Category: Environment & Climate

All sectors of modern society can have impacts from environment and climate changes. There are two “groups” of waste and pollution, those with general impacts on the environment and quality of life, and the other group with specific impacts on climate and weather through the so-called global warming. However, there can be some overlapping between these two groups and induced effects therein. Achieving sustainable socio-economic developments depends on keeping good records and information on how our environment and climate are changing in terms of space and time. Air, water and ecological qualities are very much related to the consumption pattern of our common natural resources on the earth, also how we deal with our waste from household, agriculture and industries. Furthermore, waste and pollution can exist in different forms (gas, liquid and solid), originate from various sources and follow different paths of dispersion, and ultimately have different fates. Upon dispersion in the atmosphere, hydrosphere, ecosphere and in aquatic systems, pollution continues to interact with the biotic and abiotic components of the environment. Such interactions introduce degradation in climate, weather and the environment. Greenhouse gases, primarily from fossil fuel burning, cause global warming. Other types of pollution, e.g. heavy metals, toxic chemicals, acidic gases, agricultural and industrial waste, cause degradation of life quality and other damaging effects on the environment, water and ecological systems. Because of the existing and emerging competition on natural resources, and the diverse consumption pattern by stakeholders and industries, there are constant needs for developing treaties, conventions, regulations and agreements on all levels and sectors to protect the climate and environment and to promote sustainable socio-economic developments.

MENA – Tectonic Shifts Towards Green Building and Constructions

Building and constructions are undergoing tectonic shifts in MENA region especially in the GCC countries. To accelerate cutting down energy consumption and waste production from building and construction, the MENA region puts strict rules for supporting green technologies. Building and construction technology in the MENA region are one of the major sectors with trillion US-dollar revenues. Such shifts will require major investments for replacing the current production of unfriendly OPC-cement with more green cement. Also, building technologies that require huge consumption of energy for operation and service need to be up-dated. Technologies for huge and enormous energy and waste saving are already available but additional and dedicated work what regards adaptation and implementation would be needed.

http://www.albawaba.com/print/business/pr/dewa-and-emirates-green-building-council-discuss-promoting-green-economy-695944

https://www.thebig5hub.com/sustainability/2015/april/green-building-projects-driving-gcc-stone-market-to-54-billion/#

 

GCC Heading Towards SuperGreen In Building and Constructions

GCC countries (Gulf Cooperation Council) are moving faster to SuperGreen solutions in building and construction projects.

Dubai Electricity and Water Authority (DEWA) and the Emirates Green Building Council are strengthening cooperation for supporting a green economy in Dubai and the sustainable development of the Emirate. All future trends support the Green Economy for Sustainable Development initiative, launched by HH Sheikh Mohammed bin Rashid Al Maktoum, Vice President and Prime Minister of the UAE and Ruler of Dubai.

Follow the news:

http://www.albawaba.com/print/business/pr/dewa-and-emirates-green-building-council-discuss-promoting-green-economy-695944

Future Cities – Building Towards the Sky.

With increasing worldwide population and predictions that 75% of the world population will be living in cities by the year 2050, building towards the sky can be unavoidable necessity. That would require more durable constructions and materials with appropriate building and architecture solutions. Future  Cities would require management policies with balanced policies consumption/waste versus protection/conservation of nature in accepted social context. Http://sustain-earth.com

Lessons to be learned – Technology and Livelihood Improvement in the Rural Areas of Asia.

Among the consequences of economy driven policies in ASEAN countries is the increasing economic gaps between countries in the region. For sustainable large-scale and long-term socio-economic developments it is vital to promote less developed countries as well. Shift from commercially driven agriculture to new technologies where the regional natural resources are not only used sufficiently but, also, sustainably managed in a manner that respect traditional systems of the rural areas. 

