FUJITSU MICROELECTRONICS

SUPPORT SYSTEM SS01-26033-1E

F2MC-8FX Family
8-bit MICROCONTROLLER
MB95200H/210H Series
STARTER KIT MB2146-410A-01-E
SETUP GUIDE
PREFACE
Thank you for purchasing the F2MC*1-8FX Family Starter Kit: MB2146-410A-01-E*2.
This product is a starter kit for F2MC-8FX MB95200H/210H series, which comes with MB2146-08-
E (F2MC-8FX Family MB95200 Series BGM Adapter)*3, MB2146-410A-E (F2MC-8FX Family
MB95200H/210H Series Evaluation Board)*4, and F2MC-8L/8FX Family SOFTUNE Professional
Pack Evaluation Version*5.
This manual explains how to use the Starter Kit. Be sure to read this manual before using the product.
For mass production/evaluation MCUs for this product, consult with sales representatives or support
representatives.

*1 : F2MC is the abbreviation of FUJITSU Flexible Microcontroller.

*2 : Referred below as the Starter Kit.
*3 : Referred below as the BGMA.
*4 : Referred below as the EV-Board.
*5 : Referred below as the SOFTUNE.

Handling and use

Handling and use of this product and notes regarding its safe use are described in the manuals for
products bundled with the Starter Kit.
Follow the instructions in the manuals to use this product.
Keep this manual at hand so that you can refer to it anytime during use of this product.

European RoHS compliance

Products with a -E suffix on the part number are European RoHS compliant products.

Notice on this document

All information included in this document is current as of the date it is issued. Such information is
subject to change without any prior notice.
Please confirm the latest relevant information with the sales representatives.

i
 Caution of the products described in this document
The following precautions apply to the product described in this manual.

Indicates a potentially hazardous situation which could result in death or serious

WARNING injury and/or a fault in the users system if the product is not used correctly.

Before performing any operation described in this manual, turn off all the power
Electric shock, supplies to the system.
Damage Performing such an operation with the power on may cause an electric shock or
device fault.
Electric shock, Once the product has been turned on, do not touch any metal part of it.
Damage Doing so may cause an electric shock or device fault.

Indicates the presence of a hazard that may cause a minor or moderate injury, dam-
CAUTION ages to this product or devices connected to it, or may cause to loose software re-
sources and other properties such as data, if the device is not used appropriately.

Before moving the product, be sure to turn off all the power supplies and unplug the
cables. Watch your step when carrying the product. Do not use the product in an
Cuts, Damage unstable location such as a place exposed to strong vibration or a sloping surface.
Doing so may cause the product to fall, resulting in an injury or fault.
The product contains sharp edges that are left unavoidably exposed, such as jump-
Cuts er plugs.
Handle the product with due care not to get injured with such pointed parts.
Do not place anything on the product or expose the product to physical shocks. Do
Damage not carry the product after the power has been turned on.
Doing so may cause a malfunction due to overloading or shock.
Since the product contains many electronic components, keep it away from direct
sunlight, high temperature, and high humidity to prevent condensation. Do not use
Damage or store the product where it is exposed to much dust or a strong magnetic or elec-
tric field for an extended period of time.
Inappropriate operating or storage environments may cause a fault.
Use the product within the ranges given in the specifications.
Damage Operation over the specified ranges may cause a fault.
To prevent electrostatic breakdown, do not let your finger or other object come into
contact with the metal parts of any of the connectors. Before handling the product,
Damage touch a metal object (such as a door knob) to discharge any static electricity from
your body.
When turning the power on or off, follow the relevant procedure as described in this
document.
Before turning the power on, in particular, be sure to finish making all the required
Damage connections. Furthermore, be sure to configure and use the product by following the
instructions given in this document.
Using the product incorrectly or inappropriately may cause a fault.
Always turn the power off before connecting or disconnecting any cables from the
product. When unplugging a cable, unplug the cable by holding the connector part
Damage without pulling on the cable itself. Pulling the cable itself or bending it may expose
or disconnect the cable core, resulting in a fault.
Because the product has no casing, it is recommended that it be stored in the orig-
Damage inal packaging. Transporting the product may cause a damage or fault. Therefore,
keep the packaging materials and use them when re-shipping the product.

