Search

Orange G dye belongs to the class of Azo dye. It is broadly used to dye goods, such as wool and fiber, paper, leather etc. Its undesirable impact on human health involves skin problems like skin irritation, allergy and metamorphosis that leading to cancer. Industrial waste water containing excess of Orange G dye has to be treated to keep the environment safe. Adsorption is an effective way of removing dye from aqueous solution and we have reviewed various adsorbents like like activated-carbon, MnO2nano-particles, saw-dust etc. Various adsorption criteria like temperature, contact time, pH, quantity of adsorbent and dye concentration along-with their size have been reviewed. The kinetics of adsorption and adsorption isotherms together with the thermodynamics of the process have been critically examined.

Background The use of stimulant medications for treatment of ADHD has raised concern as to whether they adversely impact linear growth. Previous studies have indicated that stimulant medications may suppress growth for a short period after treatment initiation; however, more information is needed to evaluate the long-term effects on final adult stature. This mini review aims to evaluate the effect of stimulant medications on final adult height in children with ADHD. Contents We performed a literature review across PubMed/MEDLINE database. Only articles that included data on final adult height or near final adult height (age≥16 or 17 years) were included. Summary Early studies investigating the long-term impacts of stimulant medications observed growth suppression during the active treatment period, but when comparing final adult height, there was no difference between the control and ADHD groups. A recent larger comprehensive study (Multimodal Treatment of ADHD study) has suggested that the long-term use of significant doses of stimulants during childhood may compromise final adult height to a clinically significant degree when comparing adult height across three long-term patterns of stimulant treatment (Consistent, Intermittent, Negligible). The consistent use subgroup was significantly shorter than other subgroups. Outlook For children with ADHD, a significant long-term dose of stimulant treatment should be used with caution to avoid diminishing adult height potential. Pediatric endocrinologists should consider chronic use of stimulants as a factor contributing to reduced adult height.

Dexmedetomidine (DEX) is an anaesthetic agent that mimics natural deep sleep and produces minimal cardiorespiratory depression. As such, it is a very valuable option in the management of such a challenging population as paediatric patients. The main objective of this mini review was to evaluate the role of DEX as a perioperative analgesic in children receiving anaesthesia. We searched Google, Pubmed, Embase and the Cochrane Library for articles published between 2010 and 2021, and reviewed various of aspects of DEX, such as pharmacology, effectiveness, safety, and the most recent evidence on its clinical use as an analgesic in paediatric anaesthesia. We also include a cost estimate of perioperative analgesia with DEX.

This review focuses on advances in the field of bioprinting for skeletal tissue engineering, as well as a discussion of various bone marrow transplants. All methods (cellular, non-cellular and both) are aimed at finding complex living tissues capable of growing and maturing, using the same basic technology. To date, co-printing of cellular and non-cellular material has been identified as the most promising method for muscle applications because materials with good performance and good mechanical strength can be integrated within the same structure. Integration of orthopedic applications is an evolving field, and a detailed discussion of current challenges and ideas for the future is also presented in this review.

There are several types of morphea with different levels of connective tissue involvement and morphological manifestations. In this mini review, it was pointed out the most important morphological and clinical aspects of localised scleroderma in the oral cavity. The case presented in this article supports the scientific information and is described with details. The morphea of mucous membrane which was clinically suspected, was proved by histopathological examination of the sample. The unusual location of the local findings posed a diagnostic challenge. The case history should be significant due to the low number of studies. The special attention should be taken to match the clinical with pathomorphological picture in localised scleroderma diagnosis and treatment when the involvement of skin and oral mucosa is.

Abstract: Synthesizing s-triazine dendrimers are interesting as they can be synthesized easily, contain diversity in composition, and have a basic potential for molecular recognition. Triazine trichloride is the molecule of choice for synthesizing a novel class of dendrimers as it possesses certain remarkable characteristics like the potential to expand the chemical functionality by nucleophilic aromatic substitution reactions at various temperatures to give the desired dendrimer.

Coronavirus disease 2019 (Covid-19), a serious disease caused by the Severe Acute Respiratory Syndrome-Corona Virus-2 (SARS-CoV-2), was firstly identified in the city of Wuhan of China in December 2019, which then spread and became a global issue due to its high transmission rate. To date, the outbreak of COVID-19 has resulted in infection to 230,868,745 people and the death of 4,732,669 patients. It has paralyzed the economy of all the countries worldwide. Considering the possible mutations of SARS-CoV-2, the current medical emergency requires a longer time for drug design and vaccine development. Drug repurposing is a promising option for potent therapeutics against the pandemic. The present review encompasses various drugs or appropriate combinations of already FDA-approved antimalarial, antiviral, anticancer, anti-inflammatory, and antibiotic therapeutic candidates for use in the clinical trials as a ray of hope against COVID-19. It is expected to deliver better clinical and laboratory outcomes of drugs as a prevention strategy for the eradication of the disease.

