| Accuracy | 0.02 % |
| Dynamic force | 20 N |
| Bridge resistance | 350 Ω |
Force transducers
A force transducer is a measuring device used to measure forces in various applications such as mechanical engineering, automotive and materials testing. A force transducer can usually measure the force in different directions and can use a load cell, strain gauge or hydraulic measurement to determine the force.
Load cells, also known as force transducers, consist of a measuring body and a strain gauge attached to the measuring body. When a force is applied to the load cell, the load cell expands and changes the electrical properties of the strain gauge. This results in a change in electrical resistance which is measured by an electronic circuit and converted into a force.
Strain gauge-based force transducers are also used in materials testing to measure the strength of materials. A strain gauge is applied to a test specimen and when a force is applied to the specimen, the electrical resistance of the strain gauge changes. This change is then converted into a force applied to the test piece.
Hydraulic force transducers are based on Pascal's Law, which states that pressure in a closed system is distributed equally to all points in the system. A hydraulic load cell uses a hydraulic system to apply a force to a piston, causing a change in hydraulic pressure. This pressure difference is measured and converted into a force.
Load cells are an important component in many applications where accurate force measurement is required. They help to improve the efficiency of machinery and equipment, and deepen the understanding of materials and their strength.
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Load cells, also known as force transducers, consist of a measuring body and a strain gauge attached to the measuring body. When a force is applied to the load cell, the load cell expands and changes the electrical properties of the strain gauge. This results in a change in electrical resistance which is measured by an electronic circuit and converted into a force.
Strain gauge-based force transducers are also used in materials testing to measure the strength of materials. A strain gauge is applied to a test specimen and when a force is applied to the specimen, the electrical resistance of the strain gauge changes. This change is then converted into a force applied to the test piece.
Hydraulic force transducers are based on Pascal's Law, which states that pressure in a closed system is distributed equally to all points in the system. A hydraulic load cell uses a hydraulic system to apply a force to a piston, causing a change in hydraulic pressure. This pressure difference is measured and converted into a force.
Load cells are an important component in many applications where accurate force measurement is required. They help to improve the efficiency of machinery and equipment, and deepen the understanding of materials and their strength.
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681 - 700 / 865
| Accuracy | 0.2 % |
| Dynamic force | 53 to 265 cN |
| Type of force measurement | Bending moment |
| Accuracy | 0.05 % |
| Bridge resistance | 345 Ω |
| Nominal parameter | 2 mV/V |
| Applications | Electrical industry Mechanical engineering & Plant construction Metal industry Semiconductor industry |
| Accuracy | 0.05 % |
| Dynamic force | 1 to 500 N |
| Bridge resistance | 350 Ω |
| Accuracy | 0.2 % |
| Dynamic force | 100 N |
| Bridge resistance | 250 to 400 Ω |
| Accuracy | 0.2 % |
| Dynamic force | 50 kN |
| Bridge resistance | 250 to 400 Ω |
| Accuracy | 0.2 % |
| Dynamic force | 100 N |
| Bridge resistance | 250 to 400 Ω |
| Accuracy | 0.2 % |
| Dynamic force | 500 N |
| Bridge resistance | 250 to 400 Ω |
| Accuracy | 0.2 % |
| Dynamic force | 10 kN |
| Bridge resistance | 250 to 400 Ω |
| Accuracy | 0.2 % |
| Dynamic force | 1 kN |
| Bridge resistance | 250 to 400 Ω |
| Accuracy | 0.2 % |
| Dynamic force | 5 kN |
| Bridge resistance | 250 to 400 Ω |
| Accuracy | 0.2 % |
| Dynamic force | 20 kN |
| Bridge resistance | 250 to 400 Ω |
| Accuracy | 0.2 % |
| Dynamic force | 2 kN |
| Bridge resistance | 250 to 400 Ω |
| Accuracy | 0.5 % |
| Dynamic force | 10,000 kN |
| Bridge resistance | 380 to 420 Ω |
| Accuracy | 0.5 % |
| Dynamic force | 1,000 kN |
| Bridge resistance | 380 to 420 Ω |
| Accuracy | 0.5 % |
| Dynamic force | 2,000 kN |
| Bridge resistance | 380 to 420 Ω |
| Accuracy | 0.5 % |
| Dynamic force | 5,000 kN |
| Bridge resistance | 380 to 420 Ω |
| Accuracy | 0.5 % |
| Dynamic force | 500 kN |
| Bridge resistance | 380 to 420 Ω |
| Accuracy | 0.5 % |
| Dynamic force | 200 kN |
| Bridge resistance | 380 to 420 Ω |
| Applications | Mechanical engineering & Plant construction |
| Dynamic force | 2 to 300 N |
| Type of force measurement | Tensile and compressive force |
| Measurement principle | Piezoelectric (ICP®/IEPE) |
Piezoelectric force sensors are especially well suited for measuring dynamic tensile and compressive forces. Due to the high rigidity, a piezoelectric force transducer can measure with virtually no displacement.
