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Atomfair 310Wh/kg high energy density NMC Gr SiOx pouch cell lithium-ion pouch cell 35Ah 3.6V

310 Wh/kg High Energy Density Li-Ion Pouch Cell 35Ah ATOMFAIR®

$145.00

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.

Commercial-grade NMC/Gr+SiOx pouch cell rated 310 Wh/kg, 35.0 Ah, 3.6 V. Engineered for EV prototype testing with 5.0C pulse capability. In stock.

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Description

310 Wh/kg High Energy Density Lithium-Ion Pouch Cell

COMMERCIAL GRADE · PRODUCTION

Product Overview
High-capacity vehicle propulsion matrices and distributed stationary grid arrays require maximum volumetric compactness, and this premium lithium ion pouch cell pricing platform delivers unmatched gravimetric performance margins under rigorous cycling demands. Utilizing an advanced, blended formulation built around a high-capacity silicon oxide anode battery architecture, the cell achieves an elite gravimetric density window tracking past 310 Wh/kg paired with a volumetric rating over 700 Wh/L. Engineered specifically to serve as a reliable core module for heavy EV prototype battery pack testing sequences, the layout maintains robust structural particle integrity across deep continuous 3.0C energy extraction paths and transient 5.0C pulse loads. The flexible laminate enclosure features a low-profile low resistance power terminal matrix designed to minimize heat generation during rapid charge execution, providing academic researchers and automotive energy engineers with pristine, highly reproducible battery health data series. For bulk inquiries or official volume quotations, please contact us via email at inquiry@atomfair.com.

Technical Specifications
ELECTROCHEMICAL & PHYSICAL PARAMETER TECHNICAL SPECIFICATION RATINGS
Cell Format Structure Flexible Multi-Layer Aluminum Laminated Pouch Cell
Active Core Chemical Matrix NMC / Gr + SiOx (Nickel Manganese Cobalt / Graphite + Silicon Oxide blend)
Rated Capacity & Nominal Potential 35.0 Ah / 3.6 V DC (Evaluated at a Constant 0.2C Rate Profile)
Voltage Operating Range Window 2.50 V – 4.25 V DC Absolute Cell Boundaries
Internal AC Resistance (IR) ≤ 1.6 mΩ (Measured @ 1 kHz under a 50% State of Charge)
Standard Input Charge Current 0.5C Continuous Rate Window
Maximum Continuous Charge Current 2.0C Constant Current Input Load Allocation
Standard Output Discharge Current 0.5C Continuous Energy Dissipation Rate
Maximum Continuous Discharge Current 3.0C Constant Current Continuous Draw Limit
Transient Pulse Discharge Capacity 5.0C Pulse Current (Lasting ≤ 30 Seconds, Validated @ ≥ 30% SOC)
Thermal Charging Scope Window 0 °C to +45 °C Operating Environment Temperature Range
Thermal Discharging Scope Window -20 °C to +60 °C Operating Environment Temperature Range
Physical Enclosure Size Dimensions 10.5 mm × 87 mm × 187 mm (Thickness × Width × Length)
Total Standalone Component Weight ≈ 398 g Core Cell Envelope Mass
Volumetric & Gravimetric Density ≥ 310 Wh/kg Energy Output | ≥ 700 Wh/L Spatial Storage Volume
Verified Lifecycle Parameters ≥ 500 Cycles (@ 25 °C Ambient, 0.5C Charge / 0.5C Discharge Conditions)
Alternative Catalog Items Explore our extended active component database for higher capacity multi-layer laminates, polymer separators, automated pouch cell vacuum sealers, or multi-point testing hardware blocks.

Key Features & Advantages
  • High-Energy Architecture Layout: Combines a ≥310 Wh/kg gravimetric rating with a solid ≥700 Wh/L volumetric profile to yield compact, lightweight battery module groupings.
  • Superior Current Handling Kinetics: Seamlessly manages a continuous 3.0C continuous draw rate alongside an intensive 5.0C pulse acceleration window lasting up to 30 seconds.
  • Extensive Thermal Environment Capability: Offers highly stable energy dissipation paths down to a severe -20 °C cold snap up to a high 60 °C hot-spot boundary.
  • Extended Cycle Life Endurance: Achieves ≥500 full loops to 80% capacity retention under continuous test environments with an initial coulombic efficiency crossing past 99.5%.
  • Production Traceability Quality System: Every batch unit undergoes automated validation recording for nominal capacity matching, internal AC resistance, and open-circuit potential.

