Project Nebula by Filippo Batavia and Ginevra Della Porta Tackles Food Waste
How Award Winning Design Innovation Enables Brands to Address Food Waste through Scientific Expertise and Consumer Technology
TL;DR
SAES, a company that builds tech for particle accelerators, created Project Nebula: a handheld device using compressed gas capsules to preserve food at home. It won a Golden A' Design Award and sparked a whole new consumer innovation division.
Key Takeaways
- Technical companies can translate industrial capabilities into consumer products through multidisciplinary design teams and extensive market research
- Modified Atmosphere Packaging technology miniaturized through compressed gas capsules creates ongoing consumer relationships via refill business models
- Design-driven innovation methodologies become repeatable organizational capabilities that transform single projects into competitive advantages
What happens when a company possessing decades of expertise in particle accelerators, vacuum technology, and advanced materials decides to design something for your kitchen counter? The answer is fascinating, unexpected, and genuinely delightful. Project Nebula involves compressed gas capsules, a cage-like structure inspired by equipment used in scientific research facilities, and a mission to transform how households preserve food.
SAES, a company specializing in getter technologies for ultra-high vacuum applications, gas management systems, and functional compostable packaging, faced a compelling question. How could their sophisticated scientific capabilities create direct value for everyday consumers while addressing one of our era's most pressing environmental concerns? The response materialized as Project Nebula, a miniaturized Modified Atmosphere Packaging device designed by Filippo Batavia and Ginevra Della Porta, which earned the Golden A' Design Award in the Idea and Conceptual Design category in 2024.
The Project Nebula story represents something remarkable for brands operating in specialized technical domains. The device demonstrates how design-driven innovation methodologies can serve as a bridge between complex scientific expertise and consumer-facing products that genuinely improve daily life. Project Nebula stands at just 210 millimeters in length, yet the device contains the miniaturized essence of industrial food preservation technology typically found in large-scale manufacturing facilities.
For enterprises sitting on proprietary technologies developed for industrial applications, the Project Nebula case study illuminates a pathway worth examining closely. The question is straightforward: what untapped consumer value exists within your existing technical capabilities, and what effort would translating that expertise into something people can hold in their hands require?
The Laboratory to Living Room Challenge
Companies with deep technical expertise often find themselves in an interesting position. Technical companies possess capabilities that could transform consumer experiences, yet the translation from industrial application to household product presents formidable challenges. The technical specifications that work beautifully in controlled environments must be reimagined entirely when the end user is someone preparing dinner on a Tuesday evening.
SAES faced precisely this situation. The company's expertise in gas management, vacuum technology, and advanced materials had served particle accelerators and other extreme applications with remarkable success. The NextTorr pumps SAES designed for scientific research facilities represented engineering excellence at the highest level. Yet the same expertise remained inaccessible to the millions of households struggling with food waste.
The numbers tell a compelling story. Approximately 930 million tons of food were wasted globally in 2019. Perhaps more striking, around 60 percent of that waste occurred at the consumer level, in homes where individuals and families discarded food that could have been preserved with appropriate technology. Food waste represents a massive opportunity for brands willing to translate industrial capabilities into consumer solutions.
The challenge lies in the translation itself. Industrial Modified Atmosphere Packaging systems operate at scales and with complexities unsuitable for home environments. The components cannot simply be shrunk. The engineering principles must be fundamentally reconsidered. The user interface must transform from something operated by trained technicians to something intuitive enough for anyone to use while multitasking in a busy kitchen.
Project Nebula emerged from the translation challenge between industrial and consumer applications. The design team recognized that miniaturizing MAP technology required what they described as a paradigm shift. Scaling down the components proved impossible, so the team sought alternative approaches that would achieve identical results through different mechanical processes. The willingness to abandon conventional approaches in favor of novel solutions marks the difference between successful consumer product translation and projects that stall in development.
