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G. Arampatzis  - - - 
Top co-authors See all
R. Kunkel

85 shared publications

D. Assimacopoulos

61 shared publications

Section II, Department of Chemical Engineering, National Technical University of Athens, Athens 157‐73, Greece

E. Tzamos

12 shared publications

Publication Record
Distribution of Articles published per year 
(1994 - 2018)
Total number of journals
published in
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Article 1 Read 0 Citations Identifying potential effects of climate change on the development of water resources in Pinios River Basin, Central Gre... G. Arampatzis, A. Panagopoulos, V. Pisinaras, E. Tziritis, F... Published: 16 March 2018
Applied Water Science, doi: 10.1007/s13201-018-0690-1
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The aim of the present study is to assess the future spatial and temporal distribution of precipitation and temperature, and relate the corresponding change to water resources’ quantitative status in Pinios River Basin (PRB), Thessaly, Greece. For this purpose, data from four Regional Climate Models (RCMs) for the periods 2021–2100 driven by several General Circulation Models (GCMs) were collected and bias-correction was performed based on linear scaling method. The bias-correction was made based on monthly precipitation and temperature data collected for the period 1981–2000 from 57 meteorological stations in total. The results indicate a general trend according to which precipitation is decreasing whilst temperature is increasing to an extent that varies depending on each particular RCM–GCM output. On the average, annual precipitation change for the period 2021–2100 was about − 80 mm, ranging between − 149 and + 35 mm, while the corresponding change for temperature was 2.81 °C, ranging between 1.48 and 3.72 °C. The investigation of potential impacts to the water resources demonstrates that water availability is expected to be significantly decreased in the already water-stressed PRB. The water stresses identified are related to the potential decreasing trend in groundwater recharge and the increasing trend in irrigation demand, which constitutes the major water consumer in PRB.
Article 3 Reads 1 Citation THE USE OF HEU-TYPE ZEOLITIC TUFF IN SUSTAINABLE AGRICULTURE: EXPERIMENTAL STUDY ON THE DECREASE OF NITRATE LOAD IN VADO... E. Hatzigiannakis, N. Kantiranis, E. Tziritis, A. Filippidis... Published: 28 July 2017
Bulletin of the Geological Society of Greece, doi: 10.12681/bgsg.14267
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A HEU-type zeolitic tuff of very-high quality (88 wt.% clinoptilolite-heulandite) has been used as an additive to natural soils, aiming to reduce the produced nitrate load in leachates, following a common irrigation scheme. Zeolitic tuff has been added and mixed with agricultural soil in three different proportions (0.2, 0.4 and 0.6%) corresponding to an application of 500, 1000 and 1500 kg per acre. The control soil (without zeolitic tuff) and the three mixtures were exposed in a ten weeks experiment, in which, specific doses of irrigation water enriched in nitrates were added. Results of leachates analyses revealed that the addition of 0.2% zeolitic tuff is not effective and the mixture of soil-zeolitic tuff appears to have similar behaviour with the untreated (reference) soil sample. On the contrary, zeolitic tuff additions by 0.4% and 0.6% showed remarkable results and reduced the nitrate load of leachates by 81 and 86%, respectively. Hence, the impacts from the application of very-high quality HEUtype zeolitic tuff in agricultural soils could be rather positive towards environmental protection and rational farming, an in line with the goals and objectives of the new common agricultural policy imposed by European Union
Article 1 Read 0 Citations Systemic eco-efficiency assessment of industrial water use systems A. Georgopoulou, A. Angelis-Dimakis, G. Arampatzis, D. Assim... Published: 01 January 2017
DESALINATION AND WATER TREATMENT, doi: 10.5004/dwt.2017.0523
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Article 1 Read 0 Citations Soil water diffusivity obtained from visual inspection experiment and comparison with γ-ray measurements C. Evangelides, G. Arampatzis, C. Tzimopoulos Published: 01 January 2017
DESALINATION AND WATER TREATMENT, doi: 10.5004/dwt.2017.20655
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Article 1 Read 0 Citations A web-based Toolbox to support the systemic eco-efficiency assessment in water use systems G. Arampatzis, Athanasios Angelis-Dimakis, Michiel Blind, D.... Published: 01 December 2016
Journal of Cleaner Production, doi: 10.1016/j.jclepro.2016.02.065
