Tools

References

[1] Maslennikov S, Wang B, Zhang Q, Ma F, et al (2016) A test cases library for methods locating the sources of sustained oscillations. IEEE PES General Meeting, Boston, MA, July 17-21

[2] Wang B, Sun K (2016) Location Methods of Oscillation Sources in Power Systems: A Survey, Journal of Modern Power Systems and Clean Energy. DOI: 10.1007/s40565-016-0216-5

[3] Wang B, Sun K (2016) Formulation and Characterization of Power System Electromechanical Oscillations, IEEE Transactions on Power Systems. DOI:10.1109/TPWRS.2016.2535384

[4] X. Wang; K. Turitsyn(2015) Data-Driven Diagnostics of Mechanism and Source of Sustained Oscillations, IEEE Transactions on Power Systems, DOI:10.1109/TPWRS.2015.2489656

[5] Zhou N, Dagle J (2015) Initial Results in Using a Self-Coherence Method for Detecting Sustained Oscillations. IEEE Trans Power Syst, 30(1):522-530

[6] Wang G, Shen C, Fu L, et al (2015) Transformed periodic orbit mechanism of low frequency oscillations in power systems. Int. J. Circ. Theor. Appl., doi: 10.1002/cta.2073

[7] Jiang C, Liu J, Liu Y, et al (2015) Online forced oscillation detection and identification based on wide area measurement system and CELL theory. Electric Power Automation Equipment, 35(2):125-132

[8] Nudell T, Chakrabrtty A (2015) Graph-theoretic methods for measurement-based input localization in large networked dynamic systems. IEEE Trans Autom Control, 60(8):2114-2128

[9] Yang Y, Liu T, Li X, et al (2015) Discussion on energy mechanism of negative damping and oscillation source locating method based on equivalent circuit method. Automation of Electric Power Systems, 39(10):63-68

[10] Tang F, Wang B, Liao Q, et al (2015) Research on forced oscillations disturbance source locating through an energy approach. Int Trans Electr Energ Syst, doi: 10.1002/etep.2080

[11] Shang X, Gu X, Liang H, et al (2015) Location identification method of disturbance source in forced power oscillation considering unobservability of PMU information. Automation of Electric Power Systems, 39(10):56-62

[12] Sarmadi S, Venkatasubramanian V (2015) Inter-area resonance in power systems from forced oscillations. IEEE Trans Power Syst, PP(99):1-9

[13] Li Y, Huang Y, Liu J, et al (2015) Power system oscillation source location based on damping toruqe analysis. Power System Protection and Control, 43(14):84-91

[14] Zhu Z, Liu D, Liao Q, et al (2015) Disturbance source location of forced power oscillation based on LMS time delay estimation method. Automation of Electric Power Systems, 39(4):58-62

[15] Geng T, Zhang Z, Xiang L, et al (2015) A locating and splitting scheme for disturbance source of forced power oscillation based on the propagation characteristic. Power System Protection and Control, 43(6):98-103

[16] Zhang Q., Luo X, Litvinov E, et al (2014), Advanced grid event analysis at ISO New England using PhasorPoint. IEEE PES General Meeting | Conference & Exposition, National Harbor, MD, USA, 27-31 Jul 2014, 5p

[17] Wang B, Sun K et al (2014) A Study on Fluctuations in Electromechanical Oscillation Frequencies of Power Systems, IEEE PES General Meeting, National Harbor, MD

[18] Chu X, Yin Y, Gao L, et al (2014) A new forced oscillation disturbance source location method based on empirical mode theory. Proceedings of the CSEE, 34(28):4906-4912

[19] Cao X, Liu T, Li X (2014) Disturbance source location for forced power oscillations by wind turbines. Electric Machines and Control, 18(10):81-86

[20] Markham P N, Liu Y (2014) Electromechanical speed map development using FNET/GridEye frequency measurements. IEEE PES General Meeting | Conference & Exposition, National Harbor, MD, USA, 27-31 Jul 2014, 5p

[21] Ashwal N, Wilson D, Parashar M (2014) Identifying sources of oscillations using wide area measurements. Grid of the Future Symposium, CIGRE US National Committee, 2014

[22] Wang M, Sun H (2014) An analysis method for forced power oscillation source detection. Proceedings of the CSEE, 34(34):6209-6215

[23] Xu Y, Wang Z, Weng H (2013) A low frequency oscillation event caused by primal frequency modulation test and its mechanism analysis. Automation of Electric Power Systems, 37(23):119-124

[24] Follum J, Pierre J W (2013) Initial results in the detection and estimation of forced oscillations in power systems. NAPS, Manhattan, KS, 22-24 Sept 2013, 6p

[25] Pu J, Tang Y, Shi X, et al (2013) Oscillation source location based on abnormal signal analysis. IEEE PES APPEEC, Kowloon, Hong Kong, China, 8-11 Dec 2013, 5p

