14.11.2012 Views

How Do Solar Panel Work? A solar panel is a ... - Digital Consummate

How Do Solar Panel Work? A solar panel is a ... - Digital Consummate

How Do Solar Panel Work? A solar panel is a ... - Digital Consummate

SHOW MORE
SHOW LESS

Create successful ePaper yourself

Turn your PDF publications into a flip-book with our unique Google optimized e-Paper software.

<strong>How</strong> <strong>Do</strong> <strong>Solar</strong> <strong>Panel</strong> <strong>Work</strong>?<br />

A <strong>solar</strong> <strong>panel</strong> <strong>is</strong> a device that collects photons of sunlight, which are very small packets of<br />

electromagnetic radiation energy, and converts them into electrical current that can be used to power<br />

electrical loads.<br />

Using <strong>solar</strong> <strong>panel</strong>s <strong>is</strong> a very practical way to produce electricity for many applications. The obvious<br />

would have to be off-grid living. Living off-grid means living in a location that <strong>is</strong> not serviced by the<br />

main electric utility grid. Remote homes and cabins benefit nicely from <strong>solar</strong> power systems. No longer<br />

<strong>is</strong> it necessary to pay huge fees for the installation of electric utility poles and cabling from the nearest<br />

main grid access point. A <strong>solar</strong> electric system <strong>is</strong> potentially less expensive and can provide power for<br />

upwards of three decades if properly maintained.<br />

Besides the fact that <strong>solar</strong> <strong>panel</strong>s make it possible to live off-grid, perhaps the greatest benefit that<br />

you would enjoy from the use of <strong>solar</strong> power <strong>is</strong> that it <strong>is</strong> both a clean and a renewable source of<br />

energy. With the advent of global<br />

climate change, it has become<br />

more important that we do<br />

whatever we can to reduce the<br />

pressure on our atmosphere from<br />

the em<strong>is</strong>sion of greenhouse gases.<br />

<strong>Solar</strong> <strong>panel</strong>s have no moving parts<br />

and require little maintenance.<br />

They are ruggedly built and last for<br />

decades when porperly<br />

maintained.Last, but not least, of<br />

the benefits of <strong>solar</strong> <strong>panel</strong>s and<br />

<strong>solar</strong> power <strong>is</strong> that, once a system<br />

has paid for its initial installation<br />

costs, the electricity it produces for<br />

the remainder of the system’s<br />

lifespan, which could be as much as<br />

15-20 years depending on the<br />

quality of the system, <strong>is</strong> absolutely<br />

free! For grid-tie <strong>solar</strong> power<br />

system owners, the benefits begin<br />

from the moment the system comes<br />

online, potentially eliminating<br />

monthy electric bills or, and th<strong>is</strong> <strong>is</strong><br />

the best part, actually earning the<br />

system’s owner additional income<br />

from the electric company.<br />

The <strong>solar</strong> cells you would have seen on satellites, caculaters etc are photovoltaic cells or modules<br />

(modules are a collection of <strong>solar</strong> cells electrically connected and joined together in one frame).<br />

Photovoltaics, (photo = light, voltaic = electricity), convert the energy of sunlight directly into<br />

electricity. Originally expensive and only used in space, photovoltaics are now finding many<br />

applications on countless devices, buildings etc were ever remote or free and environmentally<br />

sustainable produced electricity <strong>is</strong> required.<br />

Photovoltaic (PV) cells are made of special materials called semiconductors like silicon, which <strong>is</strong><br />

currently the most commonly used. Basically, when light shines on the <strong>solar</strong> cell a percentage of th<strong>is</strong><br />

<strong>solar</strong> energy <strong>is</strong> absorbed into the semiconductor material. Th<strong>is</strong> energy now inside the semiconductor<br />

knocks electrons loose allowing them to flow freely. PV cells also all have one or more electric fields


that force electrons freed by light absorption to flow in a certain direction. Th<strong>is</strong> flow of electrons <strong>is</strong> an<br />

electrical current. Metal contacts on the top and bottom of the PV cell draw that current off to use to<br />

power external electrical products such as lights, calculators etc. Th<strong>is</strong> current ,combined with the<br />

cell’s voltage (which <strong>is</strong> a result of its built-in electric field or fields),determines the power (or wattage)<br />

that the <strong>solar</strong> cell can produce.<br />

<strong>Solar</strong> <strong>panel</strong>s collect clean renewable energy in the form of sunlight and convert that light into<br />

electricity which can then be used to provide power for electrical loads. <strong>Solar</strong> <strong>panel</strong>s are compr<strong>is</strong>ed of<br />

several individual <strong>solar</strong> cells which are themselves composed of layers of silicon, phosphorous (which<br />

provides the negative charge), and boron (which provides the positive charge). <strong>Solar</strong> <strong>panel</strong>s absorb the<br />

photons and in doing so initiate an electric current. The resulting energy generated from<br />

photonsstriking the surface of the <strong>solar</strong> <strong>panel</strong> allows electrons to be knocked out of their atomic orbits<br />

and released into the electric field generated by the <strong>solar</strong> cells.<br />

An average home has more than enough roof area for the necessary number of <strong>solar</strong> <strong>panel</strong>s to produce<br />

enough <strong>solar</strong> electricrity to supply all of its power needs. Ass<strong>is</strong>ted by an inverter, a device that<br />

converts the direct current (or DC current), generated by a <strong>solar</strong> <strong>panel</strong> into alternating current (or AC<br />

current), <strong>solar</strong> <strong>panel</strong> arrays can be sized to meet the most demanding electrical load requirements.<br />

The AC current can be used to power loads in your home or commercial building, your recreational<br />

vehicle or your boat (RV/Marine <strong>Solar</strong> <strong>Panel</strong>s), your remote cabin or home, and remote traffic controls,<br />

telecommunications equipment, oil and gas flow monitoring, RTU, SCADA, and much more.


<strong>How</strong> to test a <strong>Solar</strong> <strong>Panel</strong>?<br />

Most in the most people that need to set up <strong>solar</strong> <strong>panel</strong>s at the roof of the properties consider that all<br />

they must do <strong>is</strong> set up them, however they overlook about assessment them after which if a little<br />

something won’t perform adequately they must phone for that installers once again and using th<strong>is</strong><br />

method they reduce time and get stressed.<br />

<strong>Solar</strong> <strong>panel</strong> assessment pertains to employing an amp meter at the <strong>panel</strong>. power <strong>is</strong> acknowledged for<br />

being measured in amperes. Th<strong>is</strong> factor may be accompl<strong>is</strong>hed with an amp meter. th<strong>is</strong> kind of a<br />

equipment are heading to be connected towards bad and good terminals at the <strong>solar</strong> <strong>panel</strong> after which<br />

the <strong>panel</strong> are heading to be subjected towards sunlight. In purchase to guard by yourself from injuries<br />

and protected the amp meter from any destruction you really should 1st price the meter greater<br />

compared to <strong>solar</strong> <strong>panel</strong> <strong>is</strong>. The amp meter will present you on its d<strong>is</strong>play ‘the brief circuit current’.<br />

Th<strong>is</strong> are heading to be the level of electric present-day that 1 could assume out of your <strong>panel</strong>s to give.<br />

OF program everything <strong>is</strong> establ<strong>is</strong>hed by how powerful was the sunshine so it can be indicted to<br />

conduct your <strong>solar</strong> <strong>panel</strong> assessment when there <strong>is</strong> ordinarily a complete sunshine outside.<br />

Besides employing an amp meter you’ll be in a position to decide the energy yield of your respective<br />

<strong>solar</strong> <strong>panel</strong> by employing an additional strategy that implies measuring the res<strong>is</strong>tor’s voltage. because<br />

of th<strong>is</strong> <strong>solar</strong> <strong>panel</strong> assessment process you’ll require a electronic multi-meter (that actions the DC<br />

voltage) and numerous<br />

res<strong>is</strong>tors. subsequent to<br />

acquiring every one among<br />

the essential measurements<br />

you’ll be in a position to use<br />

th<strong>is</strong> formulation for<br />

calculating the energy<br />

output: present-day equals<br />

Voltage / Res<strong>is</strong>tance.<br />

subsequent to that 1 could<br />

constitute a overall<br />

performance graphic by<br />

plotting the energy output.<br />

<strong>solar</strong> <strong>panel</strong> assessment methods a DC electronic multi-meter.<br />

You really should also be<br />

mindful that a <strong>solar</strong> <strong>panel</strong><br />

will transform the sunshine<br />

into DC (direct current)<br />

energy not AC energy as<br />

some may perhaps expect. it<br />

<strong>is</strong> why you require for that<br />

Watts are heading to be applied for measuring the energy the fact that <strong>solar</strong> <strong>panel</strong> produced for<br />

charging electric batteries as an example or for employing dwelling appliances. The formulation for<br />

calculating the energy <strong>is</strong> energy equals Voltage*Current. All you’ve still left to perform <strong>is</strong> continually to<br />

measure the amperage and voltage of your respective <strong>solar</strong> <strong>panel</strong> and plug the info to the equation.<br />

using th<strong>is</strong> method you’ll know prec<strong>is</strong>ely when the <strong>solar</strong> <strong>panel</strong> are heading to be in a placement to<br />

include every one among the power you desired it to supply you once you made a dec<strong>is</strong>ion to set up<br />

th<strong>is</strong> kind of a factor on your own roof.<br />

You will even use a <strong>solar</strong> cost controller that could be designed for regulating the energy that could be<br />

brought through the <strong>solar</strong> <strong>panel</strong> towards rechargeable batteries. th<strong>is</strong> kind of a controller has the intent<br />

of by-passing eventual overcharges also to present a very good power supply cost based at the


temperatures outside. apart from <strong>solar</strong> <strong>panel</strong> assessment you really should also analyze the very well<br />

working of the cost controller.<br />

If you consider you’ll be in a position to not conduct the <strong>solar</strong> <strong>panel</strong> assessment on your personal or you<br />

do not have time for that phone some <strong>panel</strong> installers and request them to perform th<strong>is</strong> to match your<br />

needs because it may perhaps conserve you from numerous difficulty later on on.


