Nanotechnology and the Future With Clean Energy

15-07-2010 by admin

Harnessing the power of tidal currents has the potential to provide unheard of clean, renewable energy production. Nanotechnology, with its innovative approach and non-surpassed success rate, may be the conduit needed to perfect the viability of ocean-current power as an alternative energy source.

Ocean currents are a natural phenomena located along most coastlines. The only requirement for harnessing their power is that the currents amalgamate under the surface of the ocean at depths of between eighty to two hundred and thirty feet (25 – 70 meters) with a flow of between five to ten feet per second. Harnessing this type of natural energy production it is not only a feasible undertaking, but is also quite an efficient way of supplying a clean, alternative energy source.

Although tidal power is an amazing concept, wave power also offers a much needed link to cheaper, cleaner power and its availability and conversion is being investigated vigorously in the ongoing race to market an economical, clean, renewable source of energy. Concerting above ground wind turbine units to meet undersea performance is technologically possible and, with a few adjustments, present day wind turbines are easily adapted to harness the awesome power of the sea.

Physicists have studied the gravitational pull of the moon and its effect on ocean currents for eons. Ocean tides are predictable, constant, natural occurrences that are easily forecasted for years in advance. This awesome and essentially untapped source of alternative power is not negatively affected either by adverse weather conditions or climate changes – which makes it ideal for further investigation and implementation.

In order to harness the full power of the ocean, nanotechnology may be just the ticket needed to successfully construct man-made tidal dams designed to control the flow as the tides ebb and recede. Predetermined openings would allow ocean currents to flow up through these gaps into a bay or estuary where the water is collected in the dam-like barrage and then released via a series of sluice gates and through a turbine which in turn generates electricity.

This alternative energy source is well established in La Rance France where a 240 megawatt facility has been operating since 1966. In addition, other, smaller sites have also garnered some success in Canada and in South Korea plans are underway to construct a plant larger than the one in France. However, there is one drawback to this type of power harnessing. Naturalists and environmentalists are concerned with the effects that constant flooding of the barrages has on the delicate ecosystems within the bays and estuaries where they are located.

Nanotechnology scientists are working in close liaison with forward thinking ecologists to correct this deficiency by designing a type of tidal lagoon to house the turbines. Instead of creating dams within the estuary itself, they propose to take advantage of strides in nanotechnology in order to erect man-made lagoons just off shore which would be built up from the seabed and reach out at least one meter above the high tide level. In this type of construction, the turbines would be situated in a wall close to, but not interfering with, the seabed itself. The concept is simple and very effective: the water would flow in through the turbine during high tide filling the lagoon, at low tide the flow would be reversed and the turbines turned in the opposite direction. The result is a generation of electricity in both directions four times a day. Careful placement of the lagoon would be determined by the differential between the maximum heights achievable between high and low tides. Producing energy by this means is anticipated to cost less than any coal fired facility, while protecting and encouraging a positive ecological environment.

Plans are underway to begin construction in several locations off the coast of Wales and China. This combination of conventional technology in partnership with nanotechnology advances has put environmental and ecological issues to rest, yet there is still a viable concern that this type of energy plant may have an adverse effect on shipping lanes. However, these concerns have also been considered and development of barrage ocean turbines that operate independently with little or no interference to ship traffic is well into production stages.

Because narrow passages promote the fastest movement of currents, the feasibility of harnessing huge amounts of power via ocean turbines offers an excellent alternative to nuclear and coal fired energy generating plants. With the reduced threat of ecosystem damage, advanced technology, co-operation between industry and environmental agencies and the almost unlimited locations that can potentially provide ideal conditions for tidal/ocean power harnessing, this type of energy source is generating serious attention worldwide.

Therefore, this begs the question: Is it really necessary to expose our planet and its people to constant ecological threat by continuing to provide nuclear power and its associated danger to the environment? The answer is, unequivocally – No. For those of us who care about living in a cleaner, safer world, it is imperative that we embrace nanotechnology assisted methods of energy generation which are proven to exceed present energy output while reducing the threat of pollution and destruction of our ecosystems.

Great Things Come in Small Packages: Nanotechnology and Energy

05-06-2010 by admin

If current news is any indication, Nanotechnology is poised to play a significant role in the development of clean, less expensive energy. The potential of nanotechnology for solving some of today’s greatest energy challenges is vast.

Nanotechnology refers broadly to a field of applied science and technology whose unifying theme is the control of matter on the molecular level in scales smaller than one micrometer, normally 1 to 100 nanometers, and the fabrication of devices within that size range. For scale, a single virus particle is about 100 nanometers in width.

Encompassing nanoscale science, engineering and technology, nanotechnology involves imaging, measuring, modeling, and manipulating matter at this length scale. “

At this size dimension, the physical, chemical, and biological properties of materials differ in fundamental and valuable ways from the properties of individual atoms, molecules, or bulk matter. The properties displayed at the nanoscale create a host of potential innovative uses for nanomaterials. One of these uses includes the creation of exciting and revolutionary energy applications. These potential nanoscale energy applications apply to a host of different sources of energy, including hydrogen, geothermal, unconventional natural gas, fission, and solar energy.

While hydrogen is an energy storage medium, it is not a primary energy source. Therefore, full realization of hydrogen as an alternative energy source is frustrated by gaps in technology, which do not precipitate the efficient and cost-effective storage and transport of hydrogen. Nanoscience provides new approaches to basic questions about the interaction of hydrogen with materials to enable the efficient and cost-effective storage and transport of hydrogen.

