Secure AI

Control before autonomy

Executive Summary

The adoption of GenAI, RAG and AI agents introduces new assets, new digital identities and new attack surfaces. Secure AI helps organizations govern data, models, systems and actions while maintaining control, accountability and verifiable evidence throughout the entire AI lifecycle.

Why Secure AI is a priority

Artificial intelligence is simultaneously changing how organizations are attacked, how they can defend themselves and the very nature of the assets they need to protect. Models, prompts, knowledge bases, vector databases, connectors and agents capable of interacting directly with real-world systems are being added to the traditional attack surface.
The challengeis no longer simply to protect AI, but to maintain control over its decisions and actions.
Dato in evidenza
Grazie alla limitazione delle operazioni manuali

The DGS Perspective

The key is to maintain control as AI becomes embedded into business processes, while enabling transformation and technological innovation to move forward.

Cybersecurity and AI: a single risk perimeter

AI for Cybersecurity and Cybersecurity for AI can no longer be managed as separate disciplines. Data, identities, controls, telemetry and operational processes converge within a single risk governance model.

AI for Cybersecurity

Use AI to enhance prevention, detection, correlation, investigation and incident response capabilities.

Cybersecurity for AI

Protect models, datasets, RAG systems, agents, non-human identities, connectors and actions performed across enterprise systems.

The new AI threat landscape

AI is profoundly reshaping the threat landscape. On the one hand, it makes established techniques such as phishing, impersonation, social engineering and automated reconnaissance more efficient and scalable. On the other, it introduces new attack surfaces related to models, datasets, RAG systems, knowledge bases and autonomous agents.

Organizations therefore face a dual challenge: managing the acceleration of traditional risks while addressing threats specifically designed to target AI systems. Prompt injection, data poisoning, model extraction, manipulation of retrieval systems and the misuse of agents are not theoretical scenarios, but vulnerabilities that can lead to data compromise, unintended actions and loss of control over business processes.

The priority for management is to identify which threats create immediate exposure, which require monitoring capabilities and which must be governed through structural controls throughout the AI lifecycle.

From output control to action control

With generative systems, the main risk factor concerned the quality or reliability of the responses produced. The evolution towards RAG architectures and agentic systems shifts the focus to the actions that artificial intelligence can perform through digital identities, connectors and enterprise applications. An agent can query knowledge bases, access systems, retrieve data, generate workflows and interact with operational processes. Control therefore cannot be limited to the model itself: it must extend to privileges, authorizations, non-human identities, decision traceability and action reversibility. The guiding principle of Secure AI is simple: no level of autonomy should be introduced without adequate observability, explicit accountability, approval mechanisms and the possibility of human intervention.

Secure AI Lifecycle: designing control throughout the entire lifecycle

AI security cannot be added at the end of an already completed project. It must accompany every stage of the journey, from use-case definition through operational management and system decommissioning. A Secure AI approach integrates risk assessment, data classification, dependency control, model validation, adversarial testing, continuous monitoring and incident management within a single governance framework. Each stage must produce verifiable evidence, assign clear accountability and define objective release criteria. The goal is not to slow down AI adoption, but to make it sustainable, measurable and controllable over time.

What Is DGS's Approach to Secure AI?

DGS's experience in integrating cybersecurity, AI & Data, cloud, governance and managed services enables us to address AI security as an operational challenge rather than an exclusively technological one. The DGS vision is based on a fundamental principle: using AI to strengthen defense capabilities while protecting the AI systems adopted by the organization. These two needs share data, controls, processes, telemetry and accountability. For this reason, governance must be unified and focused on continuous risk measurement. Secure AI thus becomes a discipline that integrates assessment, governance, security engineering, monitoring and compliance within a single control model.

DGS capabilities for Secure AI

DGS supports organizations throughout the entire AI adoption journey through assessment and readiness services, governance and compliance frameworks, identity and access controls, validation of generative and agentic systems, continuous risk monitoring and the definition of sustainable operating models.

The goal is to build demonstrable and progressively mature capabilities, in which security, compliance and innovation evolve in a coordinated way and remain aligned with the organization's risk profile.

