18389977. MICROFLUIDIC DEVICE AND A METHOD FOR MANUFACTURING A MICROFLUIDIC DEVICE simplified abstract (IMEC VZW)
Contents
MICROFLUIDIC DEVICE AND A METHOD FOR MANUFACTURING A MICROFLUIDIC DEVICE
Organization Name
Inventor(s)
Philippe Soussan of Wavre (BE)
Tim Stakenborg of Heverlee (BE)
MICROFLUIDIC DEVICE AND A METHOD FOR MANUFACTURING A MICROFLUIDIC DEVICE - A simplified explanation of the abstract
This abstract first appeared for US patent application 18389977 titled 'MICROFLUIDIC DEVICE AND A METHOD FOR MANUFACTURING A MICROFLUIDIC DEVICE
Simplified Explanation: The microfluidic device described in the patent application includes a structure in a pocket-defining layer, a semiconductor chip with electrodes, an electrical connection layer with electronic connections, and fluidic channels for communication with the electrodes.
- The device has at least one structure in a pocket-defining layer.
- A semiconductor chip with electrodes is placed in the pocket.
- An electrical connection layer above the chip has electronic connections extending laterally.
- Fluidic channels extend through the layer and above the chip for communication with the electrodes.
Key Features and Innovation:
- Integration of a semiconductor chip with electrodes in a microfluidic device.
- Electrical connection layer with electronic connections for the electrodes.
- Fluidic channels for communication with the electrodes.
- Compact design for efficient fluidic and electrical connections.
- Potential for precise control and monitoring of microfluidic processes.
Potential Applications:
- Biomedical research for analyzing biological samples.
- Environmental monitoring for detecting pollutants.
- Pharmaceutical development for drug testing.
- Chemical analysis for quality control.
- Point-of-care diagnostics for rapid testing.
Problems Solved:
- Integration of electronic and fluidic components in a compact device.
- Precise control and monitoring of microfluidic processes.
- Efficient communication between electrodes and fluidic channels.
- Enhanced capabilities for various applications in research and industry.
Benefits:
- Improved efficiency and accuracy in microfluidic processes.
- Compact design for space-saving and portability.
- Versatile applications in different fields.
- Enhanced control and monitoring capabilities.
- Potential for automation and high-throughput analysis.
Commercial Applications: The microfluidic device can be used in various industries such as healthcare, environmental monitoring, pharmaceuticals, and research laboratories. Its compact design, precise control, and versatile applications make it valuable for commercial use in different sectors.
Questions about Microfluidic Device: 1. How does the integration of electronic connections enhance the functionality of the microfluidic device? 2. What are the potential challenges in scaling up the production of these devices for commercial use?
Frequently Updated Research: Ongoing research in microfluidics focuses on improving the sensitivity and specificity of detection methods, enhancing the integration of multiple functions on a single chip, and exploring new materials for better performance and durability. Stay updated on the latest advancements in microfluidic technology for potential future applications and innovations.
Original Abstract Submitted
According to an aspect of the present inventive concept there is provided a microfluidic device comprising: at least one structure arranged in a pocket-defining layer defining a pocket in the pocket-defining layer; a semiconductor chip arranged in the pocket, the semiconductor chip comprising at least one electrode at the surface of the semiconductor chip; an electrical connection layer arranged above the semiconductor chip, wherein the electrical connection layer comprises electronic connections electrically connected to the at least one electrode and arranged to extend laterally in the electrical connection layer away from the semiconductor chip; at least one fluidic channel extending through the pocket-defining layer and above the semiconductor chip, the fluidic channel being arranged to be in fluidic communication with the at least one electrode.
