Filter

Categories
Price Range
Min Price:
Max Price:
₹
-
₹
Discount
Import Country
Brands
Promos
Express Shipping

Relay

Showing 40 out of 23983 products

Sort by
₹14,159  
The Omron Terminal Relay DC 24 V, G3DZ-F4PU DC24 is a versatile and highly reliable electrical component used in various industrial and commercial applications to control and manage electrical circuits and systems. This relay, renowned for its advanced specifications and innovative features, is an essential tool for engineers and technicians seeking precise and dependable control over various devices and equipment. One of the key features of the Omron Terminal Relay is its flexibility. This relay is designed to be adaptable to a wide range of applications, offering different contact configurations and current/voltage ratings to suit specific needs. This versatility makes it suitable for controlling various loads, from small signaling devices to larger industrial machinery, in applications as diverse as manufacturing, automation, and building control systems. The Omron Terminal Relay is known for its precision and reliability. It is engineered to provide accurate and consistent switching of electrical circuits, ensuring that critical processes and equipment operate as intended. The reliability of these relays is essential in industries where any disruption in electrical control can lead to costly downtime or safety risks. Ease of installation and user-friendliness are also noteworthy features of the Omron Terminal Relay. These relays typically come with clear and intuitive labeling, making it easy for technicians to wire and troubleshoot. This simplicity streamlines installation, minimizes errors, and reduces setup time. Furthermore, these relays often incorporate diagnostic features that allow for real-time monitoring and status feedback, facilitating proactive maintenance and reducing system downtime. The Omron Terminal Relay is designed for durability and resilience, able to withstand harsh industrial conditions, including temperature fluctuations, mechanical stress, and electrical disturbances. This robust construction ensures that the relay functions reliably in challenging environments. In conclusion, the Omron Terminal Relay is a fundamental component for precise and reliable electrical control in a wide range of applications. Its flexibility, precision, user-friendliness, and reliability make it an indispensable tool for engineers and technicians seeking to optimize the control and automation of electrical systems. By incorporating the Omron Terminal Relay, industries can achieve accurate and dependable control over electrical circuits and equipment, ultimately improving operational performance, reducing downtime, and ensuring safety and efficiency.
₹2,359  
Selec's 600VPR-1-180/300V Voltage Protection Relay monitors the difference between input and output voltage. It prevents the voltage from getting too high or too low. The relay is constructed with a Polyester resin case that provides protection from harsh external environments. Its terminal block is sealed to prevent contamination of internal contacts, and it has an auto-reset function that resets the relay when power is turned off. This feature prevents it from being inadvertently left in an operating condition after maintenance. The relay's voltage threshold is adjustable via a potentiometer, allowing for control over the trip point. Its circuit includes a zero cross detection function, which prevents false triggering from switch contact bounce that can occur during switching surges. This protects against improper operation caused by voltage sags and spikes, as well as electromagnetic interference (EMI) and radio frequency interference (RFI). The relay can be used in a variety of applications including industrial control, motor control, commercial lighting systems, and any other application where over or undervoltage protection is necessary. The Selec 600VPR-1-180/300V Voltage Protection Relay monitors the voltage supplied to a load and provides an indication in the event that over or under voltage occurs. A variable trip time is available ranging from 0.25 sec - 20 sec depending on application requirements. This device can be used with other devices in Selec's range to connect multiple loads to a single supply, or alternatively it can be used with any other brand of device to monitor a separate load. The relay may be programmed to trip at any voltage between 180V AC - 300V AC (L1-L2) and will reset automatically when voltage returns within the specified parameters.
₹4,601   ₹8,000
You save ₹3,399!
42.49% OFF
OLD JIT
₹3,421   ₹5,700
You save ₹2,279!
39.98% OFF
Hager 80 A-100 A Over Load Relay, EXB00100C It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹3,421   ₹5,700
You save ₹2,279!
39.98% OFF
Hager 63 A-80 A Over Load Relay, EXB00080C It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹3,893   ₹5,700
You save ₹1,807!
31.7% OFF
Hager 55 A-70 A Over Load Relay, EXB00070C It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹3,893   ₹5,700
You save ₹1,807!
31.7% OFF
Hager 48 A-65 A Over Load Relay, EXB00065C It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹3,421   ₹5,700
You save ₹2,279!
39.98% OFF
Hager 37 A-50 A Over Load Relay, EXB00050C It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹14,159   ₹23,210
You save ₹9,051!
39% OFF
Hager 315 A-630 A Over Load Relay, EXB00630F It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹3,893   ₹5,700
You save ₹1,807!
31.7% OFF
Hager 30 A-40 A Over Load Relay, EXB00040C It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹16,519   ₹23,210
You save ₹6,691!
28.83% OFF
Hager 200 A-400 A Over Load Relay, EXB00400F It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹3,421   ₹5,700
You save ₹2,279!
39.98% OFF
Hager 23 A-32 A Over Load Relay, EXB000032C It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹14,159   ₹23,210
You save ₹9,051!
39% OFF
Hager 125 A-250 A Over Load Relay, EXB00250F It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹2,123   ₹3,240
You save ₹1,117!
34.48% OFF
Hager 30 A-38 A Over Load Relay, EXB00038C It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹12,979   ₹19,380
You save ₹6,401!
33.03% OFF
Hager 100 A-200 A Over Load Relay, EXB00200E It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹2,241   ₹3,240
You save ₹999!
30.83% OFF
Hager 23 A-32 A Over Load Relay, EXB00032C It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹1,533   ₹1,860
You save ₹327!
17.58% OFF
Hager 17-25 A Over Load Relay, EXB000025B It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹1,533   ₹1,860
You save ₹327!
17.58% OFF
Hager 12-18 A Over Load Relay, EXB00018B It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹1,533   ₹1,860
You save ₹327!
17.58% OFF
Hager 9-13 A Over Load Relay, EXB00013B It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹1,533   ₹1,860
You save ₹327!
17.58% OFF
Hager 5.5-8 A Over Load Relay, EXB00010B It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹1,143   ₹1,860
You save ₹717!
38.55% OFF
Hager 5.5-8 A Over Load Relay, EXB00008B It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹1,533   ₹1,860
