DEVELOPING A SYSTEMS THEORY OF SCIENTIFIC AND TECHNOLOGICAL HOMOGENEITY IN GASTRONOMY: STRUCTURE, PROCESS, AND INNOVATION IN FUTURE FOOD ECOSYSTEMS

Abhijit Ghosh

Reader-Food & Beverage Service, Hotel & Hospitality Management, EIILM-Kolkata, India

Manjit Singh Gill

President of the Indian Federation of Culinary Associations, Corporate Chef, ITC Hotels, India

Sudipta Sen Gupta

Professor and Program Head- MBA, Le Cordon Bleu India Campus, School of Hospitality & Tourism, GD Goenka University, India

Prof. Debanjan Bhowmik

Assistant Professor- Food & Beverage Service, Hotel & Hospitality Management, EIILM-Kolkata, India

Correspondence: abhijit.enigma@gmail.com

Abstract

This conceptual paper aims to design a systems theory of scientific and technological homogeneity in gastronomy by demonstrating how systems thinking can be applied to food science, gastronomic innovation, and technology management to create a unified whole that fosters innovation, sustainability, and future food ecosystem resilience. This study employs a conceptual research design that achieves its objectives by conducting a systematic review of the existing literature on gastronomy, systems theory, food science, managing innovation, digital transformation, and sustainability to establish theoretical foundations for scientific and technological homogeneity. The review identifies relevant systems theory concepts that can be leveraged to unify diverse fields of food science while actualising scientific theories related to future food ecosystem management. As a result, this paper proposes a systems theory that integrates key components, processes, and functions that promote scientific and technological homogeneity in gastronomy. This study actualises how knowledge, technology, gastronomic techniques, and ecosystems can be unified to achieve homogeneity in scientific and technological processes. The paper argues that scientific and technological homogeneity is actualised through a convergence of structural, process, and innovation-related aspects. This paper shows that technological and scientific homogeneity in gastronomy can be achieved by understanding and leveraging the key components that contribute to standardised scientific knowledge, technical expertise, institutional infrastructure, and collaborative networks in the field. The study actualises process homogeneity by describing processes such as knowledge unification, digital transformation, quality assurance, decision-making analytics, and continuous learning that facilitate standardised gastronomic procedures. This paper demonstrates that innovation homogeneity is realised through articulating the relevant processes that promote standardised, consistent, and continual development of culinary innovations that improve the quality, safety, and sustainability of food products, services, and ecosystems. This study concludes by arguing that systems theory is critical in sensitising various stakeholders on the need for coherence in structures, processes, and systems to enhance future food ecosystem performance. This study makes a theoretical contribution to the existing body of knowledge by designing a systems theory of scientific and technological homogeneity in gastronomy that has not been emphasised in the previous research literature. The paper provides conceptual foundations for future process improvement, theoretical development, and policy studies in food science and technology, managing innovation, and sustainability.

Keywords: Systems theory; Gastronomy; Scientific homogeneity; Technological homogeneity; Food ecosystems; Gastronomic innovation; Sustainability; Digital transformation.

JEL: O33, L83, Q18

1. Introduction

Gastronomy and Its Interdisciplinary Nature Essay

Gastronomy is undergoing a paradigm shift through the intersections of culinary practice and art, knowledge, restaurants, and cultural heritages, as well as through the growing importance of science, technology, entrepreneurship, tourism, and digitalisation. Thus, gastronomy becomes increasingly multi-professional and multi-competent, challenging the previous restaurant-centric understanding of this domain. GastronomyTech is one of the manifestations of these changes, as Galarraga and Martinez de Albeniz (2025) demonstrate in the Basque region, where the locus of innovation has shifted from the domain of haute cuisine restaurants to labs, research institutes, and innovation ecosystems, where chefs, scientists, researchers, entrepreneurs, and technologists interact in multifunctional innovation processes related to gastronomy, agri-food, tourism, health, biotechnology, and digitalisation.

At the same time, these processes raise questions about the transformation of the food paradigm and the multiple factors shaping present-day agri-food systems. In general, systems thinking is the most relevant approach to understanding food-related phenomena, as Zhang et al. (2018) suggest: complex interactions of food with ecological, economic, social, technological, and institutional processes must be understood within the framework of systems thinking. The current state and future development of gastronomy can also be considered as a system emerging from culinary practice and art, food production, processing, technology, consumption, tourism, and related phenomena.

