Certainly! Below is a structured overview of 105 battery products, highlighting core functional technologies, articles, and application development cases. This list includes various types of batteries, their technologies, and notable applications.

1. Lithium-Ion Batteries - **Core Technology**: Uses lithium ions as a primary component of its electrochemistry. - **Applications**: Smartphones, laptops, electric vehicles (EVs). - **Case Study**: Tesla's Gigafactory production of lithium-ion batteries for EVs.

2. Solid-State Batteries - **Core Technology**: Utilizes a solid electrolyte instead of a liquid one, enhancing safety and energy density. - **Applications**: Electric vehicles, portable electronics. - **Case Study**: Toyota's development of solid-state batteries for next-gen EVs.

3. Nickel-Metal Hydride (NiMH) Batteries - **Core Technology**: Combines nickel and hydrogen for energy storage. - **Applications**: Hybrid vehicles, power tools. - **Case Study**: Honda's use of NiMH batteries in the Insight hybrid vehicle.

4. Lead-Acid Batteries - **Core Technology**: Electrochemical reaction between lead and sulfuric acid. - **Applications**: Automotive starter batteries, uninterruptible power supplies (UPS). - **Case Study**: Use in traditional vehicles and backup power systems.

5. Lithium Iron Phosphate (LiFePO4) Batteries - **Core Technology**: A type of lithium-ion battery with enhanced thermal stability and safety. - **Applications**: Electric buses, solar energy storage. - **Case Study**: BYD's electric buses using LiFePO4 technology.

6. Sodium-Ion Batteries - **Core Technology**: Utilizes sodium ions, offering a more abundant and cheaper alternative to lithium. - **Applications**: Grid storage, electric vehicles. - **Case Study**: CATL's development of sodium-ion batteries for energy storage.

7. Flow Batteries - **Core Technology**: Uses liquid electrolytes stored in external tanks, allowing for scalable energy storage. - **Applications**: Renewable energy integration, grid storage. - **Case Study**: Vanadium flow batteries used in large-scale energy storage projects.

8. Zinc-Air Batteries - **Core Technology**: Uses oxygen from the air as a cathode reactant, providing high energy density. - **Applications**: Hearing aids, electric vehicles. - **Case Study**: Development of zinc-air batteries for hearing aids by Eargo.

9. Lithium Polymer Batteries - **Core Technology**: A variation of lithium-ion batteries with a polymer electrolyte. - **Applications**: Drones, smartphones, electric vehicles. - **Case Study**: Use in high-performance drones for extended flight times.

10. Alkaline Batteries - **Core Technology**: Uses zinc and manganese dioxide in an alkaline electrolyte. - **Applications**: Household electronics, remote controls. - **Case Study**: Duracell's development of long-lasting alkaline batteries.

11. Graphene Batteries - **Core Technology**: Incorporates graphene to enhance conductivity and energy density. - **Applications**: Electric vehicles, consumer electronics. - **Case Study**: Samsung's research into graphene batteries for faster charging.

12. Lithium-Sulfur Batteries - **Core Technology**: Utilizes sulfur as a cathode material, offering high theoretical energy density. - **Applications**: Electric vehicles, aerospace applications. - **Case Study**: Oxis Energy's development of lithium-sulfur batteries for aviation.

13. Rechargeable Alkaline Batteries - **Core Technology**: Rechargeable version of traditional alkaline batteries. - **Applications**: Household electronics, toys. - **Case Study**: Energizer's introduction of rechargeable alkaline batteries.

14. Supercapacitors - **Core Technology**: Stores energy through electrostatic charge, offering rapid charge/discharge cycles. - **Applications**: Energy storage in electric vehicles, regenerative braking systems. - **Case Study**: Use in public transport systems for energy recovery.

15. Lithium Titanate Batteries - **Core Technology**: Uses lithium titanate as an anode material, allowing for fast charging and long cycle life. - **Applications**: Electric buses, energy storage systems. - **Case Study**: Nissan's use of lithium titanate batteries in their Leaf model.

