From ’30 by 30′ to 2035: Reckoning with Singapore’s Agritech Ambitions and the Vertical Farming Reality Check
By: Christian Brooks – SeaPRwire – Singapore’s relationship with food has always been a negotiation between vulnerability and ingenuity. When the British founded a trading post on this island in 1819, they did so on a piece of land that produced almost nothing in the way of sustenance. The colony imported its rice from Siam and its vegetables from the surrounding Malay archipelago. Two centuries later, the pattern has barely changed: Singapore now imports more than 90% of its food from approximately 170 countries, and only 1% of its land is under any form of cultivation. This is not a failure of policy but a structural condition of a city-state that has chosen to specialise in trade, finance, and manufacturing rather than agriculture. Yet the question that has haunted Singaporean planning for at least three generations is deceptively simple: what happens when the global food system that feeds nine million people experiences a disruption?
The answer, or at least the recognition of the question’s urgency, has evolved in fits and starts. The COVID-19 pandemic was a moment of collective awakening. Border closures, shipping disruptions, and export bans exposed the fragility of a food supply chain that Singapore had taken for granted. In the immediate aftermath, the government announced an ambitious target: by 2030, Singapore would produce 30% of its own nutritional needs. The “30 by 30” target, unveiled in 2019, was a political masterstroke—simple, memorable, and seemingly achievable through technological optimism. It promised that Singapore could have both economic specialisation and food security, that the city-state could punch far above its agricultural weight through vertical farms, aquaculture, and precision agriculture.
But targets, as any policy scholar knows, are not neutral technical instruments. They are political artefacts that encode assumptions about what is possible, what is desirable, and whose interests are served. The 30 by 30 target was no exception. By 2024, the government had quietly replaced it with a more granular 2035 framework: 20% of fresh leafy vegetables, beansprouts, and mushrooms; 30% of eggs and seafood. In a telling omission, meat was excluded entirely—a choice that reflects both the practical impossibility of local meat production at scale and the political sensitivity of making promises that cannot be kept.
The Historical Architecture of a Food-Vulnerable City-State
To understand Singapore’s agritech paradox, one must first understand the historical architecture of its food vulnerability. The island’s agricultural history is one of systematic de-agricatisation. In the colonial era, Singapore was a free port, and food importation was the most efficient mechanism for feeding a growing population. After independence in 1965, the government’s focus on export-oriented industrialisation meant that agricultural land was consistently repurposed for housing, infrastructure, and industrial estates. By the 1990s, Singapore had virtually abandoned any pretence of large-scale farming.
The land constraint is not merely a matter of acreage; it is a question of economic allocation. With private residential prices rising 0.5% quarter-on-quarter in Q2 2026 and 1.4% year-to-date in the first half of the year, the opportunity cost of using land for agriculture is extraordinarily high. Landed property transactions in H1 2026 totalled 869 transactions worth S$5.4 billion, with the Core Central Region (CCR) seeing landed price increases of 20.9% year-on-year. The Government Land Sales (GLS) programme for 2026 plans 9,320 units, and the private residential completion pipeline stands at 61,000 units. In a land-constrained city-state, every hectare devoted to a greenhouse is a hectare not devoted to housing, industry, or infrastructure. This is the fundamental economic tension that agritech must resolve: it must make agriculture economically competitive with alternative land uses, not just agronomically feasible.
The policy response has been a series of productivity-focused initiatives. The Agriculture Productivity Fund, allocated US$42 million between 2014 and 2020, was designed to catalyse technology adoption and raise yields. The results have been modest but not negligible. Singapore’s average vegetable farm yield stands at 130 tonnes per hectare per year—a figure that is respectable by conventional standards but dwarfed by the 1,000 tonnes per hectare per year target set for high-tech farms. This nearly eightfold gap between current performance and aspiration is the central puzzle of Singapore’s agritech trajectory.
