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主营产品: Flexcell细胞力学和regenhu细胞3D生物打印机销售技术服务: 美国Flexcell品牌FX-5000T细胞牵张应力加载培养系统,FX-5K细胞显微牵张应力加载培养系统,Tissue Train三维细胞组织培养与测试系统,FX-5000C三维细胞组织压应力加载培养系统,STR-4000细胞流体剪切应力加载培养系统,德国cellastix品牌Optical Stretcher高通量单细胞牵引应变与分析系统 Regenhu品牌3D discovery细胞友好型3D生物打印机,piuma细胞纳米压痕测试分析、aresis多点力学测试光镊,MagneTherm细胞肿瘤电磁热疗测试分析系统
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显微镜实时观察细胞流体剪切剪切应力培养系统,拉力和剪切应力多力同时混合加载培养系统

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  • 产品名称:显微镜实时观察细胞流体剪切剪切应力培养系统,拉力和剪切应力多力同时混合加载培养系统
  • 产品型号:flexflow
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简单介绍

美国flexcell品牌的Flexflow显微镜实时观察平行板流室系统提供流体切应力同时抻拉细胞,产品成熟文献量多 FlexcellFlexFlow显微切应力加载设备(SHEAR Stress device) 可以在提供流体切应力的同时抻拉细胞,测试血管和结绨组织细胞对液体流动的实时反应。 为培育在StageFlexer硅胶模表面或者基质蛋白包被的细胞培养片上的细胞提供切应力。 使用FX-5000T应力加载系统抻拉细胞,并且可以在实验前,实验中或者实验后提供切应力。 计算机控制蠕动泵,调节切应力大小,从0-35 dynes/cm2 使用标准正立式显微镜实时观察细胞在切应力下的反应。 检测细胞在流体作用下的排列反应。 加力同时实时检测在液体切应力下各种激活剂/抑制剂对细胞反应的影响。

产品描述


Flexflow单通道平行板流室系统提供流体切应力同时抻拉细胞



FlexFlow显微切应力加载设备(SHEAR Stress device)






流体剪切应力培养载片如下图:


细胞培养载片包括显微镜载(物)片和盖玻片两种产品,表面经过特殊处理,适合于细胞的贴壁与生长。 
两种规格:75 mm x 25 mm x 1.0 mm ,75 mm x 24 mm x 0.2 mm 。 
75 mm x 25 mm x 1.0 mm 细胞培养载片的边缘涂有1.0 mm宽的特氟隆边框(Teflon),可以有效控制细胞生长在切应力加载区域。 
自身荧光低,光学性能佳。 
不同包被的培养表面提高细胞的贴壁与生长。 
五种不同包被的培养表面:Amino, Collagen (Type I or IV) Elastin, ProNectin (RGD), Laminin (YIGSR). 
所以产品都是无菌独立包装,仅供一次性使用。

75mm x 24mm x 0.2mm 和 FlexFlow配套使用 
产品编号 英文名称 
FFCS-U Culture Slips — Untreated 
FFCS-A Culture Slips — Amino 
FFCS-C Culture Slips — Collagen Type I 
FFCS-C(IV) Culture Slips — Collagen Type IV 
FFCS-E Culture Slips — Elastin 
FFCS-P Culture Slips — ProNectin 
FFCS-L Culture Slips — Laminin 

3)微流纳流HiQ Flowmate微流体控制器


  • 三维细胞力学加载仪,体外细胞牵张压缩应力,体外细胞机械加力装置,体外细胞牵张刺激装置,细胞牵张应力加

  • 双注射泵可以在微升、纳升、微微升水平上控制液流.双注射泵,独立的液流控制系统。
  • 传送**,稳定的流速
  • 可控流速范围1.2pL/ min-260.6ml/min
  • 提供不同流速模型:稳定型,脉冲型,连续型,截流型和震荡型;
  • 可进行循环,连续的液流控制;同时运行不同的流速模型;
  • 内置阀门控制液流模式;
  • 机载计算器用于流量、流时、流速、剪切力的计算;
  • 高分辨率、触屏控制。
  • 用户友好的图标驱动程序;
  • 便于泵和芯片对接的生物芯片支架;根据现有流速有三种不同的机型;

    多种应用程序:

  • 液体稀释,配给及注射器;
  • 动物实验中的**注射和体液抽取;
  • 施加液流剪切力;
  • 微流体和纳流体实验;
  • 混合、分流液体;
  • 震荡型液流的控制需要iHIQ Flowmate二级阀门配件

