The invention relates to a method for embedding a load based on gel high hydrostatic pressure liquefaction. Using the phenomenon that the physical gel is liquefied under high pressure, the vacuum-packaged high-methoxyl pectin gel is treated under a pressure of 400-600 MPa for 5-30 min, mixed with the load, and then subjected to a pressure of 400-600 MPa for homogenization treatment for 5 to 30 min. After pressure relief, the liquefied gel is poured into a mold for reshaping, followed by removal of free water and coating treatment. This method combines the advantages of high hydrostatic pressure technology in modification and sterilization. It has mild embedding conditions and wide sources of raw materials to prepare the carrier, which has excellent biocompatibility and biodegradability. It can be widely used for embedding microorganisms, enzymes, proteins and small molecular substances. The loaded gel prepared by the method has high microbial safety, can effectively maintain the activity of the load. The load distribution is uniform, and the load amount is much larger than the traditional adsorption load.

The present invention relates to conjugation-competent albumins and albumin-related polypeptides, and their conjugates with at least one moiety, and to polynucleotides encoding them.

The invention provides hydrogel, wherein the hydrogel has a supramolecular cross-linked network obtainable or obtained from the complexation of an aqueous composition including a host, such as cucurbituril, and one or more polymers having suitable guest functionality. One or more polymers in the aqueous composition may have a molecular weight of 50 kDa or more, such as 200 kDa or more. The hydrogel may hold a component, such as a therapeutic compound or a biological molecule. The hydrogels are suitable for use in medicine.

Compounds are described and characterized that bind guanine quadruplexes of DNA or RNA. Binding data and inhibition of growth data of five cancer cell lines are presented.

Inert matrices for use with a-synuclein seed amplification assays (“αS-SAA”s) are provided. The inert matrices accurately reflect the absence of misfolded αS protein when used as a negative control, in the form of no, perceptively low, or delayed αS substrate self-aggregation, yet will readily permit aggregation of the αS substrate with seeds when used as a positive control. The inert matrices may be used to screen for αS-SAA reagent competence. The inert matrices may be used to dilute samples taken from peripheral biological matrices. Finally, the inert matrices may be used as a diluent for serial dilutions of αS-SAA samples, to enable semi-quantitative versions of αS-SAAs.

A composition inhibiting MEIS proteins. The MEIS proteins are effective in proliferation of hematopoietic stem cells. A formulation capable of easily passing through the cell membrane and perform its activity in the cell, and can inhibit MEIS activity in a dose dependent manner. The combination includes isolated cells, medium, growth factors and MEISi inhibitor. The isolated cells are isolated from mouse bone marrow, human bone marrow and human umbilical cord blood. The medium has a pH value of 7.2 and contains bovine serum albumin, recombinant insulin, transferrin, 2-mercaptoethanol and IMDM medium. The growth factors are hematopoietic stem cell factor SCF, fetus liver tyrosine kinase-3 ligand Flt3L, and thrombopoietin. A chemical formula of the MEISi-1 is 4-[2-(benzylamino)-2-oxoethoxy]-N-(2,3-dimethylphenyl) benzamide. A chemical formula of MEISi-2 is 4-hydroxy-N′-[(Z)-(2-oxonaphthalen-1-ylidene)methyl] benzohydrazide.

Methods and compositions for restoring myelin levels in conditions associated with myelin degeneration, for example, an aging and aging-related neurodegenerative and/or neuroinflammatory disease or a myelopathy associated with postoperative recovery. The compositions used in the methods include blood plasma and blood plasma fractions derived from blood plasma with efficacy in restoring myelin levels and/or improving nerve conductance.

This document relates to non-covalently bound complexes comprising cabazitaxel and human serum albumin. This document also relates to compositions comprising non-covalently bound complexes comprising cabazitaxel and human serum albumin. This document also relates to compositions comprising cabazitaxel and human serum albumin. This document also relates to compositions consisting essentially of cabazitaxel and human serum albumin.

This document relates to non-covalently bound complexes comprising cabazitaxel and human serum albumin. This document also relates to compositions comprising non-covalently bound complexes comprising cabazitaxel and human serum albumin. This document also relates to compositions comprising cabazitaxel and human serum albumin. This document also relates to compositions consisting essentially of cabazitaxel and human serum albumin.

Disclosed herein are methods for improving a parameter of a protein-related process comprising providing a viscosity-reducing excipient compound selected from the group consisting of hindered amines, anionic aromatics, functionalized amino acids, oligopeptides, short-chain organic acids, and low molecular weight aliphatic polyacids, and adding a viscosity-reducing amount of the viscosity-reducing excipient compound to a carrier solution for the protein-related process, wherein the carrier solution contains a protein of interest, and carrier solutions comprising a liquid medium in which is dissolved a protein of interest, and a viscosity-reducing excipient, wherein the viscosity of the carrier solution has a lower viscosity that that of a control solution that is substantially similar to the carrier solution except for the presence of the viscosity-reducing excipient.