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ATOMFAIR® vacuum standing chamber showing a blue capsule with a front rectangular glass window next to a touchscreen control terminal.

Vacuum Standing Chamber -95kPa Pouch Cylindrical ATOMFAIR®

$3,669.00

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.

Atomfair-VSC517 vacuum standing chamber for pouch/cylindrical batteries. Vacuum to -95kPa, chamber 330×200×150mm. Stable multi-cycle function. Order now.

SKU: AFMSDFRC364
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Description

ATOMFAIR® VSC517 VACUUM STANDING CHAMBER

RESEARCH GRADE MATERIAL

Product Overview
The Atomfair‑VSC517 is a high-efficiency vacuum conditioning chamber purposefully engineered for accelerating electrolyte absorption and diffusion across advanced battery architectures. By managing multi-stage negative pressure profiles, this system forces complete liquid electrolyte penetration into the porous matrices of electrode plates and separators for both pouch cells and cylindrical cells, eliminating micro-bubbles to guarantee superior electrochemical consistency and uncompromised validation reproducibility.

Technical Specifications

PARAMETER DETAILS
1. Vacuum & Processing Profile
Product Model / Version Atomfair‑VSC517 / V2.0
Ultimate Vacuum Degree Up to -95 KPa Adjustable Negative Pressure Boundary
Standing Diffusion Duration 0–99.99 s (Highly precise adjustable digital control window)
Chamber Core Volumetric Size Internal Chamber: L330mm × W200mm × H150mm
Chamber Structural Metallurgy High-purity aluminum alloy (Corrosion-resistant, acid-sturdy matrix finish)
2. Power & Utility Supply Profile
Total Power Consumption 50W Ultra-Low Power Draw
Power Supply Grid AC 220V / 50Hz Single-Phase Line
Compressed Air Requirement 0.5–0.7 MPa Stable Pneumatic Intake
3. Physical & Geometric Framework
System Footprint Dimensions Approx. L460mm × W220mm × H340mm
Total Assembly Net Mass Approx. 40 KG
Manufacturing Rules Processed under strict ISO 9001 compliance conditions
Alternative Options Explore our related catalog or custom mechanical dimensions. For urgent technical custom requests or bulk inquiries, please contact our support team.

Key Features & Advantages
  • High-Universal Size Adjustments: Demonstrates extensive adaptability across standard and custom pouch or cylindrical cells via rapid mechanical tuning.
  • Glovebox Dual Split Layout: Separate main unit and standalone control enclosure layout permits flexible placement of the processing box inside inert atmospheres while isolating electronics outside.
  • Stable Vacuum Hold Metrics: Superior component matching ensures airtight structural locking, achieving stable negative pressure retention with a minimal pressure drop window.
  • Multi-Stage Automated Cycling: Built-in multi-stage programmable pressure cycle routines oscillate vacuum states to achieve optimal, deep electrode plate wetting performance.
  • High-Visibility Chamber Window: Structural viewing window embedded in the compartment cover allows for real-time tracking of fluid behaviors and salt interactions.
  • Linear Guided Top Chamber Cavity: Pneumatic-driven top cover translations move along precise linear guidance modules, delivering fluidic movement and long-term reliable sealing.
  • Compact Lightweight Body: Smart structural architecture packs complex atmospheric capabilities inside a portable frame with an attractive industrial finish.

APPLICATION SCOPE: Electrolyte vacuum standing diffusion, pouch cell electrode matrix soaking, cylindrical cell bubble extraction, and multi-stage vacuum cycling.
FACILITY REQUIREMENT: Benchtop workspace or containment chamber integration. System Net Weight: Approx. 40 KG. Power consumption draws a low 50W, making it highly compatible with remote lab panels.
IMPORTANT NOTICE: This equipment maintains high negative pressure steps up to -95 KPa under direct pneumatic cylinder drives. Keep pneumatic supply lines stable at 0.5–0.7 MPa and wipe down the interior aluminum alloy walls with anti-corrosive solvent regularly to remove volatile electrolyte deposits.

TAILORED SOLUTIONS FOR RESEARCH
Contact our engineering team for technical support or official institutional quotations.
EMAIL: inquiry@atomfair.com
Manufacturer: Atomfair LLC
Brand: ATOMFAIR®

The chamber requires a dedicated 220V/50Hz electrical circuit and a compressed air supply regulated to 0.5–0.7 MPa. Operators must follow standard electrical safety protocols and ensure the chamber is not operated beyond its maximum vacuum rating of -95 KPa.

