Some general considerations and personal observations through first-hand experiences lead us to think that policies to support competitiveness and sustainability (economic, social, environmental) at the regional and local level are needed, as well as system resilience nationally. In fact, by focusing on applied research and technology transfer, Italian/Regional universities could contribute to innovation and enhancement of the production chains of local businesses and at the same time help the establishment and implementation of business networks for specific areas. Action from the government institutions is needed for a substantial improvement in the public-private relationship, including through better coordination of the State with the individual Regions. The hope is that science and culture can return to play a central role in our society, as their main actors have the potential to make a decisive contribution to the recovery of our country. In this context, the strategic importance of public-private cooperation for safe re-opening and re-starting is evident (for example, in Veneto, several manufacturing associations like Assindustria Venetocentro, Confindustria Veneto, Unioncamere Veneto, and regional philanthropic foundations like Fondazione Cariparo have recently approved co-financing of the anti-Coronavirus “maxi-plan” for the Veneto Region and University of Padua with the Red Cross).
With regard to the political picture, we know that the “Cura Italia” (Heal Italy) Decree, whose bill was approved by the Chamber on 24th April, grants a series of immediate aid measures for businesses and workers, resulting in a total budget of around 25 billion Euros (decree no. 18/2020). With no doubt, it represents for the country an exceptional and powerful financial measure for the scope and urgency of its executive guidelines.
With the health emergency, it is widely stated by government authorities that it is easy to predict that in Italy there will be a uniform drive towards basic necessities (i.e., necessary goods including products and services that consumers will buy regardless of the changes in their income levels) to overcome the crisis. However, despite the importance of the agri-fish-foodstuffs sector, the “Cura Italia” Decree does not seem to have given it due recognition, providing for a limited package of measures in this regard.
Article 78 of the “Cura Italia” (Care Italy) Decree takes into consideration three main provisions: (1) to set up a fund to support agricultural and fishing enterprises (a first allocation aims to guarantee the total coverage of interest expenses on bank loans intended for working capital and debt restructuring, and to ensure coverage of the costs incurred for interest accrued in the last two years on mortgages contracted by the same companies); (2) raising the advances of the Common Agricultural Policy (CAP) contributions to farmers from 50% to 70%, a measure which, on its own, is worth more than one billion euros; (3) increase the Indigent Fund to ensure the distribution of food products to the most deprived members of society. There are other additional measures also aimed at supporting the agri-food sector, but they are on a smaller scale.
The April decree-law, later shifted to May, will be called the “Rilancio” (Relaunch) Decree-Law. It is the provision through which, after Cura Italia and the Liquidity Decree-Law, the executive now aims to get the country, brought to its knees by COVID-19, back on the road. This is a very significant decree worth 55 billion euros, which specifically also provides for an Emergency Fund to protect supply chains in crisis, with a budget set at 1 billion euros for 2020, aimed at implementing measures to rectify damage suffered by the agricultural, fisheries, and aquaculture sectors. The resources are mainly, but not exclusively, intended for plant nurseries, dairies, wine, livestock, and fishing and aquaculture sectors.
3.1. Food Security and Quality as a Lever for the Restarting of Businesses in Agriculture and a Faster Transition to Sustainability
As highlighted by the context analysis of the environment in which a business operates, the main critical elements caused by the pandemic affecting the agri-food economic system concern: (i) the change in demand for agri-food products at the local and world level, the worsening of the national capacity for self-supply of raw materials in the agri-food chain, the reduction of market space for national products on foreign markets, with particular reference to high-quality products; (ii) worsening in the availability of workforce for the agricultural sector and the risk of growth of undeclared work; (iii) the prospects with regard to the financial resources of the sector, in light of a possible reformulation of the CAP in relation also to the European Green Deal (for details, see COM/2018/392: Proposal for a Regulation of the European Parliament and of the Council establishing rules on support for strategic plans to be drawn up by Member States under the Common Agricultural Policy (CAP Strategic Plans), and also COM/2020/381: Communication from the Commission to the European Parliament, the Council, the European Economic and Social Committee, and the Committee of the Regions: A Farm to Fork Strategy for a fair, healthy, and environmentally-friendly food system, available in the EUR-Lex portal at
https://eur-lex.europa.eu/).
