This paper describes the development of polyimide-based microfluidic devices. A layer transfer and lamination technique is used to fabricate flexible microfluidic channels in various shapes and with a wide range of dimensions. High bond strengths can be achieved by cure cycle adaptation and surface treatment of the polyimide layers prior to bonding. The polyimide microchannels can be combined with metallization layers to fabricate electrodes inside and outside channels. The resulting devices can be used for flexible fluidic and electrical connectors, implantable fluid delivery devices, microelectrodes with embedded fluidic channels, chip-based flow cytometry and for a great variety of other applications in medical, chemical or biological re...
MEMS fluidic devices often require the integration of sensor/actuator structures with freely suspend...
Microfluidics has grown into a flourish field that holds the promise to offer better solutions for v...
International audienceThe fabrication of three-dimensional (3D) microfluidic networks entirely made ...
This paper reports on polyimide microfluidic devices fabricated by photolithography and a layer tran...
A simple method using spin-deposition and sacrificial layer etching is used to fabricate all-polyimi...
The interest of using polyimide as a sacrificial and anchoring layer is demonstrated for post-proces...
Investigations and analyses of body fluids like serum or whole blood are essential tasks in biomedic...
In this paper, we discussed the process to use polyimide as sacrificial layer for micromachining. Th...
Through manipulating fluids using microfabricated channeland chamber structures, microfluidics is a ...
In this article, a novel hybrid fabrication technology is presented that uses both a flexible polyme...
The main focus of this project will be the fabrication and assembly of a working microfluidic device...
This paper presents the characterization of a polymer-based microfluidic system for whole-cell analy...
Microfluidic devices allow for the manipulation of fluids, particles, cells, micro-sized organs or o...
Miniaturization has been the driving force of scientific and technological advances over recent deca...
Micromachined devices with substrate-integrated electrodes are the key component in implantable micr...
MEMS fluidic devices often require the integration of sensor/actuator structures with freely suspend...
Microfluidics has grown into a flourish field that holds the promise to offer better solutions for v...
International audienceThe fabrication of three-dimensional (3D) microfluidic networks entirely made ...
This paper reports on polyimide microfluidic devices fabricated by photolithography and a layer tran...
A simple method using spin-deposition and sacrificial layer etching is used to fabricate all-polyimi...
The interest of using polyimide as a sacrificial and anchoring layer is demonstrated for post-proces...
Investigations and analyses of body fluids like serum or whole blood are essential tasks in biomedic...
In this paper, we discussed the process to use polyimide as sacrificial layer for micromachining. Th...
Through manipulating fluids using microfabricated channeland chamber structures, microfluidics is a ...
In this article, a novel hybrid fabrication technology is presented that uses both a flexible polyme...
The main focus of this project will be the fabrication and assembly of a working microfluidic device...
This paper presents the characterization of a polymer-based microfluidic system for whole-cell analy...
Microfluidic devices allow for the manipulation of fluids, particles, cells, micro-sized organs or o...
Miniaturization has been the driving force of scientific and technological advances over recent deca...
Micromachined devices with substrate-integrated electrodes are the key component in implantable micr...
MEMS fluidic devices often require the integration of sensor/actuator structures with freely suspend...
Microfluidics has grown into a flourish field that holds the promise to offer better solutions for v...
International audienceThe fabrication of three-dimensional (3D) microfluidic networks entirely made ...