Water management explained simply means “water care” where water is being cleaned after using it and before injected it again to the environment. Water in nature is meant to be clean and fresh, and that is the way water ends it global natural cycle in the form of rain. 

Successful water management policies are not only essential for life on earth but it is imperative and should be composed of many dynamic key issues involving the effective removal of waste and pollution from joining the water cycle in all its stages. Waste and pollution management, public awareness, education, protection of water bodies and associated monitoring programs are typically carried out through major, strict and comprehensive national strategies, directives and regulations. These have to be in place all the time, anytime and everywhere, it is not a matter of being done now and then as the costs involved in rehabilitation are very huge and time consuming with complicated procedures and actions.

A typical case to illustrate is The Citarum River, indonesia, which is known as the dirtiest river in the world. The Roadmap for the rehabilitation of the river system is an extensive plan with many components and phases that is to be completed by 2023 at a total cost of $3.5 billion. This will be a huge undertaking by people and government of Indonesia for empowering communities to better plan and manage their water resources for a more sustainable future.

The importance of waste management and fresh water resources: Looking at Indonesia’s Citarum River

Can Ecologists and Engineers Work Together to Harness Water For The Future? This is indeed among key questions for  the sustainable managements of water resources in the Pangani River catchment. As in many river catchments in Africa constrains from climate changes and the increasing pressures on water uses call for appropriate water management strategies, policies and regulations. In particular considerations to the dynamic nature of climate change versus water resources availability and affordability for diverse needs and services has to be taken into account.

Information on the hydrology and water resources of the Pangani River, Tanzania, is given at (https://en.m.wikipedia.org/wiki/Pangani_River#/media/File%3APangani_Town.jpg) 

Can Ecologists and Engineers Work Together to Harness Water For The Future?

Collapse of political structures, economic pressures, constrains in natural resources, and large-scales and long-term socio-economic changes towards sustainable societies force new needs for effective and dynamic synergetic “society-university” interactions.

Higher education (https://en.m.wikipedia.org/wiki/Higher_education), including research institutes, is inevitable what regards forcing major transformation in societies around the world. Ongoing globalization and socio-economic changes towards sustainable societies are very much coupled to the transformation in higher education itself as our world itself is in constant and fast changes and shifts.

Transformation of societies is driven by economic, political, social and cultural as well as religious powers and thereby  strategically important for building coupled “university-society” synergies for societies in transformation. In considering how universities can have effective role in coupled “university-society” synergies the following issues are of huge value: curriculum; quality and standards; diversification in teaching, research and society interactions; changes in access policies; student profiles and experiences; and  academic responses to change. 

Click to access transf-final-report.pdf

Nany of us have many questions about tap water and bottled water in terms of quality, access and affordability? Is bottled water more pure than tap water? What is most appropriate for a state or a country in terms of water management policies and services provided to the citizen? What regulations and directives that control water quality? What feedback impacts of the quality of natural waters on household needs in particular drinking water? 

The quality of water varies considerably around the world. So, you better learn about sources and quality of your water. Even in countries with high tap water quality people still go for bottled water. In the U.S. popularity of bottled water is  exploding again. During 2014 Americans consumed about 270 single-serving bottles of water per person with total value of bottled water sold of approximately $13 billion. Within the next two years bottled water in the U.S. is expected to become the most consumped packaged beverage in the United States. Water delivered by public water supplies in the U.S. is regulated by the Environmental Protection Agency (EPA) while bottled water is regulated by the U.S. Food and Drug Administration (FDA). These two agencies have different standards for the water. In general, EPA’s quality standards are higher while FDA does have strict standards of purity and labeling that must be met by all manufacturers.

Is Bottled Water High Priced Tap Water?
It often is. About 25% of the bottled water sold in the United States comes straight out of a tap. This is also the case in many other counties around the world. It can cost over 1000 times as much as tap water. The FDA requires bottlers to identify what type of water is in every bottle. If it is marked  “from a community water system” or “from a municipal source” or something similar, you are buying the equivalent of tap water. The bottler might treat municipal or community water so that it meets the United States government’s definition of “purified water”, “demineralized water”, “deionized water”, “distilled water” or “reverse osmosis water”. It can then be labeled with those names. All steps of processing, bottling and labeling have a cost.