<strong>How</strong> to Maintenance the <strong>Solar</strong> <strong>Panel</strong>?<br />

It <strong>is</strong> not uncommon for a remote site to be checked but once per year. Under most conditions, normal<br />

rainfall <strong>is</strong> sufficient to keep the <strong>Solar</strong> <strong>Panel</strong> glass clean.<br />

Clean the glass with a soft cloth using mild detergent and water. <strong>Solar</strong> <strong>Panel</strong> that are mounted, fiat (<br />

0°tilt andle) should be cleaned more often, as they will not self-clean as effectively as <strong>Solar</strong> <strong>Panel</strong><br />

mounted at a 15°tilt or greater.<br />

It <strong>is</strong> adv<strong>is</strong>able to perform periodic inspection of the <strong>Solar</strong> <strong>Panel</strong> for damage to glass, backskin, frame<br />

and support structure. Check electrical connections for loose connections and corrosion. Check if<br />

mounting support structure and modules are loose. Check connections of cables, connectors, and<br />

grounding. Change <strong>Solar</strong> <strong>Panel</strong> must be the same kind and type, if need. <strong>Solar</strong> <strong>Panel</strong> can operate<br />

effectively without ever being washed, although removal of dirt from the front glass can increase<br />

output. The glass can be washed with a wet sponge or cloth, wear rubber gloves for electrical<br />

insulation.<br />

<strong>Solar</strong> <strong>Panel</strong> Safety precautions<br />

<strong>Solar</strong> <strong>Panel</strong> installation and operation should be performed by qualified personnel only. Children should<br />

not be allowed near the <strong>solar</strong> electric installation.<br />

Avoid electrical hazards when installing, wiring, operating and maintaining the module. <strong>Solar</strong> <strong>Panel</strong><br />

produce DC electricity when exposed to light and therefore can produce an electrical shock or burn.<br />

<strong>Solar</strong> <strong>Panel</strong> produce voltage even when not connected to an electrical circuit or load. <strong>Solar</strong> <strong>Panel</strong><br />

produce nearly full voltage when exposed to as little as 5% of full sunlight and both current and power<br />

increase with light intensity. <strong>Do</strong> not touch live parts of cables and connectors. As an added precaution,<br />

use insulated tools and rubber gloves when working with <strong>Solar</strong> <strong>Panel</strong> in sunlight.<br />

Fall of <strong>Solar</strong> <strong>Panel</strong> from high place will cause death, injury or damage. <strong>Do</strong> not drop <strong>Solar</strong> <strong>Panel</strong> or allow<br />

objects to fall on <strong>Solar</strong> <strong>Panel</strong>, never leave a <strong>Solar</strong> <strong>Panel</strong> unsupported or unsecured. If a module should<br />

fail, the glass can break a <strong>Solar</strong> <strong>Panel</strong> with broken glass cannot be repaired and must not be used.


When installing or working with <strong>Solar</strong> <strong>Panel</strong> or wiring, cover module face completely with opaque<br />

material to halt production of electricity. <strong>Solar</strong> <strong>Panel</strong> have no on/off switch. <strong>Solar</strong> <strong>Panel</strong> when exposed<br />

to sunlight generate high voltage and are dangerous, <strong>Solar</strong> <strong>Panel</strong> can be rendered inoperative only by<br />

removing them from sunlight, or by fully covering the front surface with opaque cloth, cardboard, or<br />

other completely opaque material, or by working with <strong>Solar</strong> <strong>Panel</strong> face down on a smooth, flat surface<br />

when installing or maintaining.<br />

<strong>Do</strong> not artificially concentrate sunlight on the <strong>Solar</strong> <strong>Panel</strong>.<br />

<strong>Solar</strong> <strong>Panel</strong> can produce higher output than the rated specifications. Industry standard ratings are made<br />

at conditions of 1000W/ and 25℃ cell temperature. Reflection from snow or water can increase<br />

sunlight and therefore boost current and power. In addition, colder temperatures can substantially<br />

increase voltage and power.<br />

<strong>Solar</strong> <strong>Panel</strong> are intended for use in terrestrial applications only, thus excluding aerospace or maritime<br />

conditions or use with sunlight concentration.<br />

It <strong>is</strong> recommended that the <strong>Solar</strong> <strong>Panel</strong> remains packed in the box until time of installation.<br />

<strong>Work</strong> only under dry conditions, with a dry <strong>Solar</strong> <strong>Panel</strong> and tools, since sparks may be produced, do not<br />

install <strong>Solar</strong> <strong>Panel</strong> where flammable gases or vapors are present.<br />

<strong>Do</strong> not drill holes into <strong>Solar</strong> <strong>Panel</strong> frame as it will void warranty. <strong>Solar</strong> <strong>Panel</strong> ate constructed frame as<br />

it will void warranty.<br />

Handled with care, if the front glass <strong>is</strong> broken or if the polymer backskin <strong>is</strong> tom, contact with any<br />

module surface or the frame can produce electrical shock. Particularly when the <strong>Solar</strong> <strong>Panel</strong> <strong>is</strong> wet,<br />

broken or damaged modules must be d<strong>is</strong>posed of properly. <strong>Do</strong> not d<strong>is</strong>assemble, bend, impact by sharp<br />

objects, walk on, and throw or drop etc. keep back surface free from foreign objects. Avoid sharp<br />

edges.<br />

Use <strong>Solar</strong> <strong>Panel</strong> for its intended function only follows all <strong>Solar</strong> <strong>Panel</strong> manufacturers’ instructions. <strong>Do</strong><br />

not d<strong>is</strong>assemble the module, or remove any part or label installed by the manufacturer. <strong>Do</strong> not treat<br />

the back of the <strong>Solar</strong> <strong>Panel</strong> with paint or adhesives.<br />

If not otherw<strong>is</strong>e specified, it <strong>is</strong> recommended that requirements of the latest local, national or regional<br />

electrical codes be followed.<br />

Retain th<strong>is</strong> installation manual for future reference.<br />

Notes<br />

The electrical character<strong>is</strong>tics are within ±5 percent of the indicated values of Isc, Voc, and Pmax under<br />

standard test conditions (irradiance of 100mW/¡2, AM 1.5 spectrum, and a cell temperature of<br />

25℃(77°F).<br />

Under normal conditions, a photovoltaic <strong>Solar</strong> <strong>Panel</strong> <strong>is</strong> likely to experience conditions that produce<br />

more current and/or voltage than reported at standard test conditions. Accordingly, the values of Isc<br />

and Voc marked on th<strong>is</strong> module should be multiplied by a factor of 1.25 when determining component<br />

voltage ratings, conductor ampacities, fuse sizes, and size of controls connected to the PV output.


<strong>How</strong> to install and wire <strong>Solar</strong> <strong>panel</strong>?<br />

<strong>Solar</strong> <strong>panel</strong>s can lower your energy costs and are rather easily installed, with a little construction and<br />

electrical knowledge. Here’s how to do it.<br />

<strong>Solar</strong> <strong>panel</strong>s will be the aspect of the <strong>solar</strong> power product that in fact gathers the power from your sun.<br />

The <strong>panel</strong>s are developed up of<br />

photovoltaic t<strong>is</strong>sue that transform the<br />

sun’s power to immediate ex<strong>is</strong>ting power<br />

that <strong>is</strong> often applied for heating system or<br />

to energy appliances. The power <strong>is</strong> then<br />

sent straight to an appliance or other<br />

device, or <strong>is</strong> saved inside a power supply<br />

lender for long term use. <strong>Panel</strong>s commonly<br />

measure around 1.5 ft by three feet, and<br />

can provide about 75 watts of power if<br />

situated in total sun.<br />

Typically the <strong>panel</strong>s are installed around<br />

the roof of the building. <strong>How</strong>ever, they <strong>is</strong><br />

often installed over a stand-alone rack if<br />

necessary. one of the most crucial thing to<br />

consider <strong>is</strong> just how much sunshine the<br />

<strong>panel</strong> are certain to get while in the area<br />

you choose. <strong>Solar</strong> <strong>panel</strong>s drop effectiveness easily in even a partially shaded location, so go with a area<br />

that receives total sunshine for as prolonged as achievable each and every day. The <strong>panel</strong>s ought to be<br />

oriented for the to the south if whatsoever possible. The 2nd most effective preference would be to<br />

deal with the <strong>panel</strong>s for the west or east, but you are heading to have to take advantage of additional<br />

<strong>panel</strong>s in purchase to acquire identical level of energy. never ever deal with the <strong>panel</strong>s for the north.<br />

Be positive to acquire any important setting up permits just before setting up the <strong>panel</strong>s. examine<br />

together with your community setting up or zoning department to locate out what are the needs are<br />

with your community. if you occur to don’t have the permits just before the set up or don’t total the<br />

set up in accordance with community setting up codes, you may likely be forced to tear out all of your<br />

very hard operate and commence again.<br />

The <strong>panel</strong>s ought to be tilted to attain the optimum level of sun. The stage of tilt <strong>is</strong> dependent around<br />

the latitude at which they may be installed. <strong>Panel</strong>s set up at 0 to 15 degrees latitude really should have<br />

a very 15-degree tilt. <strong>Panel</strong>s set up at 15 to twenty five degrees latitude really should have a very tilt<br />

that could be the very same since the latitude. For each and every supplemental 5 degrees of latitude<br />

as much as 40 degrees, include an added five degrees of tilt for the latitude. At latitudes of 40 degrees<br />

and above, include twenty degrees of tilt for the latitude. Mounts ought to be inserted about 48 inches<br />

aside and ought to be situated straight on major of the rafter, if whatsoever possible. If a rafter just<br />

<strong>is</strong>n’t accessible with the mount site, the mount <strong>is</strong> often connected to some prevent of wooden inserted<br />

around the underside for th<strong>is</strong> roof. don’t attach the mount straight for the plywood sheathing for th<strong>is</strong><br />

roof. locate rafters using a stud finder. preserve the mounts inside a right line, utilizing a laser beam<br />

sight or probably a chalk line. Drill a hole using a pilot little bit to insure that which you don’t<br />

separation the rafter. Then protected the bottom for th<strong>is</strong> mounts for the roof, utilizing stainless metal<br />

lag bolts. Thread the submit for th<strong>is</strong> mount into its base. make positive to spot roof flashing throughout<br />

each and every mount to avoid leaks while in the roof. up coming fasten steel rails for the mounts with<br />

stainless metal bolts. total the racking product by connecting aluminum <strong>solar</strong> racks for the steel rails.<br />

Make positive how the fin<strong>is</strong>hed rack product will grant the <strong>solar</strong> <strong>panel</strong>s being no much less than 3 to 6<br />

inches away the roof. The <strong>panel</strong>s will run additional effectively if there’s sufficient airflow below and<br />

close to them.


