Palm Kernel Shells: An Attractive Biomass Fuel for Europe

Europe is targeting an ambitious renewable energy program aimed at 20% renewable energy in the energy mix by 2020 with biomass energy being key renewable energy resource across the continent. However, the lack of locally-available biomass resources has hampered the progress of biomass energy industry in Europe as compared with solar and wind energy industries. The European biomass industry is largely dependent on wood pellets and crop residues.


Europe is the largest producer of wood pellets, which is currently estimated at 13.5 million tons per year while its consumption is 18.8 million tons per year. The biggest wood pellet producing countries in Europe are Germany and Sweden. Europe relies on America and Canada to meet its wood pellet requirements and there is an urgent need to explore alternative biomass resources. In recent years, palm kernel shells (popularly known as PKS) from Southeast Asia and Africa has emerged as an attractive biomass resources which can replace wood pellets in biomass power plants across Europe.

What are Palm Kernel Shells

Palm kernel shells are the shell fractions left after the nut has been removed after crushing in the Palm Oil Mill. Kernel shells are a fibrous material and can be easily handled in bulk directly from the product line to the end use. Large and small shell fractions are mixed with dust-like fractions and small fibres.

Moisture content in kernel shells is low compared to other biomass residues with different sources suggesting values between 11% and 13%. Palm kernel shells contain residues of Palm Oil, which accounts for its slightly higher heating value than average lignocellulosic biomass. Compared to other residues from the industry, it is a good quality biomass fuel with uniform size distribution, easy handling, easy crushing, and limited biological activity due to low moisture content.

Press fibre and shell generated by the palm oil mills are traditionally used as solid fuels for steam boilers. The steam generated is used to run turbines for electricity production. These two solid fuels alone are able to generate more than enough energy to meet the energy demands of a palm oil mill.

Advantages of Palm Kernel Shells

PKS has almost the same combustion characteristics as wood pellets, abundantly available are and are cheap. Indonesia and Malaysia are the two main producers of PKS. Indonesian oil palm plantations cover 12 million hectares in Indonesia and 5 million hectares in Malaysia, the number of PKS produced from both countries has exceeded 15 million tons per year. Infact, the quantity of PKS generated in both countries exceeds the production of wood pellets from the United States and Canada, or the two largest producers of wood pellets today.

Interestingly, United States and Canada cannot produce PKS, because they do not have oil palm plantations, but Indonesia and Malaysia can also produce wood pellets because they have large forests. The production of wood pellets in Indonesia and Malaysia is still small today, which is less than 1 million tons per year, but the production of PKS is much higher which can power biomass power plants across Europe and protect forests which are being cut down to produce wood pellets in North America and other parts of the world.

PKS as a Boiler Fuel

Although most power plants currently use pulverized coal boiler technology which reaches around 50% of the world’s electricity generation, the use of grate combustion boiler technology and fluidized bed boilers is also increasing. Pulverized coal boiler is mainly used for very large capacity plants (> 100 MW), while for ordinary medium capacity uses fluidized bed technology (between 20-100 MW) and for smaller capacity with combustor grate (<20 MW). The advantage of boiler combustion and fluidized bed technology is fuel flexibility including tolerance to particle size.

When the pulverized coal boiler requires a small particle size (1-2 cm) like sawdust so that it can be atomized on the pulverizer nozzle, the combustor grate and fluidized bed the particle size of gravel (max. 8 cm) can be accepted. Based on these conditions, palm kernel shells has a great opportunity to be used as a boiler fuel in large-scale power plants.

Use of PKS in pulverized coal boiler

There are several things that need to be considered for the use of PKS in pulverized coal boilers. The first thing that can be done is to reduce PKS particle size to a maximum of 2 cm so that it can be atomized in a pulverized system. The second thing to note is the percentage of PKS in coal, or the term cofiring. Unlike a grate and a fluidized bed combustion that can be flexible with various types of fuel, pulverized coal boilers use coal only. There are specific things that distinguish biomass and coal fuels, namely ash content and ash chemistry, both of which greatly influence the combustion characteristics in the pulverized system.


