Introduction
An acrylic glove box is a glove box with an acrylic (polymethyl methacrylate) chamber, used for the handling of the materials in a controlled atmosphere, and it is used in the chemistry, the biology, the pharmaceutical, and the research laboratories for the handling of the sensitive materials, with the advantages of the transparency and the low cost. The acrylic glove box consists of a transparent acrylic chamber with the glove ports and the gloves, an antechamber or a transfer port, and, in some models, a gas control system, and it provides a sealed environment for the handling of the materials, and the acrylic material provides a clear view of the contents, and the glove box is lighter and more economical than the metal glove boxes; the acrylic glove box is used for the handling of the air-sensitive and the moisture-sensitive materials, for the weighing and the preparation of the samples, for the handling of the toxic and the hazardous materials, for the storage of the samples, and for many other applications, and it is available in various sizes, from the small portable models to the larger models, with features such as the antechamber and the gas ports; the acrylic glove box provides the controlled environment, although the gas purification and the low oxygen and moisture levels may be limited compared with the metal glove boxes; the acrylic glove box is a practical choice for the applications where the full inert atmosphere is not required. Acrylic glove boxes are used in the chemistry and the biology laboratories, in the pharmaceutical industry, in the educational institutions, and for many other applications. With their transparency, acrylic glove boxes are essential for the handling of the sensitive materials.
Acrylic Glove Box LAGB-T2015
Acrylic Glove Box has an antechamber which acts as a bridge between the main chamber and the outer atmosphere and allows safe transfer of sensitive materials. The glove box is made from ...
Acrylic Glove Box LAGB-T2014
Acrylic Glove Box provides an antechamber made with acrylic material, allowing a clear view of the material transfer clearly. It can withstand immense pressure of up to 1000 Pa, making i...
Acrylic Glove Box LAGB-T2013
Acrylic Glove Box is a machine that allows changing normal air into an inert environment for working on materials sensitive to air. It replaces oxygen and moisture with inert gases insid...
Acrylic Glove Box LAGB-T2012
Acrylic Glove Box is a transparent box allowing complete visual, and the material is non-yellowing, making it long-lasting. It has an antechamber placed on the side to make highly sensit...
Acrylic Glove Box LAGB-T2011
Acrylic Glove Box has an antechamber which acts as a bridge between the main chamber and the outer atmosphere and allows safe transfer of sensitive materials. Its antechamber is also cle...
Acrylic Glove Box LAGB-T2010
Acrylic Glove Box has an antechamber which acts as a bridge between the main chamber and the outer atmosphere and allows safe transfer of sensitive materials. Its antechamber is also cle...
Acrylic Glove Box LAGB-T2016
Acrylic Glove Box has dimensions 900 × 500 × 500 mm, made from acrylic sheets, which can be observed clearly from any angle. It has a gas inlet and outlet made with stainless steel for...
Acrylic Glove Box LAGB-T2015
Acrylic Glove Box has dimensions 1000 × 750 × 700 mm, is made from acrylic sheets, and has a wide workspace. The glove box is made from a 10 mm acrylic sheet, allowing better pressure ...
Acrylic Glove Box LAGB-T2014
Acrylic Glove Box with dimensions 900 × 600 × 700 mm, allows a wide workspace. The glove box is made from a 10 mm acrylic sheet, allowing better pressure endurance and visibility. Its ...
Acrylic Glove Box LAGB-T2013
Acrylic Glove Box has dimensions 900 × 500 × 500 mm, made from acrylic sheets, which can be observed clearly from any angle. It is lightweight irrespective of its size. Additionally, t...
Acrylic Glove Box LAGB-T2012
Acrylic Glove Box has dimensions 800 × 550 × 600 mm for a wide and comfortable workspace. It is built from 6 mm-thick transparent acrylic sheets, offering clear visibility from all ang...
Acrylic Glove Box LAGB-T2011
Acrylic Glove Box has dimensions 800 × 550 × 600 mm and is made from acrylic sheets, with enhanced visibility from any angle. It has a desktop design for easy relocation. The inlet and...
Acrylic Glove Box LAGB-T2010
Acrylic Glove Box has a dimension of 300 × 400 × 500 mm and is constructed from a 6 mm-thick acrylic sheet for clear visibility. It offers clear visibility and is suitable for applicat...
