

China Mechanical Engineering ›› 2026, Vol. 37 ›› Issue (10): 2484-2491.DOI: 10.3969/j.issn.1004-132X.2026.10.011
Previous Articles Next Articles
Received:2025-11-27
Online:2026-10-25
Published:2026-11-10
作者简介:耿端阳,男,1997年生,博士、助理教授。研究方向为可持续设计、能源浪费、制造业可持续发展。发表论文10篇。E-mail:dy.geng@sjtu.edu.cn。
基金资助:CLC Number:
GENG Duanyang. Product Energy Profile Model-based Method for Energy Benchmark Modeling and Waste Identification for Manufacturing Processes[J]. China Mechanical Engineering, 2026, 37(10): 2484-2491.
耿端阳. 基于产品能谱模型的制造过程能耗基准建模与浪费识别方法[J]. 中国机械工程, 2026, 37(10): 2484-2491.
Add to citation manager EndNote|Ris|BibTeX
URL: https://www.cmemo.org.cn/EN/10.3969/j.issn.1004-132X.2026.10.011
| 工序ID | 工序名称 | 能源类型 | 主要耗能子系统/设备类型(对应能耗计量单元) |
|---|---|---|---|
| S1 | 原料制备 | 电 | 破碎及输送系统(原热车间辅机电表) |
| S2 | 生料粉磨与煅烧 | 电、气 | 球磨系统(制粉主电表);煅烧系统(原料车间天然气表、三控电表) |
| S3 | 配料与制浆 | 电、气 | 制浆及搅拌系统(粉料制备车间电表) |
| S4 | 板材成形与凝固 | 电 | 成形系统(一控电表) |
| S5 | 板材干燥与成品处理 | 电、气 | 干燥窑系统(制板车间天然气表、二控电表) |
Tab.1 Mapping relationship between gypsum board production processes and energy consumption units
| 工序ID | 工序名称 | 能源类型 | 主要耗能子系统/设备类型(对应能耗计量单元) |
|---|---|---|---|
| S1 | 原料制备 | 电 | 破碎及输送系统(原热车间辅机电表) |
| S2 | 生料粉磨与煅烧 | 电、气 | 球磨系统(制粉主电表);煅烧系统(原料车间天然气表、三控电表) |
| S3 | 配料与制浆 | 电、气 | 制浆及搅拌系统(粉料制备车间电表) |
| S4 | 板材成形与凝固 | 电 | 成形系统(一控电表) |
| S5 | 板材干燥与成品处理 | 电、气 | 干燥窑系统(制板车间天然气表、二控电表) |
| 工序ID | 工序名称 | 平均单位电耗/ (10-4 kW·h·m-²) | 平均单位热耗/ (10-4 N·m³·m-²) | 平均单位综合能耗/ (10-4 kW·h·m-²) | 综合能耗占比/% |
|---|---|---|---|---|---|
| 合计 | 2435.82 | 3868.76 | 41 123.42 | 100.0 | |
| S1 | 原料制备 | 394.91 | 394.91 | 1.0 | |
| S2 | 生料粉磨与煅烧 | 522.14 | 1836.12 | 18 883.34 | 45.9 |
| S3 | 配料与制浆 | 132.69 | 132.69 | 0.3 | |
| S4 | 板材成形与凝固 | 74.87 | 74.87 | 0.2 | |
| S5 | 板材干燥与成品处理 | 1311.21 | 2032.64 | 21 637.61 | 52.6 |
Tab.2 Refined energy product profile data of standard 9.5 mm gypsum board products
| 工序ID | 工序名称 | 平均单位电耗/ (10-4 kW·h·m-²) | 平均单位热耗/ (10-4 N·m³·m-²) | 平均单位综合能耗/ (10-4 kW·h·m-²) | 综合能耗占比/% |
|---|---|---|---|---|---|
| 合计 | 2435.82 | 3868.76 | 41 123.42 | 100.0 | |
| S1 | 原料制备 | 394.91 | 394.91 | 1.0 | |
| S2 | 生料粉磨与煅烧 | 522.14 | 1836.12 | 18 883.34 | 45.9 |
| S3 | 配料与制浆 | 132.69 | 132.69 | 0.3 | |
| S4 | 板材成形与凝固 | 74.87 | 74.87 | 0.2 | |
| S5 | 板材干燥与成品处理 | 1311.21 | 2032.64 | 21 637.61 | 52.6 |
| 排序 | 工序ID | 能源类型 | 单位平均 能耗 | 标准差 | 波动率/% |
|---|---|---|---|---|---|
| 1 | S3 | 电 | 132.69 | 43.28 | 32.61 |
| 2 | S2 | 天然气 | 1836.12 | 357.43 | 19.47 |
| 3 | S1 | 电 | 394.91 | 75.85 | 19.21 |
| 4 | S2 | 电 | 522.14 | 92.28 | 17.67 |
| 5 | S4 | 电 | 74.87 | 5.95 | 7.95 |
| 6 | S5 | 电 | 1311.21 | 103.98 | 7.93 |
| 7 | S5 | 天然气 | 2032.64 | 152.52 | 7.50 |
Tab.3 Analysis of CV for energy consumption process
| 排序 | 工序ID | 能源类型 | 单位平均 能耗 | 标准差 | 波动率/% |
|---|---|---|---|---|---|
| 1 | S3 | 电 | 132.69 | 43.28 | 32.61 |
| 2 | S2 | 天然气 | 1836.12 | 357.43 | 19.47 |
| 3 | S1 | 电 | 394.91 | 75.85 | 19.21 |
| 4 | S2 | 电 | 522.14 | 92.28 | 17.67 |
| 5 | S4 | 电 | 74.87 | 5.95 | 7.95 |
| 6 | S5 | 电 | 1311.21 | 103.98 | 7.93 |
