NVIDIA Iray is a powerful, unbiased GPU-based render engine available in Daz Studio, alongside the original 3Delight renderer. In this guide, we’ll explore the best settings for iRay in Daz3D to help you achieve high-quality renders efficiently.

Before fine-tuning render settings, it’s important to configure your General settings properly. Set a clear save location and make sure your output resolution is correct.

You can choose from several built-in resolution presets like VGA or Panorama. For custom sizes, select Custom and enter your preferred pixel dimensions and aspect ratio.

Recommendation: Use double your desired resolution for rendering, then downscale in an image editor (e.g., Photoshop) for better results.

There are 3 options:

• Still Image (Current Frame) – for a single render
• Image Series – for animations, one frame at a time
• Movie – exports a full animation in one file

Recommendation: It’s safer to use Image Series for animations. That way, if rendering gets interrupted, you can resume from the last saved frame instead of starting over.

Decide whether your render opens in a new window or saves directly to the file.

Specify a file name and choose where it should be saved.

Recommendation: If you’re using iRender’s servers, save to any folder on the Desktop to avoid potential errors or crashes.

The headlamp is useful during scene setup for visibility if no lights are present. 

Recommendation: For final rendering, it’s usually best to turn it off to avoid unwanted lighting.

Here, you’ll choose between:

• Photoreal – the highest quality option, ideal for realism
• Interactive – faster previews with lower accuracy

Since Iray is known for its physically accurate results, we’ll focus on the best settings for iRay in Daz3D using the Photoreal mode.

Note: Some render settings may differ slightly depending on the mode selected.

To get the best balance between speed and quality in Iray rendering, it’s essential to understand how progressive rendering works. These settings affect how the image updates while rendering and when rendering stops.

These settings determine how frequently the image updates during the rendering process:

• Min Update Samples: Sets the minimum number of samples per pixel required before the image refreshes on screen. A higher value means less frequent updates, but potentially cleaner previews.
• Update Interval: Defines the time (in seconds) between updates, regardless of how many samples have been calculated.

Recommendation: Most Daz3D users leave Min Update Samples at 1 and keep the Update Interval at its default value for smoother visual feedback during rendering.

Min Samples and Max Samples determine the range of samples per pixel that Iray needs to calculate before finishing the render. Max Time limits how long Iray will spend rendering. All three settings can work together, which means the rendering whill stop when any one of them is reached.

Recommendations:

• Min Samples: Often left at 0
• Max Samples: Increased for higher detail — portraits may go up to 15,000–40,000
• Max Time: Can be left at 0 (no time limit), or set based on how long you’re willing to wait
• Leave Min Samples at 0 and raise the Max Samples and Max Time values to improve image quality, accepting longer render times as a trade-off.

• Rendering Quality (default = 1): Controls final image accuracy. Doubling this value roughly doubles the render time.
• Converged Ratio (default = 95%): Specifies when Iray considers the image “complete.” Raising this may improve quality, but also significantly increases render time.

Recommendation: Keep the default unless you absolutely need cleaner results. Adjust with care.

The Alpha settings affect how transparency is handled in renders. The only adjustable option here is Default Alpha LPE (Light Path Expressions).

Recommendation: Unless you’re having issues with transparency or rendering alpha maps, it’s best to leave this setting at “specular transmission objects.”

Focus on these two key options for optimization:

Caustics are the light patterns formed when light is refracted (through glass) or reflected (off shiny surfaces). These effects can add realism but significantly increase render time.

Recommendation: Enable Caustic Sampler only if you’re rendering glass, water, or reflective materials and want physically accurate lighting.

Guided Sampling helps speed up Iray rendering and reduce noise, especially when used alongside the Firefly Filter. It may increase the memory usage, but the visual payoff is worth it for complex lighting.

Recommendation: Turn on Guided Sampling if your scene includes:

• Large soft shadows (from big area lights)
• Volumetric effects (e.g., fog)
• Occluded or indirect light sources
• Moderate caustics (but not full caustic rendering)

In the latest version of Daz Studio, the Filtering tab becomes visible once you click the Render button. 

During rendering, it’s common to encounter small, overly bright white pixels scattered throughout your image, often referred to as “fireflies.” These occur in areas where lighting is difficult to calculate accurately. The Firefly Filter is designed to automatically eliminate these spots and improve image quality. 

Recommendation: It’s highly recommended to keep this filter enabled in all your renders. For better results, especially in challenging scenes, it’s also advised to use it in combination with Guided Sampling.

This filter helps reduce overall noise in your image without sacrificing too much detail. You can adjust this filter on a scale from 1 to 5. Lower values like 1 to 3 offer a more conservative approach, focusing on reducing noise in difficult parts of the scene while maintaining sharpness. 

Note: Firefly Filter and Noise Degraining Filter are not supported in Interactive rendering mode.

It is especially useful in scenes with complex lighting and shadows. This tool enhances the image after rendering has reached a certain stage, helping to clean up remaining visual imperfections. However, because it uses additional memory and can affect performance, it’s important to use it wisely. Make sure both the “Available” and “Enabled” options are active if you decide to use it. 

Post Denoiser Start Iteration determines how soon in the render process the denoiser begins its work. If it starts too early—like at the default setting of 8 iterations—it can result in longer render times and a blurrier image. A better approach is to delay the denoiser until the final few hundred iterations. For example, if you’re rendering 500 total iterations, starting the denoiser around iteration 250 to 350 will save memory and produce a sharper, cleaner result.

Post Denoiser Denoise Alpha is useful if your render includes transparent elements and you want to reduce noise in the alpha channel. Just be aware that enabling this option can potentially double denoising time. Still, it’s worth using if you notice transparency-related noise in your final image.

Spectral Rendering is a specialized feature that simulates light and color based on real-world wavelengths rather than relying solely on the RGB color model. This method provides more physically accurate color interactions, which can make a noticeable difference when rendering materials like glass, liquids, or skin. 

In most cases, especially for casual or intermediate users, it’s recommended to leave Spectral Rendering disabled unless you’re aiming for highly realistic lighting effects and are comfortable adjusting your workflow to match. While the feature can produce stunning results, it also increases render time and can complicate color management if you’re not familiar with the underlying color theory.

When White Mode is enabled, Iray Interactive applies a plain white diffuse material to all objects in the scene. This mode helps evaluate lighting and shadows without the distraction of surface textures or colors.

Section Objects allow you to visually “cut” through a 3D model or scene, exposing the interior without altering the geometry. You can add an Iray Section Plane via the Create dropdown in Daz Studio. 

Enabling Section Caps fills in the cut surfaces with a solid material or color, instead of leaving the openings hollow or transparent.

In newer versions of Daz3D, the Tone Mapping tab will appear after clicking the Render button.

This feature controls how lighting and color are balanced in the final image (similar to camera exposure settings). Adjusting tone mapping can help fine-tune brightness, contrast, and overall mood of your renders. 