[26] Li W, Li Y, Zhou X, et al (2013) Power system oscillation analysis and oscillation source location based on WAMS part 2: method of torques decomposition. Proceedings of the CSEE, 33(25):47-53

[27] Li W, Guo J, Li Y, et al (2013) Power system oscillation analysis and oscillation source location based on WAMS part 1: method of cutset energy. Proceedings of the CSEE, 33(25):41-46

[28] Wang N, Liao Q, Tang F, Li W (2013) Disturbance source identification based on cutset energy and sensitivity for forced power oscillation. Electric Power Automation Equipment, 33(1):75-80

[29] Chen L, Min Y, Hu W (2013) An energy-based method for location of power system oscillation source. IEEE Trans Power Syst, 28(2):828-836

[30] Li Y, Shen C, Liu F (2013) A methodology for power system oscillation analysis based on energy structure. Automation of Electric Power Systems, 37(13):49-56

[31] Yang Y, Liu T, Li X, et al (2013) An analysis to the concentric relaxation phenomenon of power system forced oscillations. Journal of Sichuan University (Engineering Science Edition), 45(4):163-170

[32] Dosiek L, Zhou N, Pierre J W, et al (2013) Mode shape estimation algorithms under ambient conditions: a comparative review. IEEE Trans Power Syst, 28(2):779-787

[33] Myers R, Trudnowski D (2013) Effects of forced oscillations on spectral-based mode-shape estimation. IEEE PES GM, Vancouver, BC, Canada, 21-25 July 2013

[34] Hu N, Li X, Yang Y, et al (2013) Research for space-time variational features of frequency for power system forced oscillations and disturbance source location. Journal of Sichuan University (Engineering Science Edition), 45(6):135-142

[35] Li Y, Shen, C, Liu F (2012) Oscillation source location in control devices of generators based on Hamiltonian realization. Automation of Electric Power Systems, 36(23):6-11

[36] Yang Y, Liu T, Li X, et al (2012) An equivalent circuit approach to locate souce of power system forced power oscillation. Proceedings of the CSEE, 36(11):101-108

[37] Wu H, Duan Q, Ma J (2012) Disturbance source self-diagnosis of the smart grid. Spring Congress on Engineering and Technology, Xi’an, China, 27-30 May, 2012, 4p

[38] Yang D, Ding J, Li J, et al (2012) A disturbance source location method for forced power oscillations based on parameter identification. Automation of Electric Power Systems, 36(2):26-30

[39] Hu W, Lin T, Gao Y, et al (2012) Disturbance source location of forced power oscillation in regional power grid based on dissipation power. High Voltage Engineering, 38(4):1006-1011

[40] Dong C, Liu D, Liao Q, et al (2012) Research on low frequency oscillation in power grid and location of disturbance source based on energy function. Power System Technology, 36(8):175-181

[41] Duan Q, Zhu Y, Zhou H, Ma J (2012) Impact of load model on disturbance sources locating based on energy function. Shaanxi Electric Power, (8):16-19

[42] Li Y, Shen C, Liu F (2012) An energy-based methodology for locating the source of forced oscillations in power systems. IEEE POWERCON, Auchland, New Zealand, 30 Oct-2 Nov, 2012, 6p

[43] Chen L, Min Y, Hu W (2012) Low frequency oscillation analysis and oscillation source location based on oscillation energy part one mathematical foundation and energy flow computation. Automation of Electric Power Systems, 36(3): 22-27

[44] Chen L, Chen Y, Min Y, et al (2012) Low frequency oscillation analysis and oscillation source location based on oscillation energy part two method for oscillation source location and case studies. Automation of Electric Power Systems, 36(4): 1-5

[45] Dong Q, Zhang L, Yan X (2012) Automatic location of generation units behaving as disturbance source of low-frequency oscillation. Power System Technology, 36(10):265-269

[46] Dong Q, Liang J, Yan X, Yang R (2012) Locating method of disturbance source of low frequency oscillation in large scale power grid. Proceedings of the CSEE, 32(1):78-83

[47] Dong Q, Zhang L, Yan X, Liu X (2012) Automatic locating source method of compelled resonance low frequency oscillation in power grid. Proceedings of the CSEE, 32(28):68-75

[48] Gao Y, Liu D, Huang G, Shi Q (2012) Locating method of disturbance source of forced power oscillation based on Prony analysis. CICED, Shanghai, China, 10-14 Sept 2012

[49] Yang D, Ding J, Li J, et al (2011) Analysis of power system forced oscillation caused by asynchronous parallelizing of synchronous generators. Automation of Electric Power Systems, 35(10):99-103

[50] Hu W, Lin T, Gao Y, et al (2011) Disturbance source location of forced power oscillation in regional power grid. IEEE PEAM, Wuhan, China, 8-9 Sept 2011, 4p

