Filter

Categories
Price Range
Min Price:
Max Price:
-
Discount
Express Shipping

Insize Electrical Power Testing

Showing 40 out of 62 products

Sort by
₹13,388  
Insize Magnetic Induction Probe for Coating Thickness Gage 9501-1200, 9501-1200-FE is a specialized device used to detect and measure magnetic fields in various applications. It operates based on the principle of magnetic induction, which involves generating an electrical voltage in a conductor when exposed to a changing magnetic field. These probes are invaluable in fields like electronics, physics, and engineering for tasks such as testing magnetic components, analyzing electromagnetic interference, and studying magnetic phenomena.
Key features and functions of a magnetic induction probe include:
Magnetic Field Detection: The primary function of a magnetic induction probe is to detect and measure magnetic fields in its vicinity. It can identify the strength and direction of the magnetic field.
Sensor Coil: The core component of a magnetic induction probe is a sensor coil, typically wound around a core material. When exposed to a changing magnetic field, the coil generates an electromotive force (EMF), producing an electrical signal that is proportional to the magnetic field's strength.
Frequency Range: Magnetic induction probes are designed to operate within specific frequency ranges, allowing them to detect both static and dynamic magnetic fields.
Signal Output: The probe produces an electrical signal, which can be displayed and analyzed using appropriate equipment, such as oscilloscopes or data loggers.
Applications: These probes are used in diverse applications, including studying electromagnetic interference (EMI), characterizing magnetic materials, analyzing electronic circuits, and monitoring magnetic fields in scientific experiments.
Quality Control: Magnetic induction probes are vital tools in quality control and testing processes, where they help verify the performance and characteristics of magnetic components like transformers and inductors.
Environmental Monitoring: They are also used for environmental monitoring to measure magnetic fields in locations such as research facilities, power plants, and medical institutions.
Non-Destructive Testing: Magnetic induction probes are employed in non-destructive testing to inspect the integrity and properties of materials without causing damage.
Research and Development: These probes are essential for research and development in areas related to magnetism, electromagnetic compatibility, and electronic engineering.
In summary, a magnetic induction probe is a specialized tool used to detect and measure magnetic fields in various applications. By utilizing the principle of magnetic induction, it provides valuable insights into the properties and behavior of magnetic fields. Its ability to accurately measure magnetic fields makes it indispensable in fields such as electronics, physics, and engineering, where understanding and controlling magnetism is crucial.
₹353  
Insize 12-250V AC and 6-36V DC Range Digital Voltage Tester, 9721-250 is a handheld electrical testing tool used by electricians, technicians, and homeowners to quickly and safely determine the presence of voltage in electrical circuits and outlets. These compact and user-friendly devices have become popular for their simplicity and ability to enhance electrical safety.
Key features and characteristics of a digital voltage tester include:
Voltage Detection: The primary function of a digital voltage tester is to detect the presence of voltage in electrical conductors, outlets, switches, or wires. It can identify both AC (alternating current) and DC (direct current) voltage.
Non-Contact Operation: Most digital voltage testers are non-contact tools, meaning they do not require physical contact with the conductor being tested. They use capacitive or inductive sensing to detect voltage through insulation or outer shielding.
Visual and Audible Indicators: These testers typically have visual indicators like LED lights and audible alarms, such as beeps or buzzes, to alert the user when voltage is detected. The intensity or frequency of the indicators may vary based on the voltage level detected.
Voltage Range: Digital voltage testers come in various voltage range options, from low-voltage versions (e.g., 12-24 volts) suitable for low-voltage electronics to higher-voltage models (e.g., 90-1,000 volts) used for residential and commercial electrical systems.
Auto Power Off: Many testers are equipped with an auto-power-off feature to conserve battery life, automatically shutting down after a period of inactivity.
Built-in Flashlight (optional): Some models include a built-in flashlight or work light, which can be especially handy in dark or poorly lit areas.
The operation of a digital voltage tester is straightforward:
Power On: The user turns on the tester, typically by pressing a button or triggering a switch.
Proximity Testing: The tester is brought close to the electrical conductor, outlet, or wire being tested. No physical contact is necessary.
Voltage Detection: If voltage is present, the digital voltage tester's visual indicators (LED lights) light up, and it may emit audible alerts (beeps or buzzes). The intensity or frequency of the alerts corresponds to the detected voltage level.
Power Off: After use, the user turns off the tester to conserve battery life.
Applications of digital voltage testers include:
Electrical Safety: Electricians and technicians use digital voltage testers to verify that circuits are de-energized before performing maintenance, repairs, or installations.
Home Electrical Work: Homeowners use these testers to check outlets, switches, and wiring for live voltage, ensuring safety during DIY electrical projects.
Troubleshooting: Technicians use digital voltage testers to identify live circuits, locate electrical faults, and diagnose electrical problems.
₹49,871   ₹57,717
You save ₹7,846!
13.59% OFF
Insize ± 1.0 mm Range 3D Tester with 0.01 mm Graduation, 2840-3D is a precision measuring instrument used for the dimensional inspection of three-dimensional objects or workpieces. It plays a crucial role in quality control, manufacturing, and metrology applications, allowing for accurate and comprehensive measurements of complex parts. The term "3D tester" is often used interchangeably with "coordinate measuring machine" (CMM) or "3D coordinate measuring machine."