16. Organic Batteries - **Core Technology**: Utilizes organic materials for electrodes, offering sustainability. - **Applications**: Consumer electronics, renewable energy storage. - **Case Study**: Research by MIT on organic batteries for sustainable energy solutions.

17. Hybrid Batteries - **Core Technology**: Combines different battery technologies to optimize performance. - **Applications**: Electric vehicles, renewable energy systems. - **Case Study**: BMW's use of hybrid battery systems in their i3 model.

18. Thermal Batteries - **Core Technology**: Uses heat to initiate a chemical reaction for energy storage. - **Applications**: Military applications, emergency power. - **Case Study**: Development of thermal batteries for military use by A123 Systems.

19. Lithium Cobalt Oxide Batteries - **Core Technology**: A type of lithium-ion battery known for high energy density. - **Applications**: Smartphones, laptops. - **Case Study**: Apple’s use of lithium cobalt oxide batteries in their devices.

20. Nickel-Cadmium (NiCd) Batteries - **Core Technology**: Uses nickel oxide hydroxide and cadmium as electrodes. - **Applications**: Power tools, emergency lighting. - **Case Study**: Use in older cordless power tools.

21. Manganese Lithium Batteries - **Core Technology**: Incorporates manganese in the cathode for improved thermal stability. - **Applications**: Electric vehicles, consumer electronics. - **Case Study**: Research on manganese lithium batteries for EV applications.

22. Lithium Nickel Manganese Cobalt (NMC) Batteries - **Core Technology**: Combines nickel, manganese, and cobalt for balanced performance. - **Applications**: Electric vehicles, energy storage systems. - **Case Study**: Tesla's use of NMC batteries in their Model 3.

23. Lead Carbon Batteries - **Core Technology**: Combines lead-acid technology with carbon materials for improved performance. - **Applications**: Renewable energy storage, UPS systems. - **Case Study**: Use in renewable energy systems for better cycle life.

24. Lithium Manganese Oxide Batteries - **Core Technology**: Uses manganese oxide in the cathode for enhanced safety. - **Applications**: Power tools, electric vehicles. - **Case Study**: Research on lithium manganese oxide batteries for EV applications.

25. Bismuth Batteries - **Core Technology**: Utilizes bismuth as an electrode material, offering a non-toxic alternative. - **Applications**: Consumer electronics, renewable energy storage. - **Case Study**: Development of bismuth-based batteries for sustainable applications.

26. Iron-Air Batteries - **Core Technology**: Uses iron and oxygen from the air for energy storage. - **Applications**: Grid storage, renewable energy integration. - **Case Study**: Research on iron-air batteries for large-scale energy storage.

27. Lithium-Sodium Hybrid Batteries - **Core Technology**: Combines lithium and sodium for improved performance and cost-effectiveness. - **Applications**: Electric vehicles, grid storage. - **Case Study**: Research on hybrid batteries for EV applications.

28. Microbial Fuel Cells - **Core Technology**: Uses bacteria to convert organic matter into electricity. - **Applications**: Wastewater treatment, remote sensors. - **Case Study**: Development of microbial fuel cells for sustainable energy solutions.

29. Bio-Batteries - **Core Technology**: Utilizes biological materials for energy storage. - **Applications**: Medical devices, environmental sensors. - **Case Study**: Research on bio-batteries for powering medical implants.

30. Lithium-Graphite Batteries - **Core Technology**: Uses graphite as an anode material in lithium-ion batteries. - **Applications**: Consumer electronics, electric vehicles. - **Case Study**: Use in smartphones and laptops for high energy density.

31. High-Temperature Batteries - **Core Technology**: Designed to operate at elevated temperatures for specific applications. - **Applications**: Aerospace, military. - **Case Study**: Development of high-temperature batteries for aerospace applications.

32. Rechargeable Lithium Batteries - **Core Technology**: Rechargeable version of lithium-ion batteries. - **Applications**: Consumer electronics, electric vehicles. - **Case Study**: Use in electric vehicles for extended range.

33. Lithium-Nickel Cobalt Aluminum Oxide (NCA) Batteries - **Core Technology**: Combines nickel, cobalt, and aluminum for high energy density. - **Applications**: Electric vehicles, energy storage. - **Case Study**: Tesla's use of NCA batteries in their high-performance models.

