Freescale Semiconductor FRDM-KE06 Manuel utilisateur

Freescale Semiconductor, Inc.

User’s Guide

1 FRDM-KE06 hardware

overview

The FRDM-KE06 Freedom development platform

microcontroller board is assembled with the following

features:

• Kinetis E series KE06 MCU in an 80-pin LQFP

package

• On-board serial and debug adapter (OpenSDA)

• I/O headers for easy access to MCU I/O pins

• Freescale inertial sensor, MMA8451Q

• Reset push button

• RGB LED

• Infrared communication

• One thermistor

• Motor control function for simple BLDC motor

control on APMOTOR56F8000E

• CAN communication

Figure 1 shows a block diagram of the FRDM-KE06 board.

Document Number: FRDMKE06UG

Rev. 0, 03/2014

Contents

1. FRDM-KE06 hardware overview . . . . . . 1

2. FRDM-KE06 hardware description . . . . . 2

2.1. Power supply . . . . . . . . . . . . . . . . . . 2

3. Serial and Debug Adapter (OpenSDA) . . 4

3.1. Debugging interface . . . . . . . . . . . . . 5

3.2. Virtual serial port . . . . . . . . . . . . . . . 6

3.3. KE06 microcontroller . . . . . . . . . . . . 6

3.4. Thermistor . . . . . . . . . . . . . . . . . . . . 7

3.5. Infrared port . . . . . . . . . . . . . . . . . . . 8

3.6. Key buttons . . . . . . . . . . . . . . . . . . . . 8

3.7. Three-axis accelerometer . . . . . . . . . 9

3.8. RGB LED . . . . . . . . . . . . . . . . . . . . 10

3.9. CAN . . . . . . . . . . . . . . . . . . . . . . . . 11

3.10. Input/Output headers . . . . . . . . . . 12

3.11. Arduino compatibility . . . . . . . . . . 13

Freedom KE06 User’s Guide

FRDMKE06UG, Freedom KE06 User’s Guide, Rev. 0, 03/2014

2Freescale Semiconductor, Inc.

FRDM-KE06 hardware description

Figure 1. FRDM-KE06 block diagram

The FRDM-KE06 features two microcontrollers, the target MCU and a serial and debug adapter

(OpenSDA) MCU. The target MCU is a Kinetis E series KE06 family device. The OpenSDA MCU is a

Kinetis K series K20 family device, the K20DX128VFM5.

2 FRDM-KE06 hardware description

2.1 Power supply

The FRDM-KE06 offers a design with multiple power supply options. It can be powered from the USB

connector, the VIN pin on the I/O header, an off-board 1.71-3.6V supply from the 3.3V pin on the I/O

header or 3.3V from motor control board. The USB and VIN supplies are regulated on-board using a 3.3V

linear regulator to produce the main power supply. The other two sources are not regulated on-board. Note

that KE06 on FRDM board can be powered by 5 V or 3.3 V.

The following figure shows the schematic drawing for the power supply inputs and the on-board voltage

regulator.

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FRDM-KE06 hardware description

Figure 2. FRDM-KE06 power supply

Table 1 provides the operational details and requirements for the power supplies.

Note that the OpenSDA circuit is only operational when a USB cable is connected and supplying power

to J6. However, the protection circuitry is in place to allow multiple sources to be powered at once.

Table 1. Power supply requirements

Supply source Valid range OpenSDA operational? Regulated

on-board?

OpenSDA USB (J6) 5V Yes Yes

VIN Pin on I/O header 4.3-9V Yes Yes

3.3V Pin on I/O header 1.71-3.6V Yes No

3.3V Pin on motor control header 3.3V Yes No

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Serial and Debug Adapter (OpenSDA)

Notes:

1. J9 and J10 are not populated by default on the production version. The two pins of these headers

are shorted together by 0 ohm resistor R12 and R26 on the PCB. To measure the energy

consumption of either the KE06 or the OpenSDA MCU, the 0 ohm resistor between these pins

must first be cut. A current probe or a shunt resistor and voltage meter can then be applied to

measure the energy consumption on these rails. When the MCU current measurement is done, this

0 ohm resistor can be soldered on again.