Key components of a 3D tester include a robust and stable frame, precision guide rails, a probing system, and sophisticated software. Here's a breakdown of its functionality:
Frame and Structure: The frame provides the stability and rigidity needed for precise measurements. It supports the other components and ensures that the measurements are not influenced by external vibrations or environmental factors.
Guide Rails: Precision linear guide rails or air bearings allow the 3D tester's probe to move smoothly and accurately in all three dimensions: X, Y, and Z. These rails ensure that the probe follows a defined path with minimal friction or deviation.
Probing System: The heart of a 3D tester is its probing system. It consists of a probe head that houses various types of probes, such as touch-trigger probes or scanning probes. These probes are used to make physical contact with the workpiece's surface to record precise measurements.
Software: Advanced software is employed to control the 3D tester, create measurement programs, and process the collected data. It allows operators to define measurement paths, probe configurations, and measurement parameters. Additionally, the software performs data analysis and generates detailed reports.
The 3D tester's operation involves moving the probe along the workpiece's surface to capture a multitude of data points. By collecting data from various angles and positions, it creates a 3D representation of the object, which can be compared to a CAD (Computer-Aided Design) model or used to verify that the part meets specified tolerances.
3D testers are employed across numerous industries, including aerospace, automotive, medical device manufacturing, and precision engineering. They are instrumental in ensuring the quality and accuracy of components, detecting defects, and verifying the conformity of parts to design specifications. Their ability to measure complex shapes, contours, and critical dimensions makes them an essential tool for industries that demand high-precision manufacturing.
Related Searches
insize insulation resistance tester
insize test probes
insize 220v insulation resistance tester
insize insulation resistance tester
insize dc power supply
₹3,776   ₹4,176
You save ₹400!
9.58% OFF
Insize Digital Multimeter with Jack Indicator Light, 9246-180 is a versatile electronic measuring instrument used to measure various electrical parameters such as voltage, current, resistance, and continuity. It is an essential tool for electricians, technicians, engineers, and hobbyists, enabling them to troubleshoot electrical circuits, conduct maintenance, and perform a wide range of electrical measurements accurately.
Key components and functions of a digital multimeter include:
Display: The DMM features a digital display that shows the measured values in numerical form. This display is typically a liquid crystal display (LCD) that can indicate readings with high precision.
Function Selector: The instrument has a function selector dial or buttons that allow the user to choose the desired measurement function, such as voltage (AC or DC), current (AC or DC), resistance, capacitance, and more.
Probe Ports: Digital multimeters have input ports where test leads or probes are connected. These ports are color-coded, with red typically indicating positive (+) and black indicating negative (-) connections.
Range Selector: The range selector allows the user to set the appropriate measurement range manually or automatically. It ensures that the instrument can accurately measure the value without overloading or damaging the device.
Hold and Auto-Hold Functions: Some DMMs have a hold function that freezes the displayed reading, making it easier to record the value. Auto-hold automatically freezes the reading when it stabilizes.
Backlight: Many modern DMMs feature a backlight for the display, improving visibility in low-light conditions.
Data Logging (optional): Advanced DMMs may offer data logging capabilities, allowing them to record and store measurement data for later analysis.
The operation of a digital multimeter involves the following steps:
Probe Connection: The appropriate test leads or probes are connected to the DMM's input ports. For voltage or resistance measurements, the red lead typically connects to the positive port, and the black lead connects to the negative port.
Function and Range Selection: The user selects the desired measurement function (e.g., voltage, current, resistance) on the function selector dial or through menu options, and then sets an appropriate measurement range based on the expected value.
Measurement: The probes are placed in contact with the component or circuit being tested. The DMM then provides a numerical reading on the display, representing the measured value.
Data Analysis: Users can analyze the displayed data to diagnose electrical issues, verify circuit parameters, or troubleshoot problems.
Applications of digital multimeters include:
Electrical Troubleshooting: DMMs are used to identify faults, measure voltage drops, and check continuity in electrical circuits.
Safety Checks: Electricians use DMMs to verify that electrical systems are operating safely and within specified parameters.
Appliance Repair: Technicians use DMMs to diagnose and repair household appliances, such as refrigerators, washing machines, and ovens.
Automotive Maintenance: DMMs are essential for diagnosing vehicle electrical problems, testing batteries, and checking charging systems.
Research and Development: Engineers and scientists use DMMs in laboratory and research settings to measure and characterize electrical properties of components and devices.
In summary, a digital multimeter is a versatile instrument for measuring various electrical parameters accurately. Its user-friendly interface and broad range of applications make it an indispensable tool in the field of electronics and electrical engineering.
₹5,885   ₹6,207
You save ₹322!
5.18% OFF
Insize Digital AC/DC Clampmeter with Auto or Manual Ranging and Data Hold, 9315-CF210 is a specialized electronic measuring instrument designed to measure electrical current flowing through a conductor without physically breaking the circuit. This versatile tool is commonly used by electricians, technicians, and engineers for a wide range of applications involving both alternating current (AC) and direct current (DC).
Key features and characteristics of a digital AC/DC clamp meter include:
Clamp Mechanism: The distinctive feature of a clamp meter is its hinged, clamp-like jaw that can be opened and closed around a conductor, allowing it to measure the current passing through the wire without interrupting the circuit. This design enhances safety and convenience.
AC and DC Current Measurement: Digital clamp meters are capable of measuring both AC and DC currents. This versatility makes them suitable for various electrical systems and equipment.