Abstract: Research for discovering chemical entities with antiproliferative properties to combat globally rising cancer cases has witnessed tremendous interest in recent years. Phenothiazines possess novel antiproliferative potentials and have often be described as crucial sources of scaffolds for anticancer drug discovery. Some several phenothiazine-hybrid compounds recently synthesised are effective against various cancer cell lines with improved multidrug resistance. In synthesising these phenothiazine-derivatives, therapeutic potentials of the phenothiazines are exploited, and they are enriched by molecular hybridisation with moieties known to possess great pharmacological profiles. This article critically reviews the anticancer properties of phenothiazine derivatives and focuses on the possibility of the derivation of the leads for a further spectrum of antiproliferative activities.

Background: The invention of enhanced Raman scattering by adsorbing molecules on nanostructured metal surfaces is a milestone in the development of spectroscopic and analytical techniques. Important experimental and theoretical efforts were geared towards understanding the Surface Enhanced Raman Scattering effect (SERS) and evaluating its significance in a wide range of fields in different types of ultrasensitive sensing applications. Methods: Metal nanoclusters have been widely studied due to their unique structure and individual properties, which place them among single metal atoms and larger nanoparticles. In general, the nanoparticles with a size less than 2 nm is defined as nanoclusters (NCs) and they possess distinct optical properties. In addition, the excited electrons from absorption bands results in the emission of positive luminescence associated to the quantum size effect in which separate energy levels are produced. Results: It is demonstrated that fluorescent based SERS investigations of metal nanoparticles have showed more photostability, high compatibility, and good water solubility, has resulted in high sensitivity, better imaging and sensing experience in the biomedical applications. Conclusion: In the present review, we report recent trends in the synthesis of metal nanoclusters and their applications in biosensing and bio-imaging applications due some benefits including cost-effectiveness, easy synthesis routes and less consumption of sample volumes. Outcomes of this study confirms that SERS based fluorescent nanoclusters could be one of thrust research areas in biochemistry and biomedical engineering.

Organic metal halide perovskite materials have excellent photoelectric properties, and the power conversion efficiency (PCE) of the perovskite solar cells (PSCs) has increased from 3.8% to more than 25%. In the development of PSCs, innovative architectures were being proposed constantly. However, the use of the electron transport layer (ETL) and hole transport layer (HTL) increases manufacturing costs and process complexity. Perovskite material has ambipolar charge transport characteristics, so it could functionalize as both the optical absorption layer and carrier transport layer (CTL). In this review, we analyzed the P/N-type perovskite materials, perovskite P-N homojunction solar cells, and carrier transport layers-free (CTLs-free) devices. Finally, we proposed some innovative device architectures. We hoped that this mini review could pave way for the simplification of the architectures, promote the preparation of the low-cost and high-efficiency devices, and accelerate the commercialization of the PSCs.

MXene presents excellent electrical conductivity, abundant surface functional groups and wonderful film-forming performance, but the lamellar layers are prone to self-stacking during film formation, which will reduce the loss of electromagnetic waves, hinder ion transmission, and limit the effective load of other functional materials. The construction of the porous structure can effectively solve the self-stacking problem of MXene sheets. This article reviews the research progress of MXene porous films for electromagnetic interference (EMI) shielding, lithium/sodium ion batteries, pseudocapacitors, and biomedical science applications. It focuses on the preparation methods of MXene porous films, and discusses the pore-forming mechanism of the porous structure formed by different preparation methods and the internal relationship between the “microstructure-macroscopic performance” of the MXene porous films, points out the key scientific and technical bottlenecks that need to be solved urgently in the preparation and application of the MXene porous films. It is hoped to provide certain guidance for the design, preparation, optimization, industrial application, and development of MXene porous films.

The coronavirus, also known as SARS-CoV-2 (Severe Acute Respiratory Syndrome Corona Virus-19), with its rapid rate of transmission, has progressed with a great impact on respiratory function and mortality worldwide. The nasal cavity is the promising gateway of SARS-CoV-2 to reach the brain via systemic circulatory distribution. Recent reports have revealed that the loss of involuntary process of breathing control into the brainstem that results in death is a signal of neurological involvement. Early neurological symptoms, like loss of smell, convulsions, and ataxia, are the clues of the involvement of the central nervous system that makes the entry of SARS-CoV-2 further fatal and life-threatening, requiring artificial respiration and emergency admission in hospitals. Studies performed on patients infected with SARS-CoV-2 has revealed three-stage involvement of the Central Nervous System (CNS) in the progression of SARS-CoV-2 infection: Direct involvement of CNS with headache, ataxia, dizziness, altered or impaired consciousness, acute stroke or seizures as major symptoms, peripheral involvement with impaired taste, smell, vision, and altered nociception, and skeletal muscle impairment that includes skeletal muscle disorders leading to acute paralysis in a particular area of the body. In the previous era, most studied and researched viruses were beta coronavirus and mouse hepatitis virus, which were studied for acute and chronic encephalitis and Multiple Sclerosis (MS). Although the early symptoms of SARS-CoV are respiratory pathogenesis, the differential diagnosis should always be considered for neurological perspective to stop the mortalities.

