Infectious disease research is well-funded ecosystem focused on pandemic preparedness, antiviral/vaccine development, and combating endemic threats like dengue and antimicrobial resistance (AMR). Key institutions include the National Centre for Infectious Diseases (NCID), and the Communicable Diseases Agency (CDA), which coordinate clinical studies, molecular research, and surveillance. π Visit: https://infectious-diseases-conferences.pencis.com π Nominate Now: https://infectious-diseases-conferences.pencis.com/award-nomination/?ecategory=Awards&rcategory=Awardee π Register: https://infectious-diseases-conferences.pencis.com/award-registration/ π© Contact: infectioussupport@pencis.com Follow Us On: Instagram: https://www.instagram.com/infectious_... Twitter (X): https://x.com/skyla00827177 Blogger: https://infectious2021.blogspot.com/ LinkedIn: https://www.linkedin.com/in/infectiou... facebook : https://www.facebook.com/profile.php?... Tumblr : https://www.tumblr.com/infectiousconferences Pinterest : https://in.pinterest.com/infectiousconferences/
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Thursday, June 11, 2026
36th Edition of Infectious Summit | 28–29 June 2026 | Bangkok,Thailand
Infectious disease research in Bangkok,Thailand is a robust, well-funded ecosystem focused on pandemic preparedness, antiviral/vaccine development, and combating endemic threats like dengue and antimicrobial resistance (AMR). Key institutions include the National Centre for Infectious Diseases (NCID), and the Communicable Diseases Agency (CDA), which coordinate clinical studies, molecular research, and surveillance. π Visit: https://infectious-diseases-conferences.pencis.com π Nominate Now: https://infectious-diseases-conferences.pencis.com/award-nomination/?ecategory=Awards&rcategory=Awardee π Register: https://infectious-diseases-conferences.pencis.com/award-registration/ π© Contact: infectioussupport@pencis.com Follow Us On: Instagram: https://www.instagram.com/infectious_... Twitter (X): https://x.com/skyla00827177 Blogger: https://infectious2021.blogspot.com/ LinkedIn: https://www.linkedin.com/in/infectiou... facebook : https://www.facebook.com/profile.php?... Tumblr : https://www.tumblr.com/infectiousconferences Pinterest : https://in.pinterest.com/infectiousconferences/
Thursday, April 9, 2026
π¦ Oita Virus Rediscovery: A Silent Viral Comeback After 50 Years
π¬ 1. Historical Background
The Oita virus (OITV), a member of the Ledantevirus genus within the Rhabdoviridae family, was first isolated in 1972 from the blood of the Japanese horseshoe bat (Rhinolophus cornutus) in Oita Prefecture, Japan . For decades, this virus remained undetected, creating a scientific mystery around its ecological persistence and evolutionary trajectory.
𧬠2. Rediscovery After Half a Century
After nearly 50 years of silence, researchers successfully isolated new strains (OITV 321/2022 and 326/2022) from bat oral swabs in southern Japan. Remarkably, these strains showed over 98% genetic similarity with the original 1972 isolate, indicating extraordinary genetic conservation over time . This discovery highlights the long-term stability of certain bat-associated viruses.
π§« 3. Genetic Stability & Evolutionary Insights
- High nucleotide identity (>98%) suggests minimal mutation across decades
- Phylogenetic analysis confirms classification within Ledantevirus subgroup C
- Indicates slow evolutionary drift, possibly due to stable host-virus interactions
This genetic conservation provides a rare window into viral evolution, suggesting that some bat viruses maintain equilibrium without significant genomic changes.
π¦ 4. Host Range & Cellular Infection
Laboratory studies revealed that OITV can infect:
- π§ Human-derived cells
- π Rodent and primate cells
- π¦ Bat cell lines
However, it showed no replication in insect cells, indicating a mammalian host preference . This broad host tropism raises concerns about potential cross-species transmission.
π¬️ 5. Transmission Dynamics
Unlike the original blood-derived isolate, the new strains were recovered from oral swabs, suggesting:
- Possible respiratory transmission pathways
- Circulation among bats via aerosols or saliva exchange
This shift in detection method signals evolving viral ecology and transmission strategies.
π§ͺ 6. Pathogenicity & Experimental Findings
Animal model experiments showed:
- No obvious clinical symptoms in infected mice
- Evidence of viral replication in brain and lungs
- Transient pulmonary infection via intranasal exposure
These findings suggest a low-pathogenic but systemically capable virus, potentially underdiagnosed in natural settings.
π 7. Zoonotic Significance & Public Health
Bats are well-known reservoirs of emerging viruses, often carrying pathogens without symptoms . The ability of OITV to replicate in human cells emphasizes its potential zoonotic risk, although no human infections have yet been confirmed.
