Journals in Wastewater treatment

Groundwater for Sustainable Development

ISSN: 2352-801X
Impact factor: 4.9

Affiliated with the International Society of Groundwater for Sustainable DevelopmentMany professionals believe that sharing knowledge and experience on groundwater matters on a worldwide scale and across disciplines is an effective strategy to identify and promote optimal approaches to the assessment, development and management of groundwater resources. This is exactly what the international journal of Groundwater for Sustainable Development is intending to address. On the global platform, the authors and readers of the journal should enjoy all the benefits of global interdisciplinary collaborative information exchange, facilitated by the Information Technology and on-line access to the journals content.The journal is directed to different stakeholders and professionals, including government and non-governmental organizations, international funding agencies, universities, public water institutions, public health and other public/private sector professionals, and other relevant institutions. It is aimed at professionals, academics and students in the fields of disciplines such as: groundwater and its connection to surface hydrology and environment, soil sciences, engineering, ecology, microbiology, atmospheric sciences, analytical chemistry, hydro-engineering, water technology, environmental ethics, economics, public health, policy, as well as social sciences, legal disciplines, or any other area connected with water issues.The objectives of this journal are to facilitate: • The improvement of effective and sustainable management of water resources across the globe. • The improvement of human access to groundwater resources in adequate quantity and good quality. • The meeting of the increasing demand for drinking and irrigation water needed for food security to contribute to a social and economically sound human development. • The creation of a global inter- and multidisciplinary platform and forum to improve our understanding of groundwater resources and to advocate their effective and sustainable management and protection against contamination. • Interdisciplinary information exchange and to stimulate scientific research in the fields of groundwater related sciences and social and health sciences required to achieve the United Nations Millennium Development Goals for sustainable development.This journal intends to become the international forum for groundwater research oriented towards the solution of problems of great social impact rather than only breakthrough research in physical and chemical issues.ScopePrincipal areas covered by the journal are:• Hydrogeological systems and sustainable groundwater resources management • Groundwater contamination and protection • Groundwater vulnerability and risk assessment • Groundwater quality and food safety • Epidemiology and public health impacts of groundwater contamination • Groundwater treatment and remediation • Hydroeconomics • Water policy • Social aspects of groundwater • Water and education • Water - Energy - Food nexus • Impact of Climate Change on GroundwaterLocal or regional scale case studies lacking international relevance will not be considered.

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Journal of Water Process Engineering

