ECO Systems Fuel Enhancer – Manufacturers web site. ECO Fuel …

Is Diesel Exhaust Fluid (DEF) Costing You? DPF Regeneration Costing You? The ECO System will reduce your operating costs by burning cleaner, and reducing DPF regeneneration frequency.

Proven reductions in exhaust particulates save money and time by decreasing the number of regens your vehicles will require, and the DEF fluids. Ask your ECO dealer for a demonstration on your diesel engine, and see first hand.

Clean Air Initiatives ECO System Fuel Enhancer provides a cleaner burn and reduced harmful emissions. You can do your part, and save fuel at the same time.

Calculation Spreadsheet Download this spreadsheet and log your miles and gallons to get your MPG averages.

KXAN News features police department saving with ECO System

ECO System Fuel Enhancer Reduce emissions, including particulates, and improve your fuel economy with the ECO System.

How it Works is the official overview from the inventor, manufacturer, and manufacturer's representative.

Congressional Recognition for ECO System customers Congressman Rubn Hinojosa of Texas and many more.

Reduce regulated hydrocarbons from the air, and save money. Our products are proven to be excellent.

View original post here:

ECO Systems Fuel Enhancer - Manufacturers web site. ECO Fuel ...

GLOBAL AIR POLLUTION AND FOREST HEALTH NOTES – Eco Systems, Inc.

These notes present a snapshot of the global nature of serious air pollution as well as the accelerating damage it is causing to forest ecosystems. While not all the forest health problems described below can be linked to air pollution, the following information should leave no doubt in anyone's mind that air pollution along with air pollution induced global climate change are having severe and widespread effects on ecosystems around the world. - Gerry Hawkes

Since virtually all scientists and much of the public now agree that there is an urgent need to curb emissions of greenhouse gases and since the volume of news regarding the serious environmental consequences has become overwhelming, it now makes sense to devote as much time as possible to working on ways to slow and mitigate the damage from air pollution rather than sounding the alarm. Therefore these pages will be left on the Web, but little new information will be added. - Gerry Hawkes ~ February 2006

AIR POLLUTION AND FOREST HEALTH NOTES FROM AROUND THE WORLD NOTES PRESENTED ALPHABETICALLY BY STATE, PROVINCE, COUNTRY OR REGIONThere is a lot of information here, so it is suggested that you scroll down through the titles first for an overview. Particularly important text is highlighted in red.

If you wish to click on a geographic heading below rather than scroll down, please allow this page time to load.

AFRICA ~ ALASKA ~ ANTARCTICA ~ ASIA ~ AUSTRALIA ~ BANGLADESH ~ BRITISH COLUMBIA ~ CALIFORNIA ~ CANADA ~ CHILE ~ CHINA ~ CZECH REPUBLIC ~ EASTERN U.S. ~ EUROPE ~ FINLAND ~ GLOBAL ~ GERMANY ~ GREENLAND ~ INDIA ~ INDIAN OCEAN ~ IRAN ~ JAPAN ~ LESOTHO ~ MAINE ~ MASSACHUSETTS ~ MEDITERRANEAN ~ MICHIGAN ~ NEW HAMPSHIRE ~ NEW YORK ~ NORTH AMERICA ~ NORTH CAROLINA ~ NORTHEASTERN U.S. ~NORWAY ~ OHIO ~ ONTARIO ~ OREGON ~ PENNSYLVANIA ~ RUSSIA ~ SOUTH CAROLINA ~ SOUTH DAKOTA ~ SOUTH PACIFIC ~ SRI LANKA ~ TENNESSEE ~ TEXAS ~ TRANS-PACIFIC ~ TROPICS ~ UNITED KINGDOM ~ UNITED STATES ~ VERMONT ~ VIRGINIA ~ WEST VIRGINIA ~ WYOMING

Alternatively you may type in key search words (such as tree species or type of pollution) using the "Find" feature of your web browser.

AFRICA

SCIENTISTS BLAME DEADLY AFRICAN FAMINE ON POLLUTION FROM NORTH AMERICA, EUROPE, ASIA

By Joseph B. Verrengia The Associated Press

Read the rest here:

GLOBAL AIR POLLUTION AND FOREST HEALTH NOTES - Eco Systems, Inc.

