The MCS charging system from Power Electronics, offered by Ekoakua, redefines the charging standards for heavy electric vehicles. With an exceptional capacity to deliver up to 1440 kW continuously, the MCS is designed to meet the demands of the most challenging vehicles on the market, ensuring extremely reduced charging times and operational efficiency.

Key Features of the MCS Charging System

• High Charging Capacity: Capable of delivering up to 1500 A of direct current, the MCS is ideal for applications requiring fast and powerful charging, such as electric buses, trucks, and other heavy vehicles.
• Configuration Versatility: The system allows for the configuration of one to four outputs, offering flexibility for multiple applications and charging scenarios. This feature makes it perfectly adaptable to the specific needs of each customer.
• Compatibility with Multiple Dispensers: The MCS can integrate MCS dispensers with CCS dispensers within the same system, making it a highly versatile and adaptable solution for mixed fleets.

Benefits of the MCS

• Market Adaptability: The MCS charger enables you to keep your fleet at the forefront of charging technology, easily adapting to market changes and demands.
• Reduction of Downtime: With its ability to quickly charge heavy vehicles, the MCS minimizes downtime, increasing the efficiency and availability of vehicles.
• Sustainability and Efficiency: By offering a powerful charging solution, the MCS helps companies meet their sustainability goals, reducing fossil fuel consumption and promoting a green transition in transportation.

Implement the MCS in Your Fleet

Discover how the MCS charging system can transform your company's charging infrastructure, providing a powerful and efficient solution that meets the needs of the largest electric vehicles. Contact Ekoakua for more information and to customize your charging solution to perfectly fit the operational and strategic needs of your fleet.

At Ekoakua, we are experts in offering advanced solutions for protecting industrial installations against electrical surges. We understand that protecting electrical equipment and systems is crucial to maintaining operational efficiency and safety. In this blog, we will explore in detail surge protection systems, how they work, and why they are essential for any industrial installation.

What Are Surges?

Surges are temporary increases in voltage in an electrical network that can cause significant damage to connected equipment. They can be caused by atmospheric discharges (lightning), electrical network maneuvers, supply failures, or even the operation of certain industrial equipment.

Types of Surges

•  Transient Surges: These are short-duration voltage peaks that occur within milliseconds and are typically caused by events such as lightning or electrical network switching.

•  Permanent Surges: These are voltage increases that can last from several seconds to hours and are usually caused by power supply failures, such as the loss of a neutral.

Importance of Surge Protection Systems

Implementing surge protection systems is fundamental to preventing damage to sensitive equipment, reducing downtime, and minimizing maintenance costs. An effective protection system not only protects equipment but also ensures the continuity of operations.

Components of a Surge Protection System

1.   Transient Surge Protectors: Designed to divert transient voltage peaks to the ground, protecting connected equipment.

2.   Permanent Surge Protectors: Disconnect the load when a prolonged overvoltage is detected, preventing damage from overheating or overload.

3.   Discharge Counters: Monitor the number of surges that have occurred and have been diverted to the ground, providing vital information for preventive maintenance.

Electrical Disturbance Analysis

A detailed analysis of electrical disturbances in installations can help identify risk sources and implement appropriate corrective measures. At Ekoakua, we also offer power quality study services to identify and analyze these disturbances. Below are the main disturbances that can affect an industrial installation:

1.   Flickers

      •   Description: Voltage variations that cause fluctuations in lamp brightness, perceived as flickering. These variations do not exceed ±10% of the nominal value.

      •   Causes: Intermittent loads such as arc furnaces, electric welders, and large motors. They can also be caused by the switching of systems such as elevator motor controllers.

2.   Harmonic Distortion

      •   Description: Harmonic currents are non-sinusoidal currents that can cause a series of problems in electrical installations.

      •   Causes: Non-linear elements such as fluorescent tubes, sodium vapor lamps, variable speed drives, and computers. These harmonic currents can cause cable and transformer overheating, electronic equipment failures, and transformer resonances.

3.   Voltage Sags

      •   Description: Brief voltage decreases that can last from a few milliseconds to a few seconds.

      •   Causes: Line switching, power supply failures, large motor start-ups, and sudden load variations.

4.   Transient Surges

      •   Description: Short-duration voltage peaks that can be extremely damaging to electronic equipment.

      •   Causes: Atmospheric discharges, electrical network switching, and operational maneuvers.

