Contents & References of Designing a secure communication network for the reliable operation of micro-grids in the power grid
List:
Abstract 1
Chapter One: General Research
1-1 Introduction 3
1-2 State the problem and necessity of research. 4
1-3 concept of reliability in power system. 7
1-3-1 levels of assurance. 8
1-3-1-1 ability to ensure HLI level 9
1-3-1-2 ability to ensure HLII level 9
1-3-1-3 ability to ensure HLIII level 10
1-3-2 criteria of ability to ensure the ability of power systems. 10
1-3-3 evaluation indicators that can be ensured. 13
1-3-4 assessment methods of assurance. 15
1-3-4-1 analytical methods. 15
1-3-4-2 simulation methods. 18
1-4 Introduction to Smart Bakh. 24
1-4-1 Advantages of smart grids[1] 25
1-4-2 Comparison of smart grid with traditional grid. 27
1-4-3 Infrastructure of smart grid cases. 30
1-4-3-1 communication and measuring equipment. 30
1-4-3-2 distributed power monitoring infrastructures 31
1-4-3-3 are smart feeders. 31
1-4-3-4 communications in smart networks. 32
1-5 Khudrobargdeh 34
1-6 Accountability 36
1-6-1 Introduction. 36
1-6-2 load response 39
1-6-3 definition of load response programs 40
1-6-4 types of load response programs 41
1-6-4-1 incentive load response programs (IBP) 41
1-6-4-2 Time Based Response Programs/Time Tariff (TBRP) 42
1-6-4-3 Direct Load Control (DLC) 44
1-6-4-4 Interruption/Reduction (I/C) 44
1-6-4-5 Sell Demand/Repurchase Programs (DB) 45
1-6-4-6 The impact of DB program on market price change 45
1-6-4-7 Emergency response programs (EDRP) 46
1-6-4-8 Capacity market programs (CAP) 47
1-6-4-9 Ancillary service programs (A/S) 47
1-6-4-10 Time of use (TOU) pricing plans 47
1-6-4-11 Real-time pricing plans (RTP) 48
1-6-4-12 Critical peak time (CPP) pricing plans 48
1-6-5 Benefits of customer presence in the market 50
1-6-5-1 Customer benefits. 50
1-6-5-2 advantages of the network. 50
1-6-5-3 additional benefits. 53
1-6-6 The effect of the execution of accountability programs on the power system. 54
1-6-7 The role of accountability resources on exploiting the power system. 54
1-6-8 Problems of sources of answers 55
1-7 Hypotheses and questions about the authenticity of the truth. 55
8-1 56
The second chapter is an overview of the conducted research (literature and documents, frameworks and basis, history and background of the research)
2-1 Introduction ..58
2-2 Researches carried out in the field of electric cars. 58
2-3 review of the research conducted in studies on the effect of distributed generation resources on reliability 67
2-4 research conducted in the field of smart grids. 72
Chapter 3: Research implementation method
3-1 Introduction..77
3-2 Communication technologies for smart network [41] 77
3-2-1 OSI/ISO layers [44]: 79
3-2-2 Communication technologies. 80
3-2-2-1 IEEE 802 series technology. 80
3-2-2-2 Mobile communication technologies: 92
3-2-2-3 Multiple High Switching Protocol (MPLS) technology: 93
3-2-2-4 Power line communication technology [41]: 94
3-3 standards for information exchange [41] 96
3-3-1 standards for smart meters. 96
3-3-2 Modbus (Modbus) [48]: 97
3-3-3 or network protocol distribution [49] 98
3-3-4 IEC 61850 99
3-4 generations of mobile systems. 99
3-4-1 types of generations of mobile systems [55] 101
3-4-1-1 Characteristics of second-generation systems: 102
3-4-1-2 GPRS (General Packet Radio Service) generation 5/2 systems 102
3-4-1-3 Features of third generation. 103
3-4-1-4 characteristics of the fourth generation. 104
3-4-1-5 benefits of using the GSM network. 107
3-4-1-6 GSM structure: 108
3-4-2 Network Management Center NMC (Network Management System) 115
3-4-3 Summary 115
3-5 Microgrid (microgrid) 116
3-6 Electric Vehicle Modeling. 118
7-3 methods of reliability evaluation in distribution system. 119
3-8 methods used for designing communication systems. 119
3-8-1 related assumptions 120
3-8-2 description of the proposed framework. 121
Chapter Four: Implementation and Results
4-1 Introduction. 124
4-2 Design considerations for the communication system in this thesis. 124
4-2-1 How to model and consider the communication system. 125
4-3125
3-4 cases under study. 125
4-4 network studied in this research. 126
4-5 proposed method for evaluating the reliability. 129
4-6 Collected information 129
4-7 The scenarios under study. 133
4-7-1 First scenario: Absence of communication system. 133
2-4-7-2 scenario: the presence of the communication system in the middle of low information exchange. 133
Scenario 8-4: The existence of a telecommunication system for exchanging information on the network. 135
4-9 Conclusion. 135
Chapter Five: Conclusions and Suggestions
5-1 Introduction. 138
2-5 Conclusion. 138
3-5 suggestions. 139
Sources
Persian sources. 141
Non-Persian sources. 141
English summary. 151
Source:
Articles:
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Dissertation:
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Non-Persian sources:
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