Tuesday, June 21, 2011

Efficient Home Tour by CCRES





CROATIAN CENTER of RENEWABLE ENERGY SOURCES

shares to you

Efficient Home Tour by CCRES


Energy efficiency is not just for older homes. Over four years of home energy evaluation data show that a home's efficiency is not directly correlated to its age. Even if your home is relatively new, you could be saving valuable energy and money with some simple steps.

CCRES can recommend and implement energy upgrades and repairs to improve your home's efficiency, such as insulation, water heaters, high efficiency heating and cooling equipment and pool pumps.

Insulation—Proper insulation allows your home to retain heat and maintain temperature. We will recommend what kind and quantity of insulation you need for your family's comfort and for energy efficiency.

High Efficiency Water Heaters—You can significantly reduce your monthly water heating bills by selecting the appropriate water heater for your home.

High Efficiency Heating/Cooling Systems—Heating and cooling equipment uses more energy and money than any other system in your home. Advances in heat exchangers, refrigerants and other HVAC technologies in recent years have greatly improved the operating efficiency of heating and cooling systems, saving you money and easily maintaining a comfortable temperature.

Air Sealing—Most homes have small cracks and holes where the air you paid to heat or cool leaks outside. CCRES thoroughly seals your building envelope to keep conditioned air in and dust, mold and allergens out.

Duct Sealing and Repair—If your furnace is frequently turning on and off, or if you have some rooms that are too hot or cold—these are signs that your ducts may be leaking or are poorly designed. Sealing ducts can help improve indoor air quality by reducing the risk of pollutants entering ducts and circulating through your home.

Solar Thermal—Solar thermal systems allow you to harness the power of the sun to both heat water and your home. CCRES does not currently sell solar thermal in all markets, but we can recommend a system for your home.

Solar Electric—Converting sunlight into electricity lowers energy costs and reduces dependence on rising rates.

Pool Pumps—Replacing your old pool pump with a properly programmed high efficiency, variable speed model can dramatically reduce your electric load.

Energy Star Appliances—Of all the appliances in your home, washers, dryers and refrigerators use the majority of the total appliance bill (nearly 90%). CCRES does not currently sell appliances, but we can recommend more efficient models for you.

Window Replacement—Replacing single pane windows in your house with double pane, low emissivity (low-e) windows reduces outside noise and drafts. CCRES does not currently install new windows, but we can recommend a more efficient window design for your home.

More info at: http://solarserdar.blogspot.com

CROATIAN CENTER of RENEWABLE ENERGY SOURCES (CCRES)

Seminar o obnovljivim izvorima energije u Zagrebu 28. i 29. Lipnja






HRVATSKI CENTAR OBNOVLJIVIH IZVORA ENERGIJE

poziva Vas na

Seminar o obnovljivim izvorima energije u Zagrebu 28. i 29. Lipnja


U organizaciji Talijanskog instituta za vanjsku trgovinu u hotelu Dubrovnik u Zagrebu će se 28. i 29. lipnja održati seminar o obnovljivim izvorima energije.

Sudjelovanje na seminaru je besplatno, a održavat će se u Dvorani ban Jelačić. Program oba dana traje od pola 10 pa do 15 sati, a potrebno je unaprijed se prijaviti zbog ograničenog broja mjesta u dvorani.

U nastavku možete vidjeti program za oba dana:

28. lipnja 2011:

9,00 - 9,30


Registracija sudionika



9,30 - 9,45


Pozdravna riječ



Alessandro Liberatori, direktor Ureda u Zagrebu Talijanskog instituta za vanjsku trgovinu

Zagreb
Talijanski Institut Za Vanjsku Trgovinu
Vladina ustanova
Masarykova, 24
P.O. Box 288
10000 Zagreb (Hrvatska)

Tel:
.385.1.4830711
Fax: .385.1.4830740
E-mail: zagabria@ice.it

Office business hours
ponedjeljak - cetvrtak: 8.30 - 16.30
petak: 8.30 - 14.30


Giuliana Lisi, Sektor za projekte i međunarodnu edukaciju Talijanskog instituta za vanjsku trgovinu iz Rima



Velimir Šegon, zamjenik ravnatelja Regionalne energetske agencije sjeverozapadne Hrvatske (REGEA)

Rođen u Puli 1973. godine. Diplomirao i magistrirao na Fakultetu elektrotehnike i računarstva Sveučilišta u Zagrebu na smjeru Energetske tehnologije. Od 1997. do kraja 2002. godine zaposlen kao znanstveni novak na Zavodu za visoki napon i energetiku istog Fakulteta na poslovima vezanim uz analize sigurnosti nuklearnih elektrana. Od siječnja 2003. do travnja 2008. godine radio je kao stariji istraživač u Energetskom institutu Hrvoje Požar u provedbi niza domaćih i međunarodnih projekata vezanih uz korištenje obnovljivih izvora energije te posebice energije biomase. Sudjelovao je na projektima Europske komisije u sklopu 6. i 7. Okvirnog programa (Framework Programme) te programa Inteligentna energija za Europu, projekima Međunarodne energetske agencije - IEA, FAO-a, UNIDO-a, Energetske zajednice, i drugih.

9,45 - 10,00


Uvodno izlaganje

Predavač: Domenico Serpella



10,00 - 12,30


Gorive ćelije i vodikova tehnologija

Predavač: Domenico Serpella

12,30 - 12,45


Pitanja i odgovori

12,45 - 13,15


Stanka za kavu



13,15 - 14,45


Primjena gorivih ćelija i nova tržišta

Predavač: Domenico Serpella

15,00 -


Ručak/buffet



29. lipnja 2011:

8,30 - 9,00


Registracija sudionika



9,00 - 10,30


Istraživanja gorivih ćelija i financiranje demonstracijskih projekata

Predavač: Domenico Serpella



10,30 - 10,45


Q&A



10,45 - 11,45


Obnovljiva energija biološkog podrijetla

Predavač: Domenico Serpella



11,45 - 12,15


Stanka za kavu



12,15 - 12,45


Biomasa u Hrvatskoj - potencijali, iskorištavanje, poticajni mehanizmi i primjeri projekata

Predavač: Velimir Šegon, zamjenik ravnateljaRegionalne energetske agencije sjeverozapadne Hrvatske (REGEA)



12,45 - 13,45


Solarna fotonaponska energija

Predavač: Domenico Serpella



13,45 - 14,15


Diskusija i završetak radova

14,15 -


Ručak/buffet

Više informacija na: http://solarserdar.blogspot.com

HRVATSKI CENTAR OBNOVLJIVIH IZVORA ENERGIJE (HCOIE)

Monday, June 20, 2011

Priopćenje vezano za Požar u INA-inoj Rafineriji nafte Sisak , 20.06.2011.





HRVATSKI CENTAR OBNOVLJIVIH IZVORA ENERGIJE
priopćenje vezano za
Požar u INA-inoj Rafineriji nafte Sisak
20.06.2011.