APPLICATION SCOPE: Electric vehicle main power arrays, advanced commercial robotics, portable high-density digital communication devices, high-end marine actuators, and specialized localized backup energy storage blocks.
OPERATIONAL COMPLIANCE NOTICE: High-density composite pouch cells are highly vulnerable to internal volume expansion shifts, localized overcharge potentials, and mechanical stress damage. Keep cells stored within their original environmental isolation wrappers until final system integration steps. Secure cell strings within dry, ventilated storage spaces maintained between a constant 15 °C – 30 °C thermal envelope. Never disassemble the pouch structure or expose terminals to open flame. Map active matrices exclusively to multi-channel management cards configured with integrated overcurrent and sub-zero charge cutoff relays.

TAILORED SOLUTIONS FOR PRODUCTION
Contact our engineering team for technical support or official commercial quotations.
EMAIL: INQUIRY@ATOMFAIR.COM
Manufacturer: PRODUCTION DIVISION · ADVANCED ENERGY STORAGE DIVISION
Brand: INDUSTRIAL TESTING HARDWARE
Specifications are representative and subject to change without notice. For the latest version and compliance certificates, contact official sales channel.

The cell must be operated within specified current limits to prevent thermal runaway. Mechanical integrity of the pouch enclosure must be maintained to avoid electrolyte leakage.

  • Current Compliance: Continuous discharge must not exceed 3.0C (105 A) and pulse discharge must not exceed 5.0C (175 A).
  • Mechanical Handling: The pouch cell must not be punctured, creased, or subjected to compressive forces that could damage the laminate seal.
  • Charge Protocol: Initial capacity evaluation should be performed at a constant 0.2C (7 A) charge rate to the nominal 3.6 V potential.

This procedure outlines the safe initialization and cycling of the cell for laboratory testing. Follow these steps to prevent damage and ensure data reproducibility.

Required Equipment: Battery Cycler, Battery Management System

  1. Visual Inspection
    Inspect the pouch cell for any signs of swelling, puncture, or terminal corrosion before handling.
  2. Electrical Connection
    Connect the cell terminals to the battery cycler using cables rated for at least 105 A continuous current.
  3. Initial Charge
    Charge the cell at a constant current of 7 A (0.2C) until the voltage reaches 3.6 V to establish nominal charge.
  4. Discharge Limitation
    Set the cycler to limit discharge current to 105 A (3.0C) and avoid exceeding 175 A (5.0C) pulse duration.

How does the silicon oxide anode content affect cycle life at 3.0C continuous discharge compared to standard graphite-only NMC pouch cells?

The SiOx blend boosts gravimetric density beyond 310 Wh/kg but introduces volumetric expansion stress during cycling. At the rated 3.0C continuous discharge, the cell maintains structural particle integrity, though cycle life may be reduced relative to pure graphite anodes due to silicon's inherent volume change; the product description does not specify cycle life figures, so quantitative comparison is not possible from the provided data.

Can this 35 Ah pouch cell be integrated directly into an existing 48V EV prototype battery pack without modifying the BMS voltage thresholds?

Yes, the cell's 2.50 V to 4.25 V operating window is compatible with standard 48V pack architectures when configured in a 12-series string (43.2 V nominal). However, the BMS must support a maximum charge voltage of 4.25 V per cell and a 2.0C charge rate; the low 1.6 mΩ internal resistance minimizes balancing overhead, but the pack designer must verify thermal management for the 3.0C continuous discharge limit.

What are the mandatory storage and handling conditions to prevent lithium plating or electrolyte leakage in this flexible laminate pouch cell?

Store at 50% state of charge in a dry, temperature-controlled environment between 0 °C and +45 °C to avoid lithium plating during storage. The flexible multi-layer aluminum laminate enclosure requires protection from puncture and compressive forces; do not stack cells without rigid separators, and avoid charging below 0 °C as specified by the thermal charging scope window.

This 35 Ah NMC/Gr+SiOx pouch cell delivers 310 Wh/kg and >700 Wh/L, with a low 1.6 mΩ internal resistance and support for 3C continuous discharge, making it suitable for EV prototype pack testing, though charging is limited to 2C and prohibited below 0°C.

Positive

  • High gravimetric and volumetric density: The cell achieves an elite gravimetric density above 310 Wh/kg and a volumetric rating exceeding 700 Wh/L, enabling maximum energy storage in compact form factors for vehicle and stationary applications.
  • Robust high-rate discharge capability: Supports continuous 3.0C and transient 5.0C pulse discharge currents, validated at ≥30% SOC, making it suitable for demanding EV prototype battery pack testing sequences.

Trade-offs

  • Restricted low-temperature charging: Charging is not permitted below 0 °C, limiting use in cold environments unless thermal management is provided.
  • Limited maximum charge current: The maximum continuous charge current is 2.0C, which may constrain applications requiring faster charging rates.

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). Return is governed by the Atomfair Return & Refund Policy (7-day technical return window).

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