<strong>Solar</strong> <strong>panel</strong>s may likely be preassembled in groups. Th<strong>is</strong> can make the set up less complicated and<br />

quicker, as there are actually much less person models to cope with up around the roof. protected the<br />

<strong>solar</strong> <strong>panel</strong>s for the racking product while using restraining hardware provided while using <strong>panel</strong>s. each<br />

and every maker has their individual hardware, particularly constructed for h<strong>is</strong> or her individual <strong>panel</strong>s.<br />

analyze the <strong>panel</strong>s to produce positive that they may be anchored securely. Make positive how the<br />

together the <strong>solar</strong> <strong>panel</strong> and also the racking methods are effectively grounded in accordance while<br />

using community electric codes.<br />

Interconnect the <strong>solar</strong> <strong>panel</strong>s by starting the junction penalty area around the back again of each and<br />

every <strong>panel</strong> and attaching the wires for the correct good and unfavorable terminal screws while in the<br />

box, getting clear of one-half inch of insulation from your fin<strong>is</strong>hes for th<strong>is</strong> wires first. The wire will<br />

operate involving <strong>panel</strong>s as a result of the knockouts in each and every box. operate the wire from your<br />

last <strong>panel</strong> to some d<strong>is</strong>tinct array junction box. The wire <strong>is</strong> then operate as a result of electric conduit<br />

for the up coming electric aspect for th<strong>is</strong> system, th<strong>is</strong> type of since the cost controller. near all<br />

junction boxes. Your <strong>solar</strong> <strong>panel</strong> array really should grant *you several many years of sat<strong>is</strong>fying service.


What <strong>is</strong> Difference between monocrystalline polycrystalline and Amorphous thin film <strong>solar</strong> cell?<br />

1. Difference between crystalline and amorphous? Daily to see the solid <strong>is</strong> divided into two major<br />

categories of non-crystalline and crystalline, non-crystalline arrangement of atoms within the material<br />

<strong>is</strong> not necessarily the law of the fracture when the fracture <strong>is</strong> random, such as plastic and glass, and<br />

called the crystal material, represent the natural shape of a regular polyhedron, with obvious edges<br />

and corners with the plane, the atom <strong>is</strong> in accordance with its internal law must line up neatly, so<br />

when they break off the plane according to certain, such as salt, crystal and so on.<br />

2. Difference between monocrystallie and polycrystalline? Some of the crystal <strong>is</strong> composed of many<br />

small grains, if the arrangement between the grains are no rules, th<strong>is</strong> <strong>is</strong> called polycrystalline crystal,<br />

such as copper and iron. But there are also the crystal itself <strong>is</strong> a complete large grains, the crystal <strong>is</strong><br />

called single crystal, crystal and crystal diamond.<br />

3. Monocrystalline silicon and polycrystalline silicon photovoltaic cells compare? Monocrystalline<br />

silicon cells with a cell conversion efficiency, good stability, but the cost <strong>is</strong> high. Low-cost<br />

polycrystalline silicon cells, the conversion efficiency slightly lower than the Czochralski silicon <strong>solar</strong><br />

cells and materials in a variety of defects such as grain boundaries, d<strong>is</strong>locations, micro-defects, and<br />

material impurities carbon and oxygen, as well as the stained process transition metals.<br />

The first <strong>is</strong> the advent of <strong>solar</strong> cell silicon <strong>solar</strong> cells. Silicon <strong>is</strong> very abundant on the earth, an element<br />

almost everywhere have the presence of silicon can be said to be used without silicon to make <strong>solar</strong><br />

cells, indeed no shortage of raw materials. But it <strong>is</strong> not easy to extract, so people in the production of<br />

monocrystalline silicon <strong>solar</strong> cells, they also studied the polycrystalline silicon <strong>solar</strong> cells and<br />

amorphous silicon <strong>solar</strong> cells, has commercial-scale production of <strong>solar</strong> <strong>panel</strong>, also did not jump out of<br />

silicon series. In fact, the semiconductor materials for manufacture of <strong>solar</strong> cells a lot, along with the<br />

development of industrial materials, <strong>solar</strong> cells will be more and more varieties. Research and trial<br />

production has been the <strong>solar</strong> cell, in addition to silicon series, there are cadmium sulfide, gallium<br />

arsenide, copper indium selenium and many other types of <strong>solar</strong> cells, too numerous to mention, the<br />

following are a few of the more common <strong>solar</strong> cells.<br />

Monocrystalline silicon <strong>solar</strong> cells<br />

Monocrystalline silicon <strong>solar</strong> cells <strong>is</strong> currently the fastest developing a <strong>solar</strong> cell, its composition and<br />

production technology has been finalized, the products have been widely used for space and ground<br />

facilities. The high purity single crystal silicon <strong>solar</strong> cells as the raw material rod, 99.999% purity. In<br />

order to reduce production costs, and now <strong>solar</strong> terrestrial applications such as the use of <strong>solar</strong>-grade


silicon rods, material performance has been relaxed. Some semiconductor devices can also be used for<br />

processing materials and d<strong>is</strong>card ends of silicon materials, <strong>solar</strong> cells made by re-drawing a dedicated<br />

silicon rods. The slice of silicon rods, generally 0.3 mm thick slices. Wafer after forming, pol<strong>is</strong>hing,<br />

cleaning and other processes, made of silicon raw material to be processed. <strong>Solar</strong> cell processing chip,<br />

the first doping and diffusion in silicon, usually for the small amount of boron dopant, phosphorus,<br />

antimony and so on. Diffusion <strong>is</strong> the control into the quartz furnace for high temperature diffusion. And<br />

then using screen printing will be printed with a good paste made of silicon gate line, after sintering,<br />

also made of the back electrode and a gate line in the face of anti-reflection coating source, to<br />

prevent a large number of photons reflected from a smooth silicon surface, thus, single-chip silicon<br />

<strong>solar</strong> cells are produced. After single-chip random testing, according to the required specifications can<br />

be assembled into <strong>solar</strong> modules (<strong>solar</strong> <strong>panel</strong>s), the method used in series and parallel to a certain<br />

output voltage and current, and finally with the framework and package materials package. According<br />

to the system user can design different size <strong>solar</strong> module <strong>solar</strong> cell composed of a variety of square,<br />

also known as the <strong>solar</strong> array. Current silicon photoelectric conversion efficiency of <strong>solar</strong> cells <strong>is</strong> about<br />

15%, laboratory results have more than 20%. Also for the space station up to 50% or more <strong>solar</strong> <strong>panel</strong>s.<br />

Polycrystalline silicon <strong>solar</strong> cells<br />

Monocrystalline silicon <strong>solar</strong> cell production requires large amounts of high-purity silicon material, the<br />

production of these materials, process complexity, power consumption drastically, the total cost of<br />

<strong>solar</strong> cell production has been over half, combined with the silicon rod was drawn cylindrical, sliced<br />

wafer production <strong>solar</strong> cells <strong>is</strong> to form a <strong>solar</strong> module surface low utilization rate. Thus, 80 years, some<br />

European and American countries, the development into a polycrystalline silicon <strong>solar</strong> cells.<br />

Polycrystalline silicon <strong>solar</strong> cells using current materials, mostly a collection contains a lot of single<br />

crystal particles, or silicon materials from waste materials and metallurgical grade silicon melt molded.<br />

The process <strong>is</strong> to select a res<strong>is</strong>tivity of 100 to 300 ohms? Cm block of material or a polycrystalline<br />

silicon material end to end, after crushing, with the 1:5 mixture of hydrofluoric acid and nitric acid<br />

corrosion appropriate, and then spent neutral-ionized water rinse and drying. Quartz crucible installed<br />

polysilicon materials, the addition of appropriate amount of boron in silicon, release the casting<br />

furnace, heating and melting in a vacuum state. Melted insulation should be about 20 minutes, and<br />

then injected into the graphite mold, to be cooled slowly solidified, that have polysilicon ingot. The<br />

ingots can be cast cubes to be processed into square slices film <strong>solar</strong> cells can improve material<br />

utilization and easy assembly. Polycrystalline silicon <strong>solar</strong> cells and <strong>solar</strong> cell production process <strong>is</strong><br />

similar to the photoelectric conversion efficiency of about 12%, slightly lower than the silicon <strong>solar</strong><br />

cells, but the material <strong>is</strong> simple, to save power consumption, the total production costs low, so get a<br />

lot of development. As the technology was improved, the current conversion efficiency of<br />

polycrystalline silicon can also be reached around 14%.<br />

Amorphous silicon <strong>solar</strong> cells<br />

Amorphous silicon <strong>solar</strong> cells appeared in 1976 with a new thin film <strong>solar</strong> cells, monocrystalline and<br />

polycrystalline silicon <strong>solar</strong> cells it with the production method <strong>is</strong> completely different, very little<br />

silicon material consumption, lower power consumption, very attractive. Method of manufacturing a<br />

variety of amorphous silicon <strong>solar</strong> cells, the most common <strong>is</strong> the glow d<strong>is</strong>charge method, as well as<br />

reactive sputtering, chemical vapor deposition, electron beam evaporation and thermal decomposition<br />

of silane method. Glow d<strong>is</strong>charge method <strong>is</strong> a Dan Yingrong device pumped into vacuum, hydrogen or<br />

argon gas filled diluted silane, with the RF power heating, ionization of silane to form a plasma.<br />

