
Wearing the Future: How Solar Fashion is Powering a Sustainable Tomorrow
The fashion industry is transforming significantly, integrating sustainability and technology to create innovative solutions. One of the most groundbreaking developments is solar-powered clothing—textiles embedded with solar panels that can capture sunlight and convert it into usable electricity. This innovation not only enhances the functionality of garments but also contributes to sustainable energy use, reducing dependence on conventional power sources. Imagine a jacket that charges your phone on the go or a dress that glows at night using stored solar energy. These advancements are not futuristic concepts but are rapidly becoming a reality.
What is Solar Fashion?
Solar fashion refers to garments equipped with thin, flexible photovoltaic (PV) cells that absorb sunlight and convert it into electrical energy. This energy is either stored in small, built-in batteries or used immediately to power small devices like smartphones, smartwatches, or wearable medical equipment. By combining fashion with renewable energy, solar textiles are redefining how people think about clothing and its role in everyday life.
Early solar garments were bulky and impractical due to the rigidity of traditional solar panels. However, with advancements in materials science, newer versions of solar fabrics are lightweight, flexible, and seamlessly integrated into clothing. This makes them more wearable, stylish, and energy-efficient, turning solar fashion into a practical solution for modern consumers.
The Evolution of Solar-Powered Clothing
Initially, solar-powered fashion was seen as more of a novelty than a functional innovation. Early designs were often uncomfortable, stiff, and not very energy efficient. However, designers and engineers have since collaborated to make solar fashion both stylish and practical. Some of the most notable innovations include:
1. Pauline van Dongen's Solar Shirt : Dutch designer Pauline van Dongen has been at the forefront of wearable solar technology. Her Solar Shirt incorporates ultra-thin, flexible solar panels into the fabric, allowing it to harness energy while maintaining a stylish and comfortable fit. The stored energy can charge small electronic devices, making it a practical and fashionable innovation.
2. Tommy Hilfiger's Solar Jacket : Tommy Hilfiger, in collaboration with Pavilion, launched a solar-powered jacket with detachable solar panels. These panels collect solar energy, store it in a built-in power bank, and allow wearers to charge their electronic devices conveniently. The jacket combines aesthetics with functionality, making it appealing to fashion-conscious consumers.
3. Vollebak's Solar-Charged Jacket : The Vollebak Solar Charged Jacket absorbs sunlight during the day and glows in the dark at night. Unlike traditional solar clothing, which primarily focuses on energy storage, this jacket also provides a striking visual effect, making it ideal for outdoor sports and adventure activities.
How Solar Textiles Work
Photovoltaic (PV) cells, commonly found in solar panels, are constructed from semiconducting materials like silicon. When sunlight strikes these materials, it excites electrons, causing them to flow and generate an electric current. In solar textiles, researchers embed ultra-thin versions of these PV cells into threads or coat fibres with solar-active compounds. Some opt for dye-sensitised or organic solar cells, which are lightweight, flexible, and easier to integrate into fabrics.
This innovation enables textiles to function like solar panels without the rigidity. Energy harvested during the day can be stored in mini batteries or supercapacitors, allowing the garment to power gadgets even after sunset. The key lies in creating a balance between energy efficiency, comfort, and durability—areas where research is rapidly advancing.
Colour-Changing Fabrics in Solar Fashion
An exciting innovation in solar textiles is the incorporation of colour-changing fabrics. These textiles use special dyes that react to sunlight or temperature changes, allowing garments to shift hues throughout the day. When combined with solar energy, these fabrics enhance both fashion and functionality.
UV-sensitive textiles change colour when exposed to sunlight, offering a visual indicator of UV exposure levels.
Temperature-sensitive fabrics adjust their colour based on environmental conditions, creating dynamic and interactive clothing options.
These technologies add a creative and customisable element to clothing, making solar fashion not only sustainable but also highly engaging for consumers.
The Benefits of Solar Fashion
Integrating solar energy into textiles offers several key benefits, both environmentally and practically:
1. Sustainability and Environmental Impact : Solar-powered clothing reduce dependence on fossil fuels and conventional electricity sources, contributing to a cleaner environment. The fashion industry is a significant polluter, and adopting solar textiles can help reduce carbon emissions and energy waste.
2. On-the-Go Charging : Solar garments allow wearers to charge their devices anywhere, eliminating the need to search for power outlets. This feature is particularly useful for travellers, outdoor enthusiasts, and individuals who need reliable power access.
3. Smart City Integration : As cities move towards smart and sustainable energy solutions, solar fashion aligns with the global push for cleaner energy use. Wearable solar devices could integrate with urban infrastructure, contributing to more efficient energy consumption.
