What do you do if your game's performance and graphics need optimization using new technology?

Understanding the value of resources at hand and prioritizing accordingly is key. Things like preferring double sided shade over double sided geometry, involving LODs and depending more on the normal details and less on refined polygon geometry also helps improve performance. Understanding use and cost of different technical resources and using them economically is a mindset that helps you along the way to optimise performance at best.

Identify areas where improvements can be made, such as rendering techniques, asset management, or system resource usage. Conduct thorough testing to pinpoint performance bottlenecks and areas for optimization. By understanding the unique requirements of your game and its target platform, you can develop a tailored optimization strategy to maximize performance and graphics quality while leveraging new technologies effectively.

First of all, you need to set a target framerate. That's how you determine how much time each frame is allowed to take. For example, with a target framerate og 60, each frame must be processed within 16,66 milliseconds. If it takes more than that, you need to optimize.

Optimize the usage of assets in your game to reduce memory usage and improve loading times. This could involve techniques such as texture atlasing, texture compression, level of detail (LOD) systems, and mesh simplification to reduce the polygon count of complex models.

Optimizing a game starts with a deep dive into performance metrics ??. Profiling is key ??, as it reveals the bottlenecks ?? that affect frame rates and graphics quality. Utilizing built-in engine tools ???, developers can pinpoint the stress points and strategize optimization effectively. It's a blend of art ?? and science ??, ensuring a seamless gaming experience! #GameDev #PerformanceOptimization #Profiling

Ensure you're using the latest versions of game engines, development frameworks, and graphics APIs that support advanced rendering techniques and optimization features. Upgrade to hardware that can leverage new technologies effectively. Additionally, invest in tools for profiling, debugging, and performance monitoring to identify and address optimization opportunities efficiently. By staying up-to-date with the latest tools, you can maximize the potential of new technologies and enhance your game's performance and graphics quality.

Always keep your code robust clean and updated. Always update the apis, sdks, frameworks on time as the stable version released. keep on testing the performances by running memory monitor tool and optimise and fix the leaks.

It's important to periodically evaluate your development toolkit, which includes game engines, profiling tools, and asset optimization software. Make sure to keep up with updates and explore new tools to increase efficiency. If necessary, invest in hardware upgrades to support modern development workflows and take advantage of the latest technology. Upgrading tools can simplify your development process, improve collaboration, and provide access to new features that enhance performance and graphics quality. Regularly assess your toolkit to ensure it meets your project's needs and keeps up with the evolving landscape of game development technology.

Including new rendering techniques, optimization strategies, and hardware capabilities. Experiment with new features and technologies to improve the performance and visual fidelity of our game.

Optimizing game performance and graphics using new technology involves several steps: 1. Identify Performance Bottlenecks using profiling tools. 2. Implement Level of Detail (LOD) Systems 3. Optimize Shaders 4. Texture Compression 5. Dynamic Resolution Scaling 6. Optimize Memory Usage

When your game isn't running smoothly or looking as good as it could, it's time to optimize the code. Start by finding out what's causing the slowdowns. Look for ways to simplify or speed up the code, maybe by using new tricks like splitting tasks between different parts of the computer. Also, see if you can make the code simpler or use faster methods to get things done. And don't forget about improving how the game loads and shows things on the screen. By making these changes, your game will run better and look amazing, giving players a more fun experience.

Once you know the target framerate, you need to check whether you're CPU or GPU bound (= where the bottleneck is). To do that, you need to use a profiler tool (I.E: Unity's one) to log how much it takes for each frame to be processed and why. These tools will also give you a breakdown of what's causing the major bottlenecks, so getting to the root cause is usually easy if you know where to look.

We need structural code for our game. For that we have to use reusable code and clean and robust code. You can split your class and method in sub-modules. Creating task base class system means a single task single class method.

Identify bottlenecks by profiling the code and prioritize optimization based on critical areas like rendering, physics, and AI. Utilize modern programming techniques such as multithreading, SIMD instructions, and GPU compute shaders to leverage the full potential of new hardware. Implement efficient algorithms and data structures, minimize memory allocations, and reduce unnecessary computations to optimize performance further. Regularly test and iterate on optimizations to achieve the best balance between performance and visual quality.

1. Regular Profiling: Use tools like Quick CPU to identify bottlenecks. 2. Optimize Loops: Refactor to reduce complexity and avoid unnecessary computations. 3. Data-Oriented Design: Structure data for cache efficiency, improving CPU performance. 4. Minimize Memory Allocations: Reuse objects and avoid runtime allocations for smoother gameplay. 5. Multithreading: Implement parallel processing for non-dependent tasks to utilize all CPU cores.

Utilize advanced rendering techniques such as physically based rendering (PBR), dynamic lighting and shadows, and post-processing effects like bloom, depth of field, and ambient occlusion. Optimize texture resolutions and compression formats to minimize memory usage without sacrificing visual quality. Implement level-of-detail (LOD) systems to dynamically adjust the level of detail based on distance, reducing rendering overhead. Utilize GPU instancing and batching techniques to efficiently render multiple objects with minimal draw calls. Experiment with new rendering APIs like Vulkan or DirectX 12 for better utilization of modern hardware capabilities.

For new Unreal Devs beware of YouTube tutorials that build code off the Tick event. Anything built off this will fire 60 times a second. Split these blueprint nodes off with custom events and timers instead.