π¨ 8. Future Perspectives & Surveillance
- The necessity of continuous viral surveillance in bat populations
- The necessity of studying the spillover potential into humans
- The importance of genomic monitoring for emerging variants
✨ Conclusion
The rediscovery of Oita virus after 50 years unveils a fascinating story of viral persistence, genetic stability, and hidden ecological circulation. It underscores the critical importance of wildlife virology in predicting and preventing future infectious disease threats π§¬π.
π¦ After five decades, the elusive Oita virus resurfaces from bat reservoirs in southern Japan, revealing striking genetic conservation. 𧬠This rediscovery illuminates viral persistence, zoonotic potential, and evolutionary stability, sparking renewed surveillance and research urgency. π¬ Scientists decode its secrets to better anticipate emerging infectious threats and strengthen global preparedness and resilience.
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Wednesday, April 8, 2026
𧬠Comprehensive E2 Gene-Based Phylogeny of Classical Swine Fever Virus (CSFV)
The study of E2 gene-based phylogeny provides a powerful lens to understand the evolutionary dynamics of Classical Swine Fever Virus (CSFV) ππ¦ . The E2 glycoprotein, a major structural and immunogenic component, plays a crucial role in viral entry and host immune response. By analyzing variations in the E2 gene, researchers can trace viral lineage diversification, identify emerging strains, and refine the global genotype classification system ππ¬. This approach enhances our understanding of viral transmission patterns and supports effective disease control strategies.
π 1. Importance of the E2 Gene in CSFV Evolution
The E2 gene is highly variable and serves as a molecular marker for phylogenetic analysis π§ͺ. Its genetic diversity reflects evolutionary pressure, immune escape mechanisms, and host adaptation. Studying E2 sequences enables scientists to distinguish between closely related strains and monitor viral evolution in real-time ⏳.
π 2. Emerging Lineages and Genetic Diversity
Recent phylogenetic studies have uncovered new and previously unrecognized CSFV lineages π¨. These emerging variants highlight the continuous evolution of the virus due to mutation, recombination, and geographical spread. Understanding these lineages is essential for predicting outbreaks and improving surveillance systems π.
π§ 3. Refining the Global Genotype Framework
Traditional CSFV classification divided strains into a limited number of genotypes. However, E2 gene-based phylogeny has enabled a more refined and detailed genotype framework π. This updated classification improves accuracy in identifying virus origins, tracking cross-border transmission, and designing targeted interventions π.
π‘️ 4. Implications for Vaccine Development and Control
The identification of diverse E2 variants directly impacts vaccine efficacy π. Vaccines developed against older genotypes may show reduced protection against emerging strains. Therefore, continuous phylogenetic monitoring supports the development of updated vaccines and helps implement region-specific control measures π§.
π 5. Applications in Epidemiology and Disease Surveillance
E2-based phylogenetic analysis is widely used in molecular epidemiology π. It assists in outbreak investigations, tracing infection sources, and understanding transmission networks. This information is vital for policymakers and veterinary health authorities to design effective prevention strategies π₯.
✨ Conclusion
Comprehensive E2 gene-based phylogeny is a cornerstone in modern CSFV research, revealing hidden evolutionary patterns and strengthening global genotype frameworks. It not only deepens scientific understanding but also plays a pivotal role in disease control, vaccine innovation, and global food security πΎπ·.
Tuesday, February 10, 2026
Biogenic Copper-Based Nanoparticles: Emerging Antimicrobial Agents Against Pathogenic Microorganisms | Nanomedicine & Infection Control #researchawards
Introduction
Biogenic copper-based nanoparticles (CuNPs) have emerged as promising antimicrobial agents due to their potent activity and environmentally sustainable synthesis routes. Green synthesis approaches utilize plants, microorganisms, and biological wastes, where phytochemicals, enzymes, and proteins act as natural reducing and stabilizing agents. These processes avoid toxic chemicals, operate under mild conditions, and yield nanoparticles typically smaller than 100 nm with bioactive surface coatings. Such features not only enhance antimicrobial performance but also align with global demands for eco-friendly nanotechnologies in healthcare, agriculture, aquaculture, and food safety.
Green Synthesis Strategies and Biological Control of Nanoparticle Properties
Biological systems play a decisive role in governing the morphology, size, crystallinity, and stability of copper-based nanoparticles. Plant extracts rich in polyphenols, flavonoids, and terpenoids enable rapid reduction and effective capping, while bacteria, fungi, and algae provide enzymatic and protein-mediated pathways for controlled nanoparticle formation. The choice of biological source, extraction method, and reaction parameters strongly influences nanoparticle uniformity, dispersibility, and long-term stability, directly impacting antimicrobial efficiency.