4. Emergency and Disaster Relief Applications : In areas with limited electricity, solar-powered clothing could be a valuable resource. First responders, military personnel, and disaster relief workers could use solar garments to power essential communication and navigation tools in remote locations.
5. Interactive and Customisable Fashion : Solar textiles open up new possibilities for self-expression, from colour-changing clothing to glow-in-the-dark features. These garments allow users to experiment with new fashion trends while benefiting from practical functionality.
Challenges in Solar Fashion
Despite its advantages, solar fashion still faces several challenges:
1. Durability and Washing Limitations : Solar panels and electronic components need to be water-resistant and flexible enough to withstand everyday wear. Current research focuses on improving the durability of solar fabrics so they can be washed and worn like traditional textiles.
2. High Production Costs : The advanced materials and technology required for solar clothing make it more expensive than standard apparel. However, as demand grows and production processes improve, prices are expected to decrease over time.
3. Aesthetic Concerns : Some consumers may find solar panels on clothing visually unappealing. To address this, designers are working on ways to embed solar cells more discreetly into fabrics, making them less noticeable while maintaining efficiency.
4. Energy Storage and Battery Efficiency : While solar clothing can generate power, the challenge remains in storing enough energy efficiently. The development of lightweight, high-capacity batteries will be crucial to making solar garments more practical for everyday use.
The Future of Solar Fashion
Researchers and designers are continuously innovating to enhance solar textiles' efficiency, flexibility, and design. Emerging technologies such as graphene-based solar cells and nanotechnology promise to make solar fabrics more efficient and lightweight. These advancements could lead to everyday clothing items that seamlessly integrate solar power without compromising style or comfort.
Shortly, solar-powered accessories like backpacks, hats, and even shoes could become mainstream, further expanding wearable energy solutions. With ongoing technological progress, solar fashion is set to revolutionise not only clothing but also how people interact with energy in their daily lives.
Solar Fashion in Action: Beyond Runways
Solar textiles are not just for style—they have real-world utility. Here is how they are being explored across industries:
Military and Tactical Gear : Soldiers in remote areas can benefit from clothing that powers communication devices, night vision goggles, and GPS systems. Solar backpacks and uniforms reduce reliance on heavy battery packs.
Disaster Relief and Humanitarian Aid : In areas hit by floods or earthquakes, solar clothing can support first responders and displaced populations with basic energy for lights and phones.
Healthcare and Elder Care : Smart garments with solar power can support health monitoring devices, especially in regions with unstable electricity. Imagine a solar shirt that powers a heart rate monitor or fall detector for elderly individuals.
Sports and Outdoor Exploration : Adventure seekers and athletes can benefit from gear that charges wearable tech like GPS, fitness bands, or emergency beacons—especially in extreme environments.
Fashion Events and Smart Branding : Brands are increasingly using solar wearables as part of sustainability campaigns. Think LED-lit dresses that glow using self-generated energy or festival outfits that combine sustainability with high-tech drama.
Pioneers and Projects Leading the Charge
While big names like Tommy Hilfiger and Pauline van Dongen lead the way, a wave of startups and institutions are pushing the boundaries:
Wearable Solar (Netherlands) : Focused on blending solar energy into daily fashion while prioritising comfort and style.
Soltech (US) : Developing PV materials for curtains, jackets, and tents using printed electronics.
University of Nottingham (UK) : Working on flexible, printable solar panels that can be embedded into everyday clothing.
MIT and Stanford University : Exploring nanomaterials and graphene for next-generation solar textiles that are thinner than paper and more efficient than conventional panels.
These and other such initiatives will go a long way in making solar fashion more scalable, efficient, and aesthetically versatile.
Cultural Influence and Youth Appeal
Gen Z and millennial consumers increasingly prioritise ethical fashion and technology. Solar fashion aligns with their values: sustainability, self-expression, and innovation. Influencers, tech-savvy artists, and sustainability advocates are helping bring visibility to solar fashion.

Try Our AI Features
Explore what Daily8 AI can do for you:
Comments
No comments yet...
