bims-biopma Biomed News
on Bioprogrammable materials
Issue of 2025–06–29
two papers selected by
Shrikrishnan Sankaran, Leibniz-Institut für Neue Materialien



  1. Adv Healthc Mater. 2025 Jun 23. e2502358
      Tailored and personalized therapies have gained significant attention for their great potential to minimize treatment-related side effects, mitigate immunological rejection, and improve disease prognosis. In this context, living cell materials (LCMs)-comprising living cells integrated with synthetic or non-biological components-synergistically combine the intrinsic properties of living cells with the superior functionalities of synthetic materials, enabling precise disease diagnosis and customized therapies. In this review, the characteristics and advantages of various living mammalian and bacterial cells utilized in the fabrication of living materials are summarized. Different methodologies (encapsulation, surface coating, intracellular loading, and cell backpack) for constructing LCMs, highlighting the benefits and limitations of each approach, along with their diverse applications in diagnosis and treatment are also discussed. Finally, the potential strategies are addressed to enhance the safety of living cell therapies, exploit novel functionalities, and facilitate the translation of fundamental research into clinical practice.
    Keywords:  biomedical applications; diagnosis and treatment; living cell materials (LCMs); living mammalian and bacterial cells; tailored and personalized therapy
    DOI:  https://doi.org/10.1002/adhm.202502358
  2. Environ Monit Assess. 2025 Jun 23. 197(7): 793
      Diatoms, unicellular microalgae with complex siliceous shells, have gained attention due to their many potential uses. They have emerged as a key focus in metabolic engineering, thanks to their distinct silica-based cell walls, which provide advantages over synthetic nanomaterials. Their naturally generated nanoscale architectures combine sustainability, biocompatibility, and intricate porosity, making them ideal for a wide range of applications, such as environmental monitoring, biosensing, and targeted drug administration. At the same time, they play an important role in preserving ecosystem health and biodiversity. Some of them can be serving as sensitive indicators of environmental changes due to their widespread distribution and responsiveness to pollutants. This review focuses on recent advances in diatoms-based nanotechnology for the synthesis of various nanomaterials. In contrast to earlier research, we present a comparative analysis of diatom biosilica (DB) and synthetic substitutes, highlighting their usefulness and new developments. In addition, we investigate the obstacles and future prospects in using diatoms for real-world applications for innovation in a variety of industries, including biotech, pharmaceuticals, healthcare, and environmental monitoring. Moreover, we investigate several aspects of diatom biochemistry, including their diversity and biosynthesis, ecological value, and potential for biotechnological and therapeutic uses. In summary, this paper underlines diatoms' revolutionary potential in shaping the future of sustainable nanotechnology by bridging basic and applied sciences.
    Keywords:  Biosilica; Biotechnology; Cryopreservation; Diatoms; Drug delivery; Nanotechnology
    DOI:  https://doi.org/10.1007/s10661-025-14227-8