What is a force transducer and what is it used for?
A force transducer is a device or sensor that is able to measure or monitor the force acting on it. It is used in various areas to measure the forces acting on an object.
A force transducer is used in industry, for example, to monitor and control the load on machines. This can improve efficiency, reduce wear and increase safety. In medicine, a force transducer can be used to measure the forces acting on the body, for example during rehabilitation or in the development of prostheses.
In research, a force transducer is often used to measure and analyze forces in physical experiments. It makes it possible to obtain precise data on the forces acting on an object and thus advance research and development in various areas.
To summarize, a force transducer is a sensor that is used to measure or monitor the forces acting on an object. It is used in industry, medicine and research to improve efficiency, safety and accuracy.
A force transducer is used in industry, for example, to monitor and control the load on machines. This can improve efficiency, reduce wear and increase safety. In medicine, a force transducer can be used to measure the forces acting on the body, for example during rehabilitation or in the development of prostheses.
In research, a force transducer is often used to measure and analyze forces in physical experiments. It makes it possible to obtain precise data on the forces acting on an object and thus advance research and development in various areas.
To summarize, a force transducer is a sensor that is used to measure or monitor the forces acting on an object. It is used in industry, medicine and research to improve efficiency, safety and accuracy.
How does a force transducer work and what physical principles are used?
A force transducer, also known as a force sensor or force measuring device, is a device designed to measure forces. It uses various physical principles to make this possible. However, the exact mode of operation depends on the type of force transducer.
A frequently used principle is the strain gauge principle. Strain gauges made of electrically conductive material are bonded to a force transducer. When a force is applied to the transducer, its shape changes and the strain gauges expand or contract. These changes in the length of the strain gauges alter their electrical resistance, which is proportional to the force applied. The force can be measured by measuring the resistance.
Another possibility is to use a spring that deforms when a force is applied. The deformation of the spring can be transferred to a scale or indicator using a mechanical system, such as a lever or piston, to show the force applied.
Some force transducers use the piezoelectric principle. Piezoelectric materials generate an electrical charge when they are subjected to a mechanical load. This charge is proportional to the force applied. The applied force can be determined by measuring the generated charge.
Overall, the functionality of a force transducer is based on the fundamental physical principle that forces cause changes in materials or physical effects that can be measured. By choosing the right principle and designing the force transducer accordingly, accurate and reliable force measurements can be carried out.
A frequently used principle is the strain gauge principle. Strain gauges made of electrically conductive material are bonded to a force transducer. When a force is applied to the transducer, its shape changes and the strain gauges expand or contract. These changes in the length of the strain gauges alter their electrical resistance, which is proportional to the force applied. The force can be measured by measuring the resistance.
Another possibility is to use a spring that deforms when a force is applied. The deformation of the spring can be transferred to a scale or indicator using a mechanical system, such as a lever or piston, to show the force applied.
Some force transducers use the piezoelectric principle. Piezoelectric materials generate an electrical charge when they are subjected to a mechanical load. This charge is proportional to the force applied. The applied force can be determined by measuring the generated charge.
Overall, the functionality of a force transducer is based on the fundamental physical principle that forces cause changes in materials or physical effects that can be measured. By choosing the right principle and designing the force transducer accordingly, accurate and reliable force measurements can be carried out.
What different types of force transducers are there and how do they differ from each other?
There are various types of force transducers, which differ in their mode of operation and application. Here are some examples:
1. Strain gages: This is one of the most common types of force transducers. They consist of thin metal strips that are glued or applied to a material. When a force is applied to the material, the length or resistance of the strain gauge changes, which can be measured.
2. Spring scales: This type of force transducer uses a spring to measure the applied force. Depending on how much the spring is stretched or compressed, the applied force can be read off.
3. Hydraulic force transducers: This type of force transducer uses hydraulic pressure to measure the applied force. A fluid is pressurized in a cylinder or chamber and the resulting force is measured.
