Auxiliary heat, often abbreviated as “aux heat,” represents a secondary heating system within a heat pump setup. It supplements the heat pump when it cannot sufficiently meet the heating demand, typically during periods of extreme cold. For example, if a heat pump struggles to raise the room temperature, the auxiliary heat engages to provide additional warmth. The thermostat controls its activation and deactivation based on temperature differentials and user-defined settings.
The implementation of auxiliary heat ensures consistent comfort levels even when outdoor temperatures plummet, preventing the heat pump from overworking and potentially reducing its lifespan. Historically, resistance coils were the predominant form of auxiliary heating. However, advancements have led to the inclusion of other methods like gas furnaces in some hybrid systems. Integrating a smart thermostat allows users to efficiently manage the auxiliary system, optimizing energy consumption and minimizing costs.
Understanding the function and control of the auxiliary heat system is critical for homeowners using a heat pump. The subsequent sections will detail specific aspects of using this feature with compatible smart thermostats, including configuration, troubleshooting, and optimization strategies to maximize energy savings and maintain a comfortable indoor environment.
1. Auxiliary Heat Function
The auxiliary heat function, when integrated with a smart thermostat, acts as a critical component of the overall heating system. Within an “amazon thermostat aux heat” setup, this function dictates when a secondary heat source activates to supplement the primary heat pump. This activation typically occurs when the thermostat detects a significant difference between the setpoint temperature and the actual room temperature or when the outdoor temperature falls below a pre-defined threshold. A primary benefit is ensuring a consistent and comfortable indoor environment during periods of extreme cold when the heat pump alone cannot adequately maintain the desired temperature. For example, if a user sets the thermostat to 70F, and the room temperature is 65F while the outdoor temperature is below freezing, the auxiliary heat will engage to rapidly raise the room temperature.
The “amazon thermostat aux heat” system leverages sophisticated algorithms and user-configurable settings to manage the auxiliary heat function intelligently. Users can often set temperature thresholds, define activation delays, and monitor the runtime of the auxiliary heat to optimize energy usage. A key feature is the ability to prevent the auxiliary heat from activating unnecessarily, thereby reducing energy consumption and associated costs. For instance, a user might set a higher temperature differential for auxiliary heat activation to avoid its use during mildly cold days. Furthermore, the thermostat can provide data on auxiliary heat usage, allowing users to track their energy consumption patterns and make informed decisions about their heating strategies.
In summary, the auxiliary heat function is an integral part of any heat pump system aiming to deliver consistent comfort, especially when managed by a smart thermostat. The ability to precisely control the activation and duration of auxiliary heat usage through the “amazon thermostat aux heat” translates into significant energy savings and enhanced user comfort. Challenges remain in accurately predicting heating needs and optimizing settings for diverse climates and home insulation levels, however, understanding this core function enables users to better manage their heating and cooling systems for improved efficiency and comfort.
2. Temperature Threshold Settings
Temperature threshold settings within a smart thermostat system directly govern the activation of auxiliary heat. These settings dictate the precise conditions under which the thermostat engages the supplemental heating source to assist the primary heat pump, and are key to optimal energy efficiency within an “amazon thermostat aux heat” system.
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Differential Temperature Threshold
This setting defines the temperature difference between the thermostat’s setpoint and the actual room temperature required to trigger auxiliary heat. A larger differential will delay auxiliary heat activation, potentially saving energy if the heat pump can eventually meet the demand. Conversely, a smaller differential provides quicker heating but may consume more energy overall. For example, a setting of 2 degrees Fahrenheit means auxiliary heat engages only when the room is 2 degrees below the desired temperature.
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Outdoor Temperature Threshold
This threshold specifies an outdoor air temperature below which auxiliary heat automatically engages, regardless of the indoor temperature differential. This is crucial in climates where heat pumps become increasingly inefficient at lower temperatures. Setting this appropriately prevents the heat pump from struggling unnecessarily, leading to potential damage and increased energy consumption. For instance, if the outdoor temperature drops to 20F, the auxiliary heat would activate, even if the indoor temperature is close to the setpoint.
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Adaptive Learning Algorithms
Advanced smart thermostats employ adaptive learning algorithms that analyze historical heating patterns and outdoor temperature data to automatically adjust temperature threshold settings. This automation optimizes auxiliary heat usage based on real-world performance, minimizing energy consumption without sacrificing comfort. These algorithms learn how quickly a home loses heat at different outdoor temperatures and set thresholds dynamically.