Understanding Modified Atmosphere Packaging for Home Preservation
Modified Atmosphere Packaging operates on a principle that sounds deceptively simple yet requires sophisticated execution. By replacing the air inside a sealed container with a specific mixture of gases, the chemical processes that cause food spoilage slow dramatically. The typical atmospheric composition surrounding your food encourages bacterial growth and oxidation. A carefully calibrated alternative atmosphere creates conditions far less hospitable to degradation processes.
Industrial MAP systems have served food manufacturers and distributors for decades. MAP technology extends shelf life, reduces waste throughout supply chains, and enables products to travel greater distances while maintaining quality. However, industrial MAP systems occupy factory floors and require specialized infrastructure. Industrial systems are designed for production lines, not countertops.
What makes Project Nebula conceptually significant is the fundamental rethinking of how MAP technology could function at a miniature scale. The device uses pre-mixed capsules containing compressed gas. When activated, the system extracts the existing internal atmosphere from a container and injects a specific gas composition designed to extend food preservation. The entire process happens through a mechanism small enough to fit in your hand.
The user experience centers on simplicity. A rotational selector switch controls operations while a display shows real-time feedback. The device attaches to rigid containers designed with innovative microcellular polypropylene molding techniques. The containers achieve weight reductions of up to 20 percent compared to standard materials while actually increasing tensile and impact properties by 30 percent. Lighter, stronger, and more recyclable represents an unusual combination in consumer products.
The inspiration for the compressed gas capsule system came from an unexpected source. The design team drew parallels to the simple compressed gas cylinders used for inflating bicycle tires. The accessible, familiar mechanism became the foundation for a business model involving capsule refills, creating an ongoing relationship between brand and consumer while ensuring the technology remains accessible and convenient to use.
For enterprises considering similar translations, the capsule refill aspect deserves attention. The technical solution and the business model innovation emerged together, each informing the other. The capsule refill system addresses practical considerations around gas sourcing while simultaneously creating a sustainable revenue relationship similar to established models in the home appliance sector.
Design as a Bridge Between Scientific Expertise and Consumer Value
The development of Project Nebula required assembling a genuinely multidisciplinary team. Designers worked alongside engineers, chemists, physicists, and strategists. The diversity of expertise reflects an important truth about translating complex technologies for consumer markets. No single discipline possesses all the necessary knowledge. The magic happens at the intersections.
The research process unfolded across multiple parallel tracks. Laboratory tests validated the core technology's effectiveness. External experiments assessed how specific gases, including carbon dioxide, impact bacterial proliferation. Qualitative and quantitative market research engaged a sample of 10,000 people to understand consumer attitudes, behaviors, and preferences around food preservation and waste.
The comprehensive research approach reveals something significant about design-driven innovation methodologies. Technical capability alone is insufficient. Understanding how consumers think, feel, and behave around the problem you are solving determines whether your brilliant technology becomes a beloved product or an ignored curiosity. The strategy team cross-referenced user journey and user experience considerations with laboratory possibilities throughout development, consistently pushing Project Nebula toward genuine effectiveness rather than mere technical achievement.
The design philosophy adopted by the team centered on working from the inside out. Rather than beginning with external aesthetics and fitting components inside, the team started with the internal architecture. The layout study and product architecture had to integrate the exchange pump and all electrical and electronic elements without gaps. The exchange pump performs two sequential processes: creating a low vacuum and transferring compressed gas from capsules into the container by exploiting pressure differential.
The visual language of Project Nebula draws directly from scientific instruments. The cage-like structure references the architecture of pumps designed for particle accelerators. Glass material accentuates the device's core while the surrounding elements remain concealed beneath deep black. The aesthetic choice reflects a rational, analytical language commonly found in laboratories. For SAES, the design language communicates their identity as a science-driven organization even as they enter consumer markets.
The entire design process was handled procedurally through parametric design software, allowing the team to modify systems automatically during development. Many elements required custom toolsets using scripting and complex logic. The computational approach to design enabled the kind of iterative refinement that complex technical projects demand.
