Microchip MCP2150 Developerâ s kit userâ s guide Datasheet

MCP2120/MCP2150
DEVELOPER’S KIT USER’S GUIDE
Information contained in this publication regarding device applications and the like is intended by way of suggestion
only. No representation or warranty is given and no liability is assumed by Microchip Technology Incorporated with
respect to the accuracy or use of such information. Use of Microchip’s products as critical components in life support
systems is not authorized except with express written approval by Microchip.
 2001 Microchip Technology Incorporated. All rights reserved.
The Microchip logo, name, PIC, PICmicro, PICSTART, PRO MATE, KEELOQ, MPLAB, and MXDEV are registered
trademarks of Microchip Technology Incorporated in the U.S.A. and other countries. microID, and Smart Serial are
trademarks of Microchip Technology in the U.S.A. and other countries.
All product/company trademarks mentioned herein are the property of their respective companies.
 2001 Microchip Technology Inc.
DS51246A
MCP2120/2150 User’s Guide
NOTES:
DS51246A
 2001 Microchip Technology Inc.
12
MCP2120/MCP2150
USER’S GUIDE
Table of Contents
Chapter 1. Introduction
1.1
Welcome ......................................................................................... 1
1.2
MCP2120/MCP2150 Developer’s Kit User’s Guide ........................ 2
1.3
Sample Devices .............................................................................. 3
1.4
Reference Documents .................................................................... 3
1.5
Other Related Documents .............................................................. 3
Chapter 2. Getting Started
2.1
Introduction ..................................................................................... 5
2.2
Highlights ........................................................................................ 5
2.3
Developer Board Features .............................................................. 6
2.4
System Configurations .................................................................. 17
2.5
PC Requirements ......................................................................... 20
Chapter 3. MCP2120 Tutorial
3.1
Introduction ................................................................................... 21
3.2
Highlights ...................................................................................... 21
3.3
MCP2120 Tutorial Setup .............................................................. 21
3.4
Hardware Setup ............................................................................ 22
3.5
Setting Up the Terminal Program ................................................. 25
3.6
Transmitting/Receiving Data ......................................................... 35
Chapter 4. MCP2150 Tutorial
4.1
Introduction ................................................................................... 39
4.2
Highlights ...................................................................................... 39
4.3
MCP2150 Tutorial ......................................................................... 39
Chapter 5. Using a PICDEM™ 1 or PICDEM™ 2 Board as Host
5.1
Using the PICDEM 1 Board .......................................................... 41
5.2
Using the PICDEM 2 Board .......................................................... 43
 2001 Microchip Technology Inc.
DS51246A-page iii
MCP2120/MCP2150 USER’S GUIDE
Appendix A. Hardware Detail
A.1
Power Supply ................................................................................45
A.2
Power Indicator .............................................................................45
A.3
RS-232 Serial Port ........................................................................45
A.4
Jumpers ........................................................................................46
A.5
Oscillator Options ..........................................................................48
A.6
Board Layout .................................................................................49
A.7
Schematics ....................................................................................50
Revision History ........................................................................................ 53
Index .......................................................................................................... 55
Worldwide Sales and Service ...................................................................... 0
DS51246A-page iv
 2001 Microchip Technology Inc.
12
MCP2120/MCP2150
USER’S GUIDE
Chapter 1. Introduction
1.1 Welcome
Thank you for purchasing the MCP2120/MCP2150 Developer’s Kit from
Microchip Technology Inc. The MCP2120/MCP2150 Developer’s Kit
demonstrates the capabilities of the MCP2120 and MCP2150 infrared
communication products.
The MCP2120 Developer’s Board and the MCP2150 Developer’s Board can
be connected to either a PC via the DB9 connector, or to another system
(such as a PICDEM 2 board) via the four pin header.
The MCP2120/MCP2150 Developer’s Kit comes with the following:
1.
2.
3.
4.
5.
6.
Two MCP2120 Developer Boards.
One MCP2150 Developer Board.
Two serial cables.
One 9V power supply, with power cord.
One pair 18” (45 cm) power jumper cables.
Sample kit (one MCP2120 device and one MCP2150 device)–Not
shown.
7. MCP2120/MCP2150 Developer’s Kit User’s Guide (This document)–Not
shown.
If you are missing any part of the kit, please contact your nearest Microchip
sales office listed in the back of this publication for help.
Figure 1.1: MCP2120/MCP2150 Developer’s Kit
4
3
3
5
4
2
1
1
 2001 Microchip Technology Inc.
2
DS51246A-page 1
MCP2120/MCP2150 USER’S GUIDE
1.2 MCP2120/MCP2150 Developer’s Kit User’s Guide
This document describes the MCP2120/MCP2150 Developer’s Kit and
tutorials, giving the user a brief overview of Microchip’s MCP2120 and
MCP2150 family of infrared communication products. Detailed information on
the individual device may be found in the device’s respective data sheet.
Detailed information on the PICDEM 2 development board may be found in
the PICDEM 2 User’s Guide (DS30374).
Chapter 1: Introduction – This chapter introduces the MCP2120/MCP2150
Developer’s Kit, lists the components in the kit, and lists related
documentation.
Chapter 2: Getting Started – This chapter gives an overview of the MCP2120
and MCP2150 Developer’s Boards, the hardware features of each
Developer’s Board, the system configurations that can be used to
demonstrate the MCP2120 and MCP2150 devices, and the PC requirements.
Chapter 3: MCP2120 Tutorial – This chapter provides a detailed description
of the steps to get the MCP2120 Developer’s board operating. These steps
include the configuration of the Developer’s boards and the Terminal
Emulation program (Hyperterminal) used on the PC.
Chapter 4: MCP2150 Tutorial – This chapter provides a detailed description
of the steps to get the MCP2150 Developer’s board operating. These steps
include the configuration of the Developer’s boards, the Terminal Emulation
program (Hyperterminal) used on the PC, and the installation and
configuration of the PC IrDA standard drivers.
Chapter 5: Using PICDEM 1 or PICDEM 2 Board as Host. This chapter
discusses the use of the PICDEM boards as a demonstration platform as a
Host Controller for an MCP2120 Developer’s Board or an MCP2150
Developer’s Board. This chapter makes reference to Application Notes which
contain demonstration code.
Appendix A: Hardware Description: This appendix describes in detail the
hardware of the MCP2120 Developer’s board and MCP2150 Developer’s
board. This includes the component layout of each board (silkscreen) and the
schematic of each board.
Revision History: This covers the major changes to the document between
the revisions.
Index: This lists the pages where major topics are located.
DS51246A-page 2
 2001 Microchip Technology Inc.
Introduction
1.3 Sample Devices
Each kit comes with one MCP2120 device and one MCP2150 device. This
allows a prototype system to be developed that can be used with an
MCP2120 Developer’s Board or an MCP2150 Developer’s Board.
1.4 Reference Documents
Reference documents may be obtained by contacting your nearest Microchip
sales office (listed in the back of this document) or by downloading via the
Microchip website (www.microchip.com).
• MCP2120 Data Sheet, DS21618
• MCP2150 Data Sheet, DS21655
• AN756, “Using the MCP2120 for Infrared Communication”, DS00756
• AN758, “Using the MCP2150 to Add IrDA® Standard Wireless Connectivity”, DS00758
• TB046, “Connecting the MCP2150 to the Psion Operating System”,
DS91046
• TB047, “Connecting the MCP2150 to the Windows® CE Operating System”, DS91047
• TB048, “Connecting the MCP2150 to the Windows® Operating System”, DS91048
• TB049, “Connecting the MCP2150 to the Palm™ Operating System”,
DS91049
1.5 Other Related Documents
• MPASM User’s Guide with MPLINK™ Linker and MPLIB™ Library,
DS33014
• PRO MATE® II User’s Guide, DS30082
• PICSTART® Plus User’s Guide, DS51028
• MPLAB® ICE User’s Guide, DS51159
• MPLAB® ICD User’s Guide, DS51184
• Microchip’s Third Party Guide, DS00104
IrDA is a registered trademark of the Infrared Data Association.
 2001 Microchip Technology Inc.
DS51246A-page 3
MCP2120/MCP2150 USER’S GUIDE
NOTES:
DS51246A-page 4
 2001 Microchip Technology Inc.
12
MCP2120/MCP2150
USER’S GUIDE
Chapter 2. Getting Started
2.1 Introduction
This chapter covers an overview of the MCP2120 and MCP2150 Developer’s
Boards features, the system configurations that they can be used in, and the
system requirements for the tutorials.
2.2 Highlights
Topics covered in this chapter
• MCP2120 Developer’s Board
• MCP2150 Developer’s Board
• System Configurations
• PC Requirements
 2001 Microchip Technology Inc.
DS51246A-page 5
MCP2120/MCP2150 USER’S GUIDE
2.3 Developer Board Features
2.3.1.
MCP2120 Developer’s Board
The MCP2120 Developer’s Board, as shown in Figure 2.1, has the following
hardware features:
1. On-board +5V regulator for direct input from 9V, 750 mA AC/DC wall
adapter or 9V battery.
2. Hooks for a +5V, 750 mA regulated DC supply.
3. DB-9 connector and associated hardware for direct connection to
MCP2120 UART (DB-9 interface requires RS-232 signal levels).
4. Four-pin header connection to UART interface (Header requires TTL
level signals).
5. Two jumpers to select source of UART signals. Either DB-9 connector or
the four-pin header.