In a metaphorical multiplayer archery game, gameplay is enhanced by distributing tasks between the client and server. The client takes charge of immediate physics and rendering tasks like the arrow's trajectory, offering fast feedback and minimizing server load by utilizing the client's hardware for efficient graphics processing. The server's role is to validate these client-side outcomes, maintaining consistency and fairness across the game state. The utilization of distributed results, where multiple clients corroborate an event like an arrow hit, allows the server to make heuristic decisions that optimize performance and deter cheating. This distributed approach is broadly applicable, enhancing responsiveness and graphical immersion.

You should definitely NOT enhance graphics if your game is already struggling in performance. This list seems to be written by an AI and it lacks a coherent direction.

It is important to understand the technology and engines that you are working with. Not all tools have same capabilities, ie web engines are vastly different that standalone tools like UE5 or Unity. Once you understand how powerful the engine is, you can find the sweet spot between performance vs graphics. Often you can utilize techniques like texture baking, file compressions (like GLB, GLTF formats), draco compressions on top and so on. Usage of LODs can greatly improve both performance and graphics as well. There are many techniques out there that you can research and improve your game.

If you're GPU bound, be sure to use Texture/sprite atlases, reduce the number of vertices of meshes, the size of textures, and to untick any import settings that is not needed. For example, if you're working in Unity and don't need to deform meshes, disabling the "read/write enabled" settings of meshes will help you save 50% of memory for each model.

Streamline assets by reducing polygon counts, simplifying textures, and removing unnecessary details. Utilize level-of-detail (LOD) models to dynamically adjust complexity based on distance. Implement texture atlases to reduce draw calls and optimize texture memory usage. Opt for efficient compression formats and mipmapping techniques to reduce texture size while maintaining visual quality. Implement occlusion culling and frustum culling to avoid rendering hidden or off-screen objects. Experiment with GPU instancing and batching techniques to minimize draw calls and improve rendering performance. Regularly profile and optimize the game to identify and address performance bottlenecks.

Make sure you are using the right texture size for the asset. Simplify where you can! Blades of grass do not need 4K textures, save that budget for characters or more complicated models. If using an engine like Unreal use the various optimization overlays to see where most of your budget is going. The biggest offender tend to be particle effects and textures. Don’t forget to make use of culling, level streaming or other methodologies for loading and u loading assets to save on memory.

The great variety of different game types and genres also brings with it a great variety of art styles and accordingly content pipelines. In order to be able to react flexibly to emerging problems, it is advisable to test the content pipeline in a prototype and to build modularly for later production. If problems arise at a later date, individual modules can be optimized or new modules can be implemented into the existing workflow as an optimization measure. Sometimes it also makes sense to check whether the desired graphic style can be implemented in a slightly modified form via a different approach with more performant content.

Measure, measure, measure. It's not enough to say "I optimized". You need to prove it. Re-profile the game, see if the bottleneck went away and you managed to reduce the amount of resources needed by your game. Also remember to profile on the target device whenever possible, because everything is going to be super-fast on your powerful workstation.

Conduct performance tests on various hardware configurations to identify bottlenecks. Utilize profiling tools to pinpoint areas needing optimization, such as CPU or GPU usage, memory allocation, and rendering times. Implement optimization techniques like object pooling, asynchronous loading, and multithreading to improve performance. Continuously monitor and iterate on optimizations to ensure optimal performance across different platforms and hardware setups.

Test your game on target platforms to ensure that optimizations are effective across different hardware configurations and performance profiles. Consider the limitations and capabilities of each platform and optimize accordingly.

- Update your toolset - Reduce draw calls - Optimize shaders - Abuse cache locality - Optimize models - Roll your own engine/renderer written by your expert engineers

Being Unity Game Developer, I can talk about latest technology stack in unity targeting performance i.e. DOTS (Data Oriented Tech Stack) which used DATA ORIENTED DESIGN instead of OBJECT ORIENTED PROGRAMMING. Its ECS system, BURST, JOB SYSTEM is extremely powerful. But the issue is its learning curve is very steep and inly seasoned developers can use it. So as a result, currently using OOP and Monobehaviours, performance is to be obtained after properly analysing the game i.e. whether it is CPU bound, GPU bound, Ram bound, Storage bound etc. Then there are plenty of techniques to apply as per constraint found but the key point is to ANALYSE first using Profiler, Frame Debugger Memory profiler or Render Doc etc, which many developers miss.

Start by asking your self if it is time to go crazy and skip the old system. Build something new targeting the new needs with the players.

The KISS (Keep It Stupid Simple) principle and NASA's coding guidelines, emphasizing simplicity and human readability, are invaluable across all software development areas. KISS encourages straightforward, simple solutions, making code easier to manage, debug, and understand. NASA's rules, like limiting nesting depth and prioritizing readability, ensure code remains accessible and maintainable, crucial for mission-critical systems but broadly applicable. These principles intersect in promoting clear, maintainable code, beneficial from game development to data science. While machines execute code, humans write and maintain it, making human-centric coding practices essential for long-term success.

If implementing new technology is not too expensive or time-consuming, the best solution is to implement these technologies into the game. Otherwise, the simplest way is to change the minimal system requirements of the game.