Dynamic covalent chemistry forms the key ingredient for a new approach towards organic synthesis. Dynamic covalent chemistry regards the synthesis of covalent organic molecules under thermodynamic control. It relies on the use of covalent bonds that can be reversibly formed under the experimental conditions. It combines the advantages typically associated with noncovalent synthesis (the formation of molecular structures using noncovalent interactions), such as spontaneous formation, error-correction and proof reading, with the robustness of covalent bonds. For many covalent bonds experimental conditions are known under which the reaction occurs reversibly, but the majority of systems relies on trans(thio)esterifications, disulfide or imine-...
Strong covalent chemical bonds that can also be reversed, cleaved or exchanged are the subject of so...
Strong covalent chemical bonds that can also be reversed, cleaved or exchanged are the subject of so...
Strong covalent chemical bonds that can also be reversed, cleaved or exchanged are the subject of so...
This review summarizes the use of orthogonal dynamic covalent bonds to build functional systems. Dyn...
The first and only exhaustive review of the theory, thermodynamic fundamentals, mechanisms, and desi...
Molecular recognition is at the centre of many areas of chemistry. Examples are analytical chemistry...
A review on the concept of dynamic combinatorial chem. (DCC) and illustration in which areas of DCC ...
In the past 15 years, the chemistry of reversible covalent bond formation (dynamic covalent chemistr...
The ability to design reaction networks with high, but addressable complexity is a necessary prerequ...
The ability to design reaction networks with high, but addressable complexity is a necessary prerequ...
Achieving complexity is central to the creation of chemical systems, inspired by natural systems. He...
The ability to design reaction networks with high, but addressable complexity is a necessary prerequ...
Strong covalent chemical bonds that can also be reversed, cleaved or exchanged are the subject of so...
The ability to design reaction networks with high, but addressable complexity is a necessary prerequ...
The ability to design reaction networks with high, but addressable complexity is a necessary prerequ...
Strong covalent chemical bonds that can also be reversed, cleaved or exchanged are the subject of so...
Strong covalent chemical bonds that can also be reversed, cleaved or exchanged are the subject of so...
Strong covalent chemical bonds that can also be reversed, cleaved or exchanged are the subject of so...
This review summarizes the use of orthogonal dynamic covalent bonds to build functional systems. Dyn...
The first and only exhaustive review of the theory, thermodynamic fundamentals, mechanisms, and desi...
Molecular recognition is at the centre of many areas of chemistry. Examples are analytical chemistry...
A review on the concept of dynamic combinatorial chem. (DCC) and illustration in which areas of DCC ...
In the past 15 years, the chemistry of reversible covalent bond formation (dynamic covalent chemistr...
The ability to design reaction networks with high, but addressable complexity is a necessary prerequ...
The ability to design reaction networks with high, but addressable complexity is a necessary prerequ...
Achieving complexity is central to the creation of chemical systems, inspired by natural systems. He...
The ability to design reaction networks with high, but addressable complexity is a necessary prerequ...
Strong covalent chemical bonds that can also be reversed, cleaved or exchanged are the subject of so...
The ability to design reaction networks with high, but addressable complexity is a necessary prerequ...
The ability to design reaction networks with high, but addressable complexity is a necessary prerequ...
Strong covalent chemical bonds that can also be reversed, cleaved or exchanged are the subject of so...
Strong covalent chemical bonds that can also be reversed, cleaved or exchanged are the subject of so...
Strong covalent chemical bonds that can also be reversed, cleaved or exchanged are the subject of so...