6. Three jumpers to select desired baud rate.
7. Green power-on indicator LED.
8. Two IR Transceiver options (two jumpers select transceiver).
9. Jumper to disable MCP2120 device operation.
10. Hardware and Software Baud selection.
11. Jumper for Software Baud control when using RS-232C interface.
12. Socketed crystal.
Note:
DS51246A-page 6
A schematic of the MCP2120 Developer’s Board is shown in
Figure A.5
 2001 Microchip Technology Inc.
Getting Started
Figure 2.1: MCP2120 Developer’s Board Hardware
7
1
12
D3
U5
C18
C12
C13
C14
Y1
CR1
C4
C7
(MCP2120)
Open=Enabled
C8
R8
R14
C5
J2
5
U3
R2 C2
U1
MCP2120 Developer’s Board
02-01608 Rev. 1
R6
Component D1
Transceiver D5
J7 R12
J6
8
C3
DB9
C1
R7
R5
R10 R11
JP5R1
Q1
C9
R4 JP4
C10 U4
J4
J1
4
JP3:JP1
000=FOSC/768
001=FOSC/384
010=FOSC/192
011=FOSC/128
100=FOSC/64
111=S/W Baud
Open=0
U6
Integrated
Transceiver
R13
C16
RX
TX
MODE
RTS
3
C15
Header
D4
 2001 Microchip Technology Inc.
C6
R3
J5
11
C11 R15
D6 D2 U2
C17
R9
9
J3
+5V GND
2
6
10
DS51246A-page 7
MCP2120/MCP2150 USER’S GUIDE
2.3.1.1
Selecting UART Source and Optical Transceiver
Interface
Figure 2.2 shows two pairs of jumpers used to route signals to and from the
MCP2120.
Jumpers J1 and J4 are used to determine the source of the signals used by
the UART interface. When the header has the pins closest to the “DB9” label
jumpered to the center pin, the DB9 is the source of the UART signal. When
the header has the pins closest to the “Header” label jumpered to the center
pin, the four-pin header is the source of the UART signal.
Jumpers J6 and J7 are used to determine the source and destination of the
infrared data signals used by the interface between the MCP2120 and Optical
Transceiver. When the header has the pins closest to the “Integrated
Transceiver” label jumpered to the center pin, the integrated transceiver is
used. When the header has the pins closest to the “Component Transceiver”
label jumpered to the center pin, the component transceiver logic is used.
Figure 2.2: MCP2120 Selecting Sources
D3
D6 D2
C11
R15
U2
C17
R9
C18
U5
C6
R3
CR1
(MCP2120)
Open=Enabled
C7
C12
C13
C8
R8
U4
JP4
R4
C4
C15
D4
C10
Y1
J5
R7
R6
C14
R5
R10
R11
Component
Transceiver
J7
J6
D1
D5
R12
JP5 R1
C3
J2
MCP2120 Developer’s Board
02-01608 Rev. 1
These two jumpers select the
source of the Host signals.
J1 and J4
Header is source.
DB9
U1
J4
J1
Header
C1
Integrated
Transceiver
U6
R13
C16
RTS
C2
MODE
C5
R2
JP3:JP1
000=FOSC/768
001=FOSC/384
010=FOSC/192
011=FOSC/128
100=FOSC/64
111=S/W Baud
Open=0
TX
R14
C9
U3
RX
Q1
J3
+5V
GND
These two jumpers select the
optical transceiver logic. Both jumpers
should connect the same pin positions
J6 and J7
Component Transceiver
DB9 is source.
Integrated Transceiver
DS51246A-page 8
 2001 Microchip Technology Inc.
Getting Started
2.3.1.2
Selecting Baud Rate
Figure 2.3 shows the three Baud Rate Select Jumpers (JP3:JP1) and the
baud rate formula that is specified (baud rate dependant on MCP2120
operational frequency). Table 2.1 shows the baud rates for some crystal
frequencies.
Figure 2.3: MCP2120 Baud Rate
D3
D6 D2
C11
R15
U2
C17
R9
C18
U5
C6
R3
CR1
(MCP2120)
Open=Enabled
C7
C12
C13
C8
R8
U4
JP4
R4
C4
C15
D4
C10
Y1
J5
R7
R6
C14
R5
R11
R10
Component
Transceiver
J7
J6
D1
D5
R12
JP5 R1
Q1
C3
J2
MCP2120 Developer’s Board
02-01608 Rev. 1
DB9
U1
J4
J1
Header
C1
Integrated
Transceiver
U6
R13
C16
RTS
C2
MODE
C5
R2
TX
R14
C9
JP3:JP1
000=FOSC/768
001=FOSC/384
010=FOSC/192
011=FOSC/128
100=FOSC/64
111=S/W Baud
Open=0
RX
U3
J3
+5V
GND
These three jumpers select the baud rate:
JP3:JP2:JP1
JP3:JP2:JP1
FOSC/768
FOSC/128
FOSC/384
FOSC/64
FOSC/192
Software Baud Mode
Table: 2.1 Hardware Baud Rate Selection vs. Frequency
FOSC Frequency (MHz)
BAUD2:BAUD0
0.6144 (1)
2.000
3.6864
4.9152
7.3728
800
2604
4800
6400
9600
000
001
1600
5208
9600
12800
19200
010
3200
10417
19200
25600
38400
011
4800
15625
28800
38400
57600
100
9600
31250
57600
78600
115200
Note 1: An external clock is recommended for frequencies below 2 MHz.
14.7456 (2)
20.000 (2)
Bit Rate
19200
38400
78600
115200
230400
26042
52083
104167
156250
312500
FOSC / 768
FOSC / 384
FOSC / 192
FOSC / 128
FOSC / 64
Note 2: For frequencies above 7.5 MHz, the TXIR pulse width (MCP2120 Data Sheet, Electrical Specification, parameter
IR121) will be shorter than the minimum pulse width of 1.6 µs in the IrDA standard specification.
 2001 Microchip Technology Inc.
DS51246A-page 9
MCP2120/MCP2150 USER’S GUIDE
2.3.1.3
UART Mode
Figure 2.4 shows the jumper which determines if the MCP2120 Developer’s
Board is to be used in Hardware Baud operation, or Software Baud operation.
When in Software Baud operation, an additional signal is required, Request
To Send (RTS), which is used to drive the RESET pin low to cause a change
of baud rate to occur.
Figure 2.4: MCP2120 UART
D3
D6 D2
C11
C18
U5
C6
R3
CR1
C12
C13
R5
R11
R10
(MCP2120)
Open=Enabled
C7
C8
R8
U4
JP4
R4
C4
C15
D4
C10
Y1
J5
R7
Component
Transceiver
J7
J6
R6
C14
D1
D5
R12
JP5 R1
Q1
C3
MCP2120 Developer’s Board
02-01608 Rev. 1
DB9
U1
J4
J1
Header
C1
Integrated
Transceiver
U6
R13
C16
RTS
C2
MODE
C5
R2
TX
R14
C9
JP3:JP1
000=FOSC/768
001=FOSC/384
010=FOSC/192
011=FOSC/128
100=FOSC/64
111=S/W Baud
Open=0
RX
U3
J2
R15
U2
C17
R9
J3
+5V
GND
PC UART configuration for Hardware/Software Baud mode
Hardware Baud Selection
Software Baud Selection
DS51246A-page 10
 2001 Microchip Technology Inc.
Getting Started
2.3.1.4
Disabling the MCP2120
Figure 2.5 shows the jumper, JP4, which will enable or disable the MCP2120
device. When the MCP2120 is disabled, the device will consume less current.
Figure 2.5: MCP2120 Enable/Disable
D3
D6 D2
C11
R15
U2
C17
R9
C18
U5
C6
R3
CR1
(MCP2120)
Open=Enabled
C7
C12
C13
C8
R8
U4
JP4
R4
C4
C15
D4
C10
Y1
J5
R7
R6
C14
R5
R11
R10
Component
Transceiver
J7
J6
D1
D5
R12
JP5 R1
Q1
C3
J2
MCP2120 Developer’s Board
02-01608 Rev. 1
DB9
U1
J4
J1
Header
C1
Integrated
Transceiver
U6
R13
C16
RTS
C2
MODE
C5
R2
TX
R14
C9
JP3:JP1
000=FOSC/768
001=FOSC/384
010=FOSC/192
011=FOSC/128
100=FOSC/64
111=S/W Baud
Open=0
RX
U3
J3
+5V
GND
MCP2120 Enable/Disable
Enabled
Disabled
In most cases, this jumper will be open. It may be closed to test system
operation when the MCP2120 is disabled. The Host Controller board may
control the operation of the MCP2120 by connecting a signal to the JP4
header as shown in Figure 2.6.
Figure 2.6: Host Controller Disabling the MCP2120
MCP2120 Developer’s Board
MCP2120
Host Controller
JP4
EN
I/O Pin
(High or Hi Impedance = Enabled
Low = Disabled)
 2001 Microchip Technology Inc.
DS51246A-page 11
MCP2120/MCP2150 USER’S GUIDE
2.3.2.
MCP2150 Developer’s Board
The MCP2150 Developer’s Board, as shown in Figure 2.7, has the following
hardware features:
1. On-board +5V regulator for direct input from 9V, 750 mA AC/DC wall
adapter or 9V battery.
