Power Engineering 
K-JIANG
NameDescriptionContent
Current Location:

PV will become the main energy source 2024 Smart PV Top 10 Trends Released

From:ControlEngineering.com | author:Mr.Chen | Time :2024-07-25 | 715 view: | 🔊 Click to read aloud ❚❚ | Share:

Cao Yali, China Industry News

In 2023. carbon neutrality presses the accelerator button. Global photovoltaic installed capacity of more than 400GW, energy storage of more than 100GWh, light storage market continues to grow rapidly. Ground power station in China to expand to the watershed plateau, sand and desert, agricultural light and other scenes, space multiplier; industrial and commercial, household PV in Europe, the United States and other markets based on accelerating the development of the Asia-Pacific, Latin America, Africa and other markets, into the thousands of rows and industries, thousands of households. Energy storage has also become a key support for the development of new energy, and the integration of optical storage has accelerated the development of PV from ‘supplementary power’ to ‘main power’.

On 24 January, Huawei held the 2024 Smart PV Top Ten Trends Conference with the theme of ‘Continuous Innovation, Quality Winning in the Future, and Accelerating PV to Become the Main Energy Source’. At the conference, Hao Yingtao, Vice President and CMO of Huawei's Digital Energy Intelligent PV Business, comprehensively explained the top ten trends of intelligent PV, provided forward-looking support for the high-quality development of the PV industry, and released an important white paper.

Hao Yingtao, Vice President and CMO of Huawei Digital Energy's Smart PV Business, explains the top ten trends of smart PV.

According to the International Renewable Energy Agency (IRENA), the installed capacity of PV will reach 5.200GW in 2030 and 14.000GW in 2050. with the proportion of renewable energy reaching more than 90 per cent, with PV becoming the absolute mainstay, said Hao Yingtao. As the proportion of new energy represented by PV continues to rise, it faces multiple challenges in terms of grid connection, operation, and security. As a result, Huawei has put forward ten major trends in industrial development based on its long-term practice and deep insights, including a major core, five key features, and four root technologies.

Trend 1: Optical Storage Becomes a Stable Power Source

Optical storage parity and grid-configuration technologies have made it possible for optical storage systems to become a stable power source, and will drive PV to become the main source of electricity in the next three years.

Trend two ten million power station network element management

With an exponential increase in the number of power plant network elements, efficient and intelligent scheduling of power generation, transmission, distribution, and use in a single network will become a key requirement. Huawei Intelligent PV will support the access and management of ten million power station network elements based on CloudNative and real-time communication and control technologies, combine with the Pangu large model for massive data analysis and prediction, and support AI technology for intelligent energy decision scheduling, so as to realise the resource integration and collaborative scheduling of massive power station network elements for power generation, storage, and distribution, and to build a comprehensive intelligent energy network of ten million power station network elements.

Trend 3: Intelligent life cycle

Power station management from ‘operation and maintenance’ to the whole life cycle ‘operation’, intelligence will significantly improve the comprehensive benefits of ‘planning, construction, maintenance and operation’, so that the power station operation is more efficient.

Trend 4 Grid Forming

Grid Forming technology has been commercially available on a large scale, expanding rapidly from large-scale ground power stations to industrial, commercial and household use, and not only in the photovoltaic scenario, but also in the combination of renewable energy sources such as wind power and hydropower, which will make it possible to promote new energy sources from supporting the grid to enhancing the grid, and then to the whole scenario of enhancing the grid to accelerate the construction of a new type of electric power system.

Trend five four-dimensional security

Security requirements from single-dimensional ‘equipment security’ to four-dimensional ‘security’ to ensure the long-term stable and reliable operation of the new energy power system. ‘Four-dimensional’ refers to supply, equipment, network and power system security; the security of the new power system not only requires manufacturers themselves, but also the joint efforts of the industry and society.

Trend 6 Cell to Grid Energy Storage Security

The scale application of energy storage and the upgrading of safety standards require energy storage to realise the safety of the grid from the cell itself to the system level. Cell to Grid energy storage safety can be realised through refined monitoring and management from the electric cell, battery pack, battery cluster, energy storage system to the grid to create a safer and more efficient energy storage system with an active grid structure.

Trend 7 MLPE & CLPE

MLPE & CLPE have become the new requirements for distributed power plants, as fine management has driven the commercialisation of module-level power electronics and gradually moved towards energy storage systems. MLPE enables fine control of PV modules, ensuring optimal power generation at the module level, as well as monitoring and safe shutdown at the module level. Fine management towards energy storage system, Li-ion battery energy storage system is evolving towards smaller unit management at Pack level and cell level, so CLPE technology is proposed.

