Event & Blog

Understanding Power Factor Correction in Industrial Power Systems
Power factor is a key measure of electrical efficiency in AC systems. Technically, it is the ratio of real power (kW) to the total apparent power (kVA) supplied by the utility. In other words, PF = P/S, or equivalently the cosine of the phase angle (φ) between voltage and current. An ideal system has a unity power factor (PF = 1.0), meaning all the electrical power supplied is doing useful work.

What’s the Difference Between PF and cosφ?
In many industrial and commercial power systems, engineers often encounter a puzzling scenario: despite installing sufficient capacitor banks or static VAR compensators (SVCs) to offset reactive power (kVAR), the measured Power Factor (PF) still fails to meet utility requirements (e.g., below 0.9). This frustration frequently stems from a critical but overlooked distinction—the difference between Displacement Power Factor (cosφ) and True Power Factor (PF).

The Energy Storage Inverter ‘All-in-One’.
In an era of growing renewable energy demand, efficient and reliable energy storage is critical. The All-in-One Energy Storage Inverter — a compact innovation — is changing the way we store and use power.
Why Does Your Electricity Bill Include a "Power Factor Adjustment Fee"?
When you open your electricity bill, you probably focus on two things: how much energy you used and how much you have to pay. But sometimes, especially for industrial and commercial users, you may notice an extra line item: Power Factor Adjustment Fee (or sometimes simply called 'Power Factor Penalty'). Have you ever wondered what this fee is, and more importantly, how you can avoid it? Let’s dive into the basics of reactive power, power factor, and why reactive power compensation matters.

What is An Active Harmonic Filter?
An Active Harmonic Filter (AHF) is an important device that improves power quality. Its main jobs are to reduce harmonic distortion in power systems and to adjust reactive power as needed. The AHF connects to the grid in parallel and performs real-time detection of harmonic components in the grid.

The Advantages of Medium Voltage SVG vs. Traditional SVC: Next-Gen Reactive Power Compensation
Discover why Medium Voltage SVG (Static Var Generator) outperforms traditional SVC in reactive power compensation—especially for steel plants, arc furnaces, and rolling mills. Learn how SVG delivers faster response (≤5ms), eliminates harmonics, prevents resonance, and cuts energy costs by 30-50%. Real-world case studies show SVG’s impact on power factor correction, voltage flicker reduction, and production efficiency. The future? AI-enhanced and grid-forming SVGs!

Lower Power Factor in PV Plants and the SVG Solution
With the rapid growth of photovoltaic (PV) power generation, solar farms are increasingly contributing to grid stability and renewable energy supply. However, one persistent issue in PV plants is the low power factor caused by fluctuating solar generation. Traditional capacitor-based compensation methods often struggle to provide precise and dynamic reactive power support, leading to inefficient grid performance and potential penalties from utilities.
To address this challenge, Static Var Generators (SVGs) have emerged as a superior solution for dynamic reactive power compensation. Unlike conventional capacitor banks, SVGs offer fast, continuous, and precise reactive power adjustment, ensuring stable voltage and power factor compliance even under highly variable PV generation conditions.

AHF vs PHF: Power System Harmonic Filter Solutions
In the era of Industry 4.0, harmonic pollution caused by nonlinear loads has become a critical challenge for power system stability. Choosing the right harmonic filter is essential for protecting equipment lifespan and improving energy efficiency. As a technological leader in power electronics, Intone Power provides an in-depth analysis of Active Harmonic Filters (AHF) and Passive Harmonic Filters (PHF), helping you make informed decisions.

AHF Sizing Guide 2025: Calculate Active Harmonic Filter Size for Industrial Systems
Active Harmonic Filters (AHF) are essential for improving power quality in modern power systems. Harmonics can cause equipment overheating, energy waste, and even machinery failures. This guide explains how to install and use AHFs step by step, using simple language and practical tips.

Mitigate Harmonics per IEEE 519-2014 in Power Systems
As industries increasingly rely on advanced electrical systems, harmonic distortion poses a significant threat to equipment efficiency, safety, and grid stability. The IEEE 519-2014 standard serves as the gold standard for managing harmonic distortion in power systems. At Intone Power, we empower businesses to achieve compliance and optimize energy performance. In this guide, we break down the key updates, measurement methods, and actionable strategies to meet IEEE 519-2014 requirements.










