NEWS
The impact of ABB medium-voltage frequency converters on the daily lives of ordinary people
March 30, 2026
Technology changes life. I deeply feel this. Now, I will mainly introduce the impact of industrial technology on us from several aspects;
Firstly, a brief introduction to the two series of medium-voltage frequency converters.
These two types of frequency converters are mainly used in the heavy industry sector, responsible for driving large motors. Depending on the power and application scenarios, they have distinct roles and functions.
ACS1000: General-purpose machine (315 kW ~ 5 MW)
Key features: It is compactly designed, highly reliable, and the output waveform is a standard sine wave, making it very friendly to the motor and eliminating the need for specially insulated motors. This makes it highly suitable for “reconstruction” projects, allowing for easy replacement of old equipment and integration into existing systems.
Typical applications: Widely used in various industrial scenarios where speed regulation requirements are not extremely strict, such as fans, pumps, compressors, conveyor belts, etc. In simple terms, any large equipment that requires “smooth operation” can be seen with its presence.
ACS6000: High-performance Expert (3.0 MW ~ 36.0 MW)
Key features: The most prominent feature of this device is its extremely high power output, and it adopts a modular design, supporting single motor operation or multiple motors working together. It also offers redundant configuration (i.e., partial module failure does not affect the overall operation), ensuring uninterrupted critical production. Typical applications: Specifically designed for “core processes” in industries such as metallurgy, mining, and shipping. For example, it is used in the main shaft elevators of mines, driving synchronous motors with a power of up to 4500 kW to lift ore from hundreds of meters underground. In rolling mills, it drives rolling machines to transform red-hot steel billets into thin sheets, requiring extremely precise speed and torque control.
Next, let’s briefly explain the differences between low-power, high-power, and medium-high-voltage frequency converters.
| Inverter type | Power/ Voltage range | Core features and design philosophy | Typical application scenarios |
| Low-power low-voltage frequency converter | Power: < 0.2kW – several kW Voltage: Single-phase 220V or three-phase 380V | Compact, integrated, economical: The pursuit of small size, easy installation, low cost, the core is to control small motors. | Factory automation equipment: such as packaging machines, conveyor belts, textile machinery, and small air compressors |
| High-power low-voltage frequency converter | Power: Several hundred kW – Several thousand kW Voltage: Usually three-phase 380V/690V | High current, high overload capacity: The design is more complex, with high heat dissipation requirements, and is used to drive heavy industrial equipment. | Heavy industrial loads: such as large injection molding machines, high-power fans and water pumps, and mining belt conveyors, etc. |
| Medium and high voltage frequency converter | Power: 315kW – 36MW+ Voltage: 2.3kV – 10kV and above | High voltage, high reliability, technology-intensive: The main circuit is complex, with extremely high requirements for harmonics, safety and reliability. ACS1000/6000 all fall into this category. | Core industrial processes: such as mine hoists, rolling mills, large-scale petrochemical compressors, sugar mills’ presses, and ship propulsion systems |
Finally, let’s talk about the profound impact of industrial technology on the lives of ordinary people.
These seemingly distant industrial equipment actually have a profound impact on every aspect of our lives every day:
Make products cheaper and resources more efficient: The greatest contribution of industrial frequency converters is energy conservation. In industries with high energy consumption such as mining and metallurgy, by using frequency conversion speed regulation, average energy savings can reach 20%. Just think about the huge amount of electricity consumed in steel smelting, mining of minerals, and cement production. Every saved kilowatt-hour means lower costs, less coal consumption, and less carbon emissions. Eventually, this will be reflected in the prices of the goods we purchase, such as cars, household appliances, and housing, and it also concerns the environment we rely on.
Ensure stable operation of infrastructure: The water flowing out of your household faucet might have been pressurized by a frequency converter pump and sent up to the high-rise building; the ventilation system of the subway you take for travel is also precisely controlled by a frequency converter. More importantly, facilities with extremely high requirements for power quality, such as data centers and chip manufacturing plants, use medium-voltage UPS (uninterruptible power supply) to ensure absolute stability and avoid data loss or huge economic losses due to voltage fluctuations. This ensures that our online world and high-end manufacturing are not affected.
Improve quality of life and comfort: In fact, frequency conversion technology is not far from us. It has already entered our homes. Your household frequency conversion air conditioners, refrigerators, and washing machines are essentially small frequency converters at work.
Frequency conversion air conditioners can precisely control temperature, avoiding the “on-off-on” phenomenon of traditional fixed-frequency air conditioners that causes sudden changes in temperature, making it more comfortable, more energy-efficient, and quieter.
