HOLT HI-1590, MIL-STD-1553B User Manual

AN-1590 Rev. B Holt Integrated Circuits

HI-1590 1553B Dual Transceiver

with SPI Amplitude Control

Evaluation Board

April 2018

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REVISION HISTORY

Revision

Date

Description of Change

AN-1590 Rev. New

10-10-14

Initial Release

Rev. A

03-14-17

Reformat document to newer template.
Update schematic to correct error in wiring of J1, Bus B

connector.
Remove obsolete section on Freescale Development

Tools. New Instructions included separately with Kit.

Rev. B

04-09-18

Update schematic and BOM to include TVS hot switching
protection diodes.

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INTRODUCTION

The Holt HI-1590 Evaluation Board demonstrates features of the HI-1590 MIL-STD-1553B dual
transceiver IC. This device transmits and receives Manchester encoded 20 bit MIL-STD-1553B
serial data suitable bus transformers. Transceiver drive amplitude can be digitally adjusted from
0 to 26 Vp-p through the SPI interface. Adjustment can also be made with a 0 to 3.3VDC analog
control signal; a potentiometer is provided for this. Amplitude controls for both buses are
ganged together. In SPI mode, a low range option allows for more accurate amplitude
adjustment from 0 to 4.9 Vp-p. The board runs from a single 3.3V ±5% supply voltage. A MIL­STD-1553B protocol message generator and receiver are included on the board to demonstrate
the HI-1590 features. The EVM (Evaluation Module) includes a microcontroller that generates
the SPI messages, the interface is through a terminal emulator connected to a PC through the
USB interface. The EVM is shown in the picture below:

Fig 1 – HI-1590 Evaluation Board

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This guide summarizes how to set up and running quickly.

KIT CONTENTS

 This User Guide
 HI-1590 Evaluation Board
 Mini USB Serial Cable.

Board Block Diagram

MC9S12XD

16 Bit MCU

SPI

USB

DIP SW

(4)

DIP SW (6)

RESET Button

3.3V

Supply

RESET

Transceiver A

DB2791

TRANSFORMER

HI-1590

BUSA

Transceiver B

DB2791

TRANSFORMER

BUSB

Message A

1553B

Message

Generator

Message B

RUN

EEPROM

1

EEPROM

2

BC RT

DIP SW

(5)

DIP SW

(5)

ANALOG CONTROL

VCONT

ACTIVE

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LED Functions

REF

NAME

DEFAULT

DESCRIPTION

LED1

POWER

ON

Indicated when 3.3V power is present

LED2

ACTIVE

OFF

Flashes at the start of a 1553 message transmit sequence

Link Jumper Functions

REF

NAME

DEFAULT

DESCRIPTION

J4

LINK FOR POT

OFF

Link to use potentiometer R3 to adjust output amplitude

J5

LINK FOR SPI

ON

Link to use SPI to adjust output amplitude

J8

HOLD IN RESET

OFF

Holds the microcontroller in reset, for instance while using
an external SPI interface.

J12

BC/RT

BC

Connects memory for BC or RT messages

Wired Jumper Functions (JP)

REF

NAME

DEFAULT

DESCRIPTION

JP1

ON

Link to use on-board 70 Ω load on Bus B output

JP8

ON

Link to use on-board 70 Ω load on Bus A output

JP2, 3, 4, 5

JP4, 5 ON

Option links for transformer variants, Bus B

JP6, 7, 9, 10

JP6, 9 ON

Option links for transformer variants, Bus A

JP11

ON

Connects Bus A negative output to ground

JP12

ON

Connects Bus B negative output to ground

JP13-16

ON

Cut if using an external 1553 message generator

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Switch Functions

REF

NAME

DEFAULT

DESCRIPTION

SW1/1

VSEL

ON

Selects output control of amplitude range, using SPI.

ON = SPI control 0-24V, Low = SPI, 0-2.4V

SW1/2

TXAINH

OFF

Inhibits the transmitter output of transceiver A

SW1/3

TXBINH

OFF

Inhibits the transmitter output of transceiver B

SW1/4

RXAEN

ON

Enables the receiver of transceiver A

SW1/5

RXBEN

ON

Enables the receiver of transceiver B

SW3

RUN

Press = Starts 1553 messages

SW4

STOP

Press = Stops 1553 messages

SW5/1-5

AUTOEN etc

01101

Message loading control (leave in default)

SW6/1-6

RT1A4:0, RT1AP

000000

RT Address (only used if RT mode available)