Molov financijski direktor József Molnár priznao je, još u veljači ove godine, mađarskom poslovnom portalu Portfolio.hu da više nema šansi da modernizacija hrvatskih rafinerija završi prema planu do 2012. godine. Molnár tada najavljuje kako o početku druge faze modernizacije MOL tek treba donijeti odluku , pa ako druga faza krene ove godine, s obzirom na to da program modernizacije traje tri godine, završetak obnove postrojenja ne može se očekivati prije 2013. godine. No odluke još nema, a zadnje izjave govore o tome kako u MOL-u razmišljaju da u pojedinim Rafinerijema ne proizvode sve vrste goriva pa će, sukladno tome, i kalkurirati s obnovom pojedinih postrojenja u Sisku. Prema dokumanetima dostavljanim članovima Povjerenstva navodi se samo da su “aktivnosti vezane uz drugu fazu modernizacije rafinerije (MHC postrojenje, novo Koking postrojenje) u fazi izrade dokumentacije i pripreme ugovora. Takvo je stanje već godinama, a Ministarstvo kao zadnji rok druge faze modernizacije i dalje navodi 2011. godinu što je zbog tehničke kompleksnosti ovih projekta nemoguće.Zadnje informacije iz MOL-a da će se u Sisku odustati od planirane proizvodnje Dizel goriva Euro 5 kvalitete, za što bi trebalo uložiti 340 milijuna Eura za gradnju kokinga i MHC postrojenja. Ta dva pogona trebala su se graditi u 2. fazi modernizacije sisačke Rafinerije, isključivo radi podizanja kapaciteta Rafinerije u Sisku sa sadašnjih 1,7 milijuna tona na 3,2 milijuna tona i omogućavanja proizvodnje dizela Euro 5 kvalitete.Sisku je obećana – moderna i ekološki zadovoljavajuća Rafinerija s očuvanjem sadašnjeg broja radnih mjesta,što će MOL-u biti jako teško ispoštovati.Svi znamo da je INA mogla nakon rata kupiti MOL i OMV zajedno, a 2003. i 2006. postala je lovina. Svi znamo da je MOL do dionica INA-e došao na način da se 7 posto dionica dalo braniteljskom Fondu, a zatim su se te dionice prodale MOL-u.Svi znamo da se radi o trošenju preuzetih industrijskih kompleksa do iznemoglosti.Svi sve znamo.
Na pitanje o planovima Ine s Rafinerijom Sisak od Zoltana Aldotta, predsjednika Uprave Ine dobili smo sljedeći odgovor: "Važno je reći da je sisačka rafinerija strateška imovina Ine i zato je zaštićena Dioničarskim ugovorom. Sisak je potreban i važan, a o preseljenju ili zatvaranju rafinerije nije se raspravljalo na niti jednoj razini unutar kompanije. Sve strateške odluke u vezi Siska moraju donijeti i donosit će dioničari zajedno. Prema mojim saznanjima, glavni su se dioničari dogovorili da nema izdvajanja niti jednog rafinerijskog postrojenja. Riječka rafinerija nam je vrlo važna jer svoj proizvod vrlo jednostavno možemo plasirati na brojna tržišta. No, to ne znači da nećemo razvijati sisačku rafineriju. U posljednjih nekoliko godina rafinerije u Rijeci i Sisku su znatno unaprijeđene. I ubuduće ćemo investirati više kako bismo još poboljšali kvalitetu zraka, a ne toliko u povećanje kapaciteta. No pitanje budućnosti je pitanje potrebnog kapaciteta. Nije dobro ako imate veći kapacitet od tržišnih potreba jer vas to vodi u gubitak. Trenutno su naši kapaciteti dovoljni i za buduće razdoblje za čitavu regiju i sad se fokusiramo na poboljšanja, što znači da od sirove nafte želimo proizvoditi više benzina i dizela koji donose veći profit". ZAKLJUČAK: Čelnici Ine koriste svaku mogućnost da naglase dobre i partnerske odnose između Vlade i Mola. Međutim, u stvarnosti je njihov odnos obilježen napetostima,pa tako i po pitanju zatvaranja rafinerije u Sisku.Ovaj požar je samo malen primjer kako strane kompanije "brinu" o osuvremenjuju preuzete rafinerije poput ove u Sisku. Uglavnom se radi o trošenju preuzetih industrijskih kompleksa do iznemoglosti ili dok se u stvari ne raspadnu,bez ulaganja u zaštitu okoliša, zdravlja ljudi koji tamo rade i žive u neposrednoj blizini.Mišljenja smo da rafineriju u Sisku treba zatvoriti i preseliti,po mogućnosti na adresu: H-1117 Budapest, Október huszonharmadika u. 18.Znalci će znati zašto.

Više informacija na: http://solarserdar.blogspot.com

HRVATSKI CENTAR OBNOVLJIVIH IZVORA ENERGIJE (HCOIE)

Sunday, June 19, 2011

Prof. Davor Pavuna: "Vizija zelene energetike i bolje civilizacije!"





HRVATSKI CENTAR OBNOVLJIVIH IZVORA ENERGIJE

podsjeća Vas na IZVANREDNO predavanje Prof. Davora Pavuna


održano na Elektrotehničkom fakultetu u Osijeku, Hrvatska, 08.06.2009. g.
koje je i danas ,dvije godine kasnije, više nego aktualno.

Prof. Davor Pavuna: "Vizija zelene energetike i bolje civilizacije!"



The video represents lecture of the Croatian professor Dr. Davor Pavuna about Vision of the Green Energy and Better Civilization.
Summary: Prof. dr. Pavuna is a physicist elected to be in the Obama team for clean energy solutions!

Prof. Davor Pavuna: "Vizija zelene energetike i bolje civilizacije!" 1/7



Prof. Davor Pavuna: "Vizija zelene energetike i bolje civilizacije!" 2/7



Prof. Davor Pavuna: "Vizija zelene energetike i bolje civilizacije!" 3/7



Prof. Davor Pavuna: "Vizija zelene energetike i bolje civilizacije!" 4/7



Prof. Davor Pavuna: "Vizija zelene energetike i bolje civilizacije!" 5/7



Prof. Davor Pavuna: "Vizija zelene energetike i bolje civilizacije!" 6/7



Prof. Davor Pavuna: "Vizija zelene energetike i bolje civilizacije!" 7/7



Više informacija na : http://solarserdar.blogspot.com
HRVATSKI CENTAR OBNOVLJIVIH IZVORA ENERGIJE (HCOIE)

More info at http://solarserdar.blogspot.com
CROATIAN CENTER of RENEWABLE ENERGY SOURCES (CCRES)

Saturday, June 18, 2011

RENEWABLE ENERGY FILM

CROATIAN CENTER of RENEWABLE ENERGY SOURCES

An educational film on energy sources and renewable energy systems. This film specifically is aimed at solar energy systems, conservation of energy and steps to take to use less energy in our lives. It can be integrated with several state science and environmental learning standards.




Part 2 of an educational film on energy sources and renewable energy systems. This film specifically is aimed at solar energy systems, conservation of energy and steps to take to use less energy in our lives. It can be integrated with several state science and environmental learning standards.





Part 3 of an educational film on energy sources and renewable energy systems. This film specifically is aimed at solar energy systems, conservation of energy and steps to take to use less energy in our lives. It can be integrated with several state science and environmental learning standards.



More info at http://solarserdar.blogspot.com

CROATIAN CENTER of RENEWABLE ENERGY SOURCES (CCRES)

First Solar, Inc. by CCRES




CROATIAN CENTER of RENEWABLE ENERGY SOURCES

promotes

First Solar, Inc.


First Solar, one of the world's leading manufacturers of photovoltaic solar modules and systems, is providing the sustainable energy solutions required to meet the needs of a growing global society.

By continuously driving down the cost of solar energy, we are creating a viable alternative to traditional fossil-fuel generation. Additionally, we take responsibility for the environmental impacts of our products throughout their entire life cycle—from raw material sourcing through end-of-life collection and recycling. This focus on value-driven energy solutions is enabling First Solar to lead the way toward the global adoption of clean, affordable solar energy.

First Solar, Inc. (Nasdaq: FSLR) is changing the way the world is powered by creating truly sustainable solar energy solutions. First Solar manufactures solar modules with an advanced semiconductor technology and provides comprehensive PV system solutions. By constantly decreasing manufacturing costs, First Solar is creating an affordable and environmentally responsible alternative to fossil-fuel generation. First Solar modules are most effective when demand for traditional forms of energy is at its peak. First Solar set the benchmark for environmentally responsible product life cycle management by introducing the industry's first prefunded, comprehensive collection and recycling program for solar modules. From raw material sourcing through end-of-life collection and recycling, First Solar is focused on creating cost-effective renewable energy solutions that protect and enhance the environment.


Industry Benchmark Thin Film Modules
As a world-leading photovoltaic (PV) module manufacturer, with over 3.8 gigawatt (GW) of working installations worldwide, and an unprecedented—and growing—factory production of more than 1GW of modules per year, First Solar is committed to significantly reducing solar electricity costs globally by sustainably advancing module technology.

The FS Series 2 PV Module was the first module to break the $1/watt manufacturing cost barrier—all while delivering systems with the smallest carbon footprint of any PV technology on the market and the fastest energy payback time.

In 2010, First Solar unveiled the FS Series 3 PV Module—the new extension of its industry-leading module design that represents the future platform for efficiency roadmap programs. Built on the proven construction and performance of Series 2, Series 3 delivers higher efficiencies and accommodates new balance of system layouts.

FS Series 3 PV Modules
Higher efficiencies enabled by a redesigned electrical layout
Lower module voltages to accommodate up to 50% more modules per string
New locking connector with tactile feedback for connection productivity

All First Solar PV Modules
Outperform crystalline silicon solar modules with the same power ratings in real-world environments
Superior performance ratios for highly predictive in-field performance
Constructed for durability, easy installation, and recyclability
Manufactured in state-of-the-art facilities, whose management systems are certified to ISO 9001:2008 quality and ISO 14001:2004 environmental standards.