ISSN: 2214-7144
5 Year impact factor: 6.3
Impact factor: 6.3

AimsThe Journal of Water Process Engineering (JWPE) aspires to be the leading international platform for the dissemination of high-impact research on sustainable engineering solutions for water and wastewater treatment processes. It publishes rigorously peer-reviewed articles from researchers and practitioners actively engaged in the development and discovery of cost-effective technologies and engineering strategies in water and wastewater treatment. JWPE is fully aligned with and committed to achieving the United Nations Sustainable Development Goals, particularly “SDG 6: Clean Water and Sanitation."ScopeWater process engineering involves the understanding and application of fundamental scientific principles to transform raw or wastewater sources into valuable products that benefit society while operating across laboratory, pilot, or full industrial scales. These valuable products include clean water, energy, and various resources. JWPE focuses on the design, operation, control, modelling, optimization, and intensification of processes relevant to water and wastewater treatment.Research that emphasizes the engineered applications and practices of water and wastewater treatment processes, as opposed to studies focused primarily on fundamental scientific principles or materials development, is particularly valued. JWPE encourages submissions of high-quality research articles and state-of-the-art reviews from both academic and industrial researchers and technologists. Given that water processing largely involves the efficient removal and detoxification of contaminants in various forms (soluble, colloidal, or suspended; inorganic or organic; degradable or refractory), applicable technologies can generally be classified into the main categories of chemical conversion, physical separation, and biological degradation. These processes are conducted within various reactors and systems, which must be carefully designed, optimized, operated and controlled, making these aspects another integral part of water process engineering. In addition, the development of water technologies and systems is increasingly integrated with sensing and monitoring tools, which should also be addressed within the scope of JWPE. As global challenges such as the energy/resource crisis and climate change become more pressing, the concept of “wastewater as a resource” has gained widespread recognition, and maximizing resource recovery is now a critical objective in water processing.Based on these considerations, JWPE welcomes submissions in the following areas of interest: Chemical and Catalytic Conversion ProcessesThis category encompasses processes for converting dissolved refractory contaminants and toxicants into mineralized and/or non-toxic substances through chemical and catalytic mechanisms:Advanced oxidation using novel oxidizing agentsPhotocatalysis employing innovative catalysts and light sourcesElectrochemical-driven processes (e.g., electrocatalysis, electrooxidation, electro-crystallization)Catalytic and non-catalytic processes associated with acoustic, cavitation, microwave, and plasma applicationsWater disinfection using novel disinfectants and methodsChemical digestion and precipitation Other emerging technologies and processes for chemical/catalytic conversionSeparation and Extraction ProcessesThis category focuses on the physical and physicochemical separation/extraction of soluble, colloidal, and suspended contaminants from water and wastewater: Coagulation using novel coagulants/flocculants and methodsEnhancement of physical separation processes (e.g., sedimentation, flotation, media filtration, centrifugation, decantation)Membrane filtration processes, including pressure-driven and osmotically-driven membranes Membrane reactors/contactors (e.g., membrane bioreactor, reactors/contactors using photocatalytic or electrocatalytic membranes, and membrane distillation)Adsorption and ion exchangeThermal extraction/distillation for volatile substances extractionOther emerging technologies and processes for separation and extractionBiological and Ecological Processes This category addresses processes for the removal of biodegradable contaminants via biological and ecological methods:Enhancement of conventional biological processes (e.g., aerobic and anaerobic bioreactions, biofiltration)Biological processes for enhanced nutrient removalAnaerobic digestion for sludge disposalApplication of novel biotechnologies (e.g., microbial, fungal, molecular genetics) in water processingConstructed wetlands for water treatmentBioremediation for water environmental restorationEnhancement of ecological functions for water quality improvementOther emerging biological/ecological technologies and process hybridizationProcess Automation, Modelling, and OptimizationAdvanced process automation and control systemsIntegration of robotics and automated systems with water systemsModelling and optimisation of water processes and water systemsApplication of machine learning and advanced algorithms for process control & optimisationGreenhouse gas emissions modelling and control in water processesNovel methods for industrial benchmarking and reporting in water systemsEnergetics and life cycle assessments for water processesWater-energy nexus: optimisation of coupled water and energy systemsNet zero: new technologies, management strategies and policiesSensing, Monitoring and Emerging TechnologiesSensing technologies for detecting chemical and biological contaminants in water systemsNovel sensing and analytical technologies for emerging contaminants (e.g., microplastics, pharmaceuticals, PFAS)Novel technologies and approaches for water process monitoringEdge computing and IoT-enabled water monitoring systemsDevelopment and application of digital twins for water systemsData-driven predictive maintenance and fault detection in water processingAI-powered tools for real-time water quality prediction and decision-makingWater system digitization, big data analytics, and informaticsDisruptive technologies for water systems monitoring and managementProcesses for Resource Recovery and ValorisationThis category covers novel processes and technologies aimed at enhancing resource recovery and valorisation from domestic and industrial wastewater:Energy recovery and production from wastewaterResource recovery/extraction from wastewaterOptimized sludge management for improved energy/resource recoveryValorisation of products recovered from industrial wastewaterAtmospheric water generation and harvestingTechnological schemes (including case studies) for decarbonization in wastewater treatmentOther emerging technologies for resource recovery and valorisation from wastewaterAuthors are encouraged to select the most appropriate category from the six areas listed above for their submissions to JWPE, based on the primary focus of their study. In cases where the research involves hybrid technologies, authors should identify the category that best aligns with the ultimate objective of the study.Submissions related to the development and application of novel materials for water and wastewater treatment, particularly those focused on enhancing the removal of refractory pollutants and improving energy or resource recovery for large-scale or community-scale applications, are highly encouraged. Additionally, studies on emerging technologies in water process engineering that do not fall directly under the existing categories are welcome. However, authors should be mindful of specific exclusions, such as studies on desalination through thermal or membrane processes, which are not within the scope of JWPE.The journal also seeks submissions that address process engineering aspects of water sustainability, with a particular emphasis on water reclamation, reuse, and recycling, as well as energy and resource recovery from alternative sources. Studies focusing on fit-for-purpose treatment processes and technologies that aim to reduce energy and chemical consumption, minimize environmental and carbon footprints, and maximize social benefits are especially encouraged. JWPE periodically publishes “Virtual Special Issues” that explore emerging research areas. Authors should watch for "Calls for Papers" related to these hot topics. Potential contributors may contact the VSI Editor for information on the relevance of their proposed topic and check the VSI page for information.Please note that JWPE does not accept submissions based on fundamental batch studies that lack a focus on engineering applications. Common examples of unacceptable submissions include batch/static adsorption studies of model contaminants without dynamic flow studies, batch photodegradation studies involving photocatalysts modified for visible light operation without engineering application, microbiological studies without a strong connection to biological processing, and membrane fabrication research without practical application. Submissions must also include robust statistical data analysis and benchmarking of data against controls and relevant literature, as well as a thorough and ethical data analysis framework.

