Hybrid Solid State Battery Technologies - Market Shares, Market Strategies and Market Forecasts, 2022 to 2028

Table of Contents

Abstract: Rapid Adoption of EVs Brings Urgency to Developing Hybrid Solid State Batteries for EVs, Renewable Energy Implementation is at the Forefront: Hybrid Solid State Batteries Bring Reliability and Sustainability to Auto Industry

Hybrid Solid State Battery Technologies Executive Summary

• Hybrid Solid State Battery: Energy Density and Longer Range

1. Hybrid Solid-State Battery Technology Market Definition and Market Dynamics

• 1.1 EVs with Hybrid Solid State Battery Chemistries
• 1.2 Batteries with Solid-State Electrolytes Inherently Safer
  • 1.2.1 Hybrid Solid-State Battery Is a Cell Without Any Liquid or Gel Electrolytes
• 1.3 Ionic Materials Liquid Crystal Polymer
• 1.4 Johnson Battery Technologies
  • 1.4.1 Molten Salt
• 1.5 MIT Pulsed Laser Deposition Technique
• 1.6 Electric Vehicles to Use Solid-State Batteries

2. Solid State Battery Market Shares and Forecasts

• 2.1 Solid-State Battery Market Driving Forces
  • 2.1.1 Advantages of Solid-State Batteries for EV
  • 2.1.2 Disadvantages of Lithium-ion Batteries
• 2.2 Solid State Battery Market Shares
• 2.3 Solid State Battery Market Forecasts
• 2.4 EV Solid State Battery Market Segments
  • 2.4.1 Global EV Solid State Battery Market
• 2.5 Solid State Battery Regional Analysis

3. EV Solid State Battery Product Developments

• 3.1 Companies Embrace Renewable Energy
  • 3.1.1 Anheuser-Busch
• 3.2 New 4680 Tesla Batteries Vs. Solid-State Batteries
• 3.3 Ship Filled with Porsches and Bentleys Has Lithium Batteries Catch Fire
  • 3.3.1 Ship Fire
• 3.4 Using Light with Batteries

4. Solid State Battery Research and Technology

• 4.1 Silicon Battery Technology
  • 4.1.1 Silicon Nanowire
• 4.2 Samsung Develops Solid-State Cell with Silver / LG Researchers Eliminate Carbon and Binders from The Anode
• 4.3 Amprius Silicon Nanowire Batteries
• 4.4 ProLogium Core Technologies Ceramic SSBs
• 4.5 Bolloré Group
• 4.6 Materials for Use as Solid Electrolytes
• 4.7 Solid Power Solid State Battery Technology
• 4.8 Japan's Tohoku University Hydride Lithium Superionic Conductor
  • 4.8.1 Complex Hydrides
• 4.9 Amprius® Technologies Stores Lithium in Tiny Silicon Nanowires
• 4.10 BMW Lithium Metal Battery
• 4.11 QuantumScape Solid State Battery
• 4.12 Comparing Separator Materials

