240 Volt PV Grid-Tied Solar Inverter 3000TL Competitive Price

240 Volt PV Grid-Tied Solar Inverter 3000TL Competitive Price System 1

240 Volt PV Grid-Tied Solar Inverter 3000TL Competitive Price

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PV Grid-tied Solar Inverter 3000TL Competitive Price

High-yield

•Max 97.1%efficiency

•Real timeprecise MPPT algorithm for max harvest

•Wide inputvoltage operation range from 90V to 500V

All in one. Flexible and economicalsystem solution

•Free siteselection due to IP65

•Easy installationand maintenance due to “Plug & Play” connection

•Interfaceselection-Wi-Fi/ RS485 / Dry Relay for more flexible

•configurationandsystem monitoring

•4” LCDdisplay

PV Grid-tied Solar Inverter 3000TL

Low maintenance cost

•Rust-freealuminumcovers

•Flexiblemonitoring solution

•Multifunctionrelay can be configured to show various inverter information

Intelligent gridmanagement

•Reactivepowercapability

•Self powerreduce when over frequency

•Remoteactive/reactivepower limit control

PV Grid-tied Solar Inverter 3000TL Datasheet

Technical Data	SOFAR 1100TL	SOFAR 1600TL	SOFAR 2200TL	SOFAR 2700TL		SOFAR 3000TL
Input (DC)
Max. Input Power	1100W	1600W	2200W	2700W		3000W
No. of MPPT / String per MPPT	1/1
Max. Input voltage	450V	450V	500V	500V	500V
Max. Input Voltage	80V
Rated input voltage	360V
Operating input voltage range	90V-400V		100V-480V
MPPT voltage range	110V-380V	165V-380V	170-450V	210-450V		230V-450V
Max. Input current per MPPT	10A		13A
Input short circuit current per MPPT	12A		15A
Output(AC)
Rated power(@230V,50Hz)	1000VA	1500VA	2000VA	2500VA		2800VA
Max. AC power	1000VA	1500VA	2000VA	2500VA		2800VA
Max. AC Output Current	4.5A	7A	9.5A	11.5A		13A
Rated Grid Voltage	230V
Nominal Grid Voltage Range	180V-270V(According to local standard)
Rated Frequency	50Hz / 60Hz
Grid frequency Range	44~55 / 54~66Hz(According to local standard)
THDi	<3%
Power factor Adjustable Range	0.8 over excited … 0.8 under excited
Grid connection	Single phase
Efficiency
Max. efficiency	97%			97.1%
Weighted eff.(EU/CEC)	96%			96.2%		96.3%
MPPT efficiency	>99.5%
Standard
EMC	EN 61000-6-1, EN 61000-6-2, EN 61000-6-3, EN 61000-6-4
RSSR	IEC 62109-1, IEC 62109-2
Grid Standards	AS4777, VDE4105, C10-C11, G83/G59 (more available on request)
Protection
Anti-Islanding Protection	Yes
DC reverse polarity protection	Yes
Over Temp Protection	Yes
Leakage Current Protection	Yes
Over Voltage Protection	Yes
Over Current Protection	Yes
Earth Fault Protection	Yes
Communication
Standard Communication Mode	Wifi+RS485
Operation Data Storage	25 years
Relay	Yes
I/O	Yes
General data
DC Switch	optional
Ambient temperature range	-25℃ ~ +60℃
Topology	Transformerless
Cooling	Nature
Allowable relative humidity range	0 ~ 95% no condensing
Max. Operating Altitude	2000m
Noise	<35dB @1m
Degree of Protection (per IEC 60529)	IP65
Dimension	400310130mm
Weight	11kg			12kg
Self-consumption at night	0
Display	Graphic display
Warranty	5 years

PV Grid-tied Solar Inverter 3000TL Competitive Price

Q: Can a solar inverter be used in a net metering system?: Yes, a solar inverter can be used in a net metering system. A solar inverter is an essential component of a net metering system as it converts the direct current (DC) produced by the solar panels into alternating current (AC) that can be used to power homes or businesses. It also allows for any excess electricity generated to be fed back into the grid, earning credits or reducing the electricity bill through the net metering arrangement.

Q: What is the importance of overcurrent protection in a solar inverter?: Overcurrent protection is of utmost importance in a solar inverter for several reasons. Firstly, solar inverters are responsible for converting the direct current (DC) generated by solar panels into alternating current (AC) that can be used to power electrical devices. During this conversion process, there is a risk of an overcurrent situation occurring, where the current flowing through the inverter exceeds its rated capacity. This can lead to overheating, damage to the inverter components, and even fire hazards. Secondly, overcurrent protection ensures the safety of the entire solar power system. By detecting and interrupting the flow of excessive current, it prevents damage to the solar panels, the inverter, and other connected electrical equipment. It also safeguards against electrical shocks and other potential hazards that could arise from an overcurrent situation. Furthermore, overcurrent protection plays a crucial role in maintaining the efficiency and performance of the solar inverter. When an overcurrent event occurs, the inverter can shut down or reduce its output to prevent further damage. This helps to avoid unnecessary downtime and ensures that the solar power system continues to operate at its optimum capacity. Moreover, overcurrent protection is essential for meeting regulatory and safety standards. Many countries and regions have specific guidelines and requirements regarding the installation and operation of solar power systems. Compliance with these standards is necessary to ensure the safety of personnel, protect the environment, and prevent any legal or financial liabilities. In conclusion, overcurrent protection in a solar inverter is critical for the safety, efficiency, and performance of the entire solar power system. It prevents damage to the inverter and other equipment, safeguards against hazards, and ensures compliance with regulatory standards. Therefore, it is essential to implement reliable and effective overcurrent protection mechanisms in solar inverters.

