Quantity	Price
1 – 5	$500.00
6+	$310.00

Description

ATOMFAIR® 6.2AH LMR-LICU LITHIUM METAL DRY POUCH CELL

LITHIUM METAL TECHNOLOGY | 14/15 LAYERS

Product Overview

The ATOMFAIR® 6.2Ah LMR-LiCu Dry Pouch Cell (14/15 Layers) is a high-fidelity, research-grade power solution designed for advanced lithium-ion battery material validation and interface testing. It combines a premium ultra-high-capacity Lithium-Rich Manganese-Based (LMR) cathode with a structured Lithium-Copper (LiCu) composite metal anode current collector, delivering superior energy densities across a broad 2.0V to 4.8V operating window. Supplied completely unfilled, it offers absolute formulation control for testing innovative electrolytes while providing ideal lmr lithium metal dry pouch cell price efficiencies for institutions.

Technical Specifications

PARAMETER	VALUE
1. Core Cell Parameters
Capacity	6.2 Ah
Voltage Range	2.0 V ~ 4.8 V
NP Ratio	–
Separator	12 μm PE + 2 μm ceramic
2. Cathode Parameters
Material Type	LMR (Lithium-Rich Manganese-Based)
Active Material Percent	94.7%
Specific Capacity (mAh/g)	300
Compaction Density (g/cc)	2.6
Coating Areal Density (mg/cm2)	27
Dimensions (mm)	45.5 × 64
3. Anode Parameters
Material Type	Li Cu (Lithium Copper)
Thickness Parameter	20 + 6 + 20 μm
Specific Capacity (mAh/g)	–
Compaction Density (g/cc)	–
Coating Areal Density (mg/cm2)	–
Dimensions (mm)	46.5 × 65
Manufacturing Rules	Processed under strict [strict technical quality validations] compliance criteria to ensure precise layer tracking and uniform pressure distribution within the laminated pouch.
Alternative Options	Explore our extended product line for custom capacities, pre-filled cells, graphite configurations, or alternative layered oxide materials. For volume institutional quotes, contact our engineering division.

Key Features & Advantages

14/15 Layer Laminated Structure: High-density multi-layer alignment provides optimized mechanical cell stability and a uniform internal current path profile.
High-Capacity LMR Cathode Platform: Composed of 94.7% active material Lithium-Rich Manganese-Based matrix to yield a high 300 mAh/g specific capacity foundation.
Calibrated Lithium Copper Anode: Features a high-precision 20+6+20 µm thickness matrix designed as an elite collector platform for plating and stripping dynamics.
Composite Ceramic Separator: A highly engineered 12 µm PE base paired with a 2 µm ceramic coating provides an excellent thermal threshold resistance.
Standard Size Footprint Coordination: Universally optimized dimensions (45.5×64 mm cathode vs 46.5×65 mm anode) easily adapt to common laboratory testing fixtures.

APPLICATION SCOPE: High-energy lithium metal research, custom electrolyte additive screenings, and advanced high-voltage boundary layer validation tests.

PACKAGING: Vacuum-sealed dry pouches configured strictly for ambient-isolated transit and immediate processing inside a controlled lab framework.

IMPORTANT NOTICE: Dry lithium metal structures exhibit extreme moisture and atmospheric sensitivities. Cell modules must be stored away from air exposure and handled exclusively inside low-dew-point inert gas gloveboxes to execute **how to fill lithium metal pouch cell** protocols successfully without degradation.

TAILORED SOLUTIONS FOR RESEARCH

Contact our engineering team for technical support or official institutional quotations.

EMAIL: inquiry@atomfair.com

Manufacturer: Atomfair LLC

Brand: ATOMFAIR®

Constraints

Vacuum-sealed dry pouch cell must be stored in inert environment until electrolyte injection. Cell activation requires controlled moisture-free conditions to preserve electrochemical performance.

Moisture Sensitivity: This cell must be handled exclusively in dry environments to prevent degradation of sodium-ion kinetics.
Voltage Window: The operating voltage window is typically 2.0V to 4.0V, dependent on cathode and electrolyte chemistry.
Current Collector Design: Dual aluminum foils are used to prevent over-discharge and optimize cost.
Electrolyte Compatibility: Electrolytes must be compatible with the selected cathode and anode materials; recommended electrolytes are not supplied.
Storage Condition: Cell is vacuum-sealed and should remain sealed until immediately prior to electrolyte injection.

FAQ

How does the dual aluminum current collector design in the ATOMFAIR SIB dry pouch cell affect over-discharge protection compared to conventional copper anode foils?

The dual aluminum current collector design optimizes cost and prevents over-discharge by eliminating the need for copper on the anode side, which is standard in lithium-ion cells. Aluminum for both electrodes is feasible in sodium-ion systems due to the lack of alloying reactions at low potentials. This design trade-off reduces material cost while maintaining cell integrity during deep discharge cycles, as stated in the product specifications.

Which cathode chemistries are supported by the ATOMFAIR 1Ah SIB dry pouch cell, and how does the choice affect the operational voltage window?

The cell supports layered oxides, polyanionic compounds like NVP, and Prussian blue analogs as cathode options. The voltage window of 2.0V–4.0V is typical and chemistry dependent, meaning the specific cathode material will determine the precise operating range. Full-stack customization including cathode, anode, and current collector is available to match research requirements.

What laboratory conditions are required for electrolyte injection and activation of the unfilled ATOMFAIR SIB dry pouch cell?

The cell is delivered in a vacuum-sealed dry state and requires proprietary electrolyte injection prior to use. Assembly is performed in high-purity dry rooms or gloveboxes to ensure superior sodium-ion kinetics and avoid moisture contamination. The cell core must be handled in an inert atmosphere to maintain electrochemical performance.

Assessment

The ATOMFAIR 1Ah Sodium-ion Dry Pouch Cell is a customizable SIB research platform featuring dual aluminum current collectors and full-stack cathode/anode/collector flexibility; however, it is delivered dry and requires proprietary electrolyte injection and inert handling, while the typical voltage window (2.0–4.0V) is chemistry-dependent, necessitating experimental validation.

Positive

Dual aluminum current collectors: Both cathode and anode use aluminum foils, which optimizes cost and prevents over-discharge, a unique advantage for sodium-ion cell design.
Full-stack material customization: Allows selection of layered oxides, polyanionic compounds, or Prussian Blue cathodes, and hard carbon anodes with adjustable capacity and ICE, enabling tailored SIB research.

Trade-offs

Requires proprietary electrolyte injection: The cell is delivered vacuum-sealed and dry; users must supply compatible electrolyte and perform injection under inert conditions to prevent moisture contamination.
Chemistry-dependent voltage window: The 2.0–4.0V window is typical but varies with cathode, anode, and electrolyte choices; users must experimentally verify safe operating limits for their specific chemistry.

Quality Standards & Performance Verification

Every advanced material, component, equipment, and instrument in our catalog is backed by rigorous testing. We maintain strict internal quality management frameworks and align with CE conformity metrics to deliver transparent, reproducible performance data via our public open-science repository.

To request raw batch performance data, submit formal vendor registration paperwork, or execute a fast-turnaround R&D manufacturing loop, contact us at inquiry@atomfair.com.

Shipping & Returns

Item is dispatched under the Atomfair Shipping & Delivery Framework (Free worldwide shipping on orders over $59 USD). Return is governed by the Atomfair Return & Refund Policy (7-day technical return window).