Welcome to the Industrial Automation website!

NameDescriptionContent
HONG  KANG
E-mail  
Password  
  
Forgot password?
  Register
当前位置:

Ten thoughts on the evolution of the underlying logic of the new power system

来源: | 作者:佚名 | 发布时间 :2024-01-25 | 1123 次浏览: | Share:

Building a new type of power system is a dynamic process in which new energy is gradually developed as the main energy source, and different basic contradictions should be focused on solving at different stages of development.

In the different stages of the gradual development of new energy as the main energy, policy design should take into account the relationship between development and emission reduction, overall and local, short and medium term, while giving full consideration to the orderly transformation of coal power and moderate development of gas power needs, actively promote and friendly tolerance of different forms of new energy development. And its different stages of development of technical characteristics, cost characteristics to adapt to.

Building a new power system and continuously promoting new energy to become the main energy can be roughly divided into three stages: the first stage, promoting the development of new energy to become the main body of electric power installation; The second stage is to promote the development of new energy as the main body of electricity and power supply. New energy is not only the main body of power supply quantity, but also the main body of function and responsibility that can ensure the safe and stable operation of the new power system. The third stage is to promote the development of new energy as the main body of energy production and consumption in the whole society, and the utilization of new energy is deeply coupled with the energy production and consumption modes of industry, construction, transportation and other industries, forming various new forms of industrial energy integration such as "new energy +", "digital +" and "transaction +", supporting the future social development of highly electrified, low-carbon, digital, intelligent and interactive. High quality to achieve national carbon neutrality targets.

Building a new power system with new energy as the main body is a process of continuous dynamic evolution. At different stages of development, targeted policies should be designed around actively promoting and friendly absorbing the development of different forms of new energy distribution. Whether it is centralized development, or distributed utilization, or the integration form of centralized planning and distributed utilization such as photovoltaic county development, it is necessary to iteratively optimize the development model of new energy according to the changes in the technical characteristics and cost characteristics of new energy utilization, and make corresponding adjustments to the policy.

The decisive factor that determines the fundamental characteristics of the evolution direction and process of the new power system is the overall consideration of the stage capacity of social energy use and the long-term economy under the condition of security constraints. The construction of a new power system, if viewed from an economic perspective, is bound to be a dynamic process that can economically solve the cost of energy transformation, the cost of new systems and the cost of low carbon and zero carbon energy use in the industry at different stages of development.

The policy design of different development stages should grasp the main contradiction of ensuring long-term economy, and seek high economic solutions to the cost of energy transformation, the cost of new systems and the cost of low carbon and zero carbon energy use in the industry.

At different stages of development, the policy design for building a new power system should focus on solving the main cost growth problems in a specific stage of development.

In general, it is necessary to focus on solving the cost of new energy power generation in the initial stage, and to comprehensively solve the cost growth problems such as the cost of coal power transformation, the cost of new systems and the cost of low carbon zero carbon energy use in the industry.

Over the past 10 years, thanks to industrial policy support, technological resource accumulation and continuous capital investment, the cost of new energy power generation has been significantly reduced.

Research shows that around 2026, the levelized electricity cost of photovoltaic and onshore wind power in China will be lower than the cost of coal power.

However, the cost of new energy when it is connected to the grid node is not the cost of end-user electricity. Practice shows that after the penetration rate of new energy exceeds 15%, the system cost will rise significantly. At the same time, the future development must simultaneously consider the gradual withdrawal of coal power and the significant decline in the utilization hours of existing coal power units and other energy transformation costs, as well as the cost of accelerating the upgrading of various industries under the dual-carbon background. All walks of life from the high-carbon technology route to the low-carbon, zero-carbon technology route, need to invest a lot of technological innovation costs and energy mode conversion costs.

For example, in terms of solving the new system costs under the condition of high penetration of new energy, the future policy design must adhere to the government and the market.