Deposition of amorphous silicon film on the substrate being heated. If the silane were mixed in the<br />

amount of hydrogenated or hydrogenated boron phosphate can be N-or P-type amorphous silicon film.<br />

Substrate materials are generally made of glass or stainless steel. Preparation of amorphous silicon thin<br />

film technology which depends mainly on the strict control of pressure, flow rate and RF power, the<br />

temperature of the substrate <strong>is</strong> also very important. The structure of amorphous silicon <strong>solar</strong> cells<br />

there are different, which has a structure called the PiN better battery, it <strong>is</strong> first deposited on the<br />

substrate N-type layer of amorphous silicon doped with phosphorus, and then deposited a layer of


undoped i layer, and then deposited a layer of P-type boron-doped amorphous silicon, and finally a<br />

layer of electron beam evaporation of antireflection coatings, and deposition of silver electrodes. Th<strong>is</strong><br />

production process, a series of deposition chamber can be used in production form a continuous<br />

process to achieve mass production. Meanwhile, the thin amorphous silicon <strong>solar</strong> cells can be made into<br />

laminated type, or use to manufacture integrated circuits in a plane, with the appropriate mask<br />

technology, a production of multiple batteries in series to obtain higher voltage . Because the average<br />

crystalline silicon <strong>solar</strong> cells around a single voltage of 0.5 volts, and now the production of amorphous<br />

silicon tandem <strong>solar</strong> cells in Japan up to 2.4 volts. The current problem <strong>is</strong> that of amorphous silicon<br />

<strong>solar</strong> cell conversion efficiency <strong>is</strong> low, the international advanced level of about 10%, and <strong>is</strong> not stable<br />

enough, often decline down conversion efficiency of the phenomenon, so not a lot of use for largescale<br />

<strong>solar</strong> power, but mostly with in low light power, such as pocket electronic calculators, electronic<br />

watches and clocks and copier and so on. Failure to overcome the drop in efficiency <strong>is</strong>sues, the<br />

amorphous silicon <strong>solar</strong> cells will promote the great development of <strong>solar</strong> energy, because its low cost,<br />

light weight, easier application, it can be combined with the housing of the roof form independent<br />

power of households.<br />

In the fierce sun, single crystal <strong>solar</strong> <strong>panel</strong>s can be transformed more and more non-crystal-type <strong>solar</strong><br />

energy to electricity more than doubled, but unfortunately, the price of single crystal type of noncrystal-like<br />

than the two or three times more expensive, and in the case of non-cloudy Instead, the<br />

crystal-type trans<strong>is</strong>tor can be almost as much to collect <strong>solar</strong> energy.


<strong>Solar</strong> <strong>Panel</strong> Mounting<br />

For home <strong>solar</strong> arrays, we generally recommend mounting <strong>solar</strong> <strong>panel</strong>s at the top of a sturdy pole. Th<strong>is</strong><br />

<strong>is</strong> called a pole top mount. They are easy to install. They keep the <strong>panel</strong>s off the ground and out of<br />

harm’s way but are easy to adjust and to reach for snow removal. Yes, when the snow stops falling and<br />

the sun comes back out, you want to be able to sweep the snow off those <strong>panel</strong>s. So think about where<br />

you place them, how far they are from the house, and how high up they are.<br />

A pole top mount can be either fixed, which means it holds the <strong>panel</strong> stationary, or it can move, or<br />

track, with the sun. A <strong>solar</strong> <strong>panel</strong> mount that allows the <strong>panel</strong> to move with the sun <strong>is</strong> called a tracker.<br />

Fixed Racks can include Ground Mounting, Roof Mounting, Pole-Side Mounting, Boat/RV Mounts, as<br />

well as Pole Top Mounting. All trackers are mounted on poles, and so are technically pole top mounts.<br />

The pole of a pole top mount must be anchored in the ground by digging a hole and filling it with<br />

concrete. The size of hole in diameter <strong>is</strong> usually 18 inches to 2 feet (18 inches plus the diameter of the<br />

pole). The depth of the hole must be 1/2 of the height of the pole above ground. If the pole will be 7<br />

feet above ground, you have to dig a 3 1/2 foot hole.<br />

The placement of your <strong>solar</strong> <strong>panel</strong>s, whatever kind of mounting system you are using, can make a huge<br />

difference in the amount of electricity you are able to produce. Be very careful not to place your<br />

<strong>panel</strong>s in an area that <strong>is</strong> shaded by trees or buildings or any other object. Note carefully that the<br />

shadow made by your house moves at least 22 feet farther to the south in the winter. If you place your<br />

<strong>panel</strong>s within that d<strong>is</strong>tance, you’ll be very d<strong>is</strong>appointed during those short winter days.


We have three types <strong>solar</strong> <strong>panel</strong> mounting:<br />

Pitch Roof mounting look neat, but are hard to reach to adjust the angle. Will you want to walk across<br />

your roof several times a year to adjust the angle? <strong>Do</strong>es it snow often? Will you have to walk across a<br />

slippery roof to sweep snow off the <strong>panel</strong>s? Is the slope of the roof you want to use good for optimum<br />

<strong>solar</strong> <strong>panel</strong> efficiency or will you need tilt legs to face your <strong>panel</strong>s more perpendicular to the sun?<br />

Pole Mounting are designed to hold 1 to 4 modules and are mounted to the pole with either hose<br />

clamps or U-bolts (not provided). The racks accommodate different sized poles and are adjustable for<br />

optimal sun angle from 15 to 65 degrees in 10-degree increments. Pole size <strong>is</strong> determined by the<br />

number of modules to be mounted.<br />

Ground Mounting are probably the easiest way to mount <strong>solar</strong> <strong>panel</strong>s. Th<strong>is</strong> mount resembles an Aframe.<br />

It safest to attach th<strong>is</strong> structure to a cement slab so that it may be secured in place. Ground<br />

mounts are designed to handle from 1 to 8 <strong>solar</strong> modules. Ground mounts can be used to attach <strong>solar</strong><br />

<strong>panel</strong>s to the ground, to a roof and or to a vertical surface. Some ground mounts have tiltable, or<br />

adjustable legs; others are fixed. Optional adjustable tilt legs are available for several of the styles of<br />

<strong>panel</strong>s Wholesale <strong>Solar</strong> sells.<br />

¢: Pitch roof <strong>solar</strong> mounting<br />

Rooftop <strong>solar</strong> mounting system apply for all kinds of pitch roof of any building. <strong>Solar</strong> <strong>panel</strong> can fastened<br />

onto the top flute of our patented <strong>solar</strong> mounting rail. L-feet connects with the bottom of the rail,<br />

which mounted firmly to the roof. Install flashing over a layer of shingles to insure water res<strong>is</strong>tance. A<br />

single wrench <strong>is</strong> enough for the installation procedures. Detailed installation manual ensure an easy<br />

and smooth installation.<br />

Specification:<br />

• Design Wind Load: 55m/s or 200km/hour<br />

• Design Snow Load: 1.5kn/m2<br />

• Steel structure: Anodized Aluminum + Stainless Steel<br />

• reference standard: AS/NZ 1170.2<br />

• Installation site:Pitch root<br />

• Guarantee: Ten years guarantee on parts


1.We use L-feet for tin roof and hook for tile-roof to connect the rack structure with the rafters of the<br />

roof.<br />

2.At the installation site we do not require welding, and even have no need to drill a hole, just using<br />

the electrical locks and wrenches and other simple tools to complete the installation. Th<strong>is</strong> simplify the<br />

traditional installation procedure, we will manage to preassemble the screws and nuts before shipment<br />

to reduce on-site installation procedures and labor intensity. Eliminate the differences in degree of<br />

on-site professional installation and degree of impact on the quality of the roof support system.<br />

3.Utilization of the anodized aluminum, stainless steel, anti-aging UV process to ensure the longer life<br />

span of our <strong>solar</strong> technology and <strong>solar</strong> tracking.<br />

£: Ground <strong>Solar</strong> <strong>Panel</strong> Mounting:<br />

Ground <strong>Solar</strong> <strong>Panel</strong> Mounting <strong>is</strong> suitable for flat roofs of various structures or for the ground. One end<br />

of the cross-beam <strong>is</strong> connected firmly with the ground structure by base bracket and hex-bolts and the<br />

another end <strong>is</strong> connected to the support leg forming a stable and strong tripod structure. The<br />

connecting foot <strong>is</strong> made up of stainless steel to enhance the load bearing capacity. Stainless steel itself<br />

has a good physical and chemical mechanical performance, service life can reach more than 30 years.


Specification:<br />

Design Wind Load¤55m/s or 200km/hour<br />

Design Snow Load¤1.5kn/m2<br />

Steel structure: Anodized Aluminum + Stainless Steel<br />

Reference standard: AS/NZ 1170.2<br />

Installation site: Flat roop or Ground<br />

Guarantee: Ten years guarantee on parts<br />

: Pole <strong>Solar</strong> <strong>Panel</strong> Mounting ¥<br />

Pole system <strong>is</strong> designed for up to 1.5kw <strong>panel</strong> mounting system, with the wind load up to 200km/h.<br />

Th<strong>is</strong> <strong>panel</strong> mounting system <strong>is</strong> suited for large photovoltaic system installation in all wind zones. Th<strong>is</strong><br />

<strong>solar</strong> mounting system can adjust the tilt angle according to the requirement of the installation place.<br />

There <strong>is</strong> no need to welding in the complete installation process. According to our manual instruction,<br />

you can install the <strong>solar</strong> modules easily, quickly, securely and cost efficiently.