Digital Display: These meters are equipped with a digital display that provides real-time readings of current measurements in amperes (A). The display is typically an LCD with high visibility.
Measurement Range: Clamp meters come with different current measurement ranges, allowing them to handle a wide range of current levels, from milliamps (mA) to hundreds of amperes (A). Users can select the appropriate range based on the expected current.
Additional Functions: Many digital clamp meters offer additional measurement functions, such as voltage measurement, resistance measurement, and frequency measurement. Some advanced models may also include temperature measurement capabilities.
Auto-Range: Some clamp meters feature auto-ranging capabilities, where the meter automatically selects the appropriate measurement range for the current being measured, simplifying the measurement process.
Hold and Peak Hold: These functions freeze and display the current reading, allowing users to easily record and analyze the peak or maximum current values.
The operation of a digital AC/DC clamp meter involves the following steps:
Jaw Placement: The clamp meter's jaw is opened, and the conductor or wire to be measured is placed inside the jaw, ensuring that it is properly clamped around the conductor.
Function and Range Selection: Users select the desired measurement function (e.g., AC current, DC current) and the appropriate current range on the meter's control panel.
Measurement: The clamp meter measures the current passing through the conductor and displays the real-time current reading on the digital display. The meter takes into account the direction of current flow.
Data Analysis: Users can analyze the displayed data, record current measurements, and assess whether the current levels are within acceptable limits.
Applications of digital AC/DC clamp meters include:
Electrical Troubleshooting: Electricians use clamp meters to diagnose electrical problems, measure current in circuits, and identify issues such as overloaded circuits or ground faults.
Safety Checks: Clamp meters are used to ensure that electrical systems and equipment operate safely and within specified parameters.
HVAC Maintenance: Technicians use clamp meters to measure current in heating, ventilation, and air conditioning (HVAC) systems to ensure efficient operation.
Automotive Diagnostics: In the automotive industry, clamp meters are used for diagnosing electrical issues in vehicles, including testing the charging system and measuring current in starter motors.
Industrial Maintenance: Engineers and maintenance personnel use clamp meters in industrial settings to monitor machinery and equipment, perform preventive maintenance, and troubleshoot electrical systems.
In summary, a digital AC/DC clamp meter is a valuable tool for safely and accurately measuring electrical current in various applications. Its non-invasive design, versatility, and additional measurement functions make it an indispensable instrument for professionals working with electrical systems.
₹1,651  
Insize Mini Digital Multimeter Basic Type with 2000 Counts Digital Display, 9242-ML100A is a compact and portable electronic measuring instrument designed for basic electrical measurements. These mini DMMs are suitable for a wide range of applications where simplicity, portability, and affordability are priorities.
Key features and characteristics of a mini digital multimeter basic type include:
Measurement Functions: Mini DMMs typically offer essential measurement functions, including voltage (AC and DC), current (AC and DC), resistance, and continuity. Some models may include additional functions like diode testing.
Digital Display: These DMMs have a compact digital display that shows the measured values in numerical form. The display is usually an LCD (liquid crystal display) with limited space, so it may not provide as much detail as larger DMMs.
Function Selector: Mini DMMs feature a function selector dial or buttons that allow users to choose the desired measurement function. The selection is straightforward, typically offering symbols or labels for voltage, current, and resistance.
Range Selector: These instruments have a range selector to manually or automatically set the appropriate measurement range. The range selection helps prevent overloading the DMM and ensures accurate measurements.
Probe Ports: Mini DMMs come with input ports where test leads or probes can be connected. The ports are color-coded for positive and negative connections.
Auto-Power Off (optional): Some models may include an auto-power-off feature to conserve battery life if the DMM is left idle for a certain period.
Battery Power: Mini DMMs are typically powered by batteries, making them highly portable and suitable for on-the-go measurements.
The operation of a mini digital multimeter basic type involves the following steps:
Probe Connection: Test leads or probes are connected to the DMM's input ports. The red lead typically connects to the positive port, and the black lead connects to the negative port.
Function and Range Selection: Users select the desired measurement function (e.g., voltage, current, resistance) on the function selector dial or buttons. They then set an appropriate measurement range based on the expected value.
Measurement: The probes are placed in contact with the component or circuit being tested. The mini DMM provides a numerical reading on the compact digital display, representing the measured value.
Data Analysis: Users analyze the displayed data to diagnose electrical issues, verify circuit parameters, or troubleshoot problems.
Applications of mini digital multimeters basic type include:
DIY Projects: Hobbyists and DIY enthusiasts use mini DMMs for various home electrical projects, such as checking batteries, troubleshooting wiring, and testing components.
Field Service: Technicians in fields like HVAC (Heating, Ventilation, and Air Conditioning) and automotive maintenance use these compact DMMs for on-site measurements and repairs.
Educational Purposes: Mini DMMs are commonly used in educational settings for basic electronics and electrical engineering courses.
Emergency Toolkits: Due to their small size and versatility, these DMMs are included in emergency toolkits for quick electrical measurements during emergencies.
In summary, a mini digital multimeter basic type is a compact and affordable instrument suitable for basic electrical measurements. While it may lack advanced features and a large display, it is a practical and convenient tool for individuals and professionals who require simple on-the-go measurements.
₹3,892   ₹4,147
You save ₹255!