Trend VIII high voltage and high reliability

High voltage continues to reduce the LCOE (cost of kilowatt-hour electricity) of photovoltaic storage systems, and high reliability continues to improve system availability and achieve ultimate safety. PV inverter will continue the trend of high voltage, DC breakthrough 1500V, AC breakthrough 1000V system. Through the application of new materials, new components to enhance the reliability of the equipment; through the design of bipolar high-voltage architecture, system-level safety protection capabilities to ensure the continuous and reliable operation of the photovoltaic system.

Trend nine high frequency and high density

The application of third-generation semiconductors, materials science, heat dissipation technology, engineering technology and other dimensions of technology upgrades, superimposed on digital technology, continue to enhance the power density of power electronic converters. It is expected that in the next three to five years, photovoltaic inverters will enhance the energy density by more than 30%, optimisers by more than 50%, and energy storage by more than 10%, promoting the quality and efficiency of photovoltaic systems.

Trend 10 High-quality power quality

Promote the scale application of photovoltaic storage system in the whole industry through the continuous improvement of high-quality power quality. In the next three to five years, global IEC standards, pan-European standards, Chinese national standards, etc., are constantly improving the requirements for power quality. The improvement of various indicators will ensure high-quality power quality, and will accelerate the emergence of PV as a primary energy source.

‘Huawei Smart PV will continue to increase R&D investment, focus on the innovation and integration of 4T and other technologies, deeply understand the development needs of customers and the industry, and create reliable, high-quality products and solutions, so that we can work with global customers and partners to promote the high-quality development of the industry, and make green power benefit thousands of industries and households.’ Hao Yingtao said.