  • 系统完整结构图



  • 可以在提供流体切应力的同时抻拉细胞,测试血管和结绨组织细胞对液体流动的实时反应。
  • 为培育在StageFlexer硅胶模表面或者基质蛋白包被的细胞培养片上的细胞提供切应力。
  • 使用FX-5000T应力加载系统抻拉细胞,并且可以在实验前,实验中或者实验后提供切应力。
  • 计算机控制蠕动泵,调节切应力大小,从0-35 dynes/cm2
  • 使用标准正立式显微镜实时观察细胞在切应力下的反应。
  • 检测细胞在流体作用下的排列反应。
  • 加力同时实时检测在液体切应力下各种激活剂/抑制剂对细胞反应的影响。使用荧光团例如FURA-2检测细胞内[Ca2+]ic或者其它离子对切应力反应。(可以与str-4000六通道切应力系统配套使用) 
    FlexFlow系统包括:
  • FlexFlow装置;StreamSoft软件
  • FlexFlow快拆接头、胶管、FlexFlow 旁路连接器
  • MASTERFLEX L/S型号7550-10蠕动泵及配套线缆、连接管
  • 2个稳流器;硅润滑剂
  • FX -5000 张力系统适配器
  • 显微镜适应性FlexFlow底座
  • 快速链接细胞培养基瓶;一个快速链接真空瓶
  • 三个没**和六个**胶原蛋白涂层薄培养载片 (载片规格:75 mm x 24 mm x 0.2 mm
  • 三个没**和六个**胶原涂层StageFlexer膜
  • 配件包

    保证细胞在不同水平恒流或生理剪切力作用下仍保持黏附,在研究中得到了广泛应用。用蠕动泵(peristaltic pump)或注射泵(syringe pump)提供瞬态剪切力使平行板流室的入流管和出流管之间产生压差,使流室内细胞受到均匀,震荡或脉动剪切力的作用

  • 微流纳流HiQ Flowmate微流体控制器


  • 应用文献





  • FLEXFLOW™ AND STREAMER  FLUID SHEAR STRESS SYSTEMS

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    2. Archambault JM, Elfervig-Wall MK, Tsuzaki M, Herzog W, Banes AJ. Rabbit tendon cells produce MMP-3 in response to fluid flow without significant calcium transients. J Biomech 35(3):303-309, 2002.

    3. Ge C, Song J, Chen L, Wang L, Chen Y, Liu X, Zhang Y, Zhang L, Zhang M. Atheroprotective pulsatile flow induces ubiquitin-proteasome-mediated degradation of programmed cell death 4 in endothelial cells. PLoS One 9(3):e91564, 2014. doi: 10.1371/journal.pone.0091564. eCollection 2014.

    4. Clark PR, Jensen TJ, Kluger MS, Morelock M, Hanidu A, Qi Z, Tatake RJ, Pober JS. MEK5 is activated by shear stress, activates ERK5 and induces KLF4 to modulate TNF responses in human dermal microvascular endothelial cells. Microcirculation 18(2):102-117, 2011. doi: 10.1111/j.1549-8719.2010.00071.x.

    5. Eifler RL, Blough ER, Dehlin JM, Haut Donahue TL. Oscillatory fluid flow regulates glycosaminoglycan production via an intracellular calcium pathway in meniscal cells. J Orthop Res 24(3):375-384, 2006.

    6. Elfervig M, Francke E, Archambault J, Herzog W, Tsuzaki M, Bynum D, Brown TD, Banes AJ. Fluid-induced shear stress activates human tendon cells to signal through multiple Ca2+ dependent pathways [abstract]. Transactions of the 46th Annual Meeting of the Orthopaedic Research Society 25:179, 2000.

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    8. Elfervig MK, Minchew JT, Francke E, Tsuzaki M, Banes AJ. IL-1β sensitizes intervertebral disc annulus cells to fluid-induced shear stress. J Cell Biochem 82(2):290-298, 2001.

    9. Finley MJ, Rauova L, Alferiev IS, Weisel JW, Levy RJ, Stachelek SJ. Diminished adhesion and activation of platelets and neutrophils with CD47 functionalized blood contacting surfaces. Biomaterials 33(24):5803-5811, 2012. Epub 2012 May 20.

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    12. Gao X, Wu L, O'Neil RG. Temperature-modulated diversity of TRPV4 channel gating: activation by physical stresses and phorbol ester derivatives through protein kinase C-dependent and -independent pathways. J Biol Chem 278(29):27129-27137, 2003.

    13. Glossop JR, Hidalgo-Bastida LA, Cartmell SH. Fluid shear stress induces differential gene expression of leukemia inhibitory factor in human mesenchymal stem cells. J Biomat Tiss Eng 1:166-176, 2011.

    14. Gortazar AR, Martin-Millan M, Bravo B, Plotkin LI, Bellido T. Crosstalk between caveolin-1/extracellular signal-regulated kinase (ERK) and β-catenin survival pathways in osteocyte mechanotransduction. J Biol Chem 288(12):8168-8175, 2013. doi: 10.1074/jbc.M112.437921. Epub 2013 Jan 28.

