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Banning artificial stones could prevent 100 lung cancers and 1,000 cases of silicosis, where dust leaves scars on the lungs

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A well-fitting respirator can reduce the risk. Credit: Shutterstock Silica dust is a very fine dust that is produced when products such as bricks, concrete and pavers are cut or drilled. Artificial stone, which is used primarily for kitchen countertops, is a very strong source of silica dust. Inhaling this dust into the lungs can cause severe long-term damage. This can lead to difficulty breathing, scarring of the lungs (silicosis) and lung cancer. In our recently published report, we estimate that without action, Australian workers will develop over 10,000 lung cancers in the future and nearly 104,000 cases of silicosis over their lifetime due to exposure to silica dust. This is about 1% of all future lung cancers in the Australian adult population. However, banning artificial stone would reduce silica exposure and could prevent 100 lung cancers and nearly 1,000 cases of silicosis over the lifet

Science News | Scientists Develop Unique Thermogel to Help Prevent Retinal Scars | NewestLY

Washington [US]July 9 (ANI): A group of Singaporean scientists have developed a biofunctional thermogel, a type of synthetic polymer, to prevent retinal scarring caused by failed retinal detachment repair surgery, according to a new study. The research findings were published in the journal Nature. Read Also | Sri Lankan Prime Minister Announces Resignation, Amid Economic Crisis Read @ANI’s Story… – Latest Tweet by ANI Digital. Research reveals that proliferative vitreoretinopathy occurs when retinal scar tissue prevents the retina from healing and falling back into place. And it’s said that it accounts for more than 75 percent of failed retinal detachment surgeries, and can result in vision loss or blindness if left untreated. Current treatment options for PVR are limited to surgical removal of this scar membrane with preserved visual recovery. This work highlights the potential use of synthetic polymers alone to modulate cellular behavior and, for the first time, offers a novel th