Utility-Scale PV Systems
First Solar provides complete utility-scale photovoltaic (PV) system solutions including, project development, financing, and asset sale, engineering, procurement and construction (EPC), as well as operations and maintenance (O&M) for the life of each project. Our customers can also choose services from any phase of the system solution to meet their specific needs.*

First Solar system solutions include on-grid systems for utilities, independent power producers (IPPs), generating companies, and utility-scale project developers, bringing clean, renewable energy to businesses and communities worldwide, and enabling the lowest levelized cost of electricity (LCOE), integration costs and highest value of energy produced. First Solar also develops integrated off-grid applications to meet the needs of smaller distributed generation requirements.

Utility customers and investors trust First Solar as a stable partner with the expertise required to build, operate, warranty, and guarantee performance on multi-billion dollar North American projects over many years. Our utility-scale projects typically generate state and local tax revenues, provide wages from construction jobs and ongoing monitoring and operations positions, and create indirect benefits for many local businesses. First Solar PV projects are one of the fastest ways to add power capacity to the grid which is important in emerging markets with an ever growing demand for power. This reputation for stability and experience has enabled us to actively execute on our multi-gigawatt pipeline of utility-scale projects. We currently have the largest PV project pipeline at 2.4GW in North America.

In addition, First Solar’s commitment to environmental sustainability ensures that our projects balance high environmental benefits with low environmental impacts. Our environmentally sensitive approach to site selection, construction, and operation avoids and minimizes potential impacts, allowing as much land as possible to remain as productive habitat for animals and vegetation during a project’s estimated 25 year lifespan.

With proven systems solution expertise, First Solar is a powerful partner in the creation of successful utility-scale PV power plants.


Completed projects include

Sarnia
boulder city

80MW (AC)
First Solar, Inc.
Dec-09, Oct-10

Cimarron
boulder city

30MW (AC)
First Solar, Inc.
Nov-10


Copper Mountain
boulder city

58MW (AC)
Sempra Generation
Dec-10

Blythe
blythe

21MW (AC)
First Solar, Inc.
Dec-09
Projects under construction include

Agua Caliente
boulder city

290MW (AC)
First Solar, Inc.


Silver State North
boulder city

50MW (AC)
First Solar, Inc.
Projects in development with Power Purchase Agreement (PPA) include

Desert Sunlight
boulder city

550MW (AC)
First Solar, Inc.

Topaz
boulder city

550MW (AC)
First Solar, Inc.


Stateline
boulder city

300MW (AC)
First Solar, Inc.

AV Solar Ranch One
boulder city

230MW (AC)
First Solar, Inc.

Contact First Solar




North America
Hours: 6:00a.m. - 6:00p.m. AZ
TF: 877.850.FSLR (3757)
Tel: 419.662.6899
Fax: 602.414.9400
EMEA
Hours: 8:00 - 18:00 CET
Tel: +49 (0)6131 1443-0
Fax: +49 (0)6131 1443-500
International Freephone

+800 3757 3757
900 812651



Headquarters
Corporate
First Solar, Inc.
350 West Washington Street
Suite 600
Tempe, Arizona 85281
USA

Manufacturing Locations


Germany
First Solar Manufacturing GmbH
Marie - Curie - Str. 3
15236 Frankfurt (Oder)
Germany


Malaysia
(Co. No. 758827-T)
8, Jalan Hi-Tech 3/3
Zon Industri Fasa 3, Kulim Hi-Tech Park
09000, Kulim, Kedah Darul Aman
Malaysia

United States
28101 Cedar Park Blvd.
Perrysburg, Ohio 43551
USA

Mailing Address:

First Solar, Inc.
PO Box 730
Toledo, Ohio 43697-0730
USA
North American Offices


1California
1111 Broadway
4th Floor
Oakland, CA 94607
USA

2New Jersey
400 Somerset Corporate Boulevard
Suite 501
Bridgewater, New Jersey 08807
USA


California
353 Sacramento Street
Suite 2100
San Francisco, CA 94111
USA

New York
620 Eighth Avenue
44th Floor
New York, New York 10018
USA


California
18300 Von Karman Avenue
Suite 930
Irvine, CA 92612
USA

3Ontario
5115 Blackwell Sideroad
Sarnia, Ontario, N7T 7H3
Canada
European Offices


Belgium
Rue de la Science, 41
1040 Brussels
Belgium


Germany
First Solar GmbH
Rheinstrasse 4B
55116 Mainz
Germany


France
19 boulevard Malesherbes
75008 Paris
France


Germany
First Solar GmbH
Unter den Linden 39
10117 Berlin
Germany


Spain
Avd. Brasil, 6 - 1 planta
28020 Madrid
Spain

More info at http://solarserdar.blogspot.com.

CROATIAN CENTER of RENEWABLE ENERGY SOURCES (CCRES)

Friday, June 17, 2011

Conserving Energy by CCRES




CROATIAN CENTER of RENEWABLE ENERGY SOURCES

Conserving Energy by CCRES

FAQs

What are the biggest energy uses?
Energy use varies by climate zone, since heating and cooling needs vary considerably. However, on average approximately a third of the energy used in a typical U.S. home goes to space heating. Appliances and lighting together account for another third of energy use. Water heating and electric air conditioning are other big uses.

Does it make sense to turn off the lights if I’ll be back in the room in five minutes?
Whether it is cost effective to turn off a light depends on the type of light. Each type has a certain expected operating life in hours. This operating life depends on how many times the bulb is turned on or off. Incandescent lights should be turned off whenever they are not needed. Since these bulbs produce heat, turning them off saves energy in two ways… the electricity to run the light, and the cooling energy it takes (in the summer) to compensate for the extra heat. The cost effectiveness of turning fluorescent lights is different, since they are more expensive to purchase and their operating life is more affected by the number of times they are switched on and off. With fluorescent lights, it also depends on your energy costs. In general, turn off a fluorescent light if the room will be unoccupied for more than 15 minutes. In areas with high electric rates, such as Hawaii, reduce the time to 5 minutes.More info at http://solarserdar.blogspot.com

How much insulation should I add?
In very hot or cold climates, the cost of adding insulation all around the home - ceiling, walls and floor, can quickly pay for itself in energy savings. In a mild climate, insulation will certainly save energy and money, but may not have a simple payback for more than a decade (a simple payback is calculated by dividing the purchase price by the annual energy cost savings). On an environmental basis, however, it definitely makes sense to add insulation since using less fossil fuels helps to slow global warming.

Is an energy audit worth it?
A professional energy audit can provide a homeowner with a detailed picture of where their energy expenditures are going, and how to best invest in efficiency. Using a qualified professional, the cost of the audit can be more than recouped by energy savings in the first year. Watch this site for a web based home energy audit coming soon.
First Steps: free or low cost energy-saving actions

There are many simple efficiency steps for the home which have little or no. Often, it’s just a matter of being smart about energy-related behaviors and making low-cost investments that can pay for themselves with energy savings in less than a year.

Lighting
Take advantage of daylight whenever possible to reduce the need for artificial lights. For any light that is on more than two hours a day, replace standard incandescent light bulbs with compact fluorescent light bulbs (CFLs). This can save 75% of lighting costs, but be careful not to put CFLs in enclosed fixtures, since they need air circulation. Use desktop or “task lighting” with CFLs whenever possible and turn off overhead lights to save energy. Train yourself to turn off lights when not in use, and install timers or motion sensors for lights that aren’t used often, or for those that people keep forgetting to turn off. Even basic cleaning can make a difference; keep light bulbs and shades clean, since dirt absorbs light, reducing output. For outside lights, motion sensors are a great way to save energy and increase security. For large outdoor lighting, consider sodium lamps.

Appliances & electronics
Most electronics use energy even when they are not on or in “active mode”. This “standby” power can add up to as much energy as your refrigerator uses. To reduce this energy waste, unplug battery chargers, old VCR’s and other electronics that are not in use, or put them on power strips that are easy to switch off.

Enable the “power management” option on all computers and make sure to turn them off at night and remember that a laptop uses 90% less energy than desktop computers.

Run your clothes and dish washers only when full, and if possible. A dishwasher typically uses only 4 or 5 gallons of hot water vs about 15 gallons when dishes are done by hand. Clean the lint trap on your dryer every time, and if possible, dry clothes on a clothes line. (Green Homemaker tip: If air dryed towels are thrown in with a few damp items in the dryer for a few minutes, they'll loose their stiffness). When shopping for a new dryer, look for one with a moisture sensor that shuts off by itself when the clothes are dry.