Specification:<br />

Design Wind Load¤55m/s<br />

Design Snow Load¤1.5kn/m2<br />

Steel structure¤Hot dipped galvanized steel + Anodized Aluminum<br />

Reference standard¤AS/NZ 1170.2<br />

Tracker type¤Fixed<br />

Tilt angle¤0°— 60°<br />

Guarantee¤Ten years guarantee on parts<br />

1. Convenient and quick installation. The use of bolted connections eliminates drilling and welding<br />

process automatically reducing the operating time.<br />

2. Mounting rack structure uses hot dip galvanized steel parts which gives a good external<br />

appearance(silvery white) and also has good corrosion res<strong>is</strong>tance.Under natural conditions, it can be<br />

used for 20-30 years.<br />

3. Batteries components are made up of aluminum alloy treated with anode oxidation process which<br />

makes the appearance of smooth and bright. Since th<strong>is</strong> material <strong>is</strong> same as <strong>panel</strong> frame, it can<br />

decrease metal corrosion phenomena mutually.<br />

4 Holding component( bolts ,screws) are made of stainless steel bolts, stainless steel itself has a good<br />

physical and chemical mechanical properties, its service life span can reach more than 30 years.


Ground <strong>Solar</strong> <strong>Panel</strong> Mounting System<br />

Ground <strong>Solar</strong> <strong>Panel</strong> Mounting System For Safe<br />

Installation <strong>Work</strong><br />

Th<strong>is</strong> manual contains critical information regarding<br />

electrical and mechanical installation and safety<br />

information which you should know before starting<br />

installation.<br />

CAUTIONS REGARDING INSTALLATION OF<br />

GRACESOLAR<br />

►Stop working duringunder storms, typhoons,<br />

hurricanes, earthquakes, volcanic eruptions and<br />

other adverse weather and natural d<strong>is</strong>aster<br />

situations.<br />

►Never step or sit on the glass surface of a <strong>solar</strong> module. The glass may break, resulting in shock or<br />

bodily injury. The module may also stop generating power.<br />

►Please strictly abide by height safety regulation in high-attitude operation<br />

►Please strictly abide by live working safety norms in line operation<br />

►Please strictly abide by heat work safety regulation in heat work operation<br />

►Always use the specified tools. The <strong>solar</strong> modules or mounts may fall if the installation <strong>is</strong> not strong<br />

enough, for example when parts are not tightened sufficiently.<br />

►Please strictly in accordance with the requirements of th<strong>is</strong> manual for installation.<br />

►Installation Steps<br />

►Fix the pole as demonstrated. Install the main beam by Φ30 Pin. Install the adjustable part by<br />

Φ20pin(Picture 4) One end attached to pole, the other end attached to main beam.<br />

►Place the supporting beam on the main beam, fix it with M8 hex screws.<br />

►Install the 4040 conjunctions. With M8 screw go in through the hole on the supporting beam. Install<br />

all the conjunctions in th<strong>is</strong> way. Keep all the conjunction face one side<br />

►Place the rails on the supporting beam. The rail <strong>is</strong> attached to the conjunction.<br />

Note¤Rails connected by splice kit.<br />

►Place the first module of the bottom row. Slide the end clamp tightly against the <strong>solar</strong> <strong>panel</strong> and<br />

fasten it.<br />

Note¤The rail should leave a space 25mm-30mm¤<br />

of<br />

►Slide the next module against the installed module. Fasten the mid clamp. Install other modules and<br />

clamps in th<strong>is</strong> way. Keep module even.<br />

The angel could be adjustable by the adjustable parts by changing its position to the main beam.


Pole Top <strong>Solar</strong> <strong>Panel</strong> Mounting System<br />

Pole Top <strong>Solar</strong> <strong>Panel</strong> Mounting System<br />

Th<strong>is</strong> manual contains critical information<br />

regarding electrical and mechanical installation<br />

and safety information which you should know<br />

before starting installation.<br />

CAUTIONS REGARDING INSTALLATION OF<br />

GRACESOLAR<br />

►Stop work during stormy weather. <strong>Solar</strong><br />

modules can be caught in the wind, causing you<br />

to fall.<br />

►Never step or sit on the glass surface of a<br />

<strong>solar</strong> <strong>panel</strong>. The glass may break, resulting in shock or bodily injury. The module may also stop<br />

generating power.<br />

►Always use the supplied parts to attach the <strong>solar</strong> modules and mounts. Use of weaker parts, such as<br />

screws that are too short, <strong>is</strong> dangerous and may cause the <strong>solar</strong> modules or mounts to fall.<br />

►Always use the specified tools. The <strong>solar</strong> modules or mounts may fall if the installation <strong>is</strong> not strong<br />

enough, for example when parts are not tightened sufficiently.<br />

►<strong>Do</strong> not modify or cut parts. <strong>Do</strong>ing so <strong>is</strong> dangerous. Safety cannot be guaranteed.<br />

►Product should be installed and maintained by qualified personnel. Keep unauthorized personnel<br />

away from <strong>solar</strong> modules<br />

Installation Steps<br />

►Determine the position of leg positions in the beginning.<br />

►The d<strong>is</strong>tance between each leg pair L1 equals to the length of Supporting Pipe<br />

►Installation of the angle iron onto the legs.<br />

►Put Supporting Pipe onto the front leg/rear leg, Fixed it with U-bolts.<br />

►Firstly put rails on the supporting pipe.<br />

►Note: the position of the rails.<br />

► Installation of the splice to connect multiple rails together. Slide the splice on the rear side of the<br />

pre-assembled rails. Fasten the first bolt firmly. Then slide the next rail into the splice.<br />

►Installation of the rails. Fix the rail with U bolt kit.<br />

►Install all the rails onto the supporting pipe.<br />

►Place the first module of the bottom row. Slide the end clamp tightly against the module and fasten<br />

it. Install the end clamp and mid clamps.


►The edge of <strong>solar</strong> <strong>panel</strong> to the rail 25mm-30mm¤<br />

d<strong>is</strong>tance:<br />

►Installation of clamps¦<br />

the<br />

►Slide the next module against the installed module. Fasten the mid clamp. Install other modules and<br />

clamps in th<strong>is</strong> way. Keep module even.<br />

►Install all the <strong>panel</strong>s. Fin<strong>is</strong>hed.


Pitched Roof Racking <strong>Solar</strong> <strong>Panel</strong> Mounting System Installation Manual<br />

For Safe Pitched Roof Racking <strong>Solar</strong> <strong>Panel</strong> Mounting System Installation <strong>Work</strong><br />

Th<strong>is</strong> manual contains critical information<br />

regarding electrical and mechanical<br />

installation and safety information which<br />

you should know before starting<br />

installation.<br />

CAUTIONS REGARDING INSTALLATION OF<br />

GRACESOLAR<br />

►Stop work during stormy weather. <strong>Solar</strong><br />

<strong>panel</strong> can be caught in the wind, causing<br />

you to fall.<br />

►Never step or sit on the glass surface of a<br />

<strong>solar</strong> module. The glass may break,<br />

resulting in shock or bodily injury. The<br />

module may also stop generating power.<br />

►Always use the supplied parts to attach the <strong>solar</strong> modules and mounts. Use of weaker parts, such as<br />

screws that are too short, <strong>is</strong> dangerous and may cause the <strong>solar</strong> modules or mounts to fall.<br />

►Always use the specified tools. The <strong>solar</strong> modules or mounts may fall if the installation <strong>is</strong> not strong<br />

enough, for example when parts are not tightened sufficiently.<br />

►<strong>Do</strong> not modify or cut parts. <strong>Do</strong>ing so <strong>is</strong> dangerous. Safety cannot be guaranteed.<br />

►Product should be installed and maintained by qualified personnel. Keep unauthorized personnel<br />

away from <strong>solar</strong> modules<br />

POINTS TO CHECK<br />

►Determine the wind loads for the installation site. Check with your local building and safety<br />

department for the specific requirements. Make certain that the roof structure can support the live<br />

and dead loads resulting from the installation of the PV array.<br />

►Install <strong>solar</strong> modules facing south, if possible. Installations facing east and west are also possible,<br />

although the amount of power generated will be lower.<br />

Installation Steps<br />

►Determine the position of the roof hooks according to your design.<br />

►The roof hook must not press against the roof tile. Place it flat. If necessary, shim the roof hook with<br />

wood.<br />

If necessary, use an angle grinder or hammer to cut a concavity in the tile that covers the roof hook at<br />

the point where the roof hook comes through. (Caution! Must not use fixed roof hook as a ladder, as<br />

th<strong>is</strong> extreme point load could damage the tile below.<br />

►Installation of the rails on roof hooks. Your rails cons<strong>is</strong>t of different length, always begin with the<br />

shortest piece. Install the rails on the roof hooks loosely at first, using T-screw.<br />

►Installation of Clamps


Installation of the splice to connect multiple rails together. Slide the splice on the rear side of the preassembled<br />

rails. Fasten the first bolt firmly. Then slide the next rail into the splice. When comes<br />

together, fasten the other bolt. The connection <strong>is</strong> fin<strong>is</strong>hed. An expansion gap at the rail joints <strong>is</strong><br />

suggested. Leave a gap about a finger width.<br />

►Place the first module of the bottom row. Slide the end clamp tightly against the module and fasten<br />

it. Install the end clamp and mid clamps.<br />

►Clamp Installation<br />

►Slide the next module against the installed module. Fasten the mid clamp. Install other modules and<br />

clamps in th<strong>is</strong> way. Keep module even.


