EAN code | 3661238363618 |
More functions/options | DBT, with display indication |
Thermostats
A thermostat, or temperature controller, is used for individual room temperature control on radiators. With the help of a thermo-sensing element and a valve, they regulate the flow of radiators and convectors to maintain a constant temperature in the room.... Read more
1 - 17
Measurement range | 0 to 15 °C |
Adjustment range | 0 to 15 °C |
Type of use/type | Antifrost thermostats |
Measurement range | 0 to 15 °C |
Adjustment range | 0 to 15 °C |
Type of use/type | Antifrost thermostats |
Measurement range | 0 to 15 °C |
Adjustment range | 0 to 15 °C |
Type of use/type | Antifrost thermostats |
Measurement range | 0 to 15 °C |
Adjustment range | 0 to 15 °C |
Type of use/type | Antifrost thermostats |
Switching voltage, max. | 250 V |
Switching current, max. | 1.5 to 16 A |
Switching function | Changeover contact |
Switching voltage, max. | 250 V |
Switching current, max. | 1.5 to 16 A |
Switching function | Changeover contact |
Switching voltage, max. | 250 V |
Switching current, max. | 1.5 to 16 A |
Switching function | Changeover contact |
Switching voltage, max. | 250 V |
Switching current, max. | 1.5 to 16 A |
Switching function | Changeover contact |
Switching voltage, max. | 250 V |
Switching current, max. | 4 to 16 A |
Switching function | Changeover contact |
Switching voltage, max. | 250 V |
Switching current, max. | 4 to 16 A |
Switching function | Changeover contact |
Switching voltage, max. | 250 V |
Switching current, max. | 1.5 to 16 A |
Switching function | Changeover contact |
Switching voltage, max. | 250 V |
Switching current, max. | 1.5 to 16 A |
Switching function | Changeover contact |
Switching voltage, max. | 250 V |
Switching current, max. | 1.5 to 16 A |
Switching function | Changeover contact |
Switching voltage, max. | 250 V |
Switching current, max. | 1.5 to 16 A |
Switching function | Changeover contact |
Switching voltage, max. | 250 V |
Switching current, max. | 4 to 16 A |
Switching function | Changeover contact |
Switching voltage, max. | 250 V |
Switching current, max. | 4 to 16 A |
Switching function | Changeover contact |
A thermostat usually consists of a temperature sensor, a control unit and an actuator. The temperature sensor continuously measures the temperature and forwards the information to the control unit. This compares the measured temperature with the set target value and controls the actuators accordingly. The actuator can be a radiator or air conditioning valve, for example, which is opened or closed as required to adjust the temperature.Modern thermostats often offer additional functions such as programmable schedules, remote control via smartphone apps or even artificial intelligence that learns the user's behavior and automatically suggests optimal settings.Thermostats are used in heating and cooling systems, air conditioning systems, refrigerators, ovens and many other appliances. They help to reduce energy consumption and improve comfort by automatically adjusting the temperature. thermostats are essential components for efficient and comfortable temperature control in various areas of application. They enable precise temperature control and thus contribute to a pleasant room climate.
What are thermostats and how do they work?
Thermostats are devices that are used to regulate the temperature in a room or on an appliance. They are usually equipped with a sensor that measures the current temperature and compares it with a preset value. Depending on whether the measured temperature is higher or lower than the set value, the thermostat is activated to adjust the temperature accordingly.
There are different types of thermostats, including mechanical, electronic and programmable thermostats. Mechanical thermostats use a bimetallic spring that expands or contracts as the temperature changes, opening or closing a circuit to regulate the temperature.
Electronic thermostats use sensors and electronic circuits to measure and regulate the temperature. They often offer more precise control and additional functions such as programmable schedules.
Programmable thermostats allow users to pre-program different temperature settings for different times of the day or week. This enables more efficient use of heating and cooling systems and can lead to energy savings.
Thermostats are widely used in many homes and commercial buildings and play an important role in maintaining a comfortable indoor climate and energy efficiency.
There are different types of thermostats, including mechanical, electronic and programmable thermostats. Mechanical thermostats use a bimetallic spring that expands or contracts as the temperature changes, opening or closing a circuit to regulate the temperature.