In regards to the first point, the pandemic has brought about a revolution in the balance of international markets. In addition to a brief crisis on the world markets affecting supplies of raw materials destined for the food supply chain, the most significant and long-term problems concern changes in the purchasing behaviour of final consumers, with a drop in the demand for national products on the foreign markets (shutting down of the Ho.Re.Ca. channel and tourism). This situation impacts the supply chains of the typical Made in Italy food industry (e.g., pasta, vegetable preserves, vegetable oils) as well as the quality products linked to the territories (Protected Designation of Origin PDO and Protected Geographical Indication PGI wines and food products). For example, Italy produces a surplus of about 75% for sparkling wines produced, 50% for pasta and tomato preserves, 65% for rice, 25% for hard cheeses, and 30% for fruit (statistics verifiable at
www.dati.istat.it, ISTAT, 2020). This excess production requires the immediate ability to manage production supply, where possible right from the agricultural stage, by implementing economic policies for temporary relief of the market involving coordinated interventions for public/private storage or by directing products towards other industrial uses (e.g., distillation for wines). The possible areas of intervention concerning the management of agri-food markets involve managing the supply of quality products via the protection consortia and producer organisations (not only for PDO and PGI, but also for other geographical indications and traditional specialties, including the national systems of labelling and protecting Italian wines DOC and DOCG for their Designation of Controlled and Guaranteed Origin, and the Indication of Geographical Typicality or IGT for food products) and supply chain contracts within the food industry [
7,
8,
9,
10,
11]. All this should be supported by innovative digital-selling channels [
12] and global monitoring tools of the supply chain [
13].
With reference to the second point, the pandemic has profoundly reduced the movement of people and it is expected that this situation will have consequences in the medium term, mainly because in the last years there have been a growing use of immigrant labour by the national and regional agricultural economy. The push towards immigrant work is partly justified by the low capacity of some parts of the agricultural sector to remunerate work in line with the national average, with the risk of an increase in the use of undeclared work. Putting aside mainly legal issues, part of the solution consists in matching supply chain bargaining tools with corporate social responsibility obligations [
14]. In this context, assistance via collective bargaining models throughout the supply chain would enable a rebalancing of the bargaining power that the agricultural phase has with regard to industry, which has typically been very fragmented [
15].
With reference to the third point, the policies now in place mainly concern short-term Community measures (Sure, Recovery fund, ESM or European Stability Mechanism) and strategic measures, such as the new CAP and the European Green Deal. In this context, it is necessary to be able to undertake two courses of action: one aimed at identifying the economic impacts of the pandemic, in the agri-food sector and related sectors, and the other at assessing the possible effect of policies aimed at protecting the environment and rural economies by guaranteeing the economic sustainability of agricultural enterprises with actions that also targeted at avoiding unfair competition of imported goods in terms of environmental and worker protection.
Food security could be a lever for the restarting of businesses in agriculture: sustainable and traceable supply chains involving high-quality products with guaranteed nutraceutical-health value, both supporting and protecting producers, and reassuring consumers with a direct impact on overall improvement of quality of life, understood as general well-being of individuals and societies. But we need to rethink the production chains, improving the organisation of work via the adoption of latest generation technologies, and working via the educational system to limit social and territorial inequalities. The hot topic of inequalities in Italy includes social fragmentation, regional differences, persistent gender and racial discrimination and the power of organized crime, and it calls for a new equitable social model, as reported by Pastorelli and Stocchiero ([
16] and references therein, to read the full national report and the comprehensive Europe-wide report with all references, please visit:
www.sdgwatcheurope.org/SDG10).
And as for investments for the development of infrastructures useful for safeguarding and protecting the territory and its biodiversity? Various aspects seem to assume particular importance, such as reducing bureaucracy and facilitating access to credit for agri-food businesses for their evolution/conversion into a sustainable agriculture model. It appears likely that more and more people will want food from plants that have been cultivated and animals that have been raised in “healthy” environments, with organic or at least non-intensive but sustainable methods, characterised by low chemical inputs [
17,
18]. Organic farming, through the use of biofertilizers, was shown to improve the antioxidant properties of fruits, but the data about proteins and micronutrients are rather contradictory. Nowadays, advanced devices and precision agriculture platforms allow more efficient and profitable cultivations, contributing more and more to reduce pest diseases and to increase the quality of agricultural products and food safety. Thus, the adoption of technologies applied to sustainable farming systems is a challenging and dynamic issue for facing negative trends due to environmental impacts and climate changes (see [
18] and references therein).
Nutrition is also important in light of the consolidated scientific evidence that shows how diet can affect our state of health. Perhaps the need to make people more aware of the importance of variety in the diet, and the quality of the nutrients themselves, should be emphasised and conveyed more insistently, including with regard to individual genetics (nutrigenomics). In this context, it is easy to predict that functional foods, both fresh and processed, naturally rich in molecules with beneficial and protective properties for the organism, may become even more important in the nutritional practice since, if consumed as part of a balanced diet, such foods perform a preventive action for health. A food can be considered “functional” when its beneficial influence on one or more functions of the body has been demonstrated, in addition to having adequate nutritional properties, so as to be relevant for a state of well-being and health or for reducing the risk of a disease. An emerging and relevant science, and one which is closely related to the concept of functional foods, is that of nutrigenomics, which studies the relationship between genome and diet at an individual level [
19]. This area of research aims to delineate the interplay between nutrients intake and the reciprocal pathologies with the human genome. Nowadays we know that nutrigenomics has the potential to individualize nutrition, reminiscent of pharmacogenomics and the individualization of drug use [
20].