2. Hooks for a +5V, 750 mA regulated DC supply.
3. DB-9 connector and associated hardware for direct connection to
MCP2150 UART (DB-9 interface requires RS-232 signal levels).
4. Ten-pin header connection to UART interface (Header requires TTL
level signals).
5. Three jumpers to select source of UART signals. Either DB-9 connector
or the eight-pin header.
6. Two jumpers to select desired baud rate.
7. Green power-on indicator LED.
8. Green LED for Carrier Detect.
9. Two IR Transceiver options (two jumpers select transceiver).
10. Jumper to disable MCP2150 device operation.
11. Hardware Baud selection.
Note:
DS51246A-page 12
A schematic of the MCP2150 Developer’s Board is shown in
Figure A.6
 2001 Microchip Technology Inc.
Getting Started
Figure 2.7: MCP2150 Board Hardware
7
10
C8
U5
C17
Y1
R7
R9
C16
C14
U3
U4
R5 R6 C13
(MCP2150)
Open=Enabled Component
Transceiver
J7 J8
R4 R3
C12
R1
D2D5
C11
R2 JP3
U2
CR1
C15
3
D3
R8
C7
D4
J6
C5
Power
C9
BT1
C6
1
D1
R14
R10
D6
9
JP2 JP1
C1
DB9
J5
MCP2150 Dev Board
02-01609 Rev. 1
5
J4
J3
J2
Integrated
BAUD
Transceiver
9600
19200 R11 R13 C16
57600
115200
Header
TX
RX
CTS
RTS
DTR
DSR
CD
RI
GND
+5
D7
C10
 2001 Microchip Technology Inc.
JP2 JP1
0 0
0 1
1 0
1 1
U1
C3
8
U6
C4 C2
CD
J1
4
+5VGND
2
6
11
DS51246A-page 13
MCP2120/MCP2150 USER’S GUIDE
2.3.2.1
Selecting UART Source and Optical Transceiver
Interface
Figure 2.8 shows two sets of jumpers used to route signals to and from the
MCP2150.
Jumpers J2, J3 and J4 are used to determine the source of the signals used
by the UART interface. When the header has the pins closest to the “DB9”
label jumpered to the center pin, the DB9 is the source of the UART signal.
When the header has the pins closest to the “Header” label jumpered to the
center pin, the four-pin header is the source of the UART signal.
Jumpers J7 and J8 are used to determine the source and destination of the
IrDA signals used by the interface between the MCP2150 and Optical
Transceiver. When the header has the pins closest to the “Integrated
Transceiver” label jumpered to the center pin, the integrated transceiver is
used. When the header has the pins closest to the “Component Transceiver”
label jumpered to the center pin, the component transceiver logic is used.
Figure 2.8: MCP2150 Selecting Sources
C8
Y1
R9
C15
C16
U3
U4
R5 R6 C13
(MCP2150)
Open=Enabled Component
Transceiver
J7 J8
R4 R3
C12
R1
D2D5
C11
R2 JP3
U2
CR1
C14
R7
C7
C17
D4
J6
D3
R8
C6
U5
C5
Power
C9
BT1
D1
R14
R10
D6
JP2 JP1
C3
U6
C4 C2
CD
JP2 JP1
0 0
0 1
1 0
1 1
U1
C10
D7
DB9
J5
MCP2150 Dev Board
02-01609 Rev. 1
These three jumpers select the
source of the Host signals.
J2, J3 and J4
J4
J3
J2
Integrated
Transceiver
BAUD
9600
19200 R11 R13 C16
57600
115200
Header
TX
RX
CTS
RTS
DTR
DSR
CD
RI
GND
+5
C1
J1
+5VGND
These two jumpers select the
optical transceiver logic. Both jumpers
should connect the same pin positions
J7 and J8
Header is source.
Component Transceiver
DB9 is source.
DS51246A-page 14
Integrated Transceiver
 2001 Microchip Technology Inc.
Getting Started
2.3.2.2
Selecting Baud Rate
Figure 2.9 shows the two Baud Rate Select jumpers (JP2:JP1) and the baud
rate. Table 2.2 shows the baud rates for some crystal frequencies.
Figure 2.9: MCP2150 Baud Rate
C8
C17
Y1
R9
C15
C16
U3
U4
R5 R6 C13
(MCP2150)
Open=Enabled Component
Transceiver
J7 J8
R4 R3
C12
R1
D2D5
C11
R2 JP3
U2
CR1
C14
R7
D3
C7
D4
J6
R8
C6
U5
C5
Power
C9
BT1
D1
R14
R10
D6
JP2 JP1
C3
U6
C4 C2
CD
JP2 JP1
0 0
0 1
1 0
1 1
U1
C10
D7
DB9
J5
MCP2150 Dev Board
02-01609 Rev. 1
J4
J3
J2
Integrated
Transceiver
BAUD
9600
19200 R11 R13 C16
57600
115200
Header
TX
RX
CTS
RTS
DTR
DSR
CD
RI
GND
+5
C1
J1
+5VGND
These three jumpers select the Baud Rate
JP2:JP1
JP2:JP1
9600
57600
19200
115200
Table: 2.2 Serial Baud Rate Selection vs. Frequency
 2001 Microchip Technology Inc.
BAUD1:BAUD0
Baud Rate @ 11.0592 MHz
Bit Rate
00
01
10
11
9600
19200
57600
115200
FOSC / 1152
FOSC / 576
FOSC / 192
FOSC / 96
DS51246A-page 15
MCP2120/MCP2150 USER’S GUIDE
2.3.2.3
Disabling the MCP2150
Figure 2.10 shows the jumper (JP3) which will enable or disable the
MCP2150 device. When the MCP2150 is disabled, the device will consume
less current.
Figure 2.10: MCP2150 Enable/Disable
C8
Y1
D4
C15
C16
R1
D2D5
R9
C11
R2 JP3
U2
CR1
C14
R7
C7
C17
J6
D3
R8
U4
R5 R6 C13
(MCP2150)
Open=Enabled Component
Transceiver
J7 J8
R4 R3
C12
U3
C6
U5
C5
Power
C9
BT1
D1
R14
R10
D6
JP2 JP1
C3
U6
C4 C2
CD
JP2 JP1
0 0
0 1
1 0
1 1
U1
C10
D7
DB9
J5
MCP2150 Dev Board
02-01609 Rev. 1
J4
J3
J2
Integrated
Transceiver
BAUD
9600
19200 R11 R13 C16
57600
115200
Header
TX
RX
CTS
RTS
DTR
DSR
CD
RI
GND
+5
C1
J1
+5VGND
MCP2150 Enable/Disable
Enabled
Disabled
In most cases, this jumper will be open. It may be closed to test system
operation when the MCP2150 is disabled. The Host Controller board may
control the operation of the MCP2150 by connecting a signal to the JP3
header as shown in Figure 2.11.
Figure 2.11: Host Controller Disabling the MCP2150
MCP2150 Developer’s Board
MCP2150
Host Controller
JP4
EN
I/O Pin
(High or Hi Impedance = Enabled
Low = Disabled)
DS51246A-page 16
 2001 Microchip Technology Inc.
Getting Started
2.4 System Configurations
There are five configurations that one would use for initial evaluation of these
two Developer’s Boards. These configurations are:
Developer’s Board #1
Developer’s Board #2
1. MCP2120 Dev Board (ASCII)
↔ MCP2120 Dev Board (ASCII)
2. MCP2120 Dev Board (IR
Driver)
→ MCP2120 Dev Board (IR Driver)
3. MCP2150 Dev Board (ASCII)
↔ MCP2120 Dev Board (IR Driver)
4. MCP2120 Dev Board (IR
Driver)
→ IrDA standard port (Palm™ Pilot,
cell phone, ...)
5. MCP2150 Dev Board (ASCII)
→ IrDA standard port (Palm Pilot,
cell phone, ...)
The Host controller for each board can be either a Personal Computer (PC) or
another system connected to the Host header. The PC operating system (OS)
may be any desired OS that has a terminal emulation program which can
connect to the serial port and can treat the IR port as a virtual serial port. For
our tutorial, we will use the Windows 9x OS.
Note 1: Windows NT® 4.x (and lower) does not support the IrDA standard
functionality. Third Party programs exist, but are not supported or
recommended by Microsoft, so are also not recommended by
Microchip.
2: Windows® 2000 does support the IrDA standard, but does not treat
the IR port as a virtual serial port. This means that you cannot
access the IR port as a serial port. This causes issues with some
terminal emulation programs, such as Hyperterminal. Windows
2000 considers the IrDA port to be a network device. Applications
that can access a network service through a network protocol (i.e.
TCP/IP) can use the MCP2120 Developer’s Board using the appropriate Windows 2000 driver.
Palm is a trademark of Palm, Inc.
Windows NT and Windows 2000 are registered trademarks of Microsoft Corporation.
 2001 Microchip Technology Inc.
DS51246A-page 17
MCP2120/MCP2150 USER’S GUIDE
2.4.1.
Configuration 1
Developer’s Board #1
Developer’s Board #2
MCP2120 Dev Board (ASCII) ↔ MCP2120 Dev Board (ASCII)
This is the typical mode that will be used for the two MCP2120 Developer’s
Board. In this configuration, the MCP2120 board receives data as a single
ASCII byte. This byte is then translated to the IR data format, and transmitted
out of the selected optical transceiver logic.
The host interface can be from either the DB-9 (PC or other UART) or the
Header.