Electronic thermostats use sensors and electronic circuits to measure and regulate the temperature. They often offer more precise control and additional functions such as programmable schedules.
Programmable thermostats allow users to pre-program different temperature settings for different times of the day or week. This enables more efficient use of heating and cooling systems and can lead to energy savings.
Thermostats are widely used in many homes and commercial buildings and play an important role in maintaining a comfortable indoor climate and energy efficiency.
What different types of thermostats are there?
There are different types of thermostats, which have different functions and attributes depending on their intended use and technology. Here are some of the most common types:
1. Mechanical thermostats: These thermostats use a mechanical device to set and control the temperature. They are easy to operate, but have no programmable functions.
2. Electronic thermostats: These thermostats use electronic sensors and circuits to set and control the temperature. They often offer programmable functions to change the temperature automatically at certain times.
3. Radio thermostats: These thermostats enable wireless communication between the thermostat and the heating or cooling system. They offer flexibility in the placement of the thermostat and can often be controlled from different locations in the house.
4. Smarthome thermostats: These thermostats are integrated into an intelligent home automation system and allow the temperature to be controlled and monitored remotely via a smartphone app or voice commands.
5. Programmable thermostats: These thermostats allow you to set a weekly schedule program to change the temperature automatically, e.g. to save energy when you are not at home.
6. Modulating thermostats: These thermostats can continuously adjust the output of the heating or cooling system to precisely control the temperature and optimize energy consumption.
7. Digital thermostats: These thermostats use digital displays and buttons for temperature control and often offer additional functions such as temperature history, error displays or user profiles.
It is important to note that not all thermostats are suitable for all types of heating or cooling systems. It is advisable to check compatibility with your system before purchasing a thermostat.
1. Mechanical thermostats: These thermostats use a mechanical device to set and control the temperature. They are easy to operate, but have no programmable functions.
2. Electronic thermostats: These thermostats use electronic sensors and circuits to set and control the temperature. They often offer programmable functions to change the temperature automatically at certain times.
3. Radio thermostats: These thermostats enable wireless communication between the thermostat and the heating or cooling system. They offer flexibility in the placement of the thermostat and can often be controlled from different locations in the house.
4. Smarthome thermostats: These thermostats are integrated into an intelligent home automation system and allow the temperature to be controlled and monitored remotely via a smartphone app or voice commands.
5. Programmable thermostats: These thermostats allow you to set a weekly schedule program to change the temperature automatically, e.g. to save energy when you are not at home.
6. Modulating thermostats: These thermostats can continuously adjust the output of the heating or cooling system to precisely control the temperature and optimize energy consumption.
7. Digital thermostats: These thermostats use digital displays and buttons for temperature control and often offer additional functions such as temperature history, error displays or user profiles.
It is important to note that not all thermostats are suitable for all types of heating or cooling systems. It is advisable to check compatibility with your system before purchasing a thermostat.
Why are thermostats important for energy efficiency in buildings?
Thermostats are important for energy efficiency in buildings for several reasons:
1. Temperature control: Thermostats enable precise control of the room temperature. By setting an optimum temperature, energy wastage and overheating can be avoided.
2. Energy saving: By using thermostats, the heating and cooling energy in a building can be used more efficiently. When the desired temperature is reached, the thermostat automatically switches off the heating or cooling, which saves energy.
3. Scheduling: Many thermostats have programmable functions that allow users to set heating and cooling times for different times of day. For example, rooms can be automatically set to a lower temperature during periods of absence or at night to save energy. The thermostat then ensures that the room temperature is brought back to the desired value before you return home or wake up.
4. Combination with other energy-efficient technologies: Modern thermostats can be connected to other energy-efficient devices and systems in the building, e.g. smart home systems or zonal heating and cooling systems. This allows them to exchange information and further optimize energy efficiency.
Overall, thermostats help to reduce energy consumption in buildings, improve energy efficiency and thus cut costs and reduce the ecological footprint.
1. Temperature control: Thermostats enable precise control of the room temperature. By setting an optimum temperature, energy wastage and overheating can be avoided.
2. Energy saving: By using thermostats, the heating and cooling energy in a building can be used more efficiently. When the desired temperature is reached, the thermostat automatically switches off the heating or cooling, which saves energy.