Most users are fine with the default settings, but if you’re curious, I recommend a tutorial video like “Daz Studio: Using Tone Mapping – NotFromThisWorld”.

Found under the Environment tab (after hitting Render), this section lets you define the lighting and ambiance of your scene. The core setting here is the Dome, which controls lighting direction, reflections, and general atmosphere. For example, a dome with a sunny forest scene will reflect that environment’s light and mood.

You can choose from several Environment Modes:

• Dome and Scene: Combines dome lighting with your scene’s lights (e.g., spotlights) 
• Dome Only: Ignores any lights in your scene and uses only the dome.
• Sun-Sky Only: Uses only the simulated sun and sky from the dome.
• Scene Only: Uses just the lights you’ve placed in the scene, ignoring the dome.

Recommendation: Stick with “Dome and Scene” if you want flexibility and better lighting control for most renders.

Finally, when discussing the best settings for iRay in Daz3D, it’s essential to consider the Hardware section. Here, you can select whether to use one or more GPUs, the CPU, or a combination of both for rendering. GPUs offer a significant performance advantage, especially for complex scenes, and can dramatically reduce your Iray render times. While combining CPU and GPU is an option, it doesn’t always lead to better results and may actually slow things down in some cases.

For the most efficient rendering, it’s generally recommended to rely on GPU-only rendering, particularly if you have access to multiple GPUs, as this can greatly boost both speed and quality.

iRender provides private high-configuration machines with upmarket specifications that excel in rendering, like AMD Ryzen™ Threadripper™ PRO 3955WX @ 3.9 – 4.2GHz or AMD Ryzen™ Threadripper™ PRO 5975WX @ 3.6 – 4.5GHz, 1/2/4/6/8 x RTX4090 or RTX3090,  RAM 256GB, Storage NVMe SSD 2TB.

Why can iRender be a great render farm for you?

In addition to high-configuration servers, iRender provides many other utilities to provide the best user experience.

• Dedicated server for individuals: You have full control and access to the server you rent. The working environment (installed apps, files) will be stored for the next use.
• Easy and free file transfer between your computer and iRender’s server: The transferring task can be done via iRender GPU application for Windows and the iRender Drive application for MacOS.
• 24/7 assistance: iRender’s attentive agents are always ready to support all your queries.
• All software compatibility: iRender’s PCs are built to meet the configuration needs of all 3D software and rendering tools at a variety of cost levels for users to choose from.

Take a look at the videos below to see how Iray renders on our nodes.

New users will get a 100% bonus for the first transaction within 24 hours of their registration. No minimum amount!! If you top up 50$, you will get 100 points in total to hire our machines.

REGISTER NOW

If you have any questions, please get in touch with me through email duongdt@irender.vn or our 24/7 support team for a quick response.

Thank you for reading

Source: Daz3D, Render Guide

In the world of 3D creation—whether you’re rendering photorealistic scenes in Blender, animating in Cinema 4D, or sculpting in ZBrush—your hardware plays a critical role in the speed and quality of your work. One of the most important aspects is GPU memory—specifically, the difference between dedicated and shared GPU memory. This article will break down these two types of GPU memory, how they affect 3D workflows, and what you should look for when choosing or optimizing your setup. Let’s explore with iRender.

GPU memory—often referred to as VRAM (Video Random Access Memory)—is used to store graphics data such as textures, geometry, shaders, frame buffers, and more. It’s essential for real-time rendering, viewport interaction, and GPU-accelerated tasks like ray tracing or simulation.

There are two main types:

• Dedicated GPU memory: Physical VRAM built into a discrete graphics card.
• Shared GPU memory: System RAM borrowed for graphics tasks, mainly in integrated or lower-tier GPUs.

Dedicated GPU memory refers to the memory that’s physically built into a discrete (dedicated) graphics card. Think NVIDIA GeForce RTX 4080 or AMD Radeon RX 7900 XTX. This memory, typically labeled as VRAM (Video RAM), is reserved exclusively for GPU tasks, like rendering, shading, or real-time viewport preview.

Key Characteristics:

• Faster bandwidth: VRAM is designed for high-speed parallel processing.
  
• Independent from system RAM: It doesn’t borrow memory from your main system.
  
• Better performance: Ideal for handling large textures, complex meshes, and high-resolution viewport rendering.
  

Why It Matters for 3D Artists:

• High performance: VRAM offers high bandwidth and low latency, critical for rendering large scenes and working with high-resolution assets.
• Stability: Large 3D scenes often exceed 8 GB or even 16 GB of memory. When rendering high-poly scenes or using GPU-accelerated engines like Cycles, OctaneRender, or Redshift, the GPU relies heavily on VRAM. If your scene exceeds the available VRAM, it can cause crashes or force your system to fall back on slower system memory, dramatically affecting performance.
• Viewport interaction: Tasks like sculpting, physics simulation, or shading nodes rely heavily on quick memory access.

Example: A detailed scene with 8K textures, volumetrics, and multiple light sources might easily consume 12–16 GB of VRAM.

Shared GPU memory is a portion of your system’s RAM that the GPU can access if it runs out of dedicated VRAM. This is common in integrated graphics (like Intel Iris Xe or AMD Radeon Vega), where the GPU is part of the CPU and doesn’t have its own dedicated VRAM.

Shared GPU memory is useful for basic tasks like modeling, sculpting low-poly assets, or working on simpler scenes. But if you’re rendering or doing heavy viewport work, performance will suffer.

Key Characteristics:

• Slower than VRAM: Because it’s standard system memory, not optimized for graphical workloads.
  
• Dynamic allocation: The system decides how much RAM can be used as shared memory.
  
• Can help—but not replace—dedicated VRAM: It’s a fallback, not a replacement.
  

Limitations in 3D Workflows

• Lower bandwidth: System RAM is slower than VRAM, causing bottlenecks during intensive tasks.
  
• Less memory available overall: If 4 GB of your 16 GB RAM is being used as GPU memory, that’s less for your OS and other apps.
  
• Poor scalability: Great for light modeling or UI-based design work, but not for high-end rendering or VFX.

Example: A laptop with 16 GB of RAM might allocate 4–6 GB as shared memory. However, the bandwidth and latency differences mean it’s not suitable for serious GPU rendering.

As a 3D artist, the type of GPU memory your system uses can make or break your creative workflow. Here’s how to decide what works best for your needs:

Choose a Dedicated GPU If:

Dedicated GPU memory is a must-have for any artist working with complex 3D pipelines. Choose a discrete GPU if:

• You regularly render scenes or animations: Whether you’re using Cycles in Blender, Arnold in Maya, or Redshift in Cinema 4D, these engines heavily rely on VRAM to handle geometry, shaders, and high-resolution outputs efficiently.

• You work with simulations: Fluid dynamics, smoke, fire, cloth, and particle simulations can be VRAM-intensive, especially during baking or real-time previews.

