Automotive Power
Data Sheet
Rev. 1.0, 2015-08-12
TLE7250
High Speed CAN-Transceiver
TLE7250LE
TLE7250SJ
Data Sheet 2 Rev. 1.0, 2015-08-12
TLE7250LE
TLE7250SJ
Table of Contents . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2
1 Overview . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 3
2 Block Diagram . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5
3 Pin Configuration . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6
3.1 Pin Assignment . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6
3.2 Pin Definitions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6
4 Functional Description . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 8
4.1 High Speed CAN Physical Layer . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 8
4.2 Modes of Operation . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 10
4.2.1 Normal-operating Mode . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 10
4.2.2 Power-save Mode . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 10
4.2.3 Receive-only Mode . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 10
4.3 Power-up and Undervoltage Condition . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 11
4.3.1 Power-down State . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 12
4.3.2 Power-up . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 12
4.3.3 Undervoltage on the Transmitter Supply VCC . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 13
5 Fail Safe Functions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 14
5.1 Short Circuit Protection . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 14
5.2 Unconnected Logic Pins . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 14
5.3 TxD Time-out Function . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 14
5.4 Overtemperature Protection . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 15
5.5 Delay Time for Mode Change . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 15
6 General Product Characteristics . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 16
6.1 Absolute Maximum Ratings . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 16
6.2 Functional Range . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 17
6.3 Thermal Resistance . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 17
7 Electrical Characteristics . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 18
7.1 Functional Device Characteristics . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 18
7.2 Diagrams . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 23
8 Application Information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 25
8.1 ESD Robustness according to IEC61000-4-2 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 25
8.2 Application Example . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 26
8.3 Examples for Mode Changes . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 27
8.3.1 Mode Change while the TxD Signal is “low” . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 28
8.3.2 Mode Change while the Bus Signal is “dominant” . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 28
8.4 Further Application Information . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 31
9 Package Outline . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 32
10 Revision History . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 33
Table of Contents
Type Package Marking
TLE7250LE PG-TSON-8 7250
TLE7250SJ PG-DSO-8 7250
PG-TSON-8
PG-DSO-8
Data Sheet 3 Rev. 1.0, 2015-08-12
High Speed CAN-Transceiver TLE7250LE
TLE7250SJ
1 Overview
Features
• Fully compatible to ISO 11898-2
• Wide common mode range for electromagnetic immunity (EMI)
• Very low electromagnetic emission (EME)
• Excellent ESD robustness
• Guaranteed loop delay symmetry to support CAN FD data frames up
to 2 MBit/s
• Extended supply range on VCC supply
• CAN short circuit proof to ground, battery and VCC
• TxD time-out function
• Low CAN bus leakage current in power-down state
• Overtemperature protection
• Protected against automotive transients
• Receive-only mode and power-save mode
• Green Product (RoHS compliant)
• Two package variants: PG-DSO-8 and PG-TSON-8
• AEC Qualified
Description
The TLE7250 is a transceiver designed for HS CAN networks in
automotive and industrial applications. As an interface between the physical bus layer and the CAN protocol
controller, the TLE7250 drives the signals to the bus and protects the microcontroller against interferences
generated within the network. Based on the high symmetry of the CANH and CANL signals, the TLE7250 provides
a very low level of electromagnetic emission (EME) within a wide frequency range.
The TLE7250 is available in a small, leadless PG-TSON-8 package and in a PG-DSO-8 package. Both packages
are RoHS compliant and halogen free. Additionally the PG-TSON-8 package supports the solder joint
requirements for automated optical inspection (AOI). The TLE7250LE and the TLE7250SJ are fulfilling or
exceeding the requirements of the ISO11898-2.
The TLE7250 provides a receive-only mode and a power-save mode. It is designed to fulfill the enhanced physical
layer requirements for CAN FD and supports data rates up to 2 MBit/s.
On the basis of a very low leakage current on the HS CAN bus interface the TLE7250 provides an excellent
passive behavior in power-down state. These and other features make the TLE7250 exceptionally suitable for
mixed supply HS CAN networks.
Based on the Infineon Smart Power Technology SPT, the TLE7250 provides excellent ESD immunity together with
TLE7250LE
TLE7250SJ
Overview
Data Sheet 4 Rev. 1.0, 2015-08-12
a very high electromagnetic immunity (EMI). The TLE7250 and the Infineon SPT technology are AEC qualified
and tailored to withstand the harsh conditions of the automotive environment.
Three different operating modes, additional fail-safe features like a TxD time-out and the optimized output
slew rates on the CANH and CANL signals, make the TLE7250 the ideal choice for large HS CAN networks with
high data transmission rates.
TLE7250LE
TLE7250SJ
Block Diagram
Data Sheet 5 Rev. 1.0, 2015-08-12
2 Block Diagram
Figure 1 Functional block diagram
Driver
Temp-
protection Mode
control
7
CANH
6
CANL
2
GND
TxD
3VCC
NEN
RxD
Timeout
Transmitter
Receiver
VCC/2
Normal-mode receiver
1
8
4
Bus-biasing
=
NRM
5
TLE7250LE
TLE7250SJ
Pin Configuration
Data Sheet 6 Rev. 1.0, 2015-08-12
3 Pin Configuration
3.1 Pin Assignment
Figure 2 Pin configuration
3.2 Pin Definitions
Table 1 Pin definitions and functions
Pin No. Symbol Function
1TxDTransmit Data Input;
internal pull-up to VCC, “low” for “dominant” state.
2GNDGround
3VCC Transmitter Supply Voltage;
100 nF decoupling capacitor to GND required.
4RxDReceive Data Output;
“low” in “dominant” state.
5NRMNot Receive-Only Mode Input;
control input for selecting receive-only mode,
internal pull-up to VCC, “low” for receive-only mode.
6CANLCAN Bus Low Level I/O;
“low” in “dominant” state.
