Microfluidic Systems for Assisted Reproductive Technologies: Advantages and Potential Applications
	    		
		   		
		   			 
		   		
	    	
    	 
    	10.1007/s13770-020-00311-2
   		
        
        	
        	
        	
        		- Author:
	        		
		        		
		        		
			        		Russel C. SEQUEIRA
			        		
			        		
			        		
			        			1
			        			
			        		
			        		
			        		
			        		
			        		;
		        		
		        		
		        		
			        		Tracy CRISWELL
			        		
			        		;
		        		
		        		
		        		
			        		Anthony ATALA
			        		
			        		;
		        		
		        		
		        		
			        		James J. YOO
			        		
			        		
		        		
		        		
		        		
    Author Information Author Information
 
			        		
			        		
			        			1. Wake Forest Institute for Regenerative Medicine, Wake Forest School of Medicine, Medical Center Boulevard, Winston-Salem, NC 27157, USA
 
 
- Publication Type:R E V I E W A RT I C L E
- From:
	            		
	            			Tissue Engineering and Regenerative Medicine
	            		
	            		 2020;17(6):787-800
	            	
            	
- CountryRepublic of Korea
- Language:English
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		        	Abstract:
			       	
			       		
				        
				        	Microfluidic technologies have emerged as a powerful tool that can closely replicate the in-vivo physiological conditions of organ systems. Assisted reproductive technology (ART), while being able to achieve successful outcomes, still faces challenges related to technical error, efficiency, cost, and monitoring/assessment. In this review, we provide a brief overview of the uses of microfluidic devices in the culture, maintenance and study of ovarian follicle development for experimental and therapeutic applications. We discuss existing microfluidic platforms for oocyte and sperm selection and maintenance, facilitation of fertilization by in-vitro fertilization/intracytoplastimc sperm injection, and monitoring, selection and maintenance of resulting embryos. Furthermore, we discuss the possibility of future integration of these technologies onto a single platform and the limitations facing the development of these systems. In spite of these challenges, we envision that microfluidic systems will likely evolve and inevitably revolutionize both fundamental, reproductive physiology/toxicology research as well as clinically applicable ART.