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Journal of library and information science in agriculture

   

Digital Literacy, Perception of New Quality Productive Forces, and Green Production Willingness: Evidence from Large-Scale Farmers in Northwest China

WU Yanyan, ZHANG Jinling()   

  1. School of Public Administration, Xinjiang University of Finance & Economics, Urumqi 830000
  • Received:2025-10-21 Online:2026-04-09
  • Contact: ZHANG Jinling E-mail:1571980505@qq.com

Abstract:

[Purpose/Significance] The rapid advancement of digital technologies has created substantial opportunities for promoting green agricultural transformation in China. Digital literacy plays a pivotal role in enabling large-scale farmers to understand and apply modern agricultural technologies, thereby shaping their willingness to adopt environmentally-friendly production practices. As the core actors in agricultural production, farmers' digital competence and their perception of new quality productive forces (PNQPF) directly influence how they respond to digital innovations and participate in green production. However, existing research has not yet established a systematic measurement framework for PNQPF, nor has it clarified the multi-stage cognitive mechanisms through which digital literacy affects farmers' green production willingness. [Method/Process] Drawing upon grounded theory and empirical investigation, this study adopted a mixed-method approach. First, in-depth interviews were conducted with diverse groups of large-scale farmers in northern and southern regions of the Xinjiang Uygur autonomous region, generating a rich textual corpus for qualitative analysis. Through open coding, selective coding, and theoretical coding, two fundamental cognitive dimensions - perception of labor tools and perception of labor objects - were identified, forming the basis of an eight-item PNQPF scale. In the quantitative stage, a structured survey was administered to 352 large-scale farmers across four provinces (Xinjiang, Shaanxi, Gansu, and Qinghai) andNingxia Hui Autonomous Region in Northwest China. The dataset encompasses demographic characteristics, operational features, digital literacy indicators, PNQPF perceptions, and evaluations of green production willingness. Exploratory and confirmatory factor analyses were employed to validate the construct reliability and structural robustness of the PNQPF scale, while regression-based mediation and moderation modeling enabled a systematic examination of the pathways, through which digital literacy influences green production willingness. This integrated analytical framework provides a comprehensive and evidence-based foundation for understanding farmers' decision-making processes in digital agricultural environments. [Results/Conclusions] The findings indicate that digital literacy significantly enhances farmers' willingness to adopt green production practices. Both cognitive dimensions of PNQPF - perception of labor tools and perception of labor objects - serve as key psychological mechanisms, exerting independent mediating effects and jointly forming a chain mediation pathway. This suggests that digital tools not only improve farmers' operational efficiency but also deepen their understanding of production objects, thereby reinforcing environmentally responsible behavior. Digital infrastructure further strengthens the impact of digital literacy on PNQPF, highlighting the importance of a supportive digital environment in amplifying farmers' behavioral transformation. Based on these insights, this study suggests that enhancing farmers' digital competence, improving regional digital infrastructure, and promoting targeted digital extension services are essential for advancing green agricultural development. Nevertheless, the sample is concentrated in Northwest China, where regional disparities in digital development and agricultural structure may limit the generalizability of the findings. Future research should expand the sample scope, incorporate longitudinal data, and explore the evolving role of digital technologies in shaping farmers' production decisions.

Key words: digital literacy, perception of new quality productive forces, perception of labor tools, perception of labor objects, green production willingness

CLC Number: 

  • F323.3

Table 1

Exploratory factor analysis results (N=133)"

题项劳动工具感知劳动对象感知
LTP1我们能够通过智能农机设备提升田间作业效率0.900
LTP2智能灌溉系统能够帮助我们精确控制水资源的使用0.906
LTP3我们利用无人机可以高效地监控农田状态0.825
LTP4数字化平台帮助我们实时记录和分析农作物的生长数据0.883
LOP1我们能够根据作物的生长周期精准安排种植和采收计划0.705
LOP2作物的土壤需求能够通过数据分析实现精确管理0.773
LOP3不同作物的种植需求差异能够通过智能技术得到有效满足0.751
LOP4农田土壤的肥力状况能够通过监测数据实现科学管理0.711

Table 2

Confirmatory factor analysis results (N=260)"

Modelχ²dfχ²/dfRMSEACFITLIIFISRMR
双因子模型45.00419.0002.3690.0730.9780.9680.9780.030
单因子模型494.37920.00024.7190.3030.6040.4460.6070.233

