Solar Generator Intelligent Inverter with Charger

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50 pc
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100000 pc/month
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Solar Generator Intelligent Inverter with Charger

 

Feature

XZ-NK New intelligent inverter with built in controller realize to combine display of inverter and solar controller, which is different with tranditional solar generator.
2.With great function,display the parameter of solar controller and inverter at the same time, includes grid voltage, frequency, input voltage, input frequency, input wattage,output load precent,battery capacity precent,PV voltage, battery voltage, charge current,PV power, daily power generation, total power generation etc; 
3.Realize customer self setting PV priority or Battery priority, setting of battery type,charge voltage, charge current, charge limit and so on; 
4.Have time colock, timing turn on and off, keep record of fault, fault query more function. 
5.Also with normal funtion of inverter, like protection against battery under voltage,over-voltage,overload,short circuit.


Aplication:
Mobile Charge,PC,Lighting Fixture,TV, Fan,Refrigerator,washing machine,air condition, water pump,safety products, professional tool, equipment etc any wattage electrical appliance.

 

 

Solar Generator Intelligent Inverter with Charger

 

Solar Generator Intelligent Inverter with Charger

 

Solar Generator Intelligent Inverter with Charger

 

 

Product Parameter

 

Specification:
Model XZ-NK50112-2010224-3020248-5050296-5070296-50103192-50153192-100203192-100
PV Charging MethodDirect Charge/PWM/MPPT
PV Max input current20A30A 50A 50A50A50A100A100A
PV Rated input voltage12VDC24VDC  48VDC     96VDC 96VDC192VDC192VDC192VDC
PV Max input wattage240W720W2400W4800W4800W9600W19200W19200W
PV Max input voltage18VDC36VDC  72VDC 144VDC 144VDC288VDC288VDC288VDC
PV Charging efficiency99%99%99%99%99%99%99%99%
Battery Rated input voltage12VDC24VDC48VDC96VDC96VDC192VDC192VDC192VDC
Battery input voltage range9VDC-18VDC18VDC-36VDC36VDC-72VDC84VDC-120VDC84VDC-120VDC168VDC-240VDC168VDC-240VDC168VDC-240VDC
Protection function
(PV Charge part
Reverse connection, short circuit, overcharge, anti charge protection
AC input voltage75VAC-125VAC Or 145VAC-275VAC
AC input frequency45HZ-65HZ
Invert output 110VAC±2% Or 220VAC±2%
Invert output Frequency50HZ±0.5HZ Or 60HZ±0.5HZ
DisplayLCD
Rated Capacity500W1000W2000W5000W7000W10000W15000W20000W
Inverter structure    Low Frequency Structure
no-load power consumption8W15W30W75W75W150w150W150W
Conversion efficiency≥85%
Mains input charging current0-15AAdjustable
Working modeAC first /PV first(Optional)
Conversion time≤4ms
Overload capacityOverload exceeds 110%automatic shutdown in 30 secsOverload exceeds 120%automatic shutdown in 2 secsUnder mains supply mode, it will not shutdown.
Output waveformPure sine wave
Work environmentTemperature0-40℃,Humidity10-90%
Thermal methodsForced Air Cooling 
Protection function
inverter part
mains over / under-voltage, higher DC current/ under-voltage, short circuit of inverter output 
Output waveform distortion≤3%
SizeProduct Size(mm)300×170×280422×225×360491×281×430580×350×700
Packing Sizemm)350×220×330472×275×410551×341×490660×410×740
KG8KG10KG18KG36KG48KG55KG75KG95KG
NoteAll specifications are subject to change without prior notice 


