Non-Aqueous Electrolyte Accumulator Electrodes TRIZ Cases
- Electrode Membrane Extrusion With Dual-Binder Mixing Uniformity
Pre-mixing a fibrotic binder with electrode powder and adding a second binder solution improves dispersion, plasticity, and electrode sheet quality.
- Battery Cell Electrode Layout for Burr-Induced Short Prevention
An insulation layer on the negative electrode aligns with the positive plate edge to block burr-triggered shorts while preserving active area.
- Block Polymer Electrode Binder for Silicon Volume Change
A block polymer binder with tuned (meth)acrylic acid content improves silicon electrode adhesion, limiting peeling and cycle-life loss.
- Electrode Tab Insulation Structure for Higher Energy Density
A grooved tab and two-part insulation piece cut active-layer coverage and assembly thickness while maintaining short-circuit protection.
- Lithium-Ion Battery Lead Recess Layout for Short-Circuit Prevention
Recessed electrode lead placement with insulating glue cuts thickness variation, lowers internal resistance, and helps prevent short circuits.
- Lithium-Ion Electrode Recess Structure for Thin, Short-Resistant Cells
Recessed lead pockets and insulating glue layers lower cell thickness while preventing internal shorts and lithium precipitation.
- Composite Electrode Coating Layer for Separator-Free Li Battery Durability
Polymer nanofibers and inorganic particles reinforce an integrated electrode coating layer, improving puncture strength, safety, and cycle life.
- Semi-Solid Electrochemical Cells With Selective Membrane Isolation
A selectively permeable membrane isolates catholyte and anolyte, enabling binder-free semi-solid electrodes with higher energy density and simpler battery manufacturing.
- Core-Shell Polymer Primer Slurry for Better Battery Electrode Filtration
A core-shell polymer primer slurry lowers viscosity, improves filterability, and widens the battery electrode coating process window.
- Electrode Functional Layer for Electrolyte Retention and Short-Circuit Safety
A polymer-inorganic coating on uncoated current collector regions absorbs free electrolyte, improves flatness, and helps prevent internal short-circuits.
- Polymer-Modified Porous Separator for Battery Self-Discharge Control
Surface-grafted porous separator materials improve insulation, electrolyte infiltration, and adhesion to curb battery self-discharge.
- Anode-Free Lithium Secondary Battery With Protective Layers
Protective layers enable in-situ lithium metal formation on the current collector, suppressing oxide buildup and dendrite growth for longer cycle life.
- Lithium-Sulfur Electrode Composition for Cycle Life and Ion Diffusion
A fibrous conducting aid and carboxyl polymer binder improve lithium-sulfur electrode conductivity while preserving ion diffusion and cycle life.
- Sulfur Positive Electrode Composition for Higher Coulombic Efficiency
A carbon-nitrogen-containing metal compound in a sulfur positive electrode improves lithium diffusion, raising energy density and cyclability.
- Battery Electrode Bromine Gradient for Low-Temperature Cycle Life
A bromine-compound gradient in the active material layer suppresses low-temperature cycle degradation while preserving electrolyte fluidity.
- Electrode Stack Channel Layout for Faster Electrolyte Impregnation
Larger uncoated regions near injection ports improve electrolyte flow through electrode-stack channels, cutting permeation time and incomplete spreading.