ii
 The contents of this document are subject to change without notice.
Customers are advised to consult with sales representatives before ordering.
The information, such as descriptions of function and application circuit examples, in this document are presented sole-
ly for the purpose of reference to show examples of operations and uses of FUJITSU MICROELECTRONICS semi-
conductor device; FUJITSU MICROELECTRONICS does not warrant proper operation of the device with respect to
use based on such information. When you develop equipment incorporating the device based on such information, you
must assume any responsibility arising out of such use of the information. FUJITSU MICROELECTRONICS assumes
no liability for any damages whatsoever arising out of the use of the information.
Any information in this document, including descriptions of function and schematic diagrams, shall not be construed
as license of the use or exercise of any intellectual property right, such as patent right or copyright, or any other right
of FUJITSU MICROELECTRONICS or any third party or does FUJITSU MICROELECTRONICS warrant non-in-
fringement of any third-party's intellectual property right or other right by using such information. FUJITSU MICRO-
ELECTRONICS assumes no liability for any infringement of the intellectual property rights or other rights of third
parties which would result from the use of information contained herein.
The products described in this document are designed, developed and manufactured as contemplated for general use,
including without limitation, ordinary industrial use, general office use, personal use, and household use, but are not
designed, developed and manufactured as contemplated (1) for use accompanying fatal risks or dangers that, unless
extremely high safety is secured, could have a serious effect to the public, and could lead directly to death, personal
injury, severe physical damage or other loss (i.e., nuclear reaction control in nuclear facility, aircraft flight control, air
traffic control, mass transport control, medical life support system, missile launch control in weapon system), or (2)
for use requiring extremely high reliability (i.e., submersible repeater and artificial satellite).
Please note that FUJITSU MICROELECTRONICS will not be liable against you and/or any third party for any claims
or damages arising in connection with above-mentioned uses of the products.
Any semiconductor devices have an inherent chance of failure. You must protect against injury, damage or loss from
such failures by incorporating safety design measures into your facility and equipment such as redundancy, fire pro-
tection, and prevention of over-current levels and other abnormal operating conditions.
Exportation/release of any products described in this document may require necessary procedures in accordance with
the regulations of the Foreign Exchange and Foreign Trade Control Law of Japan and/or US export control laws.
The company names and brand names herein are the trademarks or registered trademarks of their respective owners.
Copyright 2008 FUJITSU MICROELECTRONICS LIMITED All rights reserved

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1. Product Overview

This product is a set of Starter Kit (MB2146-410A-01-E) of MB95200H/210H series. It

is composed of a BGMA (MB2146-08-E) and an EV-board (MB2146-410A-E).
Combining the SOFTUNE Workbench on PC, the Starter kit enables the quick start of
development before the user system is ready.

1.1 Objective and Deliverable

The Starter kit (MB2146-410A-01-E) provides users a complete development platform. Before start
using the Starter Kit, make sure that the following devices are placed in the package:

BGMA (MB2146-08-E): 1PCS;

EV-board (MB2146-410A-E): 1PCS;
USB cable: 1PCS
CD-ROM (SOFTUNE, manuals, sample code): 1PCS
Hardcopy (China RoHS report, quick start guide): 1PCS

1.2 System Block

To setup a debugging system, connect a PC, a BGMA and an EV-board together as shown below:

Easy design and study

MB95200H/210H MCU
with BGMA and SOFTUNE

Sample code

Host PC BGMA
MB95200H/210H
SOFTUN E MCU
IDE USB

Target Board

Figure 1.2-1 System Block

1.3 Handling Precautions

The Starter Kit can be used in connection with its bundled products. To ensure correct use of this
product in a proper environment, observe the following guideline:
Follow the instructions described in each manual for the bundled product to use this product.

