Event & Blog

In the field of power electronics, PFC (Power Factor Correction) serves as an important mechanism that improves electrical systems' performance and general effectiveness. PFC has a set of techniques to increase the power factor coefficient for electric circuits. 

The increasing adoption of solar panels has led to challenges like harmonic distortion, reactive power imbalance, and voltage instability, affecting power quality and system efficiency. Solutions like Static Var Generators (SVG) and Active Harmonic Filters (AHF) effectively address these issues, ensuring stable, reliable, and efficient photovoltaic system performance.

Active Harmonic Filters (AHFs) are essential for reducing harmonics and improving power quality in electrical systems, and properly sizing them is crucial for effective performance. The sizing process involves conducting a harmonic analysis, assessing load conditions, and calculating the harmonic currents that need to be compensated. 

This blog provides a detailed explanation of active and passive compensation principles, highlighting their differences and applications in power systems.

Newest Design Automatic Power Factor Correction (APFC) panel. Best product for optimizing power factor, and cost efficiency.

When most people think of the battery industry, they often associate it with electric vehicles (EVs). Yet, the industry’s growth isn’t driven by EVs alone. Battery energy storage systems (BESS) have emerged as essential to today’s power infrastructure, especially with the surge in renewable energy sources like solar and wind power. BESS plays a critical role in supporting a steady power supply, ensuring resilience, and even enhancing grid stability.

In today's power systems, maintaining high power quality and system stability is crucial, especially in environments with fluctuating loads and complex electrical configurations. One of the most effective solutions for improving power factor (PF) and ensuring voltage stability is the High Voltage Sensing Static Var Generator (SVG). This innovative technology offers a more efficient and dynamic way of compensating for reactive power, especially in systems with a clear distinction between high and low voltage sides.

In this blog, we will explore the principle behind the High Voltage Sensing SVG, how it works, and why it is an essential solution for power factor improvement in modern power systems.

We just wrapped up an inspiring Recognition Meeting where we celebrated recent successes and discussed exciting goals for the future. I'm so grateful for our team's hard work, dedication, and commitment to excellence.

In power systems, three-phase imbalance is a common issue that can lead to inefficient power distribution, equipment overheating, and even power outages. This is especially prevalent in renewable energy settings like photovoltaic (PV) systems, where imbalances arise due to unpredictable power generation and varying load demands.

Depending on the charging setup, a Mode 4 charger can use a Type 2 plug for up to 80 amps or a Combo plug (CCS) for currents up to 200 amps, achieving power levels as high as 170 kW.