Strategic AI readiness for cybersecurity: From hype to reality


AI readiness in cybersecurity involves more than just possessing the latest tools and technologies; it is a strategic necessity. Many companies could encounter serious repercussions, such as increased volumes of advanced cyber threats, if they fail to exploit AI due to a lack of clear objectives, inadequate data readiness or misalignment with business priorities.

Foundational concepts are vital for constructing a robust AI-readiness framework for cybersecurity. These concepts encompass the organization’s technology, data, security, governance and operational processes.

What AI readiness looks like

The potential of AI in cybersecurity lies in its ability to automate, predict and enhance decision-making capabilities that are crucial as threats evolve and increase in complexity. For instance, AI models process network traffic patterns to detect anomalies or to predict potential attack vectors based on historical data.

AI can help organizations improve their threat protection, response times, and overall resilience in the face of growing cyber risks – but only if it’s adopted thoughtfully and strategically. Here’s what an AI readiness framework for cybersecurity should cover.

AI alignment with business objectives: AI should not be deployed just because it’s trending but must be aligned with specific business objectives that drive measurable value. Organizations should focus on real-world cybersecurity challenges, ensuring AI solutions integrate with existing workflows and deliver ROI-driven outcomes.

  • Action: The organization must explicitly define the use of AI to enhance cybersecurity, improve efficiency and make better decisions to combat threats. In addition, success metrics must be defined for successfully integrating AI in cybersecurity to align with broader company goals such as cost management, revenue growth, security or compliance. Failure to align AI with these objectives can lead to wasted resources and ineffective cybersecurity measures.

Data quality and availability: AI models rely heavily on high-quality, clean, structured data. Data from network logs, endpoint telemetry, threat intelligence feeds and user behavior are essential for accurate AI-driven threat detection. The quality of data matters because poor-quality data or biased datasets can lead to incorrect threat detection or missed attacks.

  • Action: Implement a data governance strategy to ensure data integrity, completeness, and elimination of bias.

Scalable infrastructure and secure deployment: AI models require high computational power to process large datasets and run complex algorithms for real-time data processing. In addition, infrastructure should support secure deployment by following secure-by-design and secure-by-default principles.

Secure by design means that security is embedded into the infrastructure from the ground up, incorporating principles like least privilege, network segmentation and threat modelling during the architecture phase. Secure by default ensures that security controls are enabled out of the box, reducing misconfigurations and minimizing attack surfaces—such as hardened configurations, encrypted communications and automated patching—without requiring manual intervention.

Overall, speed is crucial in cybersecurity—AI must securely operate in real time to detect and respond to threats immediately.

  • Action: Adopt cloud AI solutions or hybrid infrastructure models that can scale on demand based on the volume of network traffic and incidents. The required infrastructure must support secure-by-design and secure-by-default principles.

Ethical AI and explainability benchmarking: AI must adhere to ethical benchmarks while performing decision-making tasks in cybersecurity. Additionally, AI models must be explainable to humans, especially in areas like incident response or fraud detection. Analysts must understand the reason behind the decisions made by the AI models. AI ethics and explainability benchmarking are required because black-box AI systems can undermine trust and accountability.

  • Action: Implement ethical and explainable AI (XAI) frameworks to ensure AI models use data ethically. This is crucial to ensure that decisions are transparent, interpretable and auditable while generating responses for cybersecurity problems.

Continuous learning and adaptation: AI systems in cybersecurity must continually learn and adapt to evolving threats by integrating real-time feedback loops. As the static models become obsolete, the AI systems must remain dynamic and adaptive to identify emerging threats. The Large Language Model Operations (LLMOps), a subset of MLOps, ensure that AI models are updated and retrained regularly to adapt to new attack techniques as a part of the LLM lifecycle management. This continuous learning and adaptation process (AIOps) ensures that AI systems are always up to date and ready to combat the latest threats.

  • Action: Organizations must efficiently deploy an LLMOps pipeline integrated with AIOps to create a self-learning security ecosystem that supports continuous integration, model training and fine-tuning, model deployment and delivery, model retraining, and evaluation based on new threat intelligence.

Human-AI collaboration: AI should augment the decision-making process by harnessing human intelligence. Combining AI’s speed and scalability with human expertise creates a hybrid approach to cybersecurity, where AI handles routine tasks and humans focus on complex decision-making. Human collaboration is critical because cybersecurity often involves complex, context-driven decisions that AI alone may not be able to fully understand.

  • Action: Develop collaborative workflows between AI-powered tools and cybersecurity professionals to ensure a seamless processing of human feedback, contextually enhancing AI learning and response generation.

Governance and compliance: AI in cybersecurity must align with regulatory and compliance standards such as GDPR and CCPA to ensure data privacy and protection. The AI models must consume data upholding the regulatory and privacy benchmarks because non-compliance with data privacy laws can result in financial losses and legal consequences, particularly when AI processes sensitive data.

  • Action: Build AI governance structures that ensure ethical use, data privacy, and alignment with relevant regulations in every phase of the AI model lifecycle.

Strong foundations and constant scrutiny

AI readiness is about creating a holistic approach where organizations integrate data readiness, governance, ethical considerations, and collaboration into their AI strategy. By addressing these issues, organizations can unlock AI’s potential to provide real-time threat detection, proactive response and adaptive defenses, ensuring that cybersecurity stays ahead of increasingly complex and frequent threats. AI will be a key enabler of a more resilient cybersecurity framework, but it requires careful planning, execution, and most importantly, continuous monitoring.



