Applications | Glass, Ceramics & Plastics Industry |
Temperature measurement range | 0 to 85 °C |
Measured medium | Concrete Grain Coffee Show all Plastics Rice Tobacco Sawdust Wood chips Animal food Bulk material Paste-like products Gypsum plaster Maize Rye Wheat Barley Millet Oats Oilseed rape Soybeans Sunflower seeds Mustard seed Buckwheat Peas Linseed Pumpkin seeds Sesame Wood pellets Special pellets Wood shavings Maize cob Rubber Soil Building material |
More functions/options | Battery operation Operation with free app |
Humidity measurement devices
Moisture analyzers are used for measuring moisture in gases, liquids and solids. A distinction is made between the gas moisture measurement and the material moisture measurement.
The relative humidity indicates the water vapor content of the air. The water vapor that the air can absorb is largely dependent on the temperature and the ambient pressure, hence the term relative humidity. The relative humidity indicates what percentage of the maximum possible water vapor content is contained in the air relative to the percentage of air saturation.
The absolute air humidity indicates the mass of water vapor in a defined volume. The absolute air humidity is specified in g/m³.
Humidity sensors
You can find humidity sensors in diribo here... Read more
The relative humidity indicates the water vapor content of the air. The water vapor that the air can absorb is largely dependent on the temperature and the ambient pressure, hence the term relative humidity. The relative humidity indicates what percentage of the maximum possible water vapor content is contained in the air relative to the percentage of air saturation.
The absolute air humidity indicates the mass of water vapor in a defined volume. The absolute air humidity is specified in g/m³.
Humidity sensors
You can find humidity sensors in diribo here... Read more
1 - 13
Channel count | 1 Kanal |
Humidity measurement range | 0 to 99.9 % |
Measured medium | Concrete Cement screed Anhydrite floor Show all Gypsum plaster Hardwood Softwood |
Internal measurement value memory size, max. | 5,000 Messwerte |
Channel count | 1 Kanal |
Temperature measurement range | -100 to 400 °C |
Measuring depth/measuring probe length | 50 mm |
Humidity measurement range | 1 to 8 % |
Measured medium | Concrete |
Temperature measurement range | 80 to 190 °C |
Humidity measurement range | 0 to 4 % |
Measured medium | Plastics |
Measuring depth/measuring probe length | 1,000 mm |
Humidity measurement range | 10 to 20 % |
Measured medium | Wood pellets |
Humidity measurement range | 6 to 60 % |
Temperature measurement range | -10 to 60 °C |
Measured medium | Wood |
Humidity measurement range | 0 to 100 % |
Temperature measurement range | -20 to 150 °C |
Calculated sizes | Dew point temperature Wet bulb temperature Absolute humidity |
Applications | Glass, Ceramics & Plastics Industry |
Internal measurement value memory size, max. | 4,000 Messwerte |
Measuring depth/measuring probe length | 1,000 mm |
Humidity measurement range | 10 to 90 % |
Applications | Mechanical engineering & Plant construction Metal industry Semiconductor industry |
Channel count | 3 Kanal |
Humidity measurement range | 0 to 100 % |
Temperature measurement range | -40 to 125 °C |
Measuring depth/measuring probe length | 250 mm |
Humidity measurement range | 0 to 50 % |
Memory medium/storage location | Internal memory |
Humidity measurement range | 0 to 100 % |
Temperature measurement range | -40 to 70 °C |
Measured medium | Wood Paper Building materials |
Measuring depth/measuring probe length | 50 mm |
Humidity measurement range | 0 to 200 % |
Measured medium | Concrete Wood Paper Show all Wood chips Plywood boards Solid wood Cement screed Gypsum plaster Lime-cement plaster Rubber |
Moisture meters are instruments that are used to measure the moisture content in various materials. They are particularly useful in areas such as construction, agriculture, the food industry and woodworking, where accurate determination of moisture content is crucial, and there are various types of moisture meters, including capacitive, resistive and electromagnetic devices. Capacitive moisture meters are based on the change in electrical capacitance when moisture penetrates the material. Resistive moisture meters use the change in electrical resistance to determine the moisture content. Electromagnetic moisture meters use the properties of microwaves to measure moisture content. The accuracy of the moisture measurement depends on various factors, including the type of material, temperature and environmental conditions. It is therefore important to select the right moisture meter for the specific application, and moisture meters are indispensable tools for preventing damage caused by moisture. They are used in the construction industry to monitor concrete moisture and prevent mold growth. In the food industry, they enable the exact determination of the moisture content of food to ensure its quality and shelf life, and overall, moisture meters play an important role in various industries by providing precise information about the moisture content of materials. This prevents possible damage or loss of quality and ensures the optimal use of resources.
