Review Article Research Articles

Financial mechanisms for energy transitions: review article

PurposeThe transition from fossil fuel-based energy systems to renewable energy sources, commonly referred to as the energy transition, is essential for combating climate change. However, comprehensive studies that thoroughly examine the financial mechanisms involved in this process are lacking. Despite the availability of various financial tools, there is a notable absence of extensive research that synthesizes and categorizes these mechanisms into broad groups.Design/methodology/approachA systematic literature review is used to explore a comprehensive framework for financial mechanisms related to the energy transition and their application across six stages of the process.FindingsThe framework of financial mechanisms for energy transition encompasses these six factors: public financing mechanisms, private financing mechanisms, market-based mechanisms, innovative financing mechanisms, risk mitigation instruments and institutional support and capacity building.Originality/valueThis is the first study that thoroughly reviewed the financial mechanisms involved in the energy transition process.

WHAT WILL SUSTAIN THE DEMOCRACY?

AbstractThe author, Leader to Leader’s editor‐in‐chief, writes about the necessity for ordinary citizens to take responsibility for the health and wellbeing of their communities, and how this relates to sustaining our democracy. She builds on an anecdote about saving a tree that was damaged twice by a storm in her county. She recounts passages from Frances Hesselbein’s 2010 Harvard Business Review article “How Did Peter Drucker See Corporate Responsibility?”. She notes that Frances’ question was: “What must our organizations do today to help our country maintain its greatness and sustain the democracy?” In light of that article, the author writes that “democracy’s very survival is dependent on how we interact and support each other, how we work together towards a common purpose, and on our commitment to serving the greater good for all.” She also notes that “…we must ask ourselves, am I taking responsibility in my community, my organization, and I’n our world, or am I waiting for ‘them’ to fix it and blaming ‘them’ when it remains broken?”

Functionalization Strategies of Iron Sulfides for High-Performance Supercapacitors

AbstractSupercapacitors have emerged as a promising class of energy storage technologies, renowned for their impressive specific capacities and reliable cycling performance. These attributes are increasingly significant amid the growing environmental challenges stemming from rapid global economic growth and increased fossil fuel consumption. The electrochemical performance of supercapacitors largely depends on the properties of the electrode materials used. Among these, iron-based sulfide (IBS) materials have attracted significant attention for use as anode materials owing to their high specific capacity, eco-friendliness, and cost-effectiveness. Despite these advantages, IBS electrode materials often face challenges such as poor electrical conductivity, compromised chemical stability, and large volume changes during charge–discharge cycles. This review article comprehensively examines recent research efforts aiming at improving the performance of IBS materials, focusing on three main approaches: nanostructure design (including 0D nanoparticles, 1D nanowires, 2D nanosheets, and 3D structures), composite development (including carbonaceous materials, metal compounds, and polymers), and material defect engineering (through doping and vacancy introduction). The article sheds light on novel concepts and methodologies designed to address the inherent limitations of IBS electrode materials in supercapacitors. These conceptual frameworks and strategic interventions are expected to be applied to other nanomaterials, driving advancements in electrochemical energy conversion.

Recent Advances in Near‐β Titanium Alloys: Microstructure Control, Deformation Mechanisms, and Oxidation Behavior

Near‐β titanium alloys are used as promising structural materials for aerospace, biomedical, and other advanced applications due to their excellent combination of high specific strength and superior corrosion resistance. Precise control of the microstructure and mechanical properties through thermomechanical processing and heat treatment is paramount for exploiting the full potential of these alloys. This review article provides a comprehensive and critical assessment of the state‐of‐the‐art research on the microstructure evolution, deformation mechanisms, and oxidation behavior of near‐β titanium alloys. Furthermore, the challenges and emerging opportunities in the development of near‐β titanium alloys have also been identified, ranging from alloy design and processing optimization to multiscale characterization and integrated computational materials engineering. This review article provides a timely and comprehensive roadmap for the research and development of near‐β titanium alloys, paving the way for unlocking their full potential in critical industries.

