Welcome to the Industrial Automation website!

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

Break the bottleneck of nuclear power technology development

来源: | 作者:佚名 | 发布时间 :2024-01-03 | 185 次浏览: | Share:

Despite the obvious advantages, the safety issue of nuclear power is still its life. We should make full use of our country's relatively leading advantage in high temperature gas cooled reactor technology, continue to promote relevant technological research, explore the commercial application and commercial advantages of high temperature gas cooled reactor, and seize the commanding heights of the world's nuclear power technology.

Recently, the national science and technology major project - Huaneng Shidao Bay High temperature gas cooled reactor nuclear power plant demonstration project was successfully connected to the grid for the first time, sending out the first degree of electricity, marking the world's first spherical bed modular high temperature gas cooled reactor with the characteristics of the fourth generation of advanced nuclear energy system, achieving a qualitative leap from "laboratory" to "engineering application". It marks that China has become one of the few countries in the world to master the fourth generation nuclear energy technology, which means that China has become the leader of the world nuclear power technology in this field.

The completion of high-temperature gas cooled reactor is expected to open a new route for the application of nuclear energy and become a milestone in the history of human energy progress. As the global economic development continues to increase the demand for energy, people gradually realize that nuclear energy has a large energy density, nuclear power operation is stable, reliable, refuelling cycle is long, the production process almost does not produce carbon emissions, and can be used as a large-scale replacement of fossil energy base load power supply.

Despite the obvious advantages, nuclear power has a big "life gate" - safety. Historically, serious nuclear power plant accidents such as the Three Mile Island in the United States in 1979, Chernobyl in the Soviet Union in 1986, and Fukushima in Japan in 2011 have triggered greater social panic and cast a shadow over the development of nuclear power. It was realized that nuclear reactor cores must be sufficiently cooled at all times, otherwise serious accidents could result. To this end, nuclear power plants have added a variety of water injection and water refill systems, which include a large number of active components such as pumps and valves, and need to ensure the reliability of their power sources, which leads to more complex and large systems, greatly pushing up the cost and cycle of nuclear power construction. The development of nuclear power in the world has also reached a bottleneck.

The principle of nuclear power generation is not much different from that of thermal power plants, which use heat to "boil water", but the latter uses coal, gas, etc., to generate heat, and the former uses nuclear reactors to generate heat. Therefore, the development of the reactor technology with inherent safety, that is, the automatic cooling of the reactor does not rely on human intervention, but only uses the law of nature, has become the development goal that each reactor type has been pursuing. According to international standards, the fourth-generation advanced nuclear energy system has two core indicators: first, no matter what happens to the nuclear power plant, it will not cause damage to the public outside the station; Second, it is economically competitive with other power production methods.

The quasi-commercialization of high temperature gas cooled reactor is a key step to break the bottleneck of nuclear power development. High temperature gas cooled reactor, as the name suggests, refers to a nuclear reactor technology with high temperature characteristics and the use of gas for core cooling, and inherent safety is its core feature. Compared with other reactors, high-temperature gas cooled reactors produce less waste heat, only by natural heat dissipation can take away the heat of the core, and its fuel composition is also very special, can withstand the melting point of about 1600 ° C high temperature. Even if all cooling capacity is lost and a serious accident is faced, without any outside intervention, the reactor can remain in a safe state, and there will be no core meltdown accident, known as the "fool reactor".

While solving the safety problem, the power generation efficiency of high temperature gas cooled reactor has also been greatly improved. The exit temperature of coolant in nuclear reactor has a decisive effect on power generation efficiency. The average temperature of the helium outlet of the high-temperature gas cooled reactor can reach 750℃, and has the potential to increase to 950℃ or more. The thermal efficiency can reach 50% by using the helium circulation mode. Compared with a pressurized water reactor, the power generation capacity of a high-temperature gas cooled reactor is equivalent to 1.5 times that of a pressurized water reactor with the same thermal power.