Brush your refrigerator coils regularly (every six months or so). They're often found on the back of older refrigerators, and in front underneath the door on new models. Since refrigerators and freezers are high-energy users, don’t keep an extra one in use unless absolutely necessary. If you do need an extra refrigerator, then keep it full, as the food and drinks inside help to maintain temperatures when the door is opened.

When you’re ready to replace an appliance, buy one that’s efficient and do your research ahead of time. Often an appliance with the lowest price tag will have the highest energy costs over its lifetime. In the U.S., look for Energy Guide labels to compare energy usage and cost, and choose appliances that are ENERGY STAR qualified to save 40% or more on energy. However, keep in mind that some very efficient appliances, especially those made by smaller companies, might not have ENERGY STAR ratings yet.

Water
Using water uses energy in ways many people may not think of. Delivering water requires a great deal of energy, as does wastewater treatment. Save water (plus the energy it takes to heat the water) by installing low-flow showerheads and aerators on all faucets. Washing clothes in coldwater saves approximately 90% of the energy used by the washer. Wrap your water heater with an insulation blanket, especially if you have an electric water heater. That will reduce stand-by losses. Hot water pipes should also be insulated. For more information on reducing water use.More info at http://solarserdar.blogspot.com

Heating and Cooling
Turn the setting on your air conditioner higher; a 5° higher setting on your air conditioning thermostat will save about 10% on cooling costs. Likewise, lower the setting on your furnace to 68 degrees, and install a programmable thermostat. If you live in a hot or cold climate, insulate your heating or cooling ducts. Other important yet inexpensive measures include insulating hot water pipes and regularly replacing furnace filters. Also, consider a whole house fan that removes heat from the attic and draws cool air in, and plant diciduous shade trees near south facing windows that will prevent solar insolation in the summer while allowing the sun in during the winter. Another first step is ensuring that all heating and cooling ducts are leak-free. Sealing air ducts can reduce heating and cooling costs by as much as 20%.

Weatherization
Air leakage, or infiltration, is when outside air enters a house through cracks and openings. The average home has dozens or even hundreds of small holes where heated or cooled air escapes, wasting valuable energy. Sealing these leaks can significantly reduce heating and cooling costs, increase comfort, and decrease entry of allergens. Low-cost sealing around doors and windows and anywhere else that air leaks occur is a good first step and can save 10% or more on energy bills.

Pools and spas
- Use pool and spa covers to reduce heating costs and chemicals
- Consider investing in solar hot water heating for pool and spa (they often pay for themselves after just a few seasons).
Next Steps: good energy-saving investments

Lighting
Daylighting is using windows and skylights to bring sunlight into a home. Compared to artificial lights, daylight is brighter, more appealing, and better for visual acuity and color rendering. Recent studies have also shown that daylighting in schools improves student math and memory skills. A home’s climate influences the best way to bring natural light in. In North America, north and south-facing windows are most advantageous for daylighting. Although east and west-facing windows provide good morning and evening light, they may cause glare and let too much heat in during the summer. Another way to use daylight is “light tubes,” which bring light through the roof and attic, around corners, and into living spaces. New home construction can include daylighting as part of the whole house design.

Appliances & electronics
Upgrading to efficient appliances and electronics can save a lot of energy. A U.S. ENERGY STAR qualified dishwasher, clothes washer or refrigerator incorporates advanced technologies that can save up to 50% on energy and water. The ENERGY STAR labeling program includes most home electronics and appliances, (except for water heaters, stoves, and ovens).More info at http://solarserdar.blogspot.com

Hot water
Since water heating can account for up to a quarter of the energy consumed in a home, selecting an efficient water heater can reduce energy (and water) bills significantly. There are a variety of water heating technologies, each with their own advantages and disadvantages. Following are the three most common types used in homes:
- Storage water heater: the traditional storage water heater has a tank to keep a ready reservoir of hot water. This provides a relatively large amount of heated water available immediately, but requires a very high wattage heating element. When purchasing this type of water heater, look for the most efficient model.
- Demand (tankless or instantaneous) water heater: doesn’t have a storage tank, so it saves on standby energy. It's often placed close to the energy use, such as a kitchen or bathroom, reducing pipe losses. The cost effectiveness of demand water heaters also depends on the home’s water needs. Savings are greatest in homes that use 41 gallons or less of hot water daily.
- Solar water heater: heats water with the sun’s energy for home use or for a pool or spa. They can be used in any climate, but need a backup hot water source for cloudy days or times of high water demand. n average, in the U.S. a solar water heater will lower a home’s water heating bills 50-80%.

Heating and Cooling
One of the first ways to optimize the efficiency of a home heating system is to install a programmable thermostat. Locate the thermostat away from natural hot and cool spots. In the U.S., look for an Energy Star thermostat.More info at http://solarserdar.blogspot.com

Heating
Most U.S. homes are heated with either a furnace, which heats air and distributes it through the home using ducts, or a boiler, which provides heat from hot water or steam for radiators or radiant heat floor systems. Older furnace and boiler systems have efficiencies between 56-70%, while modern systems can achieve as much as 97% efficiency. It’s time to upgrade a furnace or boiler if it is more than 15 years old, very inefficient or poorly sized to the home. The payback from investing in a new system depends on how much it is used, since efficiency provides long-term savings. Another way to improve payback is to improve the overall efficiency of the home first, so a smaller (and thus cheaper) heating system can meet heating demand.

Best heating system replacement choices: for cold climates, a furnace should be high efficiency. In the U.S., the efficiency of heating appliances is expressed as the “annual fuel utilization efficiency” (AFUE). Look for an AFUE of at least 90% for homes in cold climates. However, in milder climates with lower heating costs, 80% efficiency may be enough, since the extra investment in efficiency may be difficult to justify on cost alone. Hot water boilers are inherently more efficient than steam boilers, but relatively efficient models are available. Also, note that any change to a gas heating system can impact indoor air quality. The combustion process creates byproducts that are potentially dangerous, so it’s important to ensure proper exhaust and ventilation. A sealed-combustion furnace or boiler might solve this problem.

Cooling
There are many ways to cool a house without using an energy-intensive air conditioner. Combining proper weatherization, shading, and ventilation can keep homes cool in all but the hottest and most humid climates. A whole-house evaporative cooler (or “swamp cooler”) can do the job of air conditioners with much less energy for use in climates that are both hot and dry.

New air conditioners are much more efficient than old ones, so for homes that need this technology, an upgrade may be in order. New air conditioners should have an Energy Efficiency Rating (EER) of 11 or higher.

Weatherization
Weatherizing a home involves a number of steps to decrease air exchange with the exterior environment. Windows and doors can be upgraded, air leaks can be fixed, and insulation can be added in walls, floors and ceilings.More info at http://solarserdar.blogspot.com

Air Sealing: By sealing the air leaks in a home’s walls, floors, and roof, a homeowner can save up to 10% on annual energy bills. Air sealing includes adding weather stripping around windows and doors to reduce drafts, using caulking around openings in walls around ducts and plumbing, and sealing larger gaps with expanding foam. When air sealing, it’s important to remember that a home should have some form of ventilation to maintain healthy indoor air. An average home can be sufficiently ventilated with a simple bathroom exhaust fan, properly designed and installed for this purpose.

Insulation: upgrading a house’s insulation can reduce energy usage by up to 20%. Insulation minimizes the heat that travels through walls, ceilings and floors. For an older home, having a professional energy audit is the best way to determine if a home needs insulation, as well as where air leaks are occurring. A homeowner can also visually inspect walls, ceilings and floors. The higher the “R-value” of an insulating material, the more energy efficient it is. Look for an R-value of R-13 for walls, and at least R-19 for ceilings. Most U.S. homes should have between R-22 and R-49 insulation in the attic.