Antibiotic resistance mediated by gene amplifications

AbstractApart from horizontal gene transfer and sequence-altering mutational events, antibiotic resistance can emerge due to the formation of tandem repeats of genomic regions. This phenomenon, also known as gene amplification, has been implicated in antibiotic resistance in both laboratory and clinical scenarios, where the evolution of resistance via amplifications can affect treatment efficacy. Antibiotic resistance mediated by gene amplifications is unstable and consequently can be difficult to detect, due to amplification loss in the absence of the selective pressure of the antibiotic. Further, due to variable copy numbers in a population, amplifications result in heteroresistance, where only a subpopulation is resistant to an antibiotic. While gene amplifications typically lead to resistance by increasing the expression of resistance determinants due to the higher copy number, the underlying mechanisms of resistance are diverse. In this review article, we describe the various pathways by which gene amplifications cause antibiotic resistance, from efflux and modification of the antibiotic, to target modification and bypass. We also discuss how gene amplifications can engender resistance by alternate mutational outcomes such as altered regulation and protein structure, in addition to just an increase in copy number and expression. Understanding how amplifications contribute to bacterial survival following antibiotic exposure is critical to counter their role in the rise of antimicrobial resistance.

Review on geopolymer concrete incorporating Alccofine-1203

Abstract The emergence of geopolymer concrete (GPC) has occurred as a sustainable substitute for conventional cement-based concrete, offering enhanced mechanical characteristics and reduced environmental impact. In the quest to further optimize GPC, incorporating supplementary cementitious materials has gained attention. For the research, Alccofine-1203 was considered as the material for incorporation into the geo-polymer concrete. This review study specifically examines the utilization of Alccofine-1203 as a material in GPC within the domain of structural engineering. Alccofine-1203, a high-performance mineral additive, exhibits pozzolanic and reactive properties, making it a promising candidate for enhancing GPC performance. This paper provides a comprehensive analysis of the chemical compositions and physical properties of Alccofine 1203, highlighting its potential benefits in GPC. Furthermore, it explores the influence of Alccofine-1203 on various aspects of GPC, including workability, compressive strength, flexural strength, durability, microstructure, and thermal properties. The review encompasses an analysis of relevant tests conducted to evaluate these properties. In summary, this review article is a great resource for researchers, engineers, and practitioners who are interested in the development and application of GPC containing Alccofine-1203.

Sustainable Biopolymers in Eco-Friendly Triboelectric Energy Harvesting.

Biopolymer-based triboelectric nanogenerators (B-TENGs) represent an innovative fusion of eco-friendly, sustainable energy-harvesting technology with renewable and environmentally benign biopolymer material. This integration not only introduces novel pathways for advancing green energy solutions but also offers a critical approach to addressing contemporary environmental challenges and fostering sustainable progress. Over the past few years, B-TENGs have seen rapid and remarkable growth in the realm of biopolymers, device architecture, and their applications (e.g., implantable power source, electronic medicine, human anatomical and physiological movements monitoring sensors, etc.). In this review article, the promising developments in harnessing triboelectric biopolymers are encapsulated, enumerate their representative applications, evaluate the pros and cons of these biopolymers, highlight key challenges for future research, and offer strategic recommendations for innovating and realizing advanced B-TENGs.

Intermetallic Compounds for Hydrogen Storage: Current Status and Future Perspectives.

Intermetallic compounds are an emerging class of materials with intriguing hydrogen activation and storage capabilities garnering attention for their application in low-temperature hydrogen storage and metal hydride batteries. However, none of the existing intermetallic compounds have met the gravimetric hydrogen storage capacity target of 5.5wt.%. Some A2B-type intermetallic compounds, like Mg2Ni, Mg2Co, and Mg2Fe, approach this target but require high temperatures for hydrogen desorption limiting their use in low-temperature hydrogen storage and automotive applications. Conversely, some intermetallic compounds like ZrV2 and LaNi5, exhibit hydrogen desorption at ambient conditions but with comparatively lower hydrogen storage capacities. This review article provides a comprehensive account of the different types of intermetallic compounds, their synthesis using different solidification-based and solid-state diffusion-based approaches, and their metallurgical and structural properties. It examines the complex interdependencies between the structural parameters of intermetallic compounds and hydrogen storage performance. A definitive but non-linear correlation is identified between void volume and gravimetric hydrogen storage capacities while lattice structure, evolution of lattice structure with hydrogen absorption, enthalpy of hydride formation, and hydrogen activation reactivities of intermetallic compounds are identified as critical parameters governing hydrogen storage performance.

