Furniture Design Materials

The appeal of gelly beauty Why gelly textures matter? Not all beauty products are creams or powders. The rise of gelly formats is transforming how consumers experience skincare and makeup. From translucent serums to jelly masks or glosses that feel playful and refreshing, these textures bring more than functionality, they bring a multisensory dimension. Consumers don’t just apply a gelly product; they touch, stretch, and play with it. It’s skincare and fun in the same gesture, an added emotional layer that turns routine into discovery. >>Gelly isn’t just a format. It’s a tactile, emotional experience.<< → The benefits of gelly formulas Gelly textures stand out in the beauty industry for three key reasons: Playfulness and differentiation → In a saturated market, products need to surprise. The glossy, bouncy appearance of gelly instantly catches the eye, sparking curiosity online and offline. They’re naturally “Instagrammable,” adding shareability to their appeal. Lightness and comfort → Unlike heavy creams, gels are associated with freshness and hydration without residue. They absorb quickly, making them ideal for consumers who want both efficiency and a clean finish. Versatility and innovation → Gelly adapts across categories: from lip glosses to hydrating masks, serums, and even hair care. This format offers endless creative opportunities in color, transparency, and sensorial finish while staying practical. → From skincare to playtime What makes gelly beauty so powerful is its ability to blur the line between treatment and play. A hydrating jelly mask is not just a formula, it’s a pause, a ritual that feels indulgent. A gelly lip product is more than shine, it’s a joyful, youthful touch that adds personality. This duality explains why Gen Z and Millennials are embracing it. They demand efficacy but also moments of sensorial pleasure that make products exciting to use every day. → The human factor Every gelly creation reflects the expertise of formulators working on texture innovation. They balance hydration, stability, and sensory pleasure to deliver products that are fun but also effective. Sharing this science builds trust and reinforces credibility. → The question every brand should ask - Are you just selling performance? - Or are you offering texture, play, and emotion? Because gelly beauty proves that in today’s market, efficacy + experience is the winning formula. >>The strongest products aren’t just effective. They’re the ones that people love to use, share, and play with.<< Featured brands: Charlotte Tilbury Purpur Refy Tocobo Milk Makeup Kylie Cosmétics From this island #BeautyMarketing #BrandStorytelling #EmotionalBranding #BeautyWithPurpose

Texture Speaks Louder. In this visually saturated world, where every label and logo competes for your gaze, there's a subtle whisper amidst the noise. It's not the vivid colors or flashy graphics that beckon you. No, it's something altogether different, something captivating, something tactile. You can't help but reach out to touch it, and in that moment, you're drawn into a world where texture becomes the storyteller. That's where the magic begins. Tactile packaging design establishes a profound emotional connection between consumers and products—by incorporating tactile elements or unique shapes into packaging, brands can create a multi-sensory experience that leaves a lasting impact. Differentiation on-shelf is crucial in a visually saturated market and shapes instantly set a product apart from its competitors. The unconventional silhouette of a bottle, box, or container arouses curiosity, drawing consumers closer for a more detailed inspection. Functional benefits of tactile packaging design can also enhance the user experience—ergonomic shapes, textured grips, or easy-open features improve usability, making packaging more practical and user-friendly. The packaging for Chatu tea is a great example. Its unique shape—inspired by tea plantations—intrigues and invites exploration. Its texture—mirroring the lines on tea pickers' hands—establishes a tangible connection to the tea's origins. Raised graphics and embossed logos further reinforce the brand identity, while strategic die-cut openings offer glimpses of the tea leaves within. Stunning! It's also been designed to be as environmentally friendly as possible, adding to the allure. Manufactured from moulded pulp to resemble traditional chinese teapots and coloured with natural, sustainable dyes in earthy red, dark green, and light green tones. Tactile packaging design done well offers an additional canvas for brands to convey their story and values—by engaging consumers' sense of touch, brands create a deeper emotional connection, elevate perceived value, and differentiate themselves. Chatu packaging doesn't just sell a product—it invites you on a journey. It encourages you to explore, touch, and connect on a deeper level with the brand, the tea, and its rich history. When you choose a product, do you rely on your eyes or your fingertips? What guides your decision in this visually saturated world? #packagingdesign #packaging #productdesign #brands #sustainabledesign 📷Xenia Alexandrova/Dmitryi Saveliev

