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ZL10AVR: Difference between revisions

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| style="text-align: left;”|…disconnected
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| style="text-align: center;”|1-2
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| style="text-align: left;”|...channel RxD RS232
| style="text-align: center;”|...channel RxD RS232
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| style="text-align: left;”|…disconnected
| style="text-align: center;”|…disconnected
| style="text-align: left;”|...connected to PD0
| style="text-align: center;”|...connected to PD0
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| style="text-align: center;”|2-3
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| style="text-align: left;”|...channel RxD USB
| style="text-align: center;”|...channel RxD USB
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| style="text-align: left;”|disconnected
| style="text-align: center;”|...disconnected
| style="text-align: left;”|...connected to PD0
| style="text-align: center;”|...connected to PD0
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| style="text-align: left;”|...channel TxD RS232
| style="text-align: center;”|...channel TxD RS232
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| style="text-align: center;”|1-2
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| style="text-align: left;”|...connected to PD1
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| style="text-align: left;”|...channel TxD USB
| style="text-align: center;”|...channel TxD USB
| style="text-align: center;”|2-3
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| style="text-align: center;”|1-2
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| style="text-align: left;”|... connected to PD1
| style="text-align: center;”|... connected to PD1
| style="text-align: left;”|...disconnected
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| style="text-align: left;”|RS232 (TxD and RxD)
| style="text-align: center;”|RS232 (TxD and RxD)
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| style="text-align: left;”|...connected to PD1
| style="text-align: center;”|...connected to PD1
| style="text-align: left;”|...connected to PD0
| style="text-align: center;”|...connected to PD0
| style="text-align: center;”|RS232 interface connected to microcontroler
| style="text-align: center;”|RS232 interface connected to microcontroler
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| style="text-align: center;”|2-3
| style="text-align: center;”|2-3
| style="text-align: center;”|2-3
| style="text-align: center;”|2-3
| style="text-align: left;”|...USB (TxD and RxD)
| style="text-align: center;”|...USB (TxD and RxD)
| style="text-align: center;”|2-3
| style="text-align: center;”|2-3
| style="text-align: center;”|2-3
| style="text-align: center;”|2-3
| style="text-align: left;”|... connected to PD1
| style="text-align: center;”|... connected to PD1
| style="text-align: left;”|...connected to PD0
| style="text-align: center;”|...connected to PD0
| style="text-align: center;”|USB2RS232 interface connected to microcontroler
| style="text-align: center;”|USB2RS232 interface connected to microcontroler
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Revision as of 08:18, 14 July 2018

Introduction

ZL10AVR is a versatile evaluation board designed for engineers and hobbyists who want to prototype systems based on AVR microcontrollers (AT90S, ATmega and ATtiny families in DIP8, DIP20, DIP28 and DIP40 packages). ZL10AVR is equipped with 7 DIP sockets suitable for most of AVR family microcontrollers. LEDs mounted near sockets indicate socket suitable for selected microcontroller. Developer has access to all microcontroller pins (only one microcontroller can be installed at the same time!), which are brought to gold-pin connectors. Board's configuration is complete, user can find on the board following components: USB interface connector (for ZL1USB module), analog potentiometer, 8 MHz crystal oscillator, 4 LED displays, buzzer, RS232 interface with DB9F connector, 4x4 LED matrix, configurable keyboard (1x4 or 4x4 buttons), 8 LEDs, RC5 infrared receiver with TTL output, ISP connector and socket for LCD display (2x16 characters). Thanks to simple PLD logic (from Xilinx) incorporated on the board, most of integrated peripherals can be easy and comfortably connected to any port (PORTA, PORTB, PORTC or PORTD) available in microcontroller used in the application. The gold-pin headers provide access to easy connection of matrix keyboard and matrix display. ZL10AVR board comes with examples of Bascom programs.