7CANHCAN Bus High Level I/O;
“high” in “dominant” state.
TxD NEN
NRM
1
2
3
4
8
7
6
5
GND
VCC
RxD
CANH
CANL
1
2
3
4
8
7
6
5
TxD
GND
VCC
RxD
NEN
NRM
CANH
CANL
(Top-side x-ray view)
PAD
TLE7250LE
TLE7250SJ
Pin Configuration
Data Sheet 7 Rev. 1.0, 2015-08-12
8NENNot Enable Input;
internal pull-up to VCC,
“low” for normal-operating mode or receive-only mode.
PAD – Connect to PCB heat sink area.
Do not connect to other potential than GND.
Table 1 Pin definitions and functions (cont’d)
Pin No. Symbol Function
TLE7250LE
TLE7250SJ
Functional Description
Data Sheet 8 Rev. 1.0, 2015-08-12
4 Functional Description
HS CAN is a serial bus system that connects microcontrollers, sensors and actuators for real-time control
applications. The use of the Controller Area Network (abbreviated CAN) within road vehicles is described by the
international standard ISO 11898. According to the 7-layer OSI reference model the physical layer of a HS CAN
bus system specifies the data transmission from one CAN node to all other available CAN nodes within the
network. The physical layer specification of a CAN bus system includes all electrical and mechanical specifications
of a CAN network. The CAN transceiver is part of the physical layer specification. Several different physical layer
standards of CAN networks have been developed in recent years. The TLE7250 is a High Speed CAN transceiver
without a wake-up function and defined by the international standard ISO11898-2.
4.1 High Speed CAN Physical Layer
Figure 3 High speed CAN bus signals and logic signals
TxD
VCC
t
t
VCC
CANH
CANL
t
VCC
VDiff
RxD VCC
t
VCC = Transmitter supply voltage
TxD = Transmit data input from
the microcontroller
RxD = Receive data output to
the microcontroller
CANH = Bus level on the CANH
input/output
CANL = Bus level on the CANL
input/output
VDiff = Differential voltage
between CANH and CANL
VDiff = VCANH – VCANL
“dominant” receiver threshold
“recessive” receiver threshold
tLoop(H,L) tLoop(L,H)
TLE7250LE
TLE7250SJ
Functional Description
Data Sheet 9 Rev. 1.0, 2015-08-12
The TLE7250 is a High-Speed CAN transceiver, operating as an interface between the CAN controller and the
physical bus medium. A HS CAN network is a two wire, differential network which allows data transmission rates
for CAN FD frames up to 2 MBit/s. Characteristic for HS CAN networks are the two signal states on the HS CAN
bus: “dominant” and “recessive” (see Figure 3).
VCC and GND are the supply pins for the TLE7250. The pins CANH and CANL are the interface to the HS CAN
bus and operate in both directions, as an input and as an output. RxD and TxD pins are the interface to the CAN
controller, the TxD pin is an input pin and the RxD pin is an output pin. The NEN and NRM pins are the input pins
for the mode selection (see Figure 4).
By setting the TxD input pin to logical “low” the transmitter of the TLE7250 drives a “dominant” signal to the CANH
and CANL pins. Setting TxD input to logical “high” turns off the transmitter and the output voltage on CANH and
CANL discharges towards the “recessive” level. The “recessive” output voltage is provided by the bus-biasing (see
Figure 1). The output of the transmitter is considered to be “dominant”, when the voltage difference between
CANH and CANL is at least higher than 1.5 V (VDiff =VCANH -VCANL).
Parallel to the transmitter the normal-mode receiver monitors the signal on the CANH and CANL pins and indicates
it on the RxD output pin. A “dominant” signal on the CANH and CANL pins sets the RxD output pin to logical “low”,
vice versa a “recessive” signal sets the RxD output to logical “high”. The normal-mode receiver considers a voltage
difference (VDiff) between CANH and CANL above 0.9 V as “dominant” and below 0.5 V as “recessive”.
To be conform with HS CAN features, like the bit to bit arbitration, the signal on the RxD output has to follow the
signal on the TxD input within a defined loop delay tLoop ≤255 ns.
TLE7250LE
TLE7250SJ
Functional Description
Data Sheet 10 Rev. 1.0, 2015-08-12
4.2 Modes of Operation
The TLE7250 supports three different modes of operation, power-save mode, receive-only mode and normal-
operating mode while the transceiver is supplied according to the specified functional range. The mode of
operation is selected by the NEN and the NRM input pins (see Figure 4).
Figure 4 Mode state diagram
4.2.1 Normal-operating Mode
In normal-operating mode the transmitter and the receiver of the HS CAN transceiver TLE7250 are active (see
Figure 1). The HS CAN transceiver sends the serial data stream on the TxD input pin to the CAN bus. The data
on the CAN bus is displayed at the RxD pin simultaneously. A logical “low” signal on the NEN pin and a logical
“high” signal on the NRM pin selects the normal-operating mode, while the transceiver is supplied by VCC (see
Table 2 for details).
4.2.2 Power-save Mode
The power-save mode is an idle mode of the TLE7250 with optimized power consumption. In power-save mode
the transmitter and the normal-mode receiver are turned off. The TLE7250 can not send any data to the HS CAN
bus nor receive any data from the HS CAN bus.
The RxD output pin is permanently “high” in the power-save mode.
A logical “high” signal on the NEN pin selects the power-save mode, while the transceiver is supplied by the
transmitter supply VCC (see Table 2 for details).
In power-save mode the bus input pins are not biased. Therefore the CANH and CANL input pins are floating and
the HS CAN bus interface has a high resistance.
4.2.3 Receive-only Mode
In receive-only mode the normal-mode receiver is active and the transmitter is turned off. The TLE7250 can
receive data from the HS CAN bus, but cannot send any data to the HS CAN bus.
