripple (measured at

+5VDC +5 -0% Regulated; <2.OA @ <=50 mV p-p

ripple (measured at

Mating Connector: Molex No. 09-50-3061.

<=

1.3A @<=lo mV p-p

A3TP1).

A3TP2). A3TP3 1349A only).

Temperature: (operating) 0' C to +65' C (+32' F to

+14g0 F).

NOTE

The

65' C (149' F) temperaturespecifica-

tion reflects the maximum allowable

operating temperature with the enclosed, not-the ambient temperature of the system housing. It is recommended that a minimum of 0.84 m3/min

(30 ft3/min) of air flow is forced around

and through the instrument to ensure that the maximum operating temperature of Refer to Section

65' C (149' F) is not exceeded.

11, Paragraph 2-13 of

this manual for temperature measure-

ment instructions.

SAFETY

X-Ray Emission: CRT emission <=9,5 mR/hr (not

measurable above background noise with

Vicroreen

Model 440RF/C when in normal operating modes).

Temperature: (non-operating) -40' C to +70°C

(-40' F to +167' F).

1349A/D

Model 1349A/D General Information

Table

1-1. Specifications (Cont'd)

Humidity: Altitude:

to 95%) relative humidity up to +50° C.

(operating) to 4600 m, (15,000 ft);

(non-operating) to 15,300 m, (50,000 ft).

Shock:

Shock Intensity 60g.

11

Shock Pulse Duration

ms. Shock tests are performed with the equipment non-operating and any auxiliary circuits not powered.

Vibration:

Vibration Frequency: 5-55-5 Hz. Vibration Sweep: Cover the vibration frequency in

15 minutes. Vibration Pulse Shape: Full sine wave. Vibration peak-to-peak amplitude:

5-10 Hz, 6.34 mm (0.250 in.)

10-25 Hz, 3.05 mm (0.120 in.)

25-55 Hz, 0.76 mm (0.030 in.) Dwell for 10 minutes at the four highest resonances

found on each axis. If no major resonance can be

detected, dwell at 55 Hz for 10 minute duration at

0.76 mm (0.030 in.).

-

Table

Size: Weight:

Shipping Weight:

-

1-2.

1349A/D Functions

1349A/D Displays have been

The tested at shock and vibration levels listed above. These are absolute maximum levels and apply to the

1349A/D only not to the host structure in which they are installed.

In general, the host structure will act to amplify shock and vibration applied to it when transmitting that energy to

1349A/D.

the Care must be taken that specified

levels of shock and vibration are not applied to the

1349A/D.

See outline drawing figure 1-2.

Net 6.0 kg (13.2 lbs).

8.64 kg (19.0 lbs).

GRAPHIC FUNCTIONS

Character Generator:

Stroke Characters:

modified full ASCII set. Character Strokes are stored in ROM. Average character writing time is 16 ps.

4 Programmable Character Sizes:

1.0X = 68 Characters per line, 31 horizontal lines possible.

1.5X = 45 Characters per line,

21 horizontal lines possible.

2.0x = 34 Characters per line, 15 horizontal lines possible.

32 by 20 point resolution; 1.9, 3.4, 5.2 and 6.9 mm per ps.

Velocity:

4 Programmable Writing Speeds:

Vector Drawing time:

ps per vector + (length of

vector/writing speed).

3

Programmable Intensities:

Dim, medium bright-

ness, full brightness (plus Blank or off).

PLOTTING

Plotting Modes:

Beam Control:

Plot absolute and Graph.

The beam may be turned on or off

while plotting.

GRAPH GENERATION

Tick Marks:

X-

and Y-axis tick marks of four

approximately

2.5X = 27 Characters per line, selectable lengths. 12 horizontal lines possible.

Graph Mode:

Allows generation of graphs which

have a constant X-incrememt between points by

NOTE

storing the X-increment once, requiring only new values for succeeding points.

lx

Character approximately 2mm high.

SELF TEST

4 Programmable Character Orientations:

270' (CCW) relative to horizontal.

VECTORS

Random Vector Plotting:

2048 by 2048 points. alternate test pattern. When the connector is

Line Types:

Solid Line shorted, the alternate pattern may be used to Solid line with intensified end points verify CRT resolution and allow calibration of Short dashed line Long dashed line is installed Dots performs a memory test.

Addressable resolution internal connector is provided for activation of an

0, 90, 180,

Self Test is invoked by disconnecting the

I/O connector with power applied. The Test Pattern verifies that the

1349A/D is operational and provides

necessary stimulus for routine calibration. An

focus and astigmatism adjustments. When memory

(1349D), the self test feature also

General Information Model 1349A/D

Table

1-3.

Supplemental Characteristics

ANALOG OUTPUTS

General: The 1349A/D Displays have internal con-

nectors for output of drive a slave CRT display.

Amplitudes: Approximate amplitude range is OV to

1 v.

Output Impedance:

Z

-

250 ohms nominal.

Polarity: X -

right beam movement.

Y

-

Positive-going voltage corresponds to upward

beam movement.

Z

-

Positive-going voltage corresponds to increas-

ing luminance.

Recommended Bandwidth of slave display:

>=3 MHz

Z

-

Axis:

Recommended Mating Connectors: Molex 22-01-1023.

(3 required,

Positive-going voltage corresponds to

>=

1 each for

X,

Y

10 MHz

Y,

and Z analog signals to

-

340 ohms nominal.

X,

Y

-Axis:

X,

Y

and Z Axis).

CATHODE RAY TUBE

Brightness: Shipped from the factory at approx-

imately 140 full brightness at 60 Hz refresh rate, 7 by 7 cm, 50 line raster, 50% duty cycle.

Cd/sq. m at 1.9 mm/ps writing speed,

response to digital commands from a user processor.

1349D contains an 8K word refresh memory which

The enables the display to refresh the picture without support from the user processor. The refreshed by the user.

1349A/D have an addressable resolution of 2048

The by 2048 points which allows display of very high quality images, composed of straight or curved lines. Curved lines are formed by a series of short straight vectors joined end to end. The unit has programmable writing speeds and programmable intensities. Vectors, regardless of length can be drawn at constant speed so that the intensity does not vary from vector to vector.

For on screen labeling and identification, the have a built-in set of ASCII characters. The 1349A/D receive just one word from the user processor and all the vectors necessary to form one character are automatically produced from ROM.

1-15.

1-16. The following accessories are supplied with the

1349A/D:

ACCESSORIES SUPPLIED.

One Operating and Service Manual.

1349A must be

1349A/D

1-17.

RECOMMENDED TEST EQUIPMENT.

1-13. DESCRIPTION.

1-18. Equipment required to test and maintain the 1-14. The Hewlett-Packard Models are 20.8 cm (approx. 9 in.) Display Components. Both equipment may be substituted if it meets or exceeds the

produce vector graphics on their display screens in critical specifications listed in the table.

Instrument

Monitor Oscilloscope

Digital Voltmeter

1000:l Divider

10:l Divider Probe

(Q~Y 2)

Power Supply

1

Signature Analyzer

-

P = Performance test

I

HP Model 1740A

HP Model 3466A

HP Model 34111A HP Model 10041A

HP Model 633153

HP Model

A = Adjustment

1349A and 1349D 1349A/D Displays is listed in table 1-4. Other

Table

1-4.

Recommended Test Equipment

Recommended

Model

(supplied with model

1740A)

5005A

Required Characteristics

Bandwidth: 100 MHz lnput

2:

50 ohms AND 1 Mohm shunted by

approx. 20 pf.

Voltage Rating: -15V to 250V Accuracy: 0.1 lnput Resistance: 10 Mohm Voltage Rating: 12 kV lnput Resistance:

approx. 12 pf.

Output Voltage: 5V at 2.OA Output Voltage:

r

=

Troubleshooting

96

1

Mohm shunted by

+

15V at 0.5A

-

15V at 1.lA

Required

For

INSTRUMENT MUST BE SUPPORTED

12

BY ALL

HOLES.

20.1 (7.9

7c

m

9 in.)

I

3

crn

in.)

THREAD SIZE M4

(12

X

0.7rnrn

HOLES)

X

12

rnrn

Figure

1-2.

Dimensional Detail,

1349A.

Model 1349A/D

Installation

SECTION II

INSTALLATION

2-1. INTRODUCTION.

This section provides installation instructions for

2-2. the Model includes information about initial inspection, damage claims, preparation for use, and storage and shipment.

1349A/D Digital Displays. This section also

2-3. INITIAL INSPECTION.

2-4. Inspect the shipping container for damage. If the shipping container or cushioning material is damaged, it should be kept until the contents of the shipment have been checked for completeness and the instrument has been checked mechanically and electrically. The contents of the shipment should be as listed in the "Accessories Supplied" paragraph in Section I. Procedures for checking electrical performance are given in Section IV. If the contents are incomplete, if there is mechanical damage or defect, or if the instrument does not pass the Performance Tests, notify the nearest Hewlett-Packard office. If the shipping container is damaged, or the cushioning material shows signs of

Table

2-1. 1349A/D

stress, notify the carrier as well as the Hewlett-Packard

office. Keep the shipping material for carrier's inspection.

The HP office will arrange for repair or replacement at

HP option without waiting for claim settlement.

2-5. PREPARATION FOR USE.

WARNING

u

Read the Safety Summary in the front of this manual and the "Safety Considerations" paragraph in Section I before installing or operating this instrument. Before any connections are made to the instrument, the chassis must be connected to a safety ground.

2-6. POWER REQLIIREMENTS.

2-7. The 1349A/D requires the following power supplies for proper operation:

Power

Requirements

Operating Voltages

Voltage

+15 VDC

-15 VDC

+5 VDC

Tolerance

+5-0%

+-5%

Max

P-P

Ripple

10 mV

50 mV

Max Current

1349D

1.3A

350 mA

2.OA

1349A

1.3A

350 mA

750 mA

Installation Model 1349A/D

2-8.

2-9.

POWER CONNECTOR.

A 6-pin connector (Molex 09-50-3061 or equivalent) is required to mate with the rear panel power connector (see figure 2-1).

2-10.

1/O CONNECTOR.

A 26-pin connector (ANSLEY 609-2601M or equivalent) is required to mate with the rear panel connector. The connector is wired according to figure 2-2. It is recommended that the

I/O

cable length not exceed 45.7 cm (18 in.).

Figure 2-1. Power Connection for 1349A/D

SIS

GND

-

BE CONNECTED

Figure 2-2. 1349A/D

Z/O

Connector

Model 1349A/D

Installation

2-1 1. ANALOG OUTPUTS

The purpose of the Analog Output jacks on the X-YZ/Stroke Generator (Al) board is to connect an

external X-Y-Z display. The output signals can drive

p-p into 600 ohm loads. The bandwidth of the external

X-Y-Z display should have the following bandwidths:

X-Y Axis: >=3 MHz

Z Axis: >=lo MHz

The interface cables should not exceed

length. Use the following table for interfacing:

A1J3 A1J4 A1J5

........

.......

Z AXIS OUTPUT Y AXIS OUTPUT X AXIS OUTPUT

(X-Y-Z).

1V

1.83m (6 ft) in

2-12. OPERATING ENVIRONMENT.

2-13. Temperature.

in temperatures from

The airflow recommendations stated above must be adhered to in order to prevent

damage to the instrument.

The 65" reflects the maximum allowable operating temperature with the the ambient temperature of the system housing. It is recommended that a minimum of .84 around and through the instrument to ensure that the maximum operating temperature of

65"

Ambient temperature measurements should be taken at

several points in the instrument. Use the following information as a guide for making these measurements:

Measure temperature at:

Focus Gain Adjustment.

and the Memory Board (A5) near

C

m3/min (30 ft3/min) of air flow is forced

C

(+14g0 F) is not exeeded.

a. Between the High Voltage cover and

b. 0.64 cm (0.25 in.) above c. Between Vector Processor Board (A2)

d. 0.64 cm (0.25 in.) above AlU23.

The instrument may be operated

0" C to f65" C (+32" F to 149" F).

NOTE

(+

149" F) temperature specification

1349A/D enclosed, not

A4R31.

A2U16.

2-14. Humidity.

environments with humidity up to instrument should also extremes which cause condensation within the instrument.

2-15. Altitude.

altitudes up to 4 600m (15 000 ft).

The instrument may be operated in

95%. However, the

be

protected from temperature

The instrument may be operated at

2-16. STORAGE AND SHIPMENT.

2-17. Environment.

shipped in environments within the following limits:

Temperature Humidity up to

Altitude

The instrument should also be protected from temperature extremes which causes condensation within the instrument.

The instrument may be stored or

-40" C to $70" C (-40" F to +158" F) 95g1 relative humidity at

+50° C (+122" F)

15 300m (50 000 ft)

2-18. PACKAGING.

2-19. Original Packaging.

identical to those used in factory packaging are available through Hewlett-Packard offices. If the instrument is being returned to Hewlett-Packard for servicing, attach a tag indicating the type of service required, return address, model number, and full serial number. Also mark the container FRAGILE to ensure careful handling. In any correspondence, refer to the

instrument by model number and full serial number.

2-20. Other Packaging.

tions should be used for repacking with commercially

available materials.

a. Wrap instrument in antistatic plastic. (If shipping to Hewlett-Packard office or service center, attach a tag indicating type of service required, return address,

model number, and full serial number).

b. Use a strong shipping container. A double-wall

carton made of 350-pound test material is adequate.

c. Use a layer of shock-absorbing material 70 to 100

mm (3 to instrument to provide firm cushioning and prevent movement inside the container. Protect control panel with cardboard.

d. Seal shipping container securely.

4

inches) thick around all sides of the

Containers and materials

The following general instruc-

The surface temperature near AlU26 and AlU33 typically may be +50° C (+12Z0 F) or more above the ambient temperature. It is therefore recommended that heat-sensitive devices or circuits not proximity to these points.

be

placed in close

e. Mark shipping container FRAGILE to ensure

careful handling.

f. In any correspondence, refer to instrument by

model number and full serial number.

2-3/(2-4 blank)

Model 1349A/D

Operation

SECTION

OPERATION

3-1. INTRODUCTION.

3-2. The purpose of this section is to give detailed information concerning the operation and programming

1349A/D. It includes a list of the programming

of the instructions and a section containing a brief explanation of "bit programming". The end of this section contains several programming examples.

WARNING

SHOCK HAZARD

Before operating the instrument, connect the chassis of the display to a safety ground in the system.

3-3. SIGNAL LINE DEFINITIONS.

DO-Dl5

DO through Dl4 are the vector data lines (TTL positive logic). instruction. When recognized as a memory command. When "0" then all the input data forms the picture.

DISCONNECT SENSE

This line must be grounded to the display chassis

when the data lines are active. The internal Performance Verification pattern will be displayed if the 26-pin connector is disconnected.

SYNC

External display refresh synchronization signal line. The line provides an external refresh clock when external sync mode has been selected via a

jumper wire on the Vector Memory board.

LXACK

Acknowledge signal line. When low, this line indicates that the Vector Memory has completed the Read or Write operation requested by the user processor.

Dl5 is used as a Vector Memory

Dl5 is a"1" then theinput data is

Dl5 is a

Ill

LDS

Device Select signalline. When low this line enables the Vector Memory to communicate with the user processor

LWR

Memory Write signal line. When low, this line indicates that the 16-bit Data Bus contents

written into either the current Vector Memory location (D15=1).

LRD

Memory Read signal line. When low, this line indicates that the contents of the current Vector Memory location (as specified by the User Address Pointer) are to be placed on the 16-bit Data Bus for transmission back to the user processor.

Whenever a Vector Memory location has been either written into or read from by the user processor, the User Address Pointer auto-increments to the next Vector Memory location (address).

3-4. HANDSHAKE TIMING FOR 1349D.

The TTL digital interface to the Vector Memory (1349D) is compatible with most microprocessor peripheral interface adaptor chips (the Motorola

Vector Memory digital interface consists of:

1. A 16-bit bidirectional Data Bus.

2. A Read Signal line LRD (input).

3. A Write signal line LWR (input).

4. A Device Select signal line

5. An Acknowledge signal line LXACK (output).

6. An External display Synchronization signal line SYNC (input use is optional).

(write/read).

areto be

(D15=0) or into the User Address Pointer

NOTE

63

6821).

LDS (input).

Operation

Model

1349A/D

A

Tdss

READ

COMMFWD

4

TIMING

Tdsh

4

Tdh

MI349001

Read Command Timing

Tdss

-

Device Select Setup Time

Tdsh - Device Select Hold Time

-

Trd Trdp - Read Precharge Time

Tac - Read Access Time Tdh - Read Data Hold Time Tah - Acknowledge Hold Time

Tack - Acknowledge Delay Time

Read Pulse Time (ACK not used) 495 nsec min

(ACK used) 760 nsec min

..........

............

..........

Figure

3-1.

Read Command Timing

.......

........

760 nsec max

........

130 nsec max

455 nsec min

.....

855 nsec max

0 nsec min 0 nsec min

25

nsec min

30 nsec min 40 nsec min

Model 1349A/D

Operation

4

Tdss

HRITE

1-

COMmWD

TCY

TIMING

4

Tdsh

4

Write Command Timing

Tdss

-

Device Select Setup Time

Tdsh

-

Device Select Hold Time

-

Tcy Twe Tds Tdh - Data In Hold Time 0 nsec min Tack

Tah

Write Cycle Time

-

Write Command Active Time

-

Data In Setup Time

-

acknowledge Delay Time

-

Acknowledge Hold Time..

Figure

3-2.

Write Command Timing

..............

........

820 nsec min

. .

795 nsec rnin

.............

..............

.....

455 nsec min

855 nsec max

.......

130 nsec max

0 nsec min 0 nsec min

0 nsec max

40 nsec min

Operation

P/O

RS

(MEMORY

BD.

1349D)

SWITCHES SET

FOR

INT SYNC

1349A/D

Model

SWITCHES SET

FOR

EXT

SYNC

Figure

3-3.

Refresh Mode Selection

3-5. PICTURE REFRESH REQUIREMENTS

1349D.

FOR

Each time that the picture is redrawn by the 1349D, the display is refreshed. This prevents the phosphor light output from expiring. The refresh sync signal may be provided by either the internal refresh circuit, or an external source. To select the required mode of operation for refresh mode, set the Memory Board (A5) as shown in figure 3-3.

INTERNAL SYNC. When the jumper is

Internal position, an on-board oscillator provides sync pulses at approximately a user processor can send all picture producing data to the Vector Memory at one time. The Vector Memory will then continuously refresh the display screen by redrawing the picture at regular intervals. This reduces overhead time for the user processor.

EXTERNAL

supplied from an external source in the user system via

SYNC.

Int/Ext switch (A5S1) on the

ir, the

(A5U1)

60

Hz rate. The

Sync

pulses (?TL)

must

be

the SYNC input signal line. This signal is useful when the display is used in electromagnetic fields which can cause the picture to "swim". Synchronizing the display with the interfering signal can stabilize the picture.

3-6. REFRESH MODES FOR 1349D.

The Vector Memory sends its data to the Vector Processor (VPC) each time the picture is to be drawn on screen. Data is send to the VPC either via synchronous mode or free running mode.

SYNCHRONOUS MODE. Vector Memory waits until a synchronizing pulseoccurs before it will begin its next data output cycle to the

1349A/D. Synchronous refresh mode is entered when the Refresh Pointer equals 8191. After sending the contents of address 8191 to the VPC, the Vector Memory waits for the next sync pulse before starting a new refresh cycle at address

Pictures A and B will be displayed atan even brightness

=

(sync rate

less drawing time (See Figure

refresh rate) even though picture A requires

In synchronous mode, the

0000.

3-4).

-

5

Picture

drawing time

4

Figure

Pict'ure

drauing time

3-4.

4

ruait. time

A

B

LS

Synchronous Refresh Example

-0

rua

it

time

start

redrsrulng

start redrawing

\

Model 1349A/D

Operation

I=-

1

-a

FREE RUNNING MODE. Free Running mode is when the picture cannot be drawn in the time interval between sync pulses. The memory circuit automatically enters this mode whenever a sync edge arrives before the refresh counter reaches its highest address (8191). In this mode, the memory will not wait for a sync edge when it finishes the picture, but will immediately start

drawing the picture again.

This sync override feature allows all simple pictures to

be displayed at an even brightness (say 60 Hertzrefresh rate), and complex pictures to be displayed at a level of brightness that depends only on the time it takes to draw the picture on the display.

picture

drawing time

picture

drawing time

Figure

3-5.

C

D

uait time while Vector Memory

increments to address 4095

(no

jump1 slows refresh rate

Asynchronous Refresh Example

start redrawing

\

Jump to 4095

await

time

-\

start redrawing

P

The Vector Memory can be tested by the user processor as part of power-on self test routine. For example, first write all zeros to all words. Then "chase a one" through memory to check each cell. Also, the User Address Pointer can be checked by writing data sequentially through the memory and then using the Pointer Instruction to move the pointer, and reading the contents of the word selected by the pointer. BE CAREFUL pointer) will not be written into the memory and OllXXXXXXlXXXXXX (set condition) is illegal.

3-8. 1349AlD COMMAND SET.

-

1lXXXXXXXXXXXXXX (set address

3-7. MEMORY

When the Vector Memory is powered up, its contents are endpoints in 2048 by 2048 cartesian coordinate system. in an unknown random state. There are several methods The origin

of memory initialization.

One method is to fill the entire memory with ''jump to 8191" instructions. The benefit of using this method of initialization is that as the user fills the Vector Memorv

with picture information, the Vector Memory will

always "jump to 8191" after drawing the picture, no

matter how many words are used to form the picture.

This ensures that the picture will be displayed at the

optimum refresh rate.

