AI generated image
This post is also available in:
עברית (Hebrew)Written by Or Shalom
The Milipol TechX Summit (MTX) 2026, which opened on April 28th, 2026, at the Sands Expo Convention Center in Singapore, marks a significant turning point in the global defense technology and HLS landscape. While previous exhibitions focused largely on traditional weapon platforms, MTX 2026 represents a different model; it emerges from a strategic collaboration between Civipol (the technical cooperation operator of the French Ministry of the Interior) and HTX (Singapore’s Home Team Science and Technology Agency). This partnership reflects a broader shift from standalone defense hardware toward connected operational intelligence, driven directly by evolving geopolitical threats and the need to protect critical infrastructure in the age of artificial intelligence.
A defining feature of this year’s event is its emphasis on Operationalizing Innovation, meaning the transition from conceptual technologies to real-world deployment and Field Performance. Unlike conventional exhibitions, MTX 2026 was restructured around Thematic Zones such as robotics, cybersecurity and science, enabling professionals to evaluate a multi-dimensional integration of solutions, from autonomous drones to real-time command-and-control (C2) systems, which input data on the operational end in real-time [1]. With participation from over 350 companies across 30 countries, Singapore positions itself as a central innovation hub, setting new benchmarks for homeland security while reinforcing East Asia’s role as a key arena for collaboration between academia, industry and operational end-users.
The Link Between Academia and Research Institutions: Lab-to-Field
The synergy between academia and security forces at MTX 2026 signals the collapse of the traditional “ivory tower” model in favor of a framework centered on rapid, applied innovation. At the core of the event is the TechX Ventures platform, jointly led by HTX and Milipol organizers, which serves as an accelerator that connects cutting-edge academic research from leading universities, such as NTU and NUS in Singapore, with real-world governmental requirements. Academic contributions are not limited to theory but constitute a cornerstone of the Science Zone, and are actively showcased in areas such as digital forensics and Bio-Security [2]. Long-term collaborations are also evident in initiatives like satellite and space programs, which were launched at the event in cooperation with ST Engineering, where researchers and students develop real-time anomaly detection and complex simulation algorithms, effectively transforming academic environments into live testing grounds (Beta Sites) for Singapore’s technological superiority [3].
Beyond technological development, academia plays a critical role this year in addressing one of the most complex ethical and operational challenges: the “Black Box” of artificial intelligence. The academic conference at MTX places unprecedented emphasis on Explainable AI (XAI)—the ability to make machine decision-making processes transparent and understandable. For decision-makers in Singapore and across the Milipol network, this is not merely an academic concern but a fundamental prerequisite for government regulation and for maintaining public trust in the digital domain. The research presented at the exhibition demonstrates how AI systems can be made accountable (Accountability), enabling security forces to rely on autonomous systems in critical situations. This marks an important step in transforming these capabilities into practical tools that are safe, controlled, and operationally validated.
Key Trends Emerging from the Exhibition that Reflect the Needs (and Opportunities) in the Defense-Tech Domain:
One of the key themes emerging from the exhibition is the shift from passive defense systems to active, AI-driven operational ecosystems. These systems leverage “Agentic AI” to transform raw data from edge sensors into autonomous decision-making processes capable of managing complex scenarios in operation rooms (SOC) without continuous human involvement. Supported by technologies such as Connected Intelligence, which is based on 5G network slicing, enabling the allocation of dedicated and secure bandwidth for homeland security forces during emergencies. These solutions directly address the critical need for communication resilience and for reducing the cognitive load on human operators, while ensuring the continuity of national infrastructure operations in the face of hybrid threats and combined cyberattacks.
To illustrate the impact of the shift from passive systems to an operational ecosystem, consider a scenario involving a coordinated intrusion attempt on critical infrastructure. Once the threat is detected by edge sensors, the system does not merely alert a human operator; instead, it activates an AI agent (Agentic AI) that analyzes, in real time, the correlation between a physical breach and a simultaneous cyberattack on control systems. At the same time, the infrastructure automatically initiates a 5G network slice, ensuring a fast and secure high-bandwidth video stream. This allows the autonomous agent to deploy an interceptor drone, lock electromagnetic doors, and deliver an accurate situational picture to field forces. This process, carried out without continuous human intervention at critical stages, significantly reduces operator workload and ensures operational continuity and national resilience against complex hybrid threats.
