Abstract: Provided herein are sets of mass labels. Each mass label in a set includes: 1) a mass marker moiety; 2) a mass normalization moiety; and 3) a cleavable linker connecting the mass marker moiety to the mass normalization moiety. Each mass marker moiety is characterized as having a mass different from that of all other mass marker moieties in the set as determined by mass spectrometry. Further, each mass normalization moiety ensures that each mass label in the set has substantially the same mass as determined by mass spectrometry.

Abstract: Provided herein are sets of mass labels. Each mass label in a set includes: 1) a mass marker moiety; 2) a mass normalisation moiety; and 3) a cleavable linker connecting the mass marker moiety to the mass normalisation moiety. Each mass marker moiety is characterized as having a mass different from that of all other mass marker moieties in the set as determined by mass spectrometry. Further, each mass normalization moiety ensures that each mass label in the set has substantially the same mass as determined by mass spectrometry.

Abstract: Provided herein are sets of mass labels. Each mass label in a set includes: 1) a mass marker moiety; 2) a mass normalisation moiety; and 3) a cleavable linker connecting the mass marker moiety to the mass normalisation moiety. Each mass marker moiety is characterized as having a mass different from that of all other mass marker moieties in the set as determined by mass spectrometry. Further, each mass normalisation moiety ensures that each mass label in the set has substantially the same mass as determined by mass spectrometry.

Abstract: Provided herein are sets of mass labels. Each mass label in a set includes: 1) a mass marker moiety; 2) a mass normalisation moiety; and 3) a cleavable linker connecting the mass marker moiety to the mass normalisation moiety. Each mass marker moiety is characterized as having a mass different from that of all other mass marker moieties in the set as determined by mass spectrometry. Further, each mass normalisation moiety ensures that each mass label in the set has substantially the same mass as determined by mass spectrometry.

Abstract: Provided herein are sets of mass labels. Each mass label in a set includes 1) a mass marker moiety; 2) a mass normalisation moiety; and 3) a cleavable linker connecting the mass marker moiety to the mass normalisation moiety. Each mass marker moiety is characterised as having a mass different from that of all other mass marker moieties in the set as determined by mass spectrometry. Further, each mass normalisation moiety ensures that each mass label in the set has substantially the same mass as determined by mass spectrometry.

Abstract: The present invention relates to a delivery system useful for water-insoluble drugs, therapeutic agents, and diagnostic agents. More particularly, it relates to a method of packaging water-insoluble substances such as, for example, a drug or other therapeutic or diagnostic agent, to facilitate uptake into the human or animal body and to substances packaged by this method. The packaging method renders the water-insoluble substance water-soluble by packaging it in an amphiphilic polymer that is soluble in water. The invention also relates to a method of treating cancer through administering a water-insoluble drug or other therapeutic or diagnostic agent packaged according to the method describe above.

Abstract: An array of hybridisation probes, each of which comprises a mass label linked to a known base sequence of predetermined length, wherein each mass label of the array, optionally together with the known base sequence, is relatable to that base sequence by mass spectrometry.

Abstract: Provided is a set of two or more mass labels, each label in the set comprising a mass marker moiety attached via a cleavable linker to a mass normalisation moiety, the mass marker moiety being fragmentation resistant, wherein the aggregate mass of each label in the set may be the same or different and the mass of the mass marker moiety of each label in the set may be the same or different, and wherein in any group of labels within the set having a mass marker moiety of a common mass each label has an aggregate mass different from all other labels in that group, and wherein in any group of labels within the set having a common aggregate mass each label has a mass marker moiety having a mass different from that of all other mass marker moieties in that group, such that all of the mass labels in the set are distinguishable from each other by mass spectrometry.

Abstract: Provided is a composition comprising: (a) an active component having a therapeutic and/or diagnostic activity; and (b) a delivery component for facilitating delivery of the active component, wherein the delivery component has a therapeutic and/or diagnostic activity.

Abstract: Organic photoprecursors of amines are provided for use in photosensitive imaging systems, finding particular application in the preparation of lithographic printing plates. Said photoprecursors generate free amines on exposure to long wavelength UV or visible radiation, have high solubility in organic solvents, and include photolabile 2-nitrobenzyl functional groups. Methods for the synthesis of the photoprecursors are described, and the use of the said photoprecursors for the production of printing plates using both positive working and negative working techniques are discussed.

Abstract: The present invention provides a compound having the following formula: N-L-M wherein N comprises one or more nucleic acid bases, L is either a direct bond between N and M or L comprises a linker moiety, and M comprises a mass marker comprising an aryl ether.

Abstract: Organic photoprecursors of amines are provided for use in photosensitive imaging systems, finding particular application in the preparation of lithographic printing plates. Said photoprecursors generate free amines on exposure to long wavelength UV or visible radiation, have high solubility in organic solvents, and include photolabile 2-nitrobenzyl functional groups. Methods for the synthesis of the photoprecursors are described, and the use of the said photoprecursors for the production of printing plates using both positive working and negative working techniques are discussed.

Abstract: Phenols, and related aromatic compounds, phenolic ethers, can be hydroxylated selectively using hydrogen peroxide in the presence of an amorphous or crystalline tin or cerium phosphate catalyst in a solvent containing an aliphatic carboxylic acid. The process is particularly suitable for phenol itself, and advantageously employs a catalyst obtained by heating an hydrated amorphous or crystalline tin or cerium phosphate for example at about 100.degree. C. A convenient hydroxylation temperature is in the range of 50.degree. to 90.degree. C., and a convenient solvent is acetic acid.