What is a moisture analyzer and what is it used for?
A moisture meter is a device that measures the moisture content of materials or surfaces. It is used to determine the moisture content in buildings, building materials, wood, paper, textiles, food and other materials.
The measuring device usually contains a sensor that measures moisture by means of electrical conductivity or capacitance. Depending on the type of device, it can use different measuring methods such as resistance measurement, microwave measurement or infrared measurement.
The use of a moisture meter is important to prevent or minimize damage caused by moisture. In buildings, high humidity can lead to mold growth, wood damage, corrosion or other structural problems. By measuring the moisture content, problems can be identified at an early stage and appropriate measures can be taken to prevent damage.
In industry, for example, a moisture meter is used to ensure that materials such as wood, concrete or food have the right moisture content to guarantee their quality and shelf life. In the construction industry, it is used to monitor the moisture content of building materials such as concrete or plaster to prevent damage or quality problems.
Overall, a moisture meter is a useful tool for monitoring the moisture content of materials and preventing potential damage or quality problems.
The measuring device usually contains a sensor that measures moisture by means of electrical conductivity or capacitance. Depending on the type of device, it can use different measuring methods such as resistance measurement, microwave measurement or infrared measurement.
The use of a moisture meter is important to prevent or minimize damage caused by moisture. In buildings, high humidity can lead to mold growth, wood damage, corrosion or other structural problems. By measuring the moisture content, problems can be identified at an early stage and appropriate measures can be taken to prevent damage.
In industry, for example, a moisture meter is used to ensure that materials such as wood, concrete or food have the right moisture content to guarantee their quality and shelf life. In the construction industry, it is used to monitor the moisture content of building materials such as concrete or plaster to prevent damage or quality problems.
Overall, a moisture meter is a useful tool for monitoring the moisture content of materials and preventing potential damage or quality problems.
How does a moisture meter work and what different types are there?
A moisture meter is an instrument used to measure the moisture content of materials or environments. There are different types of moisture meters that use different measuring methods depending on the area of application.
1. Resistance meters: This type of moisture meter measures the electrical conductivity of a material to determine its moisture content. They use either electrical resistance elements or hygroscopes that change their electrical attributes depending on the humidity.
2. Capacitive measuring devices: Capacitive moisture meters measure the electrical capacitance of a dielectric material that is influenced by moisture. They use electrodes or capacitors to measure the capacitance and convert this into a humidity value.
3. Microwave measuring devices: This type of moisture meter uses the attributes of microwaves to measure moisture content. They emit microwave pulses and measure the reflection or absorption of the microwaves in order to draw conclusions about the moisture content.
4. Infrared measuring devices: Infrared moisture meters use infrared rays to measure the moisture content. They send infrared rays onto the surface of the material and measure the intensity of the reflected rays. The moisture content can be deduced from the different reflected intensities.
5. Gravimetric measuring devices: This method is based on the weight loss of a material when it is dried. The material is first weighed, then dried and weighed again. The weight loss is then used to calculate the moisture content.
These different types of moisture meters are used depending on the area of application and type of material. They can be used in the construction industry, agriculture, healthcare, the food industry and many other areas where moisture plays an important role.