SW7

RESET

Press to reset the microcontroller and control software

Connector Functions

REF

NAME

DESCRIPTION

J1

BUSB

1553 Bus A connection (secondary of transformer)

J2

BUSA

1553 Bus B connection (secondary of transformer)

J3/ 1,2

RXA/nRXA

Differential Logic signal from HI-1590 Bus A receive data pins

J3/ 3,4

RXB/nRXB

Differential Logic signal from HI-1590 Bus B receive data pins

J6

Not fitted

SPI interface for the EEPROMs

J7

Data connector to load 1553 messages

J9

USB

Connect to PC to send SPI commands from terminal emulator

J10

External SPI

Use to connect an external SPI for HI-1590 control

J11

Debug Header

Used for downloading microcontroller firmware

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Test Point Functions

REF

NAME

DESCRIPTION

TP1/TP2

BUSB

1553 Bus B connection (secondary of transformer)

TP4/TP6

BUSA

1553 Bus A connection (secondary of transformer)

TP3, 8,9,10

GND

Board Ground

TP5

VCONT

Connection to measure of input analog amplitude control, note that
J5 should be open. J4 should be open when inputting a voltage.

TP6

UPDATE

Test point for Update signal indicates when MIL-STD-1553B word has
been received

TP7

VSEL

This pin monitors voltage on the VSEL pin control on the output
amplitude.

High = SPI control 0-24V

Float = Analog Control

Low = SPI Control, 0-5.1V

TP3, 8, 9, 10

GND

Board Ground

TP11

3V3

VLOGIC Supply, connect power supply here

TP21

VDD

VLOGIC after supply filter

TP13

IRQ

INTERRUPT

TP14

ACTIVE

Produces pulse just before 1553 message starts, can be used to
trigger scope.

TP17/18

TXDO/RXDO

USB data.

TXA, nTXA

Connect external 1553 data here if not using the on board message
generator for BUSA. Need to cut links TXA and nTXA.

TXB, nTXB

Connect external 1553 data here if not using the on board message
generator for BUSB. Need to cut links TXB and nTXB.

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Using the Board

1. Check all the link and switch positions comply with the tables above. Connect a 3.3V, 1A

supply to the 3V3 test point. A 1A supply current is required at maximum amplitude. Verify
the ‘Power On’ LED is lit; the board should take about 160mA, when not sending 1553
messages. Connect the mini USB lead to your PC and then to the HI-1590 board. Your PC
should automatically install the driver, if not the driver FT231 can be installed from the Holt
CD. If you have problems installing the driver please refer to the FTDI website below:

http://www.ftdichip.com/Documents/InstallGuides.htm

2. All control of the HI-1590 is done through the ‘Control Console’. This requires use of a

terminal emulator for communication, such as HyperTerminal or Tera Term. Tera Term is
used with Windows versions of Vista or later and is supplied on the Holt CD.

To install Tera Term:

Use the Tera Term installer program teraterm.exe from the Holt CD. Accept the license
agreement stating redistribution is permitted provided that copyright notice is retained.
The notice can be displayed from the Tera Term window by clicking Help then clicking
About Tera Term. Continuing to install…

 Accept the default install destination and click Next.
 At the Select Components screen, unselect all options except Additional Plugin =

TTXResizeMenu and click Next.

 Select the installed language, then click Next.
 Accept the default Start Menu folder, then click Next.
 Select any desired shortcuts, then click Next.
 At the Ready to Install screen, click Install.

Run the Tera Term program. At the New Connection screen, select Serial and choose the
selected USB serial COM port, you can find the correct COM port using Device Manager.

3. Click Setup then Serial Port to open the serial port setup window.

Choose the COM port for the mini-USB connection and then select the following settings:
Baud Rate: 115200, Data: 8 bits, Parity: none, Stop: 1 bit, Flow Control: none

4. The evaluation software is preprogrammed into the microcontroller and was loaded at the

Holt Applications Support Center. On pressing the ‘RESET MICRO’ button on the board, the
software displays a message on the monitor, as shown below.

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Note: If under any circumstances the software locks up, use the ‘RESET’ key to restart.

5. Press the ‘A’ key to set the output amplitude. Enter the maximum amplitude of ‘FF’ as shown

below.

6. Connect an oscilloscope to the ABUS and BBUS terminal, with the grounds going to nABUS

and nBBUS respectively. Grounding the negative bus terminals provides differential voltage
measurements using just one scope probe per bus. Trigger the scope from the ACTIVE test
point. Press the STOP button, this loads the 1553 messages. Press the RUN button to start
message transmission. The messages will be transmitted alternately on the A and B buses.
Check that a 1553 signal of about 24V p-p amplitude is seen on one of the buses, as shown in
Fig 2 below. Every 5 seconds it will switch to the other bus and during transmission you
should see the 3.3V supply current go up to about 1A.