6.14% OFF
Insize Digital Multimeter with 2000 Counts Digital Display, 9216-F520 is a versatile electronic measuring instrument used to measure various electrical parameters such as voltage, current, resistance, and continuity. It is an essential tool for electricians, technicians, engineers, and hobbyists, enabling them to troubleshoot electrical circuits, conduct maintenance, and perform a wide range of electrical measurements accurately.
Key components and functions of a digital multimeter include:
Display: The DMM features a digital display that shows the measured values in numerical form. This display is typically a liquid crystal display (LCD) that can indicate readings with high precision.
Function Selector: The instrument has a function selector dial or buttons that allow the user to choose the desired measurement function, such as voltage (AC or DC), current (AC or DC), resistance, capacitance, and more.
Probe Ports: Digital multimeters have input ports where test leads or probes are connected. These ports are color-coded, with red typically indicating positive (+) and black indicating negative (-) connections.
Range Selector: The range selector allows the user to set the appropriate measurement range manually or automatically. It ensures that the instrument can accurately measure the value without overloading or damaging the device.
Hold and Auto-Hold Functions: Some DMMs have a hold function that freezes the displayed reading, making it easier to record the value. Auto-hold automatically freezes the reading when it stabilizes.
Backlight: Many modern DMMs feature a backlight for the display, improving visibility in low-light conditions.
Data Logging (optional): Advanced DMMs may offer data logging capabilities, allowing them to record and store measurement data for later analysis.
The operation of a digital multimeter involves the following steps:
Probe Connection: The appropriate test leads or probes are connected to the DMM's input ports. For voltage or resistance measurements, the red lead typically connects to the positive port, and the black lead connects to the negative port.
Function and Range Selection: The user selects the desired measurement function (e.g., voltage, current, resistance) on the function selector dial or through menu options, and then sets an appropriate measurement range based on the expected value.
Measurement: The probes are placed in contact with the component or circuit being tested. The DMM then provides a numerical reading on the display, representing the measured value.
Data Analysis: Users can analyze the displayed data to diagnose electrical issues, verify circuit parameters, or troubleshoot problems.
Applications of digital multimeters include:
Electrical Troubleshooting: DMMs are used to identify faults, measure voltage drops, and check continuity in electrical circuits.
Safety Checks: Electricians use DMMs to verify that electrical systems are operating safely and within specified parameters.
Appliance Repair: Technicians use DMMs to diagnose and repair household appliances, such as refrigerators, washing machines, and ovens.
Automotive Maintenance: DMMs are essential for diagnosing vehicle electrical problems, testing batteries, and checking charging systems.
Research and Development: Engineers and scientists use DMMs in laboratory and research settings to measure and characterize electrical properties of components and devices.
In summary, a digital multimeter is a versatile instrument for measuring various electrical parameters accurately. Its user-friendly interface and broad range of applications make it an indispensable tool in the field of electronics and electrical engineering.
₹57,591   ₹59,263
You save ₹1,672!
2.82% OFF
Introducing the Insize UV Flaw Detection Light, the MPI-HF360, a cutting-edge tool designed for unparalleled flaw detection with a radiant intensity of 6000 μW/cm². This advanced UV light source is engineered to meet the rigorous standards of non-destructive testing, providing exceptional performance in identifying imperfections and flaws in various materials.The MPI-HF360 is a powerhouse with a radiant intensity of 6000 μW/cm², offering intense and uniform ultraviolet illumination. This makes it an ideal solution for flaw detection in a wide range of applications, including industrial inspections, quality control processes, and forensic examinations.Equipped with state-of-the-art UV technology, this flaw detection light ensures optimal visibility of defects, cracks, or irregularities in materials. Its precision and reliability make it an indispensable tool for professionals seeking accuracy in flaw identification.Designed with user convenience in mind, the Insize UV Flaw Detection Light features ergonomic controls and a user-friendly interface, allowing operators to navigate through different settings with ease. The robust construction and durable components ensure longevity and reliability, even in challenging working environments.Safety is a top priority, and the MPI-HF360 incorporates advanced safety features to protect the operator during operation. Whether you're working in manufacturing, aerospace, or any industry requiring meticulous flaw detection, the Insize UV Flaw Detection Light 6000 μW/cm², MPI-HF360, is your trusted partner for achieving precise and reliable results in non-destructive testing applications. Elevate your flaw detection capabilities with this state-of-the-art tool, where intensity, precision, and user-friendly design converge for exceptional performance in flaw identification.
₹4,150   ₹4,589
You save ₹439!
9.57% OFF
Insize Smart Digital Multimeter with TrueRMS Measurement and Data Hold, 9247-190 is an advanced electronic measuring instrument equipped with connectivity features and additional functionalities that go beyond the capabilities of traditional multimeters. These smart multimeters are designed to offer enhanced convenience, data analysis, and connectivity for professionals in various fields, including electronics, electrical engineering, and maintenance.
Key features and characteristics of a smart digital multimeter include:
Connectivity Options: Smart multimeters are equipped with various connectivity options, such as Bluetooth or USB, allowing them to interface with smartphones, tablets, or computers. This enables users to transfer measurement data, control the multimeter remotely, or use dedicated mobile apps for data analysis.
Data Logging: Smart DMMs often include data logging capabilities. They can record measurement data over time, creating logs that can be saved and analyzed later. This is particularly valuable for monitoring trends and identifying intermittent issues.
Remote Monitoring: With connectivity features, professionals can remotely monitor measurements in real-time using a mobile device or computer. This is useful for tasks that require hands-free monitoring or when working in hard-to-reach or hazardous areas.
