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Hager Industrial Automation

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₹31,859   ₹52,510
You save ₹20,651!
39.33% OFF
Hager 330 A Power Contactor 110 V, EX033022F is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
₹55,459   ₹93,150
You save ₹37,691!
40.46% OFF
Hager 630 A Power Contactor 415 V, EX063022H is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
₹55,459   ₹93,150
You save ₹37,691!
40.46% OFF
Hager 630 A Power Contactor 230 V, EX063022G is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
₹55,459   ₹93,150
You save ₹37,691!
40.46% OFF
Hager 630 A Power Contactor 110 V, EX063022F is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
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₹18,879   ₹31,390
You save ₹12,511!
39.86% OFF
Hager 225 A Power Contactor 415 V, EX022522E is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
₹24,779   ₹40,260
You save ₹15,481!
38.45% OFF
Hager 265 A Power Contactor 110 V, EX026522C is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
₹31,859   ₹52,510
You save ₹20,651!
39.33% OFF
Hager 330 A Power Contactor 415 V, EX033022H is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
₹24,779   ₹40,260
You save ₹15,481!
38.45% OFF
Hager 265 A Power Contactor 415 V, EX026522H is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
Pack of 50 piece
₹1,415   ₹2,000
You save ₹585!
29.25% OFF
A Hager 1/2 Module Cover Strips Blanking Plate, P031F in the context of electrical or construction typically refers to a component used to cover or fill gaps, openings, or unused spaces in various installations. Let's break down the terms: Cover Strip: A cover strip is a narrow, elongated piece often used to conceal joints, transitions, or gaps in flooring, walls, or other surfaces. In electrical installations, cover strips may also refer to components used to cover and protect wiring or cables. Blanking Plate: A blanking plate is a plate or panel designed to cover and close off openings or unused spaces in electrical enclosures, panels, or devices. It is often used for safety, aesthetics, and to prevent the entry of dust or foreign objects. Combining the terms, a "cover strip blanking plate" might refer to a specific type of plate or strip used for covering and blanking off particular areas in an installation, providing both a functional and aesthetic solution. Key considerations for cover strips or blanking plates may include: Material: They are often made from materials like plastic, metal, or other durable materials suitable for the intended application. Color and Finish: The color and finish of the cover strip or blanking plate may be chosen for visual appeal and to match the surroundings. Mounting: Depending on the application, these components may be attached using screws, clips, adhesive, or other methods. Size and Dimensions: The size and dimensions should match the specific requirements of the area to be covered or blanked. Compliance: In electrical installations, compliance with safety standards and regulations is crucial. These components are versatile and can be used in various settings, including electrical panels, modular furniture, flooring, and other construction or installation projects. The specific context and purpose will determine the type and design of the cover strip or blanking plate needed.
Pack of 10 piece
₹2,831   ₹4,400
You save ₹1,569!
35.66% OFF
Hager 1NO+1NC Top Mounted Auxiliary Contact Block, EXA001 is an accessory device used in electrical control systems to provide additional contacts for monitoring, control, or signaling purposes. These contact blocks are typically installed in conjunction with main switching devices, such as contactors or relays, to extend the functionality of the control circuit. Here are key features and considerations related to auxiliary contact blocks: Additional Contacts: The primary function of an auxiliary contact block is to provide additional electrical contacts beyond the main contacts of a switching device. These contacts are used for various control and monitoring purposes. Normally Open (NO) and Normally Closed (NC) Contacts: Auxiliary contact blocks may include one or more normally open (NO) and normally closed (NC) contacts. These contacts change their state based on the status of the main contacts. Control and Signaling: Auxiliary contacts are often used for control and signaling applications. For example, they can be used to indicate the status of a motor, monitor the position of a switch, or activate other devices in response to a change in the control circuit. Interlocking and Sequencing: In control systems, auxiliary contacts can be utilized for interlocking and sequencing operations. They help ensure that certain conditions are met before allowing the operation of specific equipment. Modular Design: Auxiliary contact blocks are typically designed with a modular structure, allowing them to be easily added to or removed from the main switching device. This modular design enhances flexibility in configuring control circuits. Compatibility: It's essential to choose auxiliary contact blocks that are compatible with the specific make and model of the main switching device, such as contactors or relays. This ensures proper fit and electrical compatibility. Electrical Ratings: Consider the electrical ratings of the auxiliary contact blocks, including current and voltage ratings, to ensure they meet the requirements of the control circuit. Mounting and Installation: Auxiliary contact blocks are often designed for easy mounting on compatible devices. They may be snapped onto mounting rails or directly attached to the main switching device. Testing and Maintenance: Regular testing and maintenance of auxiliary contact blocks are important to ensure their proper functioning. This may involve checking for proper contact closure, inspecting for signs of wear, and verifying electrical continuity. Application in Motor Control: In motor control panels, auxiliary contact blocks are commonly used to monitor the status of contactors and provide signals for motor protection and control. DIN Rail Mounting: Many auxiliary contact blocks are designed for DIN rail mounting, making them easy to install in control panels. Auxiliary contact blocks are versatile components that enhance the capabilities of control systems by providing additional electrical contacts. When selecting and installing auxiliary contact blocks, refer to the manufacturer's specifications and guidelines for compatibility and proper use.