Commercialization always has some draw-backs as well, e.g. depletion soil fertility, and excessive use of chemical fertilizer, herbicides and pesticides with long-term impacts and threats on ecosystems in different ways. Strategies need to be implemented to create sustainable and profitable farming systems that realize the existence of vital rural societies in tact with the natural functioning and metabolism of natural eco-systems and in harmony with existing biodiversity.
https://www.jircas.affrc.go.jp/english/program/proC_1.html

Sustainability Research Is An Active Choice For Survival and Wellbeing

Sustainability has been part of the human awareness since the birth of the ancient man on planet Earth. The instinct for survival and wellbeing has never been crystallized in well-structured components for building up webs of instrumental coordinated solutions until the 1980s with the introduction of the most widely quoted and used definition of sustainability. An imperative and collective need put forward by the Brundtland Commission of the United Nations in 1987: “sustainable development is development that meets the needs of the present without compromising the ability of future generations to meet their own needs.” 

The Earth is a unique planet in our universe with complex functioning structure of systems that support the evolution of complex webs of metabolic processes for sustaining all living forms on Earth.


 The man has always struggled for his survival on earth and in particular to get access to and to secure affordable food resources not only for himself but for the new comers as well.

After and during the industrial revolutions, the focus of humans was directed mostly on technical issues to free mankind from manual work, to find resources and technology for  basic necessities through mechanical and machinery work. The Man realized the role of science and technology for his wellbeing and since the nineteen and twenty centuries the advances in science and technology emerged more and more to be the only inevitable route for improving the living conditions. This didn’t come for free and price and costs for humans started to be huge with clear finger-print on the accelerating divergence of the three basic drivering wheels of sustainability: economy, environment and social drivers. 

 

Economic interests resulted in increasing consumption of natural resources with severe impacts on degradation of the environment because of increasing waste and pollution, and piling up of social defects in particular the remarkable failure in erasing global poverty. These along with enormous indicators of the declining natural resources as being defined by the so-called resource “peaks”.
 

The divergence and fragmentation of these drivers and spheres brought considerable, and yet, accelerating threat for the survival of humans.  The net result of what humans achieved in science, technology, policies and politics were in direct conflict with not only the search for wellbeing but also the very basic needs for survival.

The major spheres of the functioning and metabolism of all life forms on earth were  brought out of their natural equilibrium, e.g. the atmosphere with an increasing temperature because of global warming.

Global warming and accelerating production of waste and pollution have caused enormous damage on the hydrophere with irreversible effects on the ecological resources where humans are dependent on, e.g. fish.

The growing human population still induces additional challenges for achieving the goals for global sustainability developments.


The era of sustainable developments has already started but it is still in its infancy and the needs of the necessary knowledge are enormous in particular what regards building the underlying science and technology as well as the associated management policies in all sectors and on all levels.


For more information on sustainability visit: http://en.m.wikipedia.org/wiki/Sustainability

Http://sustain-earth.com” is an integrated coherent platform for Applied sustainability. Interests and efforts put by its coordinator and manager of started already through a simple experiment at the age of fourteen. As a young student, at Abo-Tyg/Assiut secondary school, starting to learn chemistry I bought a small amount of hydrochloric acid from my pocket money. I added the acid to a soil sample from the garden, it was a violent reaction in the test tube with evolution of gases. An exciting experiment where drew my attention with the conclusion that there must be geochemical reactions taking place in the environment. This in addition to continuous observations from summer holidays that I spent at the village of my grandfather, Cairo’s Waraa. Some local industries, farmers and poor people of the village, as is the case for many other villages on the Nile, used or you may say “abused” the water of the Nile to do their household needs, e.g. cleaning, washing animal and the removal of waste in general. These events and my experience of the continuous lack of water in the very arid environments prevailing in southern parts of Egypt as it rains one per decade etched an enormous early interest that caused gearing my early geology, chemistry and physics university education towards research on environmental waste, pollution and their impacts on global aquatic systems.

This resulted in an academic career in Environmental Physics a discipline that I created myself with further created further work in Applied Sustainability.

 


Is Using Ordinary Portland Cement  in Building Industries Sustainable?

Ordinary Portland cement “OPC” is the most common type of cement in general use around the world by being a basic ingredient in building industry, e.g. concrere, mortar, stucco and most non-speciality grout. It is a fine powder, typically produced by heating materials, e.g. alumino-silicate clay-materials and limestone, at very high temperatures in a kiln, along with small amounts of other materials. It is essential in many construction around the world as concrete is one of the most versatile materials in this context.