Mobile Apps: Many smart multimeters come with companion mobile apps that offer enhanced functionality, including graphing, data visualization, and the ability to save and share measurement data. These apps may also provide guidance on measurement procedures.
Auto-Range and Auto-Hold: Smart DMMs often include auto-range and auto-hold functions, making measurements easier and more efficient by automatically selecting the appropriate measurement range and freezing readings when stable.
Large, High-Resolution Display: Smart multimeters typically feature large, high-resolution displays that can show measurement data clearly and may also display additional information such as trend graphs or histograms.
Advanced Measurement Functions: These multimeters often offer a wider range of measurement functions, including capacitance, frequency, temperature, and duty cycle measurements, in addition to the basic voltage, current, and resistance measurements.
The operation of a smart digital multimeter involves the following steps:
Connectivity Setup: Users establish a connection between the smart multimeter and a mobile device or computer using Bluetooth or USB. They may need to install a dedicated app or software.
Measurement Selection: Users select the desired measurement function and range on the smart multimeter, either manually or through the mobile app.
Measurement and Data Transfer: The smart multimeter takes measurements, and the data is displayed on the instrument's screen. Simultaneously, the data may be transmitted in real-time to the connected device.
Data Analysis: Users can analyze measurement data on the connected device, which may include plotting graphs, calculating statistics, and identifying trends.
Storage and Sharing: Measurement data can be stored locally on the connected device or in cloud storage, making it accessible for sharing, reporting, or future reference.
Applications of smart digital multimeters include:
Professional Electronics and Electrical Work: Smart DMMs are used by engineers, electricians, and technicians for a wide range of tasks, including circuit analysis, equipment troubleshooting, and electrical system maintenance.
Field Service: They are valuable in field service applications where remote monitoring and data transfer capabilities are essential for diagnosing and resolving issues quickly.
Research and Development: Scientists and researchers use smart multimeters for precise measurements and data analysis in various laboratory experiments and testing.
Teaching and Training: Smart multimeters are used in educational settings to demonstrate and teach measurement techniques in electronics and electrical engineering courses.
In summary, a smart digital multimeter is a technologically advanced tool that offers enhanced connectivity and data analysis capabilities. Its ability to streamline measurement tasks, remotely monitor measurements, and provide valuable insights makes it a valuable asset for professionals and researchers in various technical fields.
₹211  
Insize 100-250 V AC Range Voltage Tester with CRV Tip, 9722-250 is an essential electrical testing tool used to determine the presence or absence of voltage in electrical circuits, outlets, wires, or devices. This handheld instrument plays a crucial role in electrical safety, as it helps electricians, technicians, and homeowners identify live electrical circuits before performing maintenance, repairs, or installations.
Key features and characteristics of a voltage tester include:
Voltage Detection: The primary function of a voltage tester is to detect the presence of voltage in electrical conductors. It can identify both AC (alternating current) and DC (direct current) voltage.
Non-Contact Operation: Most voltage testers are non-contact tools, meaning they do not require physical contact with the conductor or wire being tested. They use capacitive or inductive sensing to detect voltage through insulation or outer shielding.
Visual and Audible Indicators: Voltage testers typically have visual indicators like LED lights and audible alarms, such as beeps or buzzes, to alert the user when voltage is detected. The intensity or frequency of the indicators may vary based on the voltage level detected.
Voltage Range: Voltage testers come in various voltage range options, from low-voltage versions (e.g., 12-24 volts) suitable for low-voltage electronics to higher-voltage models (e.g., 90-1,000 volts) used for residential and commercial electrical systems.
Auto Power Off: Many testers are equipped with an auto-power-off feature to conserve battery life, automatically shutting down after a period of inactivity.
Built-in Flashlight (optional): Some models include a built-in flashlight or work light, which can be especially handy in dark or poorly lit areas.
The operation of a voltage tester is straightforward:
Power On: The user turns on the tester, typically by pressing a button or triggering a switch.
Proximity Testing: The tester is brought close to the electrical conductor, outlet, or wire being tested. No physical contact is necessary.
Voltage Detection: If voltage is present, the voltage tester's visual indicators (LED lights) light up, and it may emit audible alerts (beeps or buzzes). The intensity or frequency of the alerts corresponds to the detected voltage level.
Power Off: After use, the user turns off the tester to conserve battery life.
Applications of voltage testers include:
Electrical Safety: Electricians and technicians use voltage testers to verify that circuits are de-energized before performing maintenance, repairs, or installations.
Home Electrical Work: Homeowners use these testers to check outlets, switches, and wiring for live voltage, ensuring safety during DIY electrical projects.
Troubleshooting: Technicians use voltage testers to identify live circuits, locate electrical faults, and diagnose electrical problems.
₹1,409   ₹1,535
You save ₹126!
8.22% OFF
Insize AC Phase and Voltage Detector with Low Battery Indication, 9723-400 is a handheld electronic tool used by electricians and technicians to determine the presence of alternating current (AC) voltage and identify the phase sequence in electrical circuits and systems. These devices are essential for ensuring electrical safety, troubleshooting, and conducting maintenance in a variety of industrial, commercial, and residential settings.
Key features and characteristics of an AC phase and voltage detector include:
Voltage Detection: These detectors are primarily designed to identify the presence of AC voltage in circuits or conductors without direct contact. They can detect voltages ranging from low voltages (typically around 12-24 volts) to high voltages (up to 1,000 volts or more).
