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University of Pittsburgh


Pigs grow new liver in lymph nodes, study shows

Researchers at the University of Pittsburgh School of Medicine have discovered that pigs can grow a new liver in their lymph nodes, which could potentially treat various liver diseases. The study found that large animals with damaged livers can regenerate hepatocytes, forming an ectopic liver that takes over liver functions.

SourceUniversity of Pittsburgh·JournalLiver Transplantation·DateAug 24, 2020

Sustainable chemistry at the quantum level

Researchers have developed a three-pronged approach to predict novel electrocatalysts, which can simulate many atoms at once and transform catalyst development. The new method allows for high-throughput screening powered by machine learning, accelerating the discovery of efficient electrocatalysts.

SourceUniversity of Pittsburgh·JournalInterface·DateAug 5, 2020

Engineering a carbon-negative power plant

A team led by Pitt professor Katherine Hornbostel is developing a hybrid plant that captures more carbon than it produces, making it carbon negative. The system integrates natural gas with two carbon capture technologies to achieve high CO2 removal rates during both normal operations and off-peak hours.

New drug reduces stroke damage in mice

Researchers at the University of Pittsburgh Brain Institute identified a novel drug that can protect the brain during and after a stroke. The study shows that injured neurons can remain viable if prevented from following biochemical pathways leading to cell death.

SourceUniversity of Pittsburgh·JournalScience Advances·DateJul 1, 2020

Like oil and water

A new 3D-printed membrane designed by Pitt ChemE professor Lei Li has the potential to efficiently separate oil and water. The membrane's unique surface topography and pore size will enable effective separation of oil-water emulsions, converting oily wastewater into purified water.

A raft that won't save you

New research investigates how viruses trick cells into forming lipid rafts, allowing them to enter and infect the human body. The study suggests that understanding this process could lead to innovative approaches to fight viral infections.

SourceUniversity of Pittsburgh·JournalJournal of the Mechanics and Physics of Solids·DateJun 15, 2020

Predicting unpredictable reactions

A new study from the University of Pittsburgh and Politecnico di Milano advances computational catalysis by simulating realistic catalysts under reaction conditions. The researchers developed a method to model catalyst morphology and catalytic activity under reaction conditions, enabling the prediction of unpredictable reactions.

SourceUniversity of Pittsburgh·JournalACS Catalysis·DateJun 9, 2020

Study traces brain-to-gut connections

Researchers at the University of Pittsburgh Brain Institute have identified neural pathways connecting the brain to the stomach, suggesting a bidirectional communication network that influences digestion and gut health. This discovery provides new insights into common gut disorders and may lead to the development of brain-based therapies.

SourceUniversity of Pittsburgh·JournalProceedings of the National Academy of Sciences·DateMay 18, 2020

Pitt researchers create durable, washable textile coating that can repel viruses

A team of researchers from the University of Pittsburgh has developed a novel textile coating that can repel viruses and bacteria, making it potential candidate for creating safely reusable personal protective equipment (PPE). The coating was tested against adenovirus types 4 and 7 and shown to be effective in repelling these viruses.

SourceUniversity of Pittsburgh·JournalACS Applied Materials & Interfaces·DateMay 13, 2020

Let's do the twist

Researchers designed a polymer that can twist and bend in response to light, mimicking human muscle movement. The polymer's chiral structure changes direction when exposed to different light sources, enabling simultaneous bending and twisting motions.

SourceUniversity of Pittsburgh·JournalScience Advances·DateApr 7, 2020

Uncovering stimulation's impact on neurons

Takashi Kozai aims to design a coating technology that can control neuron activity using biomolecules. The goal is to establish the relationship between different types of stimulation and their impact on excitability, which could improve BCI technology for rehabilitation of neurodegenerative diseases.