You save ₹327!
17.58% OFF
Hager 4-6 A Over Load Relay, EXB00006B It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹1,143   ₹1,860
You save ₹717!
38.55% OFF
Hager 2.5-4 A Over Load Relay, EXB00004B It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹1,143   ₹1,860
You save ₹717!
38.55% OFF
Hager 1.6-2.5 A Over Load Relay, EXB00025B It is a crucial component in motor control circuits and is designed to monitor the current flowing through a motor and interrupt power if the current exceeds a predetermined level for an extended period. Here are key features and considerations related to overload relays: Protection Against Overload: The primary function of an overload relay is to protect electrical equipment, such as motors, from damage caused by sustained overcurrent conditions. Overcurrent can result from factors like mechanical overload or system faults. Thermal Overload Protection: Overload relays typically operate based on thermal principles. They monitor the heat generated by the current flowing through a motor. If the current exceeds the preset limit for a specified duration, the relay trips, disconnecting power to the motor. Types of Overload Relays: Bimetallic Overload Relays: Use the differential expansion of two dissimilar metals to activate the relay. Electronic Overload Relays: Use electronic sensors to measure current and trip the relay when preset conditions are met. Adjustable Settings: Overload relays often have adjustable settings, allowing for customization based on the specific motor and application requirements. Adjustments can be made for current levels and trip times. Resetting Mechanism: After an overload condition is detected and the relay trips, there is usually a manual or automatic resetting mechanism. Manual reset requires intervention to restore power, while automatic reset reconnects power after a cool-down period. Integration with Motor Starters: Overload relays are commonly integrated into motor starters or motor control centers. They work in conjunction with contactors and other components to provide comprehensive motor control and protection. Direct and Indirect Overload Protection: Direct Overload Protection: The overload relay is directly connected in series with the motor. Indirect Overload Protection: The overload relay is connected in parallel with the motor, and its output controls a contactor that disconnects power. Application in Motor Control Panels: Overload relays are commonly found in motor control panels and can be part of a broader motor protection scheme. Sensing Elements: Bimetallic overload relays use bimetal strips, while electronic overload relays use sensors such as current transformers to monitor the current. Testing and Maintenance: Regular testing and maintenance of overload relays are important to ensure they function correctly. This may involve checking settings, verifying the mechanical condition, and testing the tripping mechanism. Overload relays play a crucial role in preventing motor damage and ensuring the safe and efficient operation of electrical systems. Always follow safety procedures and manufacturer guidelines when installing, adjusting, or maintaining overload relays.
₹1,895  
The GIC SM501 415 V AC (3P, 3W) 2 C/O Relay 50/60 Hz Voltage Monitoring Relay, MG53BH, is a highly versatile and dependable electrical monitoring device designed to ensure the safe and stable operation of electrical systems. This advanced relay excels at precise voltage monitoring and offers dual changeover contacts, enhancing its flexibility and making it an indispensable component for various industrial applications.Operating within a voltage range of 415 V AC (3-phase, 3-wire), the GIC SM501 provides accurate voltage monitoring, catering to a wide range of electrical configurations and applications. Its compatibility with both 50 Hz and 60 Hz frequencies further enhances its adaptability.A standout feature of the GIC SM501 is its dual changeover contacts (2 C/O). This configuration significantly increases its versatility, allowing it to respond rapidly and efficiently to voltage fluctuations and deviations. This swift response is vital for safeguarding connected equipment and systems, minimizing the risk of damage or downtime.The MG53BH model designation signifies the relay's compatibility with various electrical systems and its ease of integration. Whether utilized in industrial automation, power distribution networks, or commercial infrastructure, the GIC SM501 ensures that voltage remains within safe and operational limits.Built with durability in mind, the GIC SM501 can withstand challenging environmental conditions, ensuring long-term reliability. Its compact design and user-friendly interface simplify installation and configuration, reducing complexity and saving valuable time for engineers and technicians.
₹1,520  
The GIC SM175 240 V AC/DC 1 C/O Relay, model MAE03D0200, is a crucial component in industrial settings designed to monitor voltage frequency within a specific range of 47 to 53 Hz. Voltage monitoring is essential in various applications to ensure equipment safety and optimal performance.One of the standout features of this relay is its versatility, as it can operate with both AC and DC voltage systems. This compatibility makes it suitable for a wide range of industrial setups, offering flexibility to engineers and technicians when selecting the right equipment for their specific needs.The relay provides a single changeover (C/O) relay output, which serves as a switching contact. This output can be employed to trigger various actions or alarms when the monitored voltage frequency falls outside the designated range. These actions might include shutting down equipment, sounding an alarm, or sending a signal to a central control system. This flexibility ensures that the relay can be integrated seamlessly into existing control and monitoring systems.Voltage stability is a critical concern in many industrial applications. Fluctuations or deviations in voltage frequency can lead to equipment malfunctions or damage. The GIC SM175 helps maintain voltage stability by continuously monitoring the incoming voltage frequency and providing alerts or actions when it deviates from the specified range. This proactive approach to voltage management enhances equipment longevity and reduces downtime.
₹2,713   ₹3,197
You save ₹484!
15.14% OFF
Recommended Items
sku-leadTime Ships within 10 days
oos-available Ships within 24 hrs
oos-available Ships within 24 hrs
oos-available Ships within 24 hrs
sku-leadTime Ships within 10 days
oos-available Ships within 24 hrs
oos-available Ships within 24 hrs
oos-available Ships within 24 hrs
oos-available Ships within 24 hrs
oos-available Ships within 24 hrs
oos-available Ships within 24 hrs
oos-available Ships within 24 hrs
oos-available Ships within 24 hrs
Browsing History
sku-leadTime Ships within 5 days
sku-leadTime Ships within 7 days
sku-leadTime Ships within 3 days
sku-leadTime Ships within 7 days
sku-leadTime Ships within 10 days
sku-leadTime Ships within 3 days
sku-leadTime Ships within 6 days
₹44,099 ₹54,600
19.23% OFF