Ecosystem thinking is one of the most relevant approaches to study such a system as a configuration of various actors and technologies. Granstrand and Holgersson (2020) define innovation ecosystems as “relational configurations” that shape innovation processes in specific contexts through the interaction of “actors, activities, artefacts, and agentic relations.” Following these premises, one can speak of a similar approach to study the configuration of gastronomy, where various actors and technologies self-organize to create value through innovative processes. Granstrand and Holgersson (2020) draw attention to the fact that the modularization process inherent in ecosystems allows for “a greater variation in the ways in which different components and competences fit together.” This is a particularly interesting direction for the study of gastronomy, as the same culinary technologies can be combined in different ways to shape diverse products, services, and processes within the food service sector. Thus, the approach under consideration reveals the configuration-specific nature of the innovative development of gastronomy as a complex system.

In particular, the analysis of such a phenomenon as scientific and technological homogeneity is also of interest in this context. First, this study focuses on the concept and methodology for analysing the systemness of food and gastronomy ecosystems. Granstrand and Holgersson (2020) propose a definition of such a system as a “relational configuration” characterized by particular “dynamics and patterns of interaction among actors, activities, artefacts, and agentic relations.” Therefore, the main research question that arises at this stage is the theoretical framework that would allow us to understand the emerging nature of food and gastronomy ecosystems as systems with their own laws and regularities. Second, this study aims to reveal whether and how theoretical constructs for analysing food and gastronomy ecosystems as complex systems can be used to explain and predict “the ways in which different components and competences fit together” (Granstrand and Holgersson, 2020). At the same time, the concept of “fit together” denotes the possibility of achieving some degree of homogeneity in spite of the potential diversity of components and competences. Within the framework of the study of gastronomic systems, such concepts as scientific and technological homogeneity can be used as a basis for analysing the possibility of combining different competences. Third, this study is interested in the idea of scientific and technological homogeneity as a concept that could explain scientific and culinary practice as well as technological development in food service businesses. The word “homogeneity” is used in the sense of “fit together.” In this regard, the concept of scientific and technological homogeneity implies the possibility of bringing together different scientific disciplines, managerial competences, culinary skills, and technologies within one product, service, or business.

The concept of homogeneity in the context of scientific and technological fit can be understood as a characteristic of the configuration of scientific and technological components that allows for the interaction of their diverse sets within a complex technological system. This idea can be further developed in the context of food and gastronomy, where different actors offer their competencies, products, and technologies to create value. The concept under consideration draws attention to the possibility of finding harmony in combination, which may be a feature of many food and gastronomy ecosystems as complex systems that bring together diverse components, structures and competencies.

The scientific basis of the current research is the analysis of molecular gastronomy as a manifestation of scientific and culinary homogeneity. The application of scientific principles to culinary practice opens up new opportunities for transforming dishes through flavour, smell, and consistency due to the interaction of scientific and culinary competencies. In turn, the emerging processes of technological development in food and gastronomy can be considered within the framework of the systems approach, drawing on the analysis of food entrepreneurial ecosystems as complex adaptive systems (Elam et al., 2026).

Elam et al. (2026) conducted a systematic literature review of entrepreneurial ecosystems in the food sector and revealed their complex adaptive nature. This study sheds light on the systemness of food entrepreneurial ecosystems, with a focus on the context of place, people, purpose, and processes. In particular, the authors analysed 31 studies on food entrepreneurial ecosystems published in Scopus and Web of Science, which served as the basis for the current study. Thus, this study provides a theoretical basis for examining food and gastronomy ecosystems within the framework of systems thinking.

Given the research basis described above, the present study focuses on developing a Systems Theory of Scientific Technological Homogeneity in Gastronomy. In particular, this study examines the structure-process-innovation nexus of food and gastronomical ecosystems, with the systems approach serving as the theoretical framework. The current understanding of food ecosystems is built upon the study of diverse agri-food systems, where the interaction of various actors leads to innovation processes. In this regard, the systems approach is useful for studying the mechanisms of scientific and technological homogeneity in gastronomic ecosystems as a basis for shaping their structure and processes. This study makes three primary contributions. First, an interdisciplinary understanding of gastronomy as a complex system is provided. Second, particular attention is paid to the concept of scientific and technological homogeneity, which serves as a mechanism for combining different components of the system. Third, the current study focuses on systems thinking and related approaches, including ecosystems thinking and modularity, to reveal the mechanisms for achieving homogeneity in various gastronomy systems.