Windows and doors: Upgrading exterior doors can save energy. An exterior door that is old, not properly installed, and not properly air sealed can leak a lot of air from in a home. Once insulation and air leaks are addressed, consider replacing single-pane windows with double-pane windows. Double-pane windows made of high performance (low-emissivity) glass and that contain gas can reduce heating and cooling costs by up to 15%, assuming they are installed and sized properly.
Big Steps: designing and remodeling a home

Passive solar homes

A home can be designed in a way that takes advantage of the sun’s free heat and light. This is called passive solar home design. Essentially, it’s constructing the walls, floors, and windows in such a way that they collect, store, and distribute solar energy in the form of heat in the cold season. In the hot season, they reject the heat to keep the home cool. A passive solar home’s design must take into account climate and site-specific factors such as the angle of sunlight.More info at http://solarserdar.blogspot.com

The U.S. Department of Energy specifies five elements of a complete passive solar home design:
1. Aperture (Collector): this is the window area where sunlight enters the building. In the U.S., this should orient to within 30 degrees of true south and must not be shaded between 9 am and 3 pm during the cold season.
2. Absorber: the surface within the home that absorbs heat from the sun. It sits in the direct path of sunlight, and could be a masonry wall, floor, or partition.
3. Thermal Mass: the materials that store heat from the sun. This is the material below or behind the absorber, and may form a floor or wall. Cement tiles provide excellent thermal mass. The more mass in a home, the longer for the effects of temperature swings to be felt. Thermal mass allows for ride through of a short hot or cold spell.
4. Distribution: how the collected and stored solar heat circulates throughout the house. This is mainly accomplished through the three natural heat transfer modes (conduction, convection, and radiation). Fans, ducts and blowers may also be used.
5. Control: keeping sun out during the hot months. Awnings, low-emissivity blinds, and fans, vents and dampers restrict heat flow during the season when cooling rather than heating is needed.

Existing homes can be retrofitted to passively collect and store solar energy. Elements such as window location, window types, insulation and air sealing, and even landscaping can play an important role in using the sun’s natural heat and light to reduce a home’s energy needs.


Zero energy home design
A “zero energy home” is one that produces all the energy it needs, and maybe more. By combining energy efficient construction and appliances with renewable energy systems such as solar water heating, solar electricity or even geothermal or wind-generated electricity, a zero energy home is good for the planet and good for its occupants. These homes are environmentally sustainable in that they save energy and reduce energy-related pollution. Zero energy homes typically have improved comfort due to less temperature fluctuation, and they protect the owner from fluctuations in energy prices and, depending on how they are designed, from power outages.More info at http://solarserdar.blogspot.com

Some design features of a zero energy home include:

Climate-specific design
Passive solar heating and cooling
Energy efficient appliances and lighting
Solar electric and solar water heating systems

Environmental and Economic Benefits

Global warming: Except for the small percentage coming from renewable sources, the energy used by homes adds greenhouse gases to the atmosphere. In fact, fossil fuels are responsible for over 80% of the global warming problem.

Air pollution: In addition to warming the planet, fossil fuels burned for energy production add unhealthful emissions to the air we breathe every day.
Success stories

Homeowners across the U.S. are buying into the idea of energy efficiency. A 2007 survey by the National Association of Home Builders found that home buyers would be willing to spend nearly $9,000 more on a home purchase if the home had green features that would save them on their utility bills.


A Newsweek article (March 17 2008) highlighted a couple living in Grapevine, Texas whose home is so efficient that the heat hardly kicks on even on the coldest days. Their house is packed with green innovations, including a 10,000 gallon tank to collect rainwater from the roof, and solar panels to heat their water. Yet homeowner Ross Bannister says people are sometimes surprised to hear about the home's advanced technology, since on the outside it looks like a classic Texas farmhouse.


A couple in North Bend, Washington invested in a geothermal system that cost them more than twice what a traditional heating and cooling setup would. Yet they calculate they will recoup their costs in six years, and they’ll feel good about reducing their carbon footprint along the way.
More info at http://solarserdar.blogspot.com
CROATIAN CENTER of RENEWABLE ENERGY SOURCES (CCRES)

Thursday, June 16, 2011

Recycling by CCRES




CROATIAN CENTER of RENEWABLE ENERGY SOURCES

Recycling

Recycling has economical and environmental impact which affects us all.

The_Recycling_Process

Recycling_Facts_and_Figures

FAQs

How_is_recycling_profitable_for_recyclers?

What_do_those_numbers_on_the_bottom_of__containers_mean

What_can_be_recycled?

Paper_or_Plastic_or?

What_is_e-waste?

What_is_composting?

Success_stories

What_you_can_do


The Recycling Process

Recycling is the collecting and processing of materials that can be used in the manufacturing of new products using the recycled material. The purchasing of recycled products creates a circle or loop that ensures the overall success and value of recycling.

Step 1. Collection, Sorting and Processing

Collecting recyclables varies from community to community, but there are four primary methods: curbside, drop-off centers, buy-back centers, and deposit/refund programs.

Regardless of the method used to collect the recyclables, the next leg of their journey is usually the same. Recyclables are sent to a materials recovery facility to be sorted and prepared into marketable commodities for manufacturing. This is done using a variety of methods, including use of magnets, lasers and hand sort. Recyclables are bought and sold just like any other commodity, and prices for the materials change and fluctuate with the market.

Step 2. Manufacturing

Once cleaned and separated, the recyclables are ready to undergo the second part of the recycling loop. More and more of today's products are being manufactured with total or partial recycled content. Common household items that contain recycled materials include newspapers and paper towels; aluminum, plastic, and glass soft drink containers; steel cans; and plastic laundry detergent bottles. Recycled materials also are used in innovative applications such as recovered glass in roadway asphalt (glassphalt) or recovered plastic in carpeting, park benches, and pedestrian bridges.

Step 3. Purchasing Recycled Products

Purchasing recycled products completes the recycling loop. By "buying recycled," governments, as well as businesses and individual consumers, play an important role in making the recycling process a success. As consumers demand more environmentally sound products, manufacturers will continue to meet that demand by producing high-quality recycled products.
Recycling Facts and Figures

Twenty years ago, only one curbside recycling program existed in the United States, which collected several materials at the curb. By 2006, almost 8,660 curbside programs had sprouted up across the nation. As of 2005, about 500 materials recovery facilities had been established to process the collected materials.

Today, the United States recycles 32.5 percent of its waste, a rate that has almost doubled during the past 15 years. The majority of the refuse being recycled is paper followed by plastic bottles and aluminum cans. However, only about 30% of these products are presently being recycled. Electronics are the fastest-growing portion of America's trash - more than 3.2 million tons of electronic waste is buried in U.S. landfills each year. The average cathode ray tube inside a PC monitor contains about five pounds of lead oxide powder embedded in the glass. In the U.S. there are more than 200 million computers in homes and workplaces. That is equivalent to about 16 million tons of solid waste and 1.3 million tons of toxic lead. As well, every month approximately 100,000 pounds of CDs become outdated, useless, or unwanted.
FAQs

How_is_recycling_profitable_for_recyclers?

What_do_those_numbers_on_the_bottom_of_plastic_containers_mean?

What_can_be_recycled?

Paper_or_Plastic_or?

What_is_e-waste?

What_is_composting?

How is recycling profitable for recyclers?

First off, there must be a market for the material. Without a market, there is no reason to collect a material for recycling. If a community collection program is accepting a wide variety of materials for recycling but no one wants it, then there is a lot of wasted time and effort in getting it clean and sorted. The reason that corrugated cardboard, newspaper, #1 and #2 plastics, etc., are commonly collected materials, is that there is a recycling infrastructure—processors and manufacturers—who want these materials and make them into products that are sold for profit. Without this infrastructure—or market--recycling cannot be sustained. That is why it is so important that consumers, whether they are buying for their homes or businesses, buy recycled products whenever possible. Only by creating a need for recycled material will markets grow for collected recyclable materials.
If there is a system in place for using collected materials, the next thing that is needed is having enough volume of a material to make it worth collecting and transporting to market. Recycling has a bottom line that goes beyond the environmental benefits. The more uncontaminated material there is, the more likely there will be a system in place to process it and make it into a usable product. The materials must be relatively easy to separate and there must be a demand for the resulting recycled products.

What do those numbers on the bottom of plastic containers mean?

The numbers have to do with the type of plastic being used. Some plastics can be easily recycled while others can't. The Society of the Plastics Industry came up with the numbering system to identify the various types of plastic being used. Let’s start with #1 plastics made of polyethylene terephthalate (PET). Soda bottles are made from PET along with a variety of other food bottles and trays. PET can be melted and drawn out into long fibers and recycled into deli and bakery trays, carpets, clothing and textiles carpets, fiberfill for jackets, and shopping bags. Manufacturers want recycled PET and buy it.

Milk and water jugs are made from number #2 high-density polyethylene (HDPE). Clear HDPE is easily be made into new containers. Recycled HDPE can become bottles for laundry products, recycling bins, bags, motor oil bottles, decking and marine pilings. The colored HDPE (liquid detergent, and shampoo bottles) is generally recycled into plastic lumber. Those tough mailing envelopes are also a form of HDPE but are not recycled. The tops to juice and milk containers are made using an injection molding process. Those materials are incompatible with the recycling process.

