Exhibition Design Concepts

Not AI. Not magic. Just brilliant engineering. 🪼💨💡Would you use it? Everyone’s talking about AI-designed products, but sometimes the real “wow” factor comes from clever use of existing technology. Take the viral jellyfish diffuser—no machine learning models, no generative design. Just: 🔹 Ultrasonic atomization – a piezoelectric plate vibrates over 1.6 million times/sec, turning water into a fine mist. 🔹 Programmable LED arrays – shifting light patterns give the illusion of glowing jellyfish. 🔹 Controlled airflow – carefully designed vents and micro-fans make the mist “swim.” 🔹 Smart microcontrollers – syncing lighting, mist output, timers, and safety shut-off. The result? A hypnotic, relaxing visual that turns any room into an ocean dreamscape. It’s a reminder: innovation isn’t always about new algorithms—it’s about combining tech beautifully. Via @thejellyfel #Innovation #DesignEngineering #ProductDesign #TechInEverydayLife #LightingDesign

Exploring MegaLights in Unreal Engine 5.5 Unreal Engine 5.5 introduces MegaLights, a groundbreaking lighting system that allows for the inclusion of hundreds of dynamic, shadow-casting lights in your scenes without significant performance constraints. This new direct lighting path replaces traditional shadow maps and ray-traced shadows, enabling artists to focus more on creative aspects rather than performance limitations. Key Features of MegaLights: Dynamic Area Lights: Freely use textured area lights with soft shadows, light functions, media texture playback, and volumetric shadows on consoles and PC. Ray Tracing Integration: Leverages ray tracing to create realistic soft shadows from various types of area lights, enhancing the realism of your environments. By integrating MegaLights into your workflow, you can achieve more dynamic and realistic lighting setups, pushing the boundaries of visual storytelling in your projects. Have you experimented with MegaLights in your scenes? Share your experiences and insights! #UnrealEngine #LightingDesign #EnvironmentArt #GameDevelopment #UE5

15 Minutes of Red + NIR Light in an ICU Cut Hospital Stay 30%. What if lighting design could do that in every room? ~~Maybe the next metric shouldn’t be lumens per watt, but HEALTH PER LUMEN! As a physician who’s worked in high-acuity facilities including ICUs, I’ve seen how hard it is for patients to recover in environments that strip away natural light. Fluorescents hum. LEDs pulse. The spectrum is efficient visually, but incomplete biologically. A Journal of Biophotonics trial (Neto et al., 2024) used a simple 15-minute session of 635 + 880 nm red and near-infrared light on ICU patients. Results? • 30 % shorter ICU stay • 34 % stronger grip strength • 255 % improvement in mobility Those wavelengths re-engaged cytochrome c oxidase and rebuilt mitochondrial charge flow—the same biology sunlight does every morning. It raises a question for our built environments: If light can shorten recovery in a hospital, what could full-spectrum design do in a workspace, classroom, or home? Designers already have the tools—spectrally tuned LEDs, halogen accent sources, and architectural daylighting that restores the red/NIR “bass line” of sunlight missing from most interiors. A small shift in spectrum could mean a large shift in physiology. Littel Field Note: When I walk into a room now, I don’t just see brightness. I see biology reacting to wavelength. We are behind. We need to catch up. Let’s start measuring the health of a room the same way we measure its light output. #LightingDesign #Architecture #Photobiology #HumanCentricLighting #FieldBiology #HealthcareDesign #BiophilicDesign #CircadianLighting #RedLight #Mitochondria #DrGrimmMD

I recently saw a lighting setup where MADRIX was used to create an incredible interactive effect — not just synchronized to sound, but reacting in a way that feels almost alive. The system follows the rhythm, frequency, and intensity of the audio, translating it into dynamic light patterns in real time. Even more impressive, it can incorporate somatosensory interaction — meaning movement and presence can influence the visuals. The result isn’t just a light show, it’s a responsive environment. What I like about this approach is how it blurs the line between technology and emotion. Sound becomes color. Movement becomes rhythm. Space becomes immersive. We’re moving from static lighting design to environments that react, listen, and respond. Do you think interactive lighting like this will become standard in events, retail, or even architecture? #lightingdesign #madrix #interactiveart #immersivetechnology #ledtechnology #experientialdesign #innovation #digitallighting