Heterocyclic compounds play a vital role in the development of novel compounds because of their diverse pharmacological activities. Thiazine is a six-membered heterocyclic moiety. Various thiazine derivatives were synthesized or isolated from natural sources like plants and animals. Thiazine derivatives have varieties of pharmacological activities such as antimicrobial, antibacterial, antifungal, antiviral, anti-inflammatory, anticoagulant, anticancer, antihypertensive, and other useful biological as well as chemical applications. In the therapy of antimicrobial infections, new antimicrobial agents are needed because current antimicrobials have developed drug resistance. So, we discussed some thiazine derivatives, which exhibited antimicrobial activity.

The over consumption of lipid largely induces the serious obesity problem around the globe. In food products, the vast majority of lipids are present as emulsions wherein the modulation of lipolysis is significant for controlling energy intake. As one of the most commercialized proteins, soy protein inherently owns superior capacity in delaying lipolysis as emulsifier, and its capacity could be remarkably augmented once reconstructed as Pickering-like stabilizers. This mini review concisely summarized the recent advances in the fabrication of soy protein/peptide-based particles with varied physicochemical features, and their performance in controlling lipid digestion in emulsions as well as the mechanism involved was discussed with emphasis, aiming to provide certain guidance for the design of emulsion-based functional foods modulating lipid digestibility.

Severe COVID-19 patients frequently present thrombotic complications which commonly lead to multiorgan failure and increase the risk of death. Severe SARS-CoV-2 infection induces the cytokine storm and is often associated with coagulation dysfunction. D-dimer, a hallmark of venous thromboembolism (VTE), is observed at a higher level in the majority of hospitalized COVID-19 patients. The precise molecular mechanism of the disproportionate effect of SARS-CoV-2 infection on the coagulation system is largely undefined. SARS-CoV-2 –induced endotheliopathy and, induction of cytokines and growth factors (GFs) most likely play important roles in platelet activation, coagulopathy, and VTE. Generally, viral infections lead to systemic inflammation and induction of numerous cytokines and GFs and many of them are reported to be associated with increased VTE. Most importantly, platelets play key thromboinflammatory roles linking coagulation to immune mediators in a variety of infections including response to viral infection. Since the pathomechanism of coagulopathy and VTE in COVID-19 is largely undefined, herein we highlight the association of dysregulated inflammatory cytokines and GFs with thrombotic complications and coagulopathy in COVID-19., Graphical abstract

Purpose To review the role of curcumin in retinal diseases, COVID era, modification of the molecule to improve bioavailability and its future scope. Methods PubMed and MEDLINE searches were pertaining to curcumin, properties of curcumin, curcumin in retinal diseases, curcumin in diabetic retinopathy, curcumin in age-related macular degeneration, curcumin in retinal and choroidal diseases, curcumin in retinitis pigmentosa, curcumin in retinal ischemia reperfusion injury, curcumin in proliferative vitreoretinopathy and curcumin in current COVID era. Results In experimental models, curcumin showed its pleiotropic effects in retinal diseases like diabetic retinopathy by increasing anti-oxidant enzymes, upregulating HO-1, nrf2 and reducing or inhibiting inflammatory mediators, growth factors and by inhibiting proliferation and migration of retinal endothelial cells in a dose-dependent manner in HRPC, HREC and ARPE-19 cells. In age-related macular degeneration, curcumin acts by reducing ROS and inhibiting apoptosis inducing proteins and cellular inflammatory genes and upregulating HO-1, thioredoxin and NQO1. In retinitis pigmentosa, curcumin has been shown to delay structural defects of P23H gene in P23H-rhodopsin transgenic rats. In proliferative vitreoretinopathy, curcumin inhibited the action of EGF in a dose- and time-dependent manner. In retinal ischemia reperfusion injury, curcumin downregulates IL-17, IL-23, NFKB, STAT-3, MCP-1 and JNK. In retinoblastoma, curcumin inhibits proliferation, migration and apoptosis of RBY79 and SO-RB50. Curcumin has already proven its efficacy in inhibiting viral replication, coagulation and cytokine storm in COVID era. Conclusion Curcumin is an easily available spice used traditionally in Indian cooking. The benefits of curcumin are manifold, and large randomized controlled trials are required to study its effects not only in treating retinal diseases in humans but in their prevention too.

Fibre-reinforced polymer (FRP) composites are high-strength fibres inserted in a polymer matrix with a unique interaction across them. Individual elements in these FRPs retain their own chemical and physical identities while combining to form materials with exceptional characteristics. Low density, high tensile strength and high modulus are the main characteristics of FRPcomposites. The main factors that affect load carrying capacity are interfacial bond between matrix and fibre, alignment of fibre in a matrix, and fibres' nature. Here in this review, a comparative account of the significant synthetic and natural fibre as reinforcement for polymer composites as well as methods for enhancing mechanical properties is discussed.