Frequency conversion washing machines can make the drum of the drum rotor rotate at a high speed smoothly during the spin cycle, not only with lower noise but also better dehydration results, and clothes dry faster.
In summary, from the macro perspective of industrial energy conservation and carbon reduction, to the meso-level of urban infrastructure support, and down to the micro level of improving household living quality, variable frequency technology has been playing an indispensable “behind-the-scenes hero” role throughout the process.
Just now, our company received a batch of brand-new accessories for medium-voltage frequency converters. We hope that the industrial leaders can fully utilize their functions and create a happy life for the people.
| Manufacturer | Product code | Description |
| ABB | 3BHB003041R0101 | UFC719AE101 |
| ABB | 3BHE021887R0101 | UBC717BE101 |
| ABB | 3BHE024855R0101 | UFC921A101 |
| ABB | 3BHB004661R0101 | KU C711AE101: GATE UNIT PWR SUPL |
| ABB | 3BHB004661R0001 | KU C711AE01: GATE UNIT PWR SUPL |
| ABB | 3BHB005243R0117 | KUC755AE117: GATE UNIT PWR SUPL |
| ABB | 3BHB005243R0106 | KUC755AE106: GATE UNIT PWR SUPL |
| ABB | 3BHB005243R0105 | KUC755AE105: GATE UNIT PWR SUPL |
| ABB | 3BHB016295R0001 | MINI-PS-12-24DC/24DC/1 |
| ABB | 3BHB016371R0002 | QUINT -DC-UPS/24DC/20 |
| ABB | 3BHB027204R0001 | QUINT-PS/1AC/24DC/20 |
| ABB | 3BHE024577R0101 | PP C907 BE: AMC34, Control Board |
| ABB | 3BHE027859R0102 | DDC779CE102 Digital Control Input |
| ABB | 3BHB028273R0002 | DC AXIAL COMPACT FAN |
| ABB | 3BHE003604R0102 | UFC765AE102 |
| ABB | 3BHL000986P7001 | LWN1902-6E AC-DC Converter Power Supply |
| ABB | 3BHL000986P7002 | LWN2660-6E AC-DC Converter Power Supply |
| ABB | 3BHE021083R0101 | XVC770BE101 |
| ABB | 3BHL000385P0101 | IGCT 5SHX0845F0001 |
| ABB | 3BHE006373R0101 | XVC769AE101 |
| ABB | 3BHE032593R0001 | IPS 21-24V-35 AD Power Supply |
| ABB | 3BHB007211R0101 | XVC768AE101 |
| ABB | 3BHB003688R0101 | KUC711 AE Power Supply Board |
| ABB | 3BHB007209R0102 | XVC767AE102 |
| ABB | 3BHE021951R0124 | KV C758 A124 |
| ABB | 3BHE009017R0102 | VLSCD Voltage Short-Circuit Detection Board |
| ABB | 3BHE009017R0101 | VLSCD Voltage Short-Circuit Detection Board |
| ABB | 3BHE039426R0101 | UFC912A101 |
| ABB | 3BHE020959R0127 | KVC757A |
| ABB | HIEE300936R0101 | UFC718AE101 |
| ABB | 3BHE024855R0101 | UFC921A101 |
| ABB | 3BHB003041R0101/3BHB000272R0101 | UF C719 AE101 I/O Interface Board |
| ABB | 3BHE004573R0141 | UF C760 BE141 Control Card |
| ABB | 3BHE004573R0142 | UF C760 BE142:INU-Interface Board |
| ABB | 3BHB017688R0001 | IPS 21 – 35 AD Power supply |
| ABB | 3BHE004573R0143 | UF C760 BE143:INU-Interface Board |
| ABB | 3BHB022793R0001 | ASE2 UD C920 AE01 |
| ABB | 3BHB022793R0001 | ASE2 UD C920 AE01 |
| ABB | HIEE401782R0001 | LT C391 AE01 |
| ABB | 3BHE028959R0101 | PP C902 CE101 |
| ABB | 3BHE033067R0102 | GC C960 C102 ACS2000 |
| ABB | 3BHB006338R0001 | UNS 0881 Excitation Main Control Board |
| ABB | 3BHE021083R0101 | XV C770 BE101 |
| ABB | 3BSE050091R65 | PFEA112-65 Tension Electronics |
| ABB | 3BSE050092R65 | PFEA113-65 Tension Electronics |
| ABB | 3BSE050090R65 | PFEA111-65Tension Electronics |