| 7 | S5 | 天然气 | 2032.64 | 152.52 | 7.50 |
| 工序ID | 能源 类型 | 实际 总用量 | 理论 最佳总量 | 可优化量 | 可优化百分比/% |
|---|---|---|---|---|---|
| S3 | 电 | 15 824.52 | 9316.46 | 6508.06 | 41.13 |
| S2 | 电 | 61 966.42 | 42 776.43 | 19 189.99 | 30.97 |
| S2 | 天然气 | 216 680.07 | 151 999.25 | 64 680.82 | 29.85 |
| S1 | 电 | 46 533.09 | 34 258.81 | 12 274.28 | 26.38 |
| S4 | 电 | 8896.34 | 8179.09 | 717.25 | 8.06 |
| S5 | 电 | 155 648.79 | 145 432.87 | 10 215.92 | 6.56 |
| S5 | 天然气 | 241 619.72 | 225 251.66 | 16 368.06 | 6.77 |
| 合计 | 电 | 288 869.16 | 239 963.66 | 48 905.51 | 16.93 |
| 天然气 | 458 299.79 | 377 250.91 | 81 048.89 | 17.69 |
Tab.4 Quantification of energy waste and optimisation potential (9-day total)
| 工序ID | 能源 类型 | 实际 总用量 | 理论 最佳总量 | 可优化量 | 可优化百分比/% |
|---|---|---|---|---|---|
| S3 | 电 | 15 824.52 | 9316.46 | 6508.06 | 41.13 |
| S2 | 电 | 61 966.42 | 42 776.43 | 19 189.99 | 30.97 |
| S2 | 天然气 | 216 680.07 | 151 999.25 | 64 680.82 | 29.85 |
| S1 | 电 | 46 533.09 | 34 258.81 | 12 274.28 | 26.38 |
| S4 | 电 | 8896.34 | 8179.09 | 717.25 | 8.06 |
| S5 | 电 | 155 648.79 | 145 432.87 | 10 215.92 | 6.56 |
| S5 | 天然气 | 241 619.72 | 225 251.66 | 16 368.06 | 6.77 |
| 合计 | 电 | 288 869.16 | 239 963.66 | 48 905.51 | 16.93 |
| 天然气 | 458 299.79 | 377 250.91 | 81 048.89 | 17.69 |
| [1] | International Energy Agency. Energy Technology Perspectives 2023[R]. Paris: IEA, 2023. |
| [2] | YANG M, EVANS S. Rapid Decarbonization Requires Industrial Efficiency[J]. Nature Reviews Clean Technology, 2025, 1(1): 4-5. |
| [3] | SCHMITT T, MATTSSON S, FLORES-GARCÍA E, et al. Achieving Energy Efficiency in Industrial Manufacturing[J]. Renewable and Sustainable Energy Reviews, 2025, 216: 115619. |
| [4] | 耿端阳, 许通, 朱庆华, 等. 数字化能源管理系统促进工业界节能减碳的分析与建议[J]. 中国科学院院刊, 2024, 39(2): 311-322. |
| GENG Duanyang, XU Tong, ZHU Qinghua, et al. Analysis and Recommendations for Energy Conservation and Carbon Emission Reduction in Industry Boosted by Digital Energy Management Systems[J]. Bulletin of Chinese Academy of Sciences, 2024, 39(2): 311-322. | |
| [5] | MAY G, STAHL B, TAISCH M, et al. Energy Management in Manufacturing: from Literature Review to a Conceptual Framework[J]. Journal of Cleaner Production, 2017, 167: 1464-1489. |
| [6] | SOORI M, AREZOO B, DASTRES R. Internet of Things for Smart Factories in Industry 4.0, a Review[J]. Internet of Things and Cyber-Physical Systems, 2023, 3: 192-204. |
| [7] | MA S, DING W, LIU Y, et al. Digital Twin and Big Data-driven Sustainable Smart Manufacturing Based on Information Management Systems for Energy-intensive Industries[J]. Applied Energy, 2022, 326: 119986. |
| [8] | ÁLVAREZ-ÁLVAREZ T, BARBÓN A, BAYÓN L, et al. Energy, Exergy, Sustainability, Environmental Emission, and Fuel Cost Analysis of a Hot-dip Galvanised Steel Wire Process[J]. Energy, 2025, 319: 134897. |
| [9] | SUN W, CAI J, DU T, et al. Specific Energy Consumption Analysis Model and Its Application in Typical Steel Manufacturing Process[J]. Journal of Iron and Steel Research, International, 2010, 17(10): 33-37. |