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Manual Override and User Preferences
While automation exists, users retain the ability to manually override or fine-tune temperature threshold settings to align with individual comfort preferences or specific heating needs. This level of control allows personalized optimization, considering factors such as home insulation, occupancy patterns, and energy cost considerations. Manual adjustment ensures that the “amazon thermostat aux heat” adapts to individual circumstances.
The interrelation of these temperature threshold settings is critical for the efficient and comfortable operation of an “amazon thermostat aux heat” system. Proper configuration ensures that auxiliary heat activates only when necessary, preventing energy waste and maintaining optimal indoor conditions. Furthermore, understanding these settings empowers users to make informed decisions about their heating strategies.
3. Activation Delay
Activation delay, when implemented within an “amazon thermostat aux heat” system, serves as a crucial mechanism for optimizing energy efficiency and preventing the unnecessary engagement of supplementary heating. This feature introduces a deliberate pause between the call for heat and the activation of the auxiliary heating element.
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Heat Pump Response Time
Activation delay allows the primary heat pump sufficient time to respond to a heating demand before engaging the auxiliary system. The heat pump often requires a period to ramp up its heating output. Premature activation of auxiliary heat can lead to energy waste if the heat pump is capable of satisfying the demand independently within a reasonable timeframe. For example, a delay of 10 minutes might be implemented to allow the heat pump to increase output without the added boost.
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Preventing Short Cycling
Rapid and frequent switching between the heat pump and auxiliary heat, known as short cycling, can reduce the lifespan of both systems. Activation delay mitigates this by preventing the auxiliary heat from kicking in for minor temperature fluctuations. This results in reduced wear and tear on components and promotes system longevity. Consider a situation where a door is briefly opened; the delay prevents auxiliary heat from immediately engaging for a minor, transient temperature drop.
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Energy Consumption Management
By reducing the reliance on auxiliary heat, which is typically less energy-efficient than the heat pump, activation delay contributes significantly to energy savings. It ensures that the auxiliary system is only utilized when absolutely necessary, optimizing the overall energy performance of the heating system. In colder climates, this careful management of the secondary heating is critical to minimizing heating costs.
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User Customization and Optimization
Smart thermostats typically offer adjustable activation delay settings, allowing users to tailor the system to their specific needs and home characteristics. Factors such as home insulation, heat pump efficiency, and climate conditions influence the optimal delay duration. A well-insulated home might benefit from a longer delay as the heat pump is more likely to meet the demand, while a poorly insulated home might require a shorter delay for faster heating.
In summary, the activation delay feature is an essential component of an “amazon thermostat aux heat” system. Through controlled and strategic activation, this function promotes energy efficiency, system longevity, and optimized heating performance. This ensures users experience both comfort and cost-effectiveness in their heating strategies.
4. Runtime Monitoring
Runtime monitoring within an “amazon thermostat aux heat” system provides critical insights into the operational performance of the auxiliary heating component. This continuous tracking of the duration the auxiliary heat is active offers data-driven feedback on system efficiency and potential areas for optimization. Excessive runtime may indicate an undersized heat pump, inadequate insulation, or inefficient thermostat settings. Conversely, minimal runtime suggests the heat pump adequately handles heating demands, maximizing energy savings. For example, if runtime monitoring reveals the auxiliary heat operates for an average of 6 hours daily during winter months, it warrants further investigation into insulation deficiencies or the potential need for a more powerful heat pump. This data is essential for informed decision-making regarding home energy efficiency.
Practical applications of runtime monitoring extend to proactive maintenance and troubleshooting. Anomalies in runtime patterns, such as a sudden increase despite consistent outdoor temperatures, can signal equipment malfunctions or impending failures. This early detection allows for timely repairs, preventing more costly damages and ensuring continuous heating functionality. Many smart thermostats provide historical runtime data, enabling users to analyze trends and identify recurring issues. By regularly reviewing this data, homeowners can optimize thermostat settings to balance comfort and energy conservation. Energy audits that leverage runtime data can also lead to targeted improvements, such as sealing drafts or upgrading insulation, further reducing auxiliary heat dependence.