Introduction. Osteonecrosis (ON) of the femoral head (FH) ? (ONFH) is an intractable disease that causes progressive femoral head collapse, severe pain, and gait disturbance. We report a case of avascular necrosis of the femoral head following an occult femoral neck (FN) stress fracture. Case report. A 55-year-old woman presented to our department with a chief complaint of low back pain that radiated into the left anterolateral thigh over the period of two months. Her left anterolateral thigh became progressively more painful over the past two weeks. No abnormal findings indicative of ONFH or an occult fracture of the FN were detected by X-ray or computed tomography, but an occult insufficiency fracture of the left FN was identified on magnetic resonance imaging (MRI). The diagnosis of FN stress fracture was delayed, resulting in femoral head necrosis. The fracture was treated with total hip arthroplasty, and the resected FH was subjected to histopathology (HP). Based on the HP findings, the final diagnosis of this case was ONFH with an occult fracture of the left FN. Clinical symptoms were relieved postoperatively. Conclusion. An early MRI examination is recommended in patients presenting with a suspected stress fracture of the FN to avoid FH necrosis due to a delayed diagnosis.

Although lithium-ion batteries (LIBs) have many advantages, they cannot satisfy the demands of numerous large energy storage industries owing to their high cost, low security, and low resource richness. Aqueous zinc-ion batteries (ZIBs) with low cost, high safety, and high synergistic efficiency have attracted an increasing amount of attention and are considered a promising choice to replace LIBs. However, the existing cathode materials for ZIBs have many shortcomings, such as poor electron and zinc ion conductivity and complex energy storage mechanisms. Thus, it is crucial to identify a cathode material with a stable structure, substantial limit, and suitability for ZIBs. In this review, several typical cathode materials for ZIBs employed in recent years and their detailed energy storage mechanisms are summarized, and various methods to enhance the electrochemical properties of ZIBs are briefly introduced. Finally, the existing problems and expected development directions of ZIBs are discussed.

The Green Synthesis of metal/metal oxide nanoparticles have gained huge attention in recent years due to its increasing applications in various fields and owing to its less usage of chemicals and easy experimental methods. Green Synthesis aims to reduce the usage of toxic chemicals which are replaced by biomolecules from plants which contain terpenoids, aldehydes, vitamins, alkoids, polysaccharides which act like reducing, capping and stabilizing agents for the formation of the desired nanoparticles. Titanium Dioxide nanomaterials are known to have several applications. They are mainly known for photocatalytic activity and numerous functional applications in advanced devices such as photovoltaic cells. They also possess many applications in the fields of Biomedicine and Dentistry. This review signifies the Green technique for the synthesis of Titanium nanoparticles (TiO2-NP’s) using various plant extracts, fungi and bacteria and its applications in Anticancer activities. The common treatment for cancer is chemotherapy, surgery and radiation treatment which have harmful side effects due to insufficiency of targeted drug delivery. This review is focused on TiO2 NPs that are obtained by Green synthesis methods which acts as both drug carriers and in some cases also as drug substitutes for cancer treatment.

The commercialization of proton exchange membrane fuel cells (PEMFCs) could provide a cleaner energy society in the near future. However, the sluggish reaction kinetics and harsh conditions of the oxygen reduction reaction affect the durability and cost of PEMFCs. Most previous reports on Pt-based electrocatalyst designs have focused more on improving their activity; however, with the commercialization of PEMFCs, durability has received increasing attention. In-depth insight into the structural evolution of Pt-based electrocatalysts throughout their lifecycle can contribute to further optimization of their activity and durability. The development of in situ electron microscopy and other in situ techniques has promoted the elucidation of the evolution mechanism. This mini review highlights recent advances in the structural evolution of Pt-based electrocatalysts. The mechanisms are adequately discussed, and some methods to inhibit or exploit the structural evolution of the catalysts are also briefly reviewed.

A scoping review was performed to answer: what environmental health concerns have been associated with adverse health outcomes in the Navajo Nation? The review focused on occupational and ambient environmental exposures associated with human industrial activities. The search strategy was implemented in PubMed, and two investigators screened the retrieved literature. Thirteen studies were included for review. Data were extracted using the matrix method. Six studies described associations between work in uranium mining and cancer. Six studies focused on environmental exposures to uranium mine waste and other metals, with outcomes that included biological markers, kidney disease, diabetes and hypertension, and adverse birth outcomes. One study explored occupational exposure to Sin Nombre Virus and infection. Most research has focused on the health effects of uranium, where occupational exposures occurred among miners and environmental exposures are a legacy of uranium mining and milling. Gaps exist with respect to health outcomes associated with current occupations and the psychosocial impact of environmental hazards. Other environmental exposures and hazards are known to exist on the Navajo Nation, which may warrant epidemiologic research.

