All you need to know about Power Failure Alert device

All you need to know about Power Failure Alert device


In today’s fast-paced world, uninterrupted power supply is crucial for businesses and households alike. Imagine having a reliable solution that not only detects power failures but also sends instant SMS alerts to keep you in the loop. 📲💨 Let’s delve into the world of Power Failure SMS Alert Devices and explore how they revolutionize the way we handle electrical outages.

This user-friendly device, renowned for its effectiveness and easy interface, sends SMS alerts on power failure occurrences or restorations, preventing potential disasters. Effortlessly configure multiple user registrations, making it versatile for safeguarding stock in freezers, server systems, healthcare facilities, and computer systems.

The Power Failure SMS Alert Device is a cutting-edge gadget designed to provide real-time notifications when power interruptions occur. 🌐🔍 This compact device serves as a guardian for your electrical systems, ensuring you stay informed and empowered even during unexpected blackouts.

Power failures, or blackouts, can have significant impacts on various aspects of daily life and various industries. Here are some applications or areas where power failure can have notable consequences:

How it Works

The Power Failure SMS Alert Device utilizes advanced sensors to detect changes in electrical currents. Upon sensing a power failure, it triggers the sending of SMS alerts to the designated contacts. 🔄🔍

Upon detection, the device utilizes its built-in GSM (Global System for Mobile Communications) module to send SMS alerts to predefined contacts. This ensures that users receive instant notifications on their mobile devices, keeping them informed about the power outage status. 📲🌐

The device’s intelligent system also includes a battery backup feature, allowing it to function seamlessly during power disruptions, guaranteeing continuous monitoring and alerting capabilities. 🔋🔄


  1. Heating and Cooling:
    • Power outages can affect HVAC systems, leading to discomfort, especially in extreme weather conditions. ❄️🔥
  2. Refrigeration:
    • Perishable food may spoil if refrigeration is disrupted for an extended period. 🍎🥦🥩
  3. Manufacturing:
    • Power outages can halt production lines, leading to financial losses and disruptions in the supply chain. 🏭💸
  4. Data Centers:
    • Uninterruptible power supplies (UPS) are critical for data centers to avoid data loss and maintain service continuity. 🖥️🔋
  5. Healthcare Facilities:
    • Hospitals and clinics rely on continuous power for critical equipment and life-support systems. 🏥⚕️
  6. Retail:
    • Point-of-sale systems, lighting, and security systems may be affected. 💳💡🚨
  7. Traffic Lights:
    • Power failures can disrupt traffic signals, leading to traffic jams and safety hazards. 🚦🚗🚨
  8. Public Transportation:
    • Electric trains and buses may be affected, disrupting public transit services. 🚆🚍🛑
  9. Telecommunications:
    • Power outages can disrupt phone services, internet connectivity, and other communication systems. 📞📡💻
  10. Emergency Services:
    • Police, fire, and medical services may face challenges in responding to emergencies. 🚓🚒🚑🚨
  11. Banking Systems:
    • ATMs, online banking, and other financial services may be temporarily unavailable. 💵💻🏦
  12. Stock Exchanges:
    • Trading activities can be impacted, affecting financial markets. 📈💹💰
  13. Schools and Universities:
    • Power outages can disrupt classes, online learning platforms, and research activities. 📚🎓💻
  14. Water Treatment Plants:
    • Power failures can impact the pumping and treatment of water, affecting the supply of clean water. 🚿💧🌊
  15. Sewage Systems:
    • Treatment and disposal of sewage may be affected, leading to potential environmental and health issues. 🚽🌍🤢
  16. Irrigation Systems:
    • Automated irrigation systems may fail, affecting crop health. 🌱🚿🌾
  17. Livestock:
    • Power outages can impact heating and cooling systems for livestock, especially in extreme weather conditions. 🐄🌡️🔥❄️
  18. Entertainment and Recreation:
    • Power failures can disrupt entertainment events and recreational activities in cinemas, theme parks, and sports venues. 🎬🎢🏟️
  19. Public Services:
    • Government offices may face disruptions in providing services to the public. 🏛️🚫💼



⚡ Invest in power failure alert devices for proactive warnings on outages, empowering individuals and businesses to safeguard against disruptions. 🚨 Quick responses are vital, as sudden power failures pose risks to electronic devices. Power failure alerts facilitate the safe disconnection of sensitive equipment and activation of backup power sources, preventing potential damage.