1. Resistance meters: This type of moisture meter measures the electrical conductivity of a material to determine its moisture content. They use either electrical resistance elements or hygroscopes that change their electrical attributes depending on the humidity.
2. Capacitive measuring devices: Capacitive moisture meters measure the electrical capacitance of a dielectric material that is influenced by moisture. They use electrodes or capacitors to measure the capacitance and convert this into a humidity value.
3. Microwave measuring devices: This type of moisture meter uses the attributes of microwaves to measure moisture content. They emit microwave pulses and measure the reflection or absorption of the microwaves in order to draw conclusions about the moisture content.
4. Infrared measuring devices: Infrared moisture meters use infrared rays to measure the moisture content. They send infrared rays onto the surface of the material and measure the intensity of the reflected rays. The moisture content can be deduced from the different reflected intensities.
5. Gravimetric measuring devices: This method is based on the weight loss of a material when it is dried. The material is first weighed, then dried and weighed again. The weight loss is then used to calculate the moisture content.
These different types of moisture meters are used depending on the area of application and type of material. They can be used in the construction industry, agriculture, healthcare, the food industry and many other areas where moisture plays an important role.
Which parameters can be measured with a moisture analyzer?
A moisture meter can measure various parameters, depending on the device in question. Here are some of the most common parameters that can be measured with a moisture meter:
1. Humidity: This parameter indicates how much moisture is present in the air. It is often given as a percentage.
2. Material moisture: A moisture meter can measure the moisture content of materials such as wood, concrete, plasterboard or building materials. The humidity is given as a percentage.
3. Dew point: The dew point is the temperature at which humidity leads to condensation. A moisture meter can calculate the dew point to identify potential mold or condensation problems.
4. Surface moisture: This parameter indicates how much moisture is present on a surface. It is often used when inspecting building facades or identifying water leaks.
5. Mold indicator: Some moisture meters have a mold indicator that shows the presence of mold. This is often done by measuring the relative humidity and temperature.
It is important to note that not all moisture analyzers can measure all of the above parameters. The functionality may vary depending on the device.
1. Humidity: This parameter indicates how much moisture is present in the air. It is often given as a percentage.
2. Material moisture: A moisture meter can measure the moisture content of materials such as wood, concrete, plasterboard or building materials. The humidity is given as a percentage.
3. Dew point: The dew point is the temperature at which humidity leads to condensation. A moisture meter can calculate the dew point to identify potential mold or condensation problems.
4. Surface moisture: This parameter indicates how much moisture is present on a surface. It is often used when inspecting building facades or identifying water leaks.
5. Mold indicator: Some moisture meters have a mold indicator that shows the presence of mold. This is often done by measuring the relative humidity and temperature.
It is important to note that not all moisture analyzers can measure all of the above parameters. The functionality may vary depending on the device.
Which industries and areas of application particularly benefit from moisture analyzers?
Moisture meters are used in various industries and areas of application. Some areas that particularly benefit from moisture analyzers are:
1. construction industry: Moisture meters are used in the construction industry to measure the moisture content of building materials such as concrete, plaster, wood and soil. This helps to assess the drying time and prevent damage caused by moisture.
2. Food industry: Moisture meters are used to measure the moisture content of foods such as cereals, flour, coffee, tea, dried fruit and spices. This is important to ensure the quality and durability of the products.
3. pharmaceutical and medical industry: Moisture meters are used in the pharmaceutical industry to monitor the moisture content of medicines, laboratory materials and packaging. In the medical industry, they are used to measure humidity in respiratory gases and to monitor humidity in incubators and incubators.
4. Environmental monitoring: Moisture meters are used in environmental monitoring to measure the moisture content in soil, air and water. This is important for assessing climatic conditions, irrigation requirements and environmental impacts.
5. Warehousing and logistics: Moisture meters are used in warehousing and logistics to monitor the humidity in storage rooms, containers and means of transportation. This helps to prevent damage to sensitive goods such as electronic devices, food and pharmaceutical products.
