Crucial 16GB DDR5 4800 MHz SO-DIMM Memory Module

Overview

The Crucial CT16G48C40S5 is a 16GB DDR5 SO-DIMM memory module designed for laptops and small form factor devices. Operating at 4800 MHz with a CAS latency of 40, it delivers a balanced combination of speed and stability for everyday computing, multitasking, and light content creation. Its low 1.1 V operating voltage helps reduce power consumption, making it an efficient upgrade for compatible systems.

This module features on-die error-correcting code (ECC) to detect and correct common memory errors, enhancing data integrity. An integrated power management IC stabilizes voltage regulation, easing the load on your motherboard and contributing to overall system reliability. It follows JEDEC standards, ensuring broad compatibility without requiring special cooling or BIOS adjustments.

Key features

• 16 GB DDR5 memory running at 4800 MT/s for smooth and responsive performance
• 262-pin SO-DIMM form factor tailored for laptops and compact devices
• Low 1.1 V operating voltage to minimize power consumption and heat generation
• On-die ECC technology that improves data integrity by correcting common memory errors
• Integrated power management IC that stabilizes voltage and reduces motherboard stress
• Unbuffered and non-ECC design suitable for consumer laptops rather than servers
• JEDEC-compliant for reliable compatibility across a wide range of systems

Key specs

• Memory capacity: 16 GB
• Memory type: DDR5
• Speed: 4800 MHz (4800 MT/s)
• CAS latency: 40
• Form factor: 262-pin SO-DIMM
• Operating voltage: 1.1 V
• Error correction: On-die ECC
• Buffered: No
• ECC: Non-ECC

Compatibility and usage

This memory module fits well in laptops and small form factor PCs that support DDR5 SO-DIMM modules. It is a practical choice for users looking to increase system memory for improved multitasking and responsiveness without needing advanced cooling solutions or BIOS tweaks. Its low power consumption and error correction features make it suitable for everyday computing environments where stability and efficiency matter.