In the U.S. some bottled waters are specially produced and marketed as being from natural water sources. These are also regulated and labeled according to FDA definitions. Some of the more common water identities are: Mineral Water, Spring Water, Artesian Water, Sparkling Water, Ground Water and Well Water. 

In the U.S. if you are drinking bottled water because you think that it is more pure, better for your health or safer than community or municipal water you are probably not getting your money’s worth. 
One concern that motivates many people to drink bottled water instead is “taste” as some don’t like the taste of tap water.

The benefits of bottled water are mainly convenience and novelty. Instead of buying bottled water you can carry a canteen or a drinking cup and save lots of money by using tap water. For lits of reasons drinking tap water will also help the environment.
Water has no calories, no dissolved sugar, no alcohol and no caffeine. If you regularly drink water as a replacement for soda, beer, coffee or iced tea you are probably making a healthy choice. There are many real benefits of bottled water or tap water. It’s easy to drink water as an alternative beverage. So, start thinking of water as an alternative beverage. Drink bottled water when you need convenience. Drink tap water to save money and preserve the environment.

http://news.nationalgeographic.com/news/2010/03/100310/why-tap-water-is-better/

http://edition.cnn.com/2013/11/19/health/upwave-bottled-water/

http://www.cbc.ca/m/news/health/bottle-vs-tap-7-things-to-know-about-drinking-water-1.2774182

http://abcnews.go.com/US/mississippi-delta-state-university-lockdown-dead/story?id=33748843

http://geology.com/articles/bottled-water.shtml

Human innovation never halts and it’s not only a matter curiosity but in most cases a matter of survival. Indeed, both curiosity and survival are very much related on long-term perspective. Curiosity can generate solutions for survival and our survival instinct fuels our creativity and curiosity. 

I enjoyed very much being a student and I still love to learn as it is the only tool to refresh and jog myself forward in a turbulent and an ever changing world. For successful navigation in life you need a compass to direct yourself but there are no such ready-make compasses that are tuned for everyone. So, I created one for myself, “a survival compass driven by curiosity”. Survival makes my everyday living while curiosity gives the momentum to cope with changes and unexpected obstacles in everyday living. 

During my studies at school and even in many parts of my university education there were no luxury things like electricity, machines and modern ICT-solutions. Everything were done manually, e.g. to go long distances, solve mathematics using paper-based tables, write personal notes after teachers, and not to mention never ending stories of searching and waiting for literature for days, weeks or even months through local and national libraries and book-stores as well as personal contats. Every technical and scientific transitions in the society were met with great curiosity and my compass has to recalibrated to continue safe and secure navigatation, just because of my very instinct for survival.

In late forties and the fifties came the amazing semi-conductor technology (https://en.m.wikipedia.org/wiki/Semiconductor) and the invention of transistors which gradually changed our life in terms of bringing about intelligent tools, calculators and semi-intelligent machinery, ….. and so on. Advances never stop once humans open small doors that keep creating big inventions and changes. The whole semi-conductor technology moved forwards more and more towards automation and control. The new era of ICT-revolution has started its definite journey that no one expected that it will bring about enomous changes that we are experiencing today in modern houses and in all service-sectors. Here is an example regarding ICT applications for agriculture risk management for micro-scale farming:

http://www.ictinagriculture.org/sourcebook/module-11-ict-applications-agricultural-risk-management

UN has projected that world population could reach 9.6 billion by 2050 and debate has emerged about how best to support farmers between advocates of large-scale agricultural projects and those who prefer more targeted, small-scale efforts. Global food production must double by 2050 to feed the world. Smallholder farmers provide up to 80% of Asia and sub-Saharan Africa’s food, where the vast majority of the world’s poor people live. Long-term food security has to be based on food sovereignty in national, regional and international policies that influence food systems where small-scale farmers are important in this context. In order to thrive, farmers in the developing world need access to seed, fertiliser, microcredit and microinsurance, as well as rights to land and union representation: http://www.theguardian.com/global-development/2015/feb/19/feed-the-world-small-farmers-big-agriculture-mdgs

The energy trends in Africa as compared to other parts of the world show that the majority of the Africa population, 625 millions, have to wait 25 years to get electricity. Half of all electricity in sub-Saharan Africa is generated in South Africa where the generation mix is dominated by coal.