PKS has emerged as an attractive biomass commodity in Japan

Coal ash content is generally greater than biomass, and coal ash chemistry is very different from biomass ash chemistry. Biomass ash has lower inorganic content than coal, but the alkali content in biomass can change the properties of coal ash, especially aluminosilicate ash.

Biomass cofiring with coal in small portions for example 3-5% does not require modification of the pulverized coal power plant. For example, Shinci in Japan with a capacity of 2 x 1,000 MW of supercritical pulverized fuel with 3% cofiring requires 16,000 tons per year of biomass and no modification. Similarly, Korea Southeast Power (KOSEP) 5,000 MW with 5% cofiring requires 600,000 tons per year of biomass without modification.

PKS cofiring in coal-based power plants

Pulverized coal-based power plants are the predominant method of large-scale electricity production worldwide including Europe. If pulverised fuel power plants make a switch to co-firing of biomass fuels, it will make a huge impact on reducing coal usage, reducing carbon emissions and making a transition to renewable energy. Additionally, the cheapest and most effective way for big coal-based power plants to enter renewable energy sector is biomass cofiring. Palm kernel shells can be pyrolyzed to produce charcoal while coal will produce coke if it is pyrolyzed. Charcoal can be used for fuel, briquette production and activated charcoal.

Tips on Writing a Research Paper on Solar Energy

The share of energy received from the Sun is steadily increasing every year. Last year, the global solar market increased by 26%. According to forecasts, in 2018 for the first time, the mark of 100 gigawatts of new installed capacity per year will be passed all over the world. Writing a research paper on solar energy is not an easy assignment, as you will have to deal with lot’s of statistics, results of experiments, and, surprisingly, sociology — the usage of alternative sources of energy are strongly connected with the social issues and moods. In this article, you’ll receive some tips on how to write a stellar research paper on solar energy and impress your professor.

We are sure you know how to structure a research paper, and you won’t forget about an engaging thesis (problem) statement. Our tips will cover the latest trends you should mention and the discussions related to the usage of solar energy, pros, cons and exciting facts.

Pay Attention to the Latest Trends

Analysts have identified trends in the solar energy market in the near future.

  • An increasing number of countries are developing solar energy projects at the national level. In 2016, there were 32 such countries, at the end of last year already 53. Tenders for the development of solar energy are planned in 23 countries.
  • In the United States in the next 4 years, the number of states installing more than 1 gigawatt will reach 18. They will account for 80% of all US photovoltaic plants.
  • Reducing the cost of solar energy can be achieved through the use of more powerful modules, which will reduce the proportion of equipment and maintenance costs.
  • The role of electronics operating at the level of a single photovoltaic panel will grow. Now micro-inventors and current converters for one module are not used very widely.
  • Prices for stationary solar systems in the world are falling, but in the USA they remain at the same level (the cost of watts of power for US home systems is the highest in the world). The price for a “sunny” watt from state to state can vary by 68 cents, and companies will have to look for ways to reduce production costs.

Talk about the Future

Naturally, interest in renewable energy sources will continue to grow. The year 2050 will be the point of no return – it is by this time that most countries will completely switch to clean energy. And in 2018 serious steps will be made in this direction.

The first to be hit will be coal power plants in Europe. To date, 54% of them are not profitable, and there are only for the sake of peak load. In 2018, Finland will ban the use of coal to generate electricity and increase the tax on carbon dioxide emissions. By 2030, the country plans to abandon this fuel completely.

The Indian coal mining company Coal India also plans to close 37 coal mines in March 2018 – their development has become uneconomical due to the growth of renewable energy. The company will save about $ 124 million on this, after which it will switch to solar power and install at least 1 GW of new solar capacity in India.

Don’t Focus Solely on Content

It is a no-brainer that the content of your research paper is the most essential part of your work. However, if you forget about formatting, citations, plagiarism, using valid academic sources, etc., your research paper can fail despite having an amazing thesis statement or the project idea. can help in detecting plagiarized content.

When you start doing research, note down every link you use or want to use, every quote you like, every piece of statistical information. At first, it seems very dull and unnecessary — you think you can find this information at any moment. However, days pass, and you fail to make proper references, which can be a reason of being accused of plagiarism. Proofread your research paper several times, use online sources to check grammar and spelling, don’t forget about plagiarism checkers to stay on the safe side.

