Low-Carbon Ecological Tea: The Key to Transforming the Tea Industry towards Sustainability
Abstract
:1. Introduction
2. Scientific Concept of LCT
2.1. Theoretical Logic of Low-Carbon Ecological Products
2.2. The Boundaries and Implications of LCT
- (1)
- Under the traditional tea manufacturing mode, the GHG emissions of tea are not regarded as a constraint condition, meaning there is a business-as-usual emission trend. GHG emissions are high under the extensive management mode, which does not pay attention to ecological impact and mainly pursues economic benefits.
- (2)
- Technological improvements lead to fewer resource inputs and increases in energy use efficiency, decreasing GHG emissions and enhancing the carbon sequestration capability of tea gardens. The measures include the use of clean energy, cultivating tea varieties with stronger carbon sequestration capacities, and developing energy-efficient equipment and new types of fertilizers (slow/controlled-release fertilizers, water-soluble fertilizers, commercial organic fertilizers, and bio-fertilizers [24]). Practices such as the no-tillage approach, fallowing, or intercropping for weed control in tea gardens, which reduce energy consumption derived from gasoline or diesel, are also included [25]. The adoption of physical and biological pest control measures as alternatives to chemical pesticides achieves the goal of pest management in tea gardens. Through technological improvements, carbon emissions from the tea industry could fall further, and carbon neutrality could ultimately be achieved with offsetting measures.
- (3)
- Institutional mechanisms, including the innovation of the capital mechanism, the formation of policies, and raising the public’s awareness of environmental protection, are measures for securing the success of technological improvements.The conceptual pathway for realizing LCT is shown in Figure 2. From the practices implemented already, these alternative measures will reduce carbon emissions, so the carbon emissions per unit of production will be lower. Evidence from scholars supports this finding. He et al. (2022) found that in green tea production, the use of 30% organic fertilizer as a substitute for chemical fertilizers and the replacement of fossil fuels such as coal, oil, and natural gas with clean energy sources leads to a reduction in carbon emissions of 45.85% compared to the original methods [11]. Specifically, the plantation phase has a significant impact on the quality of tea, as well as the ecological environment, and optimizing agricultural inputs can lead to a reduction in carbon emissions. Kouchaki-Penchah et al. (2017) identified the potential for reducing GHG emissions derived from tea production in India, estimating a reduction of around 19% following the optimization of farming inputs [26]. Cichorowski et al. (2015) found that in Darjeeling tea production, substituting chemical fertilizers with manure could reduce GHG emissions from 9.6 to 3.3 kg CO2-eq per kg of tea [27].
3. The Value Realization Pathway of LCT
3.1. Protection as a Priority and the Promotion of the Industry’s Ecological Aspects
3.2. Restoration as a Priority and the Improvement of the Industry Chain’s Ecology
3.3. Innovating Technology and Expanding and Extending the Industry Chain
4. Value Realization Mechanism of LCT Based on Stakeholders
4.1. Macro Level—Build an Organizational Mechanism Led by Local Governments and Coordinated by Multiple Parties
4.2. Mesoscopic Level—Explore Industrial Development Mechanisms Based on Local Conditions and Regional Policies
4.3. Micro Level—Improve the Social Mechanism of Demonstration, Promotion, and Publicity Guidance
- (1)
- Demonstration zones could be established in areas where the ecological governance of tea gardens and industrial green transformation are prominent. Certain material or reputational awards could be given to some tea enterprises with obvious green consumption effects. These enterprises should be promoted as typical low-carbon cases to achieve brand-benefitting effects, guide other enterprises down the road of low-carbon development, and further stimulate the vitality of green consumption.
- (2)
- It could be possible to use communicative media with wider audience acceptance, distinguish audience groups, and adopt a broadcasting mode with diverse forms and differentiated content and integrate traditional and modern techniques to improve publicity and education.
- (3)
- The good practice of low-carbon green consumption should be summarized in time to help form a document at the national level to provide a practical basis for the design of policies by government departments.
5. Conclusions
- (1)
- LCT is the entry point for the sustainability transformation of the tea industry. The practices based on LCT represent a set of technical solutions for enhancing soil carbon sequestration and reducing carbon emissions, providing a new framework for the sustainability of agriculture.
