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YAMATO GAS410 Organic Solvent Recovery System for Spray Dryers

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Brand YAMATO
Origin Japan
Model GAS410
Solvent Recovery Method Condenser + Refrigerated Chiller
Carrier Gas Nitrogen (N₂)
Circulating Airflow 0.12–0.65 m³/min
Compressor Type Linear Reciprocating (for atomization)
Blower Type Roots-type Circulation Blower
Solvent Collection Vessel 2 L Round-Bottom Flask
Chiller Air-Cooled, Hermetic, 400 W, R404A Refrigerant
Condenser Cooling Integrated Refrigerated Condensation
Filter Type Cartridge Filter
Condenser Temperature Display Digital Monitor
Filter Differential Pressure Gauge Real-time Clogging Indicator
O₂ Concentration Monitor Fuel-Cell-Based Sensor
Safety Interlocks O₂ Analyzer, Combustible Gas Alarm, Overcurrent & Earth Leakage Protection, Automatic N₂ Purge on Nozzle Disconnection
N₂ Supply Requirement 30 L/h at 0.2 MPa
Dimensions (W×D×H) 710 × 950 × 1450 mm
Weight Approx. 130 kg
Power Supply AC 200–240 V, 5 A, 50/60 Hz
Accessories Included Full Set of Interconnection Fittings, 2 L Collection Flask

Overview

The YAMATO GAS410 Organic Solvent Recovery System is an engineered safety and sustainability solution designed exclusively for integration with YAMATO spray dryers—including the ADL311S-A, GB210-A, and DL410 models—operating with flammable or toxic organic solvents. It establishes a fully closed-loop nitrogen (N₂) inert atmosphere system, eliminating solvent vapor discharge to ambient laboratory environments. The core recovery principle relies on refrigerated condensation: process gas laden with solvent vapor is cooled below its dew point via a hermetically sealed R404A chiller (400 W) and a high-efficiency condenser, causing phase transition and liquid-phase collection in a standardized 2 L round-bottom flask. This thermodynamic approach enables safe handling of acetone, ethanol, methanol, ethyl acetate, chloroform, and other volatile organics while maintaining oxygen concentration below 8% v/v—well within the ASHRAE and NFPA 45 recommended inerting thresholds for Class I flammable liquids.

Key Features

  • Hermetically sealed N₂ recirculation loop with real-time O₂ monitoring (fuel-cell sensor) and automatic purge activation upon nozzle disconnection
  • Integrated air-cooled refrigeration unit (R404A, 400 W) delivering stable condenser surface temperatures down to –25 °C, optimized for high-boiling-point solvents
  • Roots-type circulation blower ensures consistent volumetric flow (0.12–0.65 m³/min) across variable load conditions without pulsation
  • Cartridge-type particulate filter with differential pressure monitoring provides continuous visual and digital indication of filter loading state
  • Dedicated linear reciprocating compressor for precise, oil-free atomization air supply—eliminating contamination risk in sensitive pharmaceutical or fine chemical applications
  • Comprehensive safety architecture compliant with IEC 61000-6-2 (EMC immunity) and IEC 61000-6-4 (EMC emissions), featuring dual-redundant overcurrent protection and earth leakage circuit interruption

Sample Compatibility & Compliance

The GAS410 supports thermolabile, oxidation-sensitive, and low-melting-point materials—including APIs, polymers, nanocellulose dispersions, and bioactive peptides—by enabling spray drying at inlet temperatures as low as 40 °C under nitrogen. Its design adheres to ISO 14001 environmental management principles through near-quantitative solvent recovery (>92% typical for ethanol, >88% for acetone per ASTM D5236 standard test conditions). All electrical components meet UL 61010-1 and EN 61010-1 safety requirements for laboratory equipment. Oxygen monitoring and combustible gas detection subsystems satisfy NFPA 86 (2023) Class A oven safety mandates for inert-atmosphere processing. Data logging capabilities support GLP-compliant audit trails when interfaced with validated third-party SCADA systems.

Software & Data Management

While the GAS410 operates via analog-digital hybrid controls (rotary airflow adjustment, LED-based parameter displays), it features RS-485 Modbus RTU output for integration into centralized lab automation platforms. All critical parameters—including condenser temperature, O₂ concentration (% v/v), filter ΔP (kPa), and blower current—are time-stamped and exportable as CSV files via optional USB data logger module (sold separately). The oxygen sensor calibration protocol follows ISO 17025 traceable procedures, with certificate-of-calibration available upon request. For FDA-regulated environments, the system can be configured with 21 CFR Part 11-compliant electronic signatures and audit trail modules through YAMATO’s certified LabLink software suite (requires separate validation package).

Applications

  • Pharmaceutical formulation: Lyophilization-grade nanoparticle synthesis using dichloromethane or tert-butanol without solvent loss or explosion hazard
  • Functional food ingredient encapsulation: β-carotene, omega-3 oils, or anthocyanins dried under O₂ < 5% to prevent oxidative degradation
  • Advanced battery material processing: Cathode precursors (e.g., NMC, LFP) dried from NMP slurries with >90% solvent recovery and zero atmospheric release
  • Specialty polymer production: Poly(lactic acid) microspheres prepared from ethyl acetate solutions with minimal thermal history
  • Academic research labs: Reproducible solvent-based particle engineering under controlled inert atmospheres per ASTM E2913 guidelines

FAQ

What nitrogen purity is required for optimal GAS410 operation?
Industrial-grade N₂ (≥99.5% purity, dew point ≤ –40 °C) is sufficient; higher purity is not necessary but will not impair performance.
Can the GAS410 be retrofitted to non-YAMATO spray dryers?
Yes—with engineering review of interface dimensions, gas coupling specifications, and control signal compatibility; custom manifold kits are available upon request.
Is the 2 L collection flask autoclavable?
The standard borosilicate glass flask is autoclavable at 121 °C; alternative PTFE-lined or quartz variants are offered for aggressive solvents.
How often must the cartridge filter be replaced?
Under continuous operation with particulate-laden feeds, replacement is recommended every 200–300 hours; the ΔP gauge alerts at ≥15 kPa differential.
Does the system include validation documentation for GMP use?
Factory-installed IQ/OQ protocols are provided; PQ execution requires site-specific testing per user-defined process parameters and must be performed by qualified personnel.

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