1. Energy Efficiency (SEER)
- Conventional: Typically do not exceed a SEER (Seasonal Energy Efficiency Ratio) of 12.
- Inverter: Always have a SEER higher than 12, offering greater energy efficiency.
2. Compressor Operation
- Conventional: Operates at maximum speed until the desired temperature is reached, then shuts off. It restarts when the temperature rises again.
- Inverter: Adjusts the compressor speed to maintain the desired temperature without turning off.
3. Energy Consumption
- Conventional: Frequent on/off cycles of the compressor waste energy.
- Inverter: Avoids these cycles by maintaining constant refrigerant pressure, improving energy efficiency.
4. Operational Noise
- Conventional: Louder due to the compressor’s constant start-and-stop at full power.
- Inverter: Quieter, as the compressor adjusts its speed based on demand.
5. Temperature Control
- Conventional: Temperature fluctuates within a noticeable range.
- Inverter: Maintains a more stable and comfortable temperature.
6. Electronic Interference
- Inverter: Can generate electronic interference in sensitive equipment, such as servers or medical devices in hospitals.
7. Voltage Sensitivity
- Inverter: More prone to damage from voltage fluctuations or power outages.
8. Initial Cost
- Conventional: More affordable upfront.
- Inverter: More expensive initially, but energy savings over time offset the higher cost.
9. Ease of Fault Diagnosis
- Conventional: Easier to diagnose issues due to simpler control systems.
- Inverter: Faults, especially in the electronic board, may require advanced diagnostic tools.
10. Repairs and Testing
- Conventional: Fewer electronic components, making repairs simpler.
- Inverter: Requires additional tools and specialized knowledge for testing and diagnostics.
11. Failure Probability
- Conventional: Lower likelihood of failures due to simpler design.
- Inverter: More electronic components increase the chance of faults, particularly in environments with electrical fluctuations.
