Date

2022年3月1日 (火) 14:00 15:00

PhD public presentation

Date

2022年3月9日 (水) 16:00

 PhD Thesis Public Presentation

Date

2022年2月21日 (月) 17:00 18:00

PhD Thesis Public Presentation

Date

2022年2月8日 (火) 9:00 10:00

PhD Thesis Public Presentation

Date

2022年2月24日 (木) 17:00 18:00

PhD Thesis Public Presentation

Date

2022年2月15日 (火) 9:00 10:00

PhD Thesis Public Presentation

Date

2022年2月4日 (金) 9:00 10:00

 PhD Thesis Public Presentation

Date

2021年12月8日 (水) 12:10 12:50

Living electronics and fate of plastics

 

Organic electronics is a rising field, with novel applications including but not limited to stretchable solar cells, flexible display screens, and biosensors. The high performance of these organic electronics is enabled by the outstanding optoelectronic and thermomechanical features of organic semiconducting materials. As the field has progressed, bioelectronics has attracted increasing interest. Bioelectronics, merging manufactured electronics and biology, has emerged as a promising platform for translating electronic signals into ionic ones and vice versa, converting ionic signals into electronic signals (e.g., biosensors and ionic skins). As a result, in recent years, applications in tissue engineering, drug delivery, electrophoresis and physiology have been developed. As we look into the future of bioelectronics, “living” electronics that merge the synthetic and biological world, holds some interest.

Separate to the above, microplastics composed of various plastic and polymeric materials pose as a major global environmental issue that can cause detrimental consequences to marine organisms and across the food chain. We have been collaborating with researchers at UW to identify microplastics in marine organisms in the Puget Sound and have identified that not all organisms consume the same microplastics.

In both projects, we seek to initiate collaborations with those at OIST and look forward to initiating discussions with various units.  

Living electronics and fate of plastics

 

Organic electronics is a rising field, with novel applications including but not limited to stretchable solar cells, flexible display screens, and biosensors. The high performance of these organic electronics is enabled by the outstanding optoelectronic and thermomechanical features of organic semiconducting materials. As the field has progressed, bioelectronics has attracted increasing interest. Bioelectronics, merging manufactured electronics and biology, has emerged as a promising platform for translating electronic signals into ionic ones and vice versa, converting ionic signals into electronic signals (e.g., biosensors and ionic skins). As a result, in recent years, applications in tissue engineering, drug delivery, electrophoresis and physiology have been developed. As we look into the future of bioelectronics, “living” electronics that merge the synthetic and biological world, holds some interest.

Separate to the above, microplastics composed of various plastic and polymeric materials pose as a major global environmental issue that can cause detrimental consequences to marine organisms and across the food chain. We have been collaborating with researchers at UW to identify microplastics in marine organisms in the Puget Sound and have identified that not all organisms consume the same microplastics.

In both projects, we seek to initiate collaborations with those at OIST and look forward to initiating discussions with various units.  

Date

2021年11月23日 (火) 18:30 19:00

Ph.D Thesis Presentation for External by Sam Ross

 

 

 

Date

2022年6月7日 (火) 9:00 10:00

PhD Thesis Public Presenetation

Pages