    15. Grabias BM, Konstantopoulos K. Epithelial-mesenchymal transition and fibrosis are mutually exclusive reponses in shear-activated proximal tubular epithelial cells. FASEB J 26(10):4131-41, 2012. doi: 10.1096/fj.12-207324. Epub 2012 Jun 28.

    16. Hamamura K, Zhang P, Zhao L, Shim JW, Chen A, Dodge TR, Wan Q, Shih H, Na S, Lin CC, Sun HB, Yokota H. Knee loading reduces MMP13 activity in the mouse cartilage. BMC Musculoskelet Disord 14(1):312, 2013. doi: 10.1186/1471-2474-14-312.

    17. Hosoya T, Maruyama A, Kang MI, Kawatani Y, Shibata T, Uchida K, Warabi E, Noguchi N, Itoh K, Yamamoto M. Differential responses of the Nrf2-Keap1 system to laminar and oscillatory shear stresses in endothelial cells. J Biol Chem 280(29):27244-27250, 2005.

    18. Jaitovich A, Mehta S, Na N, Ciechanover A, Goldman RD, Ridge KM. Ubiquitin-proteasome-mediated degradation of keratin intermediate filaments in mechanically stimulated A549 cells. J Biol Chem 283(37):25348-25355, 2008. Epub 2008 Jul 10.

    19. Kamel MA, Picconi JL, Lara-Castillo N, Johnson ML. Activation of β-catenin signaling in MLO-Y4 osteocytic cells versus 2T3 osteoblastic cells by fluid flow shear stress and PGE2: Implications for the study of mechanosensation in bone. Bone 47(5):872-881, 2010. Epub 2010 Aug 14.

    20. Lee CY, Hsu HC, Zhang X, Wang DY, Luo ZP. Cyclic compression and tension regulate differently the metabolism of chondrocytes. J Musculoskeletal Res 9(2):59-64, 2005.

    21. Malone AM, Batra NN, Shivaram G, Kwon RY, You L, Kim CH, Rodriguez J, Jair K, Jacobs CR. The role of actin cytoskeleton in oscillatory fluid flow-induced signaling in MC3T3-E1 osteoblasts. Am J Physiol Cell Physiol 292(5):C1830-C1836, 2007. Epub 2007 Jan 24.

    22. Metaxa E, Meng H, Kaluvala SR, Szymanski MP, Paluch RA, Kolega J. Nitric oxide-dependent stimulation of endothelial cell proliferation by sustained high flow. Am J Physiol Heart Circ Physiol 295(2):H736-H742, 2008. Epub 2008 Jun 13.

    23. Ni J, Waldman A, Khachigian LM. c-Jun regulates shear- and injury-inducible Egr-1 expression, vein graft stenosis after autologous end-to-side transplantation in rabbits, and intimal hyperplasia in human saphenous veins. J Biol Chem 285(6):4038-4048, 2010. Epub 2009 Nov 23.

    24. Qi J, Chi L, Faber J, Koller B, Banes AJ. ATP reduces gel compaction in osteoblast-populated collagen gels. J Appl Physiol 102(3):1152-60, 2007.

    25. Radel C, Carlile-Klusacek M, Rizzo V. Participation of caveolae in β1 integrin-mediated mechanotransduction. Biochem Biophys Res Commun 358(2):626-631, 2007. Epub 2007 May 7.

    26. Radel C, Rizzo V. Integrin mechanotransduction stimulates caveolin-1 phosphorylation and recruitment of Csk to mediate actin reorganization. Am J Physiol Heart Circ Physiol 288(2):H936-H945, 2005.

    27. Ridge KM, Linz L, Flitney FW, Kuczmarski ER, Chou YH, Omary MB, Sznajder JI, Goldman RD. Keratin 8 phosphorylation by protein kinase C delta regulates shear stress-mediated disassembly of keratin intermediate filaments in alveolar epithelial cells. J Biol Chem 280(34):30400-30405, 2005.

    28. Rosser J, Bonewald LF. Studying osteocyte function using the cell lines MLO-Y4 and MLO-A5. Methods Mol Biol 816:67-81, 2012.

    29. Shim JW, Hamamura K, Chen A, Wan Q, Na S, Yokota H. Rac1 mediates load-driven attenuation of mRNA expression of nerve growth factor beta in cartilage and chondrocytes. J Musculoskelet Neuronal Interact 13(3):372-9, 2013.

    30. Sivaramakrishnan S, DeGiulio JV, Lorand L, Goldman RD, Ridge KM. Micromechanical properties of keratin intermediate filament networks. PNAS 105(3):889–894, 2008.

