MSI Gaming GT75VR 7RE-238XES Titan RAM upgrade specifications

MSI GT75VR 7RE-238XES Titan MSI GT75VR 7RE-238XES Titan MSI GT75VR 7RE-238XES Titan MSI GT75VR 7RE-238XES Titan MSI GT75VR 7RE-238XES Titan

The MSI GT75VR 7RE-238XES Titan gaming laptop features four SO-DIMM memory slots supporting DDR4-SDRAM modules at 2400 MHz frequency. The upgrade specifications indicate a maximum RAM capacity of 64 GB total. Compatible memory upgrades utilize SO-DIMM form factor modules. The GT75VR 7RE-238XES from MSI's GT Gaming series supports memory expansion through its four available slots, allowing users to increase system memory up to the maximum specifications of 64 GB DDR4-SDRAM.

Memory Upgrade Specifications

SpecificationValue
Memory slots4x SO-DIMM
Form factorSO-DIMM
Memory typeDDR4-SDRAM
Frequency2400 MHz
Maximum RAM64 GB
Voltage1.2V
Number of pins260-pin
InterfacePC4
PC Speed RatingPC4-2400 (PC4-19200)
Bandwidth19.2 GB/s
Laptop Release date13 January 2018

Additional Notes

  • The MSI GT75VR 7RE-238XES Titan chipset architecture supports dual-channel memory configuration, enabling theoretical bandwidth of 38.4 GB/s when paired modules are installed in matching slots.
  • The 2400 MHz frequency ceiling indicates compatibility with 7th generation Intel Core processors, which impose hard limits on officially supported memory speeds regardless of module capabilities.
  • SO-DIMM modules rated beyond 2400 MHz will downclock automatically to match the system's maximum supported frequency, eliminating performance gains from higher-speed modules.
  • The 64 GB maximum capacity requires 4 matched 16 GB modules to achieve full utilization, as asymmetric configurations may trigger single-channel operation and halve available bandwidth.
  • Installation requires accessing the bottom chassis panel, where static discharge precautions become critical due to exposed PCB traces near the memory bay.
  • Mixing module ranks (single-rank versus dual-rank) across the 4 slots can introduce latency penalties during interleaved memory operations, even when capacities match.
  • The DDR4 standard's lower voltage requirement of 1.2V compared to DDR3's 1.5V reduces thermal output in the confined SO-DIMM compartment, but also eliminates compatibility with legacy module types.
  • Non-ECC unbuffered modules represent the only supported architecture, as registered or error-correcting variants will fail POST initialization on consumer mobile chipsets.
  • Warranty preservation depends on avoiding physical damage to retention clips during module installation, as bent or broken clips constitute user-induced damage in most service agreements.
  • CAS latency variations between CL15, CL16, and CL17 modules at 2400 MHz produce negligible real-world impact, as gaming workloads remain bandwidth-bound rather than latency-sensitive.