Non-Contact Operation: AC phase and voltage detectors are non-contact tools, meaning they do not need physical contact with the conductors or wires being tested. Instead, they use proximity or capacitive sensing to detect voltage.
Visual and Audible Indicators: These detectors feature visual indicators such as LED lights and audible alarms (beeps or buzzes) to signal the presence of voltage. The intensity of the indicator may vary with the voltage level detected.
Phase Sequence Detection: Some advanced AC phase and voltage detectors can also determine the phase sequence or rotation direction of three-phase AC systems. This information is crucial for the correct installation and operation of motors and equipment.
Sensitivity Adjustment: Many detectors allow users to adjust the sensitivity to detect voltage at different distances or through various insulating materials.
Built-in Flashlight (optional): Some models include a built-in flashlight or work light to help users in low-light conditions, which is particularly useful in electrical panels and dark spaces.
The operation of an AC phase and voltage detector involves the following steps:
Power On: The user turns on the detector by pressing a power button or trigger.
Proximity Testing: The detector is brought close to the electrical conductor or wire being tested. It does not need to make physical contact.
Voltage Detection: If AC voltage is present, the detector's visual and audible indicators activate, providing immediate feedback to the user. The intensity of the indicators may vary depending on the detected voltage level.
Phase Sequence Detection (if applicable): In the case of models capable of phase sequence detection, the device may display the correct phase sequence or rotation direction using LED lights or other indicators.
Power Off: The user turns off the detector after use to conserve battery life.
Applications of AC phase and voltage detectors include:
Electrical Safety: Electricians use these detectors to ensure circuits are de-energized before conducting maintenance or repairs.
Troubleshooting: Technicians use them to identify live circuits or voltage anomalies when diagnosing electrical issues.
Phase Sequence Verification: AC phase and voltage detectors are essential when installing and verifying the correct phase sequence of motors, generators, and three-phase equipment.
Construction and Industrial Settings: These detectors are used during construction and in industrial environments to ensure electrical systems are safe and operating correctly.
In summary, an AC phase and voltage detector are essential tools for electricians and technicians to safely and effectively identify AC voltage presence and phase sequence in electrical systems. Their non-contact operation and immediate feedback make them indispensable for electrical safety and maintenance.
₹1,53,399 - ₹1,65,199
The Insize Infrared Transmission Probe for CNC Machine Tools, model 9413, is a cutting-edge tool designed to enhance the efficiency and precision of CNC machining operations. This innovative probe utilizes infrared technology to accurately measure the position and dimensions of workpieces with exceptional speed and accuracy. Featuring a compact and durable design, this probe is easy to install and integrate into CNC machines, making it ideal for a wide range of machining applications. Its high-speed data transmission capabilities enable real-time feedback, allowing operators to make adjustments quickly and effectively. One of the key features of the Insize Infrared Transmission Probe is its ability to measure complex shapes and contours with precision, ensuring that machined parts meet the strictest quality standards. This makes it an indispensable tool for industries such as aerospace, automotive, and manufacturing, where precision and accuracy are paramount. Additionally, this probe is equipped with advanced software that allows for easy calibration and customization, making it adaptable to a variety of machining tasks. Overall, the Insize Infrared Transmission Probe for CNC Machine Tools is a versatile and reliable tool that can help improve the efficiency and accuracy of CNC machining operations.
green checkType of Product : Infrared Transmission Probe
green checkAccuracy : 1 μm
green checkProbe Diameter : 48 mm
green checkSuitable For : CNC Machine Tool
green checkLoad Current : 50 mA
green checkWaterproof : IP68
green checkPower : 24 V DC
₹2,13,742   ₹2,45,826
You save ₹32,084!
13.05% OFF
Introducing the Insize Salt Spray Tester, the SFT-S210R, a robust and high-capacity testing instrument designed to assess the corrosion resistance of materials in challenging environments. With a powerful 2 kW system and a spacious 270 L testing chamber, this salt spray tester is a crucial tool for industries where corrosion resistance is paramount.Equipped with a formidable 2 kW power system, the SFT-S210R provides precise and controlled salt spray conditions for assessing the corrosion resistance of materials. This makes it an indispensable tool for quality control, research, and development in industries ranging from automotive to aerospace.The generous 270 L testing chamber offers ample space for accommodating a variety of test specimens, allowing for comprehensive testing of materials of different shapes and sizes. The chamber design ensures uniform distribution of salt spray, providing accurate and reliable results across the entire testing surface.Designed with advanced technology, the Insize Salt Spray Tester features intuitive controls and a user-friendly interface, enabling operators to set up and conduct tests with ease. The durable construction and high-quality components guarantee the longevity and reliability of the tester, even in demanding testing conditions.Whether you are involved in material testing, quality assurance, or research and development, the Insize Salt Spray Tester 2 kW 270 L, SFT-S210R, is your go-to solution for evaluating the corrosion resistance of materials. Elevate your testing capabilities with this cutting-edge instrument, where power, capacity, and user-friendly design converge to deliver exceptional performance in assessing material durability in corrosive environments.
₹2,15,865   ₹2,45,313
You save ₹29,448!