In conclusion, runtime monitoring is an indispensable element of the “amazon thermostat aux heat” ecosystem. By providing quantifiable data on auxiliary heat usage, it empowers users to diagnose inefficiencies, optimize settings, and proactively address potential system issues. While challenges may exist in accurately interpreting runtime data without considering external factors (e.g., sudden temperature drops), the insights gained are crucial for maximizing energy efficiency and ensuring the long-term performance of the heating system. This data-driven approach aligns with the broader goal of smart home technology: to provide actionable information that improves energy management and enhances overall comfort.
5. Emergency Heat Mode
Emergency Heat Mode represents a distinct operational setting within an “amazon thermostat aux heat” system, designed for specific scenarios where the primary heat pump encounters critical failure or severe performance degradation. Understanding its function and appropriate usage is vital for maintaining consistent heating and preventing further system damage.
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Purpose and Activation
Emergency Heat Mode bypasses the heat pump entirely, relying solely on the auxiliary heating system for warmth. It should only be activated when the heat pump is confirmed to be non-functional, as continued reliance on auxiliary heat alone significantly increases energy consumption and operational costs. Activation is typically manual, through a dedicated setting on the thermostat or associated mobile application.
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Energy Consumption Implications
Auxiliary heat systems, particularly those utilizing electric resistance coils, are inherently less efficient than heat pumps. Emergency Heat Mode, therefore, results in a substantial increase in energy usage. Extended use can lead to unexpectedly high utility bills. For example, if a heat pump malfunctions during a cold snap, continuously running in Emergency Heat Mode for several days could double or triple the heating costs compared to normal operation.
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Potential System Stress
Running the auxiliary heat system continuously in Emergency Heat Mode places significant stress on its components. Resistance coils can overheat, leading to premature failure. Wiring and electrical infrastructure may also be subjected to higher loads, potentially causing safety hazards. It is imperative to schedule prompt heat pump repair or replacement to minimize reliance on Emergency Heat Mode.
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Troubleshooting and Maintenance
Before engaging Emergency Heat Mode, verify the heat pump’s malfunction through basic troubleshooting steps, such as checking power supply and filter cleanliness. If the heat pump fails to resume operation, contact a qualified HVAC technician. Regularly scheduled maintenance can prevent heat pump failures and minimize the need for Emergency Heat Mode. Proper filter maintenance and coil cleaning optimize heat pump efficiency and extend its lifespan.
The connection between Emergency Heat Mode and the “amazon thermostat aux heat” lies in the thermostat’s control over both systems. While the thermostat aims to optimize energy efficiency through the heat pump, it also provides a safety net with Emergency Heat Mode. However, this safety net should be considered a short-term solution, prompting immediate attention to heat pump issues to prevent excessive energy consumption and potential system damage. Understanding the proper use and limitations of Emergency Heat Mode ensures responsible and efficient heating management.
6. Energy Consumption Data
Energy consumption data forms a critical feedback loop for optimizing the performance of “amazon thermostat aux heat” systems. The ability to accurately track and analyze energy usage allows for informed adjustments to thermostat settings, improved energy efficiency, and ultimately, reduced operating costs. Without this data, efficient management of the auxiliary heating system becomes significantly more challenging.
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Real-time Monitoring and Reporting
Smart thermostats provide real-time or near real-time monitoring of energy consumption associated with auxiliary heat. This allows users to observe the immediate impact of thermostat adjustments on energy usage. For instance, lowering the temperature setpoint can result in a measurable reduction in auxiliary heat runtime, immediately reflected in the energy consumption data. This immediate feedback encourages proactive energy management.
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Historical Data Analysis
Thermostats store historical energy consumption data, providing a longitudinal view of heating patterns. Analyzing this data reveals trends and anomalies that can indicate potential issues. For example, a sudden spike in auxiliary heat usage despite consistent outdoor temperatures might signal insulation problems or a malfunctioning heat pump. Historical data facilitates data-driven troubleshooting and informed maintenance decisions.
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Comparative Analysis
Smart thermostats often enable comparative analysis of energy consumption data across different time periods, such as comparing usage month-to-month or year-to-year. This reveals the effectiveness of energy-saving strategies or the impact of seasonal changes. For example, comparing auxiliary heat usage after upgrading insulation can quantify the energy savings achieved. Comparative analysis provides concrete evidence of energy efficiency improvements.
