Description
Solar Innova uses the latest materials to manufacture photovoltaic modules.
Our modules are ideal for any application that uses the photoelectric effect as a clean energy source because of its minimal chemical pollution and no noise pollution.
The front of the module contains a tempered solar glass with high transmissivity, low reflectivity and low iron content.
These PV modules use high-efficiency polycrystalline silicon cells (the cells are made of several crystals of high purity silicon) to transform the energy of sunlight into electric energy. Each cell is electrically rated to optimize the behavior of the module.
The circuit of cells is laminated between two sheets of Ethylene-Vinyl Acetate (EVA) that has anti-aging properties, as an encapsulant for protection against humidity, stability against ultraviolet rays (UV) and electrical insulation.
The rear of the module contains a toughened solar glass with low iron content.
The junction boxes with IP67, are made from high temperature resistant plastics and containing terminals, connection terminals and protection diodes (by-pass). These modules are supplied with symmetric lengths of cable, with a diameter of copper section of 4 mm and an extremely low contact resistance, all designed to achieve the minimum voltage drop losses.
Our modules comply with all safety requirements not only flexibility but also double insulation and high resistance to UV rays, all are suitable for use in outdoor applications. The design of these modules makes their integration in both industrial and residential buildings (one of the most emerging sectors in the photovoltaic market), and other infrastructure, simple and aesthetic.
Data
Silicon Cell Photovoltaic Module polycrystalline (mc-Si), BIPV-Glass/Glass series, for architectural integration, from the manufacturer SOLAR INNOVA, maximum power (Wp) 300-315 W, voltage at maximum power (Vmp) 35.31-35.97 V, current at maximum power (Imp) 8.49-8.76 A, open circuit voltage (Voc) 43.09-43.87 V, short circuit current (Isc) 9.04-9.21 A, efficiency 17.00-17.87%, composed of 66 cells, front layer tempered glass thick 3.2 mm, encapsulating layers of cells of EVA, back layer of tempered glass thick 3.2 mm, junction box (diodes, cables 4 mm2, 900 mm and connectors MC-T4), working temperature -40/+85 ºC, dimensions 976x1807 mm, maximum wind load 2400 Pa, maximum snow load 5400 Pa, weight 30.90 kg.
Electrical Characteristics STC
Maximum power (Pmpp)
|
Wp
|
300
|
305
|
310
|
315
|
Tolerance
|
Wp
|
0 ~ +5
|
Voltage at maximum power (Vmpp)
|
Volts
|
35.31
|
35.44
|
35.71
|
35.97
|
Current at maximum power (Impp)
|
Amperes
|
8.49
|
8.60
|
8.69
|
8.76
|
Open circuit voltage (Voc)
|
Volts
|
43.09
|
43.37
|
43.65
|
43.87
|
Short circuit current (Isc)
|
Amperes
|
9.04
|
9.06
|
9.13
|
9.21
|
Maximum system voltage (Vsyst)
|
Volts
|
1,500 (IEC) / 1,000 (UL)
|
Diodes (By-pass)
|
Quantity
|
6
|
Maximum series fuse
|
Amperes
|
15
|
Efficiency (ηm)
|
%
|
17.00
|
17.28
|
17.59
|
17.87
|
Form Factor
|
%
|
≥ 73
|
STC:
Irradiance: 1,000 W/m2 +
Cell Temperature: 25º C +
Air Mass: 1,5
Electrical Characteristics NMOT
Maximum power (Pmpp)
|
Watts
|
221
|
225
|
229
|
232
|
Voltage at maximum power (Vmpp)
|
Volts
|
32.15
|
32.27
|
32.51
|
32.75
|
Current at maximum power (Impp)
|
Amperes
|
6.89
|
6.98
|
7.06
|
7.11
|
Open circuit voltage (Voc)
|
Volts
|
39.38
|
39.64
|
39.89
|
40.09
|
Short circuit current (Isc)
|
Amperes
|
7.33
|
7.35
|
7.40
|
7.47
|
NMOT:
Irradiance: 800 W/m2 +
