PSIM in 2026: Interpreting Reality Without a Magic Wand

Physical Security Information Management (PSIM) platforms are no longer evaluated by the number of systems they can connect. Instead, the focus is on their ability to reliably transform fragmented infrastructure into an integrated operational environment. As PSIM matures through real-world deployments, interoperability is defined less by connectivity and more by data consistency, organizational alignment, and the boundaries of openness within the security ecosystem.

By: Mirza Bahić; E-mail: mirza.bahic@asmideast.com

The rapid growth of PSIM platforms reflects a structural shift in how technical security systems are implemented and managed. According to Business Research Company, the global PSIM market reached $1.95 billion in 2025, with a projected annual growth rate of 16.4% and an estimated value of $4.17 billion by 2030. These figures are primarily driven by the need to unify increasingly complex security environments with a growing number of vendors.

At the same time, both the volume and diversity of data generated by technical security systems continue to expand. Modern projects routinely combine video surveillance, access control, intrusion detection, fire protection systems, analytics, and IoT sensors within a single ecosystem. Each of these components generates its own logic of security events and data structures. As a result, what appears at the user interface level as convergence is often, at the data level, little more than masked fragmentation.

However, market growth alone does not resolve the core challenge associated with PSIM technology. Integration remains a persistently difficult barrier to broader adoption, especially in environments where legacy systems, proprietary protocols, and fragmented ownership structures intersect. This creates a paradox: the more systems are implemented, the greater the need for integration, but also the greater the complexity of achieving it.

In other words, PSIM is evolving amid technological tension. It is no longer defined by the promise of connecting systems, but by its ability to manage an increasingly complex operational reality.

The Profile of PSIM

PSIM has long positioned itself as a layer that unifies security and BMS systems into a single operational reality. In marketing presentations, this vision appears straightforward, but in real-world projects, it often diverges from reality.

Ben Eazzetta, CEO and Founder of ARES Security Corporation, says the industry has come closer to delivering on its promises, but only under certain conditions. “While the industry has historically faced gaps between marketing claims and operational reality, today’s mature PSIM platforms are capable of delivering deep, functional integration across diverse systems.” He further clarifies what this capability actually entails, in order to properly set expectations among stakeholders. “The real impact comes not from the brochure, but from how the platform is architected, integrated, and aligned with the client’s operational environment.”

Roman Prokoshkin, Global Product Lead at TRASSIR, takes a more neutral stance. “Interoperability is always tested against reality – and that reality is usually more complex than any brochure can fully describe.” In his experience, PSIM projects almost always go through proof-of-concept or pilot phases, precisely because integration outcomes depend on variables that marketing cannot fully capture. These include API quality, firmware versions, system architecture, and even the responsiveness of third-party manufacturers. From this perspective, interoperability in PSIM systems is unquestionable, but also conditional, context-dependent, and rarely immediately available.

Integration as Interpretation, Not Connection

Interestingly, at a technical level, basic connectivity in the PSIM context is becoming easier to achieve, while its operational alignment with real-world requirements remains a key obstacle. “The most common challenges are not about whether systems can connect, but how cleanly they communicate,” says Eazzetta.

Differences in legacy infrastructure of varying ages, proprietary protocols, cybersecurity requirements, and inconsistent data structures present challenges even when users achieve a unified interface.

Maxim Kabenin, Product Director at AxxonSoft, views the same issue through the lens of system semantics. According to him, each subsystem—including access control, fire detection, intrusion detection, and video analytics—defines its own logic of alarms and device states. Bringing them under a single umbrella does not mark the end of the process. “Someone has to normalize it. Otherwise, operators just see a stream of unrelated events.” At this point, PSIM ceases to be merely an integration layer, as that role is no longer sufficient. In practice, PSIM must become a technological layer for interpretation—translating signals into a common operational language before they can support decision-making.

A complicating factor is that standards address this issue only partially. While protocols such as ONVIF, OPC, BACnet, SNMP, and Modbus enable basic connectivity, Kabenin stresses that “once you go beyond basic connectivity…you often run into vendor-specific implementations again.” Integration thus becomes a hybrid process that combines standards with custom mapping, extensions, and upgrades.

The Weakest Link in the System

Technical complexity alone cannot fully explain the challenges within a PSIM project. In many cases, the greater issue lies within the organization itself. “Interestingly, the biggest challenges are often not technical but organizational,” says Sergej Pičulin, Business Development and Sales Manager for Southeast Europe at Advancis, a view echoed by Eazzetta, who adds that “in many projects, organizational obstacles can outweigh technical ones.” Misaligned processes, siloed teams, and undefined incident management workflows often create more operational friction than system compatibility itself.