Innovative Glucagon-Based Therapies for Obesity

Abstract Obesity poses a significant global health challenge, with an alarming rise in prevalence rates. Traditional interventions, including lifestyle modifications, often fall short of achieving sustainable weight loss, ultimately leading to surgical interventions, which carry a significant burden and side effects. This necessitates the exploration of effective and relatively tolerable pharmacological alternatives. Among emerging therapeutic avenues, glucagon-based treatments have garnered attention for their potential to modulate metabolic pathways and regulate appetite. This paper discusses current research on the physiological mechanisms underlying obesity and the role of glucagon in energy homeostasis. Glucagon, traditionally recognized for its glycemic control functions, has emerged as a promising target for obesity management due to its multifaceted effects on metabolism, appetite regulation, and energy expenditure. This review focuses on the pharmacological landscape, encompassing single and dual agonist therapies targeting glucagon receptors (GcgRs), glucagon-like peptide-1 receptors (GLP-1Rs), glucose-dependent insulinotropic polypeptide receptors (GIPRs), amylin, triiodothyronine, fibroblast growth factor 21 (FGF21), and peptide tyrosine tyrosine. Moreover, novel triple-agonist therapies that simultaneously target GLP-1R, GIPR, and GcgR show promise in augmenting further metabolic benefits. This review paper tries to summarize key findings from preclinical and clinical studies, elucidating the mechanisms of action, safety profiles, and therapeutic potential of glucagon-based therapies in combating obesity and its comorbidities. Additionally, it explores ongoing research endeavors, including phase III trials, aimed at further validating the efficacy and safety of these innovative treatment modalities.

Perinatal Risk Factors in Single-suture Craniosynostosis: A Systematic Review and Meta-analysis.

To our knowledge, there has not been a review article summarizing the current evidence with regard to perinatal risk factors, and our aim is to perform a systematic review and meta-analysis of the evidence of perinatal risk factors in single suture craniosynostosis to inform our practice and identify any need for further research in this area. Our target population was pediatric single-suture craniosynostosis patients, and the intervention was perinatal risk factors. The comparison group was an age and sex-matched control group without craniosynostosis and the outcome we investigated was presence of single suture craniosynostosis. The literature search was done using OVID MEDLINE, Pubmed, and Embase databases from 1946 to 2023. A PRISMA flowchart was created, and statistical analysis was performed using RevMan pooled odds ratios, and 95% CIs were used to combine results from individual studies. Our initial search identified 625 abstracts and these were narrowed down to 16 articles, which were included in the final selection for the review. Out of these, 13 were used for the quantitative meta-analysis. Our meta-analysis showed a possible association between craniosynostosis and the following perinatal risk factors; presence of maternal thyroid disease, maternal age greater than 29, paternal age greater than 29, maternal smoking, gestational age above 37 weeks, and maternal underweight (BMI<18.5). Further prospective studies are warranted to investigate definite associations. The next step is to set up a multicenter prospective study among a craniofacial unit network.

Neural Stem Cell Therapy for Alzheimer’s Disease: A-State-of-the-Art Review

Alzheimer’s disease (AD) is a brain disorder that is more prevalent in developed nations and remains one of most intractable conditions so far. It is characterized by a gradual onset, a prolonged progression, and an unclear pathophysiology. At the present time, there are no effective treatments available for the disease. However, human neural stem cells (hNSCs) have the capacity to substitute lost neurons in a functional manner, strengthen synaptic networks that have been compromised, and repair the damaged brain. Due to the unavailability of restorative therapeutics, there is a significant global burden on the economy. When it comes to the treatment of neurodegenerative diseases, NSCs provide a potentially game-changing approach to treating Alzheimer’s disease. Through the delivery of trophic factors that promote the viability and regeneration of lost neurons in experimental animals suffering from neurodegenerative disorders, these treatments have the potential to facilitate beneficial recuperation. Positive restorative outcomes may be achieved in a variety of ways, including the replacement of lost cells, the combining of cells, the secretion of neurotrophic factors, the formation of endogenous stem cells, and transdifferentiation. Conversely, there are obstacles that need to be overcome before NSC-based treatments can be used in clinical settings. This review article discusses current developments in the use of neural stem cells (NSCs) for the treatment of Alzheimer’s disease (AD). In addition, we highlight the difficulties and opportunities that are involved with the use of neural stem cell transplant treatment for Alzheimer’s disease.

