We demonstrate thin-film ferroelectric transistors, made entirely from organic materials that are processed from solution. The devices consist of thin ferroelectric poly(vinylidene fluoride/trifluoroethylene) films sandwiched between electrodes made of conducting poly(3,4-ethylenedioxythiophene) stabilized with polystyrene-4-sulphonic acid. On top of this stack, an organic semiconductor is applied. The ferroelectric transistors, constructed using unipolar p- or n-type semiconductor channels, have remnant current modulations of similar to 10(3) with a retention time of hours. They can be switched in 0.1-1 ms at operating voltages less than 10 V
Most of the envisaged applications of organic electronics require a nonvolatile memory that can be p...
Most of the envisaged applications of organic electronics require a nonvolatile memory that can be p...
Most of the envisaged applications of organic electronics require a nonvolatile memory that can be p...
We demonstrate thin-film ferroelectric transistors, made entirely from organic materials that are pr...
We demonstrate thin-film ferroelectric transistors, made entirely from organic materials that are pr...
We demonstrate thin-film ferroelectric transistors, made entirely from organic materials that are pr...
We demonstrate thin-film ferroelectric transistors, made entirely from organic materials that are pr...
\u3cp\u3eWe demonstrate thin-film ferroelectric transistors, made entirely from organic materials th...
We demonstrate organic nonvolatile memories based on transistors, made from spin-coated polymers, th...
We demonstrate organic nonvolatile memories based on transistors, made from spin-coated polymers, th...
We demonstrate organic nonvolatile memories based on transistors, made from spin-coated polymers, th...
We demonstrate organic nonvolatile memories based on transistors, made from spin-coated polymers, th...
We demonstrate a rewritable, non-volatile memory device with flexible plastic active layers deposite...
Most of the envisaged applications of organic electronics require a nonvolatile memory that can be p...
We demonstrate a rewritable, non-volatile memory device with flexible plastic active layers deposite...
Most of the envisaged applications of organic electronics require a nonvolatile memory that can be p...
Most of the envisaged applications of organic electronics require a nonvolatile memory that can be p...
Most of the envisaged applications of organic electronics require a nonvolatile memory that can be p...
We demonstrate thin-film ferroelectric transistors, made entirely from organic materials that are pr...
We demonstrate thin-film ferroelectric transistors, made entirely from organic materials that are pr...
We demonstrate thin-film ferroelectric transistors, made entirely from organic materials that are pr...
We demonstrate thin-film ferroelectric transistors, made entirely from organic materials that are pr...
\u3cp\u3eWe demonstrate thin-film ferroelectric transistors, made entirely from organic materials th...
We demonstrate organic nonvolatile memories based on transistors, made from spin-coated polymers, th...
We demonstrate organic nonvolatile memories based on transistors, made from spin-coated polymers, th...
We demonstrate organic nonvolatile memories based on transistors, made from spin-coated polymers, th...
We demonstrate organic nonvolatile memories based on transistors, made from spin-coated polymers, th...
We demonstrate a rewritable, non-volatile memory device with flexible plastic active layers deposite...
Most of the envisaged applications of organic electronics require a nonvolatile memory that can be p...
We demonstrate a rewritable, non-volatile memory device with flexible plastic active layers deposite...
Most of the envisaged applications of organic electronics require a nonvolatile memory that can be p...
Most of the envisaged applications of organic electronics require a nonvolatile memory that can be p...
Most of the envisaged applications of organic electronics require a nonvolatile memory that can be p...