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1. Relevant Devices
The C8051F580 Development Kit is intended as a development platform for the microcontrollers in the
C8051F58x/59x MCU family. The members of this MCU family are: C8051F580, C8051F581, C8051F582,
C8051F583, C8051F584, C8051F585, C8051F586, C8051F587, C8051F588, C8051F589, C8051F590, and
C8051F591.
The target board included in this kit is provided with a pre-soldered C8051F580 MCU (QFP48 package) and a
C8051F582 (QFN32 package).
Code developed on the C8051F580 can be easily ported to the other members of this MCU family.
Refer to the C8051F58x/59x data sheet for the differences between the members of this MCU family.
2. Kit Contents
The C8051F580 Development Kit contains the following items:
C8051F580 Target Board
C8051Fxxx Development Kit Quick-Start Guide
Silicon Laboratories IDE and Product Information CD-ROM. CD content includes:
Silicon Laboratories Integrated Development Environment (IDE)
Keil 8051 Development Tools (macro assembler, linker, evaluation ‘C’ compiler)
Source code examples and register definition files
Documentation
C8051F580 Development Kit User’s Guide (this document)
AC to DC Power Adapter
USB Debug Adapter (USB to Debug Interface)
Two USB Cables
3. Getting Started
The necessary software to download, debug, and communicate with the target microcontroller is included in the
CD-ROM. The following software is necessary to build a project, download code to, and communicate with the target microcontroller:
Silicon Laboratories Integrated Development Environment (IDE)
Keil 8051 Development Tools (macro assembler, linker, evaluation ‘C’ compiler)
Other useful software that is provided in the CD-ROM includes:
Configuration Wizard 2
Keil uVision Drivers
CP210x USB to UART Virtual COM Port (VCP) Drivers
Rev. 0.1 11/08 Copyright © 2008 by Silicon Laboratories C8051F580DK
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3.1. Software Installation
The included CD-ROM contains the Silicon Laboratories Integrated Development Environment (IDE), Keil software
8051 tools, and additional documentation. Insert the CD-ROM into your PC’s CD-ROM drive. An installer will automatically launch, allowing you to install the IDE software or read documentation by clicking buttons on the
Installation Panel. If the installer does not automatically start when you insert the CD-ROM, run autorun.exe found in the root directory of the CD-ROM. Refer to the ReleaseNotes.txt file on the CD-ROM for the latest information regarding known problems and restrictions. After installing the software, see the following sections for information regarding the software and running one of the demo applications.
3.2. CP210x USB to UART VCP Driver Installation
The C8051F580 Target Board includes a Silicon Laboratories CP2102 USB-to-UART Bridge Controller. Device drivers for the CP2102 need to be installed before PC software such as HyperTerminal can communicate with the target board over the USB connection. If the "Install CP210x Drivers" option is selected during installation, a driver
“unpacker” utility will launch.
1. Follow the steps to copy the driver files to the desired location. The default directory is C:\SiLabs\MCU\CP210x.
2. The final window will give an option to install the driver on the target system. Select the “Launch the CP210x VCP Driver
Installer” option if you are ready to install the driver.
3. If selected, the driver installer will now launch, providing an option to specify the driver installation location. After pressing the “Install” button, the installer will search your system for copies of previously installed CP210x Virtual COM Port drivers. It will let you know when your system is up to date. The driver files included in this installation have been certified by Microsoft.
4. If the “Launch the CP210x VCP Driver Installer” option was not selected in step 3, the installer can be found in the location specified in step 2, by default C:\SiLabs\MCU\CP210x\Windows_2K_XP_S2K3_Vista. At this location, run
CP210xVCPInstaller.exe.
5. To complete the installation process, connect the included USB cable between the host computer and the USB connector
(P5) on the C8051F580 Target Board. Windows will automatically finish the driver installation. Information windows will pop up from the taskbar to show the installation progress.
6. If needed, the driver files can be uninstalled by selecting “Silicon Laboratories CP210x USB to UART Bridge Driver
Removal” option in the “Add or Remove Programs” window.
4. Software Overview
4.1. Silicon Laboratories IDE
The Silicon Laboratories IDE integrates a source-code editor, a source-level debugger, and an in-system Flash
detailed information on how to use the IDE. The Keil Evaluation Toolset includes a compiler, linker, and assembler and easily integrates into the IDE. The use of third-party compilers and assemblers is also supported.
4.1.1. IDE System Requirements
The Silicon Laboratories IDE requirements:
Pentium-class host PC running Microsoft Windows 2000 or newer.
