• 110 - 500kV Composite-Housed Line Surge Arresters
110 - 500kV Composite-Housed Line Surge Arresters
discuss personally
Model
YH10CX1-288/755
Basic info
Brand ROCKWILL
Model NO. 110 - 500kV Composite-Housed Line Surge Arresters
Rated voltage 220kV
Rated frequency 50/60Hz
Series YH10CX
Product Detail

Description

110 - 500kV Composite-Housed Line Surge Arresters are specialized protective devices designed for high-voltage transmission lines operating within the 110kV to 500kV range. Encased in durable composite housings (typically silicone rubber), they integrate advanced metal oxide varistor (MOV) technology. Installed directly on transmission lines, these arresters serve as a critical defense against overvoltages caused by lightning strikes, switching transients, and other electrical disturbances. By rapidly diverting surge currents to the ground and clamping voltage levels to safe thresholds, they prevent damage to line components, minimize power outages, and ensure the stable and efficient operation of 110 - 500kV transmission networks.

Features

Broad Voltage CompatibilityTailored to cover the 110kV to 500kV range, these arresters are engineered to match the specific voltage requirements of high-voltage transmission lines. This versatility allows them to provide consistent and reliable protection across various segments of the power grid within this voltage spectrum.

Durable Composite HousingThe composite (silicone rubber) housing offers exceptional performance. It exhibits strong resistance to environmental factors such as UV radiation, extreme temperatures, moisture, and pollution, ensuring long-term stability even in harsh outdoor conditions. Additionally, its lightweight nature simplifies installation and reduces the load on transmission line structures.

High-Performance MOVsEquipped with high-quality metal oxide varistors, these arresters feature excellent nonlinear resistance characteristics. During overvoltage events, the MOVs quickly conduct large surge currents, effectively limiting voltage spikes. In normal operation, they maintain a high-resistance state, minimizing leakage current and energy loss.

Line-Specific DesignDesigned specifically for integration with transmission lines, they have a compact and streamlined structure that fits seamlessly into line configurations. This design ensures minimal impact on line performance while providing optimal protection, making them suitable for both overhead and certain underground transmission line setups.

Superior Surge HandlingCapable of withstanding high impulse currents generated by severe lightning strikes and switching surges. Their robust surge handling capacity ensures that even under extreme electrical disturbances, the arresters can effectively mitigate the impact, safeguarding line insulators, conductors, and other critical components.

Low Maintenance RequirementsThe composite housing is resistant to aging and corrosion, reducing the need for frequent maintenance. The MOVs are designed for long-term reliability, with stable performance over extended periods, minimizing downtime and operational costs associated with upkeep.

Compliance with StandardsAdheres to international industry standards such as IEC 60099 - 4 and ANSI/IEEE C62.11, ensuring compatibility with global transmission systems. Compliance with these standards guarantees that the arresters meet strict safety and performance criteria, providing confidence in their operational effectiveness.

Enhanced Grid Reliability:By preventing line tripping and equipment damage caused by overvoltages, these arresters contribute significantly to the overall reliability of the power grid. They help maintain continuous power transmission, reducing the frequency and duration of outages, which is crucial for meeting the demands of industrial, commercial, and residential users.

Model 

Arrester

System

Arrester Continuous Operation

DC 1mA

Switching Impulse

Nominal Impulse

Steep - Front Impulse

2ms Square Wave

Nominal

Rated Voltage

Nominal Voltage

Operating Voltage

Reference Voltage

Voltage Residual (Switching Impulse)

Voltage Residual (Nominal Impulse)

Current Residual Voltage

Current - Withstand Capacity

Creepage Distance

kV

kV

kV

kV

kV

kV

kV

A

mm

(RMS Value)

(RMS Value)

(RMS Value)