A PC running a terminal emulation program, such as Hyperterminal,
connected to the serial port will create this ASCII data stream. The PC can
then be connected to the Developer’s Board DB-9 connector.
2.4.2.
Configuration 2
Developer’s Board #1
Developer’s Board #2
MCP2120 Dev Board (IR Driver) → MCP2120 Dev Board (IR Driver)
This is used to view the effects of the IrDA standard stack protocol on the data
stream. This can be used to better understand the construction of the IrDA
standard data packet, or as a diagnostic tool.
The host interface can be from either the DB-9 (PC or other UART) or the
Header.
A PC running a terminal emulation program, such as Hyperterminal,
connected to the IR port as a virtual serial port will create this ASCII data
stream. The PC can then be connected to the MCP2120 Developer’s Board
DB-9 connector.
2.4.3.
Configuration 3
Developer’s Board #1
Developer’s Board #2
MCP2150 Dev Board (ASCII) ↔ MCP2120 Dev Board (IR Driver)
This is the configuration when using one MCP2120 Developer’s Board and
one MCP2150 Developer’s Board.
The MCP2150 Developer’s Board can have the host interface be from either
the DB-9 (PC or other UART) or the Header.
The MCP2120 Developer’s Board would interface to a PC running a terminal
emulation program, such as Hyperterminal, that connects the IR port to a
virtual serial port.
DS51246A-page 18
 2001 Microchip Technology Inc.
Getting Started
2.4.4.
Configuration 4
Developer’s Board #1
Developer’s Board #2
MCP2120 Dev Board (IR Driver) → IrDA standard port (Palm Pilot,
cell phone, ...)
This configuration is used to evaluate the MCP2120 for an IrDA system,
where the Host Controller is responsible for the IrDA protocol stack.
The MCP2120 Developer’s Board interfaces to a PC running a terminal
emulation program, such as Hyperterminal, that connects the IR port to a
virtual serial port.
2.4.5.
Configuration 5
Developer’s Board #1
Developer’s Board #2
MCP2150 Dev Board (ASCII) → IrDA standard port (Palm Pilot,
cell phone, ...)
This configuration is used to evaluate the MCP2150 for adding the IrDA
feature to a system. The Host controller only needs to send and receive the
required ASCII data, while the MCP2150 handles the IrDA standard protocol
stack.
The MCP2150 Developer’s Board can have the host interface be from either
the DB-9 (PC or other UART) or the Header.
 2001 Microchip Technology Inc.
DS51246A-page 19
MCP2120/MCP2150 USER’S GUIDE
2.5 PC Requirements
The PC used has three main requirements. These are:
1. Standard Serial Port.
2. Terminal Emulation Program.
3. IrDA standard driver installed, which treats the IR port as a virtual serial
port.
A non-legacy-free Intel compatible model with Windows 9x/2000 Operating
System (OS) would meet these requirements. The Windows OS includes a
Terminal Emulation program called Hyperterminal. Section 3.5 shows
instructions to configure Hyperterminal and demonstrate the Developer’s
Boards.
Note 1: Windows® 2000 does support the IrDA standard, but does not treat
the IR port as a virtual serial port. This means that you cannot
access the IR port as a serial port. This causes issues with some
terminal emulation programs, such as Hyperterminal. Windows
2000 considers the IrDA port to be a network device. Applications
that can access a network service through a network protocol (i.e.
TCP/IP) can use the MCP2120 Developer’s Board using the appropriate Windows 2000 driver.
DS51246A-page 20
 2001 Microchip Technology Inc.
12
MCP2120/MCP2150
USER’S GUIDE
Chapter 3. MCP2120 Tutorial
3.1 Introduction
This chapter covers a tutorial for using the MCP2120 Developer’s Board.
3.2 Highlights
Topics covered in this chapter
• MCP2120 Tutorial Setup
• Hardware Setup
• Setting Up the Terminal Program
• Transmitting/Receiving Data
3.3 MCP2120 Tutorial Setup
This tutorial will use both MCP2120 Developer’s Boards. The system will
operate at 9600 Baud. Each board will be connected via the UART to the
serial port of a personal computer (PC). This means that either two PCs are
required, or a PC with two serial ports, as shown in Figure 3.1. It is assumed
that two PCs will be used, and that each PC will have the Terminal Emulation
program configured identically.
Figure 3.1: System Block Diagram
MCP2120 Developer’s
Board 1
Y1
C8
C14
R4 JP4
C6
 2001 Microchip Technology Inc.
(MCP2120)
Open=Enabled
D1Component
D5Transceiver R6 R7 R8
R12 J7 J6
RX
TX
MODE
RTS
U3
Integrated
JP3:JP1
000=Fosc/768 Transceiver
R2 C2 001=Fosc/384
010=Fosc/192
011=Fosc/128 R13
100=Fosc/64
C3
111=S/W Baud C16
Open=0
Header
DB9
CR1
C4
J3
+5VGND
U6
U6
C8
C14
Q1
U3
Integrated
JP3:JP1
Transceiver 000=Fosc/768
R14
001=Fosc/384 C2 R2
R13 010=Fosc/192
011=Fosc/128
100=Fosc/64 C3
Baud
C16 111=S/W
Open=0
GND+5V
J3
J5
C15 D4
C7
C12
C13
C9
C5
C1
J2
J4
MCP2120 Developer’s Board
02-01608 Rev. 1
J1
DB9
J4
MCP2120 Developer’s Board
02-01608 Rev. 1
J1
PC
R9
Header
U1
D3
JP4 R4
RX
TX
MODE
RTS
C1
U2 D2D6
C6
R5
R11 R10
R1JP5
Q1
C5
J2
R15 C11
C18
R3
U4 C10
R5
R10 R11
R1
JP5
R14
C9
C18
R3
C10 U4
(MCP2120)
Open=Enabled Component
D1
TransceiverD5
R8 R7 R6 J6 J7
R12
C7
C12
C13
C11 R15
D6D2 U2
C17
D3
U5
C4
U5
CR1
Y1
D4 C15
C17
R9
J5
MCP2120 Developer’s
Board 2
U1
PC
DS51246A-page 21
MCP2120/MCP2150 USER’S GUIDE
3.4 Hardware Setup
3.4.1.
Oscillator
The crystal oscillator has pin receptacles to allow the changing of the
MCP2120 oscillator frequency. For the tutorial, we will be using a crystal
frequency of 7.3728 MHz. This crystal frequency is shipped in the kit.
3.4.2.
Board Jumpers
The MCP2120 and MCP2150 Developer’s Boards may use one of two host
interfaces, the DB-9 interface to connect to a PC, or the header to connect to
a controller board.
For the tutorial, the host signal will come from the DB-9 connector and the
infrared data signals will interface to the Integrated Optical Transceiver.
Figure 3.2 shows how the two 3-pin jumpers need to be connected for this
configuration.
Figure 3.2: MCP2120 Developer’s Board Component Layout
D3
D6 D2
C11
R15
U2
C17
R9
C18
U5
C6
R3
Y1
J5
CR1
(MCP2120)
Open=Enabled
C7
C12
C13
C8
R8
U4
JP4
R4
C4
C15
D4
C10
R7
R6
C14
R5
R11
R10
Component
Transceiver
J7
J6
JP5 R1
Q1
C3
MCP2120 Developer’s Board
02-01608 Rev. 1
These two jumpers select the
source of the Host signals.
J1 and J4
DB9 is source.
DB9
U1
J4
J1
Header
C1
Integrated
Transceiver
U6
R13
C16
RTS
C2
MODE
C5
R2
TX
R14
C9
JP3:JP1
000=FOSC/768
001=FOSC/384
010=FOSC/192
011=FOSC/128
100=FOSC/64
111=S/W Baud
Open=0
RX
U3
J2
D1
D5
R12
J3
+5V
GND
These two jumpers select the
optical transceiver logic. Both jumpers
should connect the same pin positions
J6 and J7
Integrated Transceiver
DS51246A-page 22
 2001 Microchip Technology Inc.
MCP2120 Tutorial
Figure 3.3 shows the three Baud Rate Select jumpers (JP3:JP1) and the baud
rate formula that is specified (baud rate dependant on MCP2120 operational
frequency). The tutorial requires these jumpers to be open for a baud rate of
9600, when the crystal frequency is 7.3728 MHz.
Figure 3.3: MCP2120 Baud Rate
D3
D6 D2
C11
R15
U2
C17
R9
C18
U5
C6
R3
CR1
(MCP2120)
Open=Enabled
C7
C12
C13
C8
R8
U4
JP4
R4
C4
C15
D4
C10
Y1
J5
R7
R6
C14
R5
R10
R11
Component
Transceiver
J7
J6
D1
D5
R12
JP5 R1
Q1
C3
J2
MCP2120 Developer’s Board
02-01608 Rev. 1
DB9
U1
J4
J1
Header
C1
Integrated
Transceiver
U6
R13
C16
RTS
C2
MODE
C5
R2
TX
R14
C9
JP3:JP1
000=FOSC/768
001=FOSC/384
010=FOSC/192
011=FOSC/128
100=FOSC/64
111=S/W Baud
Open=0
RX
U3
J3
+5V
GND
These three jumpers select the Baud Rate
JP3:JP2:JP1
FOSC/768
 2001 Microchip Technology Inc.
DS51246A-page 23
MCP2120/MCP2150 USER’S GUIDE
Figure 3.4 shows jumpers JP4 and JP5 and their state. For the tutorial, both
of these jumpers are required to be open.