One available USB port.
4.1.2. Third Party Toolsets
The Silicon Laboratories IDE has native support for many 8051 compilers. The full list of natively supported tools is:
Keil
IAR
Raisonance
Tasking
Hi-Tech
SDCC
Please note that the demo applications for the C8051F580 Target Board are written to work with the Keil and
SDCC toolsets.
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4.2. Keil Evaluation Toolset
4.2.1. Keil Assembler and Linker
The assembler and linker that are part of the Keil Demonstration Toolset are the same versions that are found in the full Keil Toolset. The complete assembler and linker reference manual can be found on-line under the Help menu in the IDE or in the “SiLabs\MCU\hlp” directory (A51.pdf).
4.2.2. Keil Evaluation C51 C Compiler
The evaluation version of the C51 compiler is the same as the full version with these limitations: (1) Maximum 4 kB code generation, and (2) Floating point library not included. When installed from the CD-ROM, the C51 compiler is initially limited to a code size of 2 kB, and programs start at code address 0x0800. Please refer to the Application
Note “AN104: Integrating Keil Tools into the Silicon Labs IDE" for instructions to change the limitation to 4 kB, and have the programs start at code address 0x0000.
4.3. Configuration Wizard 2
The Configuration Wizard 2 is a code generation tool for all of the Silicon Laboratories devices. Code is generated through the use of dialog boxes for each of the device's peripherals.
Figure 1. Configuration Wizard 2 Utility
The Configuration Wizard 2 utility helps accelerate development by automatically generating initialization source code to configure and enable the on-chip resources needed by most design projects. In just a few steps, the wizard creates complete startup code for a specific Silicon Laboratories MCU. The program is configurable to provide the output in C or assembly. For more information, please refer to the Configuration Wizard 2 help available under the
Help menu in Configuration Wizard 2.
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4.4. Keil uVision2 and uVision3 Silicon Laboratories Drivers
As an alternative to the Silicon Laboratories IDE, the uVision debug driver allows the Keil uVision IDE to communicate with Silicon Laboratories on-chip debug logic. In-system Flash memory programming integrated into the driver allows for rapidly updating target code. The uVision IDE can be used to start and stop program execution, set breakpoints, check variables, inspect and modify memory contents, and single-step through programs running on the actual target hardware.
For more information, please refer to the uVision driver documentation. The documentation and software are available from the Downloads webpage ( www.silabs.com/mcudownloads ).
5. Hardware Setup using a USB Debug Adapter
The target board is connected to a PC running the Silicon Laboratories IDE via the USB Debug Adapter as shown
1.
Connect the USB Debug Adapter to one of the DEBUG connectors on the target board (DEBUG_A or
DEBUG_B) with the 10-pin ribbon cable. The recommended connection is to DEBUG_A as this microcontroller is the primary MCU on the board and more peripherals are easily available.
2.
Connect one end of the USB cable to the USB connector on the USB Debug Adapter.
3.
Connect the other end of the USB cable to a USB Port on the PC.
4.
Connect the ac/dc power adapter to power jack P4 on the target board.
Notes:
• Use the Reset button in the IDE to reset the target when connected using a USB Debug Adapter.
• Remove power from the target board and the USB Debug Adapter before connecting or disconnecting the ribbon cable from the target board. Connecting or disconnecting the cable when the devices have power can damage the device and/or the USB Debug Adapter.
Target Board
L
H
GND
CAN_
CAN_
GND
UT
_V
_O
+LIN
LIN
AC/DC
Adapter
USB
Cable
USB Debug
Adapter
Figure 2. Hardware Setup using a USB Debug Adapter
PC
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6. Using the Keil Software 8051 Tools with the Silicon Laboratories IDE
To perform source-level debugging with the IDE, you must configure the Keil 8051 tools to generate an absolute object file in the OMF-51 format with object extensions and debug records enabled. You may build the OMF-51 absolute object file by calling the Keil 8051 tools at the command line (e.g., batch file or make file) or by using the project manager built into the IDE. The default configuration when using the Silicon Laboratories IDE project manager enables object extension and debug record generation. Refer to Application Note "AN104: Integrating Keil
8051 Tools into the Silicon Labs IDE" in the “SiLabs\MCU\Documentation\ApplicationNotes” directory for additional information on using the Keil 8051 tools with the Silicon Laboratories IDE.
To build an absolute object file using the Silicon Laboratories IDE project manager, you must first create a project.