<strong>Solar</strong> Charge Controller<br />

A <strong>Solar</strong> charge controller, or <strong>solar</strong> regulator <strong>is</strong><br />

similar to the voltage regulator in your car. It<br />

regulates the voltage and current coming from the<br />

<strong>solar</strong> <strong>panel</strong>s going to the battery. Most “12 volt”<br />

<strong>panel</strong>s put out about 16 to 20 volts, so if there <strong>is</strong> no<br />

regulation the batteries will be damaged from<br />

overcharging. Most batteries need around 14 to 14.5<br />

volts to get fully charged.<br />

Not always, but usually. Generally, there <strong>is</strong> no need<br />

for a <strong>Solar</strong> charge Controller with the small<br />

maintenance, or trickle charge <strong>panel</strong>s, such as the 1<br />

to 5 watt <strong>solar</strong> <strong>panel</strong>s. A rough rule <strong>is</strong> that if the <strong>panel</strong><br />

puts out about 2 watts or less for each 50 battery<br />

amp-hours, then you don’t need one.<br />

We offer high quality and cheap price PWM <strong>Solar</strong><br />

Charge Controller and MPPT <strong>Solar</strong> Charge<br />

Controller. There has JUTA, EP and Cinco series<br />

<strong>Solar</strong> Charge Controller.Such As, CMP12,<br />

CM3024Z, CM5024Z, MPPT-10,MPPT-20, MPPT-<br />

30, EP <strong>solar</strong> controller LandStar, SeaStar and<br />

ViewStar, And Tracker MPPT <strong>Solar</strong> Controller.all<br />

above types <strong>solar</strong> controller are widely sell over 50<br />

countries.<br />

<strong>How</strong> do the <strong>Solar</strong> Charge Controller <strong>Work</strong>?<br />

For example, a standard flooded golf car battery <strong>is</strong><br />

around 210 amp-hours. So to keep up a series pair of<br />

them (12 volts) just for maintenance or storage, you would want a <strong>panel</strong> that <strong>is</strong> around 4.2 watts. The<br />

popular 5 watt <strong>panel</strong>s are close enough, and will not need a controller. If you are maintaining AGM<br />

deep cycle batteries, such as the Concorde Sun Xtender then you can use a smaller 2 to 2 watt <strong>panel</strong>.<br />

What <strong>is</strong> the different from PWM and MPPT <strong>Solar</strong> Charge Controller?<br />

• PWM <strong>Solar</strong> Charge Controller:<br />

Quite a few charge controls have a “PWM” mode. PWM stands for Pulse Width Modulation. PWM <strong>is</strong> often<br />

used as one method of float charging. Instead of a steady output from the controller, it sends out a<br />

series of short charging pulses to the battery – a very rapid “on-off” switch. The controller constantly<br />

checks the state of the battery to determine how fast to send pulses, and how long (wide) the pulses<br />

will be. In a fully charged battery with no load, it may just “tick” every few seconds and send a short<br />

pulse to the battery. In a d<strong>is</strong>charged battery, the pulses would be very long and almost continuous, or


the controller may go into “full on” mode. The controller checks the state of charge on the battery<br />

between pulses and adjusts itself each time.<br />

• MPPT <strong>Solar</strong> Charge Controller:<br />

MPPT <strong>solar</strong> charge controller schematic, A maximum power point tracker (or MPPT) <strong>is</strong> a high efficiency<br />

DC to DC converter which functions as an optimal electrical load for a photovoltaic (PV) cell, most<br />

commonly for a <strong>solar</strong> <strong>panel</strong> or array, and converts the power to a voltage or current level which <strong>is</strong> more<br />

suitable to whatever load the system <strong>is</strong> designed to drive.<br />

The most basic <strong>solar</strong> charge controller simply monitors the battery voltage and opens the circuit,<br />

stopping the charging, when the battery voltage r<strong>is</strong>es to a certain level. Older charge controllers used a<br />

mechanical relay to open or close the circuit, stopping or starting power going to the batteries.<br />

More modern charge controllers use pulse width modulation (PWM) to slowly lower the amount of<br />

power applied to the batteries as the batteries get closer and closer to fully charged. Th<strong>is</strong> type of<br />

controller allows the batteries to be more fully charged with less stress on the battery, extending<br />

battery life. It can also keep batteries in a fully charged state (called “float”) indefinitely. PWM <strong>is</strong><br />

more complex, but doesn’t have any mechanical connections to break.<br />

The most recent and best type of <strong>solar</strong> charge controller <strong>is</strong> called maximum power point tracking or<br />

MPPT. MPPT <strong>solar</strong> controllers are basically able to convert excess voltage into amperage. Th<strong>is</strong> has<br />

advantages in a couple of different areas.<br />

Most <strong>solar</strong> power systems use 12 volt batteries, like you find in cars. (Some use other voltages and the<br />

same advantages apply to these systems as well.) <strong>Solar</strong> <strong>panel</strong>s can deliver far more voltage than <strong>is</strong><br />

required to charge the batteries. By, in essence, converting the excess voltage into amps, the charge<br />

voltage can be kept at an optimal level while the time required to fully charge the batteries <strong>is</strong><br />

reduced. Th<strong>is</strong> allows the <strong>solar</strong> power system to operate optimally at all times.<br />

Another area that <strong>is</strong> enhanced by an MPPT charge controller <strong>is</strong> power loss. Lower voltage in the wires<br />

running from the <strong>solar</strong> <strong>panel</strong>s to the charge controller results in higher energy loss in the wires than<br />

higher voltage. With a PWM charge controller used with 12v batteries, the voltage from the <strong>solar</strong> <strong>panel</strong><br />

to the charge controller typically has to be 18v. Using an MPPT controller allows much higher voltages<br />

in the wires from the <strong>panel</strong>s to the <strong>solar</strong> charge controller. The MPPT controller then converts the<br />

excess voltage into additional amps. By running higher voltage in the wires from the <strong>solar</strong> <strong>panel</strong>s to the<br />

charge controller, power loss in the wires <strong>is</strong> reduced significantly.<br />

MPPT charge controllers are more expensive that PWM charge controllers, but the advantages are<br />

worth the cost. If you can afford it, you should definitely use an MPPT <strong>solar</strong> charge controller.<br />

The final function of modern <strong>solar</strong> charge controllers <strong>is</strong> preventing reverse-current flow. At night, when<br />

<strong>solar</strong> <strong>panel</strong>s aren’t generating electricity, electricity can actually flow backwards from the batteries<br />

through the <strong>solar</strong> <strong>panel</strong>s, draining the batteries. You’ve worked hard all day using <strong>solar</strong> power to<br />

charge the batteries, you don’t want to waste all that power! The charge controller can detect when<br />

no energy <strong>is</strong> coming from the <strong>solar</strong> <strong>panel</strong>s and open the circuit, d<strong>is</strong>connecting the <strong>solar</strong> <strong>panel</strong>s from the<br />

batteries and stopping reverse current flow.


¢: JUTA Series <strong>Solar</strong> Charge Controller<br />

Model No<br />

Max Load<br />

Current<br />

Output Volatge <strong>Work</strong> Model Application Other Information<br />

CMP 3A 1A or 3A 6V or 12V PWM <strong>Solar</strong> Lamp Light and timer Sensor<br />

CMP 6A 6A 12V 24V Auto Switch PWM <strong>Solar</strong> System<br />

CMP 10A 10A 12V 24V Auto Switch PWM <strong>Solar</strong> System<br />

CMP 12A 12A 12V 24V Auto Switch PWM <strong>Solar</strong> System<br />

CM3024Z 30A 12V 24V Auto or 48V PWM <strong>Solar</strong> System LCD<br />

CM5024Z 50A 12V 24V Auto or 48V PWM <strong>Solar</strong> System LCD<br />

MPPT-05 5A 12V or 24V MPPT <strong>Solar</strong> Lamp Light and timer Sensor<br />

MPPT-10 10A 12V or 24V or 48V MPPT <strong>Solar</strong> System LCD<br />

MPPT-20 20A 12V or 24V or 48V MPPT <strong>Solar</strong> System LCD<br />

MPPT-30 30A 24V MPPT <strong>Solar</strong> System LCD


: EP Series <strong>Solar</strong> Charge Controller £<br />

Model No<br />

EPRC10-<br />

ST<br />

EPRC10-<br />

MF<br />

Max Load<br />

Current<br />

Output Volatge<br />

<strong>Work</strong><br />

Model<br />

Application Other Information<br />

5A,10A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light and Timer Sensor<br />

10A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light and Timer Sensor,Waterproof<br />

EPIP20-2L 15A,20A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light and Timer Sensor,Two Load<br />

EPIP20-DB 10A,20A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light,timer,Dual Battery,Meter<br />

EPHC10-<br />

ST<br />

5A,10A 12V 24V Auto Switch PWM <strong>Solar</strong> System<br />

EPIP20-H 15A,20A 12V 24V Auto Switch PWM <strong>Solar</strong> System<br />

EPIP30 20A,30A 12V 24V Auto Switch PWM <strong>Solar</strong> System LCD d<strong>is</strong>play<br />

EPIP602 30A,40A,50A,60A 12V 24V, 24V 48V Auto PWM <strong>Solar</strong> System LCD d<strong>is</strong>play<br />

EPIP603 30A,40A,50A,60A 12V 24V, 24V 48V Auto PWM <strong>Solar</strong> System LCD d<strong>is</strong>play<br />

IPS48 100A,200A 48V PWM <strong>Solar</strong> System LCD d<strong>is</strong>play


NEW EP Series <strong>Solar</strong> Charge Controller<br />

Model No<br />

Max Load<br />

Current<br />

Output Volatge<br />

<strong>Work</strong><br />

Model<br />

Application Other Information<br />

Tracer 10A 10A 12V 24V Auto Switch MPPT <strong>Solar</strong> System 1206 60V/1210 100V/1215 150V<br />

Tracer 20A 20A 12V 24V Auto Switch MPPT <strong>Solar</strong> System 1206 60V/1210 100V/1215 150V<br />

Tracer 40A 40A 12V 24V Auto Switch MPPT <strong>Solar</strong> System 1206 60V/1210 100V/1215 150V<br />

LS0524 5A 12V 24V Auto Switch PWM <strong>Solar</strong> System<br />

LS1024 10A 12V 24V Auto Switch PWM <strong>Solar</strong> System<br />

LS1524 15A 12V 24V Auto Switch PWM <strong>Solar</strong> System<br />

LS2024 20A 12V 24V Auto Switch PWM <strong>Solar</strong> System<br />

LS0524R 5A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light and Timer Sensor<br />