Another way of initializing the Vector Memory is to write all zeros to all words. This data will be sent to the 1349D, but will draw nothing on screen (effectively a noop). Each "no-op" will take about one microsecond, thus 8000 "no-ops" (8000 words in Vector Memory) will use up to 8 milliseconds of display time, producing a dimmer picture if in the free running mode.

INITIALIZA'rION.

The 1349A/D creates pictures by a technique called

random vector plotting. A line is defined by its

(0,O) is in the lower lefthand corner. All

points are positive reference. The each vector by starting point, ending point, intensity level,

line

type,

and

writing

following

The

as being one of four commands:

programming

1349A/D recognizes DO-Dl4 on its input Data Bus

Command

1. Set Condition

2. Plot

3. Graph

4. Text

speed,

command

4

1349A/D references

The

1349A/D

set.

Bit

14

Bit

13

has

the

Operation

Model

1349A/D

SET CONDITION.

The Set Condition command controls theintensity level, the line type, and the writing speed of vectors drawn on the CRT.

B14 = 1, B13 - 1: SET CONDITION COMMAND.

With both MSBs (Most Significant Bits) set to one, the

1349A/D is commanded to draw all following vectors according to the configuration commanded until changed by subsequent condition command.

NOTE

A

one (1) = TTL high; a zero (0) = TTL low.

X=

DON'T CARE

B6 MUST be zero.

B14=1, B13-1 : Set display configuration according to choices specified for intensity, line type, and writing speed.

1

11 1 10

1

intensity

I

When the line type "solid line with intensified endpoints"

is selected, the intensity of the endpoints may vary due to optical illusion. As lines are linked together the intensity of the point where one line ends and the next

line starts is a function of the angle separating the lines. The closer the angle is to 180 degrees, the brighter the

point. The closer the angle is to zero degrees (absolute),

the dimmer the point.

PLOT COMMAND (B14

With both MSBs set to zero, the to move the display beam to a specific X-Y location each time that a Y coordinate is received. The beam position may be moved with the beam either turned off or turned on. The Plot command will draw all vectors according to the display configuration established by the last Set

Condition command received by the

time that a Y coordinate is received, the pen status

(beam on or off) for the beam movement is established. Also, the X-Y location to be moved to is formed from the last X coordinate received and the current Y coordinate.

For example, to draw a vertical line send the (1) Plot Command - X value; (2) Plot Command - Y1 value (with beam off); (3) Plot Command on).

=

0.

B13 = 0).

1349A/D is commanded

1349A/D. Each

1349A/D:

-

Y2 value (with beam

-

L2

0 0

1

W1

1

0 0

L1

0 0

1 1 0

Half Brightness Full Brightness

Line Type

LO

Solid Line

0

Intensify Endpoints (solid line)

1

Long Dashes

0

1

Short Dashes

1

Dots on endpoints

WO

Writing Speed

0.19 cm per microsecond

1

0

0.34 cm per microsecond

0.52 cm per microsecond

1

0

0.69 cm per microsecond

DATA MSB LSB

B14=0, B13=0 : Plot Command.

XY

0 = X coordinate (0-2047) as specified by DO - D10.

1

=

Y coordinate (0-2047) as specified by DO - D10.

PC (Pen Control Bit B11)

0 = Move (draw vector with pen up).

1

=,Draw (draw vector with pen down).

Model 1349A/D

TOP

CRT

SCREEN

Operation

2) Y1 Graph command with the beam on. This moves the beam to point

GI. Note that thereis no DELTA-X increment with the first Y Graph command.

Y2

3)

Graph command with the beam on. This

moves the beam to point G2.

Y3 Graph command with the beam on. This

4) moves the beam to point G3.

5)

Y4 Graph command with the beam on. This moves the beam to point G4.

This will give a picture as shown below.

Figure

GRAPH COMMAND (B14=0, B13=1).

3-6.

Vector Drawing Area

With the two MSBs set to zero and onerespectively, the 1349A/D is commanded to either: (a) set the DELTA-X increment; or (b) move the beam to a specific X-Y

location determined by the X increment and the Y

coordinate.

The beam position may be moved with the beam either turned off or turned on. Beam status for the beam movement is established each time a

Y

coordinate

graph command is received.

The Graph command will draw all vectors according to the display configuration established by the last Set

Condition command received by the

DATA

MSB

B14=0, B13=1

:

Graph Command

1349A/D.

LSB

XY

0 = set automatic DELTA-X increment (as specified by DO-DIO) for all subsequent Y coordinate Graph commands received.

1

=

Y

coordinate (as specified by DO - D10) to which the beam is to be moved in conjunction with the DELTA-X increment.

*

IX,Yl

=P1

Figure

TEXT

COMMAND (814 = 1, 813

3-7.

Graphing Example

=

0):

With the two MSBs set to one and zero respectively, the

1349A/D is commanded to draw all the vectors

necessary to produce the character specified.

The

1349A/D automatically provides space to the right

of each character for character spacing.

The Text command will draw the characters at the

intensity level established by the last Set Condition

Command, at the slowest writing speed and in the last line type specified (except dots).

PC (Pen Control Bit

0 = Move (draw the vector with beam off).

1

=

Draw (draw the vector with beam on).

Example:

To graph, first move the beam to a starting position P1 (Plot Commands: X value; Y value with beam of). Then send the

1) DELTA-X Graph command.

Bll).

1349A/D:

Instead of specifying a character to be drawn, the Text command character code can be replaced by a beam movement control code. These codes that move the beam (with the beam off) are Carriage Return (CR), Line Feed (LF), Inverse Line Feed, Backspace (BS), and

1/2 shift down. The amount and direction of beam

1/2 shift up,

movement depends on the character size and

orientation specified. Line Feed and Inverse Line Feed provide automatic spacing between lines of text

(spacing

=

height of one character between lines).

Operation Mode1 1349A/D

The starting point for non-rotated characters is the

lower left-hand corner of the character area. Forrotated

characters the entire character area is rotated the

specified number of degrees (90, 180, or 270) in a

counterclockwise direction around the starting point.

When the

1349A/D has finished drawing a character it automatically advances the beam to the starting point for the next character. In this way the

1349A/D functions much like a typewriter when presenting text. The modified ASCII character set for the

1349A/D is

shown in table 3-1.

814 813 812 Bll B10 B9 BE 87 B6 B5 84 83 82 B1 BO

1 0 S1 SO R1 RO ES D7

CHARACTER MSB LSB

B14=1. B13=0

:

commands that the

(specified

by

DO - D7)

D6

D5 D4 D3 D2 Dl DO

1349A

display a text character

ES (Establish size of character Bit B8).

0 = use previous size and rotation.

1

=

establish new size and rotation according to S1-SO and

R1-RO.

Example:

1

X character spacing (in addressable points)

Figure

CALCULATING THE STARTING POINT FOR TEXT.

If we wish to display the characters

center of

3-8.

Example

of

Character Spacing

"1349A" in the

the display, proceed as follows.

Let's choose the 2.5 X (largest) character size. Each character will be 75 X 80 addressable points.

R1

0 0

1

S1

0 0

Size

SO

0

1.5X

1

10

1

2.5X

1

RO

Character Rotation (CCW)

0 degrees

0

90 degrees

1

180 degrees

0

270 degrees

1

Width X Height (in addressable points)

1X

30

X

32

45

X 48

2X

60

X

64

75 X 80

Calculation:

center screen

=

1024,1024 (X,Y)

X = 1024 - (2.5 chars. X 75 points/char.)

=

1024 - 188

=

836

Y

=

1024 - (0.5 char. X 80 points/char.)

=

1024 - 40

=

984

Send the 1349A/D a Plot X command with X=836. The

Octal code to do this is 01504.

Send the and

1349A/D a Plot Y command with the beam off

Y=984. The Octal code to do this is 11730.

Then send the Text commands to produce each of the characters.

Model 1349A/D Operation

Table

HP logo beta

upper-half tic lower-half tic left-half tic right-half tic back space

1/2 shift down

line feed inv. line feed

1/2 shift up

carriage return horizontal tic vertical tic centered

*

centered o up arrow left arrow down arrow right arrow square root

pi delta

mu

O (degree)

ohm rho gamma theta lamda

3-1. 1349A/D

32 Space 33 34 35 #

36 37 38 39

40 42

43 44

45

49

55 7

58

60 61

!

"

$

'%

&

'

(

41

*

+

,

-

46 .

47 48 0

50 2 51 3 52 4 53 5 54 6

56 8 57 9

:

59

;

<

=

62

>

63

?

/

1

Character Set

@

A

B

C D

E

F G

H

I

J

K

L M N

0

P

Q

R

S

T

u

v

W

X

Y

z

[

\

I

A

-

NOTE 1

'

NOTE 2 a b

C

d e f

g h

i

j

k 1 m n

0

P q

r

s

t

U

v

W

X

Y

z

E

box shaded triangle

NOTES:

1. 95= Underline character with Auto Back Space

2. 96= Slanted in opposite direction of character

39.

The characters listed below cause wraparound if positioned too close to the edge of the Vector Drawing area. Wraparound appears as vectors drawn completely across the display. This condition can also be caused by vectors drawn

outside the screen area.

Character Number

1 2 4 5 6

7 14 15 16

17 25 26 28 40

Character

HP Logo

beta upper-half tic lower-half tic

left-half tic

right-half tic

horizontal tic

vertical tic

centered

*

centered o

mu

(degree)

rho

(

Character Number

41 4 4 59 91 93

95 103 106 112 113 121 123 125

Character

1

,

(comma)

;

(semicolon)

[

1

-

(underline)

g

j

P q

f

I

Operation Mode1 1349A/D

3-9. VECTOR DRAWING EXAMPLES.

Example 1.

To draw a square on the display, use the following

procedure.

a.

Send the

1349A/D a Set Condition command to configure display brightness, line type, and writing rate.

b. Send the

c. Send the

1349A/D a Plot X1 command. Display

1349A/D a Plot Y1 command with the beam off. This moves the beam to the starting point of the square.

Send the

d.

beam on. This moves the beam to the

shown in the diagram below (draws vector

Send the 1349A/D a PlotX2 command, then aplot

e.

1349A/D a Plot Y2 command with the

Xl,Y2 point

"1").

Y2 (beam on) command. This moves the beam to X2,Y2 (draws vector "2").

f.

Send

the

beam

1349A/D a 'lot

On.

This

the

command

beam

to

X2'Y1

with

(draws

the

vector "3").

I

l'Y1

I

J

Figure

3-10.

In the case of the processor go to the Vector Memory as either a write operation or a read operation.

3-1 1 WRITE OPERATION-

The Write Operation allows the 16 bits on thedata bus to be written into either the Vector Memory or the Address

Pointer. A Vector Memory word can be either a Picture Data Word or an Internal Jump Word.

PICTURE DATA WORD. When bit M15 is set low, the other 15 data bits (M14-MO) must 1349A/D commands covered earlier in this section

under Data Bit Definitions for

3-10.

Drawing two horizontal lines on the

THE

1349D.

1349D, all commands from the user

conform

1349A/D commands.

I I

X2,Yl

I

to the

g.

Send the

1349A/D a Plot X1 command, then a Plot Y1 (beam on) command. This moves the beam back to the starting point (draws vector "4").

Figure

3-9.

Drawing a Square on the Display

Example 2.

To draw two horizontal lines on the display, modify

"f'

steps "d" and

in example 1 so that the 1349A/D

receives the Plot Y command with beam off instead of

beam on.

MI5 M14 MI3 MI2 Mll Mi0 M9 M8 M7 M6 M5 M4 M3 M2 MI MO

0 B14 B13 B12 B11 BIO B9

(See

1349A/D

Commands)

I38

B7

B6

I35

B4

B3

B2 B1 BO

When the display is refreshed, this data is sent from the Memory Board to the VPC for

vectodcharacter generation. If internal sync mode is selected, display refresh is accomplished without attention from the user processor once the picture has been loaded into Vector Memory. The write operation is controlled by the handshake sequence as presented in figure 3-2.

INTERNAL JUMPWORD. When M15 is high and M14

is low, then data bits M12 through MO designate the

address of the next word in Vector Memory that will be

sent to the VPC. This allows the Memory to skip blocks

of picture data on each pass through its address range

when it is refreshing the display. Certain data in

Memory is effectively suppressed until the user processor wants that data to be displayed. Refer to paragraph 3-14 for an example of using the Jump Instruction. When needed, a suppressed block of data can be added to the picture by changing only the Vector Memory Word that contains the internal jump code. An internal jump does not affect the User Pointer Address.

Model 1349A/D

Operation

3-14. USING THE JUMP INS'TRUC'TION.

X=

DON'T

CARE

M15= 1, M14=0:

Internal Jump to vector address specified

through

A0

during refresh.

by

All

POINTER INSTRUCTION. When bits M15 and M14

are both high, then data bits M12 through MO designate the address to which the User Address Pointer will move. The value in the pointer register specifies the next

address in Vector Memory that will be written into (or read from) by the user processor. The pointer increments to the next Vector Memory address after each read or write operation commanded by the user processor.

X=

DON'T

CARE

Set pointer register to the Vector Memory address value specified by All through AO.

NOTE

The address is placed in the User Address

Pointer, not the Vector Memory.

The Internal Jump instruction resides in the Vector

Memory. When it is encountered in the course of refreshing the

1349A/D it is not sent to the VPC.

Instead, it causes the Vector Memory to do an absolute

jump to a new location. The Vector Memory then

resumes sending data to the VPC. This allows the user to store pictures in the Vector Memory but not display them until ready (by jumping past them). See the example below.

VECTOR MEMORY

Address Contents

Jump to 1002

Picture A

Jump to 1002

Picture B

Jump to 2062

3-12. READ OPERATION.

The Address Pointer value specifies the word to be read from Vector Memory. The pointer increments with each Write or Read operation to the Vector Memory. Positioning of the Address Pointer to a specific location can also be accomplished via a write operation and the pointer instruction. This allows a selected word to be read from Vector Memory. The read operation is controlled by the handshake sequence as presented in figure 3-1.

3-13. PROGRAMMING SUMMARY.

A programming summary for the 1349A/D instruction set and commands is given in table 3-2.

Table

3-2.

Truth Table for

1349A/D

Instructions and

Commands

BIT NUMBER

MI5 MI4 MI3

0 0 0 0 0 0 0

1

0 0 1 0 1

1

1349AlD INSTRUCTION OR

COMMAND

PLOT

1

0

1

GRAPH TEXT SET CONDITION INTERNAL JUMP

1

0

1

INTERNAL JUMP SET POINTER SET POINTER

Graticule A

Jump to 2062

Graticule B

Jump to 8191

Set of labels

Jump to 8191

Unused Memory

NO-Op

By putting jump instructions around each block of data, it allows the user to turn parts of the complete

picture on or off by writing only one or two words to the

Vector Memory. Picture A might be used as a standard to compare against picture B which is being updated in real time. For this application, picture A can be turned on whenever it is needed by changing the contents of address 0000 to be "Jump to

0001".

Operation Model 1349A/D

NOTE

Vector Memory location 0000 is the first

location sent to the

cycle. The Vector Memory then ments to location 0001, 0002, etc.

1349A/D in each refresh

auto-incre-

3-15. OPTIMIZING PlCTLlRE QUALITY

Due to differing conditions of ambient light when the 1349A/D is displaying pictures, the programmer may have to experiment with the Intensity and Writing Speed parameters of the Set Condition command.

For example, in an environment of high ambient light, the

1349A/D should be set to the highest brightness

level and slowest writing speed.

3-16. OCTAL AND HEXADECIMAL RANGES

1349AlD COMMANDS.

FOR

1349AlD

Command

Plot

X

(beam off)

Y Y

(beam on)

Graph

Set DELTA-X

Y

(beam off)

Y

(beam on)

Octal Range

00000 - 07777 10000 - 13777 14000

-

17777

-

20000 30000

34000

27777

-

33777

-

37777

Hexadecimal

Range

0000 - OFFF

1000 - 17FF 1800

-

lFFF

2000 - 2FFF 3000 - 37FF 3800

-

3FFF

3-17. OPERATING CONSIDERATIONS FOR

THE

1349A.

Model 1349A is not equipped with the Vector Memory Board.

3-18. SIGNAL LINE DEFINI'TIONS.

DO-D15.

DO through Dl5 are the vector data lines ('M'L positive logic). Bit

LDAV

Data Valid Signal Line (active low processor to data bus.

LRFD

Ready for data signal line (active low). Signal to user processor.

DISCONNECT SENSE.

This line must be grounded when above signal lines are active. The internal performance verification pattern will be displayed if this line in not grounded.

Dl5 is used only with the Memory Board.

).

Signal from user

1349A. New output data is available on

1349A is ready for next data transfer.

-

. .

. . . . . . . .

57777

77777

-

Text

Set Condition Internal Jump

Set Pointer

Tr - Ready Time (1349A Power-on

delay)

. . . . . . . . . . . . . . .

40000

60000 100000 - 120000

140000

Internal

1345A

Power-on

Reset

-

DAV

-

(assume DAV is high at Power-on)

160000

. . . .

-

5FFF

4000

6000 - 7FFF 8000 - A000

COO0 - EOOO

k-

Td

400 nsec min

100 usec max

3-19. HANDSHAKE TIMING FOR 1349A.

-

RFD and DAV (Ready For Data, Data Valid)

Handshake.

-

7

Td

-

Data Valid Delay Time (after RFD

goes low)

-

Data Valid Hold Time (after FD

Th

goes high)

-

TTL High

. . .

4

. . . . . .

TTL Lou

.

. . .

hTh~

I

.

. . . . . . . . . . . . . . . . . . . . . . .

. . .

-

. . . . . . . .

. . .

.

0 nsec min

. .

0 nsec min

Model 1349A/D

Operation

3-20. TRANSFER SEQUENCE.

1.

1349A sets RFD low to indicate that it is ready for a

word from the 16-bit Data Bus.

2. User processor sets DAV low to indicate that the

contents of the 16-bit Data Bus are valid.

1349A returns RFD high to indicate that it has

3. accepted the word from the 16-bit Data Bus.

4. User processor returns DAV high so that the

1349A

can initiate the next transfer.

5.

1349A sets RFD low to indicate that it is ready for a

word from the 16-bit Data Bus.

3-21. RESTRICTIONS.

1.

User processor can set DAV low at the same time

or after

2. User processor can return DAV high at the same

time or after BEFORE.

1349A sets RFD low, but NOT BEFORE.

1349A returns RFD high, but NOT

NOTE

While DAV remains low, the 1349A will not act on the command from the

DataBus, even though it has signalled that it has accepted the word from the Data Bus. It is recommended that the host system keep Th to a minimum.

3.

1349A will not set RFD low unless DAV is high.

4.

Data on the 16-bit Data Bus must remain valid as long as DAV is low.

NOTE

For maximum speed and performance, it is advisable that the host system use EDGE

TRIGGERED logic.

3-13/(3-14 blank)

Model 1349A/D

Performance Tests

SECTION IV

PERFORMANCE VERIFICATION

4-1.

4-2. The Performance Verification Procedures in this section test the instrument's electrical performance. The procedures provide approximately 90% assurance of proper

4-3.

4-4. Equipment required for the performance tests is listed in Section satisfies the critical specifications given in the table

may be substituted for the recommended models.

4-5.

4-6.

required for this instrument. Performance tests should be performed after service work has been performed or if improper operation is suspected.

INTRODUCTION.

1349A/D operation.

EQUIPMENT REQUIRED.

I,

table 1-4. Any equipment that

CALIBRATION CYCLE.

Periodic performance verification is not normally

PERFORMANCE TESTS

4-9.

PERFORMANCE VERIFICATION.

4-7. Further checks that require access to the interior of the instrument are included in the adjustment

section, but are not required for the performance

verification.

WARNING

u

ELECTRICAL SHOCK HAZARD

This instrument is designed and manufactured for OEM systems. Protective covers

are not provided and internal hazardous voltages are exposed when power is applied. Component replacement, including fuses, and internal adjustments must be made by qualified maintenance personnel.

4-8.

PERFORMANCE TEST PROCEDURES.

DESCRIPTION:

The following procedure is directed at obtaining the correct performance verification pattern on the 1349A/D screen.

EQUIPMENT REQUIRED:

Power Supply

Power Connector

PROCEDURE:

a. Adjust power supply outputs to values shown in table 4-1.

Table

4-1.

Power Supply Output

Operating Voltages

Max P-P Ripple

Voltage

+15 VDC

-15 VDC

+5 VDC

b. Connect power supply to the 1349A/D and turn on power. (See figure 4-1 for power connections.)

Tolerance

+-5%

10

mV

10 mV

50 mV

-

1349D

350 mA

Max Current

1349A

1.3A

350 mA

2.OA

750 mA

1.3A

Performance Tests

Model

1349A/D

P/O

A3

L.V.P.S.

PERFORMANCE

Figure

4-1. 1349A/D

TESTS

Power Connections

GND

+5v

+

15V

-1

5V

GND

CHASIS GND

BE

MUST

CONNECTED

c. Check for a display as shown in figure

Figure

The

1349A/D

of the test pattern and the

displayed, refer to Section

cycles through the four Commands: Set Condition, Plot, Graph and Text Command. The relationship

1349A/D

VIII,

Commands is shown in figure

Service and Troubleshooting.

4-2.

1349A/D

Primary Test Pattern

4-3.

If any portion of the test pattern is not

Model

1349A/D

GRAPH COMMAND

PLOT COMMAND

PERFORMANCE TESTS

Performance Tests

SIZE AND ROTATION

TEXT

iP/O

TEXT COMMAND)

BOXES CHECK

"--CHARACTER GENERATOR

(P/O TEXT COMMAND)

,LINE

TYPES

TEXT COMMAND

(P/O TEXT COMMAND)

d. If a test pattern as shown in figure

Service and Troubleshooting.