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Summary

  • Sony & Hisense are pioneering RGB LED tech to rival OLED displays.
  • RGB LEDs improve color accuracy at wider angles and brightness without burn-in risk.
  • RGB LEDs reduce bloom and offer large panels at cheaper prices than OLEDs.

If you ask most AV enthusiasts what the best display technology is right now, they’d probably respond with some variant of OLED panel. However, one of the best TV makers in the world has decided that OLED is not the way forward, and instead brings us RGB LED technology.

In mid-March of 2025, Sony unveiled its RGB LED technology. It’s not the only company pushing this OLED alternative, with Hisense aiming to launch RGB mini- and micro-LED TVs in 2025. So why are these companies bucking the OLED trend?

Sony’s RGB Backlight Tech Explained

Just in case you need a refresher, the main difference between OLED and LCD panels is that OLEDs are emissive. In other words, each OLED pixel emits its own light. This means that it can switch itself off and offer perfect black levels, among a few other advantages. LCDs need a “backlight” and one of the primary ways LCDs have improved over the years has been about backlight innovations as much as improvements to the liquid crystals.

Early LCDs used a simple CCFL (Cold Cathode Fluorescent Lamp) backlight with an internal reflector to spread the light around. As you might imagine, this was awful, and I still remember the cold and hot spots on my first LCD monitor being so bad that I thought there was something wrong with it.

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Since then, LCDs have been upgraded with LED backlights, which were placed all around the edges of the screen, so that it was far more evenly lit. Then the backlights were also added directly behind the screen, which allowed for neat tricks like local dimming. Now miniLED screens put hundreds or thousands of LED lights behind the screen, allowing for very precise local dimming, which improved contrast and black levels immensely.

A diagram of a conventional LCD with a quantum dot layer.
SONY

However, so far all of these LED backlight solutions have used a white (or blue) LED source. RGB LEDs replace this white LED with an RGB LED that can be any color. This means that the LED behind a given set of pixels is being driven with the same color light as the pixel is meant to produce and removes the need for color filters.

A diagram of an RGB LED LCD.
SONY

If you take the LCD layer off completely, then an RGB miniLED backlight would look like a low-res version of the original image. With enough LEDs, the image is still recognizable!

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Get ready for thinner and brighter Mini LED TVs.

Better Color Accuracy at Wider Angles

The Sony display demoed by the company promises 99% of the DCI-P3 color spectrum, and 90% of the next-gen BT.2020 spectrum. Making these displays some of the most color-accurate screens money can buy. With fewer layers of stuff in the display stack, and much more pure color to boot, the image looks vibrant, accurate, and maintains its color purity from a wider set of angles.

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What Is Color Gamut?

Take this into account the next time you buy a monitor, TV, or printer.

More Brightness, No Burn In

The less stuff you have between the light source and the surface of the screen, the brighter the image can be. Hisense’s RGB LED TVs are slated for 2025 promise a peak brightness of 10,000 nits! That is way beyond the brightest OLED panels, even LG’s tandem OLED that was demonstrated in January 2025, which maxes out at 4,000 nits.

While LCDs can have image retention, they are far, far less prone to it than OLEDs, and the brighter you run an OLED, the greater the chances of permanent image retention or “burn-in”. So RGB LEDs will absolutely smoke OLEDs when it comes to brightness, with virtually none of the risk.

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The New iPad Pro Has a Tandem OLED Screen, But What Is It and How Does It Work?

Two OLEDs are better than one.

A Lack of Bloom To Rival OLEDs

One of the big issues with LED LCDs, even the latest miniLEDs, is “bloom”. This is when light from the backlight in the bright part of an image spills over into the dark parts. Even on LCDs with thousands of dimming zones, you can see this when there’s something very bright next to something very dark.

Blooming on LED TV
LG

For example, my iPad Pro has a mini-LED screen, and if the brightness is turned up you can see bloom around white text on a black background, such as with subtitles or the end-credits of a movie. In content, you’d see this with laser blasts in space, or a big spotlight in the night sky.

RGB LEDs significantly reduce bloom thanks to the precise control of the brightness and color of each RGB backlight element. So you get contrast levels closer to that of an OLED, but you still get the brightness and color purity advantages.

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Cheaper Large Panels

Perhaps the biggest deal of all is price. While I expect Sony’s Bravia 10s to have a price that will make your eyes water even more than the nits rating, the fact is that RGB LED tech will be cheaper than OLEDs, especially as you scale up to larger panel sizes. While the price of smaller OLEDs (e.g. 55-inches or smaller) has come down significantly, making bigger OLEDs is hard, and when you get to around 100-inches prices go practically vertical.

So don’t be surprised if TVs larger than 100 inches are dominated by RBG LED technology in the future, because getting 90% of what OLED offers at a much lower price will likely be too hard to resist.

OLED Still Has Tricks up Its Sleeve

Dell 32 PLus 4K QD-OLED monitor sitting on a table playing a video.
Justin Duino / How-To Geek

With all that said, it’s not like OLED technology will stand still or is in major trouble. OLED’s perfect black levels, lack of bloom, and contrast levels are still better and will likely always be better. So those who are absolute sticklers for those elements of image quality will still buy them. Manufacturers are working on the issue of burn in and making it less of a problem with each new generation of screen.

lg b4

LG B4 OLED

$1000 $1700 Save
$700

OLED still has faster pixel response rates too, and lower latency (under the right circumstances), so gamers are also another audience who’ll likely want OLED technology to stick around. QD-OLEDs are upping the game when it comes to color vibrancy and gamut as well.


Ultimately, having different display technologies duke it out for supremacy is good for you and me, because it means better TVs and monitors at lower prices.



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