For businesses heavily reliant on electronic systems, a power failure alert system is indispensable for maintaining seamless operations. It enables secure system shutdowns or swift activation of backup power, preventing data loss and service interruptions. ⚡🔒

Individuals with medical conditions relying on powered medical equipment benefit from power failure alerts. It allows them to switch to backup power sources or take necessary measures to ensure the continuous functioning of critical medical devices. 🚑⚠️

Strategic use of power failure alert devices not only prevents equipment damage but also minimizes downtime and optimizes backup power efficiency. 🔄💰 This translates to substantial long-term cost savings. Invest wisely in power failure alert solutions to protect equipment, ensure continuity, and optimize resource efficiency.



power failures, or blackouts, have far-reaching implications across various sectors, affecting both daily life and industries. The consequences range from discomfort in heating and cooling systems to disruptions in critical services like healthcare, transportation, and emergency response. Industries such as manufacturing, retail, and finance face financial losses and operational setbacks during power outages. Educational institutions, water treatment plants, and agriculture also grapple with challenges, impacting learning, water supply, and crop health.

The vulnerability of interconnected systems becomes apparent as power failures can trigger a domino effect, disrupting not only utilities but also communication channels, transportation networks, and essential services. While backup systems such as uninterruptible power supplies (UPS) provide some resilience, the widespread impact of blackouts underscores the need for comprehensive strategies to ensure energy reliability.

As we navigate the complexities of a modern, technology-driven society, addressing the consequences of power failures requires collaborative efforts from industries, governments, and individuals. Embracing sustainable energy solutions, implementing robust backup systems, and fostering innovation in energy management are crucial steps toward building a more resilient and reliable infrastructure. By understanding and mitigating the impacts of power failures, we can work towards creating a more secure and sustainable future for all. ⚡🌐🔒

🔍 Unraveling the Enigma: Journey into the World of Electromagnetic/Magnetic Flowmeters 🔮

🔍 Unraveling the Enigma: Journey into the World of Electromagnetic/Magnetic Flowmeters 🔮

3D View of Accumax Instrument’s Electromagnetic Flowmeter


🌟 Are you intrigued by electromagnetic/magnetic flowmeters (EMF) and their applications? 🔗 You’re about to have a mind-blowing experience. To see an amazing 3D rendering of an electromagnetic flowmeter, click the link above. 🌪️🚀 Particularly in sectors where accuracy is crucial, these instruments are a dominant force in fluid monitoring. They have significantly changed the industry thanks to their remarkable precision, dependability, and low maintenance requirements. Join us as we explore their parts, operating principles, benefits, setup, upkeep, precision, uses, calibration, and advice on selection. Buckle up for an educational voyage into the intriguing world of flowmeters! 🌟



These amazing instruments accurately gauge the flow rate of conductive substances including water, acids, and slurries. They have transformed sectors like water treatment, chemical processing, and beverages & food production. 🏭These flowmeters aren’t dependent on parts that move, as other measurement devices. 💡
Imagine a tool that reliably and accurately measures the fluid running via conduits (PS: We have something special for you! Go on scrolling, there’s an awesome film awaiting you later, just like you thought! 😉). That is the potency of electromagnetic/magnetic flowmeters! 💪They are the preferred choice for a variety of industries thanks to their cutting-edge technology and durable construction. 🌐

Key components 

The following key elements are inherent in an electromagnetic flowmeter for correct measurement:

🌐Flow Tube: Directs the fluid through the measurement procedure; made of non-magnetic materials like Teflon or stainless steel.

🚀Excitation Coil: Around the flow tube and produces the magnetic field that interacts with the fluid.

Sensing Electrodes/Flow Sensor: are placed into the flow tube and sense the voltage generated across the fluid that is proportional to the fluid’s velocity.