Breast cancer is the most common form of malignant tumor in females, accounting for the second highest mortality among cancer patients. In the breast tumor microenvironment, tumor‐associated macrophages (TAMs) are the most abundant immune cells, which regulate the progression of breast cancer. During breast cancer tumorigenesis and progression, TAMs support breast tumor growth by promoting angiogenesis and cancer cell metastasis, inducing cancer stemness, regulating energy metabolism, and supporting immune system suppression. TAMs exhibit a high degree of cellular plasticity. Repolarizing tumor‐related macrophages into M1 macrophages can promote tumor regression. This study reviews the role and mechanism of action of TAMs in the development of breast cancer and establishes TAMs as effective targets for breast cancer treatment., TAMs support the progression of breast cancer by promoting tumor cell invasion and metastasis, angiogenesis, cancer stemness, regulating energy metabolism, and modulating T cell activity.

The increasing danger of methicillin-resistant Staphylococcus aureus (MRSA) and the limited therapeutic options for invasive MRSA infections make an urgent demand for the development of novel anti-MRSA agents. Oxazolidinone derivatives could inhibit protein synthesis by acting on the ribosomal 50S subunit of the bacteria and prevent the formation of a functional 70S initiation complex, so oxazolidinones are a novel class of antimicrobial agents with potential activity against a wide range of clinically significant multidrug-resistant Gram-positive pathogens. However, oxazolidinones such as linezolid are associated with significant adverse events, and myelosuppression represents the main unfavorable side effects. Moreover, MRSA isolates that are resistant to oxazolidinones have already emerged. Hybridization of oxazolidinone with other antibacterial pharmacophores has the potential to interact with multiple targets or to counterbalance the known side effects associated with each pharmacophore. Thus, oxazolidinone-containing hybrids are useful scaffolds for the development of novel anti-MRSA agents. This review covers the recent advances of oxazolidinonecontaining hybrids with anti-MRSA activity developed in the last decade to set up the direction for the design and development of oxazolidinone-containing hybrids with high efficiency and low toxicity.

Disparities exist in both breast cancer outcomes and treatment delays. Breast cancer treatment delays are multifactorial and lead to decreased survival rates and lower quality of life.

As the lifespan increases, special attention has been given to the supportive care needs of the elderly. Frailty is an important issue in third age, since it is related to poor quality of life and mortality. The prevalence of pathological conditions related to sodium levels, specifically hyponatremia, is also present in the elderly. Yet, it is unclear, if hyponatremia and frailty are related to each other. This review summarizes the current state of knowledge regarding hyponatremia and frailty and analyzes five independent studies which searched for an association between those two parameters. As indicated by this study results, hyponatremia consists a risk factor for frailty. This could be explained by an effect of hyponatremia on sarcopenia and on cognitive function, which consist components of frailty. Thus, it is essential to monitor sodium levels in the elderly and to develop related interventions (e.g. using arginine vasopressin antagonists) in order to prevent frailty.

Heterocyclic compounds are important because they have almost all types of pharmacological properties. Due to these properties of heterocyclic compounds, they attracted the researchers for the development of more effective newer drug molecules. In this review, we are focused on benzothiazole and its derivatives, which are used for the synthesis of various biologically active molecules. Benzothiazole derivatives have been possessed the various type of pharmacological activities like antimicrobial, anti-inflammatory, analgesic, anticonvulsant, antiviral, anthelmintic, antioxidant, anticancer, and other anticipated activities. Hence, structural alterations have resulted in different benzothiazole derivatives that illustrated a wide variety of pharmacological activities.

Erlotinib is a tyrosine kinase inhibitor and it can treat tumors, such as pancreatic and locally advanced lung cancer or metastatic cancer. The traditional formulation of erlotinib currently available is an oral delivery type that presents serious side effects such as hepatotoxicity, skin rashes, gastrointestinal disturbance, renal dysfunction, drug resistance and hematological symptoms. Besides this, other disadvantages of erlotinib provided mostly by oral administration are the comprehensive metabolism, low bioavailability, poor solubility and off-target impact. Overcoming such unfavorable attributes of the medication, innovative medication delivery mechanisms like nanocapsules, liposomes, microspheres, microparticles solid lipid nanoparticles, nanosponge, and nanoparticles have been studied that have really shown their lead over traditional formulations. This article summarizes the novel erlotinib drug delivery systems to boost its clinical efficacy and reduce systemic toxicity. Novel formulations of erlotinib will offer positive outcomes in cancer therapy and will play an important part in improving the drug's therapeutic potential.

The use of PLGA in the pharmaceutical industry has only increased as we move towards more and more advanced delivery carrier systems. The qualities of PLGA like biocompatibility, biodegradability and a tunable degradation and drug release has only helped in keeping up the release requirements desired for various delivery platforms. Fine-tuning the release and degradation rate is gaining more and more attention as researchers keep pushing the boundaries of novel delivery carriers. Various experiments are being performed to understand the degradation behavior of PLGA under various physiological and process-related conditions. The understanding of these parameters has helped formulate various ways in which one can fine-tune the properties that can lead to the release of active ingredients encapsulated within. Various techniques have been tried and tested including changes like chemical modification, physical blending and surface modifications and have found to be effective means of release modulation in delivery systems like parenteral, orals, topicals and tissue engineering scaffolds. In this review, all these experiments and implications thereon have been discussed in detail.

