Thermal Grizzly KryoSheet 29×25 Thermal Pad

The graphene thermal pads of the Thermal Grizzly KryoSheet series can be used as an excellent alternative for thermal compounds from the higher performance segment. Similar to Carbonaut pads, they have a conformable surface with very high thermal conductivity. Compared to Carbonaut pads, KryoSheet as a high-end product offers significantly higher thermal conductivity. This increased thermal conductivity is not only due to the choice of material, but also to the innovative manufacturing process. KryoSheet does not contain any liquid components and is therefore not subject to normal ageing as is the case with traditional thermal paste. Drying out is not possible.

• Outstanding thermal conductivity

• Easy to use
• Consistently high performance
• Extreme durability

• Attention: Electrically conductive! Follow instructions!

The KryoSheet graphene pads have a molecular structure stacked in the Z-direction. This optimised structure enables outstanding and constant thermal conductivity. This is due to a specially developed manufacturing process in which the hexagonal crystal structure of the graphite is broken up along the basal plane in order to exploit the anisotropy of the graphite’s thermal conductivity. However, as a side effect of this complex manufacturing process, the electrical conductivity is also increased and the stability of the KryoSheet pads is affected, so that the pads should only be used according to instructions!

KryoSheet is available pre-assembled in various CPU/GPU standard sizes, e.g.:

KryoSheet 29 x 25 mm Compatibility

• Nvidia GPUs:
  RTX 4090
  RTX 3080, RTX 3080 ti, RTX 3090, RTX 3090 ti
  RTX 2070 Super, RTX 2080, RTX 2080 Super
• AMD GPUs:
  RX 7900 XT, RX 7900 XTX
  RX 6800, RX 6800 XT, RX 6900 XT, RX 6950 XT
• Intel GPUs:
  

  Arc A750, Arc A770

Note: Multiple use of KryoSheet is not recommended!
When dismantling the cooler and handling the KryoSheet after use, microcracks may occur in the structure of the graphene pads, which may impair Performance.