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10 Holt Integrated Circuits

Fig 2: Yellow is BUSA output, green is BUSB, Red is the ACTIVE trigger signal

7. The HI-1590 can also read back data from the DAC register but only after a value has been

written into the register. Press the ‘D’ key, type in ‘80’, the previous setting of ‘FF’ should be

read out as shown below. Observe the amplitude on the scope; this should be reduced by
half, or approximately 12V p-p.

8. The SPI software has a ramp function, this ramps the amplitude on both outputs up to

maximum and back down to zero in a ‘sawtooth’ function. Press the ‘Y’ button and observe

the amplitude rising and falling. Whilst in this mode switch the VSEL switch to ‘Low’, this
selects the low amplitude, you should see the oscilloscope trace go down to one fifth
maximum amplitude or about 5V.

9. As well as SPI control of amplitude through a DAC, the HI-1590 has the option of using an

analog voltage of 0 to 3.3VDC to control the amplitude. To use this feature move the jumper

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11 Holt Integrated Circuits

link from J5 to J4. Now amplitude is controlled by potentiometer R3, turn fully clockwise for
maximum amplitude. An external voltage can be used by removing the J4 jumper and
applying the voltage to pin 2 of J4. The range is 0 to VLOGIC (3.3V nominal)

10. To test HI-1590 BusA and BusB receivers, RXENA and/or RXENB switches should be in the

high position. Any 1553B compliant data is now output on the relevant RXA/nRXA and
RXB/nRXB pins of J3. An example is shown in Fig 3 below:

Fig 3: Yellow is BUSA output, green is RXA output, Red is the ACTIVE trigger signal

11. If isolation of the 1553B outputs is required from the board ground the soldered jumpers

JP11 and JP12 should be opened.

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Appendix 1 Demo software overview

This overview flow chart shows the demo program at a glance.

Display Control

Menu

Valid function

selected?

Main.c Start

Initialize global variables + arrays

Initialize Peripherals

Initialize Interrupts

Initialize Timer

Configure MCU SPI bus

Configure UART

Set SPI clock rate

Display console header

N

Y

Scan Keyboard

for Menu Selection

Case D

Y

N

SPI byte write to

amplitude register

and read back

previous setting

Case A

Y

N

SPI byte write to

amplitude register

Case Y

Y

N

Enter Ramp

Amplitude Loop

At reset the program initializes the variables and configures the peripherals including the SPI block,
Timers, Interrupts and serial communication UART. The program then enters Serial Command mode,
this is an endless loop that continuously samples the keyboard. Once a key is pressed the

The program enters a case function that selects which function to call.

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There is one write function that just writes a byte to the amplitude control register, a read function that
writes data to the amplitude register whilst simultaneously reading back the previous byte. The third
function is a loop that ramps up the amplitude to maximum and then ramps down, taking about 4 secs
to complete this cycle. This last function is an endless loop that is interrupted by pressing any key.

MCU Clock and SPI Frequencies

The Freescale MC9S12XDT512 (MCU) on the main board uses a 4MHz crystal for operation and the built­in PLL multiplies this by 20 to achieve an 80MHz system clock. This system clock is divided by two for a
40MHz Bus Clock, used internally for the MCU peripherals.

The PLL is programmed to multiply by 20 by this line of code in the Peripherals.c module:

SYNR = 9; // 80MHz PLL system clock

The SPI frequency is set at the beginning of the main.c module, by this code :
SPI0BR = 0x00; // 20MHz SPI
// SPI0BR = 0x01; // 10MHz SPI
// SPI0BR = 0x02; // 5MHz SPI

The speeds that are not used are commented out. In this case the 10MHz and 5MHz are commented
out, so the 20MHz option is set. The maximum SPI frequency for the HI-1590 is 20MHz, the code can be
altered to set a lower rate of 10MHz or 5MHz, if desired.

Timing and Delay Functions

These functions provide the basic timing for the program. The Delay100us() can be used anywhere an
accurate delay is needed in the program .

The global g_count100us variable is decremented at the 100us timer rate. This variable is used by a
general delay function which can be called with a specified number of delay intervals. The g_count100us
variable is a 16-bit integer so the delay ranges from 100us to 6.5536 seconds.

// -------------------------------------­// General timer tick 100us for delays
// -------------------------------------­void Delay100us(unsigned int delay){
g_count100us=delay;
while(g_count100us);

}

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SPI Driver Functions

Only one SPI function is used, trx8bits_8, shown the figure below:

SPI Read/Write Function

Return rxbyte

Transmit byte whilst

clocking in receive data

Received

Byte ?

No

Yes

Txrx8bits_8

Clear SPI status reg

Load SPI data reg with cmd

Only single-byte transfers are used on the HI-1590, this HI-1590 SPI driver function is included in the
Driver.c module and its Driver.h header file. The MCU slave select pin SSO (not nCS) is connected to the
HI-1590 nCS pin.