3. Scheduling: Many thermostats have programmable functions that allow users to set heating and cooling times for different times of day. For example, rooms can be automatically set to a lower temperature during periods of absence or at night to save energy. The thermostat then ensures that the room temperature is brought back to the desired value before you return home or wake up.
4. Combination with other energy-efficient technologies: Modern thermostats can be connected to other energy-efficient devices and systems in the building, e.g. smart home systems or zonal heating and cooling systems. This allows them to exchange information and further optimize energy efficiency.
Overall, thermostats help to reduce energy consumption in buildings, improve energy efficiency and thus cut costs and reduce the ecological footprint.
How can thermostats be used to automatically control heating and air conditioning?
Thermostats for the automatic control of heating and air conditioning can be used in various ways. Here are some possibilities:
1. Temperature control: Thermostats can be set to monitor the room temperature and switch on the heating or air conditioning if the temperature falls below or rises above a certain threshold.
2. Time control: Thermostats can be programmed to switch the heating or air conditioning on or off at specific times. This can help to save energy by switching off the heating or air conditioning during unused periods.
3. Zone control: If a house or apartment is divided into different zones, thermostats can be installed in each room to control the temperature individually. In this way, an optimum temperature can be set in each room to maximize comfort and energy efficiency.
4. Remote control: Many modern thermostats can be controlled remotely via smartphones or other internet-enabled devices. This allows users to control the heating or air conditioning from anywhere, which is handy for adjusting the temperature when away from home.
5. Learning functions: Some thermostats have learning functions that analyze user behavior and automatically suggest optimal settings for operating the heating or air conditioning system. They can adapt to the user's habits and thus save energy.
Overall, thermostats for the automatic control of heating and air conditioning enable efficient and convenient temperature control in living and working spaces. By using this technology, energy can be saved, which offers both financial and environmental benefits.
1. Temperature control: Thermostats can be set to monitor the room temperature and switch on the heating or air conditioning if the temperature falls below or rises above a certain threshold.
2. Time control: Thermostats can be programmed to switch the heating or air conditioning on or off at specific times. This can help to save energy by switching off the heating or air conditioning during unused periods.
3. Zone control: If a house or apartment is divided into different zones, thermostats can be installed in each room to control the temperature individually. In this way, an optimum temperature can be set in each room to maximize comfort and energy efficiency.
4. Remote control: Many modern thermostats can be controlled remotely via smartphones or other internet-enabled devices. This allows users to control the heating or air conditioning from anywhere, which is handy for adjusting the temperature when away from home.
5. Learning functions: Some thermostats have learning functions that analyze user behavior and automatically suggest optimal settings for operating the heating or air conditioning system. They can adapt to the user's habits and thus save energy.
Overall, thermostats for the automatic control of heating and air conditioning enable efficient and convenient temperature control in living and working spaces. By using this technology, energy can be saved, which offers both financial and environmental benefits.
What modern technologies are used in thermostats to improve energy efficiency?
Modern thermostats use various technologies to improve energy efficiency, including:
1. Programmable thermostats: These allow users to set heating and cooling times to regulate the temperature automatically. This allows energy to be saved by adjusting the temperature during absence or while sleeping.
2. Smart thermostats: These thermostats can be connected to the internet and enable remote control and monitoring via mobile apps. They can also learn when and how often a room is used and automatically adapt to save energy.
3. Motion sensors: Some thermostats are equipped with motion sensors that detect whether people are in the room. If the room is empty, the thermostat can adjust the temperature to save energy.
4. Learning algorithms: Some thermostats use learning algorithms to analyze and learn from user behavior. You can automatically determine the optimum time and the right temperature for comfort and energy savings.
5. Zone systems: Thermostats with zone systems allow the temperature in different zones of a house or building to be controlled individually. This allows energy to be saved by only heating or cooling the required areas.
6. Real-time weather data: Some smart thermostats use real-time weather data to adjust the temperature indoors accordingly. This allows the heating or cooling output to be optimized and energy to be saved.
These technologies help to improve energy efficiency by intelligently controlling heating and cooling systems and minimizing energy waste.