  • FOXBORO P0912CB I/O Terminal Module
  • FOXBORO P0911VJ high-precision control module
  • FOXBORO P0911QC-C 8-channel isolated output module
  • FOXBORO P0911QB-C High Performance Industrial Module
  • FOXBORO P0903ZP Embedded System Debugging Module
  • FOXBORO P0903ZN control module
  • FOXBORO P0903ZL High Frequency Industrial Module
  • FOXBORO P0903ZE I/A series fieldbus isolation module
  • FOXBORO P0903NW Industrial Control Module
  • FOXBORO P0903NQ control module
  • FOXBORO P0903AA Industrial Control Module
  • FOXBORO FBM205 cable
  • FOXOBORO P0960HA I/A series gateway processor
  • FOXBORO P0926TP high-performance control module
  • FOXBORO P0926KL control module
  • FOXBORO P0926KK PLC system functional module
  • FOXBORO P0924AW wireless pressure transmitter
  • FOXBORO P0916NK differential pressure transmission cable
  • FOXBORO P0916JQ PLC module
  • FOXBORO P0916JP I/A series control module
  • FOXBORO P0916GG Digital Input Module
  • FOXBORO P0916DV I/A series digital input module
  • FOXBORO P0916DC Terminal Cable
  • FOXBORO P0916DB I/A series PLC module
  • FOXBORO P0914ZM recognition module
  • FOXBORO P0902YU control module
  • FOXBORO P0901XT Process Control Unit
  • FOXBORO P0800DV fieldbus extension cable
  • FOXBORO P0800DG Standard Communication Protocol Module
  • FOXBORO P0800DB Universal I/O Module
  • FOXBORO P0800DA Industrial Control Module
  • FOXBORO P0800CE control module
  • FOXBORO P0700TT Embedded System
  • FOXBORO P0500WX Control System Module
  • FOXBORO P0500RY Terminal Cable Assembly
  • FOXBORO P0500RU control module
  • FOXBORO P0500RG Terminal Cable
  • FOXBORO P0400ZG Node Bus NBI Interface Module
  • FOXBORO P0400GH fieldbus power module
  • FOXBORO FBM207B Voltage Monitoring/Contact Induction Input Module
  • FOXBORO FBM205 Input/Output Interface Module
  • FOXBORO FBM18 Industrial Controller Module
  • FOXBORO FBM12 Input/Output Module
  • FOXBORO FBM10 Modular Control System
  • FOXBORO FBM07 Analog/Digital Interface Module
  • FOXBORO FBM05 redundant analog input module
  • FOXBORO FBM02 thermocouple/MV input module
  • FOXBORO FBI10E fieldbus isolator
  • FOXBORO DNBT P0971WV Dual Node Bus Module
  • FOXBORO CP30 Control Processor
  • FOXBORO CM902WX Communication Processor
  • FOXBORO AD202MW Analog Output Module
  • FOXBORO 14A-FR Configuration and Process Integration Module
  • FOXOBORO 130K-N4-LLPF Controller
  • FUJI FVR004G5B-2 Variable Frequency Drive
  • FUJI FVR008E7S-2 High Efficiency Industrial Inverter
  • FUJI FVR008E7S-2UX AC driver module
  • FUJI RPXD2150-1T Voltage Regulator
  • FUJI NP1PU-048E Programmable Logic Control Module
  • FUJI NP1S-22 power module
  • FUJI NP1AYH4I-MR PLC module/rack
  • FUJI NP1BS-06/08 Programmable Controller
  • FUJI NP1X3206-A Digital Input Module
  • FUJI NP1Y16R-08 Digital Output Module
  • FUJI NP1Y32T09P1 high-speed output module
  • FUJI NP1BS-08 Base Plate​
  • FUJI A50L-2001-0232 power module
  • FUJI A50L-001-0266 # N Programmable Logic Control Module