SEVEN SEGMENT

CORRECT WRITING SPEED

Figure 4-3. 1349A/D Command Check-out

4-4

is

displayed, then the memory circuit is defective. Refer to Section VIII,

LINE INDICATES

Figure 4-4. Memory Fail Test Pattern (13490 only)

Performance Tests Model 1349A/D

4-10.

DESCRIPTION:

RESOLUTION VERIFICATION.

PERFORMANCE

TESTS

An internal test pattern is used to check resolution.

EQUIPMENT REQUIRED:

Power Supply Power Connector

PROCEDURE:

a. Disconnect the 1349A/D

I/O

Port (A2J4) and apply power.

b. Short A2J6-1 to A2J6-2 and display the focus and resolution test pattern (see figure 4-5).

c. To check resolution:

The 1349A/D passes the resolution test if every one of the lines in the 13 boxes can be resolved. Should the test

V

fail, perform the Focus and Astigmatism Adjustments described in Section

of this manual.

Figure 4-5. 1349A/D Focus and Resolution Test Pattern

Model

1349A/D

Adjustments

SECTION

ADJUSTMENTS

5-1. INTRODUCTION.

This section describes adjustments and checks

5-2.

required to return the capabilities when repairs have been made. Included in this section are equipment setups and adjustment procedures.

5-3. SAFETY REQUIREMENTS.

Although this instrument has been designed in

5-4.

accordance with international safety standards, general safety precautions must be observed during all phases of operation, service and repair of the instrument. Failure to comply with the precautions listed in the Safety Summary at the front of this manual or with specific warnings given throughout this manual could result in serious injury or death. Service and adjustments should be performed only by qualified service personnel.

1349A/D

to peak operating

V

5-9. ADJUSTMENT PROCEDURES.

SHOCK HAZARD

This instrument is designed and manufactured for OEM systems. Protectivecovers

are not provided and internal hazardous

voltages are exposed when power is applied.

Voltages up to

CRT and HVPS areas and are capable of causing serious injury or death. Before any connections are made to the instrument, the

chassis must be connected to a safety

ground. Component replacement, including fuses, and internal adjustments must be made by qualified maintenance personnel.

Table

5-1.

20

kV are present around the

Sequence

of

Adjustments

5-5 EQUIPMENT REQUIRED.

5-6.

A complete list of required test equipment is given in Section recommended may be substituted, provided it meets the required characteristics. For best results, use recently calibrated test equipment.

1,

table

1-4.

Test equipment equivalent to that

5-7. ADJUSTMENTS.

5-8.

The adjustment procedures are arranged in a recommended sequence of adjustments. While most adjustments may be made independent of other adjustments, it is recommended that adjustments be made sequentially as a number of adjustments are directly related to preceeding or following adjustments.

5-1

15

for

For best results, allow the instrument to warm up for minutes before making adjustments. See table sequence of adjustments.

Adjustment

Low Voltage Power Supply High Voltage Power Supply Z-Axis Drive and Test

Pattern Set-up

Preliminary Focus and

Astigmatism Intensity Cut-Off Level Trace Alignment and

Writing Speed

Stroke Generator

Stroke Intensity Image Size and Position Vector Closure Fine Focus and Astigmatism

Resolution Check

X-Y-Z

Auxiliary

Output Check

Amplifier

Order

of

Adjustment

1

2

3

4

5

6

7

8

9 10 11

12

13

Paragraph

No.

5-10 5-11

5-12

5-13 5-14

5-15 5-16 5-17

5-18 5-19 5-20 5-20

1

5-2

Adjustments

ADJUSTMENTS

Model

1349A/D

LOW VOLTAGE

POWER SUPPLY A3

HlGH VOLTAGE

POWER SUPPLY A4

MP1 MAIN FRAME

\

1349A

TOP

VlEW

M2 CRT SHIELD

I

V1 CRT

\

A4A1 HlGH VOLTAGE MULTIPLIER

M

P4

BEZEL

A2 J4

1/0

PORT

Figure

5-1.

1349A/D

1349A

Assembly

BOTTOM

Location Identification

BOARD

'~5 MEMORY BOARD

VlEW

Model 1349A/D Adjustments

ADJUSTMENTS

5-10.

LOW VOLTAGE POWER SUPPLY ADJUSTMENT.

REFERENCE:

Service Sheet

DESCRIPTION:

In this procedure the input power supplies are verified and the +105V power supply is adjusted to + 105V + 250 mV.

EQUIPMENT:

Digital Voltmeter

Power Supply

PROCEDURE:

a.

Preset the Intensity when power is applied to the instrument.

b.

Apply power to the power connector on the Low Voltage Power Supply Board supplies as indicated below:

4

(AlR128) and Intensity Cut-off AIR131 fully ccw. This step is done to protect the CRT

(A3J1) and check input power

Monitor supply Test Limits

c. Monitor

-

A3TP4

Reference

Designator

with the digital voltmeter and adjust the +105V supply for 105V k250 mV

A3R10

Adjustment

Name

+

105V Adjust

A3TP4 +105V

Table 5-2. +105V Adjustment.

Adjustment

Paragraph

5-10, c

A3R10

+I05

ADJUST +5V -1

A3TP3

Service

Sheet

4

A3TP2 A3TP1

5V

Description

Adjust for + 105V

f

250

mV

+15V

IEC

TOR

CONNECTED FOR PROPER OPERATION

Figure 5-2. Low Voltage Power Supply Adjustment Locations

5-3

Adjustments Model 1349A/D

ADJUSTMENTS

5-11.

HIGH VOLTAGE POWER SUPPLY ADJUSTMENT.

REFERENCE:

Service Sheet 5.

DESCRIPTION:

This procedure describes the Cathode Voltage adjustment. The Cathode Voltage is set to -2450V, t25V.

EQUIPMENT REQUIRED:

Digital Voltmeter

1000:l Divider Probe

Power Supply

PROCEDURE:

a. Adjust Intensity Cut Off Level (AlR131) and Intensity control (AlR129) to the ccw stop. This step is done to

X-Y-Z

protect the CRT when power is applied (adjustments are on the Analog

Stroke Generator board, Al).

b. Calibrate the

1000:l divider probe against the +105V supply. Monitor the cathode voltage at A4TP3 on the

H.V.P.S board using the 1000:l divider probe and adjust High Voltage Adjust (A4R20) -2450V.

Table

5-3.

High Voltage Power Supply Adjustment

Reference

Designator

A4R20

Adjustment

Name

High Voltage Adj

Adjustment

Paragraph

5-11, c

Service

Sheet

5

Description

Adjust for -2450V

FOCUS A4R42

A4TPl

Note: High Voltage cover is removed.

Figure

5-3.

High Voltage Power Supply Adjustment Locators

-2450

TEST POINT

V

Model 1349A/D

Oyitalt'y Rem4shmd

by

ArhkMedia

n

7m2-2aY)6

e

-

--

5-12.

Z-AXIS DRIVE ADJUSTMENT AND TEST PATTERN SET-UP.

REFERENCE:

Service Sheets

DESCRIPTION:

5,

3C

-

--

-

ADJUSTMENTS

The purpose of these adjustments are to set Z-Axis drive and to initially set image size and positioning.

EQUIPMENT REQUIRED:

Power Supply Oscilloscope

PROCEDURE:

a. Apply power to the instrument. Most of the 1349A/D primary test pattern should be on screen. b. Monitor

A4TP2 with the oscilloscope. Set the oscilloscope sweep speed for 0.5 mSec/Div and 1 V/Div, using a 10:l

divider probe. DC couple the vertical attenuator.

c.

Adjust Intensity Cut-off level

(AlR131) so that the bottom level of the waveformis set to +20 VDC with respectto

ground, or until rest dot is extinguished (dot above and to the right of Y=2047).

d. Adjust Intensity control (AlR129) so that the peak-to-peak value of the waveform is equal to the value marked on

top of the CRT plus

e.

Adjust Med Intensity control

1V. Use the sticker with the largest voltage value.

EXAMPLE: If CRT label reads

35V/140, then set p-p value to 36V.

(AlR181) so that the peak-to-peak value of the first narrow level towards the end of the waveform is equal to the value marked on top of the CRT plus 1V. Use the sticker with the medium voltage value.

f. Adjust Dim Intensity control

of the waveform is equal to the value marked on top of the CRT plus

(AlR180) so that the peak-to-peak value of the second narrow level towards the end

1V. Use the sticker with the smallest voltage

value.

Reference Designator

AIR131

AIR128

AIR181

AIR180

AlRllO AIR87 AIR105 AIR82 AIR56

AIR65

Adjustment

Name

Intensity Cut-Off

Intensity

Medium Intensity

Dim

Intensity

Y-Gain

X-Gain Y-Pos X-Pos X-Current

Off-set Y-Current

Off-set

A1 R129

INTENSITY

Table

ADJUSTMENTS

5-4.

2-Axis Drive Adjustment and Test Pattern Set-up

Adjustment Paragraph

5-12, c 5-12, d

5-12, e

5-12, f

5-12, g 5-12, g

5-12, g 5-12, g 5-12, h

5-12, h

AIR131

INTENSITY X-CURRENT OFFSET

CUT-OFF

Service

Sheet

Adjust so that monitored signal

3C 3C

is Adjust p-p value as marked on the

CRT +lV (largest sticker value)

3B

Adjust p-p level of first narrow level as marked on CRT +lV (medium sticker value)

3B

Adjust p-p value of second narrow

level as marked on CRT +lV

(smallest sticker value) 3C 3C 3C 3C

3B

A1 R65

Y-CURRENT OFFSET

I

Adjust for a 12 cm high display

Adjust for a 17 cm wide display

Adjust as required Adjust as required Mechanical center

Mechanical center

Description

+20 VDC above ground

A1 R56

Adjust Y-Gain (AlR110) for a 12 cm (4.72in.) high andX-Gain (AlR87) for a 17 cm (6.7in.) wide display. It may be

g.

necessary to to adjust Y-Pos

(AlR105) and X-Pos (AlR82) to bring the display on screen. The primary test pattern

is shown in figure 5-4.

h. Mechanically center X-Current Off-set

Figure

(AlR56) and Y-Current Off-set (AlR65).

5-4.

1349A/D

Primary Test Pattern

P/O Figure

5-5.

2-Axis Driue and Preliminary Focus Adjustment Locations

A1 R180

DIM INTENSITY

ADJUST

A1 R181

MEDIUM INTENSITY

ADJUST

Adjustments

Model

1349A/D

ADJUSTMENTS

5-13.

PRELIMINARY FOCUS AND ASTIGMATISM ADJUSTMENT.

REFERENCE:

Service Sheets 3C,

DESCRIPTION:

These procedures provide the necessary adjustments for preliminary focus and astigmatism set-up. The only signal source required is the primary test pattern.

EQUIPMENT REQUIRED:

Power Supply Oscilloscope

PROCEDURE:

a.

Preset X-Focus Gain

(A4R2) fully cw.

Board

b.

Apply power to the instrument. The primary test pattern should be displayed on screen

5.

(AlR142) fully cw, Y-Focus Gain (AlR145) fully ccw, and Focus Gain on the High Voltage

Table

Reference Designator

AlR142

AIR145

A4R2

AIR138

AIR135

AIR149

AlR171,AlR169

ADJUSTMENTS

5-5.

Preliminary Focus and Astigmatism Adjustment

Adjustment

Name

X-Focus Gain

Y-Focus Gain

Focus Gain

Y-Focus Off-set

X-Focus Off-set

Fine Focus

Edge Astig Center Astig

Adjustment Paragraph

5-13, a

5-13, d

5-13, e

5-13, g

5-13, h

Service

Sheet

3C

3 C

5

3 C

3C

3 C

Description

Preset to fully cw

Preset to fully ccw

Preset to fully cw

Bottom of signal to AlTPlO DC level

Bottom of signal to

AlTPlO DC level

5 VDC above signal clipping level

Center both adjustments

Figure

c. Set monitor oscilloscope sweep speed to 2

probe and DC couple the attenuator. Monitor

5-6.

1349A/D Primary Test Pattern

mSec/Div, and vertical attenuator to 0.2 V/Div. Use a 10:l divider

AlTPlO and position the trace on the center graticule line with the

vertical position control.

d.

Monitor

AlTP9 and adjust Y-Focus Off-set (AlR138) so that the bottom of the signal is on the center graticule

line.

e. Move the scope probe to

AlTPll and adjust X-Focus Off-set (AlR135) so that the bottom ofthe signalis on center

graticule line. Readjust scope trigger level if necessary.

f. Set monitor scope sweep speed to 0.2 mSec/Div and the vertical attenuator to 0.5 V/Div. DC couple the vertical

attenuator arid monitor

A4TP1 (on High Voltage Board) with a 10:l divider probe.

V-FOCIIS

FINE

A1

A4R42 A4R54 AIR169

OFFSET

V-FOCIJS

Focus 45' Astig Center Astig

GAIN

X-FnCllS

GAIN

5-13, i

3C, 5

For best overall display

X-FOCUS OFFSET EDGE ASTlG CENTER ASTlG

AIR149 fully cw. Adjust AIR149 slowly in the ccw direction and note the signal level where clipping ends.

Set

g.

Adjust

AIR149 so that the bottom of the waveform is 5 VDC above the clipping level.

h. Center adjustments Edge Astig

i. Adjust Focus (A4R42), 45' Astig (A4R54), and Center Astig (AlR169) for best display.

(AlR171) and Center Astig (AlR169).

Note: Adjustment Locations for

Figure

5-7.

5-6

A4R2, A4R42, and A4R54 are shown on figure

5-3.

2-Axis Drive and Preliminary Focus Adjustment Locations

Model 1349A/D

Oyitallly Remademd by ArhkMedia

@

7~2-2lXX

Adjustments

ADJUSTMENTS

5-14. INTENSITY CUT-OFF LEVEL

REFERENCE:

Service Sheets 3C,

DESCRIPTION:

The primary test pattern is used as the signal source to adjust the intensity cut-off level.

EQUIPMENT REQUIRED:

Power Supply Oscilloscope

PROCEDURE:

a. Apply power to the instrument and display the primary test pattern.

b. Set monitor scope sweep speed to 2

attenuator and use a

c. Set Intensity Cut-off

primary test pattern.

d. Readjust Intensity Cut-off

5

mSec/Div and set the vertical attenuator to 0.5 V/Div. DC couple the

10:l divider probe to monitor A4TP2 on High Voltage board.

(AlR131) cw until a dot just appears above and to the right of the note "Y=2047" in the

(AlR131) until dot is just extinguished. Note the signal level on the monitor scope.

ADJUSTMENTS

5-15.

TRACE ALIGNMENT AND WRITING

REFERENCE:

Service Sheets 3B,

DESCRIPTION:

The 1349A/D primary test pattern is used for trace alignment and writing speed adjustment. The seven segment line of the test pattern is used to adjust writing

EQUIPMENT REQUIRED:

Power Supply.

PROCEDURE:

a. Apply power to the instrument and display the primary test pattern.

b.

Adjust Trace Align

c. Adjust Writing Speed

5

(AlR160) to align test pattern horizontally.

(AlR70) for the seven segment line as shown in figure 5-8.

SPEED ADJUSTMENT.

speed.

e. Adjust Intensity Cut-off level so that the signal level displayed on the

f. Readjust Focus

Reference

Designator

A4R42

(A4R42) for best display.

Table

I

Adjustment

Name

I

Intensity Cut-off

Focus

5-6.

Intensity Cut-off Level Adjustments

I

Adjustment I Service

Paragraph

I

5-14, d 3C

5-14, f

I

Sheet

I

3C

5

scopeis 1V below the level of visual cut-off.

I

Description

1

I

Set cw until dot appears

Adjust until dot in test pattern is extinguished

Adjust monitored signal to visual cut-off

Adjust for best

display

1V below

Figure

5-8.

Writing Speed Adjustment

DJUST

SEGME

:OR

F

INT

Digitally Remastered by ArtckMedia

@

7OZ-2-

Adjustments

Model

1349A/D

Table

Reference Adjustment

Designator

I

Name

Trace Align

Writing Speed

INTENSITY CUT-OFF WRITING SPEED

ADJUSTMENTS

5-7.

Trace Align and Writing Speed Adjustment

Adjustment

Paragraph

Service

Sheet

Align test pattern

horizontally

Adjust for the seven segment line in primary test

pattern

Description

ADJUSTMENTS

5-16.

STROKE GENERATOR ADJUSTMENTS.

REFERENCE:

Service Sheets 3A, 3B.

DESCRIPTION:

This procedure describes the adjustments necessaryto ensure proper vector stroke generation.

EQUIPMENT REQUIRED:

Power Supply

PROCEDURE:

NOTE

The following procedures are referenced to figure 5-10. Perform the following adjustment steps in the same sequence as outlined below:

Apply power to the instrument and display the primary test pattern

a.

Adjust

b. c. Adjust

d. Adjust

AIR36 for parallel adjacent lines of the bottom two boxes in the test pattern.

AIR30 for parallel adjacent lines of the top two boxes in the test pattern.

AIR8 for parallel adjacent lines of the left two boxes in the test pattern.

TRACE ALIGN

A1 R160

Note: Adjustment Locations for A4R42 is shown on figure

5-3.

Adjust

e.

All adjacent sides of the boxes in the test pattern should now be parallel. If not, repeat steps b through f.

f.

AIR1 for parallel adjacent lines of the right two boxes in the test pattern.

Figure

5-10.

Stroke Generator Adjustments

NOTE

'igure

5-9.

Intensity Cut-off Level, Trace Alignment and Writing Speed Adjustment Locations

g. Adjust

pattern.

The following procedures are referenced to figure 5-11. Perform the following adjustment steps in the sequence outlined below.

AIR39 so that the left vertical line of the pattern starts exactly the bottom horizontal line in the test

Model 1349A/D

Dgitalfy Remastend

by

Arhkkdia

n

7U)Z-ZW

Adjustments

ADJUSTMENTS

h. Adjust AIR48 so that the left vertical line ends at exactly the top horizontal line in the test pattern.

i. Adjust AlRll so that the top horizontal line originates at exactly the left vertical line in the test pattern.

Adjust

j.

k. The outside box of the pattern should now be closed properly. If not, recheck steps h through

AIR20 so that the top horizontal line ends at exactly the right vertical line in the test pattern.

k.

Table 5-8. Stroke Generator and Stroke Length Adjustments (Con't)

Reference

Designator

AIR48

AlRll

AIR20

5-17.

STROKE INTENSITY ADJUSTMENT

REFERENCE:

Service sheet 3B.

Adjustment

Y-Stroke Length

X-Ramp Offset

X-Stroke Length

Name

ADJUSTMENTS

Adjustment

Paragraph

5-16, i

5-16, h

5-16, k

Service

Sheet

3A

Description

Left Vertical Line ends at top horizontal line in the test pattern (figure 5-1

Top horizontal line starts at left Vertical line in the test pattern (figure 5-1 1)

Top horizontal line ends at right vertical line in the test pattern (figure 5-11)

1)

b

Reference

Designator

AIR36

AIR30

AIR8

AlRl

Figure 5-11. Stroke Length Adjustment

Table 5-8. Stroke Generator and Stroke Length Adjustments

Adjustment

Name

Y-Stroke

Y-Dac Gain

X-Stroke

Offset

X-Dac Gain

Adjustment

Paragraph

5-16, c Offset

5-16, d

5-16, e

5-16, f

Service

Sheet

3A

Parallel lines of bottom boxes in the test pattern (figure 5-10)

Parallel line of top boxes in the test pattern

(figure 5-10)

Parallel lines of

left boxes in the

test pattern (figure 5-10)

Parallel lines of right boxes in the test pattern (figure 5-10)

Description

DESCRIPTION:

This procedure describes the' adjustments necessary to ensure equal intensity of all vectors.

EQUIPMENT REQUIRED:

Power supply

PROCEDURE:

NOTE

The following procedures are referenced to figure 5-11. Perform the following adjustments in the same sequence as outlined below:

a.

Apply power to the instrument and obtain the primary test pattern on screen.

b.

Adjust

C.

Adjust AIR65 so that the vertical lines of the four small boxes in the test pattern are of equal intensity.

AIR56 so that the horizontal lines of the four small boxes in the test pattern are of equal intensity.

AIR39

Y-Ramp Offset

5-16, h

3A

Left vertical line starts at bottom horizontal line in the test pattern (figure 5-11)

1

Figure 5-12. Stroke Intensity Adjustments

PIKES PEAK

---:--:

U

Adjustments Model 1349A/D

ADJUSTMENTS

Table

5-9.

Stroke Intensity Adjustments.

Reference

Designator

AIR56

Adjustment

Name

X-Current Offset

AIR65

Y-Current

Off-set

A1 R48

Y-STROKE LENGTH

A1 R65

Y-CURRENT OFFSET Y-RAMP OFFSET

\

Adjustment

Paragraph

5-17, b

5-17, c

A1 R39 A1 R30

Service

Sheet

3B

Equal intensity of

horizontal lines of four small boxes in the test pattern

(figure 5-12)

3B

Equal intensity of

vertical lines of

four small boxes in

the test pattern

(figure 5-12)

A1 R36

Y-STROKE OFFSET

Description

Y-DAG GAIN

ADJUSTMENTS

IMAGE SIZE AND POSITION ADJUSTMENTS.

5-18.

REFERENCE:

Service Sheet 3C

DESCRIPTION:

I

Using the 1349A/D secondary test pattern, the X Gain is set to 17 cm (6.69 in.) and the Y Gain is set to 12 cm (4.72 in.). The test pattern is also centered vertically and horizontally.

EQUIPMENT REQUIRED:

Power Supply

PROCEDURE:

A2J6-1

Short

a.

Adjust Y-Pos

b.

c. Adjust Y-Gain

to

A2J6-2 and apply power to the instrument. The secondary test pattern should be displayed.