A logical “low” signal on the NEN pin and a logical “low” signal on the NRM pin selects the receive-only mode,
while the transceiver is supplied by VCC (see Table 2 for details).
power-save mode
NEN = 0
VCC > VCC(UV,R)
NEN = 1 NRM = “X”
normal-operating mode
NEN = 0 NRM = 1
receive-only
mode
NEN = 0 NRM = 0
VCC > VCC(UV,R) VCC > VCC(UV,R)
NRM = 0
NEN = 0
NRM = 1
NEN = 0
NRM = 1
NEN = 1
NRM = “X”
NEN = 0
NRM = 0
NEN = 1
NRM = “X”
TLE7250LE
TLE7250SJ
Functional Description
Data Sheet 11 Rev. 1.0, 2015-08-12
4.3 Power-up and Undervoltage Condition
By detecting an undervoltage event or by switching off the transmitter power supply VCC, the transceiver TLE7250
changes the mode of operation (details see Figure 5).
Figure 5 Power-up and undervoltage
Table 2 Modes of operation
Mode NEN NRM VCC Bus-bias Transmitter Normal-mode
Receiver
Low-power
Receiver
Normal-operating “low” “high” “on” VCC/2 “on” “on” not available
Power-save “high” “X” “on” floating “off” “off” not available
Receive-only “low” “low” “on” VCC/2 “off” “on” not available
Power-down state “X” “X” “off” floating “off” “off” not available
NEN NRM VCC
power-down
state
“X”“X” “off”
normal-operating
mode
NEN NRM VCC
0 1 “on”
receive-only
mode
NEN NRM VCC
0 0 “on”
power-save
mode
NEN NRM VCC
1 “X” “on”
VCC “on”
NEN “1”
NRM “X”
VCC “on”
NEN “0”
NRM “1”
VCC “on”
NEN “0”
NRM “0”
VCC “on”
NEN “0”
NRM “X”
VCC “on”
NEN “0”
NRM “1”
VCC “on”
NEN “1”
NRM “X”
VCC “on”
NEN “0”
NRM “0”
VCC “on”
NEN “0”
NRM “0”
VCC “on”
NEN “0”
NRM “1”
TLE7250LE
TLE7250SJ
Functional Description
Data Sheet 12 Rev. 1.0, 2015-08-12
4.3.1 Power-down State
Independent of the NEN and NRM input pins the TLE7250 is in power-down state when the transmitter supply
voltage VCC is turned off (see Figure 5).
In the power-down state the input resistors of the receiver are disconnected from the bus biasing VCC/2. The CANH
and CANL bus interface of the TLE7250 is floating and acts as a high-impedance input with a very small leakage
current. The high-ohmic input does not influence the “recessive” level of the CAN network and allows an optimized
EME performance of the entire HS CAN network (see also Table 2).
4.3.2 Power-up
The HS CAN transceiver TLE7250 powers up if the transmitter supply VCC is connected to the device. By default
the device powers up in power-save mode, due to the internal pull-up resistor on the NEN pin to VCC.
In case the device needs to power-up to normal-operating mode, the NEN pin needs to be pulled active to logical
“low” while the NRM pin is logical “high” (see Figure 5).
TLE7250LE
TLE7250SJ
Functional Description
Data Sheet 13 Rev. 1.0, 2015-08-12
4.3.3 Undervoltage on the Transmitter Supply VCC
In case the transmitter supply VCC falls below the threshold VCC <VCC(UV,F), the transceiver TLE7250 can not
provide the correct bus levels to the CANH and CANL anymore. The normal-mode receiver is powered by the
transmitter supply VCC. In case of insufficient VCC supply the TLE7250 can neither transmit the CANH and CANL
signals correctly to bus nor can it receive them properly. Therefore the TLE7250 powers down and blocks both,
the transmitter and the receiver.
The transceiver TLE7250 powers up again, when the transmitter supply VCC recovers from the undervoltage
condition.
Figure 6 Undervoltage on the transmitter supply VCC
power-down state
tDelay(UV) delay time undervoltage
any mode of operation
VCC
hysteresis
VCC(UV,H)
t
power-save mode
t
NEN
“X” = don’t care “high” due the internal
pull-up resistor1)
VCC undervoltage monitor
VCC(UV,F)
VCC undervoltage monitor
VCC(UV,R)
t
NRM
“X” = don’t care “high” due the internal
pull-up resistor1)
1) assuming no external signal applied
TLE7250LE
TLE7250SJ
Fail Safe Functions
Data Sheet 14 Rev. 1.0, 2015-08-12
5 Fail Safe Functions
5.1 Short Circuit Protection
The CANH and CANL bus outputs are short circuit proof, either against GND or a positive supply voltage. A current
limiting circuit protects the transceiver against damages. If the device is heating up due to a continuous short on
the CANH or CANL, the internal overtemperature protection switches off the bus transmitter.
5.2 Unconnected Logic Pins
All logic input pins have an internal pull-up resistor to VCC. In case the VCC supply is activated and the logical pins
are open, the TLE7250 enters into the power-save mode by default. In power-save mode the transmitter of the
TLE7250 is disabled and the bus bias is floating.
5.3 TxD Time-out Function
The TxD time-out feature protects the CAN bus against permanent blocking in case the logical signal on the TxD
pin is continuously “low”. A continuous “low” signal on the TxD pin might have its root cause in a locked-up
microcontroller or in a short circuit on the printed circuit board, for example. In normal-operating mode, a logical
“low” signal on the TxD pin for the time t > tTxD enables the TxD time-out feature and the TLE7250 disables the
transmitter (see Figure 7). The receiver is still active and the data on the bus continues to be monitored by the
RxD output pin.
Figure 7 TxD time-out function
Figure 7 illustrates how the transmitter is deactivated and activated again. A permanent “low” signal on the TxD
input pin activates the TxD time-out function and deactivates the transmitter. To release the transmitter after a TxD
time-out event the TLE7250 requires a signal change on the TxD input pin from logical “low” to logical “high”.
