Investigation of demand pattern and identification of markets niches for products family: Wind turbines for offshore wind farms

被引:0
|
作者
Yan, Jian [1 ,2 ]
Gao, Changyuan [1 ]
Li, Leixia [3 ]
机构
[1] School of Management, Harbin University of Science and Technology, Harbin,150080, China
[2] Academic Affairs Department, Beijing Information Science and Technology University, Beijing,100192, China
[3] Menoble Co., Ltd, Beijing,100192, China
来源
关键词
K-means clustering - Electric utilities - Offshore oil well production - Sensitivity analysis - Wind speed - International trade - Offshore wind turbines;
D O I
暂无
中图分类号
学科分类号
摘要
A Pattern Classification Based Market Demand Analysis (PC-MDA) technique is developed to investigate the demand pattern and identify the market niches for a family of products. The global market in the case of offshore wind turbines is analyzed. In a family of products, individual product types exhibit certain unique features; these features have significant influence on the market demand of each product. K-means clustering method is used, in conjunction with the Elbow Criterion, to identify the clusters among the different products available in the market. The Batch Perceptron algorithm and the Minimum Squared Error algorithm are used to determine the linear discriminant boundaries (hyperplanes) among clusters, followed by a sensitivity analysis of product features. PC-MDA technique is performed on the offshore wind turbines by using six critical features: (i) rated power, (ii) rotor diameter, (iii) rated wind speed, (iv) cut-in wind speed, (v) cut-out wind speed, and (vi) hub height. The subsequent sensitivity analysis allowed us to identify the cut-in wind speed as a non-classifying product feature. An investigation into the evolution of wind turbines over years is also performed to explore and predict the market requirements for the upcoming line of products (turbines). © 2018, Asian Association for Agricultural Engineering. All rights reserved.
引用
收藏
页码:1 / 12
相关论文
共 50 条
  • [1] Drivers for optimum sizing of wind turbines for offshore wind farms
    Mehta, Mihir
    Zaaijer, Michiel
    von Terzi, Dominic
    WIND ENERGY SCIENCE, 2024, 9 (01) : 141 - 163
  • [2] Design optimization of offshore wind farms with multiple types of wind turbines
    Feng, Ju
    Shen, Wen Zhong
    APPLIED ENERGY, 2017, 205 : 1283 - 1297
  • [3] Investigation on installation of offshore wind turbines
    Wang W.
    Bai Y.
    Journal of Marine Science and Application, 2010, 9 (2) : 175 - 180
  • [4] Wake losses optimization of offshore wind farms with moveable floating wind turbines
    Rodrigues, S. F.
    Pinto, R. Teixeira
    Soleimanzadeh, M.
    Bosman, Peter A. N.
    Bauer, P.
    ENERGY CONVERSION AND MANAGEMENT, 2015, 89 : 933 - 941
  • [5] Optimization of Wind Turbines Placement in Offshore Wind Farms: Wake Effects Concerns
    Baptista, Jose
    Lima, Filipe
    Cerveira, Adelaide
    OPTIMIZATION, LEARNING ALGORITHMS AND APPLICATIONS, OL2A 2021, 2021, 1488 : 102 - 109
  • [6] Distributed Complementary Control Research of Wind Turbines in Two Offshore Wind Farms
    Wang, Bing
    Tian, Min
    Lin, Tingjun
    Hu, Yinlong
    SUSTAINABILITY, 2018, 10 (02)
  • [7] Investigation of Wind Turbine Rotor Concepts for Offshore Wind Farms
    Ceyhan, Ozlem
    Grasso, Francesco
    SCIENCE OF MAKING TORQUE FROM WIND 2014 (TORQUE 2014), 2014, 524
  • [8] Optimum Wind Turbines Operation for Minimizing Wake Effect Losses in Offshore Wind Farms
    Serrano Gonzalez, Javier
    Burgos Payan, Manuel
    Riquelme Santos, Jesus
    2013 13TH INTERNATIONAL CONFERENCE ON ENVIRONMENT AND ELECTRICAL ENGINEERING (EEEIC), 2013, : 188 - 192
  • [9] Minimizing the Energy Cost of Offshore Wind Farms by Simultaneously Optimizing Wind Turbines and Their Layout
    Luo, Longfu
    Zhang, Xiaofeng
    Song, Dongran
    Tang, Weiyi
    Li, Li
    Tian, Xiaoyu
    APPLIED SCIENCES-BASEL, 2019, 9 (05):
  • [10] Minimizing transportation and installation costs for turbines in offshore wind farms
    Sarker, Bhaba R.
    Ibn Faiz, Tasnim
    RENEWABLE ENERGY, 2017, 101 : 667 - 679