If you find out that writing a proper research paper on solar energy is too complicated for you now, or you don’t have enough time energy to deal with it, it is a wise choice to get affordable research paper writing by experts who can help you immediately with your assignment. When writing a research paper on solar energy don’t forget to check on the latest numbers and analytical data worldwide. Good luck!

Carbon Market in the Middle East

Middle East is highly susceptible to climate change, on account of its water scarcity, high dependence on climate-sensitive agriculture, concentration of population and economic activity in urban coastal zones, and the presence of conflict-affected areas. Moreover, the region is one of the biggest contributors to greenhouse gas emissions on account of its thriving oil and gas industry.

The world’s dependence on Middle East energy resources has caused the region to have some of the largest carbon footprints per capita worldwide. Not surprisingly, the carbon emissions from UAE are approximately 55 tons per capita, which is more than double the US per capita footprint of 22 tons per year. The MENA region is now gearing up to meet the challenge of global warming, as with the rapid growth of the carbon market. During the last few years, many MENA countries, like UAE, Qatar, Egypt and Saudi Arabia have unveiled multi-billion dollar investment plans in the cleantech sector to portray a ‘green’ image.

There is an urgent need to foster sustainable energy systems, diversify energy sources, and implement energy efficiency measures. The clean development mechanism (CDM), under the Kyoto Protocol, is one of the most important tools to support renewable energy and energy efficiency initiatives in the MENA countries. Some MENA countries have already launched ambitious sustainable energy programs while others are beginning to recognize the need to adopt improved standards of energy efficiency.

The UAE, cognizant of its role as a major contributor to climate change, has launched several ambitious governmental initiatives, including UAE embassy legislation, aimed at reducing emissions by approximately 40 percent. Masdar, a $15 billion future energy company, will leverage the funds to produce a clean energy portfolio, which will then invest in clean energy technology across the Middle East and North African region. Egypt is the regional CDM leader with twelve projects in the UNFCCC pipeline and many more in the conceptualization phase.

Middle East is an attractive carbon market as it is rich in renewable energy resources and has a robust oil and gas industry. Surprisingly, very few CDM projects are taking place in MENA countries with only 22 CDM projects have been registered to date. The region accounts for only 1.5 percent of global CDM projects and only two percent of emission reduction credits.

The two main challenges facing many of these projects are: weak capacity in most MENA countries for identifying, developing and implementing carbon finance projects and securing underlying finance. Currently, there are several CDM projects in progress in Egypt, Jordan, Bahrain, Morocco, Syria and Tunisia. Many companies and consulting firms have begun to explore this now fast-developing field.

The Al-Shaheen project is the first of its kind in the region and third CDM project in the petroleum industry worldwide. The Al-Shaheen oilfield has flared the associated gas since the oilfield began operations in 1994. Prior to the project activity, the facilities used 125 tons per day (tpd) of associated gas for power and heat generation, and the remaining 4,100 tpd was flared. Under the current project, total gas production after the completion of the project activity is 5,000 tpd with 2,800-3,400 tpd to be exported to Qatar Petroleum (QP); 680 tpd for on-site consumption, and only 900 tpd still to be flared. The project activity will reduce GHG emissions by approximately 2.5 million tCO2 per year and approximately 17 million tCO2 during the initial seven-year crediting period.

Potential CDM projects that can be implemented in the region may come from varied areas like sustainable energy, energy efficiency, waste management, landfill gas capture, industrial processes, biogas technology and carbon flaring. For example, the energy efficiency CDM projects in the oil and gas industry, can save millions of dollars and reduce tons of CO2 emissions. In addition, renewable energy, particularly solar and wind, holds great potential for the region, similar to biomass in Asia.

PSA System for Biogas Upgradation

Pressure swing adsoprtion, also known as PSA, is emerging as the most popular biogas upgradation technology in many parts of the world. A typical PSA system is composed of four vessels in series that are filled with adsorbent media which is capable of removing water vapor, CO2, N2 and O2 from the biogas stream.