Uart.c Serial Port

The drivers supporting the USB serial port (console) are contained in this module. Some function drivers
allow messages to be sent and received on the UART. This is useful to log status or data messages on
HyperTerminal or any other terminal program. It currently uses polling to determine when the data
receive or transmit registers can be read or written.

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15 Holt Integrated Circuits

HI-1590 demo Codewarrior Software Project

The software project is built with Freescale’s CodeWarrior version 5.9.0 using the free limited 32K

version. The current code size of the demo is approximately 10K. The main functions are in main.c and
the low level drivers are in the driver.c file. The software project “HI-1590 Demo x_x” will normally be
distributed in a zip file on a CD-ROM with the same name. To develop, debug and download this

software into the board, a PE Micro “USB Multilink Interface” debug cable is necessary. It is not
provided in this kit. To purchase this cable, go to the PE Micro website or purchase it from DigiKey. See

the links at the end of this document.

Project Files

Source Files
main.c Main code

Driver.C SPI low-level driver for the HI-1590
peripherals.c Micro GPIO, PLL frequency and SPI configuration
Uart.c Low-level UART drivers
datapage.c Freescale IDE support file

Include Files

main.h
Driver.h
peripherals.h
Uart.h
common.h Common defines for the project
derivative.h Freescale IDE support file
mc9s12xdt512.h Freescale IDE target part support file

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CodeWarrior and Software Project Installation:

1. Download and install the CodeWarrior IDE from the Freescale website. The download links are

provided below.

2. Unzip the HI-1590 x_x zip file into the directory you plan to use for your project.

3. Navigate to the HI-1590 project folder and double click the HI-1590 Demo x_x.mcp project file to

launch this project with CodeWarrior. The IDE should open with the project files on the left side
of the window, as shown below:

4. Plug the USB Multilink 6-pin debug cable into the Debug Header and power up the board with

3.3V.

5. Click the green arrow on the screen to ‘build’ the Project . The project should build without

errors. You may receive a dead assignment warning if for example some defines are set to a zero
value. Once built, it should launch the debugger and download to the board.

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17 Holt Integrated Circuits

6. The first time you download, you may need to configure the debugger for the USB Multilink

cable. After downloading is complete the debugger window should be displayed with the first
line in main.c highlighted. Press the green horizontal arrow button to run the program. Since the
program has been loaded you can power down the board and re power the board and the
program should run automatically without the debugger. Holt HI-1590 project loaded with
CodeWarrior 5.9.0.

PCB P/N: HV001
Rev. B

Bill of Materials

HI-1590 Variable Amplitude Dual 1553 Transceiver Evaluation Board

March 15, 2018

Item Qty Description Reference DigiKey Mfr P/N

1 1 PCB, Bare, Eval Board

Jet Tech 37850

2 19

Capacitor, Cer 0.1uF 20% 50V Z5U 0805

C1,C3,C6,C7,C8,C10­C13,C15,C17- C21,C23-C26

399-1176-1-ND

Kemet C0805C104M5UACTU

3 6 Capacitor, Cer 220nF 10% 50V X7R 0805 C29,C30,C34,C37,C38,C39 399-3491-1-ND

Kemet C0805C224K5RACTU

4 2 Capacitor, Cer 10pF 50V 5% NPO 0805

C28,C31

399-1108-1-ND Kemet C0805C100J5GACTU

5 2 Capacitor, Cer 47pF 50V 5% NPO 0805

C32,C33

399-1117-1-ND Kemet C0805C470J5GACTU

6 1 Capacitor, Cer 470pF 50V 5% X7R 0805

C36

399-1133-1-ND Kemet C0805C471J5GACTU

7 2

Capacitor, Cer 0.01uF 20% 50V 7XR 0805 C27,C35

399-1160-1-ND

Kemet C0805C103M5RACTU

8 1

Capacitor, Cer 4.7uF 10% 6.3V X5R 0805 C16

399-3134-1-ND

Kemet C0805C475K9PACTU

9 1

Capacitor, Cer 4.7uF 10V 10% X5R 1210 C4

587-1379-1-ND

Taiyo Yuden LMK325BJ475KD-T

10 1

Capacitor, Cer 47uF 10V 20% X7R 1210 C5

587-2783-1-ND

Taiyo Yuden LMK325B7476MM-TR

11 3

Capacitor 68uF 10% 6.3V Tant 400 mOhm
SMD EIA 2312

C2,C9,C14

399-10513-1-ND Kemet T495C686K006ATE400

12 1

Capacitor 68uF 10% 16V Tant 400 mOhm
SMD EIA 2917

C22

399-8397-1-ND

KemetT491D686K016AT

13 2

Connector 3-Lug Concentric Triax Bayonet
Jack, Panel Front Mount TRB (BJ77)