🔌Signal Converter: Enhances and modulates the weak electrical impulses from the electrodes to quantifiable outputs.

📊 Transmitter/Display Unit: With added capabilities like data recording and communication interfaces, the unit grabs the modified pulses and outputs vital data, especially flow rate.

🔗Grounding Electrodes: minimize noise and act as voltage reference points, establishing a good electrical connection with the fluid.

These parts make up an electromagnetic flowmeter’s main elements, alongside the power supply. The transmitter handles data, the flow sensor determines fluid velocity, and the power source powers the meter with electricity. Collectively, they facilitate accurate and credible measurements of fluid flow.


U bent pipe with EMF (
U bent pipe with Electromagnetic flowmeter


You may be wondering 🤔 how these flowmeters operate at this point. Enter its enticing operational/working concept now.

Working principle 

Faraday’s Law of electromagnetic induction is used by electromagnetic/magnetic flowmeters. When conductive liquid passes through the magnetic field produced by the flowmeter, voltage is produced. It is possible to calculate the flow rate precisely by gauging this voltage. It appears to be magic occurring within those lines! ✨

Here is a brief description of how they operate:

💡 Magnetic Field Generation: The excitation coil and the sensing coil, a pair of two coils, produce a magnetic field that encircles the pipe.

💧 The flow of a Conductive Fluid: The pipe is traversed by a conductive fluid.

⚡️ Induced Voltage: As a fluid passes through a magnetic field, Faraday’s law creates a voltage that is perpendicular to both the field and the direction of flow.

📊 Voltage Detection: In proportion to the fluid’s velocity, the sensor coil picks up the created voltage.

🔢 Calculation of Flow Rate: Using the observed voltage, the meter determines the liquid’s flow rate by taking electromagnetism and fluid dynamics into account.

Electromagnetic/magnetic flowmeters can accurately measure fluid flow thanks to this underlying concept, and a variety of industries employ them.



The ease of maintenance of electromagnetic/magnetic flowmeters is one of its most appealing features. They don’t have any moving components to be concerned about, so maintenance is minimal. Farewell to often-needed fixes 🛠️and welcome to continuous operations!  Additionally, even in turbulent fluids and low flow rates, their accuracy levels are exceptional, ensuring precise readings in even the most demanding situations. 🔍

Electromagnetic/magnetic flowmeters are now essential tools in sectors where reliable operations and limited maintenance requirements are critical. They offer a wide range of advantages, including accurate flow monitoring, simple installation, and savings in the long run. 🌈 Additionally, they work well with a variety of conducting liquids, including ones with corrosive characteristics or high solid contents. 💪🌊

Understanding electromagnetic/magnetic flowmeters is crucial for any company that depends on fluid flow management. 🚀 Follow along till we investigate numerous applications in the real world.

Real-world applications

Electromagnetic/magnetic flowmeters are used in various industries and applications, including:

🌊Water treatment,

Chemical processing🔬,

🍹Food and beverage production,

Mining⛏️, and

💊 Pharmaceutical production.

Accumax Instrument's EMF installed (
Accumax Instrument’s EMF installed

Examples of those real-world applications

Electromagnetic/magnetic flowmeters are adaptable marvels that may be used in a wide range of fields and applications:

💧Water treatment: These meters assess the flow of water in treatment facilities (at different phases of sedimentation, filtration, and disinfection), guaranteeing effective resource management and conserving water.

🧪Chemical processing🔬: During manufacturing operations (mixing, blending, reaction), flowmeters reliably monitor chemical flow for a variety of substances, including acids and solvents. This assures exact control.

🍹Food and beverage production🍻: During bottling and canning, flowmeters give accurate liquid flow measurements, ensuring product quality, uniformity, and flavor perfection in every container.

⛏️Mining: These meters examine the flow of slurries (water, crushed minerals, and ores), which optimizes resource extraction and usage.

💊Manufacturing of Medications: Pharmaceutical companies need the finest possible degree of precision. These flowmeters maintain excellent pharmaceutical standards by rigorously ensuring dose accuracy for every run of drug manufacture.

