Translational PK-PD modeling in pain

被引:6
|
作者
Yassen, Ashraf [1 ]
Passier, Paul [1 ]
Furuichi, Yasuhisa [2 ]
Dahan, Albert [3 ]
机构
[1] Astellas Pharma Global Dev Europe, Global Clin Pharmacol & Exploratory Dev, NL-2350 AC Leiderdorp, Netherlands
[2] Astellas Pharma Inc, Drug Discovery Res, Ibaraki, Japan
[3] Leiden Univ Med Ctr, Div Anesthesiol, Leiden, Netherlands
关键词
Acute pain; Analgesics; Chronic pain; PK-PD modeling and simulation; Opioids; Pain; Pharmacodynamics; Pharmacokinetics; Translational PK-PD modeling; POPULATION PHARMACOKINETIC PARAMETERS; ACID AMIDE HYDROLASE-1; SUPPORT DOSE SELECTION; COMPARATIVE PHARMACODYNAMICS; DRUG DEVELOPMENT; CLINICAL-TRIAL; RESPIRATORY DEPRESSION; THERAPEUTIC-EFFICACY; HEALTHY-VOLUNTEERS; COX-2; INHIBITOR;
D O I
10.1007/s10928-012-9282-0
中图分类号
R9 [药学];
学科分类号
1007 ;
摘要
The current gap between animal research and clinical development of analgesic drugs presents a challenge for the application of translational PK-PD modeling and simulation. First, animal pain models lack predictive and construct validity to accurately reflect human pain etiologies and, secondly, clinical pain is a multidimensional sensory experience that can't always be captured by objective and robust measures. These challenges complicate the use of translational PK-PD modeling to project PK-PD data generated in preclinical species to a plausible range of clinical doses. To date only a few drug targets identified in animal studies have shown to be successful in the clinic. PK-PD modeling of biomarkers collected during the early phase of clinical development can bridge animal and clinical pain research. For drugs with novel mechanism of actions understanding of the target pharmacology is essential in order to increase the success of clinical development. There is a specific interest in the application of human pain models that can mimic different aspects of acute/chronic pain symptoms and serves as link between animal and clinical pain research. In early clinical development the main objective of PK-PD modeling is to characterize the relationship between target site binding and downstream biomarkers that have a potential link to the clinical endpoint (e.g. readouts from the human pain models) so as to facilitate the selection of doses for proof of concept studies. In patient studies, the role of PK-PD modeling and simulation is to characterize and confirm patient populations in terms of responder profiles with the aim to find the right dose for the right patient.
引用
收藏
页码:401 / 418
页数:18
相关论文
共 50 条
  • [21] Tailor-made drug treatment for children Creation of an infrastructure for data-sharing and population PK-PD modeling
    Ince, Ibrahim
    de Wildt, Saskia N.
    Tibboel, Dick
    Danhof, Meindert
    Knibbe, Catherijne A. J.
    DRUG DISCOVERY TODAY, 2009, 14 (5-6) : 316 - 320
  • [22] A PK-PD model-based assessment of sugammadex effects on coagulation parameters
    Bosch, Rolien
    van Lierop, Marie-Jose
    de Kam, Pieter-Jan
    Kruithof, Annelieke C.
    Burggraaf, Jacobus
    de Greef, Rik
    Visser, Sandra A. G.
    Johnson-Levonas, Amy O.
    Kleijn, Huub-Jan
    EUROPEAN JOURNAL OF PHARMACEUTICAL SCIENCES, 2016, 84 : 9 - 17
  • [23] PK-PD Compass: bringing infectious diseases pharmacometrics to the patient's bedside
    Bulik, Catharine C.
    Bader, Justin C.
    Zhang, Li
    Van Wart, Scott A.
    Rubino, Christopher M.
    Bhavnani, Sujata M.
    Sweeney, Kim L.
    Ambrose, Paul G.
    JOURNAL OF PHARMACOKINETICS AND PHARMACODYNAMICS, 2017, 44 (02) : 161 - 177
  • [24] Antitumor effect of axitinib combined with dopamine and PK-PD modeling in the treatment of human breast cancer xenograft
    Ma, Yuan-heng
    Wang, Si-yuan
    Ren, Yu-peng
    Li, Jian
    Guo, Ting-jie
    Lu, Wei
    Zhou, Tian-yan
    ACTA PHARMACOLOGICA SINICA, 2019, 40 (02) : 243 - 256
  • [25] Ocular pharmacokinetics of a novel tetrahydroquinoline analog in rabbit: Compartmental analysis and PK-PD evaluation
    Pamulapati, Chandrasena R.
    Schoenwald, Ronald D.
    JOURNAL OF PHARMACEUTICAL SCIENCES, 2012, 101 (01) : 414 - 423
  • [26] A Bayesian population PK-PD model for ispinesib/docetaxel combination-induced myelosuppression
    Kathman, Steven J.
    Williams, Daphne H.
    Hodge, Jeffrey P.
    Dar, Mohammed
    CANCER CHEMOTHERAPY AND PHARMACOLOGY, 2009, 63 (03) : 469 - 476
  • [27] Optimizing drug regimens in cancer chemotherapy: a simulation study using a PK-PD model
    Barbolosi, D
    Iliadis, A
    COMPUTERS IN BIOLOGY AND MEDICINE, 2001, 31 (03) : 157 - 172
  • [28] At the bench: the key role of PK-PD modelling in enabling the early discovery of biologic therapies
    Penney, Mark
    Agoram, Balaji
    BRITISH JOURNAL OF CLINICAL PHARMACOLOGY, 2014, 77 (05) : 740 - 745
  • [29] Translational PK-PD/TD modeling of antitumor effects and peripheral neuropathy in gemcitabine and nab-paclitaxel chemotherapy from xenograft mice to patients for optimal dose and schedule
    Kobuchi, Shinji
    Morita, Atsuko
    Jonan, Shizuka
    Amagase, Kikuko
    Ito, Yukako
    CANCER CHEMOTHERAPY AND PHARMACOLOGY, 2024, 93 (04) : 365 - 379
  • [30] Pharmacokinetic Studies of Scopolamine in Human and Rodent for the Establishment of PK-PD Models
    Shoblock, James
    Adams, Diana
    Welty, Natalie
    Furey, Maura
    Chen, Guang
    Bonaventure, Pascal
    Drevets, Wayne
    Bhattacharya, Anindya
    NEUROPSYCHOPHARMACOLOGY, 2017, 42 : S547 - S548