What goes into creating Sneaker LAB's sustainable sneaker care products?
So, our vision at Sneaker LAB has always been clear, and predicated on two simple questions: how do we respect the care practices instinctive to our community, while moving the needle forward for fashion care practices that protect the planet?
Our commitment to biotechnology-driven solutions prioritise both performance and environmental responsibility; what exactly goes into creating a sneaker care product that is effective, safe, and sustainable?
At the core of our care products is probiotic biotechnology—a science-led, planet-first approach that harnesses beneficial microorganisms to break down dirt and grime at a molecular level. Unlike traditional cleaning agents that rely on harsh surfactants and synthetic chemicals, probiotic-based formulas leverage naturally occurring enzymes to digest organic matter.
If it seems kind of sci-fi, well; that's because it is. Our process is futuristic, and our products are announcements that the future is
here, now
.
The development of these probiotic enzymes begins in a controlled lab environment, in which specific bacterial strains are cultivated for their cleaning efficacy. Our bio-chemistry team isolates and grows these microorganisms in optimal conditions, ensuring they produce the enzymes necessary to degrade stubborn stains, odours, and biofilms on sneaker materials. These enzymes work continuously even after application, providing a long-lasting cleaning effect without the need for repeated use of harsh chemicals.
What makes these probiotics even more fascinating is their ability to create a self-sustaining ecosystem on your sneakers. Instead of stripping materials of all bacteria—good and bad—like conventional cleaners do, our probiotic formulas encourage beneficial bacteria to outcompete the harmful ones. This means that every time you clean your sneakers, you're actively creating an environment that resists future grime and odour buildup.
Creating a sustainable sneaker care product that is eco-conscious, includes ensuring that it performs at the highest level. How else would we convince you to take the road less travelled? Each Sneaker LAB product undergoes rigorous testing to ensure effectiveness on a wide range of sneaker materials, including leather, suede, canvas, mesh, and synthetic textiles. The research and development team conducts laboratory tests to measure cleaning efficiency, pH balance, and material compatibility. Controlled stain tests simulate real-world conditions, exposing sneakers to common contaminants like mud, food, and oil. These tests help refine the formula to deliver optimal cleaning power while preserving the integrity of delicate materials.
Luckily, we have been around for some time and the wear-testing we do today is conducted within our community. Our product must meet the expectations of sneaker collectors, athletes, and everyday wearers: and they do.
Beyond functionality, our team ensures that the probiotic-based formulas don't degrade the adhesives that hold sneakers together or cause unexpected colour changes. The goal is to provide a cleaning solution that sneaker lovers can trust—one that works on rare archival Jordans just as well as on your everyday pairs, that encounter all kinds of surfaces and terrains.
Sustainability is a vast concept, encompassing many facets. Alongside our commitment to the environment, our ethical considerations are equally important. Sneaker LAB ensures that all its products are cruelty-free, meaning they are never tested on animals. We take care and pride in maintaining ethical supply chain practices, working with suppliers that uphold fair labour standards and environmentally responsible production methods. Our commitment to social responsibility also extends to community initiatives; so the things that make us sustainable are broader than our product offering. We know firsthand how sneaker culture and environmental stewardship can go hand in hand.
We're also
As the demand for sustainable care products grows, so does the potential for innovation. We continue to invest in research and development to enhance its probiotic cleaning technology and refine formulas for even greater efficiency. Looking ahead, we believe the future of sneaker care lies in circular systems—in which packaging can be upcycled, refilled, or composted, and where biotech advancements further reduce environmental impact. With continued commitment to sustainability, we're shaping a cleaner, greener future for the footwear and fashion industries.
Sneaker culture is built on passion, and caring for sneakers should reflect that same dedication. By choosing products that prioritise both performance and the planet, we are dedicated to contributing to a more sustainable future—without compromising on style, or our shared love for design.
Hashtags
Try Our AI Features
Explore what Daily8 AI can do for you:
Comments
No comments yet...
