Do** approaches for organic semiconductors
Electronic do** in organic materials has remained an elusive concept for several
decades. It drew considerable attention in the early days in the quest for organic materials …
decades. It drew considerable attention in the early days in the quest for organic materials …
Recent advances in n-type organic thermoelectric materials, dopants, and do** strategies
Recently, organic thermoelectric (TE) materials have been intensively studied because of
their great potential for application in flexible/wearable TE generators for power generation …
their great potential for application in flexible/wearable TE generators for power generation …
Double do** of conjugated polymers with monomer molecular dopants
Molecular do** is a crucial tool for controlling the charge-carrier concentration in organic
semiconductors. Each dopant molecule is commonly thought to give rise to only one …
semiconductors. Each dopant molecule is commonly thought to give rise to only one …
High‐Efficiency Ion‐Exchange Do** of Conducting Polymers
Molecular do**—the use of redox‐active small molecules as dopants for organic
semiconductors—has seen a surge in research interest driven by emerging applications in …
semiconductors—has seen a surge in research interest driven by emerging applications in …
Strategic insights into semiconducting polymer thermoelectrics by leveraging molecular structures and chemical do**
Thermoelectric (TE) materials can realize the direct transformation between heat and
electricity, thereby facilitating the recycling of waste heat. Semiconducting π-conjugated …
electricity, thereby facilitating the recycling of waste heat. Semiconducting π-conjugated …
Charge‐Transfer Complexes: Fundamentals and Advances in Catalysis, Sensing, and Optoelectronic Applications
Supramolecular assemblies, formed through electronic charge transfer between two or more
entities, represent a rich class of compounds dubbed as charge‐transfer complexes (CTCs) …
entities, represent a rich class of compounds dubbed as charge‐transfer complexes (CTCs) …
Ground-state electron transfer in all-polymer donor–acceptor heterojunctions
Do** of organic semiconductors is crucial for the operation of organic (opto) electronic
and electrochemical devices. Typically, this is achieved by adding heterogeneous dopant …
and electrochemical devices. Typically, this is achieved by adding heterogeneous dopant …
n-type charge transport in heavily p-doped polymers
It is commonly assumed that charge-carrier transport in doped π-conjugated polymers is
dominated by one type of charge carrier, either holes or electrons, as determined by the …
dominated by one type of charge carrier, either holes or electrons, as determined by the …
Controlling the formation of charge transfer complexes in chemically doped semiconducting polymers
Chemical do** of semiconducting polymers predominantly takes place via integer charge
transfer (ICT), where an electron is entirely removed from the host conjugated polymer and …
transfer (ICT), where an electron is entirely removed from the host conjugated polymer and …
Structural and dynamic disorder, not ionic trap**, controls charge transport in highly doped conducting polymers
Doped organic semiconductors are critical to emerging device applications, including
thermoelectrics, bioelectronics, and neuromorphic computing devices. It is commonly …
thermoelectrics, bioelectronics, and neuromorphic computing devices. It is commonly …