  • Electrical Safety: Ground the chamber and control box to prevent electrical shock when connected to the power supply.
  • Compressed Air Regulation: Use an air compressor with a regulator to maintain pressure within the specified 0.5–0.7 MPa range.
  • Vacuum Overpressure Protection: Do not attempt to exceed -95 KPa vacuum to avoid damage to the chamber seals and structure.
  • Corrosion Monitoring: Periodically inspect the aluminum alloy chamber for signs of chemical attack from electrolyte residues.
  • Glovebox Compatibility: When used inside a glovebox, ensure the chamber's pneumatic and electrical connections are compatible with the inert atmosphere.

This procedure details the safe setup and operation of the vacuum standing chamber to absorb electrolyte into battery electrodes. Users must follow sequential steps to apply vacuum, control standing time, and release pressure while monitoring the process.

Required Equipment: Atomfair-VSC517 Vacuum Chamber Assembly, Air Compressor (0.5-0.7 MPa), Power Supply (220V/50Hz), Control Box Interface

  1. Connect Air Supply
    Connect the air compressor line to the chamber inlet and verify that the pressure regulator reads between 0.5 and 0.7 MPa.
  2. Set Standing Time
    Set the standing time on the control box to the desired duration within the adjustable range of 0 to 99.99 seconds.
  3. Load Battery
    Place the battery pouch or cylindrical cell inside the chamber and close the pneumatic lid to create a sealed enclosure.
  4. Apply Vacuum
    Activate the vacuum cycle to evacuate the chamber to the target vacuum level up to -95 KPa.
  5. Monitor Absorption
    Monitor the electrolyte absorption process through the visible window and allow the chamber to stand for the set time.
  6. Release Pressure and Unload
    Release the vacuum by opening the vent valve on the control box and then carefully open the chamber lid to retrieve the battery.

How does the multi-stage cycle function improve electrolyte absorption compared to single-stage vacuum hold?

The multi-stage cycle function repeatedly applies and releases vacuum, promoting deeper electrolyte penetration into electrode pores by preventing surface saturation. The chamber maintains a stable vacuum up to -95 KPa with minimal pressure drop during each cycle, ensuring consistent conditions across repeated vacuum holds for pouch and cylindrical cells.

Can this vacuum chamber be integrated into an argon-filled glove box for moisture-sensitive electrolyte filling?

Yes, the separate main unit and control box design allows the control electronics to be placed outside the glove box while the chamber operates inside the inert atmosphere. The pneumatic top chamber with linear guides ensures smooth sealing without electrical components inside, and the aluminum alloy construction resists corrosion from electrolyte vapors.

What are the compressed air and electrical infrastructure requirements for operating this vacuum chamber?

The chamber requires a compressed air supply at 0.5–0.7 MPa for pneumatic top chamber actuation and a standard 220 V/50 Hz electrical outlet with 50 W power draw. No specialized cooling or exhaust is needed, but the 40 kg unit should be placed on a stable bench or integrated into a production line with adequate support.

The Atomfair Vacuum Standing Chamber VSC517 offers stable vacuum holding with minimal pressure drop and a multi-stage cycle function for enhanced electrolyte absorption in pouch and cylindrical cells, but requires a compressed air supply and has a chamber interior size of 330×200×150 mm that limits the maximum battery dimensions that can be processed.

Positive

  • Stable vacuum with minimal pressure drop: The chamber maintains a stable vacuum environment with small pressure drop, ensuring consistent electrolyte absorption conditions over the adjustable standing time.
  • Multi-cycle function for absorption: Multi-stage vacuum cycling improves electrolyte penetration into electrode plates, leading to more thorough integration compared to single-suction methods.

Trade-offs

  • Compressed air infrastructure needed: The pneumatic top chamber and sealing mechanism require a compressed air supply at 0.5–0.7 MPa, which may not be available in all lab setups and adds a maintenance burden.
  • Limited chamber dimensions: The internal chamber size of 330×200×150 mm restricts the maximum battery size that can be processed, requiring prior verification that cells do not exceed these dimensions.

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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