During operation, each adsorber operates in an alternating cycle of adsorption, regeneration and pressure buildup. Dry biogas enters the system through the bottom of one of the adsorbers during the first phase of the process. When passing through the vessel, CO2, N2 and O2 are adsorbed onto the surface of the media. The gas leaving the top of the adsorber vessel contains more than 97% CH4

Biogas upgradation through PSA takes place over 4 phases: pressure build-up, adsorption, depressurization and regeneration. The pressure buildup is achieved by equilibrating pressure with a vessel that is at depressurization stage. Final pressure build up occurs by injecting raw biogas. During adsorption, CO2 and/or N2 and/or O2 are adsorbed by the media and the gas exits as CH4.

Depressurization is performed by equalizing with a second pressurizing vessel, and regeneration is achieved at atmospheric pressure, leaving a gas that contains high concentrations of CH4 to be re-circulated. During the regeneration phase, the bed must be regenerated by desorbing (or purging) the adsorbed gases. Purging is accomplished by reducing the pressure in the bed and back-flushing it with some of the concentrated gas product. The gas pressure released from one vessel is used by the other, thus reducing energy consumption and compressor capital costs.

Special adsorption materials are used as a molecular sieve, preferentially adsorbing the target gas species at high pressure. The adsorbent media is usually zeolites (crystalline polymers), carbon molecular sieves or activated carbon. Aside from their ability to discriminate between different gases, adsorbents for PSA systems are usually very porous materials chosen because of their large surface areas.

How Does a Solar Battery Storage Work?

The idea of having an energy-independent home is quite enticing for any homeowner. It comes with a lot of advantages, the main one being the fact that you won’t be affected by utility rate fluctuations. Also, you’ll be promoting the ‘green energy’ campaign, which is currently being recommended as a way of preserving the environment. Fortunately, it’s an attainable dream given the rapid advancement in the world of energy storage. All you need is a set of solar panels or a solar energy provider, and a battery backup to satisfy your needs.

Solar batteries are an integral part of this setup since they ensure a continuous supply of power if the grid goes down. This article will break down the seemingly complex operation of these storage devices into a few easy-to-understand steps. The discussion will revolve around a battery that’s already paired with a solar system rather than a standalone solar battery storage.


Feeding the Solar Energy

When sunlight rays hit the panels, the visible light is converted to electrical energy. The electrical current flows into the battery and is stored as DC electricity. It’s worth noting that there are two types of solar batteries: AC-coupled and DC-coupled. The latter has a built-in inverter that can convert the electricity current to DC or AC. As such, the DC solar electricity will flow from the panels to an external power inverter, which will convert it to AC energy that can either be used by your home appliances or stored in the AC battery. What the built-in inverter will do in this case is convert the AC electricity back to DC for storage.

As for a DC-coupled system, the battery doesn’t have a built-in inverter. As such, the DC electricity from the solar panels flows to the battery via a charge controller. Unlike in an AC setup, the power inverter in this system is only connected to your home’s wiring. As such, electricity from the solar panels or your storage battery is converted from DC to AC before flowing to your home appliances. What determines how much energy is stored in the battery?  Read on to find out more.

The Charging Process

As power flows from the solar panels, your home’s electricity setup will take precedence. Therefore, electricity directly feeds your appliances, like refrigerators, TVs, and lights. Often, this energy from solar panels can be more than what you need. For instance, on a hot afternoon, a lot of power is produced, yet your home isn’t using much of it. In such a scenario, net metering occurs, wherein the extra energy flows back to the grid. However, you can use this overflow to charge up your batteries.


The amount of electricity stored in the battery depends on how fast it charges up. If, for example, your home doesn’t use up too much power, then the charging process will be quick. Also, if you’re connected to huge panels, then a lot of electric energy will flow to your home, which means the batteries will charge up a lot faster. Once your battery is full, the charge controller will prevent it from overcharging.

Why Do You Need A Solar Battery?

1. To shield you from power outages

If you’re connected to a grid, there’ll always be a few moments when the transmission system malfunctions or is shut down for maintenance. As soon as this happens, the system will isolate your home from the grid and activate the backup source. In this case, the battery will operate like a backup generator.

