Criminal Behaviour in the Context of Various Criminal Theories

Criminal activity has been in society for as much as there has been mankind. Socioeconomic and sociocultural criminogenic factors both contribute to crime. The research of subcultures frequently replaces the study of criminals as a social type. The research on crime and the study of conduct are not synonymous. Attempts to discover the basic differences between crime and non-crime, considered as behavior, and between criminals and non-criminals, considered as different types of individuals, have yielded evidence that seems to undermine the very assumption upon which such attempts have been founded. The belief that there is a fundamental distinction between criminal and non-criminal activity is dubious.The majority of crimes go unreported and unrecorded. Any sample of presumed non-criminals is questionable due to research on self-reported offenses accessible to public and private groups but not the police, white collar crime, and factors connected to differential reported crime.The percentages are comparatively high for lower middle class, minority group, youthful, male, itinerant, and urban populations for the majority of offending categories. It is debatable if variances in behavior among various groups of individuals account for discrepancies in crime rates. Criminology may look into whether laws penalize actions that are typical of those with less authority but not those with more power. People progressively pick up the fundamentals of illegal behavior and disdain the law more and more. When someone is officially assigned to a certain delinquent stigma, they start to identify with the appropriate social group and act accordingly. The qualitative research methodology has been applied tothe following article

Potential Role of Birds in Japanese Encephalitis Virus Zoonotic Transmission and Genotype Shift

Japanese encephalitis (JE) is a vaccine-preventable disease caused by the Japanese encephalitis virus (JEV), which is primarily prevalent in Asia. JEV is a Flavivirus, classified into a single serotype with five genetically distinct genotypes (I, II, III, IV, and V). JEV genotype III (GIII) had been the most dominant strain and caused numerous outbreaks in the JEV endemic countries until 1990. However, recent data shows the emergence of JEV genotype I (GI) as a dominant genotype and it is gradually displacing GIII. The exact mechanism of this genotype displacement is still unclear. The virus can replicate in mosquito vectors and vertebrate hosts to maintain its zoonotic life cycle; pigs and aquatic wading birds act as an amplifying/reservoir hosts, and the humans and equines are dead-end hosts. The important role of pigs as an amplifying host for the JEV is well known. However, the influence of other domestic animals, especially birds, that live in high abundance and close proximity to the human is not well studied. Here, we strive to briefly highlight the role of birds in the JEV zoonotic transmission, discovery of birds as a natural reservoirs and amplifying host for JEV, species of birds susceptible to the JEV infection, and the proposed effect of JEV on the poultry industry in the future, a perspective that has been neglected for a long time. We also discuss the recent in vitro and in vivo studies that show that the newly emerged GI viruses replicated more efficiently in bird-derived cells and ducklings/chicks than GIII, and an important role of birds in the JEV genotype shift from GIII to GI

Recent Population Dynamics of Japanese Encephalitis Virus

Japanese encephalitis virus (JEV) causes acute viral encephalitis in humans and reproductive disorders in pigs. JEV emerged during the 1870s in Japan, and since that time, JEV has been transmitted exclusively throughout Asia, according to known reporting and sequencing records. A recent JEV outbreak occurred in Australia, affecting commercial piggeries across different temperate southern Australian states, and causing confirmed infections in humans. A total of 47 human cases and 7 deaths were reported. The recent evolving situation of JEV needs to be reported due to its continuous circulation in endemic regions and spread to non-endemics areas. Here, we reconstructed the phylogeny and population dynamics of JEV using recent JEV isolates for the future perception of disease spread. Phylogenetic analysis shows the most recent common ancestor occurred about 2993 years ago (YA) (95% Highest posterior density (HPD), 2433 to 3569). Our results of the Bayesian skyline plot (BSP) demonstrates that JEV demography lacks fluctuations for the last two decades, but it shows that JEV genetic diversity has increased during the last ten years. This indicates the potential JEV replication in the reservoir host, which is helping it to maintain its genetic diversity and to continue its dispersal into non-endemic areas. The continuous spread in Asia and recent detection from Australia further support these findings. Therefore, an enhanced surveillance system is needed along with precautionary measures such as regular vaccination and mosquito control to avoid future JEV outbreaks