Vinyl or polyvinyl chloride # 3 could be recycled. It is used for clear food packaging and plumbing pipe. However, collecting #3 plastics for recycling is usually cost-prohibitive because there are not enough items made from the material to warrant recycling it into new products. They are generally used once and tossed. However, recycled vinyl can become playground equipment, film and air bubble cushioning.

Low-density polyethylene # 4 (LDPE) is typically grocery bags. Some of these bags are recycled into new bags or plastic lumber. Recycled LDPE can be used to manufacture bags, shrink film and compost bins. However, transporting it for recycling often uses more energy than producing a virgin product. Unless there is a recycling factory close by, LDPE usually ends up in the landfill. Consider using canvas shopping bags.

Polypropylene (# 5 PP) is made into yogurt, margarine, and other food containers. Recycled PP can be used in automobile parts, carpets, battery casings, textiles, industrial fibers and films used for packaging products such as candy.

Then there’s #6 Polystyrene (PS). Solid PS is made into compact disc jackets, eating utensils, and take-out food containers. The expanded PS know as Styrofoam is used for packing materials, coffee cups, meat trays, and egg cartons. Recycled PS can be used in products including video cassettes and cases. The cost of moving used Styrofoam is often higher than making it from virgin oil. When Styrofoam ends up in local creeks and rivers, birds and fish think it is food and it clogs up their digestive tracks, ending their lives.

The last of the labeled plastics is #7, usually lids and imported containers made from mixed resins known as OTHER.

So here's the overview as to what can easily be recycled:

# 1, 2 (narrow neck bottles), 4, 5 and 6. However, acceptable plastic recycling differs depending upon where you live. You should contact your local city or trash service to find out which plastic they accept.

What can be recycled?

Newspaper
Metals
Glass
Plastic
Carpeting
Foam packaging (turned into a variety of products such as carpet padding and wood substitute moldings)
Toner cartridges
Electronics
Cell phones
Computers

The proliferation of CFL lamps has done wonders for saving energy but has created problems regarding disposal. The CFLs contain mercury and are therefore toxic to ground and water supplies. They can be recycled at Home Depot or Ikea stores.

Paper or Plastic or?

Ideally, neither. Bring your own bags to go food shopping, if possible. Try leaving bags (canvas work well) in the trunk of your car so you don't forget them. If you don't, ask for the bag that you know will be recycled. Historically, people are about four times more likely to recycle a paper bag than a plastic one. Plastic bags that aren't recycled create a special problem in coastal areas where they poison or strangle marine life and birds. More than 60% of all debris in the oceans is plastic, breaking up into smaller, more dangerous pieces and taking hundreds of years to fully decay. Paper bags have their issues as well. Paper bags are usually not from 100% recycled material, requiring pulp from timber. If the paper bag is not recycled, it will generate greater carbon emissions during incineration than would a plastic bag, and if landfilled, greater methane emission.

What is e-waste?

Every year, 20 to 50 million metric tons of electronic equipment waste (e-waste) are generated worldwide. Four million computers are discarded annually in China alone.

In the U.S. about 70% of all disposed computers and monitors end up in landfills. Combined with disposed cellphones and other electronic gear, that's more than 2.6 million tons of e-waste disposed into landfills by Americans in 2005. The toxins inherent in electronics included lead and mercury, which can find their way into groundwater and the air. An old TV set can have as much as 10 pounds of lead. Printed circuit boards contain primarily plastic and copper, and most have small amounts of chromium, lead solder, nickel, and zinc. In addition, many electronic products have batteries that often contain nickel, cadmium, and other heavy metals. Recyclers covet the microprocessor boards of computers for the valuable minerals they contain such as gold and silver. Leaded glass can be easily separated and the glass recycled. More recently, e-waste is being shipped to third world countries where lead and other minerals are being extracted using methods that create health risks to the extractors. In recent years, China has become a big importer of used printer cartridges where they extract the last few drops of ink, leaving the empty cartridges to the landfills.

To find an e-waste drop off location near you visit the EPA site or http://www.ewaste-dropoff.com. In California, contact greenmouse.com to unload any unwanted e-waste.

What is being done? The European Union has limited the flow of e-waste since 2003 and requires greener manufacturing. Unfortunately, the U.S. does not require recycling of e-waste, but nine states to date have some legislation requiring manufacturers to take back products under certain conditions.

What is composting?

Composting is the decomposition of plant remains and other once-living materials. It is a way to recycle your yard and kitchen wastes, and is a critical step in reducing the volume of garbage needlessly sent to landfills for disposal. Composting occurs naturally when leaves pile up on the forest floor and begin to decay. Eventually, the rotting leaves are returned to the soil, where living roots can finish the recycling process by reclaiming the nutrients from the decomposed leaves.

Composting can be simply building a compost pile in a convenient spot on the ground. Others build bins from materials such as recycled pallets, or two-by-fours and plywood or purchase a bins at the local hardware store. Piling food scraps and using worms and air to speed up the decomposing process, results in an earthy, dark, crumbly substance (humus) that is excellent for adding to houseplants or enriching garden soil.

Composting is not a new idea. Some scientists have speculated that as early peoples dumped food wastes in piles near their camps, the wastes rotted and food plants sprouted from the seeds. Today, the use of composting to turn organic wastes into a valuable resource is expanding rapidly in the United States and in other countries, as landfill space becomes scarce and expensive, and as people become more aware of the impacts they have on the environment.
Success stories

Apple Computer’s recycling partnership with the city of Cupertino, California, has recycled more than 340 tons of electronics. All electronics products are accepted free of charge, regardless of manufacturer.

The City of San Francisco collects spent cooking oil from restaurants and blends it with t traditional diesel for use in its converted fleet of 1,600 bio-diesel vehicles, saving the City on fuel costs and about $3.5 million a year on sewer pipe unclogging. The blend is compatible with most modern-day diesel engines and reduces carbon monoxide emissions by 12 percent and the particulate matter found in smog by 20 percent.

At least twice a year for the past half-dozen years, San Francisco's garbage company, Norcal Waste Systems, has sent the recycled paint to countries around the world. The paint comes from the thousands of gallons of extra paint that San Franciscans have dropped off at the city's hazardous-waste center. The project that has sent 25,000 gallons of recycled paint to be used in third world countries.

The DuPont Carpet Reclamation Program collects and processes more than 2 million pounds of used carpet a month. Commercial carpet is removed, then collected and shipped to a DuPont Processing Center. There, carpet content and quality are determined, and the carpets are sorted and evaluated for their recycling value. DuPont is able to manufacture a 50% post-consumer recycled content from reclaimed carpet. Other products manufactured from recycled carpet include automotive parts, sod reinforcements, wood-like products, soundproofing and padding. DuPont has 80 collection facilities and recycles all types of carpet.
What you can do

Forget paper or plastic - bring canvas bags to the grocers (many will provide you with a small credit for your good deed)
Buy recycled products - post-consumer recycled plastic and paper products are bountiful in stores. Sometimes there is a small premium for these items.
Donate your organic food waste for compost at a community garden.
Urge your city to have a more aggressive curbside recycling programs. The most successful recycling programs are those that require the least effort on behalf of the participant.
Rinse plastic containers before recycling them.
Help clean up beaches, creeks, parks and other areas where plastic ends up, often choking birds that mistake it for food.
Donate any working electronics to schools and non-profits organizations. Also, check with your local government and trash collection service to see if they accept e-waste and check with the manufacturer to see if they have a recycling program for their products.
Use rechargeable batteries.
Recycle appliances, clothes and other items by donating to charity organizations.
Buy large bulk containers of laundry detergent and soaps, refilling smaller containers around the house.
REDUCE, REDUCE, REDUCE. Avoid unwanted mail. Contact the sender via email or fax that you wish your name removed from their list. Receive statement and bills via email and pay on-line.More info at http://solarserdar.blogspot.com/
CROATIAN CENTER of RENEWABLE ENERGY SOURCES (CCRES)

Wednesday, June 15, 2011

Trojan Battery Company





CROATIAN CENTER of RENEWABLE ENERGY SOURCES

promotes


Trojan Battery Company

With over 85 years of experience, Trojan Battery Company is the world's leading manufacturer of advanced deep-cycle battery technology.

Long-lasting, reliable and clean, customers all over the globe know Trojan deep-cycle batteries deliver superior power to any golf, renewable energy, floor machine, aerial work platform, commercial trucking, marine or recreational vehicle application.

Choose the best deep-cycle battery in the market - Trojan Battery.