5.   Permanent Surges

      •   Description: Long-duration voltage increases generally caused by distribution network failures.

      •   Causes: Loss of a neutral, single-phase failures, and sudden load reduction.

6.   Frequency Variations

      •   Description: Changes in the nominal frequency of 50 Hz of the supplied voltage, which can affect the operation of sensitive equipment.

      •   Causes: Problems in the distribution network or in power generation sources.

Power Quality Standards

At Ekoakua, we conduct power quality studies that comply with the EN-50160 standard, which defines the limits for:

•  Nominal Frequency of Supplied Voltage: It must be maintained within certain limits to avoid damage to equipment.

•  Voltage Amplitude: Variations in amplitude can cause equipment overheating or underperformance.

•  Rapid Voltage Variations (Flickers): Can affect visibility and the operation of sensitive equipment.

•  Voltage Sags and Interruptions: Identifying the causes and frequency of these events to implement appropriate solutions.

•  Temporary and Transient Overvoltage’s: Protection against voltage peaks that can damage equipment.

•  Supplied Voltage Imbalance: Can cause inefficiencies and damage in three-phase equipment.

•  Harmonic and Interharmonic Voltages: Control of harmonic distortions to prevent damage and efficiency losses.

•  Signal Transmission Over the Network: Evaluation of signal quality and its impact on communication and control.

Ekoakua's Power Quality Analysis Services

At Ekoakua, we offer power quality studies that include:

•  Power Quality Analyzer Rental: Advanced equipment to measure and record all electrical disturbances.

•  Detailed Report: Delivery of a digital report with assessments and technical recommendations based on the EN-50160 standard.

Ekoakua Solutions

At Ekoakua, we offer a complete range of solutions for surge protection:

Transient Surge Protectors

Our transient surge protectors are designed to handle high-energy voltage peaks, ensuring that your equipment is protected against the most extreme conditions. These devices feature advanced technology that allows for rapid response and high energy dissipation capacity.

Permanent Surge Protectors

Ekoakua's permanent surge protectors are essential for protecting sensitive equipment from sustained abnormal voltages. They are designed to disconnect the load under prolonged overvoltage conditions, preventing damage from overheating and ensuring operational safety.

Discharge Counters

For effective monitoring, our discharge counters provide an accurate reading of the number of surges that have been diverted. This allows for preventive maintenance and ensures that protection systems remain in optimal condition.

Conclusion

Surge protection is an essential part of any electrical risk management strategy. At Ekoakua, we offer robust and reliable solutions that ensure operational continuity and protect your equipment investments. Additionally, our power quality analysis services provide a comprehensive assessment of your installations' electrical conditions, helping you to identify and mitigate risks effectively.

For more information about our products and services and how they can benefit your installation, visit www.ekoakua.com or contact our sales team at ekomercial@ekoakua.com.

In the industry, the precision and reliability of pressure and level measurements are crucial to ensure the correct functioning of processes and systems. Data displays, such as the EKOAL 300.E and EKOAL 500.1 models from Ekoakua, play a vital role in providing clear and accurate readings of the data supplied by pressure transmitters and level probes. In this article, we explore the importance of these devices and their key features.

The Relevance of Data Displays

Data displays are essential for any industrial installation that relies on precise monitoring of variables such as fluid pressure and level. These devices allow operators to obtain a clear and real-time view of critical parameters, facilitating informed decision-making and the implementation of corrective actions when necessary. Additionally, by integrating alarms and communication functions, displays can significantly enhance operational efficiency and process safety.

EKOAL 300.E: Digital Display for DIN 43650 Connector

The EKOAL 300.E is a digital display designed to connect directly to a DIN 43650 connector. This device is ideal for use with pressure or temperature transmitters that deliver a 4…20 mAdc two-wire signal.

Key Features of the EKOAL 300.E

•  Powered by Current Loop: Powered directly by the 4…20 mAdc current loop, eliminating the need for an external power supply.

•  Universal Display: Compatible with all 4…20 mAdc circuits, providing a clear and accurate reading.

•  DIN 43650 Connection: Plugs directly into a DIN 43650 connector, facilitating easy installation and use.

•  Configurable LCD Display: 4-digit LCD screen configurable to display values in a range from 1 to 9999.

•  Front Control Panel: Simple configuration via two front panel buttons (UP/DOWN).