- (2)
- The basic principle for the realization of LCT is to adhere to the principle of innovation, which is driven based on the aspects of the industry chain.
- (3)
- The mechanism for realizing LCT is based on stakeholders. The government plays an important role, while enterprises are the entities set to implement and promote the marketization of LCT.
Author Contributions
Funding
Institutional Review Board Statement
Data Availability Statement
Acknowledgments
Conflicts of Interest
References
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Tea industry Chain | Typical Low-Carbon Practices | Implementation Pathway | Implementation Entity | |
---|---|---|---|---|
Upstream | Planting, management, and harvesting | Organic fertilizer, returning straw to the field, intercropping functional plants to reduce weeds [37]. Sticky traps and solar insecticidal lamps, ecological windbreak forest, and manual weeding. | Ecological compensation, benefits from ecological industrialization, and regulation | Government |
Midstream | Processing | Replacing machines with labor, clean energy. | Ecological compensation, benefits from ecological industrialization | Government and enterprise |
Downstream | Logistics | New energy transportation vehicles, photovoltaic power generation, simplified packaging. | Incentive policies | Government and enterprise |
Sales | Tea-related cultural services, tea art performances and experiences. | Benefits from ecological industrialization | Enterprise |
Tea Industry Chain | Typical Low-Carbon Practices | Implementation Pathway | Implementation Entity | |
---|---|---|---|---|
Upstream | Planting, management, and harvesting | Returning tea to forests, retaining the height of tea trees, organic fertilizers, large-scale low-density management, biochar application, constructing terraces on steep slopes | Ecological compensation, benefits from ecological industrialization | Enterprises and financial and insurance companies |
Midstream | Processing | Labor, use of clean energy | Incentive policies, market access rules, and benefits from ecological industrialization | Government, enterprises, research institutes, and universities |
Downstream | Logistics | Packaging reduction | Policy orientation, standard constraints, public guidance | Government |
Sales | Live streaming at the original place, offline experiences, and brand building | Industrial ecological benefits | Enterprises |
Tea Industry Chain | Typical Low-Carbon Practices | Implementation Pathway | Implementation Entity | |
---|---|---|---|---|
Upstream | Planting, management, and harvesting | Breeding tea varieties, organic fertilizers composed of waste tea residue, agricultural operations using machines, and intercropping in tea gardens | Ecological compensation, benefits from ecological industrialization | Enterprises and financial and insurance companies |
Midstream | Processing | Visiting factories, research and production of tea derivatives such as green tea powder, tea polyphenols [42], energy-saving equipment | Incentive policies, market access rules, and benefits from ecological industrialization | Government, enterprises, research institutes, and universities |
Downstream | Logistics | Origin warehouse | Collaborate with e-commerce platforms and logistics enterprises | Enterprises |
Sales | LCT trading platform, offline experience, and low-carbon ecological certification | Industrial ecological benefits | Government and enterprises |
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Zhang, W.; Zhao, M.; Chen, Y.; Xu, Y.; Ma, Y.; Fan, S. Low-Carbon Ecological Tea: The Key to Transforming the Tea Industry towards Sustainability. Agriculture 2024, 14, 722. https://doi.org/10.3390/agriculture14050722
Zhang W, Zhao M, Chen Y, Xu Y, Ma Y, Fan S. Low-Carbon Ecological Tea: The Key to Transforming the Tea Industry towards Sustainability. Agriculture. 2024; 14(5):722. https://doi.org/10.3390/agriculture14050722
Chicago/Turabian StyleZhang, Waner, Mingyue Zhao, Youcheng Chen, Yinlong Xu, Yongqiang Ma, and Shuisheng Fan. 2024. "Low-Carbon Ecological Tea: The Key to Transforming the Tea Industry towards Sustainability" Agriculture 14, no. 5: 722. https://doi.org/10.3390/agriculture14050722
APA StyleZhang, W., Zhao, M., Chen, Y., Xu, Y., Ma, Y., & Fan, S. (2024). Low-Carbon Ecological Tea: The Key to Transforming the Tea Industry towards Sustainability. Agriculture, 14(5), 722. https://doi.org/10.3390/agriculture14050722