A cell-based quantitative high-throughput screening assay to monitor the formation of PFK1-mEGFP clusters by the action of small molecules to identify small molecules that promote intracellular PFK1 clustering in a cell cycle-dependent manner and may be used to treat cancer.

The present invention is directed to a channel fusion subunit comprising an ion conducting channel subunit bound to a probe, wherein the probe comprises an ion sensor bound in between to at least one bioluminescent donor molecule and at least one fluorescent acceptor molecule, wherein the probe is bound to the N-terminal, C-terminal, or within an intracellular or extracellular loop of said channel subunit via either the bioluminescent donor molecule or the fluorescent acceptor molecule, and wherein said bioluminescent donor molecule and fluorescent acceptor molecule are selected so that the emission spectrum of the bioluminescent donor molecule overlaps with the absorbance spectrum of the acceptor molecule, making it possible the non-radiative energy transfer between the bioluminescent energy donor and the fluorescent acceptor through nonradiative dipole-dipole coupling.

The present invention relates to a composition for screening various signal peptides to select specific ones that allow efficient secretion of a target protein to out of host cells. The present invention also relates to a method for selecting specific signal peptides that express a target protein in host cells and efficiently secrete the target protein to out of the host cells. The use of the composition and/or method according to the present invention enables ultrafast selection of optimal signal peptides for a target protein through barcoding sequences corresponding to the signal peptides, leading to the maximization of the production yield of the recombinant protein.

The present invention relates to new transporter polypeptides, and genes encoding therefor, which can be used to confer upon a plant resistance to one or more biotrophic fungal pathogens.

Measurements in test tissue and drug-treated tissue can be used to determine an effect of the drug, e.g., on cardiomyocytes. Optical measurements of test tissue (e.g., including immature or animal CMs) can be complemented with observations of the extracellular potential, e.g., using multi electrode arrays (MEAs), as part of accurately estimating the current density of an ion channel, e.g., the sodium channels. The estimating of an ion current density (e.g., by inversion) of the ion (e.g., sodium) current can also use an observation of the conduction velocity, which can be computed using measurements of extracellular waves across electrodes. Example optical measurements can be of a transmembrane voltage (Vm) and intracellular calcium concentration (Cai). An example electrical measurement can be of an extracellular potential (U).

A protein-based probe for detecting the presence of one of two distinct states of a target membrane-associated molecule by means of polarization microscopy is disclosed. The probe contains an anchoring moiety consisting of at least one lipidated peptide and/or at least one transmembrane α-helical peptide, a peptide linker moiety having the length of at least 5 amino acids, wherein at least 50% of the amino acids forming the linker are selected from glycine, serine, and threonine, a fluorescent moiety, and an affinity binding moiety capable of binding the target membrane-associated molecule. The moieties are arranged in the order a-b-c-d or d-c-b-a in the direction from the N-terminus to the C-terminus. Methods of detecting presence or absence of the target molecule, detecting activated or inactive forms of the target molecule, and detecting the activation of the target molecule are also described.

The invention pertains to a method to identify an effective combination of a transmembrane E3 ubiquitin ligase and a membrane-bound protein, wherein the combination is effective when the transmembrane E3 ubiquitin ligase is capable of decreasing the surface level of the membrane-bound protein upon forced dimerization, preferably by ubiquitination of the membrane-bound protein. The method of the invention comprises a step of exposing a cell to a heterobifunctional molecule, wherein the heterobifunctional molecule comprises a first binding domain capable of specific binding to an extracellular portion of the transmembrane E3 ubiquitin ligase, and a second binding domain capable of specific binding to an extracellular portion of the membrane-bound protein. The method further comprises a step of determining the decrease in surface level of the membrane-bound protein. The invention additionally pertains to a heterobifunctional molecule targeting an effective combination of a transmembrane E3 ubiquitin ligase and a membrane-bound protein.

The present invention relates to a ROCK inhibitor for use in the treatment or prevention of pulmonary edema associated with a virus infection. The present invention further concerns a use of an in vitro test system or the determination of inhibitors effectiveness in preventing or reducing apical sodium-potassium-ATPase (NKA) localisation in lung epithelial cells. Also provided is a method for detecting molecules effective in the prophylaxis and/or treatment of a pulmonary edema. Finally, the invention relates to a test system.

A method for screening compounds for their ability to interact with transmembrane proteins is provided. Also provided is a method for determining whether proteins such as transmembrane proteins are able to oligomerise.

Disclosed herein, in certain embodiments, are methods and compositions for treating inflammatory disorders. In some embodiments, the methods comprise co-administering synergistic combinations of modulators of inflammation.