Miniaturise genetic engineering on lab-on-a-chip devices.
Lab-on-a-Chip: Miniaturized Genetic Engineering focuses on shrinking the molecular-biology workflow onto a chip. You learn how microfluidic devices perform genetic-engineering steps at microscale — on-chip PCR and amplification, DNA manipulation, cell handling and analysis — and the flow physics and fabrication that make it possible. The course centres on the genetic-engineering applications specifically: rapid diagnostics, point-of-care genetics and integrated molecular workflows. You finish able to reason about designing a lab-on-a-chip for a genetic-engineering task. A verified e-Certificate of competency and e-Marksheet from the Deep Science & Technology Consortium.
This course covers lab-on-a-chip for miniaturised genetic engineering — microfluidic devices that perform DNA manipulation, amplification and analysis at chip scale.
1. Explain microscale flow and device fabrication.
2. Perform on-chip PCR and amplification.
3. Handle DNA and cells at chip scale.
4. Integrate molecular workflows on a chip.
5. Match devices to genetic-engineering uses.
• Bioengineering and microfluidics researchers
• Molecular-diagnostics scientists
• Biotech device developers
• Students of lab-on-a-chip technology
• An understanding of lab-on-chip genetic engineering.
• A miniaturised-workflow perspective.
• A microfluidics-for-genetics foundation.
• A verified e-Certificate of competency and e-Marksheet from the Deep Science & Technology Consortium.
Implement biomedical engineering with BioMEMS for practical foundations of labonachip miniaturized genetic engineering and core biological principles applications and outcomes. • Design Biotechnology Applications with Genetic Engineering for practical foundations of labonachip miniaturized genetic engineering and core biological principles applications and outcomes. • Analyze Healthcare Innovation with Lab-on-a-Chip for practical foundations of labonachip miniaturized genetic engineering and core biological principles applications and outcomes.
Implement biomedical engineering with BioMEMS for practical laboratory techniques, protocols, and data collection applications and outcomes. • Design Biotechnology Applications with Genetic Engineering for practical laboratory techniques, protocols, and data collection applications and outcomes. • Analyze Healthcare Innovation with Lab-on-a-Chip for practical laboratory techniques, protocols, and data collection applications and outcomes.
Implement biomedical engineering with BioMEMS for practical bioinformatics tools and computational analysis applications and outcomes. • Design Biotechnology Applications with Genetic Engineering for practical bioinformatics tools and computational analysis applications and outcomes. • Analyze Healthcare Innovation with Lab-on-a-Chip for practical bioinformatics tools and computational analysis applications and outcomes.
Implement biomedical engineering with BioMEMS for practical research methodology and experimental design applications and outcomes. • Design Biotechnology Applications with Genetic Engineering for practical research methodology and experimental design applications and outcomes. • Analyze Healthcare Innovation with Lab-on-a-Chip for practical research methodology and experimental design applications and outcomes.
Implement biomedical engineering with BioMEMS for practical advanced labonachip miniaturized genetic engineering applications and translational research applications and outcomes. • Design Biotechnology Applications with Genetic Engineering for practical advanced labonachip miniaturized genetic engineering applications and translational research applications and outcomes. • Analyze Healthcare Innovation with Lab-on-a-Chip for practical advanced labonachip miniaturized genetic engineering applications and translational research applications and outcomes.
Implement biomedical engineering with BioMEMS for practical regulatory compliance, bioethics, and safety standards applications and outcomes. • Design Biotechnology Applications with Genetic Engineering for practical regulatory compliance, bioethics, and safety standards applications and outcomes. • Analyze Healthcare Innovation with Lab-on-a-Chip for practical regulatory compliance, bioethics, and safety standards applications and outcomes.
Implement biomedical engineering with BioMEMS for practical industry applications, career pathways, and case studies applications and outcomes. • Design Biotechnology Applications with Genetic Engineering for practical industry applications, career pathways, and case studies applications and outcomes. • Analyze Healthcare Innovation with Lab-on-a-Chip for practical industry applications, career pathways, and case studies applications and outcomes.
| Parameter | Requirement |
|---|---|
| Covered Tool / Platform | biomedical engineering |
| Covered Tool / Platform | Genetic Engineering |
| Covered Tool / Platform | Healthcare Innovation |
| Covered Tool / Platform | LOC Fabrication Techniques |
| Covered Tool / Platform | microfluidics |
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