2. To better get ADC accuracy on KE06, it is recommended that a 0 ohm resistor R13 be soldered

on. Ensure there is no power supply from P3V3_MOTOR and P3V3 sourced from I/O headers.

3 Serial and Debug Adapter (OpenSDA)

OpenSDA is an open-standard serial and debug adapter. It bridges serial and debug communications

between a USB host and an embedded target processor as shown in Figure 3.

Table 2. Power supplies

Power supply name Description

VDD_PERIPH Peripheral power supply, including RGB LED, Key buttons, infrared,

thermistor, reset circuit.

J14 Pin1&2 connected, 3.3V power supply;

J14 Pin2&3 connected, 5V power supply.

VDD_KE06 KE06 MCU power supply.

Header J9 provides a convenient means for KE06 energy consumption

measurements.

Header J14 for KE06 power supply selection: 3.3V or 5V.

J14 Pin1&2 connected, 3.3V power supply,

J14 Pin2&3 connected, 5V power supply.

P3V3_SDA OpenSDA circuit power supply.

Can be 3.3V only.

Header J10 provides a convenient means for K20 energy consumption

measurements.

P5V_SDA

INPUT

[J6 Pin1] Input 5V Power supplied from the OpenSDA USB connector.

P5-9V_VIN

INPUT

[J4 Pin16] Power supplied from the VIN pin of the I/O headers.

P3V3_MOTOR

INPUT

[J2 Pin13] Input 3.3V power supplied from motor control header.

P5V_USB

OUTPUT

[J4 Pin10] Output 5V to the I/O headers.

Sourced from J6 USB (P5V_SDA) supply through a back drive protection

Schottky diode.

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Serial and Debug Adapter (OpenSDA)

Figure 3. OpenSDA block diagram

OpenSDA is managed by a Kinetis K20 MCU built on the ARM®Cortex™-M4 core. The OpenSDA

circuit includes a status LED (D4) and a reset pushbutton (SW1). The pushbutton asserts the reset signal

to the KE06 target MCU. It can also be used to place the OpenSDA circuit into Bootloader mode by

holding down the reset pushbutton while plugging the USB cable to USB connector J6. Once the

OpenSDA enters bootloader mode, other OpenSDA applications such as debug app can be programmed.

SPI and GPIO signals provide an interface to the SWD debug port of the KE06. Additionally, signal

connections are available to implement a UART serial channel. The OpenSDA circuit receives power

when the USB connector J6 is plugged into a USB host.

3.1 Debugging interface

Signals with SPI and GPIO capability are used to connect directly to the SWD of the KE06. These signals

are also brought out to a standard 10-pin (0.05”) Cortex Debug connector (J7) as shown in Figure 4. It is

possible to isolate the KE06 MCU from the OpenSDA circuit and use J7 to connect to an off-board MCU.

To accomplish this, cut the 0 ohm resistor R58. This will disconnect the SWD_CLK pin to the KE06 so

that it will not interfere with the communications to an off-board MCU connected to J7.

When KE06 on FRDM board is 5V powered, and the OpenSDA is power off, there need to connect an

external debugger to debug KE06 on board.

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6Freescale Semiconductor, Inc.

Serial and Debug Adapter (OpenSDA)

Figure 4. SWD debug connector to KE06

3.2 Virtual serial port

A serial port connection is available between the OpenSDA MCU and UART1 pin PTC7 (TXD1) and

PTC6 (RXD1) of KE06. Several of the default OpenSDA applications provided by Freescale, including

the MSD Flash Programmer and the P&E Debug Application, provide a USB Communications Device

Class (CDC) interface that bridges serial communications between the USB host and this serial interface

on the KE06.

