ASUS TUF Gaming FA506NF-HN077 RAM upgrade specifications

ASUS FA506NF-HN077 ASUS FA506NF-HN077 ASUS FA506NF-HN077 ASUS FA506NF-HN077 ASUS FA506NF-HN077

ASUS TUF Gaming A15 FA506NF-HN077 laptop features two SO-DIMM slots supporting DDR5-SDRAM memory modules. Specifications indicate maximum RAM capacity of 32 GB with memory operating at 5600 MHz frequency. Compatible upgrades utilize SO-DIMM form factor modules, enabling expansion from factory configuration. Memory specifications are applicable to FA506NF-HN077 hardware configuration.

Memory Upgrade Specifications

SpecificationValue
Memory slots2x SO-DIMM
Form factorSO-DIMM
Memory typeDDR5-SDRAM
Frequency5600 MHz
Maximum RAM32 GB
Voltage1.1V
Number of pins262-pin
InterfacePC5
PC Speed RatingPC5-5600 (PC5-44800)
Bandwidth44.8 GB/s

Additional Notes

  • The presence of 2 SO-DIMM slots allows for a dual-channel memory configuration which doubles the theoretical bandwidth compared to a single-module setup.
  • The 32 GB maximum memory threshold implies the motherboard firmware or processor architecture imposes a hardware cap that prevents the recognition of 32 GB or 48 GB high-density individual modules.
  • The ASUS TUF Gaming FA506NF-HN077 utilizes DDR5 technology which operates at a lower base voltage of 1.1V compared to previous generations, resulting in improved thermal efficiency during sustained high-speed data transfers.
  • Installation of memory modules with frequencies higher than 5600 MHz will result in automatic downclocking to the system bus limit, yielding no performance gains beyond the specified clock speed.
  • Physical access to the memory slots requires removal of the entire lower chassis panel, necessitating a non-marring pry tool to avoid damaging the structural plastic clips.
  • Upgrading memory requires the use of non-ECC unbuffered modules as the consumer-grade chipset lacks the parity circuitry necessary for error-correcting code functions.
  • Matching the capacity and timings of two modules is necessary to maintain symmetrical dual-channel operation and avoid latency penalties caused by asynchronous memory interleaving.