• Your scenes use 4K or 8K textures: Textures are among the biggest VRAM consumers. A few 8K textures can easily consume multiple gigabytes of memory.

• You need real-time performance: Applications like Unreal Engine, Unity, and NVIDIA Omniverse require real-time rendering capabilities that only dedicated GPUs can offer. Shared memory simply can’t keep up with the performance demand.

Note: Minimum VRAM recommended for modern workflows in 2025: 12–16 GB
High-end scenes, especially those with volumetrics or ray tracing, may require 24 GB or more.

Use Shared GPU Memory Only If:

Shared memory can be a temporary or entry-level solution, but it comes with limitations. It’s only suitable if:

• You’re a student or hobbyist: If you’re just learning the basics or practicing low-poly modeling, integrated graphics can suffice.

• You mainly model or texture low-poly assets: Tasks that don’t involve real-time rendering or GPU-accelerated rendering can run on minimal hardware.

• You don’t render using GPU acceleration: If you’re using CPU rendering engines or just exporting assets, GPU memory becomes less critical.

For any 3D artist aiming to work efficiently and professionally, dedicated GPU memory is a necessity. It provides the raw speed, stability, and memory bandwidth required to handle complex scenes, render high-res outputs, and work efficiently in real-time environments.

However, high-end GPUs with large VRAM (like 24 GB or more) come at a steep cost and may not be accessible for every artist, especially freelancers or small studios.

That’s where iRender comes in. iRender is proud to be one of the best GPU service providers on the market. We provide you with high-configuration models with advanced specifications such as AMD Ryzen™ Threadripper™ PRO 3955WX @ 3.9 – 4.2GHz or AMD Ryzen™ Threadripper™ PRO 5975WX @ 3.6 – 4, 5GHz, 256GB RAM, 2TB NVMe SSD storage. Most importantly, we always update to the latest GPU technology, with 1/2/4/6/8 x RTX3090/RTX4090.

Under the IaaS (Infrastructure as a Service) model you will have full control over the machine via a remote desktop app, similar to TeamViewer but more stable. You will be able to proactively install the software and use it on the server just like using a personal computer. You can find many server packages with high-end configurations that are extremely suitable for complex projects.

We’re always happy to help you with any questions. If you have any problems or questions, don’t hesitate to contact our 24/7 support team. Or via Whatsapp: 0912 785 500 for free advice and support.

Right now iRender has a SPECIAL PROMOTION program with a 100% bonus for the first transaction within 24 hours of your registration. It means that you can get an extra 100% of the money you recharged the first time. And points never expire, so you can use them at any time.

Sign up for an account today to experience and enjoy our services.

Thank you & Happy Rendering!

Source and image:Intel, Reddit, pugetsystems, cgdirector

Multiple graphics cards can help shorten rendering time, but what if multi-GPU rendering isn’t utilizing all your GPU cards? Scroll down to find out!

GPU rendering refers to the use of a graphics processing unit’s capabilities to render scenes or animations. It takes advantage of the GPU’s parallel processing power, VRAM, and limited CPU assistance to deliver much faster performance compared to CPU-only rendering. You can learn more about the advantages and disadvantages of GPU rendering in this article.

Multi-GPU rendering involves using two or more GPUs (graphics cards) at the same time for rendering tasks. This technique distributes the workload across all GPUs, greatly improving rendering speed, especially when working with complex 3D environments. Due to its performance benefits, many rendering engines are designed to support multi-GPU rendering. Well-known engines that utilize this approach include Redshift, Octane Render, Blender Cycles, and V-Ray.

One of the most common issues iRender helps users solve is when the render engine fails to utilize all available GPU cards during multi-GPU rendering. The first step in troubleshooting this problem is checking GPU usage. While Task Manager is a typical tool for monitoring hardware, in our experience, its readings can sometimes be inaccurate. Therefore, we always verify performance with additional tools. We recommend using MSI Afterburner, Nvidia-SMI, or GPU-Z as more reliable alternatives.

MSI Afterburner is a widely used tool for overclocking graphics cards, allowing users to tweak and monitor various GPU settings. Although it’s developed by MSI, the software works with most GPU brands like NVIDIA, AMD.

In addition to overclocking, it enables users to keep track of critical stats like CPU and GPU temperature, frame rate (FPS), memory usage, and fan speeds—all of which help ensure better performance and system stability. 

You can enable the on-screen display (OSD) to get live hardware performance updates while rendering, or open the app and navigate to the GPU Usage section to view how each graphics card is performing during multi-GPU rendering.

GPU-Z, developed by TechPowerUp, is a compact and powerful tool that gives in-depth information about your GPU. Its core purpose is to show details such as the graphics card’s model, brand, memory type, and much more. On top of that, it provides real-time monitoring of GPU performance metrics like temperature, usage levels, memory load, and clock speeds—helpful for assessing both efficiency and thermal output.

It’s compatible with a wide array of GPUs, including models from NVIDIA, AMD, ATI, and Intel, and works on most Windows systems. A notable perk is that GPU-Z can be run without installation, making it extremely convenient. 

For users working with multi-GPU rendering, GPU-Z is especially valuable, as it allows real-time tracking of each GPU’s performance, useful for diagnosing issues or identifying which cards are delivering the best results.

Nvidia-SMI (short for NVIDIA System Management Interface) is a command-line utility provided by NVIDIA, designed for monitoring and controlling NVIDIA GPU hardware.

It offers comprehensive system information, including GPU count, model names, memory allocations, and usage stats. One of its key strengths is the ability to observe real-time GPU data—like temperature, power draw, memory consumption, and clock speeds—which is critical for avoiding performance drops due to overheating during demanding rendering tasks.

This tool is especially helpful when diagnosing multi-GPU rendering issues. If performance isn’t as expected, you can use Nvidia-SMI to check whether GPUs are being properly utilized or if there’s a thermal or memory bottleneck affecting the system. 

Additionally, it lets users tweak settings such as power limits and fan control, giving more flexibility in optimizing the GPU environment for rendering workloads.

iRender has compiled several practical solutions that have proven effective in getting render engines to make full use of all available GPU cards. You can try each method one by one to see which one works best in your specific case:

• Switch between CUDA and OPTIX rendering modes.
• Update to the latest GPU driver—or try downgrading to a previous version.
• Enable or disable Hardware-accelerated GPU scheduling in your system settings.
• Disable CPU rendering. In some engines like Redshift or Blender, enabling both GPU and CPU rendering can actually slow things down, and may prevent some GPUs from operating at full capacity. Turning off CPU rendering often helps resolve this issue.

If none of these workarounds resolve the problem—either some GPUs are still inactive or their usage levels are uneven—the underlying issue may be related to the CPU or the complexity of the scene.

Even in GPU rendering workflows, the CPU plays a vital role in sending necessary data to the GPUs. If your GPUs are significantly more powerful than the CPU, a bottleneck can occur where GPUs are forced to wait for the CPU, resulting in idle time for some cards.

