UMFT240XE USB to 8-bit 245 FIFO Development Module

UMFT240XE
Version 1.0
Document Reference No.: FT_000653
Clearance No.: FTDI#
Future Technology
Devices
International Ltd
Datasheet
UMFT240XE USB to 8-bit
245 FIFO Development
Module
UMFT240XE is a USB to 8-bit 245 FIFO DIP module with a 0.6” row pitch.
1
Introduction
The UMFT240XE is a development module
for FTDI‟s FT240XQ, one of the devices
from FTDI‟s range of USB to serial data
interface integrated circuit devices.
FT240X is a USB to 245 FIFO interface
with a battery charging feature, which
can allow batteries to be charged with a
higher current from a dedicated charger
port (without the FT240X being
enumerated). In addition, asynchronous
and synchronous bit bang interface
modes are available. The internally
generated clock (6MHz, 12MHz, 24MHz
and 48MHz) can be brought out of the on
one of the CBUS pin to be used to drive a
microprocessor or external logic.
The UMFT240XE is a module which is
designed to plug into a standard 0.6”
wide 24 pin DIP socket. All components
used, including the FT240XQ are Pb-free
(RoHS compliant).
1.1 Features
The UMFT240XE is fitted with a FT240XQ, all
the features of the FT240X can be utilized
with the UMFT240XE. For a full list of the
FT240X‟s features please see the FT240X
datasheet which can be found by clicking
here.
In addition to the features listed in the
FT240X datasheet, the UMFT240XE has the
following features:

Small PCB assembly module designed to
fit a standard 15.24mm (0.6”) wide 24
pin DIP socket. Pins are on a 2.54mm
(0.1”) pitch.

On board USB „mini-B‟ socket allows
module to be connected to a PC via a
standard A to mini-B USB cable.

Functionally configurable using jumpers.
The default jumper setup enables the
module to function without peripheral
wires
or
application
board.
Other
configurations enable external power
supply options and variation of logic
reference levels.
Use of FTDI devices in life support and/or safety applications is entirely at the user‟s risk, and the user agrees
to defend, indemnify and hold harmless FTDI from any and all damages, claims, suits or expense resulting
from such use.
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Table of Contents
1
Introduction ................................................................................... 1
1.1
Features ........................................................................................................ 1
2
Driver Support ................................................................................ 3
3
Ordering Information ..................................................................... 3
4
UMFT240XE Signals and Configurations ......................................... 4
5
4.1
UMFT240XE Pin Out ...................................................................................... 4
4.2
Signal Descriptions ....................................................................................... 5
4.3
CBUS Signal Options ..................................................................................... 6
Module Configurations .................................................................... 7
5.1
Jumper Configuration Options ....................................................................... 7
5.2
BUS Powered Configuration .......................................................................... 8
5.3
Self Powered Configuration ........................................................................... 9
5.4
USB Bus Powered with Power Switching Configuration .............................. 10
5.5
Variable IO Voltage Supply ......................................................................... 11
5.6
3.3V Voltage Supply .................................................................................... 12
5.7
Configuring the MTP ROM ............................................................................ 12
6
Module Dimensions ...................................................................... 13
7
UMFT240XE Module Circuit Schematic .......................................... 14
8
Internal MTP ROM Configuration .................................................. 15
9
Contact Information ..................................................................... 16
Appendix A - List of Figures and Tables ................................................................. 17
Appendix B – Revision History .............................................................................. 18
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Driver Support
Royalty-Free VIRTUAL COM PORT (VCP)
DRIVERS for:
Royalty-Free D2XX Direct Drivers (USB Drivers +
DLL S/W Interface):