Typical Applications of the EKOAL 300.E

• Pressure and Temperature Monitoring: Ideal for real-time data visualization from pressure and temperature transmitters.

•  Process Control Systems: Used in industrial applications requiring continuous monitoring of process variables.

•  Industrial Automation: Suitable for automation systems needing accurate and reliable current signal readings.

EKOAL 500.1: Reading Instrument for Industrial Applications

The EKOAL 500.1 is a reading instrument designed to provide accurate and reliable readings of various input signals, such as mAdc, Vdc, PT100, PTC, among others.

Key Features of the EKOAL 500.1

•  Versatile Inputs: Capable of accepting input signals of 0…4÷20 mAdc, 0÷2 Vdc, PT100, PTC, and RTD, offering great flexibility for various applications.

•  Robust Construction: Designed to operate in demanding industrial environments, with a construction that minimizes inductive interference.

•  Wide Power Options: Can be powered by both alternating current (60 to 250 Vac) and direct current (22 to 250 Vdc), facilitating integration into different electrical systems.

•  RS485 Communication Compatibility: Allows for remote configuration and monitoring via ModBus RTU protocol, facilitating integration into control and supervision systems.

Typical Applications of the EKOAL 500.1

•  Analog Signal Measurement: Ideal for reading and monitoring analogue signals in industrial applications.

•  Process Control: Suitable for use in process control systems requiring precise measurement of various signals.

•  Environmental Condition Monitoring: Used in HVAC applications for monitoring temperatures and other environmental conditions.

The Importance of a Good Display

Having a high-quality display like the EKOAL 300.E or the EKOAL 500.1 is crucial for ensuring precision and reliability in measuring critical variables. These devices allow operators to:

•  Obtain Accurate and Reliable Readings: Ensure that the data accurately reflects the actual process conditions.

•  Make Informed Decisions: With precise and real-time information, operators can make better-founded decisions to optimize processes.

•  Improve Safety: By integrating alarms and notifications, displays can alert operators to abnormal conditions, enabling quick responses to prevent accidents and damage.

•  Optimize Operational Efficiency: With the ability to monitor and control critical variables, real-time adjustments can be made to improve system efficiency and performance.

Conclusion

The EKOAL 300.E and EKOAL 500.1 displays from Ekoakua are essential tools for any industrial installation requiring precise pressure and level measurements. Their robust design, easy installation, and broad versatility make them the ideal choice for professionals looking to enhance the efficiency and safety of their operations.

For more information on how Ekoakua displays can benefit your industrial application, visit www.ekoakua.com or contact our sales team at ekomercial@ekoakua.com.

Introduction to Level Sensors

Level sensors, also known as submersible pressure transmitters, are devices that use ceramic sensors to measure the pressure of the fluid in which they are submerged. This pressure is converted into an electrical signal that can be interpreted to determine the fluid level. They are indispensable tools in the monitoring and control of water in tanks, rivers, wells, and wastewater treatment.

Diverse and Critical Applications

EKOAKUA's level sensors are used in a wide range of applications, including:

•  Groundwater Monitoring: Essential for water resource management and flood prevention.

•  Tank and Reservoir Control: Vital for industrial operations requiring precise liquid level regulation.

•  Wastewater Treatment: Enables effective monitoring and management of treatment facilities.

•  Agriculture and Irrigation: Ensures adequate water supply, optimizing usage and preserving valuable resources.

Technical Features and Benefits

EKOAKUA's level sensors stand out for their robustness and accuracy, offering features such as:

•  High-Precision Ceramic Sensor: Provides stable and reliable measurements, resistant to temperature and pressure changes.

•  Durable Material: Constructed from stainless steel or polypropylene, depending on the model, to withstand corrosive or aggressive conditions.

•  Standardized Signal Output: Most sensors provide a 4-20 mA output, compatible with industrial control systems.

•  Protection Against Adverse Conditions: With IP68 rating, the sensors are completely hermetic, making them suitable for prolonged underwater use.

Considerations for Selecting the Right Sensor

When selecting a level sensor, it is crucial to consider:

•  Type of Fluid: The compatibility of the sensor material with the fluid to be measured is fundamental to ensuring durability and accuracy.

•  Measurement Range: Choosing a sensor with the appropriate range for the specific application guarantees precise and effective measurement.

•  Installation Requirements: Cable length and proper connection are essential for successful integration into the existing system.