The high-temperature gas cooled reactor adopts a small modular "LEGO" splicing design, which makes the use of nuclear power more convenient. We can build nuclear power plants like building blocks, this modular design and construction method can greatly shorten the construction cycle of nuclear power plants, while reducing construction costs. Based on the inherent safety characteristics, the high-temperature gas cooled reactor can also greatly simplify emergency measures, and the plant site is more adaptable, and it has the conditions for construction near large and medium-sized cities with relatively dense population.

  • Metso A413177 Digital Interface Control Module
  • METSO A413222 8-Channel Isolated Temperature Input Module
  • Metso A413313 Interface Control Module
  • METSO D100532 Control System Module
  • METSO A413310 8-Channel Digital Output Module
  • METSO A413659 Automation Control Module
  • Metso D100314 Process Control Interface Module
  • METSO A413665 8-Channel Analog Output Module
  • METSO A413654 Automation Control Module
  • Metso A413325 Interface Control Module
  • METSO A413110 8-Channel Analog Input Module
  • METSO A413144 Automation Control Module
  • Metso A413160 Digital Interface Control Module
  • METSO A413152 8-Channel Digital Input Module
  • METSO A413240A Automation Control Module
  • METSO A413146 Digital Interface Control Module
  • METSO A413150 Multi-Role Industrial Automation Module
  • METSO A413125 Automation Control / I/O Module
  • Metso A413111 Interface Control Module
  • METSO A413140 Automation Control Module
  • METSO 020A0082 Pneumatic Control Valve Component
  • METSO 02VA0093 Automation Control Module
  • METSO 02VA0153 Actuator Control Module
  • METSO 02VA0190 Automation Control Module
  • Metso 02VA0193 Pneumatic Control Valve Component
  • METSO 02VA0175 Valve Actuator Module
  • METSO D100308 Industrial Control Module
  • MOOG QAIO2/2-AV D137-001-011 Analog Input/Output Module
  • MOOG D136-002-002 Servo Drive or Control Module
  • MOOG D136-002-005 Servo Drive Control Module
  • MOOG D136E001-001 Servo Control Card Module
  • MOOG M128-010-A001B Servo Control Module Variant
  • MOOG G123-825-001 Servo Control Module
  • MOOG D136-001-008a Servo Control Card Module
  • MOOG M128-010 Servo Control Module
  • MOOG T161-902A-00-B4-2-2A Servo-Proportional Control Module
  • MOTOROLA 21255-1 Electronic Component Module
  • MOTOROLA 12967-1 / 13000C Component Assembly
  • MOTOROLA 01-W3914B Industrial Control Module
  • Motorola MVME2604-4351 PowerPC VMEbus Single Board Computer
  • MOTOROLA MVME162-513A VMEbus Embedded Computer Board
  • MOTOROLA MPC2004 Embedded PowerPC Processor
  • Motorola MVME6100 VMEbus Single Board Computer
  • MOTOROLA MVME162PA-344E VMEbus Embedded Computer Board
  • MOTOROLA RSG2PMC RSG2PMCF-NK2 PMC Expansion Module
  • Motorola APM-420A Analog Power Monitoring Module
  • MOTOROLA 0188679 0190530 Component Pair
  • Motorola 188987-008R 188987-008R001 Power Control Module
  • MOTOROLA DB1-1 DB1-FALCON Control Interface Module
  • MOTOROLA AET-3047 Antenna Module
  • Motorola MVME2604761 PowerPC VMEbus Single Board Computer
  • MOTOROLA MVME761-001 VMEbus Single Board Computer
  • MOTOROLA 84-W8865B01B Electronic System Module
  • Motorola MVIP301 Digital Telephony Interface Module
  • MOTOROLA 84-W8973B01A Industrial Control Module
  • MOTOROLA MVME2431 VMEbus Embedded Computer Board