34. Carbon Nanotube Batteries - **Core Technology**: Incorporates carbon nanotubes for enhanced conductivity and energy density. - **Applications**: Electric vehicles, consumer electronics. - **Case Study**: Research on carbon nanotube batteries for faster charging.

35. High-Energy Density Batteries - **Core Technology**: Focuses on maximizing energy storage capacity. - **Applications**: Electric vehicles, aerospace. - **Case Study**: Development of high-energy density batteries for long-range EVs.

36. Low-Temperature Batteries - **Core Technology**: Designed to operate efficiently in low-temperature environments. - **Applications**: Arctic operations, space applications. - **Case Study**: Research on low-temperature batteries for space missions.

37. Energy-Dense Lithium Batteries - **Core Technology**: Focuses on maximizing energy density for compact applications. - **Applications**: Wearable technology, portable devices. - **Case Study**: Development of energy-dense batteries for smartwatches.

38. High-Power Lithium Batteries - **Core Technology**: Optimized for high discharge rates. - **Applications**: Electric vehicles, power tools. - **Case Study**: Use in electric racing cars for high-performance applications.

39. Lithium-Silicon Batteries - **Core Technology**: Incorporates silicon in the anode for higher capacity. - **Applications**: Electric vehicles, consumer electronics. - **Case Study**: Research on lithium-silicon batteries for next-gen EVs.

40. Advanced Lead-Acid Batteries - **Core Technology**: Enhanced lead-acid technology for improved performance. - **Applications**: Automotive, renewable energy storage. - **Case Study**: Use in start-stop vehicles for improved fuel efficiency.

41. High-Capacity Batteries - **Core Technology**: Focuses on maximizing capacity for extended use. - **Applications**: Electric vehicles, grid storage. - **Case Study**: Development of high-capacity batteries for long-range EVs.

42. Flexible Batteries - **Core Technology**: Designed to be lightweight and flexible for various applications. - **Applications**: Wearable technology, flexible electronics. - **Case Study**: Research on flexible batteries for smart clothing.

43. Energy Harvesting Batteries - **Core Technology**: Captures and stores energy from the environment. - **Applications**: IoT devices, remote sensors. - **Case Study**: Development of energy harvesting batteries for smart cities.

44. High-Voltage Batteries - **Core Technology**: Designed to operate at higher voltages for specific applications. - **Applications**: Electric vehicles, industrial applications. - **Case Study**: Use in high-performance electric vehicles for increased efficiency.

45. Low-Cost Batteries - **Core Technology**: Focuses on reducing manufacturing costs while maintaining performance. - **Applications**: Consumer electronics, renewable energy storage. - **Case Study**: Development of low-cost batteries for affordable solar energy systems.

46. High-Cycle Life Batteries - **Core Technology**: Designed for extended cycle life and durability. - **Applications**: Electric vehicles, grid storage. - **Case Study**: Research on high-cycle life batteries for long-term energy storage.

47. Smart Batteries - **Core Technology**: Incorporates smart technology for monitoring and management. - **Applications**: Electric vehicles, renewable energy systems. - **Case Study**: Development of smart batteries for real-time performance tracking.

48. High-Temperature Superconducting Batteries - **Core Technology**: Utilizes superconducting materials for energy storage. - **Applications**: Power grids, renewable energy systems. - **Case Study**: Research on superconducting batteries for efficient energy storage.

49. Biodegradable Batteries - **Core Technology**: Designed to decompose naturally after use. - **Applications**: Consumer electronics, medical devices. - **Case Study**: Development of biodegradable batteries for eco-friendly applications.

50. High-Performance Batteries - **Core Technology**: Optimized for maximum performance in demanding applications. - **Applications**: Racing, aerospace. - **Case Study**: Use in high-performance racing vehicles for competitive advantage.

51. Energy Storage Systems (ESS) - **Core Technology**: Integrates various battery technologies for large-scale energy storage. - **Applications**: Grid stabilization, renewable energy integration. - **Case Study**: Deployment of ESS for solar and wind energy storage.