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The eco-efficiency assessment of a water use system at the meso level, as well as the estimation of the anticipated eco-efficiency improvements as a result of innovative practices/technologies, is a conceptually and methodologically challenging issue. A systemic approach is required to capture the complexity of all interrelated aspects and the interactions among the heterogeneous actors involved in the system. This involves mapping the behaviour of the system into representative models, structuring the analysis in easy to understand procedures and developing versatile software tools for supporting the analysis.This paper presents a web-integrated suite of tools and resources (EcoWater Toolbox) for assessing eco-efficiency improvements from innovative technologies in water use systems. Equipped with a continuously updated inventory of currently available technological innovations as well as a repository of eco-efficiency indicators and their evaluation rules, the EcoWater Toolbox supports a comprehensive four-step eco-efficiency assessment of a water use system: (1) allows the users to frame the case study by defining system boundaries, describing the water supply chain and value chains and including all the actors; (2) helps the users to establish a baseline eco-efficiency assessment, using the integrated modelling tools; (3) supports the users in identifying both sector-specific and system-wide technologies and practices to suit their situation, through the integrated technology inventory; and (4) enables the users to assess innovative technology solutions by developing predictive technology scenarios and comparing these with baseline results.At the core of the Toolbox are two modelling tools, which combine both economic and environmental viewpoints into a single modelling framework. The “Systemic Environmental Analysis Tool” (SEAT) assists in building a representation of the physical system, its processes and interactions and forms the basis for evaluating the environmental performance of the system. The “Economic Value chain Analysis Tool” (EVAT) addresses the value chain and focuses on the economic component of the eco-efficiency. Both tools provide a graphical model construction interface that is implemented in client-side and incorporate advanced features such as model scripting.The methodology adopted and the operational aspects of the EcoWater Toolbox are presented and demonstrated through the assessment of the eco-efficiency performance associated with the water value chain in the case of a milk production unit of a dairy industry.
Article 1 Read 4 Citations Systemic eco-efficiency assessment of meso-level water use systems Athanasios Angelis-Dimakis, G. Arampatzis, D. Assimacopoulos Published: 01 December 2016
Journal of Cleaner Production, doi: 10.1016/j.jclepro.2016.02.136
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Highlights•An approach has been developed to assess the eco-efficiency of a water use system.•It has been applied in 8 case studies formulated around a unifying theme; water use.•The opportunities for eco-efficiency improvement in each system have been discussed.•The distributional issues among the actors of the value chain have been assessed.•This systemic approach can lead to better informed decision and policy making. AbstractEco-efficiency has recently become an important concept of environmental decision making, serving as a policy objective and, if linked with resource efficiency, can be a measure of progress towards sustainability. The need for improving eco-efficiency leads to the challenge of identifying the most promising alternative solutions which improve both the economic and the environmental performance of a given system (“eco-innovations”). A methodological framework for the eco-efficiency assessment of a water use system at the meso level has been developed in the context of the EcoWater research project and consists of four distinct steps. The first step leads to a clear, transparent mapping of the system at hand and the respective value chain, while the second step provides the means to assess its eco-efficiency, following a life-cycle oriented approach using the midpoint impact categories. An important novelty is the distribution of economic costs/benefits and environmental pressures over different stages and stakeholders in the value chain. The third step includes the selection of innovative technologies, which are assessed in the last step and combined with mid-term scenarios in order to determine the feasibility of their implementation.The proposed methodological framework has been applied to eight alternative water use systems, revealing all their environmental weaknesses and identifying potential opportunities for eco-efficiency improvement. At the same time, through the systemic approach all the involved actors are urged to cooperate in order to (a) propose and build innovative technological solutions that will improve the overall eco-efficiency of the system; and (b) make suggestions on the necessary policy framework that will facilitate and promote their uptake. This ensures that upstream decisions in the value chain are coordinated with downstream activities and all potential synergies are identified, leading to the creation of “meso-level closed resource loops” and thus the promotion of a circular economy.