Hayden Oliver
Siemens Healthcare GmbH, Strategy and Innovation, Technology Center, In-Vitro DX & Bioscience, Günther-Scharowsky-Str. 1, 91058 Erlangen, Germany.
Sensors (Basel). 2016 Oct 10;16(10):1665. doi: 10.3390/s16101665.
High quality binders, such as antibodies, are of critical importance for chemical sensing applications. With synthetic alternatives, such as molecularly imprinted polymers (MIPs), less sensor development time and higher stability of the binder can be achieved. In this feature paper, I will discuss the impact of synthetic binders from an industrial perspective and I will challenge the molecular imprinting community on the next step to leapfrog the current status quo of MIPs for (bio)sensing. Equally important, but often neglected as an effective chemical sensor, is a good match of transducer and MIP coating for a respective application. To demonstrate an application-driven development, a biosensing use case with surface-imprinted layers on piezoacoustic sensors is reported. Depending on the electrode pattern for the transducer, the strong mechanical coupling of the analyte with the MIP layer coated device allows the adoption of the sensitivity from cell mass to cell viability with complete reversibility.
高质量的结合剂,如抗体,对于化学传感应用至关重要。使用合成替代品,如分子印迹聚合物(MIP),可以减少传感器的开发时间并提高结合剂的稳定性。在这篇专题论文中,我将从工业角度讨论合成结合剂的影响,并向分子印迹领域提出挑战,探讨如何迈出下一步,突破当前MIP在(生物)传感方面的现状。同样重要但常被忽视作为有效化学传感器的是,换能器与MIP涂层要针对各自应用进行良好匹配。为了展示应用驱动的开发过程,本文报道了一个在压电声传感器上制备表面印迹层的生物传感应用案例。根据换能器的电极图案,被分析物与涂覆有MIP层的器件之间的强机械耦合使得能够从细胞质量到细胞活力实现灵敏度的调节,且具有完全的可逆性。