In these dramatic months, we learnt from medical doctors that in case of contagion, deterioration is brought about by a state of deep inflammation that impairs the immune system. And therefore, in addition to strict compliance with the rules of hygiene and social distancing, what we can do is try to strengthen our immune system, which is closely linked to the intestinal microbiota, i.e., the complex of microorganisms that regulate many functions and generate an anti-inflammatory response against pathogens. Specialists claim that 70–80% of the body’s immune cells are located in the intestine and, therefore, the efficiency of this activity depends precisely on the variety of nutrients and the quality of the foods that we ingest (this field suggests a link with the medical health dimension and veterinary-medical food safety) [
18]. It is clear that the welfare of farm animals must necessarily fall within the perspective of the so-called “One Health”—the fully integrated vision of human, animal, and environmental health (
Figure 4). More specifically, it represents a multidisciplinary and synergistic effort of several health science disciplines and professionals, working locally, nationally, and globally, to attain optimal health for people, domestic animals, wildlife, plants, and our environment [
21]. The core competencies and domains in One Health education were presented in a number of prospective papers [
22,
23]. Here it is worth mentioning that the reduction in the administration of medicines by veterinary surgeons, which can only be made possible via a strict improvement of the hygienic-sanitary conditions of breeding environments, can contribute to solving or at least reducing the problem of antimicrobial resistance [
22].
The affections of animals that are normally treated in the industrial production system—which remains, for quantitative supply needs, the only system that can currently be pursued on a national scale—are mainly ascribable to “technopathies,” i.e., to conditions that are particularly stressful for specific systems (mammary, digestive, musculoskeletal, and respiratory systems) and therefore for the homeostasis of the individual.
As state of the art, the University of Padua (
https://www.unipd.it/en/) is already undertaking research that bridges the gap between human and veterinary medicine, aimed at understanding the possible relationship between animal antibiotics and the creation of strains of resistant microorganisms, also and above all at an environmental level (and thus through the dispersion of animal waste). However, antibiotic therapy is not the only solution to animal technopathies; a wide range of drugs is currently used to recover homeostasis in an unbalanced system. Therefore, greater respect for the physiology of the farm animal will certainly represent the best therapeutic approach in a holistic sense, just as for mankind. However, in this context it should be also specified that the latest report published by the EMA (European Medicines Agency, for details see
https://www.ema.europa.eu/en/documents/report/sales-veterinary-antimicrobial-agents-31-european-countries-2017_en.pdf) shows that European countries have already started to reduce the use of antibiotics in animals, with a decrease in their sales in Europe of 32% in the period from 2011 to 2017, confirming a trend which could become indispensable from the perspective of “One Health.” One Health perspectives are growing in influence in global health. It is presented as being inherently interdisciplinary and integrative, drawing together human, animal, and environmental health into a single dimension. Recently, Fraser and Campbell [
24] emphasized that humanity has arrived at a point where food systems must reconcile the need to produce enough healthy and affordable food with the equally important imperative of preserving the ecosystems on which we depend for life. We must transition through the One Health vision into the new Green Revolution of the mid-20th century for reconciling food production with planetary health [
24].
Respect for economic parameters in the quantitative maintenance of production, combined with respect for animal physiology, requires a significant change of scientific-cultural paradigm in modern animal husbandry, which only a push from research can satisfy, but which would certainly represent a possibility for relaunching quality and the interest of consumers in local/national productions of global reach. A closer inspection reveals that this presentation of entanglement is dependent upon an apolitical understanding of three pre-existing separate conceptual spaces that are brought to a point of connection [
25].
There is no doubt that improving the supply chain should also be understood as concomitantly enhancing food safety and certifying the healthiness of foodstuffs of both animal and vegetable origin, enabling the expansion of current analytical limits and above all broadening the interpretative horizons, also in light of new knowledge, in order to analyse the critical issues by rationalising the available resources and at the same time promoting faster and more incisive corrective intervention times.
3.2. Agriculture 4.0: The Need of New Breeding Techniques and Precision Farming Systems
Very interesting ideas from a recent article by Acquafredda and Cuonzo [
26] about the strong link between coronavirus and agriculture, for whose resolution the authors suggest full transparency of production chains and highlight it represents also an ethical chance for Italy. The COVID-19 pandemic has, in just a few weeks, undermined the paradigm of globalisation in every economic sector, including the primary sector of agriculture. Here the impact of the virus acts on two fronts: the first is the structural lack of self-sufficiency of Italian agricultural production (especially in the strategic sector of wheat) and the consequent difficulty in procurement of raw materials for the production of essential goods (bread and pasta) following the reduction of world trade; the second concerns the sudden scarcity of the workforce, especially seasonal, due to the global lockdown and closure of the national borders.
