Sub-millimeter scale three-dimensional (3D) structures are disclosed with customizable chemical properties and/or functionality. The 3D structures are referred to as drop-carrier particles. The drop-carrier particles allow the selective association of one solution (i.e., a dispersed phased) with an interior portion of each of the drop-carrier particles, while a second non-miscible solution (i.e., a continuous phase) associates with an exterior portion of each of the drop-carrier particles due to the specific chemical and/or physical properties of the interior and exterior regions of the drop-carrier particles. The combined drop-carrier particle with the dispersed phase contained therein is referred to as a particle-drop. The selective association results in compartmentalization of the dispersed phase solution into sub-microliter-sized volumes contained in the drop-carrier particles. The compartmentalized volumes can be used for single-molecule assays as well as single-cell, and other single-entity assays.

Compositions comprising multiple hydrogel particles having substantially the same diameter, but with each subgrouping of particles from the multiple hydrogel particles having different associated values for one or more passive optical properties that can be deconvoluted using cytometric instrumentation. Each hydrogel particle from the multiple hydrogel particles can be functionalized with a different biochemical or chemical target from a set of targets. A method of preparing hydrogel particles includes forming droplets and polymerizing the droplets, with optional functionalization.

The present disclosure provides a system comprising a communication interface and computer for assigning a label to the biomolecule fingerprint, wherein the label corresponds to a biological state. The present disclosure also provides a sensor arrays for detecting biomolecules and methods of use. In some embodiments, the sensor arrays are capable of determining a disease state in a subject.

The present invention relates to methods, compositions, and kits for detecting and quantitating exosomes and exosomal biomarkers and the use of exosomes and exosomal biomarkers in diagnostic and prognostic methods for various diseases and disorders. Disease and disorders of the present invention include neurological disorders, immunological disorders, placental diseases, cancer, hematological disorders, kidney disease, gastrointestinal diseases, liver diseases, and musculoskeletal diseases

The present invention relates to a kit for detecting a virus, a composition for detecting a virus and a method for detecting a virus. According to the present invention, a kit which is capable of detecting viruses with high efficiency at low cost within a short period of time, and exhibits enhanced sensitivity and accuracy may be provided.

The present invention describes the novel molecular entities, nanodisc clathrates, the method of preparation, and the use of these molecular entities for solution phase analysis or crystallization.

The present invention provides a method for studying transport of an agent across a membrane comprising the steps a) providing at least one surface with a bilayer structure tethered to the surface, said bilayer structure comprising a detection volume, b) contacting the bilayer with at least one agent to be analyzed, and c) detecting a change in refractive index in the detection volume resulting from transportation of the agent across the membrane. Further there is provided a device comprising a) at least one surface, b) at least one bilayer structure tethered to the surface, and c) at least one sensor capable of detecting a change in refractive index in a detection volume, wherein the bilayer structure encloses a first volume of the detection volume and wherein the volume not enclosed by the bilayer structure but within the detection volume is a second volume and wherein the ratio between the first volume and second volume is above about 0.001.

The present invention relates to nanosystems comprising metal atomic quantum clusters (AQCs) of at least two different sizes encapsulated in a cavity with an inner diameter less than or equal to 10 nm for the use thereof as luminescent nanosystems, particularly for the use thereof as fluorescent nanosystems; as well as the method for obtaining and detecting them. The invention also relates to the use of said luminescent nanosystems as a fluorescent probe, biomarker or contrasting agent.

Disclosed are compositions and methods for the use of lipoplex nanoparticle chips and arrays in the detection of/diagnosis of a disease or condition.

The invention provides a novel method of preparing a capture phase for detecting and/or quantifying a target biological entity, said capture phase including a biological ligand for the biological entity, said biological ligand being covalently bonded to an amphiphilic polymer and being immobilized on a solid support, the method being characterized in that the biological ligand is immobilized on the solid support by bringing the solid support into contact with a dispersion of micelles formed by a plurality of chains of the amphiphilic polymer, said micelles carrying a plurality of molecules of the biological ligand on the surface thereof. The invention also provides corresponding capture phases and associated detection methods and kits.