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The rapid growth of global energy consumption and simultaneous waste discharge requires more sustainable energy production and waste disposal/recovery technology. In this respect, microbial fuel cell and bioelectrochemical systems have been highlighted to provide a platform for waste-to-energy and cost-efficient treatment. Microbial fuel cell technology has also contributed to both academia and industry through the development of breakthrough sustainable technologies, enabling cross- and multi-disciplinary approaches in microbiology, biotechnology, electrochemistry, and bioprocess engineering. To further spread these technologies and to help the implementation of microbial fuel cells, this Special Issue, entitled “Microbial Fuel Cells 2018”, was proposed for the international journal Energies. This Special Issue mainly covers original research and studies related to the above-mentioned topic, including, but not limited to, bioelectricity generation, microbial electrochemistry, useful resource recovery, system and process design, and the implementation of microbial fuel cells.
biogenic conversion --- power density --- treatment efficiency --- microbial fuel cell (MFC) --- flow rate --- hydrogen production --- bioelectrochemical system --- C1 gas --- acetate --- bioelectrochemical reactor --- TiO2 nanotube --- environmental engineering --- lignite --- dye decolorization --- electrodialysis --- Ni–Co alloy --- dilution rate --- substrate supply rate --- carbon monoxide --- inhibition --- microbial fuel cell --- acetosyringone --- anodic volume --- microbial electrolysis cell --- syringaldehyde --- laccase --- methane --- anode distance --- coal --- power generation --- yeast wastewater --- cathode --- renewable energy source --- natural redox mediators
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As many of you already know, traumatic brain injury (TBI) is a growing public health problem of substantial proportions. More than 50 million TBIs occur internationally each year. Across all ages, TBI represents 30–40% of all injury-related deaths, and neurological injury is projected to remain the most important cause of disability from neurological disease until 2030. Severe TBI has a high mortality rate, estimated at 30–40% in observational studies on unselected populations. Survivors experience a substantial burden of physical, psychiatric, emotional, and cognitive disabilities, which disrupt the lives of individuals and their families, and impose huge costs on society. Wide variations in the clinical manifestations of TBI are attributable to the complexity of the brain and to the pattern and extent of damage. Over the past few years, a number of multicenter studies on the topic have emerged, helping to provide a better understanding of the condition. However, it is also clear that much remains to be learned.
Medicine --- Clinical & internal medicine --- traumatic brain injury --- scoring system --- modified early warning score --- mortality --- psychometric properties --- patient-reported outcome measures --- classical test theory --- translation --- linguistic validation --- outcome instruments --- cerebral oximetry --- near-infrared spectroscopy --- cerebrovascular autoregulation --- intracranial pressure --- acute brain injury --- early tracheostomy --- late tracheostomy --- tracheostomy timing --- ventilatory acquired pneumonia --- prehospital --- oxygenation --- hypoxia --- hyperoxia --- emergency medical services --- osmolality --- traumatic brain injury (TBI) --- hypertonic saline --- mannitol --- osmolar gap --- brain death --- death by neurologic criteria --- cerebral blood flow --- CT angiography --- CT perfusion --- COVID-19 pandemic --- treatment efficiency --- emergency department --- seizure --- QTc interval --- spatial QTS-T angle --- brain–heart interaction --- cranioplasty --- cognitive improvement --- neuropsychology
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