1. Programmable thermostats: These allow users to set heating and cooling times to regulate the temperature automatically. This allows energy to be saved by adjusting the temperature during absence or while sleeping.
2. Smart thermostats: These thermostats can be connected to the internet and enable remote control and monitoring via mobile apps. They can also learn when and how often a room is used and automatically adapt to save energy.
3. Motion sensors: Some thermostats are equipped with motion sensors that detect whether people are in the room. If the room is empty, the thermostat can adjust the temperature to save energy.
4. Learning algorithms: Some thermostats use learning algorithms to analyze and learn from user behavior. You can automatically determine the optimum time and the right temperature for comfort and energy savings.
5. Zone systems: Thermostats with zone systems allow the temperature in different zones of a house or building to be controlled individually. This allows energy to be saved by only heating or cooling the required areas.
6. Real-time weather data: Some smart thermostats use real-time weather data to adjust the temperature indoors accordingly. This allows the heating or cooling output to be optimized and energy to be saved.
These technologies help to improve energy efficiency by intelligently controlling heating and cooling systems and minimizing energy waste.
What role do thermostats play in intelligent building automation?
Thermostats play an important role in intelligent building automation. They enable automatic control of the room temperature and thus ensure efficient energy consumption and comfort in a building.
Smart thermostats can work in conjunction with other sensors and devices to optimize the indoor climate. For example, you can detect the presence of people and adjust the heating or air conditioning accordingly. This saves energy as there is no unnecessary heating or cooling when no one is in the room.
Thermostats can also be connected to the Internet and controlled remotely. This allows users to monitor and adjust the room temperature from anywhere. For example, they can turn on the heating before they get home to ensure a comfortable temperature.
Another aspect of intelligent building automation is the analysis of data to optimize energy consumption. Thermostats can collect data on temperature and energy consumption and send it to a central system. Based on this data, patterns can then be identified and settings adjusted to further optimize energy consumption.
Overall, thermostats in intelligent building automation help to reduce energy consumption, improve comfort and make it easier to control the indoor climate. They are an important component of a networked building system.
Smart thermostats can work in conjunction with other sensors and devices to optimize the indoor climate. For example, you can detect the presence of people and adjust the heating or air conditioning accordingly. This saves energy as there is no unnecessary heating or cooling when no one is in the room.
Thermostats can also be connected to the Internet and controlled remotely. This allows users to monitor and adjust the room temperature from anywhere. For example, they can turn on the heating before they get home to ensure a comfortable temperature.
Another aspect of intelligent building automation is the analysis of data to optimize energy consumption. Thermostats can collect data on temperature and energy consumption and send it to a central system. Based on this data, patterns can then be identified and settings adjusted to further optimize energy consumption.
Overall, thermostats in intelligent building automation help to reduce energy consumption, improve comfort and make it easier to control the indoor climate. They are an important component of a networked building system.
What advantages do programmable thermostats offer compared to conventional models?
Programmable thermostats offer a number of advantages compared to conventional models:
1. Energy saving: Programmable thermostats allow users to set heating and cooling times based on their actual needs. This can save energy, especially if the thermostat lowers or raises the temperature when the user is absent.
2. Comfort: With programmable thermostats, users can set their heating and cooling times in advance to ensure that the desired temperature is reached at specific times. This creates a constant indoor climate and increases comfort.
3. Flexibility: Programmable thermostats usually offer various program options, such as different temperature settings for weekdays and weekends. This allows users to adjust their preferences and create an individual heating and cooling program.
4. Remote access: Some programmable thermostats offer the option of controlling them remotely via an app or the internet. This allows users to change and adjust the temperature while on the move, which is particularly handy when plans change or when they want to return to a warm or cold home.
5. Cost savings: By specifically controlling heating and cooling times and preventing rooms from being overheated or overcooled, users can reduce their energy costs and thus save money.
6. Environmental friendliness: By reducing energy consumption, programmable thermostats help to reduce CO2 emissions and minimize environmental impact.
In summary, programmable thermostats offer improved energy efficiency, comfort, flexibility, remote access, cost savings and environmental benefits compared to conventional thermostats.
