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VIBRATION ISOLATION SCHEME BASED ON ELECTROMAGNETIC SPRING 基于电磁弹簧的隔振方案
IF 0.2 Q4 MULTIDISCIPLINARY SCIENCES Pub Date : 2023-04-26 DOI: 10.55766/sujst-2023-02-e01602
P. Thamboon, Tanatip Mayoon, N. Tanasanchai, Puripong Suthisopapan, Waranont Anukool
Sensitive measurements require a vibration isolation system to safeguard against detrimental tremble. Two types of vibration isolation systems - passive and active - are currently implemented. The spring-based passive designs usually accompany with ineffective low-frequency response. Therefore, the active designs, consisting of sensors, feedback control systems, and actuators, are consolidated to improve the total effectiveness of the cancellation performance. In this work, we focus on developing the actuator founded on electromagnetic spring to be incorporated into our compact quantum gravimeter. Each spring-actuated part comprises two repelling Nd magnets positioned face to face inside a solenoid. With this configuration, the spring can also work in the passive mode via repulsive magnetic force. In the active mode, the exerted force is a result of magnetic fields formed by the magnets and the current-controlled solenoid coils. By changing the coil current, the stiffness of the spring can be modified, and thus the displacement can be controlled.  Different sizes of magnets are explored, and their force behaviors in passive and active modes are characterized. The implementation scheme of the actuator in the quantum gravimeter is also discussed.
敏感的测量需要隔振系统来防止有害的震动。两种类型的隔振系统-被动和主动-目前实施。基于弹簧的无源设计通常伴随着无效的低频响应。因此,由传感器、反馈控制系统和执行器组成的主动设计被整合,以提高抵消性能的总体有效性。在这项工作中,我们重点开发了基于电磁弹簧的致动器,并将其集成到我们的紧凑型量子重力仪中。每个弹簧驱动部分包括两个排斥性钕磁铁,它们面对面地放置在螺线管内。通过这种配置,弹簧也可以通过排斥磁力在被动模式下工作。在主动模式下,施加的力是由磁铁和电流控制的螺线管线圈形成的磁场的结果。通过改变线圈电流,可以改变弹簧的刚度,从而可以控制位移。研究了不同尺寸的磁体,并对其在被动和主动模式下的受力行为进行了表征。讨论了量子重力仪中致动器的实现方案。
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引用次数: 0
STUDY THE EFFECTS OF THE MULTINITE COAT OF THE HIGH SPEED STEEL DRILL BIT IN DRILLING 研究了高速钢钻头多晶涂层在钻井中的作用
IF 0.2 Q4 MULTIDISCIPLINARY SCIENCES Pub Date : 2023-04-25 DOI: 10.55766/sujst-2023-02-e01577
R. Borrisutthekul, Chutimon Makee, Usanee Kitkamthorn, P. Mitsomwang, Nakorn Chayapiwut, Areeya Jaisue, Kabasawa Hitoshi
Drilling is an important metal manufacturing processes. Drill bits are used in drilling to create holes. Wear of drill bits can have an adverse effect on the quality of the drilling hole. To increase the wear resistance of drill bits, surface modifications have been introduced and studied their effectiveness. Multinite coating is a candidate for surface modification techniques to increase wear resistance of the drill bits. In this study, the effect of multinite coating on the wear resistance of drill bits has been investigated. Two types of 6 mm diameters drill bits, the uncoated high speed steel, and the multinite coated high speed steel drill bits, were used to create the hole with 30 mm in depth on ASTM A36 steel. The drilling parameters were 1,100 rpm of rotation speed and 135 mm/min of the feed rate. The thrust force and the cutting torque during drilling were measured by a force sensor. Flank wear on the drill bits were measured by overlap image technique. Also, the roughness of hole surfaces were investigated. Results showed that the higher surface hardness of multinite coated high speed steel drill bit led to a lower flank wear rate at the beginning of drilling. Consequently, built-up of chip on the multinite coated high speed steel drill bit was less compared to the uncoated one. We conclude that the higher surface hardness of multinite coated high speed steel drill bit improves the wear resistance of drill bit by a decrease of wear rate at the beginning of drilling and a lesser amount of chip built-up on the cutting edge and the surface quality of hole after drilling.
钻孔是一种重要的金属制造工艺。钻头是用来钻孔的。钻头的磨损会对钻孔质量产生不利影响。为了提高钻头的耐磨性,引入了表面改性方法,并对其效果进行了研究。多晶涂层是提高钻头耐磨性的一种表面改性技术。本文研究了多晶涂层对钻头耐磨性的影响。使用两种6 mm直径的钻头,未涂层高速钢钻头和多晶涂层高速钢钻头,在ASTM A36钢上钻出30 mm深的孔。钻井参数为1100 rpm的转速和135 mm/min的进给速度。利用力传感器测量钻削过程中的推力和切削扭矩。采用重叠成像技术对钻头侧面磨损量进行了测量。同时,对孔表面粗糙度进行了研究。结果表明,多晶涂层高速钢钻头的表面硬度越高,钻削初期刃口磨损率越低。因此,与未涂覆的高速钢钻头相比,涂覆多镍合金的高速钢钻头上结块较少。结果表明,多晶涂层高速钢钻头的表面硬度越高,钻头的耐磨性越好,钻头初磨率越低,刃口积屑量越少,钻后孔的表面质量越好。
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引用次数: 0
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Suranaree Journal of Science and Technology
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