(AlR105) until the test pattern is vertically centered.

(AlR110) so that the outside box of the pattern is exactly 12 cm (4.72 in.) high. A plastic see-

through ruler cut to length and held against the CRT may be used for this measurement.

Adjust X-Pos

d.

e.

Adjust X-Gain (AlR87) so that the outside box of the test pattern is exactly 17 cm (6.69 in.) wide. Use the same

(AlR82) to center the pattern horizontally.

method of measurement as in step c. Recenter the test pattern as necessary using X-Pos (AlR82) and Y-Pos (AlR105).

f.

NOTE: Adjustment Locations for Image Size and Positioning are shown in figure 5-5.

Table

5-10.

Image Size and Position Adjustments

Reference

Designator

AIR105

Adjustment

Name

Y-Pos

Adjustment

Paragraph

518, b

Service

Sheet

3C

Center test pattern vertically

AlRllO

Y-Gain

5-18, c

3C

Adjust for a 12 cm (4.72 in.) high display

AIR82

X-POS

518, d

3C

Center test pattern horizontally

AIR87

X-Gain

5-18, e

3C

Adjust for a 17 cm (6.69 in.) wide display

Description

-CURRENT X-STROKE OFFSET LENGTH

A1 R56 A1 R20

Figure

5-13.

X-STROKE

OFFSET

A1 R8

X-RAMP X-DAC

OFFSET

A1 R11 AlRl

GAIN

Stroke Generator, Stroke Length and Stroke Intensity Adjustment Locations

Model 1349A/D

D&itally Remartend by Artckhledia

@

7X)Z-ZW

Adjustments

ADJUSTMENTS

h. Adjust AIR48 so that the left vertical line ends at exactly the top horizontal line in the test pattern.

i. Adjust

Adjust

j.

The outside box of the pattern should now be closed properly. If not, recheck steps h through

k.

AlRll so that the top horizontal line originates at exactly the left vertical line in the test pattern.

AIR20 so that the top horizontal line ends at exactly the right vertical line in the test pattern.

k.

Reference

Designator

AIR48

-

Table

5-8.

Adjustment

Name

Y-Stroke

Stroke Generator and Stroke Length Adjustments (Con't)

--

Length

AlRll

X-Ramp Offset

AIR20

X-Stroke Length

5-17. STROKE INTENSITY ADJUSTMENT. REFERENCE:

Service sheet 3B.

ADJUSTMENTS

Adjustment

Paragraph

5-16, i

5-16, h

--

Service

Sheet

3A

5-16, k

3A

Description

Left Vertical Line ends at top horizontal line in the test pattern (figure 5-11)

Top horizontal line starts at left Vertical line in the test pattern (figure 5-11)

Top horizontal

I

line ends at right vertical line in the test pattern (figure 5-11)

Reference

Designator

AIR36

AIR30

AIR8

AlRl

5-8.

Table

Adjustment

Name

Y-Stroke

Y-Dac Gain

X-Stroke Offset

X-Dac Gain

Figure

5-11.

Stroke Length Adjustment

Stroke Generator and Stroke Length Adjustments

Adjustment

Paragraph

5-16, c Offset

Service

Sheet

3A

Parallel lines of bottom boxes in the test pattern (figure 5-10)

5-16, d

3A

Parallel line of top boxes in the test pattern (figure 5-10)

5-16, e

3A

Parallel lines of left boxes in the test pattern (figure 5-10)

5-16, f

3A

Parallel lines of right boxes in the test pattern (figure 5-10)

Description

DESCRIPTION:

This procedure describes the' adjustments necessary to ensure equal intensity of all vectors.

EQUIPMENT REQUIRED:

Power supply

PROCEDURE:

NOTE

The following procedures are referenced to figure 5-11. Perform the following

adjustments in the same sequence as outlined below:

a.

Apply power to the instrument and obtain the primary test pattern on screen.

b.

Adjust AIR56 so that the horizontal lines of the four small boxes in the test pattern are of equal intensity.

C.

Adjust AIR65 so that the vertical lines of the four small boxes in the test pattern are of equal intensity.

Y

=

2047

-

1

A1R65

+o+

AlR65

AIR39

Y-Ramp

Offset

5-16, h

3A

Left vertical line starts at bottom horizontal line in the test pattern

(figure 5-

11)

PIKES

Figure

PEAK

5-12.

Stroke Intensity Adjustments

-------

Digitally Renmshtvd by ArtckMcdia

@

7K)Z-ZtXX

Adjustments Model 1349A/D

ADJUSTMENTS

Table

5-9.

Stroke Intensity Adjustments.

Reference

Designator

AIR56

AIR65

A1 R65

Y-CURRENT OFFSET Y-RAMP OFFSET

Adjustment

Name

X-Current Offset

Y-Current Off-set

A1 R48

Y-STROKE LENGTH

\

Adjustment

Paragraph

5-17, b

5-17, c

A1 R39 A1 R30

Service

Sheet

3B

Y-STROKE OFFSET

Equal intensity of

horizontal lines of four small boxes in the test pattern (figure 5-12)

Equal intensity of

vertical lines of four small boxes in

the test pattern (figure 5-12)

A1 R36

Description

Y-DAG GAIN

i

ADJUSTMENTS

IMAGE SIZE AND POSITION ADJUSTMENTS.

5-18.

REFERENCE:

Service Sheet 3C

DESCRIPTION:

Using the 1349A/D secondary test pattern, the X Gain is set to 17 cm (6.69 in.) and the Y Gain is set to 12 cm (4.72 in.). The test pattern is also centered vertically and horizontally.

EQUIPMENT REQUIRED:

Power Supply

PROCEDURE:

a. Short A2J6-1 to A2J6-2 and apply power to the instrument. The secondary test pattern should be displayed.

Adjust Y-Pos (AlR105) until the test pattern is vertically centered.

b. c. Adjust Y-Gain

through ruler cut to length and held against the CRT may be used for this measurement. Adjust X-Pos

d.

e. Adjust X-Gain

method of measurement as in step c.

(AlR110) so that the outside box of the pattern is exactly 12 cm (4.72 in.) high. A plastic see-

(AlR82) to center the pattern horizontally.

(AlR87) so that the outside box of the test pattern is exactly 17 cm (6.69 in.) wide. Use the same

f.

Recenter the test pattern as necessary using X-Pos (AlR82) and Y-Pos (AlR105). NOTE: Adjustment Locations for Image Size and Positioning are shown in figure

Table

5-10.

Image Size and Position Adjustments

Reference

Designator

AIR105

AlRllO

AIR82

AIR87

Adjustment

Name

Y-Pos

Y-Gain

X-Pos

X-Gain

Adjustment

Paragraph

518,

b

5-18, c

5-18, d

5-18, e

Service

Sheet

3C

Center test pattern vertically

Adjust for a 12 cm (4.72 in.) high display

Center test pattern horizontally

Adjust for a 17 cm

(6.69

in.) wide display

5-5.

Description

-CURRENT X-STROKE OFFSET LENGTH

A1 R56 A1 R20

Figure

5-13.

X-STROKE

OFFSET

A1 R8

Stroke Generator, Stroke Length and Stroke Intensity Adjustment Locations

X-RAMP X-DAC

OFFSET

AIR1 1 A1 R1

GAIN

Model 1349A/D

D&itally

.

Remastomd

by ArhkMedia

@

?WZ-ZW

Adjustments

ADJUSTMENTS

5-19.

VECTOR CLOSURE.

REFERENCE:

Service Sheet 3A

DESCRIPTION:

The procedures outlined below describe the adjustments necessary for best overall vector closure between the low speed vectors and high speed vectors. The secondary test pattern is used for this procedure.

EQUIPMENT REQUIRED:

Power Supply

PROCEDURE:

a.

Short

A2J6-1 to A2J6-2 and apply power to the instrument to obtain the secondary test pattern.

b. Adjust Y-Ramp Offset

vector and high speed vectors. Try to keep the low speed box corners closed while adjusting the high speed as close as possible. Refer to figure 5-14.

Adjust X-Ramp Offset

c.

vectors and the high speed vectors. Try to keep the low speed corners closed while bringing the high speed as close as possible. Refer to figure 5-14.

(AlR39) and Y-Stroke Length (AlR48) for best overall vector closure between low speed

(AlR11) and X-Stroke Length (AlR20) for best overall closure between the low speed

Y-AXIS

HlGH SPEED CLOSURE

X-AXIS HlGH SPE

CLOSURE

ADJUSTMENTS

LOW SPEED

VECTORS

/

-AXIS HlGH SPEED CLOSURE

Reference Adjustment

Designator

1

i

I

AIR20

I

Name

Y-Ramp Offset

Y-Stroke Length

X-Ramp

Offset

X-Stroke Length

Table

5-11.

Vector Closure Adjustments

Adjustment Service

1

Paragraph

5-19, b

I

5-19,b

Sheet

3A

I

3A

13*

1

5-19, c

I

3A

1

Best overall vector closure (Y-Axis)

Description

I

Best overall vector closure (X-Axis)

I

Best overall vector closure (X-Axis)

I

Figure

\

5-14.

X-

Y

Vector Closure

\

Y-AXIS

HlGH SPEED CLOSURE

Adjustments Model 1349A/D

ADJUSTMENTS

5-20.

FINE FOCUS AND ASTIGMATISM ADJUSTMENT AND RESOLUTION CHECK.

REFERENCE:

Service Sheet 3C, 5

DESCRIPTION:

These procedures provide the necessary adjustments for optimum focus of the display. The secondary test pattern is used as the signal source. A resolution check at the end of this procedure is also included.

EQUIPMENT REQUIRED:

Power Supply

PROCEDURE:

NOTE

The fine focus and astigmatism adjustment is based on the correct set-up of all previous adjustment procedures.

The following procedures reference figure 5-15. Perform the following adjustments in the same sequence as outlined below:

a. Short

b.

A2J6-1 to A2J6-2 and apply power to the instrument to obtain the secondary test pattern.

Adjust Focus

(A4R42)onHigh Voltage board and Center Astig (AlR169) on AnalogX-Y-Z board to convert dots on

secondary test pattern to short vertical lines.

ADJUSTMENTS

NOTE

Refer to figure 5-16 for the following procedures.

Adjust X-Focus Gain

f.

g. Adjust Y-Focus Gain

h. Adjust Focus

(A4R42 on High Voltage Board) for best picture. Concentrate on the four vertical medium

intensity segments of the pattern while keeping best overall focus on the rest of the display.

(AlR142) for best display at the X-Axis edges.

(AlR145) for best display at the Y-Axis edges.

ADJUST Y-FOCUS GAlN (A1 R145)

MEDIUM INTENSITY

LINES

c. Adjust 45" Astig

(A4R54) on High Voltage board so that all converted dots are close to vertical. When optimally set the converted dots may lean to left and right of vertical in different parts of CRT. In this case set to least overall departure from vertical.

d. Adjust Center Astig

(AlR169) so that dots around the three centermost patters stay round when Focus (A4R42) is adjusted slightly either side of smallest dots. This may require some compromise between Center Astig and Focus adjustments.

e. Adjust Edge Astig

EDGE ASTlG

(AlR171)

(AlR171) for best display at the centermost edge patterns.

CENTER ASTlG

45" ASTlG

(A1 R169

CENTER ASTlG

(A1 R169

\

CENTER ASTlG

(A1 R169

&

45O ASTlG

&

EDGE ASTlG

(A1R171)

45" ASTlG

&

A4R54)

&

A4R54)

&

A4R54)

ADJUST

X-FOCUS

(A1 R 142)

GAlN

Figure

5-1

6.

Fine Focus Adjustment

MEDIUM INTENSITY

LINES

Figure

5-15.

Fine Focus Adjustment

Model 1349A/1)

Dtgitally Remasterred

by

Artckhiedia

@

?W2-2aY)16

Adjustments

Y-STROKE LENGTH EDGE ASTlG Y-RAMP OFFSET

AIR142

X-FOCUS GAlN

X-FOCUS GAIN,

AIR145

ADJUSTMENTS

A1 R48 AIR171 A1 R39

\

ADJUSTMENTS

AIR169

<

3

RESOLUTION CHECK.

A

1349A/D passes the resolutuion test if all of the lines in the 13 boxes of the test pattern can beresolved. If the resolution tests fails, it may be necessary to adjust Focus and Astig adjustments slightly to improve overall definition of the secondary test pattern.

Table

5-12.

Fine Focus and Astigmatism Adjustment

I

Reference

Designator

A4R54

I

Adjustment

Name

45 degree Astig

Center Astig

Edge Astig

I

Adjustment

Paragraph

5-20, b,

I

Service

Sheet

c

5

I

Description

Adjust for most vertical converted

I

dots

Adjust for round dots on both sides of Focus of three centermost patterns

Adjust for best display of

center-

most edge patterns

I

A4R54

45" ASTlG

X-STROKE LENGTH X-RAMP OFFSET

A1 R20

Note: High Voltage cover is removed.

AlRll

A4R42

X-Focus

Gain

Y-Focus

Gain

Focus

520,

Adjust for best

display at X-Axis

Adjust for best display at Y-Axis

h

5

Adjust for best overall display

FOCUS GAlN

A4R2

Figure 5-1

FOCUS A4R42

7.

Vector Closure, Focus and Astig Adjustment Locations

Adjustments

Dgitally Remashmd

by

AFtckMedia

@

7U)2-2LW

ADJUSTMENTS

5-21.

AUXILIARY X-Y-Z OUTPUT CHECK

REFERENCE:

Service Sheets 3A,

DESCRIPTION:

This check verifies the auxiliary

EQUIPMENT REQUIRED:

Power Supply Oscilloscope

10:l Divider Probe

PROCEDURE:

a. Apply power to the instrument and obtain the primary test pattern on screen.

b.

Connect oscilloscope to

3B.

X-Y-Z

Outputs

A1J5 pin 2 and check for a display as shown in figure 5-18.

Model 1349A/D

c. Monitor

VERTICAL ATTENUATOR

Figure

AlJ4 Pin 2 and check the oscilloscope for a display as shown in figure 5-19.

=

SWEEP

5-18.

X-Amplifier Auxiliary Output

=

20 mV/div.

1

mS/div.

VERTICAL ATTENUATOR = 20 mV/div.

SWEEP

Figure

5-19.

Y-Amplifier Auxiliary Output

d. Monitor AlJ3 Pin 2 and check for a display on the oscilloscope as shown in figure 5-20.

=

1

ms/div.

VERTICAL ATTENUATOR

SWEEP = 500 mS/div.

Figure

5-20.

2-Amplifier Auxiliary Output

=

20 mV/div.

Model 1349A/D

Replaceable Parts

SECTION VI

REPLACEABLE PARTS

6-1. INTRODUCTION.

6-2. This section contains information for ordering

parts. Table 6-1 lists abbreviations used in the parts list, table 6-2 lists all replaceable parts in reference designator order.

6-3. ABBREVIATIONS.

6-4. Table 6-1 lists abbreviations used in the parts list,

the schematics, and throughout the manual. In some cases, two forms of the abbreviations are used, one all in capital letters, and one partial or no capitals. This

occurs because the abbreviations in the parts list are

always all capitals. However, in other parts of the

manual other abbreviation forms are used with both

lower and uppercase letters.

The total quantity for each part is only given once, at the first appearance of the part number in the list.

6-7. ORDERING INFORMATION.

6-8. To order a part listed in the replaceable parts table, quote the Hewlett-Packard digit, indicate the quantity required, and address the order to the nearest Hewlett-Packard office.

6-9.

To order a part that is not listed in the replaceable parts table, include the instrument model number, instrument serial number, the description and function of the part, and number of parts required. Address the order to the nearest Packard office.

rart number, check

Hewlett-

6-5. REPLACEABLE PARTS LIST.

6-6. Table 6-2 is the list of replaceable parts and is

organized as follows: 6-11. Within the

Electrical assemblies in alphanumerical order

a.

by reference designation.

b. Chassis-mounted parts in alphanumerical order a. Direct ordering and shipment from HP Parts

by reference designation.

6-10. DIRECT MAIL ORDER SYSTEM.

USA,

Hewlett-Packard can supply

parts through a direct mail order system. Advantages

of

using the system

Center in Mountain View, California.

are

as

follows:

c. Electrical assemblies and their components in b. No maximum or minimum on any mail

alphanumerical order by reference designation.

The information given for each part consists of the following:

a. Complete reference designation. b. Hewlett-Packard part number. c.

Total quantity (Qty) in instrument. d. Description of part. e. Check digit.

order (there is a minimum order amount for parts ordered through local HP offices when orders require billing and invoicing).

c.

Prepaid transportation (there is a small handl-

ing charge for each order).

-

d. No invoices

check or money order must accompany each order. 6-12. Mail order forms and specific ordering in-

formation are available through your local HP offices.

to provide these advantages,

Replaceable Parts Model

Table

6-1.

Reference Designators and Abbreviations

REFERENCE DESIGNATORS

=

A AFC

AMPL

BFO BE CU B H B P BRS BWO

CCW CER CMO COEF COM COMP COMPL CONN CP CRT CW

DEPC D R

ELECT ENCAP EXT

F FH FIL H FXD

G GE GL GRD

=

assembly

=

motor

=

battery

=

capacitor

=

coupler

=

dlode

=

delay lhne

=

devlce s~gnallng llampl

=

mlsc

electronic

=

amperes

=

automatic

control

=

ampl~f~er

=

beat frequency osc~llator

=

beryllium

=

b~nder head

=

bandpass

=

brass

=

backward wave

=

counter-clockw~se

=

ceramlc

=

cabinet mount only

=

coeflc~ent

=

common

=

compos~t~on

=

complete

=

connector

=

cadm~um plate

=

cathode-ray tube

=

clockw~se

.

=

depos~ted carbon

=

dr~ve

=

electrolytic

=

encapsulated

:

external

=

farads

=

flat head

=

fllllster head

=

f~xed

=

glga 11091

=

germanlum

=

glass

=

groundiedl

part

frequency

copper

oscillator

H HDW

HEX HG H

R

HZ

IF IMPG INCD INCL INS

I

NT

LH LIN LK WASH LOG LPF

M MEG MET FLM MET OX MFR MHz MlNAT MOM MOS MTG MY

fuse

=

f~lter

=

Integrated crcult

=

jack

=

relay

=

inductor

=

loud speaker

=

meter

=

m~crophone

ABBREVIATIONS

=

henr~es

=

hardware

=

hexagonal

=

mercury

=

hour(s1

=

hertz

=

~ntermed~ate freq

=

impregnated

=

Incandescent

=

~ncludeisl

=

insulat~onied)

=

Internal

=

left hand

=

llnear taper

=

lock washer

=

logar~thm~c tapel

=

low pass fllter

=

m1ll1=103

=

meg=l06

=

metal

film

=

metalllc oxlde

=

manufacturer

=

mega hertz

=

mlnlature

=

momentary

=

metal ox~de substrate

=

mountlng

=

mylar

=

nano (10-91 RECT

=

normally closed RF

=

neon R H

=

n~ckel plate

NIO NOM

NPO

NPN

NRFR

NSR

OBD

0

H

OX

PH BRZ PHL PIV PNP

PI0 POLY PORC POS POT PP PT PWV

=

mechanical

=

plug

=

transistor

=

reststor

=

therm~stor

=

switch

=

transformer

=

term~nal board

=

test polnt

=

normally open

=

nomnal

=

negatve posltlve zero !zero temperature coeff~c~entl

=

negative-posltlve-

negatlve

=

not recommended for f~eld replacement

=

not separately replaceable

=

order by descr~ptlon

=

oval head

=

ox~de

=

peak

=

pr~nted clrcult

=

p~cofarads= 10

farads

=

phosphor bronze

=

ph~ll~ps

=

peak Inverse voltage

=

poslt~ve-negative-

posltlve

=

part of

=

polystyrene

=

porcelain

=

posltlonlsl

=

potentlometer

=

peak-to-peak

=

polnt

=

peak working voltage

=

rect~f~er

=

rado frequency

=

round head or

part

r~ght hand

12

U V

R

V

W

X Y Z

RMO RMS

RWV

S- B SCR SE SECT SEMlC SI SIL SL SPG S PL SST SR STL

T A TD TG L THD TI TOL TRIM TWT

VA R VDCW

WI W WIV

WW WIO

=

~ntegrated ctrcult

=

vacuum. tube, neon

bulb, photocell, etc

=

voltage regulator

=

cable

=

socket

=

crystal

=

tuned cavlty network

=

rack mount only

=

root-mean square

=

reverse worklng

voltage

=

slow-blow

=

screw

=

selenium

=

sect~onlsl

:ON = semlconducto~

=

s~l~con

=

s~lver

=

sl~de

=

spring

=

special

=

sta~nless steel

=

spllt ring

=

steel

=

tantalum

=

tlme delay

=

toggle

=

thread

=

tltanlum

=

tolerance

=

trmmer

=

travel~ng wave tube

=

variable

=

dc work~ng volts

=

wlth

=

watts

=

work~ng Inverse

voltage

=

w~rewound

=

without

1349A/D

Model

1349A/D

Replaceable

Parts

M

HARDWARE FOR:

PC BOARDS PRELOAD CRT BEZEL IMP41

P7

RING

P/O

W3

IMP7)

Figure

A4 P/O A4A1 P/O V1 V1 CRT

USE HARDWARE

051 5-0432 (H1 051 5-0636 iH4j

051 5-0788 (H21

6-1.

Chasis Parts and Board Assembly Identification

J

QTY

USE TORX SCREW DRIVER NO.

25

4 4

T1 0 T1 5 T1 0

Replaceable Parts

Model

1349A/D

HARDWARE FOR:

PC BOARDS PRELOAD CRT BEZEL (MP4)

RING

P/O

W7 A5 A2 W1

USE HARDWARE

051 5-0432 (HI

(MP7)

Figure

051 5-0636 (H4) 051 5-0788 (H2)

6-1.