Additionally, if the scene you’re rendering is relatively simple, it may not be demanding enough to fully utilize all GPUs. In such cases, consider rendering on a system with fewer GPUs to ensure more efficient hardware usage.

iRender provides high-configuration machines with upmarket specifications: high-end GPUs including 1/2/4/6/8 x RTX4090 or RTX3090 with strong CPUs such as AMD Ryzen™ Threadripper™ PRO 3955WX @ 3.9 – 4.2GHz or AMD Ryzen™ Threadripper™ PRO 5975WX @ 3.6 – 4.5GHz, RAM 256GB, and Storage NVMe SSD 2TB, which can dramatically enhance the speed of GPU rendering.  Most importantly, we always update to the latest GPU technology.

Why can iRender be a great render farm for you?

In addition to high-configuration servers, iRender provides many other utilities to provide the best user experience.

• Dedicated server for individuals: You have full control and access to the server you rent. The working environment (installed apps, files) will be stored for the next use.
• Easy and free file transfer between your computer and iRender’s server: The transferring task can be done via iRender GPU application for Windows and the iRender Drive application for MacOS.
• 24/7 assistance: iRender’s attentive agents are always ready to support all your queries.
• All software compatibility: iRender’s PCs are built to meet the configuration needs of all 3D software and rendering tools at a variety of cost levels for users to choose from.

Let’s see how fast it renders on our servers!

Currently, we have a promotion for new users. You will receive a 100% bonus for the first transaction within 24 hours of your registration. REGISTER NOW to get the free trial today—don’t miss out!

If you have any questions, please contact me at duongdt@irender.vn or our 24/7 support team for a quick response.

Thank you for reading & Happy New Year!

Source: Microsoft, MSI, NVDIA, TechPowerUp, Massedcompute, Baeldung

Cinema 4D continues to be one of the most powerful and artist-friendly 3D software platforms available today. Its intuitive interface, robust animation toolset, and tight integration with rendering engines like Redshift, Octane, and Arnold make it a go-to for motion designers, VFX artists, and 3D professionals around the world.

In 2025, the performance of your GPU is still one of the most critical factors in how fast—and how smoothly—you can create and render your projects in Cinema 4D. Whether you’re rendering frames for a product animation, a music video, or a full-on cinematic sequence, having the right graphics card can save hours or even days. Let’s break down the top GPU choices for Cinema 4D in 2025 and help you decide which one fits your workflow best. In this blog post, let’s explore it with iRender.

Cinema 4D’s performance depends heavily on your graphics card, especially when paired with GPU-based render engines like Redshift and Octane. While CPU still plays a role, the GPU is doing the heavy lifting when it comes to real-time viewport performance and final frame rendering.

Cinema 4D has increasingly leaned on GPU acceleration for tasks like:

• Viewport performance: A smoother, more responsive viewport means faster iteration.
• Redshift rendering: Since Maxon acquired Redshift, its integration with Cinema 4D has become deeper and more optimized, and Redshift is a GPU-based renderer.
• Third-party GPU render engines: Octane, Arnold GPU, and Cycles 4D all benefit from a strong GPU.
  

For artists using Redshift (which is native to C4D now), CUDA and OptiX are the primary technologies used, meaning NVIDIA GPUs are still the top choice in most cases.

• VRAM: 24GB GDDR6X
  
• Rendering Performance: Industry-leading performance for both viewport interaction and final renders.
  
• Best For: Professionals working on high-resolution scenes and fast turnaround deadlines.
  

The RTX 4090 remains unmatched for GPU rendering in 2025. If you use Redshift, Octane, or Arnold GPU, this is the best choice—no question.

• VRAM: 20GB GDDR6X
  
• Rendering Performance: Slightly behind the 4090, but still a beast.
  
• Best For: High-end freelancers and studios on a tighter budget.
  

The 4080 Super is a strong contender, especially for users who don’t need the full 24GB of VRAM. Excellent for most professional workloads.

• VRAM: 48GB GDDR6
  
• Rendering Performance: Fantastic for memory-intensive workloads.
  
• Best For: Artists using Mac or looking for a large VRAM buffer.
  

While not as fast in pure CUDA-based engines, the W7900 shines for projects where memory limits are a bottleneck.

• VRAM: 48GB
  
• Rendering Performance: Enterprise-level power, optimized for stability.
  
• Best For: Large studios, production houses, and heavy simulation/render farms.
  

This card is built for reliability over long renders and simulations. Pricey, but ideal for demanding pipelines.

• Unified Memory: Up to 192GB
  
• Rendering Performance: Great performance in native Metal-supported renderers like Redshift for Mac.
  
• Best For: Mac-based designers prioritizing integration and ecosystem.
  

The M3 Ultra is a monster when it comes to general performance and rendering, especially if you’re locked into Apple’s ecosystem.

• Beginner or Hobbyist:

If you’re a beginner or hobbyist just starting out in Cinema 4D, the NVIDIA RTX 4070 Super is a fantastic entry point in 2025. It offers a great balance between cost and performance, making it ideal for learning, personal projects, and light client work. With enough CUDA cores and VRAM to handle Redshift and Octane renders on a moderate scale, it’s perfect for students or aspiring freelancers.

• Freelancer or Mid-Level Pro

For freelancers or mid-level professionals who handle more demanding projects and client work regularly, the NVIDIA RTX 4080 Super is highly recommended. It delivers excellent performance for complex scenes, significantly faster render times, and long-term reliability. This card is a great investment if you’re working on commercials, 3D animations, or product visuals and want to future-proof your setup without going all the way to a 4090.

• Studio-Level Artist or VFX Professional

If you’re a studio artist, full-time 3D professional, or VFX creator handling high-resolution assets and tight deadlines, then the NVIDIA RTX 4090 is the clear winner. As the most powerful consumer GPU available in 2025, it offers blazing-fast render speeds, real-time interactivity, and enough VRAM for the heaviest of scenes. It’s the best card for serious production environments where every second counts.

• Large Studio or Enterprise

For large studios, VFX pipelines, or enterprise-level productions, the NVIDIA RTX 6000 Ada Generation stands out. With 48GB of ECC VRAM, pro-grade drivers, and ultra-reliable thermal performance, it’s built for constant rendering, simulations, and team-based pipelines. This card is ideal for large-scale projects and those who require absolute stability over long rendering sessions.

• Mac Users

Mac users have an increasingly strong option in the Apple M3 Ultra, found in the latest Mac Studio and Mac Pro machines. With up to 192GB of unified memory and strong Metal-accelerated performance in Redshift and Octane X, it offers a smooth and powerful experience within the Apple ecosystem. It’s a great choice for motion designers and 3D artists who also work with tools like Final Cut Pro or Logic Pro.