The fact that Italian agriculture is increasingly dependent on foreign imports is shown by the data on corn, wheat and pulses. Between 2012–2017, domestic production of corn underwent a 19% reduction with an increase of about 68% in imports, especially from Hungary and Austria. External dependence for pulses—a primary source of vegetable proteins—is very strong with over 90% being of foreign origin, coming above all from the United States and Canada. Common wheat saw an increase in imports of 15%, while the increase in imports of durum wheat (55%) is even more significant compared to a production decrease of around 6%. At the moment, the Italian pasta industry’s demand for durum wheat is around 6 million tons compared to a national production of about 4. Despite this growing imbalance, in Italy agricultural businesses continue to decline (−1.2% in 2019) [
26].
In addition to making procurement of raw materials from abroad more difficult and expensive, the Coronavirus emergency has also drastically decreased the availability of seasonal workforce (that is not consistently present in the territory in a stable way) due to restrictions on the movement of people and closing of the borders. According to Confagricoltura estimates, at least 200,000 agricultural workers are immediately necessary for the cultivation and harvesting of cereals and fruit and vegetables. The difficulty of finding workforce—which before the crisis was considered unlimited—definitively constitutes a crisis for an archaic model of industrial relations in agriculture that still persists, especially in the south of the country.
The state of emergency affecting the primary sector of agriculture requires well-targeted and measured interventions on the part of the institutions, in concert with the many innovative companies in the sector. If the right decisions were made and targeted actions taken quickly, the current crisis could become a real watershed moment for one of the strategic sectors of the future, giving birth to the so-called Agriculture 4.0. This term refers to the next big trends facing the industry and primary sectors, according to a multi-perspective and -disciplinary approach, including a greater focus on precision agriculture (e.g., sensor technologies, satellite navigation systems, and positioning technologies), the internet of things (IoT) and the use of big data to drive greater business efficiencies in the face of rising populations and climate change [
27]. The future therefore requires, on one hand, platforms and technologies that allow arable lands and livestock farms to use advanced technologies in a mutually reinforcing and interconnected way, with the aim of making production more efficient and sustainable. On the other hand, this is a revolution in agriculture still limited to a few innovative firms. In fact, despite the real advantages of Agriculture 4.0 for large enterprises, small- and medium-sized enterprises (SMEs) often face complications in such innovative processes due to the continuous development in innovations and technologies. Policy makers should plan strategies and call for proposals with the aim of supporting SMEs to invest on these technologies and making them more competitive in the marketplace [
28].
The most important challenge is not only qualitative but also quantitative: producing more and of higher quality, on increasingly smaller terrains (“more with less”) is possible, as demonstrated by the experience of Israel and other countries such as Holland [
29]. Next-generation farming promises to increase the quantity and quality of agricultural output while using less input (water, energy, fertilisers, pesticides, etc.). The aim is to save costs, reduce environmental impacts, and produce more and better food products. The way forward is technology in the best sense of the word. We need to invest in research and development, and in the technology transfer so that overall innovations in agriculture may hasten transition to sustainability and increasingly assist farmers in their work.
For example, in the vegetable, crop, and fruit plant sector, the creation of new varieties which are resistant or tolerant to climate change, are adaptable to sustainable production systems, and which ensure greater unit yields are urgently needed. New technologies for genetic improvement (new breeding techniques, NBTs, including cisgenesis and genomic editing) of crop plants against biotic and abiotic stresses [
30], and precision agriculture (farming management concept based on observing, measuring, and responding to inter and intra-field variability in crops) are the answer to this specific need [
31]. In particular, the use of NBT platforms in plant biology is opening up a new era of genome editing-mediated crop breeding in the most agriculturally important species, including vegetables and fruit trees [
32,
33]. Application of these techniques, which requires an exhaustive knowledge of the genome of crop plant species, will certainly allow the development of new varieties suitable to overcome the limitations of conventional breeding methods and their multi-year length, reducing the risks of the first generation of genetic engineering tools [
34]. It is worth mentioning that CRISPR/Cas9-mediated genome editing protocols (i.e., clustered regularly interspaced palindromic repeats (CRISPR)/CRISPR-associated 9 (Cas9)) are useful to silence in a genome or replace from a genome specific DNA sequences in targeted regions by engineered nucleases [
35,
36,
37]. In other terms, applications include both “gain-of-function” (editing/replacing) and “loss-of-function” (silencing) strategies. Finally, and most importantly, this genome editing approach allows a pre-determined and site-specific genetic modification, which is reproducible and guarantees the total absence of exogenous DNA in the plants of the resulting edited varieties [
35].
The combination of rapidly advancing genome-editing technologies with breeding and farming methodological advancements will greatly increase crop yields and quality, and overall sustainability. In the scenario of a new agriculture, i.e., Agriculture 4.0, we are confident that NBTs are going to play an important role in order to make productive processes more sustainable under environmental, economic, and social points of view (
Figure 5).
