In this task, you're given a paragraph and title from the research paper. Your task is to classify whether the given title is suitable or not for the research paper based on the given paragraph. Return "True" if title is proper according to paragraph else "False".

[Q]: Paragraph: Coronaviruses have large positive-strand RNA genomes that are 5′ capped and 3′ polyadenylated. The 5′-terminal two-thirds of the genome contain two open reading frames (ORFs), 1a and 1b, that together make up the viral replicase gene and encode two large polyproteins that are processed by viral proteases into 15-16 nonstructural proteins, most of them being involved in viral RNA synthesis. ORFs located in the 3′-terminal one-third of the genome encode structural and accessory proteins and are expressed from a set of 5′ leader-containing subgenomic mRNAs that are synthesized by a process called discontinuous transcription. Coronavirus protein synthesis not only involves cap-dependent translation mechanisms but also employs regulatory mechanisms, such as ribosomal frameshifting. Coronavirus replication is known to affect cellular translation, involving activation of stress-induced signaling pathways, and employing viral proteins that affect cellular mRNA translation and RNA stability. This chapter describes our current understanding of the mechanisms involved in coronavirus mRNA translation and changes in host mRNA translation observed in coronavirus-infected cells. 
 Title: Viral and Cellular mRNA Translation in Coronavirus-Infected Cells
[A]: False


[Q]: Paragraph: Estimating the case-fatality risk (CFR)-the probability that a person dies from an infection given that they are a case-is a high priority in epidemiologic investigation of newly emerging infectious diseases and sometimes in new outbreaks of known infectious diseases. The data available to estimate the overall CFR are often gathered for other purposes (e.g., surveillance) in challenging circumstances. We describe two forms of bias that may affect the estimation of the overall CFR-preferential ascertainment of severe cases and bias from reporting delays-and review solutions that have been proposed and implemented in past epidemics. Also of interest is the estimation of the causal impact of specific interventions (e.g., hospitalization, or hospitalization at a particular hospital) on survival, which can be estimated as a relative CFR for two or more groups. When observational data are used for this purpose, three more sources of bias may arise: confounding, survivorship bias, and selection due to preferential inclusion in surveillance datasets of those who are hospitalized and/or die. We illustrate these biases and caution against causal interpretation of differential CFR among those receiving different interventions in observational datasets. Again, we discuss ways to reduce these biases, particularly by estimating outcomes in smaller but more systematically defined cohorts ascertained before the onset of symptoms, such as those identified by forward contact tracing. Finally, we discuss the circumstances in which these biases may affect non-causal interpretation of risk factors for death among cases. PLOS Neglected Tropical Diseases | 
 Title: Potential Biases in Estimating Absolute and Relative Case-Fatality Risks during Outbreaks
[A]: False


[Q]: Paragraph: Highlights d N 1 -2 0 O-methylation is crucial to block RIG-I activation by viral and self RNA d Self-RNA exclusion is singularly governed by the conserved H830 in RIG-I d H830A alteration leads to indiscriminate recognition of endogenous RNA by RIG-I d Cellular N 1 -2 0 O-methyltransferase knockdown renders endogenous RNA stimulatory SUMMARY The cytosolic helicase retinoic acid-inducible gene-I (RIG-I) initiates immune responses to most RNA viruses by detecting viral 5 0 -triphosphorylated RNA (pppRNA). Although endogenous mRNA is also 5 0 -triphosphorylated, backbone modifications and the 5 0 -ppp-linked methylguanosine ( m7 G) cap prevent immunorecognition. Here we show that the methylation status of endogenous capped mRNA at the 5 0 -terminal nucleotide (N 1 ) was crucial to prevent RIG-I activation. Moreover, we identified a single conserved amino acid (H830) in the RIG-I RNA binding pocket as the mediator of steric exclusion of N 1 -2 0 O-methylated RNA. H830A alteration (RIG-I(H830A)) restored binding of N 1 -2 0 O-methylated pppRNA. Consequently, endogenous mRNA activated the RIG-I(H830A) mutant but not wild-type RIG-I. Similarly, knockdown of the endogenous N 1 -2 0 O-methyltransferase led to considerable RIG-I stimulation in the absence of exogenous stimuli. Studies involving yellow-fever-virus-encoded 2 0 O-methyltransferase and RIG-I(H830A) revealed that viruses exploit this mechanism to escape RIG-I. Our data reveal a new role for cap N 1 -2 0 O-methylation in RIG-I tolerance of self-RNA. 42 Immunity 43, 41-51, July 21, 2015 ª2015 Elsevier Inc. 
 Title: A Conserved Histidine in the RNA Sensor RIG-I Controls Immune Tolerance to N 1 -2 0 O-Methylated Self RNA Article A Conserved Histidine in the RNA Sensor RIG-I Controls Immune Tolerance to N 1 -2 0 O-Methylated Self RNA
[A]:
True