Megumi Yoshioka
Overview
    Explore the profile of Megumi Yoshioka including associated specialties, affiliations and a list of published articles.
           
  Author names and details appear as published. Due to indexing inconsistencies, multiple individuals may share a name, and a single author may have variations. MedLuna displays this data as publicly available, without modification or verification
  
  
  Snapshot
          Snapshot
              Articles
              14
            
            
              Citations
              100
            
            
              Followers
              0
            
  
  Related Specialties
          Related Specialties
  Top 10 Co-Authors
          Top 10 Co-Authors
  Published In
          Published In
  Affiliations
        Affiliations
    Soon will be listed here.
  
  Recent Articles
          1.
        
    
    Jounai N, Yoshioka M, Tozuka M, Inoue K, Oka T, Miyaji K, et al.
  
  
    EBioMedicine
    . 2017 Jan;
          16:124-135.
    
    PMID: 28111238
  
  
          Respiratory syncytial virus (RSV) is one of the most prevalent causative agents of lower respiratory tract infections worldwide, especially in infants around 3 to 4months old. Infants at such a...
      
2.
        
    
    Kurosawa N, Wakata Y, Inobe T, Kitamura H, Yoshioka M, Matsuzawa S, et al.
  
  
    Sci Rep
    . 2016 Apr;
          6:25174.
    
    PMID: 27125496
  
  
          Threonine phosphorylation accounts for 10% of all phosphorylation sites compared with 0.05% for tyrosine and 90% for serine. Although monoclonal antibody generation for phospho-serine and -tyrosine proteins is progressing, there...
      
3.
        
    
    Hayashi S, Yoshioka M, Matsui T, Kojima K, Kato M, Kanamaru K, et al.
  
  
    FEBS Open Bio
    . 2014 Feb;
          4:90-5.
    
    PMID: 24490133
  
  
          Sensor histidine kinases (HKs) are important factors that control cellular growth in response to environmental conditions. The expression of 15 HKs from Aspergillus nidulans was analyzed by quantitative real-time PCR...
      
4.
        
    
    Miyamori T, Sato M, Nishi T, Yamagishi T, Hattori Y, Ishii N, et al.
  
  
    Gan To Kagaku Ryoho
    . 2012 Dec;
          39 Suppl 1:3-5.
    
    PMID: 23268883
  
  
          Quantitative and qualitative analyses of a caring family are needed to improve home care. We propose a three-dimensional quantitative evaluation of family functioning. The first dimension is food, clothing, and...
      
5.
        
    
    Kurosawa N, Yoshioka M, Fujimoto R, Yamagishi F, Isobe M
  
  
    BMC Biol
    . 2012 Sep;
          10:80.
    
    PMID: 23017270
  
  
          Background: Although a variety of animals have been used to produce polyclonal antibodies against antigens, the production of antigen-specific monoclonal antibodies from animals remains challenging. Results: We propose a simple...
      
6.
        
    
    Yoshioka M, Kurosawa N, Isobe M
  
  
    BMC Biotechnol
    . 2011 Jul;
          11:75.
    
    PMID: 21774833
  
  
          Background: During the development of a therapeutic antibody, large numbers of monoclonal antibodies are required to screen for those that are best suited for the desired activity. Although the single...
      
7.
        
    
    Kurosawa N, Yoshioka M, Isobe M
  
  
    BMC Biotechnol
    . 2011 Apr;
          11:39.
    
    PMID: 21486488
  
  
          Background: Molecular cloning of functional immunoglobulin genes from single plasma cells is one of the most promising technologies for the rapid development of monoclonal antibody drugs. However, the proper insertion...
      
8.
        
    
    Yamashiro D, Yoshioka M, Ashiuchi M
  
  
    Biotechnol Bioeng
    . 2010 Sep;
          108(1):226-30.
    
    PMID: 20812257
  
  
          Poly-γ-glutamate (PGA) is a versatile nylon-like material, and enhanced production of PGA is required for various bio-industrial applications. In this study, we first examined the effects of available sugars on...
      
9.
        
    
    Katritzky A, Yoshioka M, Narindoshvili T, Chung A, Johnson J
  
  
    Org Biomol Chem
    . 2008 Nov;
          6(24):4582-6.
    
    PMID: 19039367
  
  
          N(alpha)-Fmoc-N(epsilon)-[(7-methoxycoumarin-4-yl)acetyl]-L-lysine (N(alpha)-Fmoc-L-Lys(Mca)-OH) 3 is conveniently prepared by benzotriazole methodology (52% over two steps). N-Acylbenzotriazoles Mca-Bt 2, N(alpha)-Fmoc-L-Lys(Mca)-Bt 4, coumarin-3-ylcarbonyl (Cc)-Bt 5, N(alpha)-Fmoc-L-Lys(Cc)-Bt 7 and N(alpha)-(Cc)-L-Lys(Fmoc)-Bt 9 enable the efficient microwave...
      
10.
        
    
    Katritzky A, Yoshioka M, Narindoshvili T, Chung A, Khashab N
  
  
    Chem Biol Drug Des
    . 2008 Aug;
          72(3):182-8.
    
    PMID: 18715231
  
  
          N-Fmoc-protected(alpha-aminoacyl)benzotriazoles 1a-d readily afford chiral N-Fmoc-protected-alpha-dipeptides 2a-f (77-89%). Compounds 2a-f are further converted into N-Fmoc-protected(alpha-dipeptidoyl)benzotriazoles 3a-f (71% average yield). Under mild microwave irradiation, 3a-f are used in solid-phase peptide segment...