Renewable Energy Expertise

As the world’s leading manufacturer of deep-cycle batteries, Trojan Battery Company supplies energy storage solutions for renewable energy and backup power applications. Having shaped the world of deep-cycle battery technology for over 85 years, we’re proud to be able to continue our legacy of leadership and innovation in the global renewable energy market.

Today, Trojan Battery is offering the broadest portfolio of high-quality, deep-cycle flooded, AGM and gel products for a wide range of renewable energy and backup power applications. At Trojan we believe manufacturing a superior quality product is only the beginning of a successful application; to be a true leader in this field it takes expertise and technical support that goes beyond the necessary.

One of our core strengths is the dedication and support we provide to our customers. We present to the market a dedicated renewable energy team that reflects our industry expertise offering the market first-class, worldwide support on all levels.

Premium Flooded Batteries... optimized for Renewable Energy

Renewable energy applications operate under challenging conditions such as fluctuating or extreme temperatures, remote locations and the intermittent nature of solar and wind power generation. Designed with a 10-year battery life, Trojan Battery’s Premium line of flooded deep-cycle batteries is specifically engineered to withstand the rigorous conditions of renewable energy applications. The Premium line incorporates advanced battery features such as Trojan’s DuraGrid™, MaxGuard® XL separator and Alpha Plus® Paste technologies that provide superior performance, rugged durability and exceptionally long life. Our product strategy is focused on one simple objective – manufacture the highest quality battery available in the industry, which is why our Premium line is tested to IEC standards.

Classic Trojan featuring... T2 Technology™Trojan Battery

The T2 line of deep-cycle flooded batteries is the flagship of Trojan’s product portfolio. Engineered to provide rugged durability and outstanding performance, Trojan’s T2 lineup is perfectly suited for use in renewable energy systems where lowest life-cycle cost is the key consideration. An all around power house, the T2 line features Trojan’s historically-proven engineering with T2 Technology, an advanced battery technology for maximum sustained performance, longer life and increased total energy.

Industrial batteries...designed for 1500 cycles at 80% DOD

Trojan's Industrial line of deep-cycle batteries is the newest addition to Trojan's lineage of high-quality flooded batteries. The Industrial line is engineered specifically to support renewable energy systems with large daily loads where the batteries are cycled regularly. These high amp-hour capacity batteries are ideal for use in large off-grid photovoltaic (PV) systems, off-grid hybrid PV systems, grid-tied PV systems with battery backup, smart grid peak shifting systems and a variety of other applications. Tested to meet both IEC and BCI standards, the Industrial line features advanced battery technologies that deliver reliable power and is housed in a dual container construction for enhanced battery protection. Trojan’s Industrial line is the perfect combination of performance and function.

Trojan’s deep-cycle absorbed glass mat (AGM)

maintenance-free batteries for renewable energy applications feature a number of design elements to provide optimum performance. Robust plates extend the life-cycle of Trojan’s deep-cycle AGM batteries.

A separator of glass fibers serves to isolate the positive and negative plates while acting as a blotter to absorb the electrolyte. The separator is maintained under compression between plates to assure contact with plate surfaces. A computer-generated grid design is optimized for high-power density. Low calcium grid alloy reduces gas emissions and a flame arresting, one-way pressure relief vent prevents buildup of excessive pressure. Trojan’s deep-cycle AGM batteries are low temperature tolerant, shock and vibration resistant and have a low internal resistance for higher discharge current and higher charging efficiency.

Trojan's deep-cycle gel batteries

are sealed, maintenance-free batteries that deliver superior power in demanding renewable energy applications. Engineered for rugged durability, outstanding performance and long battery life, Trojan’s deep-cycle gel batteries feature a number of important design characteristics that provide significant advantages over competing gel products.

The gelled electrolyte is a proprietary formulation containing sulfuric acid, fumed silica, pure demineralized, deionized water and a phosphoric acid additive. This exclusive formulation produces a homogenous gel that delivers consistent performance and dramatically long cycle life. The heavy-duty grids lock active material onto the grid network to efficiently deliver more concentrated energy to the terminals. Premium grade, double-insulated separators allow maximum charge flow between the plates for optimum performance.


HydroLink™ – Watering System

Proper maintenance and periodic watering are important factors in maximizing the performance and life of Trojan deep-cycle, flooded batteries. Battery maintenance can be a costly, time-consuming and messy job. With Trojan’s HydroLink™ advanced, single-point watering system, precise battery watering is made easy saving valuable time and money.

Convenient Installation
Trojan’s HydroLink watering system is specifically designed to work with Trojan 6-volt and 12-volt flooded batteries* and takes the guess work out of properly watering flooded batteries. With a simple installation of the HydroLink manifolds and the tubing, the system is ready for use. Once installed, a complete set of batteries can be filled in less than 30 seconds.

HydroLink™ Vent
The HydroLink™ vent assembly is unique and features an independent water level indicator, valve shut off and dual flame arrestors.

Independent Water Level Indicator
Maintaining the proper electrolyte level can extend the performance and life of Trojan flooded batteries. However, determining the correct level can be a challenge. Trojan’s HydroLink vent features an independent water level indicator that accurately displays whether a battery needs watering. A white indicator signals that the battery needs water. A black indicator signals that the battery has enough water…it’s that simple.

Valve Shut Off
The valve shut off accurately controls cell electrolyte levels. Using a balanced valve design the shut off valves automatically cut the water flow into the individual cells eliminating the potential of overflow or acid splash caused by overfilling. HydroLink’s valve shut off works in conjunction with the hose end assembly and flow indicator to provide precise battery watering.

Dual Flame Arrestors
The HydroLink system is equipped with dual flame arrestors, an important safety feature not standard on other watering systems. The internal flame arrestors prevent internal sparks from passing through the watering system to neighboring cells while the external flame arrestor prevents external sparks from entering the Trojan battery.

Clampless Tubing
The HydroLink offers clampless tubing for customizable configurations.

* HydroLink is not compatible with all batteries.


CORPORATE OFFICES
ISO REGISTERED MANUFACTURING PLANTS


CALIFORNIA
Trojan Battery Company
Corporate Headquarters
12380 Clark Street
Santa Fe Springs, CA 90670
US and Canada: 800.423.6569
International: +1.562.236.3000
Fax Number: 562.946.1061

Trojan Battery Company
9440 Ann Street
Santa Fe Springs, CA 90670





GEORGIA
Trojan Battery Company
5174 Minola Drive
Lithonia, GA 30038

Trojan Battery Company
3012 George J. Lyons Parkway West
Sandersville, GA 31082
DIRECTOR OF SALES

TECHNICAL DIRECTOR
Director of Sales Renewable Energy
Dean Middleton
+1.562.236.3112
dmiddleton@trojanbattery.com


Technical Director of Renewable Energy
John DeBoever
+1.562.236.3139
jdeboever@trojanbattery.com
TECHNICAL SUPPORT

EMAIL
Tech support is available to assist you with questions for the complete line of Trojan's batteries.
Contact them via email:
RE Tech Support

PHONE
Trojan telephone tech support is available Monday thru Friday, 7am to 5pm Pacific Standard Time.
US and Canada: 800.423.6569
International: +1.562.236.3000
PRESS CONTACTS
Director of Marketing
Lore McKenna
+1.562.236.3165
lmckenna@trojanbattery.com
Senior Public Relations Specialist
Kari Garcia
+1.562.236.3038
kgarcia@trojanbattery.com

TROJAN BATTERY in CROATIA you can find at:

C.I.A.K. d.o.o.
Josipa Lončara 3/1
10090 ZAGREB

TECHNICAL SUPPORT

Viktor Miholić
Sales manager

Faks: +385 1 655 55 23
mob: +385 91 346 36 26
e-mail: viktor.miholic@ciak.hr



More info at : http://solarserdar.blogspot.com

CROATIAN CENTER of RENEWABLE ENERGY SOURCES (CCRES)

NEWS and EVENTS by CCRES




CROATIAN CENTER of RENEWABLE ENERGY SOURCES

News and Events

June 15, 2011

Five Million Smart Meters are Installed Nationwide


More than five million smart meters have been installed nationwide as part of American Recovery and Reinvestment Act-funded efforts to accelerate modernization of the U.S. electric grid, DOE reported on June 13. Smart meters provide utility companies with greater information about how much electricity is being used throughout their service areas. The meters also give consumers access to real-time information about their energy consumption, allowing them to make informed decisions about how they use their electricity.