| [10] | LI Y, CHEN J, WANG Y, et al. Multi-objective Modeling and Evaluation for Energy Saving and High Efficiency Production Oriented Multidirectional Turning Considering Energy, Efficiency, Economy and Quality[J]. Energy, 2024, 294: 130780. |
| [11] | da SILVA F A V, FRANZÃO H S, OUTEIRO J C. Prediction of the Energy Consumption and Surface Integrity in Machining of Inconel 718 Superalloy Using an Orthogonal Cutting Model Considering the Stress State[J]. Journal of Manufacturing Processes, 2025, 149: 82-97. |
| [12] | LONG Y, CAI W, YIN H, et al. Mechanism of a High Performance and Energy Efficiency Parallel Ultrasonic Vibration-assisted Cutting[J]. Energy, 2025, 326: 136244. |
| [13] | XIE Y, DAI Y, ZHANG C, et al. An Integration Model Enabled Deep Learning for Energy Prediction of Machine Tools[J]. Journal of Cleaner Production, 2025, 495: 145075. |
| [14] | BOUSNINA K, HAMZA A, YAHIA N BEN. Modeling Surface Quality, Cost and Energy Consumption during Milling of Alloy 2017A: a Comparative Study Integrating GA-ANN and RSM Models[J]. International Journal of Modelling and Simulation, 2026, 46(1): 16-34. |
| [15] | MA S, ZHANG Y, LV J, et al. Big Data Driven Predictive Production Planning for Energy-intensive Manufacturing Industries[J]. Energy, 2020, 211: 118320. |
| [16] | LI H, YANG D, CAO H, et al. Data-driven Hybrid Petri-net Based Energy Consumption Behaviour Modelling for Digital Twin of Energy-efficient Manufacturing System[J]. Energy, 2022, 239: 122178. |
| [17] | ZHANG M, WANG R. Energy Consumption Forecasting in Non-stationary Machining Processes Based on a Physics-guided Transformer[J]. Computers in Industry, 2025, 171: 104321. |
| [18] | XU Z, ZHANG B, YIP W S, et al. Deep-learning-driven Intelligent Component-level Energy Prediction of Ultra-precision Machine Tools with IoT Platform[J]. Energy, 2025, 320: 135378. |
| [19] | REICHARDT A, MURAWSKI M, BICK M. The Use of the Internet of Things to Increase Energy Efficiency in Manufacturing Industries[J]. International Journal of Energy Sector Management, 2025, 19(2): 369-388. |
| [20] | ZHANG J, LI C, DENG C, et al. Toward Digital Twins for Intelligence Manufacturing: Self-adaptive Control in Assisted Equipment through Multi-sensor Fusion Smart Tool Real-time Machine Condition Monitoring[J]. Journal of Manufacturing Systems, 2025, 82: 301-318. |
| [1] | LING Qihui, YAN Yongyong, LI Xinyu, DAI Juchuan, XU Xiaoqiang. Reconstruction of Excitation Signals for Vibration Environment Simulation Tests of Projectile Road Transportation [J]. China Mechanical Engineering, 2026, 37(8): 2058-2067. |
| [2] | ZHANG Ji, YUAN Haibo, WANG Zhixuan, ZHU Sihua, BAI Zhenhua. Physics-guided Neural Network Model for Predicting Rolling Forces in Aluminum Strip Cold Rolling [J]. China Mechanical Engineering, 2026, 37(5): 1199-1209. |
