Blackwood (2026) DirectX 11 vs DirectX 12 Performance Comparison: Which API to Choose?

Blackwood (2026) is shaping up to be the kind of game that can make you forget about your graphics settings for a while—right up until a firefight suddenly turns your smooth 60 FPS into a slideshow. Developed by AttritoM7 Productions and published by IZilla Games, the tactical noir action-thriller combines a detailed version of 2012 New York with third-person combat, dense interiors, physics-heavy environments, and plenty of cinematic action. After seeing how demanding modern games can be, I was particularly interested in one technical choice: whether Blackwood is better played using DirectX 11 or DirectX 12.

The interesting part is that there isn’t a universal winner. Blackwood supports both APIs, and the better option depends heavily on the age of your CPU and GPU. Older hardware can sometimes benefit from the simpler behavior of DX11, while newer systems generally have more to gain from DX12’s ability to spread rendering work across multiple CPU threads. If you’re trying to get the best FPS, frame pacing, and overall smoothness from Blackwood, understanding that difference is more useful than simply choosing the newer API.

BLACKWOOD Steam Deck Best Performance Layout & Optimization Guide

DirectX 11 vs DirectX 12 in Blackwood: What Actually Changes?

At first glance, choosing between two DirectX versions sounds like a minor graphics setting. In practice, it can change how efficiently the entire game communicates with your hardware. DirectX 11 is a higher-level API that leaves much of the resource and rendering management to the graphics driver. That approach has been extremely reliable for years, but it can become restrictive when a modern game throws thousands of objects, animations, physics calculations, and rendering commands at the CPU.

DirectX 12 takes a much lower-level approach. It gives the game engine considerably more control over how rendering commands are scheduled and allows developers to take better advantage of multiple CPU cores. That matters in Blackwood because its environments aren’t exactly empty corridors. The combination of urban scenery, destructible objects, detailed interiors, AI, physics, and combat animations creates a workload where CPU efficiency can become just as important as raw GPU horsepower.

Why Blackwood Can Be CPU Heavy

One thing I always pay attention to when testing a PC game is not just the average FPS, but what the CPU is doing when the game starts struggling. A graphics card can be sitting at 70 or 80 percent utilization while one CPU thread is completely saturated. When that happens, upgrading the GPU isn’t necessarily going to fix the problem because the processor is effectively holding the graphics card back.

This is where DirectX 11 can show its age in a game such as Blackwood. On processors like the Ryzen 5 3600 or Core i5-10400F, demanding scenes can put significant pressure on individual CPU threads. During intense combat, rapid movement through busy environments, or transitions into heavily populated areas, that bottleneck can become noticeable as a reduction in frame rate or inconsistent frame delivery.

DirectX 12 gives the engine more opportunities to divide rendering work between CPU cores. It doesn’t magically make every processor faster, and the quality of the game’s implementation still matters, but on a modern six-core or eight-core processor, the additional parallelism can make a meaningful difference. In my experience with PC games generally, this is often where DX12 feels better even when the FPS counter itself doesn’t show a dramatic improvement.

DirectX 11 Performance on Older GPUs

If you’re playing Blackwood on hardware closer to the minimum requirements, I wouldn’t automatically assume that DX12 is the correct choice. Older graphics cards such as the GTX 1650 or Radeon RX 570 can sometimes produce better average FPS under DirectX 11. That might sound strange in 2026, but API performance isn’t determined simply by which version number is larger.

Entry-level and older GPUs generally have fewer resources available for dealing with demanding modern rendering workloads. When you combine limited GPU horsepower with only 4GB of VRAM, aggressive settings can quickly become a problem. In that situation, DX11 may provide a more predictable experience, especially if you’re already playing at 1080p on Low or Medium settings.

There is also a practical advantage here: DX11 has been around for a very long time. Drivers, engines, and games have had years to mature around it. If your PC is older and you simply want Blackwood to run without spending an evening troubleshooting strange behavior, DX11 is absolutely worth testing first.

When DirectX 12 Starts Pulling Ahead

The situation changes considerably once you move to modern hardware. A graphics card such as an RTX 3060, RTX 4060, RX 6600, RX 7000-series card, or Intel Arc GPU is much more likely to benefit from Blackwood’s DX12 renderer. The average FPS increase may not look spectacular in every scene, but that isn’t really the most important metric.

For me, the biggest advantage of DX12 is often frame-time consistency. A game can report 80 FPS and still feel strangely uneven if individual frames are taking wildly different amounts of time to render. Blackwood’s fast transitions between exploration, cinematic sequences, close-quarters encounters, and larger combat situations make those inconsistencies much easier to notice.

With a capable modern CPU and GPU, DX12 can keep the hardware busier and distribute rendering tasks more efficiently. Instead of relying heavily on one or two CPU threads, the engine can make better use of the available processing resources. This becomes especially valuable at 1080p and 1440p, where the GPU has an easier workload and CPU limitations become more visible.

Average FPS Isn’t the Whole Story

One of the easiest mistakes when comparing DirectX 11 and DirectX 12 is looking only at the average FPS number. If DX11 gives you 74 FPS and DX12 gives you 77 FPS, it is tempting to conclude that there is almost no difference. But if DX12 has significantly better 1% lows and fewer sudden frame-time spikes, it can feel much smoother despite the tiny average-FPS advantage.