LS1024R 10A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light and Timer Sensor<br />

LS1524R 15A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light and Timer Sensor<br />

LS2024R 20A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light and Timer Sensor<br />

LS1024RD 10A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light and Timer Sensor,dual Load<br />

LS1524RD 15A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light and Timer Sensor,dual Load<br />

LS2024RD 20A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light and Timer Sensor,dual Load<br />

LS1024RP 10A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light,Timer Sensor,Waterproof<br />

LS1524RP 15A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light,Timer Sensor,Waterproof


LS2024RP 20A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light,Timer Sensor,Waterproof<br />

LS1024RPD 10A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light,Timer,Waterproof,Dual Load<br />

LS1524RPD 15A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light,Timer,Waterproof,Dual Load<br />

LS2024RPD 20A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light,Timer,Waterproof,Dual Load<br />

LS1024S 10A 12V 24V Auto Switch PWM <strong>Solar</strong> System Surface mounting<br />

LS1524S 15A 12V 24V Auto Switch PWM <strong>Solar</strong> System Surface mounting<br />

LS2024S 20A 12V 24V Auto Switch PWM <strong>Solar</strong> System Surface mounting<br />

SS1024 10A 12V 24V Auto Switch PWM <strong>Solar</strong> System Aluminum case,Mo<strong>is</strong>ture Proof<br />

SS1524 15A 12V 24V Auto Switch PWM <strong>Solar</strong> System Aluminum case,Mo<strong>is</strong>ture Proof<br />

SS2024 20A 12V 24V Auto Switch PWM <strong>Solar</strong> System Aluminum case,Mo<strong>is</strong>ture Proof<br />

SS1024R 10A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light and Timer Sensor,Mo<strong>is</strong>ture Proof<br />

SS1524R 15A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light and Timer Sensor,Mo<strong>is</strong>ture Proof<br />

SS2024R 20A 12V 24V Auto Switch PWM <strong>Solar</strong> Lamp Light and Timer Sensor,Mo<strong>is</strong>ture Proof<br />

VS-24V 10A-60A 12V 24V Auto Switch PWM <strong>Solar</strong> System LCD D<strong>is</strong>play<br />

VS-48V 10A-60A 12V 24V 36V 48V Auto PWM <strong>Solar</strong> System LCD D<strong>is</strong>play


What <strong>is</strong> <strong>Solar</strong> Charge Controller?<br />

What <strong>is</strong> <strong>Solar</strong> Charge Controller?<br />

A <strong>Solar</strong> Charge Controller (also known as a charge<br />

controller) <strong>is</strong> used in conjunction with a stand alone (off<br />

grid) system, or a grid connect <strong>solar</strong> power system that<br />

incorporates a backup battery bank. For a grid connect<br />

<strong>solar</strong> power system that doesn’t use batteries, a <strong>Solar</strong><br />

Charge Controller <strong>is</strong> not needed.<br />

A <strong>Solar</strong> Charge Controller <strong>is</strong> a small box cons<strong>is</strong>ting of<br />

solid state circuitry which <strong>is</strong> placed between a <strong>solar</strong><br />

<strong>panel</strong> and a battery. Its function <strong>is</strong> to regulate the<br />

amount of charge coming from the <strong>panel</strong> that flows into<br />

the deep cycle battery bank in order to avoid the batteries being overcharged. A regulator can also<br />

provide a direct connection to appliances, while continuing to recharge the battery; i.e. you can run<br />

appliances directly from it, bypassing the battery bank; but the batteries will continue to be<br />

charged.Modern <strong>Solar</strong> Charge Controllers are very efficient and will outperform just about any 3 stage<br />

mains power battery charger.<br />

<strong>How</strong> to Choose <strong>Solar</strong> Charge Controller?<br />

To determine the size regulator you’ll require, check the amp ratings of your <strong>solar</strong> <strong>panel</strong>s and add<br />

those figures up and that will give you the minimum size regulator you’ll need – or you can use our<br />

system builder tool which will tell you the size you’ll need based on various selections.<br />

When selecting a <strong>Solar</strong> Charge Controller, it’s important to also look ahead – if you think you’ll be<br />

adding to your system, it pays to buy a regulator rated as high as possible, which can save you money<br />

when you add additional <strong>solar</strong> <strong>panel</strong>s.<br />

Some <strong>Solar</strong> Charge Controllers include a Low Voltage D<strong>is</strong>connect (LVD) feature. Th<strong>is</strong> monitors the<br />

battery level and will d<strong>is</strong>connect any load connected to the battery if the voltage drops to a point<br />

where continued draw can cause permanent battery damage. Th<strong>is</strong> feature <strong>is</strong> a great protection for your<br />

deep cycle battery investment as a battery that has been d<strong>is</strong>charged too deeply will have a far shorter<br />

serviceable life.<br />

<strong>How</strong> to maintenance <strong>Solar</strong> Charge Controller?<br />

A <strong>Solar</strong> Charge Controller requires no maintenance aside from regular checks of the wired in<br />

connections to see that they are tight and corrosion free. A <strong>Solar</strong> Charge Controller should be mounted<br />

out of direct sunlight and in an area where there <strong>is</strong> decent air flow. While the <strong>Solar</strong> Charge Controllers<br />

of today are extremely robust; performance and serviceable life will suffer in extreme heat.<br />

As an additional safety mechan<strong>is</strong>m to protect the regulator, your batteries and appliances, plus reduce<br />

fire r<strong>is</strong>k, it’s w<strong>is</strong>e to place an appropriately rated fuse between the <strong>solar</strong> <strong>panel</strong> and the regulator.


What <strong>is</strong> MPPT <strong>Solar</strong> Controller?<br />

What <strong>is</strong> MPPT Meaning ? MPPT meaning:MPPT Meaning maximum power point<br />

MPPT Meaning maximum power point tracker <strong>is</strong> a high efficiency DC to DC converter that presents an<br />

optimal electrical load to a <strong>solar</strong> <strong>panel</strong> or array and produces a voltage suitable for the load.most<br />

commonly for a <strong>solar</strong> <strong>panel</strong> or array, and converts the power to a voltage or current level which <strong>is</strong> more<br />

suitable to whatever load the system <strong>is</strong> designed to drive.<br />

<strong>Panel</strong> tracking – th<strong>is</strong> <strong>is</strong> where the <strong>solar</strong> <strong>panel</strong>s<br />

are on a mount that follows the sun. The most<br />

common are the Zomeworks and Wattsun.<br />

These optimize output by following the sun<br />

across the sky for maximum sunlight. These<br />

typically give you about a 15% increase in<br />

winter and up to a 35% increase in summer.<br />

Th<strong>is</strong> <strong>is</strong> just the opposite of the seasonal<br />

variation for MPPT <strong>Solar</strong> Controller. Since<br />

<strong>panel</strong> temperatures are much lower in winter,<br />

they put out more power. And winter <strong>is</strong> usually<br />

when you need the most power from your <strong>solar</strong><br />

<strong>panel</strong>s due to shorter days.<br />

Maximum Power Point Tracking <strong>is</strong> electronic<br />

tracking – usually digital. The charge controller<br />

looks at the output of the <strong>solar</strong> <strong>panel</strong>, and<br />

compares it to the battery voltage. It then figures out what <strong>is</strong> the best power that the <strong>panel</strong> can put<br />

out to charge the battery. It takes th<strong>is</strong> and converts it to best voltage to get maximum AMPS into the<br />

battery. (Remember, it <strong>is</strong> Amps into the battery that counts). Most modern MPPT’s are around 93-97%<br />

efficient in the conversion. You typically get a 20 to 45% power gain in winter and 10-15% in summer.<br />

Actual gain can vary widely depending weather, temperature, battery state of charge, and other<br />

factors.<br />

Grid tie systems are becoming more popular as the price of <strong>solar</strong> drops and electric rates go up. There<br />

are several brands of grid-tie only (that <strong>is</strong>, no battery) inverters available. All of these have built in<br />

MPPT. Efficiency <strong>is</strong> around 94% to 97% for the MPPT conversion on those.


What Advantage of MPPT <strong>solar</strong> controller?<br />

In any applications which PV module <strong>is</strong> energy source, MPPT <strong>solar</strong> controller <strong>is</strong> used to correct for<br />

detecting the variations in the current-voltage character<strong>is</strong>tics of <strong>solar</strong> cell and shown by I-V curve.<br />

MPPT <strong>solar</strong> controller <strong>is</strong> necessary for any <strong>solar</strong> power systems need to extract maximum power from<br />

PV module; it forces PV module to operate at voltage close to maximum power point to draw maximum<br />

available power.<br />

MPPT <strong>solar</strong> controller allows users to use PV module with a higher voltage output than operating<br />

voltage of battery system.For example, if PV module has to be placed far away from charge controller<br />

and battery, its wire size must be very large to<br />

reduce voltage drop. With a MPPT <strong>solar</strong> controller,<br />

users can wire PV module for 24 or 48 V (depending<br />

on charge controller and PV modules) and bring<br />

power into 12 or 24 V battery system. Th<strong>is</strong> means it<br />

reduces the wire size needed while retaining full<br />

output of PV module.<br />

MPPT <strong>solar</strong> controller reduces complexity of system<br />

while output of system <strong>is</strong> high efficiency.<br />

Additionally, it can be applied to use with more<br />

energy sources. Since PV output power <strong>is</strong> used to<br />

control DC-DC converter directly.<br />

MPPT <strong>solar</strong> controller can be applied to other<br />

renewable energy sources such as small water<br />

turbines, wind-power turbines, etc.<br />

Compare to the PMW <strong>solar</strong> controller: The most PWM <strong>Solar</strong> controller simply monitors the battery<br />

voltage and opens the circuit, stopping the charging, when the battery voltage r<strong>is</strong>es to a certain level.<br />

Older charge controllers used a mechanical relay to open or close the circuit, stopping or starting<br />

power going to the batteries.Traditional <strong>Solar</strong> Inverters perform MPPT for an entire array as a whole. In<br />

such systems the same current, dictated by the inverter, flows though all <strong>panel</strong>s in the string. But<br />

because different <strong>panel</strong>s have different IV curves, i.e. different MPPs th<strong>is</strong> architecture means some<br />

<strong>panel</strong>s will be performing below their MPPT, resulting in the loss of energy.