Q:
Yes, solar energy systems can be installed in urban areas. In fact, urban areas can be highly suitable for solar installations due to the availability of rooftops and open spaces on buildings. Additionally, advancements in solar technology have made it possible to integrate solar panels into urban infrastructure, such as solar-powered streetlights and parking meters. This allows urban areas to harness clean and renewable energy while utilizing available space efficiently.
Q:
Wildlife and ecosystems are affected by solar energy systems in both positive and negative ways. On the positive side, these systems do not release greenhouse gases or other pollutants, thus helping to combat climate change and decrease air and water pollution. This is advantageous for wildlife and ecosystems as it promotes a stable and healthy environment for their growth and prosperity. Additionally, solar energy systems require less water compared to fossil fuel power plants or hydropower, making them particularly effective in arid regions where water scarcity is a major issue. By reducing water consumption, solar energy systems preserve this valuable resource that is essential for the survival of various plant and animal species. Furthermore, solar energy systems can be installed on already disturbed or degraded lands, such as rooftops and brownfield sites, thereby minimizing the need for further destruction of habitats. This approach aids in the conservation of natural habitats and the protection of biodiversity by preventing the conversion of pristine lands into energy infrastructure. Nevertheless, it is important to acknowledge that solar energy systems can also have negative impacts on wildlife and ecosystems. During the construction and operation phases of large-scale solar installations, local ecosystems may be disrupted, leading to habitat fragmentation, displacement, or disturbance of certain species. Birds and other animals, for instance, may experience changes in their movement patterns and nesting habits due to vegetation clearing and the presence of large panels. Moreover, some solar energy systems utilize reflective surfaces that can create glare, potentially disorienting or blinding birds and insects. This can result in collisions or other adverse effects on their behavior and survival. To address these negative impacts, careful planning and siting of solar installations are crucial. Conducting environmental assessments to identify and avoid sensitive habitats and migratory routes is essential. Implementing measures such as bird-friendly designs, wildlife-friendly fencing, and planting native vegetation around solar installations can also help minimize the impacts and create habitats that are conducive to wildlife. In conclusion, while solar energy systems offer various environmental benefits, they can also have consequences for wildlife and ecosystems. However, by implementing proper planning and measures, the negative impacts can be minimized, and the positive impacts on climate change mitigation and pollution reduction will outweigh any potential harm.
Q:
Solar energy systems have a positive impact on the demand for fossil fuels as they reduce the need for using traditional energy sources. By harnessing the power of the sun to generate electricity, solar systems offer a clean and renewable alternative to fossil fuels, ultimately decreasing our dependency on them and mitigating the negative environmental consequences associated with their extraction and combustion.
Q:
Yes, solar energy systems can be installed in areas with extreme weather conditions. However, the performance and durability of the system may vary depending on the specific weather conditions. Proper design, installation, and maintenance can help ensure that solar systems can withstand extreme weather events such as hurricanes, snowstorms, or high winds. Additionally, advancements in solar technology have made it possible to adapt systems to various weather conditions, making solar energy a viable option in areas with extreme weather.
Q:
Yes, solar energy systems can definitely be used for powering sports stadiums or arenas. These systems can be installed on rooftops, parking lots, or surrounding areas to generate clean and sustainable electricity. The large surface area of stadiums and arenas provides ample space for solar panels, allowing them to generate a significant amount of energy. Moreover, the high energy demands of these venues make solar energy an attractive and cost-effective solution. Many sports stadiums around the world have already implemented solar energy systems to reduce their carbon footprint and reliance on traditional energy sources.
Q:
Yes, solar energy systems can still be used in areas with limited space on rooftops due to existing equipment or structures. In such cases, alternative solutions can be employed to maximize the utilization of available space. One option is to install solar panels on ground-mounted systems instead of rooftops. These systems can be placed in open areas adjacent to buildings or even on unused land nearby. Additionally, solar canopies or awnings can be installed in parking lots or other open spaces to generate solar power. These structures can be designed to provide shade and shelter while simultaneously harnessing solar energy. Thus, even in areas with limited rooftop space, there are various creative options available to implement solar energy systems.
Q:
Yes, solar energy systems can be used for charging electric vehicles. Solar panels can be installed on rooftops or in open spaces to harness sunlight and convert it into electricity. This electricity can then be used to charge electric vehicle batteries, providing a sustainable and renewable source of energy. Additionally, with advancements in technology, solar-powered charging stations are being developed to further facilitate the use of solar energy for electric vehicle charging.
Q:
Yes, solar energy systems can be used for transportation. Solar-powered vehicles, such as solar cars, solar boats, and solar planes, have been developed and successfully used for transportation purposes. These vehicles harness the energy from the sun through solar panels, converting it into electricity to power their propulsion systems. While solar energy may have limitations in terms of efficiency and range, advancements in technology are continuously improving the viability of solar-powered transportation.
Q:
Indeed, electric vehicle solar charging canopies can rely on solar energy systems for power. By incorporating solar panels into the canopy structure, sunlight can be captured and transformed into electrical energy. Consequently, this energy can be employed to charge the batteries of electric vehicles parked beneath the canopy. Thus, this arrangement not only utilizes the sun's clean and sustainable energy but also offers a practical and eco-friendly solution for charging electric vehicles. Moreover, any surplus energy produced by the solar panels can be stored in batteries or redirected to the grid, further amplifying the environmental advantages of this system.
Q:
The role of combiner boxes in a solar energy system is to combine the output from multiple solar panels into a single output, which is then connected to the inverter. These boxes not only simplify the wiring process but also provide a centralized location for overcurrent protection and monitoring of the system's performance.

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