Table 3

Factor loadings and errors (N=260)"

维度题项因子载荷误差
劳动工具感知LTP1我们能够通过智能农机设备提升田间作业效率0.8990.233
LTP2智能灌溉系统能够帮助我们精确控制水资源的使用0.9040.201
LTP3我们利用无人机可以高效地监控农田状态0.7310.564
LTP4数字化平台帮助我们实时记录和分析农作物的生长数据0.8540.312
劳动对象感知LOP1我们能够根据作物的生长周期精准安排种植和采收计划0.8910.398
LOP2作物的土壤需求能够通过数据分析实现精确管理0.8760.383
LOP3不同作物的种植需求差异能够通过智能技术得到有效满足0.6440.961
LOP4农田土壤的肥力状况能够通过监测数据实现科学管理0.5751.335

Fig.1

Mechanism model of digital literacy influencing large-scale farmers' green production willingness"

Table 4

Overview of sample characteristics (N=352)"

样本特征样本量/人占比/%样本特征样本量/人占比/%
性别18151.420种植品种棉花等经济作物19254.545
17148.580玉米等粮食作物16045.455
年龄30岁及以下195.398地区新疆13839.205
31~40岁6317.898陕西8524.148
41~50岁9727.557甘肃5415.341
51~60岁11131.534宁夏4312.216
61岁及以上6217.614青海329.091
学历小学及以下7922.443年收入4万元及以下71.989
初中12034.0914~6万元143.977
高中或中专12234.6597~10万元3610.227
大专246.81811~15万元19154.261
本科及以上71.98916~20万元6819.318
20万元及以上3610.227

Table 5

Measurement items and reliability assessment of core variables"

变量名称测量条目Cronbach's α
数字素养(DL)

我能够通过智能手机或计算机获取与农业生产相关的信息,例如天气预报、市场价格和政策资讯

我能够通过在线课程、教学视频或社交平台学习并掌握新型农业技术或工具的使用方法

我能够根据农田传感器、无人机或数字化平台提供的数据,分析作物的生长状况并据此制定生产决策

0.910
新质生产力感知劳动工具感知(LTP)

我们能够通过智能农机设备提升田间作业效率

智能灌溉系统能够帮助我们精确控制水资源的使用

我们利用无人机可以高效地监控农田状态

数字化平台帮助我们实时记录和分析农作物的生长数据

0.878
劳动对象感知(LOP)

我们能够根据作物的生长周期精准安排种植和采收计划

作物的土壤需求能够通过数据分析实现精确管理

不同作物的种植需求差异能够通过智能技术得到有效满足

农田土壤的肥力状况能够通过监测数据实现科学管理

0.900
绿色生产意愿(GWP)

我愿意投入劳动进行绿色生产

我愿意投入时间进行绿色生产

我愿意投入金钱进行绿色生产

我愿意放弃短期利益进行绿色生产

0.901

Table 6

Descriptive statistics and correlation coefficients of variables (N=352)"

变量均值标准差1234
数字素养5.8120.9291.000
劳动工具感知6.0050.762.591**1.000
劳动对象感知5.9600.777.576**.701**1.000
绿色生产意愿6.0620.752.518**.547**.500**1.000

Table 8

Bootstrap test of mediation effects"

路径间接效应估计值标准误差95%置信区间
下限上限
数字素养-劳动工具感知-绿色生产意愿0.1330.0430.0480.216
数字素养-劳动对象感知-绿色生产意愿0.0300.0160.0020.064
数字素养-劳动工具感知-劳动对象感知-绿色生产意愿0.0420.0210.0030.087

Table 9

Test of moderated mediation effect"

调节路径调节变量:数字化基础设施有条件间接效应95%置信区间
数字素养→劳动工具感知→绿色生产意愿低水平(-SD)0.006[-0.010,0.022]
高水平(+SD)0.097*[0.042,0.162]
差异0.091*[0.034,0.155]
数字素养→劳动工具感知→劳动对象感知→绿色生产意愿低水平(-SD)0.002[-0.004,0.007]
高水平(+SD)0.030*[0.002,0.063]
差异0.029*[0.002,0.060]

Fig.2

Moderating the effect of digital infrastructure on the relationship between digital literacy and labor tool perception"

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