5. Solid State Battery Company, University, and Government Agency Profiles

• 5.1 24M
• 5.2 Amperex Technology Ltd. (CATL)
  • 5.2.1 CATL Initial Public Offering in Shenzhen
• 5.3 Amprius
  • 5.3.1 Amprius Technologies Corporate Headquarters in Fremont, California
• 5.4 BASF
• 5.5 Bettergy
• 5.6 BOAO Navigator Battery Holding
  • 5.6.1 BOAO / Mullen Automotive
• 5.7 Bolloré
  • 5.7.1 Bolloré Group Revenue
  • 5.7.2 Bolloré BlueCar
  • 5.7.3 Autolib Blue Solutions
  • 5.7.4 Blue Solutions Solid State Battery Development
  • 5.7.5 Bolloré Solid State Battery Production Capacity
  • 5.7.6 Autolib Red Car Solutions
  • 5.7.7 Bollore Energy Storage Ringo Project by RTE
• 5.8 BYD
• 5.9 CM-EV
  • 5.9.1 Nissan CMF-EV
• 5.10 Enevate
  • 5.10.1 Enevate Silicon-Dominant Battery Technology
  • 5.10.2 EV Battery Equivalent of a Gas Tank. In Addition, It Provides the Vehicle Powertrain
  • 5.10.3 Replace Fossil Fuel Cars with EVs
  • 5.10.4 Extreme Fast Charging Technology
  • 5.10.5 Enevate Manufacturing Capacity
• 5.11 Enovate
• 5.12 Factorial Energy
  • 5.12.1 Factorial's new Solid-State EV Battery
• 5.13 Ilika
• 5.14 Ioniq
• 5.15 Jiawei
• 5.16 Johnson Battery Technologies
• 5.17 LG
  • 5.17.1 LG Energy
  • 5.17.2 LG / Hundai Battery Manufacturing Capacity
  • 5.17.3 General Motors Collaborating with LG Energy Solution on Solid State Batteries
  • 5.17.4 LG / General Motors Battery Manufacturing Capacity
• 5.18 Lishen
  • 5.18.1 Lishen Solid State Battery Win-Screw Extrusion Method
  • 5.18.2 Lishen Battery Manufacturing Annual Production Capacity
  • 5.18.3 Apple, Samsung Electronics, Geely, Hyundai Motor / Lishen Annual Production Capacity
• 5.19 Mobis Energy
• 5.20 Northvolt
  • 5.20.1 Northvolt / Cuberg
• 5.21 ProLogium
  • 5.21.1 ProLogium and Mercedes-Benz Technology Cooperation Agreement to Develop Solid-State Battery Cells for Electric Vehicles
  • 5.21.2 ProLogium and Mercedes-Benz Agreed on Milestones
  • 5.21.3 Softbank Backs ProLogium
  • 5.21.4 ProLogium Major Product Pipelines
  • 5.21.5 ProLogium Production Capacity Able to Meet Their Demand for Solid-State Batteries
  • 5.21.6 ProLogium / Mercedes-Benz
• 5.22 QuantumScape
  • 5.22.1 QuantumScape / Apple
  • 5.22.2 Volkswagen Group
  • 5.22.3 Volkswagen Group / QuantumScape
• 5.23 Riverstone Holdings' Decarbonization Plus Acquisition Corporation III
• 5.24 Samsung SDI
• 5.25 Schneider Electric
  • 5.25.1 Schneider Electric Positions to Implement Electrification of Society At Large
• 5.26 SK Innovation
• 5.27 Sila Nanotechnologies and Enevate
• 5.28 Sion Power
  • 5.28.1 Sion Power Chemically Stable Ceramic Barriers
• 5.29 Solid Power
  • 5.29.1 Solid Power / BMW
  • 5.29.2 Solid Power / Ford
• 5.30 Sony
• 5.31 Tesla
  • 5.31.1 Tesla Canada Industrial Research Chair, Canada Research Chair, Dalhousie University
  • 5.31.2 Tesla / Toyota / Nissan / Honda / Panasonic
• 5.32 Toyota

6. Extended Table of Contents

• Long Table of Contents
• List of Tables and Figures
• Selected Companies Participating in the Solid-State Battery Market

WinterGreen Research,

• WinterGreen Research Methodology
• WinterGreen Research Process
• Market Research Study
• WinterGreen Research Global Market Intelligence Company
• Report Description: Revenue Models Matter