The current energy mix in sub-Saharan Africa is dominated by bioenergy, mainly fuelwood and charcoal accounting for 60%. with renewables are expanding rapidly, but only from a small base. Energy demand in this part of the world is still accounting for 4% of global demand though having 13% of global population.

This means that the UN SDG “Sustainable Development Goals” are not likely to very much delayed in Africa at least until 2040 and assuming that there are major efforts for timely implementation of whatever is needed.

http://fuelfix.com/blog/2014/11/12/energy-trends-in-africa/

WWW is without hesitation a historical invention that changed and still changing the fate of all humans anywhere, at anytime and in every nanosecond on planet Earth. Information Communication Technology “ICT” is moving faster and faster to involve more and more active coupling of humans and machines.

With the birth of World Wide Web “WWW” in May 1993 new generations from 1990 and beyond are now shaping out planet and our lives. The Internet seems like it has always been around and with us …. isn’t it? In this short two decades, or so, is has affected us and changed our lives far more than anything else in the whole intergrated human history with no similar parallels. The question is what this ICT-revolution will take us to and what would the world be like in say 2020 and beyond (https://ispanico82.wordpress.com/2013/05/22/happy-birthdat-www/)

The fast global progress in ICT within the vast landscape of WWW has benefited enormously from all previous stages of developments. Future possibilities are very huge with increasing degree of digital and wireless communication, combined sences, embodied interactions and with computer technology that took us from central computer and many users in early 1940s to smart cities in 2020. We are heading more and more towards smarter solutions, e.g. smart homes, smart factories, smart space, smart classrooms, smart shops, and much much more. ICT for the rich, the poor, the young, the old, and furthermore between communications between humans over the whole globe, humans and machines, and machines and machines: http://www.ourcommonfuture.de/fileadmin/user_upload/dateien/Reden/wahlster_opening.pdf

Policy-makers in Europe and the U.S. have addressed major concerns about the failure of integration of immigrants brought into their labor-markets after the rapid industrial and technology transfer post WWII, e.g. for more information visit the following websites (http://ec.europa.eu/dgs/home-affairs/e-library/documents/policies/legal-migration/general/docs/final_report_on_using_eu_indicators_of_immigrant_integration_june_2013_en.pdf) and (http://m.immigrationpolicy.org/?url=http%3A%2F%2Fwww.immigrationpolicy.org%2Fissues%2Fcitizenship&utm_referrer=https%3A%2F%2Fwww.google.se%2F#2887).

With these experiences in mind and the fact that Europe and the U.S. passed through a wide-scale of urbanization and modernization especially after WWII, we can already expect similar negative consequences and impacts in the developing countries because of the ongoing fast urbanization, in particular Africa. With the exception that the negative consequences and impacts in Europe and the U.S. were/are relatively very much smaller than the observed trends and the expected future changes in the developing countries. Currently, there is already gradual and intensive internal migration due to the enormous urbanization process that is taking place in many developing countries around the world. This process is certainly resulting from the severe failure of integration of rural and urban regions and the core reason for the expansion of poor communities around major/mega cities. This indeed, has two major future impacts: (1) gradual degradation of the basic public and private infra-structures of newly urbanized regions; and (2) shortage of the relatively experienced local and native labor in rural regions on many levels in general and collapse of the agriculture, in particular, with associated negative impacts on food and agro-industries.

This is a very ignored issue in Africa though many severe impacts are already observed in big and mega cities in Africa, e.g. Cairo, Lagos, Nairobi, Bamako……

IMMIgration is an integral part of human experience and always existed throughout human history. In a dynamic world of continuous changes and unlimited needs for successful globalization IMMIgration would always exist. However, the motivations, dynamics and mechanisms are never the same. In this context, there are many critical questions that need to be answered not only at individual levels but also on the larger socio-economic landscape.