Conclusion

Accuracy in level measurement is crucial for process optimization and efficient resource management. EKOAKUA's level sensors offer the technology and reliability needed to meet these challenges. With a range of models adapted to different needs, we are equipped to provide effective solutions that enhance process control and contribute to more sustainable and efficient operations.

Soft starters are crucial devices for the efficient and safe control of electric motors in various industries. When activating a motor, soft starters progressively regulate the power supply, minimizing mechanical stress and peak currents that can compromise both the integrity of the motor and the stability of the electrical network. This protective capability not only preserves equipment but also optimizes operational efficiency and generates significant energy savings.

How Do Soft Starters Work?

Soft starters adjust the voltage delivered to the motor using thyristors or silicon-controlled rectifiers (SCRs). These components facilitate a controlled increase in voltage until the level required for normal motor operation is reached. This meticulous voltage control avoids the current spikes typical of direct starts, effectively managing motor acceleration to minimize wear and extend its lifespan. Soft starters are particularly beneficial for motors that do not require full torque at start-up or that operate with heavy loads susceptible to damage during abrupt starts.

Power Electronics static starters have cutting power over all three phases, including a set of anti-parallel thyristors per phase.

Image: Anti-parallel Thyristor Connection

Image: RMS Voltage applied to the load

Image: Output voltage selection examples

Benefits of Soft Starters

Implementing soft starters brings multiple advantages:

•  Motor Protection: They limit mechanical stress on the motor and other system components, reducing the risk of failures and breakdowns.

•  Energy Savings: By avoiding the use of excessive energy during start-up, soft starters can result in considerable savings in operating costs.

• Increased Productivity: With fewer stoppages for maintenance and failures, processes become more continuous and efficient.

• Better Process Control: They allow smooth starts and stops, which is crucial for processes requiring precision and smooth material handling.

Common Industrial Applications

Soft starters are used in a variety of applications, including:

•  Heavy Industries: Such as mining and metal manufacturing, where controlling heavy machinery like mills and presses is necessary.

•  Water Treatment: In pumps and fans, ensuring a smooth start that protects infrastructure and optimizes energy consumption.

•  Ventilation and HVAC Systems: To start fans and compressors, protecting systems against water hammer and other mechanical loads.

•  Material Handling: In conveyor belts and lifting systems, where controlled starts are required to handle materials properly without causing damage.

Recent Technological Advances

Soft starter technology has evolved to include significant improvements in user interface and the integration of intelligent functionalities, enabling remote monitoring and control via IoT. These advances facilitate the adjustment of start-up parameters from advanced digital interfaces, enhance diagnostics, and anticipate maintenance, reducing downtime and increasing operational efficiency.

Guide to Selecting the Right Soft Starter

Selecting the right soft starter for a specific application requires careful consideration of several technical and operational factors. Here is a detailed guide to help you make the most informed decision:

•  Nominal Voltage and Current: Start by verifying the nominal voltage and current the motor requires under normal operating conditions. These two parameters are essential to ensure the starter can handle the motor's electrical load without risk of overload.

•  Specific Application: Depending on the motor's application, it is crucial to understand how many times the rated current rises during start-up. This factor varies according to the type of load the motor is handling and is decisive in selecting a starter that can adequately manage these peaks without degrading either the motor or the starter itself.

•  Number of Starts per Hour and Time Between Starts: Evaluate the frequency with which the motor will need to start within a standard time period. A high number of starts per hour may require a starter with more robust capabilities, especially in terms of heat dissipation and durability.

• Bypass Contactor: Consider starters that include a bypass contactor, such as the V6 series from Power Electronics. This component is crucial for reducing wear on the starter by switching the motor operation to a direct connection after the start-up period, improving efficiency and extending the lifespan of both the motor and the starter.

• Application Table: The following tables indicate the most common applications and the number of times the nominal current rises during start-up. This table is an invaluable tool for making an informed selection based on specific and comparable data.

Image: Characteristic Starting Current in Common Applications 1 of 2

Image: Characteristic Starting Current in Common Applications 2 of 2

How to Interpret the Selection Code of Your Soft Starter with Bypass

Understanding how to correctly interpret the selection code of a soft starter with bypass is crucial to ensure you choose the right equipment for your needs. This code provides detailed information about the starter's characteristics and capabilities, allowing you to make an informed decision about its suitability for a specific application.

