Baywa Re Solar Energy Systems - Pure Sine Wave Power Inverter with Battery Charger 5KW

Baywa Re Solar Energy Systems - Pure Sine Wave Power Inverter with Battery Charger 5KW System 1

Baywa Re Solar Energy Systems - Pure Sine Wave Power Inverter with Battery Charger 5KW

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Loading Port:: Tianjin

Payment Terms:: TT OR LC

Min Order Qty:: 10 pc

Supply Capability:: 10000 pc/month

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Specifications

DC to AC power inverter
Pure sine wave
with battery charger
standard LCD display
Battery charge current can be manually set

DC TO AC INVERTER

PURE SINE WAVE WITH BATTERY CHARGER

Advantages

> Ultra-fast transfer timeFrom AC to DC less than 5ms,
> From DC to AC 0ms (Routers, Switches PC, Servers and ATM machine will never re-start at Mains failure)
> Faster battery recharge time (Big charge current 30A~50A)
> Automatic tracking mains or generator input (Tracking input voltage, phase & frequency)
> AC / DC conversion waveform (Seamless connection without any spike)
> Battery equalization system (for longer battery life)
> Protection against short-circuit, low voltage, overload, over temperature and over-charge

> Low maintenance cost, LED & LCD Dual display

Application range

Computer, Telecom, Deep Freezers, Air Conditioners, Petrol pump machines, Small Scale Industries Malls, Hotels,
Restaurants, Banks, ATM Machines, Clinics, All kinds of Kitchen appliances & Home appliances, Weighing bridges,
Elevators etc.

Technical Specification

PRC-PSW SERIES	500VA	1000VA	1500VA	2000VA	3000VA	4000VA	5000VA	6250VA
POWER CAPACITY	400W	800W	1200W	1600W	2400W	3200W	4000W	5000W
BATTERY DC VOLTAGE	12V/24V/48V			24V/48V
INPUT AC RANGE	140~280V / 45~55Hz			165~275V / 45~55Hz
INVERTER OUTPUT	220V ± 10% / 50Hz ± 1%			Without AVR function
TRANSFER (AC LOSS)	5ms after AC loss, automatic recovery after utility power back
WAVE DISTORTION	THD < 3%
OVER LOAD CAPACITY	100% ~ 125% Keep Beeping; > 125% working 30s; >150% 1s shut down
OUTPUT SOCKET	terminal connectors
INDICATOR STATUS	Utility input with "POWER" & "BYPASS" light on
	Utility power loss with "INVERTER" light on
	Connected with load "AC OUTPUT" light on
	Warning for battery low & over load with " ! " flashing
	Battery low protection, over load protection, short circuit protection with " ! " light on
BATTERY CAPACITY	From left to right 4 indicator means 100%, 75%, 50%, 25% (" ! "Flashing)
CHARGE STATUS	Indicator flash change from 50% →75% → 100% every 1second means "CONSTANT CURRENT"
	Indicator flash change from 50% →75% → 100% every 2second means "CONSTANT VOLTAGE"
	Indicator 50%/75%/100% 3lights on means "FLOAT CHARGE" & battery full
CHARGE CURRENT	Maximum 12V 30A / 24V 20A / 48V 10A			Maximum 24V 50A or 48V 30A
	10A → 20A → 30A Adjustable			10A → 30A → 50A Adjustable
RECHARGE TIME	8~10hours
POWER EFFICIENCY	88% at full load		85% at full load
NOISE CONDITION	< 45dB
TEMPERATURE	—10°C ~ 40°C (Operation environment); —20°C ~ 50°C (Stock environment)
HUMIDITY	0~95% no condensation
SIZE OF INVERTER	550 x 250 x 200mm			650 x 250 x 200 mm				68x31x28cm
SIZE OF PACKAGE	58x28x23cm / 1unit			68x28x23cm / 1unit				71x34x31cm
TYPE OF PACKAGE	Honeycomb carton
WEIGHT OF INVERTER	11kg	13kg	14kg	25kg	27kg	38kg	39kg	47kg
WEIGHT AFTER PACKAGING	13kg	15kg	16kg	27kg	29kg	40kg	41kg	49kg