2. Time-of-use rate plans

On these plans, you’ll be charged according to the amount of electricity you use, as well as the time during which you use it. TOU states that the power drawn from the grid at night is more valuable than the extra energy produced during the day. As such, by storing the extra energy and using it at night, you’ll reduce the overall cost of electricity in your home.

Closing Remarks

With the world embracing ‘green energy,’ solar panels are gradually replacing the traditional sources of electricity. Solar batteries play a crucial role in ensuring that you have a reliable power supply in your home. AC-couple storage batteries have a built-in inverter, which converts the electric current to DC or AC, depending on the direction. On the other hand, a DC-couple battery doesn’t have this feature. Both batteries, however, store electric energy in DC regardless of the setup. The speed at which electricity is stored in the batteries depends on the size of the panels and the amount used by your home appliances.

Renewable Energy Trends in Germany

Germany has been called “the world’s first major renewable energy economy” as the country is one of the world’s most prolific users of renewable energy for power, heating, and transport. Germany has rapidly expanded the use of clean energy which now contributes almost one-fourth to the national energy mix. Renewable energy contribute as much as one-fourth of the primary energy mix and the country has set a goal to producing 35 percent of electricity from renewable sources by 2020 and 100 percent by 2050.


Solar Energy

Germany is the world’s biggest solar market and largest PV installer with a solar PV capacity of more than 49.78 GW at the end of 2019. The German new solar PV installations increased by about 4 GW in 2019. Germany has nearly as much installed solar power generation capacity as the rest of the world combined and gets about 5 percent of its overall annual electricity needs from solar power alone.

In 2019, German photovoltaic (PV) plants fed about 46.5 TWh into the public electricity grid, an increase of 1.7 percent compared to 2018.

Wind Energy

Germany’s wind energy industry is one of the world’s largest, and it is at the forefront of technological development.  Over half of all wind turbines in Germany are owned by local residents, farmers and local authorities which have tremendously improved the acceptance of wind turbines among local communities as they directly profit.

Being Europe’s primary wind energy market, Germany represents around 30 percent of total installed capacity in Europe and 12 percent of global installed capacity. Total wind energy capacity in Germany was 59.3 GW at the end of year 2019. Currently Germany is ranked third worldwide in installed total wind capacity with its share of total domestic electricity production forecasted to reach 25 percent by 2025.

Wind became the main electricity source in Germany for the first time in 2019. In eight months of the year 2019, the electricity generation from wind surpassed brown coal and in twelve months nuclear. Together wind and solar power plants generated a total of ca. 173 TWh electricity in 2019.

Biomass Energy

Biomass energy is making a significant contribution to renewable energy supply in Germany and accounts for about 5.5 percent of the total electricity production in the country. Germany is the market leader in biogas technology and is also Europe’s biggest biogas producer. Last year around 7,600 systems with a cumulative capacity of 3,200 MW generated 21.9 billion kWh in the country, thus consolidating Germany’s status as a pioneer in clean energy technologies.


Renewable Energy Investment

Germany’s plan to phase out all 17 of its nuclear power plants and shift to renewable energy by 2022 is the largest infrastructure investment program in Europe since World War II. The country’s transition from nuclear energy-based power network to renewable energy systems will require investments of much as $55 billion by 2030.

Germany is the world’s third largest market for renewable energy investment which and ranked 5th in the Bloomberg’s 2018 global renewable investment report with total investments of $10.5 billion in 2018. Sixty-five percent of investment in Germany was directed toward solar, with 29 percent directed to wind.

The country offers generous feed-in-tariffs for investors across all renewable energy segments which is attracting huge private capital in cleantech investments. In 2018, the majority of cleantech investment came from corporate investors across all sectors of the economy, including farmers, energy utilities, and industrial and commercial enterprises.

In 2019, the total electricity production in Germany from all renewable sources was about 237 TWh, an increase of 7 percent compared to 2018, and above fossil fuel carriers (207 TWh) for the first time.