In 2025, there’s no shortage of powerful GPUs for Cinema 4D users. Whether you’re building your dream workstation or rendering on the cloud, the right choice depends on your specific workflow, renderer, and budget.

If you want full control and local power, the RTX 4090 is still king. But if flexibility, scalability, and budget are key, iRender is an incredibly smart and modern solution.

Moreover, if investing in expensive hardware isn’t feasible, or you only need high-end performance occasionally, cloud rendering with iRender is a powerful alternative. Platforms like iRender offer access to multi-GPU setups featuring RTX 4090s or 3090s, letting you scale your rendering power on demand. It’s especially useful for freelancers or small teams working on deadline-driven projects without the upfront cost of a high-end workstation.

In 2025, iRender stands out as one of the most powerful and flexible cloud rendering platforms available for Cinema 4D users. Whether you’re a freelancer, a small team, or part of a large studio, iRender gives you instant access to high-performance GPU servers—featuring top-tier hardware like the RTX 4090, RTX 3090, and even multi-GPU configurations. Most importantly, we always update to the latest GPU technology, with 1/2/4/6/8 x RTX3090/RTX4090, we also have all servers with Cinema4D preinstalled and give you 1 license for free to use.

Under the IaaS (Infrastructure as a Service) model you will have full control over the machine via a remote desktop app, similar to Teamviewer but more stable. You will be able to proactively install the software and use it on the server just like using a personal computer. You can find many server packages with high-end configurations that are extremely suitable for complex projects.

We’ve put the RTX 4090 and RTX 3090 to the test across different GPU configurations (1/2/4/6/8 GPUs) and the results are mind-blowing. In this video, we compare performance across 1, 2, 4, 6, and 8 GPUs to see how Cinema 4D and Redshift perform with multiple GPUs. Let’s watch the results and find out which GPU configuration offers the best balance of speed and efficiency!

We’re always happy to help you with any questions. If you have any problems or questions, don’t hesitate to contact our 24/7 support team. Or via Whatsapp: 0912 785 500 for free advice and support.

Right now, iRender has a SPECIAL PROMOTION program with a 100% bonus for the first transaction within 24 hours of your registration. It means that you can get an extra 100% of the money you recharged the first time. And points never expire, so you can use them at any time.

Sign up for an account today to experience and enjoy our services.

Thank you & Happy Rendering!

Blender is a powerful, free, and open-source 3D creation software supported by a large and active community. Starting your journey with animation in Blender is a great choice, especially if you’re new to this field.

Before jumping into animation in Blender, it’s a good idea to get familiar with some essential tools that will make the process easier and more efficient. 

• Constraints: 

Constraints are used to control how an object moves, rotates, or scales by linking it to another object or rule. They help automate complex motion, so you don’t have to animate everything manually, saving time and increasing realism.

• Motion paths: 

Motion Paths show the route an object or bone takes during an animation. This visual guide helps you fine-tune the movement and timing by showing where things go frame by frame.

• Drivers: 

Drivers let you control one property using another. For example, if you’re animating a clock, you can set up a driver so the hour hand moves automatically based on the rotation of the minute hand—no need to animate both separately.

• Shape keys: 

Shape Keys allow you to modify the shape of a mesh and blend between those shapes. They’re commonly used for facial expressions like smiling, blinking, or frowning. Combined with keyframes, Shape Keys bring characters to life.

• Rigging: 

Rigging creates a digital skeleton for your 3D model, allowing it to move in realistic ways. For example, rigging a human model helps joints bend naturally, which is essential for character animation.

• Keyframes: 

Keyframes mark specific positions or values at certain points in time. To animate something like a bouncing ball, you would insert keyframes at different frames to show where the ball is—on the ground, in the air, and back down again.

• Grease pencil: 

Grease Pencil lets you draw directly in 2D or 3D space. It’s perfect for sketching, storyboarding, or creating full 2D animations with layers, brushes, and editable strokes.

By learning and practicing with these tools, you’ll be well-prepared to handle many creative tasks involved in animation in Blender.

Here’s a simple guide to help you start making your own 2D animation in Blender:

1. Launch the 2D Workspace

Open Blender and select “2D Animation” from the screen. This will bring you directly into Blender’s dedicated 2D animation workspace, which is quite different from the typical 3D layout.

2. Start Drawing with the Grease Pencil

First, switch to Object Mode from the menu in the top-left corner. Then, create a Grease Pencil object, which acts as your drawing surface.

Next, change the mode to Draw Mode using the same drop-down. In this mode, you can begin sketching using Blender’s drawing tools.

Use the Grease Pencil to draw your characters and backgrounds. You can customize your brushes—adjusting thickness, opacity, and style—just like in most digital drawing apps. Be sure to add colors to bring your drawings to life!

3. Add Animation Using Keyframes and Motion Paths

Once your drawing is ready, it’s time to animate!

• Select your drawing, press I to insert a keyframe for its current position.
• Move the timeline to a new frame.
• Then draw a new pose and hit I again to insert another keyframe.
  Repeat this process to build up your character’s motion across frames.

For smaller objects or repeated elements, you can animate them using motion paths and keyframes without redrawing every single frame.

To enhance your animation, consider adding some visual effects—like a blurred background for depth or camera movements to add energy and focus.

4. Preview and Final Render

Use the Play button in the timeline to preview your animation in real time.

For a quick preview, go to the View menu and choose “Viewport Render Animation”. This lets you check the animation without fully rendering it.

Once you’re satisfied, follow Blender’s rendering process to produce the final animation file.

If you want a visual guide, check out the video “Blender 2D Animation Basics for Beginners – Grease Pencil Guide” by PolyPaint for a great walkthrough of the process.

Here’s a step-by-step overview to help you get started with creating 3D animation in Blender:

1. Start a New Project

To begin, open Blender and create a new project by going to the File menu, hovering over New, and selecting General. This sets up the workspace for 3D animation in Blender, not 2D.

2. Import and Prepare Your 3D Model

Bring your 3D character or object into Blender by navigating to File > Import. Choose the correct format (e.g., .obj or .fbx), locate your model, and click Import.

Once the model is in your scene, you’ll see it placed in the 3D viewport. You can import more objects as needed to build your scene. Set up lighting using Blender’s lighting tools to enhance the look of your environment.

To animate facial expressions or mesh changes, use Shape Keys to create various versions like smiling or blinking.

3. Animate with Keyframes and Animation Tools

Use Blender’s animation features—such as Constraints, Motion Paths, Drivers, and Keyframes—to bring your models to life.

• Go into Object Mode and press I to insert a keyframe, or go to Object > Animation > Insert Keyframe.
• Place keyframes at different moments in time to define the movement or transformation of your model.
• You can set keyframes for position, rotation, and scale—and even name them if your animation gets complex, making it easier to manage.

4. Refine Your Animation

Go through your timeline and tweak your keyframes to make the motion smoother. You can adjust the interpolation type (e.g., linear, bezier) to control how movement transitions between keyframes. Don’t forget to animate smaller details to give your work a polished feel.

