CY-A200NA
CY TECH
Product Description
Cytech Energy Storage Container Air Conditioner is a state-of-the-art cooling solution designed to optimize the temperature regulation within energy storage containers. Engineered for efficiency and reliability, this air conditioning unit is essential for maintaining the optimal performance and longevity of your energy storage systems.
◆ Efficient rotor compressor: reliable and energy-saving
◆ Intelligent control: Power on self check and power on self start function, RS485 communication interface
◆ Digital tube display: on-site parameters can be set, and the temperature and operating status inside the cabinet can be displayed
◆ High protection level: Perfect for outdoor environments
◆ Configure external circulation air inlet screen to prevent willow catkins from blocking the radiator
◆ Upper air outlet structure: The air outlet can be connected to the air duct
◆ Environmentally friendly refrigerants: adding a touch of greenery to the Earth
◆ Optional functions: heating function, dehumidification function
Name | Technical parameter |
Model | CY-A200NA |
| Dimensions(Outdoor unit/Indoor unit) | WxHxD= 800 x 2100 x 703 mm ( 32 x 83 x 28 inch ) |
Main power supply | 3~380VAC±15% 50Hz |
Cooling capacity(Rated) | 20.0 KW@L35/L35 |
Power consumption(Rated) | 8.5 KW@L35/L35 |
Heating capacity（optional） | 9000W(Option) |
Surface treatment | Powder coating (RAL7035) |
Internal circulation air volume | 6000 m3/h |
Work temp. range | -40℃~+55℃ |
Noise | 72 dB(A) |
IP Grade | IP55, NEMA 4, NEMA 4X |
Net Weight | 210 KG |
Refrigerant | R410a |
Note：@L35/L35 is Internal temperature 35℃, ambient temperature 35℃
Cooling: the high-pressure refrigerant liquid in the system enters the evaporator and evaporates to absorb heat of the air in the cabinet, so the air is cooled, and the refrigerant that evaporates into gas in the evaporator is inhaled by the compressor and compressed into the high-pressure and high-temperature refrigerant gas, which enters the condenser and cooled to refrigerant liquid, and then re-enters the evaporator to cool the indoor air, and circulates accordingly.
Dimension
Installation
Please design and install the product according to the installation holes drawings below
| Item | Definition |
| 1 | DRY CONTACT－NC |
| 2 | DRY CONTACT－COM |
| 3 | DRY CONTACT－NO |
| 4 | RS485-A |
| 5 | RS485-B |
· It is strictly prohibited to turn the air conditioner upside down or lie flat during transportation or handling
· Install vertically and make sure the polarity of wiring is correct and firm.
· To avoid objects blocking the air circulation at the inlet and outlet of internal and external circulation.
When choosing an air conditioner for an energy storage container, several features are important to ensure optimal performance, safety, and energy efficiency. Here are some key features to consider:
High Energy Efficiency Ratio (EER) or Seasonal Energy Efficiency Ratio (SEER) ratings to reduce energy consumption.
Precise temperature control to maintain optimal conditions for the stored energy equipment.
Programmable thermostats for better temperature management.
Dehumidification capability to prevent moisture buildup, which can damage sensitive equipment.
Robust construction to withstand harsh environmental conditions.
Reliable components that require minimal maintenance.
Adequate BTU (British Thermal Units) rating to handle the specific heat load of the container.
Space-saving design to fit within the constraints of the container.
Easy to install and remove for maintenance or relocation.
Quiet operation to avoid disturbing nearby operations or personnel.
Capabilities for remote monitoring and control to allow for easy adjustments and troubleshooting.
Integration with building management systems (BMS) for centralized control.
Overload protection, high and low-pressure switches, and refrigerant leak detectors to prevent accidents.
Fire-resistant materials and components to enhance safety.
Use of eco-friendly refrigerants with low global warming potential (GWP).
Compliance with environmental regulations and standards.
Dual or backup systems to ensure continuous operation in case of a primary unit failure.
Accessible design for easy maintenance and repairs.
Clear indicators for system performance and issues.
Considering these features can help in selecting an air conditioner that will effectively and efficiently manage the climate within an energy storage container, ensuring the longevity and reliability of the stored equipment.
Options
Model | Voltage | Cooling capacity (rated)(W) | Power consumption(W) | Heater (W) (option) | Weight（KG） | Noise (dbA) |
CY-A30NA | 1~230V±15%/50Hz | 3000 | 1300 | 2000 | 45 | 69dB(A) |
CY-A50NA | 1~230V±15%/50Hz | 5000 | 1900 | 3000 | 50 | 69dB(A) |
CY-A75NA | 1~230V±15%/50Hz | 7500 | 2700 | 3000 | 75 | 69dB(A) |
CY-A100NA | 1~230V±15%/50Hz | 10000 | 3850 | 6000 | 100 | 69dB(A) |
CY-A125NA | 3~380V±15%/50Hz | 12500 | 4800 | 6000 | 120 | 69dB(A) |
CY-A150NA | 3~380V±15%/50Hz | 15000 | 5800 | 9000 | 130 | 69dB(A) |
CY-A200NA | 3~380V±15%/50Hz | 20000 | 7600 | 9000 | 150 | 69dB(A) |
Application
As demand for energy efficiency rises, embedded energy storage systems (EESS), such as embedded energy storage air conditioners (EESAC), are crucial. These systems integrate energy storage directly into air conditioning, improving functionality, reducing energy use, and lowering costs. They provide a stable power supply, making them ideal for applications like precision air conditioners for server rooms and energy storage cooling systems.