Flowmeters demonstrate their value 💪 in an array of segments, including ⛏️mining operations, water 🌊 quality assurance, chemical 🧪 optimization, 🍻beverage perfection, and pharmaceutical 💊 accuracy.

Installation and maintenance

A pipe with a hole in the middle of a garden, and an attached electromagnetic/magnetic flowmeter from
A pipe with a hole in the middle of a garden, and an attached electromagnetic/magnetic flowmeter


These flowmeters can be mounted horizontally or vertically and are normally positioned in a section of a straight line that is unobstructed by any objects. However, a U-bend is ideal for these flowmeters (as seen in the remaining photographs). As there are no mechanical components that need oiling or alignment, maintenance is little.

📋Pre-Installation Checklist:

  • Examine the instructions and standards provided by the manufacturer.

  • Decide on a suitable installation site.

  • Verify that the electrical wiring and grounding are correct.

  • Take into account the suitability of pipe dimensions and material.

  • Obtain the required licenses and permits.

🚧 Installation Process:

  • Depressurize the conduit and stop the flow before installing it.

  • Attach the flowmeter to a segment of straight pipe.

  • Correctly align the flowmeter with the flow.

  • Install the flowmeter firmly using the proper fittings.

  • Assemble the wiring and cables as per the manual’s directions.

  • Visually check the area for any leaks or anomalies.

🔍 Verification and Testing:

  • Examine every component visually.

  • Evaluate the flowmeter’s performance.

  • Verify that all electrical connections are secure.

  • Check the flow sensor’s positioning and orientation.

  • Verify that the grounding is solid and reliable.

🛠️Regular maintenance:

  • Check the flowmeter for physical damage.

  • Keep the electrodes and flow sensor

  • Inspect electrical connections for looseness or rusting.

  • Check the wiring and cable

  • Keep an eye out for any indications of unusual performance.

Calibration and Re-Calibration:

These meters have a high degree of precision and an error percentage that’s under 1%. Since variations in fluid viscosity, density, or electrical conductivity might alter the results, periodic calibration may be necessary to make certain that the calibration curve remains truthful.

  • When calibrating, go according to the manufacturer’s instructions.

  • Conduct routine calibrations to keep precision.

  • If necessary, take into account external calibrating services.

  • Save calibration information for later use.

🧪Troubleshooting and Support:

  • Become familiar with troubleshooting techniques.

  • Consult the user guide or get in touch with technical assistance.

  • Quickly address any problems to reduce downtime.

  • Stay current with firmware and software updates.

⚙️Your electromagnetic/magnetic flowmeter will operate accurately and dependably if it is installed, maintained regularly, and calibrated on schedule.

Choosing the right EMF for your business needs

Together, we’ll develop the knowledge required to select the ideal electromagnetic/magnetic flowmeter for the needs of your business. 💪 Consider the following factors when selecting a flowmeter:

💧 Fluid type: Confirm appropriateness for the fluid being measured.

Conductivity: Verify the requisite conductivity minimum.

🌊 Flow rate range: Determine the expected flow rate.

📏 Pipe size: Verify conformance with the conduit size.

🎯 Accuracy needs: Determine the required accuracy level.

💰 Price: Compare it to your spending limit.

🔩 Installation: Consider how simple it is to install.

🔧 Maintenance costs: Costs associated with maintenance should be factored in.

You may make a well-informed selection and get the best meter for your application by taking these aspects into account.

U bend for Electromagnetic Flowmeter showing flow animation

Conclusion: Investing in EMF

Electromagnetic/magnetic flowmeters are used in businesses wherein 🌊 fluid measurement, as well as surveillance, are crucial. They provide a high-accuracy, effortless to maintain option that keeps your business operations going seamlessly. 💪

It’s essential to comprehend their 🔧 installation, maintenance, and important parts. Each component, including the flow tube, coils, electrodes, and the transmitting device, is essential. 💡 They guarantee accurate fluid flow measurement for conductive liquids by following Faraday’s principle of electromagnetic induction. 📈 These flowmeters provide process optimization and product quality enhancement.