Q: Can a solar inverter be used in a solar-powered air conditioning system?: Yes, a solar inverter can be used in a solar-powered air conditioning system. A solar inverter is responsible for converting the direct current (DC) generated by solar panels into alternating current (AC) that is compatible with the electrical requirements of air conditioning systems. By using a solar inverter, the solar energy captured by the panels can be efficiently used to power the air conditioning system, making it a sustainable and eco-friendly solution.

Q: What is the importance of insulation resistance measurement in a solar inverter?: Insulation resistance measurement in a solar inverter is crucial as it helps ensure the safety and efficiency of the electrical system. By measuring the insulation resistance, any potential faults or deteriorations in the insulation can be detected, preventing electrical leakage or short circuits. This measurement also helps identify any insulation breakdowns that may compromise the performance and reliability of the solar inverter. Ultimately, insulation resistance measurement is essential for maintaining the integrity of the solar inverter and ensuring the safety of both the electrical system and the people using it.

Q: How do you calculate the maximum power point tracking efficiency for a solar inverter?: To calculate the maximum power point tracking (MPPT) efficiency for a solar inverter, you need to compare the actual power output of the inverter to the maximum power available from the solar panels. The formula for MPPT efficiency is: MPPT Efficiency = (Actual Power Output / Maximum Power Output) * 100 The actual power output is the power being delivered by the inverter to the load, which can be measured using a power meter. The maximum power output is the highest power that can be generated by the solar panels, which can be determined by conducting a performance test or referring to the manufacturer's specifications. By dividing the actual power output by the maximum power output and multiplying the result by 100, you can calculate the MPPT efficiency as a percentage. This efficiency metric helps evaluate how effectively the inverter is tracking the maximum power point of the solar panels, ensuring optimal energy conversion and utilization.

Q: How does a grid-tied solar inverter function?: A grid-tied solar inverter functions by converting the direct current (DC) generated by solar panels into alternating current (AC) that can be used to power appliances and feed back into the electrical grid. It synchronizes the AC power output with the grid's frequency and voltage, allowing excess electricity produced by the solar panels to be sent back to the grid, earning credits or reducing the homeowner's energy bill. It also ensures the system's safety by monitoring grid conditions and automatically shutting down during power outages.

Q: What is the difference between a centralized and decentralized solar inverter system?: A centralized solar inverter system refers to a setup where multiple solar panels are connected to a single inverter. In this system, all the panels are connected in series, and the combined DC (direct current) power generated by the panels is converted into AC (alternating current) power by the centralized inverter. On the other hand, a decentralized solar inverter system, also known as microinverters or power optimizers, involves each solar panel having its own dedicated inverter. In this system, each panel operates independently, converting its DC power into AC power directly at the panel level. The main difference between the two systems lies in their architecture and the way power conversion occurs. In a centralized system, the entire array's power output is dependent on the performance of a single inverter. If any one panel in the array underperforms due to shading or malfunction, it can significantly impact the overall system's performance. Additionally, the use of a single inverter can create limitations in terms of design flexibility and system scalability. In a decentralized system, each panel operates independently, allowing for greater flexibility and optimization. The individual inverters in a decentralized system can maximize the power output of each panel, regardless of shading or performance variations. This also means that the overall system performance is less impacted by the underperformance of a single panel. Moreover, decentralized systems offer greater scalability as additional panels can be easily added without the need for significant system redesign. Decentralized systems also provide enhanced monitoring capabilities, as each inverter can provide real-time data on individual panel performance. This allows for easier troubleshooting, maintenance, and identification of any issues within the solar array. In summary, while a centralized solar inverter system is a simpler and more cost-effective option, a decentralized system offers better optimization, scalability, monitoring, and performance reliability. The choice between the two systems depends on factors such as system size, shading conditions, budget, and desired level of control and flexibility.

Q: What are the safety features of a solar inverter?: The safety features of a solar inverter typically include protection against overvoltage, overcurrent, and short-circuit conditions. They also often have built-in ground fault protection and insulation monitoring to detect any faults in the system. Additionally, many solar inverters have anti-islanding features to prevent them from operating during a power outage, ensuring the safety of utility workers.

Q: What is the role of a fault detection system in a solar inverter?: The role of a fault detection system in a solar inverter is to monitor the performance and integrity of the inverter and solar panel system. It detects and identifies any abnormalities or malfunctions within the system, such as voltage fluctuations, short circuits, or overheating. By promptly identifying and reporting faults, the system helps ensure the safe and efficient operation of the solar inverter, preventing potential damage and maximizing the overall energy generation.

Q: What are the main components of a solar inverter system?: The main components of a solar inverter system include the solar panels, the inverter itself, a charge controller, batteries (if it is an off-grid system), and the electrical wiring and connections.

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