4. Pneumatic force transducers: Similar to hydraulic force transducers, pneumatic force transducers use pressure to measure the applied force. However, compressed air is used here instead of liquid.
5. Piezoelectric sensors: This type of force transducer is based on the piezoelectric effect, in which certain materials generate an electrical charge when they are deformed. The generated charge is proportional to the applied force and can be measured.
6. Strain gauge force transducer: Strain gauge stands for strain measuring strip. This type of force transducer uses a combination of strain gauges to measure the applied force in different directions, enabling precise force measurement.
These different types of force transducers differ in their accuracy, sensitivity, measuring range, cost and range of application. Depending on the type of force to be measured and the conditions under which the measurement is to take place, a certain type of force transducer may be more suitable than others.
1. Strain gages: This is one of the most common types of force transducers. They consist of thin metal strips that are glued or applied to a material. When a force is applied to the material, the length or resistance of the strain gauge changes, which can be measured.
2. Spring scales: This type of force transducer uses a spring to measure the applied force. Depending on how much the spring is stretched or compressed, the applied force can be read off.
3. Hydraulic force transducers: This type of force transducer uses hydraulic pressure to measure the applied force. A fluid is pressurized in a cylinder or chamber and the resulting force is measured.
4. Pneumatic force transducers: Similar to hydraulic force transducers, pneumatic force transducers use pressure to measure the applied force. However, compressed air is used here instead of liquid.
5. Piezoelectric sensors: This type of force transducer is based on the piezoelectric effect, in which certain materials generate an electrical charge when they are deformed. The generated charge is proportional to the applied force and can be measured.
6. Strain gauge force transducer: Strain gauge stands for strain measuring strip. This type of force transducer uses a combination of strain gauges to measure the applied force in different directions, enabling precise force measurement.
These different types of force transducers differ in their accuracy, sensitivity, measuring range, cost and range of application. Depending on the type of force to be measured and the conditions under which the measurement is to take place, a certain type of force transducer may be more suitable than others.
What attributes should be considered when selecting a force transducer?
Various attributes should be taken into account when selecting a force transducer:
1. Measurement range: The force transducer should cover the required measuring range, i.e. the maximum force that is to be measured without being overloaded.
2. Accuracy: Depending on the application and the required measuring accuracy, the force transducer should have an appropriate accuracy class.
3. Sensitivity: The sensitivity of the force transducer indicates how strongly the output signal of the transducer reacts to a given change in force. The higher the sensitivity, the more accurate the measurement can be.
4. Temperature range: The force transducer should be suitable for the intended temperature range to ensure correct and reliable measurement.
5. Long-term stability: The force transducer should remain stable over a longer period of time and not show any significant changes in sensitivity or accuracy.
6. Output signal: Depending on the requirements and system integration, the force transducer can have different output signals, e.g. analog signals (voltage or current) or digital signals (e.g. via USB or Bluetooth).
7. Robustness and protection class: Depending on the location and environmental conditions, the force transducer should be robust enough to withstand the conditions (e.g. protection against dust, moisture or mechanical stress).
8. Mounting and connection options: The force transducer should have suitable mounting and connection options to enable easy installation and connection to other devices.
9. Costs: The cost of the force transducer should be proportionate to the requirements and the budget. However, not only the purchase costs should be taken into account, but also any follow-up costs such as calibration or maintenance.
1. Measurement range: The force transducer should cover the required measuring range, i.e. the maximum force that is to be measured without being overloaded.
2. Accuracy: Depending on the application and the required measuring accuracy, the force transducer should have an appropriate accuracy class.
3. Sensitivity: The sensitivity of the force transducer indicates how strongly the output signal of the transducer reacts to a given change in force. The higher the sensitivity, the more accurate the measurement can be.
4. Temperature range: The force transducer should be suitable for the intended temperature range to ensure correct and reliable measurement.
5. Long-term stability: The force transducer should remain stable over a longer period of time and not show any significant changes in sensitivity or accuracy.
6. Output signal: Depending on the requirements and system integration, the force transducer can have different output signals, e.g. analog signals (voltage or current) or digital signals (e.g. via USB or Bluetooth).
7. Robustness and protection class: Depending on the location and environmental conditions, the force transducer should be robust enough to withstand the conditions (e.g. protection against dust, moisture or mechanical stress).
8. Mounting and connection options: The force transducer should have suitable mounting and connection options to enable easy installation and connection to other devices.
9. Costs: The cost of the force transducer should be proportionate to the requirements and the budget. However, not only the purchase costs should be taken into account, but also any follow-up costs such as calibration or maintenance.