J1,J2 **

MilesTek 10-06570

Trompeter Electronics BJ77

14 1

Connector, Receptacle USB Mini B R/A J9

H2959CT-ND

Hirose UX60-MB-5ST

15 1

Header, Female, 30 Pos 0.1" Pitch, R/A J7

S5568-ND

Sullins PPPC152LJBN-RC

16 1

Header, Female, 6 Pos 0.1" Pitch, R/A J11

S5517-ND

Sullins PPTC032LJBN-RC

17 1

Header, Male 2x8 0.1" Pitch, 0.230" Pins J10

S2012E-08-ND

Sullins PEC08DAAN

18 1

Header, Single 1x4, 0.1" pitch J6 OPTIONAL

S1012E-04-ND

Sullins PEC04SAAN

19 3

Header, Single 1x2, 0.1" pitch J4,J5,J8

S1012E-02-ND

Sullins PEC02SAAN

20 1

Shunt Connector Black J4

S9000-ND

Sullins STC02SYAN

21 1

Header, single 1x4, 0.2" pitch J3*

S1012E-07-ND

Sullins PEC07SAAN

22 12

Solder Jump 2 terminals JP1-JP12 OPEN

23 1

Solder Jump 3 Terminals J12 OPEN

24 1

LED Green 0805 ACTIVE

160-1179-1-ND LiteOn LTST-C170GKT

25 1

LED Red 0805 POWER ON

160-1178-1-ND LiteOn LTST-C170EKT

26 2

Resistor, 69.8 Ohm 1W 1%, 2512 R1,R2

RHM69.8BBCT-ND

Rohm MCR100JZHF69R8

27 1

Trim Pot 1K - 3/4 Turn w/ Knob

R3 3386P-102TLF-ND

Bourns 3386P-1-102TLF

28 2

Resistor, 27 5% 1/8W 0805 R20,R22

P27ACT-ND

Panasonic ERJ-6GEYJ270V

29 1

Resistor, 150 5% 1/8W 0805 R10

P150ACT-ND

Panasonic ERJ-6GEYJ151V

30 1

Resistor, 330 5% 1/8W 0805 R15

P330ACT-ND

Panasonic ERJ-6GEYJ331V

31 1 Resistor, 1K, 1/8W 5% 0805

R5

P1.0KACT-ND

Panasonic ERJ-6GEYJ102V

32 3 Resistor 3.3K, 1/8W 5% 0805

R18,R19,R24

P3.3KACT-ND

Panasonic ERJ-6GEYJ332V

33 1 Resistor, 4.7K, 1/8W 1% 0805

R23

P4.7KACT-ND

Panasonic ERJ-6GEYJ472V

34 2

Resistor, 10K 5% 1/8W 0805 R11,R14

P10KACT-ND

Panasonic ERJ-6GEYJ103V

35 5

Resistor, 47K 5% 1/8W 0805 R6,R7,R8,R9,R16

P47KACT-ND

Panasonic ERJ-6GEYJ473V

36 2

Resistor, 100K 5% 1/8W 0805 R12,R13

P100KACT-ND

Panasonic ERJ-6GEYJ104V

37 1

Resistor, 220K 5% 1/8W 0805 R17

P220KACT-ND

Panasonic ERJ-6GEYJ224V

38 1 Resistor, 1M, 1/8W 5% 0805

R21

P1.0MACT-ND

Panasonic ERJ-6GEYJ105V

39 1

Ferrite Bead, 220 Ohm 300mA 0805 FB1

732-1602-1-ND Wurth 742792034

40 1

Ferrite Bead 330 Ohm 1.5A 0805 L1 490-5988-1-ND Murata BLM21PG331SN1D

41 1

Osc, 50MHz 100ppm 3.3V SMD 5x7mm OSC1 535-10087-1-ND

Abracon ASV-50.000MHZ-E-T

42 1 Crystal 4.00MHz, SMD, 30ppm 20pF load Y1 631-1005-1-ND FOXSDLF/040

43 2

DIP Switch 5-Position SMD SW1,SW5

CT2195MST-ND

CTS 219-5MST

44 1

DIP Switch 6-Position SMD SW6

CT2196MST-ND

CTS 219-6MST

45 3 Switch Tactile SPST-NO 0.05A 32V

SW3,SW4,SW7

P12943SCT-ND Panasonic EVQ-Q2K03W

46 3