Windows 7 32,64-bit

Windows 7 32,64-bit

Windows Vista

Windows Vista

Windows XP 32,64-bit

Windows XP 32,64-bit

Windows XP Embedded

Windows XP Embedded

Windows CE.NET 4.2 , 5.0 and 6.0

Windows CE.NET 4.2, 5.0 and 6.0

MAC OS OS-X

MAC OS OS-X

Linux 3.0 and greater

Linux 3.0 and greater

Android

Android
The drivers listed above are all available to download for free from www.ftdichip.com. Various 3rd Party
Drivers are also available for various other operating systems - visit www.ftdichip.com for details.
3
Ordering Information
Module Code
Utilised IC Code
Description
UMFT201XE-01
FT201XQ
USB to I2C evaluation module. 0.6” row pitch, standard DIP
headers.
UMFT221XE-01
FT221XQ
USB to 8-bit SPI/FT1248 evaluation module. 0.6” row pitch,
standard DIP headers.
UMFT231XE-01
FT231XQ
USB to Full-Handshake UART evaluation module. 0.6” row
pitch, standard DIP headers.
UMFT240XE-01
FT240XQ
USB to 8-bit 245 FIFO evaluation module. 0.6” row pitch,
standard DIP headers.
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UMFT240XE Signals and Configurations
4.1 UMFT240XE Pin Out
GND – J1-1
J2-1 – SLD
3V3OUT
VBUS
VCC
VCCIO
RESET#
DATA7
CBUS6
DATA6
CBUS5
DATA5
GND
GND
SI/WU
DATA4
WR#
DATA3
RD#
DATA2
TXE#
DATA1
DATA0 – J1-12
J2-12 – RXF#
Figure 4.1 – Module Pin Out
Figure 4.1 illustrates the signals available on the DIP pins.
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4.2 Signal Descriptions
Pin No.
Name
Type
Description
J1-1, J1-7,
J2-5
GND
PWR
Module Ground Supply Pins
J1-2
3V3OUT
Power
Input/
Output
3.3V output from integrated LDO regulator. This pin is decoupled with a 100nF
capacitor to ground on the PCB module. The prime purpose of this pin is to
provide the 3.3V supply that can be used internally. For power supply
configuration details see section 5.
J1-3
VCCIO
Power
Input
+1.8V to +3.3V supply to the UART Interface and CBUS I/O pins. For power
supply configuration details see section 5.
J1-4
DATA7
I/O
245 FIFO Bi-Directional data bit 7.
J1-5
DATA6
I/O
245 FIFO Bi-Directional data bit 6.
J1-6
DATA5
I/O
245 FIFO Bi-Directional data bit 5.
J1-8
DATA4
I/O
245 FIFO Bi-Directional data bit 4.
J1-9
DATA3
I/O
245 FIFO Bi-Directional data bit 3.
J1-10
DATA2
I/O
245 FIFO Bi-Directional data bit 2.
J1-11
DATA1
I/O
245 FIFO Bi-Directional data bit 1.
J1-12
DATA0
I/O
245 FIFO Bi-Directional data bit 0.
J2-1
SLD
GND
USB Cable Shield. Connected to GND via a 0ohm resistor.
J2-2
VBUS
Power
Output
5V Power output from the USB bus. For a low power USB bus powered design, up
to 100mA can be sourced from the 5V supply and applied to the USB bus. A
maximum of 500mA can be sourced from the USB bus in a high power USB bus
powered design. Currents up to 1A can be sourced from a dedicated charger and
applied to the USB bus.
J2-3
VCC
Power
Input
5V power input for FT240X. For power supply configuration details see section 5.
J2-4
RESET#
Input
FT231X active low reset line. Configured with an on board pull-up and
recommended filter capacitor. When no power is applied to the USB bus reset, will
be held low, this prevents current from flowing to the host or hub when in selfpowered mode.
J2-5
CBUS6
I/O
Configurable CBUS I/O Pin. Function of this pin is configured in the device internal
MTP ROM. Factory Default pin Function is Keep_Awake. See CBUS Signal Options,
Table 4.2.
J2-6
CBUS5
I/O
Configurable CBUS I/O Pin. Function of this pin is configured in the device internal
MTP ROM. Factory Default pin Function is VBUS_Sense. See CBUS Signal Options,
Table 4.2.
J2-8
SI/WU
Output
Send Immediate/Wake Up
J2-9
WR#
Input
245 FIFO Write status line
J2-10
RD#
Input
245 FIFO Read status line
J2-11
TXE#
Output
245 FIFO Transmit control line
J2-12
RXF#
Output
245 FIFO Receive control line
Table 4.1 – Module Pin Out Description
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4.3 CBUS Signal Options
The following options can be configured on the CBUS I/O pins. These options are all configured in the
internal MTP ROM using the utility software FT_PROG, which can be downloaded from the
www.ftdichip.com. The default configuration is described in Section 9.
CBUS Signal
Option
Available On CBUS Pin
Tristate
CBUS5, CBUS6
IO Pad is tri-stated
DRIVE_1
CBUS5, CBUS6
Output a constant 1
DRIVE_0
CBUS5, CBUS6
Output a constant 0
PWREN#
CBUS5, CBUS6
Output is low after the device has been configured by USB, then high
during USB suspend mode. This output can be used to control power to
external logic P-Channel logic level MOSFET switch.
NOTE: This function is driven by an open-drain to ground with no