Pack of 10 piece
₹2,831   ₹4,400
You save ₹1,569!
35.66% OFF
Hager 2NC Top Mounted Auxiliary Contact Block, EXA002 is an accessory device used in electrical control systems to provide additional contacts for monitoring, control, or signaling purposes. These contact blocks are typically installed in conjunction with main switching devices, such as contactors or relays, to extend the functionality of the control circuit. Here are key features and considerations related to auxiliary contact blocks: Additional Contacts: The primary function of an auxiliary contact block is to provide additional electrical contacts beyond the main contacts of a switching device. These contacts are used for various control and monitoring purposes. Normally Open (NO) and Normally Closed (NC) Contacts: Auxiliary contact blocks may include one or more normally open (NO) and normally closed (NC) contacts. These contacts change their state based on the status of the main contacts. Control and Signaling: Auxiliary contacts are often used for control and signaling applications. For example, they can be used to indicate the status of a motor, monitor the position of a switch, or activate other devices in response to a change in the control circuit. Interlocking and Sequencing: In control systems, auxiliary contacts can be utilized for interlocking and sequencing operations. They help ensure that certain conditions are met before allowing the operation of specific equipment. Modular Design: Auxiliary contact blocks are typically designed with a modular structure, allowing them to be easily added to or removed from the main switching device. This modular design enhances flexibility in configuring control circuits. Compatibility: It's essential to choose auxiliary contact blocks that are compatible with the specific make and model of the main switching device, such as contactors or relays. This ensures proper fit and electrical compatibility. Electrical Ratings: Consider the electrical ratings of the auxiliary contact blocks, including current and voltage ratings, to ensure they meet the requirements of the control circuit. Mounting and Installation: Auxiliary contact blocks are often designed for easy mounting on compatible devices. They may be snapped onto mounting rails or directly attached to the main switching device. Testing and Maintenance: Regular testing and maintenance of auxiliary contact blocks are important to ensure their proper functioning. This may involve checking for proper contact closure, inspecting for signs of wear, and verifying electrical continuity. Application in Motor Control: In motor control panels, auxiliary contact blocks are commonly used to monitor the status of contactors and provide signals for motor protection and control. DIN Rail Mounting: Many auxiliary contact blocks are designed for DIN rail mounting, making them easy to install in control panels. Auxiliary contact blocks are versatile components that enhance the capabilities of control systems by providing additional electrical contacts. When selecting and installing auxiliary contact blocks, refer to the manufacturer's specifications and guidelines for compatibility and proper use.
Pack of 10 piece
₹5,309   ₹8,600
You save ₹3,291!