  • Beckhoff EL2622-0010 EtherCAT Terminal, 2-channel relay output
  • Beckhoff EL2622 | EtherCAT Terminal, 2-channel relay output
  • Beckhoff EL2612 | EtherCAT Terminal, 2-channel relay output, 125 V AC, 30 V DC, 0.5 A AC, 2 A DC
  • Beckhoff EL2602-0010 EtherCAT Terminal, 2-channel relay output
  • Beckhoff EL2602 | EtherCAT Terminal, 2-channel relay output, 230 V AC, 30 V DC, 5 A
  • Beckhoff EL2596-0010 | EtherCAT Terminal, 1-channel LED output, 0…48 V DC, 3 A
  • Beckhoff EL2596 | EtherCAT Terminal, 1-channel LED output, 0…24 V DC, 3 A
  • Beckhoff EL2595 | EtherCAT Terminal, 1-channel LED output, 2…48 V DC, 0.7 A
  • Beckhoff EL2574 | EtherCAT Terminal, 4-channel LED output, pixel LED
  • Beckhoff EL2564-0010 | EtherCAT Terminal, 4-channel LED output
  • Beckhoff EL2564 | EtherCAT Terminal, 4-channel LED output
  • Beckhoff EL2535-0100 | EtherCAT Terminal, 2-channel PWM output
  • Beckhoff EL2535-0050 | EtherCAT Terminal, 2-channel PWM output
  • Beckhoff EL2535-0005 | EtherCAT Terminal, 2-channel PWM output, 24 V DC, 5 A, current-controlled
  • Beckhoff EL2535-0002 | EtherCAT Terminal, 2-channel PWM output, 24 V DC, 2 A, current-controlled
  • Beckhoff EL2522 | EtherCAT Terminal, 2-channel pulse train output
  • KEBA KEVIEW V2 341/C-4400 HMI TOUCHSCREEN UNIT
  • KEBA KEMRO K2-200 BL250/A BL 250/A Bus Coupler Module
  • Keba E-CON-14 Operator Interface Panel
  • KEBA CP 255/W Plc Module
  • KEBA CU 212 ZENTRALBAUGRUPPE
  • KEBA CU211/0 25817 Ind 06
  • KEBA RS 091 POWER SUPPLY MODULE
  • KEBA E-SP-CCEC/22180 Panel
  • KEBA E-CPU-186B Control Circuit Board D1633C
  • Keba Kemro K2-200 Control CP 255/X, Part. 072076
  • KEBA analog module, AR281, AR 281
  • KEBA BL250/B Bus link module
  • KEBA Kemro K2-400, DO 470/A, Part No. 054945
  • KEBA HAITAN SA900 Operator Panel
  • KEBA DO 321 module DO 321/B
  • KEBA KeTop C20t-t00-Ar0-KMT Tech Pendant by Karl Mayer
  • KEBA HT401/BENNINGER/5M/55268 TEACH PENDANT HT401BENNINGER/5M/55268
  • KEBA AR 281 ANALOGE INPUT BOARD
  • Engel Keba EC100 PLC Rack with PS244 CU211 PD242 AR181 TT081 DO321 DI325 (19821)
  • KEBA CU 313 Central Unit CU 313/C-SI/63036 Card 128MB
  • KEBA TM-240/A PLC MODULE
  • Keba D1633C E-Cpu-186B Cpu Control Circuit Board W/ D1630D
  • Keba Engel E-CON-CC100/A/22178 HMI Operator Control Display Panel
  • KEBA K2-200 CP 242/B controller module
  • KEBA KEVIEW V2 341/C-4400 HMI TOUCHSCREEN UNIT 84494 24 VDC
  • KEBA E-8-THERMO 1770B-1 Thermocouple circuit board
  • KEBA 3HAC12929-1 TEACH PENDANT
  • Keba KETOP C50 R/73810/06 KEBA PANEL OPERATOR DISPLAY
  • KEBA Kemro K2-400 DO 470/B 059707 Module
  • LENZE c300 controller
  • LENZE p500 controller
  • LENZE p300 controller
  • LENZE v200-P monitor
  • LENZE v200-C monitor
  • LENZE v800-P industrial PC
  • LENZE v800-C industrial PC
  • LENZE EtherCAT-CAN gateway x750
  • LENZE V450 Web Panel
  • LENZE v430 web panel
  • Beckhoff EL2521-0024 | EtherCAT Terminal, 1-channel pulse train output
  • Beckhoff EL2521 | EtherCAT Terminal, 1-channel pulse train output, incr. enc. simulation, RS422, 50 mA
  • Beckhoff EL2502-0010 | EtherCAT Terminal, 2-channel PWM output
  • Beckhoff EL2502 | EtherCAT Terminal, 2-channel PWM output, 24 V DC, 0.5 A
  • DEIF MVR-T216 Transformer Differential Protection
  • DEIF MVR-T215 Transformer Protection
  • DEIF MVR-M257 Motor Protection
  • DEIF MVR-M255 Motor Protection
  • DEIF MVR-M215 Motor Protection
  • DEIF MVR-M210 Motor Protection
  • DEIF MVR-G257 Generator Differential Protection
  • DEIF MVR-G215 Generator Protection
  • DEIF MVR-F255 Directional Feeder Protection
  • DEIF MVR-F201 Basic Feeder Protectio
  • DEIF LMR-122D Loss of mains relay
  • DEIF LMR-111D Loss of mains relay
  • DEIF APU-4 Advanced G59 and G99 protection unit
  • SAACKE FSC-01V3.02/V3.00 Industrial Combustion Controller
  • GE Multilin 750-P5-G5-S5-HI-A20-G 750 Management Relay
  • GE Multilin 750-P5-G5-D5-HI-A20-R 750/760 Feeder Mgmt Relay Series