12% OFF
Introducing the Insize Rotational Abrasion Tester, the QMY-AP32, a powerful and precise tool designed for evaluating material resistance to abrasion through controlled rotational testing. With a 25 W motor, this tester is engineered to meet the stringent demands of quality control, research, and development in industries where abrasion resistance is a critical factor.The QMY-AP32 is equipped with a robust 25 W motor, providing controlled rotational force to assess the abrasion resistance of materials. This makes it an essential instrument for determining the durability and wear characteristics of various substances, ensuring product longevity and performance.Featuring advanced technology, this rotational abrasion tester offers precision and repeatability in testing. The intuitive controls and user-friendly interface facilitate ease of operation, enabling operators to conduct accurate and consistent abrasion tests with efficiency.Constructed with durability in mind, the Insize Rotational Abrasion Tester is built to withstand rigorous testing environments. The robust components and sturdy design ensure the reliability of results over extended periods, making it a valuable tool for quality assurance and product development.Whether you are involved in material testing, research, or quality control, the Insize Rotational Abrasion Tester 25 W, QMY-AP32, is your trusted partner for evaluating abrasion resistance. Elevate your testing capabilities with this cutting-edge instrument, where motor power, precision, and user-friendly design converge to deliver exceptional performance in assessing material durability.
₹90,859  
Introducing the Insize Receiver 24 V ±10% (DC), Model 9413-A, a cutting-edge electronic device designed to enhance your measurement and inspection processes. This precision instrument is engineered with state-of-the-art technology to ensure accuracy and reliability in diverse industrial applications.The Insize Receiver 9413-A operates seamlessly with a 24 V power supply, providing a versatile and stable performance that meets the demands of various environments. Its impressive ±10% tolerance ensures consistent and dependable results, making it a trusted choice for professionals in fields such as manufacturing, quality control, and research.Crafted with meticulous attention to detail, the Insize Receiver boasts a robust build that withstands the rigors of daily use. The device is equipped with advanced features that simplify data collection, making it an invaluable tool for tasks requiring precision and efficiency.The user-friendly interface of the Insize Receiver 9413-A enhances operational convenience, allowing for effortless integration into your workflow. Its sleek design, coupled with intuitive controls, ensures a seamless user experience, making it suitable for both seasoned professionals and those new to electronic measurement equipment.Whether you're engaged in dimensional inspections, alignment procedures, or data acquisition tasks, the Insize Receiver 9413-A sets a new standard for performance and reliability. Elevate your measurement capabilities with this innovative device, a testament to Insize's commitment to delivering top-tier solutions for the modern industrial landscape. Invest in precision with the Insize Receiver 9413-A and experience a new level of accuracy in your applications.
₹12,671  
Insize Eddy Current Probe (NFE) with Zero Calibration Block, 9501-1200-NFE is a non-destructive testing (NDT) instrument used for inspecting the surface and subsurface properties of conductive materials. It relies on the principle of electromagnetic induction to detect flaws, defects, or variations in the material's composition. Eddy current testing is widely employed in industries like aerospace, automotive, manufacturing, and quality control. Here's an explanation of its key features and how it works:
Key Features:
Probe Coil: The eddy current probe consists of a coil or wire wound around a core. When an alternating current passes through this coil, it generates an electromagnetic field around it.
Eddy Currents: When the probe is placed near a conductive material, the changing magnetic field induces eddy currents within the material. These eddy currents, in turn, generate their own magnetic fields.
Eddy Current Response: Any changes in the material's composition, such as cracks, voids, or variations in electrical conductivity, affect the behavior of the eddy currents. These changes are detected by the probe.
Signal Processing: The probe's response is typically captured by a receiver or instrument, which processes the data to identify anomalies in the material being tested.
How it Works:
Using an Eddy Current Probe involves the following steps:
Probe Selection: Choose a probe with the appropriate coil size, frequency, and characteristics based on the material, depth of inspection, and type of defects being investigated.
Calibration: The probe is often calibrated to ensure it can detect known defects or changes in the material. Calibration standards or reference samples may be used for this purpose.
Inspection: Move the probe over the surface of the material, or bring it into close proximity, depending on the specific application. The probe emits alternating current, and variations in the material's conductivity or the presence of defects will cause changes in the probe's response.
Data Interpretation: The data collected by the probe is analyzed, and any deviations from the expected response are used to identify and assess defects or variations in the material's properties.
Applications:
Eddy current probes are widely used in several applications, including:
Aerospace: Detecting cracks, corrosion, and defects in aircraft components, such as engine parts and airframe structures.
Automotive: Inspecting automotive components like brake discs, engine blocks, and gears for flaws and defects.
Manufacturing: Ensuring the quality of metal parts, such as tubes, wires, and castings during the production process.
Surface Coating Inspection: Assessing the thickness and integrity of coatings on materials.
Material Sorting and Alloy Verification: Determining the composition and properties of metals, such as verifying the alloy type.
Eddy current probes provide a non-destructive and efficient method for detecting defects, ensuring the quality of materials, and assessing the integrity of critical components across various industries. Their sensitivity and versatility make them valuable tools in quality control and safety assurance.
₹71,314  
Insize Small Hole Probe with Memory of Maximum 100 Results, ISR-C002-SBP is a precision measuring instrument used to accurately determine the internal diameter of small holes or bores. These tools are commonly employed in manufacturing, quality control, and maintenance applications where precise measurements of hole diameters are crucial.
Key features and functions of a small hole probe include:
Contact Measurement: Small hole probes utilize a set of contact points, typically spherical or flat-ended, to make physical contact with the interior surfaces of holes or bores.