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Integration with Energy Management Systems
Energy consumption data from smart thermostats can be integrated with broader home energy management systems. This allows for a holistic view of energy usage across all appliances and systems. For example, correlating thermostat data with weather patterns and electricity pricing enables automated adjustments that optimize energy consumption based on real-time conditions. Integration maximizes overall energy efficiency and cost savings.
The strategic utilization of energy consumption data is paramount to maximizing the benefits of an “amazon thermostat aux heat” system. Accurate monitoring, historical analysis, and integration with broader energy management tools empower users to optimize thermostat settings, identify inefficiencies, and proactively manage their heating costs, leading to significant and quantifiable energy savings.
7. Scheduling Options
Scheduling options within a smart thermostat interface represent a crucial component for optimizing energy consumption in “amazon thermostat aux heat” systems. Properly configured schedules minimize the unnecessary activation of auxiliary heat, reducing energy costs and improving overall heating efficiency. Intelligent scheduling adapts heating patterns to occupancy and external conditions.
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Occupancy-Based Scheduling
Occupancy-based scheduling aligns heating with actual presence in the home. During periods of absence, the thermostat lowers the setpoint temperature, reducing the demand on the primary heat pump and auxiliary heat. Upon anticipated return, the thermostat proactively raises the temperature, ensuring comfort upon arrival. This prevents heating an empty house, significantly decreasing energy waste. For example, if a home is unoccupied during work hours, the temperature can be lowered by several degrees, triggering auxiliary heat only shortly before the occupants are expected to return.
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Time-of-Day Scheduling
Time-of-day scheduling allows users to define specific temperature setpoints for different times of the day. This is particularly effective when electricity rates fluctuate throughout the day. The thermostat can be programmed to reduce reliance on auxiliary heat during peak rate periods. For instance, if electricity rates are higher in the morning, the schedule can be adjusted to minimize auxiliary heat usage during that time, shifting heating demand to off-peak hours.
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Adaptive Scheduling
Advanced smart thermostats employ adaptive scheduling algorithms that learn from user behavior and environmental conditions. These algorithms automatically adjust the heating schedule to optimize energy efficiency. For example, the thermostat might learn that a user consistently adjusts the temperature upward in the evening and proactively incorporate this adjustment into the schedule. Adaptive scheduling refines heating patterns over time, ensuring continuous optimization.
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Vacation Scheduling
Vacation scheduling provides a mechanism for significantly reducing energy consumption during extended absences. The thermostat can be programmed to maintain a very low temperature setpoint for the duration of the vacation, preventing freezing and minimizing energy waste. The system automatically resumes the normal heating schedule upon the user’s return. This feature ensures that energy is not expended heating an unoccupied home for an extended period, contributing to substantial savings.
The integration of scheduling options with “amazon thermostat aux heat” empowers users to proactively manage their heating costs and environmental impact. Effective scheduling minimizes the runtime of auxiliary heat, maximizing energy efficiency and promoting a more sustainable approach to home heating. These scheduling mechanisms create a synergy that not only benefits homeowners financially but also aligns with broader environmental goals by reducing energy consumption.
8. Remote Control Access
Remote control access significantly enhances the functionality and convenience of an “amazon thermostat aux heat” system. This capability enables users to manage their home’s heating, including the auxiliary heat component, from virtually any location with an internet connection. The connection arises because the smart thermostat’s core value proposition centers on providing control and monitoring beyond the confines of the home itself. This means that if unexpected temperature drops are anticipated, users can remotely activate or adjust the auxiliary heat settings to preemptively maintain a comfortable indoor environment. Without remote access, users would be limited to managing their heating system only when physically present, negating a key benefit of smart thermostat technology.
The importance of remote access is further underscored by real-life examples. Consider a situation where a homeowner is traveling and learns of an impending cold snap affecting their residence. Through remote access, the homeowner can adjust the thermostat to engage auxiliary heat, preventing pipes from freezing and minimizing potential property damage. Similarly, remote access allows monitoring of energy consumption, enabling users to identify periods of excessive auxiliary heat usage and make informed adjustments. This could include modifying temperature schedules or investigating potential insulation deficiencies. Furthermore, remote troubleshooting is facilitated; for instance, a homeowner can remotely verify if the auxiliary heat is functioning correctly and contact a technician with detailed system information prior to their arrival.
