Table 1.
Differences Between Traditional and Digital Farming.
| Feature | Traditional Farming | Digital Farming |
|---|---|---|
| Labor requirements | Requires intensive manual labor. | With the use of robotic devices and drone technology, it can be done with less labor. |
| Production process and yield | The production process is slower, leading to lower yields. | Products can be grown more quickly, resulting in higher yields. |
| Diseases and pests | Plant diseases and pests are often noticed at later stages. | Plant diseases can be detected earlier. |
| Prediction and analysis | Predictions are made based on land conditions, crops, and yield. | Predictions are highly accurate and precise. |
| Input usage and efficiency | Excessive use of inputs and low efficiency. | Inputs are used more efficiently in modern farming. |
| Production time and scientific approach | These techniques are time-consuming and result in lower production. | Time is saved, and production is based on scientific methods. |
| Application history | Traditional farming techniques are ancient and are no longer widely used. | Modern farming is heavily capital-intensive. |
| Dependency on irrigation | Farmers are not dependent on monsoon rain since they have access to tube wells for irrigation. | Smart irrigation systems ensure water conservation. |
| Fertilizer use | Natural fertilizers, such as cow manure, are commonly used. | Chemical fertilizers and pesticides are applied. |
| Seed usage | Traditional seeds are commonly used. | Genetically modified seeds are preferred in modern farming. |
[i] Source: Çilesiz, Karaköy, 2022
Table 2.
Comparative Analysis of Case Studies.
| Case Study | Location | Type | Key Technologies | Yield Improvement | Resource Savings |
|---|---|---|---|---|---|
| Case 1 | Northern Poland | Dairy Farm | Automated milking, IoT health monitoring, GPS-guided machinery | 20% milk production efficiency | 15% operational costs, 10% water reduction |
| Case 2 | Central Poland | Crop Farm | GPS tractors, soil monitoring, VRT | 10% crop yield | 15% input costs, 20% fuel, 25% water |
| Case 3 | Central Anatolia | Cereal Production | GPS machinery, variable irrigation, IoT soil monitoring | 15% crop yield | 12% water, 10% fertilizer reduction |
| Case 4 | Mediterranean Türkiye | Greenhouse | IoT climate control, AI analytics, automated irrigation | 20% crop yield | 15% water, 30% pesticide reduction |
| Case 5 | Aegean Türkiye | Cooperative Farms | Mobile monitoring, weather tracking, cloud platforms | 12% crop yield | 10% input costs reduction |
Table 3.
Digital Agriculture: Strengths and Weaknesses in Poland and Türkiye.
| Category | Strengths in Poland | Strengths in Türkiye |
|---|---|---|
| Technological Advancements | Potential for growth driven by IoT, sensors, AI, machine learning, big data, and blockchain. | Availability of digital agriculture technologies offered by various organizations. |
| Consumer Awareness | Growing awareness of sustainability and food quality, increasing market for both traditional and digitally-produced products. | Increasing interest in digital agriculture certifications and training programs. |
| Agricultural Diversification | Opportunity for Polish farmers to diversify offerings by combining classic agriculture with technology-modified eco-foods. | Increased focus on diversifying agricultural practices through digital tools and technologies. |
| Collaboration Opportunities | Collaboration between academia, industry, and government institutions to support knowledge transfer and labor training. | Collaboration between digital agriculture organizations and producers. |
| Climate Resilience | Digital tools can enhance productivity and resilience to climate change-related risks. | Digital agriculture can improve efficiency and resilience in dealing with climate change and agricultural challenges. |
| Workforce Development | Emphasis on training and developing a workforce skilled in digital agriculture. | Growing interest in digital education and skills development. |
| Market Competitiveness | Digital agriculture can improve Poland’s competitiveness in the international market. | Digital agriculture applications can help improve Türkiye’s competitiveness in global agricultural markets. |
| Government Support | Increasing policy support for digital agriculture, and funding initiatives. | Growing support from the government for digital agriculture, including state incentives and research investments. |
| Economic Resilience | Potential for increased operational efficiency and economic resilience via digital agriculture. | Government support, including incentives, aims to enhance economic resilience in the agricultural sector through digitalization. |
| Digital Adoption in Rural Areas | Limited digital infrastructure in rural areas but potential for development. | Ongoing efforts to improve technological infrastructure in rural regions, increasing access to digital agriculture tools. |
| Data Utilization | Potential for optimizing farm management with big data and AI. | High interest in leveraging big data and AI for precision farming and productivity enhancement. |
| Category | Weaknesses in Poland | Weaknesses in Türkiye |
|---|---|---|
| Awareness and Understanding | Many farmers unaware of digital technologies and their potential benefits. | Lack of awareness about the full potential of digital technologies among farmers. |
| Connectivity | Poor internet connectivity in rural areas, hindering digital adoption. | Insufficient technological infrastructure in rural areas, limiting digital agriculture adoption. |
| Data Ownership | Concerns regarding intellectual property rights and data privacy in digital farming. | Data ownership and privacy concerns remain unresolved, hindering trust and adoption of digital tools. |
| Digital Skills | Lack of digital skills and an aging workforce hinder the adoption of new technologies. | Low digital literacy and a high average age of farmers hinder the efficient use of digital technologies. |
| Financial Barriers | High initial investment costs and limited access to financing, especially for small-scale farms. | Financial constraints and limited access to credit for small-scale farmers make digitalization difficult. |
| Support for Rural Development | Lack of sufficient public investment in rural development and agriculture. | Public investment in agriculture and rural development is inadequate, leaving small farmers without sufficient financial support. |
| Small-Scale Farms | Many small-scale farms struggle to adopt digital solutions due to resource constraints. | Dominance of small-scale farms, making large-scale digital adoption challenging. |
| Sector Integration | Difficulty integrating digital agriculture into other sectors due to technological gaps and resistance to change. | Integration of digital agriculture with other agricultural sectors faces resistance and challenges. |
| Technological Dependence | Dependence on imported technological inputs. | High reliance on foreign technology for digital agriculture implementation. |
| Radical Change Resistance | Resistance to the radical changes that digital agriculture may bring. | Resistance to radical transformation within the agriculture sector due to traditional farming practices. |
| Economic Instability | Economic instability and lack of long-term agricultural policy create uncertainty in adopting digital solutions. | Economic fluctuations, climate change, and unstable agricultural policies create challenges for digital adoption. |
[i] Sources: Niewiadomska, 2024; Komorowski, 2024; Ercan et al., 2019; Yılmazer, Tunalıoğlu, 2024.