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1.4 Feature
The MB95200H/210H Series starter kit is the best for a performance and functional evaluation, and
a check of operation before including MB95200H/210H Series in a user's system.
Below, the feature of the BGM debugger for MB95200 Series is shown.
Microcomputer operation voltage. It corresponds to +2.7V to +5.5V.
(The maximum and minimum of microcomputer operation voltage and frequency of operation
differs with each MCU. refer to the documents (a data sheet, hardware manual, etc.) of each
device relation for the operation voltage and frequency of MCU of operation.)
Compact development environment, a light and small BGM Adapter.
Since a monitor program is performed in exclusive memory space, it does not consume user
memory space.
Continuation execution, step execution and break correspondence.
It connects with a host computer by the USB interface.

1.5 Hardware Setup

In the hardware setup procedure, you configure and connect the hardware products. This chapter in-
cludes the configuring and connecting procedure for each product in order. Check the contents and
complete the hardware setup.

Configuration of each product

- Configuring EV-Board
Connection of each product
- Connecting BGMA and EV-board
- Connecting EV-board power supply

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2. BGMA Manual

This chapter gives introduction how to setup BGMA.

2.1 BGMA Overview

Below is the close look of the BGMA. The Part Number of the MB95200 Series BGMA is MB2146-
08-E. It provides a debug platform for the MB95200 Series MCU in a small size (55.7mm (W)
127mm (D) 30mm (H)).

Figure 2.1-1 BGMA overview

2.2 Function List

ID Function description Remarks

MCU MAX machine clock: 16.25 MHz

1 Support MB95200 Series MCU
MCU power voltage: 2.4V*1*2 to 5.5V*1

2 Break pointer 256 software breakpoints

3 USB interface to PC/SOFTUNE Compatible to USB protocol version 1.1

1-Line UART interface to the MB95200

4 The Baud rate is 62,500 bps
Series MCU

Support the MCU flash programming for Provide high voltage for flash operation.
5
engineering development The program and read speed is about 800 B/S.
*1 : The value varies depending on the operating frequency, the machine clock or the analog guar-
anteed range.
*2 : The value is 2.88 V when the low-voltage detection reset is used.

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2.3 IDC10 Interface Description

Pin Number Pin Name Description

1 UVCC Target MCU Vcc

2 GND Target MCU Vss

3 RSTIN Target MCU reset input

4 RSTOUT Target MCU reset output

5 RSV Reserved

6 RSV Reserved

7 RSV Reserved

8 DBG Target MCU debug pin

9 RSV Reserved

10 RSV Reserved

2.4 BGMA USB Configuration

The BGMA is provided with a USB cable. Connect the BGMA to a PC with a USB cable. If the
connection is right, the following window will pop up. Follow the instructions displayed, and then
click Next,

Figure 2.4-1 Install BGMA in Windows (1)

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Select Install from a list or specific location (Advanced), then click Next,

Figure 2.4-2 Install BGMA in Windows (2)

Select \Drivers from the folder where SOFTUNE is installed, click Next,

Figure 2.4-3 Install BGMA in Windows (3)

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 Select BGMA (MB2146-08) as displayed below, and then click Next,

Figure 2.4-4 Install BGMA in Windows (4)

Windows will install the driver automatically. Click Finish after the driver has completed the
installation normally. Then users can find the BGMA is recognized as MB2146-08 in Windows
system.

Figure 2.4-5 BGMA is installed in Windows

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2.5 LED Description
First, only plug USB cable to PC, check the Power LED on BGMA turns Green. Refer to Figure 2.5-
1.

Figure 2.5-1 BGMA Power LED (1)

Second, plug IDC10 cable to the EV-board (target MCU board), then turn on EV-board. After that
check Power LED on the BGMA turns Orange. Refer to Figure 2.5-2.

Figure 2.5-2 BGMA Power LED (2)

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3. EV-board Manual

This chapter gives introduction how to setup EV-board.

3.1 EV-board Overview

MB95200H/210H MCU EV-board is provided as a user-friendly introductory and evaluation plat-
form for the MB95200H/210H MCU Family microcontroller. Figure 3.1-1 below is a close look of
EV-board.

