0000000000067502

AUTHOR

George Kosmadakis

0000-0002-3671-8693

showing 2 related works from this author

Assessment of methodologies and data used to calculate desalination costs

2017

Abstract In desalination, similarly with other industries, the cost of the final product is one of the most important criteria that define the commercial success of a specific technology. Therefore, when new projects are planned or new technologies are proposed, the analysis of the expected costs attracts a lot of attention and is compared to (perceived) costs of state-of-the-art desalination or costs of alternative fresh water supply options. This comparison only makes sense if the cost assessment methodologies are based on the same principles and use common assumptions. This paper assesses: (i) the methodologies used to calculate the water cost; (ii) the boundary conditions and (iii) the …

EngineeringOperations researchEmerging technologies020209 energyGeneral Chemical Engineeringmedia_common.quotation_subject02 engineering and technologyDesalinationCost assessmentDesalination costs Energy source Methodology Boundary conditions Input data020401 chemical engineering0202 electrical engineering electronic engineering information engineeringGeneral Materials ScienceQuality (business)0204 chemical engineeringSettore ING-IND/16 - Tecnologie E Sistemi Di LavorazioneWater Science and Technologymedia_commonbusiness.industryManagement scienceMechanical EngineeringWater costFinal productGeneral Chemistry6. Clean waterFresh waterbusinessDesalination
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Industrial waste heat: Estimation of the technically available resource in the EU per industrial sector, temperature level and country

2018

Abstract Industrial waste heat is examined in EU countries, focusing on the amount that can be recovered and exploited, referred to as technical potential of waste heat. An alternative methodology is proposed here, which is based on waste heat fractions derived from a detailed study of the UK industry from the period 2000–2003. These fractions express the part of heat consumption that is wasted and is possible to be recovered. The waste heat fractions have been calculated in this work for each main industrial sector and temperature level. The methodology initially includes the adjustment of waste heat fractions from each industrial sector from the UK industry to the conditions of the differ…

Resource (biology)020209 energyTemperature levelEnergy Engineering and Power TechnologyAvailable resource; Energy efficiency; Heat consumption; Industry; Recovery; Temperature level; Waste heat; Waste heat fraction; Energy Engineering and Power Technology; Industrial and Manufacturing Engineering02 engineering and technology7. Clean energyIndustrial and Manufacturing EngineeringIndustrial wasteRecoveryAvailable resourceWaste heatHeat recovery ventilation0202 electrical engineering electronic engineering information engineeringIndustryWaste heat fractionSettore ING-IND/16 - Tecnologie E Sistemi Di LavorazioneWaste managementHeat consumptionEnergy efficiencyWork (electrical)Energy intensitySecondary sector of the economyEnvironmental scienceWaste heatEfficient energy useApplied Thermal Engineering
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