S112046 Power Transmission Performance of Non-Contact Linear Drive System Using Plate Magnets

2013 ◽  
Vol 2013 (0) ◽  
pp. _S112046-1-_S112046-5
Author(s):  
Tomoki HARANO ◽  
Takashi HASEBE
PAMM ◽  
2013 ◽  
Vol 13 (1) ◽  
pp. 483-484 ◽  
Author(s):  
Tobias Meyer ◽  
Christian Hölscher ◽  
Michael Menke ◽  
Walter Sextro ◽  
Detmar Zimmer

2014 ◽  
Vol 926-930 ◽  
pp. 434-439
Author(s):  
Chang Sheng Li ◽  
Juan Cao ◽  
He Zhang

Magnetic resonance wireless power transmission technology is based on the phenomenon of resonant coupling to realize non-contact power transmission via near magnetic field. Based on the mutual coupling model of resonance system, the influence laws of system transmission parameters, such as coil coupling coefficients, load resistance, etc., on the transmission performance are theoretically studied in this paper. The research results shows that the power high-efficiency and high-quality transmission does not depend on the large coil loop coupling coefficient and the working frequencies of maximum power and maximum efficiency transmission do not coincide at most condition. Transmission systems with a high resonance frequency can produce high power and efficiency transmission over short distances. In addition, by increasing the coil diameter or wire diameter can improve the system quality factor, and optimize the energy transmission performance.


2011 ◽  
Vol 108 ◽  
pp. 67-73
Author(s):  
Ke Huang ◽  
Zhi Yong Liang ◽  
Li Ping Zhang ◽  
Le Lu

Contactless electrical energy transmission (CEET) system realizes power transmission with no electrical or physical connection by the perfect combination of inductive coupling technique and electronics. This paper studies the characteristics of the CEET system based on the loosely coupled transformer mathematical model, then analyses the power transmission performance and its changing rules in different compensation topologies. We can get the parameter requirements when the load obtains the maximum transmission power from these studies. This work can provide reference to optimize the circuit design and promote the power transmission ability for the CEET system.


2015 ◽  
Vol 764-765 ◽  
pp. 602-606 ◽  
Author(s):  
Kun Yung Chen ◽  
Rong Fong Fung

In this paper, a mechatronic motor-table system is realized to plan the minimum input electrical energy trajectory (MIEET) based on Hamiltonian function. In this system, the adaptive tracking controller is designed to track the MIEET to overcome the nonlinear friction and external disturbance. Moreover, trapezoidal trajectory (TT) and regulator control are compared with the MIEET by the adaptive tracking controller. Finally, it is concluded that the MIEET based on the adaptive tracking controller can obtain the minimum input electrical energy and robustness performance for the mechatronic motor table system.


The paper ‘GEARLESS DRIVE’ being compact and portable equipment which transmits power at right angle without any gears. Here, the L - shaped joint transmits the input power in such a way that the angular forces are produced and transmitted by the joints. The amount of friction generated is minimal compared to the power being transmitted. The material used for El-bow is made up mild steel material. The mechanism is screwed to the spindle which is driven by the gearless drive transmission connected to the drive system. The entire setup is constructed and placed on the base plate. There is no back lash during the power transmission. Therefore, the efficiency of 90% - 93% can be obtained in a gearless transmission mechanism. The Mechanical drives systems are economic when compared to electrical drives and their control and components are much simpler. These are widely used in industries ranging from aviation to heavy industry. In recent trends and advancements these types of drive has become more efficient


1989 ◽  
Vol 1 (4) ◽  
pp. 328-332
Author(s):  
Tamotsu Suzuki ◽  

Carrying and positioning systems for linear movement in factory automation are typically a combination of a motor and motion-translating mechanisms, such as ball screws, belts, and racks and pinions. Such mechanical motion-translating mechanisms, however, have the disadvantages of limited accuracy, speed, and durability. As a solution to this problem, direct-drive linear motors, which drive an object directly mounted on the drive section, have attracted considerable interest, and various types of linear motors have been actually used. The recent trend in linear motor development has been such that the functions of the motor alone have been expanded into higher functions of the linear drive system. The ""Megathrust Motor"" is a direct drive linear actuator system developed by Nippon Seiko K.K. It has some components, such as a detector and drive unit, which are different from those of other drive systems, and therefore provide high performance and added value. Nippon Seiko K.K. has also developed and marketed a direct drive ""Megatorque Motor."" This motor has achieved high speed and highly accurate rotational drive of industrial robots and general industrial machines, and has been widely used as a rotary actuator in factory automation. The Megathrust Motor is a linear drive system developed as an application of the technology of the Megatorque Motor. This paper describes the features, performance, and applications of the Megathrust Motor.


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