6. Agriculture: Moisture meters are used in agriculture to measure the moisture content of the soil. This helps to determine the irrigation requirement, the optimum harvest time and to avoid over- or under-irrigation.
7. Paper and wood industry: Moisture meters are used in the paper and wood industry to measure the moisture content of wood, pulp and paper products. This is important for quality assurance and to prevent damage caused by moisture.
These are just a few examples of industries and areas of application that benefit from moisture analyzers. Overall, moisture meters are indispensable in many areas where moisture measurements are important.
1. construction industry: Moisture meters are used in the construction industry to measure the moisture content of building materials such as concrete, plaster, wood and soil. This helps to assess the drying time and prevent damage caused by moisture.
2. Food industry: Moisture meters are used to measure the moisture content of foods such as cereals, flour, coffee, tea, dried fruit and spices. This is important to ensure the quality and durability of the products.
3. pharmaceutical and medical industry: Moisture meters are used in the pharmaceutical industry to monitor the moisture content of medicines, laboratory materials and packaging. In the medical industry, they are used to measure humidity in respiratory gases and to monitor humidity in incubators and incubators.
4. Environmental monitoring: Moisture meters are used in environmental monitoring to measure the moisture content in soil, air and water. This is important for assessing climatic conditions, irrigation requirements and environmental impacts.
5. Warehousing and logistics: Moisture meters are used in warehousing and logistics to monitor the humidity in storage rooms, containers and means of transportation. This helps to prevent damage to sensitive goods such as electronic devices, food and pharmaceutical products.
6. Agriculture: Moisture meters are used in agriculture to measure the moisture content of the soil. This helps to determine the irrigation requirement, the optimum harvest time and to avoid over- or under-irrigation.
7. Paper and wood industry: Moisture meters are used in the paper and wood industry to measure the moisture content of wood, pulp and paper products. This is important for quality assurance and to prevent damage caused by moisture.
These are just a few examples of industries and areas of application that benefit from moisture analyzers. Overall, moisture meters are indispensable in many areas where moisture measurements are important.
What factors influence the accuracy and reliability of moisture analyzers?
The accuracy and reliability of moisture meters can be affected by a number of factors, including
1. Calibration: Regular calibration of the device is crucial for the accuracy of the measurements. Incorrect calibration can lead to incorrect results.
2. Sensor quality: The quality of the humidity sensor in the device influences the accuracy of the measurements. High-quality sensors generally provide more accurate results.
3. Ambient conditions: The ambient conditions, such as temperature and humidity, can influence the measurements. Some devices have functions to compensate for these factors in order to provide accurate results.
4. Sampling: The way in which the sample is taken can influence the measurements. An uneven distribution of moisture in the sample can lead to inaccurate results.
5. Influencing factors: Other factors such as pressure, electrical interference or vibrations can also influence the measurements. A good moisture meter should be robust enough to minimize such influences.
6. User error: Proper use of the device by the user is also important. Incorrect handling or inadequate training can lead to unreliable results.
It is important to consider these factors and ensure that the moisture analyzer is regularly maintained, calibrated and used in an appropriate manner to obtain accurate and reliable measurements.
1. Calibration: Regular calibration of the device is crucial for the accuracy of the measurements. Incorrect calibration can lead to incorrect results.
2. Sensor quality: The quality of the humidity sensor in the device influences the accuracy of the measurements. High-quality sensors generally provide more accurate results.
3. Ambient conditions: The ambient conditions, such as temperature and humidity, can influence the measurements. Some devices have functions to compensate for these factors in order to provide accurate results.
4. Sampling: The way in which the sample is taken can influence the measurements. An uneven distribution of moisture in the sample can lead to inaccurate results.
5. Influencing factors: Other factors such as pressure, electrical interference or vibrations can also influence the measurements. A good moisture meter should be robust enough to minimize such influences.
6. User error: Proper use of the device by the user is also important. Incorrect handling or inadequate training can lead to unreliable results.