Chasis Parts and Board Assembly Identification

V1

CRT

QTY

)

USE TORX SCREW DRIVER NO.

25

4 4

T10 TI5 TI0

M

~4

Model

1349A/I)

Table

6-2.

Replaceable Parts

Reference

Designator

A1 A2 A3 A4 A5

HI H2 H3 H4 H5

H6 MP1 MP2 MP3 M P4

MP5 MP6 M P7

P8

M M P9

MPlO MPl 1 MP12 MP13 V1

W1 W2 W3 W4 W5

W6 W7

HP Part Number

01 349~66509 01

349-66507 01 349-66504 01 349-66508 01 349-66506

0515~0432

5~0788

051 0515-1026 0515-0636 3050~0105

21

90-0584 01349 00501

349-60601

01 01 349-66001 01 349-40001

1520~0661 0330-0379 01 349 40003 0400~0009 0340-0564

0340~0977

1400~1251 01 349-00601

1400~0249 5083-6350

01349~61601

349-61 602

01

349-61 607

01 01349-61605

349-61 608

01

349-61604

01 01 349-61 603

C D

Mfr

Qty

1

2

3

5 4

6 5 5

1 6

0 4

1 7

4 7 8 9 3

2 6 5 0 6

3 4 9 7 0

6 2

BOARD ASSEMBLY-ANALOG-XM 1 1 1 1

25 4 2 4 2

2

1 1

1

4 1 1 1 2

2 1 1 3 1

1 1 1 1 1

1 1

ASSEMBLY~VPC DOT

BOARD

ASEMBLY~LOW VOLTAGE

BOARD

BOARD ASSEMBLY-HIGH VOLTAGE

BOARD ASSEMBLY-MEMORY

SCREW-METRIC M3X05 6MM LG PAN-HD TAPTITE

SCREW~METRIC M4 OX0 7XlOMM LONG TAPTITE

SCREW~METRIC M3X05 lOMM LG TO-10 TAPTITE

SCREW-MACHINE M4X07 25MM~LG PAN-HD

WASHER FL MTLC NO 4 125-IN-ID

WASHER~LK HLCL 30MM 3.lMM~ID

MAIN FRAME

SHIELD-CRT

ALIGNMENT

BEZEL

FOAM VIBRATION MOUNT-BEZEL

RING~CRT

SHOCK

RING-PRELOAD

GROMMET-RND 125-IN-ID 25-IN-GRV-OD

INSULATOR-XSTOR THERM CNDT

INSULATOR-FLG-BSHG NYLON

CLAMP-CABLE

SHIELD-OUTER

CABLE TIE 062- 625 DIA 091-WD NYL

ELECTRON TUBE PHOSPHOR

CABLE VPC TO ANALOG

CAT HARNESS

CABLE

CABLE ASSEMBLY-LOW VOLTAGE TO

CABLE ASSEMBLY-LOW VOLTAGE TO VPC

CABLE VECTOR MEMORY TO VPC

Description

11349D ONLY)

COIL ASSEMBLY

HIGH VOLTAGE

CAT P31 AL NG

HIGH VOLTAGE

Code

28480 28480 28480 28480 28480

00000 00000 00000 00000 28480

28480 28480 28480 28480 28480

28480 28480 28480 06383 28480

28480 28480 28480 28480 28480

28480 28480

Mfr Part Number

01 349-66509

01349-66507

01 349~66504

01 349-66508

01 349-66506 ORDER BY DESCRIPTION

ORDER BY DESCRIPTION ORDER BY DESCRIPTION ORDER BY DESCRIPTION 3050~0105

21 90~0584 01349-00501 01349-60601 01349-66001 01 349-40001

1520-0661 0330-0379 01349-40003 0400~0009 0340-0564

0340~0977

1400~1251 01349-00601 PLTI M~8 5083-6350

01349-61 601

349~61602

01 01 349~61607 01349-61 605 01349-61 608

349-61 604

01 01349-61 603

81 50-0005 81 50-001 3 81 50-0018 81 50-0040

9282~0100 01 349-90901

MISCELLANEOUS

1

JUMPER~BLACK 101 ANALOG BD TO HIGH VOLTAGE BD

1

JUMPER-GREEN/WHITE (951 ANALOG BD TO HIGH VOLTAGE BD

1

JUMPER~ORANGE/WHITE 1931 ANALOG BD TO HIGH VOLTAGE BD

1

JUMPER~YELLOW/WHITE 194) ANALOG BD TO HIGH VOLTAGE 8D

1

INSTALLATION GUIDE 1 1

RING

BINDER-3

OPERATING AND SERVICE MANUAL

28480 28480 28480 28480

28480 28480 28480

81 50-0005

50~0013

81 8150-0018 8150-0040

9282~0100 01349-90901

introduction

See

to

this section

for

ordering

information

Model

1349AID

Table

6-2.

Replaceable Parts

(Cont'd)

Reference

Designator

AIR96

A1 R97

A1

R98 A1 R99 AlRlOO

AlRlOl AIR102 AIR103

AIR104 AIR105

AIR106 A1 R107 AIR108 AIR109 AlRllO

AlRlll AIR112 A'IR113 AIR114 AIR115

HP Part

Number

Description

RESISTOR 511 1% 125W F TC=0?100 RESISTOR-TRMR 1K 10% C TOP-ADJ 1 TRN

RESISTOR 200K 1% 125W F

NOT ASSIGNED

RESISTOR

182K 1% 125W F TC=0?100

RESISTOR 681 1% 125W F TC=0?100 RESISTOR 27 4K 1% 5W F TC=0?100 RESISTOR 6 19K 1% 125W F TC=Oi100 RESISTOR lOOK 1% 125W F TC=0?100 RESISTOR 133K 1% 125W F TC=0?100

RESISTOR 27 4K 1% 5W F TC=0?100 RESISTOR 27 4K 1% 5W F TC=0?100 RESISTOR 1 33K 1% 125W F TC=0?100 RESISTOR l00K 1% 125W F TC=0?100

RESISTOR 6 19K 1% 125W F TC=Oi100

RESISTOR 27 4K 1% 5W F TC=0?100

RESISTOR 681 1% 125W F TC=0?100 RESISTOR 18 2K 1% 125W F TC=0+100 RESISTOR 422K 1% 125W F TC=0?100

RESISTOR TRMR 500 10% C TOP-ADJ 1-TRN RESISTOR 6

RESISTOR 1K 1% 125W F TC=O?.100 RESISTOR 162K 1% 125W F TC=0?100

RESISTOR

RESISTOR-TRMR 1K 10% C TOP-ADJ LTRN

RESISTOR 200K 1 % 125W F TC=Ot100 NOT ASSIGNED

RESISTOR 182K 1% 125W F RESISTOR 681

RESISTOR 27 4K 1% 5W F TC=0?100

RESISTOR 6 19K 1% 125W F TC=Oi100

RESISTOR lOOK 1% 125W F TC=O+lW

RESISTOR 1 33K 1% 125W F TC=0?100

RESISTOR 27 4K 1% 5W F TC=0?100

RESISTOR 1 33K 1% 125W F TC=Oi100

RESISTOR lOOK 1% 125W F TC=Oi100 RESISTOR 6 19K 1% 125W F TC=Ot100

RESISTOR 27 4K 1% 5W F TC=0?100

RESISTOR 681 1% 125W F TC=0?100 RESISTOR 182K 1% 125W F TC=Oi100

RESISTOR 10K 1% 125W F TC=0?100 RESISTOR 10K 1% 125W F TC=Oi100

RESISTOR-TRMR 1K 10% C TOP ADJ 1 TRN

RESISTOR 2 15K 1% 125W F RESISTOR~TRMR 2K 10% C TOP-ADJ 1-TRN

RESISTOR 13K 1% 125W F RESISTOR 681 1% 125W F TC=0?100 RESISTOR 511 1% 125W F TC=Ot100

RESISTOR-TRMR 5K 10% C TOP~ADJ l~TRN

RESISTOR 301K 1% 125W F TC=Oi100

RESISTOR 511 1% 125W F TC=0?100

RESISTOR-TRMR 5K 10% C TOP-ADJ 1-TRN RESISTOR 3 01K 1% 125W F TC=Oi100 RESISTOR 4 22K 1% 125W F TC=01100

RESISTOR 4 22K 1% 125W F TC=Oi100 RESISTOR-TRMR 5K 10% C TOP-ADJ 1-TRN RESISTOR 5111% 125W F TC=0?100 RESISTOR 1K 1% 125W F TC=0?100 RESISTOR-TRMR 5K 10% C TOP-ADJ 1-TRN

RESISTOR 4 22K 1% 125W F RESISTOR-TRMR 5K 10% C TOP~ADJ 1 -TRN RESISTOR 4 22K 1% 125W F TC=Oi100 RESISTOR 2K 1% 125W F TC=0?100 RESISTOR 1K 1% 125W F TC=O?lWJ

RESISTOR 200 1% 125W F TC=0?100 RESISTOR 200 1% 125W F TC=Oi100 RESISTOR 200 1% 125W F TC=0+100 RESISTOR 200 1% 125W F TC=Ot100 RESISTOR 162K 1% 125W F TC=Oi100

19K 1% 125W F TC=0?100

51 1 1% 125~ F TC--O?~OO

1%

~

-

TC=0?100

125W F TC=Oi100

TC=Oi100

TC=0?100

TC=Oi100

Mfr Part

Number

C4-1/8-T0~511R-F 82PR1 K C4-1/8-TO-2003~F

C4-1/8-TO-1822-F C4-1 /8~TO-681 R-F

0757-0847 MF4C1/8~TO-6191-F C41/8-TO-1003-F C4-1/8-TO-1331 ~F

0757-0847 0757-0847 C4-1/8-TO-1331 -F

C4-1/8-TO-1003-F MF4C1/8-TO-6191-F

0757-0847

C4-1/8~TO-681 R-F C4-1/8-TO-1822-F C4-1/8-TO-4221 -F

82PR500

NF4C1/8~TO-6191 C4~1/8-TO-1001-F C4-1/8-TO-1621 -F C4-1/8-TO-511R-F 82PR1 K

C4~1/8~TO-2003~F C4-1/8~TO-1822-F

C4-1/8-TO-681R-F

0757~0847

MF4C1/8-TO-6191 -F C4~1/8-TO-l003~F C4-1/8 TO-1331-F 0757~0847 0757-0847

C4~1/8-TO-1331-F C4-1/8-TO-1003-F MF4C1/8~TO-6191 ~F 0757-0847 C4~1/8-TO-681R-F

C4-1/8-TO-1822-F C4-1/8-TO-1002-F C4-1/8-TO-1002-F 82PR1 K C4-1/8-T0-2151~F

82PR2K C4~1/8-TO-1301-F C4-1/8-TO~681R-F C4-1/8-TO-51 1R~F 82PR5K

C4~1/8-TO-3011~F C4-1/8~T0-511 R~F 82PR5K C4-1/8 TO-3011F C4-1/8~TO-4221 -F

C4-1/8-T0~4221 F 82PR5K C4-1/8-TO-5112 C4-1/8-TO-1001-F 82PR5K

C4-1/8-T0~4221-F 82PR5K C4~1/8-T0~2001F C4~1/8~70-2001 -F C4-1/8-TO-1001 -F

C4-1/8-TO-4221 ~F C4-1/8-TO-201 -F C4-1/8-TO-201 -F C4-1/8-TO-201 -F C4-1/8-T0~1621~F

-F

See

introduction

to

this

section

for

ordering

information

Replaceable Parts

Table

6-2.

Replaceable Parts (Cont'd)

Model

1349A/D

Reference

Deslgnator

AIR156 AIR157 AIR158 AIR159 AIR160

AlR161 AIR162 AIR163 A1 R164 A1 R165

A1 R166 A1 R167 A1 R168 A1 R169 AIR170

AIR171 AIR172 AIR173 AIR174 A1 R175

A1 R176

A1 R177 AlR178 A1 R179 AIR180

AIR181 AlTPl

AlTP2

A1 TP3

A1 TP4

A1 TP5

A1 TP6

AlTP7

A1 TP8

AlTP9 AlTPlO AlTP11

AlUl

A1 U2 A1U3 A1U4 A1 U5

U6

A1

A1 u7

U8

A1 A1U9 AlUlO

AlUll AlU12 A1 U13 A1 U14 AlU15

AlU16 A1 U17 AlU18 AlU19 A1 U20

A1 U21 A1 U22 A1 U23 A1 U24 A1 U25

A1 U3l A1 U32 A1 U33 AlVRl AlVR2

HP Part

Number

D

Qty

Cl

:

I

RESISTOR 332 1% 125W F TC=0?100

RESISTOR 348 1% 125W F TC=0?100

RESISTOR 1 62K 1% 125W F TC=OI.100 RESISTOR 130 1% 25W F TC=0?100 RESISTOR TRMR 5K 10% C TOP~ADJ 1 -TRN

RESISTOR 147 1% 125W F TC=0?100 RESISTOR 825 1% 125W F TC=0+100 RESISTOR 511 1% 125W F TC=0?100 RESISTOR 511 1% 125W F TC=0?100 RESISTOR 10K 1% 125W F TC=O+lOO

I

1

RESISTOR 10K 1% 125W F TC=0?100 RESISTOR 51 1 1 % 125W F TC-OI.lOO RESISTOR 51 1 1% 125W F TC=0?100 RESISTOR-TRMR 10K 10% C TOP ADJ 1-TRN RESISTOR 17 8K 1% 125W F TC=O+lOO

I

RESISTOR TRMR 5K 10% C TOP-ADJ 1 -TRN RESISTOR 681 1% 125W F TC=Ot100 RESISTOR 6 l9K 1% 125W F TC=Ot100 RESISTOR 10K 1 % 125W F TC=Oi100 RESISTOR 46 4K 1% 125W F TC=OI.100

RESISTOR 3 92K 1% 125W F TC-Of 100

10K 1% 125W F TC=0?100

RESISTOR RESISTOR 3 32K 1% 125W F TC=0+100 RESISTOR 2 74K 1% 125W F TC=0?100 RESISTOR-TRMR 500 10% C TOP-ADJ 1-TRN

RESISTOR~TRMR 1 K 10% C TOP-ADJ 1 TRN NOT ASSIGNED TERMINAL TEST POINT PCB

NOT ASSIGNED NOT ASSIGNED NOT ASSIGNED NOT ASSIGNED

NOT ASSIGNED NOT

ASSIGNED

TERMINAL TEST POINT PCB TERMINAL TEST POINT PCB TERMINAL TEST POINT PCB

IC FF TTL LS D~NPE POS~EDGE-TRIG COM IC FF TTL LS D-NPE POSEDGE-TRIG COM IC CONV 12-WD/A 24-DIP C PKG IC CONV 12-B~D/A 24-DIP-C PKG IC OP AMP LOW BIAS-H-IMPD TO99 PKG

IC OP AMP LOW-BIAS-H-IMPD TO99 PKG ANALOG

MClLTl PACK IC OP AMP WE 8-DIP-P PKG IC OP AMP WB 8-DIP-P PKG IC OP AMP LOW-BIAS-H-IMPD TO99 PKG

IC OP AMP GP 8-DIP~P PKG IC OP AMP LOW~BIAS-H-IMPD QUAD 14-DIP-D IC FF TTL LS D-NPE POS-EDGE-TRIG COM IC FF TrL LS D-NPE POS-EDGE-TRIG COM IC CONV 12-B-D/A 24-DIP-C PKG

IC CONV 12-&D/A 24~DIP-C PKG IC OP AMP LOW~BIAS H-IMPD TO99 PKG IC OP AMP LOW-BIAS-H-IMPD TO99 PKG

MULTl PACK

ANALOG

IC OP AMP WE 8-DIP-P PKG

IC OP AMP WE 8-DIP-P PKG IC OP AMP LOW~BlAS~H~lMPD TO99 PKG IC OP AMP GP 8-DIP-P PKG IC OP AMP GP 8~DlP~P PKG IC 20-DIP C PKG

RAMP GENERATOR IC LINEAR IC LINEAR

-

IC LINEAR

IC V RGLTR TO 220 IC OP AMP LOW-BIAS-H-IMPD QUAD !4-DIP-C

IC OP AMP LOW-BIAS-H-IMPD QUAD 14-DIP-C IC V RGLTR TO-220 IC-VOLTAGE REGULATOR

DIODE-ZNR 10V 5% DO-35 PD=4W TC=+06%

-

Description

Mfr Part

Code Number

Mfr

I

See

introduction

to this section for order~r~g inf'ormat~on

Model

1349A/D

Table

6-2.

Replaceable Parts (Cont'd)

Replaceable Parts

Reference

Deslgnator

AlVR3 AlVR4 AlVR5 AlVR6 AlVR7

AlVR8 AlVR9 AlVRlO AlVR11 A1 XU3

A1 XU4 A1 XU7 AlXU15 AlXU16 AlXU19 AlXU26

HP Part

Number

Q~Y

DlODE ZNR 10V 5% DO-35 PD=4W TC-t 06% DlODE ZNR DlODE ZNR 3 16V 5% DO-7 PD=4W TC= 064% DIODE-ZNR 681V 5% DO-35 DlODE ZNR 6 81V 5% DO 35 PD=4W

DlODE ZNR 4 22V 5% DO-35 PD- 4W DIODE-ZNR 4 22V 5%

DIOOE~ZNR 4 22V 5% DO-35 PD= 4W DIODE-ZNR 4 22V 5% DO-35 PD= 4W

SOCKET-IC 24-CONT DIP DIP-SLDR SOCKET~IC 24~CONT DIP DIP-SLDR

SOCKET SOCKET IC 24~CONT DIP DIP-SLDR SOCKET SOCKET~IC 24 CONT DIP DIP-SLDR SOCKET-IC 24-CONT DIP DIP-SLDR

10V 5% DO 35 PD4W TC=+06%

IC 24~COIUT DIP DIP~SLDR

lC 24-CONT DIP DIP~SLDR

Description

D0~35 PD= 4W

PD=4W

Mf r

Code

Mfr Part

Number

ee

introduction to this section for ordering information

Model

1349A/D

Table

6-2.

Replaceable Parts (Cont'd)

Replaceable

Mfr

Part

Number

Parts

Replaceable Parts

Table

6-2.

Replaceable Parts

(Cont'd)

Model

1349A/D

Reference

Designator

A3 A3C1 A3C2 A3C3 A3C4

A3C5 A3C6 A3C7 A3CRl A3CR2

A3CR3 A3CR4 A3F1 A3F2 A3F3

A3H1 A3H2 A3H3 A3H4

A3H5 A3H6

A3H7 A3J1

A3J2 A3J3

A3J4 A3J5 A3L1 A3L2 A3L3

A3MPl A3MP2 A301 A302

A3R1

A3R2

A3R3 A3R4 A3R5 A3R6

A3R7 A3R8 A3R9 A3R10 A3Rll

A311 A3TPl A3TP2 A3TP3 A3TP4

A3U 1 A3XUl

HP Part

Number

01 349 66504 01 80-0094

60~3443

01 01 80~0106 01 60 3448

60~0207

01 0180~1819

80-2089

01 1901 -0040 1901 -0040

1901 -0669 1901 -0669

10~0303

21 21 10~0367 2110-0001

0340~0114

10~0269

21 21 90~0584 0515-0403

5-0065

051 3050-0367

0535-0008 1251 -8028 1251 6000

-6000

1251 1251 -6WO

1251 ~4836 9100~3139 9140-0137 9100~3139

01 345-04101 1400 0249 1854-0659 1854~0659 0757~0438

0757-0438 0757-0449 0698-0085 0757~0720 0757-0401

0757~0401 081 13293 0757-0466 21 00-0554 0757-0431

01345-61 102 0360-0535 0360-0535

0360.0535 0360-0535

1826~0428 1200~0607

C

D

Mfr

Qty

1

4

1 9 6

9 3 1 1 1

0 0

3 9 8

9

0

0 0 0

2 3

6

2 5

1

5 4

0 7

7

3 3

6 0 6 0

0 0 7 5 6

5

0 0 0 0

9 0

BOARD ASSEMBLY-LV

1

CAPACITOR-FXD CAPACITOR-FXD

1

CAPACITOR-FXD 60UF 120%

1 1

CAPACITOR-FXD

1

CAPACITOR~FXD 01 UF i 5% ZOOVDC

1

CAPACITOR~FXD lOOUF +75 10% 5OVDC AL CAPACITOR-FXD

1

DIODE-SWITCHING 30V 50MA

2

DIODE-SWITCHING 30V

DIODE~PWR RECT 400V 1A 150NS

2

DIODE-PWR RECT 400V 1A 150NS

1

FUSE 2 OA 250V TD 1 25X 25 UL

1

FUSE 50A 250V TD 1 25X 25 UL

1 1

6

1 2 2

1 1 3

1 2 1

1 1 2

2

1 1 1

2

1 1 1

1 4

1

0A 250V NTD 1 25X 25 UL

FUSE 1 INSULATOR FLG-BSHG NYLON

FUSEHOLDER-CLIP TYPE 25D-FUSE WASHER LK HLCL 3 OMM 3 SCREW MACH M2 5x0 45 8MM~LG SCREW MACH M3XO5 25MM~LG PAN-HD

WASHER~FL MTLC NO 3 105-IN-ID NUT-HEX DBL-CHAM M2 CONNECTOR 6 PIN M UTILITY CONNECTOR CONNECTOR 5 PIN M METRIC POST NPE

CONNECTOR CONNECTOR 2-PIN M METRIC POST NPE INDUCTOR INDUCTOR RF-CH-MLD 1MH 5% 2DX45LG Q=60 INDUCTOR 75UH 15% 5DX 875LG

COVER LV CABLE TIE 062- 625 DIA 091 -WD NYL TRANSISTOR NPN TRANSISTOR NPN SI PD=12 5W FT=SOMHZ RESISTOR 5 11K 1% 125W F TC=01100

RESISTOR 5 11K 1 % 125W F TC=0_+100 RESISTOR 20K 1% 125W F TC=0?100 RESISTOR 2 61K 1% 125W F TC=Oi100 RESISTOR 243 1% 25W F TC=01100 RESISTOR 100 1% 125W F TC=Oi100

RESISTOR 100 1% 125W F TC=0?100 RESISTOR 18 5% 2W PW TC=0?800 RESISTOR llOK 1% 125W F TC=Oi100 RESISTOR~TRMR 500 10% C TOP~ADJ 1-TRN RESISTOR 2 43K 1% 125W F TC=01100

TRANS ASSEMBLY TERMINAL TEST POINT PCB TERMINAL TEST POINT PCB TERMINAL TEST POINT PCB TERMINAL TEST POINT PCB

IC 3524 MODULATOR 16-DIP-C SOCKET-IC

75UH 15% 50X 875LG

16~CONT DIP DIP-SLDR

Description

100UF +75-10% 25VDC AL

IUF 180-20% 5OVDC CER

1000PF '10% 1KVDC CER

lOOUF 150-10% 150VDC AL

5~PIN M METRIC POST NPE

5~PIN M METRIC POST TYPE

6VDC TA

POLYE

2NS DO-35

50MA 2NS D0~35

1-MM~ID

5x0 45 2MM-THK

SI PD=12 5W FT=5OMHZ

Code

28480

56289 28480 56289 28480

28480 56289

56289

28480

28480 14099

14099 28480 28480 28480

28480 28480 28480 00000 28480

28480 00000 28480 28480 28480

28480 28480 28480 28480 28480

28480 06383 04713 04713 24546

24546 24546 24546 24546 24546

24546 28480 24546

28480

24546

28480 28480 28480 28480 28480

01 295

28480

Mfr Part Number

01 349~26504 30D107G025DD2

01 60-3443

150D606XO006B2

01 60-3448

0160-0207 30D107G050DH2 39D107F150FP4 1901 Xi340 1901 -0040

S4F S4F 21 10-0303

10-0367

21

21 1D~0001 0340~0114

10-0269

21 2190~0584 ORDER BY DESCRIPTION

2200-0065

3050-0367

ORDER BY DESCRIPTION

1251 -8028 1251 -6000 1251 -6000

~6000

1251 1251 ~4836

9100-3139 9140~0137 9100-3139

01 345 041 01

PLTIM-8

MJE180

C4-1/8-TO-5111-F

C4-1/8~TD-5111 -F C4-1/8-10~2002-F C4-1/8-T0~2611 -F C5-1/4-TO-243R-F C4-1/8-TO-l01~F

C4-1/8~TO-101-F 081 1-3293 C4~1/8-TO 1103-F 2100~0554 C4~1/8~TO-2431 ~F

01 345-61 102 0360-0535 0360-0535 0360-0535 0360-0535

SG3524J 1200-0607

See

introduction to this section for ordering information

Model

1349A/D

Table

6-2.

