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The Invisible Pillar of Power Line Carrier Communication: Redefining High-Voltage Coupling System Architecture Design

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Produktdetails
Ablösung 0 Pfund.0040 Stoßspannung 1,5ur ● 1 Min
Isolationsresistenz ≧ 1,0 × 105 mΩ
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Produkt-Beschreibung

The Invisible Pillar of Power Line Carrier Communication: Redefining High-Voltage Coupling System Architecture Design


Drawing:

The Invisible Pillar of Power Line Carrier Communication: Redefining High-Voltage Coupling System Architecture Design 0

Parameters:

No. Specification Dissipation Withstanding voltage Insulation resistance Dimension(mm)
1 20kV-2000pF








≦0.0040








1.5Ur 1min








≧1.0×105MΩ

D H L D M
2 20kV-10000pF 45 19 23 12 5
3 20kV-18000pF 65 15 19 12 5
4 30kV-1000pF 80 17 25 12 5
5 30kV-2700pF 45 24 32 12 4
6 30kV-12000pF 60 20 28 12 4
7 40kV-150pF 20 33 41 8 4
8 40kV-500pF 28 33 41 8 4
9 40kV-7500pF 80 24 29 12 6
10 40kV-10000pF 80 22 26 16 5
11 50kV-1000pF 50 30 34 12 4
12 50kV-1000pF 32 27 31 16 5
13 50kV-5600pF 80 31 35 16 5
14 60kV-1500pF 50 31 34 12 5
15 60kV-3000pF 65 32 35 16 5
16 100kV-500pF 50 54 58 12 5
17 100kV-2000pF 51 32 35 16 5
18 Insulator type 100kV-1500pF 68 36 40 16 5
19 150kV-820pF 65 95 100 12 5
20 200kV-600pF 50 90 94 16



The Invisible Pillar of Power Line Carrier Communication: Redefining High-Voltage Coupling System Architecture Design

In power line carrier communication system architectures, high-voltage doorknob capacitors are far more than simple passive components; they are crucial to system performance. Traditional design approaches that treat capacitors as standalone components are outdated. Our high-voltage doorknob capacitors, through system-level optimization, redefine the performance boundaries of coupling units.

Modern PLC systems face unprecedented challenges: increased interference caused by spectrum congestion, stringent requirements for real-time data transmission in smart grids, and a deteriorating noise environment brought on by the integration of new energy sources. Our high-voltage doorknob capacitors utilize multilayer composite dielectric technology to achieve precise impedance characteristics in specific frequency bands (such as CENELEC A/B bands or FCC bands), effectively suppressing out-of-band interference. Our patented electric field balancing design addresses the partial discharge problem of traditional capacitors under steep pulses, enabling the system to maintain excellent signal-to-noise ratio in complex power noise environments.

We provide more than just capacitors; we provide complete coupling system solutions. Through electromagnetic-thermal multiphysics co-simulation, we optimize the matching characteristics of the capacitors and the coupled filters, reducing impedance mismatch losses in traditional designs by over 60%. The innovative distributed heat dissipation structure reduces the product's temperature rise by 25°C when running at full load compared to traditional designs, ensuring the long-term stability of the system in high-temperature environments.