TxD
t
t
CANH
CANL
RxD
t
TxD time-out TxD time–out released
t > tTxD
TLE7250LE
TLE7250SJ
Fail Safe Functions
Data Sheet 15 Rev. 1.0, 2015-08-12
5.4 Overtemperature Protection
The TLE7250 has an integrated overtemperature detection to protect the TLE7250 against thermal overstress of
the transmitter. The overtemperature protection is active in normal-operating mode and disabled in power-save
mode and receive-only mode. In case of an overtemperature condition, the temperature sensor will disable the
transmitter (see Figure 1) while the transceiver remains in normal-operating mode.
After the device has cooled down the transmitter is activated again (see Figure 8). A hysteresis is implemented
within the temperature sensor.
Figure 8 Overtemperature protection
5.5 Delay Time for Mode Change
The HS CAN transceiver TLE7250 changes the mode of operation within the time window tMode. Depending on the
selected mode of operation, the RxD output pin is set to logical “high” during the mode change.
In this case the RxD output does not reflect the status on the CANH and CANL input pins (see as an example
Figure 13 and Figure 14).
TLE7250LE
TLE7250SJ
General Product Characteristics
Data Sheet 16 Rev. 1.0, 2015-08-12
6 General Product Characteristics
6.1 Absolute Maximum Ratings
Note: Stresses above the ones listed here may cause permanent damage to the device. Exposure to absolute
maximum rating conditions for extended periods may affect device reliability. Integrated protection functions
are designed to prevent IC destruction under fault conditions described in the data sheet. Fault conditions
are considered as “outside” normal-operating range. Protection functions are not designed for continuos
repetitive operation.
Table 3 Absolute maximum ratings voltages, currents and temperatures1)
All voltages with respect to ground; positive current flowing into pin;
(unless otherwise specified)
1) Not subject to production test, specified by design
Parameter Symbol Values Unit Note /
Test Condition
Number
Min. Typ. Max.
Voltages
Transmitter supply voltage VCC -0.3 – 6.0 V – P_6.1.1
CANH DC voltage versus GND VCANH -40 – 40 V – P_6.1.2
CANL DC voltage versus GND VCANL -40 – 40 V – P_6.1.3
Differential voltage between
CANH and CANL
VCAN SDiff -40 – 40 V – P_6.1.4
Voltages at the input pins:
NEN, NRM, TxD
VMAX_IN -0.3 – 6.0 V – P_6.1.5
Voltages at the output pin:
RxD
VMAX_OUT -0.3 – VCC V– P_6.1.6
Currents
RxD output current IRxD -20 – 20 mA – P_6.1.7
Temperatures
Junction temperature Tj-40 – 150 °C – P_6.1.8
Storage temperature TS-55 – 150 °C – P_6.1.9
ESD Resistivity
ESD immunity at CANH, CANL
versus GND
VESD_HBM_
CAN
-9 – 9 kV HBM
(100 pF via 1.5 kΩ)2)
2) ESD susceptibility, Human Body Model “HBM” according to ANSI/ESDA/JEDEC JS-001
P_6.1.10
ESD immunity at all other pins VESD_HBM_
ALL
-2 – 2 kV HBM
(100 pF via 1.5 kΩ)2)
P_6.1.11
ESD immunity to GND VESD_CDM -750 – 750 V CDM3)
3) ESD susceptibility, Charge Device Model “CDM” according to EIA/JESD22-C101 or ESDA STM5.3.1
P_6.1.12
TLE7250LE
TLE7250SJ
General Product Characteristics
Data Sheet 17 Rev. 1.0, 2015-08-12
6.2 Functional Range
Note: Within the functional range the IC operates as described in the circuit description. The electrical
characteristics are specified within the conditions given in the related electrical characteristics table.
6.3 Thermal Resistance
Note: This thermal data was generated in accordance with JEDEC JESD51 standards. For more information,
please visit www.jedec.org.
Table 4 Functional range
Parameter Symbol Values Unit Note /
Test Condition
Number
Min. Typ. Max.
Supply Voltages
Transmitter supply voltage VCC 4.5 – 5.5 V – P_6.2.1
Thermal Parameters
Junction temperature Tj-40 – 150 °C 1)
1) Not subject to production test, specified by design.
P_6.2.2
Table 5 Thermal resistance1)
1) Not subject to production test, specified by design
Parameter Symbol Values Unit Note /
Test Condition
Number
Min. Typ. Max.
Thermal Resistances
Junction to Ambient PG-TSON-8 RthJA –55–K/W
2) TLE7250LE
2) Specified RthJA value is according to Jedec JESD51-2,-7 at natural convection on FR4 2s2p board. The product (TLE7250)
was simulated on a 76.2 x 114.3 x 1.5 mm board with 2 inner copper layers (2 x 70µm Cu, 2 x 35µm Cu).
P_6.3.1
Junction to Ambient PG-DSO-8 RthJA –130–K/W
2) TLE7250SJ P_6.3.4
Thermal Shutdown (junction temperature)
Thermal shutdown temperature TJSD 150 175 200 °C – P_6.3.2
Thermal shutdown hysteresis ∆T–10–K– P_6.3.3
TLE7250LE
TLE7250SJ
Electrical Characteristics
Data Sheet 18 Rev. 1.0, 2015-08-12
7 Electrical Characteristics
7.1 Functional Device Characteristics
Table 6 Electrical characteristics
4.5 V < VCC <5.5V; RL=60Ω; -40 °C < Tj< 150 °C; all voltages with respect to ground; positive current flowing
into pin; unless otherwise specified.
Parameter Symbol Values Unit Note / Test Condition Number
Min. Typ. Max.