Antimicrobial Mechanisms of Biogenic Copper-Based Nanoparticles
The antimicrobial activity of biogenic CuNPs arises from multiple interconnected mechanisms. These include the generation of reactive oxygen species (ROS), sustained release of Cu²⁺ ions, disruption of microbial cell membranes, and interference with enzymatic, metabolic, and genetic processes. Surface-bound biomolecules from green synthesis further enhance microbial interaction and biofilm penetration, enabling broad-spectrum activity against Gram-positive and Gram-negative bacteria, fungi, and resistant microbial communities.
Monometallic versus Hybrid Copper-Based Nanoparticle Systems
While monometallic Cu and CuO nanoparticles exhibit strong antimicrobial properties, hybrid systems such as Ag–Cu, Zn–CuO, and CuS nanoparticles demonstrate enhanced efficacy through synergistic effects. These hybrids integrate redox activity, ion release, and in some cases photothermal or photocatalytic mechanisms, leading to improved microbial killing at lower doses. Comparative studies highlight the potential of hybrid systems to overcome antimicrobial resistance and expand functional applications.
Applications in Medicine, Agriculture, Aquaculture, and Food Safety
Biogenic copper-based nanoparticles have found diverse applications due to their antimicrobial versatility. In medicine, they are incorporated into wound dressings, implants, and antimicrobial coatings. In agriculture and aquaculture, they support sustainable crop protection and disease management by reducing reliance on chemical pesticides and antibiotics. In food safety and packaging, CuNPs help inhibit spoilage and pathogenic microorganisms, extending shelf life while maintaining eco-friendly standards.
Toxicity, Challenges, and Future Directions
Despite their benefits, the toxicity of biogenic CuNPs is highly context-dependent, influenced by size, shape, surface chemistry, capping agents, concentration, and exposure conditions. Poorly capped or ultra-small nanoparticles may induce cytotoxicity, hemolysis, developmental defects, or growth inhibition, whereas appropriate functionalization improves biocompatibility and selectivity. Future research must focus on standardized physicochemical characterization, harmonized toxicity testing, and mechanistic studies to enable safe translation, regulatory approval, and responsible commercialization of biogenic copper-based nanomaterials.
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#CopperNanoparticles, #GreenNanotechnology, #BiogenicNanoparticles, #AntimicrobialNanomaterials, #SustainableSynthesis, #NanoMedicine, #AgriculturalNanotech, #AquacultureHealth, #FoodSafetyNanotech, #HybridNanoparticles, #CuONanoparticles, #ROSMechanism, #BiofilmControl, #EcoFriendlyMaterials, #Nanotoxicology, #RegulatoryNanotech, #PlantMediatedSynthesis, #MicrobialNanoparticles, #NanoparticleCharacterization, #FutureNanotechnology,
Monday, February 9, 2026
Phenotypic & Molecular Insights into Carbapenem-Resistant E. coli in Retail Meats | Thailand Study #pencis #researchawards
Introduction
Carbapenem-resistant Escherichia coli (CREC) has emerged as a critical public health concern due to its resistance to last-resort antibiotics and its increasing detection outside hospital settings. The presence of CREC in retail meats represents a potential pathway for transmission of antimicrobial resistance from food-producing animals to humans. Understanding the occurrence, resistance mechanisms, and genetic characteristics of CREC in food sources is essential for risk assessment and the development of effective surveillance and control strategies, particularly in regions where antimicrobial use in animal production is common.
Prevalence of Carbapenem-Non-Susceptible E. coli in Retail Meats
The investigation demonstrated a high prevalence of presumptive carbapenem-non-susceptible E. coli (CNSEC) in retail meat samples, with beef showing the highest contamination rate. The large proportion of CNSEC isolates subsequently confirmed as CREC highlights retail meat as a significant reservoir of carbapenem-resistant bacteria. These findings suggest that the food chain may play an underrecognized role in the dissemination of carbapenem resistance, emphasizing the need for systematic monitoring of antimicrobial resistance in meat products.
Phenotypic Antimicrobial Resistance Profiles
Phenotypic susceptibility testing revealed that a substantial proportion of isolates exhibited resistance to both imipenem and meropenem, confirming their classification as CREC. The high level of resistance observed across different meat types underscores the limited therapeutic options available for infections caused by these strains. Such phenotypic resistance patterns also raise concerns about selective pressure from antimicrobial use in livestock, which may contribute to the maintenance and spread of highly resistant E. coli populations.
Molecular Detection of Carbapenemase Genes
Molecular analysis showed that only a small percentage of CREC isolates carried carbapenemase genes, predominantly the blaNDM gene, with one isolate also harboring blaVIM. Although the prevalence of these genes was low, their presence is alarming because blaNDM is associated with rapid global dissemination and high-level resistance. The detection of these genes in food-associated isolates indicates the potential for horizontal gene transfer and highlights the importance of molecular surveillance alongside phenotypic testing.