Transforming the current electric grid into a more intelligent system involves a wide range of advanced technologies, including smart meters, which will improve the reliability and security of the grid. Such meters will allow for the integration of renewable energy sources and help prevent blackouts and restore power more quickly when outages occur. Nearly 90% of the meters installed to date are in Arizona, California, Florida, Idaho, Michigan, Nevada, Oklahoma, and Texas.

In one project being implemented to help consumers manage their electricity, Florida Power & Light Company is deploying an advanced metering infrastructure; as of April 30, the company had installed 1.8 million smart meters. A project of CenterPoint Energy Houston Electric involves deploying a fully integrated advanced metering system and Web portal access to over 2.2 million customers; the company has installed 1.3 million smart meters.

DOE also announced a plan to create a data map that will allow consumers to contribute data and information about their electricity provided by their utility companies. The map will show where quality information is available nationwide based on voluntary consumer input. DOE will work with stakeholders during the summer to design the website that will launch in the fall.
More info at http://solarserdar.blogspot.com/

DOE Offers $2 Billion Loan Guarantees for Concentrating Solar Power Plants

DOE announced on June 14 its offer of $2 billion in conditional commitments to provide loan guarantees to support two concentrating solar power (CSP) projects in California, including $1.2 billion for the Mojave Solar Project in San Bernardino County and up to $681.6 million to the Genesis Solar Project, which is located on a Bureau of Land Management site in Riverside County. At 250 megawatts each, the projects' combined capacity will double the United States' currently installed CSP capacity.

Abengoa Solar Inc., the Mojave project sponsor, estimates that project will create more than 830 construction jobs and 70 operating jobs. NextEra Energy Resources, LLC, the Genesis project sponsor, estimates that project will create approximately 800 construction jobs and 47 operating jobs.

The Mojave project will be the first U.S. utility-scale deployment of Abengoa's latest parabolic trough technology, originally developed in connection with a DOE award provided by the Office of Energy Efficiency and Renewable Energy. The solar collector assembly heat collection element uses an advanced receiver tube to increase thermal efficiency by up to 30% compared to the nation's first CSP plants. In addition, advanced mirror technology will improve reflectivity and accuracy, allowing collection of the same amount of energy as older technologies from a smaller footprint. The project will generate enough electricity to power more than 53,000 homes.

The Genesis solar project will feature parabolic trough solar thermal technology that has been used commercially for more than two decades. The project is expected to produce enough electricity to power over 48,000 homes. To date, DOE's Loan Programs Office has committed over $10 billion in loan guarantees to solar generation projects.
More info at http://solarserdar.blogspot.com/

Drop-In Biofuels Get up to $36 Million in DOE Support

DOE announced on June 10 it will offer up to $36 million to fund six small-scale projects that will advance the technology and process integration needed to produce "drop-in" advanced biofuels and other bio-based chemicals. The projects, in California, Michigan, North Carolina, Texas, and Wisconsin, aim to improve the economics and efficiency of biological and chemical processes that convert non-food biomass feedstocks into replacements for petroleum-based feedstocks.

Selections include a project by HCL CleanTech, Inc., in Oxford, North Carolina, that will develop and demonstrate process improvements for pretreatment, conversion to sugars, and subsequent conversion of those sugars to fuels. Also, an undertaking by the Texas Engineering Experiment Station in College Station, Texas, will focus on developing a novel pretreatment for cellulosic biomass feedstocks using a combination of chemical and mechanical processing. DOE's Biomass Program works with industry, academia, and national laboratory partners on a balanced portfolio of research in biomass feedstocks and conversion technologies.
More info at http://solarserdar.blogspot.com/

DOE Announces up to $70 Million to Advance Geothermal Energy

DOE announced on June 8 the availability of up to $70 million in new funding over three years for technology advancements in geothermal energy. DOE is targeting innovations in exploration technologies to locate geothermal resources, as well as in improvements in resource characterization, drilling, and reservoir engineering techniques. The goal is to reduce upfront costs and lower the price of geothermal energy.

This funding opportunity will support DOE's partnerships with industry, national laboratories, and academia to advance key technology research areas including advanced exploratory drilling to reduce costs; advanced well completion; tools to isolate fracture zones within a well by working to control injection and production of water in geothermal systems; observation tools and data collection systems for reservoir stimulation; geophysical exploration technologies such as remote sensing and advanced seismic surveying to locate hidden resources; and geochemistry and rock-fluid interactions.
More info at http://solarserdar.blogspot.com/

DOE Offers Conditional Loan Guarantee for Nevada Geothermal Project

DOE announced on June 9 the offer of a conditional commitment to provide a partial guarantee for a $350 million loan for a geothermal power generation project. The project, sponsored by Ormat Nevada, Inc., is expected to produce 121 megawatts (MW) of base-load power from three geothermal power facilities. And, it will increase geothermal power production in Nevada by nearly 25%. The company estimates the project will create approximately 330 construction jobs and nearly 65 permanent jobs.

The geothermal facilities feature Ormat Energy Converter modules, which draw hot water from wells deep below the Earth's surface, and the water's thermal energy is used to heat a secondary fluid that is vaporized and then forced through a turbine to generate electricity. The project is expected to avoid nearly 580,000 metric tons of carbon dioxide annually, an amount equivalent to the greenhouse gas emissions of over 110,000 vehicles. The project is also expected to produce over one million megawatt hours of power annually, enough to power nearly 88,000 homes. The project's total output is expected to be sold to Nevada Power Company under a long-term power purchase agreement.
More info at http://solarserdar.blogspot.com/

Partnership will focus on Energy Performance and Building Appraisals

DOE announced on June 13 a partnership with The Appraisal Foundation that will help expand access to energy efficiency and building performance information for commercial buildings. Under the new partnership, DOE and The Appraisal Foundation will work to ensure that appraisers nationwide have the information, practical guidelines, and professional resources they need to evaluate energy performance when conducting commercial building appraisals. This will help investors, building owners, and operators to accurately assess the value of energy efficiency as part of a building's overall appraisal.

In 2010, commercial buildings accounted for about 20% of all the energy used in the United States. By improving insulation, lighting, windows, and heating and cooling systems, and by using daylighting, America's commercial buildings can be more energy efficient, which saves money for businesses and helps make them more competitive. Under the partnership, DOE will develop educational materials and create a database to provide appraisers with energy-savings data, federal green building programs and policies, and additional information on energy performance.
More info at http://solarserdar.blogspot.com/

Innovative High Energy Density Capacitor Design Offers Potential for Clean Energy Applications

Can you imagine a photovoltaic module that’s able to generate and store electricity on its own? Or an electric vehicle (EV) powered by a technology more durable than the advanced batteries in today's EVs? Malvern, Pennsylvania's TroyCap, LLC is using nanolaminate technology patented by Dr. Troy Barbee at the DOE's Lawrence Livermore National Laboratory (LLNL) to design innovative solid-state nanocapacitors that offer the potential to develop cross-cutting clean energy applications like these and others that lower the cost of energy and increase its efficient use.

TroyCap is using an innovative "sputtering" technique the company has developed with the support of LLNL to deposit alternating layers of conductive and insulating materials that are only several atoms thick on a thin metal substrate. Utilizing this process, the company hopes to manufacture what it calls High Energy Density Nanolaminate Capacitors (HEDCAPs) that the company projects will have 500 to 800 times the energy density of current capacitors and 5 to 10 times the energy density of current supercapacitors on the market, allowing them to store more energy.
More info at http://solarserdar.blogspot.com/

Belgium's Ghent University Prepares their E-Cube for U.S. Department of Energy's Solar Decathlon 2011

Ghent University's unique two-story home could be an international star at the U.S. Department of Energy's Solar Decathlon 2011 competition due to the Belgian team's innovative, ultra-efficient, "passive home" design of the E-Cube. E-Cube, named for its cube-like shape, features a very clean and compact boxy exterior, complemented by a very spacious interior for a family of four (including two children) with two bedrooms, one bathroom, a kitchen, and a living area. Ghent University founded the home on several basic principles focusing on modularity and passive house standards, structural flexibility and affordability, which are evident in every part of the home.

An important aspect of the E-Cube is the simple do-it-yourself modularity. The home is designed as a pre-engineered kit that can be easily constructed by communities without specialty workers or help from outside financial institutions. The internal structure is a very basic industrial pallet racking system that keeps access and affordability in mind along with standard building codes. The E-Cube is very plug and play. Because the entire structure is built from a kit, hooking up the solar panels and other technical components requires no specific expertise.
More info at http://solarserdar.blogspot.com/

CROATIAN CENTER of RENEWABLE ENERGY SOURCES (CCRES)