A similar approach can be observed in asymmetric maritime threat scenarios. When a swarm of suicidal unmanned surface vessels (USVs) is detected approaching a task force, radar and sonar sensors do more than provide alerts, they trigger an AI agent (Agentic AI) that autonomously manages the event. The system immediately allocates communication resources within the navy’s tactical Mesh network, prioritizing target data over other traffic, and deploys countermeasures using autonomous naval and aerial platforms to intercept the threat at a safe distance from the main vessel. Within a tightly integrated manned-unmanned teaming (MUM-T) framework, the system provides the ship commander with a refined situational picture and actionable recommendations for electromagnetic or kinetic engagement, while simultaneously executing automated evasive maneuvers for supporting unmanned assets. All of this operates under the protection of quantum-secure encryption, ensuring that even under intense electronic warfare conditions, the operational ecosystem continues to function as a coordinated and effective force.
Another major trend is the maturation of the Manned-Unmanned Teaming (MUM-T) approach, which is redefining urban operations. This approach enables close coordination between personnel on the ground and swarms of autonomous drones and robotic systems [4], allowing forces to extend their operational reach while minimizing risk. In an era where cities are becoming increasingly dense and complex, MUM-T enables frontline units to multiply their operational capacity without increasing manpower. Instead of police officers or soldiers conducting high-risk physical searches, autonomous systems act as the forward element, performing initial clearance, collecting tactical intelligence, and marking targets in real time. Moreover, the current maturation of this concept is reflected in the shift from Remote Control to autonomy-driven collaboration, where machines no longer require constant human operation but function as organic members of the team. Aerial and ground platforms communicate with each other and with the operator through advanced human-machine interfaces (HMI), delivering a refined situational picture via digital displays or operational tablets. This capability is reshaping urban warfare doctrine by enabling the creation of a protective perimeter around maneuvering forces, detecting threats through walls or concealed terrain, and closing engagement or arrest cycles within seconds. As a result, MUM-T is becoming a central tool for maintaining operational superiority in threat-saturated environments, allowing human operators to focus on higher-level decision-making under a comprehensive robotic support layer.
Complementing these developments is the growing importance of Quantum-Safe Communications, which constitutes the backbone of national resilience in the digital age. The event highlights post-quantum cryptography (PQC), designed to protect sovereign data repositories against the future computing capabilities of adversarial states, based on the understanding that physical border protection alone is insufficient without technological superiority in the information and spectrum domains. The early adoption of this encryption approach reflects a strategic response to the “Harvest Now, Decrypt Later” threat model, ensuring that operational data flowing between MUM-T swarms and smart operation rooms remains secure against decryption or disruption for decades. As a result, quantum encryption evolves from a technical layer into a core operational asset, enabling security forces to rely on Data Integrity and full operational continuity even under extreme scenarios involving advanced cyber and information warfare.
The transition to Quantum-Safe Communications at MTX 2026 is not limited to replacing encryption protocols, but rather represents a fundamental rebuilding of operational trust. The technologies presented in Singapore focus on two parallel approaches. The first is Post-Quantum Cryptography (PQC), based on software updates and advanced mathematical algorithms—such as lattice-based methods—designed to withstand the computational power of quantum computers. Its operational advantage lies in the ability to deploy protection across existing edge devices, including soldiers’ tablets and field-deployed IoT sensors, without requiring dedicated and complex encryption hardware.
The second, more advanced approach is Quantum Key Distribution (QKD). In this domain, Singapore demonstrates a breakthrough by integrating optical systems into Smart City-QKD infrastructure. This method leverages the laws of quantum physics to transmit encryption keys, where any attempt to intercept or measure photons traveling through the fiber irreversibly alters their physical state, immediately alerting the system and invalidating the key. The event also showcases solutions combining QKD with low Earth orbit (LEO) satellite networks, enabling the creation of secure communication capsules for operational forces deployed in remote areas or at sea, far from terrestrial infrastructure.
A central takeaway from the event is that in the era of Defense-Tech, data is no longer just information, it is the system itself. Implementing Quantum-Safe Communications is the most reliable way to ensure that AI algorithms, which depend on sensitive real-time data, are not compromised through Data Poisoning, and that critical commands to autonomous systems are not intercepted. This early adoption positions Singapore and its Milipol partners at the forefront of protecting digital sovereignty, while establishing a new global standard where physical security and quantum security are inseparable.
In the counter-UAS (C-UAS) domain, a clear trend is emerging toward kinetic solutions—including dedicated 5.56 ammunition—and soft interception using interceptor drones [5]. This shift is driven by the growing limitations of traditional detection systems, such as radar and RF sensors, when faced with swarms of small, fast, and autonomous drones that emit no signals and operate at low altitudes, often in dynamic environments such as battlefields or high-security civilian settings. Given the difficulty of jamming visually navigating platforms, the response is becoming physical: deploying kinetic interception as part of a layered defense ecosystem that combines AI-based detection with the capability to physically neutralize threats before they reach their targets.
