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".

Paragraph: Research on respiratory protection against biologic agents is important to address major concerns such as occupational safety and terrorist attack. This review describes the literature on respiratory protection against bioaerosols and identifies research gaps. Respiratory protection is a complex field involving a number of factors, such as the efficiency of respirator filter material; facepiece fitting; and maintenance, storage, and reuse of respirators. Several studies used nonpathogenic microorganisms having physical characteristics similar to that of Mycobacterium tuberculosis to analyze microbial penetration through respirators. Some studies showed that high-efficiency particulate air (HEPA) and N95 filters provided a higher level of protection than dust/mist (DM) and dust/mist/fume (DMF) filters. Flow rate and relative humidity appear to alter the level of penetration of microorganisms through respirator filters. The relationship between microbial penetration through respirator filters and the aerodynamic diameter, length, or other physical characteristics of microorganisms remains controversial. Whether reaerosolization of bioaerosol particles should be a concern is unclear, given the fact that one study has demonstrated significant reaerosolization of 1-to 5-mm particles loaded onto respirator filters. Respirator maintenance, storage, and decontamination are important factors to be considered when reusing respirators. The respiratory protection against biologic warfare agents such as anthrax in military and civilian situations is described. (Am J Infect Control 2004;32:345-54.)  
 Title: Respiratory protection against bioaerosols: Literature review and research needs
False

Paragraph: Next year will mark the 100th anniversary of the Michaelis-Menten equation [1], one of the most important and well known models in enzymology. Remarkable progress in enzymology over the past hundred years has not only provided deep insight into biological processes, but also has dramatically changed our lives. However, because of limitations in available techniques, enzymologists primarily investigate the in vitro properties and catalytic mechanisms of individual enzymes. Thus, they often fail to address a fundamental scientific question: how are biological processes, most of which are chemical reactions catalyzed by enzymes, coordinated in space and time to produce a living organism [2]? Fortunately, applications of new techniques and, in particular, wide acceptance of the idea of systems have enabled enzymologists to begin studying enzymes in the context of dynamic, complicated biological systems in recent years. Many excellent reviews and research articles on enzymology have been published in the past few years. These articles highlight the latest developments in enzymology, and should prove helpful for understanding how to best integrate the idea of systems into enzymology research. In living organisms, protein post-translational modification (PTM) pathways are large and interconnected networks. Via reversible or irreversible covalent modifications, allo-steric regulations of PTM enzymes and cross-talk of PTM pathways, PTM networks enable organisms to respond to stimuli faster than is possible through gene transcription regulation. Therefore, PTM enzymes, as key nodes of biological networks, are a recent focus of attention. 
 Title: SCIENCE CHINA A glimpse of enzymology within the idea of systems
False

Paragraph: Objective. In treating highly infectious COVID-19 pneumonia, ICU nurses face a high 34 risk of developing somatic symptom disorder (SSD). The present study aims to investigate 35 the symptoms and causes of SSD of ICU nurses treating COVID-19 pneumonia. The research 36 results are expected to provide evidence for the establishment of a better management 37 strategy. Methods. This study enrolled a total of 140 ICU nurses who were selected by Jiangsu 39 Province Hospital to work in Wuhan (the epicenter of the COVID-19 epidemic in China) on 40 3 rd February 2020. A questionnaire "Somatic Symptom Disorders for ICU Nurses in Wuhan 41 No.1 Hospital" was designed based on the "International Classification of Functioning, 42 Disability and Health" (ICF). Exploratory factor analysis was performed to cluster the 43 symptoms, and logistic regression analysis to find the risk factors of the symptoms. 44 Results. Five major symptoms were chest-discomfort-and-palpitation (31.4%), dyspnea 45 (30.7%), nausea (21.4%), headache (19.3%), and dizziness (17.9%). In exploratory factor 46 analysis, the symptoms were classified into three clusters: Cluster A of breathing and sleep 47 disturbances (dizziness, sleepiness, dyspnea); Cluster B of gastrointestinal complaints and 48 pain (nausea, headache), and Cluster C of general symptoms (xerostomia, fatigue, 49 chest-discomfort-and-palpitation). In Cluster A, urine/feces splash, sex, and sputum splash 50 were independent predictive factors. In Cluster B, fall of protective glasses and urine/feces 51 splash were independent predictive factors. In Cluster C, urine/feces splash and urine/feces 52 clearance were independent predictive factors. 53 Conclusion. The ICU nurses in Wuhan showed varying and overlapping SSDs. These 54 SSDs could be classified into three symptom clusters. Based on the characteristics of their 55 SSDs, specific interventions could be implemented to safeguard the health of ICU nurses. 56 57 
 Title: Journal Pre-proof Symptom Cluster of ICU nurses treating COVID-19 pneumonia patients in Wuhan, China Running Title: SSDs of ICU nurses treating COVID-19 pneumonia patients Symptom Cluster of ICU nurses treating COVID-19 pneumonia patients in Wuhan, China Somatic Symptom Disorders of ICU Nurses treating COVID-19 pneumonia patients in

False