Today’s power grids are under increasing strain, from rising instability and greater electrification demands to the rapid expansion of renewable energy sources. Together, these pressures are creating an urgent need for more resilient and responsive power distribution architectures. For many instances, a key solution that offers better resiliency, efficiency, and flexibility is the implementation of microgrids, or localized energy systems capable of operating independently of or alongside the main grid. Microgrids bring together a variety of distributed energy resources (DERs) such as solar, wind, battery storage, and even conventional generators.
Microgrids and Solid State Transformers: Powering the Future of Resilient Energy
Powering the Energy Transition from the Inside Out
By 2050, electricity is expected to more than double its share of final energy consumption, jumping from 23 percent to 52 percent. As a result, the way the world generates, transmits, stores, and uses energy is changing.
Topics: Energy
How Safety Capacitors Help You Deliver Safe and Efficient Solar Power
As solar adoption accelerates worldwide, inverter technology must also evolve to deliver greater efficiency, power density, and connectivity. Modern residential inverters are now required to manage energy from solar panels, battery storage, and the grid all while meeting stricter global safety standards. In this complex environment, safety capacitors play a crucial role in protecting users and ensuring reliable, interference-free operation.
How Capacitors Drive Energy Innovation at Every Stage
As energy systems evolve to support electrification, renewables, and digital infrastructure, the demands on power electronics are intensifying.
Knowles DSM Supercapacitor Modules Now Available in 60V
Knowles’ DSM supercapacitor modules use EDLC cells in series to expand energy storage capacity across a broader voltage range. Their instant charge and discharge capabilities outperform batteries, but without the shipping restrictions, thermal runaway risks, or much shorter lifespans associated with lithium-ion technology.
Topics: Capacitor, News and Events, Medical, Energy, Industrial
Type BLS Capacitors Offer a Reliable Solution for High Humidity Environments
Operating in high humidity settings exposes electronic components to severe degradation risks. Moisture leads to corrosion, insulation breakdown and reduced lifespan over time. Expertly engineered components enable reliable performance under these harsh conditions.
Topics: Capacitor, Automotive, Electric Vehicles, Energy
Enhancing Power Systems with Supercapacitor Technology
From EVs and industrial automation to renewable energy and smart logistics, power systems are becoming increasingly complex. As a result, they’re increasingly dependent on reliable, high-speed energy storage too. Enter supercapacitors, a critical technology bridging the gap between traditional batteries and real-time power demands.
Topics: Capacitor, Energy, Industrial
Extending the Range and Performance of Class I Ceramic C0G Series Capacitors for Power Converter Applications
Improving overall system performance starts with foundational component selections. Growing demand for high-energy, reliable and compact converters in electric vehicles (EVs) and other industrial and energy applications is encouraging development in components likemultilayer ceramic capacitors (MLCCs). MLCCs are known for their excellent electrical properties, reliability, and compact size; however, the demands they face only continue to grow.
Topics: Capacitor, News and Events, Automotive, Electric Vehicles, Energy
Supercapacitors For Fail-Safe Control in Industrial Systems
Unplanned power interruptions and shutdowns pose serious risks for industrial facilities. Even a few seconds of lost control can result in equipment damage, safety hazards, or production losses. Fail-safe systems are among the key risk mitigation techniques used in high-stakes industrial environments.
Topics: Capacitor, Energy, Industrial
How High-Energy Capacitor Banks Drive Plasma Research
From the National Ignition Facility (NIF) in California to the High Magnetic Field Facility in Dresden, high-energy capacitor banks are at the heart of high-power pulsed energy experiments worldwide. These systems provide a massive amount of fast-discharge energy for experiments that push the boundaries of science and technology.