Ecosystem – Wikipedia, the free encyclopedia

An ecosystem is a community of living organisms (plants, animals and microbes) in conjunction with the nonliving components of their environment (things like air, water and mineral soil), interacting as a system.[2] These biotic and abiotic components are regarded as linked together through nutrient cycles and energy flows.[3] As ecosystems are defined by the network of interactions among organisms, and between organisms and their environment,[4] they can be of any size but usually encompass specific, limited spaces[5] (although some scientists say that the entire planet is an ecosystem).[6]

Energy, water, nitrogen and soil minerals are other essential abiotic components of an ecosystem. The energy that flows through ecosystems is obtained primarily from the sun. It generally enters the system through photosynthesis, a process that also captures carbon from the atmosphere. By feeding on plants and on one another, animals play an important role in the movement of matter and energy through the system. They also influence the quantity of plant and microbial biomass present. By breaking down dead organic matter, decomposers release carbon back to the atmosphere and facilitate nutrient cycling by converting nutrients stored in dead biomass back to a form that can be readily used by plants and other microbes.[7]

Ecosystems are controlled both by external and internal factors. External factors such as climate, the parent material which forms the soil and topography, control the overall structure of an ecosystem and the way things work within it, but are not themselves influenced by the ecosystem.[8] Other external factors include time and potential biota. Ecosystems are dynamic entitiesinvariably, they are subject to periodic disturbances and are in the process of recovering from some past disturbance.[9] Ecosystems in similar environments that are located in different parts of the world can have very different characteristics simply because they contain different species.[8] The introduction of non-native species can cause substantial shifts in ecosystem function. Internal factors not only control ecosystem processes but are also controlled by them and are often subject to feedback loops.[8] While the resource inputs are generally controlled by external processes like climate and parent material, the availability of these resources within the ecosystem is controlled by internal factors like decomposition, root competition or shading.[8] Other internal factors include disturbance, succession and the types of species present. Although humans exist and operate within ecosystems, their cumulative effects are large enough to influence external factors like climate.[8]

Biodiversity affects ecosystem function, as do the processes of disturbance and succession. Ecosystems provide a variety of goods and services upon which people depend; the principles of ecosystem management suggest that rather than managing individual species, natural resources should be managed at the level of the ecosystem itself. Classifying ecosystems into ecologically homogeneous units is an important step towards effective ecosystem management, but there is no single, agreed-upon way to do this.

Arthur Tansley, a British ecologist, was the first person to use the term "ecosystem" in a published work.[fn 1][10] Tansley devised the concept to draw attention to the importance of transfers of materials between organisms and their environment.[11] He later refined the term, describing it as "The whole system, ... including not only the organism-complex, but also the whole complex of physical factors forming what we call the environment".[12] Tansley regarded ecosystems not simply as natural units, but as mental isolates.[12] Tansley later[13] defined the spatial extent of ecosystems using the term ecotope.

G. Evelyn Hutchinson, a pioneering limnologist who was a contemporary of Tansley's, combined Charles Elton's ideas about trophic ecology with those of Russian geochemist Vladimir Vernadsky to suggest that mineral nutrient availability in a lake limited algal production which would, in turn, limit the abundance of animals that feed on algae. Raymond Lindeman took these ideas one step further to suggest that the flow of energy through a lake was the primary driver of the ecosystem. Hutchinson's students, brothers Howard T. Odum and Eugene P. Odum, further developed a "systems approach" to the study of ecosystems, allowing them to study the flow of energy and material through ecological systems.[11]

Energy and carbon enter ecosystems through photosynthesis, are incorporated into living tissue, transferred to other organisms that feed on the living and dead plant matter, and eventually released through respiration.[14] Most mineral nutrients, on the other hand, are recycled within ecosystems.[15]

Ecosystems are controlled both by external and internal factors. External factors, also called state factors, control the overall structure of an ecosystem and the way things work within it, but are not themselves influenced by the ecosystem. The most important of these is climate.[8] Climate determines the biome in which the ecosystem is embedded. Rainfall patterns and temperature seasonality determine the amount of water available to the ecosystem and the supply of energy available (by influencing photosynthesis).[8]Parent material, the underlying geological material that gives rise to soils, determines the nature of the soils present, and influences the supply of mineral nutrients. Topography also controls ecosystem processes by affecting things like microclimate, soil development and the movement of water through a system. This may be the difference between the ecosystem present in wetland situated in a small depression on the landscape, and one present on an adjacent steep hillside.[8]

Other external factors that play an important role in ecosystem functioning include time and potential biota. Ecosystems are dynamic entitiesinvariably, they are subject to periodic disturbances and are in the process of recovering from some past disturbance.[9] Time plays a role in the development of soil from bare rock and the recovery of a community from disturbance.[8] Similarly, the set of organisms that can potentially be present in an area can also have a major impact on ecosystems. Ecosystems in similar environments that are located in different parts of the world can end up doing things very differently simply because they have different pools of species present.[8] The introduction of non-native species can cause substantial shifts in ecosystem function.

Unlike external factors, internal factors in ecosystems not only control ecosystem processes, but are also controlled by them. Consequently, they are often subject to feedback loops.[8] While the resource inputs are generally controlled by external processes like climate and parent material, the availability of these resources within the ecosystem is controlled by internal factors like decomposition, root competition or shading.[8] Other factors like disturbance, succession or the types of species present are also internal factors. Human activities are important in almost all ecosystems. Although humans exist and operate within ecosystems, their cumulative effects are large enough to influence external factors like climate.[8]

Follow this link:

Ecosystem - Wikipedia, the free encyclopedia

The Concept of the Ecosystem

"I bequeathe myself to the dirt, to grow from the grass I love; If you want me again, look for me under your boot-soles." - Walt Whitman

In this lesson, we will learn answers to the following questions:

The study of ecosystems mainly consists of the study of certain processes that link the living, or biotic, components to the non-living, or abiotic, components. Energy transformations and biogeochemical cycling are the main processes that comprise the field of ecosystem ecology. As we learned earlier, ecology generally is defined as the interactions of organisms with one another and with the environment in which they occur. We can study ecology at the level of the individual, the population, the community, and the ecosystem.