How are force transducers calibrated to obtain accurate measurement results?
The accuracy of force transducers is usually checked and adjusted by means of calibration. There are various methods that can be used depending on the type of force transducer and the requirements for measuring accuracy.
A common method is to use a calibration device that has been specially developed for this purpose. This device consists of a reference force source, which generates a known force, and an instrument for measuring this force. The force transducer is then installed in the calibration device and the generated force is measured. The measurement results of the force transducer are compared with the known values and, if necessary, adjustments are made to improve the measurement accuracy.
Another method is to use weights and levers to exert a known force on the load cell. The deflection of the force transducer is measured and compared with the expected deflection. Adjustments can also be made here to improve accuracy.
In addition, electronic calibration methods can also be used, in which the force transducer is connected to a signal generator that generates a known force. The output signals of the force transducer are then compared with the expected values and adjusted if necessary.
It is important to note that calibration should be carried out regularly, as the accuracy of a force transducer can change over time. Regular calibration ensures that the measurement results are always accurate.
A common method is to use a calibration device that has been specially developed for this purpose. This device consists of a reference force source, which generates a known force, and an instrument for measuring this force. The force transducer is then installed in the calibration device and the generated force is measured. The measurement results of the force transducer are compared with the known values and, if necessary, adjustments are made to improve the measurement accuracy.
Another method is to use weights and levers to exert a known force on the load cell. The deflection of the force transducer is measured and compared with the expected deflection. Adjustments can also be made here to improve accuracy.
In addition, electronic calibration methods can also be used, in which the force transducer is connected to a signal generator that generates a known force. The output signals of the force transducer are then compared with the expected values and adjusted if necessary.
It is important to note that calibration should be carried out regularly, as the accuracy of a force transducer can change over time. Regular calibration ensures that the measurement results are always accurate.
What areas of application are there for force transducers in industry and research?
Force transducers are used in industry and research in various fields of application. Here are some examples:
1. Monitoring of machines and systems: Force transducers can be used to measure and monitor the force exerted on a machine or system. This enables early detection of problems such as overload or wear.
2. Material testing: Force transducers are used in materials testing to analyze the mechanical attributes of materials. For example, they can be used to measure the tensile strength, compressive strength or flexural strength of material samples.
3. Robotics: In robotics, force transducers are used to measure the force exerted by a robot arm. This enables the robot to detect its surroundings and adapt its movements accordingly, for example to grip sensitive objects or avoid collisions.
4. Medical applications: Force transducers are used in medical research and clinical practice to measure the forces that occur during surgical procedures or when the human body moves. This can be helpful, for example, in the development of prostheses or the recording of forces during rehabilitation after injuries.
5. vehicle industry: In the automotive industry, force transducers are used to measure forces acting on various components of a vehicle, such as the forces exerted on the brakes or the steering mechanism. This makes it possible to analyze and optimize the behavior of the vehicle.
These are just a few examples of the areas of application for force transducers in industry and research. The versatility of these sensors allows them to be used in a wide range of areas where the measurement of forces is important.
1. Monitoring of machines and systems: Force transducers can be used to measure and monitor the force exerted on a machine or system. This enables early detection of problems such as overload or wear.
2. Material testing: Force transducers are used in materials testing to analyze the mechanical attributes of materials. For example, they can be used to measure the tensile strength, compressive strength or flexural strength of material samples.
3. Robotics: In robotics, force transducers are used to measure the force exerted by a robot arm. This enables the robot to detect its surroundings and adapt its movements accordingly, for example to grip sensitive objects or avoid collisions.
4. Medical applications: Force transducers are used in medical research and clinical practice to measure the forces that occur during surgical procedures or when the human body moves. This can be helpful, for example, in the development of prostheses or the recording of forces during rehabilitation after injuries.
5. vehicle industry: In the automotive industry, force transducers are used to measure forces acting on various components of a vehicle, such as the forces exerted on the brakes or the steering mechanism. This makes it possible to analyze and optimize the behavior of the vehicle.
These are just a few examples of the areas of application for force transducers in industry and research. The versatility of these sensors allows them to be used in a wide range of areas where the measurement of forces is important.
What advantages do modern digital force transducers offer compared to older analog models?
Modern digital force transducers offer several advantages compared to older analog models:
1. Accuracy: Digital force transducers offer greater accuracy when measuring forces. They have a better resolution and can detect smaller changes in the forces.