internal pull-up, this is specially designed to aid battery charging
applications. UMFT240XE connects an on-board 47K pull-up on each
CBUS and DBUS signal.
TXLED#
CBUS5, CBUS6
Transmit data LED drive – open drain pulses low when transmitting data
via USB.
RXLED#
CBUS5, CBUS6
Receive data LED drive – open drain pulses low when receiving data via
USB.
TX&RXLED#
CBUS5, CBUS6
LED drive – open drain pulses low when transmitting or receiving data
via USB.
SLEEP#
CBUS5, CBUS6
Goes low during USB suspend mode. Typically used to power down an
external logic to RS232 level converter IC in USB to RS232 converter
designs. Deactivate SLEEP# option for when connected to a dedicated
charger port, this can be selected when configuring the MTP ROM. When
this option is enabled SLEEP# is driven high when FT240X is connected
to a Dedicated Charger Port.
CLK24MHz
CBUS5, CBUS6
24 MHz Clock output.**
CLK12MHz
CBUS5, CBUS6
12 MHz Clock output.**
CLK6MHz
CBUS5, CBUS6
6 MHz Clock output.**
BCD_Charger
CBUS5, CBUS6
Battery Charge Detect indicates when the device is connected to a
dedicated battery charger host. Active high output. NOTE: Requires a
10K pull-down to remove power up toggling.
BCD_Charger#
CBUS5, CBUS6
Active low BCD Charger, driven by an open drain to ground with no
internal pull-up (4.7K on board pull-up present).
BitBang_WR#
CBUS5, CBUS6
Synchronous and asynchronous bit bang mode WR# strobe output.
BitBang_RD#
CBUS5, CBUS6
Synchronous and asynchronous bit bang mode RD# strobe output.
VBUS Sense
CBUS5, CBUS6
Input to detect when VBUS is present.
Time Stamp
CBUS5, CBUS6
Toggle signal which changes state each time a USB SOF is received
Keep_Awake#
CBUS5, CBUS6
Table 4.2 – CBUS Signal Options
Description
Active Low input, prevents the chip from going into suspend.
**When in USB suspend mode the outputs clocks are also suspended.
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Module Configurations
5.1 Jumper Configuration Options
Jumper No.
Setting
Status
Description
JP1
Shorted
Default
Connects internal 3.3V regulator to VCCIO. This restricts signal drive to only 3.3V
level signals.
Disconnects internal 3.3V regulator connection to VCCIO. This mode allows for the
supply of 1.8V-3.3V power from an external power supply, thus allows the
JP1
Opened
processing of signals with logic levels between 1.8V and 3.3V. VCCIO can be
adjusted to match the interface requirements of external circuitry.
Table 5.1 – Jumper JP1 Pin Description
NonDefault
Jumper No.
Setting
Status
Description
JP2
Shorted
Default
Connects VBUS to VCC. This mode is known as “USB-Powered” mode.
NonDisconnects VBUS to VCC. This allows the supply of power from an external power
Default
supply. This mode is known as “Self-Powered” mode.
Table 5.2 – Jumper JP2 Pin Description
JP2
Opened
Note: There should never be more than one power output supplied to the same net. If JP2 is fitted when
an external power supply is applied a direct short between two power supplies will be formed, this can
result in damage to the UMFT240XE module and the target circuit.
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5.2 BUS Powered Configuration
GND
Alternative
connection
VCCIO
VCC
3V3OUT
VBUS
Alternative
connection
Current Flow
GND
Self-Sourced
3V3 TTL Mode
Jumper JP1 - Closed
Bus Powered
Mode
Jumper JP2 - Closed
Figure 5.1 – Bus Powered Configuration
A bus powered configuration draws its power from the USB host/hub. The UMFT240XE is configured by
default to be in bus powered mode.
Figure 5.1illustrates the UMFT240XE module in a typical USB bus powered design configuration. By
default 3V3OUT is connected to VCCIO, and VBUS is connected to VCC.
For a bus power configuration power is supplied from the USB VBUS:
+5V VBUS power is sourced from the USB bus and is connected to the FT240X power input (VCC)
+3.3V power is sourced from the FT240X‟s voltage regulator output and is connected to the FT240X IO
port‟s power input (VCCIO).
Interfacing the UMFT240XE module to a microcontroller (MCU), or other logic devices for bus powered
configuration is done in exactly the same way as a self powered configuration (see Section 3). Except
that it is possible for the MCU or external device to take its power supply from the USB bus (either the 5V
from the USB pin, or 3.3V from the 3V3OUT pin).
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5.3 Self Powered Configuration
Vcc = 1.8V – 3.3V
Vcc = 5V
VIO
DATA0-7
RXF#
TXE#
RD#
WR#
GND
MCU
VCCIO
VCC
3V3OUT
VBUS
GND
Variable TTL
Mode
Jumper JP1 - Open
Self Power
Mode
Jumper JP2 - Open
Figure 5.2 – Self-Powered Configuration