Selection Code Breakdown:

Sometimes we can find codes in this format, let’s see how to interpret it:

AC53b 4.0-30:330

The typical code for a soft starter with bypass may seem complex at first, but each segment of the code has a specific meaning that helps identify the starter's characteristics. Here we explain what each part of the code means:

•  Starting Current (Example: 4.0xIn): This value indicates how many times the nominal current (In) of the motor can rise during start-up. A value of 4.0xIn means that the starter can handle a starting current up to four times the motor's nominal current.

•  Use Category Code (AC53b): This code refers to the usage category of the starter according to IEC standards. AC53b specifically indicates that the starter is designed for soft start and stop applications.

•  Start Duration and Number of Starts per Hour (Example: 3.0-30:330):

      •   3.0-30 represents the maximum overload duration allowed during start-up, in seconds.

      •   330 indicates the maximum number of starts per hour that the starter can safely perform.

Tips for Selecting Your Next Soft Starter with Bypass:

1.   Evaluate the Application: Determine the starting current and the frequency with which the motor needs to start. These factors are decisive in selecting a starter that can effectively handle the load without suffering damage.

2.   Consult the Code: Use the selection code to verify that the starter meets the specific requirements of your application, paying attention to the current handling capacity and the usage category.

3.   Current Models: The V6 series offers improved features and greater efficiency than its predecessors, the V2 and V5. Make sure to review the specifications of the V6 model to ensure it meets your needs.

4.   Professional advice: If you have doubts about which model to select or how to interpret the selection code, do not hesitate to contact our sales department. Our team is available to help you choose the most suitable starter for your application, ensuring successful and efficient integration.

Variable frequency drives (VFDs), also known as frequency converters or variable speed drives, are essential components in modern industrial automation. These devices enable precise control of the speed, torque, and direction of electric motors, adapting their operation to the process requirements. This capability not only improves operational efficiency but also significantly contributes to sustainability and reduces energy costs. But how is this achieved, and what implications does it have for global industries?

How do Variable Frequency Drives Work?

Variable frequency drives adjust the speed of electric motors by altering the frequency and voltage of their power supply. This process is accomplished through a series of electronic conversions: alternating current (AC) is converted into direct current (DC), and then modulated into variable frequency AC using pulse width modulation techniques. This technology not only allows refined control of motor operating characteristics but also optimizes energy usage and reduces mechanical wear associated with frequent starts and stops.

Benefits of Variable Frequency Drives

Variable frequency drives offer multiple advantages:

•  Energy and Cost Reduction: They optimize energy consumption by adjusting motor speeds to real needs, resulting in significant reductions in electricity costs.

•  Process Efficiency Improvement: By providing precise speed control, they enhance process adaptability and efficiency, translating to higher quality final products and less downtime.

•  Equipment Life Extension: They reduce mechanical stress on motors during start-up and shutdown, significantly prolonging their lifespan.

Common Industrial Applications of Variable Frequency Drives

Variable frequency drives are crucial in various industrial applications, from HVAC control in buildings to complex operations in manufacturing and mining:

•  HVAC Systems: They optimize the operation of heating, ventilation, and air conditioning systems, improving energy efficiency and climate control in commercial and residential facilities.

•  Mills and Crushing: They regulate mills in the construction and feed industry for crushing materials such as stone, cement, or feed.

•  Gasification Plants and Mining: They control pumps and conveyors, enhancing transport efficiency and reducing energy consumption in high-wear environments.

•  Load Lifting: They are essential in cranes, bridges, elevators, and lifts, where precision and safety are critical.

•  Irrigation Facilities, Wastewater Treatment Plants, and Desalination Plants: They adjust flow and pressure in pumping and treatment systems, vital for efficient water management.

Recent Technological Advances in Variable Frequency Drives

The development of permanent magnet synchronous motors (PMSM) and the adaptation of variable frequency drives to optimize these motors represent a significant advancement. PMSMs operate with efficiency 10-12% higher than asynchronous motors, especially at low speeds. Power Electronics has integrated advanced vector control algorithms into their drives, allowing for more efficient and precise control suitable for applications reliant on precision and quick response, such as automated assembly lines and transportation systems. This technology not only improves energy efficiency but also ensures more precise and stable handling, crucial for maintaining competitiveness in dynamic industrial markets.

Benefits and Applications of PMSMs

The integration of PMSMs with advanced variable frequency drives results in notable improvements in terms of energy performance, reduced operational costs, and a smaller environmental footprint. These systems are particularly beneficial in sectors such as manufacturing, automotive, and robotics, where efficiency and reliability are paramount.