Debug Interface
Jumpers left open to BGMA
when debug

Buzzer circuit Power supply either from

batteries (below the PCB)
or from 2-pin header

Potentiometer to
MCU AD pin

MB95200H/210H
MCU Circuit for
LIN-UART
peripheral
communication
LEDs to MCU
I/O port pins

Jumpers to set MCU

pins connected to Switch circuit to MCU
external circuits or not External Interrupt pins

Figure 3.1-1 EV-board Overview

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3.2 Function List
The EV-board consists of a board and a sample firmware. The board provides a useful platform for
using the MCU and its peripherals. It is a useful development platform together with a BGMA (PN:
MB2146-08-E) and a SOFTUNE. It features the following functions,

Clock and sub-clock

USB 5V power IF, external 5V power IF and the battery
Reset circuit and reset key
Provide IDC10 debug interface
LEDs for general use, LED1 indicates DBG pin work status
Provide one buzzer to demonstrate timer output
2 keys for general use
Potentiometer and temperature sensor
RS-232 level converter and DB9 interface (MAX232)
LIN circuit reserved
SIO 4 pins reserved
All MCU ports are easy accessible through test pins
Optional Starter kit to support each available MCU packages

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3.3 EV-board Schematic

Figure 3.3-1 EV-board Schematic

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3.4 HW Module Description and Jumper settings

3.4.1 Power Module

EV-board has 4 kinds of power supply for user to choose. Please read below instructions before us-
ing.

DC Adaptor: 9V DC:
Output voltage: 9V
Connection: Connector (CN6)

Battery:
QTY: 4PCS;
Model: AA;
Nominal voltage: 1.5V.
Connection: Socket for Battery

External Power Supply:

There are 2 test points (TP1&2) on EV-board which can supply power to target board (EVboard).
Power on method: short L3 on EV-board; then connect anode of DC power to TP1 (MCU Vcc) and
cathode to TP2 (MCU GND).

USB cable:
The Mini-B USB receptacle is only for supplying power to EV board by PC USB port. The current
and power of this method is limited in 100mA/0.5W.

Please make sure to supply stable power via the Mini-B USB receptacle while operation.
If any of the power supplies is connected to the EV-board correctly, power LED (LED5) on
the EV-board will be on. Refer to Figure 3.4.1-1.

Figure 3.4.1-1 Power Module

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 The following two power supplies are recommended. Please follow the settings below,

Table 3.4.1-1 Power Supply Selection

Power supply Header name Settings

4 AA batteries from BT1

on the back of the EV- J1: BAT.
board.

9V DC from CN6 J1: 9V.

Please do not connect several power supplies at the same time.

3.4.2 BGMA Interface

To start the debug using a BGMA, users shall connect IDC10 socket from the BGMA to CN1 on an
EV-board, and J2 shall be open in a debug mode. In a normal (free-run) mode, J2 shall be closed to
enable reset key S3. Refer to Figure 3.4.2-1.

Figure 3.4.2-1 Debug Interface

Table 3.4.2-1
MCU Mode Header name Settings

Debug mode J2

Normal mode J2

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3.4.3 Clock Settings

The MB95200H/210H series MCU uses an internal main CR as a clock source by default. Users can
select on-board crystal as a main clock and a sub-clock. Follow the settings below:

Table 3.4.3-1
Clock Header name Settings

Main clock SW3: X1, X0

Sub-clock SW3: X1A, X0A

3.4.4 Buzzer Module

A buzzer module is provided to demonstrate an 8/16 composite timer output (a continuous mode).
To enable buzzer module, follow the table below:

Table 3.4.4-1
Modules Header name Settings

Buzzer:
SW1: BUZ.
BUZ1

3.4.5 A/D Module

VR1 and VR3 are to demonstrate a MCU A/D converter usage. Select VR1 or VR3 by the following
table.
VR1 is connected to MCU A/D channel 1, and VR3 is connected to MCU A/D channel 0.

Table 3.4.5-1
Modules Header name Settings

A/D:
SW2: VR1
VR1

A/D:
SW2: VR3
VR3

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 3.4.6 LED Module

There are four LEDs on EV-board to demonstrate the I/O function.