Applying nanotechnology to geothermal energy increases the opportunities to develop geothermal resources by enhancing thermal conductivity or aiding in the development of noncorrosive materials that could be used for geothermal energy production.

The recovery of unconventional sources of natural gas is yet another potential application of nanotechnology. Unconventional sources of natural gas include tight sandstones, shale gas, and coal bed methane. Nanotechnology applications may prove useful in accessing or exploiting these unconventional natural gas sources. For instance, nanocatalysts and nanoscale membranes may prove useful in assisting in Gas to Liquids production. Furthermore, certain nanostructured materials may assist in compressed natural gas transport.

Nanotechnology may also prove useful in solving the waste problems of the nuclear energy industry. For instance, certain nano-engineered barriers may prove useful in preventing the migration of or containing nuclear waste products.

Nanotechnology applications may assist in making solar energy more economical. Nanoscience can be utilized to improve the efficiency of photovoltaic cells, creating cost-efficient conversion systems, effective solar power storage systems or even the generation of solar energy on a larger scale. For instance, “nanopatterning” can artificially change the optical properties of materials to allow light to be trapped in solar cells.

Nanotechnology might someday allow for more powerful, more efficient and less expensive energy generation, storage transmission and distribution. Nanotechnology is being used to optimize production from existing energy sources and to exploit new sources such as geothermal, liquefied natural gas, nuclear and solar energy. Nanotechnology is also improving and opening new possibilities for the transmission and storage of energy, especially electricity and possibly hydrogen in the future. Nanotechnologies have the potential to reduce energy consumption by making it possible to manufacture lighter and/or more energy efficient cards and appliances. Even though nanotechnology is a relatively young field, the potential for future nanotechnology applications within the energy industry could turn out to be one of the most important technological developments of our time.

Global Nanotechnology Market for Energy Storage – Analysis and Forecasts to 2015—Aarkstore Enterprise Market Research Aggregation

05-04-2010 by admin

New report, Global Nanotechnology Markets for Energy Storage – Analysis and Forecasts to 2015″, provides key data, information and analysis on the market opportunities in the nanotechnology enabled energy storage market. The report provides key market trends and competitive landscape analysis for the market. The research discusses market dynamics in detail by providing analytical content on the key challenges for the commercialization of nanotechnology. The report’s coverage of the nanotechnology enabled energy storage market is comprehensive with dedicated sections on the state of research, patent analysis, and key supplier profiles. Scope – Qualitative analysis of market drivers, restraints, future outlook, and challenges for the global nano-based energy storage market. – Comprehensive coverage of R&D initiatives in nanotechnology for energy storage products. – Competitive landscape section that provides company share information for 2008. Key players covered include Altair Nanotechnologies Inc, Valence Technology Inc. , mPhase Technologies Inc. , Nanoexa, Inc. , and Maxwell Technologies Inc. – Market sizing (revenue) forecasts for the lithium ion and ultracapacitors market . Key topics covered include nanotechnology enabled batteries, the ultracapacitor market potential, the state of research, and patent activities analysis.
Reasons to buy- Gain most up to date information and analysis on the potential opportunities and challenges in the Global Nanotechnology Markets for Energy Efficiency and Energy Storage- Identify growth segments and opportunities in the Global Nanotechnology Markets for Energy Efficiency and Energy Storage- Facilitate decision-making based on strong historic and forecast data, deal analysis and recent developments.

Global Nanotechnology Market for Energy Storage – Analysis and Forecasts

by admin

Global Nanotechnology Market for Energy Storage – Analysis and Forecasts to 2015This report provides key data, information and analysis on the market opportunities in the nanotechnology enabled energy storage market. The report provides key market trends and competitive landscape analysis for the market. The research discusses market dynamics in detail by providing analytical content on the key challenges for the commercialization of nanotechnology. The report’s coverage of the nanotechnology enabled energy storage market is comprehensive with dedicated sections on the state of research, patent analysis, and key supplier profiles. ( http://www. bharatbook. com/detail. asp?id=129389&rt=Global-Nanotechnology-Market-for-Energy-Storage-Analysis-and-Forecasts-to-2015. html )Scope- Qualitative analysis of market drivers, restraints, future outlook, and challenges for the global nano-based energy storage market. – Comprehensive coverage of R&D initiatives in nanotechnology for energy storage products. – Competitive landscape section that provides company share information for 2008. Key players covered include Altair Nanotechnologies Inc, Valence Technology Inc. , mPhase Technologies Inc. , Nanoexa, Inc. , and Maxwell Technologies Inc. – Market sizing (revenue) forecasts for the lithium ion and ultracapacitors market from 2009 to 2015- Key topics covered include nanotechnology enabled batteries, the ultracapacitor market potential, the state of research, and patent activities analysis. Reasons to buy- Gain most up to date information and analysis on the potential opportunities and challenges in the Global Nanotechnology Markets for Energy Efficiency and Energy Storage- Identify growth segments and opportunities in the Global Nanotechnology Markets for Energy Efficiency and Energy Storage- Facilitate decision-making based on strong historic and forecast data, deal analysis and recent developments – Drive business decisions based on the analysis of key players and their market share .

 

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