Natural Disasters as a Maternal Prenatal Stressor and Children’s Neurodevelopment: A Systematic Review

The intrauterine period is a time of high sensitivity in the development of the embryo and the fetus. Therefore, low levels of maternal stress are closely associated with healthy brain development in the neonatal and early childhood periods. There is increasing evidence linking natural disasters as prenatal maternal stress (PNMS) to neurodevelopmental disorders (including subclinical manifestations). Natural disasters involve many factors in addition to the trauma they cause, including loss and the physical and psychosocial difficulties that result from that trauma. This review article aims to bring together research findings on the neurodevelopmental effects of natural disasters on children as PNMS. It also looks at how factors such as gestational age and gender contribute to these effects. We conducted a systematic review on PubMed, Web of Science, and Scopus, with 30 studies meting the inclusion criteria. This systematic review was conducted in accordance with the PRISMA guidelines. A total of 1,327,886 mother–child dyads participated in the included studies. The results of the studies indicate that natural disasters have a negative impact on children’s outcomes in terms of cognitive development, language development, autism/autism-like features, motor skills, performance in mathematics, mental development, sleep, attention, behavioral and emotional problems, and various psychiatric comorbidities.

REVIEW: PHYTOCHEMICAL CONSTITUENTS AND PHARMACOLOGICAL ACTIVITY OF Strobilanthes crispus

Strobilanthes crispus (S. crispus), called keji beling leaves, is a plant belonging to the genus Strobilanthes and family Acanthaceae. Keji beling (S.crispus) has been applied by Indonesians to cure some diseases like diabetes and dissolve kidney stones. The aim of this review article is to compile an update on the phytochemical studies and pharmacological activity of S. crispus. A literature review was carried out by searching for articles in the Scopus, PubMed, and Google Scholar data bases between 2014-2024. Studies have shown that the leaves of S. crispus contain flavonoids, phenolics, alkaloids, tannins, terpenoids, phytosterols, and fatty acids. Current pharmacological studies have revealed that the extracts, fractions, or secondary metabolites of S. crispus possess antimicrobial, antioxidant, antidiabetic, anti-urothelial, immunomodulatory, wound healing, cytotoxic, and anti-cancer activities. Although previous studies have provided information about S. crispus, pharmacological and phytochemical data are still limited. Further studies are still necessary to explore the bioactive compounds, toxicity, safety and future development of S.crispus as herbal medicine Keywords: keji beling, Strobilanthes crispus, phytochemical constituent, pharmacological activity

Structural and Pasting Properties of Lentil Starch: A Comprehensive Review

ABSTRACTLentils are highly nutritious as they are rich in both proteins and starch, making them a crucial component of the human diet. This review article focuses on the morphology, microstructure, and pasting properties of lentil starch (LS). The LS exhibits poor crystallinity due to its high amylose‐to‐amylopectin ratio as reflected in its pasting behavior. The shapes of the LS granule range a wide variety, starting from huge ovals to small rounds, as captured in the scanning electron microscope (SEM). Fourier transform infrared (FTIR) spectroscopy displays the arrangement of starch molecules at the vicinity of the granule surface and detects the presence of additional functional groups in the modified starches. X‐ray diffraction (XRD) demonstrates both the qualitative and quantitative alterations in the crystalline domains of starch granules effectively. Nuclear magnetic resonance (NMR), in particular 13C CP/MAS have successfully examined the structural order of amylolyzed LS concentrations and amylose–lipid complex at the molecular level. This review might be of interest to the professionals involved in food and pharmaceuticals on product development using lentil as one of the ingredients in their formulations.