LIST OF TABLES AND FIGURES

• Abstract: Rapid Adoption of EVs Brings Urgency to Developing Hybrid Solid State Batteries for EVs, Renewable Energy Implementation is at the Forefront: Hybrid Solid State Batteries Bring Reliability and Sustainability to Auto Industry
• Figure 1. Solid State Battery
• Figure 2. Hilary Maxson MBA Executive Vice President and Group Chief Financial Officer at Multinational Electrification Schneider Electric
• Figure 3. Sumitomo Electric Industries All-Solid-State Lithium Battery Problems
• Figure 4. Selected Materials Used as Electrolytes in Hybrid Solid-State Batteries
• Figure 5. Johnson Energy Storage.
• Figure 6. MIT Pulsed Laser Deposition to Make Thinner Lithium Electrolytes for Solid-State Lithium-Ion Batteries
• Figure 7. Renewable Energy Storage Metrics
• Figure 8. EV Automotive Company Hybrid Solid-State Battery Market Driving Forces
• Figure 9. Advantages of Solid-State Batteries for EV
• Figure 10. Disadvantages of Solid-State Batteries
• Figure 11. Solid State Battery Market Shares, Dollars, Worldwide, 2021
• Figure 12. Solid State Battery Market Shares, Dollars, Worldwide, 2021
• Figure 13. Solid State Battery Company Descriptions, Worldwide, 2021
• Figure 14. Solid State Batteries Have Their Own Issues, Such as A Shorter Service Life
• Figure 15. Selected Solid State Battery Market Leaders Company Description, Worldwide, 2022 (1)
• Figure 16. Selected Solid State Battery Market Leaders Company Description, Worldwide, 2022 (2)
• Figure 17. Selected Solid State Battery Market Leaders Company Description, Worldwide, 2022 (3)
• Figure 18. Selected Solid State Battery Technology Solution Metrics Worldwide, 2022
• Figure 19. Selected Solid State Battery Technology Solution Metrics, Worldwide, 2022 (2)
• Figure 20. Cathode Market Shares, Dollars, Worldwide, 2021
• Figure 21. Cathode Market Positioning Descriptions, Worldwide, 2021
• Figure 22. Solid State Battery Market Forecasts, Dollars Shipped, Worldwide, 2020-2026
• Figure 23. Solid State Battery Segments, Electric Vehicle, Stationary Storage / Grid, Smart Phones, Power Tools, Laptops, Consumer Electronics, Military / Navy / Drones / UUVs / UAVs, Market Segments, Dollars, Worldwide, 2022-2028
• Figure 24. Solid State Battery Segments, Electric Vehicle, Smart Phones, Stationary Storage / Grid, Power Tools, Laptops, Consumer Electronics, Military / Navy / Drones / UUVs / UAVs, Market Segments, Units Shipped, Worldwide, 2022-2028
• Figure 25. Solid State Battery Segments, Electric Vehicle, Stationary Storage / Grid, Smart Phones, Power Tools, Laptops, Consumer Electronics, Military / Navy Drones / UUVs / UAVs, Market Segments, Percent, Worldwide, 2020-2026
• Figure 26. Other Solid State Battery Market Segments
• Figure 27. Solid State Battery Regional Market Segments, Dollars, Worldwide, 2021
• Figure 28. Solid State Battery Regional Market Segments, Dollars, Worldwide, 2021
• Figure 29. Germany Plans to Speed Up Wind and Solar Projects as It Seeks to Curb Its Dependence on Russian Energy
• Figure 30. Cargo Ship Carrying Porsches and Bentleys Burning and Adrift at Sea
• Figure 31. Benefits of Using Nanowires in Li-Ion Batteries
• Figure 32. Materials for Use as Solid Electrolytes in Solid-State Batteries
• Figure 33. Benefits of Using Nanowires in Solid State Batteries
• Figure 34. Cross Sectional Image of Amprius Technologies' Silicon Nanowire Anode using a Scanning Electron Microscope
• Figure 35. Amprius Technologies' Silicon Nanowire Anode
• Figure 36. Advantages of Amprius Technologies 100% Silicon Nanowire Batteries
• Figure 37. Amprius Technologies' Silicon Nanowire Anode Li-ion Cells
• Figure 38. Amprius Technologies' Cells vs. Tier -1 Energy Density
• Figure 39. Next Generation Cathode Material or Next Generation Anode Material
• Figure 40. QuantumScape Solid State Battery
• Figure 41. Lithium-Metal Anode Enabled by A Solid-State Separator Benefits
• Figure 42. The Promise of Solid-State Lithium-Metal Batteries
• Figure 43. Solid State Battery Separator Materials
• Figure 44. Solid State Battery Systems Using Separator Materials
• Figure 45. QuantumScape Solid-State Landscape
• Figure 46. 24M SemiSolidTM battery
• Figure 47. 24M SemiSolidTM Battery Cell Manufacturing
• Figure 48. 24M Solid State Battery Manufacturing
• Figure 49. 24M Partners
• Figure 50. Amprius Technologies 100% Silicon Nanowire Battery Technology
• Figure 51. Amprius® Technologies 500 Wh/kg Batteries Provide Ultra-High Energy Density and Excellent Cycle Life
• Figure 52. Amprius Technologies Market Segments
• Figure 53. Applications Currently Using Amprius Technologies Batteries
• Figure 54. BOAO Navigator Battery
• Figure 55. Linghang Boao Group Headquarters
• Figure 56. Linghang Boao Group Energy Series
• Figure 57. Linghang Boao Group Ultra-Thin Series
• Figure 58. Linghang Boao Group Test Results