Guide to Selecting the Appropriate Variable Frequency Drive

Choosing the appropriate variable frequency drive is crucial to ensure optimal performance and avoid additional costs due to oversizing or operational failures. When selecting a drive, several key factors should be considered to ensure successful and efficient integration:

•  Motor Power and Application Characteristics: It is crucial that the drive can handle the maximum power required by the motor and adapt to the specific dynamics of the application.

•  Operating Environment: Evaluate environmental conditions that could affect drive operation, such as temperature, humidity, and the presence of contaminants like hydrogen sulfide.

•  Specific Process Requirements: Determine if you need precise speed control, advanced communication capabilities, or configurations tailored to particular applications.

•  Cable Distance and Type between the Drive and the Motor: One of the most important technical aspects when selecting a variable frequency drive is considering the distance and type of cable connecting the drive to the motor. Power Electronics includes in its SD750 range the dV/dt output filter, which allows the use of cable distances of up to 300 meters for unshielded cable and up to 150 meters for shielded cable. This is crucial because at distances larger than 50 meters, the capacitive effect of the cable can generate voltage spikes that could potentially damage the motor winding by exceeding the insulation voltage. The correct choice of drive and its proper configuration can mitigate these risks and ensure motor integrity in the long term.

•  Regenerative Energy Management: It is vital to consider that, in certain applications, especially those with dynamic loads like elevators or conveyor belts, the motor can regenerate energy. Power Electronics offers two effective solutions for managing this energy:

       1.   Dissipation through Brake Modules and Brake Resistors: This option is ideal for systems needing a simple and cost-effective solution for handling regenerated energy.

         2.      Use of the SD750F Range: This series of drives not only handles regenerative energy but also returns it to the electrical system, allowing other equipment to utilize it. This ability to regenerate energy in all four quadrants not only improves energy efficiency but also contributes to the sustainability of the system.

Conclusions and Final Considerations

Variable frequency drives are essential components in modernizing industrial practices. They offer an effective and sustainable way to manage resources and improve operational efficiency. As industries continue to face global challenges and environmental pressures, the ability to adapt and optimize energy usage will become increasingly crucial. Variable frequency drives, especially when combined with advanced technologies like PMSMs, play a key role in this effort, enabling companies not only to comply with current regulations but also to prepare for a sustainable future.

Pressure Transmitters: Pillars of Automatic Control

Pressure transmitters are devices that convert pressure into an electrical signal. They are essential for keeping automatic systems running in optimal conditions. By controlling variables such as air or liquid pressure, these devices ensure that machines operate within safe and efficient parameters, reducing the risk of failures and optimizing production.

Diverse and Reliable Applications

EKOAKUA’s pressure transmitters are used in a variety of industrial applications:

•  EKOMPS-400 and EKOMPS-401: These models are ideal for environments where liquids or gases can be viscous or contain suspended particles. Thanks to their flush diaphragm design and robust body, these transmitters prevent blockages and ensure accurate measurements in critical processes such as level control and pressure regulation in pumps and compressors.

•  EKOMPS-500: This model is designed for applications requiring low-pressure measurement. With a ceramic sensor offering high precision and stability, it is perfect for working with gases and liquids in applications such as level measurement and monitoring in ventilation and heating systems.

•  EKOGPS-1: This versatile transmitter offers excellent value for money, designed to meet the needs of most industrial applications, from hydraulics and pneumatics to control and regulation engineering.

Technological Advantages of EKOAKUA Transmitters

Our pressure transmitters stand out for their robust construction and advanced piezoresistive technology, providing:

•  High Reliability: Direct measurement on the ceramic sensor diaphragm ensures a quick and accurate response.

•  Long-Term Stability: Temperature effects and deformations are minimized, guaranteeing consistent measurements.

•  Chemical Compatibility: Durable materials allow use in environments with aggressive substances without degrading the sensor's integrity.

Optimize Your Operation with EKOAKUA

Incorporating our pressure transmitters into your system not only provides precise and reliable data but also enhances operational efficiency and safety. At EKOAKUA, we are ready to assist you in selecting the right transmitter to suit your specific needs, helping you maximize productivity and minimize costs.

For more information on how our pressure transmitters can transform your operation, contact us through our website or give us a call. We are here to help you move towards a more efficient and safer future.