Described herein are compounds that activate pyruvate kinase, pharmaceutical compositions and methods of use thereof. These compounds are represented by Formula (I) wherein R.sup.1, R.sup.2, R.sup.a, R.sup.b, R.sup.j, R.sup.k, and Q are as defined herein. ##STR00001##

Methods for making hemoglobin based blood substitute preparations and hemoglobin based blood substitute preparations. The methods involve preparing a low purity erythrocyte protein fraction comprising hemoglobin protein and endogenous non-hemoglobin protein complement, and chemically modifying the proteins in the protein fraction to form a cross-linked hemoglobin containing blood substitute preparation. The low purity erythrocyte protein preparation can contain from at least about 0.2% (mole/mole) up to about 20% (mole/mole) endogenous non-hemoglobin protein complement. At least about 90% (mole/mole) of the hemoglobin proteins can be cross-linked, so that the average molecular mass of cross-linked proteins comprising hemoglobin protein molecules in the preparation is at least about 300 kDa. The preparations can be used to prepare finished blood substitute formulations for in-vivo and ex-vivo use.

Methods for making hemoglobin based blood substitute preparations and hemoglobin based blood substitute preparations. The methods involve preparing a low purity erythrocyte protein fraction comprising hemoglobin protein and endogenous non-hemoglobin protein complement, and chemically modifying the proteins in the protein fraction to form a cross-linked hemoglobin containing blood substitute preparation. The low purity erythrocyte protein preparation can contain from at least about 0.2% (mole/mole) up to about 20% (mole/mole) endogenous non-hemoglobin protein complement. At least about 90% (mole/mole) of the hemoglobin proteins can be cross-linked, so that the average molecular mass of cross-linked proteins comprising hemoglobin protein molecules in the preparation is at least about 300 kDa. The preparations can be used to prepare finished blood substitute formulations for in-vivo and ex-vivo use.

The invention relates to a novel glucose polymer which is particularly useful for administration by the parenteral route, and to the method for the production thereof. The invention also relates to compositions comprising such a glucose polymer, and to the methods for the production thereof. The invention further relates to the use thereof as a medicament, for example as an osmotic agent for peritoneal dialysis.

The present invention provides methods and materials useful delivering liquids, including liquids comprising nucleic acid molecules into cells. In particular, the present invention provides methods for delivering saline solution, exogenous compositions, and isolated vectors to kidney cells, using the renal vein as a guide and under hydrodynamic pressure. The delivery methods and materials herein are useful to research, prognose, ameliorate symptoms of kidney injury, and treat kidney pathologies.

Method for transfusion medicine to reduce adverse events in transfusion patient populations based on underlying patient physiology.

A therapeutic hemoglobin-based oxygen carrier solution is formed by directly combining at least one of freeze-dried platelets and freeze-drug plasma with a hemoglobin-based oxygen carrier. The therapeutic hemoglobin-based oxygen carrier solution can be employed to treat bleeding or anemia and simultaneously increase systemic convective oxygen delivery in a subject suffering low circulatory oxygen transport or bleeding.

A therapeutic hemoglobin-based oxygen carrier solution is formed by directly combining at least one of freeze-dried platelets and freeze-drug plasma with a hemoglobin-based oxygen carrier. The therapeutic hemoglobin-based oxygen carrier solution can be employed to treat bleeding or anemia and simultaneously increase systemic convective oxygen delivery in a subject suffering low circulatory oxygen transport or bleeding.

Described herein are compositions for use in medicine as anti-ischemic organ storage and perfusion solutions.

Systems and methods for performing Direct Sodium Removal (DSR) therapy are provided in which an implantable device includes a pump coupled to an inlet catheter designed for placement in a patient's peritoneal cavity, an outlet catheter designed to be coupled to the patient's bladder, and is operably coupled to an analyte sensor, the pump programmed to transfer and/or cease transfer of fluid from the patient's peritoneal cavity to the patient's bladder for voiding responsive to a level of analyte detected by the analyte sensor. In addition, the system may include a processor that computes an amount of analyte transferred per pumping session.