The analytical framework
| Category | Variables | Results | % |
|---|---|---|---|
| Authors | 37 | ||
| Academics | 25 | 67% | |
| Collaborations | 8 | 22% | |
| Practitioners | 4 | 11% | |
| Type of source | 37 | ||
| Article | 21 | 57% | |
| Conference proceeding | 16 | 43% | |
| Location of the study | 37 | ||
| Yes | 24 | 65% | |
| 11 | 46% | |
| 7 | 29% | |
| 6 | 24% | |
| 2 | 8% | |
| 2 | 8% | |
| No | 13 | 35% | |
| Research method | 37 | ||
| Case study | 26 | 70% | |
| Literature review | 11 | 30% | |
| Agricultural sector | 37 | ||
| Cultivation of plants | 15 | 40% | |
| General terms | 15 | 40% | |
| Animal production | 6 | 16% | |
| Fish farming | 1 | 3% | |
| Problems to solve-objective to achieve | 37 | ||
| Increase efficiency and optimization maximizing farm returns | 26 | 70% | |
| Manage the environmental impact and external changes | 24 | 65% | |
| Predict and manage the farm complexity | 19 | 51% | |
| Feed the increasing global population-food security | 9 | 24% | |
| Other objectives | 2 | 5% | |
| Technology used | 37 | ||
| Decision support system (DSS) | 21 | 57% | |
| Artificial intelligence and machine learning | 18 | 49% | |
| Big data analytics | 16 | 43% | |
| Internet of things (IOT) | 15 | 40% | |
| Drones | 8 | 22% | |
| Robots | 8 | 22% | |
| Cloud computing | 7 | 19% | |
| Geographical indication system (GIS) | 6 | 16% | |
| Other technologies | 6 | 16% | |
| Biotechnology | 4 | 11% | |
| Blockchain | 3 | 8% | |
| Autonomous devices | 3 | 8% | |
| Applications in agriculture | 37 | ||
| Precision farming and agronomic applications | 24 | 65% | |
| Agronomic planning and economic applications | 21 | 57% | |
| Water optimization and environmental management applications | 15 | 40% | |
| Food supply chain applications and traceability | 5 | 14% | |
| Mentions a business model | 37 | ||
| No | 20 | 54% | |
| Yes | 17 | 46% | |
| 13 | 76% | |
| 8 | 47% | |
| 2 | 15% | |
| Mentions the possibility to lead a new business model | 37 | ||
| No | 31 | 84% | |
| Yes | 6 | 16% | |
| 2 | 33% | |
| 2 | 33% | |
| 1 | 17% | |
| 1 | 17% | |
| Connects to sustainability issues | 37 | ||
| Yes | 23 | 62% | |
| 8 | 35% | |
| 6 | 26% | |
| 5 | 22% | |
| 5 | 22% | |
| 4 | 17% | |
| No | 14 | 38% | |
| Explain the advantages | 37 | ||
| Yes | 34 | 92% | |
| 24 | 71% | |
| 16 | 47% | |
| 2 | 6% | |
| 2 | 6% | |
| No | 3 | 8% | |
| Explain the disadvantages | 37 | ||
| No | 30 | 81% | |
| Yes | 7 | 19% | |
| 1 | 14% | |
| 1 | 14% | |
| 1 | 14% | |
| 1 | 14% | |
| 1 | 14% | |
| 1 | 14% | |
| 1 | 14% | |
| 1 | 14% | |
| Explain the barriers | 37 | ||
| No | 23 | 62% | |
| Yes | 14 | 38% | |
| 7 | 50% | |
| 7 | 50% | |
| 6 | 43% | |
| 4 | 29% | |
| 3 | 21% | |
| 2 | 14% | |
| 2 | 14% | |
| 1 | 7% | |
| Research implications | 37 | ||
| No | 21 | 57% | |
| Yes | 16 | 43% | |
| 10 | 62% | |
| 4 | 25% | |
| 3 | 19% | |
| 3 | 19% | |
| Practical implications | 37 | ||
| Yes | 26 | 70% | |
| 13 | 35% | |
| 10 | 27% | |
| 7 | 19% | |
| 3 | 8% | |
| No | 11 | 30% | |
| Policy implications | 37 | ||
| No | 28 | 76% | |
| Yes | 9 | 24% | |
| 4 | 44% | |
| 4 | 44% | |
| 2 | 22% | |
| 1 | 11% | |
| Category | Variables | Results | % |
|---|---|---|---|
| Authors | 37 | ||
| Academics | 25 | 67% | |
| Collaborations | 8 | 22% | |
| Practitioners | 4 | 11% | |
| Type of source | 37 | ||
| Article | 21 | 57% | |
| Conference proceeding | 16 | 43% | |
| Location of the study | 37 | ||
| Yes | 24 | 65% | |
Asia | 11 | 46% | |
America | 7 | 29% | |
Europe | 6 | 24% | |
Oceania | 2 | 8% | |
Africa | 2 | 8% | |
| No | 13 | 35% | |
| Research method | 37 | ||
| Case study | 26 | 70% | |
| Literature review | 11 | 30% | |
| Agricultural sector | 37 | ||
| Cultivation of plants | 15 | 40% | |
| General terms | 15 | 40% | |
| Animal production | 6 | 16% | |
| Fish farming | 1 | 3% | |
| Problems to solve-objective to achieve | 37 | ||
| Increase efficiency and optimization maximizing farm returns | 26 | 70% | |
| Manage the environmental impact and external changes | 24 | 65% | |
| Predict and manage the farm complexity | 19 | 51% | |
| Feed the increasing global population-food security | 9 | 24% | |
| Other objectives | 2 | 5% | |
| Technology used | 37 | ||
| Decision support system (DSS) | 21 | 57% | |
| Artificial intelligence and machine learning | 18 | 49% | |
| Big data analytics | 16 | 43% | |
| Internet of things (IOT) | 15 | 40% | |
| Drones | 8 | 22% | |
| Robots | 8 | 22% | |
| Cloud computing | 7 | 19% | |