Street lighting is evolving, and the difference between good and bad design is becoming clear. Light pollution is not just about brightness. It is about direction. Poorly designed fixtures scatter light into the sky and nearby habitats, disrupting both ecosystems and human well-being. Better solutions already exist. Shielded lighting directs illumination where it is needed, on roads and sidewalks, not into the sky. Warm-toned LEDs, at 3000K or lower, reduce blue-rich glare that contributes to skyglow and visual discomfort. Control matters as much as design. Smart systems using motion sensors and dimming ensure light is used only when required. This reduces energy waste and limits disruption to nocturnal species such as birds and pollinators. A clean lighting approach is simple. Shield the source. Aim it properly. Keep it warm. The result is safer streets, lower energy use, and a night sky that remains intact. Source: American Medical Association, 2016 report on human and environmental effects of LED community lighting.

Scientists at Empa’s Cellulose & Wood Materials lab have developed luminescent wood infused with fungi, creating a potential natural lighting solution for urban spaces. According to DesignBoom, researchers have integrated bioluminescent fungi into the structure of wood, allowing it to emit a gentle green glow. The fungi produce luciferin, the same compound responsible for glowing fireflies, making the wood a self-sustaining light source. This innovation could revolutionize eco-friendly lighting, offering an alternative to traditional streetlights while reducing energy consumption. Researchers envision its use in decorative installations, portable lighting, and even sustainable urban infrastructure.

Most façade lighting is designed on paper and hoped for on site. That gap between intent and outcome is where projects lose credibility. Columns that should define the rhythm of a building disappear. Windows bleed light. The hierarchy the architect spent months refining goes flat the moment the sun sets. This is what happens when lighting decisions are based on catalog data instead of spatial analysis. On this project, we ran full photometric simulations before a single fixture was specified. Not to check compliance. To test perception. We modeled how a narrow 10-degree beam would interact with the building's geometry, where intensity would peak against the columns, how it would taper across the wall surface, and where spill would compromise the design. The simulation told us what a spec sheet never could: exactly how light would behave on this specific architecture. The result is what you see at night. Precise vertical emphasis. Clean separation between structural bays. No hot spots. No guesswork. Simulation is not a luxury step. It is the difference between lighting that was designed and lighting that was installed. #codelumen #LightingDesign #ArchitecturalLighting #FacadeLighting #PhotometricAnalysis #LightingStrategy #Architecture #DesignMatters #BuiltEnvironment #LightingSimulation #DesignProcess

We are pleased to share our latest publication in Building and Environment, a leading journal in the field of the built environment. This study extends the Human-Centric Lighting framework by examining how spatial distribution of light and color temperature influence both perception and cognitive performance in older adults. Using a controlled experimental design and a validated immersive VR environment, the findings show that spatially varied, peripheral, direct–indirect lighting enhances comfort, reduces stress, and lowers cognitive errors. Higher correlated color temperature (5000K) improves processing speed and accuracy, while also increasing arousal. The results highlight that lighting design is not defined by illuminance alone. Spatial configuration and spectral characteristics independently shape how people experience and perform in indoor environments. This work contributes to advancing evidence-based lighting strategies for aging populations, with direct implications for the design of assisted living and healthcare environments. Grateful for the collaboration with Ihab Elzeyadi, Ph.D., LEED AP and for his mentorship throughout this work, as well as to all collaborators, participants, and mentors who made this research possible. Read the full article: https://lnkd.in/gyj6d7-h #BuildingAndEnvironment #HumanCentricLighting #LightingResearch #EvidenceBasedDesign #Aging #Neuroarchitecture