Ozone is a highly reactive gas and one of the critical air pollutants for both indoor and
outdoor environments. The Occupational Safety and Health Administration (OSHA) …

Atmospheric ozone has long been a threat to human health, however, rational design of
high-performance O3-decomposition catalysts remains challenging. Herein, we demonstrate …

Recent decades have witnessed many breakthroughs in research on carbon nanotubes
(CNTs), particularly regarding controllable synthesis, production scale-up, and application …

Traditional ozone sensing and removal materials still suffer from high energy consumption
and low efficiency. Thus, seeking new ozone‐responsive materials with high efficiency and …

We present an iron‐containing metal–organic framework, MIL‐100 (Fe), for ozone removal.
MIL‐100 (Fe) exhibits long‐lasting ozone conversion efficiency of 100% for over 100 h …

Amorphous mesoporous manganese oxides (MnOx) with different microstructures were
synthesized via a facile redox method between manganese acetate and potassium …

Abstract Manganese oxides (MnO 2)-based catalysts are prominent candidates for ozone
elimination, which always bear the accumulation of the intermediate oxygen species and …

Ozone reaction with human surfaces is an important source of ultrafine particles indoors.
However, 1–20 nm particles generated from ozone–human chemistry, which mark the first …

Ozone pollution has aroused worldwide concern for its adverse impact on both the
environment and human health. A series of MnO2 catalysts with different crystallinities were …

Healthy building design is an emerging field of architecture and building engineering. Indoor
air quality (IAQ) is an inevitable factor that should be considered in healthy building design …