Related Articles
Mail & Guardian
23-07-2025
- Mail & Guardian
What goes into creating Sneaker LAB's sustainable sneaker care products?
We are well aware that the sneaker care industry has long relied on chemical-heavy formulas to clean, protect, and restore footwear. Those of us in the sneaker community have always held true to the idea that sneakers transcend the footwear category; they are cultural symbols, and sneakers continue to be feats of design and engineering within the fashion space. So, our vision at Sneaker LAB has always been clear, and predicated on two simple questions: how do we respect the care practices instinctive to our community, while moving the needle forward for fashion care practices that protect the planet? Our commitment to biotechnology-driven solutions prioritise both performance and environmental responsibility; what exactly goes into creating a sneaker care product that is effective, safe, and sustainable? At the core of our care products is probiotic biotechnology—a science-led, planet-first approach that harnesses beneficial microorganisms to break down dirt and grime at a molecular level. Unlike traditional cleaning agents that rely on harsh surfactants and synthetic chemicals, probiotic-based formulas leverage naturally occurring enzymes to digest organic matter. If it seems kind of sci-fi, well; that's because it is. Our process is futuristic, and our products are announcements that the future is here, now . The development of these probiotic enzymes begins in a controlled lab environment, in which specific bacterial strains are cultivated for their cleaning efficacy. Our bio-chemistry team isolates and grows these microorganisms in optimal conditions, ensuring they produce the enzymes necessary to degrade stubborn stains, odours, and biofilms on sneaker materials. These enzymes work continuously even after application, providing a long-lasting cleaning effect without the need for repeated use of harsh chemicals. What makes these probiotics even more fascinating is their ability to create a self-sustaining ecosystem on your sneakers. Instead of stripping materials of all bacteria—good and bad—like conventional cleaners do, our probiotic formulas encourage beneficial bacteria to outcompete the harmful ones. This means that every time you clean your sneakers, you're actively creating an environment that resists future grime and odour buildup. Creating a sustainable sneaker care product that is eco-conscious, includes ensuring that it performs at the highest level. How else would we convince you to take the road less travelled? Each Sneaker LAB product undergoes rigorous testing to ensure effectiveness on a wide range of sneaker materials, including leather, suede, canvas, mesh, and synthetic textiles. The research and development team conducts laboratory tests to measure cleaning efficiency, pH balance, and material compatibility. Controlled stain tests simulate real-world conditions, exposing sneakers to common contaminants like mud, food, and oil. These tests help refine the formula to deliver optimal cleaning power while preserving the integrity of delicate materials. Luckily, we have been around for some time and the wear-testing we do today is conducted within our community. Our product must meet the expectations of sneaker collectors, athletes, and everyday wearers: and they do. Beyond functionality, our team ensures that the probiotic-based formulas don't degrade the adhesives that hold sneakers together or cause unexpected colour changes. The goal is to provide a cleaning solution that sneaker lovers can trust—one that works on rare archival Jordans just as well as on your everyday pairs, that encounter all kinds of surfaces and terrains. Sustainability is a vast concept, encompassing many facets. Alongside our commitment to the environment, our ethical considerations are equally important. Sneaker LAB ensures that all its products are cruelty-free, meaning they are never tested on animals. We take care and pride in maintaining ethical supply chain practices, working with suppliers that uphold fair labour standards and environmentally responsible production methods. Our commitment to social responsibility also extends to community initiatives; so the things that make us sustainable are broader than our product offering. We know firsthand how sneaker culture and environmental stewardship can go hand in hand. We're also As the demand for sustainable care products grows, so does the potential for innovation. We continue to invest in research and development to enhance its probiotic cleaning technology and refine formulas for even greater efficiency. Looking ahead, we believe the future of sneaker care lies in circular systems—in which packaging can be upcycled, refilled, or composted, and where biotech advancements further reduce environmental impact. With continued commitment to sustainability, we're shaping a cleaner, greener future for the footwear and fashion industries. Sneaker culture is built on passion, and caring for sneakers should reflect that same dedication. By choosing products that prioritise both performance and the planet, we are dedicated to contributing to a more sustainable future—without compromising on style, or our shared love for design.
