MSI Prestige PS42 8RB-024AU RAM upgrade specifications

MSI PS42 8RB-024AU MSI PS42 8RB-024AU MSI PS42 8RB-024AU MSI PS42 8RB-024AU MSI PS42 8RB-024AU

MSI Prestige PS42 8RB-024AU laptop memory upgrade specifications detail DDR4-SDRAM compatibility with single SO-DIMM slot configuration. Maximum RAM capacity reaches 16 GB through compatible DDR4 modules operating at 2400 MHz frequency. Upgrade specifications indicate memory expansion capability via the available SO-DIMM slot, allowing users to replace or expand existing DDR4-SDRAM modules to achieve maximum supported capacity of 16 GB total. Compatible memory modules must meet DDR4-SDRAM specifications at 2400 MHz operating frequency for proper functionality.

Memory Upgrade Specifications

SpecificationValue
Memory slots1x SO-DIMM
Form factorSO-DIMM
Memory typeDDR4-SDRAM
Frequency2400 MHz
Maximum RAM16 GB
Voltage1.2V
Number of pins260-pin
InterfacePC4
PC Speed RatingPC4-2400 (PC4-19200)
Bandwidth19.2 GB/s
Laptop Release date17 September 2018

Additional Notes

  • Single memory slot configuration eliminates dual-channel architecture, resulting in reduced memory bandwidth availability compared to dual-slot designs with identical capacity.
  • SO-DIMM form factor requires laptop-specific memory modules; standard desktop DDR4 DIMMs are physically incompatible and cannot be installed.
  • 2400 MHz frequency specification may necessitate BIOS compatibility verification if sourcing higher-frequency modules, as mismatched speeds typically downclock to the lowest supported value.
  • 16 GB maximum capacity ceiling establishes a definitive upgrade boundary; no migration path exists to higher densities without motherboard replacement.
  • Single-slot design creates higher thermal density per module due to concentrated power dissipation in one location rather than distributed across multiple slots.
  • Memory upgrade performed outside factory configuration may trigger warranty considerations depending on manufacturer service policies for user-installed components.
  • Bandwidth constraints from single-channel operation become more pronounced under sustained workloads requiring high memory throughput, potentially limiting performance in memory-intensive applications.