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Process Safety and Environmental Protection

ISSN: 0957-5820
5 Year impact factor: 7
Impact factor: 6.9

Publication of the Institution of Chemical Engineers Official Journal of the European Federation of Chemical Engineering: Part BPSEP aims to be the principal international journal for publication of high quality, original papers in the branches of engineering concerned with the safety of industrial processes and the protection of the environment.Papers that deal with new developments in safety or environmental aspects, demonstrating how research results can be used in process engineering design and practice, are particularly encouraged. Experimental or theoretical research work bringing new perspectives to established principles, highlighting unsolved problems or indicating directions for future research will also be considered. The journal is especially interested in contributions that extend the boundaries of traditional engineering as well as in multidisciplinary papers.Papers related to environmental protection must take an integrated pollution control approach, demonstrating clearly that any proposed treatment method does not simply transfer pollution from one environmental medium to another, for example, from air to water or from water to solid waste. All such papers must discuss how any treatment effluents, spent adsorbents, etc., can be treated or disposed of safely, avoiding transfer of pollution to another environmental medium.For environmental protection, papers that are outside the scope are those that lack engineering aspects, including those that:use experimental techniques primarily to prepare and/or characterise various materials without considerations of process engineering design and practice;present primarily laboratory experiments of the effects of different parameters on behaviour of materials and pollutants (e.g. pH, temperature, mass of adsorbent, etc.) without further insights into the implications for engineering design and practice;focus primarily on adsorption models and curve fitting (e.g. Freundlich, Langmuir etc.); andcontain only chemical, physical and/or thermodynamic analyses.Core topic areas:Risk Assessment and Reliability Engineering • Risk assessment, risk management, consequence analysis, and uncertainty quantification. • Supply chain risk management. • Cyber and physical security vulnerability assessment. • Risk assessment of hydrogen-based technologies. • Human reliability analysis (HRA) and human-machine interface (HMI). • Reliability predictions of integrated systems and high-temperature power electronics. • Integrity management and reliability, availability and maintainability (RAM).Technical Safety and Loss Prevention • Fire and gas detection. • Firewater systems. • Functional safety and safety integrity levels (SIL) • Layer of protection analysis (LOPA) • Bowtie analysis. • Emergency response • HAZOP and other hazard/risk identification techniques.Modelling • Modelling liquid, gaseous, and two-phase releases and dispersion. • Consequence modelling, including: fire, explosion, toxic, eco-toxic effects and projectile impacts. • Methods, including computational fluid dynamics (CFD). • Accident investigation and modelling.Chemical Toxicity and Exposure Assessment • Toxic releases and exposure assessment. • Process plant health issues.Process Pipelines, Storage and Security • Process pipelines security and terrorism. • Pipeline leak detection and measurement and corrosion assessment. • Carbon capture and storage (CCS) and CO2 transport.Fire and Explosion • Fire, combustion, and explosion phenomena. • Dust explosions. • Fire and blast protection and survivability.Human Factors in Design and Management • HSE performance measurement including leading and lagging indicators. • Human and organizational factors in safety cases. • Human performance optimization by design. • SIMOPS (simultaneous operations). • Situational awareness. • Communications and risk control systems. • Resilience engineering. • Technical assurance and workforce training.Inherent Safety and Inherently Safer Design • Hazard identification • Design and development of new processes and equipment. • Methodologies for ranking inherent safety. • Retrofitting inherently safer solutions and upgrading existing plant for improved safety.Nuclear Safety • Waste disposal. • Design for decommissioning. • Passively safe reactor designs. • Nuclear reactor protective and monitoring systems.Reaction Hazards • Chemical thermal stability and thermal reaction hazards. • Influence of impurities on reaction hazards. • Development of reactivity hazard index ranking tools. • Runaway reactions, including detection and mitigation. • Compatibility/reactivity of chemicals involved in a chemical process.Industrial Hazards and Safety Cases • Major accident hazards • ALARP and cost-benefit analysis. • Industrial safety cases.Incident investigations and case histories • Case histories of incidents and lessons learned integration into design and operations. • Technical analysis of incidents. • Computational modelling to simulate actual incidents • Use of incidents in training and improvement of safety performance • Incident investigation methodologies • Incident databases and their applications.Air pollution prevention and treatment • Methods and technologies for prevention and treatment of air pollution • Air dispersion modelling • Prediction and mitigation of air pollution incidents • Health impacts from air pollutionResource and waste management • Recovery and recycling of materials and products • Energy from waste and alternative resources • Waste minimisation • Waste treatment technologies • Waste management: systems and processes for energy and material recovery and waste treatment; disposal • Landfill and waste repository design, operation and management • Land remediation and recoveryWater pollution prevention and treatment • Industrial, pure and ultrapure water production • Municipal and industrial effluent treatment • Potable water treatment • Sludge processing, energy recovery and disposal • Mitigation of water pollution incidents • Water pollution dispersion modelling • Health impacts from water pollutionFor more information on the IChemE journals published in partnership with Elsevier and to find out about some of the top research published in the journals, please see this page: https://www.elsevier.com/physical-sciences-and-engineering/chemical-engineering/journals/icheme-journals