Shortly after WW-II immigration was very popular, and people and countries around the world benefited from the unlimited needs and diverse market possibilities that existed at that time. However, the current global situation what regards IMMIgration and INTEgtation is very much different than what it used to be after WW-II. Why the INTEgration of IMMIgarnts did not take a sustainable path, as it was wished, is among most important global political and socio-economic issues (http://ec.europa.eu/dgs/home-affairs/e-library/documents/policies/legal-migration/general/docs/final_report_on_using_eu_indicators_of_immigrant_integration_june_2013_en.pdf).

Full integration of immigrants in the U.S. is still an issue and most immigrants want to be Americans and fully participate in social and civic life. We can expect naturalization and integration programs to be an important part of comprehensive immigration reform. Immigrant integration has benefits for everyone because it enables immigrants to realize their full potential, contribute more in economy and develop deeper community ties. While the United States encourages legal permanent residents to become citizens, there is no national strategy for facilitating integration with sufficient infrastructures to smooth transition from immigrant to citizen. Failure to address this problem in the context of comprehensive immigration reform could lead to endless delays for the millions who currently seek services from USCIS and the millions more who will become part of the applicant pool following legalization.

Another important issue is the internal migration in many countries due the enormous urbanization process that is currently taking place around the world. This process is certainly resulting from the severe failure of integration of rural and urban regions and the core reason for the expansion of poor communities around major/mega cities. This indeed, has two major impacts: (1) gradual degradation of the basic public and private infra-structures of urbanized regions; and (2) shortage of labor in rural regions on many levels in general and collapse of the agriculture, in particular, with associated negative impacts on food and agro-industries.

http://m.immigrationpolicy.org/?url=http%3A%2F%2Fwww.immigrationpolicy.org%2Fissues%2Fcitizenship&utm_referrer=https%3A%2F%2Fwww.google.se%2F#2887

We leaned in our daily life experiences that “no fire without smoke”. Indeed, many of us started to lose confidence in food quality and have observed on many occasions disappointing situations. That doesn’t come without reasons or surprises as we are already familiar about many environmental abuses on several levels. In additions to this, violations of rules and quality guide-lines are existing worldwide as economic terms in production and services have sometimes higher priorities than quality standards. 

Here are some few examples why our food quality can be questioned. I personally have experienced number of violations even in best shops in Europe (in this case very few) where bread and cheese can be suspected for exposure to rat droppings, see for example (http://www.raising-happy-chickens.com/rat-droppings.html). 

In developing countries sanitation and poor water quality can pose additional threats in food production as the risk of exposure of food to insets and certain dwelling animals, e.g. rats,  can be high. 

Here are some warnings about existing problems in processed food even through legally accepted quality guide-lines (http://youtu.be/T75ULFUgEPk).

IWA Water and Industry conference will take place at Västerås, Sweden, June 7-10, 2015. The registration opens at 8.00 on June 8 in the Mälardalen University main entrance. The conference will focus on latest developments in energy-efficient & sustainable wastewater, gas and solid waste treatment in 21st century industry. Environmentalists and chemical engineers, microbiologists, chemists and policy makers will present the most recent technological and scientific breakthroughs in the areas of management, characterization, minimization, abatement of industrial waste & wastewater. For further information visit: http://www.idt.mdh.se/IWA2015/index.php?choice=main

Sustain-Earth.Com will expand on issues of relevance for the accelerating importance ofICT “Information Communication Technology and Green Materials. Sustainability in global urbanization requires using wide-range of “Sensors for Automation and Control” both within city-systems, e.g. Individual buildings and city-services, and between internal and external city-systems, i.e. on regional, national and global levels.

Here is an example of early implementation of the building automation systems (BAS) into the development of the construction documents results in a highly functional “systems” approach. BAS requirements are continually changing as building owners expect more from their systems in the areas of energy management, safety, security, interoperability, lighting, and maintenance. BAS specialists ensure that each building automation delivers optimum performance and operation at a competitive price.