3.3 KE06 microcontroller

3.3.1 Clock source

The Kinetis KE06 microcontrollers feature an on-chip oscillator compatible with two ranges of input

crystal or resonator frequencies: 32 kHz (low frequency mode), 4-20 MHz (high frequency mode).

The KE06 on the FRDM-KE06 is clocked from an 8 MHz crystal.

3.3.2 Serial port

The serial port interface signals used with OpenSDA are UART1 pin PTC7 (TXD1) and PTC6 (RXD1).

These signals are also connected to I/O header J1.

3.3.3 Reset

The PTA5/RESET signal on the KE06 is connected externally to a pushbutton SW1. The reset button can

be used to force an external reset event in the target MCU. The reset button can also be used to force the

OpenSDA circuit into bootloader mode when plugging the USB cable to J6. See Section 3, “Serial and

Debug Adapter (OpenSDA)” section for more details.

FRDMKE06UG, Freedom KE06 User’s Guide, Rev. 0, 03/2014

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Serial and Debug Adapter (OpenSDA)

3.3.4 Debug

The sole debug interface on all Kinetis E Series devices is a Serial Wire Debug (SWD) port. The primary

controller of this interface on the FRDM-KE06 is the onboard OpenSDA circuit. However, a 2x5-pin

(0.05”) Cortex Debug connector, J7, provides access to the SWD signals for the KE06 MCU. The

following table shows SWD connector signals description for KE06:

3.4 Thermistor

One thermistor (RT1) is connected to two ADC inputs (PTF4/ADP12, PTF5/ADP13) of KE06 for

evaluating the ADC module.

Figure 5. Thermistor connection

Table 3. ARM JTAG/SWD mini connector description

Pin Function Connection to KE06

1 VTref 3.3V or 5V KE06 power supply (VDD_KE06)

2 SWDIO/TMS PTA4/SWD_DIO

3GND GND

4 SWDCLK/TCK PTC4/SWD_CLK

5GND GND

6 SWO/TDO NC

7NC NC

8 TDI NC

9NC NC

10 RESET PTA5/RESET

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8Freescale Semiconductor, Inc.

Serial and Debug Adapter (OpenSDA)

3.5 Infrared port

One infrared Rx port and one Tx port (as shown in the following figure) are connected to ACMP0 input

pin (ACMP0_IN1) and UART0 TXD0 pin of KE06 to demonstrate the capability of SCI0 modulated by a

flextimer to generate infrared signals and use ACMP0 as a filter to receive the SCI data via infrared signal.

Figure 6. Infrared connection

3.6 Key buttons

Two key buttons are connected to PTH3/4 to demonstrate KBI function of KE06, which can capture both

falling edge and rising edge of key button input, as shown in the following figure.

FRDMKE06UG, Freedom KE06 User’s Guide, Rev. 0, 03/2014

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Serial and Debug Adapter (OpenSDA)

Figure 7. Key buttons connection

3.7 Three-axis accelerometer

A Freescale MMA8451Q low power, three-axis accelerometer is interfaced through an I2C bus and two

GPIO signals as shown in the following table. By default, the I2C address is 0x1D (SA0 pulled high).

Table 4. Accelerometer signal connections

MMA8451Q KE06

SCL PTA3

SDA PTA2

INT1 PTD4

INT2 PTD3

FRDMKE06UG, Freedom KE06 User’s Guide, Rev. 0, 03/2014

10 Freescale Semiconductor, Inc.

Serial and Debug Adapter (OpenSDA)

Figure 8. Accelerometer connection

3.8 RGB LED

Three PWM-capable pins are connected to a red, green, blue LED. The signal connections are shown in

the table below.

Table 5. RGB LED Signal Connections

RGB LED KE06

Red Cathode PTG5/FTM2CH3

Green Cathode PTG6/FTM2CH4

Blue Cathode PTG7/FTM2CH5

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