Test Point, Red Insulator, 0.062" hole 3V3,ABUS, BBUS

36-5010-ND

Keystone 5010

47 3

Test Point, Black Insulator, 0.062" hole GND, nBusA, nBusB

36-5011-ND

Keystone 5011

48 3

Solid wire, 20 AWG, 3" Long per Board GND Hookup

20WG Solid wire

Any 20 AWG Solid Wire

49 1

Test Point, Orange Insulator, 0.062" hole VDD

36-5013-ND

Keystone 5013

50 1

Test Point, White Insulator, 0.062" hole ACTIVE

36-5012-ND

Keystone 5012

51 1

IC, MC9S12XDT512CAA 80QFP,16-Bit MCU, 512K,Flash 0-70C

U5 MC9S12XDT512CAA-ND MC9S12XDT512CAA-ND

52 1

IC USB Serial Full UART 20SSP U6

768-1129-1-ND FTDI FT231XS-R

53 2

IC, Serial EEPROM 512Kbit 20MHz SPI
8-SOIC, Microchip

U2,U4

25LC512-I/SN-ND

Microchip 25LC512-I/SN

54 2

TVS, Diode 5VWM 14VC SOT23 DN1,DN2

D5V0L2B3SO-7DICT-ND

Diode Inc. D5V0L2B3SO-7

55 1

IC HI-1590 44QFN U1

HOLT IC

Holt IC

56 1

IC HI-6131 64-PQFP U3

HOLT IC

Holt IC

57 2

Transformer MIL-STD-1553 Single, 1:2.50,
PM-DB2791S

T1,T2

PM-DB2791S

Holt / Premier Magnetics PM­DB2791S

58 6

Stand-off, #4-40 Female Thread, 3/4" long

3481K-ND Keystone 3481

59 6

Machine Screw, #4-40 x 1/4"

H342-ND B&F Supply PMS 440 0025 PH

60 6

Lock Washer, Int.Tooth #4-40

H236-ND B&F Supply INTLWZ 004

61 4

Hookup Solid wire - 20AWG - Black - 4"
Long per Board

For J1 and J2

C2028B-XX-ND

General Cable C2028A.12.01

5

4

3

2

1

GND

TP1

RED

D D

+

C2
68uF

3V3

C3

100nF

BBUS

JP1

JP2

GND

JP4

LOCATE
C3 CLOSE
TO PIN 12.

DN2

C C

D5V0L2B3SO

nBUSB

12

C4

3V3

4.7uF

RXBEN

C5 47uF

B B

VSEL

TP7

J5

nRXB

12

RXB

13
14
15
16
17
18
19
20
21
22

VDD
CAP
CAP
CRES
RXBEN
GND
GND
GND
RXB
RXB
VSEL

SW1

3V3

ON (CLOSED)

1

BUSB

J1

1

3

2

70 1W

R1

JP3

JP5

B8B4B7

B5

4

5

6

7

8

T1
PM-DB2791S

123

3V3

C1
100nF

BUSB

5

11

7

VDD6VDD

BUSB8BUSB9BUSB10BUSB

U1
HI-1590 PQI

NC23TXINHB24TXB25TXB26N/C27N/C28RXA29RXA30TXINHA31SCK32CSN

TP2

BLK

nBBUS

In_TXB

In_nTXB

TP22

TXB

TP24

nTXB nTXA

TP23

TXA

TP25

JP13

TXB
JP14

TXB

nTXB

TP3

GND

J3
Header 1x4, 0.2" PITCH

1

2

3

4

RXA

RXB

nRXA

nRXB

nTXB

GND3GND4GND

RXAEN

2

1

N/C

RXENA

33

LOCATE
C1 AT
PIN 6.

N/C
BUSA
BUSA
BUSA
BUSA

VCONT
VCONT

TXA
TXA

SO

In_TXA

In_nTXA

44
43

nBUSA

42
41
40
39
38

In_nTXA

37

In_TXA

36
35
34

SI

SO

SI

3V3

VCONT

J4

1 2

<---- CW

R3 1K

DN1D5V0L2B3SO

C6
100nF

TP5

JP15

TXA
JP16

nTXA

TXA

nTXA

T2

1
2
3

PM-DB2791S

BUS NOT CONFIGURED
TO TEST DIRECT-COUPLED,
NO SERIES RESISTORS.