Recognition and Management of Postpartum Hemorrhage

Abstract Postpartum hemorrhage (PPH) is an obstetric emergency and refers to excessive blood loss after birth. Loss of blood volume and oxygen-carrying capacity may lead to maternal hypovolemia and hypotension resulting in tissue hypoxia, the onset of anaerobic metabolism, and multiorgan failure. If timely and appropriate action is not taken, cardiac arrest and maternal death may occur. If the amount of blood loss exceeds 500 mL following a vaginal birth or 1000 mL during or following a cesarean section, it is termed PPH. Similar to any other surgical hemorrhage, PPH is classified into primary PPH (occurs within 24 hours of birth) or secondary PPH (between 24 hours and 12 weeks postpartum). PPH is a major contributor to maternal deaths worldwide, and it is estimated that a person dies because of PPH approximately every 5 minutes. Therefore, measures should be directed at prevention and early detection of PPH with prompt management. The prevalence of PPH varies globally and is influenced by location, socioeconomic factors, and the availability and quality of health care. The World Health Organization reported that PPH accounts for a quarter of global maternal deaths. The Mothers and Babies Reducing Risks through Audits and Confidential Enquiries report from the United Kingdom (2023) highlighted that despite rare mortality due to hemorrhage, the number of people dying of obstetric hemorrhage is not decreasing, particularly among people with abnormally invasive placentation. Additionally, substandard care was found to be responsible for more than 50% of deaths due to PPH in the United Kingdom. Therefore, it is vital that adequate healthcare infrastructure, trained and competent healthcare professionals, and immediate access to resources, interventions, and multidisciplinary teams are essential both in well-resourced and resource-restrained healthcare systems. Healthcare professionals must identify the potential risk factors for PPH and initiate preventive measures whenever possible. Additionally, they must respond swiftly if PPH occurs and ensure a multidisciplinary, multilayered approach for a synchronized response to optimize outcomes. This review article emphasizes the etiopathogenesis, diagnosis, and management of PPH based on current scientific evidence as well as international best practice recommendations.

The impact of using bee pollen in poultry systems

The use of antibiotic growth promoters in poultry production has resulted in the development of drug resistance, and destruction of the normal beneficial intestinal flora. Therefore, the task of poultry industry is to find alternative solutions to ensure safe products. The aim of this review article was to understand the potential use of bee pollen in poultry production system regarding its impact on performance, carcass traits, immunity, bacterial community, and blood parameters. Bee products such as pollen have been used in traditional medicine and have recently appeared as possible feed additives. Bee pollen is considered the most important substance in the hive, as a basic feed for bees. It consists of a mixture of proteins, amino acids, fats, carbohydrates, and multiple vitamins, minerals, and enzymes. The chemical composition of bee pollen depends mainly on the plant species, geographic region, and season of collection. Bee pollen has many uses in human medicine and livestock production. It has been used to improve general health, and may also act as an antibacterial, antifungal, antioxidant, anti-radiation, anti-carcinogenic, anti-inflammatory, hepato- and cardio-protective, and antidiabetic. Dietary supplementation of bee pollen could increase performance parameters as a growth promotor, enhancing carcass quality. In addition, bee pollen can enhance the immune response, reduce the pathogenic bacterial count, and enhance important blood parameters.

A Review of Contemporary Image Guidance Techniques in Head and Neck Cancer.

Traditional head and neck cancer treatment involves open surgery, cytotoxic chemotherapy, and conventional radiotherapy planning. Emerging techniques aim to improve precision and reduce associated toxicity and functional impairment in current practice. This review article describes four such adaptations in image guidance, tailored to next generation therapies. This is a review of current literature, including feasibility studies from our cancer center, relating to: saline-aided intra-oral ultrasound-guided retropharyngeal biopsy; intra-oral ultrasound guided trans-oral robotic surgery (TORS); ultrasound-guided injection of "directly injectedtherapies"; and magnetic resonance imaging-guided radiotherapy. Presented within the context of the wider literature, initial local experience and data indicate good technical outcomes and patient tolerance, and low technical complications in all four image guidance techniques. Initial findings suggest a potentially important future role for these four image guidance techniques, on which next generation therapies are reliant. The broader implications on cross-disciplinary collaboration are also explored herein.