Related Articles


Fibre2Fashion
5 hours ago
- Fibre2Fashion
Wearing the Future: How Solar Fashion is Powering a Sustainable Tomorrow
The fashion industry is transforming significantly, integrating sustainability and technology to create innovative solutions. One of the most groundbreaking developments is solar-powered clothing—textiles embedded with solar panels that can capture sunlight and convert it into usable electricity. This innovation not only enhances the functionality of garments but also contributes to sustainable energy use, reducing dependence on conventional power sources. Imagine a jacket that charges your phone on the go or a dress that glows at night using stored solar energy. These advancements are not futuristic concepts but are rapidly becoming a reality. What is Solar Fashion? Solar fashion refers to garments equipped with thin, flexible photovoltaic (PV) cells that absorb sunlight and convert it into electrical energy. This energy is either stored in small, built-in batteries or used immediately to power small devices like smartphones, smartwatches, or wearable medical equipment. By combining fashion with renewable energy, solar textiles are redefining how people think about clothing and its role in everyday life. Early solar garments were bulky and impractical due to the rigidity of traditional solar panels. However, with advancements in materials science, newer versions of solar fabrics are lightweight, flexible, and seamlessly integrated into clothing. This makes them more wearable, stylish, and energy-efficient, turning solar fashion into a practical solution for modern consumers. The Evolution of Solar-Powered Clothing Initially, solar-powered fashion was seen as more of a novelty than a functional innovation. Early designs were often uncomfortable, stiff, and not very energy efficient. However, designers and engineers have since collaborated to make solar fashion both stylish and practical. Some of the most notable innovations include: 1. Pauline van Dongen's Solar Shirt : Dutch designer Pauline van Dongen has been at the forefront of wearable solar technology. Her Solar Shirt incorporates ultra-thin, flexible solar panels into the fabric, allowing it to harness energy while maintaining a stylish and comfortable fit. The stored energy can charge small electronic devices, making it a practical and fashionable innovation. 2. Tommy Hilfiger's Solar Jacket : Tommy Hilfiger, in collaboration with Pavilion, launched a solar-powered jacket with detachable solar panels. These panels collect solar energy, store it in a built-in power bank, and allow wearers to charge their electronic devices conveniently. The jacket combines aesthetics with functionality, making it appealing to fashion-conscious consumers. 3. Vollebak's Solar-Charged Jacket : The Vollebak Solar Charged Jacket absorbs sunlight during the day and glows in the dark at night. Unlike traditional solar clothing, which primarily focuses on energy storage, this jacket also provides a striking visual effect, making it ideal for outdoor sports and adventure activities. How Solar Textiles Work Photovoltaic (PV) cells, commonly found in solar panels, are constructed from semiconducting materials like silicon. When sunlight strikes these materials, it excites electrons, causing them to flow and generate an electric current. In solar textiles, researchers embed ultra-thin versions of these PV cells into threads or coat fibres with solar-active compounds. Some opt for dye-sensitised or organic solar cells, which are lightweight, flexible, and easier to integrate into fabrics. This innovation enables textiles to function like solar panels without the rigidity. Energy harvested during the day can be stored in mini batteries or supercapacitors, allowing the garment to power gadgets even after sunset. The key lies in creating a balance between energy efficiency, comfort, and durability—areas where research is rapidly advancing. Colour-Changing Fabrics in Solar Fashion An exciting innovation in solar textiles is the incorporation of colour-changing fabrics. These textiles use special dyes that react to sunlight or temperature changes, allowing garments to shift hues throughout the day. When combined with solar energy, these fabrics enhance both fashion and functionality. UV-sensitive textiles change colour when exposed to sunlight, offering a visual indicator of UV exposure levels. Temperature-sensitive fabrics adjust their colour based on environmental conditions, creating dynamic and interactive clothing options. These technologies add a creative and customisable element to clothing, making solar fashion not only sustainable but also highly engaging for consumers. The Benefits of Solar Fashion Integrating solar energy into textiles offers several key benefits, both environmentally and practically: 1. Sustainability and Environmental Impact : Solar-powered clothing reduce dependence on fossil fuels and conventional electricity sources, contributing to a cleaner environment. The fashion industry is a significant polluter, and adopting solar textiles can help reduce carbon emissions and energy waste. 2. On-the-Go Charging : Solar garments allow wearers to charge their devices anywhere, eliminating the need to search for power outlets. This feature is particularly useful for travellers, outdoor enthusiasts, and individuals who need reliable power access. 3. Smart City Integration : As cities move towards smart and sustainable energy solutions, solar fashion aligns with the global push for cleaner energy use. Wearable solar devices could integrate with urban infrastructure, contributing to more efficient energy consumption. 4. Emergency and Disaster Relief Applications : In areas with limited electricity, solar-powered clothing could be a valuable resource. First responders, military personnel, and disaster relief workers could use solar garments to power essential communication and navigation tools in remote locations. 5. Interactive and Customisable Fashion : Solar textiles open up new possibilities for self-expression, from colour-changing clothing to glow-in-the-dark features. These garments allow users to experiment with new fashion trends while benefiting from practical functionality. Challenges in Solar Fashion Despite its advantages, solar fashion still faces several challenges: 1. Durability and Washing Limitations : Solar panels and electronic components need to be water-resistant and flexible enough to withstand everyday wear. Current research focuses on improving the durability of solar fabrics so they can be washed and worn like traditional textiles. 