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林业科学 ›› 2026, Vol. 62 ›› Issue (7): 253-266.doi: 10.11707/j.1001-7488.LYKX20250378

• 综合评述 • 上一篇    

破竹机技术发展与应用现状

袁湘月1,陈如瑜1,张子康1,任涛1,周建波2,陈忠加1,*()   

  1. 1. 北京林业大学工学院 北京 100083
    2. 国家林业和草原局哈尔滨林业机械研究所 哈尔滨 150086
  • 收稿日期:2025-06-09 出版日期:2026-07-10 发布日期:2026-07-16
  • 通讯作者: 陈忠加 E-mail:chenzhongjia@bjfu.edu.cn
  • 基金资助:
    国家重点研发计划项目(2024YFD2200700)

Development and Application Status of Bamboo Splitting Machine Technology

Xiangyue Yuan1,Ruyu Chen1,Zikang Zhang1,Tao Ren1,Jianbo Zhou2,Zhongjia Chen1,*()   

  1. 1. College of Engineering, Beijing Forestry University Beijing 100083
    2. Harbin Forestry Machinery Research Institute, National Forestry and Grassland Administration Harbin 150086
  • Received:2025-06-09 Online:2026-07-10 Published:2026-07-16
  • Contact: Zhongjia Chen E-mail:chenzhongjia@bjfu.edu.cn

摘要:

在国家政策有力引导和竹产业规模不断扩张的双重驱动下,竹制品加工需求迅猛增长。作为竹材初加工的核心设备,破竹机的技术水平直接影响产业发展效率和产品质量。为明晰其技术发展脉络,本研究运用文献分析法系统梳理相关理论和技术成果。在理论研究方面,学者们聚焦竹材物理力学特性和破竹力学过程,深入探究破竹速度、刀具角度等参数对破竹质量的影响机制,为设备优化设计提供了重要理论依据。在技术应用层面,破竹机经历从手动、半自动到全自动的演化过程,实现了从人工操作到智能化加工的升级。在关键技术方面,结构设计持续优化,通过开发可调式刀盘和自适应对中机构,有效提升了设备对不同规格竹材的适应性;检测技术取得突破,基于机器视觉的竹径识别系统使得直径测量更为精准可靠;控制系统实现智能化升级,集成PLC与多种传感器构建了闭环控制系统。这些技术进步显著提升了破竹机的加工精度、效率和适应性,为竹材加工自动化提供了可靠的技术支撑。然而,当前破竹机仍存在竹径识别精度不足、刀盘设计与加工效率矛盾突出、对复杂竹材适应性较弱以及智能化程度有限等技术瓶颈,难以满足大规模高精度生产需求。为进一步提升破竹机技术的性能和适应性,推动竹材加工产业高质量发展,提出未来破竹技术研究的重点方向:1) 针对竹材生物力学特性的多样性,深化破竹力和竹材结构参数的作用机制研究,建立多因素耦合的破竹理论模型,为设备优化设计提供科学依据;2) 开发基于深度学习的竹材智能识别系统,融合多光谱成像与三维点云技术,实现复杂工况下竹径、竹节等特征的精准检测和自适应定位;3) 创新破竹机构设计,突破传统旋转刀盘的结构限制,研发复合式切割装置和动态调节系统,解决破竹效率与质量之间的矛盾;4) 构建破竹机智能化生产体系,集成物联网监控、大数据分析和自主决策技术,实现设备状态实时监测、工艺参数动态优化和生产全流程智能管理。这些技术创新将推动破竹机向智能化、高效化、绿色化方向发展,为竹材加工产业高质量发展提供强有力的装备支撑,同时也将为我国竹材装备制造业的转型升级提供新的技术路径。

关键词: 竹工机械, 破竹机, 劈竹机, 竹制品加工, 技术发展, 应用现状

Abstract:

In the context of the ever-expanding scale of the bamboo industry and the robust support from national policies, the demand for bamboo product processing has witnessed a substantial upsurge. The technological level of the bamboo splitting machine, as a pivotal piece of equipment for the primary processing of bamboo, plays a crucial role in determining the efficiency and quality of the industry’s development. To comprehensively understand its technological evolution, this study adopts the literature research approach to systematically review relevant theories and technical accomplishments. In the realm of theoretical research, scholars have focused on the physical and mechanical properties of bamboo, as well as explored the mechanics underlying bamboo splitting. Through in-depth exploration, they have uncovered the influence mechanisms of parameters such as splitting speed and blade angle on splitting quality, thereby laying a theoretical foundation for equipment research and development. At the technical application aspect, bamboo splitting machines have evolved into three major categories: manual, semi-automatic, and fully automatic, successfully transitioning from manual operation to intelligent processing. Regarding key technologies, continuous optimization has been carried out in structural design. Adjustable knife discs and self-adaptive centering mechanisms have been developed, significantly enhancing the equipment’s adaptability to bamboos of various specifications. Breakthroughs have also been made in detection technology, enabling precise measurement of bamboo diameter by leveraging machine vision. Moreover, the control system has been upgraded to intelligence, establishing a closed-loop control system with the integration of programmable logic controllers and sensors. These technological advancements have markedly improved the processing efficiency and adaptability of bamboo splitting machines, offering reliable technical support for the automation of bamboo processing. Nevertheless, the current bamboo splitting machines still encounter several technical bottlenecks. For instance, the accuracy of bamboo diameter recognition remains insufficient, there exists a conflict between knife disc design and processing efficiency, the adaptability to complex bamboo is relatively weak, and the level of intelligence is limited. These issues pose challenges in meeting the requirements of large-scale and high-precision production. To further enhance the performance and adaptability of bamboo splitting machine technology and facilitate the high-quality development of the bamboo processing industry, the following key research directions for future bamboo splitting technology are proposed: 1) Given the diversity of bamboo's biomechanical properties, it is essential to deepen the research on the interaction mechanism between splitting force and bamboo structural parameters. A multi-factor coupling splitting theory model should be established to provide a scientific basis for the optimization design of equipment. 2) An intelligent bamboo recognition system grounded in deep learning, which is integrated with multi-spectral imaging and 3D point cloud technology, to achieve precise detection and adaptive positioning of features such as bamboo diameter and knots under complex working conditions. 3) It is necessary to innovate designs of the splitting mechanism, break through the structural constraints of traditional rotating knife discs, and develop composite cutting devices and dynamic adjustment systems, resolving the conflict between splitting efficiency and quality. 4) It is necessary to construct an intelligent production system for bamboo splitting machines, and integrate internet of things monitoring, big data analysis, and autonomous decision-making technologies to enable real-time monitoring of equipment status, dynamic optimization of process parameters, and intelligent management of the entire production process. These technological innovations are expected to drive bamboo splitting machines towards more intelligence, efficiency, and environmental friendliness. They will not only provide robust equipment support for the high-quality development of the bamboo processing industry but also offer novel technological pathways for the transformation and upgrading of China’s bamboo equipment manufacturing industry.

Key words: bamboo machinery, bamboo splitting machine, bamboo cutting machine, bamboo product processing, technological development, application status

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