Please leave any ❓ queries or remarks you may have regarding electromagnetic/magnetic flowmeters in the comments section. 👇 We’re excited to hear from you and here to assist! 👇

An Introduction To Flowmeters: Everything You Need To Know

An Introduction To Flowmeters: Everything You Need To Know



A flowmeter is an instrument that measures a liquid or gas’s linear, nonlinear, or angular speed. There are numerous varieties of flowmeters, each with a unique set of benefits and drawbacks. The most common types of flowmeters are electromagnetic, turbine, ultrasonic, positive displacement, differential pressure, Coriolis, and vortex.

Turbine flowmeters are the most popular flowmeter type due to their low cost, durability, and accuracy. Positive displacement flowmeters are a popular yet expensive option. Differential pressure flowmeters are the most accurate type of flowmeter but are difficult to install and maintain. Coriolis flowmeters are the most precise type of flowmeter and the most expensive. Vortex flowmeters are the least expensive type of flowmeter and the least accurate.

No matter what type of flowmeter you choose, selecting one that is appropriate for the application is important. Various factors such as fluid properties, operating conditions, and desired accuracy must be considered.



A flowmeter is a tool that gauges the rate at which a liquid or gas is moving. Flowmeters work by measuring the speed at which a substance flows through a pipe. They can be used to gauge how quickly fluids like air, water, steam, fuels, and chemicals are moving through a system.

Flowmeters come in a variety of shapes and sizes and can be used for a variety of applications including industrial process control, metering, and monitoring. The oil and gas, food and beverage, water treatment, and pharmaceutical industries are just a few that depend on them. Flowmeters are also used for medical purposes, such as monitoring blood flow, and for water and wastewater management.

Flowmeters measure flow rate in a variety of ways, such as through the displacement of a known volume of fluid, by measuring pressure drop, or through force balance.

Real-life examples of how flowmeters have been successfully used in a specific industry include measuring the flow rate of water in cooling towers, monitoring the flow of natural gas in pipelines, and controlling the flow of steam in power plants. In each case, flowmeters have helped to improve productivity, safety, and efficiency, by providing accurate and reliable measurement of flow rates and detecting any anomalies or leaks in the system.



Flowmeters provide accurate, real-time data on the flow rate of a process which can then be used to make decisions or adjust operations. This data can be used to improve efficiency, reduce waste, and increase productivity. 

  • They increase efficiency by helping to prevent process upsets before they occur and by alerting operators to deviations from normal operations.

  • They also enable companies to monitor and control gas and liquid resources to reduce their environmental impact. By accurately measuring and controlling flows, businesses can reduce their energy consumption, eliminate waste, and optimize the use of resources. This assists companies in reducing operational expenses and ensuring environmental compliance.

Flowmeters are a critical component in any industrial process and are essential for accurate measurement and control of process flows.


(Image source:



Flowmeters come in many different shapes, sizes, and technologies. Flowmeters come in a variety of designs, including mechanical, electrical, and ultrasonic. A few common types of flowmeters include:

  1. Mechanical flowmeters – These use physical mechanisms such as a paddle, turbine, or rotating vane, to measure the flow rate of the fluid. As the fluid flows through the device, it interacts with the mechanism, causing it to rotate. The rate of rotation is proportional to the flow rate of the fluid, which can be measured and displayed on a gauge or other readout.

  2. Turbine Flowmeters – These measure the flow rate of liquid or gas by using an array of paddles that rotate when the liquid or gas passes between them. The rate of flow is directly proportional to the rotational speed of the paddles.

  3. Electrical flowmeters – These use sensors and electronics to measure the flow rate. These devices may use electromagnetic, thermal, or ultrasonic sensors to detect the flow of the fluid and convert it into an electrical signal. This signal can then be processed and displayed as a digital readout.

  4. Ultrasonic Flowmeters – These measure the flow rate of liquid or gas using high-frequency sound waves emitted by a transducer. The transducer sends an ultrasonic signal that is reflected by the walls of the pipe and received by a receiving transducer. The pace of flow is related to the amount of time between the waves’ transmission and reception.