The nine carpark rooftop farms producing approximately 1,600 tonnes of vegetables annually demonstrate that distributed, small-scale interventions can contribute meaningfully to local supply. These operations represent a pragmatic middle ground between full-scale vertical farming and conventional agriculture—utilising otherwise wasted rooftop space to produce real food for a real market. Yet their combined output is a fraction of what would be needed to meet even the 2035 target, and their economic sustainability depends on consumer willingness to pay a premium for locally grown produce.
The 30-by-30 Story: A Policy Genealogy of Food Ambition
The 30 by 30 target, announced in 2019, was never intended as a technical forecast. It was a political commitment designed to signal ambition to both domestic and international audiences. The target’s architecture reflected a particular vision of food security: one in which technology, capital, and policy alignment could overcome the constraints of geology and geography. The Agri-Food and Veterinary Authority (AVA, now the Singapore Food Agency) framed the target around four pillars: raising local production capacity, developing innovative food sources (such as alternative proteins), enhancing the robustness of supply chains, and building industry capabilities.
The replacement of 30 by 30 with the 2035 framework represents a quiet but significant recalibration. The new targets are more specific, more achievable, and more honest about what Singapore can realistically produce. The exclusion of meat is particularly revealing. Singapore’s livestock industry is negligible, and the prospect of local beef, lamb, or pork production at scale is economically and environmentally unsustainable. By acknowledging this reality, the government has implicitly conceded that food sovereignty is not about producing everything locally but about making strategic choices about what to prioritise.
The 2035 target also reflects a deeper understanding of the diversity of Singapore’s food needs. Fresh leafy vegetables, beansprouts, and mushrooms are high-value, high-turnover products that are well-suited to controlled-environment agriculture. Eggs and seafood are more complex: eggs require significant feed inputs, and seafood competes with Singapore’s broader marine economy. The target’s composition suggests a policy shift from aspiration to pragmatism—a recognition that the path to greater food sovereignty runs through selective, evidence-based intervention rather than comprehensive self-sufficiency.
The financial commitment, while substantial, must be understood in context. The US$42 million Agriculture Productivity Fund is significant for a targeted intervention but represents a tiny fraction of Singapore’s overall economic output. Compare this with Malaysia’s RM63.5 million palm oil budget for 2026 alone, or Indonesia’s Bulog rice procurement of 4.11 million tonnes with a peak reserve of 5.4 million tonnes. These are different orders of magnitude, reflecting different agricultural endowments and policy priorities. Singapore’s challenge is not a lack of funding but a fundamental constraint of scale.
The Vertical Farming Boom: Utopianism, Venture Capital, and the Limits of Stacked Aspiration
Vertical farming emerged in the 2010s as the most compelling technological solution to Singapore’s land constraint. The logic was seductive: stack crops vertically in controlled environments, eliminate weather variability, reduce water consumption, and achieve yields far beyond those of conventional agriculture. The 1,000 tonnes per hectare per year target was not arbitrary; it reflected the theoretical maximum of high-tech vertical farms operating at full capacity. Venture capital, particularly from Silicon Valley and China, poured into the sector. Singapore became a showcase market—a small, wealthy, technology-friendly city-state where vertical farming concepts could be tested, refined, and exported.
The global agritech market, valued at US$285-310 billion in 2026, created a favourable backdrop. Southeast Asian agritech funding, while declining 70% from its peak, still represented a significant flow of capital into the sector. Singapore positioned itself as a hub, attracting startups and hosting pilot projects. The nine carpark rooftop farms producing approximately 1,600 tonnes of vegetables annually demonstrated that even modest-scale interventions could contribute meaningfully to local supply.
Yet the vertical farming boom was never solely about agronomy. It was also a story of venture capital logic, which rewards rapid growth, scalable models, and exit narratives. The typical VC funding cycle—seed, Series A, Series B, Series C, IPO—does not align well with the capital-intensive, long-ROI reality of agriculture. A vertical farm requires years of operational refinement before it achieves sustainable profitability. The mismatch between capital market timelines and agricultural timelines created an inherent tension that would eventually manifest in a wave of liquidations.