Top Selling Relay Products Price List for April 2026

Product Name Specifications Expected Price Dispatch Time Discount
Schneider A9C30811 16A Latching Relay Current 16A | No. Of Pole 1 Pole ₹1,651 60 days 22.45% OFF
Salzer SM500 3 Phase & 1 Phase 1 C/O Voltage Monitoring Relay 240 VAC, MD71B9 Contact Arrangement 1 C/O | Monitoring Selectable Under Voltage + Selectable Over Voltage ₹1,533 4 days 1.42% OFF
Minilec Phase Sequence Relay 3 Phase 1 CO Relay Output Black & Red, S1 VMR7 Auxillary Supply 380 440 VAC, 20%, 3PH-3 Wire | Color Black & Red ₹910 24 hrs --
JT 4 Channel RELAY CARD  Channel 4 | Height 1.8 cm ₹872 24 hrs --
Minilec VSP D1 Phase Failure Relay Mounting Din Rail | Rated Voltage 240 V AC ₹1,015 24 hrs --
GIC SM501 415 V AC (3P, 3W) 2 C/O Relay 50/60 Hz Voltage Monitoring Relay, MG53BH Contact 2 CO | Frequency 50/60 Hz ₹1,895 6 days --
Multispan 25 Amp Solid State Relay, RS-25A Dimension 62x45x25 mm (HxWxD) | Input Voltage 4 V-32 V DC ₹385 5 days --
Minilec 380-440 VAC Phase Failure Relay VSP D2 Mounting Din Rail | Product Sub Type Din Rail Mounted ₹1,520 7 days --
Salzer 14 Pin Relay 240 V, MSP4P240A No. Of Pole 4 | Pins 14 Pin ₹256 24 hrs --
Schmersal 3 Safety Contacts 230 V Safety Relay Controller, SRB301MC-24V Ac Currrent 2 A | Contact 3 Safety Contacts ₹10,501 3 days --
This data was last updated on 01/04/2026