NVP Sodium-Ion Dry Pouch Cell (1Ah) – Anode-Free, Carbon-Coated Aluminum Foil

$89.00

Institutional Procurement & Supply Compliance: As a verified US supplier, Atomfair accepts formal institutional Purchase Orders (POs), contract billing schedules, and custom procurement loops for university and national laboratories, and corporate R&D departments globally.

Research grade NVP carbon-coated aluminum dry pouch cell with 1Ah capacity and 93.5% active material. Ideal for solid-state electrolyte testing. Order now.

SKU: AF-BM-C-NVP-010A-SP002
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NVP Sodium-Ion Dry Pouch Cell (1Ah) – Anode-Free, Carbon-Coated Aluminum Foil

Product Overview

This 1.0 Ah-class NVP sodium-ion dry pouch-cell platform is designed for advanced sodium-ion and anode-free battery research, including solid-state electrolyte investigation and polyanionic framework analysis. It combines an NVP (Sodium Vanadium Phosphate) cathode with carbon-coated aluminum foil (Al/C) anode-free substrate in a flexible pouch-cell format. Supplied without liquid electrolyte, the dry core enables researchers to evaluate solid-state and custom non-aqueous sodium electrolyte formulations, and sodium interfacial transport kinetics within a target voltage window of 2.5–3.8 V. Actual capacity and electrochemical performance depend on the selected electrolyte, formation protocol, charging conditions, and testing parameters.

Technical Specifications

PARAMETER DETAILS
1. Core Device & Electrochemical Design
Cell Chemistry Base Sodium-Ion Dry Pouch Cell Configuration (Electrolyte Unfilled)
Nominal Capacity 1 Ah
Voltage Range 2.5 V × 3.8 V
NP Ratio
2. Cathode (Positive Electrode) Parameters
Material Type NVP
Active Material Percent 93.5%
Specific Capacity 105 mAh/g
Compaction Density 1.8 g/cc
Coating Areal Density 12.5 mg/cm2
Dimensions 45.5 × 64 mm
3. Anode (Negative Electrode) Parameters
Material Type Al/C
Active Material Percent
Specific Capacity
Compaction Density
Coating Areal Density
Dimensions 46.5 × 65 mm
4. Separator & Physical Package Metrics
Separator Specification 12 um PE + 2 um ceramic coating
Stacking Layer Configuration 15/16 Layer Precision Stacked Dry Core Configuration
Alternative Options Explore our related polyanionic sodium dry cell catalog. For custom dimensions or distinct stacking layer properties, please contact our support team.

Key Features & Advantages

  • Polyanionic NVP Framework Stability: Features high thermal stability and an open 3D framework structure, promoting rapid sodium-ion diffusion tracks and predictable voltage profiling.
  • Electrolyte-Free Design Control: Dispatched vacuum-sealed and electrolyte-free, allowing research groups ultimate parameter freedom for polymer, gel, or custom non-aqueous sodium electrolyte optimization.
  • Carbon-Coated Aluminum Base: Specialized Al/C substrate matrix significantly improves internal electronic conductivity while preventing interfacial gas evolution at targeted voltage bands.
  • Precision 15/16 Layer Alignment: Advanced stacked alignment reduces phase polarization variants and delivers ultra-consistent validation curves across extensive benchmarking workflows.

Cell Customization

Customization is available for cell dimensions, nominal capacity, cathode and anode materials, separator coating, and dry electrode sheet configuration.

APPLICATION SCOPE: Polyanionic sodium-ion material verification, custom sodium electrolyte compatibility testing, multi-layer dry cell prototyping, and academic battery kinetics R&D.
PACKAGING: Sealed multilayer vacuum aluminum-plastic dry defensive pouch with custom institutional batch tracking control logs.

Related Products

Research Need Related Product Best For
Review sodium-ion cathode materials Sodium-Ion Cathode Materials Sodium-ion cathode material references.
Review metal anode materials Lithium, Sodium & Potassium Metal Anodes Metal-anode references for anode-free sodium-ion research.
Review sodium-ion electrode sheets Sodium-Ion Anode Electrode Sheets Sodium-ion electrode-sheet references.
TAILORED SOLUTIONS FOR RESEARCH
Contact our engineering team for technical support or official institutional quotations.
EMAIL: inquiry@atomfair.com
Manufacturer: Atomfair LLC
Brand: ATOMFAIR

This dry pouch cell must be operated strictly within the 2.5 V to 3.8 V voltage window to prevent electrochemical degradation. The cell is supplied in an electrolyte-free state and requires electrolyte filling and formation prior to use.

  • Voltage Window Constraint: Operate the cell only within the specified 2.5 V to 3.8 V voltage range to prevent degradation.
  • Electrolyte Filling Requirement: The cell is supplied dry and requires electrolyte filling before any electrical testing.

What performance trade-offs arise from using a carbon-coated aluminum foil anode instead of sodium metal in the NVP dry pouch cell for solid-state electrolyte studies?

The carbon-coated aluminum (Al/C) anode eliminates the reactivity and dendrite issues associated with sodium metal while providing a stable, non-electrochemical baseline for interfacial transport studies. The NVP cathode delivers 105 mAh/g specific capacity with a compaction density of 1.8 g/cc and areal loading of 12.5 mg/cm², ensuring the cell’s overall capacity is cathode-limited and isolating anode-side variables for precise solid-state electrolyte evaluation.

Which solid-state or non-aqueous electrolyte systems are compatible with this electrolyte-free NVP dry pouch cell?

This dry pouch cell is explicitly designed as an electrolyte-free platform for investigating solid-state electrolytes or customized non-aqueous electrolyte formulations. The NVP cathode and Al/C anode are compatible with a wide range of sodium-conducting electrolytes, but each new electrolyte must be validated for wetting, interfacial stability, and electrochemical performance within the cell’s 2.5–3.8 V voltage window.

How should the Atomfair NVP dry pouch cell be stored and handled prior to electrolyte filling to preserve electrode integrity?

As a dry, electrolyte-free cell, it must be stored and handled in an inert, moisture-free environment such as an argon-filled glovebox to prevent degradation of the NVP cathode and carbon coating. No exposure to ambient air is permitted, and all handling should use clean, dry tools to avoid contamination before electrolyte introduction and cycling.

This dry pouch cell provides a high-purity NVP cathode baseline for sodium-ion solid-state electrolyte studies, with an Al/C carbon-coated aluminum foil anode and precision-stacked architecture, requiring electrolyte filling and dry handling.

Positive

  • Electrolyte-free dry cell design: Enables direct investigation of solid-state electrolyte systems without interference from liquid chemistries, isolating sodium interfacial transport kinetics for baseline evaluation.
  • High-purity NVP cathode active material: 93.5% active material loading with 105 mAh/g specific capacity and 1.8 g/cc compaction density provides a reliable reference for polyanionic framework analysis.

Trade-offs

  • Requires electrolyte filling by user: Supplied as an unfilled dry core; the buyer must add liquid or solid electrolyte, adding process complexity and potential variability.
  • Needs controlled atmosphere handling: The dry core and unfilled state demand assembly and testing in a dry room or glovebox to prevent moisture contamination and ensure reliable data.

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.

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