Clean Cookstoves: An Urgent Necessity

Globally, three billion people in the developing nations are solely dependent on burning firewood, crop residues, animal manure etc for preparing their daily meals on open fires, mud or clay stoves or simply on three rocks strategically placed to balance a cooking vessel.  The temperature of these fires are lower and produce inefficient burning that results in black carbon and other short-lived but high impact pollutants.

These short-lived pollutants not only affect the persons in the immediate area but also contribute much harmful gases more potent than carbon dioxide and methane. For the people in the immediate area, their health is severely hampered as this indoor or domestic air pollution results in significantly higher risks of pneumonia and chronic bronchitis.

To remedy the indoor air pollution (IAP) and health-related issues as well as the environmental pollution in the developing world, clean cookstoves are the way to advance. But to empower rural users to embrace the advanced cookstoves, and achieve sustainable success requires a level of socio-cultural and economic awareness that is related directly to this marginalized group. The solution needs to be appropriate for the style of cooking of the group which means one stove model will not suit or meet the needs and requirements of all developing nation people groups.

Clean cookstoves can significantly reduce health problems caused by indoor air pollution in rural areas

Consideration for such issues as stove top and front loading stove cooking, single pot and double pot cooking, size of the typical cooking vessel and the style of cooking are all pieces of information needed to complete the picture.

Historically, natural draft systems were devised to aid the combustion or burning of the fuels, however, forced draft stoves tend to burn cleaner with better health and environmental benefits. Regardless of cookstove design, the components need to be either made locally or at least available locally so that the long term life of the stove is maintainable and so sustainable.

Now, if the cookstove unit can by powered by  simple solar or biomass system, this will change the whole nature of the life style and domestic duties of the chief cook and the young siblings who are typically charged with collecting the natural firewood to meet the cooking requirement.

Therefore the cookstoves need to be designed and adapted for the people group and their traditional cooking habits, and not in the reverse order. To assess the overall performance of the green cooking stoves requires simple but effective measures of the air quality.

The two elements that need to be measured are the black carbon emissions and the temperature of the cooking device.  This can be achieved by miniature aerosol samplers and temperature sensors. The data collected needs to be transmitted in real-time via mobile phones for verification of performance rates.  This is to provide verifiable data in a cost effective monitoring process.

5 Tips for Adding Solar Panels to Your Home

Solar panels are technological appliances that generate electricity by converting light energy into direct currents which are applicable for commercial and residential purposes. The advent of solar panels is a major progress in technology, providing the world with a more economically sustainable and reliable power supply for all possible applications. It also savages the situation of spending extra money on energy bills which can be high, depending on the amount of energy consumed.

In recent times, the installation of solar panels to homes has been a prominent activity of homeowners, especially in the United States. Adding solar panels to your home will not only boost the value of your home, but also give room for savings, and provide a safe and healthy environment. But yet, so many people shun the prospect of installation because it seems like a formidable task.

Today, the addition of solar panels to your home is not a big deal as it was, as the choice of system size, component selection, and mounting and appropriate safety disconnection can be achieved with proper information and knowledge.

These are five tips that you will need to successfully power your homes with solar panels:

1. Budget

Although there has been a common misconception that solar panel installation is expensive, it is indeed an incredible way of saving money. It helps in minimizing the rate at which you depend on electricity from the power grid, resulting in you saving money in the long run. Even though the initial expenses during the first action solar installation might seem much, it becomes a cost-saving electricity generating facility over time.

Over time, the cost of procuring solar panels is consistently dropping since many people are installing it because is one of the cheapest forms of electricity worldwide. Nevertheless, your financing options is an important thing to consider before anything else – the more financially buoyant you are, the more the utility that will be derived from it. Estimate how much cost that the procurement and the installation of the entire solar set up will incur. The strength of the panels affects the price – the more powerful it is, the more expensive each panel will be.

2. Roof Condition and Position

Solar panels are very durable and they can have a lifespan of 25 years or more. Considering the longevity of most roofing materials that are affected by some environmental conditions like snow, hail, rain, hurricane, and sunshine, most home roofs don’t last more than 20 years especially most asphalt shingle or composition roofs. So, the condition of the roof of your home must be in the best condition before setting up solar panels.

