PARAMETER
TYPICAL ELECTRICAL CHARACTERISTICS
TYPICAL ELECTRICAL CHARACTERISTICS
AT STANDARD TEST CONDITIONS(STC)
STC:AM=1.5,irradiance1000W/m²,Component temperature25℃
AT STANDARD TEST CONDITIONS(STC)
STC:AM=1.5,irradiance1000W/m²,Component temperature25℃
Typical Type
Unit
JY1-72H505PC
JY1-72H510PC
JY1-72H515PC
JY1-72H520PC
JY1-72H525PC
JY1-72H530PC
JY1-t72H535PC
Typical Type
Unit
JY1-72H505PC
JY1-72H510PC
JY1-72H515PC
JY1-72H520PC
JY1-72H525PC
JY1-72H530PC
JY1-t72H535PC
Max-Power(Pm)
W
505
510
515
520
525
530
535
Max-Power(Pm)
W
505
510
515
520
525
530
535
Power Tolerance
W
0~+5W
Power Tolerance
W
0~+5W
Max-Operating Voltage(Vm)
39.80
39.95
40.10
40.24
40.40
40.55
40.70
Max-Operating Voltage(Vm)
39.80
39.95
40.10
40.24
40.40
40.55
40.70
Max-OperatingCurrent(m)
A
12.70
12.78
12.86
12.94
13.01
13.09
13.16
Max-OperatingCurrent(m)
A
12.70
12.78
12.86
12.94
13.01
13.09
13.16
OpenCircuitVoltage(Voc)
V
47.50
47.70
47.90
48.10
48.30
48.50
48.70
OpenCircuitVoltage(Voc)
V
47.50
47.70
47.90
48.10
48.30
48.50
48.70
Short Circuit Current(isc)
A
13.47
13.52
13.57
13.62
13.67
13.72
13.77
Short Circuit Current(isc)
A
13.47
13.52
13.57
13.62
13.67
13.72
13.77
Module Efficiency(nm)
%
19.0
19.2
19.3
19.5
19.7
19.9
20.1
Module Efficiency(nm)
%
19.0
19.2
19.3
19.5
19.7
19.9
20.1
ELECTRICAL
CHARACTERISTICS AT NOMINAL MODULE
ELECTRICAL
CHARACTERISTICS AT NOMINAL MODULE
OPERATING
TEMPERATURE(NMOT)
NMOT:irradiance 800W/m²,ambienttemperature20℃,wind speed¹m/s
OPERATING
TEMPERATURE(NMOT)
NMOT:irradiance 800W/m²,ambienttemperature20℃,wind speed¹m/s
Typical Type
Unit
JY1-72H505PC
JY1-72H510PC
JY1-72H515PC
JY1-72H520PC
JY1-72H525PC
JY1-72H530PC
JY1-t72H535PC
Typical Type
Unit
JY1-72H505PC
JY1-72H510PC
JY1-72H515PC
JY1-72H520PC
JY1-72H525PC
JY1-72H530PC
JY1-t72H535PC
Max-Power(Pm)
W
381
385
389
393
397
401
405
Max-Power(Pm)
W
381
385
389
393
397
401
405
Max-Perating Voltage(Vm)
V
36.98
37.13
37.27
37.43
37.56
37.71
37.86
Max-Perating Voltage(Vm)
V
36.98
37.13
37.27
37.43
37.56
37.71
37.86
Max-OperatingCurrent(Im)
A
10.31
10.38
10.45
10.51
10.58
10.63
10.70
Max-OperatingCurrent(Im)
A
10.31
10.38
10.45
10.51
10.58
10.63
10.70
Open-Circuitvoltage(Voc)
V
44.70
44.90
45.10
45.30
45.50
45.70
45.90
Open-Circuitvoltage(Voc)
V
44.70
44.90
45.10
45.30
45.50
45.70
45.90
ADVANTAGE
Traditional modules cannot meet the needs of modern photovoltaic integrated buildings in terms of lightweight, flexibility, functional integration, and overall performance.
·Limited Load heavyweight, bracket installation, high roof load requirements
·Safety Risk risk of self-explosion (3‰ )
·Additional costs steel structure/bracket costs, labor costs due to complex construction
·Insufficient Shock Resistance the glass module is fragile and has poor shock resistance
·Aesthetic Shortcomings single color, single shape, poor adaptability
·LIGHTEROnly 30% of the weight of traditional modules, solving the problem of insufficient load on existing roofs
·MORE FLEXIBLEIt can be better integrated into architectural design, provide more diverse appearance and integration solutions, and adapt to different curved surfaces and shapes, so that photovoltaic systems can be perfectly integrated with buildings and reduce design restrictions.
