C–H functionalization chemistry is one of the most vibrant research areas within synthetic organic chemistry. While most researchers focus on the development of small-scale batch-type transformations, more recently such transformations have been carried out in flow reactors to explore new chemical space, to boost reactivity or to enable scalability of this important reaction class. Herein, an up-to-date overview of C–H bond functionalization reactions carried out in continuous-flow microreactors is presented. A comprehensive overview of reactions which establish the formal conversion of a C–H bond into carbon–carbon or carbon–heteroatom bonds is provided; this includes metal-assisted C–H bond cleavages, hydrogen atom transfer reactions and ...
Flow chemistry has become an increasingly popular solution for addressing common issues in organic c...
Privileged strategies for direct transformations of inert aliphatic C–H bonds Guihua Chen and Zhang-...
Flow chemistry is typically used to enable challenging reactions which are difficult to carry out in...
C–H functionalization chemistry is one of the most vibrant research areas within synthetic organic c...
This Perspective presents the fundamental principles, the elementary reactions, the initial catalyti...
Electrochemical C−H functionalization is a rapidly growing area of interest in organic synthesis. To...
\u3cp\u3eIn this chapter, we give an overview of the use of continuous-flow reactors for C. H activa...
The development of new catalytic methods to functionalize carbon–hydrogen (C–H) bonds continues to ...
In this chapter, we give an overview of the use of continuous-flow reactors for C. H activation chem...
Bonds between hydrogen and carbon atoms are the most frequent type of bonds in organic molecules. Th...
The transition-metal-catalyzed activation of C(sp3)–H bonds has emerged as powerful strategy to crea...
Synthetic methods to selectively convert C–H bonds, a prevalent motif in organic molecules, into fun...
Disclosed is a mild, scalable, and chemoselective catalytic cross-dehydrogenative C–H bond functiona...
The development of enabling synthetic methodologies for the chemical manipulation of unfunctionalize...
The site-selective transformation of unactivated, aliphatic C–H bonds is a challenging goal to achie...
Flow chemistry has become an increasingly popular solution for addressing common issues in organic c...
Privileged strategies for direct transformations of inert aliphatic C–H bonds Guihua Chen and Zhang-...
Flow chemistry is typically used to enable challenging reactions which are difficult to carry out in...
C–H functionalization chemistry is one of the most vibrant research areas within synthetic organic c...
This Perspective presents the fundamental principles, the elementary reactions, the initial catalyti...
Electrochemical C−H functionalization is a rapidly growing area of interest in organic synthesis. To...
\u3cp\u3eIn this chapter, we give an overview of the use of continuous-flow reactors for C. H activa...
The development of new catalytic methods to functionalize carbon–hydrogen (C–H) bonds continues to ...
In this chapter, we give an overview of the use of continuous-flow reactors for C. H activation chem...
Bonds between hydrogen and carbon atoms are the most frequent type of bonds in organic molecules. Th...
The transition-metal-catalyzed activation of C(sp3)–H bonds has emerged as powerful strategy to crea...
Synthetic methods to selectively convert C–H bonds, a prevalent motif in organic molecules, into fun...
Disclosed is a mild, scalable, and chemoselective catalytic cross-dehydrogenative C–H bond functiona...
The development of enabling synthetic methodologies for the chemical manipulation of unfunctionalize...
The site-selective transformation of unactivated, aliphatic C–H bonds is a challenging goal to achie...
Flow chemistry has become an increasingly popular solution for addressing common issues in organic c...
Privileged strategies for direct transformations of inert aliphatic C–H bonds Guihua Chen and Zhang-...
Flow chemistry is typically used to enable challenging reactions which are difficult to carry out in...