A self-powered configuration operates on the principle of drawing power from an external power supply,
as oppose to drawing power from the USB host. In this configuration no current is drawn from the USB
bus.
Figure 5.2 illustrates the UMFT240XE in a typical USB self-powered configuration. In this case the jumper
connection of JP1 is removed, which allows 5V power to be supplied to the module VCC pins from an
external source. VCCIO can to be powered from 3V3OUT or the VCC of an external source. (Note that
Figure 5.2 is for illustration only and that the pins do not actually go all the way through the PCB)
For a self-powered configuration it is necessary to prevent current from flowing back to the USB data
lines when the connected USB host or hub has powered down. To carry out this function the UMFT240XE
uses an on-board voltage divider network connected to the USB power bus and RESET# pin. This
operates on the principle that when no power is supplied to the VBUS line, the FT240X will automatically
be held in reset by a weak pull-down, when power is applied the voltage divider will apply a weak 3.3V
pull-up. Driving a level to the RESET# pin of the UMFT240XE will override the effect of this voltage
divider. When the FT240X is in reset the USB DP signal pull-up resistor connected to the data lines is
disconnected and no current can flow down the USB lines.
An example of interfacing the FT240X with a Microcontroller‟s UART interface is also illustrated in Figure
5.2. This example shows the wire configuration of the transfer and handshake lines. This example also
illustrates that a voltage other than 3.3V can be supplied to the FT240X‟s IO port, this feature is
described further and for bus powered mode in Section 5.5.
Alternatively both the FT240X‟s IO port and MCU can be powered from the 3V3OUT pin; this approach is
described in Section 5.4.
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5.4 USB Bus Powered with Power Switching Configuration
5V
P-Channel Power
MOSFET
s
d
VCC
0.1uF
10K
DATA0-7
Soft
Start
Circuit
RXF#
1K
CBUS5
TXE#
MCU
0.1uF
g
PWREN#
RD#
WR#
VCCIO
VCC
3V3OUT
VBUS
GND
Self-Sorced
3.3V TTL Mode
Jumper JP1 - Closed
Bus Powered
Mode
Jumper JP2 - Closed
Figure 5.3 – Bus Powered with Power Switching Configuration
USB bus powered mode is introduced in Section 5.2. This section describes how to use bus-powered
mode with a power switch.
USB bus powered circuits are required by USB compliance standards to consume less than 2.5mA (and
less than 100mA when not enumerated and not suspended) when connected to a host or hub when in
USB suspend mode. The PWREN# CBUS function can be used to remove power from external circuitry
whenever the FT240X is not enumerated. (Note: It is impossible to be in suspended mode when
enumerated.)(Note that Figure 5.3 is for illustration only and that the pins do not actually go all the way
through the PCB)
To implement a power switch using PWREN#, configure a P-Channel Power MOSFET to have a soft start
by fitting a 10K pull-up, a 1K series resistor and a 100nF cap as shown in Figure 5.3.
Connecting the source of the P-Channel MOSFET to 3V3OUT instead of VBUS can allow external logic to
source 3.3V power from the FT240X without breaking USB compliancy. In this setup it is important that
the VCCIO is not sourced from the drain of this MOSFET, this is because the power used to drive the gate
of this transistor is sourced from VCCIO. VCCIO should be connected directly to 3V3OUT for this setup to
function effectively. It is also important that the external logic must and IO core of the FT240X must not
draw more that 50mA, this is because the current limit of the internal 3.3V regulator is 50mA.
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5.5 Variable IO Voltage Supply
Vcc = 1.8V – 3.3V
DATA0-7
RXF#
TXE#
RD#
WR#
GND
MCU
VCCIO
VCC
3V3OUT
VBUS
GND
Jumper JP1 - Open
Jumper JP2 - Closed
Figure 5.4 – USB Bus Powered 3.3V Logic Drive
The FT240X can process signals at CMOS/TTL logic levels in the range of 1.8V to 3.3V. This section
describes how to utilise this feature.
Figure 5.4 shows a configuration where the FT240X is interfaced to a device with IOs operating in the
range of 1.8V - 3.3V. The IO ports of this module need to be powered with a voltage level that is equal to
the level of the signals it is processing. Since the FT240X‟s embedded voltage regulator only outputs 3V3
the IO ports will need to be powered from another power source when operating at voltage levels other
than 3.3V.
