Equipped with Bluetooth technology, our wide range of wireless force and torque sensors allows you to take measurements remotely, connected to one of our displays or directly to a PC. Our sensors offer a data transfer rate of up to 1,000Hz and an open-field range of 20 meters. We can adapt this technology to any strain gage sensor.
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Wireless force and torque sensors are revolutionizing modern industrial applications. These innovative devices offer greater flexibility and accuracy than traditional wired systems. They can be used to measure and monitor the forces and torques applied in various manufacturing and assembly processes.
The use of wireless sensors offers many advantages, including simpler installation, reduced wiring costs and greater equipment mobility. These sensors can be placed in hard-to-reach locations or on moving parts without the need for cables, expanding the range of possible applications.
Wireless technology also improves measurement reliability by eliminating electromagnetic interference from cables. The data collected is transmitted in real time, enabling more precise process control and rapid detection of anomalies. These advantages make wireless force and torque transducers essential tools for optimizing productivity and quality in modern industry.
Force sensors are essential devices for accurately measuring the forces applied in various fields. They are based on physical principles that convert a mechanical force into a measurable electrical signal.
Strain gauges form the basis of many force transducers. They exploit the variation in electrical resistance of a conductor subjected to deformation. Attached to an elastic element, they detect the forces applied.
Wheatstone bridge is commonly used to amplify weak gauge signals. It produces a voltage proportional to the force exerted, ensuring accurate, reliable measurement.
Piezoelectric sensors use crystals to generate an electrical charge under stress. They are ideal for fast, dynamic measurements.
Strain gauge sensors are suitable for both static and dynamic measurements. They offer good accuracy and stability for many industrial applications.
Capacitive sensors measure variations in capacitance between two plates. They excel at detecting small forces and displacements.
Sensor selection depends on specific requirements: measurement range, accuracy, environmental conditions and required response speed.
Wireless technology offers significant benefits for force and torque sensors. It is transforming the way these devices are used in various fields.
Wireless force sensors eliminate the need for cables. They can be placed in hard-to-reach locations or on moving parts. This flexibility is particularly useful in robotics, where sensors need to follow the complex movements of articulated arms.
The absence of wires also facilitates quick installation and repositioning of the sensors. This allows engineers to optimize the design and layout of measurement systems according to the specific needs of each application.
In industrial environments, wireless sensors reduce the risk of cable entanglement and wear. This improves the long-term safety and reliability of installations.
Modern wireless force sensors incorporate advanced technologies that improve measurement accuracy. The elimination of electromagnetic interference caused by cables contributes to more reliable readings.
These devices often offer a wider measurement range and better resolution than their wired counterparts. Their design allows more accurate calibration and compensation for temperature effects.
In high-precision applications, wireless sensors can transmit data at high frequencies. This enables real-time analysis of applied forces and torques, crucial for quality control and research.
Wireless force sensors play a crucial role in the digital transformation of factories. They facilitate real-time data collection and enable faster and more accurate decision-making in modern industrial environments.
The integration of wireless force sensors with artificial intelligence (AI) is opening up new perspectives for Industry 4.0. These devices provide valuable data that AI can analyze to optimize production processes.
Machine learning algorithms process sensor information to predict equipment failure and plan preventive maintenance. This approach reduces downtime and increases line productivity.
The combination of sensors and AI also enhances product quality. The system detects anomalies in real time and adjusts production parameters automatically.
In the field of industrial robotics, wireless force sensors improve the precision and safety of operations. They enable robots to "feel" their environment and interact more fluidly with objects and people.
These sensors are essential for delicate assembly tasks. Equipped robots can apply the exact force required, avoiding damage to fragile components.
In automation, wireless sensors simplify installation and reconfiguration of production lines. Their flexibility means that processes can be quickly adapted to production changes.
The use of wireless force and torque transducers presents specific technical challenges. Energy management, range and maintaining long-term accuracy are two crucial aspects to consider.
Wireless sensors are often fitted with a battery. So you need to find a way of charging it regularly or changing it. You need to take into account the sensor's autonomy, and make sure it's adapted to the application.
Depending on the wireless technology used, the range between the sensor and the display may vary. For example, Bluetooth technology allows a maximum range of around 20 meters. However, environmental conditions may influence the range. For example, if the sensor is enclosed in a metal box, its range can be greatly reduced.
Maintaining the accuracy of wireless sensors over long periods is a major challenge. Mechanical wear and repeated stress can alter measurement reliability over time.
Regular calibration is necessary to ensure continued high accuracy. These procedures help to correct drifts and maintain data reliability.
Sensor design must take ease of maintenance into account. Easy access to key components facilitates servicing and reduces downtime.
Integrated self-diagnostic systems can alert users to maintenance requirements. This proactive approach helps optimize long-term sensor performance.