A project consists of a set of files, IDE configuration, debug views, and a target build configuration (list of files and tool configurations used as input to the assembler, compiler, and linker when building an output object file).
The following sections illustrate the steps necessary to manually create a project with one or more source files, build a program, and download the program to the target in preparation for debugging. (The IDE will automatically create a single-file project using the currently open and active source file if you select Build/Make Project before a project is defined.)
6.1. Creating a New Project
1.
Select Project
New Project to open a new project and reset all configuration settings to default.
2.
Select File
New File to open an editor window. Create your source file(s) and save the file(s) with a recognized extension, such as .c, .h, or .asm, to enable color syntax highlighting.
3.
Right-click on “New Project” in the Project Window. Select Add files to project. Select files in the file browser and click Open. Continue adding files until all project files have been added.
4.
For each of the files in the Project Window that you want assembled, compiled, and linked into the target build, right-click on the file name and select Add file to build. Each file will be assembled or compiled as appropriate (based on file extension) and linked into the build of the absolute object file.
Note: If a project contains a large number of files, the “Group” feature of the IDE can be used to organize the files. Right-click on “New Project” in the Project Window. Select Add groups to project. Add predefined groups or add customized groups. Right-click on the group name and choose Add file to group.
Select files to be added. Continue adding files until all project files have been added.
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6.2. Building and Downloading the Program for Debugging
1.
Once all source files have been added to the target build, build the project by clicking on the Build/Make
Project button in the toolbar or selecting Project
Build/Make Project from the menu.
Note: After the project has been built the first time, the Build/Make Project command will only build the files that have been changed since the previous build. To rebuild all files and project dependencies, click on the Rebuild All button in the toolbar or select Project
Rebuild All from the menu.
2.
Before connecting to the target device, several connection options may need to be set. Open the
Connection Options window by selecting Options
Connection Options... in the IDE menu. First, select the appropriate adapter in the “Serial Adapter” section. Next, the correct “Debug Interface” must be selected.
C8051F58x/59x family devices use the Silicon Labs 2-wire (C2) debug interface. Once all the selections are made, click the OK button to close the window.
3.
Click the Connect button in the toolbar or select Debug
Connect from the menu to connect to the device.
4.
Download the project to the target by clicking the Download Code button in the toolbar.
Note: To enable automatic downloading if the program build is successful, select Enable automatic
connect/download after build in the Project
Target Build Configuration dialog. If errors occur during the build process, the IDE will not attempt the download.
5.
Save the project when finished with the debug session to preserve the current target build configuration, editor settings, and the location of all open debug views. To save the project, select Project
Save Proj-
ect As... from the menu. Create a new name for the project and click on Save.
7. Example Source Code
Example source code and register definition files are provided in the “SiLabs\MCU\Examples\C8051F58x_59x\” directory during IDE installation. These files may be used as a template for code development. Example applications include a blinking LED example which configures the green LED on the target board to blink at a fixed rate.
7.1. Register Definition Files
Register definition files C8051F580.inc and C8051F580_defs.h define all SFR registers and bit-addressable control/status bits. A macro definition header file compiler_defs.h is also included, and is required to be able to use the C8051F580_defs.h header file with various tool chains. These files are installed into the
“SiLabs\MCU\Examples\C8051F58x_59x\Header_Files\” directory during IDE installation by default. The register and bit names are identical to those used in the C8051F58x/59x data sheet. These register definition files are also installed in the default search path used by the Keil Software 8051 tools. Therefore, when using the Keil 8051 tools included with the development kit (A51, C51), it is not necessary to copy a register definition file to each project’s file directory.
7.2. Blinking LED Example
The example source files F580_Blinky.asm and F580_Blinky.c installed in the default directory
“SiLabs\MCU\Examples\C8051F58x_59x\Blinky” show examples of several basic C8051F580 functions. These include disabling the watchdog timer (WDT), configuring the Port I/O crossbar, configuring a timer for an interrupt routine, initializing the system clock, and configuring a GPIO port pin. When compiled/assembled and linked, this program flashes the green LED on the C8051F580 Target Board about five times a second using the interrupt handler with a C8051F580 timer.
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8. Target Board
The C8051F580 Development Kit includes a target board with a C8051F580 (Side A) and C8051F582 (Side B) device pre-installed for evaluation and preliminary software development. Numerous input/output (I/O) connections
and headers is provided in Table 11 on page 16.