Features
  • Compatible with most of AVR family microcontrollers (AT90S, ATmega, ATtiny families)
  • RS232 interface (with level converter and DB9F connector)
  • 4-digit, 7-segment, multiplexed LED common cathode display
  • Socket for LCD 2 x16 character display (LCD1602 module)
  • 8LEDs
  • 16 LEDs configured as 4x4 matrix
  • Configurable microswitch 4x4 or 4x1 keyboard
  • Integrated infrared RC5 receiver with TTL output
  • Buzzer
  • Socket for USB interface (ZL1USB_A module)
  • ISP Kanda STK200 compatible connector (recommended ISP programmer: ZL2PRG)
  • Analog potentiometer
  • Reset pulse generator
  • Integrated regulated power supply
  • Supply 9 VDC/250 mA
  • Built-in 3,3 V voltage regulator
  • Easy access to regulated +3,3 V and +5 V power supply for external devices

Supported microcontrollers

Devices supported by ZL10AVR:

  • AT90: AT90S1200, AT90S2313, AT90S2323, AT90S2343
  • ATtiny: ATtiny11, ATtiny12, ATtiny13, ATtiny15, ATtiny25, ATtiny26, ATtiny45, ATtiny85, ATtiny2313
  • ATmega: ATmega8, ATmega16, ATmega32, ATmega48, ATmega88, ATmega161, ATmega162, ATmega163, ATmega164, ATmega168, ATmega323, ATmega324, ATmega644, ATmega8515, ATmega8535

ZL10AVR board is compatible with most of new AVR microcontrollers in DIP8/20/28 and DIP40 packages.


Contents of the package
Code Description
ZL10AVR
  • ZL10AVR board (without microcontrollers and LCD display)
Board configuration

Block schematic of ZL10AVR board is shown below. Logic module integrated in CPLD works as a multiple switch simplifying connections between microcontroller’s ports and 7-segment multiplexed display, 8 LEDs and ISP con- nector.

Peripherals like: crystal resonator, potentiometer, buzzer, IR receiver, RS232 interface, USB interface can be con- nected/disconnected to/from microcontroller with few dedicated jumpers.


Only one microcontroller at the time can be used with ZL10AVR board!


Block schematic of ZL10AVR board


Board layout


Microcontroller configuration

Active socket is selected by jumper mounted on JP21 switch.

JP21 closed pins Activ sockets
1-2 U4
2-3 U2, U3, U5, U6
3-4 U1, U7



Active (selected) socket is indicated by LED. Microcontrollers that can be used with specific sockets are shown below.

Socket Microcontroller
U1 ATtiny 26
U2 ATmega 32, ATmega 323, ATmega 16, ATmega 163, ATmega 8535, ATmega 164, ATmega 324, ATmega 644
U3 ATmega 8515, ATmega 161, ATmega 162
U4 ATmega 8, ATmega 48, ATmega 88, ATmega 168
U5 ATtiny 2313
U6 AT90S1200, AT90S2313
U7 ATtiny 11, ATtiny 12, ATtiny 13, ATtiny 15, ATtiny 25, ATtiny 45, ATtiny 85, AT90S2323, AT90S2343

Note! ATtiny 11/15 are not ISP programmable.








Crystal oscillator can be disconnected from X1 and X2 pins in U1, U4 and U5 sockets. Recommended configurations of jumpers JP9, JP10 (U1 socket), JP2, JP3 (U5 socket) and JP5, JP6 (U4 socket) are shown below.


Jumpers ascribed to U1 crystal pins

JP9 closed pins JP10 closed pins Crystal X1...
1-2 1-2 ...connected to X1 i X2 of U3 socket
2-3 2-3 ...disconnected
1-2 2-3 Not allowed
2-3 1-2 Not allowed


Jumpers ascribed to U4 crystal pins

JP5 closed pins JP6 closed pins Crystal X1...
1-2 1-2 ...connected to X1 i X2 of U6 socket
2-3 2-3 ...disconnected
1-2 2-3 Not allowed
2-3 1-2 Not allowed


Jumpers ascribed to U5 crystal pins

JP2 closed pins JP3 closed pins Crystal X1...
1-2 1-2 ...connected to X1 i X2 of U2 socket
2-3 2-3 ...disconnected
1-2 2-3 Not allowed
2-3 1-2 Not allowed


Jumpers JP1 (socket U7), JP4 (socket U5), JP7 (socket U4) and JP11 (socket U1) are used to connect microcon- troller /RESET input to reset signal generator (U10), manual reset button S1 and /RESET signal generated by ISP programmer. Recommended configurations of these jumpers are shown below.