Security, IT, and facilities management departments typically operate separately, each controlling different segments of infrastructure. Florin Marica, Director at UltraVision Consult, further summarizes this perspective: “In practice, technical challenges are solvable – the real complexity lies in aligning processes, responsibilities, and operational expectations within the organization.” His colleague Prokoshkin goes a step further, framing organizational alignment as a requirement that must be addressed at the project level. Coordination between departments and clearly defined responsibilities are not secondary elements, but “an essential part of integration planning.” In this sense, PSIM becomes more than a software platform—it becomes a mechanism that reveals whether an organization truly understands how it operates.

Configuration as the Turning Point

If integration is the starting point, configuration is where the fate of a PSIM project is decided. Eazzetta notes that “in most projects, the effort primarily sits with the integrator,” and that the level of configuration depends on the diversity of the hardware ecosystem. When clients introduce new or less familiar technologies, additional connectors often need to be developed to preserve a unified operational environment. According to him, this principle must be clear and uncompromising: “if it exists, it can be integrated.”

Even when integrations are supported, integrators must still define event mapping, develop cause-and-effect logic, configure dashboards, and align system responses with operational workflows. Configuration can also be segmented across systems, meaning certain parameters remain within vendor-specific software rather than within the PSIM layer itself.

According to Advancis, most functions can be implemented through standard configuration tools, but only if integrators properly define workflows, alarm-handling procedures, and visualization. Custom implementation is typically reserved for highly specialized systems or unique operational requirements found in the field.

In such a complex environment, the question of responsibility becomes critical. According to Prokoshkin, successful integration depends on three parties: the PSIM platform manufacturer that provides integration capabilities, third parties that ensure stable APIs and documentation, and integrators who implement and adapt the system. If any of these elements weaken, integration becomes unpredictable.

The pattern is clear. PSIM cannot eliminate complexity with a magic wand—that is impossible in today’s technological landscape. Its role is fulfilled if it successfully reorganizes that unavoidable complexity and makes it more “digestible”.

Open Standards Are Not Omnipotent

In this context, much is said about the potential of open standards, often presented as a universal solution to integration challenges. In practice, our interviewees warn, they are only part of the puzzle, and overestimating them can lead to failure and disappointment. ONVIF is a key enabling factor in the video surveillance world, allowing cameras from different manufacturers to connect without proprietary drivers. Standardization is also a step forward in the API domain as a foundation for scalable multi-vendor environments.

Standards deliver tangible operational outcomes. Standardized APIs facilitate the introduction of new systems, enable scaling across locations, and simplify data integration into a unified operational picture. They also support governance through authentication, role-based access control, and activity logging. However, this openness rarely extends to advanced functionality.

Kabenin notes that advanced capabilities, such as access control logic, credential management, or specialized analytics, often remain “locked” within vendor-specific implementations. Prokoshkin shares a similar view, noting that functions such as analytics metadata or complex alarm workflows often require proprietary extensions. Marica identifies the same pattern from another angle, pointing to subtle forms of vendor lock-in in rights management models, incomplete APIs, and licensing constraints.

Access control stands out as a particularly challenging area. Unlike video surveillance, which benefits from ONVIF, access control lacks a widely accepted standard for event models and logic. As a result, integration in this segment often depends on custom drivers, vendor APIs, and careful alignment of different system architectures. All of these point to a persistent issue of vendor lock-in that has not disappeared, but has instead shifted deeper into system functionality.

PSIM as a Mirror of Systems and Processes

User expectations have evolved significantly in recent years, though not always in a realistic direction—a topic that is rarely discussed openly. Modern users increasingly view PSIM as a platform for situational awareness. For them, PSIM is where video surveillance, alarms, access control events, and operational data converge into a single interface. The appropriate response to such expectations is to explain that PSIM delivers value through event correlation, guided operator workflows, and improved response times. However, client expectations often exceed what technology can deliver.

Kabenin notes that some users expect PSIM to “automatically manage the entire security infrastructure and make decisions independently.” In reality, any platform of this type depends heavily on configuration, workflows, and human operators. Eazzetta draws this boundary clearly: “It is a powerful operational mechanism, but its effectiveness depends on the strength of the systems and processes behind it.” According to him, PSIM often functions as a mirror of existing systems and processes, rather than a replacement for them.