J7
J21
P4
P5
TB1
TB2
Header to choose between +5V from Debug Adapter (P2) or +5V from on-board regulator (U6)
Connect V_HIGH node from TB1 LIN header to +5V regulator input for board power
Power connector (accepts input from 7 to 15 VDC unregulated power adapter)
USB connector (connects to PC for serial communication)
Shared LIN Connector for Side A and B MCUs for external nodes
Shared CAN Connector for Side A and B MCUs for external nodes
J1-J5 Side A: Port 0 through Port 4 headers
J9, J10 Side A: External crystal enable connectors
J14
J17
J18
Side A: CAN Transceiver (U3) power connector
Side A: Connects MCU to three separate transceivers (UART(U5), CAN(U3), and LIN(T1))
Side A: Connects VIO to VIO_A_SRC which powers the R27 potentiometer, the
/RST_A pin pull-up, and P1.4_A Switch pull-up.
J19
J20
J22
J24
Side A: Connects P1.3_A LED and P1.4_A Switch to MCU port pins
Side A: Connects R27 potentiometer to port pin 1.2
Side A: Connects decoupling capacitors C28 and C29 for MCU VREF (P0.0)
Side A: Connects +5V net to VIO and VREGIN of the MCU
P1
P2
TB3
Side A: 96-pin female connector
Side A: DEBUG connector for Debug Adapter interface
Side A: Power supply terminal block
J8
J11
Side B: CAN Transceiver (U4) power connector
Side B: Connects P1.3_B LED and P1.4_B Switch to MCU port pins
J26 Side B: Connects MCU to two separate transceivers (CAN (U4) and LIN (T2))
J27-J29 Side B: Port 0 through Port 2 headers
J31
J32
P3
Side B: Connects +5V net to VIO and VREGIN of the MCU
Side B: Connects decoupling capacitors C41 and C42 for MCU VREF (P0.0)
Side B: DEBUG connector for Debug Adapter interface
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P1
Port 0 “A”
P5
TB1
TB2
SIDE “B”
2
J1
1
COMM
DS4
Port 4 “A”
2
J5
Port 3 “A”
1
2
J4
Port 2 “A”
1
2
J3
Port 1 “A”
1
RESET_A
U5
SIDE “A”
P1.4_A
P1.3_A
DS2
2
1
J19
J18
R27
2
J7
J20
J14
J8
J26
Port 0 “B”
C8051
F580
J10 J9
J21
1
J22
1
2
1
J27
U1
1
J17
U2
J31
J32
F582
2
Port 1 “B”
J24
2
DS3
PWR
2
SILICON LABS www.silabs.com
1
2
2
1
J28
J11
P1.4_B
1
DS1
P1.3_B
2
C8051F580-TB
Port 2 “B”
1
J29
DEBUG_A
1
1
DEBUG_B
RESET_B
2
J2
1
P2
P4
TB3 P3
Figure 3. C8051F580 Target Board with Pin Numbers
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8.1. Target Board Shorting Blocks: Factory Defaults
shows the positions of the factory default shorting blocks.
P1
Port 0 “A”
P5
TB1
U5
J1
COMM
DS4
Port 4 “A”
SIDE “A”
J5
Port 3 “A”
J4
Port 2 “A”
J3
Port 1 “A”
R27
J20
J14
DS2
P1.3_A
C8051
F580
J22
J17
U1
P1.4_A
RESET_A
J24
J18
J19
J7
J10 J9
J21
SILICON LABS www.silabs.com
DS3
PWR
DEBUG_A
P4
J2
P2
TB3
J8
TB2
U2
J31
J32
F582
SIDE “B”
J26
Port 0 “B”
J27
Port 1 “B”
J11
P1.4_B
DS1
P1.3_B
J28
Port 2 “B”
P3
C8051F580-TB
DEBUG_B
J29
RESET_B
Figure 4. C8051F580 Target Board Shorting Blocks: Factory Defaults
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8.2. Target Board Power Options and Current Measurement (J7, J24, J31, P4)
The C8051F580 Target Board supports three power options:
1.
12V dc power using the ac to dc power adapter (P4)
2.
5V dc USB VBUS power from PC via the USB Debug Adapter (DEBUG_A)
3.
12V dc power from the LIN external header (TB1)
The two 12V power sources are ORed together using reverse-biased diodes (Z1 and Z2). The ORed power is regulated to a 5.0V dc voltage using a LDO regulator (U6). To power the board from the USB Debug Adapter connected to DEBUG_A instead of the 12V sources, move the shorting block on the J7 header to pins 1 and 2 to select SER_PWR. The output of the regulator powers the +5VD net on the target board, and is also connected to one end of the header J24 (Side A) and J31 (Side B). Two shorting blocks can be put on each header to connect the 5V net to the VREGIN and VIO pins on the two MCUs. With the J19 shorting blocks removed, a source meter can be used across the headers to measure the current consumption of the MCU.
