Valentina Di Maria

Department of Clinical and Experimental Medicine, University of Florence, Florence, Italy.

12 publications 2012 – 2026

What does Valentina Di Maria research?

Valentina Di Maria studies how hormones, particularly estradiol, can help protect the brain from injuries, especially in newborns. Her research specifically investigates how exposure to harmful substances may damage brain cells responsible for memory and learning. By focusing on neonatal brain injuries caused by chemicals like trimethyltin, she explores the possibility of using estrogen-based treatments to safeguard and improve brain function during critical developmental periods.

Key findings

  • Estradiol pretreatment reduced brain cell death by a significant margin in neonatal rats exposed to trimethyltin.
  • The hormone effectively calmed inflammatory responses in the brain, which is a key factor in protecting against further damage.
  • Estradiol helped restore normal protein functions in areas of the brain that were initially affected by injury.

Frequently asked questions

Does Dr. Di Maria study brain injuries in babies?
Yes, she specifically investigates how to protect newborn brains from injuries caused by toxic chemicals.
What treatments has Dr. Di Maria researched?
She researches the hormone estradiol as a potential treatment to prevent damage and cognitive issues in neonatal brain injuries.
Is Dr. Di Maria's work relevant to children with learning problems?
Yes, her research aims to find ways to prevent learning and memory issues in children whose brains have been damaged early in life.

Publications in plain English

Validation and implementation of the FLHASc score for risk stratification of patients with hemoptysis in the emergency department.

2026

The American journal of emergency medicine

Pelagatti L, Bartalucci P, Fabiani G, Giannasi G, Ruggiano G +9 more

Plain English
This study focused on analyzing a scoring system called FLHASc, which helps doctors evaluate the risk of serious issues in patients who cough up blood (hemoptysis) in the emergency department (ED). Researchers found that the new version, FLHASc2, predicted risks more accurately than the original, showing that it helped identify 47.8% of patients as low risk with only a 2.7% chance of serious outcomes. This is important because using the new scoring system can allow nearly half of these patients to be safely sent home instead of being admitted to the hospital. Who this helps: This benefits patients who experience hemoptysis and may not need hospitalization.

PubMed

Clinical characteristics of patients hospitalized for COVID-19: comparison between different age groups.

2024

BMC geriatrics

Fabiani G, Cogozzo C, De Paris A, Di Maria V, Lagomarsini A +9 more

Plain English
This study looked at the characteristics of 2,225 patients hospitalized with COVID-19, focusing on how different factors affected their survival across four age groups. It found that certain health indicators, like low oxygen levels and high creatinine levels, significantly raised the risk of dying in the hospital, with risks varying by age: for example, very low oxygen levels in younger patients increased the risk by nearly 16 times, while high creatinine levels in older patients raised the risk 1.75 times. Understanding these factors is important because it can help doctors better predict who might face a higher risk of severe outcomes from COVID-19 and tailor treatment accordingly. Who this helps: This helps doctors and healthcare providers by offering insights into patient risk factors based on age.

PubMed

Generation of an enhancer-driven gene expression viral tool specific to dentate granule cell-types through direct hippocampal injection.

2024

Frontiers in neuroscience

Potenza ML, Blankvoort S, Carvalho MM, Grimstvedt JS, Di Maria V +12 more

PubMed

Using high-fidelity simulation for testing purposes: the experience of the European Board Examination in Emergency Medicine.

2023

European journal of emergency medicine : official journal of the European Society for Emergency Medicine

Innocenti F, Spiteri A, Butt A, Di Maria V, Vigna V +1 more

PubMed

Development and Validation of CRISPR Activator Systems for Overexpression of CB1 Receptors in Neurons.

2020

Frontiers in molecular neuroscience

Di Maria V, Moindrot M, Ryde M, Bono A, Quintino L +1 more

Plain English
This study looked at new methods to boost the production of CB1 receptors in brain cells using a technology called CRISPRa. The researchers found that their techniques increased the production of these receptors by 2 to 5 times, with the AAV-based method showing particularly strong results. This matters because enhancing CB1 receptor levels could improve treatments for diseases that affect nerve signaling in the brain. Who this helps: Patients with neurological disorders.

PubMed

The Neuroprotective Effects of 17β-Estradiol Pretreatment in a Model of Neonatal Hippocampal Injury Induced by Trimethyltin.

2018

Frontiers in cellular neuroscience

Marchese E, Corvino V, Di Maria V, Furno A, Giannetti S +4 more

Plain English
Researchers tested whether the hormone estradiol could protect newborn rat brains from damage caused by a toxic chemical called trimethyltin, which destroys memory-related brain cells. The hormone successfully reduced brain cell death, calmed the brain's inflammatory response, and restored normal protein function in the damaged areas. This research suggests estrogen-based treatments might prevent learning and memory problems in children whose brains are damaged early in development.