📍Techniplas in Dalton, Georgia offers a look into how deeply polymers are embedded in today’s automotive industry! 🚗🧪 With multiple locations internationally, Techniplas serves the global mobility industry. 🌎 Material choices increasingly influence vehicle performance, cost, and sustainability. 📈 Polymers have evolved far beyond cosmetic or secondary parts. They are now structural, functional, and safety-critical elements across ICE, hybrid, and electric vehicle platforms. The shift toward lighter, more efficient vehicles continues to accelerate, and advanced polymer materials are central to that transformation. ⚙️ Across the automotive value chain, several material families stand out for their importance: 🔹 Polypropylene (PP) and filled PP compounds for interior and exterior components, balancing weight reduction, cost efficiency, and recyclability 🔹 Polyamide (PA / Nylon) grades for under-the-hood applications, where thermal resistance, mechanical strength, and chemical stability are essential 🔹 Glass-fiber and mineral-filled polymers that enable structural performance traditionally associated with metal 🔹 High-performance polymers such as PBT, PPS, and PEEK, used in electrically and thermally demanding environments 🔹 Elastomers and soft-touch materials that contribute to sealing, NVH performance, and interior comfort For electrified vehicles, polymers are even more critical. 🔋⚡ Battery housings, insulation components, connectors, and thermal management parts rely on materials that deliver flame retardancy, dimensional stability, dielectric performance, and long-term durability. In many EV applications, polymer design decisions directly affect safety, efficiency, and manufacturability. Sustainability has become inseparable from material strategy. 🌱♻️ Automotive programs increasingly call for recycled content, bio-based polymers, and designs that support end-of-life recovery. At the same time, suppliers and OEMs must ensure these materials meet stringent automotive validation requirements. The challenge is not just using sustainable materials, but integrating them without compromising performance, quality, or production scale. Vertically integrated polymer production supports shorter supply chains, faster engineering loops, and greater resilience as platforms multiply and timelines compress. 🏭 Advanced molding, automation, and in-process quality controls are now baseline expectations across the industry. While batteries, motors, and software often dominate the conversation, materials remain one of the most decisive levers in automotive engineering. 🚘🔧 🧪 Engineered polymer materials 🌱 Sustainability-driven material strategies ⚡ Critical enablers for EV and hybrid platforms 🏭 Scalable automotive manufacturing The future of mobility is shaped as much by materials and manufacturing choices as by the technologies they support. GAMUT Timuçin Kip #polymers #automotivesupplier #automotivesupplychain

✅ Geosynthetics are engineered polymer-based materials — manufactured from high-strength synthetic fibres — specifically designed to interact with soil, rock, and other geotechnical systems to improve performance, stability, and longevity. They are not plastic sheets. They are precision-engineered structural components. ⚙️ THE MAIN TYPES AND WHAT THEY DO: 🔵 Geotextiles Permeable woven or non-woven fabrics that filter, separate, drain, and reinforce. Placed between soil layers to prevent mixing while allowing water to pass freely. 🟡 Geogrids High-tensile polymer grids that interlock with soil particles — dramatically increasing the shear strength and load-bearing capacity of the surrounding material. Used in road bases, retaining walls, and embankments. 🟠 Geomembranes Impermeable sheets used as barriers — in landfill liners, reservoir bases, and dam cores — preventing fluid migration through or beneath structures. 🔴 Geocells Three-dimensional honeycomb structures filled with soil or aggregate — confining the fill material and distributing loads across a wider area. Used in slope protection, load support platforms, and erosion control. 🟤 Geodrains & Geonets Rapid drainage pathways — channelling water through or out of soil masses faster than natural permeability allows. 📐 WHY GEOSYNTHETICS OUTPERFORM THE ALTERNATIVE: ✔️ High tensile strength under sustained and dynamic loading ✔️ Chemically resistant to soil acids, alkalis, and biological agents ✔️ Consistent mechanical properties — unlike natural materials which vary by source ✔️ Lightweight and easy to install — reducing construction time significantly ✔️ Long service life — designed for 50 to 100 year performance horizons ✔️ Cost-effective alternative to granular fill, concrete, and traditional drainage layers 🔍 The visualisation shows the concept. 💪 The actual geosynthetic fibre carries the load. In geotechnical engineering, the materials that look the simplest are often doing the most complex work. Follow for more videos 👇 #Geosynthetics #Geotextile #Geogrid #GeotechnicalEngineering #CivilEngineering #SoilReinforcement #RetainingWall #RoadConstruction #ErosionControl #FoundationEngineering #Infrastructure #Engineering #ConstructionScience #ConstructionMaterials