Advantages

CPU control, Low frequency

Pure sine wave output

5ms transfer time for AC to DC

Input voltage range 80V~140V/160V~265V

Input frequency range 45~55Hz/55~65Hz

Easy to install, easy to use

Intelligent automatic charging

Compatible with generators

Using line interactive circuit technology

Automatically AC bypass

Software & SNMP card optional with adding cost

Electronic Protections

Overload, short circuit protection

Over temperature protection

Over voltage, low voltage protection

Low battery protection

Pure Sine Wave Power Inverter with Battery Charger 5kw

Q: How do solar energy systems impact the electricity transmission infrastructure?: Solar energy systems can have a significant impact on the electricity transmission infrastructure by reducing the demand for conventional power generation and decreasing the need for transmission and distribution infrastructure investments. Additionally, solar energy systems can enhance grid resilience, as distributed generation can continue to supply electricity during disruptions or outages. However, the intermittent nature of solar power can also pose challenges to grid stability and require grid upgrades to accommodate the integration of large-scale solar installations.

Q: What is the impact of shading from nearby trees or buildings?: The impact of shading from nearby trees or buildings can vary depending on the specific situation. In general, shading can provide relief from direct sunlight, reducing heat gain and providing a more comfortable environment. However, excessive shading can limit the amount of natural light entering a space, potentially leading to dark and gloomy interiors. Additionally, shading can affect the growth and health of plants, as they may not receive adequate sunlight for photosynthesis. Proper management of shading is crucial to balance the benefits of shade with the potential drawbacks.

Q: Can a solar energy system be installed on a community center or clubhouse?: Yes, a solar energy system can be installed on a community center or clubhouse. In fact, community centers and clubhouses are ideal locations for solar installations as they often have large rooftops or open spaces that receive ample sunlight. Installing solar panels on these buildings can help reduce energy costs, provide a sustainable power source, and contribute to the community's environmental efforts.

Q: Can solar energy systems be used in powering research laboratories or scientific facilities?: Certainly, research laboratories and scientific facilities can utilize solar energy systems to provide power. Solar energy is a sustainable and renewable power source that can be harnessed through the utilization of photovoltaic (PV) panels or solar thermal systems. To power various equipment such as microscopes, spectrometers, centrifuges, and other specialized scientific instruments, research laboratories and scientific facilities often require a substantial amount of electricity. By installing solar panels on the roofs or surrounding areas of these facilities, they can generate electricity from sunlight. The electricity generated by solar panels can directly power the laboratory's equipment, reducing their dependence on traditional fossil fuel-based electricity sources. Furthermore, any excess energy produced by the solar panels can be stored in batteries or returned to the grid, ensuring a continuous and reliable power supply. Using solar energy in research laboratories and scientific facilities offers several advantages. Firstly, it helps diminish greenhouse gas emissions and mitigates the environmental impact of these facilities. Solar power is clean and does not generate harmful pollutants, making it an environmentally friendly substitute for conventional electricity sources. Additionally, solar energy systems can provide a stable and cost-effective power source in the long term. While the initial installation costs may be higher, solar panels have a lengthy lifespan and require minimal upkeep. This can result in significant savings on electricity bills over time, enabling research laboratories and scientific facilities to allocate their resources towards other essential research activities. Moreover, solar energy systems can enhance the resilience and reliability of power supply to these facilities. In regions prone to power outages or with unreliable electricity grids, solar panels combined with battery storage can serve as a backup power source, guaranteeing uninterrupted operation of critical scientific equipment. In conclusion, solar energy systems can indeed be utilized to power research laboratories and scientific facilities. They offer numerous environmental, economic, and operational advantages, making them a feasible and sustainable choice for meeting the energy requirements of these vital scientific institutions.