The low cost OPC, and widespread availability of other naturally occurring materials used in Portland cement, make it one of lowest-cost materials widely used throughout the world.

Portland cement is caustic, can cause chemical burns, irritation or with severe exposure lung cancer. It, also, contains some toxic ingredients such as silica and chromium. Environmental concerns are very high energy consumption arising from mining,  manufacturing and transportation of the cement and the related air pollution including the release of enormous amounts of green-house in particular carbon dioxide. Other amouts of environmental hazard involve dioxin, nitrogen and sulphur oxides as well as fine particulate dust. 

“Sustain-earth.com” will expand on detailing the environmental and climatic threats of OPC and the emerging sustainable techniques and friendly materials with more environmentally, economically and socially beneficial values.

http://www.tececo.com/files/newsletters/Newsletter37.htm

Do Human Innovations Support The Essentials of Life on Earth?

Water and nutrients are essentials for the evolution and sustainability of life on earth. The magic, secrets and drivers of life on earth are not human inventions. Human innovation is merely restricted to accelerating the natural metabolic processes on earth, e.g. production of food in agriculture, animal husbandry and fisheries, beyond natural rates and limits. The growing global population and the underlying industrial and economic systems continue to fuel the so-called human innovation towards a never ending spiral for more and more unsustainable consumption of the natural resources.

Humans can not servive on earth without clean water, healthy environment and sustainable food production. However, these requirements can only be fulfilled through sustained production and consumption of energy and natural resources for supporting the basic needs for humans, e.g. housing, education, health, transport and communication. What originally started for the benefits of human developments turned out to major threats for human survival because of increasing waste and pollution from use and abuse of the natural resources.
Humans have interfered in the natural functioning and metabolism of all life forms on earth with negative impacts on essential and global biogeochemical cycles. Examples are: global warming as resulted from malfunctioning of the global carbon-cycle. Degradation in O-cycle (oxygen cycle) is also remarkable because of unfit and polluted air in urbanized living areas, in particular cities as result of expansion of traffic and transport systems and random industrial activities; poor access to oxygen in aquatic systems because of eutrophication in aquatic systems and excessive use of fertilizers on land; enhanced photo-reactions in the atmosphere with the associated negative impacts of tropospheric production of ozone.

Declining reserves of natural phosphorous, are among emerging threats, because of increasing production and use of this limited natural resource with irreversible impacts on P-cycle. Agricultural and industrial nitrogen inputs to the environment currently exceed inputs from natural N fixation. The impacts of anthropogenic N-inputs have significantly altered the global N-cycle over the past century. Global atmospheric N2O have increased from pre-industrial levels where most of which are due to the agricultural sector.

Human activities have major effects on the global S-cycle. The burning of coal, natural gas and other fossil fuels has greatly increased the amounts of sulphur in the atmosphere,?ocean and depleted the sedimentary rock sink, i.e. instead of being burned at steadily rates. Over most polluted areas there has been a 30-fold increase in sulfate deposition. The enhanced sulphur and nitrogen oxides in the atmosphere is causing negative impacts through acidification of aquatic systems with global negative feedback effects on aquatic life and vegetation.

All in all quality of global land-water resources are under accelerating threats from pollution  and waste.



http://www.flatheadwatershed.org/natural_history/natcycles.shtml 

 

 

Poverty and The Backside of the Fast Developing Economies

The emerging economies are like express trains, if you don’t catch one of these trains you will left behind with an old ticket worth nothing.

All of the so-called emerging economies suffer from increasing poverty. The fast developing economies in these countries and regions do not leave enough time for coordinating all the necessary instruments and tools to provide sustainable social-economic infra-structures.

http://www.poverties.org/urban-poverty-in-india.html#gallery[pageGallery]/2/

The diverse Values of Light 

Apart from the importance of light for visualization and making objectives and images of things to be seen. Light itself is involved in the very production of living organisms, plants and animals, through what is known as “photosynthesis” where water, carbon dioxide and nutrients are fundamental raw materials. This is in addition of being essential for the production of electricity by modern solar panels through what is known as the “photo-electric effect” originally explaied by Einstein.