5. Add Sound and Camera Motion

To include sound in your animation:

• Switch to the Video Sequencer from the top-left editor menu.
• Press Shift + A, select Sound, and load your audio file.
• You can drag the sound strip along the timeline to sync it with your animation.

Adding camera movement also helps bring your scene to life. You can animate the camera just like any other object using keyframes.

6. Preview and Render

Before final rendering, use Blender’s Viewport Render Animation option to preview your scene and make any necessary tweaks. Since rendering can take time, this helps catch errors early.

When you’re happy with the result, let’s render the full animation. You may want to check some tips to optimize Blender Cycles and Eevee for fast rendering here.

Need help learning the ropes? Check out beginner-friendly tutorials like:
“How to Animate in Blender: Learning the Basics” by Alex on Story
“Animation for Beginners! Blender Tutorial” by Ryan King Art

These are great starting points to level up your skills with 3D animation in Blender.

iRender provides private high-configuration machines with upmarket specifications that excel in rendering, like AMD Ryzen™ Threadripper™ PRO 3955WX @ 3.9 – 4.2GHz or AMD Ryzen™ Threadripper™ PRO 5975WX @ 3.6 – 4.5GHz, 1/2/4/6/8 x RTX4090 or RTX3090,  RAM 256GB, Storage NVMe SSD 2TB.

Why can iRender be a great render farm for you?

In addition to high-configuration servers, iRender provides many other utilities to provide the best user experience.

• Dedicated server for individuals: You have full control and access to the server you rent. The working environment (installed apps, files) will be stored for the next use.
• Easy and free file transfer between your computer and iRender’s server: The transferring task can be done via iRender GPU application for Windows and the iRender Drive application for MacOS.
• 24/7 assistance: iRender’s attentive agents are always ready to support all your queries.
• All software compatibility: iRender’s PCs are built to meet the configuration needs of all 3D software and rendering tools at a variety of cost levels for users to choose from.

Let’s see how fast Blender renders on iRender’s machines!

New users will get a 100% bonus for the first transaction within 24 hours of their registration. No minimum amount!! If you top up 50$, you will get 100 points in total to hire our machines.

REGISTER NOW

If you have any questions, please get in touch with me through email duongdt@irender.vn or our 24/7 support team for a quick response.

Thank you for reading

Image and information source: Skillshare, Vagon, Blender, PolyPaint

OctaneRender 2025 continues to be a top option for 3D artists looking for speed and quality. Known for its GPU-based rendering capabilities, Octane requires powerful, well-optimized hardware to truly shine.  Advancements in GPU architecture, CPU performance, and memory bandwidth have opened new possibilities for creators and studios alike. This blog explores the best PCs for Octane rendering in 2025, highlighting systems that deliver exceptional performance, reliability, and efficiency. 

Let’s start with iRender!

Realistic Lens Camera

In OctaneStudio+ 2025, the Spectral Camera LensFX is one of the most intriguing new features. By simulating the complex optical characteristics of actual camera lenses, this feature provides rendering realism that is unmatched. Lenses from Zeiss, Canon, and Nikon can be replicated by artists using effects like chromatic aberration, bokeh, barrel distortion, and optical vignetting. Artists can achieve realistic depth of field effects by adjusting the aperture settings, focal length, and focus points.

Rest Attributes

Rest position attributes remove texture shifting/distortion when using a texture projection that is not UV mapped (no UVs on the mesh) on a mesh with animated vertices. When enabled, the projections will use rest vertex positions and normals to calculate the UVW coordinates. 

Vectron Displacement 

In OctaneRender 2025, Vectron Displacement is a sophisticated feature that enhances the ability to create intricate and detailed surface textures and geometries by leveraging vector functions to define displacement maps.

Render Network Browser

The Render Network Browser facilitates distributed rendering by allowing users to execute rendering tasks across multiple computers. This can significantly speed up render times, especially for complex scenes requiring substantial computational power. The Render Network Browser is now a native panel within OctaneStudio+, providing seamless access to OTOYs distributed GPU rendering service.

Performance Boosts for Apple Users

With the addition of support for non-triangle primitives including hair, texture displacement, and analytic lights, Octane 2025.1 enhances the hardware acceleration capabilities of Octane 2024.1 on Apple M3 and M4 GPUs.

Hardware requirement:

• OctaneRender requires the latest CUDA® 10 drivers and a CUDA-enabled NVIDIA® video card with support for compute capability 3.0 or higher. 
• OctaneRender also requires a minimum of 8 GB RAM, and we recommend 16 GB or more.
• GeForce cards are fast and cost-effective, but have less VRAM than Quadro and Tesla cards.
• OctaneRender does not use the CPU for rendering; a fast multi-core CPU is not required, but it does significantly improve scene-loading speeds.

Software requirements 

• Operating System: Windows: Windows 10 (64-bit) or Windows 11 (64-bit), Linux: Latest stable distributions (like Ubuntu or CentOS),  macOS: The latest stable version that supports OctaneRender.
• 3D Software Compatibility: OctaneRender typically works as a standalone application or as a plugin for various 3D software such ass Cinema 4D, Blender, Houdini, 3Ds max…
• Graphics Driver: Latest NVIDIA graphics driver compatible with your GPU for optimal performance and support for CUDA.
• CUDA Toolkit: While not always explicitly required for Octane itself, having the latest CUDA toolkit installed can be beneficial if your projects depend on certain functionalities that require it.
• Network Connectivity: A stable internet connection may be necessary for license management, updates, and accessing online resources or services.
• Licensing Software: Ensure that you have the licensing software or accounts set up with OTOY for accessing OctaneRender features.

OctaneRender Studio+ specifications:

• Requires a CUDA® 10 capable NVIDIA® graphics card on Windows/Linux
• Octane X requires an Apple M1/M2 GPU (MacOS 13+ | iOS and iPadOS 16+) or AMD Vega/Navi GPU (MacOS 10.15.6+ | MacOS 11 | MacOS 12)
• Use of the software is available only while online, connected via the internet to the OctaneRender licensing server.

The ideal setup for Octane Render would be a top-tier NVIDIA GPU with lots of VRAM and CUDA cores. Since Octane Render is a computationally demanding renderer, a strong GPU with a large number of CUDA cores is necessary to manage the necessary computations. Additionally, since Octane Render loads textures and assets into GPU memory, a fast storage solution, such SSDs, is advised. The more powerful the GPU the better the performance of Octane Render. Check out our recommended configurations.

Processor(CPU)

Although Octane Render primarily relies on GPU rendering for its speed and efficiency, the CPU plays an essential role in managing data, handling scene data, performing simulations, and executing tasks that cannot be offloaded to the GPU. Tasks such as importing and exporting files, running plugins, and ancillary calculations may leverage CPU performance. CPUs with multiple cores (6 or more) are recommended. Modern rendering applications benefit from multi-threading, allowing them to process multiple tasks simultaneously.

