Expansion of the Plaquing Host Range and Improvement of the Absorption Rate of a T5-like Salmonella Phage by Altering the Long Tail Fibers.

Jing Zhang, Houqi Ning, Hong Lin, Jiaying She, Luokai Wang, Yujie Jing, Jingxue Wang
Author Information
  1. Jing Zhang: School of Food Science & Engineering, Ocean University of Chinagrid.4422.0, Qingdao, Shandong Province, China. ORCID
  2. Houqi Ning: School of Food Science & Engineering, Ocean University of Chinagrid.4422.0, Qingdao, Shandong Province, China.
  3. Hong Lin: School of Food Science & Engineering, Ocean University of Chinagrid.4422.0, Qingdao, Shandong Province, China.
  4. Jiaying She: School of Food Science & Engineering, Ocean University of Chinagrid.4422.0, Qingdao, Shandong Province, China.
  5. Luokai Wang: School of Food Science & Engineering, Ocean University of Chinagrid.4422.0, Qingdao, Shandong Province, China.
  6. Yujie Jing: School of Food Science & Engineering, Ocean University of Chinagrid.4422.0, Qingdao, Shandong Province, China.
  7. Jingxue Wang: School of Food Science & Engineering, Ocean University of Chinagrid.4422.0, Qingdao, Shandong Province, China. ORCID

Abstract

The high host specificity of phages is a real challenge in the therapy applications of the individual phages. This study aimed to edit the long tail fiber proteins () of a T5-like phage to obtain the engineered phages with expanded plaquing host range. Two T5-like Salmonella phages with high genome sequence homology but different plaquing host ranges, narrow-host range phage vB STyj5-1 (STyj5-1) and wide-host range phage vB BD13 (BD13), were isolated and characterized. The parts of STyj5-1 were replaced by the corresponding part of BD13 using homologous recombination method to obtain the engineered phages. The alterations of the whole part or the N-terminal amino acids 1-400 of of STyj5-1 could expand their plaquing host ranges (from 20 strains to 30 strains) and improve their absorption rates (from 0.28-28.84% to 28.10-99.49%). Besides, the one-step growth curves of these engineered phages with modified parts were more similar to that of STyj5-1. The burst sizes of phages BD13, STyj5-1 and the engineered phages were 250, 236, 166, and 223 PFU per cell, respectively. The expanded plaquing host range and improved absorption rates of these engineered phages revealed that the part might be the primary determinant of the host specificities of some T5-like phages. Genetic editing can be used to change or expand the host range of phages and have been successfully applied in T2, T4 and other phages to obtain engineered phages. However, there are hardly any similar reports on T5-like phages due to that the determinant regions related to their host ranges have not been completely clarified and the editing of T5-like phages is more difficult compared to other phages. This study attempted and successfully expanded the host range of a narrow-host range T5-like phage (STyj5-1) by exchanging its whole part or the N-terminal 1-400aa of that part by a broad-host range phage (BD13). These demonstrated the part might be the primary determinant of the host specificities for some T5-like phages and provided an effective method of extension plaquing host range of these phages.

Keywords

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MeSH Term

Bacteriophages
Genome, Viral
Host Specificity
Myoviridae
Salmonella Phages

Word Cloud

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