  5. Vortex Flowmeters – These measure the flow rate of liquid or gas by using the principles of Bernoulli’s principles. Alternating vortices that are directly proportional to the fluid’s velocity are produced by a vortex generator.

  6. Mass Flowmeters – These measure the flow rate of liquid or gas by weighing the amount of material that passes through the meter. Applications where accuracy is crucial employ this kind of meter. Examples include Coriolis flowmeters and thermal flowmeters.

  7. Magnetic/Electromagnetic Flowmeters – These measure the flow rate of liquid or gas by measuring the magnetic pulses generated by an electrical current passing through the liquid or gas. The pulses are then used to calculate the rate of flow.

  8. Differential Pressure Flowmeters – These function by determining the variation in pressure across two pipeline sites. The orifice plate, which comprises a thin plate with a hole in the center, is the most popular type of differential pressure flowmeter. Other types include venturi meters, flow nozzles, and pitot tubes.

  9. Positive Displacement Flowmeters – These flowmeters function by counting the amount of fluid that flows through the pipeline. Rotating and reciprocating are the two subtypes that can be further broken down. Examples include nutating disk meters, oval gear meters, and piston meters.

  10. Velocity Flowmeters – These function by gauging the fluid’s flow rate through the pipeline. Examples of velocity flowmeters include electromagnetic flowmeters, ultrasonic flowmeters, and turbine flowmeters.

  11. Open Channel Flowmeters – These gauge the pace at which liquids move along unobstructed channels like rivers, canals, and streams. Weirs, flumes, and current meters are a few examples.



Selecting the right flowmeter for a specific application mostly depends upon the characteristics of the fluid that needs to be measured. Flowmeters vary in terms of their accuracy, repeatability, temperature, pressure, and other ranges, and this can all make a difference in determining the best flowmeter for an application.

In addition, based on an analysis of the application’s hydraulic parameters, flow regime, and type of fluid, the selection of the best flowmeter can also vary. For example, a magnetic flowmeter is better suited for conducting liquids like water, acids, and other conductive liquids, while a turbine flowmeter is best for measuring non-conductive liquids like petrol and diesel. The choice of the best flowmeter for the application is also dependent upon the nature of the application, the cost range, and other requirements.

Ultimately, each flowmeter selection should be based on its application-specific requirements like accuracy and repeatability, as well as cost and installability. It is always recommended to consult a trained application engineer to ensure that the most suitable flowmeter is selected.


(Image source:



Once you have selected the best flowmeter for your application, proper installation and maintenance become important for long-term efficient operation. Poor installation or failure to maintain the flowmeter can result in inaccurate readings or could even lead to significant unexpected costs from breakdowns or other faults. 

  • Flowmeter installation usually involves mounting the flowmeter onto the pipe, running any sensors, or wiring connections, and then configuring and calibrating them.

  • It should be installed in such a way that it is not affected by any vibrations or temperature fluctuations and offers frequent access for maintenance.

  • To keep the flowmeter running optimally, regular maintenance and testing are recommended.

  • Daily checks should be done to ensure that the instrument is working properly and that there are no signs of wear and tear.

  • Also, regular calibrations should be undertaken to compare the flowmeter’s readings with the expected values.

  • Additionally, the flowmeter should be regularly cleaned, serviced, and inspected to ensure proper operation and accuracy.



It may be that after proper installation and maintenance, you are still encountering further issues with your flowmeter. In such cases, common troubleshooting practices should be used to diagnose and repair whatever problem you are experiencing.

  • First and foremost, you should check if all the wiring and connections are okay, and that nothing is loose or disconnected.

  • Also ensure that all the seals, rings, and other components are in good shape and that nothing is blocking the flowmeter.

  • If the scan gauge indicates the readings are unreliable or inaccurate, you should first test the flowmeter using a different medium or fuel to check if the problem persists or not.

  • Also check the other components in the device such as the temperature sender, pressure sender, amplifier, or any other part.

If all the components and connections are okay and the flowmeter is still not functioning properly, it could be that the flowmeter is damaged or defective. If this is the case, then the flowmeter needs to be replaced or repaired accordingly.