2. Flexibility: Digital force transducers offer more flexibility in the configuration and adaptation of the measurement parameters. You can use different units and easily adapt the measured values to different applications.
3. Data recording: Digital force transducers enable the recording of measurement data, which is not possible with analog models. This enables a more comprehensive analysis of the forces and better fault diagnosis.
4. Simple integration: Digital force transducers can be easily integrated into digital systems, such as computers or control systems. This enables seamless integration into automated processes and better monitoring of forces.
5. Calibration: Digital force transducers can be calibrated more easily and accurately than analog models. This leads to a higher measurement accuracy and reliability of the measurements.
6. Energy efficiency: Digital force transducers consume less energy than analog models. This leads to a longer battery life and a reduced environmental impact.
Overall, modern digital force transducers offer improved accuracy, flexibility and data recording compared to older analog models. They are easier to integrate, calibrate and more energy efficient. They are therefore the preferred choice in many applications.
1. Accuracy: Digital force transducers offer greater accuracy when measuring forces. They have a better resolution and can detect smaller changes in the forces.
2. Flexibility: Digital force transducers offer more flexibility in the configuration and adaptation of the measurement parameters. You can use different units and easily adapt the measured values to different applications.
3. Data recording: Digital force transducers enable the recording of measurement data, which is not possible with analog models. This enables a more comprehensive analysis of the forces and better fault diagnosis.
4. Simple integration: Digital force transducers can be easily integrated into digital systems, such as computers or control systems. This enables seamless integration into automated processes and better monitoring of forces.
5. Calibration: Digital force transducers can be calibrated more easily and accurately than analog models. This leads to a higher measurement accuracy and reliability of the measurements.
6. Energy efficiency: Digital force transducers consume less energy than analog models. This leads to a longer battery life and a reduced environmental impact.
Overall, modern digital force transducers offer improved accuracy, flexibility and data recording compared to older analog models. They are easier to integrate, calibrate and more energy efficient. They are therefore the preferred choice in many applications.
How can a force transducer be integrated into a measuring system in order to further process the recorded data?
A force transducer can be integrated into a measuring system in order to further process the recorded data by connecting it to various components. Here are some steps that can help:
1. Selecting the right force transducer: Select a force transducer that is suitable for the specific application, e.g. compression force transducer, tension force transducer or torque force transducer.
2. Installation of the force transducer: Attach the force transducer to the desired location, e.g. on a machine or vehicle, to carry out the force measurement.
3. Connection with a measuring amplifier: Connect the force transducer to a measuring amplifier to amplify the weak electrical signal of the force transducer. The measuring amplifier converts the analog signal into a digital signal that can be further processed.
4. Data processing: Connect the measuring amplifier to a measuring system or a data logger to save and process the recorded data. The measurement system can offer various functions, such as the ability to display data in real time, analyze data or generate reports.
5. Data analysis: Use suitable software or algorithms to process the collected data and extract relevant information from it. This can include the calculation of average values, peak values, statistical analyses or other desired evaluations.
6. Integration into a higher-level system: If the measuring system is to be integrated into a higher-level system, e.g. a production control system or an IoT system, the recorded data can be transferred to the system via interfaces or protocols.
It is important that the components of the measuring system are well matched and that the correct calibration and maintenance of the force transducer is carried out regularly to ensure accurate and reliable measurements.
1. Selecting the right force transducer: Select a force transducer that is suitable for the specific application, e.g. compression force transducer, tension force transducer or torque force transducer.
2. Installation of the force transducer: Attach the force transducer to the desired location, e.g. on a machine or vehicle, to carry out the force measurement.
3. Connection with a measuring amplifier: Connect the force transducer to a measuring amplifier to amplify the weak electrical signal of the force transducer. The measuring amplifier converts the analog signal into a digital signal that can be further processed.
4. Data processing: Connect the measuring amplifier to a measuring system or a data logger to save and process the recorded data. The measurement system can offer various functions, such as the ability to display data in real time, analyze data or generate reports.
5. Data analysis: Use suitable software or algorithms to process the collected data and extract relevant information from it. This can include the calculation of average values, peak values, statistical analyses or other desired evaluations.
6. Integration into a higher-level system: If the measuring system is to be integrated into a higher-level system, e.g. a production control system or an IoT system, the recorded data can be transferred to the system via interfaces or protocols.
It is important that the components of the measuring system are well matched and that the correct calibration and maintenance of the force transducer is carried out regularly to ensure accurate and reliable measurements.