Infineon Technologies, a global leader in power systems and Internet of Things (IoT) solutions, has become part of NVIDIA’s MGX AI Factory ecosystem, contributing advanced power delivery technologies for the next generation of AI data centers. The company’s power management portfolio will support NVIDIA’s MGX™ platform and 800 VDC power architecture—an open and modular framework developed to meet the demands of AI factories in the era of agentic AI. By enabling 800 VDC MGX™-compatible power racks, Infineon helps existing AI infrastructure achieve greater computing capacity and power density while providing a pathway for future upgrades.

Adam White, President of Infineon’s Power & Sensor Systems Division, stated that the collaboration with NVIDIA aims to reshape power distribution from the electrical grid all the way to the processor level, a critical requirement for advancing AI technologies. He noted that as AI models become increasingly sophisticated and resource-intensive, data centers must significantly boost computational performance while operating within existing space, energy, and cooling limitations. Through the combination of NVIDIA’s flexible MGX architecture and Infineon’s power solutions, data centers can achieve more efficient energy distribution across their power networks. He also expressed enthusiasm about continuing joint efforts to bring additional MGX-based innovations to market.

Infineon’s expertise in end-to-end power conversion spans the entire power chain, from grid infrastructure to processor cores, utilizing a range of semiconductor technologies including silicon (Si), silicon carbide (SiC), and gallium nitride (GaN). This broad technological foundation supports the industry's move toward large-scale adoption of 800 VDC architectures. Infineon’s GaN-based solutions, operating at switching frequencies approaching 1 MHz, enable highly compact bus converters with exceptional efficiency. Additionally, the company’s proprietary SiC JFET technology, paired with specialized control integrated circuits, provides effective protection and hot-swap capabilities for native 800 V server boards. These solutions facilitate power conversion from 800 V to intermediate voltages such as 50 V, 12 V, and even 6 V.

Within the NVIDIA MGX AI Factory ecosystem, Infineon supports the full 800 VDC power conversion pathway, delivering intermediate bus and core voltages for systems built on NVIDIA MGX architecture. By minimizing the number of power conversion stages and bringing DC power closer to server racks, the approach enhances overall energy efficiency, streamlines infrastructure requirements, and enables higher-density AI computing environments.

Electricity distribution was more straightforward half a century ago compared to the complexity we face today. Back then, centralized power stations generated electricity, and transmission networks efficiently delivered it to homes and businesses, allowing consumers to access it at the flip of a switch. Demand patterns were relatively predictable, with peak usage occurring during the evening when people returned home to engage in activities like cooking, adjusting temperatures, watching television, and doing laundry.
 
In the present day, electricity grids have evolved into dynamic systems. Various power plants, including solar, wind, and geothermal, can be strategically located across the network. Utilities now have the capability to adjust electricity generation levels as needed. Moreover, they can actively manage demand by remotely controlling or reducing loads, such as consumers' heating, ventilation, air conditioning (HVAC), or refrigeration systems.

Consumers and businesses are also leveraging software and devices, like smart thermostats, to autonomously manage electricity usage, optimizing energy consumption throughout the day. Furthermore, individuals can contribute to energy production through technologies like solar panels, making their consumption patterns less predictable.
 
Cities, regions, and countries are transitioning to smart grids that utilize digital communication technology to detect and respond to local changes in electricity usage. The digitalization of electric grids not only facilitates sustainable energy sourcing and utilization but also enhances cybersecurity measures.
 
The necessity of smart grids arises from the perishable nature of electricity, requiring immediate use upon generation. Analogous to water pipes, overloading power lines and related equipment can lead to delivery interruptions, while insufficient voltage may result in brownouts or blackouts. The transition from centralized power plants to diverse renewable resources, such as solar and wind farms, has increased the number of power-generating assets and the volume of data that grid operators and utilities must monitor.
 
In this evolving landscape, emerging technologies like batteries for energy storage and demand response provide unprecedented control over power supply and load management. Smart grids demand enhanced data gathering capabilities to support the intricacies and speed required for such advanced control and coordination.

Enabling two-way communication via the Internet of Things (IoT)
The initiation of smart grid construction involves enhancing capabilities to capture more detailed data, essentially expanding the Internet of Things (IoT). IoT refers to devices equipped with sensors, processing capacity, software, and other technologies that facilitate the exchange of data with other devices and systems over the Internet or other communication networks.
 