Studies of individuals are concerned mostly about physiology, reproduction, development or behavior, and studies of populations usually focus on the habitat and resource needs of individual species, their group behaviors, population growth, and what limits their abundance or causes extinction. Studies of communities examine how populations of many species interact with one another, such as predators and their prey, or competitors that share common needs or resources.

In ecosystem ecology we put all of this together and, insofar as we can, we try to understand how the system operates as a whole. This means that, rather than worrying mainly about particular species, we try to focus on major functional aspects of the system. These functional aspects include such things as the amount of energy that is produced by photosynthesis, how energy or materials flow along the many steps in a food chain, or what controls the rate of decomposition of materials or the rate at which nutrients are recycled in the system.

By and large, this set of environmental factors is important almost everywhere, in all ecosystems.

Usually, biological communities include the "functional groupings" shown above. A functional group is a biological category composed of organisms that perform mostly the same kind of function in the system; for example, all the photosynthetic plants or primary producers form a functional group. Membership in the functional group does not depend very much on who the actual players (species) happen to be, only on what function they perform in the ecosystem.

Figure 1. Energy flows and material cycles.

Energy enters the biological system as light energy, or photons, is transformed into chemical energy in organic molecules by cellular processes including photosynthesis and respiration, and ultimately is converted to heat energy. This energy is dissipated, meaning it is lost to the system as heat; once it is lost it cannot be recycled. Without the continued input of solar energy, biological systems would quickly shut down. Thus the earth is an open system with respect to energy.

Follow this link:

The Concept of the Ecosystem

Ecosystems of Our World

What is a Biome? A biome is a large area with similar flora, fauna, and microorganisms. Most of us are familiar with the tropical rainforests, tundra in the arctic regions, and the evergreen trees in the coniferous forests. Each of these large communities contain species that are adapted to its varying conditions of water, heat, and soil. For instance, polar bears thrive in the arctic while cactus plants have a thick skin to help preserve water in the hot desert. To learn more about each of the major biomes, click on the appropriate heading to the right.

What is an Ecosystem? Most of us are confused when it comes to the words ecosystem and biome. What's the difference? There is a slight difference between the two words. An ecosystem is much smaller than a biome. Conversely, a biome can be thought of many similar ecosystems throughout the world grouped together. An ecosystem can be as large as the Sahara Desert, or as small as a puddle or vernal pool. Ecosystems are dynamic interactions between plants, animals, and microorganisms and their environment working together as a functional unit. Ecosystems will fail if they do not remain in balance. No community can carry more organisms than its food, water, and shelter can accomodate. Food and territory are often balanced by natural phenomena such as fire, disease, and the number of predators. Each organism has its own niche, or role, to play.

How have humans affected the ecosystems? We have affected ecosystems in almost every way imaginable! Every time we walk out in the wilderness or bulldoze land for a new parking lot we are drastically altering an ecosystem. We have disrupted the food chain, the carbon cycle, the nitrogen cycle, and the water cycle. Mining minerals also takes its toll on an ecosystem. We need to do our best to not interfere in these ecosystems and let nature take its toll.

See the rest here:

Ecosystems of Our World

Ecosystem Gardening

Ecosystem Gardening is about teaching you sustainable gardening, conservation of natural resources, and to create welcoming habitat for wildlife in your garden so that you will attract more birds, butterflies, pollinators, frogs and toads, bats, and other wildlife to your garden.

Dont miss Wren Song, the Ecosystem Gardening newsletter, coming to your inbox every week with the best tips on creating your wildlife habitat garden, great resources, and breaking news. All of the best information and upcoming news is announced first to the wonderful folks who have subscribed to this free newsletter.

Check out the Blog for more in-depth information, but heres an introduction to get you started.

Also Carole Sevilla Brown is available to speak at conferences and workshops about all of the following topics. Please click Contact above and let me know what your needs are.

The 5 Pillars of Ecosystem Gardening When you pay attention to these five pillars, you will automatically begin to attract more wildlife to your wildlife garden, youll be well on your way to becoming a good steward of your property, and you will be contributing to a healthy environment.

Dont miss Ecosystem Gardening for Wildlife, A 4-part online workshop series teaching you to garden sustainably, conserve natural resources, and create welcoming habitats for wildlife so that you will attract more birds, butterflies, native pollinators, and other wildlife to your garden.

What the Heck is Ecosystem Gardening?

Why Your Garden Matters to Wildlife

Follow this link:

Ecosystem Gardening