More examples and solutions will be given in the future where local and regional weather and climate as well as environment and social-economic conditions will require an increasing complexity of sensor systems and ICT-solutions especially what regards coupling rural and urbane regions.

(http://www.aeieng.com/services/instrumentation_and_controls/building_automation.php)

With the increasing role of ICT and modern building techniques, e.g. 3D-printing comes increasing needs for sustainable building materials and a great number of sensors for automation and control. Here is one example: (http://www.kmccontrols.com/products/Understanding_Building_Automation_and_Control_Systems.aspx)

In all human civilizations building and constructions were central components in human life with continuous struggle for sustainable comfort living in harmony with nature. As the concept of sustainability did not exist in the same way as we know it today, ancient solutions were based on practical use of naturally available materials in combination with the sun as source of heat and thermal energy. Climate/weather conditions played major rules in building and construction and people adapted living to their environment.

The Egyptian Pyramids, temples and living rooms were built more than 4500 years ago with zero energy consumption, zero carbon dioxide emissions and no toxic waste. How the Pyramids and those buildings were built is still matter of speculation and debate. According to historical data ancient Egyptians built the Giza Pyramids; Khufu, Khafre and Menkaure in a span of 85 years in the 26th century BC. How such sustainable technology was mastered is still a mystery what regards saving energy, water and environment.
Most of current problems today are related to implementation and use of technologies whether or not suitable for the environments. Because of this, the conform of modern technology comes with very high price in terms of economy, environment and above all an enormous loss of cultural and locally based building codes that developed throughout several generations. Only, in few cases where enough resources and investments exist there are successful examples, however it remains to see how such solution can be expanded on larger scales. The “world’s first carbon neutral zero-waste city” is slowly becoming a reality of epic proportions. The prototypical sustainable city, Masdar, is currently under construction twenty miles outside of Abu Dhabi. When finished, the city will be powered entirely by renewable energy, making it one of the world’s most sustainable urban developments. The city has its own sustainability-driven research center, which is devoted to the development of alternative energy (http://youtu.be/FyghLnbp20U).

Among most recent advances in building material is a new type of cement that is based on Pozzolan, which can be found in nature from volcanic deposits. Also, industrial waste from iron and power plans can be recycled and used in producing green cement. Green cements, as compared to OPC “ordinary Portland cement”, are very energy and water saving, environmentally much more friendly with no waste remains and no emissions of GHG. Also, have enormous advantages especially what regards production cost, mechanical properties, duration and maintainance. Modern technology can produce sustainable building materials, green cement, for erection of complicated structures that have excellent durability but in much much faster time as compared to ancient civilizations. Currently, the best possible sustainable building materials can bring about energy saving of more that 90% with very near zero carbon dioxide emission and zero waste remains.

To understand the importance of Pozzolan in modern technologies for production of green cement one has to back 2000 years ago. The Romans at that time started making concrete but it wasn’t quite like today’s concrete. They had a different formula that resulted in not as strong as our modern concrete. Yet structures like the Pantheon and the Colosseum have survived for centuries, often with little to no maintenance. Geologists, archaeologists and engineers have arrived a key component in the Roman’s concrete: volcanic ash. Usually,  three parts volcanic ash were mixed to one part lime, according to Vitruvius, first-century B.C. architect and engineer. Modern research shows that the very secret of durability of the buildings of the Roman Empire was due to the chemical composition of concretes made with Pozzolan, i.e. the ash’s unique mix of minerals appears to have helped concrete to withstand chemical decay and damage. For information (http://www.smithsonianmag.com/history/the-secrets-of-ancient-romes-buildings-234992/).

In all human civilizations building and constructions were central components in human life with continuous struggle for sustainable comfort living in harmony with nature. We give here only some few examples. As the concept of sustainability did not exist in the same way as we know it today, ancient solutions were based on practical use of naturally available materials in combination with the sun as source of heat, the wind as source of mechanical and thermal energy. Climate/weather conditions played major rules in building and construction and people adapted their living to the environment.