In the context of our electricity system, this entails the integration of "smart meters" capable of measuring electricity usage at more frequent intervals. These smart meters offer real-time data on electricity consumption, reducing the reliance on estimated bills and leading to potential cost savings for consumers. Additionally, this data empowers utilities to enhance their performance and improve service quality within their service areas.
 
The capabilities of IoT are also embedded in rooftop solar and home battery systems, allowing consumers' equipment to share data with utilities. In some instances, IoT enables utilities to send signals in response to extreme weather events or disruptions, such as a power plant outage. Furthermore, with consumer consent, certain connected devices can receive signals from electric utilities to adjust settings or temporarily turn off, contributing to a reduction in grid demand.
 
Another facet of the digitalization of electricity involves IoT-enabled building controls. These controls assist property managers in monitoring systems and devices, managing energy consumption, tracking occupancy levels for health and safety, and troubleshooting issues.
 
The consolidation of data from diverse IoT resources demands increased computing power to compile, analyze, and report on events. This enables grid operators and utilities to take timely and informed actions.
 
Achieving two-way power dynamics through energy storage and electric vehicles
Digitalization is also progressing through the widespread adoption of electric vehicles and larger-scale batteries, spanning from residential systems to projects of considerable size.
 
Electric vehicles introduce a new category of load, drawing additional electricity from grids during charging. As charging times can vary, this introduces a layer of less predictable demand to the system. Conversely, some electric vehicles and chargers offer bidirectional charging capabilities. If consumers opt into utility programs, their vehicle batteries can support electric grids during periods of high demand or stress, resuming charging once conditions normalize.
 
Large-scale batteries and various energy storage solutions are being deployed in homes, businesses, and at grid scale. Energy storage allows the grid to capture and dispatch energy, providing flexibility and resilience. This is particularly crucial when there is excess power generated by solar during the day or wind at night, preventing the waste of generated energy.
 
With more flexible grids receiving detailed data on both electricity supply and demand from smart meters, operators can effectively accommodate a broader range of resources with different behaviors. In grids powered by a growing percentage of intermittent renewables, granular data becomes instrumental in providing utilities with transparency to meet customers' needs and maintain reliable power throughout the day.

Electric Grids and Cybersecurity
The digital transformation of electric grids incorporates a crucial element: the reinforcement of cybersecurity through intelligent controls that can be accessed rapidly and remotely.
 
Cybersecurity aligns with the United Nations' Sustainable Development Goal 16, focusing on peace, justice, and robust institutions while emphasizing the protection of the right to privacy.
 
As the adoption of IoT devices and smart meters continues, there is a concerted effort to manufacture and maintain them according to rigorous cybersecurity standards. This proactive approach serves to safeguard grids from malicious entities aiming to disrupt their functionality. Enhanced cybersecurity not only shields the integrity of electricity customer privacy but also ensures the safety of customer records and usage data.
 
Cisco's Contribution to Advancing Electricity Digitalization
Cisco's technology plays a pivotal role in helping the world prepare for the impacts of a changing climate. This includes monitoring grid reliability, facilitating grid decarbonization, overseeing transportation and water systems, and supporting future workplace environments.
 
A notable collaboration involves Cisco partnering with Enel, Italy's largest electricity provider, to introduce innovative solutions for agile grid operation, regulation, and supervision. Leveraging Cisco technology, Enel can proactively monitor its energy grid, addressing faults or failures before they jeopardize the network. Cisco is also assisting Enel in seamlessly integrating its grid with renewable energy sources like solar and wind, expediting the transition to a low-carbon electricity grid.
 
Additionally, Cisco Meraki sensors, which are IoT devices tracking various energy and environmental data, are making a significant impact. Creative agency WPP, for instance, is using these sensors to reduce energy consumption in its data center campuses. With closer monitoring facilitated by Cisco technology, WPP has reported a remarkable 44 percent reduction in cooling energy and a 27 percent decrease in overall energy consumption at its Sea Containers House data center in London. WPP plans to replicate this monitoring approach globally, anticipating similar energy savings.

To know more about how Cisco is supporting the digitalization of energy and the creation of smart grids and buildings, click here.