Battery Types: Lithium-ion, lead-acid, and advanced batteries.
Capacity: Ranges from a few kWh to hundreds of kWh.
Types: Split, central, or portable units.
Efficiency: High-efficiency compressors and advanced refrigerants.
Smart Controls: Real-time monitoring and energy optimization.
Integration: Connects with building management and smart home systems.
Power Electronics: Inverters, converters, and transformers for efficient power flow.
Communication: Synchronizes the air conditioner and energy storage system.
Energy Savings: Stores off-peak energy for use during peak times.
Backup Power: Ensures cooling during outages.
Demand Response: Reduces energy use during peak hours, earning incentives.
Operational Efficiency: Enhances HVAC reliability in buildings.
Process Cooling: Maintains consistent cooling for industrial processes.
Energy Management: Optimizes energy use in large facilities.
Reduced Consumption: Optimizes stored energy usage.
Peak Shaving: Cuts grid demand during peak hours.
Lower Utility Bills: Reduces energy costs and peak demand charges.
Incentives: Qualifies for energy efficiency rebates.
Backup Power: Provides cooling during outages.
Stable Operation: Maintains critical systems under fluctuating conditions.
Reduced Emissions: Lowers reliance on fossil fuel-based energy.
Sustainability: Supports renewable energy and sustainable practices.
Inverters: Convert DC to AC power.
Converters: Adjust voltage and current to system needs.
Transformers: Ensure safe power transmission.
Communication Modules: Enable real-time data exchange between systems.
Logistics: Timely delivery and secure packaging.
Installation: Professional setup and integration with infrastructure.
The integration of embedded energy storage in air conditioners offers a reliable, efficient solution for energy management. With advancements in battery tech and smart controls, EESAC systems enhance energy savings, cost efficiency, and system reliability, making them an ideal choice for critical environments like precision air conditioners for server rooms and energy storage cooling systems.
How to order
Choosing the right embedded energy storage air conditioner (EESAC) involves considering several factors to ensure it meets your specific needs and maximizes efficiency and cost savings. Here’s a comprehensive guide to help you make an informed decision:
◆ Size of the Area:
Determine the size of the area you need to cool. Air conditioners are rated by their cooling capacity, measured in BTUs (British Thermal Units). Ensure the EESAC is appropriately sized for your space.
◆ Cooling Load:
Consider the cooling load, which includes factors like insulation, number of windows, occupancy, and heat-generating appliances. This will help you determine the capacity required for efficient cooling.
◆ Battery Type:
· Lithium-ion: Offers higher energy density and longer cycle life but is more expensive.
· Lead-acid: More affordable but has a shorter lifespan and lower energy density.
· Other Technologies: Explore advanced options like flow batteries or solid-state batteries if they meet your needs.
◆ Storage Capacity:
Assess your energy usage patterns to determine the required storage capacity. Consider the duration of potential power outages and your peak energy consumption periods.
◆ Energy Efficiency Ratio (EER) and Seasonal Energy Efficiency Ratio (SEER)
Higher EER and SEER ratings indicate more efficient air conditioning systems. Look for units with high ratings to reduce energy consumption and costs.
◆ Inverter Technology
Inverter air conditioners adjust the compressor speed to maintain the desired temperature, resulting in significant energy savings compared to traditional fixed-speed units.
◆ Smart Controls
Look for units with smart thermostats and remote control capabilities. These features allow you to monitor and control the system via smartphone apps, optimizing energy usage.
◆ Integration with Home Automation:
Ensure the EESAC can integrate with existing home automation systems for seamless operation and improved energy management.
◆ Power Electronics:
Ensure the EESAC has high-quality inverters, converters, and transformers to manage electricity flow efficiently.
◆ Communication Modules:
Look for advanced communication modules that facilitate real-time data exchange and synchronization between the energy storage system, air conditioner, and the grid.
◆ Professional Installation:
Choose a unit that can be professionally installed by certified technicians to ensure optimal performance and safety.
◆ Maintenance Requirements:
Consider the ease of maintenance and availability of replacement parts. Regular maintenance is crucial for the longevity and efficiency of the system.
◆ Upfront and Operating Costs:
Compare the upfront costs of different units, keeping in mind that higher efficiency models may have higher initial costs but lower operating expenses.
◆ Incentives and Rebates:
Research available incentives and rebates for energy-efficient systems in your region. These can significantly offset the initial investment.
◆ Brand Reliability:
Choose reputable manufacturers known for producing high-quality, reliable air conditioning systems with embedded energy storage.
◆ Warranty and Support:
Ensure the unit comes with a comprehensive warranty and reliable customer support.
◆ Refrigerant Type:
Opt for units using eco-friendly refrigerants with low Global Warming Potential (GWP).
◆ Sustainability:
Consider the overall environmental impact, including the manufacturing process and recyclability of components.
Choosing the right embedded energy storage air conditioner involves balancing your cooling needs, energy storage requirements, efficiency, smart features, and budget. By carefully evaluating these factors and considering the manufacturer's reputation, installation, maintenance, and environmental impact, you can select an EESAC that provides reliable, efficient, and sustainable cooling for your space.
Fault state | Analysis of the reasons | Solutions |
Power on the switch, the energy storage container temperature is too high but the air conditioner is not working. |
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The air conditioner is running but the cooling effect is not good. |
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The machine is stopping suddenly, and the electric system is normal. |
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