The disintegration of transient electronic systems after a preprogrammed time or a particular stimulus (e.g., water, light, or temperature) is fundamentally linked to the properties and behavior of the materials used for their construction. Herein, we demonstrate that polymers exhibiting lower critical solution temperature (LCST) behavior can work as thermoresponsive substrates for circuitry and that these materials can be coupled with conductive nanowires to form a transient electronics platform with unique, irreversible temperature-responsive behavior. The transient systems formed from composites of LCST polymers and conductive nanowires exhibit stable electrical performance in solution (<i>T</i><sub>solution</sub> > LCST) for over 24 h u...
Smart polymers are largely studied and they represent the future of the research into the material’s...
AbstractThis paper presents a conductive fabric with temperature sensing capability. A polycarbonate...
Presented on September 16, 2016 at 12:00 p.m. in the Marcus Nanotechnology Building, room 1116.Paul ...
a b s t r a c t A novel strategy of stimulus sensing is unprecedentedly presented for conductive sha...
Controlled degradation and transiency of materials is of significant importance in the design and fa...
Controlled degradation and transiency of materials is of significant importance in the design and fa...
This paper discusses the design, fabrication and testing of a novel thermoelectric device comprised ...
The inclusion of nanoparticles improves the behavior of shape-memory polymers and allows new functio...
Electronics, which functions for a designed time period and then degrades or destructs, holds promis...
The strongly temperature-dependent ionic mobility in polymer electrolytes is used to "freeze in" spe...
Next-generation microelectronics and electrical power systems call for high-energy-density dielectri...
A new concept is described that creates highly oriented multifunctional polymer nanocomposite tapes ...
Polymer dielectrics offer key advantages over their ceramic counterparts such as flexibility, scalab...
Polymer dielectrics offer key advantages over their ceramic counterparts such as flexibility, scalab...
Polymer dielectrics offer key advantages over their ceramic counterparts such as flexibility, scalab...
Smart polymers are largely studied and they represent the future of the research into the material’s...
AbstractThis paper presents a conductive fabric with temperature sensing capability. A polycarbonate...
Presented on September 16, 2016 at 12:00 p.m. in the Marcus Nanotechnology Building, room 1116.Paul ...
a b s t r a c t A novel strategy of stimulus sensing is unprecedentedly presented for conductive sha...
Controlled degradation and transiency of materials is of significant importance in the design and fa...
Controlled degradation and transiency of materials is of significant importance in the design and fa...
This paper discusses the design, fabrication and testing of a novel thermoelectric device comprised ...
The inclusion of nanoparticles improves the behavior of shape-memory polymers and allows new functio...
Electronics, which functions for a designed time period and then degrades or destructs, holds promis...
The strongly temperature-dependent ionic mobility in polymer electrolytes is used to "freeze in" spe...
Next-generation microelectronics and electrical power systems call for high-energy-density dielectri...
A new concept is described that creates highly oriented multifunctional polymer nanocomposite tapes ...
Polymer dielectrics offer key advantages over their ceramic counterparts such as flexibility, scalab...
Polymer dielectrics offer key advantages over their ceramic counterparts such as flexibility, scalab...
Polymer dielectrics offer key advantages over their ceramic counterparts such as flexibility, scalab...
Smart polymers are largely studied and they represent the future of the research into the material’s...
AbstractThis paper presents a conductive fabric with temperature sensing capability. A polycarbonate...
Presented on September 16, 2016 at 12:00 p.m. in the Marcus Nanotechnology Building, room 1116.Paul ...