ASUS ROG G614JI-N3187W-GAMING RAM upgrade specifications

ASUS G614JI-N3187W-GAMING ASUS G614JI-N3187W-GAMING ASUS G614JI-N3187W-GAMING ASUS G614JI-N3187W-GAMING ASUS G614JI-N3187W-GAMING

The ASUS ROG Strix G16 G614JI-N3187W-GAMING laptop features DDR5-SDRAM memory with upgrade capabilities through 2x SO-DIMM slots. Maximum RAM capacity reaches 32 GB, supporting specifications compatible with DDR5-4800 MHz frequency. Current memory configuration and available upgrade slots enable users to expand total system memory to specifications maximum. SO-DIMM form factor ensures compatibility with designated upgrade slots on gaming model architecture.

Memory Upgrade Specifications

SpecificationValue
Memory slots2x SO-DIMM
Form factorSO-DIMM
Memory typeDDR5-SDRAM
Frequency4800 MHz
Maximum RAM32 GB
Voltage1.1V
Number of pins262-pin
InterfacePC5
PC Speed RatingPC5-4800 (PC5-38400)
Bandwidth38.4 GB/s

Additional Notes

  • The dual channel architecture requires symmetrical module pairs to achieve maximum memory bandwidth and prevent single channel bottlenecking during high load tasks.
  • Physical memory expansion is limited to the replacement of existing modules because the system lacks additional vacant slots beyond the 2 used for the initial configuration.
  • High density modules must conform to the 4800 MHz frequency ceiling to maintain system stability and prevent BIOS posting failures associated with unsupported XMP profiles.
  • Internal access for memory replacement on the ASUS ROG G614JI-N3187W-GAMING involves managing delicate ribbon cables for case lighting that are often situated near the SO-DIMM housing.
  • The 32 GB threshold indicates a firmware or chipset level limitation that prevents the utilization of 64 GB kits despite the availability of such capacities in the SO-DIMM form factor.
  • Upgrading to modules with lower CAS latency parameters at the native 4800 MHz speed provides the only viable path for reducing memory access delays since clock speeds remain fixed.
  • The transition to DDR5 technology necessitates the use of modules with on-die ECC and integrated power management integrated circuits which generate more localized heat than previous generations.