Titlebook: Designing Droplet Microfluidic Networks; A Toolbox for Design Andreas Grimmer,Robert Wille Book 2020 Springer Nature Switzerland AG 2020 La

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Simulating Droplet Microfluidic Networksality. This results in a complex task as design parameters often depend on and affect each other. In order to handle this complex task, models and simulation methods can be employed in the design process. These models and simulation methods allow for deriving the design, for validating the functiona

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Designing Meandersre frequently used in different platforms but always have to fit the respective application and design rules. This chapter presents a method which is capable of automatically generating user-defined, two-dimensional designs of fluidic meander channels facilitating fluidic hydrodynamic resistances. T

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Passive Droplet Routing enters the channel with the highest instantaneous volumetric flow rate. By exploiting this mechanism, entirely passive microfluidic networks can be designed, which allow to control a droplet to flow through an intended path through a microfluidic network. This supports the execution of multiple dif

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Generating Droplet Sequencesetwork and, by this, allows for executing different experiments on a single device. But in order to establish a routing for the payload, a dedicated orchestration of droplet injections has to be realized. In fact, whenever a payload is supposed to take a non-default successor at any bifurcation in t

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Integrated Design Process the consideration of a large number of design parameters. Thus far, no integrated design process for this is available. In order to improve this status quo, the chapters of Part II of this book presented a variety of tools for microfluidics in general, which supports designers in single tasks like

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