Furthermore, new trends in agricultural practices and recent sanitary emergencies have made producers and consumers more demanding about agri-food authenticity, with a concurrently increasing interest for food origin, healthiness, and nutraceutical properties [
38]. Modern technologies based on genomics and bioinformatics represent very efficient tools for assessing the genetic authenticity and genetic traceability of food products and beverages. Current DNA-based diagnostic assays are suitable and reliable molecular tools for the genetic identification and authentication of plant foodstuffs, fresh and processed meats, and fishery derivatives by means of DNA barcoding or DNA genotyping methods. These are actually essential tools to vouch for quality controls of food products, to guarantee food traceability, to safeguard public health, to uncover food piracy, and to valorise local and typical agro-food production systems, including valuable vineyards/wines [
39] and olives/olive oils [
40].
Self-sustained production becomes more important: In the shellfish supply chain it is necessary to ensure the production of clams is no longer dependent on the import of seed clams from foreign countries, and is less conditioned by the availability of natural seed, which in recent years has been particularly scarce due to the climate changes that have modified the environmental conditions. To this end, essential steps in consolidating production and reducing loss of product include the production of seed in dedicated structures (hatchers), and breeding of the juvenile stages (pre-fattening) via structures and methodologies optimised for the characteristics and particular situation of our lagoons. The creation of structures designed to perform these functions would allow the implementation of genetic improvement programs, in particular those aimed at selecting animal lines better adapted to climate change. Such programs have so far been impossible since most of the seed does not derive from controlled reproduction.
Italy has the potential to become, together with France, Holland, Israel, and California, a global player in varietal research and development. To this end, it is essential to create, or reinforce where it is already in existence, collaboration between companies in the territories and university research centres for experimentation and the creation of new varieties—suitable for specific production environments/cultivation methods—which once registered can give rise to cash flows in terms of royalties via the granting of licenses to other producers in the world. By way of an example, at the moment, Italian producers of seedless table grapes pay important royalties to foreign companies. We must absolutely reverse the trend. In addition to the “home-made” genetic improvement, a sector in which the Italian school has a long tradition, the other essential aspect, as already mentioned, is the use of the so-called precision agriculture via the use of advanced technology, from the collection of soil biochemistry data to more accurate weather forecasting. Here too, cooperation is essential between companies, universities, and institutions to give rise to the creation of certified supply chains including via blockchain.
Existing best practice should be extended: supply chain contracts which, on the one hand, encourage local production via the provision of specific premiums to farmers based on product quality and, on the other, cover supply risks in the food industry.
None of this will be sufficient if the culture of agricultural work is not deeply changed. From the servile model that raged in the twentieth century—from illegal recruitment to the cruel use of immigrants as modern slaves deprived of all rights—it is now necessary to move on to new industrial relations that focus on the agricultural worker as a bearer of know-how. Many immigrants have a cultural and intellectual potential that would make them fully suitable for more complex tasks. The road is long, but it would be necessary, for example, to design new, more flexible employment contracts that are less burdensome for the company, accompanied by benefits such as housing that favour staying in the territory throughout the year. With the ultimate goal of having plant and animal production chains that are certified also from an ethical point of view. This is an essential point: the consumer (from fashion to food) after Coronavirus will be increasingly attentive to the transparency of supply chains and to the health/quality of the products, but also to the integrity of the same supply chains from an ethical and moral point of view. A potential risk to take into account is that poverty may reduce interest in product information for the lower class. Through the blockchain, the consumer will be able to verify these characteristics of the product, which will form an essential element of the choice. This means that the logic of environmental sustainability and respect for human individuality at work will become the new paradigms of consumption, in addition to the no longer deferrable need to recover the farming and cultural traditions of the territories (heritage).
In this sense, one should not underestimate the psychological impact of the virus pandemic on the perception of science from the general population. A consistent part of the food buyers had a long-standing prejudice against the use of GMOs and technology sensu latu [
41] applied to agriculture. This tendency was common in people who had a negative opinion on vaccines [
42,
43] and the use of scientific methods to improve health and food production. In the wake of the wide consensus received by medical doctors, nurses, and medicine during the fight with the virus, several formerly prejudiced individuals and associations have now started to accept a more modern view of science, including the whole agri-food production system. For instance, the first collaboration agreement on the use of NBTs in agriculture has been signed on 17 June 2020 between the Italian Society of Agricultural Genetics (SIGA) and the National Confederation of Direct Growers (Coldiretti, the largest Italian association representing and assisting agricultural entrepreneurs). This is an unprecedented agreement that paves the way for a fruitful collaboration between scientists and farmers aimed at exploiting the so-called “assisted evolution technologies” for breeding new varieties suitable for next-generation farming towards an overall sustainability of agricultural systems and food productions (for details on the agreement, see
www.geneticagraria.it/attachment/Download/Accordo_Coldiretti-SIGA.pdf). An increased percentage of the population may now look with renewed trust at the progresses in crop and animal production science, and—as a side effect—actively reduce environmental pollution by chemical pesticides by the use of genetically improved varieties of cereals and vegetables [
44,
45,
46]. Although the pandemic hit heavily all sectors of the society, a post-war-like effect may actually accompany the recovery phase and lead to technological steps forward and improvements impossible to conceive before its advent. The next vaccination campaigns may be useful to understand whether this opportunity will be taken. For instance, resistance to NBT diffusion and consumer distrust will be challenged by current awareness wave, so that these new technologies and their derived genome-edited varieties (showing resistance or tolerance to pests and pathogens, and environmental stresses or improved quality traits) may become, in the post-pandemic era, the equivalent of the antibiotics diffusion after the Second World War.