Enable LED2, LED3 and LED4 in the following table,

Table 3.4.6-1
Modules Header name Settings

SW2:
LED2, LED3
LED*:
LED2, LED3, LED4

SW1: LED4

* : LED module has four LEDs in total, but P12 (LED1) is not active in a debug mode using BG-
MA.

3.4.7 Key Module

Key S1 and key S2 are provided to demonstrate an external interrupt function. Enable these two keys
by the following table.
Key S1 is connected to external Int7, and key S2 is connected to external Int6.

Table 3.4.7-1
Modules Header name Settings

Key:
SW2: S1, S2
S1, S2

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3.4.8 Lin-UART Module

Lin-UART module can be configured as a LIN or an UART module. Enable each module by the
following table.
The UART module features an RS232 transceiver and a standard DB9 interface with PC.
Lin module enables an easy setup of Master/Slave communication by a Lin bus.

Table 3.4.8-1
Modules Header name Settings

SW2: SOT, SIN

UART

J5: UART
J6: UART

SW2:
SCK, SOT, SIN

LIN*

J5: LIN
J6: LIN

* : LIN module is optional; contact your local distributor for the EV-board with a LIN module.

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4. Sample Code Manual
4.1 Topic List
The following sample codes are provided with MB95200H/210H MCU Starter Kit,

IO_LED project
In this example, the 3 LEDs will be on in the following sequence:
...->LED2->LED3->LED4...

A/D_Potentiometer project
In this example, the 3 LEDs will display on or off according to the arrow direction of VR3.

Timer_Buzzer project (Continuous timer)

In this example, Buzzer will be on once by pressing Key S1; Buzzer will be on twice by press-
ing Key S2.

ExInt_Key Project
Press Key S1, the 3 LEDs will be on in the following sequence:
...->LED4->LED3->LED2...
Press Key S2, the 3 LEDs will be on in the following sequence:
...->LED2->LED3->LED4...

UART project
In this example, the MCU works in an asynchronous mode.
(9,600bps, 1 stop bit, no parity)
After a reset, the MCU will send "Welcome to the LIN-UART (asynchronous mode) of
MB95200series (8FX)" to RS232 transceiver.
Then the MCU feedbacks any bytes it received.

SIO project
This example uses two EV-boards to demonstrate the SIO (synchronous mode) function.
(9600bps)
One MCU keeps sending data while the other keeps receiving. One LED is toggled to indicate
the communication is correct.

LIN slave
In this example, the MCU is running in a Lin Slave mode. After a reset, the MCU is waiting
for data from the Master. If the data is received correct, LED4 starts twinkling.

LIN master
In this example, the MCU is running in a Lin Master mode. After a reset, the MCU starts send-
ing data to a Slave. If the Master gets correct data from the Slave, the MCU restarts sending.
While sending data to the Slave, LED2 keeps twinkling.

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4.2 Project Structure
The Sample code is organized by the following structure in each project. Here take IO_LED project
for example shown in Figure 4.2-1.

Figure 4.2-1 I/O_LED Project Structure

4.3 Source Code File Description

Five files are available in each sample code source code folder shown below,

Figure 4.3-1 Source Code Files

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 4.3.1 Header Files

The MB95200.h and the MB95200.asm are header files, including MB95200H/210H MCU I/O
registers definition;
Here take PDR0 for example. In MB95200.h, PDR0 is defined as below.

