全自动评测细胞组织机械性能(收缩和刚度)检测系统,细胞组织力学性能检测分析系统-细胞分析仪器-仪器设备-生物在线
全自动评测细胞组织机械性能(收缩和刚度)检测系统,细胞组织力学性能检测分析系统

全自动评测细胞组织机械性能(收缩和刚度)检测系统,细胞组织力学性能检测分析系统

商家询价

产品名称: 全自动评测细胞组织机械性能(收缩和刚度)检测系统,细胞组织力学性能检测分析系统

英文名称: Assess cellular and tissue mechanical properties (contractility and stiffness)

产品编号: Palpator

产品价格: 0

产品产地: 美国

品牌商标: invivosciences

更新时间: null

使用范围: null

世联博研(香港)科技有限公司
  • 联系人 :
  • 地址 : 北京市海淀区西三旗上奥世纪中心A座9层906
  • 邮编 :
  • 所在区域 : 北京
  • 电话 : 186****1725
  • 传真 : 010-57218832
  • 邮箱 : 787852745@qq.com

 

The Palpator™ is an automated assay system that measures cellular contractility and extracellular matrix stiffness of 3D tissue constructs. The highly sensitive force detection system reports cell and tissue physical properties corresponding to their physiological states.

PalpatorTM

Applications:

• Cellular contractility

• Extracellular matrix stiffness

• Preload dependent cardiac contractility assay

• Toxicity determinations

• Signal transduction studies for cellular contractility

• Long term (days, weeks, months) efficacy and toxicity testing

• Pharmaceutical compound screening

Demonstration Video (see left): Force measurement of

engineered cardiac tissue paced under low and high tension

 

Articles lauding and substantiating InvivoSciences' research, products and technological advancements have been published in more than a dozen recognized and highly credible scientific journals over the last 10+ years. One of our co-founders, Tetsuro Wakatsuki, has contributed to the research and to the subsequent resulting articles, and has become one of the world's most recognized scientists in the area of cell construct technology. Citations include:

  • "A Method for Quantifying Mechanical Properties of Tissue following Viral Infection", V. Lam, T. Bigley, SS. Terhune, T. Wakatsuki. PLoS ONE (2012); 7(8): e42197. doi:10.1371/journal.pone.0042197

  • "Hydrogel Tissue Construct-Based High-Content Compound Screening", V. Lam, T. Wakatsuki. Journal of Biomolecular Screening (2011); 16(1):120-8

  • "High-Throughput Measurements of Hydrogel Tissue Construct Mechanics", J. P. Marquez, W. Legant, V. Lam, A. Cayemberg, E. Elson, T. Wakatsuki. Tissue Engineering: Part C (2009); 15(2):181-190

  • "Engineered Heart Tissue: High Throughput Platform for Dissection of Complex Diseases", J. Lazar, H.J. Jacob, T. Wakatsuki. Journal of Cardiovascular Translational Research. (2008); 1(3):232-235

  • “Tissue Engineering: A New Frontier in Physiological Genomics”, M. C. Petersen, J. Lazar, H. J. Jacob, and T. Wakatsuki, Phys Genomics (2007); 32 28-32.

  • “Engineered tissue models: Innovative tools for early stage, information-dense, high-throughput screening for drug discovery” T. Wakatsuki, K. W. Lieder, and A. Annac, American Biotechnology Laboratory (2006); 24(11) 10-12.

  • “Reconstitution of Frank-Starling Mechanism in Engineered Cardiac Tissues”, , C. F.. Asnes, J. P. Marquez, E. L. Elson, and T. Wakatsuki Biophysical Journal (2006);91(5):1800-10.

  • “The Heart's Biochemical Response to Hypertension and Exercise” T. Wakatsuki, J. Schlessinger, and E. L. Elson, Trends in Biochemical Sciences (2004); 29(11): 609-17.

  • “Phenotypic Screening for Pharmaceuticals using Tissue Constructs”, T. Wakatsuki, J. A. Fee, and E. L. Elson, Current Pharmaceutical Biotechnology (2004); 5: 181-189.

  • “Rho-kinase-mediated Calcium-independent Contraction in Rat Embryo Fibroblasts.” D. A. Emmert, J. A Fee, Z. M. Goeckeler, T. Wakatsuki, E. L. Elson, P. Herring, P. J. Gallagher, and R. B. Wysolmerski, American Journal of Physiology – Cell Physiology (2004); 286: C8-21.

  • “One-Dimensional Viscoelastic Behavior of Fibroblast Populated Collagen Matrices”, J. E. Wagenseil, T. Wakatsuki, R. J. Okamoto, G. I. Zahalak, and E. L. Elson, Journal of Biomech. Eng. (2003); 125: 719-25.

  • “Reciprocal Interactions between Cells and Extracellular Matrix during Remodeling of Tissue Constructs” T. Wakatsuki, E. L. Elson, Biophysical Chemistry (2003); 100, 593-605.

  • “Mechanics of Cell Spreading; Role of Myosin II” T. Wakatsuki, R. B. Wysolmerski, E. L. Elson, Journal of Cell Science (2003); 116: 1617-1625.

  • “Effects of Cytochalasin D and Latrunculin B on Mechanical Properties of Cells.” T. Wakatsuki, B. Schwab, N. C. Thompson, E. L. Elson, Journal of Cell Science (2001); 114, 1025-36.

  • “Cell Mechanics Studied by a Reconstituted Model Tissue” T. Wakatsuki, M. S. Kolodney, G. I. Zahalak, and E. L. Elson, Biophysics Journal (2000); 79, 2353-68.

  • “A Cell-based Constitutive Relation for Bio-artificial Tissues” G. I. Zahalak, J. E. Wagenseil, T. Wakatsuki, and E. L. Elson, Biophysical Journal (2000); 79, 2369-81.

  • “Collagen Receptor Control of Epithelial Morphogenesis and Cell Cycle Progression” M. M. Zutter, S.A.Santoro, J. E. Wu, T. Wakatsuki, S. K. Dickeson, and E. L. Elson, American Journal of Pathology (1999); 155, 927-40.

  • “Three Dimensional Reconstitution of Embryonic Cardiomyocytes in a Collagen Matrix: A New Heart Muscle Model System” T. Eschenhagen,. U Remmers, H. Schoz, J. Wattchow, J. Weil, W. Zimmermann, H. H. Dohmen, H. Schafer, N. Bishopric, T. Wakatsuki, E. L. Elson, FASEB Journal (1997); 11, 683-94.