In summary, remote control access is an integral element of the “amazon thermostat aux heat” experience. It provides the ability to proactively manage heating, mitigate potential damage, and monitor system performance regardless of location. While challenges relating to internet connectivity and security protocols remain, the benefits of remote access substantially outweigh the drawbacks, solidifying its importance within the “amazon thermostat aux heat” ecosystem.
9. Alert Notifications
Alert notifications are a critical component of smart thermostat systems, providing timely and informative updates regarding the operation of the heating system, particularly the auxiliary heat function. These notifications enable proactive monitoring and intervention, ensuring efficient energy usage and preventing potential system malfunctions within an “amazon thermostat aux heat” setup.
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Excessive Auxiliary Heat Runtime
Alerts triggered by extended auxiliary heat operation indicate potential system inefficiencies. For example, if the auxiliary heat runs continuously despite moderate outdoor temperatures, an alert can prompt investigation into issues such as inadequate insulation, an undersized heat pump, or incorrect thermostat settings. This proactive notification prevents prolonged energy waste and potential system damage.
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Temperature Threshold Exceeded
Notifications generated when the indoor temperature deviates significantly from the setpoint, despite auxiliary heat activation, signal a potential problem. Such alerts might indicate a malfunctioning auxiliary heating element or an issue with the heat pump’s primary function. These immediate notifications allow for swift corrective action, preventing discomfort and potential equipment damage.
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System Malfunction Alerts
Smart thermostats can be programmed to detect and report system malfunctions, such as sensor failures or communication errors, directly related to the auxiliary heat component. For example, an alert notifying of a faulty temperature sensor prevents reliance on inaccurate data, ensuring the auxiliary heat system operates based on correct readings. This minimizes inefficient energy usage and prevents potential system damage.
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Low Temperature Warnings
Alerts triggered by excessively low indoor temperatures, especially during periods when the heating system should be active, can indicate a critical failure. For instance, a notification alerting to a rapid temperature drop despite auxiliary heat engagement allows homeowners to take immediate action, such as contacting an HVAC technician or taking steps to prevent frozen pipes. These timely warnings safeguard against property damage and ensure continued heating functionality.
Alert notifications are an integral aspect of an “amazon thermostat aux heat” system, offering a proactive approach to system management. These alerts provide valuable insights into system performance and potential issues, facilitating timely intervention, preventing energy waste, and safeguarding against costly repairs. The absence of such notifications would result in delayed awareness of critical system issues, leading to inefficiencies, increased energy consumption, and potential property damage. In summary, a robust notification system is essential for realizing the full benefits of a smart thermostat with auxiliary heat control.
Frequently Asked Questions
This section addresses common inquiries regarding the auxiliary heat functionality within compatible smart thermostat systems, clarifying operation, efficiency, and troubleshooting aspects.
Question 1: What constitutes “aux heat” within the context of an “amazon thermostat aux heat” system?
Auxiliary heat is a supplemental heating source that activates when the primary heat pump cannot adequately meet the heating demand, typically during periods of low outdoor temperatures or rapid temperature increases. This secondary system ensures consistent comfort but generally operates at a lower energy efficiency than the heat pump.
Question 2: How does an “amazon thermostat aux heat” determine when to engage auxiliary heat?
The thermostat utilizes pre-defined temperature thresholds and algorithms to determine the necessity for auxiliary heat. Factors such as the difference between the setpoint temperature and the actual room temperature, the outdoor temperature, and the heat pump’s performance inform this decision. User-configurable settings further refine this behavior.
Question 3: Can the auxiliary heat be disabled completely within an “amazon thermostat aux heat” system?
While disabling auxiliary heat is technically feasible, it is generally not recommended. Doing so may result in inadequate heating during extreme cold and potentially overwork the heat pump, reducing its lifespan. Strategic management of auxiliary heat through temperature thresholds and scheduling is a more effective approach.
Question 4: Why does my “amazon thermostat aux heat” appear to rely excessively on auxiliary heat?
Excessive auxiliary heat runtime can stem from several factors, including inadequate insulation, an undersized heat pump, incorrect thermostat settings, or malfunctioning equipment. Analyzing energy consumption data and consulting with an HVAC professional can diagnose the root cause.
Question 5: Is “emergency heat” the same as “aux heat” in an “amazon thermostat aux heat” system?