/* REGISTER BIT STRUCTURES */

typedef union{ /* Port0 */
_BYTE byte;
struct{
_BYTE P00:1;
_BYTE P01:1;
_BYTE P02:1;
_BYTE P03:1;
_BYTE P04:1;
_BYTE P05:1;
_BYTE P06:1;
_BYTE P07:1;
} bit;
struct{
_BYTE P00:1;
_BYTE P01:1;
_BYTE P02:1;
_BYTE P03:1;
_BYTE P04:1;
_BYTE P05:1;
_BYTE P06:1;
_BYTE P07:1;
} bitc;
} PDR0STR;

__IO_EXTERN PDR0STR IO_PDR0; /* Port0 */
#define _pdr0 (IO_PDR0)
#define PDR0 (IO_PDR0.byte)
#define PDR0_P00 (IO_PDR0.bit.P00)
#define PDR0_P01 (IO_PDR0.bit.P01)
#define PDR0_P02 (IO_PDR0.bit.P02)
#define PDR0_P03 (IO_PDR0.bit.P03)
#define PDR0_P04 (IO_PDR0.bit.P04)
#define PDR0_P05 (IO_PDR0.bit.P05)
#define PDR0_P06 (IO_PDR0.bit.P06)
#define PDR0_P07 (IO_PDR0.bit.P07)

In MB95200.asm, PDR0 address 0x0000 is allocated to PDR0 as below.

__pdr0 .res.b 1 ;000000 /* Port0 */
PDR0 .equ 0x0000

4.3.2 Startup.asm File

The Startup.asm is the MB95200H/210H MCU initialization file including stack settings, register
bank settings and watchdog settings etc;

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4.3.3 Vectors.c File.

The Vectors.c contains the MB95200H/210H MCU Interrupt vector definition.

User can pre-set all interrupt control registers in function InitIrqLevels(). It can be used to set all in-
terrupt priorities in static applications. For example, to set the external interrupt ch.0 to level 0,
change the following code:
ILR0 = 0xFF; // IRQ0: external interrupt ch.0 | ch.4
// IRQ1: external interrupt ch.1 | ch.5
// IRQ2: external interrupt ch.2 | ch.6
// IRQ3: external interrupt ch.3 | ch.7
To
ILR0 = 0xFC; // IRQ0: external interrupt ch.0 | ch.4
// IRQ1: external interrupt ch.1 | ch.5
// IRQ2: external interrupt ch.2 | ch.6
// IRQ3: external interrupt ch.3 | ch.7
And declare the interrupt function as in Vectors.c below,

__interrupt void external_int00 (void);

#pragma intvect external_int00 0 // IRQ0: external interrupt ch0 | ch4

Then user can write his own interrupt sub-routine in Main.C shown as below.

/*--------------------- INTERRUPT SERVICE ROUTINE ---------------------------*/

__interrupt void external_int00(void)
{
//User code
}

4.3.4 Main.c File

Main.c contains the user code.

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5. Development Platform Quick Start
5.1 Tools Setup Sequence
Start the debugging system in the following sequence:
Connect a BGMA to the PC using a USB cable, confirm the LED on the BGMA is Green;
Connect an EV-board to BGMA IDC10 socket;
Select the EV-board power supply and turn on the EV-board, confirm the LED on the BGMA
is Orange and the Power LED on the EV-board is on.

5.2 Open Project and Start Debug

Users can start a debug from a PC software SOFTUNE workbench in the following sequence. Here take
IO_LED project for example.
Start the SOFTUNE from Startup Menu>Programs> SOFTUNE V3> FFMC-8L Family SOF-
TUNE Workbench in Windows;
Click Open workspace from File Menu in SOFTUNE;
Select IO_LED.wsp in Open Space window;
Click Start debug from Debug Menu.
If the entire procedure goes right, a debug will start normally.

5.3Operation Precautions
All pins of MB95200H/210H MCU are connected to Testing Pin on the EV-board. If the user
wants to test separate pin performance, do disconnect the header of related peripheral mod-
ules.
Note that J2 shall be open while debugging using the BGMA. User reset from S3 (reset key)
is invalid when J2 is open. To use reset key S3 in a normal mode, J2 should be closed.
Its recommended that only one power supply is used as a power module input at a time.

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 SS01-26032-1E

FUJITSU MICROELECTRONICS SUPPORT SYSYEM

F2MC-8FX Family
8-bit MICROCONTROLLER
MB95200H/210H Series
STARTER KIT MB2146-410A-01-E
SETUP GUIDE

October 2008 the first edition

Published FUJITSU MICROELECTRONICS LIMITED

Edited Business & Media Promotion Dept.