THB Basic
Unsurpassed measurement accuracy
€12,622.50*
% €14,850.00* (15% saved)Available, delivery time: 3-4 weeks
THB sensors
Temperature range: -150°C up to 300°C**
Measuring range: 0.01 - 2 W/mK
Suitable for: Solids
Compatible with: THB Basic, THB Advance, THB Ultimate
* The exact min. sample size depends on the material properties.
** All maximum temperature refer to operation under air. If Kapton Sensors are used in inert atmosphere the maximum temperature range can be extended from 200°C to 300°C.
Temperature range: -150°C up to 300°C**
Measuring range: 0.01 - 5 W/mK
Suitable for: Solids
Compatible with: THB Basic, THB Advance, THB Ultimate
* The exact min. sample size depends on the material properties.
** All maximum temperature refer to operation under air. If Kapton Sensors are used in inert atmosphere the maximum temperature range can be extended from 200°C to 300°C.
Temperature range: -150°C up to 300°C**
Measuring range: 0.01 - 2 W/mK
Suitable for: Solids, Powder, Liquids
Compatible with: THB Basic, THB Advance, THB Ultimate
* The ecaxt min. sample size depends on the material properties.** All maximum temperature refer to operation under air. If Kapton Sensors are used in inert atmosphere the maximum temperature range can be extended from 200°C to 300°C.
Temperature range: -150°C up to 200°C**
Measuring range: 0.005 - 1800 W/mK
Suitable for: Solids, Powder
Compatible with: THB Advance, THB Ultimate
* The exact min. sample size depends on the material properties.
** All maximum temperature refer to operation under air. If Kapton Sensors are used in inert atmosphere the maximum temperature range can be extended from 200°C to 300°C.
Measuring range: 0.01 - 5 W/mK
Suitable for: Solids, Powder, Liquids, GasesCompatible with: THB Advance, THB Ultimate
The high temperature (HT) version is based on a ceramic substrate, which slightly reduces the accuracy.
* The exact min. sample size depends on the material properties.
** All maximum temperature refer to operation under air. If Kapton Sensors are used in inert atmosphere the maximum temperature range can be extended from 200°C to 300°C.
Temperature range: RT up to 700°C**
Measuring range: 0.01 - 1 W/mK
Suitable for: Solids
Compatible with: THB Basic, THB Advance, THB Ultimate
The high temperature (HT) version is based on a ceramic substrate, which slightly reduces the accuracy.
* The exact min. sample size depends on the material properties.
** All maximum temperature refer to operation under air. If Kapton Sensors are used in inert atmosphere the maximum temperature range can be extended from 200°C to 300°C.
Temperature range: RT up to 700°C**
Measuring range: 0.2 - 100 W/mK
Suitable for: Solids, Powder, Liquids
Compatible with: THB Advance, THB Ultimate
The high temperature (HT) version is based on a ceramic substrate, which slightly reduces the accuracy.
* The exact min. sample size depends on the material properties.
** All maximum temperature refer to operation under air. If Kapton Sensors are used in inert atmosphere the maximum temperature range can be extended from 200°C to 300°C.
Temperature range: -150°C up to 200°C**
Measuring range: 0.01 - 30 W/mK
Suitable for: Solids, Powder, Liquids, Gases
Compatible with: THB Advance, THB Ultimate
* The exact min. sample size depends on the material properties.
** All maximum temperature refer to operation under air. If Kapton Sensors are used in inert atmosphere the maximum temperature range can be extended from 200°C to 300°C.
Temperature range: -150°C up to 300°C**
Measuring range: 0.01 - 5 W/mK
Suitable for: Solids, Powder, Liquids
Compatible with: THB Basic, THB Advance, THB Ultimate
* The exact min. sample size depends on the material properties.
** All maximum temperature refer to operation under air. If Kapton Sensors are used in inert atmosphere the maximum temperature range can be extended from 200°C to 300°C.