Current Consumption
Current consumption at VCC
normal-operating mode
ICC – 2.6 5 mA “recessive” state,
VTxD =VNRM =VCC,
VNEN =0V;
P_7.1.1
Current consumption at VCC
normal-operating mode
ICC – 38 60 mA “dominant” state,
VTxD = VNEN =0V,
VNRM =VCC;
P_7.1.2
Current consumption at VCC
receive-only mode
ICC(ROM) –23mAVNEN =VNRM =0V; P_7.1.3
Current consumption at VCC
power-save mode
ICC(PSM) –512µAVTxD =VNEN =VNRM =VCC; P_7.1.4
Supply Resets
VCC undervoltage monitor
rising edge
VCC(UV,R) 3.8 4.0 4.3 V – P_7.1.5
VCC undervoltage monitor
falling edge
VCC(UV,F) 3.65 3.85 4.3 V – P_7.1.52
VCC undervoltage monitor
hysteresis
VCC(UV,H) –150–mV
1) P_7.1.6
VCC undervoltage delay time tDelay(UV) ––100µs
1) (see Figure 6); P_7.1.7
Receiver Output RxD
“High” level output current IRD,H –-4-2mAVRxD =VCC -0.4V,
VDiff <0.5V;
P_7.1.8
“Low” level output current IRD,L 24–mAVRxD =0.4V, VDiff >0.9V; P_7.1.9
TLE7250LE
TLE7250SJ
Electrical Characteristics
Data Sheet 19 Rev. 1.0, 2015-08-12
Transmission Input TxD
“High” level input voltage
threshold
VTxD,H –0.5
× VCC
0.7
× VCC
V “recessive” state; P_7.1.10
“Low” level input voltage
threshold
VTxD,L 0.3
× VCC
0.4
× VCC
– V “dominant” state; P_7.1.11
Pull-up resistance RTxD 10 25 50 kΩ–P_7.1.12
Input hysteresis VHYS(TxD) –450–mV
1) P_7.1.13
Input capacitance CTxD ––10pF
1) P_7.1.14
TxD permanent “dominant”
time-out
tTxD 4.5 – 16 ms normal-operating mode; P_7.1.15
Not Enable Input NEN
“High” level input voltage
threshold
VNEN,H –0.5 ×
VCC
0.7 ×
VCC
V power-save mode; P_7.1.16
“Low” level input voltage
threshold
VNEN,L 0.3 ×
VCC
0.4 ×
VCC
– V normal-operating mode,
receive-only mode;
P_7.1.17
Pull-up resistance RNEN 10 25 50 kΩ– P_7.1.18
Input capacitance CNEN ––10pF
1) P_7.1.19
Input hysteresis
V
HYS(NEN)
–200–mV
1) P_7.1.20
Not Receive-only Input NRM
“High” level input voltage
threshold
VNRM,H –0.5 ×
VCC
0.7 ×
VCC
V normal-operating mode,
power-save mode;
P_7.1.21
“Low” level input voltage
threshold
VNRM,L 0.3 ×
VCC
0.4 ×
VCC
– V receive-only mode, power-
save mode;
P_7.1.22
Pull-up resistance RNRM 10 25 50 kΩ–P_7.1.23
Input capacitance CNRM ––10pF
1) P_7.1.24
Input hysteresis
V
NRM(HYS)
–200–mV
1) P_7.1.25
Bus Receiver
Differential receiver
threshold “dominant”
normal-operating mode and
receive-only mode
VDiff_D – 0.75 0.9 V 2) P_7.1.26
Differential receiver
threshold “recessive”
normal-operating mode and
receive-only mode
VDiff_R 0.5 0.66 – V 2) P_7.1.27
Common mode range CMR -12 – 12 V VCC =5V; P_7.1.28
Differential receiver
hysteresis normal-operating
mode
VDiff,hys –90–mV
1) P_7.1.29
CANH, CANL input
resistance
Ri10 20 30 kΩ“recessive” state; P_7.1.30
Table 6 Electrical characteristics (cont’d)
4.5 V < VCC <5.5V; RL=60Ω; -40 °C < Tj< 150 °C; all voltages with respect to ground; positive current flowing
into pin; unless otherwise specified.
Parameter Symbol Values Unit Note / Test Condition Number
Min. Typ. Max.
TLE7250LE
TLE7250SJ
Electrical Characteristics
Data Sheet 20 Rev. 1.0, 2015-08-12
Differential input resistance RDiff 20 40 60 kΩ“recessive” state; P_7.1.31
Input resistance deviation
between CANH and CANL
∆Ri- 1 – 1 % 1) “recessive” state; P_7.1.32
Input capacitance CANH,
CANL versus GND
CIn –2040pF
1) VTxD =VCC; P_7.1.33
Differential input capacitance CInDiff –1020pF
1) VTxD =VCC; P_7.1.34
Bus Transmitter
CANL/CANH “recessive”
output voltage
normal-operating mode
VCANL/H 2.0 2.5 3.0 V VTxD =VCC,
no load;
P_7.1.35
CANH, CANL “recessive”
output voltage difference
normal-operating mode
VDiff_NM -500 – 50 mV VTxD =VCC,
no load;
P_7.1.36
CANL “dominant”
output voltage
normal-operating mode
VCANL 0.5 – 2.25 V VTxD =0V; P_7.1.37
CANH “dominant”
output voltage
normal-operating mode
VCANH 2.75 – 4.5 V VTxD =0V; P_7.1.38
CANH, CANL “dominant”
output voltage difference
normal-operating mode
according to ISO 11898-2
VDiff =VCANH -VCANL
VDiff 1.5 – 3.0 V VTxD =0V,
50 Ω<RL<65Ω,
4.75 < VCC <5.25V;
P_7.1.39
CANH, CANL “dominant”
output voltage difference
normal-operating mode
VDiff =VCANH -VCANL
VDiff_R45 1.4 – 3.0 V VTxD =0V,
45 Ω<RL<50Ω,
4.75 < VCC <5.25V;
P_7.1.53
Driver “dominant” symmetry
normal-operating mode
VSYM =V
CANH +VCANL
VSYM 4.5 5 5.5 V VCC =5.0V, VTxD =0V; P_7.1.40
CANL short circuit current ICANLsc 40 75 100 mA VCANLshort =18V,
VCC =5.0V, t<tTxD,
VTxD =0V;
P_7.1.41
CANH short circuit current ICANHsc -100 -75 -40 mA VCANHshort =0V,
VCC =5.0V, t<tTxD,
VTxD =0V;
P_7.1.42
Leakage current, CANH ICANH,lk -5 – 5 µA VCC =0V,
0V<VCANH <5V,
VCANH=VCANL;
P_7.1.43
Table 6 Electrical characteristics (cont’d)
4.5 V < VCC <5.5V; RL=60Ω; -40 °C < Tj< 150 °C; all voltages with respect to ground; positive current flowing
into pin; unless otherwise specified.
