Abstract: Disclosed herein are systems, methods, and compositions for rapidly and reversibly destabilizing a target protein in vitro or in vivo, in the presence or absence of a cell-permeable, synthetic molecule or ligand.

Abstract: Disclosed herein are systems, methods, and compositions for rapidly and reversibly destabilizing a target protein in vitro or in vivo, in the presence or absence of a cell-permeable, synthetic molecule or ligand.

Abstract: Methods and compositions for the rapid and reversible destabilizing of specific proteins in vivo using cell-permeable, synthetic molecules are described.

Abstract: Methods and compositions for the rapid and reversible destabilizing of specific proteins using cell-permeable, synthetic molecules are described. Stability-affecting proteins, e.g., derived from FKBP and DHFR proteins are fused to a protein of interest and the presence or absence of the ligand is used to modulate the stability of the fusion protein.

Abstract: Disclosed herein are a light-inducible system and method for rapidly and reversibly modulating protein stability and function. This system and method employs conditionally stable protein domains that regulate the degradation of a fusion protein depending upon the presence or absence of a particular light source.

Abstract: Disclosed herein are systems, methods and compositions for rapidly and reversibly destabilizing a target protein in vitro or in vivo, in the presence or absence of a cell-permeable, synthetic molecule or ligand.

Abstract: Disclosed herein are a light-inducible system and method for rapidly and reversibly modulating protein stability and function. This system and method employs conditionally stable protein domains that regulate the degradation of a fusion protein depending upon the presence or absence of a particular light source.

Abstract: Methods and compositions for the rapid and reversible destabilizing of specific proteins in vivo using cell-permeable, synthetic molecules are described.

Abstract: Methods and compositions for the rapid and reversible destabilizing of specific proteins in vivo using cell-permeable, synthetic molecules are described.

Abstract: Methods and compositions for the rapid and reversible destabilizing of specific proteins using cell-permeable, synthetic molecules are described. Stability-affecting proteins, e.g., derived from FKBP and DHFR proteins are fused to a protein of interest and the presence or absence of the ligand is used to modulate the stability of the fusion protein.

Abstract: Methods and compositions for the rapid and reversible destabilizing of specific proteins using cell-permeable, synthetic molecules are described. Stability-affecting proteins, e.g., derived from FKBP and DHFR proteins are fused to a protein of interest and the presence or absence of the ligand is used to modulate the stability of the fusion protein.

Abstract: We have developed a general procedure for the regulated (inducible) dimerization or oligomerization of intracellular proteins and disclose methods and materials for using that procedure to regulatably initiate cell-specific apoptosis (programmed cell death) in genetically engineered cells.

Abstract: Bifunctional molecules and methods for their use are provided. The subject bifunctional molecules are conjugates of a drug moiety and a pharmacokinetic modulating moiety, where these two moieties are optionally joined by a linking group. The bifunctional molecules are further characterized in that they exhibit at least one modulated pharmacokinetic property upon administration to a host as compared to a free drug control. The subject bifunctional molecules find use in a variety of therapeutic applications.

Abstract: Dimerization and oligomerization of proteins are general biological control mechanisms that contribute to the activation of cell membrane receptors, transcription factors, vesicle fusion proteins, and other classes of intra- and extracellular proteins. We have developed a general procedure for the regulated (inducible) dimerization or oligomerization of intracellular proteins. In principle, any two target proteins can be induced to associate by treating the cells or organisms that harbor them with cell permeable, synthetic ligands.

Abstract: Methods and compositions for the rapid and reversible destabilizing of specific proteins in vivo using cell-permeable, synthetic molecules are described.

Abstract: Methods and compositions for the rapid and reversible destabilizing of specific proteins using cell-permeable, synthetic molecules are described. Stability-affecting proteins, e.g., derived from FKBP and DHFR proteins are fused to a protein of interest and the presence or absence of the ligand is used to modulate the stability of the fusion protein.

Abstract: Dimerization and oligomerization of proteins are general biological control mechanisms that contribute to the activation of cell membrane receptors, transcription factors, vesicle fusion proteins, and other classes of intra- and extracellular proteins. We have developed a general procedure for the regulated (inducible) dimerization or oligomerization of intracellular proteins. In principle, any two target proteins can be induced to associate by treating the cells or organisms that harbor them with cell permeable, synthetic ligands.

Abstract: Targeted bifunctional molecules and methods for their use are provided. The subject targeted bifunctional molecules are conjugates of a drug moiety and a targeting moiety, where these two moieties are optionally joined by a linking group. The bifunctional molecules are further characterized in that they exhibit a modulated biodistribution upon administration to a host as compared to a free drug control. The subject targeted bifunctional molecules find use in a variety of therapeutic applications.

Abstract: Bifunctional inhibitor molecules and methods for their use in the inhibition of protein—protein interactions are provided. The subject bifunctional inhibitor molecules are conjugates of a target protein ligand and a blocking protein ligand, where these two moieties are optionally joined by a linking group. In the subject methods, an effective amount of the bifunctional inhibitor molecule is administered to a host in which the inhibition of a protein—protein interaction is desired. The bifunctional inhibitor molecule simultaneously binds to its corresponding target and blocking proteins to produce a tripartite complex that inhibits the target protein—protein interaction. The subject methods and compositions find use in a variety of applications, including therapeutic applications.

Abstract: Dimerization and oligomerization of proteins are general biological control mechanisms that contribute to the activation of cell membrane receptors, transcription factors, vesicle fusion proteins, and other classes of intra- and extracellular proteins. We have developed a general procedure for the regulated (inducible) dimerization or oligomerization of intracellular proteins.