Note: The USB Debug Adapter does not provide the necessary peak power for the CAN transceivers to operate. One of the
12V dc sources is recommended for CAN transceiver operation.
8.3. System Clock Sources (J9, J10)
8.3.1. Internal Oscillators
The C8051F580 and C8051F582 devices installed on the target board feature a factory-calibrated, programmable high-frequency internal oscillator (24 MHz base frequency, ±0.5%), which is enabled as the system clock source on reset. After reset, the internal oscillator operates at a frequency of 187.5 kHz by default but may be configured by software to operate at other frequencies. The on-chip crystal is accurate for CAN and LIN master communications and in many applications an external oscillator is not required. However, if you wish to operate the C8051F580 device (Side A) at a frequency not available with the internal oscillator, an external crystal may be used. Refer to the C8051F58x/59x data sheet for more information on configuring the system clock source.
8.3.2. External Oscillator Options
The target board is designed to facilitate the installation of an external crystal. Remove shorting blocks at headers
J9 and J10 and install the crystal at the pads marked Y1. Install a 10 M
resistor at R2 and install capacitors at C6 and C7 using values appropriate for the crystal you select. If you wish to operate the external oscillator in capacitor or RC mode, options to install a capacitor or an RC network are also available on the target board. R2, R3, C6, and
C7 are located on the back side of the board, near the Side A MCU. Populate C6 for capacitor mode, and populate
R3 and C6 for RC mode. Refer to the C8051F58x/59x data sheet for more information on the use of external oscillators.
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8.4. Switches and LEDs (J11, J19)
Two push-button switches are provided on the target board for each MCU. Switch RESET_A is connected to the
/RST pin of the C8051F580. Switch RESET_B is connected to the /RST pin of the C8051F582. Pressing
RESET_A puts the C8051F580 device into its hardware-reset state, and similarly for RESET_B and the
C8051F582 MCU. Switches P1.4_A and P1.4_B are connected to the MCU’s general purpose I/O (GPIO) pins through headers. Pressing either one of these switches generates a logic low signal on the port pin. Remove the
headers corresponding to each switch.
Four LEDs are provided on the target board to serve as indicators. The red LED labeled PWR indicates presence of power to the target board. The second red LED labeled COMM indicates if the CP2102 USB-to-UART bridge is recognized by the PC. The green LED on Side A is labeled with port pin name and is connected to a C8051F580
GPIO pin through a header. Remove the shorting block from the header to disconnect the LED from the port pin.
the port pins and headers corresponding to each LED.
Table 1. Target Board I/O Descriptions
Description
RESET_A
RESET_B
P1.4_A Switch
P1.4_B Switch
P1.3_A LED
P1.3_B LED
Red LED (PWR)
Red LED (COMM)
I/O
Reset (Side A)
Reset (Side B)
P1.4 (Side A)
P1.4 (Side B)
P1.3 (Side A)
P1.3 (Side B)
Power
COMM Active
Header(s)
none none
J19[1–2]
J11[1–2]
J19[3–4]
J11[3–4] none none
8.5. Target Board Debug Interfaces (P2 and P3)
The debug connectors P2 (DEBUG_A) and P3 (DEBUG_B) provide access to the debug (C2) pins of the
C8051F580 and C8051F582. The debug connectors are used to connect the Serial Adapter or the USB Debug
definitions.
