Event & Blog

Introduction Imagine you’re trying to silence a busy, modern office. You could put a thick, stationary wall in the middle of the room. It might block some noise, but it’s heavy, it’s permanent, and if the noise moves to the other side, the wall is useless. That’s a Passive Harmonic Filter (PHF).

Do your factory lights flicker? Do your sensitive machines often break down? These are common signs of poor power quality. In today's world, every business relies on a stable electrical system. 

Have you ever wondered why some computer power supplies are more efficient and stable? There's a little secret behind it called Power Factor Correction (PFC). Think of it like the "real beer" versus "foam" in a glass of beer.

Solar plants need stable voltage and accurate power factor control. Many utility-scale solar projects connect to medium voltage grids at 10kV, 11kV, 20kV, 33kV, or 35kV. At this level, small power quality problems can affect the full grid connection point.

Have you ever wondered why some computer power supplies are more efficient and stable? There's a little secret behind it called Power Factor Correction (PFC). Think of it like the "real beer" versus "foam" in a glass of beer.

In the fast-evolving landscape of modern industrial power systems, are you facing unexplained equipment failures? Are your monthly utility bills inflated by high reactive power penalties? Or perhaps your transformers are running hot and noisy even when they are not at full capacity? If these issues sound familiar, you are likely dealing with poor power factor and electrical pollution.

Poor power quality causes huge financial losses for businesses worldwide. It leads to server shutdowns, damages sensitive medical equipment, and severely disrupts industrial production. Harmonic pollution in the electrical grid is the main reason for these problems. Research shows that poor power quality costs European businesses over €150 billion each year [1].