ABUS

JP8

JP7

JP6

8

A8

7

A7

6
5

A5

4

A4

JP9

nABUS

R2

70 1W

nABUS

JP10

JP11

1
3

2

TP4

RED

BUSA

J2

TP6

BLK

nBBUS

JP12

R4
0 OHM

TP8

GND

0

A A

1K

21 4 5

VSEL

TXIHA

3

nCS

SCK

RXA

TXIHB

In_TXB

In_nTXB

RXBEN

RXAEN

TXIHB

R9
47K

TXIHA

nRXA

Title

Title

Title

HI-1590 1553 Dual Transceiver

HI-1590 1553 Dual Transceiver

HI-1590 1553 Dual Transceiver

R5

Size Document Number Rev

Size Document Number Rev

47K
R6

5

47K
R7

47K
R8

Size Document Number Rev

Date: Sheet of

Date: Sheet of

4

3

Date: Sheet of

<Doc>

A

<Doc>

A

<Doc>

A

1 3Thursday, March 15, 2018

1 3Thursday, March 15, 2018

2

1 3Thursday, March 15, 2018

1

B

5

DECOUPLING
U3 PINS 39, 42

C7
100nF

D D

GND 3V3

R10

150

C8
100nF

3V3

+

LED1

POWER

DECOUPLING
U3 PINS 8, 21, 50, 60

C9
68uF

U3

C12
100nF

C19 100nF

3V3

BCTRIG

GND

SW3

RUN

C C

R13
100K

nPCS0

MOSI
MSCK
MISO
3V3

MCLK

GND
RT1A0
RT1A1
RT1A2
nMR
RT1A3

3V3

4

3

RT1A4

1
2
3
4
5
6
7
8

9
10
11
12
13
14
15
16

BCTRIG
RAMEDC
CE
MODE
SI
SCK
SO
VDD
MCLK
GND
RT1A0
RT1A1
RT1A2
MR
RT1A3
RT1A4

OSC1

50.0MHz

VCC

OE

B B

1

OUT

GD

2

RT1ENA

J7

3V3
3V3
READY
AUTOEN
nPCS0
MOSI
MSCK
MISO
RT1ENA
EECOPY
nMR

A A

CPYRQ
BCENA
3V3
3V3

1 2
3 4
5 6
7 8

9 10
11 12
13 14
15 16
17 18
19 20
21 22
23 24
25 26
27 28
29 30

EEPROM LOAD

5

4

3V3 3V3

3V3

C10
100nF

C13
100nF

C11
100nF

IRQ

GND

GND

AUTOEN

61

63NC64

TXINHA62TXINHB

ACTIVE

READY

GND

3V3

54

55

56

57

58

59

60

VDD

GND

READY

ACTIVE

RT1SSF

AUTOEN

MTPKRDY

TP13

52

RT1MC853RT2MC8

3V3

50

51

IRQ

ACKIRQ

HI-6131 PQFP

MODE = 0 (EXT TRANSCEIVER)
COMP = 0 (NO PIN, INT PULL-DN)
TEST = 0 (NORMAL)

RT1ENA17RT1APAR18MISO19MOSI20VDD21GND22TTCLK23MTTCLK24ECS25EECOPY26ESCLK27MTRUN28T729T630T531T4

nECS

EECOPY

RT1AP

GND

4

GND

3V3

EMOSI

EMISO

ESCK

GND

GND

RT1A3

RT1A4

GND

49

VDD

GND

BENDI

TEST

RT1LOCK

MTSTOFF

BCENA

BUSA

VDD
BUSA
BUSB

VDD
BUSB

RT2ENA

T0
T1
T2
T3

32

RT1A0

RT1A1

RT1A2

3

21 4 5 6

SW6

nTXA

TXA

nTXB

TXB

RT1AP

ON (CLOSED)

C15
100nF

48
47
46
45
44
43
42
41
40
39
38
37
36
35
34
33

3

3V3

+

C16

4.7uF

3V3
GND
RT1LOCK
GNDGND
BCENA

GND

nRXA
RXA

nRXB
RXB

3V3

ON (CLOSED)