38.27% OFF
Hager 1NO+1NC Side Mounted HWC Auxiliary Contact Block, EXA112 is an accessory device used in electrical control systems to provide additional contacts for monitoring, control, or signaling purposes. These contact blocks are typically installed in conjunction with main switching devices, such as contactors or relays, to extend the functionality of the control circuit. Here are key features and considerations related to auxiliary contact blocks: Additional Contacts: The primary function of an auxiliary contact block is to provide additional electrical contacts beyond the main contacts of a switching device. These contacts are used for various control and monitoring purposes. Normally Open (NO) and Normally Closed (NC) Contacts: Auxiliary contact blocks may include one or more normally open (NO) and normally closed (NC) contacts. These contacts change their state based on the status of the main contacts. Control and Signaling: Auxiliary contacts are often used for control and signaling applications. For example, they can be used to indicate the status of a motor, monitor the position of a switch, or activate other devices in response to a change in the control circuit. Interlocking and Sequencing: In control systems, auxiliary contacts can be utilized for interlocking and sequencing operations. They help ensure that certain conditions are met before allowing the operation of specific equipment. Modular Design: Auxiliary contact blocks are typically designed with a modular structure, allowing them to be easily added to or removed from the main switching device. This modular design enhances flexibility in configuring control circuits. Compatibility: It's essential to choose auxiliary contact blocks that are compatible with the specific make and model of the main switching device, such as contactors or relays. This ensures proper fit and electrical compatibility. Electrical Ratings: Consider the electrical ratings of the auxiliary contact blocks, including current and voltage ratings, to ensure they meet the requirements of the control circuit. Mounting and Installation: Auxiliary contact blocks are often designed for easy mounting on compatible devices. They may be snapped onto mounting rails or directly attached to the main switching device. Testing and Maintenance: Regular testing and maintenance of auxiliary contact blocks are important to ensure their proper functioning. This may involve checking for proper contact closure, inspecting for signs of wear, and verifying electrical continuity. Application in Motor Control: In motor control panels, auxiliary contact blocks are commonly used to monitor the status of contactors and provide signals for motor protection and control. DIN Rail Mounting: Many auxiliary contact blocks are designed for DIN rail mounting, making them easy to install in control panels. Auxiliary contact blocks are versatile components that enhance the capabilities of control systems by providing additional electrical contacts. When selecting and installing auxiliary contact blocks, refer to the manufacturer's specifications and guidelines for compatibility and proper use.
Pack of 10 piece
₹5,073   ₹8,300
You save ₹3,227!
38.88% OFF
Hager 1NC Top Mounted Auxiliary Contact Block, EXA007 is an accessory device used in electrical control systems to provide additional contacts for monitoring, control, or signaling purposes. These contact blocks are typically installed in conjunction with main switching devices, such as contactors or relays, to extend the functionality of the control circuit. Here are key features and considerations related to auxiliary contact blocks: Additional Contacts: The primary function of an auxiliary contact block is to provide additional electrical contacts beyond the main contacts of a switching device. These contacts are used for various control and monitoring purposes. Normally Open (NO) and Normally Closed (NC) Contacts: Auxiliary contact blocks may include one or more normally open (NO) and normally closed (NC) contacts. These contacts change their state based on the status of the main contacts. Control and Signaling: Auxiliary contacts are often used for control and signaling applications. For example, they can be used to indicate the status of a motor, monitor the position of a switch, or activate other devices in response to a change in the control circuit. Interlocking and Sequencing: In control systems, auxiliary contacts can be utilized for interlocking and sequencing operations. They help ensure that certain conditions are met before allowing the operation of specific equipment. Modular Design: Auxiliary contact blocks are typically designed with a modular structure, allowing them to be easily added to or removed from the main switching device. This modular design enhances flexibility in configuring control circuits. Compatibility: It's essential to choose auxiliary contact blocks that are compatible with the specific make and model of the main switching device, such as contactors or relays. This ensures proper fit and electrical compatibility. Electrical Ratings: Consider the electrical ratings of the auxiliary contact blocks, including current and voltage ratings, to ensure they meet the requirements of the control circuit. Mounting and Installation: Auxiliary contact blocks are often designed for easy mounting on compatible devices. They may be snapped onto mounting rails or directly attached to the main switching device. Testing and Maintenance: Regular testing and maintenance of auxiliary contact blocks are important to ensure their proper functioning. This may involve checking for proper contact closure, inspecting for signs of wear, and verifying electrical continuity. Application in Motor Control: In motor control panels, auxiliary contact blocks are commonly used to monitor the status of contactors and provide signals for motor protection and control. DIN Rail Mounting: Many auxiliary contact blocks are designed for DIN rail mounting, making them easy to install in control panels. Auxiliary contact blocks are versatile components that enhance the capabilities of control systems by providing additional electrical contacts. When selecting and installing auxiliary contact blocks, refer to the manufacturer's specifications and guidelines for compatibility and proper use.