    31. Sivaramakrishnan S, Schneider JL, Sitikov A, Goldman RD, Ridge KM. Shear stress induced reorganization of the keratin intermediate filament network requires phosphorylation by protein kinase C zeta. Mol Biol Cell 20(11):2755-2765, 2009. Epub 2009 Apr 8.

    32. Srivastava T, McCarthy ET, Sharma R, Cudmore PA, Sharma M, Johnson ML, Bonewald LF. Prostaglandin E(2) is crucial in the response of podocytes to fluid flow shear stress. J Cell Commun Signal 4(2):79-90, 2010. Epub 2010 Apr 8.

    33. Stachelek SJ, Alferiev I, Connolly JM, Sacks M, Hebbel RP, Bianco R, Levy RJ. Cholesterol-modified polyurethane valve cusps demonstrate blood outgrowth endothelial cell adhesion post-seeding in vitro and in vivo. Ann Thorac Surg 81(1):47-55, 2006.

    34. Sun HB, Liu Y, Qian L, Yokota H. Model-based analysis of matrix metalloproteinase expression under mechanical shear. Ann Biomed Eng 31(2):171-180, 2003.

    35. Takai E, Landesberg R, Katz RW, Hung CT, Guo XE. Substrate modulation of osteoblast adhesion strength, focal adhesion kinase activation, and responsiveness to mechanical stimuli. Mol Cell Biomech 3(1):1-12, 2006.

    36. Wang XL, Fu A, Spiro C, Lee HC. Proteomic analysis of vascular endothelial cells-effects of laminar shear stress and high glucose. J Proteomics Bioinform 2:445, 2009.

    37. Wang P, Zhu F, Konstantopoulos K. The antagonistic actions of endogenous interleukin-1β and 15-deoxy-Δ12,14-prostaglandin J2 regulate the temporal synthesis of matrix metalloproteinase-9 in sheared chondrocytes. J Biol Chem 287(38):31877-93, 2012. doi: 10.1074/jbc.M112.362731. Epub 2012 Jul 24.

    38. Wang P, Zhu F, Lee NH, Konstantopoulos K. Shear-induced interleukin-6 synthesis in chondrocytes: roles of E prostanoid (EP) 2 and EP3 in cAMP/protein kinase A- and PI3-K/Akt-dependent NF-kappaB activation. J Biol Chem 285(32):24793-24804, 2010. Epub 2010 Jun 1.

    39. Wu L, Gao X, Brown RC, Heller S, O'Neil RG. Dual role of the TRPV4 channel as a sensor of flow and osmolality in renal epithelial cells. Am J Physiol Renal Physiol 293(5):F1699-F1713, 2007. Epub 2007 Aug 15.

    40. Yang B, Rizzo V. Shear Stress Activates eNOS at the Endothelial Apical Surface Through β1 Containing Integrins and Caveolae. Cell Mol Bioeng 6(3):346-354, 2013.

    41. Yang W, Lu Y, Kalajzic I, Guo D, Harris MA, Gluhak-Heinrich J, Kotha S, Bonewald LF, Feng JQ, Rowe DW, Turner CH, Robling AG, Harris SE. Dentin matrix protein 1 gene cis-regulation: use in osteocytes to characterize local responses to mechanical loading in vitro and in vivo. J Biol Chem 280(21):20680-20690, 2005.

    42. Yokota H, Goldring MB, Sun HB. CITED2-mediated regulation of MMP-1 and MMP-13 in human chondrocytes under flow shear. J Biol Chem 278(47):47275-47280, 2003.

    43. Yoo PS, Mulkeen AL, Dardik A, Cha CH. A novel in vitro model of lymphatic metastasis from colorectal cancer. J Surg Res 143(1):94-98, 2007. Epub 2007 Jul 19.

    44. Zhang K, Barragan-Adjemian C, Ye L, Kotha S, Dallas M, Lu Y, Zhao S, Harris M, Harris SE, Feng JQ, Bonewald LF. E11/gp38 selective expression in osteocytes: regulation by mechanical strain and role in dendrite elongation. Mol Cell Biol 26(12):4539-45, 2006.

    45. Zhu F, Wang P, Kontrogianni-Konstantopoulos A, Konstantopoulos K. Prostaglandin (PG)D(2) and 15-deoxy-Delta(12,14)-PGJ(2), but not PGE(2), mediate shear-induced chondrocyte apoptosis via protein kinase A-dependent regulation of polo-like kinases. Cell Death Differ 17(8):1325-1334, 2010. Epub 2010 Feb 12.

    46. Zhu F, Wang P, Lee NH, Goldring MB, Konstantopoulos K. Prolonged application of high fluid shear to chondrocytes recapitulates gene expression profiles associated with osteoarthritis. PLoS One 5(12):e15174, 2010.

     



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