<strong>How</strong> <strong>Do</strong> <strong>Solar</strong> Street Light <strong>Work</strong>?<br />

The <strong>solar</strong> street lights work on the principle of<br />

the photovoltaic cell or <strong>solar</strong> cell. The <strong>solar</strong> cell<br />

converts <strong>solar</strong> energy to the electrical energy<br />

which <strong>is</strong> stored in the battery. The <strong>solar</strong> lamp<br />

draws the current from th<strong>is</strong> battery and it<br />

requires no other wiring.<br />

The <strong>solar</strong> street lights use <strong>solar</strong> energy, a form of<br />

the renewable energy. These days it <strong>is</strong> common<br />

to see the <strong>solar</strong> street lamps along the sides of<br />

roads. The <strong>solar</strong> street lights compr<strong>is</strong>e of the<br />

photovoltaic cells, which absorb the <strong>solar</strong> energy<br />

during daytime. The photovoltaic cells convert<br />

<strong>solar</strong> energy into electrical energy, which <strong>is</strong><br />

stored in the battery. At the nighttime the lamp<br />

starts automatically and it consumes the electricity already stored in the battery. During the day time<br />

the battery gets recharged and the process keeps on repeating every day.<br />

Models of <strong>Solar</strong> Street Lights<br />

1) Sodium Vapor Lights: The sodium street lights use sodium in excited state to d<strong>is</strong>charge the light.<br />

These lights compr<strong>is</strong>e of the <strong>solar</strong> <strong>panel</strong>s that absorb the <strong>solar</strong> energy during daytime, which <strong>is</strong><br />

converted into electricity and stored in the batteries. At nighttime the sodium lamps consume<br />

electricity from rechargeable battery. There <strong>is</strong> no wiring required for these lamps, there are no<br />

electricity bills to be paid, they are very safe and can light the streets from 4 to 12 hours depending on<br />

the size of the <strong>solar</strong> <strong>panel</strong>s and battery. The sodium <strong>solar</strong> street lights can be used for lighting streets,<br />

public places, residential areas, parks, plaza etc.<br />

2) <strong>Solar</strong> LED lights: LED stands for light emitting diode. LED compr<strong>is</strong>es of the chemical compound that<br />

gives of the light when direct current (DC) from the battery passes through it. <strong>Solar</strong> LEDs are available<br />

from number of companies in different sizes, shapes and styles. The life of LED <strong>is</strong> usually very high<br />

extending up to 50,000 hours. The LEDs require very little current hence the <strong>solar</strong> <strong>panel</strong>s of smaller<br />

sizes are required for the <strong>solar</strong> lights with LED lamps.<br />

3) <strong>Solar</strong> Light Controller : <strong>Solar</strong> lights using induction technology: In th<strong>is</strong> technique the lamps used in<br />

the <strong>solar</strong> lights do not contain the filament or the electrodes that tend to get damaged faster, thus<br />

ensuring very high life of the lamp. The life of the lamp in <strong>solar</strong> street lights based on induction<br />

technology can be more than 10, 0000 hours, which <strong>is</strong> almost 100 times the life of the incandescent<br />

lamps. These results in lower maintenance and electrical costs and fewer d<strong>is</strong>turbances caused to the<br />

traffic on the road. Since these lights are based in induction technology, they generate lesser heat,<br />

thus permitting the use of aluminum reflectors that increases the intensity of the light produced by the<br />

lamp.


<strong>Solar</strong> Street Light Install User Manual<br />

1. knowleage <strong>solar</strong> street light<br />

<strong>solar</strong> street light components and working<br />

principle <strong>Solar</strong> street light was composed mainly<br />

by <strong>solar</strong> module, intelligent controller,<br />

maintenance-free batteries, light source, such as<br />

light poles and structural components. The<br />

working principle of <strong>solar</strong> street light are <strong>solar</strong><br />

cell components of <strong>solar</strong> radiation during the day<br />

will be converted into electrical energy,<br />

maintenance-free batteries to charge the battery<br />

to the evening by the light source to provide<br />

electricity load, the light source automatically<br />

when in the dark. Intelligent controller for<br />

storage battery over-charge and over-d<strong>is</strong>charge,<br />

had put the protection, and the open time and<br />

switch time of the light source for control.<br />

2. foundation pouring<br />

1).To determine the location of floor lamp;<br />

reconna<strong>is</strong>sance geological conditions, if one meter of surface are soft soil, it should deepen the depth<br />

of excavation; At the same time, the location of the following excavation to confirm there are no other<br />

facilities (such as cables, pipes, etc.).There <strong>is</strong> no long time shading objects at the top of street lamps,<br />

or want to replace the location appropriately.<br />

2). In the leg<strong>is</strong>lature reserved the location of the lamp (excavation) in line with the standard one cubic<br />

meter pit ; for pouring position to the embedded parts. Embedded parts placed in the pit to the<br />

middle, PVC pipe threading on the end pieces are embedded between the other end on the storage<br />

battery (as shown). Embedded parts to keep the foundation and the original ground surface at the<br />

same level (or screw the top and at the same level as the original ground surface, according to the<br />

venue may be necessary), there <strong>is</strong> the side parallel with the road; so the poles were erected in order to<br />

ensure that after the correct without deviation. Then fixed in C20 concrete pouring, pouring out the<br />

process of vibration or shock stick to ensure that the overall compactness, solidity.<br />

3). Construction completed and timely clean-up position on the board of residual mud residue and<br />

impurities in waste oil cleaning bolt on.<br />

4).Concrete solidification process, it <strong>is</strong> necessary to conserve water from time to time; to be<br />

completely concrete solidification (typically more than 72 hours), in order to install the chandelier.<br />

3. the installation of <strong>solar</strong> <strong>panel</strong><br />

1).battery positive and negative output components connected to the <strong>solar</strong> regulator at the former<br />

have to take measures to avoid short-access;<br />

2). <strong>solar</strong> cell components with support to connect to a solid and reliable;<br />

3).components of the output line should avoid exposure, and firmly tie bar;<br />

4). the battery components to be heading towards the south in order to compass point to prevail.


4. the battery <strong>is</strong> installed<br />

1).When the battery box under the control of light using light have to take to prevent the damaged<br />

control box;.<br />

2). Between the battery cable bolt pressure must be at the terminal on the battery and the use of<br />

copper pad to enhance the conductivity.<br />

3). Output line connected to the battery under any circumstances after the ban on short then, to avoid<br />

damage to the battery.<br />

4).The output line of batteries and the controller poles must be linked through the PVC pipe threading.<br />

5). The above <strong>is</strong> completed, check the controller side of the wiring to prevent short circuit. Well after<br />

the normal clearance of the door control box.<br />

5. lamp installation<br />

1). For each part of the fixed components: <strong>solar</strong> <strong>panel</strong>s at <strong>solar</strong> <strong>panel</strong>s fixed on <strong>solar</strong> <strong>Panel</strong> Mounting,<br />

lamp holder fixed to the pick arm, and then pick stent arm and fixed to the main bar, and cable into<br />

control box to wear (battery box).<br />

2) Lifting the poles before to check whether the strong parts of fasteners, lamp installation <strong>is</strong> correct,<br />

whether it <strong>is</strong> normal for light work. And in the simple normal debugging system; release controller<br />

cable on <strong>solar</strong> <strong>panel</strong>s, light work; cable connected to <strong>solar</strong> <strong>panel</strong>s, lights out; controllers<br />

simultaneously on careful observation of changes in the indicator; all belong to the normal before<br />

lifting installation.<br />

3). Lifting the main poles, the attention to safety precautions; screws fastening the absolute<br />

good,components angle towards the sun such as the wrong point of view, end up required to adjust its<br />

direction towards south.<br />

4) The battery into the battery boxes will be in accordance with the technical requirements of<br />

connecting lines connected to the controller; to access the battery, making the load, and then take the<br />

<strong>solar</strong> <strong>panel</strong>s; cable operator must pay attention to when the connection with the controller on each of<br />

the terminals marked Then should not m<strong>is</strong>take, positive and negative poles of the coll<strong>is</strong>ion should not,<br />

should not take anti-; otherw<strong>is</strong>e, the controller will be damaged.<br />

5) Normal debugging system; release controller cable on <strong>solar</strong> <strong>panel</strong>s, lights; cable connected to <strong>solar</strong><br />

<strong>panel</strong>s, lights out; controllers simultaneously on careful observation of changes in the indicator; all<br />

belong to the normal, well before closure control box.<br />

6. <strong>Solar</strong> street light Notes<br />

Star <strong>solar</strong> responsible to provide users with the installation of street light and <strong>solar</strong> power to provide<br />

technical services and advice. If the user to install light at the ground, paying attention to the matter<br />

as follows:<br />

1, <strong>Solar</strong> street lights to <strong>solar</strong> radiation energy, radiation in the optical components on the battery if<br />

sufficient sun lamps light a direct impact on results, so the installation of light at select locations, the<br />

battery components at any time be able to have exposure to sunlight, and shelter materials, such as<br />

non-leaves.


2. When threading wire must not pay attention to the folder of the connection at the poles. Wire<br />

connections should be firmly connected and entangled with PVC adhesive tape.<br />

3. When used, in order to ensure the appearance and the battery components to better reception of<br />

<strong>solar</strong> radiation, you clean a battery every six months on the dust components, but not bottom-up rinse<br />

water.<br />

4. With the products of any questions, please contact us directly.

Hooray! Your file is uploaded and ready to be published.

Saved successfully!

Ooh no, something went wrong!