  

http://en.m.wikipedia.org/wiki/Illustration

EveryDay Life and Modern Perception of Energy 

Human perception of energy keeps changing with time and from place to place. Generally speaking in modern life our understanding of energy is very much emanating from real everyday life needs. Accelerating pressures and competition on the declining natural resources dictates new realities hardly existed in the twenty-century where progress in science and technology was enormous but far from being SUSTAINABLE.

In Einstien’s era energy, however, was merely focused on microscopic and laboratory scale, e.g. its physical meaning in particular the concept of “conservation of energy”. Little attention was given to the diverse realities and needs in everyday life. Even in education and research, what concerns the quality of energy and the consequences associated with its production and use. This unfortunately has caused severe and serious negative impacts  in the society, e.g. industry and technology application. These negative impacts piled up and are now seen on the large-scale and everywhere with remarkable damage on the quality of all life forms. To divert the situation and to achieve sustainable socio-economic developments is not a simple matter and can not be done overnight. Science, politicians, professionals and policy-makers have a new mission to secure future generations and make the earth a safe and secure home for its inhabitants.

“Sustain-Earth.Com” and UNESCO On-Line Education For Sustainable Development

“Sustain-Earth.Com” invites you to visit, share and contribute in: http://sustain-earth.comIt is a professional, multi-disciplinary and multi-sectoral website and platform for supporting the implementation of Applied Sustainability in all sectors and on all levels with special focus on water and energy. An introduction to the BLOG is given at “ABOUT”. 

Among other central aspects of the BLOG is coupling of education, science and technology to society, population and market needs. This involves essential functions and instruments for promoting wide-range of B2B activities and Career-Development-Plans trategies for helping young professionals and graduates to meet the emerging needs for conservation of natural resources and for joining the ongoing transformation to sustainable societies. 

You are most welcome with any response, interactions and contributions, e.g. as Guest Blogger using “CONTRIBUTE”. “Sustain-earth.com” extends previous activities by the UNESCO to further promote implementation of sustainability.

Engagement in sustainability issues may also require access to other education channels. United Nations Educational, Scientific and Cultural Organization “UNESCO” has on-line free of charge material on what sustainability is. Sustainable Development, as explained by “UNESCO” allows every human-being to acquire knowledge, skills, attitudes and values necessary to shape a sustainable future. 

Shaping the future is for everyone’s interest and can be done by anyone, everyone in his or her circle of activity. Within education, Sustainable Development means including key sustainable development issues into teaching and learning; for example, climate change, disaster risk reduction, biodiversity, poverty reduction, and sustainable consumption. It also requires promoting participatory teaching and learning methods that motivate and empower learners to change their behaviour and take action for sustainable development. This promotes competencies like critical thinking, imagining future scenarios and making decisions in a collaborative way and requires far-reaching changes in the way education is often practised today. UNESCO has already completed the UN Decade of Education for Sustainable Developments (2005-2014).

http://www.pearltrees.com/t/education-sustainability/id12778198#item126979889

NanoFood – The Role of Nano-Technolgies in Natural Waters

Nano-technology is emerging more and more with many new technologies and products of diverse importance and impacts in daily life (http://www.nanoid.co.uk/nanofoods.html).

Among new technolgies and products are those related to nanofood. According to a definition in a recent report, emanated from “Nano-technology in Agriculture and Food”, food is “nanofood” when nanoparticles, nanotechnology techniques or tools are used during cultivation, production, processing, or packaging of the food and does not necessarily mean modified food or food produced by nanomachines. Nonofood is coming more and more in our fridges and food producers promise potential benefits where world largest food manufacturers are, already, blazing the trail of investment in food industries. However, the ongoing debate over nanofood safety and regulations has slowed the introduction of nanofood products. The needs for research and development will continue to increase and thrive. So far, most of the larger companies are keeping their research activities and news rather quite (http://nanowerk.blogspot.se/2009_01_01_archive.html?m=1).