The sustainable development of the chemical industry requires novel and efficient catalysts and catalytic processes, especially eco-friendly and intrinsically safe processes. The idea is to improve the selectivity, activity, and stability of the catalyst in an appropriate reactor. Therefore, it is of great academic and industrial significance to conduct in-situ characterization of a working catalyst while testing its catalytic performance. This is beneficial for a comprehensive study on the dynamic evolution of the catalyst structure under real conditions, deepening the understanding of the structure-performance relationship of catalysts, and providing a scientific basis for the development of future generation catalytic technology. Thus far, it is still a great challenge to realize full life cycle characterization of heterogeneous catalysts from catalyst formation and function to deactivation under real world conditions. In this mini review, we summarize the characterization strategies for heterogeneous catalysts, using zeolite, metal, and metal oxide catalysts as typical examples. The research strategies for the approximation of industrial conditions, multi-scale in-situ characterization devices, and computational modeling of realistic conditions should provide insight for the research and development of industrial catalysis.

Deep eutectic solvents (DESs) have received widespread attention for their advantages of good electrical conductivity, stability, environmental friendliness, and easy preparation with a wide range of applications. However, it was not until recent years that DESs were used as gel electrolytes as environmentally friendly alternatives to ionic liquids (ILs). In this mini review, we first introduce the DESs related eutectogels (or ion gels), then introduce the types and applications of the gels, the opportunities and challenges of them are also summarized.

The applications of medicinal plant species for diverse therapeutic effects are well documented throughout the world. In recent times, the screening of higher plants for unique biologically active compounds, particularly those with pronounced therapeutic potency, has received the interest of the science community. A wound is a loss or break in the anatomic stability of active tissue. It not only poses a physical and mental threat to zillions of people but could cause the failure of multiple organs, amputation, and even death. Therefore, thousands of plants have been screened to obtain active metabolites or compounds that can accelerate the process of restoring the damaged tissue structure and inhibit the probability of infections. Due to the severity of wounds to the human body, it is essential to explore safe, economical, and environmentally friendly therapeutics from nature. This review aims to conduct a comprehensive search of medicinal herbs to uncover their therapeutic potential, identify gaping holes, and assess future research prospects that could lead to the discovery of novel pharmacophores. Thus, the review is tailored towards the appraisals of phytotherapeutic mechanism and wound healing efficacy of medicinal plants, which will help spur future research and improve our current knowledge leading to the unearthing of novel and potent pharmacophores with pronounced wound healing potentials. Several medicinal plants with scientifically proven wound-healing activities are reported and discussed alongside phytochemicals present their various extracts and isolates. The achievable wound-healing closure rate of each plant was also reported with a focus on what is responsible for the healing rate.

The aim of this study is to report the Biology of Sarcophagidae. The mini review consists of bibliographical research on the muscoid dipterans (Muscomorpha) (Order: Diptera). The research was carried out in studies related to quantitative aspects of the Family and Species (taxonomic groups) and in conceptual aspects such as: geographic distribution, biology, traps, life cycle, vector of bacteria and importance in Forensic Entomology. A literature search was carried out containing articles published from 1971 to 2021. The mini review was prepared in Goiânia, Goiás, from August to September 2021, through the Online Scientific Library (Scielo), internet, ResearchGate, Academia.edu, Frontiers, Publons, Qeios and Portal of Scientific Journals in Health Sciences, https://goo.gl/gLTTTs and https://www.growkudos.com/register.

This mini review presents a series of experiments in which light acts on two general phenomena: isomerization reactions and photoluminescence. The experiments described using the reversible photoactive molecular switch spiropyrane/merocyanine, is suited to teach fundamental concepts of photochemistry as well as to introduce innovative applications related to smart materials, molecular motors and logic gates.

Standard laboratory diets used have similar concentrations of proteins, carbohydrates and fat, but the concentration of some micronutrients can vary considerably. For example, the concentration of isoflavones can vary between 20 mg and 600 mg per gram of diet. Exposure to different concentrations of isoflavones interacts with alcohol (EtOH) intake, thereby influencing the results of alcohol research. In this mini-review, we describe correlations between isoflavone concentrations and alcohol intake based on data from previously published work. Although the administration of low doses of isoflavones can decrease alcohol intake in rats, there is a positive correlation between the isoflavone content in diets and alcohol intake in mice. This interaction seems to depend on the dose, route of administration, and time of exposure to isoflavones and may be related to specific neurobiological mechanisms. The literature also indicates that isoflavones can interact with some of alcohol's molecular targets and with neural pathways crucial to the alcohol reward process. Given these findings, more attention should be given to the different types of laboratory diets used in alcohol studies to allow better comparison and replication of animal research.