Microbiome-based therapies for Parkinson’s disease

The human gut microbiome dysbiosis plays an important role in the pathogenesis of Parkinson’s disease (PD). The bidirectional relationship between the enteric nervous system (ENS) and central nervous system (CNS) under the mediation of the gut-brain axis control the gastrointestinal functioning. This review article discusses key mechanisms by which modifications in the composition and function of the gut microbiota (GM) influence PD progression and motor control loss. Increased intestinal permeability, chronic inflammation, oxidative stress, α-synuclein aggregation, and neurotransmitter imbalances are some key factors that govern gastrointestinal pathology and PD progression. The bacterial taxa of the gut associated with PD development are discussed with emphasis on the enteric nervous system (ENS), as well as the impact of gut bacteria on dopamine production and levodopa metabolism. The pathophysiology and course of the disease are associated with several inflammatory markers, including TNF-α, IL-1β, and IL-6. Emerging therapeutic strategies targeting the gut microbiome include probiotics, prebiotics, synbiotics, postbiotics, and fecal microbiota transplantation (FMT). The article explored how dietary changes may affect the gut microbiota (GM) and the ways that can affect Parkinson’s disease (PD), with a focus on nutrition-based, Mediterranean, and ketogenic diets. This comprehensive review synthesizes current evidence on the role of the gut microbiome in PD pathogenesis and explores its potential as a therapeutic target. Understanding these complex interactions may assist in the development of novel diagnostic tools and treatment options for this neurodegenerative disorder.

Review of Post-Harvest Rice Cooling for Storage in the USA

The aim of this review paper is to document the role of post-harvest rice cooling in ensuring the safe storage of rice, given the ongoing increase in rice production. The United States exports substantial quantities of rice, with milled and rough rice being the primary exports. The industry has experienced growth, propelled by rising demand, a diverse population, and international trade. Effective storage of harvested rice is essential for year-round utilization, and the USA utilizes both on-farm and off-farm in-bin storage methods equipped with features like moisture control, pest management, and temperature regulation. The adoption of rice cooling technology for storage emerges as a solution to accelerate drying, prolong shelf life, and improve overall quality. Despite challenges such as upfront costs and energy requirements, cooling technology offers benefits for both short-term and long-term storage. Integrating cooling models into mathematical simulations becomes crucial for optimizing storage conditions. Research opportunities in post-harvest rice cooling focus on energy-efficient technologies, smart sensors, modern storage structures, microbial control methods, and economic evaluations. Future trends encompass automation, intelligent monitoring, climate-controlled storage, sustainability measures, and technological integration to enhance the efficiency and security of rice storage facilities in the USA.

Circular Economy for Transport Infrastructure: An Overview of the Sustainable Use of Recycled Asphalt Shingles in Asphalt Mixtures

In North America and Europe, asphalt shingle waste created during the installation of roofing membranes and tear-off shingles retrieved at the end of the membrane’s life cycle are two major sources of municipal solid waste. Since almost 15–35% of recycled asphalt shingles (RAS) consist of an asphalt binder, the effective recycling of RAS into asphalt mixtures could also allow a reduction in the consumption of non-renewable resources such as asphalt binders. In this context, several studies investigating the use of RAS in asphalt mixtures can be found in the literature, although they exhibit widespread and sometimes conflicting information about the investigated materials, the mix preparation and testing methodologies and the experimental findings. Given this background, this review paper aims at summarizing the existing information and research gaps, providing a synthetic and rational picture of the current literature, where similar attempts cannot be found. In particular, different research studies show that the use of RAS in asphalt mixtures is an economical as well as an eco-friendly option. RAS with up to 20% by weight of binder or 5% by weight of aggregate/mixtures (eventually in combination with 15% reclaimed asphalt pavement aggregate) were found to be relatively suitable to improve the performance properties of asphalt mixtures, both in the laboratory and in the field. Adding RAS to asphalt mixtures could enhance their stiffness, strength and rutting resistance (i.e., high-temperature properties), while negatively affecting the mixtures’ fatigue and thermal cracking resistance. However, the addition of specific biomaterials (e.g., bio-binders, bio-oils) or additives to asphalt mixtures can mitigate such issues, resulting in lower brittleness and shear susceptibilities and thus improving the anti-cracking performance. On the other hand, the literature review revealed that several aspects still need to be studied in detail. As an example, RAS-modified porous asphalt mixtures (fatigue, rutting, moisture susceptibility and thermal cracking) need specific research, and there are no comprehensive research studies on the effects of the RAS mixing time, size and mixing temperature in asphalt mixtures. Moreover, the addition of waste cooking/engine oils (biomaterials) as asphalt binder rejuvenators in combination with RAS represents an attractive aspect to be studied in detail.