1. Energy saving: Programmable thermostats allow users to set heating and cooling times based on their actual needs. This can save energy, especially if the thermostat lowers or raises the temperature when the user is absent.
2. Comfort: With programmable thermostats, users can set their heating and cooling times in advance to ensure that the desired temperature is reached at specific times. This creates a constant indoor climate and increases comfort.
3. Flexibility: Programmable thermostats usually offer various program options, such as different temperature settings for weekdays and weekends. This allows users to adjust their preferences and create an individual heating and cooling program.
4. Remote access: Some programmable thermostats offer the option of controlling them remotely via an app or the internet. This allows users to change and adjust the temperature while on the move, which is particularly handy when plans change or when they want to return to a warm or cold home.
5. Cost savings: By specifically controlling heating and cooling times and preventing rooms from being overheated or overcooled, users can reduce their energy costs and thus save money.
6. Environmental friendliness: By reducing energy consumption, programmable thermostats help to reduce CO2 emissions and minimize environmental impact.
In summary, programmable thermostats offer improved energy efficiency, comfort, flexibility, remote access, cost savings and environmental benefits compared to conventional thermostats.
How can thermostats be integrated with other smart home devices and systems to further improve comfort and energy efficiency?
Thermostats can be integrated with other smart home devices and systems in various ways to further improve comfort and energy efficiency. Here are some possibilities:
1. Integration with a smart home hub: A smart home hub is a central control unit that connects various smart home devices with each other. Thermostats can be integrated with a smart home hub for convenient control via a single app or voice control.
2. Link with motion sensors: By integrating motion sensors with the thermostat, the heating or cooling can be adjusted automatically when people are in or out of the room. This saves energy when nobody is at home.
3. Connection with window sensors: Window sensors can detect whether a window is open or closed. The thermostat can use this information to adjust the heating or cooling accordingly. If a window is open, the thermostat can automatically lower the temperature to save energy.
4. Integration with weather forecasts: By connecting to weather forecasts, the thermostat can adjust its settings to respond to upcoming weather changes. For example, it can increase heating before the onset of cold temperatures or increase cooling in hot weather.
5. Linking with other smart home devices: Thermostats can also be integrated with other smart home devices such as intelligent roller shutters or lighting systems. This allows the thermostat to automatically control the settings of these appliances to further improve comfort and energy efficiency. For example, the thermostat can close the shutters to reduce solar radiation and support cooling.
6. Use of machine learning: Some thermostats use machine learning algorithms to analyze and learn from occupant behavior. In this way, they can automatically adjust their settings to optimize individual comfort and energy efficiency.
By integrating thermostats with other smart home devices and systems, users can improve comfort and save energy and costs at the same time. It is important to check whether the desired integration of thermostats is compatible with the existing smart home devices and systems to ensure smooth functionality.
1. Integration with a smart home hub: A smart home hub is a central control unit that connects various smart home devices with each other. Thermostats can be integrated with a smart home hub for convenient control via a single app or voice control.
2. Link with motion sensors: By integrating motion sensors with the thermostat, the heating or cooling can be adjusted automatically when people are in or out of the room. This saves energy when nobody is at home.
3. Connection with window sensors: Window sensors can detect whether a window is open or closed. The thermostat can use this information to adjust the heating or cooling accordingly. If a window is open, the thermostat can automatically lower the temperature to save energy.
4. Integration with weather forecasts: By connecting to weather forecasts, the thermostat can adjust its settings to respond to upcoming weather changes. For example, it can increase heating before the onset of cold temperatures or increase cooling in hot weather.
5. Linking with other smart home devices: Thermostats can also be integrated with other smart home devices such as intelligent roller shutters or lighting systems. This allows the thermostat to automatically control the settings of these appliances to further improve comfort and energy efficiency. For example, the thermostat can close the shutters to reduce solar radiation and support cooling.
6. Use of machine learning: Some thermostats use machine learning algorithms to analyze and learn from occupant behavior. In this way, they can automatically adjust their settings to optimize individual comfort and energy efficiency.
By integrating thermostats with other smart home devices and systems, users can improve comfort and save energy and costs at the same time. It is important to check whether the desired integration of thermostats is compatible with the existing smart home devices and systems to ensure smooth functionality.