Abstract: The present disclosure relates to chimeric small molecules, which find utility as modifiers of target substrates according to the formula A-L1-E-B or A-L1-E-L2-B, wherein A is a kinase binding moiety; B is a target binding moiety; L1 and L2 are each a linker; and E is an electrophilic reactive group. Molecules according to the present invention find use making substrate modifications such as post-translational modifications to targets that are not the natural substrate of the kinase; accordingly, diseases or disorders may be treated or prevented with molecules of the present disclosure.

Abstract: The present disclosure relates to chimeric small molecules, which find utility as modifiers of target substrates according to the formula A-L1-E-B or A-L1-E-L2-B, wherein A is a kinase binding moiety; B is a target binding moiety; L1 and L2 are each a linker; and E is an electrophilic reactive group. Molecules according to the present invention find use making substrate modifications such as post-translational modifications to targets that are not the natural substrate of the kinase; accordingly, diseases or disorders may be treated or prevented with molecules of the present disclosure.

Abstract: The present disclosure relates to bifunctional chemical conjugation molecules, which find utility as modifiers of target substrates. The present disclosure includes multifunctional compounds comprising an enzyme binding moiety, a chemical linker moiety, and a target binding moiety, which may further include an electrophilic reactive group. Molecules according to the present invention find use making substrate modifications such as post-translational modifications to proteins that are not the natural substrate of the enzyme. Diseases or disorders may be treated or prevented with molecules of the present disclosure.

Abstract: The present disclosure relates to bifunctional chemical conjugation molecules, which find utility as modifiers of target substrates. The present disclosure includes multifunctional compounds comprising an enzyme binding moiety, a chemical linker moiety, and a target binding moiety, which may further include an electrophilic reactive group. Molecules according to the present invention find use making substrate modifications such as post-translational modifications to proteins that are not the natural substrate of the enzyme. Diseases or disorders may be treated or prevented with molecules of the present disclosure.