The Egyptian Pyramids, temples and living rooms were built more than 4500 years ago with zero energy consumption, zero carbon dioxide emissions and no toxic waste. How the Pyramids and those buildings were built is still matter of speculation and debate. According to historical data ancient Egyptians built the Giza Pyramids; Khufu, Khafre and Menkaure in a span of 85 years in the 26th century BC. How such sustainable technology was mastered is still a mystery what regards saving energy, water and environment.

Traditionally other cultures have always adapted sustainable and eco-friendly methods, e.g. Indian architecture, designing and planning, in constructions. Living in harmony with nature has been an integral part of Indian culture, e.g. what regards waste disposal, light and temperature control, use of local materials, kitchen gardens and low carbon print.

Environmentally conscious buildings have been around for much longer than the public debut of our modern environmental crisis. Since the early 19th century, residents of Yazd, Iran, have been using wind as an alternative energy source to cool their homes on warm summer days. A ‘windcatcher’ is an ancient Persian architectural element used in various central and southeastern towns and cities in Iran, where the majority of the ecological fabric are made up of deserts. In deserts, the temperature varies greatly between day and night, with windcatchers becoming essential for keeping homes at a consistently comfortable temperature. Also, for the region located in northeast Iran at the foot of Mount Sahand, the mound-like homes are carved from volcanic rock, meaning that most of the materials needed to construct them were already located on site. Technically, the dwellings aren’t true underground homes since a portion of them sits above ground, but since much of the living space is buried, inhabitants can expect cooler temperatures during the day without having to jack up the air conditioning (and saving a lot of energy). Similar volcanic structures with carved homes/villages exist also in Turkey.

In certain parts of the world, wood was always a popular building material, e.g. in Scadinavia. Yet the use of wood is seldom seen amongst the modern or classic constructions. Due to a series of destructive fires in the 15th century, the use of timber as an architectural material was banned for sometime. Danish non-profit organization Realdania Byg commissioned Vandkunsten architecture studio to design a holiday house that combines the most up-to-date construction techniques with local traditional materials. The architects designed and built a traditional house clad in seaweed—a material that was once used in hundreds of homes on then Danish island of Læsø, of which only 20 remain today.

Most of current problems today is that people implement and use technologies whether or not suitable for their environments. Because of this the conform of modern technology comes with very high price in terms of economy, environment and above the enormous loss of cultural and locally based building codes that developed throughout several generations. Only, in few cases where enough resources and investments exist there are successful examples, however it remains to see how such solutions can be expanded on larger scales. The “world’s first carbon neutral zero-waste city” is slowly becoming a reality of epic proportions. The prototypical sustainable city, Masdar, is currently under construction twenty miles outside of Abu Dhabi. When finished, the city will be powered entirely by renewable energy, making it one of the world’s most sustainable urban developments. The city has its own sustainability-driven research center, which is devoted to the development of alternative energy (http://youtu.be/FyghLnbp20U).

Among most recent advances in building material is a new type of cement that is based on Pozzolan, which can be found in nature from volcanic deposits. Also, industrial waste from iron and power plans can be recycled and used in producing green cement. Green cements, as compared to OPC “ordinary Portland cement”, are very energy and water saving, environmentally much more friendly with no waste remains and no emissions of GHG. Also, have enormous advantages especially what regards production cost, mechanical properties, duration and maintainance. Modern technology can produce sustainable building materials for erection of complicated structures that have excellent durability but in much much faster time as compared to ancient civilizations. Currently, the best possible sustainable building materials can bring about energy saving of more that 90% with very near zero carbon dioxide emission and zero waste remians.

Additional new comers in green cement era is effective production and construction through automation and 3D Printing technologies (http://inhabitat.com/3d-printed-quake-column-draws-on-ancient-incan-building-techniques-to-withstand-earthquakes/). Architecture is tapping into 3D printing technology in a major way through the production of building elements and structural components. Recent developments have also begun to work on creating seismically resistant structures. California-based architecture firm Emerging Objects has developed a design called the Quake Column, which draws on the ancient Incan building technique known as “ashlar” and merges it with modern technology.