While both utilize the same auxiliary heating elements, “emergency heat” is a distinct mode intended solely for situations where the primary heat pump has completely failed. This mode bypasses the heat pump entirely and relies solely on auxiliary heat, resulting in significantly higher energy consumption. Its use should be limited to essential heating until the heat pump is repaired or replaced.
Question 6: How can I optimize energy efficiency related to auxiliary heat using an “amazon thermostat aux heat”?
Optimizing auxiliary heat efficiency involves several strategies, including adjusting temperature thresholds, implementing occupancy-based scheduling, monitoring energy consumption data, and ensuring proper home insulation. Regular maintenance of the heat pump further contributes to efficient operation.
In summary, understanding the functionality, settings, and potential issues related to auxiliary heat is crucial for maximizing comfort and minimizing energy costs with compatible smart thermostats. Proactive monitoring and informed adjustments are essential for optimal performance.
The following sections will explore advanced troubleshooting and diagnostic techniques for optimizing heating system performance.
Maximizing Efficiency
This section outlines practical strategies for optimizing the performance and energy efficiency of heat pump systems incorporating auxiliary heat, focusing on techniques applicable when using a compatible smart thermostat.
Tip 1: Optimize Temperature Thresholds: Carefully configure the temperature differential and outdoor temperature thresholds. A wider differential prevents unnecessary auxiliary heat activation during mildly cold periods. The outdoor temperature threshold should align with the heat pump’s performance curve, ensuring it’s activated only when the heat pump’s efficiency significantly declines. For example, if a heat pump becomes ineffective below 35 degrees Fahrenheit, set the outdoor threshold accordingly.
Tip 2: Implement Strategic Scheduling: Utilize the thermostat’s scheduling features to align heating patterns with occupancy. Lower the setpoint temperature during unoccupied periods, allowing the heat pump to maintain a lower temperature without auxiliary heat assistance. Ensure a gradual temperature increase prior to occupancy to minimize auxiliary heat usage.
Tip 3: Monitor Energy Consumption Data Regularly: Leverage the thermostat’s energy monitoring capabilities to track auxiliary heat runtime. Anomalies, such as a sudden increase in usage despite consistent outdoor temperatures, can indicate potential problems like insulation deficiencies or malfunctioning equipment. This data provides quantifiable feedback on system performance.
Tip 4: Inspect and Maintain System Components: Regularly inspect air filters and coils to ensure optimal airflow and heat exchange. Dirty filters restrict airflow, forcing the heat pump to work harder and increasing reliance on auxiliary heat. Clean coils enhance heat transfer efficiency. Schedule professional maintenance to identify and address potential issues early.
Tip 5: Assess and Improve Home Insulation: Adequate insulation minimizes heat loss, reducing the demand on both the heat pump and auxiliary heat. Seal drafts around windows and doors, and consider upgrading insulation in walls and attics. Proper insulation significantly reduces energy consumption and improves overall comfort.
Tip 6: Strategically Use Fan Settings: Experiment with different fan settings to optimize air circulation. A constant fan setting can help distribute heat more evenly, potentially reducing reliance on auxiliary heat. However, be mindful of increased energy consumption associated with continuous fan operation.
Implementing these strategies can significantly enhance the efficiency and performance of heat pump systems with auxiliary heat, reducing energy consumption and promoting a more sustainable heating approach. Consistent monitoring and proactive maintenance are essential for realizing long-term benefits.
The following section offers insights into advanced troubleshooting techniques that can address specific issues with auxiliary heat operation.
Conclusion
The preceding discussion has comprehensively explored the “amazon thermostat aux heat” functionality. Key aspects covered include its definition and operational parameters, the significance of temperature threshold settings, the impact of activation delay, runtime monitoring, emergency heat mode considerations, energy consumption data analysis, scheduling options, remote control access, and the importance of alert notifications. A thorough understanding of these elements is essential for effectively managing and optimizing heat pump systems incorporating auxiliary heat.
Effective management of “amazon thermostat aux heat” not only contributes to reduced energy consumption and lower utility costs but also promotes a more comfortable and sustainable living environment. Continued advancements in smart thermostat technology promise even greater precision and control over auxiliary heating systems, further enhancing energy efficiency and user experience. Proactive monitoring and informed adjustments remain crucial for realizing the full potential of these systems in the long term.
