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Today, where technology plays a pivotal role in nearly every industry, traditional methods of monitoring essential infrastructure are being replaced by advanced digital solutions. Tank monitoring, in particular, has evolved from manual, on-site inspections to remote, automated systems that provide real-time data. While this shift offers significant benefits in terms of efficiency, accuracy, and cost savings, it also introduces new vulnerabilities. As these systems become more integrated with corporate networks and the internet, the need for robust cybersecurity measures becomes paramount.
Safeguarding Critical Infrastructure
To effectively mitigate cybersecurity risks, organizations must adopt a comprehensive, multi-layered approach that integrates technological safeguards, procedural controls, and human awareness. One critical strategy is network segmentation, which ensures that tank monitoring systems remain isolated from the corporate network, preventing breaches in one domain from compromising operational technology (OT) systems. Equally important is the enforcement of strong authentication and access control, including multi-factor authentication (MFA) and role-based access control (RBAC), to restrict system access strictly to authorized personnel. Regular audits and vulnerability assessments, such as penetration testing and security reviews, are also essential for proactively identifying and addressing weaknesses before they can be exploited. To secure data integrity, organizations should implement robust encryption protocols for all transmissions between sensors, telemetry units, and central monitoring platforms, safeguarding against unauthorized interception or tampering. Advanced intrusion detection and prevention systems (IDPS) add another layer of defense by continuously monitoring network activity, blocking malicious traffic, and alerting administrators to potential threats. Employee training and awareness programs play a vital role, as human error remains a leading cause of breaches. Equipping staff with knowledge on recognizing phishing attempts and following cybersecurity best practices can significantly reduce these risks. A clearly defined incident response plan is indispensable, outlining the procedures for containment, recovery, communication, and collaboration with law enforcement in the event of an attack.
The Future of Cybersecurity for Tank Monitoring
The cyber threat landscape is constantly evolving, requiring organizations to adapt and strengthen their defensive strategies continually. Attackers are increasingly leveraging artificial intelligence (AI) and machine learning (ML) to automate attacks and craft compelling social engineering campaigns. At the same time, these technologies are playing a critical role in defense, enabling automated threat detection and anomaly monitoring. AI-powered systems can process vast volumes of data from sensors and network traffic to uncover suspicious patterns that may go undetected by human analysts.
In parallel, the adoption of Zero Trust Architecture (ZTA) has become essential, as the traditional perimeter-based security model is no longer sufficient. Built on the principle of “never trust, always verify,” Zero Trust requires every user, device, and application—regardless of location—to be authenticated and authorized before gaining access to resources.
Equally important is supply chain security. Tank monitoring systems often rely on hardware and software sourced from multiple vendors, creating potential vulnerabilities at various points in the supply chain. A compromised sensor component or a malicious software update could introduce significant risks. Proactive supply chain risk management is therefore a fundamental pillar of any robust security framework.
As tank monitoring systems generate increasingly large volumes of data, reliance solely on cloud processing can create latency and bandwidth challenges. Edge computing addresses these issues by enabling data processing closer to the source, such as directly on monitoring devices. Beyond performance benefits, this approach enhances security by allowing devices to detect and respond to threats in real-time, while reducing dependence on a centralized server that could otherwise represent a single point of failure.
The integration of technology into tank monitoring has ushered in an era of unprecedented efficiency and control. However, it has also introduced a new set of risks that cannot be ignored. The consequences of a cyber-attack on this critical infrastructure can be severe, making robust cybersecurity a non-negotiable part of any modern tank monitoring system. By adopting a comprehensive, multi-layered approach that combines advanced technology, strict protocols, and continuous training, organizations can protect their assets, ensure operational continuity, and safeguard the environment from the growing threat of cybercrime. The future of tank monitoring is digital, but its security must be a priority today. ...Read more
SS Stettin is the tech tour destination in Hamburg
At first glance a possibly offbeat choice as the venue for the tech visit at the 2026 Propulsion & Future Fuels Conference, but the Stettin steam icebreaker offers a fascinating look back at the evolution of maritime engineering, and its history.
Now moored in the picturesque Oevelgönne Museum Harbour in Hamburg, the Stettin was built back in 1933 by the city of the same name (now Szczecin) which was dependent on the free passage of shipping from the Baltic so required ice-free channels throughout winter.
Though its distinctive Runeberg-bow design, with its sharp cutting edge, is eye-catching, Stettin’s real interest lies below in its 2,200 hp triple-expansion steam engine and impressive fire-tube boilers.
While diesel engines were widely available in 1933, steam engines could be more rapidly reversed, an important capability for icebreakers during manoeuvres in icy sea conditions to free the ship if it were to get stuck.
