Difference between revisions of "I2C Address Converter Module SKU: CQRADDR001"

From CQRobot-Wiki
Jump to: navigation, search
(Created page with "thumb|200px|right|4-CH 16-Bit ADS1115 ADC Module =='''Description'''== The 4-channel 16-bit ADS1115 ADC Module is a high-precision analog-to-digital con...")
 
(Connections and Examples)
 
(14 intermediate revisions by the same user not shown)
Line 1: Line 1:
[[File:CQRADC001.jpg|thumb|200px|right|4-CH 16-Bit ADS1115 ADC Module]]
+
[[File:CQRADDR001.jpg|thumb|200px|right|I2C Address Converter Module]]
 
=='''Description'''==
 
=='''Description'''==
The 4-channel 16-bit ADS1115 ADC Module is a high-precision analog-to-digital conversion solution based on the TI ADS1115IDGSR chip. This module provides four 16-bit precision analog input channels, supports both 3.3V and 5V operation, and features a hardware-configurable I2C address. The module also integrates an NTC temperature measurement interface, enabling multi-channel signal acquisition and temperature monitoring.
+
LTC4316 I2C Address Translation Module is a practical I2C bus expansion tool designed to resolve I2C device address conflicts. This module can translate the fixed hardware address of an I2C device into a different communication address, enabling multiple devices with identical addresses to operate simultaneously on the same I2C bus.
 
----
 
----
  
 
=='''Features'''==
 
=='''Features'''==
*'''High-Precision 16-bit ADC Chip:''' Based on the TI ADS1115IDGSR chip, it provides four 16-bit resolution analog input channels, enabling high-precision signal acquisition.
+
*'''Efficient Address Conflict Solution:''' Based on the LTC4316IMS chip, it can translate the fixed hardware address of an I2C device into 127 distinct communication addresses, effectively resolving address conflicts on the I2C bus.
*'''Flexible Input Modes:''' Supports 4 single-ended inputs or 2 differential inputs, suitable for various sensor signal measurement scenarios.
+
*'''Wide Voltage Operating Range:''' Supports power supply voltages from 2.25V to 5.5V, ensuring compatibility with various logic level systems.
*'''Configurable I2C Address:''' Configurable via the ADDR pin, supporting 4 I2C addresses to facilitate multi-device networking.
+
*'''Hardware-Level Transparent Translation:''' Configures address offsets through a resistive voltage divider network and performs real-time address translation, remaining entirely transparent to both master and slave devices.
*'''Wide Sampling Rate Range:''' Supports programmable sampling rates from 8 SPS to 860 SPS, meeting the requirements of different applications.
+
*'''Flexible Address Configuration:''' Enables independent configuration of the high 3-bit and low 4-bit address offsets via the XORH/XORL pins using resistor voltage division, with support for quick switching via DIP switches.
*'''Integrated NTC Temperature Measurement Interface:''' Onboard MF52AT 10KΩ NTC temperature sensor interface with a B value of 3950K, ideal for temperature monitoring applications.
+
*'''Industrial-Grade Protection Design:''' Features separate interfaces for the master side (SCLIN/SDAIN) and slave side (SCLOUT/SDAOUT), providing clear signal flow isolation.
*'''Dual-Voltage Compatible Design:''' Supports 3.3V/5V dual-voltage operation, with a built-in LP5907 LDO providing stable 3.3V power.
+
*'''Standard Interface Compatibility:''' Equipped with dual interfaces—HY2.0mm 4P connectors and 2.54mm pin headers—for easy connection to various development boards and sensor modules.
*'''Automatic Level Conversion:''' I2C signals are automatically converted to 3.3V levels when powered by 5V, allowing direct connection to 3.3V microcontrollers.
 
*'''Standard Interface Design:''' Equipped with HY2.0mm 4P connectors and 2.54mm pin headers for easy connection to various development boards.
 
 
----
 
----
 +
 +
=='''Certification Documents'''==
 +
 +
[[Media:CQRADDR001-CE-Certification.rar]]
 +
 +
[[Media:CQRADDR001-FCC-SDOC-Certification.rar]]
  
 
=='''Pin Description and Size'''==
 
=='''Pin Description and Size'''==
 
[[image:CQRobot.jpg|thumb|1000px| center]]
 
[[image:CQRobot.jpg|thumb|1000px| center]]
[[image:CQRADC001-1.jpg|thumb|1000px| center]]
+
[[image:CQRADDR001-1.jpg|thumb|1000px| center]]
[[image:CQRADC001-2.jpg|thumb|1000px| center]]
+
[[image:CQRADDR001-2.jpg|thumb|1000px| center]]
 