Parameter Symbol Values Unit Note / Test Condition Number
Min. Typ. Max.
TLE7250LE
TLE7250SJ
Electrical Characteristics
Data Sheet 21 Rev. 1.0, 2015-08-12
Leakage current, CANL ICANL,lk -5 – 5 µA VCC =0V,
0V<VCANL <5V,
VCANH=VCANL;
P_7.1.44
Dynamic CAN-Transceiver Characteristics
Propagation delay
TxD-to-RxD “low”
(“recessive to “dominant”)
tLoop(H,L) –180255nsCL= 100 pF,
4.75 V < VCC <5.25V,
CRxD =15pF;
P_7.1.45
Propagation delay
TxD-to-RxD “high”
(“dominant” to “recessive”)
tLoop(L,H) –180255nsCL= 100 pF,
4.75 V < VCC <5.25V,
CRxD =15pF;
P_7.1.46
Propagation delay
extended load
TxD-to-RxD “low”
(“recessive to “dominant”)
tLoop_Ext(H,L) – – 300 ns 1) CL=200pF, RL=120Ω,
4.75 V < VCC <5.25V,
CRxD =15pF;
P_7.1.54
Propagation delay
extended load
TxD-to-RxD “high”
(“dominant” to “recessive”)
tLoop_Ext(L,H) – – 300 ns 1) CL=200pF, RL=120Ω,
4.75 V < VCC <5.25V,
CRxD =15pF;
P_7.1.55
Propagation delay
TxD “low” to bus “dominant”
td(L),T – 90 140 ns CL= 100 pF,
4.75 V < VCC <5.25V,
CRxD =15pF;
P_7.1.47
Propagation delay
TxD “high” to bus “recessive”
td(H),T – 90 140 ns CL= 100 pF,
4.75 V < VCC <5.25V,
CRxD =15pF;
P_7.1.48
Propagation delay
bus “dominant” to RxD “low”
td(L),R – 90 140 ns CL= 100 pF,
4.75 V < VCC <5.25V,
CRxD =15pF;
P_7.1.49
Propagation delay
bus “recessive” to RxD “high”
td(H),R – 90 140 ns CL= 100 pF,
4.75 V < VCC <5.25V,
CRxD =15pF;
P_7.1.50
Delay Times
Delay time for mode change tMode ––20µs
1) (see Figure 13 and
Figure 14);
P_7.1.51
Table 6 Electrical characteristics (cont’d)
4.5 V < VCC <5.5V; RL=60Ω; -40 °C < Tj< 150 °C; all voltages with respect to ground; positive current flowing
into pin; unless otherwise specified.
Parameter Symbol Values Unit Note / Test Condition Number
Min. Typ. Max.
TLE7250LE
TLE7250SJ
Electrical Characteristics
Data Sheet 22 Rev. 1.0, 2015-08-12
CAN FD Characteristics
Received recessive bit width
at 2 MBit/s
tBit(RxD)_2MB 400 500 550 ns CL= 100 pF,
4.75 V < VCC <5.25V,
CRxD =15pF, tBit = 500 ns,
(see Figure 11);
P_7.1.59
Transmitted recessive bit
width
at 2 MBit/s
tBit(Bus)_2MB 435 500 530 ns CL= 100 pF,
4.75 V < VCC <5.25V,
CRxD =15pF, tBit = 500 ns,
(see Figure 11);
P_7.1.56
Receiver timing symmetry
at 2 MBit/s
∆tRec =tBit(RxD) -tBit(Bus)
ΔtRec_2MB -65 – 40 ns CL= 100 pF,
4.75 V < VCC <5.25V,
CRxD =15pF, tBit = 500 ns,
(see Figure 11);
P_7.1.57
1) Not subject to production test, specified by design.
2) In respect to the common mode range.
Table 6 Electrical characteristics (cont’d)
4.5 V < VCC <5.5V; RL=60Ω; -40 °C < Tj< 150 °C; all voltages with respect to ground; positive current flowing
into pin; unless otherwise specified.
Parameter Symbol Values Unit Note / Test Condition Number
Min. Typ. Max.
TLE7250LE
TLE7250SJ
Electrical Characteristics
Data Sheet 23 Rev. 1.0, 2015-08-12
7.2 Diagrams
Figure 9 Test circuits for dynamic characteristics
Figure 10 Timing diagrams for dynamic characteristics
3
GND
2
4
5
1
8
100 nF
6CANL
7CANH
RL
VCC
NRM
TxD
NEN
RxD
CL
CRxD
V
Diff
TxD
t
t
RxD
0.9 V
t
Loop(H,L)
t
d(L),T
t
d(L),R
0.5 V
t
Loop(L,H)
t
d(H),T
t
d(H),R
0.3 x V
CC
0.3 x V
CC
0.7 x V
CC
0.7 x V
CC
t
TLE7250LE
TLE7250SJ
Electrical Characteristics
Data Sheet 24 Rev. 1.0, 2015-08-12
Figure 11 “Recessive” bit width - five “dominant” bits followed by one “recessive” bit
V
Diff
TxD
t
t
RxD
0.9 V
5 x t
Bit
0.5 V
t
Loop(H,L)
t
t
Bit
t
Bit(Bus)
t
Loop(L,H)
t
Bit(RxD)
0.3 x V
CC
0.7 x V
CC
0.7 x V
CC
0.3 x V
CC
0.3 x V
CC
V
Diff
= V
CANH
- V
CANL
TLE7250LE
TLE7250SJ
Application Information
Data Sheet 25 Rev. 1.0, 2015-08-12
8 Application Information
8.1 ESD Robustness according to IEC61000-4-2
Test for ESD robustness according to IEC61000-4-2 “Gun test” (150 pF, 330 Ω) have been performed. The results
and test conditions are available in a separate test report.
