The present disclosure provides compositions, kits, and methods to protect organs by inducing acquired cytoresistance without causing injury to the organ. The compositions, kits, and methods utilize heme proteins, iron and/or vitamin B12 and, optionally, agents that impact heme protein metabolism.

Described are systems and methods for monitoring administration of nitric oxide (NO) to ex vivo fluids. Examples of such fluids include blood in extracorporeal membrane oxygenation (ECMO) circuits or perfusion fluids used for preserving ex vivo organs prior to transplanting in a recipient. The systems and methods described herein provide for administering nitric oxide to the fluid, monitoring nitric oxide or a nitric oxide marker in the fluid, and adjusting the nitric oxide administration.

The present invention relates to a composition capable of improving storage stability of stem cells. More specifically, the present invention relates to a composition which contains a serum or a plasma for improving cold storage stability of stem cells. The composition for improving storage stability of stem cells according to the present invention can maintain a survival rate of over 90% for at least 9 days without changes in the properties, the number or the size of the stem cells, and thus is useful in the long-term transport of stem cells for cell therapy and the preparation of cell therapeutics injection products having an excellent effect.

Described herein are hydrogel-based nanoparticles which release nitric oxide (NO) or other bioactive forms of NO including nitrosothiols, nitrofatty acids and dinitrogen trioxide into stored red blood cells (RBCs). Also provided herein is a method for using hydrogel-based nanoparticles to supplement stored RBCs with NO to enhance red blood cell (RBC) storage time, improve survivability in circulation, minimize toxicity associated with transfusion, and improve transfusion safety by eliminating infective organisms in stored blood.

A preservative for body fluids, proteins, cells and tissues comprising an effective amount of an AGE crosslink breaker for preventing formation of advanced glycation end products. The AGE crosslink breaker comprises a compound of Structure (1): ##STR00001## wherein V, W, X, Y and Z are any atom suitable for a heterocyclic carbene or carbene precursor framework, including B, C, O, N, S, Se, P, and As in any chemically-feasible oxidation state; wherein Q, R, M, T and U are any atom or substituent, including but not limited to, H, CL.sub.n, NL.sub.n, PL.sub.n, OL.sub.n, SL.sub.n, SeL.sub.n, L.sub.nCl, L.sub.nBr, L.sub.nI, wherein L is any atom, substituent or group, and n is any integer such that Q, R, M, T, and U can access all chemically-feasible oxidation states; and wherein G comprises any charged counter ion including, but not limited to those derived from C, O, N, B, Al, S, Se, Cl, Br, I in any chemically-feasible oxidation state.

The present invention relates to a platelet additive solution (PAS) having an amount of one or more -galactosidase inhibitors with or without an amount of one or more sialidase inhibitors, and optionally one or more glycan-modifying agents; and one or more of PAS components that include a salt, a citrate source, a carbon source, or any combination thereof.

Described is a protective solution for avoiding ischemic, storage or ischemia/reperfusion to organs, or to isolated cell systems, or to tissue components after perfusion, surgery, transplantation, or cryopreservation and subsequent reperfusion, which contains alkali ions, and if need be also alkaline earth ions as the electrolyte, a buffer e.g. on a histidine derivation basis, as well as a polyol and/or a saccharide, has an osmolarity of about 290 mosm/l to about 350 mosm/l, as well as a pH value of about 6.8 to about 7.4, and to which hydroxamic acid, and/or one or more hydroxamic acid derivatives are added.

The present invention relates compounds according to Formula (I) wherein R.sup.1 and R.sup.2 are independently H or an optionally substituted group selected from an alkyl, a heteroalkyl, an aryl, a heteroaryl, an arylalkyl, and a heteroarylalkyl, and R.sup.3 and R.sup.4 taken together form a carbonyl (O); or wherein R.sup.1 and R.sup.2 are independently H or an optionally substituted group selected from an alkyl, a heteroalkyl, an aryl, a heteroaryl, an arylalkyl, and a heteroarylalkyl, R.sup.3 is H and R.sup.4 is H or OR.sup.5, wherein R.sup.5 is H or an optionally substituted group selected from an alkyl, a heteroalkyl, an aryl, a heteroaryl, an arylalkyl, and a heteroarylalkyl; or pharmaceutically acceptable salts or esters thereof, for use in the treatment of kidney disease, in particular in the treatment of acute kidney injury. The present invention also relates to methods of treatment of the same and methods of kidney transplant surgery and coronary artery bypass graft surgery using the compounds of Formula (I). ##STR00001##

The present invention generally relates to methods and compositions to determine viability of an organ for transplantation and other medical purposes. One aspect of the invention relates to a method for assessing the viability of an organ by measuring the energy parameters to determine the energy level of the organ by determining the stored cellular energy (e.g., ATP levels), and/or energy consumption over a particular time period of viability. The energy parameters can be compared to reference energy parameters as a highly accurate and reliable prediction of viable cell yield, and organ viability. Another aspect of the invention relates methods to preserve or extend the time period of viability of an organ any combination of (i) preservation perfusion of the organ to prevent ischemic damage, (ii) chemical metabolic suppression of the organ e.g., using metabolic suppressants, (iii) metabolic suppression by physical or environmental conditions, e.g., sub-zero non-freezing storage.

The present invention generally relates to methods and compositions to determine viability of an organ for transplantation and other medical purposes. One aspect of the invention relates to a method for assessing the viability of an organ by measuring the energy parameters to determine the energy level of the organ by determining the stored cellular energy (e.g., ATP levels), and/or energy consumption over a particular time period of viability. The energy parameters can be compared to reference energy parameters as a highly accurate and reliable prediction of viable cell yield, and organ viability. Another aspect of the invention relates methods to preserve or extend the time period of viability of an organ any combination of (i) preservation perfusion of the organ to prevent ischemic damage, (ii) chemical metabolic suppression of the organ e.g., using metabolic suppressants, (iii) metabolic suppression by physical or environmental conditions, e.g., sub-zero non-freezing storage.