By default, a short is present between 3V3OUT (embedded voltage regulator) and VCCIO (IO port‟s
power input) with the connection made by JP1. If an external power supply is used to power the IO ports
this jumper needs to be open.
The configuration described in this section can be implemented in either bus-powered mode or selfpowered mode.
Note 1: The CBUS and DBUS pins are 5V tolerant; however, these signals cannot drive signals at 5V
TTL/CMOS. VCCIO is not 5V tolerant; applying 5V to VCCIO will damage the chip.
Note 2: If power is applied to VCCIO and no power is applied to VCC all IOs will be at an unknown state,
this however will not damage the chip. The FT240X also has protective circuitry to prevent the chip being
damaged by a voltage discrepancy between VCCIO and the level of the signal being processed.
Note 3: When using VCCIO less than 3V3 on a chip from FTDI‟s X-chip range, it is recommended to uses
pull up resistors (47K) to VCCIO on the data lines, all of the UMFT2xxXE devices include an on-board
pull-up for these lines.
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5.6 3.3V Voltage Supply
Vcc = 3.3V
Vcc = 3.3V
DATA0-7
RXF#
TXE#
RD#
WR#
GND
MCU
Optional
IO7
VCCIO
VCC
3V3OUT
VBUS
GND
Jumper JP1 - Closed
Jumper JP2 - Open
Figure 5.5 – USB Self Powered 3.3V Logic Drive
The FT240X can be powered from a single 3.3V supply. This feature is an alternative to having the
FT240X powered at 5V in standard self-powered configuration.
The 3.3V Self Powered configuration is illustrated in Figure 5.5. Note that the 3.3V input is connected to
VCC, VCCIO and 3V3OUT. (Note that Figure 5.5 is for illustration only and that the pins do not actually go
all the way through the PCB)
5.7 Configuring the MTP ROM
The FT240X contains an embedded MTP ROM. This device can be used to specify the functions used by
each CBUS pin, the current drive on each signal pin, current limit for the USB bus and the other
descriptors of the device. For details on using the MTP ROM/EEPROM programming utility FT_PROG,
please see the FT_PROG User Guide.
When programming the MTP ROM please note:
i) One of the CBUS Pins can be configured as PWREN# in the internal MTP ROM. This can be used to
switch the power supply to the external circuitry.
ii) The Max Bus Power setting of the MTP ROM should specify the maximum current to be drawn from
the USB host/hub when enumerated. For high-powered USB devices the current limit when
enumerated is between 100mA and 500mA, for low-powered USB devices the current limit is
100mA.
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Module Dimensions
35.1
2.54
1.62
18.5
15.24
9.26
5.43
37.0
5.8
1.6
9.2
Figure 6.1 – UMFT240XE Module Dimensions
All dimensions are given in millimetres.
The UMFT240XE module exclusively uses lead free components, and is fully compliant with European
Union directive 2002/95/EC.
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UMFT240XE Module Circuit Schematic
Figure 7.1 – Module Circuit Schematic
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Internal MTP ROM Configuration
Following a power-on reset or a USB reset the FT240X will scan its internal MTP ROM and read the USB
configuration descriptors stored there. The default values programmed into the internal MTP ROM in the
FT240XQ used on the UMFT240XE are shown in Table 8.1.
Parameter
Value
Notes
USB Vendor ID (VID)
0403h
FTDI default VID (hex)
USB Product UD (PID)
6015h
FTDI default PID (hex)
Serial Number Enabled?
Yes
Serial Number
See Note
A unique serial number is generated and programmed into
the MTP ROM during final test of the UM232R module.
Pull down I/O Pins in USB
Suspend
Disabled
Enabling this option will make the device pull down on the
UART interface lines when the power is shut off (PWREN#
is high).
Manufacturer Name
FTDI
Product Description
UMFT240XE
Max Bus Power Current
Power Source
90mA
Bus Powered
Device Type
FT240X
USB Version
0200
Returns USB 2.0 device description to the host. Note: The
device is a USB 2.0 Full Speed device (12Mb/s) as opposed
to a USB 2.0 High Speed device (480Mb/s).
Remote Wake Up
Enabled
Taking RI# low will wake up the USB host controller from
suspend.
High Current I/Os
Disabled
Enables the high drive level on the data and CBUS I/O pins.
Load VCP Driver
Enabled
Makes the device load the CVP driver interface for the
device.
CBUS5
Tristate
CBUS6
Tristate
Table 8.1 – Default Internal MTP ROM Configuration
The internal MTP ROM in the FT240X can be programmed over USB using the utility program FT_PROG.
FT_PROG can be downloaded from the www.ftdichip.com. Users who do not have their own USB vendor
