Materials & ProductsExclusive Articles, from ArchDaily

Transforming urban buildings into clean energy plants is a bold and powerful strategy to combat the climate crisis, reduce dependence on centralized grids, and promote more resilient, sustainable cities. Since 2010, cities have been responsible for over 75% of global electricity use, a demand historically met by fossil fuels as urbanization has increased since the Industrial Revolution. By the late 19th century, hydroelectric power began gaining relevance as a renewable alternative. However, with rapid advancements in solar technology, urban buildings now have the unprecedented potential to become self-sufficient power hubs.

The Jewish Museum in Berlin, designed by Daniel Libeskind, employs synesthesia to evoke feelings of disorientation, loss, and memory through fragmented geometry, contrasting lighting, and material choices. Inspired by a shattered Star of David, the building guides visitors through slanted and narrow corridors, creating instability and discomfort. Light, either filtered through slits or almost entirely absent in certain areas, reinforces the oppressive atmosphere. The raw concrete, with its cold and rigid texture, intensifies this experience, while the void resonates with echoes and silence. In the Shalekhet (Fallen Leaves) space, metal plates shaped like faces emit unsettling sounds when stepped on, creating a disturbing auditory experience. The museum transcends its function as an exhibition space and becomes an immersive architectural experience, where light, sound, texture, and form combine to convey the pain and memory of the Holocaust.

Architecture is a discipline that evolves through progressive stages, with each phase building upon the previous one. Schematic design, for example, begins with broad concepts and initial explorations, followed by site analysis, sketches, and 3D models, with adjustments made along the way. The true challenge lies not just in following this sequence but in balancing speed, quality, and efficiency to navigate the trade-off between time and quality. In this context, the integration of generative artificial intelligence in the built environment reshapes architectural dynamics by assisting architects and creating space for more experimentation and exploration. Its impact is especially significant in rendering, which was previously a constraint at different project stages—particularly during concept development. Today, however, AI-powered architectural rendering operates smoothly, allowing more focus on creative problem-solving through innovative tools and strategies.

In 1902, physicist Philipp Lenard discovered that the breaking of water droplets in waves, waterfalls, rain, or mist releases negative ions into the air. This occurs because, upon breaking, the droplets separate their electrical charges: electrons, which are smaller and lighter, adhere to suspended particles in the air, while positive charges remain in the water or dissipate quickly. This phenomenon increases the concentration of negative ions in the environment, which can directly influence our body and mind, interacting with neurotransmitters and essential cellular functions. It is no coincidence that many people report feelings of well-being, energy, and mental clarity after spending time at beaches, waterfalls, or forests. In Japan, this connection with nature is explored in the practice of Shinrin-Yoku, or "forest bathing," which promotes relaxation and revitalization simply through contact with the natural environment.

In the heart of Chiang Mai, a city rich in history and the cultural heritage of northern Thailand, the Panyaden Hall, completed in 2017, carries a story of technical innovation and reverence for tradition, brought to life through bamboo. Combining centuries-old Thai craftsmanship with modern design solutions, the project reflects the ethos of Chiangmai Life Architects, a firm devoted to elevating natural materials to their highest potential. In this article, we will explore some of the contemporary structural solutions applied to this iconic project, further revealing bamboo's true potential and inviting a fresh perspective on sustainable architecture and bamboo engineering.

Dubai has evolved from a humble trading port into a global metropolis renowned for its futuristic skyline and pioneering architectural feats. In the early 20th century, its landscape was shaped by traditional Arab homes featuring internal courtyards and wind towers, designed to endure the harsh arid climate. The discovery of oil in the 1960s marked a turning point, triggering rapid urbanization. Throughout the 1970s and 1980s, a surge in construction, fueled by oil revenues, led to the rise of concrete tower blocks and low-rise apartment complexes, accommodating an influx of expatriates drawn to UAE's booming economy. By the 21st century, the UAE witnessed unparalleled architectural advancements. Landmark projects like the Burj Khalifa—the world's tallest building—and the Palm Jumeirah—an artificial archipelago—transformed the country's skyline, solidifying the UAE's reputation as a global hub of architectural ambition and innovation.

Cladding is an essential element in architecture, combining functionality, technology, and aesthetics to protect and enhance buildings. Among the various materials available, such as stone, wood, and composites, metal cladding stands out for its durability, low maintenance, and design flexibility. In addition to offering weather resistance and fire safety, its recyclability makes it a sustainable and cost-effective solution for projects of all sizes. To meet these demands with efficiency and sophistication, Parallel Architectural Products offers a range of metal claddings and other innovative products designed to optimize installation, reduce labor costs, and ensure high-quality finishes.

Disciplines such as architecture, interior design, product design, and fashion rely on awards to celebrate innovation, set industry benchmarks, and inspire excellence. Beyond mere recognition, these accolades validate creative achievements, strengthen reputations, and expand the visibility of ideas that challenge conventions. They also foster interdisciplinary collaboration, encourage professional growth, and highlight the transformative impact of design on everyday life. 

Winston Churchill once wisely stated, "We shape our buildings, and in turn, our buildings shape us," a reflection that highlights how architecture, in its dynamic nature, responds to functional needs and molds the experiences of its users. Workplaces have been no exception, evolving with the social and technological changes that have redefined our understanding of organizational interactions. Almost in the blink of an eye, the once-restrictive cubicles and closed offices have made way for open layouts, while hybrid models have transformed offices into destination spaces. Furniture elements like office pods are at the forefront of this change—balancing collaboration and privacy. Designed to adapt, they have continually evolved alongside the shifting demands of modern workspaces and their inhabitants.

Polyurethane (PU) started as a solution to a 1930s shortage, but today it's a key material in industries from insulation to cushioning. Invented in 1937 by Otto Bayer and his team in Germany, PU was originally designed as a cheap, versatile alternative to rubber. It quickly became popular in coatings and adhesives for its strong bonding and protective properties. PU is made by reacting polyols and isocyanates, which generates heat and, in the presence of expansion agents such as water or gases, creates bubbles that cause the material to expand, resulting in a foam with adjustable density and structure. Its flexibility allowed PU to revolutionize industries with products like insulation and padding. However, its durability and non-biodegradability have raised environmental concerns. To address this, companies like Purman are leading the charge in recycling PU waste, helping to reduce its environmental impact while promoting more sustainable alternatives.