Replaceable Parts (Cont'd)

Replaceable Parts

Reference

Designator

HP

Part

Number

Description

BOARD ASSEMBLY HV MULTIPLIER CAPACITOR FXD NOT ASSIGNED

CAPACITOR FXD

CAPACITOR~FXD CAPACITOR FXD CAPACITOR FXD CAPACITOR~FXD CAPACITOR~FXD

CAPACITOR FXD CAPACITOR FXD CAPACITOR FXD 1 UF t80 20% 50VDC CER CAPACITOR FXD CAPACITOR FXD 068UF 120% 4KVDCMY

CAPACITOR~FXD 20PF i 5% 500VDC CER 0 '30 CAPACITOR FXD lOOOPF ' 20% 4KVDC CAPACITOR FXD lOOOPF ' 20% 4KVDC CAPACITOR FXD OlUF 120% 4KVDC CAPACITOR FXD 120PF +5% 300VDC MlCA

CAPACITOR FXD CAPACITOR FXD 30PF CAPACITOR FXD 20PF CAPACITOR FXD CAPACITOR 220PF +5% 300VDC MlCA

CAPACITOR 2 CAPACITOR FXD CAPACITOR FXD CAPACITOR FXD 51PF CAPACITOR FXD 1

CAPACITOR FXD 1

DlODE PWR RECT 400V

DlODE SWITCHING DlODE PWR RECT 400V 750MA DO 29 DlODE PWR RECT 400V

nor~t

~JIGDT

D OD1 2OUt

DlODE PWR RECT 400V 750MA DO 29 DlODE PWR RECT 400V DlODE HV RECT

DlODE PWR RECT 400V 750MA DO 29 DlODE PWR RECT 400V DlODE PWR RECT 400V DlODE PWR RECT 400V DIODE PWR RECT 400V

DlODE PWR RECT 400V DlODE SWITCHING

FUSE 1 OA 250V NTD 1 25X 25UL

FUSE HOLDER SCREW MACHINE ASSEMBLY TERMINAL PN STRAIGHT PHMS INSULATOR XSTR

CONNECTOR 5 PIN M METRIC POST TYPE

INDUCTOR RF CH MLD INDUCTOR RF CH

COVER HV INNER PA CONN SHIELD

TRANSISTOR NPN TRANSISTOR PNP SI TO 39 PD-lW FT l00MH.Z TRANSISTOR NPN SI TO 39 PD-lW FT-200MHZ TRANSISTOR NPN SI PD-350MW FT-300MHZ TRANSISTOR PNP SI TO 39 PD-lW FT lOOMHZ

TRANSISTOR NPN SI TO 39 PD-lW FT-200MHZ TRANSISTOR NPN SI PD 90W FT-2MHZ TRANSISTOR PNP S1 TO 39 PD-lW FT-lO0MH.Z TRANSISTOR NPN S1 TO 39 PD-lW FT-200MHZ TRANSISTOR PNP S1 PD 31MW F1-250MHZ

H V X8 HI

120PF '5% 300VDC MlCA

01 UF 180 20% l00VDC CER

1 LlF 180-20% 200VDC CER 01 UF 180 20% l00VDC CER

01 UF 1 80 20% l00VDC CER

lLlF t80 20% 200VDC CER

l00UF 4 20% 20VDC TA

l00UF 120% ZOVDC TA

056UF 1 10% 200VDC POLYE

OlUF i20% 4KVDC

01 UF t80 20% 5OOVDC CER

120% 3KVDC CER

'20% 3KVDC CER

022UF 410% 200VDC POLYE

OPF 1 25PF 500VDC CER

OlUF +80 20% l00VDC CER

1UF 120% 200VDC CER

+

25PF 500VDC CER

I80 20"/0 200VDC CER

180 20% 200VDC CER

750MA DO 29

120V 50MA l00NS

WIT CHI^,;

PWR RtCT 430V 75ilMA

bWITClllh(; SW

I.'tllh(;

M3XO 5 8 LG

750MA DO 29

115.

!,>MA

3r)\

5lMA IhS

3r)\

53MA r)hS

750MA DO 29

10KV 5MA 250NS

750MA DO 29 750MA DO 29 750MA DO 29 750MA DO 29

750MA DO 29

120V 50MA l00NS

CLIP TYPE 250 FUSE

22UH 10% 23DX 57LG

NlLD 220UH 5% 166DX 385LG

SI PD 350MW FT-300MHZ

I

>OE~S

UO

21

2.7

35

UO

35

M3X0 5 8MM LG

Mfr

Code

Number

1901 0096 1901 0028 1901

~0028 1901 0096 1901 0028

1901 0040

1901

~0040

1901 ~0028

1901 0028

1901

0683

1901 0028

1901 0028 1901 0028 1901

0028 1901 0028

1901 0028 1901

~0096

2110 0001

21 10 0269 ORDER BY DESCRIPTION 0360~1653 0515 0372 0340 0564

1251 -5863

9140 01 15 9140~0129

01 345-04103 01 349 60602

2N3904 1853 0038

1854 0419

2N3904

1853-0038

1854~0419 1854 0433 1853~0038 1853 0419 1853 0036

I I

See

introduction

to

this

section

for

ordering

information

Replaceable Parts

Table

6-2.

Replaceable Parts

(Cont'd)

Model

1349A/D

Reference

Designator

HP Part

Number

Description

RESISTOR 680 10% 25W FC TC=-400/+600

1

RESISTOR-TRMR 10K 10% C TOP-ADJ 1-TRN RESISTOR 38 3K 1% 5W F

'

RESISTOR 100 10% 25W FC TC=-400/+500

1

RESISTOR 10K 1% 125W F TC=Oi100

1

RESISTOR 909K 1% 25W F TC=0+100

RESISTOR 51 1 1% 25W F TC-0~100 RESISTOR 1 3K 1% 25W F TC=0+100

I

RESISTOR 20K 1% 5W F TC-0+100 RESISTOR 100 10% 25W FC TC=-400/+500

RESISTOR 20K 1% 5W F TC=Oi100

RESISTOR 270 5% 25W FC TC-400/+600

RESISTOR 10K 1% 125W F TC=Oi100 RESISTOR 90 9K 1% 25W F TC=Oi100 RESISTOR 51 1 1% 25W F TC-0i.100 RESISTOR 1 3K 1% 25W F TC=Oi100

RESISTOR 20K 1% 5W F TC=Oi100 RESISTOR 100 10% 25W FC TC=-400/+500 RESISTOR 750K 1% 125W F TC=Oi100

RESISTOR~TRMR 500K 10% C TOP~ADJ 1TRN

RESISTOR lOOK 1% 125W F TC=0?100 RESISTOR l00K 1% 125W F TC=Oi100

RESISTOR 22M 5% 25W FC TC=-900/+ 1200 RESISTOR 47K 10% 25W FC RESISTOR 100 10% 25W FC TC=-400/+500 RESISTOR 390

I

RESISTOR 2 2K 10% 25W FC TC=-400/+700

1

RESISTOR 1 K 10% 25W FC TC=-400/+600 RESISTOR 390K 10% 5W CC TC=0+882

1

RESISTOR 680 10% 25W FC TC=-400/+600 RESISTOR 680 10% 25W FC TC=-400/+600

I

RESISTOR 5 6K 1070 25W FC TCz-400/+700

1

RESISTOR 20M 5% 1W C TCz0i250 RESISTOR 680 10% 25W FC TC--400/+600

1

RESISTOR 680 10% 25W FC TC=-400/+600 RESISTOR 10M 10% 25W FC TC=-900/t 1100

RESISTOR 100 10% RESISTOR 22K 5% RESISTOR 390K 5% 25W FC TC=-800/+900 RESISTOR 1 8 5% 25W FC TC=-400/+450 RESISTOR 6 5 MEG 5% 1 W C TC=Of 250

RESISTOR-TRMR RESISTOR 3M 5% 1W C TC:Oi250 RESISTOR 680 10% 25W FC TC=-400/+600 RESISTOR 75 1% 125W F TC=0+100 RESISTOR 4 7K 5% 25W FC TC=-400/+ 700

RESISTOR 27 4K 1% 5W F RESISTOR RESISTOR 121 K 1% 25W F RESISTOR 1 2K 1% 25W F TC=Oi 100 RESISTOR 27 4K 1% 5W F

RESISTOR RESISTOR 1 lK 1% 125W F TC=Oi 100 RESISTOR-TRMR 20K 10% C TOP-ADJ 1 RESISTOR 1 lK 1% 125W F TC=Oi 100 RESISTOR

RESISTOR 200 1% 125W F TC=O+/-100 RESISTOR 200 1% 125W F TC-0t/-100

HV TRANSFORMER

TERMINAL TEST PT PCB TERMINAL TEST TERMINAL TEST PT PC8

IC OP AMP PRGMBL T0~99 PKG LAMP-GLOW

LAMP~GLOW A9A~CT 9OVDC 700UA T-2-BULB DIODE~ZNR 6 l9V 5% DO-35 PD= 4W DIODE~ZNR 5 62V 5% D0~35 PD- 4W DIODE-ZNR 6 19V 5% DO-35 PD= 4W DIODE-ZNR 54 9V 5% DO-7 PD= 4W

5%

6 l9K 1% 125W F TC-Or 100

100 10% 25W FC TC=-400/+500

200 1% 125W F TC=O+/-100

A9A-CT 9OVDC 700UA T~2~BULB

TC=Oi100

TC=-400/+800

25W FC TC=-400/+600

25W FC TC=-400/+ 500

25W FC TC=-400/+800

1 M 20% C TOP~ADJ VTRN

TC=Oi 100

TC=O+100

TC=Ot 100

PT

PCB

TC=+ 081%

-TRN

Mfr

Code

Mfr Part

Number

C5-1/4~TO-9092~F C5~1/4 TO 51 1 R-F C5-1/4-TO 1301 -F

CONNECTOR-SGL CONT PIN 045-IN-BSC-SZ SO

c

Spe

introduction to

this

section for

MISCELLANEOUS

ordering

~nformation

Replaceable Parts Model

Table

6-3.

List of Manufacturers' Codes

1349A/D

Mfr No.

00000 01 121

01 295

926

01 0211 1 03508 03888 0471 3 07263

1 1502 19701

24046 24546

2701 4

271 67

28480

30983

32997

34371

50088

56289

721 36

72982

731 38

741 00

7591 5

8441 1

91 506

Manufacturer Name

ANY SATISFACTORY SUPPLIER ALLEN-BRADLEY CO TEXAS RCA CORP SPECTROL ELECTRONICS GE CO SEMICONDUCTOR PROD DEPT KDI MOTOROLA SEMICONDUCTOR PRODUCTS

FAIRCHILD SEMICONDUCTOR DIV TRW INC MEPCO/ELECTRA CORP TRANSITRON ELECTRONIC CORP CORNING GLASS WORKS (BRADFORD) NATIONAL SEMICONDUCTOR CORP CORNING GLASS WORKS (WILMINGTON) HEWLETT-PACKARD CO CORPORATE MEPCO/ELECTRA CORP BOURNS INC

HARRIS MOSTEK CORP SPRAGUE ELECTRIC CO ELECTRO MOTIVE CORP ERIE TECHNOLOGICAL PRODUCTS INC BECKMAN INSTRUMENTS INC HELIPOT DIV BUSSMAN MFG DIV OF MCGRAW-EDISON CO I-ITTLEFUSE INC TRW CAPACITOR DIV AUGAT INC

INSTR INC SEMICOND CMPNT DIV

SOLID STATE DIV

PYROFILM CORP

HO

TRIMPOT PROD DIV

SEMICON DIV

SLlB IEC

Address

MILWAUKEE WI DALLAS T X SOMERVILLE NJ CITY OF IND C A

SYRACUSE N WHIPPANY NJ

PHOENIX

MOUNTAIN VIEW CA

BOONE DIV N C

MINERALS WELLS TX WAKEFI ELD MA

BRADFORD PA

PAL0 ALTO C A WlLMlNGTON NC

PAL0 ALTO C A

DlEGO C A

SAN

RIVERSIDE C A MELBOURNE FL

CARROLLTON TX

NORTH ADAMS MA WILLIMANTIC CT ERIE PA

FULLERTON C A

ST LOUIS MO

PLAINES I L

DES OGALLALA N E ATTLEBORO MA

Y

AZ

Zip

Code

53204 75222 08876 91 745

13201 07981 85062 94042 28607 76067 01 880

16701 94304 2 840 1 94304 921 21 92507 32901

75006 01 247 06226

16512 92634 63107 6001 6 691 53 02703

Model 1349A/D

Manual Changes

SECTION VII

MANUAL CHANGES

7-1.

7-2. adapting this manual to instruments for which the content does not apply directly. Since this manual does

INTRODUCTION.

This section normally contains information for is given here. Refer to INSTRUMENTS COVERED

apply directly to all instruments up to the serial number listed on the title page, no change information

THIS MANUAL in Section I for additional important

information about serial number coverage.

BY

7-1/(7-2

blank)

Model 1349A/D

SECTION Vlll

SERVICE

8-1. INTRODUCTION.

8-2. This section provides instructions for trouble-

shooting and repairing the Model Display.

8-3. Detailed theory of operation and troubleshooting information are located opposite the schematics on is shown in Figure 6-1. Refer to Table foldout Service Sheets. The remainder of this section assemblies indexed to Service Sheets.

has general service information that should help you quickly service and repair the Display.

1349A/D Digital

8-4. THEORY OF OPERATION.

8-5. Overall theory of operation appears on pages opposite the Block Diagram (Service Sheet

section of the diagram refers to service sheets where

detailed theory, schematics and troubleshooting infor-

mation are presented. Figure 8-2 explains any unusual symbols that appear on the schematics.

LOGIC CONVENTIONS.

8-6.

is used in this manual, unless otherwise noted on the

schematics. Positive logic convention defines

more positive voltage (high) and a logic negative voltage (low).

8-7. LOGIC SYMBOLOGY.

symbology is used in this manual. The purpose of these symbols is to graphically represent device function so

that the operation can be understood without having to

"look up" how a device works. Basic logic symbols and

examples of symbols are shown in Figure 8-3. Table 8-2

provides an explanation of function lables used in the schematics.

Positive logic convention

The new ANSI logic

"1"

"0"

as the more

1).

Each

as the

other than that listed may be substituted if it meets the listed specifications.

8-10. REPAIR.

8-1 1. ASSEMBLY REMOVAL.

Table

8-1.

Service Sheet Quick Reference.

I

Assembly

I

A5 Memory Circuit (l349D only) 6A, 6B

Major assembly removal

Name

8-12. CRT REMOVAL PROCEDURE.

a. Remove power from the instrument.

b. Remove CRT socket. Use two thin bladed screwdrivers to pry the socket away from the CRT (see Figure 8-3). Disconnect the PA lead.

Loosen screw on the CRT Shield

c.

of the instrument (next to the Low Voltage Power Supply).

8-1

for the list of

I

Service

I

Sheells1

3A,

(MP2) on top

I

3B, 3C

1

8-8. RECOMMENDED TEST EQUIPMENT.

8-9. Test equipment required for maintaining the 1349A/D is listed in Section I Table 1-4. Equipment

d. Loosen Preload Ring (MP7). Use a No. TI5 Torx screwdriver. Gradually release the pressure of the

1,

Preload Ring by loosening the screws in the sequence as shown in Figure

8-1.

2, 3, 4

Model 1349A/D

TO REMOVE CRT SOCKET

POSITION FLAT BLADED

SCREWDRIVER HERE

2

3

LOOSEN PRELOAD RlNG IMP71 IN THE

Figure

8-1.

CRT Remoual.

1,

2,

3,

4

SEQUENCE

1

TO REMOVE CRT SOCKET POSITION FLAT BLADED SCREWDRIVER HERE

PRELOAD RlNG (MP7)

4

e. Remove CRT Bezel (MP4) using a No. T10 Torx

screwdriver. Remove the CRT from the CRT Shield

8-14.

DC VOLTAGES AND WAVEFORMS.

DC volt-

ages, waveforms and conditions for making these

(MP2). measurements are given on, or are adjacent to

schematics on the Service Sheets. Since conditions for

When reinstalling a CRT, relubricate the Yoke

f. assembly with silicone grease. Ensure a layer of grease where ever the CRT contacts the Yoke assembly.

Lubricate the PA lead from the CRT. Wipe the

g.

electrical connector part of the

PA

lead clean.

h. To reassemble the instrument reverse the

above procedure (steps e through b).

making measurements may differ from one circuit to another, always check the specific conditions listed for each schematic.

8-15.

Before attempting to troubleshoot the

INITIAL TROUBLESHOOTING PROCEDURE.

1349A/D,

visually inspect the interior of the instrument for any signs of abnormal internally generated heat, such as

8-13.

TROUBLESHOOTING.

discolored printed circuit boards or components,

damaged insulation, or evidence of arcing. Determine

WARNING

0

Read the safety summary at the front of this

manual before troubleshooting the instru-

ment.

and remedy the cause of such conditions. If no abnormal conditions are found, try to perform the

V

adjustment procedure in Section

of this manual. Some apparent malfunctions may be corrected by these adjustments, or failure to obtain a correct adjustment will often reveal the source of trouble.

Model

1349A/D

Service

REFER TO ANSI Y

CIRCUIT ASSEMBLY

--I

,......--.-----.....

-.-----............

E+

BREAKDOWN DIODE

+

0

(ZENER1

SCHOTTKY (HOT-CARRIER DIODE

BORDERLINE PIN OF PLUG-IN BOARD

FRONT-PANEL MARKING

REAR-PANEL MARKING

MAIN SIGNAL PATH

PRIMARY FEEDBACK PATH

SINGLE-PIN CONNECTOR ON BOARD

32.2

FOR GRAPHIC SYMBOLS NOT LISTED IN THIS TABLE

LA

fly

I

:Sip;

FERRITE BEAD

--

+-

I

THERMISTOR

OR CABLE

COAXIAL CABLE CONNECTED TO SNAP-ON JACK

COAXIAL CONNECTOR CONNECTED DIRECTLY TO BOARD

SOLDER OR MECHANICAL CONNECTION

ELASTOM ERIC

-

@

CONNECTOR

TOOL-AIDED ADJUSTMENT

0

9

0

<'i

,

STEP-RECOVERY DIODE

VARACTOR DIODE rVARlCAPi

TRlAC

TEMPERATURE

SENSOR

'@

\\

TRA.:oR

DUAL FIELD-EFFECT TRANSISTOR IN-TYPE

BASE)

b

B

oYe

0

"

*----

r*

9

v-7

,I

6

,&,

SOLENOID-ACTUATED

SWITCH

GLOWLAMP

TOROIDAL TRANSFORMER

SLIDE SWITCH

COMMON CONNECTIONS. ALL ILIKE-DESIGNATED POINTS ARE CONNECTED

CHASSIS GROUND

T

3L

l5

",

*

TP1 NUMBERED TEST POINT.

