ASUS TUF Gaming FA507RC-HN034W RAM upgrade specifications

ASUS FA507RC-HN034W ASUS FA507RC-HN034W ASUS FA507RC-HN034W ASUS FA507RC-HN034W ASUS FA507RC-HN034W

ASUS TUF Gaming A15 FA507RC-HN034W features DDR5-SDRAM memory upgrade specifications. The laptop contains two SO-DIMM slots for RAM expansion. Maximum memory capacity reaches 32 GB total. Compatible memory modules operate at 4800 MHz frequency. SO-DIMM form factor specifications apply to all compatible upgrades. Current memory configuration and available slot capacity determine compatible upgrade options for this gaming laptop model.

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
Laptop Release date31 January 2022

Additional Notes

  • The ASUS TUF Gaming FA507RC-HN034W accepts only DDR5 modules, rendering all DDR4 inventory incompatible due to different notch positions and voltage requirements.
  • The 32 GB ceiling requires either a single 32 GB module or dual 16 GB modules, as 2 slots cannot accommodate higher-density configurations.
  • DDR5 operates at 1.1V compared to DDR4's 1.2V, reducing heat output but requiring specific module compatibility verification with Ryzen mobile platforms.
  • The 4800 MHz specification represents JEDEC standard speed for DDR5, meaning faster kits rated at 5200 MHz or 5600 MHz will downclock to this frequency.
  • SO-DIMM form factor prohibits installation of standard desktop DIMM modules due to physical length differences of 67.6 mm versus 133.35 mm.
  • Dual-channel operation necessitates matched pairs for optimal memory bandwidth, as mismatched capacities force single-channel mode on the smaller module's capacity across both slots.
  • ECC SO-DIMM modules physically fit but remain unsupported in consumer TUF Gaming platforms, wasting error correction overhead without activation.
  • The 2-slot configuration limits future expansion compared to 4-slot designs, making initial capacity selection critical for longevity.
  • DDR5's on-die ECC differs from full ECC unbuffered modules, providing internal data integrity without OS-level reporting or guarantees.
  • Mixing modules from different manufacturers may cause training failures during POST due to varying XMP profile implementations, despite identical speed ratings.
  • Access to memory slots typically requires complete bottom panel removal in TUF chassis designs, complicating field upgrades compared to dedicated access doors.
  • Warranty preservation depends on using non-conductive tools and avoiding force during latch manipulation, as bent SO-DIMM pins void coverage.
  • The platform's integrated memory controller in the AMD processor determines actual supported speeds, potentially limiting advertised module frequencies.
  • Latency specifications beyond CAS 40 offer minimal real-world performance gains at 4800 MHz due to bandwidth saturation in gaming workloads.
  • Single-rank versus dual-rank module architecture affects interleaving efficiency, with dual-rank configurations providing marginal throughput improvements in memory-intensive tasks.