In this paper we describe a method for three-dimensional wax patterning of microfluidic paper-based analytical devices (μPADs). The method is rooted in the fundamental details of wax transport in paper and provides a simple way to fabricate complex channel architectures such as hemichannels and fully enclosed channels. We show that three-dimensional μPADs can be fabricated with half as much paper by using hemichannels rather than ordinary open channels. We also provide evidence that fully enclosed channels are efficiently isolated from the exterior environment, decreasing contamination risks, simplifying the handling of the device, and slowing evaporation of solvents
This article describes the use of embossing and “cut-and-stack” methods of assembly, to generate mic...
This article describes the use of embossing and “cut-and-stack” methods of assembly, to generate mic...
This article describes the use of embossing and “cut-and-stack” methods of assembly, to generate mic...
Research done on paper based microfluidic has been escalating since 2007 as paper is because attract...
Microfluidic paper-based analytical devices (µPADs) have emerged as viable multiplexable platforms w...
Research done on paper based microfluidic has been escalating since 2007 as paper is because attract...
Paper-based devices are a portable, user-friendly, and affordable technology that is one of the best...
This paper describes an inexpensive method of fabricating paper based microfluidic devices, a new po...
This paper describes an inexpensive method of fabricating paper based microfluidic devices, a new po...
Simple, user-friendly, economical and rapid sensing devices are in urgent demand for diagnostics pur...
This technical note describes a detailed study on wax printing, a simple and inexpensive method for ...
This article describes the use of embossing and “cut-and-stack” methods of assembly, to generate mic...
This technical note describes a detailed study on wax printing, a simple and inexpensive method for ...
Simple, user-friendly, economical and rapid sensing devices are in urgent demand for diagnostics pur...
This article describes the use of embossing and “cut-and-stack” methods of assembly, to generate mic...
This article describes the use of embossing and “cut-and-stack” methods of assembly, to generate mic...
This article describes the use of embossing and “cut-and-stack” methods of assembly, to generate mic...
This article describes the use of embossing and “cut-and-stack” methods of assembly, to generate mic...
Research done on paper based microfluidic has been escalating since 2007 as paper is because attract...
Microfluidic paper-based analytical devices (µPADs) have emerged as viable multiplexable platforms w...
Research done on paper based microfluidic has been escalating since 2007 as paper is because attract...
Paper-based devices are a portable, user-friendly, and affordable technology that is one of the best...
This paper describes an inexpensive method of fabricating paper based microfluidic devices, a new po...
This paper describes an inexpensive method of fabricating paper based microfluidic devices, a new po...
Simple, user-friendly, economical and rapid sensing devices are in urgent demand for diagnostics pur...
This technical note describes a detailed study on wax printing, a simple and inexpensive method for ...
This article describes the use of embossing and “cut-and-stack” methods of assembly, to generate mic...
This technical note describes a detailed study on wax printing, a simple and inexpensive method for ...
Simple, user-friendly, economical and rapid sensing devices are in urgent demand for diagnostics pur...
This article describes the use of embossing and “cut-and-stack” methods of assembly, to generate mic...
This article describes the use of embossing and “cut-and-stack” methods of assembly, to generate mic...
This article describes the use of embossing and “cut-and-stack” methods of assembly, to generate mic...
This article describes the use of embossing and “cut-and-stack” methods of assembly, to generate mic...