Another prominent trend highlighted at the event is the transformation of identity management and border control under the concept of Frictionless Citizen Journeys [6]. The vision presented is one in which security becomes seamless through the integration of advanced biometric systems based on facial and iris recognition, enabling End-to-End passage without physical contact or repeated document checks. This infrastructure relies on four technological pillars: Always-on, ultra-low latency for real-time processing, scalability to accommodate fluctuating passenger volumes, and integrated analytics for intelligent crowd flow management.
The transition toward autonomy, enabled by Agentic Operations, allows these systems to independently manage identity verification processes, freeing human personnel to focus on complex risk management and exceptional cases. This approach ensures digital sovereignty while safeguarding citizen privacy, through mechanisms such as virtual security officers or AI-driven interview processes [7].
At the same time, the exhibition underscores the increasing role of cybersecurity in modern defense systems, while understanding that in the modern battlefield, physical protection cannot exist without a robust cybersecurity layer. Fortinet led the discussion by presenting a strategic approach that defines artificial intelligence as a New Attack Surface, requiring dedicated protection tools beyond traditional security systems. In this context, Andrew Moey (Security Operations Strategist, Southeast Asia) highlighted that threats to weapons systems and robotics now include advanced vectors such as AI/LLM Poisoning and Prompt Injection, which allow adversaries to manipulate the decision-making processes of autonomous systems or disrupt operational commands.
To address these threats, the concept of an “AI Firewall” was introduced – a technology that performs real-time sanitization (filtering and cleaning) of inputs and outputs within AI systems, ensuring data integrity and preventing hostile takeover of robotic platforms. This approach, combining protection of the algorithm’s Runtime environment with quantum-secure communications, establishes a new standard for the resilience of AI-enabled systems, elevating cybersecurity from a supporting function to a core component of survivability and operational effectiveness.
At the same time, significant challenges remain in turning the vision of autonomy into operational reality, particularly in the transition to distributed Edge Computing. To avoid Data Overload and reduce Latency in critical decision-making, platforms must incorporate strong local processing capabilities. The primary challenge here is SWaP-C (Size, Weight, Power, and Cost) [8], which minimizes processing hardware and optimizes energy consumption without compromising the computational power required for complex algorithms.
Similar challenges arise in Visual Navigation. For autonomous systems, the difficulty lies not only in algorithm development but in creating solutions that are Field-Deployable and capable of transitioning from controlled laboratory conditions to reliable real-world operation. The core challenge is delivering a holistic solution across all End-to-End Stack, from takeoff, through dynamic Flight Envelope management, across varying altitudes and speeds, to precise landing. Unlike GNSS-based navigation, visual navigation depends on continuous real-time environmental analysis, requiring a balance between advanced computer vision capabilities and the limitations of edge hardware (SWaP-C). This results in a constant trade-off, where the system must perform high-precision image comparison and obstacle detection while maintaining minimal energy consumption.
Overall, the event signals the end of the era of isolated systems and the beginning of an era of interconnected, learning ecosystems. Modern defense technology is no longer defined solely by firepower or physical protection, but by the ability to fuse (Fusion) generative AI, integrated robotic autonomy, and quantum resilience into a unified operational ecosystem. The adoption of agentic AI and MUM-T concepts, supported by resilient communication infrastructures such as 5G Slicing and Post-Quantum Cryptography encryption, provides security forces with cognitive and operational superiority—enabling them to anticipate threats and act with maximum precision while minimizing risk.
Singapore, as a living laboratory and technological leader, sets a new global standard at MTX 2026 for “digital sovereignty”, where academic research and operational technology are fully integrated. For decision-makers and defense industries, the message is clear: in a world where data itself is the system, only a balanced integration of physical protection, algorithmic transparency, and quantum resilience will ensure public safety and national strength in the face of future challenges.
The author is a security, cyber and HLS technology expert and consultant to government ministries and defense industries. He holds a master’s degree, as well as civil and national qualifications in the realm of HLS and Cyber Security. He has experience in consultation and business development for security companies and groups in matters of planning and building defense, innovation and security technology, exercises, and training in security and cyber.
[1] https://www.mtx.sg/exhibitors-listing
[2] https://i-hls.com/archives/128795
[5] https://www.youtube.com/watch?v=SxGluqRKt90&t=8s , and additional solutions that were published at the time https://www.youtube.com/watch?v=UQvBZKsdAAc&t=356s
[7] https://sensai-tech.com/ https://www.accenture.com/us-en/case-studies/technology/ai-personalities-spark-real-connection
[8] https://www.maris-tech.com/?hl=en-US