AUTOEN

3

3V3

3V3

SW5

3

21 4 5

RT1ENA

CPYRQ

GND

C17
100nF

BC MESSAGES - 1 & 2

RT MESSAGES - 2 & 3

1

0

RT1LOCK

BCENA

R16
47K

2

1

J6
Header 1x4

123

4

C18
100nF

TP9 TP10

GND

GND

+

TP11

3V3

C14 68uF

nECS

ESCK

EMISO

EMOSI

J12

R12
100K

3V3

nECS1

nECS2

EMISO

R11 10K

1

CS

2

SO

3

WP

4

GND

VCC

HOLD

SCK

U2 25LC512 8-SOIC

CON3

1

nECS

2
3

STOP

SW4

nMR

C20

100nF

EMISO

R14 10K

1

CS

2

SO

3

WP

4

GND

VCC

HOLD

SCK

U4 25LC512 8-SOIC

TP14

R15

ACTIVE

330

LED2

ACTIVE

Title

Title

Title

HI-1590 Dual 1553 Transceiver with SPI Demo Board - Message Generator

HI-1590 Dual 1553 Transceiver with SPI Demo Board - Message Generator

HI-1590 Dual 1553 Transceiver with SPI Demo Board - Message Generator

Size Document Number Rev

Size Document Number Rev

Size Document Number Rev

Date: Sheet of

Date: Sheet of

Date: Sheet of

<Doc> B

A

<Doc> B

A

<Doc> B

A

2 3Thursday, March 15, 2018

2 3Thursday, March 15, 2018

2 3Thursday, March 15, 2018

2

1

8
7
6
5

SI

8
7
6
5

SI

BCTRIG

GND

3V3

ESCK
EMOSI

3V3

ESCK
EMOSI

nMR

3V3

GND

5

L1

3V3

D D

GND

C C

F-BEAD 1.4A

VDD

C24
.1uF

SW7

RESET
MICRO

+

MINI-USB

J9 USB_MINI_B_0

1

VCC

2

D-

3

D+

B B

A A

GND

CASE

4

NC

5

6

TP21

5

BKGD

VDD

C32

47pF

R24

3.3K

YELLOW

C22

68uF 16V

R17 220K

.1uF

GND

1 2

C27
10nF

J11

1 2
3 4
5 6

HEADER 2X3

DEBUG HDR

VDD

C21

.1uF

nRESET

C25

**

FB1

FERRITE BEAD

**

R20 27R

R22 27R

C33
47pF

nRESET

12

VDD

J8

"HOLD IN
RESET"

5V

USBDM

USBDP

TP17

TP18

4

U6

VCC3O

20

1

2

3

4

5

6

7

8

9

19

18

TXD

DTR#

RTS#

VCCIO

RXD

RI#

GND

DSR#

DCD#

CTS#

CBUS3

CBUS0

FT231XS-R

CBUS2

CBUS1

VCC

RESET#

GND

3V3OUT

USBDM

USBDP

nMR

nCS

SISOSCK

2468101214

SPI BOARD
INTERFACE

13579

10

17

15

14

16

13

12

11

BCTRIG

3V3

16

111315

RXD0

TXD0

FT231R USB SERIAL ADAPTOR

4

J10

USBDM

USBDP

VCC3O

3

5V

C23
.1uF

R18

C26

0.1uF

3

3.3K

VDD

R23

4.7K 1%
C39

220nF

R19

3.3K

C28
10pF

C31
10pF

C36

470pF

2

BKGD

TXD0
RXD0

1 Mohm

R21

C34

220nF

2

U5

80

MISO2

79

MOSI2

78

SCK2

14

IOC7/PT7

13

IOC6/PT6

12

IOC5/PT5

11

IOC4/PT4

8

IOC3/PT3

7

IOC2/PT2

6

IOC1/PT1

5

IOC0/PT0

75

PM0/RX

74

PM1/TX

15

MODC/BKGD

69

PJ6

68

PJ7

66

PS3/TXD1

65

PS2/RXD1

64

PS1/TXD0

63

PS0/RXD0

40

XIRQ/PE0

39

IRQ/PE1

38

PE2

37

PE3

27

ECLK/PE4

26

PE5

25

PE6

24

XCLKS/PE7

34

EXTAL

Y1

35

XTAL

4Mhz

31

VDDPLL

C35

.01uF

33

VSSPLL

32

XFC

MC9S12XDT512CAA

Title

Title

Title

Size Document Number Rev

Size Document Number Rev

Size Document Number Rev

B

B

B

Date: Sheet of

Date: Sheet of

Date: Sheet of

MOSI1/PP1
MISO1/PP0

PAD00/AN00
PAD01/AN01
PAD02/AN02
PAN03/AN03
PAD04/AN04
PAD05/AN05
PAD06/AN06
PAD07/AN07

HI-1590 - Microcontroller

HI-1590 - Microcontroller

HI-1590 - Microcontroller

<Doc> B

<Doc> B

<Doc> B

SS1/PP3

SCK1/PP2

RESET

SCK0

MOSI0

SS0

MISO0

PB0
PB1
PB2
PB3
PB4
PB5
PB6
PB7

PA0
PA1
PA2
PA3
PA4
PA5
PA6
PA7

VDDR1

VDDX

VSSR1

VSSX
VSSA

VREGEN

VDDA

VRH

VRL

VDD1
VDD2

VSS1
VSS2

TEST

1
2
3
4

30

70
71
72
73

16
17
18
19
20
21
22
23

41
42
43
44
45
46
47
48

51
52
53
54
55
56
57
58

29
77

28
76
62

67

59
60
61

9
49

10
50
36

nRESET

SCK

nCS

C29

220nF

C37

220nF

SI

SO

VDD

1

3V3

3V3

VDD

C30
220nF

C38
220nF

3 3Thursday, March 15, 2018

3 3Thursday, March 15, 2018

3 3Thursday, March 15, 2018

1