Pack of 10 piece
₹5,073   ₹8,300
You save ₹3,227!
38.88% OFF
Hager 1NO+3NC Top Mounted Auxiliary Contact Block, EXA006 is an accessory device used in electrical control systems to provide additional contacts for monitoring, control, or signaling purposes. These contact blocks are typically installed in conjunction with main switching devices, such as contactors or relays, to extend the functionality of the control circuit. Here are key features and considerations related to auxiliary contact blocks: Additional Contacts: The primary function of an auxiliary contact block is to provide additional electrical contacts beyond the main contacts of a switching device. These contacts are used for various control and monitoring purposes. Normally Open (NO) and Normally Closed (NC) Contacts: Auxiliary contact blocks may include one or more normally open (NO) and normally closed (NC) contacts. These contacts change their state based on the status of the main contacts. Control and Signaling: Auxiliary contacts are often used for control and signaling applications. For example, they can be used to indicate the status of a motor, monitor the position of a switch, or activate other devices in response to a change in the control circuit. Interlocking and Sequencing: In control systems, auxiliary contacts can be utilized for interlocking and sequencing operations. They help ensure that certain conditions are met before allowing the operation of specific equipment. Modular Design: Auxiliary contact blocks are typically designed with a modular structure, allowing them to be easily added to or removed from the main switching device. This modular design enhances flexibility in configuring control circuits. Compatibility: It's essential to choose auxiliary contact blocks that are compatible with the specific make and model of the main switching device, such as contactors or relays. This ensures proper fit and electrical compatibility. Electrical Ratings: Consider the electrical ratings of the auxiliary contact blocks, including current and voltage ratings, to ensure they meet the requirements of the control circuit. Mounting and Installation: Auxiliary contact blocks are often designed for easy mounting on compatible devices. They may be snapped onto mounting rails or directly attached to the main switching device. Testing and Maintenance: Regular testing and maintenance of auxiliary contact blocks are important to ensure their proper functioning. This may involve checking for proper contact closure, inspecting for signs of wear, and verifying electrical continuity. Application in Motor Control: In motor control panels, auxiliary contact blocks are commonly used to monitor the status of contactors and provide signals for motor protection and control. DIN Rail Mounting: Many auxiliary contact blocks are designed for DIN rail mounting, making them easy to install in control panels. Auxiliary contact blocks are versatile components that enhance the capabilities of control systems by providing additional electrical contacts. When selecting and installing auxiliary contact blocks, refer to the manufacturer's specifications and guidelines for compatibility and proper use.
₹31,859   ₹52,510
You save ₹20,651!
39.33% OFF
Hager 330 A Power Contactor 230 V, EX033022G is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
Pack of 10 piece
₹5,073   ₹8,300
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Hager 4NO Top Mounted Auxiliary Contact Block, EXA003 is an accessory device used in electrical control systems to provide additional contacts for monitoring, control, or signaling purposes. These contact blocks are typically installed in conjunction with main switching devices, such as contactors or relays, to extend the functionality of the control circuit. Here are key features and considerations related to auxiliary contact blocks: Additional Contacts: The primary function of an auxiliary contact block is to provide additional electrical contacts beyond the main contacts of a switching device. These contacts are used for various control and monitoring purposes. Normally Open (NO) and Normally Closed (NC) Contacts: Auxiliary contact blocks may include one or more normally open (NO) and normally closed (NC) contacts. These contacts change their state based on the status of the main contacts. Control and Signaling: Auxiliary contacts are often used for control and signaling applications. For example, they can be used to indicate the status of a motor, monitor the position of a switch, or activate other devices in response to a change in the control circuit. Interlocking and Sequencing: In control systems, auxiliary contacts can be utilized for interlocking and sequencing operations. They help ensure that certain conditions are met before allowing the operation of specific equipment. Modular Design: Auxiliary contact blocks are typically designed with a modular structure, allowing them to be easily added to or removed from the main switching device. This modular design enhances flexibility in configuring control circuits. Compatibility: It's essential to choose auxiliary contact blocks that are compatible with the specific make and model of the main switching device, such as contactors or relays. This ensures proper fit and electrical compatibility. Electrical Ratings: Consider the electrical ratings of the auxiliary contact blocks, including current and voltage ratings, to ensure they meet the requirements of the control circuit. Mounting and Installation: Auxiliary contact blocks are often designed for easy mounting on compatible devices. They may be snapped onto mounting rails or directly attached to the main switching device. Testing and Maintenance: Regular testing and maintenance of auxiliary contact blocks are important to ensure their proper functioning. This may involve checking for proper contact closure, inspecting for signs of wear, and verifying electrical continuity. Application in Motor Control: In motor control panels, auxiliary contact blocks are commonly used to monitor the status of contactors and provide signals for motor protection and control. DIN Rail Mounting: Many auxiliary contact blocks are designed for DIN rail mounting, making them easy to install in control panels. Auxiliary contact blocks are versatile components that enhance the capabilities of control systems by providing additional electrical contacts. When selecting and installing auxiliary contact blocks, refer to the manufacturer's specifications and guidelines for compatibility and proper use.
