Description
ES01 Compact Solid-State Cells (High-Energy UAV Series) | ATOMFAIRCOMMERCIAL GRADE · PRODUCTION
|
|||||||||||||||||||||||||||||||||||
|
|||||||||||||||||||||||||||||||||||
|
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 solid-state cell series requires maintenance under a uniform controlled pressure boundary to prevent internal layer separation. Storage and operation must adhere to the recommended voltage and thermal limits to avoid irreversible degradation.
- Thermal management: Operate and store the cell within the temperature range specified for the specific variant to maintain integrity and prevent capacity loss.
- Pressure boundary: Secure the cell under a uniform controlled external pressure boundary using a rigid compression fixture plate array to prevent layer delamination.
- Voltage control: Maintain the cell voltage within the manufacturer's recommended thresholds to prevent over-discharge, overcharge, or safety hazards.
- Vibration resistance: Avoid mechanical shock during installation to prevent micro-cracking in the solid electrolyte structure.
- Monitoring: Use an aerospace-grade battery management card for real-time voltage and state of charge monitoring during operation.
Follow these steps to safely deploy the cell in a battery pack. Proper pressure and voltage management are critical for performance and safety.
Required Equipment: Rigid compression fixture plate array, Aerospace-grade battery management card
- Secure
Secure the cell within a rigid compression fixture plate array inside the battery pack chassis. - Connect
Connect the cell to an aerospace-grade management card optimized for real-time high-drain state of charge monitoring. - Configure
Configure the management card to maintain voltage strictly within the manufacturer's recommended thresholds.
What is the trade-off between gravimetric energy density and low-temperature operating range across the ES01 Compact Solid-State Cell series?
The ES01 series shows an inverse relationship: the 306 Wh/kg variant (ES0140140T1-6) operates down to -40 °C, while the 310 Wh/kg and 320 Wh/kg variants are limited to -20 °C. Additionally, the 306 Wh/kg variant has a lower verified lifecycle (≥500 cycles at 1C/3C) compared to the higher-density versions (≥700 cycles). This allows researchers to prioritize either extreme cold resilience or maximum energy density for UAV mission profiles.
What mechanical integration constraints must be considered when assembling solid-state pouch cells from the ES01 series into battery packs?
Solid-state thin-format pouch architectures require a uniform, controlled external pressure boundary to maintain perfect physical layer consolidation. Cells must be secured within a rigid compression fixture plate array inside the battery pack chassis. Voltage configurations must be managed strictly within recommended thresholds, and aerospace-grade management cards optimized for high-drain state of charge monitoring are required. Custom mechanical dimensions, tab thickness, and tab positions can be managed at lot level to simplify airframe prototyping integration.
What are the critical safety and operational infrastructure requirements for high-rate pulse discharge testing of ES01 solid-state cells?
The ES01 series supports up to 8C transient pulse load paths while keeping cell surface thermal accumulation strictly under 45 °C. However, cells require a uniform external pressure boundary via rigid compression fixture plates. Voltage must be managed within recommended thresholds, and aerospace-grade management cards are needed for real-time high-drain state of charge monitoring. Production is fully traceable under strict ISO 9001:2025 metrology standards.
This variable solid-state pouch cell series offers gravimetric energy densities from 306 to 320 Wh/kg with up to 8C pulse capability, but requires rigid compression fixturing and shows a trade-off between low-temperature tolerance and energy density.
Positive
- Energy density up to 320 Wh/kg: Premium gravimetric energy density drastically increases mission runtime for lightweight flight configurations.
- 8C transient pulse with <45°C rise: Supports high-rate pulse loads while keeping cell surface thermal accumulation strictly under 45°C, enabling aggressive maneuvers.
Trade-offs
- Requires rigid compression fixture: Thin-format solid-state pouch cells need a uniform external pressure boundary to maintain layer consolidation; cells must be secured in a rigid fixture plate array.
- Energy density vs. temperature trade-off: The highest energy density variant (320 Wh/kg) operates only down to -20°C, while the lower density variant (306 Wh/kg) supports -40°C, limiting extreme arctic use for the top-tier option.
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).