2. Literature Review

The literature on gastronomy has progressively moved from a narrow focus on gastronomic techniques towards broader questions of food systems, innovation, technology, sustainability, and ecosystem development. This evolution is important to understand how scientific and technological knowledge becomes embedded within gastronomic practices. The literature can be organized around four interconnected streams: systems thinking in food and gastronomy, food ecosystems, gastronomic innovation ecosystems, and scientific and technological synthesis.

2.1 Systems Thinking in Food and Gastronomy

Systems thinking provides a useful basis for understanding food-related phenomena because food activities involve multiple linked components and feedback relationships. Zhang et al. (2018) argue that eco-agri-food systems involve interactions among ecological, economic, social, and institutional components. Their framework showcases feedback loops, interdependencies, and non-linear connections, demonstrating why food-related issues cannot be adequately comprehended through isolated activities. This perspective is relevant to gastronomy because culinary activities are connected with food production, processing, distribution, consumption, tourism, culture, and environmental conditions. Gastronomy therefore functions within a wider system in which changes in one component can influence other components. For example, technological changes in food production can affect food preparation techniques, while altering consumer tastes can influence ingredient procurement and product development. Research on culinary science provides further support for this systemic perspective. Risbo et al. (2013) document the development of culinary science in Denmark and show how molecular gastronomy contributed to closer connections between gastronomy, food science, research, and education. This development indicates that scientific knowledge is increasingly incorporated into gastronomic practice rather than remaining external to it. Molecular gastronomy represents an important stage within this transformation. This demonstrates how chemistry can be used to understand culinary transformations and distinguish scientific investigation from technological application. Such work provides an important basis to understand gastronomy as a knowledge-intensive system in which scientific principles can inform culinary experimentation. The systems perspective therefore suggests that gastronomy should be studied through the relationships among food, people, knowledge, technology, organisations, and institutions rather than by treating the restaurant as an isolated unit.

2.2 Food Ecosystems and Interconnected Value Creation

The food ecosystem perspective extends systems thinking by focusing on actors, relationships, institutions, activities, and exchanges. Granstrand and Holgersson (2020) define innovation ecosystems as evolving configurations of actors, activities, artefacts, institutions, and relationships, including both complementary and substitute relationships. This definition is particularly relevant to food because innovation entails multiple actors whose resources and capabilities are interdependent. Within a food ecosystem, farmers, food processors, chefs, restaurants, scientists, universities, technology firms, entrepreneurs, tourism organisations, consumers, and decision-makers may contribute different resources and forms of knowledge. Their interactions can generate value that cannot be ascribed to a single actor. Systems thinking similarly stresses the interrelated nature of food production and consumption. Zhang et al. (2018) argue that food systems contain multiple flows and signalling mechanisms across ecological and socioeconomic domains. This suggests that food innovation should be studied through relationships between actors and system components rather than through isolated technological interventions. The ecosystem perspective is particularly useful for gastronomy because culinary value is increasingly produced through networks. Ingredients may originate from specialised producers, scientific knowledge may come from universities and laboratories, technologies may be supplied by specialised firms, and consumer experiences may be shaped through tourism and digital channels.

This literature establishes the importance of interdependence and ecosystem coordination; however, it provides less clarity on how different knowledge and technology components become compatible within the ecosystem. This gap is important for the present study.

2.3 Gastronomy as an Innovation Ecosystem

Gastronomic innovation has increasingly moved beyond the development of dishes within individual restaurants. Chesbrough et al., (2014), through the case of Chez Panisse, demonstrate how a restaurant can develop an open innovation ecosystem involving suppliers, chefs, staff, food writers, and other stakeholders. Their study stresses knowledge sharing, trust, and relationships as important elements of ecosystem development. Yun et al., (2020) provide further evidence by examining open innovation ecosystems in restaurants. They identify ingredient, recipe, and service innovation as interrelated forms of open innovation and show how external relationships can contribute to restaurant success. The results contest the assumption that restaurant innovation is generated entirely within organisational boundaries. Recent research provides stronger evidence of this change. Galarraga and Martinez de Albeniz (2025) examine the emergence of Gastronomy tech in the Basque Country and demonstrate how gastronomic innovation increasingly involves research centres, laboratories, innovation hubs, chefs, scientists, entrepreneurs, and technology-oriented organisations. Their results show that gastronomic innovation is becoming increasingly multidisciplinary and ecosystem-based. Digitalisation has accelerated this transformation. Hjalager (2022), examining 17 examples of digital food in tourism, identifies robotics, data-based restaurant services capes, electronic platforms, augmented and virtual reality, and smart destinations as important areas of gastronomic innovation. These developments demonstrate that technology is increasingly embedded in culinary production, service, experience, and tourism.