₹15,339   ₹23,210
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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.
₹2,241   ₹3,240
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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.
₹6,371   ₹10,540
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Hager 65 A Power Contactor 110 V, EX006511C is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
₹1,415   ₹2,050
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Hager 25 A Power Contactor 415 V, EX002511E is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
₹1,108   ₹1,860
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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.
₹14,159   ₹23,210
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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.
Pack of 12 piece
₹10,265   ₹17,160
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A Hager 230 V AC Red and Green Indicating Lights, SVN126 refer to visual signaling devices that are designed to convey information, status, or alerts through the use of light signals. These lights are used in a variety of applications across different industries to provide visual feedback to users, operators, or observers. Here are some key aspects of indicating lights: Types of Indicating Lights: LED Indicator Lights: Light-Emitting Diode (LED) indicators are common due to their energy efficiency, long lifespan, and availability in various colors. Incandescent Indicator Lights: Traditional incandescent bulbs were historically used for indicating lights, but they are less common now due to the energy efficiency of LEDs. Neon Indicator Lights: Neon lights provide a distinctive glow and are used in some applications. Signal Towers: These are multi-tiered lights with different colors stacked vertically to convey multiple levels of information. Colors and Meanings: Different colors of indicating lights convey specific meanings. For example: Green: Often indicates that a system is operating normally or that a process is in progress. Red: Signals an alert, warning, or error condition. Yellow/Amber: Indicates caution or a need for attention. Blue: Used to convey information or status in certain applications. White: Can represent various meanings depending on the context, such as power on or system readiness. Applications: Indicating lights are used in various applications, including: Machinery and Equipment: To indicate operational status or faults. Control Panels: To show the status of switches, buttons, or processes. Automotive Dashboard: To indicate various vehicle conditions (e.g., turn signals, low fuel, check engine). Industrial Processes: To signal the status of manufacturing or production lines. Emergency Exits: To indicate the location of emergency exits in buildings. Flashing or Steady Lights: Indicating lights can be designed to flash, blink, or remain steady, depending on the application and the urgency of the information being conveyed. Signal Towers: Signal towers are vertical stacks of lights, each of which can be a different color. They are commonly used in industrial environments to provide a quick visual indication of the status of a process or machine. Audible Indicators: Some indicating lights may be accompanied by audible signals, creating a combination of visual and auditory alerts. Remote Monitoring: In modern applications, indicating lights may be part of a system that allows for remote monitoring, providing information to operators or personnel in different locations. Waterproof and Explosion-Proof Models: In certain environments, indicating lights may need to be waterproof or explosion-proof to meet safety and regulatory requirements. Integration with Automation Systems: Indicating lights can be integrated into automation and control systems, responding to specific events or conditions in the system. Customization: In some cases, indicating lights may be customizable, allowing users to select specific colors or configurations based on their needs. Indicating lights play a crucial role in conveying information quickly and efficiently in various settings, contributing to safety, efficiency, and effective communication within systems and processes.