  • GE GALIL DMC9940 Advanced Motion Controller
  • GE DMC-9940 Industrial Motion Control Card
  • GE IS200AEADH4A 109W3660P001 Input Terminal Board
  • GE IC660HHM501 Portable Genius I/O Diagnostic Display
  • GE VMIVME 4140-000 Analog Output Board
  • GE VMIVME 2540-300 Intelligent Counter
  • GE F650NFLF2G5HIP6E repeater
  • GE QPJ-SBR-201 Circuit Breaker Module
  • GE IC200CHS022E Compact I/O Carrier Module
  • GE IC695PSD140A Input Power Module
  • GE IC695CHS016-CA Backboard
  • GE IC800SS1228R02-CE Motor Controller
  • GE IS215WEMAH1A Input/Output Communication Terminal Board
  • GE CK12BE300 24-28V AC/DC Contactor
  • GE CK11CE300 contactor
  • GE DS3800NB1F1B1A Control Module
  • GE VMIVME2540 Intelligent Counter
  • GE 369B1859G0022 High Performance Turbine Control Module
  • GE VME7865RC V7865-23003 350-930007865-230003 M AC contactor
  • GE SR489-P5-H1-A20 Protection Relay
  • GE IS200AEPGG1AAA Drive Control Module
  • GE IS215UCCCM04A Compact PCI Controller Board
  • GE VME7768-320000 Single Board Computer
  • GE SR489-P5-LO-A1 Generator Protection Relay
  • GE IS215WETAH1BB IS200WETAH1AGC Input/Output Interface Module
  • GE D20 EME210BASE-T Ethernet Module
  • GE IS200EXHSG3REC high-speed synchronous input module
  • GE IS200ECTBG1ADE exciter contact terminal board
  • GE VPROH2B IS215VPROH2BC turbine protection board
  • GE F650BFBF2G0HIE feeder protection relay
  • GE SLN042 IC086SLN042-A port unmanaged switch
  • GE SR489-P1-HI-A20-E Generator Management Relay
  • GE IS400JPDHG1ABB IS410JPDHG1A track module
  • GE IS410STAIS2A IS400STAIS2AED Industrial Control Module
  • GE IS410STCIS2A IS400STCIS2AFF Industrial Control Module
  • GE DS200DCFBG2BNC DS200DCFBG1BNC DC Feedback Board
  • GE VME5565 VMIVME-5565-11000 332-015565-110000 P Reflective Memory
  • GE VMIVME-7807 VMIVMME-01787-414001 350-00010078007-414001 D module
  • GE IS220PDOAH1A 336A4940CSP2 Discrete Output Module
  • GE VMIVME-4150 Analog Output Module
  • GE WESDAC D20 PS Industrial Power Module
  • GE 369B1860G0031 servo drive module
  • GE 369B1859G0021 Input/Output Module
  • GE 208D9845P0008 Motor Management Relay
  • GE IS420UCSCH1A-F.V0.1-A Independent Turbine Controller
  • GE D20EME10BASE-T 820-0474 Ethernet Interface Module
  • GE DS200DCFBG2BNC MRP445970 DC Feedback Board
  • GE IC800SSI228RD2-EE servo motor controller
  • GE IS200JPDMG1ACC S1AT005 Digital Input/Output (I/O) Module
  • GE IS200TSVCH1AED servo input/output terminal board
  • GE IS200TTURH1CCC S1DF00Z Terminal Turbine Plate
  • GE IS200TSVCH1ADC S1CX01H servo input-output board
  • GE IS200TRPGH1BDD S1C5029 Trip Solenoid Valve Control Board
  • GE IS220YAICS1A L Analog Input/Output Module
  • GE UCSC H1 IS420UCSCH1A-F-VO.1-A Controller Module
  • GE UCSC H1 IS420UCSCH1A-B Communication Processing Module
  • GE IC697VDD100 Digital Input Module
  • GE V7768-320000 3509301007768-320000A0 Controller Module
  • GE IS410TRLYS1B Relay Output Module
  • GE IS415UCVGH1A V7666-111000 VME Control Card