Nano-food production is very much related to the management of natural water resources, by being the main factor for food production, though food-processing is also very important (http://sustain-earth.com/2015/03/small-is-beautiful-nanosystems-for-water-management-strategies/). Nano-technology is, also, equally important for water treatment (http://nanowerk.blogspot.se/2009/01/nanotechnology-in-water-treatment.html?m=1).

The nexuses water-energy-food is growing in complexity with enormous expansion of the global needs for sustainable socio-economic developments of our environmental systems http://www.crcpress.com/product/isbn/9781439829271).

Future Global Protein Supply – The Art Of Serving Insects

Edible Insects as a Food Source 

Nutrient food is what we need and in the era of sustainability where the global population keeps growing while the natural resources on the planet Earth are declining more and more it becomes IMPERATIVE to have accessible and affordable nutrient food. Edible insects are emerging more and more as a food sources adding more insects to the Menu. 

The idea of eating insects is not new, in China, edible wasp collecting and cooking techniques were documented in the Tang Dynasty (618-907).  Also in Europe, Aristoteles (384-322BC) wrote about the best taste of a Cicada nymph and in early 20th century, the taste of chafer beetle soup (“Maikafersuppe”), was described as comparable to lobster soup, a highly appreciated dish in Germany and France. This culture expanded enormously, today about 1,900 edible insects are being consumed worldwide, mainly in Africa, Mexico and Asia, e.g. silk worm and crickets (http://www.theguardian.com/environment/2014/jul/06/will-eating-insects-ever-be-mainstream).

“Why not eat insects?” asked American pamphleteer Vincent Holt already in 1885, proof that selling the idea is nothing new. Two billion people worldwide routinely eat bugs an already appreciated food. Insects have also invaded foodie moments in the western world being a novelty in the European food scene as subversive garnishes for salads or cocktails, or on the menus of experimental pop-up (http://www.theguardian.com/environment/2014/jul/06/will-eating-insects-ever-be-mainstream).

 

 

Scientific American already supports high quality popular science. In this case describing the approach of biologists Mitchell Moffit and Gregory Brown by being unique to present biological concepts “fun, Informative and Extremely Successful”. They provide informative explanations, on topics people really want and need to know, in clear simple and colorful diagrams with pedagogic presentations (http://blogs.scientificamerican.com/psi-vid/2012/12/12/asap-science-fun-informative-and-extremely-successful/).

Here is how Mitchell Moffit and Gregory Brown use the scientific approach to inform on the relevance of insects in the exoanding food market (https://m.youtube.com/watch?v=iM8s1ch5TRw).

 


GDP – Is It Growth Domestic Product Or Growth Domestic Poverty?

What is Poverty? Why do we have poverty or more importantly why poverty is much abundant in the so-called developing countries? Are the people there different, if yes how, why and since when? If no, why then they became poor and what are the reasons? What instruments do we have to monitor poverty? Since when we realized that we have poverty? Did poverty happen over-night? What are the differences between absolute poverty and relative poverty? Why economic models, including the ones that won the Nobel Prize were successful to solve poverty only in limited parts of the world? So, many questions to be asked and even with proper answers on these questions we will continue to have poverty unless we have sincere and serious sustainable solutions.

Though United Nations was founded 1945 (http://www.un.org/en/about-un/index.html) it was not until recently when UN observed that there is poverty and started to set ambitious goals in 2000 to reduce global poverty and inequality by 2015. Yet much of the poverty is still left and more seriously many impacts and threats from poverty are expanding and deepening on several scales. While the UN claims that it successfully cut extreme poverty in half, the multinational groups are conflicted about how much developing regions such as sub-Saharan Africa can improve by 2030 (http://www.usnews.com/news/blogs/data-mine/2014/12/31/un-wants-to-end-poverty-hunger-by-2030). 