With the development of phytoremediation technology, “phytomining” or “agromining”, a new technology that extract valuable metals (such as nickel, gold, and rare earth elements) with hyperaccumulators or crops from lean ore or metal-rich soil, has gradually attracted the attention of academic and commercial fields. It’s no doubt that the conventional mining techniques are uneconomical for lean ore mining and metal-rich soil treatment. Therefore, phytomining technology is expected to be environmentally and economic benefits technology to solve the increasingly scarce metal resources because it can harvest metal and recover biomass energy. This paper aims to critically review the literature on phytomining techniques and their current challenges, hyperaccumulator plant species of nickel, gold, and rare earth elements. The efforts have also been made to summarize the factors affecting the economic benefit of phytomining and improvement measures. The review concludes that phytomining offers the possibility of economically mining metal from lean ore and contaminated soil; however, its commercial viability is limited in the current scenario. In the end, efforts have been made to highlight contemporary challenges including research gaps and future perspectives in improving its commercial viability.

Objective of the review is to explore the role of angiopoietin like 3 protein (ANGPTL3) as a risk factor for cardiovascular disease. ANGPTL3 (human), one member of the angiopoietin-like protein (ANGPTL) family, has been identified as an important regulator of lipid metabolism. Dyslipidemia, characterized by elevation of plasma low density lipoprotein cholesterol (LDL-C), triglyceride (TG) and reduction of plasma high density lipoprotein cholesterol (HDL-C), has been verified as a causal risk factor for cardiovascular diseases (CVD), leading to a high mortality rate in general population. There may be an association between ANGPTL3, dyslipidemia, diabetes and cardiovascular risk.

Summary NSP (non-starch polysaccharides) are a large group of compounds, which vary greatly in their chemical structure and properties. They are linked with the use of some of the alternative proteins or energy feed ingredients in broiler nutrition. Exogenous enzymes which act on NSP are sometimes in broiler production with the purpose of increasing digestibility of nutrients and consequently increasing broiler performance in production. This paper will attempt to review changes occurring in the digestive tract as a result of the use of feed with NSP soluble and insoluble in water, and the effect of NSPase on them, in terms of how an animal organism is burdened or helped to overcome the problems.

Silver nanoparticles vary in size from 1 to 100 nm. These have unique properties that assists in molecular diagnostics, therapies, and devices used in many medical procedures. The most popular methods for making silver nanoparticles are physical and chemical approaches. Chemical and physical methods are troublesome because synthesis is expensive. The biological approach is a feasible alternative one. The major biological processes involved are bacteria, fungi, and plant extracts. Silver nanoparticles are mainly used in diagnostic and therapeutic applications in medicine. Their medical uses rely on the antimicrobial property, while the anti-inflammatory property has its own range of applications. Silver nanoparticles are used in a number of medical therapies and instruments, as well as in a variety of biological sciences. This article focuses on chemical and biological techniques for synthesizing AgNPs, which will subsequently be utilized to coat socks materials, testing antimicrobial activity and comparing the ability of these coated fabrics to minimize infections.

The aim of this study was to draw attention to the possible consequences of improper, unhygienic use of mouth and nose covers in the context of prophylaxis against the spread of COVID-19 from the point of view of a family physician and focus on the risk of respiratory infections and skin lesions in patients, in different age groups. The use of protective masks may reduce the likelihood of infection but will not eliminate the risk of infection. However, it should be remembered that any mask, no matter how effective the filtration is or how well it seals, will have little effect if not used in conjunction with other preventive measures, including isolation of infected people, immunization, proper respiratory culture, regular, frequent replacement of masks, and hand hygiene. Additionally, certain risks associated with this form of prophylaxis should be taken into account, which, unfortunately, may also aggravate or even constitute a source of serious respiratory infections and lead to the development and aggravation of skin problems. Moreover, educating society not only on hand hygiene but also on the topic of the value of nose and mouth covers, as well as the frequency of their replacement and/or disinfection, is becoming a significant issue.

Winning the Top 500 World Brands in 2018, Tesla is working hard to cover a variety of categories including high-end sports cars and luxury cars. As a leader in the "new car movement", Tesla from Silicon Valley is committed to building cars with IT concepts, and it is not a traditional car manufacturer's thinking represented by Detroit. This paper undertakes a full marketing audit to evaluate Tesla’s strengths, weaknesses, opportunities and threats to many other car manufacturers using PEST, SWOT and USP models. Based on the above issues, the business process of external supply chain management is proposed: information-technology outreach, upstream management of docking, overall coordination and co-existence, and analysis of node elements and evaluation schemes are feasible. Besides, the recent accidents regarding the brake caliper bolts failure, battery charging, and pilot driving are also mentioned in this review. Corresponding recommendations are also provided for the improvement of moral images in the end.