52. Lithium-Metal Batteries - **Core Technology**: Uses lithium metal as an anode for higher energy density. - **Applications**: Electric vehicles, portable electronics. - **Case Study**: Research on lithium-metal batteries for next-gen EVs.

53. High-Temperature Lithium Batteries - **Core Technology**: Designed to operate at elevated temperatures for specific applications. - **Applications**: Aerospace, military. - **Case Study**: Development of high-temperature lithium batteries for aerospace applications.

54. Energy-Dense Flow Batteries - **Core Technology**: Combines flow battery technology with high energy density materials. - **Applications**: Grid storage, renewable energy integration. - **Case Study**: Research on energy-dense flow batteries for large-scale applications.

55. Lithium-Sulfur Flow Batteries - **Core Technology**: Combines lithium-sulfur chemistry with flow battery technology. - **Applications**: Grid storage, renewable energy integration. - **Case Study**: Development of lithium-sulfur flow batteries for energy storage.

56. High-Voltage Lithium-Ion Batteries - **Core Technology**: Operates at higher voltages for increased energy density. - **Applications**: Electric vehicles, aerospace. - **Case Study**: Research on high-voltage lithium-ion batteries for EV applications.

57. Advanced Lithium-Ion Batteries - **Core Technology**: Incorporates advanced materials for improved performance. - **Applications**: Electric vehicles, consumer electronics. - **Case Study**: Development of advanced lithium-ion batteries for high-performance applications.

58. Energy-Dense Lithium-Ion Batteries - **Core Technology**: Focuses on maximizing energy density for compact applications. - **Applications**: Wearable technology, portable devices. - **Case Study**: Development of energy-dense lithium-ion batteries for smartwatches.

59. High-Power Lithium-Ion Batteries - **Core Technology**: Optimized for high discharge rates. - **Applications**: Electric vehicles, power tools. - **Case Study**: Use in electric racing cars for high-performance applications.

60. Lithium-Ion Capacitors - **Core Technology**: Combines the properties of lithium-ion batteries and supercapacitors. - **Applications**: Electric vehicles, renewable energy systems. - **Case Study**: Research on lithium-ion capacitors for energy storage applications.

61. High-Capacity Lithium-Ion Batteries - **Core Technology**: Focuses on maximizing capacity for extended use. - **Applications**: Electric vehicles, grid storage. - **Case Study**: Development of high-capacity lithium-ion batteries for long-range EVs.

62. Lithium-Ion Battery Management Systems (BMS) - **Core Technology**: Monitors and manages battery performance and safety. - **Applications**: Electric vehicles, renewable energy systems. - **Case Study**: Implementation of BMS in Tesla vehicles for optimal performance.

63. Energy-Dense Lithium Polymer Batteries - **Core Technology**: Combines lithium polymer technology with high energy density. - **Applications**: Drones, smartphones. - **Case Study**: Use in high-performance drones for extended flight times.

64. High-Performance Lithium Polymer Batteries - **Core Technology**: Optimized for maximum performance in demanding applications. - **Applications**: Racing, aerospace. - **Case Study**: Use in high-performance racing vehicles for competitive advantage.

65. Lithium-Ion Battery Recycling Technologies - **Core Technology**: Focuses on recycling lithium-ion batteries for sustainability. - **Applications**: Battery manufacturing, waste management. - **Case Study**: Development of recycling technologies for lithium-ion batteries.

66. Energy Storage for Renewable Energy - **Core Technology**: Integrates various battery technologies for renewable energy storage. - **Applications**: Solar, wind energy systems. - **Case Study**: Deployment of energy storage systems for solar energy integration.

67. Lithium-Ion Battery Safety Technologies - **Core Technology**: Focuses on enhancing safety in lithium-ion batteries. - **Applications**: Electric vehicles, consumer electronics. - **Case Study**: Implementation of safety technologies in Tesla vehicles.

68. Advanced Battery Testing Technologies - **Core Technology**: Develops testing methods for battery performance and safety. - **Applications**: Battery manufacturing, research. - **Case Study**: Use of advanced testing technologies in battery research labs.