It is important to consider these factors and ensure that the moisture analyzer is regularly maintained, calibrated and used in an appropriate manner to obtain accurate and reliable measurements.
How do you maintain and calibrate a moisture analyzer to ensure high measurement accuracy?
To ensure high measurement accuracy with a moisture analyzer, it is important to maintain and calibrate the device regularly. Here are some steps that can help:
1. Cleaning: Make sure that the moisture analyzer is always clean. Contamination on the sensor or other parts of the device can influence the measurement results. Clean the appliance according to the manufacturer's instructions, using special cleaning agents if necessary.
2. Check the battery: Make sure that the device battery is sufficiently charged. Low battery power can lead to inaccurate measurement results. Replace the battery regularly to ensure reliable performance.
3. Calibration: Calibration is an important step in ensuring the accuracy of the moisture analyzer. Check the calibration of the device regularly and recalibrate if necessary. The frequency of calibration depends on the type of device and the manufacturer's recommendations.
4. Use calibration standards: When calibrating, it is important to use calibration standards. These are specially developed solutions with a known moisture content. Compare the measurement results of the device with the values of the calibration standard and adjust the calibration if necessary.
5. Keep the device in the correct environment: Store and use the moisture analyzer in an environment that complies with the operating conditions recommended by the manufacturer. Extreme temperatures, humidity or other environmental conditions can impair the performance of the device.
It is important to follow the manufacturer's specific instructions as each moisture analyzer may have different maintenance and calibration requirements.
1. Cleaning: Make sure that the moisture analyzer is always clean. Contamination on the sensor or other parts of the device can influence the measurement results. Clean the appliance according to the manufacturer's instructions, using special cleaning agents if necessary.
2. Check the battery: Make sure that the device battery is sufficiently charged. Low battery power can lead to inaccurate measurement results. Replace the battery regularly to ensure reliable performance.
3. Calibration: Calibration is an important step in ensuring the accuracy of the moisture analyzer. Check the calibration of the device regularly and recalibrate if necessary. The frequency of calibration depends on the type of device and the manufacturer's recommendations.
4. Use calibration standards: When calibrating, it is important to use calibration standards. These are specially developed solutions with a known moisture content. Compare the measurement results of the device with the values of the calibration standard and adjust the calibration if necessary.
5. Keep the device in the correct environment: Store and use the moisture analyzer in an environment that complies with the operating conditions recommended by the manufacturer. Extreme temperatures, humidity or other environmental conditions can impair the performance of the device.
It is important to follow the manufacturer's specific instructions as each moisture analyzer may have different maintenance and calibration requirements.
What are the latest developments in the field of moisture analyzers and what new technologies are being used?
There are several current developments and new technologies being used in the field of moisture meters. Here are some examples:
1. Portable moisture analyzers: The development of portable moisture meters enables users to measure humidity quickly and easily in different locations. These devices are compact, lightweight and easy to operate.
2. Non-invasive measurement methods: New technologies enable moisture measurement without direct contact with the material. These non-invasive measuring methods use microwaves, infrared radiation or ultrasound, for example, to determine moisture without damaging the material.
3. Digital humidity measurement: Most modern moisture meters have digital displays and can show the measured values accurately and quickly. Digital devices also enable the storage and transmission of measurement data for further analysis.
4. Wireless connectivity: Some moisture meters are equipped with wireless connectivity to enable easy data transfer and analysis. Users can transmit the measured values wirelessly to computers, tablets or smartphones and monitor and analyze them in real time.
5. Combined measuring devices: There are also humidity measuring devices that can measure various parameters simultaneously, such as humidity, temperature, air velocity or dew point. These combined devices offer a more comprehensive analysis of the environmental conditions.
6. Improved accuracy and precision: The use of advanced sensor technologies and algorithms is making moisture meters ever more accurate and precise. This allows users to take accurate measurements and better control humidity conditions.