This matters even more in Blackwood because combat is built around quick reactions. A short hitch during an exploration sequence is annoying, but a hitch when an enemy appears around a corner or during a close-range takedown can genuinely affect gameplay. For that reason, I’d personally prioritize stable frame pacing over a small increase in the average FPS counter.

The Shader Compilation Problem

Shader compilation has become one of the most frustrating parts of PC gaming, and Blackwood is not completely separated from that issue. Shaders control how the GPU handles things such as lighting, materials, shadows, and visual effects. When a shader hasn’t been compiled yet, the game can sometimes pause briefly while the necessary data is prepared.

With DirectX 11, some of this work can happen dynamically through the driver. That means you may encounter a small hitch the first time a particular effect appears. Fire a weapon, enter a new location, destroy an object, or trigger a specific visual effect, and you might experience a brief interruption while the relevant shader is compiled and cached.

DirectX 12 can approach this differently by allowing the game engine to take greater control over shader preparation. The first launch or initial loading process may take longer because shaders are being prepared, but the benefit is potentially fewer interruptions once you’re actually playing. I’d much rather wait an extra minute before starting a game than deal with repeated micro-stutters during combat.

Blackwood Graphics Settings and Upscaling

The difference between the two APIs isn’t limited to raw performance. Modern graphics features increasingly favor DirectX 12, particularly when developers implement more advanced rendering techniques. If Blackwood receives additional features involving sophisticated lighting, global illumination, or other demanding graphical systems, DX12 is the more natural foundation for those technologies.

The same applies to upscaling. Technologies such as Nvidia DLSS, AMD FSR, and Intel XeSS can be extremely useful when playing at 1440p or 4K, especially when the game is already demanding. If you’re using a modern GPU and trying to balance image quality with performance, DX12 is generally the API I’d start with before experimenting with resolution scaling and other settings.

Which DirectX Version Should You Use?

There isn’t a single setting that I would recommend to every Blackwood player. Instead, I’d treat DX11 and DX12 as two different tools designed to suit different generations of hardware. If your PC is relatively old, start with DX11 and see whether it provides the most consistent results. If you’re running a modern six-core-or-better CPU paired with a contemporary GPU, DX12 should be your first choice.

Choose DirectX 11 If:

• You are using an older GPU with 4GB of VRAM or less.
• Your graphics card is from an older generation such as the GTX 10-series, GTX 16-series, or Radeon RX 500 family.
• Your processor is an older quad-core or otherwise struggles with modern multi-threaded workloads.
• You care more about maximum average FPS than perfect frame pacing.
• DX12 causes crashes, unusual stuttering, or inconsistent performance on your particular system.

Choose DirectX 12 If:

• You have a modern GPU such as an RTX 20-series or newer, RX 6000-series or newer, or Intel Arc.
• Your CPU has at least six cores and twelve threads and is reasonably modern.
• You want better frame pacing and stronger 1% low performance.
• You intend to use DLSS, FSR, or XeSS at higher resolutions.
• You want to minimize gameplay interruptions caused by shader compilation.

My Pick for Blackwood

If I were setting up Blackwood on a modern gaming PC, I’d start with DirectX 12 without much hesitation. The main reason isn’t that I expect some enormous 20 or 30 percent FPS advantage. Instead, the combination of better CPU scaling, potentially stronger 1% lows, and smoother frame delivery makes more sense for the type of game Blackwood is trying to be.

That said, I wouldn’t dismiss DX11. PC gaming is full of situations where the supposedly older option ends up being the better one on a particular configuration. If you’re using a GTX 1650, RX 570, or another older 4GB card, DX11 may deliver the more predictable experience, and there is nothing wrong with choosing stability over newer technology.

The most important thing is to test both modes on your own hardware rather than trusting a single benchmark. Run the same area, use identical graphics settings, and pay attention to 1% lows, frame-time consistency, GPU utilization, and how the game feels during combat. If DX12 gives you slightly higher FPS but noticeably smoother gameplay, that’s the version I’d keep. If DX11 produces fewer hitches on an older PC, stick with it.

Final Verdict

DirectX 12 is the better overall choice for modern Blackwood systems, while DirectX 11 remains a valuable option for older PCs. That’s probably the most sensible conclusion after looking at how the two APIs interact with different generations of hardware. DX12 makes more sense when you have a capable multi-core processor and modern graphics card, while DX11 can still be useful when hardware limitations make the lower-level API more trouble than it’s worth.

What I like about having both options is that Blackwood doesn’t force every PC into the same performance profile. Players with older hardware can concentrate on getting a stable 1080p experience, while modern systems can take advantage of better CPU scaling, upscaling technologies, and improved frame pacing. And honestly, that’s exactly how PC settings should work: give players control and let the hardware decide which path performs best.

For my own starting configuration, I’d use DirectX 12, 1440p, an appropriate upscaling mode if necessary, and then tune individual settings based on GPU utilization and frame-time behavior. If performance feels inconsistent, I’d test DX11 before immediately lowering every graphical option. Sometimes the best performance improvement isn’t turning the game into a blurry mess—it’s simply choosing the API that works better with your particular CPU and GPU.