Ambient Temperature: 20º C +
Air Mass: 1,5 +
Wind Speed: 1 m/s
Mechanical Characteristics
Size
|
Height
|
1,807 mm
|
71.14 inches
|
|
Width
|
976 mm
|
38.42 inches
|
|
Thickness
|
7.57 mm
|
0.30 inches
|
Weight
|
Net
|
30.90 kg
|
68.12 pounds
|
Front
|
Material
|
High transmissivity toughened glass
|
|
Thickness
|
3.2 ± 0.2 mm
|
0.12 inches
|
Cells
|
Type
|
Polycrystalline
|
|
Quantity
|
6 x 11 units
|
|
Size
|
156 x 156 mm
|
6 inches
|
Serial connection
|
Quantity
|
66 units
|
Parallel connection
|
Quantity
|
1 unit
|
Encapsulation
|
Materials
|
EVA
|
|
Thickness
|
0.50 ± 0.03 mm
|
0.020 ± 0.0012 inches
|
Rear
|
Thickness
|
Tempered glass
|
|
Material
|
3.2 ± 0.2 mm
|
0.12 ± 0.008 inches
|
Junction box
|
Thickness
|
PVC
|
|
Protection
|
IP67
|
|
Isolation
|
Versus humidity and inclement weather
|
Cables
|
Type
|
Polarized and symmetric in length
|
|
Length
|
900 mm
|
35,4 inches
|
|
Section
|
4 mm2
|
0.006 inches2
|
|
Features
|
Low contact resistance
|
|
Minimal losses for voltage drop
|
Connectors
|
Material
|
PVC
|
|
Type
|
MC4
|
|
Protection
|
IP67
|
Thermal Characteristics
Temperature coefficient of short circuit current α (Icc)
|
%/º C
|
+ 0.0825
|
Temperature coefficient of open circuit voltage β (Voc)
|
%/º C
|
- 0.4049
|
Temperature coefficient of maximum power γ (Pmpp)
|
%/º C
|
- 0.4336
|
Temperature coefficient of current at maximum power (Impp)
|
%/º C
|
+ 0.10
|
Temperature coefficient of voltage at maximum power (Vmpp)
|
%/º C
|
- 0.38
|
NMOT (Nominal Module Operating Temperature)
|
º C
|
+ 47 ± 2
|
Tolerances
Working temperature
|
º C
|
º F
|
- 40 ~ + 85
|
- 40 ~ + 185
|
Dielectric Isolation Voltage
|
Volts
|
3,000
|
Relative humidity
|
%
|
0 ~ 100
|
Wind resistance
|
m/s
|
60
|
|
kg/m2
|
Pa
|
245
|
2,400
|
|
pounds/feet2
|
491.56
|
Mechanical load-bearing capacity
|
kg/m2
|
Pa
|
551
|
5,400 (IEC)
|
|
pounds/feet2
|
Pa
|
75.2
|
3,600 (UL)
|
Classifications
Application
|
Class
|
A
|
Electrical protection
|
Class
|
II
|
Fire safety
|
Class
|
A
|
Pollution
|
Degree
|
1
|
Material
|
Group
|
I
|
Safety
|
Factors
|
1,5
|
Measurements
MEASUREMENTS PERFORMED IN ACCORDANCE WITH STANDARD TEST METHODS
EN 60904-3 AND ASTM E1036, CORRECTED TO STANDARD TEST CONDITIONS (STC)
|
Air Mass/Spectral distribution
|
AM
|
1.5 ASTM G173-03
|
Luminous intensity/Radiation
|
W/m2
|
1,000
|
Cell temperature
|
º C
|
25 ± 2
|
MEASUREMENTS PERFORMED IN SOLAR SIMULATOR
|
Class
|
AAA (according to IEC 60904-9)
|
Power measurement uncertainty is within
|
± 3 %
|
Structural Characteristics
Cells
High efficiency cells with anti-reflective layer of Silicon Nitride.
Electric conductors
Flat Copper (Cu) bath in a Tin (Sn) and Silver (Ag) alloy, which improves weldability.
Welds
Cell and drivers in installments for stress relief.
Laminate
Composed of ultra-clear tempered glass on the front and rear, EVA encapsulant thermostable embedding cells and electrical insulation on the back formed by a tempered glass.
Junction box
Hoses and quick connectors with anti-error. Include bypass diodes, interchangeable thanks to the wiring system has no welds, all electrical contacts are made by pressure, thus avoiding the possibility of cold welding.
Characteristics of Work
The power of solar cells varies in the output of the production process. The different power specifications of these modules reflect this dispersion.
Cells during the early months of light exposure, may experience a degradation photonics could decrease the value of the maximum power the module up to 3 %.
