Alpitronic Participating in Hackathon to Address EV Charging Cybersecurity

On January 20, 2026, Mike Doucleff, President, Alpitronic Americas, announced that Alpitronic is participating in the third annual Pwn2Own Automotive competition, which has returned to Automotive World in Tokyo, Japan.

Doucleff said: “No one is really speaking about cybersecurity and EV charging infrastructure today. That will change. As we rely on EVs more and more for our daily lives, emergency services and rideshare, cyber WILL become top of mind. At Alpitronic, it is already top of mind. Here we are again in another hackathon, this time in Tokyo where we are putting our money where our mouth is. It’s our cyber R&D team’s development, led by the famous Adam Laurie, against the rest of the best in the world! Sure to be an unpredictable and interesting outcome as usual.”

Adam Laurie, Chief Information & Product Security Officer at Alpitronic, is leading the Alpitronic team in the competition.

Laurie said: “Excited to finally be in Tokyo setting up for pwn2own where our HYC50 charger will be one of the targets for some of the 73 entries in the competition being drawn right now. I hope to see some some interesting and challenging hack attempts over the next 3 days.”

Why Cybersecurity Is a Critical Concern for EV Charging Companies

As electric vehicle adoption accelerates, EV charging infrastructure has rapidly evolved from a niche service into a core component of the modern energy and transportation ecosystem. Public and private charging networks now function as connected, software-driven platforms that manage power delivery, user authentication, payments, and grid interaction. This connectivity creates significant operational value but also introduces meaningful cybersecurity risk.

EV Chargers Are Part of the Critical Infrastructure Stack

Modern EV chargers are not standalone devices. They are Internet-connected assets integrated with cloud platforms, mobile applications, utility systems, and energy management software. A compromised charger is not just a broken endpoint. It can become an entry point into broader networks, including utility operations and customer data environments. As governments increasingly classify charging infrastructure as critical energy infrastructure, cybersecurity becomes a foundational requirement rather than an optional feature.

Most charging sessions involve user accounts, payment credentials, billing systems, and personally identifiable information. Cybercriminals are highly motivated to exploit vulnerabilities that enable fraud, data theft, or ransomware attacks. A single breach can expose thousands of customer records, trigger regulatory scrutiny, and permanently damage brand trust, particularly for operators competing in a crowded marketplace.

Unlike many digital services, EV charging has a direct physical impact. A successful cyberattack can disable chargers, interrupt fleet operations, or strand drivers without access to power. For commercial fleets, municipalities, and transit agencies, downtime translates directly into lost revenue, missed routes, and contractual penalties. In extreme cases, coordinated attacks could destabilize local charging availability or stress the electrical grid.

Grid Integration Expands the Attack Surface

As charging networks adopt smart charging, vehicle-to-grid (V2G), and demand-response capabilities, they become increasingly intertwined with utility systems. While these technologies improve efficiency and grid resilience, they also expand the attack surface. Poorly secured chargers or backend systems can be exploited to manipulate load, disrupt grid operations, or bypass utility safeguards.

Regulators are paying closer attention to cybersecurity across energy and transportation sectors. Standards such as ISO 27001, IEC 62443, and evolving national cybersecurity requirements are becoming relevant benchmarks for charging operators. Failure to implement reasonable cybersecurity controls can expose companies to fines, lawsuits, and disqualification from public funding or government contracts.

Cybersecurity Is a Competitive Advantage

For EV charging companies, cybersecurity is not just a defensive measure. It is a strategic differentiator. Fleet operators, multifamily property owners, utilities, and public agencies increasingly evaluate cybersecurity posture when selecting charging partners. Demonstrating secure system architecture, regular penetration testing, encrypted communications, and incident response readiness can directly influence procurement decisions.

Effective cybersecurity for EV charging companies requires a secure-by-design approach. This includes hardened hardware, secure firmware updates, strong authentication, network segmentation, continuous monitoring, and employee training. Importantly, security must be addressed across the entire ecosystem, from chargers and mobile apps to cloud platforms and utility integrations.

As EV charging networks continue to scale, the question is no longer whether they will be targeted, but when. Companies that treat cybersecurity as a core business priority will be better positioned to protect their customers, maintain uptime, and earn long-term trust in an increasingly digital and electrified transportation future.

Alpitronic, One of the Technology Leaders in High-Power DC Fast Charging

Alpitronic is widely regarded as one of the technology leaders in high-power DC fast charging, particularly through its Hypercharger platform. Headquartered in Italy, the company has built a strong reputation for engineering-focused design, emphasizing reliability, power density, and modular architecture. Alpitronic chargers are capable of delivering up to 400 kW, supporting both CCS and NACS configurations, and are designed to scale power dynamically across multiple dispensers. This makes them well suited for high-utilization sites such as highway corridors, fleet depots, and large public charging hubs where uptime and performance are critical.

A key differentiator for Alpitronic is its vertically integrated approach to hardware and power electronics, which allows for tighter quality control and faster iteration compared to competitors that rely heavily on third-party components. The Hypercharger’s modular design simplifies maintenance and reduces downtime, as individual power modules can be serviced or replaced without taking the entire unit offline. As charging operators increasingly prioritize total cost of ownership, network reliability, and future-proofing for higher-voltage vehicles, Alpitronic has emerged as a preferred supplier for many large charging networks across Europe and is rapidly expanding its footprint in North America.