Mail & Guardian
22-07-2025
- Mail & Guardian
New science hub bridges lab-skills gap for underprivileged students
The Centre for Advanced Training and Innovative Research (CATIR) — a joint initiative between United States-based biotechnology company Thermo Fisher Scientific, the South African Medical Research Council and the department of science, innovation and technology was unveiled on 16 July. (@ma_mohapeloa/X) A-first-of-its-kind The Centre for Advanced Training and Innovative Research (CATIR) — a joint initiative between United States-based biotechnology company Thermo Fisher Scientific, the It plans to fund and train an initial cohort of 20 students by the end of 2025, with ambitions to scale up to 160 students annually. These students have been recruited from the University of Venda, the University of Limpopo and Sefako Makgatho Health Sciences University, all of which focus on providing education for underserved communities. They will undergo five weeks of training at the facility to apply academic theory into practical assessments. The hands-on approach is a mechanism to help them gain specialised skills for real-world scenarios. 'Hand-on experience was the key principle that drove curriculum development, ensuring that every student that departs the CATIR facility is proficient in relevant technologies and skills that are high in demand across research, clinical and biotech industries, not just theoretical understanding,' the council's spokesperson Tendani Tsedu said. 'In doing so, we hope that they will go on to contribute to science locally and abroad.' The unemployment rate across most tertiary study fields has steadily increased from 2015 to 2023, with graduates in administration, arts and social sciences, agriculture and science struggling to find jobs, according to a 2024 study by A separate study by the It recommended educational institutions and science councils should act as hubs or incubators to address these problems. 'By designing relevant curricula and creating job opportunities (such as internships), they can ensure graduates are more valuable to the labour market. Securing employment for South African unemployed graduates is challenging because of a lack of relevant work experience, limited information on effective job searches and low social capital.' The facility will train graduates in advanced molecular science and laboratory management using 'We want to equip them with the core skills in working in a laboratory, because working in a laboratory is not only operating the instrumentation, but understanding the processes in the lab, understanding how to manage a team, how to influence a team, how to manage finances [and] how to develop the laboratory to the next level,' said Marcin Kouri, Thermo Fisher's senior director for Africa and the Middle East . The focus on molecular science was also driven by the need to localise scientific and medical research, support future pandemic preparedness and build health system resilience. 'After 'We believe that the graduates will be a good talent to have in those new vaccine manufacturing sites or pharmaceutical-established new manufacturing entities.' He added that molecular science is a gateway into many other disciplines — research and development, healthcare, 'The world is about entrepreneurship. Innovation is about putting ideas into execution and practice,' said Kouri. 'Imagine you are a student with an idea, but you have no way to access those instruments or facilities to try. Hopefully this centre will give that opportunity for innovators as well to come and join their ideas and potentially innovate in the country.' Tsedu said students who are trained in DNA sequencing technologies can apply those skills in forensic analysis, oncology testing, agriculture, wastewater monitoring and pandemic surveillance. The joint initiative partners hope to replicate this concept in other parts of Africa.