Why Some Projects Fail While Others Succeed

The difference between successful and problematic PSIM projects is rarely purely technological. Large, multi-system environments almost always present the greatest challenges—airports, smart cities, and transport networks among them. These environments often combine legacy systems, multi-vendor technologies, and fragmented ownership structures. In such contexts, Kabenin notes that “coordination efforts can actually take longer than the technical integration itself.” Pičulin highlights additional constraints, including incomplete documentation and systems that were never designed for integration.

By contrast, environments with centralized decision-making and standardized technology stacks tend to perform better. Retail chains and campus environments typically deliver more stable and predictable outcomes when integrated with PSIM. In one project carried out by a certified integrator with support from UltraVision engineers, the scope included securing the perimeter of an international airport in Eastern Europe. The technical setup involved IP video surveillance with analytics, perimeter intrusion detection, access control, specialized infrared and radar cameras, IP audio, and communication systems.

Despite the extensive list of systems, the primary challenge was organizational. The system had to simultaneously support multiple user groups, including airport security staff, infrastructure maintenance teams, border police, homeland security services, IT administrators, and external service providers. Each group had its own operational scenarios, access rights, and procedural requirements. Aligning these elements, Marica notes, was the true source of complexity. The success of PSIM, therefore, depends less on the number of integrated systems and more on how effectively they are managed.

Where the Industry Still Falls Short

Despite clear progress across all aspects of PSIM, one structural limitation remains unresolved: the lack of consistency within the security ecosystem. AxxonSoft points to the need for standardizing security event models, noting that definitions of alarms, priorities, and automation logic still vary significantly across vendors.

Pičulin argues that fully documented and standardized APIs would make integration more predictable and efficient. Greater transparency in data models, event structures, and API documentation, along with a shift toward interoperability-focused ecosystems, is also seen by Prokoshkin as an area of strong potential.

However, the solution may not lie solely in technology or practice. Eazzetta proposes a broader approach, centered on the creation of a “trusted and accredited integration community.” Within such a framework, manufacturers and integrators would share validated architectures and accumulated experience, rather than repeatedly solving the same problems in isolation.

Mandatory Direction: From Connectivity to Coherence

Given all of the above, the next step for PSIM is unlikely to focus on connectivity, where the industry has already made visible progress. What remains unresolved—and where improvement is still needed—is consistency, transparency, and shared understanding across the ecosystem.

This distinction is becoming increasingly important. As security infrastructures expand, the challenge is no longer how to connect systems, but how to ensure that the data and signals they produce can be interpreted consistently. Only such an approach allows these inputs to be effectively used in operations. Security events must carry the same meaning across platforms, meaning that data must retain its structure and context as it moves between systems. At the same time, operational logic must be clear enough to support decision-making under pressure.

In that sense, PSIM is undergoing a quiet but decisive transformation. It is no longer defined by its ability to connect systems, but by the platform’s capacity to align them and make them function meaningfully within a shared operational environment.

This shift places balanced emphasis on technology, data, and organization. Platforms can aggregate information, but they still cannot fully resolve inconsistencies in how systems describe events. They can visualize incidents, but they cannot compensate for unclear workflows or fragmented ownership. Ultimately, platforms can orchestrate responses, but only if their underlying logic is properly defined.

For this reason, the future of PSIM will depend less on adding new integrations and more on improving the conditions under which integration takes place. Standardized event models, clearer and more accessible APIs, better documentation, and stronger collaboration between manufacturers, integrators, and end users are no longer optional improvements—they are structural requirements. Experience has shown that PSIM platforms are technologically ready for this task, while the ecosystem in which they operate must catch up to achieve optimal results.

Different Architectures and Philosophies of Integration

While all manufacturers agree on the importance of integration, their approaches reveal different philosophies in how it should be managed. ARES emphasizes breadth and adaptability, supported by a continuously expanding library of integrations and a consulting-driven approach. This type of support allows the technology to be more easily aligned with the management structures and operational culture of clients in the field.

AxxonSoft, on the other hand, follows an engineering-driven model. It is built on the long-term accumulation of integrations, protocol support, and communication at the hardware level. Within this approach, interoperability emerges as the result of continuous technical development over an extended period.

Advancis approaches the issue through structure and neutrality. Its WinGuard platform is designed as a framework that integrates a broad range of technologies while maintaining clear workflows and operational consistency. Collaboration between manufacturers and users is also a key focus.

TRASSIR emphasizes predictability within its own ecosystem. For them, interoperability must remain stable and predictable within a single environment, reflecting a strategy that prioritizes reliability and performance through tighter integration.

These approaches highlight the wide spectrum of strategies shaping PSIM’s role in the market. Openness, predictability, flexibility, and control are not always aligned in practice, and each manufacturer seeks to balance these factors in its own way.