In addition to the age and condition of your home roof, the positioning in terms of the layout and the direction that it’s facing should be considered. It should be in such a way that sunlight shines on it daily so as to be able to reap all the amazing benefits that exist with going solar if your home qualifies.

If for the most part of the year, your roof is exposed to a considerably significant quantity of sunlight, installing solar panels would be an excellent idea. The more sunlight that is shining on your solar panel is, the more the energy produced. The presence of huge trees around your roof will cast shades enormously, therefore depriving the panels of direct exposure and also of maximizing the energy coming from the sun. When panels are being installed, they should be fixed in such a way that will prevent the accumulation of dirt and debris that could hinder the hitting of the panel by enough sunlight exposure.

Both factors ensure the longevity of an economically stable power supply from the solar panels in your homes.

3. Activities undertaken in homes

The nature of activities done in the home greatly affects the energy consumption rate. The monthly energy consumption rate of your household may differ in a year due to the fact that you will need to run activities and appliances because of the peculiarity of the season. For example, your electricity bill might be higher in summer months than other months in a year because you will probably run the air conditioner more in this season.

If the energy consumption rate is less, then an undersized solar setup will be sufficient and conversely. An estimate of the number of solar panels that will enough to meet your electricity consumption daily, monthly or yearly should be done appropriately.

So, the knowledge of your home energy consumption rate and your home dimensions allows momentum solar experts to help you design solar systems that best suits your energy use and budget.

4. Types of Solar Panels

There are different solar panel types based on functions. In the market, the two most sought after solar setups available are:

  • Photovoltaic – which converts sunlight into light energy by using arrays of cells
  • Thermal – which heats up water or air with energy from the sunlight.

So, your choice can be made between the two solar technologies depending on your intended purpose.

According to make-up, solar panels are distinctly grouped into two major categories:

  • Monocrystalline
  • Polycrystalline

Each option should be examined carefully, not forgetting to measure how efficient the solar panel is going to be and the right fit for you.

5. Warranty Details

Solar panels that are installed in homes have chances of performing efficiently and hassle-free for years. Solar panels can last for as long as twenty-five years under normal conditions. Nevertheless, in rare situations, issues can occur. That’s more of a reason why you should make your buy from a dependable buyer in order to ensure a money-back guarantee and be assured of a lengthy time of performance without breaking down.

Purchasing the right solar panels for your home enables you to enjoy the numerous benefits that come with it. So, do go for a solar panel that suits your home best rather than going for the current fads of the market.

Biomass Energy Potential in Philippines

The Philippines has abundant supplies of biomass energy resources in the form of agricultural crop residues, forest residues, animal wastes, agro-industrial wastes, municipal solid wastes and aquatic biomass. The most common agricultural wastes are rice hull, bagasse, cane trash, coconut shell/husk and coconut coir. The use of crop residues as biofuels is increasing in the Philippines as fossil fuel prices continue to rise. Rice hull is perhaps the most important, underdeveloped biomass resource that could be fully utilized in a sustainable manner.

At present, biomass technologies utilized in the country vary from the use of bagasse as boiler fuel for cogeneration, rice/coconut husks dryers for crop drying, biomass gasifiers for mechanical and electrical applications, fuelwood and agricultural wastes for oven, kiln, furnace and cook-stoves for cooking and heating purposes. Biomass technologies represent the largest installations in the Philippines in comparison with the other renewable energy, energy efficiency and greenhouse gas abatement technologies.

Biomass energy plays a vital role in the nation’s energy supply. Nearly 30 percent of the energy for the 80 million people living in the Philippines comes from biomass, mainly used for household cooking by the rural poor. Biomass energy application accounts for around 15 percent of the primary energy use in the Philippines. The resources available in the Philippines can generate biomass projects with a potential capacity of more than 200 MW.

Almost 73 percent of this biomass use is traced to the cooking needs of the residential sector while industrial and commercial applications accounts for the rest. 92 percent of the biomass industrial use is traced to boiler fuel applications for power and steam generation followed by commercial applications like drying, ceramic processing and metal production. Commercial baking and cooking applications account for 1.3 percent of its use.