Pin #
1
2, 3, 9
4
5
6
7
8
10
Table 2. DEBUG Connector Pin Descriptions
Side A - C8051F580
Description
Not Connected
GND (Ground)
C2D_A
/RST_A (Reset)
Not Connected
/RST/C2CK_A
Not Connected
USB Power (+5VDC from P2)
Pin #
1
2, 3, 9
4
5
6
7
8
10
Side B - C8051F582
Description
Not Connected
GND (Ground)
P3.0_C2D_B
/RST_B (Reset)
P3.0_B
/RST/C2CK_B
Not Connected
Not Connected
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8.6. Serial Interface (P5, J17)
A USB-to-UART bridge circuit (U5) and USB connector (P5) are provided on the target board to facilitate serial connections to UART0 of the C8051F580 (Side A). The Silicon Labs CP2102 USB-to-UART bridge provides data connectivity between the C8051F580 and the PC via a USB port. The TX and RX signals of UART0 may be connected to the CP2102 by installing shorting blocks on header J17. The shorting block positions for connecting
Table 3. Serial Interface Header (J3) Description
Header Pins UART0 Pin Description
J17[9–10]
J17[11–12]
UART_TX (P0.4_A)
UART_RX (P0.5_A)
8.7. CAN Interface and Network (J8, J14, J17, J26, TB2)
Both MCUs on the target board are connected to CAN transceivers (U3, U4) through headers. The port pins assigned to the CAN peripheral on each MCU are P0.6 (CAN_TX) and P0.7 (CAN_RX). The C8051F580 (Side A) is connected to U3 through the J17 header and the C8051F582 (Side B) is connected to U4 through the J26 header. The two CAN transceivers are connected to each other and form a CAN network. Other external devices can be connected to the CAN network through the TB2 interface. The shorting block positions for connecting the
Table 4. CAN Interface Headers (J17 and J26) Description
Header Pins CAN0 Pin Description
J17[5–6]
J17[7–8]
J26[1–2]
J26[3–4]
CAN_TX (P0.6_A)
CAN_RX (P0.7_A)
CAN_TX (P0.6_B)
CAN_RX (P0.7_B)
Table 5. TB2 External CAN Interface Header Description
Pin #
1
2
3
Pin Description
CAN_H
CAN_L
GND
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8.8. LIN Interface and Network (J17, J26, TB1)
Both MCUs on the target board are connected to LIN transceivers through headers. These headers assume that the MCU’s crossbars are configured to put the LIN TX and RX pins on port pins P1.0 and P1.1 respectively. See the C8051F58x/59x data sheet for crossbar configuration. The C8051F580 (Side A) is connected to the T1 transceiver through the J17 header and the C8051F582 (Side B) is connected to the T2 transceiver through the
J26 header. The two LIN transceivers are connected to each other and form a LIN network. Other external devices can be connected to the LIN network through the TB1 interface. The TB1 interface also provides the option for connecting an external power source so that all LIN transceivers can use the same source voltage. This source voltage can also be used to power the target board. If an external voltage source is not provided, the LIN
The pin connections for the external LIN devices are listed in Table 7.
Table 6. LIN Interface Headers (J17 and J26) Description
Header Pins LIN0 Pin Description
J17[9–10]
J17[11–12]
J26[5-6]
J26[7-8]
LIN_TX (P1.0_A)
LIN_RX (P1.1_A)
LIN_TX (P1.0_B)
LIN_RX (P1.1_B)
Table 7. TB1 External LIN Interface Header Description
Pin #
1
2
3
Pin Description
+LIN_V
LIN_OUT
GND
8.9. Port I/O Connectors (J1-J5 and J27-J29)
Each of the parallel ports of the C8051F580 (Side A) and C8051F582 (Side B) has its own 10-pin header connector. Each connector provides a pin for the corresponding port pins 0-7, +5V VIO, and digital ground. The same pin-out is used for all of the port connectors.
Table 8. Port I/O Connector Pin Description
Pin #
7
8
5
6
3
4
1
2
9
10
Pin Description
Pn.0
Pn.1
Pn.2
Pn.3
Pn.4
Pn.5
Pn.6
Pn.7
+5V (VIO)
GND (Ground)
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C 8 0 5 1 F 5 8 0 D K
Pin #
A-25
A-26
A-27
A-28
A-29
A-30
A-31
A-32
A-17
A-18
A-19
A-20
A-21
A-22
A-23
A-24
A-9
A-10
A-11
A-12
A-13
A-14
A-15
A-16
A-5
A-6
A-7
A-8
A-1
A-2
A-3
A-4
8.10. Voltage Reference (VREF) Connectors (J22 and J32)
The VREF connectors can be used to connect the VREF pin from the MCU (P0.0) to external 0.1 uF and 4.7 uF decoupling capacitors. The C8051F580 (Side A) device is connected to the capacitors through the J22 header and the C8051F582 (Side B) device connects to its own set of capacitors through J32.
8.11. Expansion Connector (P1)
The 96-pin expansion I/O connector P1 is used to connect daughter boards to the main target board. P1 provides
a complete list of pins available at P1.
The P1 socket connector is manufactured by Hirose Electronic Co. Ltd, part number PCN13-96S-2.54DS, Digi-Key part number H7096-ND. The corresponding plug connector is also manufactured by Hirose Electronic Co. Ltd, part number PCN10-96P-2.54DS, Digi-Key part number H5096-ND.