Figure 3.4: MCP2120 UART Mode and Enable Mode
D3
D6 D2
C11
R15
U2
C17
R9
C18
U5
C6
R3
CR1
(MCP2120)
Open=Enabled
C7
C12
C13
C8
R8
U4
JP4
R4
C4
C15
D4
C10
Y1
J5
R7
R6
C14
R5
R10
R11
Component
Transceiver
J7
J6
D1
D5
R12
JP5 R1
Q1
C3
MCP2120 Developer’s Board
02-01608 Rev. 1
DB9
J2
U1
J4
J1
PC UART configuration for
Hardware/Software Baud mode
Header
C1
Integrated
Transceiver
U6
R13
C16
RTS
C2
MODE
C5
R2
TX
R14
C9
JP3:JP1
000=FOSC/768
001=FOSC/384
010=FOSC/192
011=FOSC/128
100=FOSC/64
111=S/W Baud
Open=0
RX
U3
J3
+5V
GND
MCP2120 Enable/Disable
Enabled
Hardware Baud Selection
DS51246A-page 24
 2001 Microchip Technology Inc.
MCP2120 Tutorial
3.5 Setting Up the Terminal Program
Windows® 95 Operating System (OS) comes with a Terminal Emulation
program called Hyperterminal. This tutorial uses this program to demonstrate
the operation of the MCP2120/MCP2150 Developer’s Kit boards.
To open Hyperterminal, select Start > Programs > Accessories and select the
Hyperterminal folder. Then double click the program file Hypertrm.exe. to start
Hyperterminal. Figure 3.5 shows the initial screen once the Hyperterminal
program is open. You will then need to select a name for this configuration.
Figure 3.5: Hyperterminal Opening Screen
For the initial test, we will set up the system to operate at 9600 baud. Type the
name as shown in Figure 3.6 and select any icon. Click OK.
Figure 3.6: Choosing Name and Icon
Windows is a registered trademark of Microsoft Corporation.
 2001 Microchip Technology Inc.
DS51246A-page 25
MCP2120/MCP2150 USER’S GUIDE
The menu in Figure 3.7 appears. You will need to select the port your serial
port is on (Connect using). In our case, we are using COM1. Click OK.
Figure 3.7: Selecting Communications (COM) Port
The Default settings for COM1 are displayed in Figure 3.8.
Figure 3.8: Hyperterminal Default COM Port Settings
DS51246A-page 26
 2001 Microchip Technology Inc.
MCP2120 Tutorial
The COM port settings need to be modified so the Bits per second is “9600”
and the Flow Control is “None”, as shown in Figure 3.9. Click OK when
done.
Figure 3.9: Desired Hyperterminal COM Port Settings
 2001 Microchip Technology Inc.
DS51246A-page 27
MCP2120/MCP2150 USER’S GUIDE
The terminal window opens connected to the serial port as shown in
Figure 3.10.
Figure 3.10: Hyperterminal Screen After Initial Setup
DS51246A-page 28
 2001 Microchip Technology Inc.
MCP2120 Tutorial
When the characteristics of the Hyperterminal session need to be modified,
the program should be disconnected from the port. To disconnect, click on the
icon with the handset with the down arrow onto the phone base as shown in
Figure 3.11.
Figure 3.11: Disconnecting Hyperterminal
 2001 Microchip Technology Inc.
DS51246A-page 29
MCP2120/MCP2150 USER’S GUIDE
To modify the properties of this Hyperterminal session, select File >
Properties as shown in Figure 3.12.
Figure 3.12: Selecting Hyperterminal Properties Menu
DS51246A-page 30
 2001 Microchip Technology Inc.
MCP2120 Tutorial
The Hyperterminal Properties window will appear as shown in Figure 3.13.
Clicking the “Configure...” button will open the COM Properties window
shown in Figure 3.14.
Figure 3.13: Hyperterminal Properties Menu (Connect To)
 2001 Microchip Technology Inc.
DS51246A-page 31
MCP2120/MCP2150 USER’S GUIDE
Verify the settings are as desired. If not, change the settings to match the
settings in Figure 3.14. Click the OK button and you will return to the window
shown in Figure 3.13.
Figure 3.14: Configure Connection Menu
DS51246A-page 32
 2001 Microchip Technology Inc.
MCP2120 Tutorial
Click on the Settings tab. Figure 3.15 shows the default settings. The
“Backscroll buffer lines” setting can be modified to 0, if desired. This will
make viewing information in the Hyperterminal window more convenient.
Figure 3.15: Hyperterminal Properties Menu (Settings)
Clicking on the “Input Translation...” button will bring up the following
window. Click Cancel to close this window.
Figure 3.16: Input Translation Menu
 2001 Microchip Technology Inc.
DS51246A-page 33
MCP2120/MCP2150 USER’S GUIDE
Clicking on the “ASCII Setup...” button will bring up the ASCII Setup window.
Make the changes as shown in Figure 3.17 by checking the “Echo typed
characters locally” setting. Click OK to apply these changes and close the
window.
Figure 3.17: ASCII Setup Menu
DS51246A-page 34
 2001 Microchip Technology Inc.
MCP2120 Tutorial
3.6 Transmitting/Receiving Data
Now both PCs should have their Hyperterminal program running in the
connected mode with the same COM port settings. See Figure 3.9.
Each MCP2120 Developer’s Board should be powered. Use the pair of 18”
(45 cm) power jumper cables to power MCP2120 Developer’s Board #2 from
MCP2120 Developer’s Board #1. Optionally, MCP2120 Developer’s Board #2
could be powered from a 9V battery. When the MCP2120 Developer’s Board
is powered, the green LED (labeled D3) will be on.
Each MCP2120 Developer’s Board should be connected to their respective
PC serial port, so that Hyperterminal can communicate to the board.
The MCP2120 Developer’s Board should be oriented so that the integrated
optical transceivers are aligned with each other (as shown in Figure 3.18). For
the initial communication between the two boards, the MCP2120 Developer’s
Boards should be approximately 6” (15 cm) apart.
Type a string of characters in the Hyperterminal window on PC #1. This same
character sting should appear in the Hyperterminal window of PC #2. Typing a
string of characters in the Hyperterminal window on PC #2 should have the
same character string appear in the Hyperterminal window of PC #1.
Congratulations! You may now start modifying the system to evaluate/test the
operation of the MCP2120 and MCP2120 Developer’s Board.
Figure 3.18: MCP2120 Tutorial System
To IrDA Developer’s Kit Power Supply (9V)
MCP2120 Developer’s Board #1
C11
R15
C18
MCP2120 Developer’s
Board #2
D4
C15
CR1
J5
R4
C4
R10
D1
D5
R5
R11
RTS
Component
Y1
MODE
Transceiver
J6
J7
TX
R6
RX
R7
(MCP2120)
Open=Enabled
Header
R8
Y1
JP4
U4
C10
R3
U5
C6
C17
R9
D3
D6 D2
C18
U2
C11
R15
Pair of 18” Power Jumper Cables
 2001 Microchip Technology Inc.
C7
GND
C8
+5V
To PC #1
C12
R12
DB9
U6
Q1
JP5 R1
J3
C14
C16
C13
U5
R13
Integrated
Transceiver
J4
J1
IR
U3
U1
MCP2120 Developer’s Board
02-01608 Rev. 1
R13
U6
R14
C16
J2
Integrated
Transceiver
C2
C3
C1
JP3:JP1
000=Fosc/768
001=Fosc/384
010=Fosc/192
011=Fosc/128
100=Fosc/64
111=S/W Baud
Open=0
C3
C5
C2
R2
U3
R2
To PC #2
C9
GND
Q1
R14
C9
DB9
D1
D5
R12
RX
Transceiver
J7
J6
TX
R6
Header
R7
JP5 R1
MODE
R8
C14
RTS
C8
C12
C13
R5
R11
R10
Component
+5V
R4
(MCP2120)
Open=Enabled
C7
U4
J3
C4
C15
D4
C10
JP4
JP3:JP1
000=Fosc/768
001=Fosc/384
010=Fosc/192
011=Fosc/128
100=Fosc/64
111=S/W Baud
Open=0
CR1
C1
J5
C5
R3
J4
C6
J1
C17
U2
U1
D6 D2
MCP2120 Developer’s Board
02-01608 Rev. 1
D3
J2
R9
DS51246A-page 35
MCP2120/MCP2150 USER’S GUIDE
3.6.1.
System Debug Tips
If you are not getting communications between the two boards, some
debugging is in order. Here are some suggested steps:
• Verify that the Hyperterminal programs are set up correctly
• Verify that both Hyperterminal sessions are “connected”
• Verify that the MCP2120 Developer’s Boards are powered
• Verify that the MCP2120 Developer’s Boards are set up correctly
If that review does not locate the issue, then more in depth debugging is
required. These steps require an oscilloscope. A digital 4-channel
oscilloscope is recommended. By typing a data byte into Hyperterminal on the
PC, the oscilloscope can be used to determine where in the system the data
byte was “lost”.
Figure 3.19 and Figure 3.20 shows a debug flow to help troubleshoot the
communications between the two MCP2120 Developer’s Boards. Figure 3.19
shows the steps for the transmit side of System #1 (PC #1 and MCP2120
Developer’s Board #1). If it appears that the TXIR signal is correct, then the
receive side needs to be validated. Figure 3.20 shows the steps for the
receive side of System #2 (PC #2 and MCP2120 Developer’s Board #2).
