TY  - JOUR
T1  - Santrifuj Pompa için Eddy Akımlı Manyetik Kavramanın Sonlu Elemanlar Analizi
TT  - Finite Element Analysis of Eddy Current Magnetic Coupling for Centrifigual Pump
AU  - Fenercioglu, Ahmet
AU  - Aydın, Enes
AU  - Kocaer, Tuba
AU  - Yıldırım, Kerem
PY  - 2021
DA  - June
Y2  - 2021
JF  - Journal of New Results in Engineering and Natural Sciences
JO  - JRENS
PB  - Tokat Gaziosmanpaşa Üniversitesi
WT  - DergiPark
SN  - 2651-4583
SP  - 1
EP  - 11
IS  - 13
LA  - tr
AB  - Eddy akımı, temassız olarak güç ve hareket aktarmak için kullanılabilmektedir. Bunun için radyal akılı döner bir manyetik rotor içerisinde yer alan demirsiz ve iletken pompa rotorunda bir eddy akımı indüklenir ve bu akımın etkisi ile pompa rotorunda oluşan manyetik alan ve Lorentz kuvveti rotora temassız güç aktarımı sağlar. Manyetik rotor ile pompa rotoru arasındaki hava aralığı, kutup sayısı, mıknatıs kalınlığı, pompa rotorunun et kalınlığı, malzemenin iletkenliği ve manyetik rotorun hızı manyetik kavramanın verimine ve performansına etki etmektedir. Bu etkiler sonlu elemalar yöntemi ile analiz yapan Ansys Maxwell programında çözülmüştür. Bu çalışmada 6 kutuplu, 8 mm kalınlıkta N52 Neodymium mıknatıslı manyetik rotorun 4500 rpm hız ile dönmesi durumunda 3 mm hava aralığında et kalınlığı 5mm olan alüminyum pompa rotorunda 3951 rpm hız ve 0.5 Nm tork üretilmiştir. Bu tasarımda manyetik rotora giren mekanik güç %87,8 oranında pompaya aktarıldığı hesaplanmıştır. 7 mm kalınlıkta bakır rotor kullanıldığında ise verim %92.3 olarak çözülmüştür. Alüminyum rotorlu tasarım imalat kolaylığı ve maliyet açısından tercih edilmiştir.
KW  - Manyetik kavrama
KW  - eddy akımlı kavrama
KW  - manyetik kavramalı pompa
N2  - Eddy currents can be used to transfer power and motion without contact. For this, an eddy current is inducedin the non-ferrous and conductive pump rotor in a radial flux rotary magnetic rotor, and the magnetic fieldand Lorentz force generated in the pump rotor with the effect of this current provide non-contact powertransfer to the rotor. The air gap between the magnetic rotor and the pump rotor, the number of poles, themagnet thickness, the wall thickness of the pump rotor, the conductivity of the material and the speed ofthe magnetic rotor affect the efficiency and performance of the magnetic coupling. These effects are solvedin Ansys Maxwell program, which analyzes with finite element method. In this study, 3951 rpm speed and0.5 Nm torque were generated in an aluminum pump rotor with a wall thickness of 5 mm from a 3 mm airgap when a 6-pole, 8 mm-thick N52 Neodymium magnets when magnetic rotor rotates at 4500 rpm. In thisdesign, it has been calculated that 87.8% of the input mechanical power the magnetic rotor is transferred tothe pump. The efficiency was 92.3% when a 7 mm thick copper rotor was used. Aluminum rotor designhas been preferred for ease of manufacture and low cost
CR  - [1] Wang, J., Lin, H., Fang, S. and Huang, Y. (2014) A general analytical model of permanent magnet eddy current
couplings, IEEE Transaction on Magnetics, 50(1), 1–9.
CR  - [2] Yang, X., Liu,Y. and Wang,L. (2019) Nonlinear Modeling of Transmission Performance for Permanent Magnet
Eddy Current Coupler, Hindawi Mathematical Problems in Engineering, 2019:(1-15).
CR  - [3] Wang J, and Zhu,J. (2018) A Simple Method for Performance Prediction of Permanent Magnet Eddy Current
Couplings Using a New Magnetic Equivalent Circuit Model, IEEE Transactions On Industrial Electronics, Vol.
65(3):2487-2495.
CR  - [4] Fontchastagner,J., Lubin,T, Mezani,S. and Takorabet, N (2018) Design optimization of an axial-field eddy-current
magnetic coupling based on magnetothermal analytical model, Open Physics, 16:21–26, 2018.
CR  - [5] Li,Z., Wang, D., Zheng, and Yu,. L, (2017). Analytical modeling and analysis of magnetic field and torque for
novel axial flux eddy current couplers with PM excitation Information Science and Engineering, Northeastern
University, Shenyang 7(105303):1-13.
CR  - [6] Lubin, T., Fontchastagner, J., Mezani,S., and Rezzoug, A. (2016), Comparison of Transient Performances for
Synchronous and Eddy-current Torque Couplers, XXIIth International Conference on Electrical Machines - ICEM
2016, Lausanne, Switzerland.
CR  - [7] Lubin, T., and Rezzoug,A. (2015). Steady-state and transient performance of axial-field eddy-current coupling,
IEEE Transaction on Industrial Electronics, 62(4), 2287–2296.
CR  - [8] Hamideh K. Razavi and Michael U. Lampérth (2006). Eddy-Current Coupling With Slotted Conductor Disk, IEEE
Transactions on Magnetics, 42(3):405-410.
CR  - [9] Canova and Vusini, B. (2005). Analytical modeling of rotating eddy-current couplers, IEEE Transaction on
Magnetics, 41(1), 24–35.
CR  - [10] Fenercioğlu, A., Avşar, Y. (2020). Finite Element Analysis of Eddy Current Actuator for Linear Motion, IWED
2020, Moskova, Rusya
UR  - https://dergipark.org.tr/tr/pub/jrens/issue//866410
L1  - https://dergipark.org.tr/tr/download/article-file/1526654
ER  -