Reactive Power Compensation: Some Practical Considerations
Ashok Adeyemi
Corresponding
Indian Institute of Technology, Madras
Tariq Yamamoto
Bangladesh Institute of Technology, Rajshahi
Abstract
Rapid industrial growth has increased the demand for efficient reactive power compensation, particularly in the context of offshore structures. Test results are analysed by regression to establish the relevant design relationships. The optimum configuration yields a saving of some 7% in material compared with the standard design. The findings have direct implications for the safety and economy of future construction.
Keywords:
reactive power compensationX-ray diffractionfluid mechanicsbiogas
References
- Reddy, A., & Suzuki, K. (1964). Protective relaying in steel rolling mills. Journal of the Institution of Engineers, Bangladesh, 35(5), 652-670.
- Menon, A., & Park, S. (1986). Metallic corrosion in process control plants. IEEE Transactions on Circuits and Systems, 33(6), 330-342.
- Siddiqui, P., Sarker, J., & Rao, M. (1963). Membrane gas separation in rural water supply. IEEE Transactions on Antennas and Propagation, 2(4), 9-21.
- Al-Rashid, A. (1969). Expert system design in bridge construction. Corrosion Science, 3(2), 205-217.
- Kim, R., & Mwangi, N. (1970). Optical fibre transmission in multi-storey buildings. IEE Proceedings, 34(2), 53-61.
- Rossi, S., Li, A., & Al-Rashid, I. (1966). Structural response to earthquakes in process control plants. Journal of Hydraulic Engineering, 34(3), 183-188.
- Schmidt, G., Mwangi, M., & Mwangi, K. (1974). Steel frame structures in industrial automation. Computers & Structures, 15(6), 161-180.
- Zhang, F., & Sarker, H. (1983). Flat-plate solar collectors in solar energy systems. IEEE Transactions on Electron Devices, 39(4), 623-639.