Therefore, the literature establishes gastronomy as an emerging innovation ecosystem. However, the increasing diversity of actors and technologies creates a coordination problem. Different actors possess different knowledge systems, technologies, objectives, and practices. The literature has established the relevance of collaboration but provides less theoretical explanation of how these heterogeneous elements achieve sufficient compatibility to function as an integrated system.

2.4 Scientific and Technological Incorporation in Gastronomy

Scientific integration has historically been associated with molecular gastronomy and culinary science. This demonstrates the relevance of chemistry to understand culinary transformations, while Risbo et al., (2013) show how molecular gastronomy contributed to the development of culinary science as an interdisciplinary field. Technological development has subsequently expanded the scope of gastronomic innovation. Contemporary gastronomy increasingly incorporates electronic platforms, robotics, data analytics, sensory technologies, biotechnology, and advanced food-processing techniques. Hjalager (2022) demonstrates how digital technologies are changing gastronomic tourism and food-related experiences. Modularity provides an additional theoretical perspective to understand this technical integration. Schilling (2000) develops a general theory of modular systems and explains how complex systems can be composed of specialised components connected through defined relationships. Applied to gastronomy, this viewpoint suggests that different technologies can retain specialised functions while becoming connected through compatible interfaces and processes. This distinction is important because technological incorporation does not require technological uniformity. A gastronomic ecosystem may contain multiple technologies and knowledge domains while still sustaining compatibility using shared standards, processes, and interfaces.

The reviewed literature demonstrates three important developments. First, systems research shows that food and gastronomy involve interrelated components and feedback relationships. Second, ecosystem research demonstrates that gastronomic innovation increasingly involves diverse actors operating across organisational boundaries. Third, culinary science and digital gastronomy research demonstrate the growing integration of scientific knowledge and technology into gastronomic practice. However, these streams remain relatively fragmented. The literature describes interconnected actors, scientific knowledge, and technological innovation. However, it provides limited conceptualisation of the mechanism through which heterogeneous scientific and technological components achieve sufficient compatibility to operate as a coherent gastronomic ecosystem. This paper fills this gap by proposing scientific and technological homogeneity as a system-level construct. The concept refers to compatibility and alignment rather than uniformity. It recognises that culinary and technological diversity can remain while shared knowledge structures, standards, processes, and interfaces facilitate ecosystem coordination. The literature therefore provides the foundation for the proposed framework:

ü Systems thinking → explains interdependence.

ü Food ecosystems → explain actor relationships.

ü Innovation ecosystems → explain collaborative value creation.

ü Culinary science and technology → explain knowledge and technological incorporation.

ü Modularity → explains compatibility among heterogeneous components.

Scientific and technological homogeneity → unites these perspectives into a proposed conceptual framework.

This gap provides the basis for the method and conceptual framework developed in the following sections.

3. Methodology

3.1 Research Design

This study adopts a conceptual research design to develop a Systems Theory of Scientific and Technological Homogeneity in Gastronomy. A conceptual approach is appropriate because the purpose of the study is not to test predetermined hypotheses using primary data, but to integrate recognized theoretical perspectives plus develop a new conceptual explanation of an emerging phenomenon. Jaakkola (2020) argues that conceptual studies should have an explicit research design and clearly explain how theories are selected, combined and used to generate theoretical contributions. She identifies theory synthesis, theory adaptation, typology, and model development as four approaches to conceptual research. The present study primarily follows a theory synthesis and model development approach, bringing together systems theory, food ecosystem research, innovation ecosystem theory, culinary science, and modular systems theory to develop an integrated framework. The study also follows MacInnis's (2011) view that conceptual research may contribute by identifying relationships among existing concepts, proposing new conceptual distinctions, and developing new theoretical perspectives.

3.2 Literature Identification and Selection

The conceptual framework was developed through a structured review of literature covering:

· Systems theory and systems thinking

· Food and gastronomic ecosystems

· Gastronomic and food innovation

· Molecular and culinary science

· Digital gastronomy and food technology

· Innovation ecosystems and

· Modular systems and technological incorporation

The literature search prioritised Scopus and Web of Science-indexed journal literature, supplemented where theoretically necessary by established academic books and book chapters.Priority was given to peer-reviewed studies with direct relevance to gastronomy, food ecosystems, innovation, technology integration, and systems theory

The review focused particularly on literature that could explain three theoretical dimensions:

· Structure: Actors, institutions, knowledge resources, networks, and technical infrastructure.

