Avner Hilu, Global Project Manager, EIS Council
15, June 2024
In a world increasingly reliant on interconnected systems, understanding the intricate web of dependencies among critical infrastructures has never been more crucial. Whether it’s the energy that powers our homes, the water that sustains our lives, or the transportation systems that keep economies moving, these sectors are deeply interwoven. The disruption of one can cascade into a crisis affecting many others. Enter GINOM, a groundbreaking platform developed to illuminate these dependencies and bolster our preparedness for future disasters.
For over 30 years, I’ve been immersed in the world of technology, contributing to various projects across diverse sectors. From project management to active participation in local and international teams, my career has been a continuous engagement with tech. Yet, it wasn’t until ten months ago, when I joined the GINOM development team at EIS, that I began to see critical infrastructure through a completely new lens.
As I delved into the subject, it struck me how the failure of one system could have such far-reaching consequences. For instance, a few days without electricity could halt water supplies—something that seems obvious now but was a startling realization at the outset. This new perspective has shaped my understanding and deepened my commitment to GINOM’s mission.
GINOM is not just another simulator; it represents a paradigm shift in approaching disaster preparedness and infrastructure resilience. Our platform is designed to model and analyze the dependencies between critical sectors such as electricity, gas, water, transportation, finance, healthcare, and more. By understanding these interconnections, we can foresee how disruptions in one area can impact others and prepare more effectively for potential crises.
Imagine a scenario where a natural disaster strikes and power outages ensue. With GINOM, we can simulate how this power loss affects water supplies, transportation networks, and hospital operations, as well as its in-depth interdependencies, such as how it can affect a supply chain. This foresight allows emergency teams and decision-makers to prioritize their responses more effectively, ensuring that resources are allocated where they are most needed.
Building GINOM has been a formidable challenge. The complexity of integrating and modeling such diverse systems with a small, dedicated team has tested our limits. However, as the platform begins to take shape, the initial hurdles give way to tangible progress. Our vision steadily transforms into a reality, offering new insights into the interdependencies that define modern infrastructure.
One of the most exciting aspects of GINOM is its ability to inform future planning and decision-making. For instance, it can help determine the optimal placement for new power stations by analyzing existing dependencies and potential risk factors. It also enables us to identify which infrastructures should be restored first in a disaster scenario, enhancing our readiness and resilience.
What sets GINOM apart from other simulators is its forward-thinking approach. Rather than simply replicating existing infrastructure, GINOM explores unseen vulnerabilities and interdependencies. This innovative perspective helps uncover points that emergency responders and policymakers might otherwise overlook, leading to more informed and effective decisions.
For example, traditional simulations might not account for how a disruption in the gas supply could indirectly affect healthcare facilities reliant on power generated from gas-fired plants. GINOM’s ability to highlight these hidden dependencies is a game-changer for disaster preparedness.
The knowledge that GINOM will enhance our ability to handle future disasters fills us with immense excitement and pride. Despite decades in advanced technology, participating in the development of GINOM stands out as one of the most significant and fulfilling projects of my career.
Our work is more than just building a platform; it’s about creating a tool that will fundamentally change how we understand and respond to crises. GINOM’s insights will empower communities, improve emergency responses, and, ultimately, save lives.
As we continue to develop and refine GINOM, we remain committed to its vision: a future where the resilience of critical infrastructure is strengthened through foresight and innovation. In this era of unprecedented challenges, GINOM stands as a beacon of how technology can be harnessed to safeguard our interconnected world.
For those interested in learning more about GINOM and its potential to transform disaster preparedness, visit GINOM for the latest updates and insights.
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