----
 
----
  
 
=='''Specification'''==
 
=='''Specification'''==
 
{|
 
{|
| style="text-align: center;" | [[File:CQRADC001-3.jpg|1150px|left]]
+
| style="text-align: center;" | [[File:CQRADDR001-3.jpg|1150px|left]]
| style="text-align: center;" | [[File:CQRADC001-8.jpg|1150px|right]]
+
| style="text-align: center;" | [[File:CQRADDR001-4.jpg|1150px|right]]
 
|}
 
|}
  
 
=='''Working Principle'''==
 
=='''Working Principle'''==
[[image:CQRADC001-4.jpg|thumb|1000px| center]]
+
[[image:CQRADDR001-5-1.jpg|thumb|1000px| center]]
 
----
 
----
  
=='''Power Supply and Sensor Compatibility'''==
+
=='''Address Configuration'''==
This module supports dual-voltage operation at 3.3V/5V. When powered at 3.3V, all I/Os are at 3.3V level; when powered at 5V, the I2C signals are automatically converted to 3.3V for communication with the host, while also allowing measurement of 5V sensor signals. The module includes built-in protection circuits to prevent damage from overvoltage and provides a 3.3V LDO output to power external sensors.
+
[[image:CQRADDR001-6.jpg|thumb|1000px| center]]
 
 
Important: When measuring 5V sensors, the module must be powered at 5V. In this case, the I2C signals remain at 3.3V level and can be directly connected to 3.3V host GPIO. Note that the SDA and SCL pins on this module are limited to 3.3V.
 
 
----
 
----
  
 
=='''Connections and Examples'''==
 
=='''Connections and Examples'''==
 
{|
 
{|
| style="text-align: center;" | [[File:CQRADC001-5.jpg|1150px|left]]
+
| style="text-align: center;" | [[File:CQRADDR001-7.jpg|1100px|left]]
| style="text-align: center;" | [[File:CQRADC001-6.jpg|1100px|right]]
+
| style="text-align: center;" | [[File:CQRADDR001-8.jpg|1050px|right]]
 
|}
 
|}
'''Configuration Method:'''
 
Use a jumper cap to connect the ADDR pin to the corresponding voltage level point. After configuration, restart the power for the changes to take effect.
 
 
'''Using an I2C Address Conversion Module for Configuration:'''
 
When using an I2C address conversion module, all ADS1115 modules can be set to the same hardware address. Address differentiation is achieved by selecting channels on the conversion module, eliminating the need to modify hardware jumper configurations.
 
----
 
 
=='''Used in Conjunction with the TDS Meter Sensor (ASIN: B08KXRHK7H)'''==
 
[[image:CQRADC001-7.jpg|thumb|1000px| center]]
 
'''Example Program'''
 
 
----
 
----
  
 
=='''Sample Code'''==
 
=='''Sample Code'''==

Latest revision as of 06:59, 22 January 2026

I2C Address Converter Module

Description

LTC4316 I2C Address Translation Module is a practical I2C bus expansion tool designed to resolve I2C device address conflicts. This module can translate the fixed hardware address of an I2C device into a different communication address, enabling multiple devices with identical addresses to operate simultaneously on the same I2C bus.


Features

  • Efficient Address Conflict Solution: Based on the LTC4316IMS chip, it can translate the fixed hardware address of an I2C device into 127 distinct communication addresses, effectively resolving address conflicts on the I2C bus.
  • Wide Voltage Operating Range: Supports power supply voltages from 2.25V to 5.5V, ensuring compatibility with various logic level systems.
  • Hardware-Level Transparent Translation: Configures address offsets through a resistive voltage divider network and performs real-time address translation, remaining entirely transparent to both master and slave devices.
  • Flexible Address Configuration: Enables independent configuration of the high 3-bit and low 4-bit address offsets via the XORH/XORL pins using resistor voltage division, with support for quick switching via DIP switches.
  • Industrial-Grade Protection Design: Features separate interfaces for the master side (SCLIN/SDAIN) and slave side (SCLOUT/SDAOUT), providing clear signal flow isolation.
  • Standard Interface Compatibility: Equipped with dual interfaces—HY2.0mm 4P connectors and 2.54mm pin headers—for easy connection to various development boards and sensor modules.

Certification Documents

Media:CQRADDR001-CE-Certification.rar

Media:CQRADDR001-FCC-SDOC-Certification.rar

Pin Description and Size

CQRobot.jpg
CQRADDR001-1.jpg
CQRADDR001-2.jpg

Specification

CQRADDR001-3.jpg
CQRADDR001-4.jpg

Working Principle

CQRADDR001-5-1.jpg

Address Configuration

CQRADDR001-6.jpg

Connections and Examples

CQRADDR001-7.jpg
CQRADDR001-8.jpg

Sample Code