GDP, which is used in economic models, by the World Bank and by politicians to monitor the economic growth around the world, fails enormously to bring about sustainable socio-economic developments around the world. It has even brought severe negative impacts in the developing countries and created new threats for the whole planet Earth and on the global scale. What regards the developing countries GDP can very well be used not as “Growth Domestic Product” but as “Growth Domestic Poverty”, as least for some if not for many developing countries. Major solutions need to be taken to switch over to more realistic indicators other than GDP that keeps pushing the developing world down hell the poverty spiral.

http://youtu.be/7M3WJQbnHKc

Biosensors – From Kid’s World Of Lego To ICT Human-Human and Human-Machine Commnication

For small kids lego, by being a pedagogic educational instrument, means develoging free imagination and creative thinking to innovation in problem solving. Lego provides means to translate abstract ideas to concrete reality, a play for more play with unknowns in brains that can not be translated or described in words to known touchable physical realities (http://www.newyorker.com/business/currency/the-year-of-the-lego).

What is interesting is our process of innovation is how anstract ideas in science being transferred to innovative technological solutions for real daily life applications. In the ICT world innovations have not limit and still expands and brings to us an amazing and an ever expanding magnitude of applications.

The first stage of the ICT “Information and Communication Technology” revolution brought to us infinite capabilities for connecting peaple “human-to-human” communication which involves data-transfer. It has allowed the global community to be interactive on-line and in real-time with enormous new possibilties for education to share classrooms, lectures and to provide professionals with unlimited access to “Career-Development-Plans” opportunities. See for example SANDHAN visions to promote Distant Education and technology by making ICT more acceptable to Academic Fraternity.

The second stage of ICT revolution will allow humans to communicate with their bodies and their surrounding environments (http://youtu.be/b3Baz-F36Ck). The second stage of the ICT revolution is “human-to-life” communication through “Biosensors” where these sensors can tell us the status of our living conditions within us, i.e. In our bodies, and in our environments. In real-time and on-life they even give us unique information on different types of threats. An example of “Biosensors” is the use of DNA to detect toxic in environmental systems, e.g. lead and uranium and bacteria in water, and to give us information on food quality and health status in our bodies, e.g. through analysis of blood and urine (http://youtu.be/8A4Op2HzdQ8).

Small Is Beautiful – Nanosystems  For Water Management Strategies

The global water cycle is an essential machinery for atmospheric cleaning of the air we breath. Planet Earth has, generally, a wide-range of natural processes, e.g. sedimentation and filteration, that continuously scavenging and remove hazardous compounds from surface- and groundwater. Human activities have posed and still posing continuous and increasing threats to air and water qualities through production of waste and pollution both In the atmosphere and the hydrosphere. The water we drink and the air we breath needs to be fresh and free from pollution. Waste and pollution are causing accelerating costs for counteracting the degradation of air and water resources.

Production of acceptable water quality, for example, requires constant implementation of management policies on different scales, i.e. instruments, approaches and regulations for affordable, accessible and continuous supply of drinking water. Yet, under the increasing pressures and competition on water resources.

Nano-technologies have wide-spectra of real-time and on-line solutions with huge range of applications what regards not only monitoring of water resources but also of improving their qualities by various purification solutions and waste/pollution treatments processes. Nano-technology based sensors can be produced for real-time and on-line applications with unique advantages for contiuous remote, effective and economic operation, control and monitoring of many processes. As with all other technologies, there are some unknown side-effects; in this case slow-rates of leakage of nano-particles and compounds (especially with aging) to the environment (air and water).

Click to access 42326650.pdf

 

BioSensor For Real-time & On-Line Monitoring Of Life Processes

There is an expanding nano-technology based applications of biosensor for health, medical, food, environmental and other important applications. These biosensor can be used for continuous online and real-time monitoring of changes in life-related processes. 

US scientists have, for example, developed durable biosensors that can be printed directly onto clothing thus allow continuous biomedical monitoring outside hospitals. Read the story!

http://www.rsc.org/Publishing/ChemTech/Volume/2010/05/biosensors_in_briefs.asp

How Secure Is Secure – A Collapsing Planet Needs Sustainable Strategies 

The current trends in the international security environments are very dynamic and constantly changing and shifting. Tension in major parts of the world are in best cases persistent, if not growing e.g. Europe. New and serious tensions are to emerge more and more, e.g. the MENA region and Africa. All these tensions either existing or emetging are caused by transnational criminality or by old ethic, religious, territorial or separatist disputes to contest existing borders.

Trends in the international security environment