Material Innovation Supporting Environmental Goals
The containers designed for use with Project Nebula represent their own innovation story. Microcellular polypropylene molding techniques allow for significant weight reduction while simultaneously improving mechanical properties. The combination sounds counterintuitive. Typically, reducing material means reducing strength. Yet the cellular structure of the innovative molding approach achieves both goals simultaneously.
Weight reduction matters for multiple reasons. Lighter packaging requires less energy to transport, reducing environmental impact throughout distribution chains. Lighter materials typically improve recyclability by reducing the complexity of processing. And lighter containers simply feel better in consumer hands, contributing to a premium product experience.
The flexibility afforded by MAP technology at slightly below atmospheric pressure enabled the material choices for Project Nebula containers. High vacuum technology requires reinforcement structures to prevent container collapse. The pressure differential is simply too great for lightweight materials to maintain their shape. By operating at milder pressure differentials, Project Nebula's containers can use lightweight solutions without structural reinforcement.
The technical decision cascade illustrates how thoughtful engineering at one level enables innovation at other levels. The choice to pursue MAP rather than high vacuum opened possibilities for container design that would have been closed otherwise. Container innovations then support environmental goals around recyclability and energy consumption. Each decision connects to others in a coherent system.
For enterprises evaluating their own technical translation opportunities, systems thinking offers valuable lessons. The obvious path is rarely the only path. Examining how each technical decision enables or constrains other aspects of the product can reveal unexpected opportunities for innovation and differentiation.
The environmental mission underlying Project Nebula connects directly to consumer motivation. Food waste represents both an environmental concern and a personal frustration for many households. The technology that helps families reduce waste also helps them save money and feel better about their consumption patterns. The alignment between global environmental goals and individual household benefits creates powerful resonance.
From Concept to Organizational Capability
Perhaps the most significant outcome of Project Nebula extends beyond the product itself. The project served to validate a design pipeline that later became the standard for SAES's consumer innovation division, known as Design House. What began as a single product development effort transformed into an organizational capability for ongoing innovation.
The organizational transformation merits careful attention from enterprises considering similar initiatives. The value of successfully translating technical expertise into consumer products compounds when the process itself becomes repeatable. The first product requires establishing methodologies, building teams, developing relationships between previously separate disciplines, and learning countless lessons through direct experience. Subsequent products benefit from all the accumulated knowledge and infrastructure.
The Design House represents SAES's commitment to generating innovation by creating bridges across the different disciplines that constitute the company's expertise. The division gave the organization the opportunity to develop a unique language based on what SAES describes as the design driven by science paradigm. Technical capabilities across getter technologies, gas management, shape memory alloys, advanced chemistry, and functional compostable packaging become raw materials for future consumer innovations.
For those interested in understanding how the conceptual approach manifests in physical form, the opportunity exists to Explore Project Nebula's Award-Winning Food Preservation Design through the Golden A' Design Award recognition the device received. The detailed documentation provides insight into how scientific expertise translates into consumer-facing innovation.
The strategic value for enterprises lies in capability building. A single successful product creates revenue and brand awareness. A repeatable innovation capability creates ongoing competitive advantage. SAES has positioned the organization to continue developing consumer products that leverage their unique technical strengths, each product potentially opening new market categories while reinforcing the company's identity as a science-driven organization.
The experimental nature of the Project Nebula initiative deserves recognition. SAES explicitly framed the effort as exploring the applicability of design-driven innovation methodologies within laboratory workflows. The company was testing not just a product concept but an organizational hypothesis. The success of Project Nebula validated that hypothesis and opened pathways for continued experimentation.
Strategic Considerations for Technical Brands Entering Consumer Markets
The journey from industrial expertise to consumer product involves navigating several strategic considerations that extend beyond pure technical challenges. Understanding the strategic factors helps enterprises evaluate opportunities more comprehensively.