The Bust: Reading the Liquidations as Diagnostic Events
The liquidation of Growy in November 2025 was a watershed moment. The provisional liquidation of a company that had operated an 8,000 square metre facility with a design capacity of 500 tonnes per year—and had reported losses of S$2.17 million in 2023 and S$5.5 million in 2024—was not merely a business failure. It was a diagnostic event that revealed the structural weaknesses in Singapore’s vertical farming ecosystem. The company’s trajectory—from ambitious expansion to financial collapse in roughly two years—illustrated the gap between design capacity and operational reality, between venture capital optimism and agricultural economics.
The closure of I.F.F.I, a 38,000 square metre facility, reinforced the pattern. Together, these two liquidations represented a significant fraction of Singapore’s vertical farming capacity. The common thread was not technological failure—the technology generally worked—but economic failure. Energy costs, labour costs, and the fundamental challenge of achieving positive margins in a high-overhead operation proved insurmountable. The lesson is uncomfortable but important: a vertical farm that cannot compete on price with imported vegetables is, from an economic perspective, not a farm at all but a technology demonstration.
The eFishery and TaniHub fraud cases in Indonesia offer a broader regional context. eFishery, which defrauded investors of US$300 million and reached a peak valuation of US$1.4 billion before its founder was sentenced to nine years in prison, and TaniHub, which caused US$25 million in state losses with a non-performing loan ratio of 63.9%, represent the darker side of agritech investment. These were not failures of technology but failures of governance, transparency, and accountability. They remind us that the agritech sector, like any capital-intensive sector, is vulnerable to fraud and that the gap between pitch decks and balance sheets can be enormous.
From these liquidations, several lessons emerge:
- Technology validation and business model validation are distinct processes, and the former does not guarantee the latter.
- Venture capital is an inappropriate funding mechanism for early-stage agricultural enterprises with long development timelines and thin margins.
- Government policy must be careful not to subsidise unviable models in the name of food security.
- The path to sustainable agritech in Singapore requires a more patient, incremental approach—one that values operational excellence over technological spectacle.
- Vertical farming must compete on price, not just on narrative, if it is to be more than a subsidised demonstration project.
The Greenphyto Counter-Example: Reading the Exception as a Guide
If the liquidations represent one end of the spectrum, Greenphyto represents the other. Opened in January 2026, Greenphyto’s 23-metre, five-storey farm is a striking physical manifestation of Singapore’s agritech ambitions. With a construction cost of S$80 million and a footprint of 2 hectares, it is one of the largest vertical farms in the region. At full capacity, it is designed to produce 2,000 tonnes of vegetables annually—roughly 1,000 tonnes per hectare, consistent with the high-tech yield target. Its current output of 200 tonnes per year represents only 10% of design capacity, and it supplies 95 supermarket outlets.
Greenphyto’s significance lies not in its scale but in what it reveals about the conditions under which vertical farming can succeed—or at least approach viability. The S$80 million construction cost is a reminder of the capital intensity of the sector: this is not a business that can be launched with modest funding. The 2-hectare footprint, while substantial for Singapore, is tiny by global agricultural standards. The 95 supermarket outlets represent a critical distribution advantage: Greenphyto has secured offtake agreements that provide revenue stability and market access, something that many failed ventures lacked.
But Greenphyto is also a cautionary tale in progress. The gap between design capacity (2,000 tonnes/year) and current output (200 tonnes/year) is a tenfold difference that speaks to the challenges of scaling from pilot to commercial operation. Energy costs, labour productivity, crop cycle times, and pest management all constrain actual output relative to theoretical maximums. The fact that Greenphyto has secured supermarket contracts is encouraging, but it remains to be seen whether these contracts are priced sustainably or whether they represent implicit subsidies from retailers who are willing to pay a premium for local produce.
