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Model uncovers malaria parasite causes red blood cell changes

Researchers developed a model of a malaria-infected red blood cell to understand the mechanism behind stiffening and stickiness. The model found that protein nodules called knobs contribute to stiffness, suggesting a promising approach to treat the disease by softening the cells.

SourcePenn State·JournalProceedings of the National Academy of Sciences·DateApr 27, 2015

A recipe for long-lasting livers

Researchers at RIKEN have developed a novel method for preserving donor livers, significantly extending their viability and improving transplant outcomes. By cooling organs to 22°C and supplementing with red blood cells, the team achieved remarkable success rates, even with organs obtained after cardiac arrest.

SourceRIKEN·JournalScientific Reports·DateApr 22, 2015

Promising compound rapidly eliminates malaria parasite

A promising anti-malarial compound, (+)-SJ733, has been identified that rapidly destroys malaria-infected red blood cells by recruiting the immune system. The compound's mechanism of action is expected to slow and suppress development of drug-resistant parasites, making it a potential addition to global malaria eradication efforts.

SourceSt. Jude Children's Research Hospital·JournalProceedings of the National Academy of Sciences·DateDec 5, 2014

UT Southwestern expert co-chairs national team to develop first comprehensive guidelines for management of sickle cell disease

A nationwide team of experts led by UT Southwestern hematologist Dr. George Buchanan developed the first comprehensive, evidence-based guidelines for managing sickle cell disease from birth to end of life. The guidelines consist of over 500 specific directions for physicians caring for patients with sickle cell disease.

Faster, cheaper tests for sickle cell

A new test for sickle cell disease can identify the condition in just 12 minutes and costs as little as 50 cents, offering hope for rural clinics around the globe. The test is based on separating cells by density using polymers and water, making it simple and low-cost to run.

SourceHarvard University·JournalProceedings of the National Academy of Sciences·DateSep 1, 2014

A new way to diagnose malaria

Researchers have developed a new malaria diagnosis technique using magnetic resonance relaxometry (MRR) to detect hemozoin crystals produced by the Plasmodium parasite. This method offers a more reliable and minimally invasive way to diagnose malaria, with potential for low-cost field deployment.

SourceMassachusetts Institute of Technology·JournalNature Medicine·DateAug 31, 2014

Large-scale erythrocyte production method established using erythrocyte progenitor cells

A Kyoto University research team developed a method to produce erythrocyte progenitor cells with almost unlimited replication ability in vitro. These cells were successfully differentiated into mature erythrocytes with oxygen-carrying capacity, showing potential for a reliable transfusion system.

Modeling of congenital amegakaryocytic thrombocytopenia using iPS cell technology

Researchers used iPS cells from a CAMT patient to study the disease, finding that thrombopoietin receptor signaling is crucial for megakaryocyte and erythrocyte production. Compensatory transduction of receptors normalized these processes, highlighting the potential for thrombopoietin-like drugs to treat anemia.

SourceCenter for iPS Cell Research and Application - Kyoto University·JournalJournal of Clinical Investigation·DateAug 1, 2013

First-ever therapeutic offers hope for improving blood transfusions

Researchers at Case Western Reserve University have developed a therapeutic approach to restore nitric oxide levels in donated blood, improving tissue oxygen delivery and kidney function. The treatment, called renitrosylation therapy, may hold great promise for millions of patients who receive regular blood transfusions.

SourceCase Western Reserve University·JournalProceedings of the National Academy of Sciences·DateJun 25, 2013

Computer models shed new light on sickle cell crisis

Researchers from Brown University have developed computer models that show how different types of red blood cells interact to cause sickle cell crisis. The findings suggest that softer, deformable red blood cells known as SS2 cells start the process by sticking to capillary walls, leading to blockages.

SourceBrown University·JournalProceedings of the National Academy of Sciences·DateJun 24, 2013

The Lancet Series: Transfusion medicine

The Lancet Series on transfusion medicine examines the use of restrictive transfusion practices, innovative solutions to address the growing demand for blood products, and alternative ways to manage the blood supply. The series aims to reduce unnecessary blood transfusions, improve patient safety, and cut costs.

SourceThe Lancet_DELETED·JournalThe Lancet·DateMay 23, 2013