How to effectively bring leadership to bear in teamwork as a leader is something that requires constant reflection. This is also the case in the sports industry. Based on the author's understanding of leadership theory for the application of leadership, leadership is not a separate field, but requires a continuous integration of multiple disciplines. Or more precisely, leadership for sustainability – is not a separate school of leadership thought, but a particular blend of leadership characteristics applied within a definitive context. The Cambridge University Sustainability Leadership Institute offers a definition of sustainability leaders suggesting they are individuals who are compelled to make a difference by deepening their awareness of themselves in relation to the world around them. In doing so, they adopt new ways of seeing, thinking and interacting that result in innovative sustainable solutions. This would suggest that sustainability leadership is implicitly about creating change. The purpose of this study is to describe, critically analyse, two challenges faced by leaders in the sports business and management industry. The two greatest challenges for leaders in sports business and management, are that they are caught up with the risks of failure, rather than the requirements of success, Plus they are only concerned with getting rid of the things that bind them that they don't want. Instead of expanding what could be helpful for them. This study uses a case study approach to analyses and illustrate in detail the leadership challenges in the sports industry, ultimately using the sports industry as a small point to reflect in a diffuse manner that as a leader, one must be brave and positive when faced with challenges and constantly change to seize opportunities, thus demonstrating the continued significance and transformational appeal of sustainable leadership. This paper discusses in depth and ultimately concludes that for leaders facing challenges, they should not be afraid of them, but should seize them as an opportunity to improve themselves and make what may be a weak predicament into a strong strength in themselves. Turning weaknesses into strengths and developing yourself as a leader with advantages.

Although playing an important role in shaping the environment, the mechanisms responsible for runoff initiation and yield in arid and semiarid regions are not yet fully explored. With infiltration-excess overland flow, known also as Hortonian overland flow (HOF) taking place in these areas, the uppermost surface ‘skin’ plays a cardinal role in runoff initiation and yield. Over large areas, this skin is composed of biocrusts, a variety of autotrophs (principally cyanobacteria, green algae, lichens, mosses) accompanied by heterotrophs (such as fungi, bacteria, archaea), which may largely dictate the infiltration capability of the surface. With most biocrust organisms being capable of excreting extracellular polymeric substances (EPS or exopolymers), and growing evidence pointing to the capability of certain EPS to partially seal the surface, EPS may play a cardinal role in hindering infiltration and triggering HOF. Yet, despite this logic thread, great controversy still exists regarding the main mechanisms responsible for runoff generation (runoff initiation and yield). Elucidation of the possible role played by EPS in runoff generation is the focus of the current review.

The study aims to determine the drug therapy of any disease to attain the desired therapeutic concentration of the drug in plasma or at the site of action and maintain it for the entire duration of treatment. A drug on being used in conventional dosage forms leads to unavoidable fluctuations in the drug concentration leading to under medication or overmedication and increased frequency of dose administration as well as poor patient compliance. To minimize drug degradation and loss, to prevent harmful side effects and to increase drug bioavailability various drug delivery and targeting systems are currently under development. Handling the treatment of severe disease conditions has necessitated the development of innovative ideas to modify drug delivery techniques. Drug carrier systems include polymers, micelles, microcapsules, Liposomes and lipoproteins etc. Different polymer carriers exert different effects on drug delivery. Synthetic polymers are usually no biocompatible, non-biodegradable and expensive. Natural polymers such as chitin and chitosan are devoid of such problems. Chitosan is a biocompatible, biodegradable, and nontoxic natural polymer with excellent film-forming ability. Being of cationic character, chitosan is able to react with polyamines giving rise to polyelectrolyte complexes. Hence chitosan has become a promising natural polymer for the preparation of microspheres or nanospheres and microcapsules. This review focuses on the preparation, characterization of chitosan microspheres and their role in novel drug delivery systems. This review also aims to include the process variables factors that affect the release of drugs from the microspheres.

Microalgae have several applications in nutraceuticals, pharmaceuticals, cosmetics, biofuel production, and bioremediation, among other fields. Isolation and purification are extremely important for obtaining axenic cultures of microalgae from different environments and crucial for their biotechnological applications, but it is not an easy task. In view of the above, it is fundamental to know the classical and advanced techniques and examples of how scientists from around the globe have applied such methods to isolate several genera and the impact of each step on successful algal purification. This review provides a brief and simple explanation of the methodology for sampling, growth, obtention of unialgal, and posterior axenic culture, which will facilitate the development of novel microalgae-related discoveries and applications for new researchers.

Bone regeneration is complex physiological process, which include the most common form of regeneration - bone fracture healing and new bone formation. Moreover, large bone defects, infections and bone diseases such as osteoporosis and arthritis can impair bone regeneration. Despite intensive research and development of biomaterials for bone tissue engineering, especially for osteoporotic bone healing, the properties of the fabricated biomaterials are still far from those of unique composite structure of natural bone and desired therapeutic effect not achieved. This mini-review will highlight the various cutting-edge injectable inorganic-organic biocomposites as minimally invasive and regenerative therapeutics for bone tissue regeneration. The review will summarize the main strategic tools for the development of injectable biocomposites: natural or synthetic biopolymer-based hydrogels, bioactive inorganic fillers and biologically active components, as well as the fabrication techniques and synthesis methods.