7. Automation and remote monitoring: In some sectors, such as the food and pharmaceutical industries, moisture meters are combined with automated systems to monitor humidity conditions in real time and adjust them automatically if necessary.
These developments and new technologies in the field of moisture meters allow for more accurate and efficient monitoring of moisture, which is of great importance in many industries to ensure the quality of materials, products and environments.
1. Portable moisture analyzers: The development of portable moisture meters enables users to measure humidity quickly and easily in different locations. These devices are compact, lightweight and easy to operate.
2. Non-invasive measurement methods: New technologies enable moisture measurement without direct contact with the material. These non-invasive measuring methods use microwaves, infrared radiation or ultrasound, for example, to determine moisture without damaging the material.
3. Digital humidity measurement: Most modern moisture meters have digital displays and can show the measured values accurately and quickly. Digital devices also enable the storage and transmission of measurement data for further analysis.
4. Wireless connectivity: Some moisture meters are equipped with wireless connectivity to enable easy data transfer and analysis. Users can transmit the measured values wirelessly to computers, tablets or smartphones and monitor and analyze them in real time.
5. Combined measuring devices: There are also humidity measuring devices that can measure various parameters simultaneously, such as humidity, temperature, air velocity or dew point. These combined devices offer a more comprehensive analysis of the environmental conditions.
6. Improved accuracy and precision: The use of advanced sensor technologies and algorithms is making moisture meters ever more accurate and precise. This allows users to take accurate measurements and better control humidity conditions.
7. Automation and remote monitoring: In some sectors, such as the food and pharmaceutical industries, moisture meters are combined with automated systems to monitor humidity conditions in real time and adjust them automatically if necessary.
These developments and new technologies in the field of moisture meters allow for more accurate and efficient monitoring of moisture, which is of great importance in many industries to ensure the quality of materials, products and environments.
What advantages do modern, digital moisture meters offer compared to analog devices?
Modern, digital moisture meters offer several advantages compared to analog devices:
1. Accuracy: Digital moisture meters use advanced sensors and measurement algorithms to provide accurate measurement results. In contrast, analog devices are often more susceptible to deviations and inaccuracies.
2. Simple reading: Digital appliances have clear digital displays on which the humidity values are shown directly. This makes it easier to read and interpret the measurement results compared to analog devices, where a scale has to be read and interpreted.
3. Storage and recording of data: Many modern digital devices have functions for storing and recording measurement data. This allows users to track measurements over time and identify trends. Analog devices do not normally offer this function.
4. Additional functions: Digital moisture meters often offer additional functions such as automatic calibration, temperature compensation and programmable alarms. These functions increase the user-friendliness and performance of the devices compared to analog devices.
5. Versatility: Digital devices are generally suitable for various applications and can be used in different materials and environments. They often also offer the option of choosing between different measurement modes to meet the requirements of the respective application.
Overall, modern, digital moisture meters offer greater accuracy, user-friendliness and functionality compared to analog devices. They are therefore the preferred choice in many industries and applications.
1. Accuracy: Digital moisture meters use advanced sensors and measurement algorithms to provide accurate measurement results. In contrast, analog devices are often more susceptible to deviations and inaccuracies.
2. Simple reading: Digital appliances have clear digital displays on which the humidity values are shown directly. This makes it easier to read and interpret the measurement results compared to analog devices, where a scale has to be read and interpreted.
3. Storage and recording of data: Many modern digital devices have functions for storing and recording measurement data. This allows users to track measurements over time and identify trends. Analog devices do not normally offer this function.
4. Additional functions: Digital moisture meters often offer additional functions such as automatic calibration, temperature compensation and programmable alarms. These functions increase the user-friendliness and performance of the devices compared to analog devices.
5. Versatility: Digital devices are generally suitable for various applications and can be used in different materials and environments. They often also offer the option of choosing between different measurement modes to meet the requirements of the respective application.
Overall, modern, digital moisture meters offer greater accuracy, user-friendliness and functionality compared to analog devices. They are therefore the preferred choice in many industries and applications.