Recent advancements in the field of artificial intelligence (AI) have exposed many modern organizations to the benefits of intelligent automation. According to research published by McKinsey, almost 80% of organizations now use AI to support at least one business function, up from 55% in 2023, with leaders regularly finding new ways to leverage AI technologies to drive improvements.
In many cases, the main draw to AI is its ability to simplify workflows and automate repetitive tasks, helping organizations to boost operational efficiency and do more with less. Typically, this involves administrative and analytical tasks that often place strains on human resources.
However, wider uses of AI to address …
Recent advancements in the field of artificial intelligence (AI) have exposed many modern organizations to the benefits of intelligent automation. According to research published by McKinsey, almost 80% of organizations now use AI to support at least one business function, up from 55% in 2023, with leaders regularly finding new ways to leverage AI technologies to drive improvements.
In many cases, the main draw to AI is its ability to simplify workflows and automate repetitive tasks, helping organizations to boost operational efficiency and do more with less. Typically, this involves administrative and analytical tasks that often place strains on human resources.
However, wider uses of AI to address more pressing challenges are becoming increasingly common among modern businesses, with security operations providing a prime example. In this article, we explore the process of integrating machine learning into security architecture.
What types of AI are used in a security context?
To understand how organizations successfully leverage AI to enhance security architecture, it’s important to define the specific types of AI technologies safe for use in a security context.
When speaking about AI, one or more of the below technologies could be being referenced:
- **Artificial Intelligence: **A broad definition for all technologies that simulate human intelligence using machines; all subsets can be referred to under the umbrella of AI.
- **Generative AI: **AI solutions that generate new content such as images, videos and text based on existing content in the solution’s training data; for example, tools like ChatGPT.
- **Machine learning: **Technologies that can learn from input data without involvement from humans to identify patterns and predict outcomes that humans might overlook.
- **Deep learning: **A subset of machine learning that sees AI solutions leverage larger datasets processed by artificial neural networks to perform complicated calculations.
In a security context, machine learning and deep learning technologies are commonly used, though it’s important to confirm whether the AI models give operators complete control over the data used to inform analyses, or if they use third-party data. While generative tools can be prone to inaccuracies, in part because they’re designed to satisfy prompts above all else, this emerging technology can be useful for security systems when configured and used properly. For example, you can use generative AI for identifying very specific event types, but the prompt needs to be set up correctly to minimize false positives or inaccurate detection. Just like time tracking apps in workforce management help businesses monitor and optimize performance, AI-driven systems in security continuously analyze patterns to detect anomalies efficiently.
The Role of Machine Learning in Physical Security Architecture
Machine learning is the driving force behind AI-informed physical security systems, enabling operators to build intelligent solutions that can autonomously identify and respond to threats.
For example, IP security cameras informed by AI video analytics software can continuously observe target areas to understand expected behavior. In practice, this means systems can be configured to warn operators of risks remotely, with no need for 24/7 manual observation.
The specific role machine learning plays in the optimization of physical security architecture is best described through two critical workflows: threat identification and predictive analyses.
Threat Identification
Machine and deep learning algorithms are used to identify and classify stimuli autonomously by referencing previously collected data. This includes tools like object detection, occupancy counting, and motion tracking software used to enhance devices like cameras and sensors.
These solutions can be integrated into existing security systems to support automated threat responses. For example, workflows can be developed where suspicious motion identified by AI cameras can be used to trigger alarms, lock doors and flag live footage for human review.
When considering the implementation of such advanced technologies, it’s also important to account for the AI app development cost, as building these intelligent systems requires a significant investment in both time and resources.
Predictive Analyses
One of the most effective uses of machine learning and deep learning AI in a security context is the ability for such systems to analyze large amounts of data accurately and efficiently. Bespoke monitoring systems are instructed to comb through large datasets to identify subtle patterns and trends.
For example, hours of video footage can be analyzed swiftly and continuously to help operators spot anomalies they may otherwise have overlooked. Building from this data, AI solutions make informed alerts to potential threats for humans teams to consider. Many organizations rely on specialized AI/ML development services to seamlessly integrate intelligent automation into their existing security frameworks.
Best Practices for Leveraging AI-Informed Security Solutions
Integrating machine learning into physical security architecture shows promise in helping businesses reduce costs, enhance detection capabilities and improve incident response times, with data suggesting the use of AI-informed physical security solutions can lead to:
- 40% savings in labor costs.
- 90% faster reporting times.
- 10x more detected incidents.
However, while AI solutions excel at tasks like data analyses and continuous observation, they don’t understand the world in the same way humans do, so it’s critical that leaders investing in AI-driven architecture use tools to support human professionals in their duties.
To effectively leverage AI-informed security solutions, organizations must:
- **Ensure Data Quality: **The efficacy of AI tools is entirely dependent on data quality; care must be taken to ensure only relevant site-specific data is worked into analyses.
- **Implement Smart Controls: **Access to AI systems must be secured against physical and cyber-attacks behind high-level access controls and a strict zero trust framework.
- **Regularly Test Systems: **AI models can degrade over time if data quality is not well maintained; systems must be human-tested regularly to ensure desired functionality.
- **Prioritize Human Oversight: **AI lacks the contextual knowledge to make decisions alone; humans must always have the final say in how identified risks are approached.
Conclusion
The integration of AI, specifically machine learning, into physical security architecture shows promise in helping organizations better identify threats, improve response times and aid security professionals in performing their roles with greater accuracy, efficacy and efficiency.
When deployed intelligently, AI tools can minimize repetitive, resource-draining tasks to help human teams place more focus on complex operations. By integrating machine learning into physical security architecture, leaders can empower operators to improve security outcomes.
Alex Tray* is a system administrator and cybersecurity consultant with 10 years of experience. He is currently self-employed as a cybersecurity consultant and as a freelance writer.*
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