These steps can then be used to debug the transmit side of System #2 and
the receive side of System #1.
DS51246A-page 36
 2001 Microchip Technology Inc.
MCP2120 Tutorial
Figure 3.19: Debug Flowchart - MCP2120 Developer’s Board #1 Side
Debug Board #1
Set up digital oscilloscope to
capture waveform on first
falling edge (Start bit)
Type character in PC #1
Hyperterminal window
Data
appear on
MCP2120
TX pin?
No
Data
appear on
MAX232
R1IN pin?
Yes
No
Data
appear on
MCP2120
TXIR pin?
Yes
Yes
Goto
Debug Board #2
No
Verify that the connection from
PC #1 to Board #1 is good.
Try communication with
another serial device
(such as PICSTART Plus).
Data
appear on
MAX232
R1OUT
pin?
Problem with MCP2120
Verify device has power/ground
Ensure jumper JP4 is open
Ensure crystal oscillator is correct
frequency and operating
Ensure Baud Rate is correct
(jumpers JP1, JP2, and JP3)
Try replacing with new MCP2120
Yes
Verify 3 pin header J4
is jumpered correctly
 2001 Microchip Technology Inc.
No
It appears that the
MAX232 device
is damaged
DS51246A-page 37
MCP2120/MCP2150 USER’S GUIDE
Figure 3.20: Debug Flowchart - MCP2120 Developer’s Board #2 Side
Debug Board #2
Data
appear on
MCP2120
RXIR
pin?
No
Yes
Data
appear on
MCP2120
RX pin?
No
Problem with MCP2120
Verify device has power/ground
Ensure jumper JP4 is open
Ensure crystal oscillator is correct
frequency and operating
Ensure Baud Rate is correct
(jumpers JP1, JP2, and JP3)
Try replacing with new MCP2120
Yes
Data
appear on
MAX232
T1IN
pin?
No
Verify 3 pin header J4
is jumpered correctly
Yes
Data
appear on
MAX232
T1OUT
pin?
Verify that the connection for
Board #1 TXIR to Optical
Transceiver and Board #2
Optical Transceiver to RXIR
(3 pin headers J6 and J7).
Ensure that the Optical
Transceivers are aligned.
Ensure that distance between
Board #1 and Board #2 is
approximately 6” (15 cm).
Try component transceiver
option on each board
(Board #1, then Board #2,
and lastly both boards)
No
Yes
Verify that the connection from
PC #1 to Board #1 is good.
Try communication with
another serial device
(such as PICSTART Plus).
DS51246A-page 38
Disconnect serial cable
to ensure T1OUT is
not loaded down. If
still no data, it appears
that the MAX232 device
is damaged
 2001 Microchip Technology Inc.
12
MCP2120/MCP2150
USER’S GUIDE
Chapter 4. MCP2150 Tutorial
4.1 Introduction
This chapter covers a tutorial for using the MCP2150 Developer’s Board.
4.2 Highlights
Topics covered in this chapter
• MCP2150 Tutorial
4.3 MCP2150 Tutorial
This tutorial was not available for this revision of the MCP2120/MCP2150
Developer’s Kit User’s Guide. Please check in the Development Tools section
of the Microchip web site (www.microchip.com) for revision B of the User’s
Guide. Revision B is planned to include the tutorial on using the MCP2150
Developer’s Board with an MCP2120 Developer’s Board.
Information on Microchip Development Tools can be located on the web site
by using the Navagate window and selecting Developer’s Tool Box >
Development Tools.
 2001 Microchip Technology Inc.
DS51246A-page 39
MCP2120/MCP2150 USER’S GUIDE
NOTES:
DS51246A-page 40
 2001 Microchip Technology Inc.
12
MCP2120/MCP2150
USER’S GUIDE
Chapter 5. Using a PICDEM™ 1 or PICDEM™ 2 Board
as Host
5.1 Using the PICDEM 1 Board
The PICDEM™ 1 board may be used as the host controller in an IrDA
standard compatible system. PortB can be used to display received
characters, while any of the other ports would be used for the UART and
control signals. A PICmicro® microcontroller may be selected that has a
hardware UART, or the UART functionality may be implemented in software.
Figure 5.1 shows the parts layout (silk-screen) for the PICDEM 1 board.
Figure 5.1: PICDEM 1 Parts Layout
PORT B
7
RN1
5
4
3
RN2
2
1
0
U1 C1
R8
PIC17C42
+5V
+5V
C3
GND
J1
6
PICDEM-I
DEMO BOARD
©1993
GND
Y2
Y1
C4
R6
J3
U5 U4
U2
C14
C7
R1
U3 C9
PIC16C55/57
1
®
R5
R7
S2
S3
RA1
C2
MCLR C5
S1
RTCC
+5V
R3
+5V
C16
C15
GND
C6
GND
+
+9V IN
J2
C8
C10
CR1
PIC16C54/56/58
PIC16C71/84
C11
C13
C12
R4
PULLUP
R4
CH0
POT
R2
DIRECT
+5V PWR
SUPPLY
CONNECTION
Note 1: U1 is for use with any 40-pin PIC17C4X device.
2: U2 is for use with any 18-pin PIC16C5X, PIC16CXXX device.
3: U3 is for use with any 28-pin PIC16C5X, PIC16CXXX device.
 2001 Microchip Technology Inc.
DS51246A-page 41
MCP2120/MCP2150 USER’S GUIDE
5.1.1.
Application Notes
There are two Application Notes that show how to use the PICDEM 1 Board
as a Host controller.
AN756, “Using the MCP2120 for Infrared Communication”, DS00756, uses
the MCP2120 Developer’s Board and has two code examples. The first is
using a PIC16F84 with the MCP2120 Developer’s Board in Hardware Baud
mode. In this mode, only two signals need to be interfaced. The RX and TX
signal. The second code example is also using a PIC16F84 with the
MCP2120 Developer’s Board in Software Baud mode. In this mode, four
signals need to be interfaced; RX, TX, MODE, and RTS (used to reset the
MCP2120).
AN758, “Using the MCP2150 to Add IrDA Standard Wireless Connectivity”,
DS00758, uses the MCP2150 Developer’s Board and has one code example.
For this application, seven signals need to be interfaced; RX, TX, DSR, DTR,
CTS, RTS, and CD.
5.1.2.
For Additional PICDEM 1 Information
Additional information can located on the Microchip web site
(www.microchip.com). Information on Microchip Development Tools can be
located by using the Navigate window and selecting Developer’s Tool Box >
Development Tools.
The PICDEM 1 User’s Guide literature number is DS33015, and the
PICDEM 1 kit can be ordered with Part Number DM163001.
DS51246A-page 42
 2001 Microchip Technology Inc.
Using a PICDEM™ 1 or PICDEM™ 2 Board as Host
5.2 Using the PICDEM 2 Board
The PICDEM™ 2 board may be used as the host controller in an IrDA
standard compatible system. PortB can be used to display received
characters, while any of the other ports would be used for the UART and
control signals. A PICmicro microcontroller may be selected that has a
hardware UART, or the UART functionality may be implemented in software.
Figure 5.2 shows the parts layout (silk-screen) for the PICDEM 2 board.
Figure 5.2: PICDEM 2 Parts Layout
5
4
2
1
0
MCLR
RA0
RA1
RA2
RA3
RA4
RA5
RE0
RE1
RE2
NC
C2
R4
C3
C19
R2
C8
(RX)
(TX)
Y3
RESET
C6
R18
R8
R9
R10
R11
R12
R13
C10
C15
PIC16C73
R17
C12
U4
C14
C7
C5
C13
C4
J7 Y1
PIC16C64/74
RA4
RC2
RA0
S1
PICDEM 2 DEMO BOARD
S2
C9
R7
R19
J5
C1
R1
R3
TM
©1994
S3
(SDA)
(SCL)
(OSI)
(OSO)
RB7
RB6
RB5
RB4
RB3
RB2
RB1
RB0
RD7
RD6
RD5
RD4
RD3
RD2
RD1
RD0
RC7
RC6
RC5
RC4
RC3
RC2
RC1
RC0
+5V
U1
GND
U2
C18
U3
R6
R5
GND
C17
J3
RN1
Y2
U5
R14
C11
3
+5V
R15
6
14
13
+5V
1
7
RN2
LCD DSPLY
GND
CR2
J6
9V BATTERY
CR1
+
2
1
+5V
J1
+9V
IN
C16
J2
PORT B
PWR
GND
U8
RN4
RN3
J4
KEYPAD
1
Note 1: U2 is for use with any 28-pin PIC16CXXX or PIC18CXXX device.
2: U1 is for use with any 40-pin PIC16CXXX or PIC18CXXX device.
 2001 Microchip Technology Inc.
DS51246A-page 43
MCP2120/MCP2150 USER’S GUIDE
5.2.1.
Application Notes
Currently there are no Application Notes that use the PICDEM 2 Board as a
Host controller. The examples shown for the PICDEM 1 board can be easily
modified to have the PICDEM 2 board operate as the Host controller.
5.2.2.
For Additional PICDEM 2 Information
Additional information can located on the Microchip web site
(www.microchip.com). Information on Microchip Development Tools can be
located by using the Navagate window and selecting Developer’s Tool Box >
Development Tools.
The PICDEM 2 User’s Guide literature number is DS30374, and the
PICDEM 2 kit can be ordered with Part Number DM163002.
