ZL10AVR - Revision history

Grzegorzbecker at 10:13, 2 November 2024

2024-11-02T10:13:33Z

← Older revision		Revision as of 10:13, 2 November 2024
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	===== Introduction =====		====== 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.		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.

Admin: Text replacement - "jzpdf" to "jzXpdf"

2024-10-30T01:04:16Z

Text replacement - "__jzpdf__" to "__jzXpdf__"

← Older revision		Revision as of 01:04, 30 October 2024
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	===== Introduction =====		===== 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.		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.

Anna Kubacka at 09:12, 24 September 2020

2020-09-24T09:12:42Z

← Older revision		Revision as of 09:12, 24 September 2020
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	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.		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.


	<center>		<center>
	[[File:zl10avr.jpg\|none\|400px\|thumb\|center]]		[[File:zl10avr.jpg\|none\|400px\|thumb\|center]]

Admin at 15:55, 20 September 2020

2020-09-20T15:55:37Z

← Older revision		Revision as of 15:55, 20 September 2020
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	===== Introduction =====		===== 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.		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.

Admin: Text replacement - "jzXpdf" to "jzpdf"

2018-08-10T07:17:14Z

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← Older revision		Revision as of 07:17, 10 August 2018
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	===== Introduction =====		===== 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.		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.

Admin: Text replacement - "jzpdf" to "jzXpdf"

2018-08-10T07:16:34Z

Text replacement - "__jzpdf__" to "__jzXpdf__"

← Older revision		Revision as of 07:16, 10 August 2018
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	===== Introduction =====		===== 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.		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.

Wlodzimierzhepner: /* Microcontroller configuration */

2018-07-30T11:03:40Z

Microcontroller configuration

← Older revision		Revision as of 11:03, 30 July 2018
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	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.		Jumpers JP1 (socket U7), JP4 (socket U5), JP7 (socket U4) and JP11 (socket U1) are used to connect microcontroller /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		Configurations of JP1

Wlodzimierzhepner: /* Board configuration */

2018-07-30T11:01:59Z

Board configuration

← Older revision		Revision as of 11:01, 30 July 2018
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	===== Board configuration =====		===== 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~~.		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 connector.

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


Line 67:		Line 67:

	Block schematic of ZL10AVR board		Block schematic of ZL10AVR board


	===== Board layout =====		===== Board layout =====

Anna Kubacka: /* IR receiver */

2018-07-14T08:27:34Z

IR receiver

← Older revision		Revision as of 08:27, 14 July 2018
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	\| style="text-align: center;”\|-		\| style="text-align: center;”\|-
	\| style="text-align: center;”\|...disconnected		\| style="text-align: center;”\|...disconnected
	\|-
	~~\| style="text-align: center;”\|2-3~~
	~~\| style="text-align: center;”\|2-3~~
	~~\| style="text-align: center;”\|...connected to PC0~~
	\|}		\|}
	</center>		</center>
Line 827:		Line 823:
	[[File:zl10avr_v3_pcb_tfms.png\|none\|800px\|thumb\|center]]		[[File:zl10avr_v3_pcb_tfms.png\|none\|800px\|thumb\|center]]
	</center>		</center>


	===== Matrix LED display =====		===== Matrix LED display =====

Anna Kubacka: /* RS232/USB interface */

2018-07-14T08:18:45Z

RS232/USB interface

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

ZL10AVR - Revision history

Grzegorzbecker at 10:13, 2 November 2024

Admin: Text replacement - "__jzpdf__" to "__jzXpdf__"

Anna Kubacka at 09:12, 24 September 2020

Admin at 15:55, 20 September 2020

Admin: Text replacement - "__jzXpdf__" to "__jzpdf__"

Admin: Text replacement - "__jzpdf__" to "__jzXpdf__"

Wlodzimierzhepner: /* Microcontroller configuration */

Wlodzimierzhepner: /* Board configuration */

Anna Kubacka: /* IR receiver */

Anna Kubacka: /* RS232/USB interface */

Admin: Text replacement - "jzpdf" to "jzXpdf"

Admin: Text replacement - "jzXpdf" to "jzpdf"

Admin: Text replacement - "jzpdf" to "jzXpdf"