What's the one detail that makes a $5 product feel like it belongs on a luxury shelf? Hint: You feel it before you even see the visuals. This feeling comes from the materials used in packaging—they tell a powerful story about the brand. Designing packaging isn’t just about making it look good; it’s about understanding how materials shape the way people perceive the product. The psychology of packaging fascinates me. While designing 3D packaging visuals, I realized that the secret isn’t just perfect modeling or lighting—it’s the material qualities that subtly whisper value. Materials speak a universal language in packaging: -A textured matte finish suggests luxury and craftsmanship. -Natural paper grains evoke authenticity and sustainability. -Micro-embossing delivers a tactile premium experience. -Even slight imperfections make a design feel genuine. I’ve created a set of materials tailored for packaging design to show how texture and finish elevate a product from ordinary to extraordinary. What materials instantly signal ‘premium’ to you? #GraphicDesign #PackagingDesign #DesignInspiration #BrandDesign #blender #3d

Texturing is one of the most underappreciated aspects of 3D printing. A lot of people don't realize that with high resolution technologies like MSLA, you can add any surface pattern you want at zero additional cost. No tooling or post processing necessary. This has some very interesting implementations, both functionally and aesthetically. Textured surfaces make things way less likely to slip, especially in wet or oily conditions. You can add visual and tactile cues that make the use of the part much more pleasant, like texturing the areas where your hand should grip. The aesthetic possibilities are equally interesting. Leather grain finishes that look like automotive interior trim. Woven patterns that give plastic parts a very cool textile quality. Geometric designs like hexagons or diamonds. You can even repeat your logo across a surface at aicro scale as both branding and functional grip enhancement. Unlike traditional molding where adding texture means cutting expensive patterns into your tooling, you can iterate on designs freely and incorporate different textures onto the same design easily. And if you're not interested in textures, batch production using SLA can still give you a smooth injection molded like finish.

Can one material do the work of many? Spider silk comes surprisingly close. It is light, strong, flexible and tough at the same time. That combination is rare, because materials that are strong are often stiff and brittle, while materials that are flexible often lack strength. Spider silk solves this in a very elegant way. The silk is mainly protein-based, but its performance comes from how those proteins are organized at the molecular level. Some parts form highly ordered crystalline regions that provide strength. Other parts remain more disordered and flexible, allowing the fibre to stretch and absorb energy before it breaks. Nature uses the same material, in different structure for different use cases and this is a core principle of the circular economy. Today, many products are designed like material cocktails: plastic, aluminium, adhesives, coatings, labels and inks are combined to deliver strength, barrier properties, flexibility or shelf appeal. It may work well during use, but it often creates a major problem for repair and at end-of-life. You cannot easily repair, refurbish or recycle what you cannot separate. Mono materials offer a different path - not use more materials, but designing better with just one. 🧭 Stronger through molecular orientation. 📐 Flexible through geometry. 🧱 Barrier through density. ✋ Grip through surface texture. 🪶 Protection through layering within the same material family. Spider silk shows that high performance does not always require more material complexity. Sometimes it requires more design intelligence. Thoughts? #regeneration #circulareconomy #spiders

