Abstract: The present invention relates to polymeric derivatives, which can be conjugated to an amino-containing drug to improve its in vivo properties. The polymeric derivative can subsequently be released to yield the drug in its native form. Methods of preparing and using these polymeric derivatives and drug conjugates are described.

Abstract: The present invention relates to polymeric derivatives, which can be conjugated to an amino-containing drug to improve its in vivo properties. The polymeric derivative can subsequently be released to yield the drug in its native form. Methods of preparing and using these polymeric derivatives and drug conjugates are described.

Abstract: The present invention relates to polymeric derivatives, which can be conjugated to an amino-containing drug to improve its in vivo properties. The polymeric derivative can subsequently be released to yield the drug in its native form. Methods of preparing and using these polymeric derivatives and drug conjugates are described.

Abstract: This invention is a method of using a class of excipients for protein formulation to reduce and/or eliminate protein aggregation in solutions or solids. This class of compounds contains carbonyl group(s) to form Schiff base(s) with amino groups of proteins and also contains moieties to keep protein molecules spatially separated. This method has never been disclosed anywhere in the literature.

Abstract: The invention provides methods for improving the physical and chemical stabilities of therapeutic proteins in solutions by reducing or eliminating protein degradation, aggregation and precipitation using small molecule stabilizing agents such as proline, arginine and/or compounds capable of forming a Schiff bond with amino groups of the protein. The invention further provides liquid formulations of a monomeric insulin stabilized by one of more stabilizing agents such as proline, arginine and/or acetone. Also provided are methods of making and using the stabilized monomeric insulin formulations.

Abstract: This invention is a method of using a class of excipients for protein formulation to reduce and/or eliminate protein aggregation in solutions or solids. This class of compounds contains carbonyl group(s) to form Schiff base(s) with amino groups of proteins and also contains moieties to keep protein molecules spatially separated. This method has never been disclosed anywhere in the literature.

Abstract: Chemiluminescent acridinium compounds are used in homogeneous assays to determine the concentration of an analyte in a sample without strong acid or strong base treatment. The chemiluminescent acridinium compounds include acridinium esters with electron donating functional groups at the C2 and/or C7 position on the acridinium nucleus to inhibit pseudo-base formation, or acridinium sulfonamides with or without electron donating functional groups at the C2 and/or C7 position on the acridinium nucleus.

Abstract: The present invention relates to polymeric derivatives, which can be conjugated to an amino-containing drug to improve its in vivo properties. The polymeric derivative can subsequently be released to yield the drug in its native form. Methods of preparing and using these polymeric derivatives and drug conjugates are described.

Abstract: Chemiluminescent acridinium compounds are used in homogeneous assays to determine the concentration of an analyte in a sample without strong acid or strong base treatment. The chemiluminescent acridinium compounds include acridinium esters with electron donating functional groups at the C2 and/or C7 position on the acridinium nucleus to inhibit pseudo-base formation, or acridinium sulfonamides with or without electron donating functional groups at the C2 and/or C7 position on the acridinium nucleus.

Abstract: Chemiluminescent acridinium compounds are used in homogeneous assays to determine the concentration of an analyte in a sample without strong acid or strong base treatment. The chemiluminescent acridinium compounds include acridinium esters with electron donating functional groups at the C2 and/or C7 position on the acridinium nucleus to inhibit pseudo-base formation, or acridinium sulfonamides with or without electron donating functional groups at the C2 and/or C7 position on the acridinium nucleus.

Abstract: Chemiluminescent acridinium compounds are used in homogeneous assays to determine the concentration of an analyte in a sample without strong acid or strong base treatment. The chemiluminescent acridinium compounds include acridinium esters with electron donating functional groups at the C2 and/or C7 position on the acridinium nucleus to inhibit pseudo-base formation, or acridinium sulfonamides with or without electron donating functional groups at the C2 and/or C7 position on the acridinium nucleus.

Abstract: An active agent and a non-polymeric polyanionic compound are allowed to be associated with a microparticle containing an anionic macromolecule and an anionic polymer in the presence of a crosslink activator. In a non-limiting example, the non-polymeric polyanionic compound is a polyanionic amino acid such as aspartic acid or glutamic acid. The microparticle can be used for modified release of the active agent in vitro and/or in vivo.

Abstract: Chemiluminescent acridinium compounds are used in homogeneous assays to determine the concentration of an analyte in a sample without strong acid or strong base treatment. The chemiluminescent acridinium compounds include acridinium esters with electron donating functional groups at the C2 and/or C7 position on the acridinium nucleus to inhibit pseudo-base formation, or acridinium sulfonamides with or without electron donating functional groups at the C2 and/or C7 position on the acridinium nucleus.

Abstract: Highly hydrophilic non-nucleosidic tags with multiple labels are provided for use in nucleic acid probes. The tags are branched structures having a phosphodiester backbone, which have the advantages of a small dimensional size and high hydrophilicity. After the tag is labeled, its high negative charge and minimal size help to keep the carriers away from DNA or RNA molecules, due to repulsion between negative charges. Non-specific intercalation and steric hindrance are therefore minimized, and the hydrophobicity, if any of reporter molecules is reduced. The probes are used in place of conventionally labeled oligonucleotides for a variety of hybridization reactions.

Abstract: Highly hydrophilic non-nucleosidic tags with multiple labels are provided for use in nucleic acid probes. The tags are branched structures having a phosphodiester backbone, which have the advantages of a small dimensional size and high hydrophilicity. After the tag is labeled, its high negative charge and minimal size help to keep the carriers away from DNA or RNA molecules, due to repulsion between negative charges. Non-specific intercalation and steric hindrance are therefore minimized, and the hydrophobicity, if any of reporter molecules is reduced. The probes are used in place of conventionally labeled oligonucleotides for a variety of hybridization reactions.

Abstract: Highly hydrophilic non-nucleosidic tags with multiple labels are provided for use in nucleic acid probes. The tags are branched structures having a phosphodiester backbone, which have the advantages of a small dimensional size and high hydrophilicity. After the tag is labeled, its high negative charge and minimal size help to keep the carriers away from DNA or RNA molecules, due to repulsion between negative charges. Non-specific intercalation and steric hindrance are therefore minimized, and the hydrophobicity, if any of reporter molecules is reduced. The probes are used in place of conventionally labeled oligonucleotides for a variety of hybridization reactions.