The flow meter is one of the most important tools for measuring volumetric flow rates with accuracy and precision. From oil and gas to wastewater treatment, and industrial processes, flowmeters are used in many various applications. Proper installation and maintenance are critical for the flowmeter to function accurately and with reliable readings.

The technology advances, numerous types of flowmeters, and the various materials they come in can make the selection process a bit overwhelming. Nonetheless, taking the time to research and understand each type and its applications can help you make the right decision for your project.

In addition to research and careful selection, proper maintenance and troubleshooting techniques should be carried out when issues arise. Understanding where and how to deploy the right flowmeter, safely and efficiently, is essential for getting accurate results. Hopefully, this article has given you the knowledge and guidance you need to select and install a flowmeter.

Independence Day 15th August 2022

To celebrate the 75th year of Independence, the “AZADI KA AMRIT MAHOTSHAV” – “Har Ghar Tiranga” campaign. It aims to inspire people to bring the tiranga and hoist it in their homes to show their commitment to the nation.
To support Har Ghar Tiranga, Accumax Instruments Pvt. Ltd. hoisted a tiranga on the factory premises on 13th August 2022. The management distributed tiranga to its employees and took a selfie with the flag to encourage them to participate in this campaign, which will continue till 15th August 2022.

“Vande Mataram”


Why and how to install Piezometer?

According to CGWA guidelines, it is mandatory for industries to construct an observation well at a minimum distance of 50 meters from the borewell. Before purchasing the Piezometer, it is inevitable to ascertain the depth of the ground to decide its cable length. However, an extra cable length of 5 to 10 meters is advisory; in case of variation in ground’s depth; in future.

The installation of Piezometer needs complete knowledge and guidance. Let us comprehend the process of installation step by step:

1. Drill the observation well nearby 50 meters of the borewell after accurate survey.

2. Take a zero reading level of the Piezometer.

3. Lower down the sensor with cable into the well and mark the starting and end point of the cable.

4. Once the sensor touches the water level, it will display on the transmitter.

5. Keep the sensor in a terminal box away from the sunlight and water. It should be clean and dry.

What are Piezometers?

Pressure transducers that measure the level of liquid beneath the ground level, soil, or rock are called Piezometers. They monitor and indicate changes in the surface level.

Chiefly, Piezometer monitors and determines the flow pattern of underground water. The main objective of its installation is to maintain the required groundwater level. The government has formed a regulatory authority – CGWA, which issued guidelines wherein industries extracting daily 10 M 3 (10000 liters) water from the ground, need to install Piezometer.
In addition, Piezometer is also, sometimes, used to extract water from ground for testing water quality.


Why Smart water metering solutions?

With an increased water usage in domestic and industrial areas, need of smart water metering solutions has arisen. Integrated liquid flow sensors manage and monitor the water consumption demand of the user. The government and water applicants are exploring effective solutions to minimize the wastage of water along with measuring the accurate consumption.

Variety of water metering solutions has been certified for economical and environmental friendly water applications. These flow sensors use high frequency sound waves to measure flow and reduce flow drop chances making it more accurate. Rugged body of flow meters allows smooth flow of clean and dirty water for borewell and STPs / ETPs respectively. The USB port enables integrated software in the smart meter and allows data display and storage on the clod server. This further helps to save water by eliminating wastage.


What makes Accumax Flow Meter a leading brand?

Every decision comes with a cost!

Purchase of right flow meter is an extensive decision. Customer should be clear about the flow meter’s specifications & application.

Accumax Instruments Pvt. Ltd. manufactures indigenous flow meter, with high customer satisfaction. With in-house R&D team, regular improvements & customization in the product makes it easy and user friendly.

Reasons why a buyer should prefer Accumax Flow meters over other flow meters are as follows:

• Highly accurate                   • Quick installation
• Customized Design            • Rugged Body
• Budget – friendly               • Longer life span
• Inbuilt Telemetry               • IoT cloud applications
• India hosted data               • Data privacy
• Compiled with CGWA       • NABL calibration











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