Consumer trust in technical products depends heavily on perceived expertise. SAES brought genuine credibility through their work in extreme applications like particle accelerators. The scientific background provides implicit quality assurance for consumers who may not understand the underlying technology but can appreciate that the company has solved far more demanding problems. Brands entering consumer markets from technical backgrounds can leverage perception of expertise effectively.
The intersection of form and function in consumer products differs substantially from industrial applications. Industrial equipment can prioritize function almost exclusively. Consumers expect products to communicate quality, competence, and aesthetic consideration through their physical presence. The glass elements exposing Project Nebula's core, the deep black concealing other components, and the laboratory-inspired visual language all contribute to an experience that justifies consumer engagement.
Business model innovation often accompanies successful technical translation. The compressed gas capsule system creates ongoing consumer relationships while solving practical constraints around gas sourcing. The refill model, familiar from other household appliance categories, transforms a product purchase into a service relationship. Ongoing relationships provide recurring revenue, consumer touchpoints, and opportunities for future product introductions.
Market validation through extensive research protects against expensive failures. The 10,000-person sample engaged by the Project Nebula team provided crucial insights about consumer attitudes before significant production investments. The research investment represents a fraction of potential development costs yet dramatically improves decision quality around product features, positioning, and go-to-market strategy.
The intellectual property dimension deserves attention as well. Project Nebula holds patent protection, registered in 2020. For enterprises translating proprietary technologies into consumer products, patent strategy becomes essential. The same technical innovations that create consumer value also create competitive advantage that merits protection.
Future Implications for Science Driven Consumer Innovation
The success of initiatives like Project Nebula suggests broader trends worth monitoring. Technical companies across numerous sectors possess capabilities that could address consumer challenges if appropriately translated. The methodologies demonstrated through Project Nebula offer a template for similar efforts.
Food waste represents just one of many global challenges where technical innovation could make meaningful consumer-level impact. Water purification, energy management, health monitoring, and countless other domains feature similar patterns: sophisticated industrial technology exists, consumer-level solutions remain underdeveloped, and significant opportunity awaits brands willing to bridge the gap.
The multidisciplinary team model proves essential across varied domains. No single perspective encompasses the breadth of knowledge required to translate complex technology for consumer use. Designers who understand user experience, engineers who understand technical constraints, scientists who understand underlying principles, and strategists who understand market dynamics must collaborate closely throughout development.
Design-driven innovation methodologies provide the framework for multidisciplinary collaboration. Rather than treating design as a final aesthetic layer applied to engineered products, design-driven approaches integrate design thinking throughout development. The result is products that feel coherent, where technical capabilities and user experiences align seamlessly.
Recognition through platforms like the A' Design Award provides validation that supports continued investment in design-driven initiatives. The Golden A' Design Award received by Project Nebula signals to SAES and other organizations that design-driven approaches to technical translation merit serious attention and resources. Award validation encourages further experimentation and innovation.
The shift toward science-driven design languages may accelerate as more technical companies enter consumer markets. Consumers increasingly appreciate understanding how products work and why products work. The laboratory-inspired aesthetic of Project Nebula communicates transparency and expertise simultaneously. Visual honesty may become increasingly valuable as consumers grow more sophisticated in evaluating product claims.
Closing Reflections
The story of Project Nebula illustrates how enterprises with deep technical expertise can create meaningful consumer value while addressing global challenges. The translation from industrial capability to household product requires genuine innovation at multiple levels: technical, design, business model, and organizational. The success of SAES in navigating the translation while establishing repeatable processes for future innovation offers valuable lessons for brands in similar positions.
The 930 million tons of annual food waste represents an enormous opportunity for impact. Technical solutions that empower consumers to extend food preservation in their own homes contribute to reducing waste while creating value for the households that adopt the technology. The alignment between environmental benefit and consumer benefit creates powerful market potential.
For enterprises evaluating their own technical capabilities, the question becomes: what consumer challenges could your expertise address, and what effort would bridging the gap between your current applications and future consumer products require?