• Figure 59. Linghang Boao Group Fast Charging Series
• Figure 60. Linghang Boao Group Safety Inspection
• Figure 61. Linghang Boao Group Test Results
• Figure 62. Linghang Boao Group Energy Storage Regional Presence
• Figure 63. Mullen Automotive Battery Metrics
• Figure 64. Bolloré BlueCar in France, with Solid State Battery Developed for a Car-Sharing Service
• Figure 65. Bollore's Solid-State Batteries for Electric Cars
• Figure 66. Bollore Solid State Battery Technology
• Figure 67. Bollore All-Solid Cell Benefits
• Figure 68. Bolloré Extrusion of Ultra-Thin Film Anode, Electrolyte, and Cathode Layers
• Figure 69. Bollore LMP® Technology: A Ground-Breaking Solution for Electric Urban Transport
• Figure 70. Bollore Partners for Bus Manufacture
• Figure 71. Benefits Of Solid-State Batteries Compared to Traditional Li-ion Technologies
• Figure 72. Advantages Of Solid-State Batteries Compared to Traditional Li-ion Technologies
• Figure 73. Bolloré Benefits of Solid-State Batteries
• Figure 74. Bollore Innovative Storage Systems in Europe
• Figure 75. Nissan Micra Solid State Battery
• Figure 76. Enevate Investors
• Figure 77. Fast Charge needed for Long-Range Vehicle and City Vehicle
• Figure 78. Enevate Addresses Pain Points for EV Adoption:
• Figure 79. Enevate Delivers:
• Figure 80. Images of the Enovate Electric Car Powered by a Solid-State Battery
• Figure 81. Enovate Electric Car Interior
• Figure 82. Factorial Energy Solid State Battery
• Figure 83. Factorial Energy Solid State Battery Benefits
• Figure 84. Factorial Solid State Battery Cells Advantages
• Figure 85. Jiawei Solid State Battery Positioning
• Figure 86. Jiangsu Solid-state Battery Manufacturing Capacity
• Figure 87. Johnson Energy Storage.
• Figure 88. LG Energy Solution and the University of California San Diego Battery
• Figure 89. GM Ultium Lithium-Ion Battery
• Figure 90. GM Ultium Battery on Chassis
• Figure 91. Lishen Solid State Battery Manufacturing Capacity
• Figure 92. Lishen Battery
• Figure 93. Lishen Commercial, Passenger, and Special Electric Vehicles
• Figure 94. Lishen Solid State Battery Applications
• Figure 95. Mobis
• Figure 96. Mobis Energy Battery Module for eVTOL
• Figure 97. Northvolt Facility
• Figure 98. Mobis Energy Battery Module Metrics for eVTOL
• Figure 99. Northvolt Battery Customers
• Figure 100. Volkswagen Production Line
• Figure 101. Cuberg Solid State Batteries
• Figure 102. Mercedes, ProLogium Pair Up on Solid-State Battery Tech
• Figure 103. ProLogium Solid-State Battery Tech
• Figure 104. ProLogium Automotive Power Solution
• Figure 105. ProLogium Headquarters
• Figure 106. ProLogium PLG's offers BiPolar+ 3D Structure Solid-State EV Battery Pack
• Figure 107. ProLogium Solid State Battery Applications: UPS, AVG, Solar Street Lights, Consumer Electronics, Electric Vehicles, Rideshare Vehicles
• Figure 108. ProLogium Solid State Battery Applications: Energy Storage System, Yacht, Telecom Towers, Solar and Wind Energy System, Touring Car
• Figure 109. ProLogium Solid State Battery
• Figure 110. ProLogium Battery Comparison Table
• Figure 111. Mercedes-Benz Investment into Solid-State Battery Developer ProLogium
• Figure 112. Key remaining Tasks for QuantumScape
• Figure 113. QuantumScape Solid State Batteries
• Figure 114. Key Remaining Tasks for QuantumScape
• Figure 115. Solid Power High-Content Silicon All-Solid-State Batteries in Front Coated Silicon Electrode Layer
• Figure 116. Hilary Maxson MBA Executive Vice President and Group Chief Financial Officer at Multinational Electrification Schneider Electric
• Figure 117. Schneider Electric Solar Panel Charging Stations
• Figure 118. SK Innovation Superior Energy Density
• Figure 119. SK Innovation Battery Cell in Production
• Figure 120. NMC Composition Diagram Illustrates Less Cobalt (Co) Means Lower Cost
• Figure 121. Lithium-ion Battery Material Development and Cell Roadmap
• Figure 122. Sila Nanotechnologies and Enevate Solid State Battery
• Figure 123. Sion Power Licerion® Battery
• Figure 124. Sion Power Battery Metrics
• Figure 125. Sion Power Images
• Figure 126. Sion Power Technology Images
• Figure 127. Sion Power Lithium Metal Technology Images
• Figure 128. Sion Power Battery Packs Can Be Linked Together
• Figure 129. Solid Power Sulfide-Based Solid Electrolytes for Hybrid Solid State Battery
• Figure 130. Solid Power Silicon EV Cell Metrics
• Figure 131. Solid Power Silicon EV Cell Metrics
• Figure 132. Solid Power Silicon EV Cell Prototype Manufacturing
• Figure 133. BMW Solid Power Solid-State Batteries
• Figure 134. Solid Power Partners
• Figure 135. Ford's View of Renewable Energy Storage Metrics
• Figure 136. Ford & BMW Plan to Begin Testing Solid Power Batteries In 2022
• Figure 137. Tesla 4680 Batteries
• Figure 138. Toyota Prototype EV Equipped with a Solid-State Battery