Configurations of JP1

JP1 closed pins External (global) /RESET signal...
1-2 ...connected to U7
2-3 ...disconnected from U7


Configurations of JP4

JP4 closed pins External (global) /RESET signal...
1-2 ...connected to U5
2-3 ...disconnected from U5

Configurations of JP7

JP7 closed pins External (global) /RESET signal...
1-2 ...connected to U4
2-3 ...disconnected from U4


Configurations of JP11

JP11 closed pins External (global) /RESET signal...
1-2 ...connected to U1
2-3 ...disconnected from U1


Only one (active) socket can be connected to crystal generator and global /RESET signal. In other case microcontroller will work incorrectly!


Examples of board configurations

ATmega32, external resonator

Microcontroller in U2 socket. Jumpers configuration:

JP21 (SOCKET) – 2-3 (U2/3/5/6)

JP11 (U1 GRES) – 2-3 (Off)

JP9 (U1 CRYST) – 2-3 (Off)

JP10 (U1 CRYST) – 2-3 (Off)

JP5 (U4 CRYST) – 2-3 (Off)

JP6 (U4 CRYST) – 2-3 (Off)

JP7 (U4 GRES) – 2-3 (Off)

JP2 (U5 CRYST) – 2-3 (Off)

JP3 (U5 CRYST) – 2-3 (Off)

JP4 (U5 GRES) – 2-3 (Off)

JP1 (U7 GRES) – 2-3 (Off)


ATtiny2313, external resonator

Microcontroller in U5 socket. Jumpers configuration:

JP21 (SOCKET) – 2-3 (U2/3/5/6)

JP11 (U1 GRES) – 2-3 (Off)

JP9 (U1 CRYST) – 2-3 (Off)

JP10 (U1 CRYST) – 2-3 (Off)

JP5 (U4 CRYST) – 2-3 (Off)

JP6 (U4 CRYST) – 2-3 (Off)

JP7 (U4 GRES) – 2-3 (Off)

JP2 (U5 CRYST) – 1-2 (On)

JP3 (U5 CRYST) – 1-2 (On)

JP4 (U5 GRES) – 1-2 (On)

JP1 (U7 GRES) – 2-3 (Off)


ATtiny2313, internal oscillator

Microcontroller in U5 socket. Jumpers configuration:

JP21 (SOCKET) – 2-3 (U2/3/5/6)

JP11 (U1 GRES) – 2-3 (Off)

JP9 (U1 CRYST) – 2-3 (Off)

JP10 (U1 CRYST) – 2-3 (Off)

JP5 (U4 CRYST) – 2-3 (Off)

JP6 (U4 CRYST) – 2-3 (Off)

JP7 (U4 GRES) – 2-3 (Off)

JP2 (U5 CRYST) – 2-3 (Off)

JP3 (U5 CRYST) – 2-3 (Off)

JP4 (U5 GRES) – 1-2 (On)

JP1 (U7 GRES) – 2-3 (Off)


ATmega8, external resonator

Microcontroller in U4 socket. Jumpers configuration:

JP21 (SOCKET) – 1-2 (U4)

JP11 (U1 GRES) – 2-3 (Off)

JP9 (U1 CRYST) – 2-3 (Off)

JP10 (U1 CRYST) – 2-3 (Off)

JP5 (U4 CRYST) – 1-2 (On)

JP6 (U4 CRYST) – 1-2 (On)

JP7 (U4 GRES) – 1-2 (On)

JP2 (U5 CRYST) – 2-3 (Off)

JP3 (U5 CRYST) – 2-3 (Off)

JP4 (U5 GRES) – 2-3 (Off)

JP1 (U7 GRES) – 2-3 (Off)

7-segment LED display

Segments of LED displays can be controlled by one of four microcontroller I/O ports (8 lines each): PORTA, PORTB, PORTC or PORTD. Active port is selected by JP17 (LED_DSP) simultaneously with display’s cathodes drivers. Cathodes are controlled by 4 LSB lines of PORTA, PORTB, PORTC or PORTD.

LED displays port selection (JP17 - LED_DSP)

JP17 closed pins Segments controlled by... Cathodes controlled by (MSD...LSD)...
1-2 …PA ...PB(3...0)
2-3 …PB ...PC(3...0)
3-4 …PC ...PD(3...0)
4-5 …PD ...PA(3...0)



Displays segments are connected to I/O port lines as shown below.


Connection of LED diplays segments

Displays segment I/O line (x=A/B/C/D)
A Px0
B Px1
C Px2
D Px3
E Px4
F Px5
G Px6
DP Px7


DIP-switch S2 selects number of active displays (non-active displays can be switched-off).