Standards
ISO 14644-7:2004-Cleanrooms and associated controlled environments-Separative devices (clean air hoods, gloveboxes, isolators and mini-environments)
Complies with the above standards, but is not limited to them.
Features
1. Acrylic glove box for handling materials in a controlled, enclosed environment with glove ports.
2. Transparent acrylic (PMMA) chamber with gloves, transfer port, and optional gas purge for inert atmosphere.
3. Suitable for chemistry, biology, materials science, pharmaceutical and educational laboratory applications.
4. Includes acrylic chamber, gloves, transfer antechamber, gas inlet/outlet, and operation manual.
5. Supports manipulation of hazardous, sensitive, or contamination-prone materials in a visible, enclosed workspace.
FAQ
Q1: What testing scenarios is this glove box mainly applied to?
A: The acrylic glove box is used in chemistry, biology, materials science, pharmaceutical, and educational laboratories for handling materials in a controlled, enclosed environment, providing a transparent chamber with glove ports that allow manipulation while isolating the user from hazardous materials or isolating sensitive materials from the ambient environment. It supports chemistry (handling of air/moisture-sensitive compounds (organometallics, pyrophoric materials, reactive intermediates - though for strict inert atmosphere (O2/H2O <1 ppm), metal glove boxes with gas purification are preferred; acrylic is for less stringent needs), hazardous chemicals (toxic, carcinogenic, mutagenic compounds - protect user from exposure), powder handling (nanoparticles, toxic powders, dusts - contain aerosols), weighing and transferring of hazardous materials), biology and microbiology (handling of pathogenic microorganisms (BSL-2/3 - though biological safety cabinets (BSC) are preferred for bioaerosols; acrylic glove box can be used for non-aerosol-generating work), cell culture (sterile manipulation, contamination-free handling - though laminar flow hoods are more common), handling of allergens, infectious materials), materials science (nanomaterial synthesis/handling (carbon nanotubes, graphene, nanoparticles - contain dust, prevent inhalation), battery materials (lithium, electrode materials - moisture-sensitive), semiconductor processing (small-scale, contamination control)), pharmaceutical (API handling (potent compounds, hormones, cytotoxics - containment for operator protection), sterile compounding (though isolators are preferred for pharmacy), powder dispensing), and education/teaching (demonstrations of inert atmosphere techniques, student labs, safe handling of moderately hazardous materials). Acrylic glove box principle: A transparent chamber made of acrylic (polymethyl methacrylate, PMMA, also called Plexiglas/Lucite) with two or more glove ports (gloves attached to ports, allowing hand insertion into chamber). A transfer antechamber (small pass-through) allows moving items in/out without opening main chamber. Gas inlet/outlet ports allow purging with inert gas (nitrogen, argon) to create low-oxygen/moisture environment, or maintaining slight positive pressure to prevent ingress. Acrylic is transparent (good visibility), lightweight, cheaper than metal/stainless steel glove boxes, but has limitations: not gas-tight enough for ultra-low O2/H2O (ppm levels) without continuous purge; can be damaged by some organic solvents (acetone, toluene can craze/crack acrylic); not for high vacuum; not for highly pyrophoric/air-sensitive work requiring <1 ppm O2 (use stainless steel glove box with gas purifier). Acrylic is suitable for moderate containment (user protection from powders/chemicals) and basic inert atmosphere (with continuous N2 purge, can reach ~10-100 ppm O2, not ppm levels). See 3294 (anaerobic workstation) for biological anaerobic chambers; this is general chemistry/materials glove box.
Q2: What standards does the glove box comply with?
