Sentences with phrase «scale plants designed»

Not exact matches

«What that imposes on us is the need to ensure the design of the power plant we put together is consistent with the utilities» view of the power grid, consistent with what's available on the vendor market and (the need to) build them on a scale to change the nature of energy supply, and that it isn't just a physicists pipe dream.»

LITHIUM Australia has advanced front - end engineering and design studies on its SiLeach large - scale pilot plant as it seeks to prove its SiLeach hydrometallurgical process can operate at a commercial scale.

Presented at actual urban scale with at least some planted right in the ground, the designs will compete for prizes of $ 10,000, $ 15,000 and $ 25,000.

«And the scale is different, the plant material choices, the way the gardens are arranged and designed are very, very different.

The optics are designed to cover 120 degrees for full coverage of your tank.The grow light casts a bluish tone due to the white LEDs on the Kelvin scale, but it's the other LEDs that really «feed» your plants!

They concluded that it could be feasible to produce hydrogen in factory - scale electrolysis facilities at costs ranging from $ 1.60 and $ 10.40 per kilogram — competitive at the low end with current practices based on methane — though some of their assumptions were based on new plant designs and materials.

Already projects are being designed to store carbon over decades in newly planted native vegetation, to restore connectivity and biodiversity in large - scale protected areas, and to train workers in restoring and maintaining wetlands and removing invasive species.

The Kemper facility is the world's first full - scale coal - fired power plant designed for carbon capture.

Ultimately, the team at OSU built a one - third scale electrically - heated version of their plant as a test facility for this design.

The company designs, manufactures, and delivers solar electric systems to residential, commercial and utility - scale power plant users.

Since the 1980s, he has created large - scale public space designs that use natural light, plants, and garden architecture.

A team of researchers, building on work that began as a class project at the Massachusetts Institute of Technology, has published a design for an «ARC» demonstration - scale fusion energy power plant that could actually live up to the ambitious adjectives behind the acronym: «affordable, robust, compact.»

Most CDR technologies do not fit this mold — for example, large scale bio-CCS projects frequently require many bespoke designs to fit particular plants / geographies.

While there are some projects being designed or under construction, only one power plant, in Canada, currently captures and stores carbon on a commercial scale (and it has been having problems).

And it was recognized those actions were a crap shoot (Where good science and policy goes bad: de-salinization plants in Oz rather than managing episodic flooding, drilling 20,000 ′ below a seafloor 5,000 ′ under a precious biosphere to seek oil that is abundantl available on dry land, for examples), but can anyone name a project of doubt on the scale of this one where unspeakable trillions are to be spent, redistributed, productivity disincentized, where people's lives across the world will be thrown into uncertainty, where this trans - generational mindset will, by design, crush the willful and spirited energy and creativity of human kind until it is finally overthrown democratically or otherwise?

The research needs that have high priority in establishing the technical, environmental, and economic feasibility of large - scale capture and disposal of CO -LCB- sub 2 -RCB- from electric power plants are: (1) survey and assess the capacity, cost, and location of potential depleted gas and oil wells that are suitable CO -LCB- sub 2 -RCB- repositories (with the cooperation of the oil and gas industry); (2) conduct research on the feasibility of ocean disposal, with objectives of determining the cost, residence time, and environmental effects for different methods of CO -LCB- sub 2 -RCB- injection; (3) perform an in - depth survey of knowledge concerning the feasibility of using deep, confined aquifers for disposal and, if feasible, identify potential disposal locations (with the cooperation of the oil and gas industry); (4) evaluate, on a common basis, more» system and design alternatives for integration of CO -LCB- sub 2 -RCB- capture systems with emerging and advanced technologies for power generation; and prepare a conceptual design, an analysis of barrier issues, and a preliminary cost estimate for pipeline networks necessary to transport a significant portion of the CO -LCB- sub 2 -RCB- to potentially feasible disposal locations.

The US Department of Energy (DOE) will award up to $ 36 million (DE-FOA-0001791) to continue the development of carbon capture technologies to either the engineering scale or to a commercial design, with an eye to reducing fossil fuel power plant emissions.

It's like the difference between E = MC2 and designing a fusion power plant: a lot of theory and modeling and testing lie in between, and the systems are very difficult to run full - scale tests or gather long records of extremely accurate data for.

Once a full scale plant is built, there is a shakedown period of months to years in which operators and engineers are focused on «de-bottlenecking» to meet the yield and quality standards they committed to during design stages.

All plants were specially designed and built on site, creating economies of scale.

Several towns in western Hungary were flooded today with a toxic red sludge after the waste product from nearby aluminum processing plant broke through its containment reservoir — killing two, causing dozens of injuries, and creating an environmental disaster on a scale yet to be fully realized.According to the Associated Press, the incident occurred when a reservoir brimming with the toxic sludge, a byproduct from aluminum processing, overtook the levee designed to contain it, flooding two villages 100 miles southwest of Budapest.

CCS has not yet been commercially deployed at any centralized power plant; the existing nuclear industry, based on reactor designs more than a half - century old and facing renewed public concerns of safety, is in a period of retrenchment, not expansion; and existing solar, wind, biomass, and energy storage systems are not yet mature enough to provide affordable baseload power at terawatt scale.

Promoted to senior process engineer for large - scale projects, including a $ 355M coker process design and a $ 21M cumene plant revamp (inclusive of new hot oil system and transition to new zeolite catalyst technology).