
Bangs Lab荧光羧基聚苯乙烯:
荧光羧基微球是通过将染料扩散或包埋到聚合物基质中,随后对表面进行功能化而制成的。因此,整个表面都可用于您感兴趣的生物分子的共价连接。
嵌入荧光团、表面包覆羧基的微球含有铕(Ⅲ)螯合物,用于侧流实验中的时间分辨荧光检测,Bangs Lab的产品具有强荧光,可提供清晰的读数。Bangs Lab还提供PolyLink蛋白质偶联试剂盒,其中含有适当配制的试剂,用于与Bangs Lab的羧基化微球进行偶联。
| CAT.# | PRODUCT NAME | SPEC RANGE | FLUORESCENT EX/EM(NM) |
| 21960 | Europium Chelate COOH Sampler Pack(1mL each diameter) | 0.1um,0.2um,0.3um,0.4um | 365/610 |
| FCEU001 | Fluorescent Carboxyl Polystyrene Microspheres,Europium Chelate-0.10μm | 0.090-0.110um | 365/610 |
| FCEU002 | Fluorescent Carboxyl Polystyrene Microspheres,Europium Chelate-0.20μm | 0.190-0.210um | 365/610 |
| FCEU003 | Fluorescent Carboxyl Polystyrene Microspheres,Europium Chelate -0.30μm | 0.270-0.330um | 365/610 |
| FCEU004 | Fluorescent Carboxy Polystyrene Microspheres,Europium Chelate -0.40μm | 0.370-0.430um | 365/610 |
羧基铕螯合物纳米颗粒
Bangs Lab的高荧光铕(Ⅲ)纳米颗粒不仅具有卓越的稳定性,还拥有功能化的羧基化表面,可用于配体的共价连接。Bangs Lab的铕(Ⅲ)纳米颗粒已被用于开发基于时间分辨(TRF)荧光的高灵敏度实验(微孔板、侧流)以及化学发光实验中的颗粒标签。这些微球以约1%固体含量(质量体积比)的水悬浮液形式提供。查看激发和发射光谱,了解Bangs Lab在铕螯合物宣传册中与竞争对手的对比情况。
SDS DG 130,染色聚合物颗粒,染色羧基聚合物颗粒,染色聚合物颗粒,染色羧基聚合物颗粒,荧光聚合物颗粒,荧光羧基聚合物颗粒,铕螯合物COOH样品包
荧光羧基聚苯乙烯
生物分子可以共价固定到羧基功能化的微球上。荧光羧基微球以约1%固体含量(质量体积比)的水悬浮液形式提供,标准包装体积为1毫升、5毫升、10毫升和100毫升。另请查看Bangs Lab的Quantumplex试剂盒,用于悬浮阵列开发。
| CAT.# | PRODUCT NAME | SPEC RANGE | FLUORESCENT EX/EN |
| FCDG001 | Fluorescent Carboxyl Polystyrene Microspheres,Dragon Green- 0.05um | 0.040-0.060um | 480/520 |
| FCDG002 | Fluorescent Carboxyl Polystyrene Microsphees,Dragon Green- 0.10um | 0.090-0.110um | 480/520 |
| FCDG003 | FluorescentCarboxyl Polystyrene Microspheres,Dragon Green- 0.20um | 0.190-0.210um | 480/520 |
| FCDG004 | Fluorescent Carboxyl Polystyrene Microspheres,Dragon Green- 0.40um | 0.370-0.430um | 480/520 |
| FCDG005 | Fluorescent Carboxvl Polystyrene Microspheres,Dragon Green 0.50um | -0470-0.530un | 480/520 |
| FCDG006 | Fluorescent Carboxyl Polystyrene Microspheres,Dragon Green- 1.0um | 0.95-1.05um | 480/520 |
| FCDG008 | Fluorescent Carboxyl Polystyrene Microspheres,Dragon Green- 5.0um | 4.80-5.20um | 480/520 |
| FCDG009 | Fluorescent Carboxyl Polystyrene Microspheres,Dragon Green- 10.0um | 9.50-10.50um | 480/520 |
| FCDG011 | Fluorescent Carboxyl Polystyrene Microspheres,Dragon Green- 15.0um | 14.50-15.50um | 480/520 |
| FCEG006 | Fluorescent Carboxyl Polystyrene Microspheres,Envy Green- 1.0um | 0.95-1.05um | 525/565 |
| FCEG008 | Fluorescent Carboxyl Polystyrene Microspheres,Envy Green- 5.0um | 4.80-5.20um | 525/565 |
| FCFR001 | Fluorescent Carboxyl Polystyrene Microspheres,Flash Red- 0.05um | 0.040-0.060um | 660/690 |
| FCFR003 | Fluorescent Carboxyl Polystyrene Microspheres,Flash Red- 0.20um | 0.190-0.210um | 660/690 |
| FCFR004 | Fluorescent Carboxyl Polystyrene Microspheres,Flash Red- 0.40um | 0.370-0.430um | 660/690 |
| FCFR005 | Fluorescent Carboxyl Polystyrene Microspheres,Flash Red- 0.50um | 0.470-0.530um | 660/690 |
| FCFR006 | Fluorescent Carboxyl Polystyrene Microspheres,Flash Red- 1.0um | 0.95-1.05um | 660/690 |
| FCFR008 | Fluorescent Carboxyl Polystyrene Microspheres,Flash Red- 5.0um | 4.80-5.20um | 660/690 |
| FCGB003 | Fluorescent Carboxyl Polystyrene Microspheres,Glacial Blue- 0.20um | 0.190-0.210um | 360/450 |
文献参考:
Lee, M, Reece, P, Marchington, R, Metzger, N, Dholakia, K (2007) Construction and calibration of an optical trap on a fluorescence optical microscope. Nat. Protocols V.2 p3226-3238
Mattheyses, A, Simon, S, Rappoport, J (2010) Imaging with total internal reflection fluorescence microscopy for the cell biologist J Cell Sci 123: 3621-3628
Sun, Z, Martinez-Lemus, L, Trache, A, Trzeciakowski, J, Davis, G, Pohl, U, Meininger,G (2005) Mechanical properties of the interaction between fibronectin and α5β1-integrin on vascular smooth muscle cells studied using atomic force microscopy. Am J Physiol Heart Circ Physiol, 289(6) H2526-H2535
Ogilvie, J, Beaurepaire, E, Alexandrou, A, Joffre, M, (2006) Fourier-transform coherent anti-Stokes Raman scattering microscopy. Optics Letters, Optical Society of America, 31(4), p480-2.
Chen X, Wang J, Versluis M, de Jong N, Villanueva FS.(2013) Ultra-fast bright field and fluorescence imaging of the dynamics of micrometer-sized objects. Review of Scientific Instruments 84,063701
Yang Z, Rutherford B, McDonald R, & Houston JP. (2017) Development of far-red and ultraviolet digital frequency-domain flow cytometry systems. IEEE Journal of Selected Topics in Quantum Electronics, 23(3), 59-63.(Flash Red & Glacial Blue microspheres to determine detection sensitivity in a Far-Red and UV modified instrument)
微信扫码在线客服