69. Battery Energy Density Improvement Technologies - **Core Technology**: Focuses on enhancing energy density in batteries. - **Applications**: Electric vehicles, consumer electronics. - **Case Study**: Research on energy density improvement technologies for lithium-ion batteries.

70. Battery Life Extension Technologies - **Core Technology**: Develops methods to extend battery life and performance. - **Applications**: Electric vehicles, consumer electronics. - **Case Study**: Implementation of life extension technologies in smartphone batteries.

71. Battery Thermal Management Technologies - **Core Technology**: Focuses on managing battery temperature for optimal performance. - **Applications**: Electric vehicles, renewable energy systems. - **Case Study**: Use of thermal management technologies in Tesla vehicles.

72. Battery Charging Technologies - **Core Technology**: Develops fast and efficient charging methods for batteries. - **Applications**: Electric vehicles, consumer electronics. - **Case Study**: Implementation of fast charging technologies in EV charging stations.

73. Battery Monitoring Technologies - **Core Technology**: Monitors battery performance and health in real-time. - **Applications**: Electric vehicles, renewable energy systems. - **Case Study**: Use of monitoring technologies in Tesla vehicles for performance tracking.

74. Battery Management for Electric Vehicles - **Core Technology**: Manages battery performance and safety in electric vehicles. - **Applications**: Electric vehicles, renewable energy systems. - **Case Study**: Implementation of battery management systems in EVs for optimal performance.

75. Battery Recycling and Reuse Technologies - **Core Technology**: Focuses on recycling and reusing battery materials for sustainability. - **Applications**: Battery manufacturing, waste management. - **Case Study**: Development of recycling technologies for lithium-ion batteries.

76. Battery Supply Chain Management - **Core Technology**: Manages the supply chain for battery materials and components. - **Applications**: Battery manufacturing, electric vehicles. - **Case Study**: Implementation of supply chain management in battery production.

77. Battery Performance Optimization Technologies - **Core Technology**: Develops methods to optimize battery performance. - **Applications**: Electric vehicles, consumer electronics. - **Case Study**: Research on performance optimization technologies for lithium-ion batteries.

78. Battery Cost Reduction Technologies - **Core Technology**: Focuses on reducing manufacturing costs for batteries. - **Applications**: Battery manufacturing, electric vehicles. - **Case Study**: Development of cost reduction technologies for lithium-ion batteries.

79. Battery Sustainability Technologies - **Core Technology**: Develops sustainable practices for battery manufacturing and disposal. - **Applications**: Battery manufacturing, waste management. - **Case Study**: Implementation of sustainability practices in battery production.

80. Battery Innovation and Research - **Core Technology**: Focuses on innovative research in battery technologies. - **Applications**: Battery manufacturing, electric vehicles. - **Case Study**: Research initiatives in battery innovation at universities and research institutions.

81. Battery Education and Awareness Programs - **Core Technology**: Develops educational programs on battery technologies and sustainability. - **Applications**: Community outreach, educational institutions. - **Case Study**: Implementation of battery education programs in schools and communities.

82. Battery Industry Standards and Regulations - **Core Technology**: Develops standards and regulations for battery manufacturing and safety. - **Applications**: Battery manufacturing, electric vehicles. - **Case Study**: Implementation of industry standards in battery production.

83. Battery Market Analysis and Trends - **Core Technology**: Analyzes market trends and forecasts in the battery industry. - **Applications**: Battery manufacturing, investment. - **Case Study**: Market analysis reports on battery technologies and trends.

84. Battery Technology Patents and Intellectual Property - **Core Technology**: Focuses on patents and intellectual property in battery technologies. - **Applications**: Battery manufacturing, research. - **Case Study**: Analysis of battery technology patents and their impact on innovation.

85. Battery Industry Collaborations and Partnerships - **Core Technology**: Develops collaborations and partnerships in the battery industry. - **Applications**: Battery manufacturing, research. - **Case Study**: Collaborative projects between companies and research institutions in battery development.

86. Battery Supply Chain Sustainability - **Core Technology**: Focuses on sustainable practices in the battery supply chain. - **Applications**: Battery manufacturing, electric vehicles. - **Case Study**: Implementation of sustainable supply chain practices in battery production.

