In this task, you're given a paragraph from the research paper and your task is to generate a suitable title for the research paper based on the given paper. Under 100 words is a good title length.

Example Input: An immunochromatographic test strip (ICTS) for detecting antibodies to rabies virus was developed, using colloidal gold particles labeled with rabies virus glycoprotein as the tracer. The assay was evaluated using sera from dogs immunized with various commercial rabies vaccines, or from dogs in the clinics and sera from dogs immunized with vaccines against pathogens other than rabies virus, and negative sera from a wide variety of animal sources, including dogs, mice, and cats which had never been vaccinated. The ICTS was found to be highly specific for antibodies against rabies virus, with a detection limit of 0.5 IU/ml as measured by the fluorescent antibody virus neutralization (FAVN) test. Compared with the FAVN test, the specificity and sensitivity of ICTS were 98.2% and 90.4%, respectively. There was an excellent agreement between results obtained by the ICTS and FAVN tests (kappa = 0.888). Strips stored at 4 • C in a plastic bag with a desiccant retained their specificity and sensitivity for at least 15 months, and strips stored at ambient temperature remained stable for 12 months. The immunochromatographic test strip may therefore be useful for clinical laboratories lacking specialized equipment and for diagnosis in the field for rapid detection of rabies virus-specific antibodies.
Example Output: A rapid immunochromatographic test strip for detecting rabies virus antibody

Example Input: Linear motifs are short, evolutionarily plastic components of regulatory proteins and provide low-affinity interaction interfaces. These compact modules play central roles in mediating every aspect of the regulatory functionality of the cell. They are particularly prominent in mediating cell signaling, controlling protein turnover and directing protein localization. Given their importance, our understanding of motifs is surprisingly limited, largely as a result of the difficulty of discovery, both experimentally and computationally. The Eukaryotic Linear Motif (ELM) resource at http:// elm.eu.org provides the biological community with a comprehensive database of known experimentally validated motifs, and an exploratory tool to discover putative linear motifs in user-submitted protein sequences. The current update of the ELM database comprises 1800 annotated motif instances representing 170 distinct functional classes, including approximately 500 novel instances and 24 novel classes. Several older motif class entries have been also revisited, improving annotation and adding novel instances. Furthermore, addition of full-text search capabilities, an enhanced interface and simplified batch download has improved the overall accessibility of the ELM data. The motif discovery portion of the ELM resource has added conservation, and structural attributes have been incorporated to aid users to discriminate biologically relevant motifs from stochastically occurring non-functional instances. Figure 5 . Schema of the ELM resource and data life cycle. Annotated ELM classes, and instances thereof, can be searched by database query. Via sequence search by the motif detection pipeline, annotated ELM classes yield putative instances in query sequences. By adding experimental evidence and references, these putative instances become candidate instances for annotation, and, with further curation, ultimately become fully annotated instances.
Example Output: ELM-the database of eukaryotic linear motifs

Example Input: VERSION 1 -REVIEW Pedro A Piedra Baylor College of Medicine Houston, TX, USA REVIEW RETURNED 13-Aug-2018 This manuscript reports on a retrospective population-based cohort study on acute respiratory infections (ARIs) in the emergency department (ED) in Western Australia (WA) among Aboriginal and non-aboriginal children (0-17 years) residing in metropolitan, urban and rural settings from 2002 to 2012. Administrative ED datasets were linked to birth and perinatal records. The objectives were to compare overall and age-specific ED ARIs rates among Aboriginal and non-Aboriginal children in the different WA regions, monthly distribution and temporal trends, and to identify infant, maternal and socio-economic risk factors for ARI. The overall goal is to use such information to inform health service planning. Major findings. 26% of ED presentations were for ARIs. ARIs rates were highest in children <12 months for Aboriginal children (1,027.6 per 1000 child-years) and non-Aboriginal children (297.4 per 1000 child-years). Regional differences were observed, trend analysis revealed increase ARI rates for all children in rural and remote areas, and the strongest risk facts observed in Aboriginal and non-Aboriginal children were male sex, prematurity, caesarean delivery, birth in lower socio-economic areas and living in the Kimberley region. This manuscript provides strong ARI incidence rates in the ED for children residing in Western Australia, and highlights ARIs rates of 2 to 3 times higher in Aboriginal children compare to non-Aboriginal children as well as regional disparity. The root cause for these disparities were not address. Commenting on the density of physicians (per 1000 population) by metropolitan, urban and rural settings as well as by regions within WA is likely to be informative, and explain in part, the disparities observed between race and region. Areas with low density of health care providers is likely to have increased use of the ED for basic health care assessment impacting ED ARI rates.
Example Output:
TITLE (PROVISIONAL) Geographical disparities in emergency department presentations for acute respiratory infections and risk factors for presenting: a population-based cohort study of Western Australian children AUTHORS