MEASUREMENT AID

PROVIDED

LETTERED TEST POINT. NO MEASUREMENT AID PROVIDED

SIGNAL REFERENCE

SCHEMATIC REFERENCE

INDICATES MULTIPLE PATHS REPRESENTED

B'f ON ONE LINE

LETTERS OR NAMES

IBENTIFY INDIVIDUAL

J

PATHS. NUMBERS INDICATE NUMBER OF PATHS REPRESENTED

WIRE BY COLORS THE LINE. ARE GIVEN BY ENCLOSED NUMBERS USING THE RESISTOR

COLOR CODE.

(925:

IS WHT-RED-GRNI

0

-

BLACK

-

1

2

-

RED

3

-

ORANGE

4

-

YELLOW

BROWN

5

-

6

-

7

-

8

-

9

-

GREEN BLUE

VIOLET

GRAY

WHITE

Figure

8-2.

Schematic Diagram Symbols.

8-3

Service

BUFFER

INVERTER

AND

NAND

Model

1349A/D

NOR

EXCLUSIVE OR

LOGIC ELEMENTS

WITH COMMON

CONTROL BLOCK

li-

CONTROL BLOCK

'r

ARRAY

1

CONTROL BLOCK IS USED

WHEN AN ARRAY OF

RELATED LOGIC ELEMENTS SHARE COMMON CONTROL LINES.

Figure

8-3.

Basic Logic Symbols (Sheet

1).

Model

1349A/D

-€

HlGH LEVEL

SENSITIVE

t

J-L

PERIOD

ACTIVE HlGH Inputs and outputs lndlcated by the absence of the polarlty tndlcator

ACTIVE LOW ~nputs and outputs

lndtcated by the presence of the

polarlty lndlcator I

I

L

I

b

I

Service

3

LOW LEVEL

SENSITIVE

P

2-/!r-

PERIOD

\

t-

lndlcated by the presence of the dvnarnlc ~ndlcator svlnbol

BI-THRESHOLD (Hysteres~s~ Input

i

1

I

-

h~gh state when external slgnal exceeds hlgh threshold value State slgnal falls below a lower threshold value

OPEN COLLECTOR output Forms a part of a

connector

lnput takes on Internal

IS

malnta~ned untll external

I

distributed

0

1

>

1

I

Figure

8-3.

Qualifying Symbols

Input

2).

iDowni Input of

quallflers or

In

may be other

SHIFT RIGHT reglster m may be other quallf~ers or dependency notatlon

COUNT UP Input of a counter

m may be other dependency notatlon

DATA quallflers or dependency notatlon

(Sheet

Service

THREE INPUTS ANDED DECODER TO PRODUCE A

(GI.

GATE AN ACTIVE G GATES ALL OUTPUTS

CONTROL BLOCK

HIGH ON GI

A GATES INPUT DATA INTO ALL

FLIP-FLOPS ALL

"D"

THE GATE iGl I AND 3-STATE ARE COMMON TO

\

IF) INPUTS

"D" FLIP-FLOPS

I

Model

1349A/D

INDICATES DEVICE IS A 3-STATE REGISTER

DATA INPUT

BINARY WEIGHTING WEIGHTING OF OUTPUT. OF INPUT DATA DEPENDENT ON G

/

INDICATES DECIMAL

INDICATES DECODED OUTPUTS ARE

ACTIVE LOW

\

INDICATES DEVICE IS A DEMULTIPLEXER

3-LINE TO 8-LINE DECODER/ DEMULTIPLEXER

ON

A POSITIVE EDGE INPUTS DATA INTO FIRST RIGHT

STAGE OF SHIFT REGISTER

RESETS ALL A SHIFT .Ow REGISTER ON

~UTPUTS

LOW

C

\

INDICATES SHIFT

(DOWN CONTROL

/

r

INDICATES

DEVICE

IS

REGISTER

A

DEPENDENT ON

SETS ALL OUTPUTS TO 3-STATE

IMPEDANCE) MODE

A

1G21 GATES G2 ANDED TO DEPENDENT INPUTS PRODUCE A

AND OUTPUTS GATE

CONTROL INPUT A POS

(HIGH FLIP-FLOP

DATA INPUT ON

3-STATE OCTAL

HIGH ON GATE 2 TWO INPUTS

ICI

ITlVE POSITIVE EDGE

G1 INPUT

D FLIP-FLOP

lGl

I

/

CODER LABEL

CARRY OUTPUT WHEN COUNT

DEPENDENT ON G2

-

15.

TWO INPUTS ANDED TO

PRODUCE A DATA INPUT

INDICATES DEPENDENCY REGISTER STAGE ON C INPUT

SERIAL-IN/PARALLEL-OUT SHlFT REGISTER

8-BIT

8-6

1

DATA OUTPUT

\

INDICATES SHIFT

Figure

8-3.

Example Complex Logic Symbols (Sheet

LOADS DATA AT ON INPUTS

CD

1

+i

CD

8

+l

A LOW ON R RESETS ALL COUNTER OUTPUTS LOW

DATA INPUT

-1

IN DICATES DEPENDENCY INDICATES BINARY ON C INPUT

PRESETTABLE BINARY COUNTER

3).

11-

\'

WEIGHTING OF STAGE

GI AND G2

INDICATES DEVICE IS A COUNTER

COUNTER OUTPUT

INDICATES OUTPUTS

COUNT UP

Model

1349A/D

Table

8-2.

Function

AMPLIFIER/BUFFER

MONOSTABLE MULTIVIBRATOR (ONE-SHOT)

AND GATE

OR GATE

EXCLUSIVE OR GATE

ENCODER. DECODER

PRIORITY ENCODER

Labels.

Service

CNTR

DEMUX

RAM

REG

ROM

SAR

SEL

SREG

COUNTER

DEMULTIPLEXER

FLIP-FLOP

RANDOM-ACCESS MEMORY

REGISTER

READ-ONLY MEMORY

SUCCESSIVE APPROXIMATION REGISTER

SELECTOR

SHIFT REGISTER

TRANSMITTER/RECEIVER

Model 1349A/D

8-16.

SERVICE SHEET 1, THEORY OF

OPERATION.

8-17.

contain functional descriptions keyed to the simplified block diagram on the opposite page. The block diagram is drawn for function and does not show circuit details. Circuit details and circuit descriptions are located on the schematics following the block diagram. Refer to Table 8-1 for schematic identification.

INTRODUCTION.

The following paragraphs

8-18. VECTOR PROCESSOR (Assembly A2,

Service Sheets 2, 2A).

The purpose of the Vector Processor Control is to convert the digital 16 bit input data from the user processor to absolute coordinate vector data for the Stroke Generator (Al). The self test processor used to display the primary and secondary test patterns. The patterns are used for the Performance Checks (Section IV) and the Adjustment Procedures (Section V). The Vector Processor Control Board contains the following primary circuits:

Input Data Latches

1.

2. Output Data Latches (A2U22-A2U25).

Character Generator (A2U5, A2U9 - A2U12).

3.

4. Timing Circuits (A2U14, A2U26).

(A2U6, A2tJ8, A2U13).

A2Ul is

3. Ramp Generator (AlU26).

4.

Intensity Controller (AlU25).

X

and Y Output Amplifiers.

5.

8-20.

LOW VOLTAGE AND

HIGH VOLTAGE POWER SUPPLIES (Assemblies A3, A4 Service Sheets 4, 5).

The Low Voltage Power Supply (A3) conditions the operating potentials for the assembly provides a Voltage Power Supply, the Intensity Amplifier and Astigmatism Amplifiers. The

High Voltage Power Supply

potentials for the CRT. The supply consists of the following circuits:

1. Oscillator Circuit

2.

Cathode Rectifier and Filter (A4CRl1, A4C12,

A4C13).

3. High Voltage Regulator (A4Ul).

4. Level Translator Circuit (A4CR14, A4CR15,

A4C16).

1349A/D. Additionally, the

f105V supply for the High

X-Y

Deflection Amplifiers,

(A4) provides the operating

(A4Q7).

8-21. MEMORY ClRCLllT (Assembly AS, Service Sheet 6).

5. Vector Processor (A2U16).

8-19. X-Y STROKE GENERATOR (Assembly Al, Service Sheets 3A, 3B, 3C).

The Stroke Generator converts binary data from the Vector Processor to analog deflection information. The

Stroke Generator consists of the following primary circuits:

1.

Digital to Analog Converters (AlU1-AlU6,

AlU13-AlU18).

2. Analog Multiplier (AlU7, AlU19).

The Vector Memory circuit can store all the 1349A/D commands to draw a picture on the screen. The user processor can access any address in Vector Memory via the Address Pointer. This allows selected portions of a picture to be changed or sent back to the processor for checking or processing.

The Memory Circuit also has a feature whereby the user processor can supress portions of the picture (such as graticules or labels). Suppressed information is not erased from the Vector Memory. This is done by having the Memory do an Internal Jump past the data that is not to be displayed. Suppressed data can be made part of the picture by using only a few user processor commands, thus reducing overhead time.

Service

r--

CURRENT,

LWRb

LRD

LDS DATA X X-ANALOG

LXACK

,

DO-Dl5

MEMORY

1349D

ONLY

,I

6

LRFD

I

vu

1

).

LATCH DACS MULTIPLIER

I

DISCONNECT SENSE

i

2A

I

_

BEAM/LINE CONTROL SIGNALS LER

X-DAC

DACS MULTIPLIER

Y Y-ANALOG OUTPUT

URREN~

Y-DAC

--

=

--I

,

--

n

-- --

-

4

--

IAY

CURRENT RAMP

SOURCE GENERATOR Z-AM P

I

,

I

-

I

P/O FOCUS

AND

)

INTENSITY

r

CONTROL- I-oUTpUT

X-AUX

OUTPUT

Y-AUX

Z-AUX

I

X-AM P

Y-AMP

--a

--

-

4

1

ASTlG

AMP AMP

--

-

I

--

+

15V LOW VOLTAGE

+

5v

-

15V

1

m

POWER SUPPLY

c

--

-9

OSCILLATOR

---

,

A3

4

H.V.P.S. AND

TRANSLATOR

---

CORRECTION

AMPLIFIERS

--

,

P.A.

7

C RT

LJ

I

'

--

B 1349009

SERVICE

/SHEET

1349A/D Block

,

I

Figure

Diagram.

8-4.

8-9

8-22.

SERVICE SHEETS

2,

28,

THEORY

OF

OPERATION.

The 16 bit data from a user processor is converted to absolute coordinate vector data for the X-Y Stroke Generator host processor or refresh system with the circuit board. The self test processor is used for storing the primary and secondary test patterns. The Vector Processor

consists of the following circuits which are described

below:

INPUT DATA BUFFERS. The Input Data Buffers

provide buffering for the Vector Processor

The input data is gated to the when the VPC is ready

for new vector data. Character data is handled by A2U13, while vector data is handled by A2U6 and A2U8. The VPC controls the gating of the data by using the signal lines VECTOR and CHARACTER.

OUTPUT DATA AND CONDITION LATCHES. The

absolute (A2U16), are held in output latches A2U22-A2U25 for use by the Stroke Generator. The vector data is transfered by the Data Latch signal into the Output Latches. Condition Latches the last Set Condition commands.

CHARACTER GENERATOR. The Character Generator

translates character data into vector data for the VPC (A2U16). ROM A2U12 contains the stroke information for the modified ASCII character set. The character

size and rotation is processed by the VPC for proper vector generation.

To generate a character:

1.

2. LDAV is set low by the user processor (or by

3. VPC sets LVECTOR low to read Data Bus

4.

5. VPC set

6. VPC sets LCHARACTER low to read byte from

7.

(Al). This is accomplished by interfacing a

1.

Input Data Latches (A2U6, A2U8).

2. Output Data Latches (A2U22-A2U25).

3. Character Generator (A2U5, A2U9-A2U13).

4. Timing Circuit (A2U14, A2U26).

5. Vector Processor (A2U16).

6.

Condition Latches (A2U18-20).

(A2U16).

X

and Y vector values generated by the VPC

(A2U18-A2U20) contain

LRFD is set low by the VPC.

A2U1 if in self test).

Command from Data Buffers

At the same time LVECTOR goes low, are loaded with the address of the character from Character look-up ROM

LRFD

Character ROM AlU13.

VPC sets LCHARACTER high to clock A2U9A2Ull via A2U15B (COUNT INC goes positive) for next character byte.

high.

A2U12 via Character Buffer

A2U6 and A2U8.

A2U9-Ull

A2U5.

7

Steps 6 and

8. character has been transferred to the Analog Board.

VPC sets LRFD low for next Data Bus command.

9.

TIMING CIRCUIT. The clock circuit (A2U14,A2U26)

provides the clock for the VPC. A2U14 generates a

19.66 MHz pulse and

3.93 MHz for the VPC.

VECTOR PROCESSOR (VPC). The VPC is the control-

ling device for vector generation, using four program-

mable modes of operation.

1. Set Condition

2. Plot Absolute

3. Graph Absolute

4.

Text

SET CONDITION. When bits B14, and B13 of an input

word are set to Condition Command. The Set Condition Command controls the intensity level, the line type, and the

writing speed of the vector drawn. Once a Set Condition has been defined, the data remains stored in buffers A2U18-A2U20 until a new Set Condition Command is received.

PLOT COMMAND. When bits B14 and B13 are set to

"O",

the VPC is ready to process vector data. Data bits

BO-B10 define X or Y coordinates. When bit B12 is set to

"0" the incomming data is an X coordinate, when bit

B12 is set to The beam can be turned on or off depending on the status of bit latched into

GRAPH COMMAND. The Graph Command allows

automatic X incrementing with each new input. To invoke the Graph Command, data bits B14 must be set to B12 is set to VPC is now programmed to increment the X coordinate

each time a new Y coordinate is received. Bits contain Y coordinate information when B12 is set to

"1

".

TEXT COMMAND. When bit B14 is set to

set to

"OH,

Bits BO-B7 define the character to be drawn. Bll-B12 define the size of character to be drawn, determine rotation of the character. When bit B8 is set

"0"

to rotation data. When set to information is determined via data bits

VPC/Analog Handshake Sequence.

Analog Board sets VECTOR DONE high (forced

1. by Stroker Restart power-on. This line is normally controlled by Ramp Generator

VPC sets Data Latch high.

2.

3. VPC sets Start Vector 1 high, then waits for a

high on VECTOR DONE (step

"1" the incoming data is a Y coordinate.

A2U22-A2U25.

"On,

the VPC is instructed to go to the Text Mode.

the VPC defaults to the previous size and

repeat until last stroke of the

A2U26 divides that pulse by 5 to

"I", the VPC recognizes the Set

B11. The present X-Y coordinates are

Y

coordinate

"0" and B13 must be set to "1". When bit

BO-B10 define the X increment. The

BO-B10

"1"

and B13 is

B9-B10

"1"

size and rotation

B9-B12.

A2U21 on VPC Board at

A2U26 on the Analog Board.

1).

INPUT LATCHES

J6.

8.

13

OUTPUT LATCFES

Figure

REPLACE

ri

NO ACTIVI-Y

8-5.

Vector Processor Troubleshooting Flow Chart.

REPLACE

U27

I

REPLACE

U15

REP-ACE

POdEE

A2'd

CABLE

I

390CESSOR

SUPPLIES

YES YES

I

REPLACE

Fi

Service

4

;NPUT LATCHES

-6.

8.

:3

OUTPUT -ATCHES

"VECTOR

DONE

LiNE BAD OR PROBLEM ON ANALOG

OR HV BOARD

SIGNAL

-

REPLACE

r-rl

LINE BAD

REF GRID

DESlG

LOC

REF

DESlG

GRID REF GRID REF GRID

LOC

DESlG

LOC

DESlG

LOC

Figure

8-5.

Vector Processor Troubleshooting Flow Chart.

Figure

8-6.

Vector Processor Component Locator.

-------------------------------~------------------------------------~~I___--~___

VPC

DOT

ED.

I

54

/

- - -

v

I

Service

28,29,31,32

u

1

SELF-TEST PROCESSOR

I

1

CHAR ADDR LATCH

DATA BUFFERS

1

CHARACTER

IC DEVICE

n

POWER CONNECTIONS

'z:

21 U16 (ONLY)

t7vL

NOTES

1.

2.

3.

4.

5. WHEN

6.

:

CRTES

R?E

CIRCUIT FUNCTION. WLESS OTHERWISE NOTED:

NESS OTHERWISE NOTED:

R3 USE

WST JMR El SHOWN 'KMORY INSTRLLU)'.

NTERWTE POSITION IS FOR NO EMORY.

SYMBMIZED RCCORDING TO

LOGIC

LEVELS WE TTL:

t2.W TO t5.0V-LOGIf"1'-H

BV

TO t0.W-LOGIC'B =L

SHOWN

IN POSITION FOR 32K ROM.

RLTERWTE POSITION FOR 16K ROM.

Know

IS

REMOVED.

INSTFLLED,JWS

BE

u3

a

u4

-

SELF-TEST MICRO PROC.

/

PARTS ON THIS SCHEMATIC

Figure

P/O Vector Processor

8-7.

8-1

1

4

Service

Model

1349A/D

Figure

8-8.

Vector Processor Component Locator

Service

STROKER RESTART POWER CONNECTIONS

IC DEVICE

GENERATOR

1. GFlTES WE SYMBOLIZED RCCORDING TO CIRCUIT FUNCTION.

2. UNLESS OTHERWISE NOTED: RESISTANCE IN CAPRCITWCE IN PICOFRRRDS

INDUCTANCE

3.

UNLESS OTHERWISE NOTED:

LOGIC LEVELS

t2.8V TO +S.BV=LOGIC'l'-H

0V

4.

5.

6.

TO +8.8V-LOG1C'E'-L

R3

SHOWN

RLTERNRTE POSITION FOR 16K RON.

USE

WHEN MEMORY IS INSTRLLED,JWERS

MLST

BE

JUMPER El

RLTERNRTE POSITION IS

CtNS

IN

nIcRomwIEs

RRE TTL:

IN POSITION FOR 32K ROM.

REMOVED.

WOWN

'MEMORY INSTRLED'.

FOR

NO MEMORY.

U3

&

U4

PARTS ON THIS SCHEMATIC

C4-23 CR1,2 J2,3,5

R4- 13 Ui4-27

1

VR

C1349812/82JLL84

Figure

P/O Vector Processor

8-9.

8-13

8-23.

OF

SERVICE SHEETS 3A, 3B,3C THEORY

OPERATION.

The Stroke Generator converts the binary data from

the

VPC

to analog deflection information. Since the XY Stroke Generator and the X-Y Amplifiers are identical, only the X-Axis circuits will be described.

DIGITAL TO ANALOG CONVERTER.

AlUl and A1U2 latch the previous X coordinate for comparison with the present X coordinate data.

A1U3 and A1U4 are 12 bit DACs that convert the binary coordinate data to a corresponding analog current. The output voltage of operational amplifiers

AlU5 and A1U6 represents the

present and previous X coordinates. The difference

between these two voltages determines the next relative

beam movement in the

ANALOG MULTIPLIER.

plies two signals: the ramp generated by DAC outputs. The output of

X

direction.

The Analog Multiplier multi-

AlU26, and the

AlUlO is a ramp whose amplitude is a function of the desired relative X beam movement and whose offset is a function of screen location (see Figure 8-10).

PRtVlflllS

X

LATrHtS V

lV

PRESENT PREVIOUS RAMP K

RAMP GENERATOR.

The Ramp Generator (AlU26) provides two signals: a ramp for X-Y beam movement, and the gate pulse for beam blanking. In order to maintain a constant intensity level for different vector

length, the slope

of

the ramp (writing speed) must be held constant. The ramp slope is controlled by a combination of four inputs to for the current

4-+

A105 06 1120 U21 WHITING

Figure

8-11,

definitions).

Current Definition For Ramp Generator

AlU26. (See Figure 8-11

:$--l-------'

SPEED

13

ARSOLLJTL LURRFNT VALlJE 01

1,

ABSOLUTE CURRENT VALlJt

18

CURRFN1 PROPORTIONAL TO PROLRAMMFD WRITING

SPFFD

11

1 URRENi

SET

BY

WRlTlNC; SPEED AD.llJbTMbNT AlR70

iX

OF

iY

amplifiers are identical, only the X amplifier will be described. The X amplifier

consits of a preamplifier (AlU29j and an output amplifier (A1Q7-A1 Q12). The differential output from preamp two identical amplifiers

AlU29 is applied to

AlQ7-AlQ9 and AlQlOAlQ12. The signal voltage is raised by these two amplifiers to the required level to drive the horizontal deflection plates. The gain of the output amplifier is stabilized by the negative feedback path through AIR92 and AIR101. The gain and balance of the X amplifier is set by

Z-AXIS AMPLIFIER.

AIR87 and AIR82 respectively.

The operating potential between

the CRT grid and cathode is controlled by the Z-Axis

amplifier output level. The amplifier consists of the

Z-

Axis preamp located on the Stroke Generator assembly (Al) and the Intensity Amplifier located on the High Voltage Power Supply assembly preamp Amplifier

AlU27 is applied to the Focus Correction

(A1U31) and the Intensity Amplifier A4Q4-

(A4). The output of the

A4Q6. The output of emitter follower AlQ4 is applied to amplifier

A1Q5 and AlQ6 where the signal amplitude is raised to the required level to control the operating potential of the CRT control grid. Intensity Amplifier gain is stabilized by the negative feedback path through

AlR11. AlCR5 and AlCR6 provide protection

for the Intensity Amplifier output stage against arcs

and transients.