₹8,259   ₹13,540
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Hager 75 A Power Contactor 415 V, EX007511E is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
Pack of 10 piece
₹553   ₹900
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A Hager 4 Pole PVC Off White Endcap, KZN024 refers to a specific component typically used in electrical installations. Let's break down the information: 4 Pole: In electrical terminology, a "pole" refers to a circuit or conductor. The term "4 Pole" suggests that the endcap is designed to cover or terminate a single electrical conductor or connection point. PVC: PVC stands for Polyvinyl Chloride, which is a type of plastic commonly used in the construction of electrical components. In this context, "PVC" indicates that the endcap is made of PVC material. White: "White" indicates the color of the endcap. Color coding is often used in electrical installations for easy identification of components or to adhere to specific standards. Endcap: An endcap is a covering or termination device used to enclose the end of a conductor, cable, or electrical component. It provides protection, insulation, and a finished appearance. Putting it all together, a "1 Pole PVC White Endcap" is likely a plastic endcap designed for covering or terminating a single electrical conductor, and it is made of PVC material with a white color. These types of endcaps are commonly used in various electrical applications, such as conduit systems, wiring enclosures, or terminal blocks, to protect exposed conductors and ensure safety and functionality. The color white may be chosen for standardization or aesthetic reasons in specific installations.
₹1,415   ₹2,050
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Hager 22 A Power Contactor 415 V, EX002211E is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
₹766   ₹1,260
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Hager 12 A Power Contactor 415 V, EX001211E is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
₹872   ₹1,450
You save ₹578!
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Hager 18 A Power Contactor 230 V, EX001811D is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
₹1,415   ₹2,050
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Hager 22 A Power Contactor 110 V, EX002211C is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
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Hager 12 A Power Contactor 230 V, EX001211D is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
₹1,533   ₹1,860
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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.
₹1,108   ₹1,860
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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.
₹8,259   ₹13,540
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Hager 85 A Power Contactor 230 V, EX008511D is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
₹17,699   ₹28,910
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Hager 185 A Power Contactor 110 V, EX018522C is an electrical device that is used to control the flow of electrical power in an electrical circuit. It is a type of switch that is designed to handle high currents and voltages. Power contactors are commonly used in industrial applications and electrical systems where the control of large electrical loads is required. Here are some key features and considerations related to power contactors: Switching High Currents: Power contactors are designed to handle high currents and voltages. They are used to switch the power supply to electrical devices, such as motors, heaters, and other industrial equipment. Control Circuit: Power contactors typically have a low-voltage control circuit that is used to energize or de-energize the contactor. This control circuit is separate from the high-power circuit it controls. Coil and Contacts: A power contactor consists of a coil and a set of contacts. When the coil is energized, it creates a magnetic field that pulls the contacts together, allowing electrical current to flow through the main power circuit. When the coil is de-energized, the contacts are separated, interrupting the power flow. Types of Contactors: AC Contactors: Designed for alternating current (AC) applications. DC Contactors: Designed for direct current (DC) applications. Definite Purpose Contactors: Specialized contactors designed for specific applications, such as motor control. Applications: Power contactors are used in a wide range of applications, including industrial machinery, HVAC systems, motor control panels, and other situations where the control of high-power loads is necessary. Auxiliary Contacts: Some power contactors have auxiliary contacts that can be used for signaling, interlocking, or control purposes. These contacts are separate from the main power contacts. Modular and Compact Designs: Power contactors come in various sizes and designs to accommodate different power ratings and application requirements. Some are designed to be compact and fit into control panels easily. Overload Protection: Some power contactors are integrated with overload protection features to protect the connected equipment from excessive current. DIN Rail Mounting: Many contactors are designed for DIN rail mounting, allowing for easy installation in control panels. Safety Considerations: Safety is crucial when working with electrical components. Ensure that proper safety measures are followed during installation, maintenance, and troubleshooting of power contactors. Always adhere to electrical safety guidelines and local regulations when working with power contactors. If you are unfamiliar with electrical systems, it's advisable to seek the assistance of a qualified electrician or technician.
₹1,533   ₹1,860
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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!
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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.
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This data was last updated on 11/03/2026