LEDs

LEDs can be connected to one of four ports: PORTA, PORTB, PORTC or PORTD. Active port is selected by JP22.

JP22 closed pins LEDs controlled by...
1-2 ...PA
2-3 ...PB
3-4 ...PC
4-5 ...PD





Alphanumeric LCD display

Standard LCD display with HD44780 compatible controller (LCD1602 module) can be mounted in W1 socket. Connections between microcontroller and display module lines are show below.


Connections between microcontroller and display module

LCD module signal name LCD module pin AVR I/O lines
RS 4 PB0
RW 5 PB1
E 6 PB2
D0 7 PD0
D1 8 PD1
D2 9 PD2
D3 10 PD3
D4 11 PD4
D5 12 PD5
D6 13 PD6
D7 14 PD7




Analog potentiometer

ZL10AVR board is equipped with analog potentiometer R8 allowing to regulate select form 0 up to +5 V. Potentiometer can be connected to analog input on line PA0 or PC0 as shown below.


JP24 closed pins JP25 closed pins (*) Potentiometer R8...
1-2 1-2 …disconnected
1-2 2-3 ...connected to PA0
2-3 1-2 ...disconnected
2-3 2-3 ...connected to PC0

(*) There is an error on Top Overlay: potentiometer R8 is disconnected, when jumper JP25 is in position On (closed pins 1-2). Potentiometer R8 is connected, when jumper JP25 is in position Off (closed pins 2-3).


Buzzer

Buzzer Gl1 can be connected to PB0 line. Jumper JP23 (SPEAKER) disconnects buzzer.

JP23 closed pins Gl1…
1-2 (On) ...connected to PB0
2-3 (Off) ...disconnected




RS232/USB interface

ZL10AVR board is equipped with:

  • DB9F connector connected to MAX232-compatible voltage converter (RS232 interface),
  • JP15 socket for USB2RS232 interface module (recommended type is ZL1USB). Serial interfaces are configured by JP8, JP12, JP13 and JP14 jumpers.


Serial ports configurations

JP8 closed pins JP12 closed pins Selected… JP13 closed pins JP14 closed pins TxD… RxD… Configuration
- - - 1-2 1-2 …disconnected …disconnected Serial interface disconnected
- 1-2 ...channel RxD RS232 1-2 2-3 …disconnected ...connected to PD0 -
- 2-3 ...channel RxD USB 1-2 2-3 ...disconnected ...connected to PD0 -
1-2 - ...channel TxD RS232 2-3 1-2 ...connected to PD1 ...disconnected -
2-3 - ...channel TxD USB 2-3 1-2 ... connected to PD1 ...disconnected -
1-2 1-2 RS232 (TxD and RxD) 2-3 2-3 ...connected to PD1 ...connected to PD0 RS232 interface connected to microcontroler
2-3 2-3 ...USB (TxD and RxD) 2-3 2-3 ... connected to PD1 ...connected to PD0 USB2RS232 interface connected to microcontroler



IR receiver

ZL10AVR board is equipped with TFMS5360 (U12) IR receiver. Possible connections of its output are shown below.


Configurations of JP19 and JP20

JP19 closed pins JP20 closed pins IR receiver output...
1-2 1-2 ...connected to PD2
1-2 2-3 ...connected to PB6
2-3 - ...disconnected
2-3 2-3 ...connected to PC0




Matrix LED display

Matrix (4x4 LEDs) LED display mounted on the ZL10AVR is connected to I/O port with 16 wires IDC ribbon ca- ble (not included). Connections of rows and columns of LEDs matrix is shown below. We recommend to use only one LED in each row at the time, to avoid lumination intensity modulation.




Microswitch keyboard

ZL10AVR board is equipped with 16 microswitches connected as 4x4 matrix or simple 4x1 keyboard (with „0” logic level active). Keyboard can be connected to any accesible I/O microcontroller port with IDC ribbon cable (zl5 gold-pin header).


Configurations of JP26

JP26 closed pins Keyboard configuration is...
1-2 ...simply 4 x 1 switches
2-3 ...matrix 4 x 4




I/O headers



ISP connector

Pin layout of ISP connector (JP16, Kanda STK200 compatible) is shown below. Kamami recommends using ZL2PRG ISP programmer (for PC with parallel port) or KamProg for AVR (for PCs with USB).



ISP connector pins



Schematics