The technical visit – on December 10 – will also demonstrate how even an historic steamship can benefit from modern digitalization, combining traditional maritime engineering with advanced sensors, data acquisition systems, and cloud-based access to operational information.
All in all, a memorable sign-off after two-days of networking and a detailed focus on shipping’s energy transition.
The 47th Propulsion & Future Fuels Conference is being held 8-10 December at the Empire Riverside Hotel, Hamburg. To benefit from the opportunities of offer – as well as the Stettin visit – just click here ...Read more
The energy industry exploits data analytics to enhance service delivery, user experience, and investment strategies; however, it encounters several problems in collecting, sharing, and processing utility data. Utilities have to overcome these problems and streamline their investment strategies.
Data provenance is crucial in data analytics, especially in untrusted environments. Companies need to ensure the integrity of data produced by edge devices. Knowing the provenance of data before analysis is essential, as it helps make actionable insights. Energy sector companies must ensure that the data they rely on is good and has not been compromised.
Energy companies are transforming their data-sharing and distribution strategies to improve efficiency and reduce costs. One solution is data virtualization, which allows for quick connection of new data stores without expensive ETL processes or large data warehouses. Data sets containing data from one or more physical data stores are created, and utilities govern access and blend the data as needed. This approach allows for real-time restrictions, allowing users to dynamically update their privileges without connecting to different data sources.
Data challenges include collection, storage, processing, integration, and data privacy. The utility sector frequently compartmentalizes data, housing it in diverse formats and locations. Consequently, the process of exchanging data is predominantly manual and labor-intensive. The intricacies arising from data sensitivity, alongside the imperative to comply with security protocols and data privacy regulations, further complicate the process. By addressing these challenges, energy companies can improve their data sharing and distribution strategies, ensuring better customer service and efficiency.
The energy industry is in the "digitization" phase, with data collection becoming the norm. In the next phase, utilities use machine learning and AI for data analytics. Tri-Logic develops wireless downhole monitoring and IIoT technologies that support data integration across oilfield assets. This involves processing datasets and identifying inefficiencies. The utility sector must have access to and control over the data required for their digital initiatives and decision-making processes to succeed in digitalization.
South Texas Curbing manages solar-site vegetation through predictive planning, supporting data-informed energy operations across utility-scale installations. ...Read more
In the face of global challenges posed by climate change and the ageing energy infrastructure, communities are progressively embracing sustainable energy alternatives such as solar and wind power. Nevertheless, a significant impediment to the extensive integration of renewable sources lies in their intermittent nature, characterised by periods when the sun does not shine, and the wind does not blow. This underscores the pivotal role of battery storage solutions in mitigating these challenges.
Key Benefits of Community-Based Battery Storage
Energy Independence: Community-based battery storage reduces reliance on the traditional power grid, giving communities more control over their energy supply. This independence can enhance energy security and reduce vulnerability to external factors.
Resilience During Outages: Batteries enable communities to maintain power during grid outages. This is crucial for critical facilities such as hospitals, emergency services, and communication centres, ensuring continuous operation when it is needed most.
Integration with Renewable Energy: Many community-based battery storage projects are paired with renewable energy sources, such as solar or wind. This integration allows communities to maximise the use of clean energy, reducing carbon emissions and contributing to environmental sustainability.
Cost Savings: By storing excess energy during low-demand periods and using it during peak times, communities can reduce their reliance on expensive electricity from the grid. This can lead to cost savings for both residents and local businesses.
Community Engagement: Implementing community-based battery storage projects often involves collaboration and engagement within the community. This fosters a sense of ownership and responsibility, as residents actively participate in the development and maintenance of the system.
The landscape of community-based battery storage is transforming with recent developments highlighting noteworthy progress. Technological advancements are playing a pivotal role in enhancing battery efficiency and affordability, consequently bolstering the cost-effectiveness of community-based battery storage projects. Complementing this trend, governments are initiating policy changes by introducing incentives that facilitate the financing and implementation of such projects. Simultaneously, a surge in community interest, stemming from heightened awareness of the advantages associated with this technology, is evident among both residents and businesses. These combined factors contribute to a rapidly evolving and increasingly promising environment for the integration of community-based battery storage solutions.
At its essence, community-based battery storage operates on a collaborative model, embodying shared investment and shared rewards. In this setup, a collective of residences, businesses, or an entire community combines their resources to establish a comprehensive battery system. The system serves a dual purpose: first, it efficiently captures surplus solar and wind energy generated during peak production periods, and second, it releases stored energy strategically when the primary renewable sources are less active. This discharge occurs during periods such as sundown or decreased wind intensity, thereby supplying power to homes and businesses precisely when demand is at its peak. This innovative approach enhances energy sustainability and also fosters a sense of communal responsibility in managing and optimising renewable resources. ...Read more