DS51246A-page 44
 2001 Microchip Technology Inc.
12
MCP2120/MCP2150
USER’S GUIDE
Appendix A. Hardware Detail
The MCP2120/MCP2150 Developer’s Board hardware is intended to illustrate
the ease of use of Microchip’s infrared data communication solutions. The
Developer’s Board features the following hardware elements:
A.1 Power Supply
There are three ways to supply power to the MCP2120/MCP2150
Developer’s Board:
• A 9V battery can be plugged into BT1.
• A 9V, 750 mA unregulated AC or DC supply can be plugged into J5.
• A +5V, 750 mA regulated DC supply can be connected to the two pins
provided, labled +5V and GND. A pair of 18” (45 cm) cables are provided to allow one board to power another.
A.2 Power Indicator
One green LED indicates whether there is power applied to the MCP2120 and
MCP2150 Developer Boards (LED lit) or not (LED off).
A.3 RS-232 Serial Port
A.3.1
MCP2120 Developer’s Board
A MAX232 compatible level shifting IC has been provided with all necessary
hardware to support connection of an RS-232 host through the DB-9
connector. The port can be connected to a PC using a straight through cable.
Refer to the MCP2120 Data Sheet for more information.
A.3.2
MCP2150 Developer’s Board
A MAX3238E compatible level shifting IC has been provided with all
necessary hardware to support connection of a RS-232 host through the
DB-9 connector. The port can be connected to a PC using a straight through
cable. Refer to the MCP2120 Data Sheet (DS21618) for more information.
 2001 Microchip Technology Inc.
DS51246A-page 45
MCP2120/MCP2150 USER’S GUIDE
A.4 Jumpers
Jumpers are used to allow the Developer’s Board to be configured into the
different modes that are possible. These modes include:
• Selection of Baud Rate
• Source of Host signals
• Source of Optical Transceiver signals
• Device Enable signal for power down operation
A.4.1
MCP2120 Developer’s Board
The MCP2120 Developer’s Board has the following jumpers:
1. Two jumpers to select source of UART signals. Either RS-232C socket
or the four-pin header.
2. Three jumpers to select desired baud rate.
3. Two jumpers to select IR Transceiver options.
4. Jumper to disable device operation.
5. Jumper for Software Baud control when using RS-232C interface.
Figure A.1: MCP2120 Developer’s Board Hardware
4
D3
C11
D6 D2
R15
U2
C17
R9
C18
U5
C6
R3
CR1
C12
C13
R5
R11
R10
(MCP2120)
Open=Enabled
C7
C8
R8
U4
JP4
R4
C4
C15
D4
C10
Y1
J5
R7
Component
D1
Transceiver
D5
J7
J6
R12
R6
C14
JP5 R1
3
Q1
C3
MCP2120 Developer’s Board
02-01608 Rev. 1
5
DS51246A-page 46
1
DB9
U1
J2
J4
J1
Header
C1
Integrated
Transceiver
U6
R13
C16
RTS
C2
MODE
C5
R2
TX
R14
C9
JP3:JP1
000=FOSC/768
001=FOSC/384
010=FOSC/192
011=FOSC/128
100=FOSC/64
111=S/W Baud
Open=0
RX
U3
J3
+5V
GND
2
 2001 Microchip Technology Inc.
Hardware Detail
A.4.2
MCP2150 Developer’s Board
The MCP2150 Developer’s Board has the following jumpers:
1. Three jumpers to select source of UART signals. Either RS-232C socket
or the eight-pin header.
2. Two jumpers to select desired baud rate.
3. Two jumpers to select IR Transceiver options.
4. Jumper to disable device operation.
Figure A.2: MCP2150 Developer’s Board Hardware
4
C8
C17
Y1
CR1
C15
C16
U3
C11
U4
R5 R6 C13
(MCP2150)
Open=Enabled Component
Transceiver
J7 J8
R4 R3
C12
R1
D2 D5
R9
R2 JP3
U2
C14
R7
C7
D4
J6
D3
R8
C6
U5
C5
Power
C9
BT1
R14
R10
D6
JP2 JP1
C3
D7
DB9
J5
MCP2150 Dev Board
02-01609 Rev. 1
 2001 Microchip Technology Inc.
JP2 JP1
0 0
0 1
1 0
1 1
U1
C10
1
U6
C4 C2
CD
J4
J3
J2
3
Integrated
BAUD
Transceiver
9600
19200 R11 R13 C16
57600
115200
Header
TX
RX
CTS
RTS
DTR
DSR
CD
RI
GND
+5
C1
D1
J1
+5VGND
2
DS51246A-page 47
MCP2120/MCP2150 USER’S GUIDE
A.5 Oscillator Options
The MCP2120 can be operated at different frequencies, while the MCP2150
only operates at a single fixed frequency.
A.5.1
MCP2120 Developer’s Board
The MCP2120 Developer’s Board crystal has pin receptacles so that crystal
frequencies can easily be changed. Table A.1 shows the baud rates for a
given crystal frequency, based on the state of the BAUD2:BAUD0 pins.
Table A.1: Crystal Frequency / Baud Rate
FOSC Frequency (MHz)
BAUD2:BAUD0
Bit Rate
0.6144 (1)
2.000
3.6864
4.9152
7.3728
800
2604
4800
6400
9600
000
FOSC / 768
001
FOSC / 384
1600
5208
9600
12800
19200
010
FOSC / 192
3200
10417
19200
25600
38400
4800
15625
28800
38400
57600
011
FOSC / 128
100
FOSC / 64
9600
31250
57600
78600
115200
Note 1:
An external clock is recommended for frequencies below 2 MHz.
Note 2:
14.7456 (2) 20.000 (2)
19200
26042
38400
52083
78600
104167
115200
156250
230400
312500
For frequencies above 7.5 MHz, the TXIR pulse width (MCP2120 Data Sheet electrical specification
parameter IR121) will be shorter than the minimum pulse width of 1.6 µs in the IrDA standard specification.
A.5.2
MCP2150 Developer’s Board
The MCP2150 Developer’s Board requires a fixed frequency crystal
(11.0592 MHz).
Table A.2: Crystal Frequency / Baud Rate
DS51246A-page 48
BAUD1:BAUD0
Bit Rate
00
01
10
11
FOSC / 1152
FOSC / 576
FOSC / 192
FOSC / 96
FOSC Frequency 11.0592 MHz
9600
19200
57600
115200
 2001 Microchip Technology Inc.
Hardware Detail
A.6 Board Layout
Figure A.3 shows the component layout (silkscreen) for the MCP2120 Board.
Figure A.3: MCP2120 Developer’s Board Component Layout
D3
D6 D2
C11
R15
U2
C17
R9
C18
U5
C6
R3
Y1
J5
CR1
(MCP2120)
Open=Enabled
C7
C12
C8
R8
R7
R6
C14
C13
U4
JP4
R4
C4
C15
D4
C10
R5
R11
R10
Component
Transceiver
J7
J6
D1
D5
R12
JP5 R1
Q1
U3
C1
Header
MCP2120 Developer’s Board
02-01608 Rev. 1
DB9
U1
J2
J4
J1
U6
Integrated
Transceiver
R13
C16
RTS
C3
MODE
C2
TX
C5
R2
RX
R14
C9
JP3:JP1
000=FOSC/768
001=FOSC/384
010=FOSC/192
011=FOSC/128
100=FOSC/64
111=S/W Baud
Open=0
J3
+5V
GND
Figure A.4 shows the component layout (silkscreen) for the MCP2150 Board.
Figure A.4: MCP2150 Developer’s Board Component Layout
C8
C17
Y1
C15
C16
R9
U3
U4
R5 R6 C13
(MCP2150)
Open=Enabled Component
Transceiver
J7 J8
R4 R3
C12
R1
D2D5
C11
R2 JP3
U2
CR1
C14
R7
C7
D4
J6
D3
R8
C6
U5
C5
Power
C9
BT1
D1
R14
R10
D6
JP2 JP1
C3
JP2 JP1
0 0
0 1
1 0
1 1
U1
C10
D7
DB9
J5
MCP2150 Dev Board
02-01609 Rev. 1
 2001 Microchip Technology Inc.
U6
C4 C2
CD
J4
J3
J2
Integrated
Transceiver
BAUD
9600
19200 R11 R13 C16
57600
115200
Header
TX
RX
CTS
RTS
DTR
DSR
CD
RI
GND
+5
C1
J1
+5VGND
DS51246A-page 49
MCP2120/MCP2150 USER’S GUIDE
A.7 Schematics
Figure A.5 shows the schematic for the MCP2120 Developer’s Board.
Figure A.6 shows the schematic for the MCP2150 Developer’s Board.
DS51246A-page 50
 2001 Microchip Technology Inc.
Hardware Detail
R1IN 13
R2IN 8
VEE 6
15 GND
T1OUT 14
T2OUT 7
11 T1IN
10 T2IN
 2001 Microchip Technology Inc.
12 R1OUT
9 R2OUT
VDD 2
VCC 16
1 C1+
3 C14 C2+
5 C2-
Figure A.5: MCP2120 Developer’s Board Schematic
DS51246A-page 51
DS51246A-page 52
T1IN
T2IN
T3IN
T4IN
T5IN
T1OUT
T2OUT
T3OUT
T4OUT
T5OUT
2 GND
VEE 4
8
9
11
15
5
6
7
10
12
VDD 27
VCC 26
14 FORCE_OFF
13 FORCEON
INVALID
16 R1OUTB
21 R1OUT
R1IN
20 R2OUT
R2IN
18 R3OUT
R3IN
24
23
22
19
17
28 C1+
25 C11 C2+
3 C2-
MCP2120/MCP2150 USER’S GUIDE
Figure A.6: MCP2150 Developer’s Board Schematic
 2001 Microchip Technology Inc.
12
MCP2120/MCP2150
USER’S GUIDE
Revision History
DESCRIPTION OF REVISION
This section covers the major changes to this
document between the revisions. These changes
include the corrections and enhancements that
have been implemented.