2. High Production Costs : The advanced materials and technology required for solar clothing make it more expensive than standard apparel. However, as demand grows and production processes improve, prices are expected to decrease over time. 3. Aesthetic Concerns : Some consumers may find solar panels on clothing visually unappealing. To address this, designers are working on ways to embed solar cells more discreetly into fabrics, making them less noticeable while maintaining efficiency. 4. Energy Storage and Battery Efficiency : While solar clothing can generate power, the challenge remains in storing enough energy efficiently. The development of lightweight, high-capacity batteries will be crucial to making solar garments more practical for everyday use. The Future of Solar Fashion Researchers and designers are continuously innovating to enhance solar textiles' efficiency, flexibility, and design. Emerging technologies such as graphene-based solar cells and nanotechnology promise to make solar fabrics more efficient and lightweight. These advancements could lead to everyday clothing items that seamlessly integrate solar power without compromising style or comfort. Shortly, solar-powered accessories like backpacks, hats, and even shoes could become mainstream, further expanding wearable energy solutions. With ongoing technological progress, solar fashion is set to revolutionise not only clothing but also how people interact with energy in their daily lives. Solar Fashion in Action: Beyond Runways Solar textiles are not just for style—they have real-world utility. Here is how they are being explored across industries: Military and Tactical Gear : Soldiers in remote areas can benefit from clothing that powers communication devices, night vision goggles, and GPS systems. Solar backpacks and uniforms reduce reliance on heavy battery packs. Disaster Relief and Humanitarian Aid : In areas hit by floods or earthquakes, solar clothing can support first responders and displaced populations with basic energy for lights and phones. Healthcare and Elder Care : Smart garments with solar power can support health monitoring devices, especially in regions with unstable electricity. Imagine a solar shirt that powers a heart rate monitor or fall detector for elderly individuals. Sports and Outdoor Exploration : Adventure seekers and athletes can benefit from gear that charges wearable tech like GPS, fitness bands, or emergency beacons—especially in extreme environments. Fashion Events and Smart Branding : Brands are increasingly using solar wearables as part of sustainability campaigns. Think LED-lit dresses that glow using self-generated energy or festival outfits that combine sustainability with high-tech drama. Pioneers and Projects Leading the Charge While big names like Tommy Hilfiger and Pauline van Dongen lead the way, a wave of startups and institutions are pushing the boundaries: Wearable Solar (Netherlands) : Focused on blending solar energy into daily fashion while prioritising comfort and style. Soltech (US) : Developing PV materials for curtains, jackets, and tents using printed electronics. University of Nottingham (UK) : Working on flexible, printable solar panels that can be embedded into everyday clothing. MIT and Stanford University : Exploring nanomaterials and graphene for next-generation solar textiles that are thinner than paper and more efficient than conventional panels. These and other such initiatives will go a long way in making solar fashion more scalable, efficient, and aesthetically versatile. Cultural Influence and Youth Appeal Gen Z and millennial consumers increasingly prioritise ethical fashion and technology. Solar fashion aligns with their values: sustainability, self-expression, and innovation. Influencers, tech-savvy artists, and sustainability advocates are helping bring visibility to solar fashion.


Time of India
8 hours ago
- Time of India
Nexus Venture to invest Rs 125 crore in Rapido ahead of food delivery launch
Nexus Venture Partners will invest Rs 125 crore (around $15 million) in Rapido as a part of a larger financing round last year that valued it at $1.1 billion, the urban mobility platform said in a filing with the Registrar of Companies (RoC). The fund infusion comes ahead of Rapido's foray into food delivery, for which it plans to launch a pilot this month. ET has reported earlier that Rapido is looking to challenge the dominance of Eternal's Zomato and Swiggy in food delivery. The latter holds a 12% stake in Rapido. According to agreed terms with industry body National Restaurants Association of India (NRAI), Rapido is expected to charge commissions in the range of 8-15% from restaurants, compared to 16-30% Zomato and Swiggy charge, ET reported on Monday . Rapido's $200-million funding round last year was led by WestBridge Capital. This was followed by a $30-million investment by Dutch investor Prosus , which is also a large investor in Swiggy. Rapido is also chalking out plans to enter the insurance distribution space where it could target its driver partners and customers for products such as health, life, general and motor insurance. In fiscal 2025, Rapido's gross order value (GOV) more than doubled to $1.25 billion on the back of growth in its ride-hailing services . Discover the stories of your interest Blockchain 5 Stories Cyber-safety 7 Stories Fintech 9 Stories E-comm 9 Stories ML 8 Stories Edtech 6 Stories Over the last year, the company, which started off as a bike-taxi platform, expanded into four-wheeler ride-hailing, taking on Uber and Ola. The company is growing its market share, currently fulfilling 3-3.5 million orders per day across two-, three- and four-wheeler rides and hyperlocal logistics. ET reported on May 23 that as a result of its chase for growth and entry into new spaces, Rapido's monthly cash burn touched $4-5 million, or about Rs 35-42 crore, in 2025 – a sharp departure from last year's efforts to rein in losses. During the July–September 2024 quarter, the company had narrowed its losses to Rs 17 crore from Rs 74 crore in the same period the year before. In FY24, the ridesharing platform posted a 46% rise in operating revenue to Rs 648 crore on account of its entry into new businesses and increased customer bookings. The company also narrowed its net loss by 45% to Rs 371 crore from Rs 674 crore in FY23.