·SHINING GREEN ENERGY WORLD Through the research and technological iteration of encapsulation materials, we have solved the insufficient light transmission and weather resistance of other ordinary lightweight modules and achieved higher and more stable power generation efficiency.
Flexible solar panels differ quite from rigid, rectangular, glass-encased standard solar panels typically found on rooftops. Rather, flexible solar panels come in all shapes and sizes and are expected to be used in a greater number of situations than standard panels Whereas portable solar panels contain solar cells mounted in a lightweight, often plastic frame and thin-film panels are made of materials like copper, selenium, and gallium, flexible and standard solar panels use solar wafers to convert sunlight to electricity. Most often, flexible panels use wafers made from silicon, though they are far thinner than those in standard panels-as thin as merely a few micrometers in width. Whereas standard panels are sandwiched between layers of glass, flexible panels are placed between layers of protective plastic.
Flexible solar panels differ quite from rigid, rectangular, glass-encased standard solar panels typically found on rooftops. Rather, flexible solar panels come in all shapes and sizes and are expected to be used in a greater number of situations than standard panels Whereas portable solar panels contain solar cells mounted in a lightweight, often plastic frame and thin-film panels are made of materials like copper, selenium, and gallium, flexible and standard solar panels use solar wafers to convert sunlight to electricity. Most often, flexible panels use wafers made from silicon, though they are far thinner than those in standard panels-as thin as merely a few micrometers in width. Whereas standard panels are sandwiched between layers of glass, flexible panels are placed between layers of protective plastic.
The 15kw off grid solar system can be suitable for both residential use and commercial use. The output voltage can be single phase or three phase. Inverter power: 3pcs 5kW inverter in parallel AC output voltage: AC220V/230V/240V or AC380V/400V/415V Battery voltage: DC48V Battery type: Gel battery or LiFePO4 battery Solar panel type: Mono or poly Compatible with grid and generator Monitor: WIFI or GPRS
GBP series lithium iron phosphate batteries are a new type of environmentally friendly backup power supply launched for energy storage and power backup applications. The system adopts environmentally friendly lithium iron phosphate batteries and equipped with a customized BMS system for effective management of the battery cells, providing superior product performance and safety and reliability compared to traditional batteries. The product has a high number of charge and discharge cycles, high power density and long service life. Unique design and innovation in compatibility, energy density, dynamic monitoring, safety, reliability and product appearance can bring users a better experience in energy storage applications.
Off-grid solar energy systems is mainly composed of photovoltaic modules, controllers, inverters, batteries and other accessories The working principle of the solar panel system is that the photovoltaic module converts light energy into direct current, and the direct current is converted into alternating current under the action of the inverter, and finally realizes the power consumption function. It can be for Home applications, Commercial applications and Industrial applications. Inverter power: 5kW AC output voltage: AC110V/120V Battery voltage: DC24V or DC48V Battery type: Gel battery or LiFePO4 battery Solar panel type: Mono or poly Compatible with grid and generator Monitor: WIFI or GPRS
The MPPT solar charge controller uses multiphase synchronous rectification technology and common negative pole design, it chooses high speed processor and advanced MPPT algorithm to make it has high response speed, high reliability and other standards. The advanced MPPT algorithm that the solar controller adopts can trace the maximum power point of PV arrays quickly in any situation to obtain the max. power from PV arrays. And the multiphase synchronous rectification technology can achieve high conversion efficiency in any charging environment and improve the utilization rate of solar power system greatly. According to the rated voltage of battery bank system, our factory can provide the MPPT solar charge controller from 192V to 540V which suitable to almost off grid solar power system
The solar photovoltaic power system connected to the public grid is called on-grid photovoltaic power generation system. The system structure includes solar panel arrays, DC/DC converters, DC/AC inverters, AC loads, transformers, and other components. Inverter power: 20kW AC output voltage: three phase Solar panel type: mono or poly
An on-grid inverter’s main job is to convert DC power generated from the PV array into usable AC power. Hybrid inverters go a step further and work with batteries to store excess power as well. In the developing world, hybrid inverters are more of a necessity to compensate for weak or intermittent grids or a lack of grid electricity all together.