Abstract: The disclosure presented herein provides DNA constructs, recombinant cells comprising thereof, system comprising thereof, bacterial probes, and/or a recombinant cell decorated with various labels and/or synthetic agents, wherein said labels and/or synthetic agents can be reversibly modified or removed from the cells. Also disclosed herein are methods for decorating and/or modifying cells, preferably bacteria cells, and methods for using thereof.

Abstract: This invention is directed to His-tag binding compounds and uses thereof in the preparation of genetically targeted detectable molecules and sensors which can specifically bind tag-labeled proteins. This invention further provides a system comprising recombinant cells decorated with various labels and/or synthetic agents, wherein said labels and/or synthetic agents can be reversibly modified or removed from the cells. Also disclosed herein are methods for decorating and/or modifying the cells and methods for using thereof.

Abstract: The disclosure presented herein provides artificial receptors and a system comprising recombinant cells decorated with various labels and/or synthetic agents, wherein said labels and/or synthetic agents can be reversibly modified or removed from the cells. Also disclosed herein are methods for decorating and/or modifying the cells and methods for using thereof.

Abstract: This invention is directed to a turn-on fluorescent probe, wherein said probe comprises a quinoline based cyanine dye derivative (QBC) and a specific protein binder covalently attached thereto directly or via a linker. This invention is further directed to His-tag binding compounds and uses thereof in the preparation of genetically targeted detectable molecules and sensors which can specifically bind tag-labeled proteins. This invention further describes methods for using these turn-on probes and compounds for detecting and labelling a wide range of proteins in their native environment.

Abstract: This invention is directed to His-tag binding compounds and uses thereof in the preparation of genetically targeted detectable molecules and sensors which can specifically bind tag-labeled proteins. This invention further provides a system comprising recombinant cells decorated with various labels and/or synthetic agents, wherein said labels and/or synthetic agents can be reversibly modified or removed from the cells. Also disclosed herein are methods for decorating and/or modifying the cells and methods for using thereof.

Abstract: The present invention is directed to fluorescent molecular sensor based on Thiazole Orange for protein detection. Interaction of the protein target with the molecular sensors of this invention results in a significant increase in the fluorescence emission. The generation of light output signal enables one to detect protein biomarkers associated with different diseases or detecting the protein of interest also in living cells.

Abstract: This invention is directed to monomolecular sensors, comprising a selective binder, a non-selective binder and a fluorophore, which can track changes that occur on the surface of labeled proteins. This invention is further directed to the use of such sensors for identifying binding partners of specific proteins. This invention is further directed to His-tag binding compounds and uses thereof in the preparation of genetically targeted detectable molecules and sensors which can specifically bind tag-labeled proteins.

Abstract: The present invention is directed to fluorescent protein biosensors based on oligonucleotide cross reactive sensor arrays including a selective and a non-selective protein surface binding domain for protein detection. Interaction of different protein isoforms with the sensors of this invention yields a unique optical signature for each protein. The unique optical signature allows differentiating between closely related protein isoforms and diagnosing diseases and disorders associated with the proteins also in biofluids.

Abstract: The present invention is directed to fluorescent molecular sensor based on Thiazole Orange for protein detection. interaction of the protein target with the molecular sensors of this invention results in a significant increase in the fluorescence emission. The generation of light output signal enables one to detect protein biomarkers associated with different diseases or detecting the protein of interest also in living cells.

Abstract: The present invention is directed to fluorescent molecular sensor based on Thiazole Orange for protein detection. Interaction of the protein target with the molecular sensors of this invention results in a significant increase in the fluorescence emission. The generation of light output signal enables one to detect protein biomarkers associated with different diseases or detecting the protein of interest also in living cells.

Abstract: This invention is directed to monomolecular sensors, comprising a selective binder, a non-selective binder and a fluorophore, which can track changes that occur on the surface of labeled proteins. This invention is further directed to the use of such sensors for identifying binding partners of specific proteins. This invention is further directed to His-tag binding compounds and uses thereof in the preparation of genetically targeted detectable molecules and sensors which can specifically bind tag-labeled proteins.

Abstract: The present invention is directed to fluorescent protein biosensors based on oligonucleotide cross reactive sensor arrays including a selective and a non-selective protein surface binding domain for protein detection. Interaction of different protein isoforms with the sensors of this invention yields a unique optical signature for each protein. The unique optical signature allows differentiating between closely related protein isoforms and diagnosing diseases and disorders associated with the proteins also in biofluids.

Abstract: The present invention is directed to fluorescent molecular sensor based on Thiazole Orange for protein detection. Interaction of the protein target with the molecular sensors of this invention results in a significant increase in the fluorescence emission. The generation of light output signal enables one to detect protein biomarkers associated with different diseases or detecting the protein of interest also in living cells.