Thermal Pad, Thermalright JLJ Silicone Thermal Pads 80x40x1.5mm, High Temperature Resistance and Non Conductive for Laptop Heatsink/GPU/CPU/LED Cooler (1.5MM)

Used on an Rtx 3080 Trinity that had pretty lackluster memory temperatures and the old pads were dried like ash, so i found these and gave them a try and they seem to be good stuff. They were pretty easy to cut and apply on the memory chips and testing temps on benchmarks and games the memory temps did not exceed 67c which is really good. Id say if you are using them to replace the pads on a gpu and it is 2mm thick, these are good.

Very good thermal pad, easy to use and very good cooling performance... I can only recommend it to everyone, my graphics card is 5 °C cooler than the standard one.

Cooling a RTX 3090 no problem

Pads were able to be cut, and didn't fall apart or crumble!

Outstanding thermal conductivity. Used 0.5, 1.0 and 1.5 mm on SSDs and 0.5 and 1.0 mm for RAM modules for consistent contact to heatsinks.• Works in conjunction with heatsinks to lower temperatures by 15-30° C• High 40s / low 50s without heatsink and internal fans at constant 3000-4500 rpm• High 30s / low 40s with thermal pads, heatsinks and fan on factory auto settings of 0 to < 1900 rpm• High 20s to low 30s on idleFlexible, tacky on both sides. Thicker pads are sturdier and easier to apply. 0.5 mm prone to tearing. Use point / thin edge of razor / craft knife to lift pad away from stiff clear film. Apply to component. Use point / thin edge of razor / craft knife to lift thin flexible tinted film away from thermal pad.Well designed packaging of polypropylene card box in sealed foil pouch.Results will differ based on undervolt / overclock, fan settings, choice of heatsinks, work load, and temperatures (ambient, boot, CPU and GPU), and etc...Enable power efficient features to optimize thermal management and thermal pad effectiveness otherwise the constant power draw will quickly drive up temperatures for all components. Heat radiating from CPU and GPU will drive up SSD and ram module temperatures.Vacuum fans at 2600-2800 rpm help maintain stable temperatures and are much quieter than internal fans.Update 1: Thermal performance under different thermal management settings and CPU load:No thermal pads or heatsinks, internal fans = 5000 rpm, no vacuum fansSSDs 31-72° C; CPU cores 38-86° C, avg 4.1 GHz, > 3 hours each over 7 daysThermal pads 1.0 mm + heatsinks, internal fans auto = 0-2513 rpm, vacuum fans offSSDs 26-45° C; CPU cores 40-79° C, avg 4.1 GHz, > 3 hoursThermal pads 1.0 mm + heatsinks, internal fans auto = 0-1875 rpm, vacuum fans auto = 0-2600SSDs 32-46° C; CPU cores 43-81° C, avg 4.2 GHz, > 12 hoursThermal pads 0.5 mm + heatsinks, internal fans auto = 0-1875 rpm, vacuum fans = 2600 rpmSSDs 28-45° C; CPU cores 40-67° C, avg 4.3 GHz, > 6 hoursThermal pads 1.0 mm + heatsinks, internal fans auto = 0-1875 rpm, vacuum fans = 2600 rpmSSDs 26-43° C; CPU cores 38-70° C, avg 4.1 GHz, > 27 hoursThermal pads 1.0 mm + heatsinks, internal fans auto = 0-1875 rpm, CPU vacuum fan 2600; GPU vacuum fan = autoSSDs 33-45° C; CPU cores 45-73° C, avg 4.3 GHz, > 3 hoursThermal pads 1.0 mm + heatsinks, internal fans auto = 0-1875 rpm, CPU vacuum fan auto; GPU vacuum fan = 2600 rpmSSDs 26-48° C; CPU cores 41-79° C, avg 4.3 GHz, > 35 hoursThermal pads 1.0 mm + heatsinks, internal fans auto = 0-1875 rpm, vacuum fans = 2800 rpmSSDs 26-45° C; CPU cores 38-74° C, avg 4.1 GHz, > 22 hoursSystem settingsUndervolted laptop CPU core and iGPU, and slightly overclocked CPU cores while limiting power draw, which helps keep cores generally below 76° C despite running at 4.3-4.6 GHz during near constant load. GPU undervolted and overclocked to > 1900 MHz with VRAM + 115 MHz. DDR4 overclocked from 3200 on 1.2 v to 4200 on 1.1 v. Internal fans on auto, generally 0 to < 1900 rpm . Vacuum fans at 2600-2800 rpm.

This is some pretty good thermal pad I will definitely order again.