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Article Effectiveness of Boric Acid in Sepsis in Rats With Cecal Perforation(Springer Nature, 2025) Kurtipek, Ali Can; Dursun, Ali Dogan; Yigman, Zeynep; Ozdemir, Cagri; Kucuk, Aysegul; Gonullu, Ugur; Arslan, MustafaIntroduction and AimSepsis is a systemic inflammatory response that develops in the host against microorganisms, which results in end-organ damage. Boric acid (BA) has been shown to have immune modulatory effects in vitro and in animal studies. The aim of the study is to investigate the effects of high dose BA on lung and kidney tissues in rats with sepsis induced by the CLP method.Method28 rats were randomly divided into four groups: Group C (control group), Group BA, Group CLP (cecal ligation and puncture), and Group CLP + BA. Cecum was ligated below the ileocecal valve and punctured. BA was administered to the treatment groups at an intraperitoneal dose of 200 mg/kg, and at the end of 24 h, lung and kidney tissue samples were collected and evaluated for biochemical and histopathological parameters.ResultsHistopathologically, in kidney tissue, CLP + BA group showed significantly less peritubular capillary dilatation and brush border loss in the proximal tubule epithelium compared to the CLP group. In lung tissue, CLP + BA group had significantly less alveolar wall thickening compared to the CLP group. Biochemical analyses indicated that BA administration reduced oxidative stress in both renal and lung tissues.ConclusionWe found that intraperitoneal administration of high dose boric acid partially ameliorated the tissue damage in rats subjected to CLP induced sepsis. Further studies are needed regarding the dosage and application at different time points.Book Part A Niche-Based Perspective to Stem and Cancer Stem Cells of the Lung(Springer, 2025) Boyacıoğlu, Özge; Kalali, Berfin Deniz; Tongün, Ege; Korkusuz, PetekLungs carry the principle function for the conduction and exchange of air through the primary, secondary, tertiary bronchi, bronchioles, and alveoli, resulting in the exchange of oxygen to carbon dioxide within the human tissues. Lung stem and progenitor cells enable differentiation of parenchymal and stromal elements and provide homeostasis and regeneration in the microenvironment against pulmonary diseases. Tumor-initiating cancer cells (TICs) refer to a subpopulation named as cancer stem cells (CSCs) of lung cancer exhibiting high self-renewal and proliferation capacity by Notch, Hippo, Hedgehog, and Wnt signaling pathways that leads to tumor development or recurrence. Lung cancer stem cells (LCSCs) are characterized by distinct genotypic or phenotypic alterations compared to healthy lung stem cells (LSCs) that provide a potential target to treat lung cancer. Therefore, understanding the cascades responsible for the transformation of healthy to CSCs is essential to develop new targeted therapy approaches. In this chapter, we precisely highlight the latest researches on LSCs and CSCs, key signaling mechanisms within the perspective of novel targeted therapy strategies. © 2025 Elsevier B.V., All rights reserved.