Description
P3.3_A
P3.0_A
P2.5_A
P2.2_A
P1.7_A
P1.2_A
P1.1_A
C2D_A
/RST_A
GND
N/C
N/C
VIO_A
N/C
N/C
N/C
N/C
N/C
P0.5_A
P_0.2_A
P4.7_A
P4.4_A
P4.1_A
P3.6_A
+3.3V
N/C
N/C
N/C
N/C
N/C
N/C
N/C
Table 9. P1 Pin Listing
Pin # Description
B-25
B-26
B-27
B-28
B-29
B-30
B-31
B-32
B-17
B-18
B-19
B-20
B-21
B-22
B-23
B-24
B-9
B-10
B-11
B-12
B-13
B-14
B-15
B-16
B-5
B-6
B-7
B-8
B-1
B-2
B-3
B-4
P3.2_A
P2.7_A
P2.4_A
P2.1_A
P1.6_A
P1.3_A
P1.0_A
N/C
GND
N/C
N/C
N/C
VDD_A
N/C
N/C
AGND
N/C
P0.7_A
P0.4_A
P0.1_A
P4.6_A
P4.3_A
P4.0_A
P3.5_A
GND
N/C
N/C
N/C
N/C
N/C
N/C
N/C
Pin #
C-25
C-26
C-27
C-28
C-29
C-30
C-31
C-32
C-17
C-18
C-19
C-20
C-21
C-22
C-23
C-24
C-9
C-10
C-11
C-12
C-13
C-14
C-15
C-16
C-1
C-2
C-3
C-4
C-5
C-6
C-7
C-8
Description
P3.1_A
P2.6_A
P2.3_A
P2.0_A
P1.5_A
P1.4_A
N/C
N/C
N/C
N/C
N/C
N/C
VREGIN_A
N/C
N/C
N/C
N/C
P0.6_A
P_0.3_A
P0.0_A
P4.5_A
P4.2_A
P3.7_A
P3.4_A
N/C
N/C
N/C
N/C
N/C
N/C
N/C
N/C
14 Rev. 0.1
C8051F580DK
8.12. Potentiometer (J20)
The C8051F580 (Side A) device has the option to connect port pin P1.2 to a 10K linear potentiometer. The potentiometer is connected through the J20 header. The potentiometer can be used for testing the analog-to-digital
(ADC) converter of the MCU.
8.13. Power Supply I/O (Side A) (TB3)
TB3 terminal block connections.
Table 10. TB3 Terminal Block Pin Descriptions
Pin #
3
4
1
2
5
6
Description
VIO_A
VREGIN_A
VDD_A
VDDA_A
GNDA_A
GND
8.14. Alternate Power Supply Headers (J18, J21)
The C8051F580 Target Board includes two headers that allow for alternate power sources and power measurement. Header J18 connects the VIO voltage supplied to the Side A MCU to other peripherals on the board, such as the P1.4_SW push-button switch pull-up, and the R27 potentiometer source. To enable current measurement, the shorting block on J18 can be removed so that the VIO_A node only powers the VIO pin on the
MCU. Another voltage source will need to be applied to the VIO_SRC node to power the other peripherals.
Header J21 connects the P4 power-adapter supply to the V_HIGH node, which is used as the power source for the
LIN transceivers (T1, T2). The shorting block on header J21 can be removed to force the LIN transceivers to use the voltage supply externally supplied on the +LIN_V pin on the TB1 header.
8.15. C2 Pin Sharing
On the C8051F580 (Side A), the debug pin C2CK is shared with the /RST pin. On the C8051F582 (Side B), the debug pins C2CK and C2D are shared with the pins /RST and P3.0 respectively. The target board includes the resistors necessary to enable pin sharing which allow the pin–shared pins (/RST and P3.0) to be used normally while simultaneously debugging the device. See Application Note “AN124: Pin Sharing Techniques for the C2
Interface” at www.silabs.com
for more information regarding pin sharing.