We therefore need a new vision and immediate action by all stakeholders—primarily government and regions—so as to transform Italian agriculture and animal husbandry into a great opportunity: mapping out its fate, rather than considering it as a sector to be abandoned to its ongoing decline.
3.3. EU Orientations to Support Research and Innovation towards a Strategic Plan for the Primary Production and Environmental Sustainability
Beyond Italy, there is the impact of the new Coronavirus on the European agricultural supply chain. The crisis triggered by the spread of this virus has shown how fragile and unsustainable our European food supply system is. EU Institutions and Member States should act now, to make sure that the food we eat does not result from the exploitation of people and the planet, and so as to build a fairer and more sustainable food system. The Food and Agriculture Organization (FAO) has recently documented the urgent need of concrete and concerted actions required to realize key global agendas: “All main actors need to contribute to a common understanding of the major long-term trends and challenges that will determine the future of food security and nutrition, rural poverty, the efficiency of food systems, and the sustainability and resilience of rural livelihoods, agricultural systems, and their natural resource base” ([
47] by da Silva, Director-General of the Food and Agriculture Organization of the United Nations, see FAO 2107 Report, p. 7).
The situation of agri-food workers needs to be addressed urgently during the COVID-19 pandemic. The working and living conditions of many workers along the food, and in particular agricultural, supply chain are generally below standards. In the current situation, workers are seriously exposed to the risk of contracting Coronavirus. The EU Institutions and Member States should do everything necessary, including the mobilisation of additional funding, to ensure support for workers in the agri-livestock sector. In particular, Italy needs the following actions:
- (1)
Transform the new Common Agricultural Policy (CAP) to make it both socially and environmentally sustainable: the EU’s policy has so far favoured unsustainable agricultural practices and its social dimension has focused almost exclusively on farmers, but not on agricultural workers. In line with the European Green Deal, the new CAP should strengthen environmental conditions for the granting of agricultural subsidies.
- (2)
Include a focus on workers in the Farm to Fork strategy: the European Farm to Fork strategy should pay more attention to workers in the agri-food sector and ensure that the benefit is distributed more evenly along the food chain. The EU Treaty makes this objective clear by stating that the CAP should guarantee “a fair standard of living” for the wider “agricultural community” (Article 39 TFEU).
Finally, we cannot ignore the double global emergency that we are facing: environmental emergency plus pandemic emergency. On 28th November of last year, the EU Parliament proclaimed the existence of the “global emergency” of the climate change. A few months later, the COVID-19 pandemic arrived and the prospect changed radically: now we are called to face two global emergencies. An analysis is therefore required with regard to the possible relationship between these two phenomena, starting from a first question: is there a connection between climate change and pandemics? Numerous studies affirm it (see Watts et al. [
48] and references therein, e.g., “Climate change affects the distribution and risk of many infectious diseases,” Indicator 1.4: climate-sensitive infectious diseases p. 1845, see also [
49]). In summary, the emigration of wild species deriving from the contraction of their respective habitats—in part also due to the effect of climate change—increases the probability of a leap of pathogens towards species never met before, eventually arriving at humans (see “The 2019 report of The Lancet Countdown on health and climate change”). Therefore, the fight against climate change is also fully relevant to actions aimed at preventing the risks of new pandemics.
Recently, Merola [
50] published an interesting vision article by which the author tries to reverse the reasoning: What effects can the COVID-19 emergency have on the fight against climate change? In his view, there are two main underlying risks: first, the tragic and immediate impact of the global pandemic and the temporary reduction of pollution linked to the contraction of economic activities may obscure the perception of climatic urgency; second, a humanity that has been afflicted and is now concentrated on repairing the economic and social damage of the global pandemic may no longer find the economic and mental resources to face the substantial investments and the inevitable renunciations necessary for the environmental challenge.
In short, with the crisis owing to the pandemic emergency, the climatic emergency could fade into the background. If this happens, it would be hazardous: the IPCC (UN) Special Report 2018 on “Global Warming” sets the timeframe for an increase of 1.5 °C in the average temperature of the planet at 15–20 years. A balance must be reached between the need for farming and animal production and the environment, and in this sense the present pandemic taught us a lesson to remember [
51].
Significant in this regard is the lesson that the history of the current pandemic provides us with. According to Merola, COVID-19 does not come out of nowhere and is not unexpected. Humankind, dispassionate by choice or unable to govern critical dynamics of mother nature, was already subjected to several rehearsals before withstanding the decisive attack: between 1980 and 2013 there were about 12 thousand epidemics that affected 44 million people (source: World Health Organization). The risk of planetary pandemics has been the subject of many international studies but has always remained on the outside of global economic policy-making (Watts et al. [
48] and references therein).