Table 7 ESD robustness according to IEC61000-4-2
Performed Test Result Unit Remarks
Electrostatic discharge voltage at pin CANH and
CANL versus GND
≥ +8 kV 1)Positive pulse
1) ESD susceptibility “ESD GUN” according to GIFT / ICT paper: “EMC Evaluation of CAN Transceivers, version 03/02/IEC
TS62228”, section 4.3. (DIN EN61000-4-2)
Tested by external test facility (IBEE Zwickau, EMC test report no. TBD).
Electrostatic discharge voltage at pin CANH and
CANL versus GND
≤ -8 kV 1)Negative pulse
TLE7250LE
TLE7250SJ
Application Information
Data Sheet 26 Rev. 1.0, 2015-08-12
8.2 Application Example
Figure 12 Application circuit
example ECU design
CANH CANL
VBAT
TLE7250LE
VCC
CANH
CANL
GND
NEN
TxD
RxD
7
6
1
4
8
2
3
Microcontroller
e.g. XC22xx
VCC
GND
Out
Out
In
TLE4476D
GND
IQ1
100 nF
22 uF
EN Q2
22 uF
100 nF
TLE7250LE
VCC
CANH
CANL
GND
NEN
TxD
RxD
7
6
1
4
8
2
3
Microcontroller
e.g. XC22xx
VCC
GND
Out
Out
In
TLE4476D
GND
IQ1
100 nF
22 uF
EN Q2
22 uF
100 nF
optional:
common mode choke
optional:
common mode choke
NRM
NRM Out
Out
5
5
CANH CANL
120
Ohm
120
Ohm
TLE7250LE
TLE7250SJ
Application Information
Data Sheet 27 Rev. 1.0, 2015-08-12
8.3 Examples for Mode Changes
Changing the status on the NRM or NEN input pin triggers a change of the operating mode, disregarding the actual
signal on the CANH, CANL and TxD pins (see also Chapter 4.2).
Mode changes are triggered by the NRM pin and NEN pin, when the device TLE7250 is fully supplied. Setting the
NEN pin to logical “low” and the NRM pin to logical “high” changes the mode of operation to normal-operating
mode:
• The mode change is executed independently of the signal on the HS CAN bus. The CANH, CANL inputs may
be either “dominant” or “recessive”. They can be also permanently shorted to GND or VCC.
• A mode change is performed independently of the signal on the TxD input. The TxD input may be either logical
“high” or “low”.
Analog to that, changing the NEN input pin to logical “high” changes the mode of operation to the power-save
mode. Changing the NEN input pin and the NRM input pin to logical “low” changes the mode of operation to the
receive-only mode. Both mode changes are independent on the signals at the CANH, CANL and TxD pins.
Note: In case the TxD signal is “low” setting the NRM input pin to logical “high” and the NEN input pin to logical
“low” changes the device to normal-operating mode and drives a “dominant” signal to the HS CAN bus”.
Note: The TxD time-out is only effective in normal-operating mode. The TxD time-out timer starts when the
TLE7250 enters normal-operating mode and the TxD input is set to logical “low”.
TLE7250LE
TLE7250SJ
Application Information
Data Sheet 28 Rev. 1.0, 2015-08-12
8.3.1 Mode Change while the TxD Signal is “low”
The example in Figure 13 shows a mode change to normal-operating mode while the TxD input is logical “low”.
The HS CAN signal is “recessive”, assuming all other HS CAN bus subscribers are also sending a “recessive” bus
signal.
While the transceiver TLE7250 is in power-save mode, the transmitter and the normal-mode receiver are turned
off. The TLE7250 drives no signal to the HS CAN bus nor does it receive any signal from the HS CAN bus.
Changing the NEN to logical “low” turns the mode of operation to normal-operating mode, while the TxD input
signal remains logical “low”. The transmitter and the normal-mode receiver remain disabled until the mode
transition is completed. In normal-operating mode the transceiver and the normal-mode receiver are active. The
“low” signal on the TxD input drives a “dominant” signal to the HS CAN bus and the RxD output pin becomes
logical “low”, following the “dominant” signal on the HS CAN bus.
Changing the mode of operation from normal-operating mode to receive-only mode by setting the NRM input pin
to “low”, disables the transmitter and the TxD input, but the normal-mode receiver and the RxD output remain
active. The HS CAN bus becomes “recessive” since the transmitter is disabled. The RxD input indicates the
“recessive” HS CAN bus signal by a logical “high” output signal (see also the example in Figure 13).
Mode changes between the power-save mode on the one side and the normal-operating mode or the receive-only
mode on the other side, disable the transmitter and the normal-mode receiver. No signal can be driven to the
HS CAN bus nor can it be received from the HS CAN bus. Mode changes between the normal-operating mode
and the receive-only mode disable the transmitter and the normal mode receiver remains active. The HS CAN
transceiver TLE7250 monitors the HS CAN bus also during the mode transition from normal-operating mode to
receive-only mode and vice versa.
8.3.2 Mode Change while the Bus Signal is “dominant”
The example in Figure 14 shows a mode change while the bus is “dominant” and the TxD input signal is set to
logical “high”.
While the transceiver TLE7250 is in power-save mode, the transmitter and the normal-mode receiver are turned
off. The TLE7250 drives no signal to the HS CAN bus nor does it receive any signal from the HS CAN bus.