Q: How does the angle of a solar panel affect its performance in different seasons?: The angle of a solar panel plays a crucial role in determining its performance in different seasons. The angle, also known as the tilt or inclination, refers to the angle at which the solar panel is positioned relative to the ground. In general, the optimal angle of a solar panel varies depending on the geographical location and the time of year. In regions closer to the equator, where the sun is more directly overhead throughout the year, the optimal angle is usually closer to 0 degrees (horizontal) or a slight tilt towards the equator. During the summer solstice, when the sun is at its highest point in the sky, a solar panel with an optimal tilt angle will receive maximum sunlight and achieve peak performance. This is because the sun's rays are more perpendicular to the panel's surface, resulting in higher solar energy absorption. In contrast, during the winter solstice, the sun is at a lower angle in the sky, resulting in less direct sunlight. In this scenario, a solar panel with a steeper tilt angle can help capture more sunlight by ensuring that the panel is more perpendicular to the sun's rays. By adjusting the angle to be more vertical, the panel can maximize its exposure to sunlight and maintain a higher level of performance. In regions with distinct seasonal changes, it may be beneficial to utilize an adjustable mounting system that allows for the optimization of the solar panel's angle throughout the year. This enables the panel to be tilted towards the optimal angle for each season, ensuring a more consistent and efficient energy generation. However, it's important to note that the performance of a solar panel is influenced by various factors other than just the angle, including weather conditions, shading, and the efficiency of the solar cells themselves. Therefore, while the angle is a crucial factor to consider, it should be taken into account alongside other parameters when designing an effective solar power system.

Q: Can solar energy systems be used in areas with limited access to solar energy insurance coverage?: Yes, solar energy systems can still be used in areas with limited access to solar energy insurance coverage. While insurance coverage may provide financial protection in case of damage or malfunction, it is not a requirement for the installation and operation of solar energy systems. However, it is advisable to thoroughly assess potential risks and consider alternative risk management strategies in the absence of proper insurance coverage.

Q: Are there any tax credits available for installing a solar energy system?: Yes, there are tax credits available for installing a solar energy system. The federal government offers a Solar Investment Tax Credit (ITC) that allows homeowners and businesses to deduct a percentage of the system's cost from their taxes. Additionally, some states and local governments may also offer their own tax incentives for solar installations.

Q: Can solar energy systems be installed on sloped roofs?: Yes, solar energy systems can be installed on sloped roofs. In fact, sloped roofs are quite common for solar panel installations. The angle and orientation of the roof are important factors in determining the efficiency of the solar energy system. Ideally, a sloped roof with a south-facing orientation will maximize the amount of sunlight exposure throughout the day. However, solar panels can still be installed on roofs with different orientations or slopes, albeit with some adjustments in panel placement and tilt angles. It is important to consult with a professional solar installer who can assess the specific roof conditions and design a customized solar energy system that works best for the slope and orientation of the roof.

Q: Are there any limitations to using solar energy for powering vehicles?: Yes, there are limitations to using solar energy for powering vehicles. One major limitation is the dependence on sunlight, which means solar-powered vehicles may not be suitable for regions with limited sunlight or during nighttime. Additionally, solar panels are bulky and require a large surface area to generate enough energy, making it challenging to fit them on small vehicles. The efficiency of solar panels is also affected by factors like dust, dirt, and shading, which can reduce their effectiveness. Furthermore, the cost of solar panels and their storage systems can be relatively high, making the initial investment expensive.

Q: How do solar energy systems affect the roof's lifespan?: Solar energy systems can actually extend the lifespan of a roof. The panels provide an additional layer of protection to the roof, shielding it from harmful elements like UV rays and extreme weather conditions. Additionally, the panels help to regulate the temperature of the roof, reducing thermal stress and preventing premature aging.

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