Current Revision (Revision A)
Initial release of this document
 2001 Microchip Technology Inc.
DS51246A-page 53
MCP2120/MCP2150 USER’S GUIDE
NOTES:
DS51246A-page 54
 2001 Microchip Technology Inc.
12
MCP2120/MCP2150
USER’S GUIDE
Index
B
Board Layout:
MCP2120 Developer’s Board Component
Layout ......................................... 49
MCP2150 Developer’s Board Component
Layout ......................................... 49
D
Disabling the MCP2120 .................................. 11
Disabling the MCP2150 .................................. 16
H
Hardware Setup:
Board Jumpers ......................................... 22
Oscillator .................................................. 22
J
Jumpers:
MCP2120 Developer’s Board .................. 46
MCP2150 Developer’s Board .................. 47
Power Supply .................................................. 45
R
Reference Documents ...................................... 3
S
Sample Devices ................................................ 3
Schematics ..................................................... 50
Serial Port ....................................................... 45
System Configurations .................................... 17
T
Terminal Program ........................................... 25
Tutorial Setup ........................................... 21, 39
U
UART Mode .................................................... 10
M
MCP2120 Developer’s Board:
Component Transceiver ............................. 8
Disable device operation ............................ 6
Hardware Baud selection ........................... 6
Integrated Transceiver ............................... 8
Ir Transceiver ............................................. 6
Selecting Baud Rate .................................. 9
Software Baud selection ............................ 6
UART Interface .......................................... 6
MCP2150 Developer’s Board:
Component Transceiver ........................... 14
Hardware Baud selection ......................... 12
Ir Transceiver ..................................... 12, 14
Selecting Baud Rate ................................ 15
UART Interface ........................................ 12
O
Oscillator Options:
MCP2120 Developer’s Board .................. 48
MCP2150 Developer’s Board .................. 48
P
PC Requirements ........................................... 20
PICDEM 1 Board ............................................ 41
PICDEM 2 Board ............................................ 43
 2001 Microchip Technology Inc.
DS51246A-page 55
MCP2120/MCP2150 USER’S GUIDE
NOTES:
DS51246A-page 56
 2001 Microchip Technology Inc.
NOTES:
 2001 Microchip Technology Inc.
DS51246A-page 57
MCP2120/MCP2150 USER’S GUIDE
NOTES:
DS51246A-page 58
 2001 Microchip Technology Inc.
MCP2120/MCP2150 USER’S GUIDE
Information contained in this publication regarding device
applications and the like is intended through suggestion only
and may be superseded by updates. It is your responsibility to
ensure that your application meets with your specifications.
No representation or warranty is given and no liability is
assumed by Microchip Technology Incorporated with respect
to the accuracy or use of such information, or infringement of
patents or other intellectual property rights arising from such
use or otherwise. Use of Microchip’s products as critical components in life support systems is not authorized except with
express written approval by Microchip. No licenses are conveyed, implicitly or otherwise, under any intellectual property
rights.
Trademarks
The Microchip name and logo, the Microchip logo, PIC, PICmicro,
PICMASTER, PICSTART, PRO MATE, KEELOQ, SEEVAL,
MPLAB and The Embedded Control Solutions Company are registered trademarks of Microchip Technology Incorporated in the
U.S.A. and other countries.
Total Endurance, ICSP, In-Circuit Serial Programming, FilterLab, MXDEV, microID, FlexROM, fuzzyLAB, MPASM,
MPLINK, MPLIB, PICC, PICDEM, PICDEM.net, ICEPIC,
Migratable Memory, FanSense, ECONOMONITOR, Select
Mode and microPort are trademarks of Microchip Technology
Incorporated in the U.S.A.
Serialized Quick Term Programming (SQTP) is a service mark
of Microchip Technology Incorporated in the U.S.A.
All other trademarks mentioned herein are property of their
respective companies.
© 2001, Microchip Technology Incorporated, Printed in the
U.S.A., All Rights Reserved.
Printed on recycled paper.
Microchip received QS-9000 quality system
certification for its worldwide headquarters,
design and wafer fabrication facilities in
Chandler and Tempe, Arizona in July 1999. The
Company’s quality system processes and
procedures are QS-9000 compliant for its
PICmicro® 8-bit MCUs, KEELOQ® code hopping
devices, Serial EEPROMs and microperipheral
products. In addition, Microchip’s quality
system for the design and manufacture of
development systems is ISO 9001 certified.
 2001 Microchip Technology Inc.
DS51246A-page 59
M
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Microchip Technology Consulting (Shanghai)
Co., Ltd.
Room 701, Bldg. B
Far East International Plaza
No. 317 Xian Xia Road
Shanghai, 200051
Tel: 86-21-6275-5700 Fax: 86-21-6275-5060
Dayton
China - Shenzhen
Dallas
Two Prestige Place, Suite 130
Miamisburg, OH 45342
Tel: 937-291-1654 Fax: 937-291-9175
18201 Von Karman, Suite 1090
Irvine, CA 92612
Tel: 949-263-1888 Fax: 949-263-1338
Microchip Technology Consulting (Shanghai)
Co., Ltd., Shenzhen Liaison Office
Rm. 1315, 13/F, Shenzhen Kerry Centre,
Renminnan Lu
Shenzhen 518001, China
Tel: 86-755-2350361 Fax: 86-755-2366086
Hong Kong
Microchip Technology Hongkong Ltd.
Unit 901, Tower 2, Metroplaza
223 Hing Fong Road
Kwai Fong, N.T., Hong Kong
Tel: 852-2401-1200 Fax: 852-2401-3431
New York
India
Detroit
Tri-Atria Office Building
32255 Northwestern Highway, Suite 190
Farmington Hills, MI 48334
Tel: 248-538-2250 Fax: 248-538-2260
Los Angeles
150 Motor Parkway, Suite 202
Hauppauge, NY 11788
Tel: 631-273-5305 Fax: 631-273-5335
San Jose
Microchip Technology Inc.
2107 North First Street, Suite 590
San Jose, CA 95131
Tel: 408-436-7950 Fax: 408-436-7955
Toronto
6285 Northam Drive, Suite 108
Mississauga, Ontario L4V 1X5, Canada
Tel: 905-673-0699 Fax: 905-673-6509
Microchip Technology Inc.
India Liaison Office
Divyasree Chambers
1 Floor, Wing A (A3/A4)
No. 11, O’Shaugnessey Road
Bangalore, 560 025, India
Tel: 91-80-2290061 Fax: 91-80-2290062
Japan
Microchip Technology Japan K.K.
Benex S-1 6F
3-18-20, Shinyokohama
Kohoku-Ku, Yokohama-shi
Kanagawa, 222-0033, Japan
Tel: 81-45-471- 6166 Fax: 81-45-471-6122
Korea
Microchip Technology Korea
168-1, Youngbo Bldg. 3 Floor
Samsung-Dong, Kangnam-Ku
Seoul, Korea 135-882
Tel: 82-2-554-7200 Fax: 82-2-558-5934
Singapore
Microchip Technology Singapore Pte Ltd.
200 Middle Road
#07-02 Prime Centre
Singapore, 188980
Tel: 65-334-8870 Fax: 65-334-8850
Taiwan
Microchip Technology Taiwan
11F-3, No. 207
Tung Hua North Road
Taipei, 105, Taiwan
Tel: 886-2-2717-7175 Fax: 886-2-2545-0139
EUROPE
Denmark
Microchip Technology Denmark ApS
Regus Business Centre
Lautrup hoj 1-3
Ballerup DK-2750 Denmark
Tel: 45 4420 9895 Fax: 45 4420 9910
France
Arizona Microchip Technology SARL
Parc d’Activite du Moulin de Massy
43 Rue du Saule Trapu
Batiment A - ler Etage
91300 Massy, France
Tel: 33-1-69-53-63-20 Fax: 33-1-69-30-90-79
Germany
Arizona Microchip Technology GmbH
Gustav-Heinemann Ring 125
D-81739 Munich, Germany
Tel: 49-89-627-144 0 Fax: 49-89-627-144-44
Germany - Analog
Lochhamer Strasse 13
D-82152 Martinsried, Germany
Tel: 49-89-895650-0 Fax: 49-89-895650-22
Italy
Arizona Microchip Technology SRL
Centro Direzionale Colleoni
Palazzo Taurus 1 V. Le Colleoni 1
20041 Agrate Brianza
Milan, Italy
Tel: 39-039-65791-1 Fax: 39-039-6899883
United Kingdom
Arizona Microchip Technology Ltd.
505 Eskdale Road
Winnersh Triangle
Wokingham
Berkshire, England RG41 5TU
Tel: 44 118 921 5869 Fax: 44-118 921-5820
06/01/01
DS51246A-page 60
 2001 Microchip Technology Inc.
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