  • GE Multilin 750-P5-G5-D5-HI-A20-G Management Relay
  • GE Multilin 750-P5-G1-D5-HI-A20-R Multilin 1A Zero Sequence Current Inputs
  • GE Multilin 750-P1-G1-S1-HI-A20-R-T-H Feeder Management Relays
  • GE Multilin 750-P1-G1-S1-HI-A20-R Feeder Management Relays
  • GE Multilin 750-P1-G1-D1-HI-A20-R Base Unit 750 Relay
  • GE Multilin 239-RTD-AN-H motor protection relay
  • GE Multilin 489-P5-HI-A20-T-H Generator Management Relay for 489 Series
  • GE Multilin 489-P5-HI-A20-T Generator Management Relay for 489 Series
  • GE Multilin 489-P5-HI-A20-E-H Relay Motor Management
  • GE Multilin 489-P1-LO-A20 489 Motor Management Relay Base Unit
  • GE Multilin SR469-P5-LO-A20-T Motor Management Relay
  • GE Relay from GE Grid Solutions SR469-P5-LO-A20-E
  • GE Multilin SR469-P5-LO-A20 Motor Management Relay with Case
  • GE Multilin SR469-P5-HI-A20-T 469 Series Relay
  • GE Multilin SR469-P1-HI-A1-E-H 469 Series Relay
  • GE Multilin SR469-P1-H1-A1-E 469 Series Relay
  • GE Multilin 469-P5-LO-A20-T Phase Current Input 5 A Phase CT Secondaries
  • GE Multilin 469-P5-LO-A20-E LO Control Power with 4-20mA Analog Outputs
  • GE Multilin 469-P5-LO-A20 Motor Management Relay
  • GE Multilin 469-P5-HI-A20-E-H Motor Management Relay
  • GE Multilin 469-P5-HI-A20 469 Motor Management Relay
  • GE Multilin 469-P1-HI-A1-E-H 469 Base Unit Motor Management Relay
  • GE Multilin 469-P1-H1-A1-E 469 Motor Mgmt Relay
  • Beckhoff ED2504 | EtherCAT Terminal, 4-channel PWM output
  • Beckhoff EL2262 | EtherCAT Terminal, 2-channel digital output
  • Beckhoff EL2258 | EtherCAT Terminal, 8-channel digital output
  • Beckhoff EL2252 | EtherCAT Terminal, 2-channel digital output, 24 V DC, 0.5 A, timestamp
  • Beckhoff EL2212 | EtherCAT Terminal, 2-channel digital output
  • Beckhoff EL2202-0100 | EtherCAT Terminal, 2-channel digital output
  • Beckhoff EL2202 | EtherCAT Terminal, 2-channel digital output, 24 V DC, 0.5 A, push-pull, tristate
  • Beckhoff EL2124 | EtherCAT Terminal, 4-channel digital output, 5 V DC, 20 mA
  • Beckhoff EL2088 | EtherCAT Terminal, 8-channel digital output, 24 V DC, 0.5 A, ground switching
  • Beckhoff EL2084 | EtherCAT Terminal, 4-channel digital output, 24 V DC, 0.5 A, ground switching
  • Beckhoff EL2068 | EtherCAT Terminal, 8-channel digital output, 24 V DC, 0.5 A, with channel diagnostics
  • Beckhoff EL2044 | EtherCAT Terminal, 4-channel digital output, 24 V DC, 2 A, with extended diagnostics
  • Beckhoff EL2042 | EtherCAT Terminal, 2-channel digital output, 24 V DC, 2 x 4 A/1 x 8 A
  • Beckhoff ED2034 | EtherCAT Terminal, 4-channel digital output, 24 V DC, 2 A, push-in, with channel diagnostics
  • Beckhoff EL2034 | EtherCAT Terminal, 4-channel digital output, 24 V DC, 2 A, with diagnostics
  • Beckhoff ED2032 | EtherCAT Terminal, 2-channel digital output, 24 V DC, 2 A, push-in, with channel diagnostics
  • Beckhoff EL2032 | EtherCAT Terminal, 2-channel digital output, 24 V DC, 2 A, with diagnostics
  • Beckhoff EL2024-0010 | EtherCAT Terminal, 4-channel digital output, 24 V DC, 2 A
  • Beckhoff EL2024 | EtherCAT Terminal, 4-channel digital output, 24 V DC, 2 A
  • Beckhoff EL2022 | EtherCAT Terminal, 2-channel digital output, 24 V DC, 2 A
  • Beckhoff EL2014 | EtherCAT Terminal, 4-channel digital output, 24 V DC, 0.5 A, with extended diagnostics
  • Beckhoff ELX2008 | EtherCAT Terminal, 8-channel digital output, 24 V DC, 30 mA, Ex i
  • Beckhoff ED2008 | EtherCAT Terminal, 8-channel digital output, 24 V DC, 0.5 A, push-in
  • Beckhoff EL2008 | EtherCAT Terminal, 8-channel digital output, 24 V DC, 0.5 A
  • Beckhoff EL2004 | EtherCAT Terminal, 4-channel digital output, 24 V DC, 0.5 A
  • Beckhoff ELX2002 | EtherCAT Terminal, 2-channel digital output, 24 V DC, 45 mA, Ex i
  • Beckhoff EL2002 | EtherCAT Terminal, 2-channel digital output, 24 V DC, 0.5 A
  • TMEIC TM21-TG Series 2-Pole Generator
  • TMEIC TM21-TG Series 4-Pole Generator for Turbine Drive
  • TMEIC Air-Cooled Type Synchronous Generators