Virulence Factors and Phylogenetic Characteristics
All carbapenemase-positive CREC isolates carried the fimH gene, a key adhesion factor involved in colonization, but lacked other major virulence determinants. Phylogenetic analysis classified these isolates within Group D, which is often associated with extraintestinal pathogenic E. coli. This combination of antimicrobial resistance and phylogenetic background suggests that even isolates with limited virulence gene profiles may still pose a risk if they acquire additional pathogenic traits or are transmitted to vulnerable populations.
Public Health Implications and Research Perspectives
The identification of CREC carrying clinically important resistance genes in retail meats has significant implications for food safety and public health. These findings reinforce the need for a One Health approach integrating human, animal, and environmental surveillance of antimicrobial resistance. Future research should focus on tracking transmission pathways, assessing the role of food handling and preparation practices, and evaluating interventions to reduce the emergence and spread of carbapenem-resistant bacteria within the food supply chain.
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#CarbapenemResistance, #CREC, #AntimicrobialResistance, #FoodSafetyResearch, #OneHealth, #EscherichiaColi, #RetailMeatSurveillance, #blaNDM, #CarbapenemaseGenes, #MolecularEpidemiology, #PublicHealthMicrobiology, #ZoonoticRisk, #AMRResearch, #PhylogeneticAnalysis, #VirulenceFactors, #FoodbornePathogens, #GlobalHealthThreat, #ThailandResearch, #ClinicalMicrobiology, #InfectiousDiseaseResearch,
Wednesday, February 4, 2026
Mucocutaneous Eruption Children | Mycoplasma pneumoniae Clinical & Immunological #researchawards
Introduction
Reactive infectious mucocutaneous eruption (RIME) is an emerging pediatric mucocutaneous syndrome characterized by prominent mucositis with limited or absent skin involvement and an infectious, rather than drug-induced, etiology. First distinguished from Stevens–Johnson syndrome (SJS), RIME poses diagnostic challenges due to overlapping clinical features. Mycoplasma pneumoniae is the most frequently implicated pathogen, particularly in children, where recognition is critical to avoid misdiagnosis and inappropriate management. Understanding RIME as a distinct clinical entity has significant implications for diagnosis, treatment, and prognosis in pediatric infectious diseases and dermatology research.
Etiopathogenesis and Infectious Triggers
Current evidence highlights M. pneumoniae as the predominant trigger of RIME, with pathogenesis believed to involve immune-mediated mechanisms rather than direct pathogen invasion. Molecular mimicry and immune complex formation are hypothesized contributors to mucosal injury. Recent literature has expanded the spectrum of infectious triggers to include viral and bacterial pathogens, emphasizing RIME as a post-infectious immunologic phenomenon. Research into host susceptibility, immune pathways, and pathogen-specific responses remains crucial to elucidate disease mechanisms.
Clinical Spectrum and Phenotypic Variability
RIME demonstrates marked clinical heterogeneity, ranging from isolated mucositis to multisite involvement of oral, ocular, and genital mucosa, with minimal or variable cutaneous findings. This variability complicates early diagnosis and contributes to confusion with SJS or erythema multiforme. Pediatric case series, including the described male patients aged 2–12 years, illustrate presentations from absent skin lesions to widespread rash, underscoring the need for phenotype-based clinical classification in future research.
Diagnostic Challenges and Differential Diagnosis
Differentiating RIME from SJS is a central clinical and research challenge due to overlapping mucocutaneous features but divergent etiologies and prognoses. Accurate diagnosis relies on thorough clinical assessment, exclusion of drug triggers, and confirmation of infectious etiology through serology or PCR. Research efforts should focus on developing standardized diagnostic criteria and biomarkers to facilitate early recognition and reduce misclassification in both clinical practice and epidemiologic studies.
Management Strategies and Therapeutic Outcomes
Management of RIME is largely supportive and multidisciplinary, involving antimicrobial therapy targeting M. pneumoniae, mucosal care, and systemic treatment for complications such as pneumonia or sepsis. The favorable recovery observed within 10–21 days in reported cases supports the effectiveness of timely intervention. However, variability in disease severity and recurrence highlights the need for clinical trials and consensus guidelines to optimize therapeutic strategies and long-term follow-up.
Prognosis, Recurrence, and Research Implications
Although generally associated with good outcomes, RIME can exhibit a relapsing phenotype, as demonstrated by recurrent hospitalizations in some patients. Long-term sequelae, including post-inflammatory hyperpigmentation or ocular complications, warrant further investigation. From a research perspective, RIME represents an important model of infection-triggered mucocutaneous disease, emphasizing the need for multicenter studies to define epidemiology, recurrence risk, and preventive strategies in pediatric populations.
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Prof. Zhijun Song | Ningxia Medical University | China
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