This comprehensive review focuses on the integration of intelligent technologies, such as the Internet of Things (IoT), Artificial intelligence (AI), and Nondestructive Testing (NDT), in the Structural Health Monitoring (SHM) field of civil engineering. The article discusses intelligent technologies in SHM for residential, commercial, industrial, historical, and special buildings, such as nuclear power plants (NPPs). With the incorporation of intelligent technologies, there have been remarkable advancements in SHM, a crucial aspect of infrastructure safety, reliability, and durability. The combination of SHM and intelligent technologies provides a cost-effective and efficient building monitoring approach, significantly contributing to energy and resource conservation. This article explores using electronic instruments, such as sensors, microcontrollers, and embedded systems, to measure displacement, force, strain, and temperature, which are crucial for detecting structural damage. Implementing intelligent technologies in SHM reduces the reliance on manual and hazardous inspection practices, simplifying and reducing the cost of building monitoring. The article highlights the social, economic, and environmental benefits of adopting intelligent technologies in SHM by presenting key findings from existing research. This review aims to increase the reader’s understanding of the significance of these technologies in enhancing the efficiency of SHM in civil engineering by illuminating their advancements and applications.

A Carbon Footprint (CF) is defined as the total emissions of greenhouse gases, primarily carbon dioxide, methane, and nitrous oxide, and is a specific type of Environmental Footprint that measures human impact on the environment. Carbon dioxide emissions are a major contributor to anthropogenic greenhouse gases driving climate change. Wood, as a renewable and ecological material, has relatively low carbon emissions. The study aimed to review and analyze the criteria influencing the feasibility of constructing modern zero-carbon wooden buildings. The review was conducted in two phases: (i) a literature review and (ii) an assessment of existing buildings. The preliminary research led to (i) narrowing the focus to the years 2020–2024 and (ii) identifying key criteria for analysis: sustainable material sourcing, carbon sequestration, energy efficiency, life cycle assessment (LCA), and innovative construction practices. The study’s findings indicate that all these criteria play a vital role in the design and construction of new zero-carbon wooden buildings. They highlight the significant potential of wood as a renewable material in achieving zero-carbon buildings (ZCBs), positioning it as a compelling alternative to traditional construction materials. However, the research also underscores that despite wood’s numerous potential benefits, its implementation in ZCBs faces several challenges, including social, regulatory, and financial barriers.

The study examined transformations of tenement houses carried out by development companies conducting their investments in the city of Warsaw. The tenement houses that were originally erected in the second half of the 19th century or at the beginning of the 20th century and were renovated in the last 20 years, i.e. since 2003, were examined. The results of the study showed the existence of four main types of transformations that affect the architectural form of buildings: changing the function of the ground floor from residential to commercial, adaptation/reconstruction of attics for residential purposes, superstructures and transformations of courtyards. The impact of individual transformations on the architectural form of space is described. These changes have been illustrated with examples of Warsaw projects.

The need to meet the criteria of sustainable residential architecture presents new challenges for designers and developers. One type of project that aligns with this approach is the renewal of historic residential buildings. This article focuses on the retrofit and renovation of tenement houses. As part of cultural heritage, these buildings require transformations that combine the preservation of historical value with adaptation to contemporary functional, technical, and environmental standards. The article analyses key interventions in building structures related to the implementation of sustainable development principles, such as modifications to original structural elements, improvements in energy efficiency, and the conservation or reconstruction of façade details. The text emphasises the importance of a holistic approach that considers environmental and social needs, as well as the legal and technical constraints that limit possible interventions. The analyses presented underscore the need for dialogue among architects, heritage conservation specialists, and building users.

Część II artykułu przedstawia studium przypadkukamienicy przy ul. Śniadeckich 10 w Poznaniu (Perfumiarnia 2)oraz walidację projektu z wykorzystaniem matrycy oceny opracowanejw części 1 artykułu. Na podstawie dokumentacji projektoweji obserwacji terenowych oceniono stopień zgodnościrozwiązań z postulatami literaturowymi, wskazując obszaryzgodności oraz potencjalne kompromisy.