




The P82B96 IC is crafted to offer a non-latching, bidirectional interface between the standard I2C bus and other bus configurations. This IC bridges I2C-bus logic to different buses with varying voltage and current characteristics, including the 350 µA SMBus, and 3.3V logic devices, and it even extends to 15V levels or low-impedance lines. It seamlessly manages these interfaces while maintaining the original I2C-bus protocols and clock speeds. The IC significantly alleviates the load on the I2C-bus node by isolating it from new or remote I2C-bus nodes. This isolation reduces worries about the number of devices or their physical placement in an I2C system, thus effectively removing such limitations. The P82B96 also supports transmitting SDA and SCL signals via balanced lines, such as twisted pairs or with opto-coupling, offering flexible and reliable interconnections.
You can often esteem the P82B96 for simplifying intricate I2C configurations. For instance, in settings where devices are spread over considerable distances or display diverse electrical characteristics, the P82B96 lends a practical and efficient degree of flexibility. The P82B96's versatility in supporting various applications extends beyond typical use cases. For example, in industrial automation, where rugged communication over long distances is a must, the IC’s adeptness at handling high-voltage lines without compromising I2C signal integrity is vital.
Moreover, in advanced consumer electronics, where integration density and low power consumption are the main ones, the P82B96’s minimal current draw and high voltage tolerance offer distinct advantages. You can create systems that are both compact and energy-efficient by capitalizing on the IC’s versatile interface capabilities. In telecommunications, the IC's ability to maintain signal fidelity across diverse interfacing conditions aids in developing resilient communication infrastructures.
|
Feature |
Description |
|
Bidirectional
data transfer |
Enables
bidirectional data transfer of I2C-bus signals |
|
Capacitance
isolation |
Isolates
capacitance, allowing up to 400 pF on Sx/Sy side and up to 4000 pF on Tx/Ty
side |
|
High
sink capability |
Tx/Ty
outputs can sink up to 60 mA, suitable for driving low-impedance or
high-capacitance buses |
|
Long-distance
operation |
Supports
400 kHz operation over distances of at least 20 meters (refer to AN10148) |
|
Wide
supply voltage range |
Operates
with a supply voltage range of 2 V to 15 V, independent of I2C-bus logic
levels on the Sx/Sy side |
|
Signal
splitting for isolation |
Splits
I2C-bus signals into forward/reverse Tx/Rx, Ty/Ry pairs for interfacing with
opto-electrical isolators |
|
Low
power consumption |
Features
low supply current |
|
ESD
protection |
ESD
protection: exceeds 3500 V HBM, 250 V DIP, 400 V SO package MM, and 1000 V
CDM |
|
Latch-up
free operation |
Latch-up
free, built using a bipolar process without latching structures |
|
Available
packages |
Offered
in DIP8, SO8, and TSSOP8 packages |
Here is the structured table for the technical specifications of the NXP USA Inc. P82B96TD,112.
|
Type |
Parameter |
|
Factory
Lead Time |
7
Weeks |
|
Mounting
Type |
Surface
Mount |
|
Package
/ Case |
8-SOIC
(0.154, 3.90mm Width) |
|
Surface
Mount |
YES |
|
Interface
Standards |
General
Purpose |
|
Operating
Temperature |
-40°C
~ 85°C |
|
Packaging |
Tube |
|
Published |
2003 |
|
JESD-609
Code |
e4 |
|
Part
Status |
Active |
|
Moisture
Sensitivity Level (MSL) |
1
(Unlimited) |
|
Number
of Terminations |
8 |
|
Type |
Buffer,
ReDriver |
|
Terminal
Finish |
Nickel/Palladium/Gold
(Ni/Pd/Au) |
|
Applications |
I2C |
|
Voltage
- Supply |
2V ~
15V |
|
Terminal
Position |
Dual |
|
Terminal
Form |
Gull
Wing |
|
Peak
Reflow Temperature (°C) |
260 |
|
Number
of Functions |
2 |
|
Supply
Voltage |
5V |
|
Time@Peak
Reflow Temperature-Max (s) |
30 |
|
Base
Part Number |
P82B96 |
|
Output |
2-Wire
Bus |
|
Pin
Count |
8 |
|
JESD-30
Code |
R-PDSO-G8 |
|
Qualification
Status |
Not
Qualified |
|
Number
of Channels |
2 |
|
Current
- Supply |
900µA |
|
Input |
2-Wire
Bus |
|
Driver
Number of Bits |
2 |
|
Receiver
Number of Bits |
2 |
|
Data
Rate (Max) |
400kHz |
|
Capacitance
- Input |
7pF |
|
Length |
4.9mm |
|
Height
Seated (Max) |
1.75mm |
|
Width |
3.9mm |
|
RoHS
Status |
RoHS3
Compliant |

