首页 | 本学科首页   官方微博 | 高级检索  
     


In vitro and in vivo correlation for lipid-based formulations: Current status and future perspectives
Affiliation:1. Shanghai Skin Disease Hospital, Tongji University School of Medicine, Shanghai 200443, China;2. Key Laboratory of Smart Drug Delivery of MOE, School of Pharmacy, Fudan University, Shanghai 201203, China
Abstract:Lipid-based formulations (LBFs) have demonstrated a great potential in enhancing the oral absorption of poorly water-soluble drugs. However, construction of in vitro and in vivo correlations (IVIVCs) for LBFs is quite challenging, owing to a complex in vivo processing of these formulations. In this paper, we start with a brief introduction on the gastrointestinal digestion of lipid/LBFs and its relation to enhanced oral drug absorption; based on the concept of IVIVCs, the current status of in vitro models to establish IVIVCs for LBFs is reviewed, while future perspectives in this field are discussed. In vitro tests, which facilitate the understanding and prediction of the in vivo performance of solid dosage forms, frequently fail to mimic the in vivo processing of LBFs, leading to inconsistent results. In vitro digestion models, which more closely simulate gastrointestinal physiology, are a more promising option. Despite some successes in IVIVC modeling, the accuracy and consistency of these models are yet to be validated, particularly for human data. A reliable IVIVC model can not only reduce the risk, time, and cost of formulation development but can also contribute to the formulation design and optimization, thus promoting the clinical translation of LBFs.
Keywords:Lipid-based formulation  Lipolysis  Absorption  Oral delivery  Model  Perspectives  ANN"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0055"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  artificial neural network  AUC"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0065"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  area under the curve  BE"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0075"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  bioequivalence  BCS"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0085"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  biopharmaceutics classification system  CETP"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0095"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  cholesterol ester transfer protein  peak plasma concentration  DDS"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0115"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  drug delivery system  FDA"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0125"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  US Food and Drug Administration  GI"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0135"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  gastrointestinal  HLB"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0145"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  hydrophilic–lipophilic balance  IVIVC"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0155"  },"  $$"  :[{"  #name"  :"  text"  ,"  $$"  :[{"  #name"  :"  italic"  ,"  _"  :"  in vitro"  },{"  #name"  :"  __text__"  ,"  _"  :"   and "  },{"  #name"  :"  italic"  ,"  _"  :"  in vivo"  },{"  #name"  :"  __text__"  ,"  _"  :"   correlation  IVIVR"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0165"  },"  $$"  :[{"  #name"  :"  text"  ,"  $$"  :[{"  #name"  :"  italic"  ,"  _"  :"  in vitro"  },{"  #name"  :"  __text__"  ,"  _"  :"   and "  },{"  #name"  :"  italic"  ,"  _"  :"  in vivo"  },{"  #name"  :"  __text__"  ,"  _"  :"   relationship  LBF"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0175"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  lipid-based formulation  LCT"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0185"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  long-chain triglyceride  MCT"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0195"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  medium-chain triglyceride  PBPK"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0205"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  physiologically based pharmacokinetic  PK"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0215"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  pharmacokinetic  SCT"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0225"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  short-chain triglyceride  SEDDS"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0235"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  self-emulsifying drug delivery system  SGF"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0245"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  simulated gastric fluid  SIF"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0255"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  simulated intestinal fluid  SLS"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0265"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  sodium lauryl sulfate  SMEDDS"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0275"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  self-microemulsifying drug delivery system  SNEDDS"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0285"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  self-nanoemulsifying drug delivery system  TIM"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0295"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  TNO gastrointestinal model  TNO"  },{"  #name"  :"  keyword"  ,"  $"  :{"  id"  :"  kwrd0305"  },"  $$"  :[{"  #name"  :"  text"  ,"  _"  :"  Netherlands Organization for Applied Scientific Research  time to reach the peak plasma concentration
本文献已被 ScienceDirect 等数据库收录!
设为首页 | 免责声明 | 关于勤云 | 加入收藏

Copyright©北京勤云科技发展有限公司  京ICP备09084417号