The cells, in normal operating conditions, reach a temperature above the standard measurement conditions of the laboratory. The NMOT is a quantitative measure of the increase. NMOT measurement is performed under the following conditions: radiation of 0.8 kW/m2, temperature 20º C and wind speed of 1 m/s.
The electrical data reflect typical values of the modules and laminates as measured at the output terminals at the end of the manufacturing process.
Drawings
Front
Back
Junction box-1
Junction box-2
Connectors
Electric
Photos
Components
Glass
Top encapsulant (EVA)
Cells
Lower encapsulant (EVA)
Back-Sheet (TPT) and Junction Box
Videos
Production-Welding-Cells-1
Production-Welding-Cells-2
Production-Welding-Cells-3
Production-Welding-String
Production-Positioning-Module
Certificates
Our manufacturing plants have been prepared in accordance with:
ISO 9001, in terms of Quality Management Systems.
ISO 14001, in terms of Environmental Management System.
ISO 45001, in terms of Occupational Health and Safety Management Systems.
We have a quality control divided into three elements:
Regular inspections allow us to guarantee the quality of the raw material.
Quality control in the process of our manufacturing procedures.
Quality control of finished products, we conduct through inspections and tests of reliability and performance.
The photovoltaic modules Solar Innova have passed several international certification requirements and continue to improve the quality and performance of our products of proven technologies. Quality is one of our core principles and the pursuit of quality is the engine of the company's future, in their desire to continually offer better products.
Our PV modules are certified by internationally recognized laboratories and are proof of our strict adherence to international safety standards, long term performance and overall quality of products.
Factory
ISO 14001
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ISO 45001
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EN 14449 = EN 12543, EN 12600
Guarantee
All solar panels manufactured by Solar Innova have the following minimum guarantees:
Linear Performance Guarantee
The linear power guarantee Solar Innova modules ensures a higher power than that of the other photovoltaic module during the lifetime of the plant. The combination of our high quality modules with an optimal plant design results in maximum performance for end users and allows you the maximum performance guarantees to their customers without having to worry.
Linear performance warranty Solar Innova
Importance of Ensuring Adequate Power
Solar Innova offers great advantages with its linear power warranty. Other power guarantees are reduced in stages over the time periods established. These guarantees remain staggered continuous from beginning to end in the same period. Considering the drastic reduction in the coverage of the guarantee to pass a temporary step to another, there is the possibility that the module power drops sharply at the beginning of the period, without being able to claim the manufacturer. To prevent unexpected power loss out of warranty, it is best to have a potency guarantee is reduced linearly over the lifetime of the module.
Power Tolerance
The power tolerance of a photovoltaic module indicates the range within which the power of a module can deviate from its rated power. The lower the negative tolerance, the greater the power output of the module.
Power Degradation
All solar photovoltaic modules suffer a degradation of power throughout its years of operation. Both qualities of silicon as the other ingredients used in their production influence the level of degradation. Therefore, the higher the quality of the components of the module, the lower the degree that is affected by this degradation.
Packing
Box
Box
|
Size
|
1,865 x 1,150 x 2,140 mm (20’ FT)
|
(each big pallet add 18 pieces
|
1,865 x 1,150 x 2,510 mm (40’ HQ)
|
solar modules by 9 boxes)
|
Panels
|
40 pcs/pallet (20’ FT)
|
|
48 pcs/pallet (40’ HQ)
|
|
Weight pallet (Empty)
|
165 kg (20’ FT)
|
|
250 kg (40’ HQ)
|
Container 20’
Container 20’ FT
|
Size
|
5.89 x 2.35 x 2.39 m
|
|
Panels
|
240 pcs
|
|
Pallets
|
6 pcs
|
|
Weight (Pallet)
|
24 kg x 40 pcs + 165 kg = 1,125 kg
|
|
Weight (Gross)
|
1,125 kg x 6 pallets = 6,750 kg
|
Container 40’
Container 40’ HQ
|
Size
|
12.04 x 2.35 x 2.68 m
|
(each big pallet add 4 pieces
|
Panels
|
576 pcs
|
solar modules by 2 boxes)
|
Pallets
|
12 pcs
|
|
Weight (Pallet)
|
24 kg x 48 pcs + 250 kg = 1,402 kg
|
|
Weight (Gross)
|
1,402 kg x 12 pallets = 16,824 kg
|
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