Comprendere

Il contesto operativo

Simulare
Scenari e comportamenti
Proteggere
Dati, modelli e infrastrutture
Agire
Attraverso sistemi osservabili e governati

Roadmap for sustainable Secure AI

AI adoption requires a progressive journey that allows organizations to increase the level of autonomy only when the corresponding controls are fully operational. The goal is not to slow down innovation, but to build a sustainable capability over time, balancing speed, security, governance and accountability. Secure AI maturity is therefore measured by an organization's ability to understand, monitor and govern the behavior of AI systems throughout their lifecycle.

Cosa significa nel concreto

  1. Build visibility and control

    AI adoption requires a progressive journey that allows organizations to increase the level of autonomy only when the corresponding controls are fully operational. The goal is not to slow down innovation, but to build a sustainable capability over time, balancing speed, security, governance and accountability. Secure AI maturity is therefore measured by an organization's ability to understand, monitor and govern the behavior of AI systems throughout their lifecycle.

  2. Introduce governance and accountability

     Once the perimeter has been defined, responsibilities and operating rules must be established:

  • Definition of policies and usage criteria.
  • Assignment of decision-making responsibilities.
  • Integration across Cybersecurity, AI, Risk & Compliance.
  • Introduction of approval and oversight processes.


    3. Embed security by design

    Security must accompany the design, deployment and operation of AI systems:

  • Risk assessment and use-case classification.
  • Threat modeling and control validation.
  • Testing and simulation of adversarial scenarios.
  • Continuous monitoring of data, models and agents.

    4. Measure and demonstrate control
    Trust requires verifiable evidence and explicit residual risk:
    - Logging and audit trails.
    - KPIs and KRIs dedicated to AI systems.
    - Monitoring of exceptions and overrides.
    - Continuous production of evidence for audit, compliance and management.

    5. Scale autonomy in a controlled way
    Autonomy can progressively increase only when appropriate control mechanisms are in place:
    - Human oversight of critical processes.
    - Management of privileges and non-human identities.
    - Rollback and kill-switch mechanisms.
    - Periodic review of risks, controls and autonomy levels.

Conclusions

Secure AI is a necessary step in turning experimentation and innovation into reliable, measurable and sustainable capabilities. It means integrating security, governance, compliance and operations within a single model capable of delivering control, accountability and verifiable evidence throughout the entire AI lifecycle.
True maturity is not measured by the number of models adopted or agents deployed, but by the ability to grant autonomy progressively while always retaining the ability to observe, understand and govern the consequences of their actions.

L'adozione di un'architettura multisito centralizzata permette di gestire diversi touchpoint digitali da un unico backend. Questa flessibilità consente al marketing di lanciare rapidamente nuove offerte commerciali e mini-siti dedicati, mantenendo una forte coerenza visiva e di brand, e semplificando la governance complessiva dei contenuti.

Expert voices

H3

Insights from the Authors of the Executive Perspective
Antonio Autorino
Head of AI & Data Sense, DGS
Gianluca Cimino
Chief Strategy & Delivery Officer, DGS
Irene Cosimo
Content Marketing Leader, DGS
Antonio Di Ronza
Head of Cybersecurity Advisory, DGS
Christian Scquizzato
AI & Data Sense Presales Manager, DGS

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Frequently Asked Questions

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What is Physical AI?

Physical AI is the evolution of artificial intelligence into the physical world. It goes beyond data analysis and content generation by enabling systems to perceive real environments, interpret sensor data, support operational decisions, and interact with machines, processes, and physical asset. It means:
  • Perception
  • Simulation
  • Action
How is Physical AI different from Generative AI?

Generative AI creates digital content such as text, images, or code. Physical AI operates in real-world environments, where it must understand physical conditions, anticipate outcomes, and support actions within operational and industrial processes
How is Physical AI different from Generative AI?

Generative AI creates digital content such as text, images, or code. Physical AI operates in real-world environments, where it must understand physical conditions, anticipate outcomes, and support actions within operational and industrial processes
Where Physical AI can be applied?

Physical AI can be applied across industrial manufacturing, intelligent maintenance, logistics, quality assurance, infrastructure management, collaborative robotics, and other environments where decisions must be connected to real-world actions
  • Generative AI
  • Data platforms
  • Predictive Analytics
  • Physics AI