  • MOTOROLA MVME172PA-652SE VMEbus Single Board Computer
  • Motorola MVME162-223 VMEbus Single Board Computer
  • MOTOROLA BOARD 466023 Electronic Circuit Board
  • Motorola MVME333-2 6-Channel Serial Communication Controller
  • MOTOROLA 01-W3324F Industrial Control Module
  • MOTOROLA MVME335 VMEbus Embedded Computer Board
  • Motorola MVME147SRF VMEbus Single Board Computer
  • MOTOROLA MVME705B VMEbus Single Board Computer
  • MOTOROLA MVME712A/AM VMEbus Embedded Computer Board
  • MOTOROLA MVME715P VMEbus Single Board Computer
  • Motorola MVME172-533 VMEbus Single Board Computer
  • Motorola TMCP700 W33378F Control Processor Module
  • MOTOROLA MVME188A VMEbus Embedded Computer Board
  • Motorola MVME712/M VME Transition Module
  • Motorola 30-W2960B01A Industrial Processor Control Module
  • MOTOROLA FAB 0340-1049 Electronic Module
  • Motorola MVME162-210 VME Single Board Computer
  • Motorola MVME300 VMEbus GPIB IEEE-488 Interface Controller
  • MOTOROLA CPCI-6020TM CompactPCI Processor Board
  • Motorola MVME162-522A VMEbus Single Board Computer
  • MOTOROLA MVME162-512A VMEbus Single Board Computer
  • MOTOROLA MVME162-522A 01-W3960B/61C VMEbus Single Board Computer
  • MOTOROLA MVME162-220 VMEbus Embedded Computer Board
  • Motorola MVME162-13 VMEbus Single Board Computer
  • MOTOROLA MVME162-10 VMEbus Single Board Computer
  • RELIANCE 57C330C AutoMax Network Interface Module
  • RELIANCE 6MDBN-012102 Drive System Module
  • RELIANCE 0-60067-1 Industrial Drive Control Module
  • Reliance Electric 0-60067-A AutoMax Communication Module
  • RELIANCE S0-60065 System Control Module
  • RELIANCE S-D4006-F Industrial Drive Control Module
  • Reliance Electric S-D4011-E Shark I/O Analog Input Module
  • RELIANCE S-D4009-D Drive Control Module
  • RELIANCE S-D4043 Drive Control Module
  • Reliance DSA-MTR60D Digital Servo Motor Interface Module
  • RELIANCE 0-60063-2 Industrial Drive Control Module
  • RELIANCE S-D4041 Industrial Control Module
  • Reliance Electric SR3000 2SR40700 Power Module
  • RELIANCE VZ7000 UVZ701E Variable Frequency Drive Module
  • RELIANCE VZ3000G UVZC3455G Drive System Module
  • Reliance Electric S-D4039 Remote I/O Head Module
  • RELIANCE 0-57210-31 Industrial Drive Control Module
  • RELIANCE 0-56942-1-CA Control System Module
  • Reliance Electric 0-57100 AutoMax Power Supply Module
  • RELIANCE 0-54341-21 Industrial Control Module
  • RELIANCE 0-52712 800756-21B Drive Interface Board
  • KEBA PS242 - Power Supply Module
  • KEBA BL460A - Bus Coupling Module
  • KEBA K2-400 OF457/A Operating Panel
  • KEBA T200-M0A-Z20S7 Panel PC
  • KEBA K2-700 AMT9535 Touch Screen Panel
  • KEBA T20e-r00-Am0-C Handheld Terminal
  • KEBA OP350-LD/J-600 Operating Panel
  • KEBA 3HAC028357-001 DSQC 679 IRC5 Teach Pendant
  • KEBA E-32-KIGIN Digital Input Card
  • KEBA FP005 Front Panel
  • KEBA BT081 2064A-0 Module
  • KEBA FP-005-LC / FP-004-LC Front Panel
  • KEBA SI232 Serial Interface
  • KEBA T70-M00-AA0-LE KeTop Teach Pendant
  • KEBA KEMRO-BUS-8 Bus Module
  • KEBA IT-10095 Interface Terminal
  • KEBA RFG-150AWT Power Supply Unit
  • KEBA C55-200-BU0-W Control Unit
  • KEBA Tt100-MV1 Temperature Module
  • KEBA E-HSI-RS232 D1714C / D1714B Interface Module
  • KEBA E-HSI-CL D1713D Interface Module
  • KEBA D1321F-1 Input Module
  • KEBA E-32-D Digital Input Card
  • KEBA C5 DM570 Digital Module
  • KEBA XE020 71088 Module
  • KEBA E-16-DIGOUT Digital Output Card