What is a GPU?
A graphics processing unit (GPU) is an electronic circuit that can perform mathematical calculations at high speed. Computing tasks like graphics rendering, machine learning (ML), and video editing require the application of similar mathematical operations on a large dataset. A GPU’s design allows it to perform the same operation on multiple data values in parallel. This increases its processing efficiency for many compute-intensive tasks.
Why are GPUs important?
A GPU is excellent at performing general-purpose parallel processing, but historically, this wasn’t always the case. As the name suggests, GPUs were initially designed for one specific task: controlling image display.
Origin of the GPU
Before the GPU, we had dot matrix screens, which were released in the 1940s and 1950s. Vector and raster displays were released after, and then later, the first video game consoles and PCs were released. At the time, a non-programmable device called a graphics controller coordinated the display to the screen. Graphics controllers traditionally relied on the CPU for processing, although some included on-chip processors.
Around the same time, there was a 3D imaging project concerned with generating a single pixel on a screen with a single processor. The goal was to produce an image that combines many pixels in a short amount of time. This project was the origin of the GPU as we know it.
It wasn’t until the late 1990s that the first GPUs came out. These were aimed at the gaming and computer-aided design (CAD) markets. The GPU integrated a previously software-based rendering engine and transformation and lighting engine with the graphics controller—all on a programmable chip.
Evolution of GPU technology
Nvidia was the first to market the single-chip GeForce 256 GPUs in 1999. The 2000s and 2010s marked a growth era where GPUs gained functions like ray tracing, mesh shading, and hardware tessellation. These led to increasingly advanced image generation and graphics performance.
It wasn’t until 2007 that Nvidia released CUDA, a software layer making parallel processing available on the GPU. Around this time, it became clear that GPUs were very effective at performing highly specific tasks. Specifically, they excelled at tasks that require a large amount of processing power to achieve a particular outcome.
When Nvidia released CUDA, it opened up GPU programming to a wider audience. Developers could then program GPU technology for all sorts of different compute-intensive practical applications. GPU computing started to become far more mainstream.
GPUs are an in-demand chip for blockchain and other emerging applications. They're increasingly being put towards artificial intelligence and machine learning (AI/ML).
What are the practical applications for a GPU?
GPUs can be used across a wide range of compute-intensive applications, including large-scale finance, defense applications, and research activities. Here are some of the most prevalent uses of GPUs today.
Gaming
The GPU’s first applications that extended beyond large business and government visualization applications were in personal gaming. They were used in the gaming consoles of the 1980s and still are in PCs and current gaming consoles. GPUs are essential for complex graphical rendering.
Professional visualization
GPUs are used in professional applications such as CAD drawing, video editing, product walkthroughs and interactivity, medical imagery, and seismic imaging. They are also applied to other complex image and video editing and visualization applications. Browser-based applications can even exploit the GPU through libraries such as WebGL.
Machine learning
Training a machine learning (ML) model requires a large amount of compute power. They can now run on GPUs for accelerated results. While it might take a long time to train a model on self-purchased hardware, you can achieve results quickly by using a cloud GPU.
Blockchain
Cryptocurrencies are built on blockchains. A particular type of blockchain, proof of work, typically relies heavily on GPUs for operation. Application-specific integrated circuits (ASICs), a similar but different chip, are now a common replacement for GPU processing for blockchain.
Proof-of-stake blockchain algorithmic proofs remove the need for massive amounts of computing power, but proof of work is still pervasive.
Simulation
Advanced simulation applications, such as those used in molecular dynamics, weather forecasting, and astrophysics, can all be accomplished through GPUs. GPUs are also behind a lot of applications in automotive and large vehicle design, including fluid dynamics.
Why boost GPU performance?
Why would anyone want to tamper with a GPU to enhance the performance of their current graphics card? Why not just buy a new one? The most straightforward answer to this question is: because it is possible. But let’s take a deeper look into this and try to understand what the reasons are, and what initiates this action. There are several reasons why someone would want to improve the performance of their GPU.
New graphics cards are expensive
As we all know, graphics cards can be quite expensive. Consequently, some people prefer to buy a previous-generation graphics card and boost it up, rather than investing in the latest model. However, the performance gained by boosting the GPU is not huge, and it will most likely not match the performance of a newer generation card. But in some cases, it might still make a difference.
Like any technical product, GPUs evolve quite rapidly, and older-generation GPUs are quickly replaced by newer ones. Simultaneously, applications and software are also evolving – pretty much at the same rate. This makes an older-generation GPU perform in a non-optimal way on newer versions of software and applications. Therefore, many consumers choose to boost its performance, extending the usability of the card. This approach allows users to run applications optimally without the immediate need to purchase a new GPU.
Getting the most out of your gaming experience
In the gaming industry, real-time graphics are essential, and the limits imposed by technology are always pushed further. We can say that gaming is one of the leading forces behind real-time graphics and GPU advances. Hence, the demand for improved performance is significant. And of course, this is where the various methods of performance boost come into play.


