Abstract: The present invention relates to pesticidally-active, in particular insecticidally-active, compositions comprising Thiamethoxam, and to their use for controlling animal pests in field crops.

Abstract: This invention relates to a composition comprising a compound of formula (I) and an agrochemical active ingredient selected from ADEPIDYN™ (pydiflumetofen), oxathiapiprolin, sedaxane and azoxystrobin; R1O[C(R2)(H)C(R3)(H)O]nX (I), where R1 is C6-12 alkyl or is C6-12 alkenyl; n is from 5 to 50; independently, each [C(R2)(H)C(R3)(H)O] unit has both R2 and R3 being hydrogen or has one of R2 and R3 being hydrogen and the other being phenyl; provided that at least one [C(R2)(H)C(R3)(H)O] unit has one of R2 and R3 being hydrogen and the other being phenyl; and X is hydrogen or is selected from C1-4 alkyl; and to use of a compound of formula (I) to reduce particle growth (such as nucleation, crystal growth or Ostwald ripening) of an agrochemical active ingredient.

Abstract: A method for the treatment of cancer involves delivering a surface active agent to an organism, where the surface active agent selectively partitions to and kills cancer cells as opposed to healthy cells. The surface active agent can be an ionic or a non-ionic surfactant with a HLB of less than 29 or a mixture of surface active agents with a HLB of less than 40, where the hydrophobic portion is a lesser fraction of the surface active agent than the hydrophilic portion. A fluorescence method of detecting and locating cancer cells in an organism involves delivering a surface active agent, where the surface active agent includes a fluorescence moiety that upon selective partitioning of the surface active agent to the cancer cells and irradiation by a radiation source to excite the fluorescence moiety, a fluorescence emission is observed permitting the detection and location of the cancerous tissue by local volumes of relatively high intensity emission.

Abstract: A method of removing a toxic compound comprising contacting the toxic compound with a particle having two regions, the first region containing a detoxifying enzyme and the second region containing a material selected to partition the toxic compound into the second region. The particle may be a nanoparticle.

Abstract: The subject invention is directed to microemulsion-based (ME) nanoparticles and methods of using same. The ME nanoparticles of the subject invention encompass self-assemblies of oil in water emulsions in the presence of at least two emulsifiers. One of the emulsifiers is a salt of a fatty acid, and the combined concentration of the at least two emulsifiers is sufficiently large to produce micelles, wherein the oil droplets are the hydrophobic core of the micelles. The subject invention also contemplates methods of modifying lipids, high density lipoprotein (HDL), and low density lipoprotein (LDL) in blood by contacting the blood with the ME nanoparticles of the subject invention. Another aspect concerns methods for treating atherosclerosis by administering the ME nanoparticles of the subject invention to a patient in need thereof.

Abstract: The subject invention provides microemulsions having, as one component thereof, electron-deficient aromatic rings, e.g.. di(trifluoromethyi) benzene, for efficient separation and/or isolation of target molecules, e.g., bupivacaine.

Abstract: A particle with two regions, the first region contains a detoxifying enzyme and a second region that partitions toxic compounds. The particle may be a nanoparticle.

Abstract: A method of removing a toxic compound comprising contacting the toxic compound with a particle having two regions, the first region containing a detoxifying enzyme and the second region containing a material selected to partition the toxic compound into the second region. The particle may be a nanoparticle.

Abstract: A method of forming an oil in water microemulsion includes the steps of providing at least one non-ionic ethoxylated surfactant, providing an oil and mixing the surfactant and the oil to form a microemulsion. The surfactant can be selected from the group of alkyl phenol ethoxylates, where the alkyl group contains 8 to 12 carbons and the ethoxylate contains an average of 4 to 12 ethoxylate groups. The surfactant can be a nonyl phenol ethoxylate. An oil in water microemulsion includes at least one non-ionic ethoxylated surfactant and at least one oil. The surfactant can be a single surfactant or a mixed surfactant. The oil can be derived from at least one tree, preferably from as the Neem Tree.

Abstract: The subject invention provides unique materials and methods for selectively removing molecules from a medium. In a preferred embodiment of the subject invention, microemulsions are specifically designed to facilitate effective separation of even closely related chemical entities.

Abstract: A method of forming an oil in water microemulsion includes the steps of providing at least one non-ionic ethoxylated surfactant, providing an oil and mixing the surfactant and the oil to form a microemulsion. The surfactant can be selected from the group of alkyl phenol ethoxylates, where the alkyl group contains 8 to 12 carbons and the ethoxylate contains an average of 4 to 12 ethoxylate groups. The surfactant can be a nonyl phenol ethoxylate. An oil in water microemulsion includes at least one non-ionic ethoxylated surfactant and at least one oil. The surfactant can be a single surfactant or a mixed surfactant. The oil can be derived from at least one tree, preferably from as the Neem Tree.