Not Less Than

Not Greater Than

Not Greater Than

Not Greater Than

20 Times






(Peak Value

(Peak Value

(Peak Value

(Peak Value


YH10CX1-102/296

102

110

81.6

148


296


600

5438

YH10CX1-204/592

204

220

159

296


592


600

10600

YH20CX1-396/1050

396

500

297

561


1050


1200

23310

YH10CX1-204/592K

204

220

159

296


592


600

5400

YH10CX1-288/755

220

330

216

408


755


600

16100

Know your supplier
ROCKWILL
Rockwill Electric Group Global Manufacturer of High voltage and medium-voltage power equipment and smart grid solutions. Headquartered in Wenzhou, China. Serving 100+ countries with quality, innovation, and trust. What We Offer: • HV-MV switchgear (VCB, SF₆ circuit breakers, RMU, GIS) • Distribution transformers and substations • Smart grid and monitoring systems • Solar, wind, EV charging, and energy storage solutions • EPC turnkey power projects Certified: ISO 9001 / ISO 14001 / ISO 45001
Main Categories
High Voltage Electrical Apparatus
Business Type
Design/Manufacture/Sales
Highest Annual Export (USD)
$150,000,000
Professional Experience
16 years
Workplace
108000m²m²
占位
占位
Related Products
Related Knowledges
Ensuring Reliability: A Deep Dive into Transformer Maintenance
Ensuring Reliability: A Deep Dive into Transformer Maintenance
IntroductionElectric transformers are the backbone of modern power distribution systems, silently enabling the reliable delivery of electricity to homes, businesses, and industries. As these critical assets age and the demand for uninterrupted power grows, the importance of diligent transformer maintenance has never been greater. This essay explores the essential role of transformer maintenance, highlighting the value of proactive care, the impact of advanced diagnostic technologies, and the tra
Vziman
09/03/2025
How does a transformer work?
How does a transformer work?
Transformer Operation PrincipleA transformer is an electrical device that operates on the principle of electromagnetic induction to transfer electrical energy from one circuit to another. It enables the adjustment of voltage levels within an alternating current (AC) system, either stepping up (increasing) or stepping down (decreasing) voltage while maintaining the same frequency.Working Principle:Basic ComponentsA transformer consists of two coils, known as windings—the "primary winding" connect
Rockwell
09/03/2025
Constant testing of high-voltage cable lines
Constant testing of high-voltage cable lines
1. Definition of High-Voltage Cable Line Constant TestingHigh-voltage cable line constant testing refers to the systematic measurement, using specialized instruments, of electrical parameters such as resistance, inductance, capacitance, and conductance before a cable line is commissioned or after major maintenance. The aim is to obtain fundamental data characterizing the electromagnetic properties of the cable, serving as a critical testing phase that provides accurate parameter support for powe
Oliver Watts
09/03/2025
Technical Analysis of 220 kV High-Voltage Cable Construction in Winter
Technical Analysis of 220 kV High-Voltage Cable Construction in Winter
1.Work Environment Requirements and Safeguard MeasuresBased on technical requirements for cable equipment storage, laying, transportation, laying, transposition, testing, and cable terminations, the project owner and construction units have conducted extensive trials and implemented protective measures regarding ambient temperature, humidity, bending radius, traction control, and route optimization. These measures ensure high-voltage cable quality and on-site safety under harsh winter conditions
James
09/03/2025
Withstand voltage test of high-voltage cables
Withstand voltage test of high-voltage cables
Withstand voltage test is an insulation test, but it is a destructive test that can reveal insulation defects difficult to detect in non-destructive testing.The test cycle for high-voltage cables is three years, and it must be conducted after non-destructive tests. In other words, the withstand voltage test is performed only after all non-destructive tests have been passed.Most high-voltage cables used today are cross-linked polyethylene (XLPE) cables, which can have large cross-sections and cov
Oliver Watts
09/03/2025
Analysis of Abnormal Causes of High-Voltage Cable Grounding Circulation and Typical Cases
Analysis of Abnormal Causes of High-Voltage Cable Grounding Circulation and Typical Cases
I. Introduction to Cable Grounding Loop CurrentCables rated 110 kV and above use a single-core structure. The alternating magnetic field generated by the operating current induces a voltage on the metallic sheath. If the sheath forms a closed circuit through the earth, a grounding loop current will flow on the metallic sheath. Excessive grounding loop current (loop current exceeding 50 A, more than 20% of the load current, or a ratio of maximum-to-minimum phase current greater than 3) not only a
Felix Spark
09/03/2025
×
Inquiry
Download
IEE-Business is dedicated to serving the personnel in the global power industry.
Join IEE-Business, not only can you discover power equipment and power knowledge, but also canhnd like - minded friends!