87. Battery Technology Commercialization - **Core Technology**: Develops strategies for commercializing battery technologies. - **Applications**: Battery manufacturing, electric vehicles. - **Case Study**: Successful commercialization of innovative battery technologies.

88. Battery Technology Investment Opportunities - **Core Technology**: Analyzes investment opportunities in battery technologies. - **Applications**: Battery manufacturing, electric vehicles. - **Case Study**: Investment trends in battery startups and technologies.

89. Battery Technology Conferences and Events - **Core Technology**: Organizes conferences and events focused on battery technologies. - **Applications**: Networking, knowledge sharing. - **Case Study**: Major battery technology conferences and their impact on the industry.

90. Battery Technology Research Grants and Funding - **Core Technology**: Provides funding for battery technology research and development. - **Applications**: Battery manufacturing, research. - **Case Study**: Government and private funding initiatives for battery research.

91. Battery Technology Innovation Hubs - **Core Technology**: Establishes innovation hubs for battery technology development. - **Applications**: Research, collaboration. - **Case Study**: Innovation hubs focused on battery technologies and startups.

92. Battery Technology Policy and Advocacy - **Core Technology**: Advocates for policies supporting battery technology development. - **Applications**: Government, industry. - **Case Study**: Advocacy efforts for battery technology policies and regulations.

93. Battery Technology Education and Training Programs - **Core Technology**: Develops training programs for battery technology education. - **Applications**: Workforce development, education. - **Case Study**: Training programs for battery manufacturing and technology.

94. Battery Technology Research Collaborations - **Core Technology**: Facilitates research collaborations in battery technologies. - **Applications**: Research, development. - **Case Study**: Collaborative research projects between universities and industry.

95. Battery Technology Market Research - **Core Technology**: Conducts market research on battery technologies and trends. - **Applications**: Investment, strategy. - **Case Study**: Market research reports on battery technologies and their impact.

96. Battery Technology Innovation Competitions - **Core Technology**: Organizes competitions to promote battery technology innovation. - **Applications**: Research, development. - **Case Study**: Innovation competitions focused on battery technologies.

97. Battery Technology Networking Opportunities - **Core Technology**: Facilitates networking opportunities in the battery industry. - **Applications**: Collaboration, partnerships. - **Case Study**: Networking events for battery technology professionals.

98. Battery Technology Knowledge Sharing Platforms - **Core Technology**: Develops platforms for sharing knowledge on battery technologies. - **Applications**: Research, collaboration. - **Case Study**: Online platforms for sharing battery technology research and insights.

99. Battery Technology Community Engagement - **Core Technology**: Engages communities in battery technology initiatives. - **Applications**: Outreach, education. - **Case Study**: Community engagement programs focused on battery technologies.

100. Battery Technology Sustainability Initiatives - **Core Technology**: Develops initiatives for sustainable battery technology practices. - **Applications**: Research, manufacturing. - **Case Study**: Sustainability initiatives in battery production and recycling.

101. Battery Technology Research Publications - **Core Technology**: Publishes research on battery technologies and innovations. - **Applications**: Academic, industry. - **Case Study**: Research publications on advancements in battery technologies.

102. Battery Technology Industry Reports - **Core Technology**: Produces industry reports on battery technologies and trends. - **Applications**: Investment, strategy. - **Case Study**: Industry reports on battery market trends and forecasts.

103. Battery Technology Innovation Awards - **Core Technology**: Recognizes innovations in battery technologies. - **Applications**: Research, development. - **Case Study**: Awards for outstanding contributions to battery technology.

104. Battery Technology Research Collaborations - **Core Technology**: Facilitates research collaborations in battery technologies. - **Applications**: Research, development. - **Case Study**: Collaborative research projects between universities and industry.

105. Battery Technology Future Trends - **Core Technology**: Analyzes future trends in battery technologies. - **Applications**: Research, investment. - **Case Study**: Predictions on the future of battery technologies and their impact.

This overview provides a comprehensive look at various battery products, their core technologies, and application development cases. Each entry highlights the significance of the technology and its impact on various industries.