Figure

V PRtStNl ANAllll, VUllA1.I

V

PR[VlOlJS ANALOG VOllAbf 01 l'l~lVlI!ll~ i I V RAMP HAMP AMPIITIIOF hFNfHATll! l%Y A1111h K

GAINS OtltRMlNEO ADJUSTMENT IAlRZOi AND CIRCUIT GAINS

/1-b

8-10.

Simplified Block Diagram of Analog Multiplier.

I

Ill

RY

STROKI LLNLTH

YHI\INT i lOORlllNATF

llllRlllNAlt

INTENSITY CONTROLLER.

The Intensity Controller converts digital line writing and intensity information to analog voltages for use by the Intensity Amplifier. The only other input to the Intensity Controller is the gate pulse for beam blanking generated by current controlled oscillator in

AlU25 generates two

AlU26. The

chopping frequencies: one for short dash line type and the other for long dash line type.

X-Y AMPLIFIERS.

They amplify the Analog Multiplier horizontal and vertical deflection plates.

Component Locator for 3A

The X and Y amplifiers areidentical.

X

and Y analog coordinates from the

(AIU7, AllJ19) to drive the CRT

Slice both

is

shown on

Service Sheet

38 & 3C.

FOCUS CORRECTION AMPLIFIER.

The Focus Correction circuit provides an optimum focused display over the entire viewing area. The amplifier uses three inputs for proper focus correction voltage generation. A voltage proportional to the beam position is coupled from the X and Y preamps to The

Z

axis correction voltage is fed from the Z axis preamp to the output of Balance is adjusted by

AIR142 and AlR135, the Y Gain

and Balance is adjusted by

AlU31L) and AlU31 A.

AlU31B. The X Gain and

AIR145 and AlR138. The

focus correction signal is applied to Focus Output

amplifier

A4Ql-A4Q3. The Output amplifier operates

identical to the Intensity Amplifier.

amplifiers are identical, only the X amplifier will be

described. The

X

amplifier consits of a preamplifier (AlU29) and an output amplifier (AlQ7-AlQ12). The differential output from preamp two identical amplifiers

AlU29 is applied to

AlQ7-AlQ9 and AlQ10-

AlQ12. The signal voltage is raised by these two

amplifiers to the required level to drive the horizontal

deflection plates. The gain of the output amplifier is

stabilized by the negative feedback path through

AIR92 and AlR101. The gain and balance of the

X

amplifier is set by AIR87 and AIR82 respectively.

Service

ANALOG BOA93

POWER 31STRIBUTION

Model

1349A

Z-AXIS AMPLIFIER.

The operating potential between

the CRT grid and cathode is controlled by the Z-Axis

amplifier output level. The amplifier consists of the

Z-

Axis preamp located on the Stroke Generator assembly

(Al) and the Intensity Amplifier located on the High Voltage Power Supply assembly preamp Amplifier

AlU27 is applied to the Focus Correction

(AlU31) and the Intensity Amplifier A4Q4-

(A4). The output of the

A4Q6. The output of emitter follower A1Q4 is applied to amplifier

A1Q5 and A1Q6 where the signal amplitude is raised to the required level to control the operating potential of the CRT control grid. Intensity Amplifier

gain is stabilized by the negative feedback path

through AlR11. AlCR5 and AlCR6 provide protection

for the Intensity Amplifier output stage against arcs and transients.

FOCUS CORRECTION AMPLIFIER.

The Focus Correction circuit provides an optimum focused display over the entire viewing area. The amplifier uses three inputs for proper focus correction voltage generation. A

voltage proportional to the beam position is coupled

X

from the

and Y preamps to AlU31D and AlU31A. The Z axis correction voltage is fed from the Z axis preamp to the output of Balance is adjusted by and Balance is adjusted by

AlU31B. The X Gain and

AIR142 and AlR135, the Y Gain

AIR145 and AlR138. The focus correction signal is applied to Focus Output amplifier

A4Q1-A4Q3. The Output amplifier operates

identical to the Intensity Amplifier.

AND

C10

PROBLEM IN

GENERhTOR

DIGITAL ED.

RAMP ON

DIGITAL

AND CRT

9EDLACE

IC

QAPP

Figure

8-12.

Analog

X-

Y-Z

Troubleshooting Flow Chart.

Model 1349A/D

---------------------I_----------______-------------------------"-----------~----___

P/O

RI

FWFLOG

I

X-Y-Z

BOARD

$

$*317112+/~,~v

DAC

+5.8V

GAIN

Y

k

>

RIX.

F-1

POWER

Service

IC DEVICE

POWER CONNECT

IONS

bAC

v

GAIN

Y

I

NOTES:

1.

I

1

f

RUX.

- -

/

I

-

Y WTPUT

-'-

I

,'

d

1

PARTS ON THI S SCHEMATIC

"

-BV

GHTES WE SYMBOLIZED ACCORDING

TO CIRCUIT FIMCTION.

2.

UNLESS OTHERWISE NOTED:

RESISTANCE IN CRPRCITANCE IN PICOFRRADS INWCTRNCE IN MICROHENRIES

3.

UNLESS OTHERWISE NOTED:

LOGIC LEVELS

+2V

TO +5V-LOGIC'I

EV TO +B.BV-LOGIC'Em-L

@-i%

RRE

TTL:

-ti

1

P/O

X-Y-Z

Amp/Stroke Generator

Figure

8-13.

8-15

AUXILIARY X-OUTPUT (A1

J5)

1349A

AUXILIARY X-OUTPUT (A1

J5)

1349D

DEFLECTION FACTOR = O.2V/DIV

SWEEP = 0.2rns/DIV

MEASUREMENT CONDITIONS:

OBTAIN

1349A/D PRIMARY

TEST PATTERN

DEFLECTION FACTOR = O.ZV/DIV

SWEEP = 1 rns/DIV

X-Y-Z

ANALOG

UJO

X

DACS

AUXILIARY Y-OUTPUT

DEFLECTION FACTOR = 0.2V/DIV

(A1 J41 1349A

SWEEP = 1 rns/DIV

AUXILIARY Y-OUTPUT (A1

J~I

1349D

DEFLECTION FACTOR = 0.2V/DIV

SWEEP = 0.2ms/DIV

1

I I

I

X-Y-Z

ANALOG

Model

Service

REF

I

""pFf;~

DESlG

C 1 H-2 C2 C3 H-7 C4 H -6 C5 C6 H -5 C7

C8 H-5 C9 C10 J-3 C11 H-5 C12

C13 D-3

C14 C15 C-4 C16 C-3

C17 8-3

C18 8-3

C19 8-4

C20 8-4

C2 1 C-4

C2 2 D-4

C23 D-4

C24 D-5

C2 5 C-5

C26 C-5

C2 7

C28 8-5

C29 B-6

C30 B-6

C3 1 C32 E-5 C33 D-6 C34 C35 H-6 C3 6 8-2 C3 7 C38 C-7 C39 C40 B-6 C4 1 D-2 C42 C43 E-3 C44 C45 H-3 C46 H-5 C4 7 H-5 C48 H-2 C49 H-6 C50 C-6 C5 1

C5 2 E-6 C53 E-6 C54 E-5 C55

I

I I

CR 1 CR2 G-4

CR3 CR4 CR5

CR6 G-5

CR7

CR8 G-5

CR9 J-5

CRlO J-5

CRll

CR12

CR13 8-3

1

CR14 8-4

H-2

E-2 H

-3

J-3

D-3 D-4

8-5

C-6

G-3

C-2 F-2

F-2 H-7

C-4

E-3 G -4

G-4 G-4 G-5

G-5

A-3 8-3

DESlG

GRID

LOC

R93 A~3 R94 8-3 R95 A~3 R96 8-3 R97 8-4 R98 A-4

R99

RlOO 8-4 A-4 Rl R102 C-4 R103 C-4 R104 D-4 R105 D~4 R106 D-4 R107 R108 D~4 8109 D-5 RllO D-5 Rlll D-5 R112 C-5 R113 R114 C-5

R115

R1 16 A-5 R117 R118 A-5

R119

R120 8-5

R121 A-6

R122

R124

13127 D-5

I

01 C-4

R123 A-6 R125 C-6

R126 C-6 R128 D-5

R129 D-5 R130 D-5 R131 R132 D-5 R133 D-6 R134 E-6 R135 E-7 R136 F-7 R137 D-7 R138 D-7 R139 A140 E-7 R141 D-7 R142 E-7 R143 E-7 R144 R145 D-7 R146 D-6 R147 R148 C-6 R149 C-7 R150 R151 H-3 R152 H-3 R153 R154 H-5 R155 R156 C-2 R157 R158 8-7 R159 E-3 R160 D-2

REF

DESlG

R161 F~2 R162 F-2 R163 R164 R165 R166 R167 R168 R169 F-7 R170 R171

R172

R173 E~7

R174 E-7

R175

D~4

R176 R177 R178

R179

TP2 F-5

C~5

TP9 TPlO D-6

C-5

TPll E

u1

8-5

U2 U3 U4 J-2

8-5

U

U6 H~2

U7

8-6

U8 H U9 H -4

C-6

U10 U11 E-4 U12 F-4

U14 U13 L-6 U15 J-7

E-6

C-7

D-6

C-7

G-5 E-6 8-7

5 H-2

1349A/I)

GRID

LOC

E-5 E-4 E-3 E-4 E-3

E-4 F-7

F~7

D-7

D 7 D-7 E-7 E-7 D-7

D-7

7 L~3 K-3

J~3

G-3

-3

G-3

K-7

Figure

8-14.

Analog X-Y-Z Component Locator.

Model

1349A/D

D&ita/t'y Remastemd

......................................................................................................

P/O

Rl

RJROG

X-Y-Z

r

I

JB

by

ArtckMedia

BOFRD

CURRENT SOURCE

@

7W-ZW

+5v

CURRENT SOURCE

-15V

-OV -3.1V

WRITING

SPEED

RAMP GENERATOR

IC DEVICE POWER CONNECTIONS

~P/O

I

@B2@

P'O W4

I

21

NOTES

:

1.

CRTES

RRE

TO CIRNIT FUNCTION.

MESS OTHERWISE NOTED:

2. RESISTfflCE IN CFPRCITfflCE IN PICOFFIRRDS INDUCTRNCE IN MICROHENRIES

3. URESS OTHERWISE NOTED: LOGIC LEVELS

t2V TO +SV-LOGIC'I

EV TO +8. BV-LOGIC"8:",L

SYMBOCIZED RCCORDING

Service

&US

WE TTL:

PARTS

C6-l CR1-I J3,6,7 03-6 R52-88 LB,9,28,21,24-26

P/O

l

1

ON

A1

P/O

THIS SCHEMATIC

CHASS

P/O P/O W4

X-

Y-Z

Stroke Generator

W3

Figure

IS

8-15.

8-17

Digitally Remashmd

by

Artckhkdia

O

?302-ZLX)6

Service

OVDC

AUXILIARY

DEFLECTION FACTOR = 0.2V/DIV

2-OUTPUT iAl J3i 1349A

SWEEP = 1

ms/DIV

AUXILIARY

DEFLECTION FACTOR = 0.2V/DIV

2-OUTPUT 1AlJ3i 1349D

SWEEP = 0 2ms/DIV

I I

CYT

u

I

MEASUREMENT CONDITIONS:

OBTAIN

1349A/D PRIMARY

TEST PATTERN

1

I-

A

B

C

D

X-Y-Z

E

ANALOG

F

I / I

G

H

X

DACS

J

K

Service

Model

1349A

REF I Gf&D

DESlG DESlG

C53 C54 C5 5

CRl CR2 CR3 CR4 CR5

CR6

CR7

CR8 CR9 CRlO

CRll

CR12

CR13

CR14

1

REF

1

DESIG

R24 E.2 R25 F.3 R26 R27 H-3 R28 H-3

R29

R30 H-6

R3 1 G.7

R32 R33 R34 G-6 G-6

R35 H-7 R36 H-6 R37 H-7 R38 G-6 R39 G-5 R40 G-6

R4 1 F-7

R42 F-7 R43 R44 R45 F-6 R46 R47 F-6 R4 8 F-6

R49 E-4

R50 E-4

R5 1 E-4 R52 G-4

R53 F~4

R54 G-4

R55 G-4 R56 R57 F-4

R58 F-4

R59

R60 F-4

R6 1 G-5

R62 F-5

R63 G-5 R64 G-4

R65 F-5

R66 F-5

R67 R68 F-5

R69 F-5

R70

R71 J-5

R72 J-5

R73 J-5

R74 J-5

R75 H-5

R76 H-4

R77 H-5

R78 J-5

R79 E-5

R80 E-6

R8 1

R82

R83 D-3

R84 D-3

R85

R86 D-4

R87 D-4

R88 D-4

R89

R90 C-3

R9

R92 C-3

LOC

F-3

H-6

G-7

F-7 H-5

F-6

F-3

F-4

F-5

K-5

D-3 D-3

D-3

C-3

1 C-3

GRlD

REF

GRlD

REF

DESIG

R93 A-3 R94 R95 A-3 R96 R97 R98 A-4 R99 RlOO RlOl C-4

R102 R103 C-4 C-4 R104 D-4

R105 R106 D-4 R107 D-4

R108 D-4

R109 D-5

RllO D-5 Rl 11 0-5 R1 12 C~5 R113 C-5 Rl14 C-5 R1 15 C-5

R1 16 A-5 R117

R1 18 A-5

R1 19 8-5

R120 B~5

R121 A-6

R122 8-6

R123 A-6

R124 C-6

R125 C-6

R126 C-6

R127 D-5

R128

R129 0-5

R130 D-5

R131 E-6

R132

R133 D-6

R134 E-6

R135 E-7

R136 F-7

R137 0-7

R138 D-7

R139

R140 E-7

R141 D-7

13142 E-7

R143 E-7

R144 D-6

R145 D-7

R146 D-6

R147 C-7

R148 C-6

R149

R150 C-7

R151 H-3

R152 H-3

A153 G-5

R154 H-5 R155 E-6 R156 C-2 R157

R158 8-7 R159 E-3 R160 D-2

LOC

8-3 8-3

8-4 8-4

A-4

D-4

8-5

D-5

0-5

C-7

C~7

8-7

,

REF

DESIG

R161 F-2 R162 F-2 R163 E-5 R164 E-4 R165 E-3 R166 E-4 R167 E-3

R168 E-4

R169 F-7

R170 R171

R172 D~7 R173 E-7 R174 R175 D~7

R176 D-7 R177 E-7

R178

R179 D-7 TP2 Tpg D-7 TPlO D-6 TPl 1 E-7 U1 U2 K-3 U3

U4 J-2 U5 H-2

U6 H-2

U7 G-3 U8

U9 H -4

U10 G-3

U1 1 E-4

U12

U13 L-6

U14

U15 J-7

U16 J-6

U17 U18 H -6

U19 G-6 U20 H-5

U21

U22 G-7

U23

U24 E-6

U25 J-5

U26 H-4

U27 E-5

U28 D-5

U29 D-3

U30 F-1

U31 E-7

U32 E-7

U33

VR1 E-1

VR2 C~3

VR3 C-5

VR4 C-2

VR5 E-3

VR6

VR7

VR8 G-2

VR9 G-2

VRlO F-6

VRl 1 F-6

GRlD

LOC

F~7 F-7

E-7

E-7 F~5

L-3 J-3

H-3

F-4 K-7

H~7

H-5 E-5

8-8

E~3 F-6

Figure

8-1

6.

Analog

X-

Y-Z

Component Locator

Model

1349A/D

X-POSITION

OPT1

ON

-------------------~~~~~~-~~~~C_______,__---~~~~~~~~~_~_~-----------------

P/O

R1

FhFLOG

X-Y-Z

I

1

i

+7v

I

1

:

"

R1.3 511

i

iJJl

3(

2

1'

I I

I

BOARD

X

PREAMP

14

11

9

12 TO 13

C+

tl

.

+IEV

X

OUTPUT AMPLIFIER

CRT

'X'

DEFL.

PLATES

-

+law

~98

+IEV

CENTER

RSTIG

Y-POSITION

OPTION

*;En

OPTION

fi

Q8

Q9

B.1W 0.1LF

TO

CRT

DEFL.

3

2

1

'Y'

PLRTES

!

I-----____~~~-~_~~__________~~____________------_-,,----,--,,-,,-,,-,,-,------,---

I~ENSIN

INrENSIM

FOCUS

CORfECTION

!

--I

Service

P/O

X-Y-Z

Amp/Stroke Generator

Figure

8-1

8-19

7.

8-24.

SERVICE SHEET

4,

THEORY OF

OPERATION.

The purpose of the Low Voltage Power Supply is to provide the

+105V for the the Intensity Amplifier, and the High Voltage Power Supply. The supply consists of only one primary circuit, the

+105V supply. All other required operating

voltages must be provided by an external supply. The

+

105V power supply is a switching supply consisting of A3U1, A3Ql,A3Q2 and A3Tl. A3U1 contains all the functions necessary for current limiting; regulating

and switching the power transistors A3C5 and A3R4 determine the switching frequency of the oscillator of voltage.

A3CR3 and A3CR4 make up the rectifier.

A3U1. A3T1 steps up the switching

Filtering is accomplished by adjusts the + 105V supply.

X-Y

Deflection Amplifiers,

A3Q1 and A3Q2.

A3L2 and A3C7. A3R11

POWER PLUG

TO

Il-V

TO

TO ANALOG BOARD

BOARO

vrcroR

BOARD

DISTRIBUTION

ATTACH

POWER

TOP

OSCILLATOR SIGNAL AT A3111 PIN

BOTTOM (OLLFCTOR

OF

A301

PLUG TO ANALOG

+

SUPPLY UP

-&7

r-

END

Li

CHECKS ON H-V BOARO

VECTOR BOARO

ANALOG BOARO

TO ISOLATE

PROBLEM TO A

INVERTER

SUPPLY UP

SUPPLY BOARD

7

VOLTAGE ON

EXTERNAL

POWER

POWER DISTRIBUTION POWER DISTRIBUTION TO VECTOR PROC BO

GO TO ANALOG

ED.

POWER DISTRIBUTION

OR

SHORT TEST

ON

HV

BOARD

REPLACE

OR ANALOG

Figure

8-18.

Low Voltage Power Supply Troubleshooting Flow Chart.

Dgitally Remcuhmd by Artekhiedia

@

7mZ-ZtW6

Service

Model

1

HECKS ON

:TOR BOARD iLOG BOARD

I

ISOLATE

IBLCM TO A

CHECK POWER EXTFRNAL

CONNECTOR SUPPLY

GO TO H-V BD.

POWER DISTRIBUTION

MAIN POWER

DISTRIBUTION

e

TTACHE

POWER

v

GO TO ANALOG BD

POWER OISTRIBUTION

ATTACH

POWER

PLUG TO ANALOG

TO VECTOR PROC BD.

POWER DISTRIBUTION

DO RESISTANCE

OR

SHORT TEST

ON

HV

DR ANALOG

BOARD

0

0-

0

C7

01 349 66504

0

OREV

DESlG

C 1 C2 C3 E-4

C4 C-4

C5 C-4

C6 C-3 C7 C-2 CR CR2 C-4 CR3 CR4 C-3 F1 E-3 F2 F3 0-3

H

J J2 J3 E-4 J4 J5 E-3

L1 D-3

L2

LOU

0

POWER

REF

GRlD

LOC

1

1 E-2

t105V AOJ

VOLTAGE

SUPPLY

DESlG

E-3

L3

MP1 8-3

8-4

Q1 A-4 Q2 A-4

R1 R2 R3 C-4

8-4

R4 8-4 R5 C-4 R6 8-4

8-3

R7 8-4 R8 8-3

D-3

R9 R10 D-4 R11 C-4

B-3

T1 8-3 TPl

E-3

TP2 D-4 TP3 D-4

E-4

TP4 D-4 U1 C-4

C-3

0 0

TP3 TP2

+5V -15V +15V

0

GRlD

REF

LOC

D-3

8-4 8-4

C-4

E

-4

0

J1

TPI

0

HV

BO~R

-

VPC

0

Figure

8-18.

Low Voltage Power Supply Troubleshooting Flow Chart.

Figure

8-19.

Low Voltage Power Supply Component Locator.

Model

1349A/D

D@itally Renmstemd

by

ArtrkMcdia

@

?m2-2&%

I

L~b+,

0.1LF

+5v

REF.

I"-"-"-

I

&

I

------,

~1

R4

HIM VOLTRGE

R?

VECTOR

PROCESSOR

5

19

BD.

ED.

I

!

I

IC DNICE

POWER

CONNECTIONS

NOTES

:

1.

GATES

IT!€

TO CIRCUIT FMCTION.

2. MESS OTHERWISE NOTED: RESISTRJCE IN CRPACITRJCE IN PICOFFRADS

INDUCTFNCE IN MICROHPRIES

3. MESS OTHERWISE NOTED:

LOGIC

+2V TO +5V-LOGICW1

BV

SYMBOLIZED RCCORDING

CHS

Lwas

HE

TTL:

TO +B.BV=LOCIC'a::L

Service

PARTS

C1-7 U1 CR1-4 F1-3 J1-5 L1-3 01,2 R1-11 TI TP1-4

J

A3

ON

P/O A1

J8

J

SERVI CE

1

SHEET

Low Voltage Power Supply

THIS SCHEMATIC

P/O A2

55

P/O A4

1

P/O A5

35

C1349685RlJW84

4

Figure

8-20.

8-21

HP 1349A, 1349 D Operating And Service Manual

Specifications and Main Features

Frequently Asked Questions

User Manual

Table of Contents Model 1349A/D

CONTENTS

LIST OF ILLUSTRATIONS

General Information

Installation

Operation

Write Command Timing

TEXT

Adjustments

Vector Closure

Replaceable Parts

SERVICE