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Boante ZSQ-1000HPG Intelligent Walk-in Artificial Climate Chamber

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Brand Boante
Origin Hubei, China
Manufacturer Type Authorized Distributor
Product Category Domestic
Model ZSQ-1000HPG
Instrument Type Semi-Automatic
Temperature Range −10°C to 10°C (dark), 10°C to 45°C (light-on)
Temperature Uniformity ±1.5°C
Humidity Range 40–80% RH (light-on), 50–90% RH (light-off), within 15–45°C operational range
Humidity Uniformity ±5% RH
Photosynthetic Photon Flux Density (PPFD) 200–1500 μmol/m²/s (customizable, 0–100% stepless dimming)
Chamber Capacity Customizable
External Dimensions Customizable

Overview

The Boante ZSQ-1000HPG Intelligent Walk-in Artificial Climate Chamber is a high-fidelity environmental simulation platform engineered for controlled plant physiology research, cultivar development, and standardized growth-stage experimentation. Designed as a walk-in chamber rather than a benchtop incubator, it integrates precision thermohygrometric control, full-spectrum photosynthetic lighting, and ISO-compliant air handling into a single modular architecture. Its core measurement and control paradigm relies on closed-loop PID-regulated refrigeration (via thermal gas bypass), PTC ceramic auxiliary heating, ultrasonic humidification coupled with active dehumidification, and digitally addressable LED arrays calibrated to deliver quantifiable photosynthetic photon flux density (PPFD) across the 400–780 nm PAR band. Unlike conventional growth chambers, the ZSQ-1000HPG supports continuous operation under variable photoperiods, dynamic temperature/humidity setpoint ramps, and multi-zone light intensity programming—enabling reproducible simulation of diurnal cycles, seasonal transitions, and stress-conditioned environments over complete crop life cycles.

Key Features

  • Modular polyurethane sandwich panel construction with A1-class fire-rated insulation (50/75/100 mm thickness options), double-sided pre-painted steel cladding (≥0.426 mm base thickness), and cold-bridge-free assembly per GB 50016-2014 Fire Protection Code.
  • Dual-mode climate control: Compressor-based cooling + tri-zone PTC ceramic heating (response time ≤5 s) with adaptive PID logic; ultrasonic humidifier (≥4 L/h output) and dedicated dehumidifier (≥5 kg/day capacity) operating in coordinated feedback mode.
  • Full-spectrum LED lighting system compliant with ISO 8573-1 cleanroom air classification (Class 8 / ISO 7 equivalent); PPFD output adjustable from 0 to 1500 μmol/m²/s at 150 mm distance, with per-shelf independent dimming and 96-segment programmable photoperiod scheduling.
  • Integrated ventilation architecture: Full-supply/full-exhaust air handling unit delivering ≥300 m³/h fresh air volume and ≥10 air changes per hour; particulate filtration meeting ISO 14644-1 Class 8 requirements (≤3.5×10⁶ particles/m³ @ 0.5 µm, ≤2×10⁴ particles/m³ @ 5 µm).
  • Industrial-grade PLC control system with MCGS-based HMI interface (5″–15.6″ configurable touchscreen), local data logging ≥5 years, and secure remote access via 4G/WiFi-enabled IoT gateway supporting role-based user management (1 super-admin + ≥20 standard users).
  • Comprehensive safety infrastructure: High/low-pressure compressor protection, earth-leakage circuit interruption, redundant temperature cutoff (secondary independent controller triggers power cutoff upon primary failure), UV germicidal lamp (≥90 µW/cm² irradiance, timer-controlled), and IP65-rated LED sanitary lighting.

Sample Compatibility & Compliance

The ZSQ-1000HPG accommodates diverse biological sample formats—including tissue culture vessels, hydroponic trays, potted seedlings, and multi-tier growth racks—within its fully customizable internal volume. Structural load capacity supports stainless-steel (AISI 304) adjustable-height shelving systems rated ≥100 kg per tier. Environmental performance complies with ASTM E1826 (Standard Practice for Determining Performance of Controlled Environment Chambers), ISO 17025:2017 (for calibration traceability of embedded sensors), and relevant clauses of USP and FDA 21 CFR Part 11 regarding audit trail integrity for parameter change logs. All humidity and temperature sensors are NIST-traceable and factory-calibrated; humidity control accuracy meets ISO 8573-3 Class 3 specifications (±3–5% RH depending on operating range). The chamber’s air cleanliness profile satisfies GLP-aligned facility validation requirements for plant phenotyping laboratories.

Software & Data Management

The embedded MCGS HMI firmware provides real-time visualization of all critical parameters (temperature, RH, PPFD, CO₂ if optional sensor installed, airflow velocity, alarm status) alongside historical trend graphs with zoom/pan functionality. Data export is supported in CSV format with UTC timestamps and metadata tagging (user ID, session ID, event annotations). Remote access enables synchronized UI mirroring between local touch panel and web dashboard or mobile application, allowing authenticated users to modify setpoints, initiate/terminate programs, and acknowledge alarms without physical presence. Audit trails record every parameter modification—including operator ID, timestamp, pre-change/post-change values—and are cryptographically signed to ensure non-repudiation. Optional integration with LIMS platforms is available via Modbus TCP or RESTful API endpoints.

Applications

  • Controlled-environment phenotyping of cereal, legume, and horticultural crops under defined photoperiods, temperature gradients, and humidity regimes.
  • Functional genomics studies requiring precise PAR delivery during circadian rhythm assays or light-signaling pathway characterization.
  • Seed germination standardization and varietal tolerance screening (e.g., drought, heat, or shade stress modeling).
  • GMP-aligned micropropagation workflows where environmental consistency directly impacts explant viability and somaclonal variation rates.
  • Pre-commercial testing of LED spectral formulations for vertical farming systems, including red/blue/far-red ratio optimization and photomorphogenic response mapping.
  • Regulatory submission support for OECD TG 208 (Terrestrial Plant Test) and EPA OPPTS 850.4400 (Plant Metabolism Studies) requiring documented environmental stability over exposure durations.

FAQ

What is the maximum achievable PPFD uniformity across the working volume?
PPFD uniformity is maintained within ±8% across any single shelf plane at 150 mm below the LED array, verified using calibrated quantum sensors per ISO/IEC 17025-accredited procedures.
Can the chamber be validated for GxP compliance?
Yes—the system supports IQ/OQ/PQ documentation packages, including sensor calibration certificates, alarm response verification reports, and temperature/humidity mapping protocols aligned with WHO TRS 961 Annex 6 and EU GMP Annex 15.
Is CO₂ enrichment capability available as an option?
An integrated CO₂ injection module with mass flow controller and NDIR sensor is available as a factory-installed option, supporting setpoint ranges from 400 ppm to 2000 ppm with ±20 ppm accuracy.
How is condensation managed during high-humidity, low-temperature operation?
The chamber employs heated observation windows, insulated door gaskets, and perimeter drain channels with anti-siphon traps to prevent dew formation and water accumulation in critical zones.
What cybersecurity measures protect remote data transmission?
All OTA communications use TLS 1.2+ encryption; device authentication leverages X.509 certificate binding; firmware updates require signed binary verification prior to installation.

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