Best CPU for OctaneRender

Intel Core i9-13900K

• Cores/Threads: 24 (8 Performance cores and 16 Efficient cores)
• Base/Boost Clock: 3.0 GHz / Up to 5.8 GHz
• Architecture: Raptor Lake
• Strengths: Excellent single-thread and multi-thread performance, high clock speeds, and supports DDR5 RAM.

Intel Core i7-13700K

• Cores/Threads: 16 (8 Performance cores and 8 Efficient cores)
• Base/Boost Clock: 3.4 GHz / Up to 5.4 GHz
• Architecture: Raptor Lake
• Strengths: Good balance of performance and price, high efficiency for both gaming and productivity tasks.

AMD Ryzen Threadripper™ PRO 7995

• Cores/Threads: 16 cores / 32 threads
• Base/Boost Clock: 4.5 GHz / Up to 5.7 GHz
• Architecture: Zen 4
• Strengths: Strong multi-threaded performance, high efficiency, and good for parallel workloads, especially in rendering.

Graphic Card (GPU)

OctaneRender is a GPU-based rendering engine developed by Otoy, and it utilizes the power of modern Graphics Processing Units (GPUs) to perform rendering tasks far more efficiently compared to traditional CPU-based rendering methods. There are two aspects of a video card that impact render capabilities: the raw speed of the GPU itself and the amount of memory on the card.

You should choose a GPU with sufficient VRAM based on the complexity of the scenes you work with. Higher VRAM capacity allows you to render more detailed scenes without running into memory limitations.

Best GPU for Octane 

NVIDIA Geforce RTX 5090

The NVIDIA® GeForce RTXTM 5090 is the most powerful GeForce GPU ever produced, offering creators and gamers revolutionary capabilities. With unmatched AI power, take on the most complex models and difficult creative tasks. The game that has the lowest latency and complete ray tracing. You can do it all with the GeForce RTX 5090’s 32 GB of lightning-fast GDDR7 memory and NVIDIA Blackwell architecture.

NVIDIA Geforce RTX 4090

The NVIDIA® GeForce RTX™ 4090 is the ultimate GeForce GPU. It brings an enormous leap in performance, efficiency, and AI-powered graphics. Experience ultra-high performance gaming, incredibly detailed virtual worlds, unprecedented productivity, and new ways to create. It’s powered by the NVIDIA Ada Lovelace architecture and comes with 24 GB of G6X memory to deliver the ultimate experience for gamers and creators.

The RTX 4090 excels in real-time ray tracing thanks to its advanced RT cores. This allows for more detailed and realistic lighting, shadows, and reflections in renders. With 24 GB of GDDR6X VRAM, the RTX 4090 can handle very complex scenes and high-resolution textures without running into memory constraints. This is particularly beneficial for professional rendering tasks where scene complexity can be significant.

NVIDIA Geforce RTX 4080

The NVIDIA GeForce RTX 4080, released in November 2022, is part of NVIDIA’s 40 series lineup, built on the Ada Lovelace architecture. It offers a strong combination of performance, efficiency, and advanced features that make it suitable for gaming, content creation, and rendering tasks, including use with applications like OctaneRender. With 16 GB of GDDR6X, the RTX 4080 provides sufficient memory for rendering tasks, allowing for the handling of complex scenes and high-resolution textures.

NVIDIA Geforce RTX 3090

RTX 3090 was the flagship model of the 30 series of GPUs based on the Ampere architecture. It was designed for high-end gaming, content creation, and professional workloads, including applications like OctaneRender and other GPU-accelerated tasks. With 24 GB of GDDR6X VRAM, the RTX 3090 excels in handling high-resolution textures and complex models.

You can follow a comparative overview of the NVIDIA GeForce RTX 3090, RTX 4090, and RTX 5090 based on their specifications, performance features, and target audiences.

Let’s see a benchmark of the top GPUs for Octane 2025 following: 

Memory (RAM)

In OctaneRender, a significant amount of rendering processing happens on the GPU (Graphics Processing Unit). The VRAM (graphics memory) of your GPU is crucial for handling the textures and geometry of your render. Therefore, if you are using high-end GPUs like the NVIDIA RTX 3090 or RTX 4090, their ample VRAM (24 GB and 24 GB, respectively) will also support larger renders without significant issues. However, having sufficient system RAM is still important for the overall performance of your system.

For professional work, especially if you are dealing with very high-resolution renders, complex scenes with many textures, and potentially using multiple applications simultaneously, 32 GB or more is advisable. High-end users, such as VFX artists or architectural visualizers, often benefit from 64 GB or more, particularly when rendering complex animations or using multiple computer applications.

Storage (Drives)

We highly recommend solid-state drives (SSDs) for both the OctaneRender installation and the primary drive that will house your operating system because to their speed and reasonably priced nature. Compared to a typical hard drive, an SSD’s high speed enables your system to boot, open apps, and load files several times faster. The most recent NVMe SSDs, in particular, offer the quickest transfer rates and make use of the newest interfaces, such as M.2.

Ultimately, the best PCs for OctaneRender in 2025 are those well-balanced configurations that prioritize both GPU and CPU performance, sufficient RAM, and high-speed storage. By aligning your hardware choices with the requirements of OctaneRender and the demands of your projects, you can maximize productivity while achieving stunning visual results that push the boundaries of creativity in the realm of 3D rendering.

iRender is a perfect option to render projects in PC optimization for rendering tasks, CGI, and VFX with over 30.000 customers. To bring the best experiences for customers, iRender has been improving the quality and updating the newest technology every day. We provide high-configuration dedicated servers (physical computers/machines) specifically optimized for GPU rendering.

iRender’s configuration

• Operating System: Windows 10/11, Linux
• CPU: AMD Ryzen™ Threadripper™ PRO 3955WX @ 3.9 – 4.2GHz, AMD Ryzen™ Threadripper™ PRO 5975WX @ 3.6 – 4.5GHz
• GPU: NVIDIA RTX 3090, NVIDIA RTX 4090
• RAM: 256 GB 
• VRAM: 24 GB 
• Disk Space: Fast SSD with space for scene files and textures (1.56TB )

We provide high-configuration dedicated servers (physical machines/computers) that are specifically configured and optimized for GPU rendering. We support Windows 10/11 and Linux, providing flexibility for a wide range of users. In addition to offering powerful configurations, all servers at iRender are also equipped with AMD Ryzen™ Threadripper™ PRO 3955WX @ 3.9 – 4.2GHz or AMD Ryzen™ Threadripper™ PRO 5975WX @ 3.6 – 4.5GHz. This multi-core architecture enables seamless handling of complex renders and multi-threaded workflows.

iRender offers from 1/2/4/6/8 RTX 4090 and 3090. The graphics powerhouse integral to this setup is the NVIDIA RTX 3090, boasting an impressive 24 GB of VRAM, which enhances rendering performance and allows for detailed texture management in intricate scenes. The system is equipped with 256 GB RAM, ensuring ample memory for intensive tasks and the capability to manage large datasets without sluggishness. To further complement the hardware, a fast SSD with at least 1.56 TB of disk space is recommended, ensuring rapid access to scene files and textures, which is crucial for a streamlined workflow.

