DEVICE AND METHOD FOR THE PRODUCTION OF SPECIAL FORMAT OR STONES MASONRY MASONRY STONE SHAPE LINGEN, RESP. MASONRY STONE LINKS.

• 1. 石材巷道开采方法及其设备和用于石材巷道开采的石材背面切割装置 [P] . 中国专利： CN110524725A . 2019-12-03
• 2. 天然石材大批量生产连体角形路沿石、角形台阶板加工方法 [P] . 中国专利： CN103878887A . 2014-06-25
• 3. STONE MASONRY REINFORCING DEVICE FOR STABILIZING A STONE STRUCTURE AGAINST EARTH PRESSURE AND A STONE MASONRY REINFORCING METHOD THEREBY [P] . 韩国专利： KR100475097B1 . 2005-03-14

  机译： 用于稳定抗土压力的石材结构的石材砌体加固装置及其石材加固方法

• 4. STONE MASONRY REINFORCING DEVICE FOR STABILIZING A STONE STRUCTURE AGAINST EARTH PRESSURE AND A STONE MASONRY REINFORCING METHOD THEREBY [P] . 韩国专利： KR100475097B1 . 2005-02-24

  机译： 用于稳定抗土压力的石材结构的石材砌体加固装置及其石材加固方法

• 5. Method for producing hole or recess in masonry stone, particularly lime sand brick or in blank or pellet of masonry stone, particularly lime sand brick blank, involves subjecting processing device to vibrations [P] . 德国专利： DE102010016561A1 . 2011-10-20

  机译： 在砖石，特别是石灰砂砖中，或在砖石或特别是石灰砂砖坯料的坯料或颗粒中产生孔或凹口的方法，涉及使加工装置振动

• 1. Dry Stone Masonry Ductility During an Earthquake [J] . Antonio Morais 中国经济评论：英文版 . 2017,第006期
• 2. Investigations of Physical and Chemical Characteristics of Masonry Stones and Bricks during Building Cleaning： Part 1. Physical Testing [J] . Binsheng Zhang, Humayun Reza, Shiyan Gu, 物理科学与应用：英文版 . 2014,第004期
• 3. Investigations of Physical and Chemical Characteristics of Masonry Stones and Bricks during Building Cleaning： Part 2. Chemical Testing [J] . Binsheng Zhang, Humayun Reza, Shiyan Gu, 物理科学与应用：英文版 . 2014,第004期
• 4. The effects of block shape on the seismic behavior of dry-stone masonry retaining walls: A numerical investigation by discrete element modeling [J] . Yutaka Fukumoto, Jun Yoshida, Hide Sakaguchi, Soils and foundations . 2014,第6期
• 5. Comparison and combination of two NDT methods with implications for compressive strength evaluation of selected masonry and building stones [J] . Yilmaz N. Gunes, Goktan R. M. Bulletin of engineering geology and the environment . 2019,第6期
• 6. Comparison and combination of two NDT methods with implications for compressive strength evaluation of selected masonry and building stones [J] . Yilmaz N. Gunes, Goktan R. M. Bulletin of engineering geology and the environment . 2019,第6期
• 7. The Impact of Stone Shape to the Thermal Stress of Ashlar Masonry [C] . Pavel Beran International Conference on Numerical Analysis and Applied Mathematics . 2015
• 8. Probabilistic seismic vulnerability and risk assessment of stone masonry structures. [D] . Abo El Ezz, Ahmad. 2013
• 9. Thermal performance of brick and stone masonry: Cumulative heat flux dataset for main orientations and under diverse seasonal conditions [O] . Loukas Georgiou, Christiana Panteli, Angeliki Kylili, 2020
• 10. The effects of block shape on the seismic behavior of dry-stone masonry retaining walls: A numerical investigation by discrete element modeling [O] . Fukumoto Yutaka, Yoshida Jun, Sakaguchi Hide, 2014
• 11. Economic Census, 1997: Masonry and Stone Contractors [R] . 1999

• 1. Damage of Historical Stone Masonry Buildings： Combined Effects of Spatial Variability of Stone Properties and Environmental Conditions [J] . Naima Belayachi ,Dashnor Hoxha . 土木工程与建筑：英文版 . 2016,第7期
• 2. Mixed Stone-timber Masonry in Traditional Construction: Structural, Architectural and Anti-seismic Features across Europe [J] . Tiziana Campisi ,Manfredi Saeli ,Liucija Berezanskyt? . 建筑发展研究 . 2018,第2期
• 3. 发挥石材矿资源优势,把新疆建设成为中国第三大石材生产基地 [C] . 田建荣 ,高壮 ,杜焕民 . 第九届中国西部科技进步与经济社会发展专家论坛 . 2007
• 4. 石材加工废料用于制备蓄光自发光型人造石的研究 [A] . 范志强 . 2016