· Process: Knowledge exchange, coordination, experimentation, standardization, feedback, learning, and modification.

· Innovation: Culinary, technological, organisational, experiential, and sustainability-oriented innovation.

3.3 Theoretical Synthesis

Following Jaakkola (2020), the study synthesizes concepts from different theoretical traditions rather than treating them as independent streams of literature. Systems theory gives the overarching perspective for explaining interdependence and feedback. Ecosystem theory explains relationships among actors and complementary resources. Innovation ecosystem theory explains collective value creation and technological interdependence. Modularity theory gives a basis for understanding how specialized technological components can remain distinct while achieving interoperability via interfaces and system architecture. The synthesis is used to identify a theoretical gap. Existing studies explain how gastronomic ecosystems are structured and how innovation occurs. Still, they provide limited conceptual explanation of how heterogeneous scientific and technological components achieve sufficient compatibility for coordinated ecosystem functioning

3.4 Concept development

The concept of scientific and technological homogeneity was developed through conceptual integration of the reviewed literature. The construct is defined as the degree to which scientific knowledge, technical capacities, standards, processes, and interfaces become sufficiently aligned to facilitate interaction, knowledge exchange, and innovation between heterogeneous gastronomic ecosystem actors. The conceptualization deliberately distinguishes homogeneity from uniformity. Homogeneity refers to alignment and compatibility at the level of knowledge, processes, standards, and interfaces. It does not imply that culinary traditions, technologies, organisations, or cultural practices become identical. This distinction enables the framework to support the coexistence of technological coordination and culinary diversity

3.5 Framework Development

The final framework organizes the synthesized concepts within three interconnected dimensions:

Structural alignment → Process integration → Innovation integration

Structural alignment concerns the configuration of ecosystem actors, institutions, knowledge infrastructures, networks, and technologies. Process integration concerns the means by which these components interact, including knowledge exchange, experimentation, coordination, learning, and feedback. Innovation integration concerns the conversion of these resources and processes into gastronomic innovations. The framework embraces a feedback mechanism through which innovation outcomes generate new knowledge and learning, leading to further adaptation of the ecosystem. This demonstrates the dynamic character of conceptual models and is consistent with Jaakkola's (2020) argument that conceptual frameworks ought to explain relationships among constructs rather than merely classify existing literature.

3.6 Theoretical Propositions

Rather than developing empirically verifiable hypotheses, the study obtains conceptual propositions from the theoretical synthesis. Propositions specify conceptually plausible relationships among structural alignment, process integration, scientific and technological homogeneity, innovation and ecosystem outcomes. The propositions are intended to provide a springboard for future empirical testing through quantitative, qualitative, or mixed-method research. This approach is consistent with the role of conceptual research in generating theoretical explanations and identifying relationships that can subsequently be examined empirically (MacInnis, 2011).

3.7 Methodological Strictness

Methodological strictness in this conceptual study is established through four principles:

· Theoretical relevance: sources were selected according to their relevance to the research problem

· Theoretical integration: concepts were synthesized across established research streams rather than presented as isolated findings

· Conceptual clarity: scientific and technological homogeneity is explicitly distinguished from technological uniformity

· Traceability: each major element of the proposed framework is grounded in recognized theoretical or empirical literature

The framework was therefore developed through a transparent sequence of literature identification, theoretical synthesis, concept development, and proposition formulation.

4. Conceptual Framework

The preceding literature review demonstrates that interactions among culinary knowledge, scientific expertise, technological skills, entrepreneurial activity, institutions, and consumers increasingly characterize gastronomy. However, existing literature tends to examine these items through separate perspectives, including systems thinking, food ecosystems, innovation ecosystems, culinary science, and technological innovation. The present study merges these perspectives to propose a Systems Theory of Scientific and Technological Homogeneity in Gastronomy. The framework is based on the proposition that gastronomic ecosystems require sufficient scientific and technological alignment to coordinate heterogeneous actors and resources. This agreement does not imply uniformity. Rather, it refers to compatibility in knowledge, processes, standards, technological interfaces, and innovation practices.

The framework consists of three interconnected dimensions:

· Structural Alignment

· Process Integration

· Innovation Integration

These dimensions operate dynamically through feedback and modification.