PubMed

Post-natal Deletion of Neuronal cAMP Responsive-Element Binding (CREB)-1 Promotes Pro-inflammatory Changes in the Mouse Hippocampus.

2017

Neurochemical research

Marchese E, Di Maria V, Samengo D, Pani G, Michetti F +1 more

Plain English
This study looked at how removing a specific protein called CREB from the brains of adult mice affects their brain structure and inflammation levels. The researchers found that without CREB, the mice experienced shrinkage in a part of the brain called the hippocampus, an increase in immune cells, and signs of mild inflammation—similar to what happens in older brains. This matters because it helps to reveal how changes at the cellular level can influence brain health and may provide insights into neuroinflammation, which is linked to various brain disorders. Who this helps: This helps researchers and doctors studying brain health and diseases related to aging and inflammation.

PubMed

Cellular targets for neuropeptide Y-mediated control of adult neurogenesis.

2015

Frontiers in cellular neuroscience

Geloso MC, Corvino V, Di Maria V, Marchese E, Michetti F

Plain English
This study focused on a molecule called neuropeptide Y (NPY) and its role in helping the brain generate new nerve cells in adults. Researchers found that NPY affects not just nerve cell progenitors but also other supporting cells, especially in stressful situations or diseases that hurt the brain, which makes it important for brain health. Understanding how NPY works could help develop new treatments for conditions that impact brain function. Who this helps: This helps patients with neurological conditions and doctors treating them.

PubMed

Estrogen administration modulates hippocampal GABAergic subpopulations in the hippocampus of trimethyltin-treated rats.

2015

Frontiers in cellular neuroscience

Corvino V, Di Maria V, Marchese E, Lattanzi W, Biamonte F +2 more

Plain English
This study looked at how estrogen (specifically 17-beta estradiol) affects certain brain cells in rats that experienced neurodegeneration due to a chemical, trimethyltin. The researchers found that estrogen treatment led to an increase in certain protective genes and boosted the number of specific brain cells known for their inhibitory functions in key areas of the hippocampus, like CA1 and CA3. Although estrogen didn't stop the loss of neurons caused by trimethyltin, it significantly enhanced the population of important GABAergic neurons that help regulate brain signaling. Who this helps: This information can benefit patients with neurodegenerative conditions and their doctors by providing insights into potential therapeutic approaches using estrogen.

PubMed

The neurogenic effects of exogenous neuropeptide Y: early molecular events and long-lasting effects in the hippocampus of trimethyltin-treated rats.

2014

PloS one

Corvino V, Marchese E, Podda MV, Lattanzi W, Giannetti S +5 more

Plain English
This study looked at how a substance called neuropeptide Y (NPY) affects the growth of new brain cells in rats that had brain damage from a chemical called trimethyltin (TMT). The researchers found that rats given NPY had significantly more new neurons 30 days later compared to those that received saline, and these new cells were functioning better in the brain's memory area, as indicated by increased long-term synaptic signaling. This is important because it shows that NPY can help support brain cell regeneration and improve brain function after injury. Who this helps: This research benefits patients with neurodegenerative diseases and injuries, as well as doctors looking for new treatment strategies.

PubMed

Gene expression profiling as a tool to investigate the molecular machinery activated during hippocampal neurodegeneration induced by trimethyltin (TMT) administration.

2013

International journal of molecular sciences

Lattanzi W, Corvino V, Di Maria V, Michetti F, Geloso MC

Plain English
This research looks at how a toxic compound called trimethyltin (TMT) affects brain cells in the hippocampus, a region linked to memory and learning. The study found that TMT causes specific types of brain cell death, leading to cognitive issues and possibly conditions like temporal lobe epilepsy. Understanding these effects and the molecular changes they cause is important because it could help develop treatments for brain injuries or diseases related to memory loss. Who this helps: This helps patients with cognitive impairments and neurological conditions.

PubMed

Apoptotic activity of the marine diatom Cocconeis scutellum and eicosapentaenoic acid in BT20 cells.

2012

Pharmaceutical biology

Nappo M, Berkov S, Massucco C, Di Maria V, Bastida J +5 more

Plain English
This research studied the effects of a marine diatom called Cocconeis scutellum and a specific fatty acid, eicosapentaenoic acid (EPA), on breast cancer cells known as BT20. The researchers found that a extract high in EPA could cause up to 89.2% of these cancer cells to undergo programmed cell death, indicating that these substances might effectively combat breast cancer cells. This is significant because it suggests a new potential source for developing treatments that can selectively kill cancer cells while sparing healthy ones. Who this helps: This helps breast cancer patients seeking new treatment options.

PubMed

Publication data sourced from PubMed . Plain-English summaries generated by AI. Not medical advice.