The Greenphyto counter-example suggests that vertical farming in Singapore is not inherently unviable, but that success requires a specific configuration of factors: patient capital, secured offtake, operational excellence, and favourable policy. It also suggests that the sector is in a transitional phase—neither the boom of the late 2010s nor the bust of 2025-2026, but something more complex and ambiguous.
Technology and Yield Economics: Bridging the Eightfold Gap
The central economic question facing Singapore’s agritech sector is the yield gap. The average vegetable farm produces 130 tonnes per hectare per year. The high-tech target is 1,000 tonnes per hectare per year—a nearly eightfold increase. Bridging this gap requires not just technology but a fundamental rethinking of the economics of urban agriculture.
The conventional yield of 130 tonnes per hectare is, to put it in perspective, roughly comparable to productive outdoor vegetable farming in temperate regions. It reflects the constraints of Singapore’s tropical climate, limited land, and the small scale of most operations. The 1,000 tonnes target, by contrast, reflects the theoretical productivity of vertically stacked crops under optimal LED lighting, climate control, and nutrient delivery. The gap between these figures is not merely technological; it is economic. Every tonne of additional yield requires energy, capital, and labour inputs that must be justified by the revenue generated.
The required vegetable output multiple of 2.5x—meaning that local production must increase by a factor of 2.5 to meet even the 2035 target—adds another layer of complexity. This multiple is not a target but a calculation of the gap between current production and the target’s implied demand. Achieving it would require not just more vertical farms but a transformation of the entire production system: from seed selection to nutrient management to harvest and distribution.
The following table summarises the key yield and capacity metrics discussed above:
| Metric | Value | Context |
| Average vegetable farm yield | 130 tonnes/ha/year | Conventional outdoor farming |
| High-tech farm yield target | 1,000 tonnes/ha/year | Theoretical maximum for vertical farms |
| Required output multiple | 2.5x | Gap to the 2035 target |
| Eco Ark fish output | 166 tonnes/year | Offshore aquaculture |
| Offshore fish farm exit rate | about 25% | Industry consolidation |
| Local fibre production | 8% | Circular economy |
| Local protein production | 25% | Diversified sources |
| Carpark rooftop farm output | about 1,600 tonnes/year | Nine facilities combined |
| Growy design capacity | 500 tonnes/year | 8,000 sqm facility, now liquidated |
| Greenphyto full capacity | 2,000 tonnes/year | Two-hectare facility |
| Greenphyto current output | 200 tonnes/year | Ten percent of design capacity |
The data center (DC) industry offers an instructive analogy. Singapore’s DC new capacity is provisionally 200MW, with occupancy at 95% and colocation vacancy at 4.9%. The DC sector has demonstrated that high-value, land-intensive industries can thrive in Singapore by concentrating economic activity and accepting high operating costs. Agritech faces a similar challenge: can it become a high-value, knowledge-intensive industry that justifies its land and energy footprint? The answer depends on whether Singaporeans are willing to pay a premium for locally grown produce—a question that is as much about culture and identity as about economics.
Regional Comparison: Lessons from the ASEAN Periphery
Singapore’s agritech trajectory cannot be understood in isolation. The broader ASEAN context offers both cautionary tales and instructive contrasts. Indonesia, with its vast agricultural land base, achieved rice production of 34.69 million tonnes in 2025, a 13.29% increase, and reached food self-sufficiency of 110.25%, up from 87.14% in 2024. Bulog, the state procurement agency, procured 4.11 million tonnes of rice with a peak reserve of 5.4 million tonnes. Indonesia’s achievement is not a model for Singapore—it is a reminder that self-sufficiency is achievable only where land is abundant—but it demonstrates the importance of policy consistency and institutional capacity.