Why did we ignore these analyses? And why, when the new Coronavirus pandemic appeared, did we not immediately recognise its severity? “The dynamic of the collective in the face of epochal change comes into play here: ignoring, denying, minimising, exorcising, hesitating for fear of the effects and finally, only when every other option appears useless, confronting. A sequence which we find well represented in the great database of history” [
50]. Jared Diamond, professor of biogeography at the University of California, reminds us of this in Collapse: how societies choose to fail or succeed. The lesson to be learnt is that only civilisations able to overcome the inertia of the most deeply rooted interests survive the great challenges, changing the hierarchies of value in time [
52].
The author concludes by formulating a wish, highlighting an obligation and calling for hope. The wish is that current suffering will contribute to getting recognition of the climate emergency. The obligation is that of promoting a rapid and profound rebalancing of values, necessary to solve the triple challenge: economic crisis, pandemic, and climate change. The hope is that there will be a rapid, effective and cohesive response from the EU to face all three challenges, lining them up for the fourth industrial revolution and the Green Deal, striving to be the first climate-neutral continent (
https://ec.europa.eu/info/strategy/priorities-2019-2024/european-green-deal_it).
What about the post-COVID-19 recovery strategies and relaunch of activities related to the forestry sector?
A full restart of the Italian forestry sector must start both by recognising the value of wood and non-wood forest products as a strategic material at the base of the bioeconomy and the circular economy, and by recognising the value of forests as green infrastructures of high environmental and social value for their use in tourism, recreation, and for the maintenance of well-being and physical and mental health.
The role of the University is to encourage innovative forest management [
53], recognising the value of forests not only for the production of timber and forest biomass, but also for the multiple ecosystem services they are able to generate, including: the production of wild products, the conservation of biodiversity, the containment of hydrogeological risk and the regulation of the water cycle, the mitigation of the effects of global warming, the preservation of cultural identity and traditional local artisan activities, and tourist and recreational use connected to visiting natural forest environments.
The part of the forestry sector involved with the transformation of wood can restart by pursuing the objectives of the bioeconomy via the production of wood and wood biomass to be used in the production of new cellulose-based materials (and therefore having high biodegradability), and in the production of materials that can be used in green building and for optimising energy use in modern and innovative transformation plants capable of minimising emissions of particulate matter into the atmosphere. A key role is played by innovation linked to wood technology, which translates into the improvement of efficiency, sustainability, and traceability of its procurement and transformation (wood and its derivatives) [
54]. The basis for the restart and the relaunch of these areas of the forestry sector lies in the acquisition of new and specific technical skills by forest operators, professionals, and civil servants, for the application of the principles of Industry 4.0 [
53].
In regards to the function of forests in the containment of hydrogeological risk, activities to mitigate the hazard and inhabitant/infrastructure exposure to risk in mountain areas must be increased. The extensiveness of the practice of water management at all spatial scales of the watershed must be insisted upon, including those remote catchment areas where massive phenomena are triggered by intense rainstorms and are becoming more active due to climate change effects [
55]. This activity will sustain the peripheral territories whose stability is key to a demographically more balanced repopulation of the mountain. These activities have an impact not only in terms of the environment and mitigation of hydrogeological instability, but also in terms of employment and the safety of the territory and infrastructures, and therefore also social. Among the new challenges facing the forestry sector are those related to extreme events connected with climate change [
56]. Only with active, widespread and sustainable management, based on new technologies and innovative methods, the negative effects of climate change will be countered and limited. Returning more to the active strategy of the territory protection will guarantee greater opportunities for the employment of local labour, promoting local supply chains, and keeping marginal areas alive. Last but not least, is the correct management of forest fuel, which means all those interventions aimed at reducing the risk of fires, especially in urban-rural or urban-forest border areas.
Strategies for the conservation and valuing of biodiversity and natural habitats, as well as strategies to increase the effect of mitigating global warming, come from innovative forest management policies that promote silvicultural interventions, balancing production objectives and maximum recognition of environmental and social value. In this direction, the application of precision forestry based on the use of innovative technologies and high-resolution data plays a key role. Training specialists who are prepared for the use of advanced technologies for forest management is therefore fundamental. Furthermore, ensuring the continuity of silvicultural interventions has positive effects both for the improvement of the forest heritage and its habitats, and socially, in terms of employment. Such a policy offers continuity of employment, professional growth for forestry operators, cultural identity in caring for the territory, health, stability, and productivity of forests, and maintenance of the landscape and its distinctive features.
Keeping forest management active even in marginal areas and those which border more urban areas is essential to contain the risk of spreading viruses. Currently the North-Eastern Alps are affected by a constant increase in the presence of ticks, which in many cases are vectors of arthropod-borne viruses of the genus Flavivirus that can cause meningoencephalitis (TBE) or anthropozoonosis such as Lyme disease [
57]. Prevention of diffusion also comes down to maintenance of the territory and the containment of abandoned areas near built up urban areas. It is therefore necessary to initiate active management policies that provide for the maintenance of the mountain and foothill areas in order to contain the spread of ticks near urbanised areas.
