A7001CGHN1/T1AGAEL

Overview

The A7001CGHN1/T1AGAEL is a secure authentication microcontroller from NXP Semiconductors, designed for trust and device identity applications. It features an integrated EEPROM memory type and supports I2C interface communication with a data rate of 100 kb/s. The device operates within a supply voltage range of 1.62V to 5.5V and functions at a maximum clock frequency of 62 MHz. It includes 3.2K x 8 RAM size and is housed in a 32-VFQFN Exposed Pad package. The operating temperature range extends from -25°C to 85°C, suitable for surface mount mounting types.

Feature Summary

• Provides secure authentication capabilities for device identity and trust management
• Integrates non-volatile EEPROM memory for secure data storage
• Supports standard I2C communication interface for system connectivity

Applications

• Secure device authentication systems
• Identity management modules
• Trust anchor implementations

Procurement Notes

Verify the complete part number including suffix T1AGAEL against official NXP documentation to ensure correct package and tape/reel specifications. Confirm that the specific variant matches your design requirements for voltage, temperature, and interface compatibility before procurement.

Selection Notes

Select this component when dedicated secure authentication hardware is required for IoT or embedded devices. Consider the 1.62V minimum supply voltage for low-power designs and verify that the 32-pin QFN footprint fits the PCB layout constraints compared to alternative packages in the A700x series.

Part Context

This part belongs to the NXP A700x family of secure authentication microcontrollers. These devices are engineered specifically for handling cryptographic operations and secure key storage in constrained environments, differentiating them from general-purpose microcontrollers by their focus on security primitives and trusted execution.

Replacement Considerations

The A7005CGHN1/T1AGAEL is listed as a related part within the same product family. Verify functional equivalence and pinout compatibility before substitution, as differences in memory size or specific security features may exist between variants.