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C 8 0 5 1 F 5 8 0 D K
8.16. Target Board Pin Assignment Summary
Some GPIO pins of the C8051F580 MCU can have an alternate fixed function. For example, pin 46 on the
C8051F580 MCU is designated P0.4, and can be used as a GPIO pin. Also, if the UART0 peripheral on the MCU is enabled using the crossbar registers, the TX signal is routed to this pin. This is shown in the "Alternate Fixed
Function" column. The "Target Board Function" column shows that this pin is used as TX on the C8051F580 Target
Board. The "Relevant Headers" column shows that this signal is routed to pin 3 of the J17 header and pin 5 of the
J1 header. More details can be found in the C8051F58x/59x data sheet. Some of the GPIO pins of the C8051F580 have been used for various functions on the target board. All pins of the Side A MCU also connect to the 96-pin
assignments on the target board, and also shows the various headers associated with each signal.
P1.6
P1.7
P2.0
P2.1
P2.2
P2.3
P2.4
P2.5
P2.6
P2.7
P3.0
P3.1
P0.7
P1.0
P1.1
P1.2
P1.3
P1.4
P1.5
P0.0
P0.1
P0.2
P0.3
P0.4
P0.5
P0.6
MCU Pin Name
32
31
30
29
36
35
34
33
28
27
26
25
40
39
38
37
43
42
41
8
1
48
47
46
45
44
P1.6
P1.7
P2.0
P2.1
P2.2
P2.3
P2.4
P2.5
P2.6
P2.7
P3.0
P3.1
P0.7
P1.0
P1.1
P1.2
P1.3
P1.4
P1.5
Primary
Function
P0.0
P0.1
P0.2
P0.3
P0.4
P0.5
P0.6
Table 11. C8051F580 Target Board Pin Assignments and Headers
Pin# Alternate Fixed
Function
VREF
CNVSTR
XTAL1
XTAL2
UART_TX
UART_RX
CAN_TX
CAN_RX
Target Board
Function
VREF
CNVSTR
XTAL1
XTAL2
TX_MCU
RX_MCU
CAN_TX
CAN_RX
LIN_TX
LIN_RX
POTENTIOMETER
LED
SWITCH
GPIO
GPIO
GPIO
GPIO
GPIO
GPIO
GPIO
GPIO
GPIO
GPIO
GPIO
GPIO
GPIO
Relevant Headers
J2[7]
J2[8]
J3[1]
J3[2]
J3[3]
J3[4]
J3[5]
J3[6]
J3[7]
J3[8]
J4[1]
J42]
J1[1], J22[1]
J1[2]
J1[3]*, J9[1]
J1[4]*, J10[1]
J1[5], J17[3]
J1[6], J17[1]
J1[7], J17[5]
J1[8], J17[7]
J2[1], J17[9]
J2[2], J17[11]
J2[3], J20[1]
J2[4], J19[3]
J2[5], J19[1]
J2[6]
16 Rev. 0.1
C8051F580DK
Table 11. C8051F580 Target Board Pin Assignments and Headers (Continued)
P3.2
P3.3
P3.4
P3.5
P3.6
P3.7
P4.0
P4.1
P4.2
P4.3
P4.4
P4.5
P4.6
P4.7
/RST/C2CK
C2D
VIO
24
23
22
21
20
19
18
17
16
15
14
13
10
9
12
11
2
P3.2
P3.3
P3.4
P3.5
P3.6
P3.7
P4.0
P4.1
P4.2
P4.3
P4.4
P4.5
P4.6
P4.7
/RST
C2D
VIO
C2CK
GPIO
GPIO
GPIO
GPIO
GPIO
GPIO
GPIO
GPIO
GPIO
GPIO
GPIO
GPIO
GPIO
GPIO
/RST/C2CK
C2D
VIO
J4[3]
J4[4]
J45]
J4[6]
J4[7]
J4[8]
J5[1]
J5[2]
J5[3]
J5[4]
J5[5]
J5[6]
J5[7]
J5[8]
P2[7], P2[5]*
P2[4]
J24[4], J18[1], TB3[1]
J1-J5[9]
VREGIN
VDD
VDDA
GND
3
4
5
6
VREGIN
VDD
VDDA
GND
VREGIN
VDD
VDDA
GND
J24[2], P2[5]*, TB3[2]
TB3[3]
TB3[4]
J1-J5[10], TB3[6]
GNDA 7 GNDA VDD TB3[5]
*Note: Headers denoted by this symbol are not directly connected to the MCU pin; the connection might be via one or more headers and/or pin-sharing resistor(s). See board schematic for details.
Rev. 0.1
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C 8 0 5 1 F 5 8 0 D K
9. Schematics
18 Rev. 0.1
C8051F580DK
Rev. 0.1
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C 8 0 5 1 F 5 8 0 D K
20 Rev. 0.1
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Rev. 0.1
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