Changing the NEN to logical “low” turns the mode of operation to normal-operating mode, while the TxD input
signal remains logical “high”. The transmitter and the normal-mode receiver remain disabled until the mode
transition is completed. In normal-operating mode the transceiver and the receiver are active and therefor the RxD
output changes to logical “low” indicating the “dominant” signal on the HS CAN bus.
Changing the mode of operation from normal-operating mode to receive-only mode by setting the NRM input pin
to “low”, disables the transmitter and the TxD input, but the normal-mode receiver and the RxD output remain
active. Since the “dominant” signal on the HS CAN bus is driven by another HS CAN bus subscriber, the bus
remains “dominant” and the RxD input indicates the “dominant” HS CAN bus signal by a logical “low” output signal
(see also the example in Figure 14).
TLE7250LE
TLE7250SJ
Application Information
Data Sheet 29 Rev. 1.0, 2015-08-12
Figure 13 Example for a mode change while the TxD is “low”
RxD
t
VDIFF
TxD
NRM
t = t
Mode
t
power-save transition transition receive-onlynormal-operating
RxD output
blocked
normal-mode receiver and RxD output active
TxD input and transmitter
active
TxD input and transmitter
blocked TxD input and transmitter blocked
Note: The signals on the HS CAN bus are “recessive”, the “dominant” signal is
generated by the TxD input signal
t
NEN
t = t
Mode
normal-mode
receiver blocked
t = t
Mode
transition normal-operating
TxD input and transmitter
active
transition power-save
RxD output
blocked
normal-mode
receiver blocked
TxD input and transmitter
blocked
t
t
t = t
Mode
TLE7250LE
TLE7250SJ
Application Information
Data Sheet 30 Rev. 1.0, 2015-08-12
Figure 14 Example for a mode change while the HS CAN is “dominant”
RxD
t
VDIFF
TxD
NRM
t = tMode
t
power-save transition transition receive-onlynormal-operating
RxD output
blocked
normal-mode receiver and RxD output active
TxD input and transmitter
active
TxD input and transmitter
blocked TxD input and transmitter blocked
Note: The “dominant” signal on the HS CAN bus is set by another HS CAN bus subscriber.
t
NEN
t = tMode
normal-mode
receiver blocked
t = tMode
transition normal-operating
TxD input and transmitter
active
transition power-save
RxD output
blocked
normal-mode
receiver blocked
TxD input and transmitter
blocked
t
t
t = tMode
TLE7250LE
TLE7250SJ
Application Information
Data Sheet 31 Rev. 1.0, 2015-08-12
8.4 Further Application Information
• Please contact us for information regarding the pin FMEA.
• Existing application note.
• For further information you may visit: http://www.infineon.com/
TLE7250LE
TLE7250SJ
Package Outline
Data Sheet 32 Rev. 1.0, 2015-08-12
9 Package Outline
Figure 15 PG-TSON-8 (Plastic Thin Small Outline Nonleaded PG-TSON-8-1)
Figure 16 PG-DSO-8 (Plastic Dual Small Outline PG-DSO-8-44)
Green Product (RoHS compliant)
To meet the world-wide customer requirements for environmentally friendly products and to be compliant with
government regulations the device is available as a green product. Green products are RoHS compliant (i.e
Pb-free finish on leads and suitable for Pb-free soldering according to IPC/JEDEC J-STD-020).
±0.1
0.4
Pin 1 Marking Pin 1 Marking
PG-TSON-8-1-PO V01
±0.1
0.2
±0.1
0.25
0.81
±0.1
2.4
±0.1
0.1
±0.1
0.3
±0.1
0.38
±0.1
0.3
±0.1
0.65
±0.1
3
±0.1
3
±0.1
0
+0.05
1
±0.1
0.56
±0.1
1.63
±0.1
1.58
±0.1
0.05
0.07 MIN.
Z (4:1)
Z
+0.06
0.19
0.35 x 45˚
1)
-0.2
4
C
8 MAX.
0.64
±0.2
6
±0.25
0.2 8x
M
C
1.27
+0.1
0.41 0.2
M
A
-0.06
1.75 MAX.
(1.45)
±0.07
0.175
B
8x
B
2)
Index Marking
5
-0.21)
41
85
A
1) Does not include plastic or metal protrusion of 0.15 max. per side
2) Lead width can be 0.61 max. in dambar area
GPS01181
0.1
For further information on alternative packages, please visit our website:
http://www.infineon.com/packages.Dimensions in mm
TLE7250LE
TLE7250SJ
Revision History
Data Sheet 33 Rev. 1.0, 2015-08-12
10 Revision History
Revision Date Changes
1.00 2015-08-12 Data Sheet created.
Edition 2015-08-12
Published by
Infineon Technologies AG
81726 Munich, Germany
© 2006 Infineon Technologies AG
All Rights Reserved.
Legal Disclaimer
The information given in this document shall in no event be regarded as a guarantee of conditions or
characteristics. With respect to any examples or hints given herein, any typical values stated herein and/or any
information regarding the application of the device, Infineon Technologies hereby disclaims any and all warranties
and liabilities of any kind, including without limitation, warranties of non-infringement of intellectual property rights
of any third party.
Information
For further information on technology, delivery terms and conditions and prices, please contact the nearest
Infineon Technologies Office (www.infineon.com).
Warnings
Due to technical requirements, components may contain dangerous substances. For information on the types in
question, please contact the nearest Infineon Technologies Office.
Infineon Technologies components may be used in life-support devices or systems only with the express written
approval of Infineon Technologies, if a failure of such components can reasonably be expected to cause the failure
of that life-support device or system or to affect the safety or effectiveness of that device or system. Life support
devices or systems are intended to be implanted in the human body or to support and/or maintain and sustain
and/or protect human life. If they fail, it is reasonable to assume that the health of the user or other persons may
be endangered.