Restarting and relaunching the forestry sector can also take place via the formulation and implementation of policies and tools aimed at recognising the value of non-wood forest products (mushrooms, chestnuts, honey, truffles, medicinal herbs, etc.), a sector that in recent years has seen an increase in interest from forest owners and managers, and which allows for the development of various activities for the collection, transformation, and marketing of these products—with positive repercussions on small local economies also thanks to tourism and territorial marketing strategies [
58].
A further area in which to invest more heavily in the future is the development of strategies, policies and tools to support tourism and recreational activities related to the use of forests. In the immediate future, green forests and infrastructures represent the best places for carrying out summer activities in safety for children, young people, and other social groups that are vulnerable or more exposed to risks both owing to the continuation of measures of social distancing, and from the virus itself, such as the disabled and Senior citizens. It is now scientifically proven that regular contact with natural and green environments has positive effects not only for the maintenance of people’s psycho-physical well-being, but also for the prevention and treatment of some chronic diseases, so much so that in some countries activities involving the visiting of wooded areas as part of a prevention and treatment plan are recognised by the National Health System. These effects are particularly effective in forests in their natural contexts, but they are also found in adequately designed and managed green spaces in urban/peri-urban contexts as well [
59]. In the medium and long term, the role of forests in this innovative development front will be increasingly important. Furthermore, it should be underlined that promoting all those widespread activities and initiatives that allow regular and safe contact with woodland environments and green areas in the city by various types of users (including the elderly and disabled) has the further positive effect of diversifying and expanding employment opportunities, both for residents of territories with a notable forest vocation and for those workers and stakeholders involved in urban green areas [
60].
Our future is conditioned by a multitude of factors that evolve and intersect in complex ways. While some events develop rapidly, causing unrest and temporary crises, other factors evolve more slowly and shape the main social, economic, political, environmental, and technological transformations in a stable manner over time. In this sense, a significant example of drivers is demographic change. With the progressive increase in people’s life expectancy, global population is expected to reach around 8.6 billion in 2030 and 9.8 billion in 2050. These scenarios will have significant implications for multiple aspects, from planetary resources, climate change, and labour markets to (im)migration, healthcare, and public spending.
An element with a decisive impact on the fate of agriculture and, therefore, on the future of food production chains, is the increase in mobility, understood as movement, within and beyond borders, towards cities. At the European level, most people today already live in cities and it is estimated that over two thirds of the world’s population will be living in cities by 2030. If this phenomenon is not carefully controlled it can lead to a series of challenges related, for example, to a lack of urban infrastructure and above all to the abandonment of rural areas and territories, increasing the likelihood of inequalities and a worsening quality of life. By contrast, urbanisation undoubtedly also represents an opportunity, as cities can be centres of innovation and offer people better access to education and employment.
In essence, the rapidly growing global population, coupled with uncontrollable increases in urbanisation and unsustainable production and processing models, is seriously jeopardising our future, to the extent that climate change is now considered an existential threat. In fact, a strong reversal of this trend is required, and that is why at least 35% of the funding of the Horizon Europe 2021–2027 program will be directed towards climate-related objectives. It is widely known that we are depleting or compromising essential natural (and slowly renewable) resources such as soil, water, and air, threatening biodiversity and endangering the sustainability of our current standard of well-being and our ability to meet the needs of future generations. To all this must be added a world-wide emergency resulting from the COVID-19 pandemic.
In Italy, post COVID-19 recovery programs at the national level will necessarily have to be aligned and focused on the same areas of the European Union. In particular, investments in research and innovation concerning agriculture, agri-food, bio-economy, natural resources, agro-ecosystems and the environment should be aimed at advancing knowledge, building capacities as well as developing and demonstrating innovative solutions to accelerate the transition to a sustainable management and use of natural resources from land and sea, ensuring ecosystem integrity as well as sustainable development and human well-being, including water, food, and nutrition security, in the EU and globally (
Table 1).
The time has come for (re)considering all these actions to be pursued as an actual first step towards the “One Health” approach to planet life by collaborative efforts of multiple disciplines working locally, nationally, and globally to attain optimal health for people, animals, and our environment, including farms where to grow crop plants for the coming decades. In this era characterized by important scientific breakthroughs and rapidly advancing technologies, we are exposed to an unprecedented opportunity—made even more urgent by the pandemic emergency—to address problems, both old and new, of human health, food security, and environmental sustainability. There must therefore be a rush by universities to invest in research, development, and innovation in the fields of food, bio-economy, natural resources, agriculture, and the environment, with the aim of advancing the progression of knowledge and developing innovative solutions. Such an investment will accelerate the transition to sustainability, through careful management of activities based on natural land and sea resources, ensuring the integrity of the ecosystem as well as sustainable development and human well-being, including food safety.