Diameter Measurement: The primary function of a small hole probe is to measure the diameter of internal holes. This is especially important in applications where hole size tolerance and accuracy are critical.
Spring-Loaded Mechanism: Small hole probes are equipped with a spring-loaded mechanism that ensures consistent and controlled contact pressure against the bore's surface, which is crucial for accurate measurements.
Readout: Many modern small hole probes are equipped with digital readouts that display the measured diameter directly, providing ease of use and accuracy.
Adjustable Setting: The user can adjust the size of the small hole probe to suit the specific bore diameter being measured. Some models have a micrometer-style adjustment to fine-tune the probe's size.
Interchangeable Anvils: Some small hole probes feature interchangeable anvils, allowing for a single probe to measure a range of hole sizes. This flexibility can be cost-effective and convenient.
Blind and Through Holes: Small hole probes are suitable for measuring both blind holes (holes that do not pass completely through the workpiece) and through holes (holes that pass through the workpiece from one side to the other).
Precision and Accuracy: Small hole probes offer high precision and accuracy, making them well-suited for industries where tight tolerances and quality control are essential.
Quality Control: Small hole probes are often used in quality control processes to ensure that machined components, such as engine cylinders, bearing bores, or threaded holes, meet specific diameter specifications.
Maintenance and Repair: They are also used in maintenance and repair activities, such as checking for wear or damage in engine cylinders, automotive components, and machinery parts.
Calibration: Regular calibration and verification of small hole probes are essential to ensure the reliability and accuracy of the measurements they provide.
In summary, small hole probes are indispensable tools for accurately measuring the internal diameters of small holes and bores. Their precision and reliability make them valuable instruments in manufacturing and quality control, ensuring that components meet tight tolerances and quality standards. Whether in the automotive industry, aerospace, or general machining applications, small hole probes play a vital role in ensuring the accuracy and functionality of precision-engineered parts and components.
₹51,441   ₹55,491
You save ₹4,050!
7.3% OFF
Insize Eddy Current Probe with Zero Calibration Plate, ISO-8000FN-N1500 is a non-destructive testing (NDT) instrument used for inspecting the surface and subsurface properties of conductive materials. It relies on the principle of electromagnetic induction to detect flaws, defects, or variations in the material's composition. Eddy current testing is widely employed in industries like aerospace, automotive, manufacturing, and quality control. Here's an explanation of its key features and how it works:
Key Features:
Probe Coil: The eddy current probe consists of a coil or wire wound around a core. When an alternating current passes through this coil, it generates an electromagnetic field around it.
Eddy Currents: When the probe is placed near a conductive material, the changing magnetic field induces eddy currents within the material. These eddy currents, in turn, generate their own magnetic fields.
Eddy Current Response: Any changes in the material's composition, such as cracks, voids, or variations in electrical conductivity, affect the behavior of the eddy currents. These changes are detected by the probe.
Signal Processing: The probe's response is typically captured by a receiver or instrument, which processes the data to identify anomalies in the material being tested.
How it Works:
Using an Eddy Current Probe involves the following steps:
Probe Selection: Choose a probe with the appropriate coil size, frequency, and characteristics based on the material, depth of inspection, and type of defects being investigated.
Calibration: The probe is often calibrated to ensure it can detect known defects or changes in the material. Calibration standards or reference samples may be used for this purpose.
Inspection: Move the probe over the surface of the material, or bring it into close proximity, depending on the specific application. The probe emits alternating current, and variations in the material's conductivity or the presence of defects will cause changes in the probe's response.
Data Interpretation: The data collected by the probe is analyzed, and any deviations from the expected response are used to identify and assess defects or variations in the material's properties.
Applications:
Eddy current probes are widely used in several applications, including:
Aerospace: Detecting cracks, corrosion, and defects in aircraft components, such as engine parts and airframe structures.
Automotive: Inspecting automotive components like brake discs, engine blocks, and gears for flaws and defects.
Manufacturing: Ensuring the quality of metal parts, such as tubes, wires, and castings during the production process.
Surface Coating Inspection: Assessing the thickness and integrity of coatings on materials.
Material Sorting and Alloy Verification: Determining the composition and properties of metals, such as verifying the alloy type.
Eddy current probes provide a non-destructive and efficient method for detecting defects, ensuring the quality of materials, and assessing the integrity of critical components across various industries. Their sensitivity and versatility make them valuable tools in quality control and safety assurance.
Recommended Items
oos-available Ships within 24 hrs
oos-available Ships within 24 hrs
18
Pack of 40 piece
₹110 ₹110
0.01% OFF
sku-leadTime Ships within 2 days
14
Pack of 10 ream
₹2,005 ₹2,005
0.01% OFF
sku-leadTime Ships within 10 days
oos-available Ships within 24 hrs
sku-leadTime Ships within 10 days
oos-available Ships within 24 hrs
oos-available Ships within 24 hrs
oos-available Ships within 24 hrs
oos-available Ships within 24 hrs
oos-available Ships within 24 hrs
oos-available Ships within 24 hrs
Browsing History
sku-leadTime Ships within 5 days
sku-leadTime Ships within 7 days
sku-leadTime Ships within 3 days
sku-leadTime Ships within 7 days
sku-leadTime Ships within 10 days
sku-leadTime Ships within 6 days
₹44,099 ₹54,600
19.23% OFF