| Geographical indication system (GIS) | 6 | 16% | |
| Other technologies | 6 | 16% | |
| Biotechnology | 4 | 11% | |
| Blockchain | 3 | 8% | |
| Autonomous devices | 3 | 8% | |
| Applications in agriculture | 37 | ||
| Precision farming and agronomic applications | 24 | 65% | |
| Agronomic planning and economic applications | 21 | 57% | |
| Water optimization and environmental management applications | 15 | 40% | |
| Food supply chain applications and traceability | 5 | 14% | |
| Mentions a business model | 37 | ||
| No | 20 | 54% | |
| Yes | 17 | 46% | |
Smart farming Business model | 13 | 76% | |
Data driven business model | 8 | 47% | |
Industry 4.0 business model | 2 | 15% | |
| Mentions the possibility to lead a new business model | 37 | ||
| No | 31 | 84% | |
| Yes | 6 | 16% | |
Platform business model in the food supply chain | 2 | 33% | |
Agritech 4.0 with integrated smart food supply chain | 2 | 33% | |
Supply chain management 5.0 | 1 | 17% | |
New information-based system based on traceability | 1 | 17% | |
| Connects to sustainability issues | 37 | ||
| Yes | 23 | 62% | |
Reduce the use of pesticides, heavy metals and nitrates which pollute agricultural soil and water | 8 | 35% | |
Reduce the consume and loss of water | 6 | 26% | |
Climate-oriented and ecologically friendly applications | 5 | 22% | |
Food security in a sustainable way | 5 | 22% | |
Making sustainable the ecological impact of food production | 4 | 17% | |
| No | 14 | 38% | |
| Explain the advantages | 37 | ||
| Yes | 34 | 92% | |
Organizational advantages and decision support | 24 | 71% | |
Efficiency benefits and productivity increase | 16 | 47% | |
Environmental benefits | 2 | 6% | |
Food safety and easy compliance | 2 | 6% | |
| No | 3 | 8% | |
| Explain the disadvantages | 37 | ||
| No | 30 | 81% | |
| Yes | 7 | 19% | |
The water limits compliance inevitably leads to some losses in the farm income | 1 | 14% | |
The system doesn't work without a standard power supply | 1 | 14% | |
Some will always think that is absurd, disappointing and danger for humankind | 1 | 14% | |
Difficult to create a unique system for different areas and crops | 1 | 14% | |
Inevitable carbon dioxide emission as a consequence of intensive use of information technologies | 1 | 14% | |
Environmental impact in the food chain from genetically engineered crops which will destroy the actual situation | 1 | 14% | |
Complexity to realize | 1 | 14% | |
Unrealizability on areas without the extensive available data regarding soil and geology | 1 | 14% | |
| Explain the barriers | 37 | ||
| No | 23 | 62% | |
| Yes | 14 | 38% | |
Farmers lack of technical knowledge about ICT and other emerging technologies | 7 | 50% | |
Lack of equipment, Internet access, storage capacity and high-quality data | 7 | 50% | |
High investment costs and low perceived effectiveness | 6 | 43% | |
Mismatch between applications and farmer practical needs | 4 | 29% | |
Data control and data security | 3 | 21% | |
Lack of integration and complexity of the food supply chain | 2 | 14% | |
Large energy consumption and unsustainability | 2 | 14% | |
User psychological barriers to adoption | 1 | 7% | |
| Research implications | 37 | ||
| No | 21 | 57% | |
| Yes | 16 | 43% | |
Extend and integrate the research with new data or focus on new related problems | 10 | 62% | |
Test the validity and accuracy of the proposed method | 4 | 25% | |
Focus on new aspects not yet deepened | 3 | 19% | |
Focus on develop new solutions and new technologies | 3 | 19% | |
| Practical implications | 37 | ||
| Yes | 26 | 70% | |
Support farmers in the decision-making process | 13 | 35% | |
Support everyday farm operations increasing efficiency and effectiveness | 10 | 27% | |
Provide farmers useful forecasts to manage the farm unpredictability planning their activity | 7 | 19% | |
Provide farmers new solutions with integrated technologies | 3 | 8% | |
| No | 11 | 30% | |
| Policy implications | 37 | ||
| No | 28 | 76% | |
| Yes | 9 | 24% | |
Governments should use the agricultural data to improve policy-making and decision-making learning from data | 4 | 44% | |
Governments should subscribe new investments to enhance the technological transition | 4 | 44% | |
Governments should create advisory units to support the farmers awareness about complex technological tasks | 2 | 22% | |
Governments should support the social innovation to engage younger generations to be more involved in the honey and bee industry | 1 | 11% | |
Source(s): Authors work