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".

Example Input: Paragraph: The APETALA2 (AP2) genes represent the AP2 group within a large group of DNA-binding proteins called AP2/EREBP. The AP2 gene is functional and necessary for flower development, stem cell maintenance, and seed development, whereas the other members of AP2 group redundantly affect flowering time. Here we study the phylogeny of AP2 group genes in spermatophytes. Spermatophyte AP2 group genes can be classified into AP2 and TOE types, six clades, and we found that the AP2 group homologs in gymnosperms belong to the AP2 type, whereas TOE types are absent, which indicates the AP2 type gene are more ancient and TOE type was split out of AP2 type and losing the major function. In Brassicaceae, the expansion of AP2 and TOE type lead to the gene number of AP2 group were up to six. Purifying selection appears to have been the primary driving force of spermatophyte AP2 group evolution, although positive selection occurred in the AP2 clade. The transition from exon to intron of AtAP2 in Arabidopsis mutant leads to the loss of gene function and the same situation was found in AtTOE2. Combining this evolutionary analysis and published research, the results suggest that typical AP2 group genes may first appear in gymnosperms and diverged in angiosperms, following expansion of group members and functional differentiation. In angiosperms, AP2 genes (AP2 clade) inherited key functions from ancestors and other genes of AP2 group lost most function but just remained flowering time controlling in gene formation. In this study, the phylogenies of AP2 group genes in spermatophytes was analyzed, which supported the evidence for the research of gene functional evolution of AP2 group. 
 Title: Expansion and Functional Divergence of AP2 Group Genes in Spermatophytes Determined by Molecular Evolution and Arabidopsis Mutant Analysis
Example Output: True

Example Input: Paragraph: The Republic of Korea has not only monumentally progressed socially, economically, and politically since 1948, but has taken the arduous undertaking of reforming the way it reduces disaster risk, mitigates the impact, and prepares for and responds to disasters for a resilient future. The administrative and organizational reforms have not been without its setbacks or obstacles; however, they were not so insurmountable that they could not be overcome by one of Korea's greatest assets: persisting endeavors to build back better and to enhance resilience. Starting with an independent national agency in 2004 to manage natural and human-caused disasters and preparedness, the government quickly realized, through focusing events, it was insufficient to handle the increasing complexity and intensifying of disasters striking the nation. Therefore, through political will and hindsight, it continuously coalesced pertinent disaster management responsibilities into newer and newer agencies until 2016, when it enacted a progressively more ubiquitous and self-propelling agency. However, although the agency is apt for current disasters, it will not be for future disaster, which needs the integration of resilience into Disaster Risk Management (DRM). Therefore, we suggest five tenets on how to make Korea's resilient future as well as for other nations that are and will follow in Korea's footsteps, especially for those nations in Asia and Africa. A future that is resilient against all types of disaster risks, especially being prepared well for "low probability and high impact" focusing events that are located in the long-tail of the Power-law Distribution. 
 Title: Disaster Resilient Future in Korea Resilience • Sustainable Development Goals (SDGs) • Climate Change • Ministry of Public Safety and Security (MPSS) • Sendai Framework for Disaster Risk Reduction • Conference of Parties (COP)
Example Output: True

Example Input: Paragraph: Background: The pteropine orthoreovirus (PRV) was isolated from monkey (Macaca fascicularis) faecal samples collected from human-inhabited areas in Lopburi Province, Thailand. These samples were initially obtained to survey for the presence of hepatitis E virus (HEV). Results: Two virus isolates were retrieved by virus culture of 55 monkey faecal samples. Liquid chromatographytandem mass spectrometry (LC-MS/MS) was successfully used to identify the viruses as the segmented dsRNA orthoreovirus. Phylogenetic analysis of the Lopburi orthoreovirus whole-genomes revealed relationships with the well-characterised PRVs Pulau (segment L1), Cangyuan (segments L2, M3 and S3), Melaka (segments L3 and M2), Kampar (segments M1 and S2) and Sikamat (segments S1 and S4) of Southeast Asia and China with nucleotide sequence identities of 93.5-98.9%. RT-PCR showed that PRV was detected in 10.9% (6/55) and HEV was detected in 25.5% (14/55) of the monkey faecal samples. Conclusions: PRV was isolated from monkey faeces for the first time in Thailand via viral culture and LC-MS/MS. The genetic diversity of the virus genome segments suggested a re-assortment within the PRV species group. The overall findings emphasise that monkey faeces can be sources of zoonotic viruses, including PRV and HEV, and suggest the need for active virus surveillance in areas of human and monkey co-habitation to prevent and control emerging zoonotic diseases in the future. 
 Title: Mass spectrometry-based identification and whole-genome characterisation of the first pteropine orthoreovirus isolated from monkey faeces in Thailand
Example Output:
False