Li-Ion Cells Dry Coating Manufacturing Seminar
Shmuel De-Leon Energy invites you to join 6 hours battery virtual seminar taking place on 12-13 March, 2025.
    
            
                                                                        
                                        
                
                                        
                                                    12 March, 2025 - Part 1 - (3 hours) - starting at 16:00 PM Central Europe Time, 10:00 AM EST USA Time
Part 1 includes 2 sections - Battery Essentials, Rechargeable Batteries, 13 March, 2025
Part 2 - (3 hours) - starting at 16:00 PM Central Europe Time, 10:00 AM EST USA Time
Part 2 includes 2 sections – Univercell (Germany) Li-Ion Cells design and manufacturing (Advanced), Sakuu (USA) – Li-Ion cells dry coating electrodes
Training Syllabus:
Battery Essentials – Speaker; Shmuel De-Leon
 
- Battery History 
- The strong need for batteries 
- Cells & Battery Packs 
- Cells classifications 
- Internal cell components 
- Anode and cathode structure 
- Cell components affecting energy density 
- Charge - Discharge operation 
- Cells - Button & Coin Cells Shape 
- Cells - Hard Case Cylindrical Shape 
- Cells - Hard Case Prismatic Shape 
- Cells - Prismatic Pouch Shape 
- Batteries/Cells Standardization 
- Cells - Common Size 
- Cells Internal Construction - Bobbin and Spiral Types 
- Li-Ion Energy Ver. Power Cell (Flat Plate Construction) 
- Cells Internal Construction - Pin Type 
- Cells Internal Construction - Flat Plates Type (Stacking) 
- Cells Internal Construction – Flat Wound Type
- Cells Internal Construction – Z-Folding 
- Cells – Internal Construction Thin Film Type 
- Cells - Case Polarity, Seals 
- Cell Voltage Definitions 
- Internal Resistance/Impedance 
- Operating Temperature – What Does it Mean? 
- Storage Temperature 
- Shelf Life, Cycle Life, Service/Calendar Life 
- Factors Affecting Aging and State of Health 
- Recommended Battery Storage Conditions 
- State of Charge – State of Health 
- What is a C-Rate (Apply to Charge and/or Discharge) 
- Energy & Power Density
Rechargeable Batteries – Speaker; Shmuel De-Leon
- Rechargeable Lithium Batteries and systems 
- Best Performance Cells 
- Lithium Rechargeable Cells Electrolyte Types 
- Li-Ion Hard Case Cells Advantages, Limitations, 
- Hard Case Cylindrical Cells, 18650, 21700 
- The Need for Larger Lithium Ion Cylindrical Cell Sizes 
- Tesla 21700 Cells 
- Hard Case Prismatic Cells 
- Hard Case Button Cells 
- Li-Ion Pouch Cells Soft Packaging, Advantages, Limitations 
- Li-Ion Liquid Electrolyte Pouch Cells 
- Ballooned Li-Ion Pouch Cells (Swelling - Gassing) 
- Li-Ion Cylindrical Pouch cells 
- Jenax Flexible Li-Ion Cells 
- Li-Ion Cylindrical Cell with Silicon Nano Structure Anode 
- Lithium Iron Phosphate  Batteries, Advantages, Limitations 
- Why LFP is Highly Safe? 
- Lithium Werks LFP Batteries 
- LFP as a Replacement to Lead-Acid Batteries 
- Li-Ion High Voltage Cells, Advantages, Limitations 
- High Power Li-Ion High Voltage Cells 
- Solid State Batteries, Advantages, Limitations 
- LTO Cells, Advantages, Limitations 
- Lithium Dendrite During Low Temperature Charging 
- Toshiba LTO Battery - SCiB 
- Lithium Sulfur/Metal Rechargeable Cells 
- What Prevents the Implementation of Li-Sulfur? 
- Oxis Energy Li-S Cells - Sion “Licerion” Li- Metal Cells 
- Potential Break- Through Rechargeable Battery Technologies
Univercell (Germany) – Li-Ion Cells Manufacturing – Speaker: Dr. Thomas Yu
Topic 1
• Material choices in battery design Including Electrode optimization for function 
• Machining and cell design 
• Introduction to battery active material 
• Electrodes and battery chemistry 
• Separators and electrolytes 
Topic 2
• Processes 
• Electrode Manufacturing 
• Material preparation and mixing 
• Roll-to-roll coating 
• Drying, calendaring, and other steps in final electrode preparation 
• Battery cell assembly 
• Pouch 
• Cylindrical 
• Prismatic
Sakuu (USA) – Li-Ion cells dry coating electrodes – Speaker: Mr. Karl Littau
Abstract: Printing battery components directly from dry powders saves money, time, energy, chemicals, and reduces waste. It also unlocks the capability to print nearly any battery from dry powder formulations
Agenda:
- 
Why dry process 
- Underlying technological competencies 
- Impact on cost  
Impact on energy consumption 
- Material formulation 
- Scaling dry process economically 
- Achieving and beating wet electrode specifications 
- New innovations enabled by dry printing 
- Dry printing of SSB components