ID but who would like to use a unique Product ID in their design can apply to FTDI for a free block of
unique PIDs. Contact FTDI Support ([email protected]) for this service, also see TN_100 and
TN_101.
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Contact Information
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Please visit the Sales Network page of the FTDI Web site for the contact details of our distributor(s) and sales
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System and equipment manufacturers and designers are responsible to ensure that their systems, and any Future Technology Devices International Ltd
(FTDI) devices incorporated in their systems, meet all applicable safety, regulatory and system-level performance requirements. All application-related
information in this document (including application descriptions, suggested FTDI devices and other materials) is provided for reference only. While FTDI
has taken care to assure it is accurate, this information is subject to customer confirmation, and FTDI disclaims all liability for system designs and for any
applications assistance provided by FTDI. Use of FTDI devices in life support and/or safety applications is entirely at the user’s risk, and the user agrees to
defend, indemnify and hold harmless FTDI from any and all damages, claims, suits or expense resulting from such use. This document is subject to change
without notice. No freedom to use patents or other intellectual property rights is implied by the publication of this document. Neither the whole nor any part
of the information contained in, or the product described in this document, may be adapted or reproduced in any material or electronic form without the prior
written consent of the copyright holder. Future Technology Devices International Ltd, Unit 1, 2 Seaward Place, Centurion Business Park, Glasgow G41
1HH, United Kingdom. Scotland Registered Company Number: SC136640
16
Copyright © 2012 Future Technology Devices International Limited
UMFT240XE
Version 1.0
Document Reference No.: FT_000653
Clearance No.: FTDI# 295
Appendix A - List of Figures and Tables
List of Figures
Figure 4.1 – Module Pin Out ........................................................................................................................... 4
Figure 5.1 – Bus Powered Configuration ...................................................................................................... 8
Figure 5.2 – Self-Powered Configuration ...................................................................................................... 9
Figure 5.3 – Bus Powered with Power Switching Configuration .............................................................. 10
Figure 5.4 – USB Bus Powered 3.3V Logic Drive ....................................................................................... 11
Figure 5.5 – USB Self Powered 3.3V Logic Drive ....................................................................................... 12
Figure 6.1 – UMFT240XE Module Dimensions ............................................................................................ 13
Figure 7.1 – Module Circuit Schematic ........................................................................................................ 14
List of Tables
Table 4.1 – Module Pin Out Description ........................................................................................................ 5
Table 4.2 – CBUS Signal Options ................................................................................................................... 6
Table 5.1 – Jumper JP1 Pin Description ....................................................................................................... 7
Table 5.2 – Jumper JP2 Pin Description ....................................................................................................... 7
Table 8.1 – Default Internal MTP ROM Configuration ................................................................................ 15
Copyright © 2011 Future Technology Devices International Limited
17
UMFT240XE
Version 1.0
Document Reference No.: FT_000653
Clearance No.: FTDI# 295
Appendix B – Revision History
Document Title:
UMFT240XE
Document Reference No.:
FT_000653
Clearance No.:
FTDI# 295
Product Page:
http://www.ftdichip.com/FT-X.htm
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Version 1.0
Initial Datasheet Created
Copyright © 2011 Future Technology Devices International Limited
12/06/12
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