Reference material
Suitable for THB/A/Metal Sensors
Thermal conductivity 0.194 W/mK
Suitable for all THB sensors
Thermal conductivity 0.194 W/mK
Suitable for THB/B/Metal Sensors
Thermal conductivity 0.194 W/mK
Furnaces and other accessories
Suitable to adjust the contact pressure manually, which improves the contact to the sensor
Compatible with: metal frames
Sensor THB/B
This measuring instrument simultaneously delivers the three material properties thermal conductivity, thermal diffusivity and specific heat after just a few minutes, regardless of whether you have placed the corresponding sensors in bulk solids, gels, pastes or plates or immersed them in liquids.
Sample preparation of solids is as simple as it is straightforward. One plane contact surface of each of two sample halves is sufficient for the sensor. Calibration is very simple and does not need to be performed before each measurement.
The THB measures absolute values with an accuracy that does not lag behind conventional plate or LaserFlash devices.
Complies to the following Norms: ASTM D 5930-01, DIN ISO 2200-2, ASTM D 5334.
Advantages at a glance:
Unsurpassed measurement accuracy for determining thermal conductivity
- One-button solution:
- Automated measurement mode
- No specialist personnel required to operate the instrument
- No erroneous measurements due to incorrect measurement parameter input
- Thermal conductivity AND thermal diffusivity
- Measurement of thermal diffusivity with very low measurement uncertainties
- Calorimeter function: Calculation of specific heat capacity
Measurements within seconds
Non-destructive measurements with half-shell sensor
Compact dimensions
THB Basic: small and light
Different sensors for your application
THB Basic
- THB/B sensor included (THB/A sensor on request) and PMMA calibration material
- suitable for materials with low thermal conductivity (insulation and building materials)
- easy installation - basic installation of the measuring device is done remotely
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Specifications
Model | THB Basic |
Measuring range: | |
Thermal conductivity: | 0,01 up to 5 W/(mK) |
Thermal diffusivity: | 0,05 up to 50 mm2/s |
Specific heat capacity: | 100 up to 5000 kJ/(m3K) |
Measurement precision: | |
Thermal conductivity**: | better than 1 % |
Thermal diffusivity**: | better than 4 % |
Thermal capacity**: | better than 4 % |
Measuring duration: | |
Solids: | approx. 1 up to 10 min |
Liquids: | approx. 1 up to 120 s |
Operating temperature: | |
Sensor: | –150°C up to 700°C |
Sensor type: | Kapton, Ceramics |
Sample size: | |
Smalest sample size*: | 1.5 x 1.5 x 2 mm |
Maximum sample size: | unlimited |
* depending on furnace and sensor, sample size depends on material
** depending on sample sensor and sample preparation
Software
Advantages at a glance
- Advanced THB Windows®-based software interface
- Provides the fastest measurement times
- No possibility for application errors thanks to optimized, software-controlled measurement algorithms
- Enables most accurate and time-saving measurements
- One-button solution: results at the touch of a button
- Easy data export to Microsoft Excel®
Applications
Application: THB Basic/Advance – Phase change material – Thermal conductivity
The thermal conductivity of Sample A slightly increases with heating up to 0 °C, whereas Sample B shows slightly decreasing values. Both samples change from the solid to the liquid state in the temperature range from 0 °C to 10 °C which can also be clearly seen in the thermal conductivity drop. With increasing temperature, the thermal conductivity of both samples increases slightly. In general, Sample B shows higher thermal conductivities compared to Sample A.
Application: THB Advance – Aluminium Alloy – Thermal conductivity
The thermal conductivity of an aluminium alloy was investigated from room temperature to 100 °C using the THB. For the measurement the QSS sensor was placed between two sample pieces and pressed together for an improved thermal contact. The configuration was placed in a furnace and the temperature steps were room temperature, 50 °C and 100 °C. At each step the measurement was repeated three times and the results were averaged. In the diagram one can see that the thermal conductivity is slightly decreasing with temperature. The error bars show an uncertainty of 2 %.