Mint
3 days ago
- Mint
Want even tinier chips? Use a particle accelerator
Semiconductor chips are among the smallest and most detailed objects humans can manufacture. Shrinking the scale and upping the complexity is a fight against the limits of physics, and optical lithography—etching nanometre-scale patterns onto silicon with short-wavelength light—is its most extreme frontier. ASML , a Dutch firm that builds such lithography tools, takes an almost sci-fi approach by blasting molten tin droplets with lasers in a vacuum to produce extreme ultraviolet (EUV) light with a wavelength of just 13.5nm. Now, some researchers hope to generate more powerful EUV beams with a particle accelerator that propels electrons to nearly the speed of light. The need for this radical proposal stems from a fundamental limitation of current EUV sources: they struggle to generate enough power to reliably etch circuits onto silicon. In a lithography tool such as ASML's, the EUV beam bounces off nearly a dozen mirrors before it hits the silicon. EUV light is so easily absorbed, though, that even in a vacuum-sealed chamber with ultra-specialised mirrors, each reflection saps 30% of the light's energy. By the time the photons reach the wafer, less than 2% of the original EUV energy remains. Without enough power, reliability and precision plummet. One way to boost energy is to bombard the wafer with multiple doses of EUV light, a trick that slows down the chip-manufacturing process. The other approach is to increase the power of the photons. ASML's latest rig uses a light source that operates at 500 watts, nearly twice the power of its previous machines. To speed up production or to shrink feature sizes even further, the light source must get stronger. ASML currently has a road map to develop a one kilowatt light source. A more radical solution is to use a free-electron laser (FEL), where electrons travelling near the speed of light are manipulated to emit EUV radiation. The FEL process begins with a powerful electron gun that injects a beam of the particles into a miniature racetrack. The electrons then pass through a linear accelerator, which propels them to nearly the speed of light. Once accelerated, they enter a roughly 200-metre-long structure called an undulator, where a series of magnets generate a field whose polarity flips periodically. This wiggles the electrons, causing them to emit a beam of EUV photons with a specific wavelength. Nicholas Kelez, the boss of xLight, a Silicon Valley startup developing FEL-based lithography, described the technology as a more powerful and tuneable 'new light bulb" that he believes can be swapped into existing optical lithography machines. xLight expects to deliver the first commercial system within four years. Another research group, at the High Energy Accelerator Research Organisation (KEK) in Japan, has already demonstrated the ability to generate light at 20 micrometres (millionths of a metre)—far longer than the 13.5nm wavelengths ASML is capable of but a step towards refining the process. Chinese researchers are also exploring FEL technology in their quest to develop an independent EUV machine. Generating light using a FEL has some advantages over using lasers. The first is power: a lithography machine based on a FEL-based light source can be around six times more energy-efficient than a laser-plasma tool. Dispensing with molten-tin droplets also reduces the risk of contamination. Tuning such a machine for smaller wavelengths is also, at least theoretically, much easier: all that needs doing is tweaking the settings on the electron gun and the undulator. It would also be cheaper. A single FEL system can be repurposed to provide light for multiple lithography machines, allowing its operator to distribute the fixed costs across multiple chip-etching tools. Nakamura Norio from KEK estimates that the construction cost is around half that of a laser-based EUV tool and the running costs are around a fifteenth. For now, all this is theoretical. Whereas ASML's EUV machines are proving themselves in high-volume manufacturing, FEL-based lithography is still in the experimental phase. But in the high-stakes world of chipmaking, any edge is worth chasing. Curious about the world? To enjoy our mind-expanding science coverage, sign up to Simply Science, our weekly subscriber-only newsletter.