Get the free plugin for Adobe Creative Cloud, enabling NotchLC support in After Effects, Premiere and Media Encoder. Windows & macOS (Intel & Apple Silicon) supported.














Firmware acts as the embedded operating system for your hardware. For hardware like the ASUS DRW-24D5MT, manufacturers issue updates for several critical reasons:
Some firmware versions artificially limit read/write speeds or disable certain features (e.g., riplock removal, which is illegal in some regions). Updates may change these limits.
Updating the firmware of your ASUS DRW-24D5MT is a quick, five-minute task that can instantly resolve disc recognition issues, fix annoying bugs, and optimize your burning speeds. By sticking strictly to official ASUS files and ensuring your system remains uninterrupted during the flash process, you will keep your optical drive running perfectly for years to come. asus drw-24d5mt firmware
Firmware is a specific class of device software that provides low-level control for a device's specific hardware. For the ASUS DRW-24D5MT, the firmware acts as the brain of the optical drive, telling the laser how to read and write data onto various types of media (CD-R, DVD-R, DVD+RW, M-DISC, etc.). Updating your drive's firmware offers several key benefits:
Do not download firmware from random driver websites. Many such sites bundle malware or outdated files. Always use official sources. Firmware acts as the embedded operating system for
Flashing firmware carries inherent risks. If the process is interrupted, the drive can become permanently unusable. from the ASUS DRW-24D5MT tray.
Select your Operating System (if prompted) and locate the section. Updating the firmware of your ASUS DRW-24D5MT is
Or use lshw to find the firmware revision string.
Detail when you need it. Unlike other mainstream GPU codecs, NotchLC uses variable block size and variable control point bit levels to provide extra detail while allowing greater compression in areas of flatter colours.
NotchLC breaks colour data down into luma and chroma (YUV). 12bits of depth are assigned to luma data, as in many scenarios this is where bit depth is most perceivable. 8bits are assigned to each of the U & V channels.
Rather than specify target bitrates and end up with undetermined quality outcomes, NotchLC takes the reverse approach: during encoding you set a quality level, and the encoder uses the most compression it can while preserving it.
Utilising the modern SSIM measurement method, NotchLC delivers the high-quality results that are needed to be qualified as an intermediary codec. Don’t take our word for it though — read what dandelion + burdock writes in their big, independent 10bit codec test.
See how NotchLC stacks up with with another popular GPU powered codec.
Talk to any content creator about codecs and you’ll find encoding times, right at the top of the list of concerns. NotchLC utilises the full power of the GPU to massively accelerate the encoding process.
NotchLC utilises the full power of the GPU to massively accelerate the encoding process. On a consumer PC, encoding can be up to 5.7x faster than realtime at 1080p24. As an example, we encoded the Open Source movie “Big Buck Bunny” (duration 09:57) in just 1 min and 44 secs.
In a CPU codec, the CPU decodes the image and sends the huge raw frames up to the GPU. The secret sauce of a GPU codec is that compressed frames are uploaded and the GPU does the decode. The compressed frames are much smaller in size allowing vastly more video to be passed through the PCI-e bus.
Typically you will see compression ratios of around 5:1 on motion graphics content when compared to raw video. You’ll be able to dial in your final file size by using the encoder’s Quality Level (see the manual).
NotchLC can be integrated into your software or product. We have a fully documented SDK available under a commercial license. Contact us to discuss licensing options and pricing.
See the manual, or talk to other users on our community Discord.