Mail & Guardian
08-07-2025
- Mail & Guardian
University of KwaZulu-Natal aims to run on mini solar power stations
UKZN's ambition to become South Africa's first predominantly renewable-powered university is taking shape through a new high tech project A partnership between the University of KwaZulu-Natal (UKZN) and a Hong Kong-based tech innovator is confronting the issues of ageing energy infrastructure and rising electricity costs to bring a greener future for South Africa's energy landscape. The joint venture agreement with Youtility, launched at the university's Westville campus recently, harnesses artificial intelligence (AI) and blockchain technology to change how electricity is generated, distributed and paid for. Innovators believe the project, which will eventually span all five of the university's campuses, positions it as a pioneer in sustainable energy and a testbed for technologies that could reshape how South Africa powers itself. 'This concept of green energy is going to transform the energy landscape in South Africa,' UKZN acting deputy vice-chancellor for research and innovation Anil Chuturgoon, said. Despite not having Innovators believe the UKZN partnership offers an alternative for a decentralised, renewable-powered model that leverages microgrids, solar energy, battery storage and new technology to deliver reliable, clean electricity. The initial rollout at Westville campus will see about 2 000 solar panels, each producing 600 watts, installed to generate on-site power. Battery banks and a sentient AI system called Wizdom will manage energy flows, ensuring seamless supply even when the national grid falters. 'This partnership introduces a decentralised energy model, which is the opposite of our current, overly centralised power grid that often fails,' UKZN Eskom power engineering programme acting director Leigh Jarvis said. 'Microgrids ensure that different campuses or buildings can keep operating independently. So if the national grid is down, the university can still function — classes can continue, labs stay powered, and essential services remain online.' Microgrids are self-contained energy systems that integrate solar panels, battery storage and smart controllers. Unlike traditional power stations that send electricity over long distances, microgrids generate power close to where it's needed, reducing waste and improving reliability. 'The resolution of the data and real-time nature will open up insight into electricity use and enable unparalleled control to power flow in relation to solar, storage, and grid,' Jarvis said, highlighting how AI optimises energy distribution across buildings, labs and residences. At the heart of this system is Youtility's Wizdom, described by director Wayne Mostert as 'an evolving, AI-driven utility brain with enhanced capabilities which include real-time, decentralised decision-making and smart discharge of power into micro and macro grids'. This cloud-based operating system acts like a conductor, orchestrating energy flows to ensure efficiency and reliability. When the sun is not shining, Wizdom directs stored energy from battery banks to where it's needed most, preventing disruptions and maximising the use of renewable energy. One of the project's innovative features is its blockchain-based billing system, which ensures transparency and fairness. By providing real-time data on energy consumption, users can monitor their usage and utilities can track payments instantly. This tamper-proof approach could reduce electricity theft, which costs South Africa billions annually. 'Every person or building gets charged only for what they use, in real-time, using a digital billing system that's as secure as online banking. This simplicity belies the project's complexity, which integrates advanced technology with real-world applications to create a scalable, resilient energy model,' Jarvis said. 'If everyone pays their fair share, then no one has to pay extra,' Jarvis said, encapsulating the system's potential to eliminate unfair pricing and reduce the need for rate hikes. For the university this means lower operational costs, while for the broader population, it could serve as a model for equitable energy access. Javis said about 10,000 solar panels are being installed across campuses and will 'produce clean, carbon-free energy every day — enough to power key facilities and reduce fossil fuel reliance significantly'. The initiative is expected to reduce air pollution, cut greenhouse gas emissions and promote smarter energy use in real-time. Greener buildings, labs and residence halls will lower UKZN's carbon footprint and serve as a living laboratory for sustainable practices. Students are at the heart of the will help maintain equipment, conduct research and develop new technologies. The project includes plans for a UKZN spin-off company focused on energy tech, researching innovations like liquid air energy storage and superconductor systems as alternatives to lithium batteries. 'Through this JVA, we envision student-led spin-off companies and a direct link between academic learning and the industries shaping our energy future,' Jarvis said. The partnership also has broader implications. Eskom Distribution is observing the project in an advisory capacity, recognising its potential to serve as a blueprint for national energy reform. If successful, the UKZN model could be scaled to power schools, clinics, towns and even cities. In layman's terms, Jarvis described the system as a self-sufficient mini power station: 'Solar panels collect energy from the sun. That energy gets stored in large batteries. A smart digital system figures out when and where to send power to buildings automatically. 'At its core is the recognition that the future of electricity lies in disruption networks and decentralised energy systems.'