[51] Yu Y, Min Y, Chen L, Ju P (2011) The disturbance source identification of forced power oscillation caused by continuous cyclical load. 4th International Conference on Electric Utility Deregulation and Restructuring and Power Technologies (DRPT), Weihai, Shandong, China, 6-9 July, 2011, 6p

[52] McNabb P, Bochkina N, Bialek J (2010) Oscillation source location in power systems using logic regression. IEEE PES ISGT Europe, Gothenburg, Sweden,11-13 Oct 2010, 8p

[53] McNabb P, Bochkina N, Wilson D, Bialek J (2010) Oscillation source location using wavelet transforms and generalized linear models. IEEE PES Transmission and Distribution Conference and Exposition, New Orleans, LA, USA, 19-22 Apr 2010, 9p

[54] Ma J, Zhang P, Fu H, et al (2010) Application of phasor measurement unit on locating disturbance source for low-frequency oscillation. IEEE Trans Smart Grid, 1(3):340-346

[55] Yu Y (2010) Study on low frequency oscillation in power systems based on energy methods. Dissertation submitted to Tsinghua University, Beijing, China, 138p

[56] Yu Y, Min Y, Chen L, Zhang Y (2010) Disturbance source location of forced power oscillation using energy functions. Automation of Electric Power Systems, 34(5):1-6

[57] Zhu W, Zhou Y, Tan X, et al (2009) Mechanism analysis of resonance-type low-frequency oscillation caused by networks side disturbance. Proceedings of the CSEE, 29(25):37-42

[58] Xu Y, He R, Han Z (2008) Study on resonance mechanism of power system low frequency oscillation induced by turbo-pressure pulsation. Proceedings of the CSEE, 28(1):47-51

[59] Xu Y, He R, Han Z (2007) The cause analysis of turbine power disturbance inducing power system low frequency oscillation of resonance mechanism. Proceedings of the CSEE, 27(17):84-87

[60] Cai G, Mu G, Chan K, Lu F (2004) Branch potential energy method for power system transient stability assessment based on network dynamic variables. Proceedings of the CSEE, 24(5):1-6

[61] Messina A, Ochoa M, Barocio E (2001) Use of energy and power concepts in the analysis of the inter-area mode phenomenon. Electric Power Systems Research, 59(2001) :111-119

[62] Zheng X (2000) The complex torque coefficient approach's applicability analysis and its realization by time domain simulation. Proceedings of the CSEE, 20(6):1-4

[63] Moon Y, Cho B, Lee Y, Kook H (1999) Derivation of energy conservation law by complex line integral for the direct energy method of power system stability. Proceedings of the 38th IEEE Conference on Decision and Control, Phoenix, AZ, USA, 7-10 Dec, 1999, 6p

[64] Cai G, Mu G, Liu Z, Lin Z (1999) Network transient energy function defined on output trajectory. Automation of Electric Power Systems, 23(9):28-32

[65] Feilat E A, Younan N (1999) Online adaptive assessment of the synchronizing and damping torque coefficients using Kalman filtering. Proceedings of the IEEE Southeastcon '99, Lexington, KY, USA, 4p

[66] Thorp J S, Seyler C E, Phadke A G (1998) Electromechanical wave propagation in large electric power systems. IEEE Trans Circuits Syst I, Fundam Theory Appl, 45(6):614-622

[67] Deng J, Liu G, Bian E (1997) Study on Hopf bifurcation in low frequency oscillation. Proceedings of the CSEE, 17(6):391-398

[68] Jinag C, McCalley J, Kommareddy M (1996) An energy approach to analysis of interarea oscillations in power systems. IEEE Trans Power Syst, 11(2):734-740

[69] Rostamkolai N, Piwko R, Matusik A (1994) Evaluation of the impact of a large cyclic load on the LILCO power system using time simulation and frequency domain techniques. IEEE Trans Power Syst, 9(3):1411-1416

[70] Shaltout A A, Feilat E A (1992) Damping and synchronizing torque computation in multimachine power systems. IEEE Trans Power Syst, 7(1):280-286

[71] Cournas C, Krassas N, Papadias B (1991) Analysis of forced oscillations in a multimachine power system. International Conference on Control, Edinburgh, UK, 25-28 Mar 1991, 6p

[72] Alden R T H, Shaltout A A (1979) Analysis of damping and synchronizing torques part I - a general calculation method. IEEE Trans Power App Syst, PAS-98(6):1696-1700

[73] Alden R T H, Shaltout A A (1979) Analysis of damping and synchronizing torques part II - effect of operating conditions and machine parameters. IEEE Trans Power App Syst, PAS-98(6):1701-1708

[74] Demello F, Concordia C (1969) Concepts of synchronous machine stability as affected by excitation control. IEEE Trans Power App Syst, (4):316-329