Nature builds strong materials through simple components and smart organization. In this work, we translated bamboo’s composite strategy into a synthetic hydrogel by designing a composite system with both strong interfaces and organized structure. Instead of extracting natural fibbers, we assembled chitosan–sodium alginate nanofibers (CSNF) from the ground up for better compatibility with the PVA matrix. To bind the components together, we introduced tannic acid (TA), a multifunctional interfacial molecule that mimics lignin’s role in bamboo. This combination allowed us to engineer not just the ingredients, but also how they interact. TA is the key element functioning at three levels. It strengthens the interface between CSNF and PVA, reinforces the PVA matrix through stronger hydrogen bonding, and reduces crystallinity to improve stress transfer. Building on this molecular design, we further aligned the nanofibers and introduced a layered matrix structure that mimics bamboo’s architecture. The result is a hydrogel composite with high tensile strength (up to 60.2 MPa), excellent stretchability (470% strain), and strong resistance to impact. This work demonstrates how molecular-level tuning and structural organization, inspired by nature, can work together to enhance mechanical performance in soft composites. Published in Nature Communications: https://lnkd.in/gVgyF554

🔬 The Engineering Powerhouse, Polypropylene (PP): Often labeled simply as “plastic,” PP is a semi-crystalline thermoplastic that has been driving innovation since the 1950s. Its continued dominance comes down to a rare balance of mechanical strength, thermal resilience, and cost-efficiency. Why does PP remain indispensable? 1. The “Living Hinge” Advantage: PP’s exceptional fatigue resistance allows it to form living hinges—ultra-thin joints that can flex thousands of times without failure. This property is critical in applications ranging from precision packaging to automotive assemblies. 2. Outstanding Chemical Resistance: PP exhibits strong resistance to solvents, bases, and electrolytic environments. This makes it ideal for: • Medical equipment (capable of withstanding autoclaving) • Industrial piping for corrosive fluids 3. High Performance, Low Weight: With a melting point of ~160–171°C and a density of ~0.90 g/cm³, PP delivers an excellent strength-to-weight ratio—helping reduce material usage and improve energy efficiency in sectors like automotive and aerospace. 4. The Push Toward Circularity: The industry is evolving rapidly with the rise of: • Recycled PP (rPP) • Bio-based PP (from renewable feedstocks like tall oil and waste fats) Design for recyclability—especially mono-material systems—is becoming a key focus for companies aligning with ESG goals. 📦 Key Uses of Polypropylene • Polypropylene Sheets – Packaging, signage, and construction • Polypropylene Bags – Strong, flexible packaging solutions • Polypropylene Plastic (Granules) – Base material for packaging, textiles, and molded products • Polypropylene Fabric – Durable and resilient textile applications • Polypropylene Rope – High durability for marine and industrial use • Polypropylene Pipe – Plumbing and fluid transport systems • Polypropylene Film – Packaging, printing, and lamination • Polypropylene Packaging – Safe, lightweight protection during transit • Polypropylene Homopolymer – High stiffness and impact strength applications From non-woven medical fabrics to high-impact automotive components, PP’s versatility continues to set it apart. 💬 Industry Question: With the rise of bio-polymers, will PP maintain its dominance over the next decade—or are we heading toward alternatives like PLA-based composites? #MaterialsScience #Polypropylene #ChemicalEngineering #CircularEconomy #Manufacturing #SupplyChain #Plastic #Plastics #Polymer

Not all high-performance materials need to come from petroleum or complex processing. In our latest work, we have developed #bio-based #PA11 reinforced with #yucca fibres, designed for #injectionmoulding and scalable #massproduction, not just lab-scale #3Dprinting. Key outcomes: • Up to +55% increase in heat deflection temperature • >98% property retention after harsh #hygrothermal #ageing • Improved #impact resistance and #thermalstability • Comparable strength (~35 MPa tensile) with enhanced #durability • ~70-85% lower CO₂ footprint vs conventional polyamides (PA6/PA12) • #LCA shows further CO₂ reduction with #biocomposites We also showed how fibre extraction routes directly control performance, linking processing to property relationships. It's just a step towards #sustainable, #lightweight #automotive materials compatible with existing manufacturing. I hope you enjoy reading the paper <https://lnkd.in/emAtwMmz>, and look forward to your thoughts and how this could translate into real-world applications. Research team: Med Amine Kacem, Laura Aliotta, Vito Gigante, Pr Sabba Nassila, Sylvie MASSE, Mahdi Bodaghi.