Vietnam offers a more relevant comparison. With rice yields of 6 tonnes per hectare and annual output of 43 million tonnes, Vietnam is one of the world’s largest rice exporters. Its one-million-hectare low-emission rice project, which reduces methane emissions by 20-40% while increasing net profit by 30%, illustrates the potential of technology to enhance both productivity and sustainability in conventional agriculture. Singapore’s challenge is different—its land base is minuscule—but Vietnam’s experience suggests that technology adoption is most effective when it builds on existing agricultural systems rather than replacing them entirely.
Malaysia’s palm oil sector provides a third point of reference. With approximately 5.7 million hectares under oil palm, a CPO price of RM4,000 per tonne, and exports worth RM95 billion annually between 2022 and 2024, palm oil is Malaysia’s agricultural backbone. The Malaysian Sustainable Palm Oil (MSPO) certification programme, which covered 197,933 smallholders in June and 253,000 in September, with a certified area of 731,000 hectares declining to 723,000 hectares, illustrates the challenges of bringing smallholder agriculture into formal certification systems. Singapore has no equivalent smallholder sector, but the MSPO experience offers lessons about the importance of inclusive certification and the difficulty of transforming traditional farming systems.
The APTERR emergency rice reserve—787,000 tonnes, with ASEAN contributing 87,000 tonnes and China, Japan, and Korea 700,000 tonnes—represents a different approach to food security: regional cooperation rather than national self-sufficiency. For Singapore, APTERR is not a substitute for local production but a complement—a mechanism for managing supply shocks in a way that no single country, with its limited land, could achieve alone.
The ASEAN rice yield gap—only approximately 50% of potential, according to ISEAS analysis—suggests that the region’s food security challenge is less about production capacity than about productivity and distribution. Singapore’s agritech sector can contribute to closing this gap not by replicating Indonesia’s or Vietnam’s models but by developing technologies and business models that are appropriate for land-constrained, high-value urban environments. The global agritech market of US$285-310 billion represents an opportunity for Singapore to become a source of innovation, even if it cannot become a source of food.
Conclusion: Toward a Humble Food Sovereignty
What, then, does Singapore’s agritech paradox tell us about the meaning of food sovereignty in a city-state? The answer, I would suggest, is that food sovereignty is not about self-sufficiency but about strategic autonomy—the capacity to make informed choices about what to produce, what to import, and how to manage the risks of global food markets. The 2035 target, with its pragmatic focus on leafy vegetables, beansprouts, mushrooms, eggs, and seafood, represents a move toward this more nuanced understanding. It acknowledges that Singapore cannot produce everything, should not try to produce everything, and would be unwise to bet its food security on any single technological solution.
The liquidations of Growy and I.F.F.I are not failures of Singapore’s agritech ambitions but necessary corrections—market discipline applied to ventures that could not justify their costs. Greenphyto, for its part, demonstrates that success is possible but conditional: it requires patient capital, secured offtake, operational excellence, and a favourable policy environment. The path forward is not to abandon vertical farming but to approach it with greater realism, greater patience, and greater attention to the economic fundamentals.
The broader lesson is one that applies beyond agritech to Singapore’s entire development strategy. The city-state has always succeeded by being realistic about its constraints and imaginative about its opportunities. The same approach should apply to food policy. Singapore should produce what it can produce efficiently—leafy vegetables, beansprouts, mushrooms, eggs, and seafood—and import the rest from a diversified, resilient global supply network. It should invest in agritech R&D not to achieve self-sufficiency but to contribute to regional and global food system innovation. And it should maintain the APTERR reserve and other regional cooperation mechanisms as insurance against supply shocks.
The 1% of Singapore’s land under agriculture is not a constraint to be overcome but a reality to be respected. The 90% import dependency is not a vulnerability to be eliminated but a condition to be managed. And the 1,000 tonnes per hectare target is not a goal to be achieved at any cost but a benchmark against which to measure the productivity of Singapore’s limited agricultural resources. A humble food sovereignty—one that acknowledges what cannot be done and focuses on what can—is not a retreat from ambition but a more sustainable form of it.