|
Model Number |
Manufacturer |
Description |
|
P82B96PN,112 |
NXP
Semiconductors |
P82B96P
- Dual bidirectional bus buffer DIP 8-Pin |
|
P82B96PE4 |
Texas
Instruments |
DUAL
LINE TRANSCEIVER, PDIP8, ROHS COMPLIANT, PLASTIC, DIP-8 |
|
9.4E+11 |
NXP
Semiconductors |
IC
SPECIALTY MICROPROCESSOR CIRCUIT, PDIP8, DIP-8, Microprocessor IC: Other |
|
P82B96P
|
Texas
Instruments |
2-bit
bidirectional 2- to 15-V 400-kHz I2C/SMBus buffer/cable extender 8-PDIP -40
to 85°C |
|
Part Number |
Manufacturer |
Package / Case |
Supply Voltage |
Input |
Moisture Sensitivity Level (MSL) |
Factory Lead Time |
Length |
Output |
Pin Count |
View Compare |
|
P82B96TD,112 |
NXP
USA Inc. |
8-SOIC
(0.154, 3.90mm Width) |
5 V |
2-Wire
Bus |
1
(Unlimited) |
7
Weeks |
4.9
mm |
2-Wire
Bus |
8 |
P82B96TD,112
VS PCA9601D,118 |
|
PCA9601D,118 |
NXP
USA Inc. |
8-SOIC
(0.154, 3.90mm Width) |
3.3
V |
2-Wire
Bus |
1
(Unlimited) |
7
Weeks |
4.9
mm |
2-Wire
Bus |
8 |
PCA9601D,118
VS P82B96TD,112 |
|
PCA9600D,118
|
NXP
USA Inc. |
8-SOIC
(0.154, 3.90mm Width) |
5 V |
2-Wire
Bus |
1
(Unlimited) |
7
Weeks |
4.9
mm |
2-Wire
Bus |
8 |
PCA9600D,118
VS P82B96TD,112 |
|
PCA9600D,112 |
NXP
USA Inc. |
8-SOIC
(0.154, 3.90mm Width) |
5 V |
2-Wire
Bus |
1
(Unlimited) |
7
Weeks |
4.9
mm |
2-Wire
Bus |
8 |
PCA9600D,112
VS P82B96TD,112 |
The P82B96 excels in interfacing I2C-buses operating with a range of logic levels, from 5V to 3V or even up to 15V. This feature proves invaluable in mixed voltage environments, ensuring effective communication between components with different voltage specifications.
Bridging I2C and SMBus Standards: The device adapts I2C signals seamlessly to SMBus standards, ensuring compatibility across various communication protocols. This adaptability enhances its utility in systems integrating both I2C and SMBus devices, broadening the potential applications of the P82B96 in diverse electronic ecosystems.
A standout capability of the P82B96 is its conversion of standard I2C signals to differential bus hardware. This conversion enhances signal integrity, maintaining data fidelity over long cables or in electrically noisy conditions. Differential signaling becomes mainly valuable in practical settings where electromagnetic interference (EMI) might compromise traditional IIC communications.
Employing opto-couplers with the P82B96 for opto-isolation significantly improves communication robustness in electrically noisy environments. Isolating different network sections enhances system reliability by mitigating risks of voltage spikes and ground loops. Industrial automation often employs this technique to protect sensitive components, ensuring stable and uninterrupted operations.
Enhancing Operational Speed: The P82B96 supports operational speeds of up to 400 kHz, facilitating quick data transfer in high-speed applications. This capability is used in scenarios that depend on rapid communication, such as data acquisition systems and high-frequency trading platforms. The balance of high speed and reliability stands as a cornerstone in systems where prompt data transfer is required to performance outcomes.

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The P82B96 acts as a bridge, establishing a bidirectional, non-latching logic interface between a standard I²C-bus and various other bus types. This enables different systems to communicate seamlessly. It's principally valuable in applications requiring diverse system interoperability.
Yes, the P82B96 can accommodate high clock rates over lengthy cables. For shorter distances, lumped wiring capacitance is sufficient for timing approximations. However, when dealing with extensive lengths like 25 meters, transmission line theory becomes more applicable. The actual application reveals that to ensure optimal performance, it's dominant to consider transmission line characteristics like impedance matching and signal integrity. These steps help in minimizing data errors and latency, enhancing the overall reliability of the data transfer.
In certain scenarios where there is transient overshoot and ringing, the diodes in the P82B96 may conduct. These occurrences are often linked to sudden voltage changes. Mitigation strategies include incorporating appropriate filtering techniques, ensuring power supplies remain stable, and correctly positioning decoupling capacitors. These measures can significantly reduce unwanted conduction, thereby improving the stability and reliability of the P82B96 in various applications.
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