| [3] | WANG Liming, XIAO Xingyuan, LI Fangyi, WANG Xiaoguang, LI Jianfeng, NIE Yanyan, LIU Weitong, LI Liuyuan, WANG Yitong, WANG Boyun, CUI Yuqi. Overview and Prospects of Data-driven Low-carbon Design and Manufacturing of Electromechanical Products [J]. China Mechanical Engineering, 2026, 37(4): 764-779. |
| [4] | SUN Yue, HUANG Hui, YIN Fangchen. Energy Consumption Prediction of Industrial Robots under High-load Dynamic Conditions [J]. China Mechanical Engineering, 2026, 37(4): 939-947. |
| [5] | Liangliang YANG, Hong CHEN, Wenqi LU. Kernel Regularization Optimal Iterative Learning Control Based on Trajectory Learning under Actuator Constraints [J]. China Mechanical Engineering, 2025, 36(10): 2274-2283. |
| [6] | HU Sheng1, 2, GAO Bingbing1, ZHANG Xi1, LIU Dengji1. Multicollinearity Parameter Feature Selection for Manufacturing Processes Based on LLEs [J]. China Mechanical Engineering, 2025, 36(06): 1238-1246. |
| [7] | ZHAO Peirui1, DENG Chao1, ZHU Bo1, YAN Wenbin1, LIANG Min2, CHEN Min2. Modelling and Optimisation of Dynamic Scheduling in Chinese Materia Medica Pharmaceuticals Workshops Based on Multiple Motivation Drivers [J]. China Mechanical Engineering, 2025, 36(06): 1247-1260,1299. |
| [8] | XIAO Gang, GU Hairui, DONG Jinjin, WANG Qibing, LU Jiawei. Simulation Data-driven Migration Diagnosis Method for Guide Rail Faults in Long-term Service Elevators [J]. China Mechanical Engineering, 2024, 35(01): 125-135. |
| [9] | TIAN Ying, SHAO Wenting, WANG Taiyong. Energy Footprint Modeling and Parameter Optimization in Workshop Manufacturing Processes [J]. China Mechanical Engineering, 2022, 33(21): 2547-2553. |
| [10] |
LI Congbo;YIN Yuxian;XIAO Qinge;LONG Yun;ZHAO Xikun.
Data-driven Energy Consumption Prediction Method of CNC Turning Based on Meta-action
[J]. China Mechanical Engineering, 2020, 31(21): 2601-2611.
|
| [11] | WU Yangdong, ZHANG Taihua, LIU Dan, WANG Yiquan. Data-driven Multi-attribute Optimization Decision-making for Complex Product Design Schemes [J]. China Mechanical Engineering, 2020, 31(07): 865-870. |
| [12] | LI Hao, WANG Haoqi, CHENG Ying, TAO Fei, HAO Bing, WANG Xinchang, JI Yangjian, SONG Wenyan, DU Wenliao, WEN Xiaoyu, GONG Xiaoyun, LI Ke, ZHANG Yingfeng, LUO Guofu, LI Qifeng. Technology and Application of Data-driven Intelligent Services for Complex Products [J]. China Mechanical Engineering, 2020, 31(07): 757-772. |
| [13] | LIU Yinhua, SUN Rui, WU Huan. Latent Structure Modeling and Predictive Quality Control Based on Multi-source Data Streams in the Auto Body Assembly Processes [J]. China Mechanical Engineering, 2019, 30(02): 237-243. |
| [14] | ZHOU Haofei1;LIU Yumin2. Real-time Intelligent Monitoring for Manufacturing Processes with Big Data Based on Deep Belief Networks [J]. China Mechanical Engineering, 2018, 29(10): 1201-1207,1213. |
| [15] | YUAN Guangchao;BAO Jingsong;ZHENG Xiaohu;ZHANG Jie. Tool Life Prediction in Titanium High Speed Milling Processes Based on CNC Real Time Monitoring Data Driven [J]. China Mechanical Engineering, 2018, 29(04): 457-462,470. |
| Viewed | ||||||
|
Full text |
|
|||||
|
Abstract |
|
|||||
