T1042NXE7MQB

Microprocessors Overview

The NXP T1042NXE7MQB is a QorIQ T1 series microprocessor featuring four PowerPC e5500 cores operating at 1.2 GHz. It utilizes a 64-bit architecture with an integrated DDR3L/4 memory controller and lacks cryptographic acceleration or an internal Ethernet switch. The device supports an industrial temperature range of -40°C to 105°C and is housed in a surface-mount package.

Microprocessors Feature Summary

• Four-core PowerPC e5500 processor architecture for high-performance embedded computing
• Integrated DDR3L and DDR4 memory controller supporting system scalability
• Industrial-grade thermal rating suitable for demanding operational environments

Microprocessors Applications

• Fixed routers and network switching equipment
• Embedded access points and firewall systems
• General-purpose embedded computing platforms

Microprocessors Procurement Notes

Verify the specific suffix against official documentation, as variations may indicate differences in packaging, temperature grade, or feature sets such as security modules. Confirm that the selected variant aligns with project requirements regarding cryptographic capabilities and interface configurations before finalizing procurement.

Microprocessors Selection Notes

Select this component when a multi-core PowerPC solution is required for network infrastructure or industrial control applications. Ensure compatibility with existing software ecosystems designed for the QorIQ T-series architecture and verify that the absence of on-chip crypto accelerators meets the system's security design strategy.

Microprocessors Part Context

This part belongs to the NXP QorIQ T1 family, which provides scalable processing power for communication and industrial markets. The T1 series offers pin compatibility across different core counts, allowing designers to migrate between single, dual, quad, and octal-core variants while maintaining hardware consistency.

Microprocessors Replacement Considerations

Consult official substitution guides for pin-compatible alternatives within the T1 or T2 families. Verify that any replacement maintains the required core count, clock speed, and peripheral interface availability.