Mastopexy and mastopexy-augmentation are aesthetic breast surgeries that seek to create youthful, beautiful appearing breasts. Age, hormonal changes, or weight loss can lead to alterations that require addressing the skin envelope and breast parenchyma. Many surgical approaches have been described including periareolar, vertical, and Wise pattern techniques, but most modern mastopexies include manipulation of the breast parenchyma to improve the longevity of breast ptosis correction. Mesh support of the ptotic breast is an extension of this paradigm shift and seeks to restore the lost strength of the support structures of the breast. Despite initial controversy, single stage mastopexy-augmentation has been demonstrated to be a safe option for appropriately selected and informed patients who desire both correction of shape and volume. Revisions may still be necessary based on patient and surgeon goals for correction. Evolving technologies will likely continue to enhance the ability of aesthetic plastic surgeons to provide pleasing, durable correction of breast ptosis.

Portland cement concrete is fragile in tension and it has numerous negative impacts on the environment. To deal with these issues, both fiber reinforcement and recycled materials can be utilized to manufacture sustainable and ductile concrete. In this study, the synergistic effects of high-performance mineral admixture silica fume and glass fiber reinforcement were investigated on the hardened properties of RC. For this purpose, two concrete mix families, namely, NC and RC were prepared. To understand the benefits of synergistic utilization of glass fiber and silica fume, in both NC and RC, 0.5% glass fiber was incorporated with three different levels of silica fume. i.e., 0%, 5%, and 10%. Both strength and permeability-related durability properties were investigated. Results revealed that combined incorporation of 0.5% fiber and 10% silica fume can help in the production of RC having better mechanical and durability performance compared to reference “NC”. Simultaneous incorporation of silica fume and glass fiber produces a combined effect greater than their individual effects on both mechanical and permeability properties of concrete. Silica fume plays a very dominant and positive role in the development of CS, WA, and CIPR of RC, whereas glass fiber plays a vital role in upgrading STS and FS of RC and whereas, with the addition of 0.5% glass fiber, RC can yield 8–9 times higher flexural toughness than that of the plain NC.