The EC-ASEAN COGEN Programme estimated that the volume of residues from rice, coconut, palm oil, sugar and wood industries is 16 million tons per year. Bagasse, coconut husks and shell can account for at least 12 percent of total national energy supply. The World Bank-Energy Sector Management Assistance Program estimated that residues from sugar, rice and coconut could produce 90 MW, 40 MW, and 20 MW, respectively.

The development of crop trash recovery systems, improvement of agro-forestry systems, introduction of latest energy conversion technologies and development of biomass supply chain can play a major role in biomass energy development in the Philippines. The Philippines is among the most vulnerable nations to climatic instability and experiences some of the largest crop losses due to unexpected climatic events. The country has strong self-interest in the advancement of clean energy technologies, and has the potential to become a role model for other developing nations on account of its broad portfolio of biomass energy resources and its potential to assist in rural development.

Biorefinery Prospects in India

India has a tremendous biomass potential which could easily be relied upon to fulfil most of our energy needs. An estimated 50 MMT (million metric tonnes) of liquid fuels are consumed annually in India, but with the actual biomass potential and its full utilization, India is capable of generating almost double that amount per annum. These biomass estimates only constitute the crop residues available in the country and essentially the second-generation fuels since the use of first-generation crop bases fuels in such food-starved nations is a criminal thought.


Existing Technologies

Currently, there are various technologies available to process such crop residues and generate value products from them. However, essentially, they all revolve around two main kinds of processes, either biochemical or thermal.

The biochemical process involves application of aerobic/anaerobic digestion for the production of biogas; or fermentation, which results in the generation of ethanol. Both these products could be subsequently treated chemically and through trans-esterification process, leading to production of biodiesel.

Alternatively, the thermochemical processes involve either the combustion, gasification or pyrolysis techniques, which produces heat, energy-rich gas and liquid fuels respectively. These products can be used as such, or could be further processed to generate high quality biofuels or chemicals.

The Need

The estimated organized energy breakup for India is 40 percent each for domestic and transport sectors and 20 percent for the industrial sectors. The current share of crude oil and gases is nearly 90 percent for the primary and transport sectors and the remaining 10 percent for the generation of industrial chemicals.

The fluctuating prices of crude oil in the international market and the resulting concern over energy security, has lead developing nations to explore alternative and cheap sources of energy to meet the growing energy demand. One of the promising solution for agrarian economies is Biorefinery.

The Concept

Biorefinery is analogous to the traditional petroleum refineries employing fractional distillation process for obtaining different fractions or components from the same raw material, i.e. the crude oil. Biorefinery involve the integration of different biomass treatment and processing methods into one system, which results in the production of different components from the same biomass.  This makes the entire chain more viable economically and also reduces the waste generated.

Typical Model of a Biorefinery

The outcome ranges from high-volume, low-energy content liquid fuels, which could serve the transportation industry needs, to the low-volume but high-value chemicals, which could add to the feasibility of such a project.

Steam and heat generated in the process could be utilized for meeting process heat requirements. By-products like chemicals, fertilizers, pharmaceuticals, polymers etc are also obtained which provide additional revenue streams.


Biorefineries can help in utilizing the optimum energy potential of organic wastes and may also resolve the problems of waste management and GHGs emissions. Wastes can be converted, through appropriate enzymatic/chemical treatment, into either gaseous or liquid fuels.

The pre-treatment processes involved in biorefining generate products like paper-pulp, HFCS, solvents, acetate, resins, laminates, adhesives, flavour chemicals, activated carbon, fuel enhancers, undigested sugars etc. which generally remain untapped in the traditional processes. The suitability of this process is further enhanced from the fact that it can utilize a variety of biomass resources, whether plant-derived or animal-derived.


The concept of biorefinery is still in early stages at most places in the world. Problems like raw material availability, feasibility in product supply chain, scalability of the model are hampering its development at commercial-scales. The National Renewable Energy Laboratory (NREL) of USA is leading the front in biorefinery research with path-breaking discoveries and inventions.

Although the technology is still in nascent stages, but it holds the key to the optimum utilization of wastes and natural resources that humans have always tried to achieve. The onus now lies on governments and corporate to incentivize or finance the research and development in this field.