You can refer all our servers’ configuration following:

If you are using OctaneRender Studio+, you can use up to 10 GPUs simultaneously. Therefore, you can refer all multi cards server from 2 cards RTX 4090 to 8 cards RTX 4090. Please have a look at the performance test video of Octane scene following:

We suggest Windows users work with our all-in-one application, iRender GPU instead of coming our website. For Linux or macOS users, we provide a helpful and free transferring program called iRender drive. You can take a look at this video For Windows or For Mac OS to understand our workflow.

In case you have any problems or questions, don’t hesitate to contact the 24/7 support team. We will be happy to help you with your questions and problems at all times.

This month, we are running a SPECIAL OFFER: 100% Additional Bonus for new clients who register an account and make a top-up within 24 hours after their registration.

Moreover, On this special occasion of Vietnamese Reunification Day, celebrated on April 30th, iRender extend warmest wishes to all our users, partners, and friends around the world.

• 50% BONUS for all transactions from $575
• 100% BONUS for all transactions from $1500

In this blog, we’ll explore what MPFB 2 is all about — its key features, how to set it up, and why it could be a valuable addition to your rendering and character creation workflow in Blender. 

Let’s discover with iRender!

As we all know, Blender is a popular software in the 3D artist community. Blender is an open-source software developed to support the creation and processing of 3D graphics. 

MPFB stands for MakeHuman Plugin for Blender. This plugin supports the connection between MakeHuman (3D character modeling) and Blender (3D design and rendering software). MPFB helps users easily transfer models from MakeHuman to Blender for editing or animation.

Its features include:

• • • One-click-create a humanoid mesh
    • Parametric modeling of body features
    • Automatic rigging with a choice from several different rigs
    • Support for Rigify
    • Rigging with both IK and FK modes
    • Procedural skin material
    • Procedural eyes material
    • Asset library with support for clothes, body parts and materials

MPFB is developed by the MakeHuman Community, and it is fully compatible with all MakeHuman assets.

MPFB 2 is the latest version of the plugin that connects MakeHuman and Blender. It is completely rewritten compared to the old MPFB to bring a smoother experience. MPFB 2 is not just a tool to “import characters into Blender” but a complete set of tools for creating, editing, and rendering characters right in Blender.

Some highlights of MPFB 2:

• • • Quick Import: It allows you to create characters directly inside Blender without needing to export files from MakeHuman. You can generate a new character with just a few clicks using the “New Human” option in the MPFB interface. If you already have a MakeHuman (.mhm) file, you can open it directly in Blender—no need to export as .obj or .dae.
    • Preserves Rig (Bones): MPFB 2 supports automatic rigging with several options, including Rigify, Blender’s advanced rigging system. You can add a Rigify meta-rig and generate a full rig for your character. The rig supports both IK and FK, along with helpers for hands, feet, eyes, etc.
    • Advanced Materials and Textures: Including procedural materials for skin and eyes, MPFB 2 allows it to generate high-quality shaders compatible with both Eevee and Cycles. This saves a lot of time on material setup and gives realistic render results.
    • Edit Directly in Blender: MPFB 2 lets you edit body shape, clothing, hair, and other character features directly within Blender using parameter controls. Changes are applied in real-time, making it easy to customize your character without going back to MakeHuman.
    • Modular and Extendable: MPFB 2 is designed with a modular, open architecture, making it easy to integrate into larger pipelines or combine with other Blender plugins. It supports asset libraries for clothing, body parts, and materials, and can be extended further via its API.

One important thing to note is that MPFB 2 is compatible with Blender 4.2+. MPFB 2 is still under active development, so if you want access to the latest features (with the fewest bugs), it’s recommended to use the latest Blender version available and always update MPFB 2 from the official GitHub repository, as new releases often include bug fixes and compatibility improvements. If you’re using a Blender version lower than 4.2, MPFB 2 may not function properly or could cause errors.

If you’re looking for a fast and professional solution for creating 3D characters, MPFB 2 (MakeHuman Plugin for Blender) is the perfect tool for you. Here are the key reasons why: 

• • • Create 3D Characters Quickly and Professionally

MPFB 2 allows you to build characters from scratch directly inside Blender, with hundreds of customization options for body shape, face, clothing, and hair. With just a few clicks, you’ll have a fully functional character—no file conversion or external software required.

• • •  Preserve Character Quality When Importing to Blender

No more broken meshes, missing textures, or incorrect rigs when importing. MPFB 2 ensures that every detail—from body proportions to skeleton and materials—is accurately and completely transferred.

• • •  Save Time on Rig and Material Setup

MPFB 2 supports automatic rigging (including Rigify) and comes with high-quality shaders ready for both Eevee and Cycles. There’s no need to spend hours manually setting up rigs or recreating materials—everything is ready for rendering or animation out of the box.

• • •  Clear Workflow, Easy to Edit, and Animation-Ready

You can easily customize body shapes, clothes, hair, and more—all within Blender. Apply dynamic rigs, facial expressions, poses, and animations with ease. Seamlessly integrates with other tools like Auto-Rig Pro, Face Cap, Mixamo, and more.

This is a modern, streamlined, and flexible workflow—perfect for solo artists and professional teams alike.

Once you have a fully-fledged 3D character created using MPFB 2, with a rig and materials ready for animation, then how to render high-quality images or videos quickly?

While Blender is great for modeling and rendering, the reality is that rendering – especially with Cycles – is resource-intensive and can slow down your workflow, especially on low-end machines. And that’s where iRender comes in. 

iRender provides high-configuration servers that increase CPU and GPU rendering speeds. We offer the most powerful RTX 4090 configuration packages on the market, all equipped with AMD Ryzen™ Threadripper™ PRO 3955WX @ 3.9 – 4.2GHz and AMD Ryzen™ Threadripper™ PRO 5975WX @ 3.6 – 4.5GHz processors, 256GB RAM and 2T NVMe SSD hard drive capacity. With a wide range of GPU servers (1/2/4/6/8x) – RTX 4090, you can choose the server that suits your needs to start the rendering process.

Let’s see how fast Blender renders on iRender’s servers with powerful RTX 4090!

In addition, this month, celebrate the Vietnam Reunification Day with a supercharged BONUS for your rendering projects! Don’t miss out on this fantastic opportunity to boost your power and save big!

For more detailed information, please contact us via Live chat 24/7 or WhatsApp: +(84)915875500 or Email: vyvtk@irender.vn

iRender – Happy Rendering!

References: extensions.blender.org, cgchannel.com