Abstract: Provided are dyes and compositions which are useful in a number of applications, such as the detection and monitoring protein aggregation, kinetic studies of protein aggregation, neurofibrillary plaques analysis, evaluation of protein formulation stability, and analysis of molecular chaperone activity.

Abstract: Provided are dyes and compositions which are useful in a number of applications, such as the detection and monitoring protein aggregation, kinetic studies of protein aggregation, neurofibrillary plaques analysis, evaluation of protein formulation stability, and analysis of molecular chaperone activity.

Abstract: Provided are dyes and compositions which are useful in a number of applications, such as the detection and monitoring protein aggregation, kinetic studies of protein aggregation, neurofibrillary plaques analysis, evaluation of protein formulation stability, protein thermal stability shift assay and analysis of molecular chaperone activity. These dyes and compositions are also useful as probes in nucleic acid and protein detection.

Abstract: Provided are dyes and compositions which are useful in a number of applications, such as the detection and monitoring protein aggregation, kinetic studies of protein aggregation, neurofibrillary plaques analysis, evaluation of protein formulation stability, and analysis of molecular chaperone activity.

Abstract: Provided are dyes and compositions which are useful in a number of applications, such as the detection and monitoring protein aggregation, kinetic studies of protein aggregation, neurofibrillary plaques analysis, evaluation of protein formulation stability, protein thermal stability shift assay and analysis of molecular chaperone activity. These dyes and compositions are also useful as probes in nucleic acid and protein detection.

Abstract: The present invention belongs to the biomedicine field and specifically concerns an enzyme-degradable polymer and the application thereof. To solve the problem of low sensitivity of the existing assay reagents, the present invention provides an enzyme-degradable polymer and the related application of the polymer. The present invention also provides hydrogels, nano-particles, fluorescent dye-labeled enzyme substrates and kits (packages) for detection or activity-analysis of biological enzymes based on the enzyme-degradable polymer. The formula of the enzyme-degradable polymer is P1-(aa)N-(AA)n-X X=[formula 1] wherein, (aa)N is a non-enzyme substrate domain, the N aa may be different (no correlation), and N is a non-negative integer; (AA)n is an enzyme substrate domain, the n AA may be different, and n is a non-negative integer; P1 is a protecting group of ?-amino or functional group; P2 is a protecting group of ?-amino; P3 is —NH2, a small molecule compound or a fragment of a polymer.

Abstract: Provided are dyes and compositions which are useful in a number of applications, such as the detection and monitoring protein aggregation, kinetic studies of protein aggregation, neurofibrillary plaques analysis, evaluation of protein formulation stability, protein thermal stability shift assay and analysis of molecular chaperone activity. These dyes and compositions are also useful as probes in nucleic acid and protein detection.

Abstract: A bioanalytical reagent used in a heterogeneous phase and a usage method thereof are provided to increase the signal intensity from the bioanalytical reagent. The bioanalytical reagent includes a target detector and a signal generator. The signal generator is represented by the following formula: (p1) y-(a trigger)z-(LS) N-a degradable polymer coupled with a contrast agent in latent state via covalent bonds-p2, wherein p1 is a protecting group for the end group of the trigger, LS is a self-immolative linker or spacer, p2 is a protecting group for the end group of the degradable polymer, y is 0 or 1, and Z, N are non-negative integer. The signal generator is in a latent state during wash and separation procedures, until an inducing matter or a condition, which excites the contrast agent from a latent state to an active state, is added or applied into the analysis system after the separation procedure so as to degrade directly the polymer or to stimulate the triggers in sequence before degrading the polymer.

Abstract: The present invention belongs to the biomedicine field and specifically concerns an enzyme-degradable polymer and the application thereof. To solve the problem of low sensitivity of the existing assay reagents, the present invention provides an enzyme-degradable polymer and the related application of the polymer. The present invention also provides hydrogels, nano-particles, fluorescent dye-labeled enzyme substrates and kits (packages) for detection or activity-analysis of biological enzymes based on the enzyme-degradable polymer. The formula of the enzyme-degradable polymer is P1-(aa)N-(AA)n-X X=[formula 1] wherein, (aa)N is a non-enzyme substrate domain, the N aa may be different (no correlation), and N is a non-negative integer; (AA)n is an enzyme substrate domain, the n AA may be different, and n is a non-negative integer; P1 is a protecting group of ?-amino or functional group; P2 is a protecting group of ?-amino; P3 is —NH2, a small molecule compound or a fragment of a polymer.

Abstract: Provided are dyes and compositions which are useful in a number of applications, such as the detection and monitoring protein aggregation, kinetic studies of protein aggregation, neurofibrillary plaques analysis, evaluation of protein formulation stability, and analysis of molecular chaperone activity.

Abstract: Provided are dyes and compositions which are useful in a number of applications, such as the detection and monitoring protein aggregation, kinetic studies of protein aggregation, neurofibrillary plaques analysis, evaluation of protein formulation stability, protein thermal stability shift assay and analysis of molecular chaperone activity. These dyes and compositions are also useful as probes in nucleic acid and protein detection.

Abstract: A nanoparticulate imaging probe with an oxide core, a biocompatible polymeric shell covalently attached to the oxide core, a dye, and a cleavable spacer that covalently binds the dye to the probe. When the spacer is cleaved, the dye is liberated from the probe. The emissions of the dye are quenched when the dye is bound to the probe and not quenched when the dye is liberated from the probe. The spacer can be, for example, a peptide. The oxide core can be, for example, a silicon oxide core.

Abstract: A nanoparticulate imaging probe with an oxide core, a biocompatible polymeric shell covalently attached to the oxide core, a dye, and a cleavable spacer that covalently binds the dye to the probe. When the spacer is cleaved, the dye is liberated from the probe. The emissions of the dye are quenched when the dye is bound to the probe and not quenched when the dye is liberated from the probe. The spacer can be, for example, a peptide. The oxide core can be, for example, a silicon oxide core.

Abstract: The present invention relates to a nanogel comprising a polymer network of repetitive, crosslinked, ethylenically unsaturated monomers of Formula I: (X)m-(Y)n-(Z)o??Formula I wherein X is a water-soluble monomer containing ionic or hydrogen bonding moieties; Y is a water-soluble macromonomer containing repetitive hydrophilic units bound to a polymerizeable ethylenically unsaturated group; Z is a multifunctional crosslinking monomer; m ranges from 50-90 mol %; n ranges from 2-30 mol %; and o range from 1-15 mol % and a method for preparing a nanogel comprising preparing a header composition of a mixture of monomers X, Y, and Z, and a first portion of initiators in water; preparing a reactor composition of a second portion initiators, surfactant, and water; bringing the reactor composition to the polymerization temperature; holding the reactor composition at the polymerization temperature, and adding the header composition to the reactor composition to form a nanogel of Formula I.