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Water Cycle

ISSN: 2666-4453

Water plays a critical role in supporting life and ecosystems. However, a combination of ever-growing demands on water resources and low water use efficiency has caused severe water and environmental stresses, increasing the risk of contamination. An interdisciplinary, integrated and balanced approach is required to secure the safety of the water supply and water environmental management systems.The development of a sustainable, multifaceted and multilevel water cycle system is a new and fast-growing focus in the field of water. The water cycle has traditionally referred to the natural circulation system, where water evaporates, condenses and falls to the ground in a continuous cycle. However, attention is shifting to the water meta-cycle, where water has multiple interactions with the environment, ecology, hydrology, hydraulics, civil engineering, meteorology and topography under different scales and dimensions. Understanding this water meta-cycle, the processes involved, and their potential impact is a scientific challenge of enormous importance. Progress is needed to advance our knowledge and to inform sustainable development.Water Cycle is an interdisciplinary open access journal that publishes top-tier original research in all areas of water cycles, including meta-cycles. It examines their relationship to science, technology, society, economics, health, culture, policy, regulation and strategy. It also offers water academics, engineers and practitioners the opportunity to exchange knowledge and experience.Papers will report significant advances in a wide range of categories including (but not limited to):The different dimensions of water cycles: natural cycle, social cycle, ecological cycle, engineering cycle, cascading cycle and process cycle.The different scales of water cycles: water meta-cycle, local cycle, regional cycle, watershed cycle and environmental cycle.Water conservation in agricultural, industrial, domestic and municipal applications.Water treatment, recycle and reuse for different water resources, including wastewater, industrial wastewater, drinking water, reclaimed water, rainwater, seawater, mine water and brackish water.The water cycle-environment-ecosystem nexus.The water-waste-soil-atmosphere nexus.How water cycles interlink and interact with elements, materials and energy flows.Water mediated material transformation, element cycle and energy flow.The interactions, synergies and coordination between water conservation, reuse and the water cycle.Water system analysis, water policy and water management.Editorial Board

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Water-Energy Nexus

ISSN: 2588-9125

The management of natural water or water/wastewater infrastructures is closely related to energy. Effective energy management is not possible without clean and adequate water sources. Water-Energy Nexus is an interdisciplinary journal that covers research on energy efficiency in natural water management, and water/wastewater treatment and distribution, energy for water transmission/treatment/distribution and wastewater collection/treatment/disposal, water for energy extraction/production, as well as related topics. The studies can include physical, chemical, and biological processes in engineering- and management-fields of the water-energy nexus. The journal welcomes original contributions covering, but not limited to:strategies to improve water/wastewater/ solid waste management and treatment efficiencies,strategies to save energy consumption or increase energy production in water/wastewater/ solid waste related industry,efficient utilization of water resources in energy industry,efficient soil erosion and remediation technologies or practices,urban and rural water resources and watersheds management, mitigation of and adaptation to climate change impacts on flooding, water environment, and ecology, natural water and water/wastewater managements (or practices) affecting climate changes and energy industry, new/renewable energy coupled to water management practices,water-cycle-based circular economy (or strategy to promote one water concept) any natural, socio-economic, and technical factors affecting water resources (in terms of quality and quantity), water/wastewater infrastructures, and energy industry. The works include scientific and engineering strategies of experimental, theoretical, mathematical, and managemental approaches that address the aforementioned issues. The work could be either bench scale or pilot scale.Each submission will be evaluated for its novelty, originality, and practical implications.Editorial Board

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Physical Sciences & Engineering

Social Sciences & Humanities

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Journals in Wastewater treatment

Groundwater for Sustainable Development

Journal of Water Process Engineering

Process Safety and Environmental Protection

Water Cycle

Water-Energy Nexus