A: The acrylic glove box follows relevant ISO, OSHA, NSF and GB/T standards including ISO 14644 (cleanroom classification - if used for clean applications), OSHA (29 CFR 1910.1450 - laboratory standard; 1910.134 - respiratory protection; containment for hazardous chemicals), NSF/ANSI 49 (if used as biosafety cabinet - but acrylic glove box is not a BSC; BSCs have HEPA filtration and specific performance), and GB/T standards for glove boxes and laboratory enclosures. The hardware complies with applicable construction (acrylic thickness, structural integrity), glove integrity (leak test), and gas tightness (for inert atmosphere). For chemical handling, follow OSHA Laboratory Standard (Chemical Hygiene Plan) and SOPs for specific chemicals. For biological handling, follow BMBL (Biosafety in Microbiological and Biomedical Laboratories) and institutional biosafety committee (IBC) approval - note: acrylic glove box without HEPA filtration is NOT a substitute for a Class II biosafety cabinet for aerosol-generating procedures with BSL-2+ agents. For pharmaceutical potent compounds, follow ISPE (containment performance criteria) and occupational exposure limits (OEL) - verify containment performance with surrogate testing (e.g., naproxen sodium). For inert atmosphere, follow standard practices (purge with N2/Ar, monitor O2 with sensor). For cleanroom use, follow ISO 14644 (class 5/7/8) and verify with particle counting. For regulated labs (GMP, ISO 17025), maintain equipment qualification (IQ/OQ), leak test records, and SOPs. Acrylic compatibility: verify chemical resistance (acrylic is attacked by acetone, toluene, benzene, chlorinated solvents, strong bases; resistant to water, acids, alcohols (dilute), most salts).
Q3: What is the warranty period for the whole glove box and key components?
A: The whole acrylic glove box is covered by a 12-24 month warranty (lab equipment often 1-2 years). The acrylic chamber, frame, gloves, antechamber, and ports are covered, while gloves (wear part - latex/nitrile/neoprene gloves degrade with use, chemicals, UV; replace when cracked/sticky/torn; lifespan 3-12 months depending on use), gaskets/seals (wear - degrade with chemicals/age; replace if leaking), and HEPA filters (if equipped - wear, replace per pressure drop) are consumables/accessories. Damage from improper use, chemical attack on acrylic (acetone, toluene, strong solvents craze/crack acrylic - use compatible chemicals only; do not clean with acetone), over-pressurization (exceeding pressure rating - can crack acrylic/rupture seals; use pressure relief valve), dropping/impact (acrylic can crack/shatter - handle carefully; though more impact-resistant than glass), glove tears (replace immediately - loss of containment), UV exposure (acrylic yellows/degrades with prolonged UV/sunlight - keep indoors), or unauthorized modification is excluded. Extended warranty and service contracts (leak testing, glove replacement, certification) may be available. Acrylic chamber lasts 3-10 years with proper care (may yellow over time); gloves 3-12 months; gaskets 1-3 years. Note: acrylic scratches easily - use microfiber cloth, mild soap/water for cleaning (do not use abrasive or solvent cleaners).
Q4: Is this device difficult to operate? Is professional training required?
A: Operation is straightforward for lab personnel (insert hands into gloves, manipulate inside, use antechamber for transfer). No professional training required for basic use, but proper technique for containment and inert atmosphere is important. We provide operation manuals. Proper setup (place on stable, level bench (glove boxes are heavy when large), ensure adequate workspace around glove ports, connect gas supply (if inert atmosphere: N2 or Ar cylinder with regulator, tubing to inlet; outlet to vent or bubbler), install gloves (check for tears, secure with clamps/O-rings), verify antechamber (both doors close, seal, purge port), if inert atmosphere: purge chamber (close main chamber, open gas inlet, purge with N2/Ar for 10-30 min (3-5 volume exchanges) to reduce O2; monitor with O2 sensor if available; maintain slight positive pressure (1-5 inches water column) to prevent air ingress; use pressure relief valve to prevent overpressure), operation (insert hands through gloves (do not force - gloves should fit; use appropriate size), manipulate materials inside (use long-handle tools if needed), transfer items via antechamber (place item in antechamber, close outer door, purge antechamber with inert gas (if inert atmosphere), open inner door, move item in; reverse for removal; NEVER open main chamber while maintaining inert atmosphere), for hazardous materials: work carefully, minimize aerosols, use appropriate PPE under gloves (nitrile gloves), monitor for leaks (if smell chemical or O2 rises, check gloves/seals), post-operation (remove hands, clean chamber (wipe with mild soap/water or compatible disinfectant; do NOT use acetone/toluene on acrylic), turn off gas (or maintain low flow for inert storage), inspect gloves (tears, degradation), maintenance (daily: inspect gloves (tears, cracks), check pressure (if inert), wipe exterior; weekly: clean interior (if not contaminated), inspect gaskets/seals, check gas supply; monthly: leak test (pressure decay or soap bubble test), inspect acrylic (cracks, crazing, yellowing), replace gloves if degraded; semi-annually/annually: professional leak/certification test, replace gaskets, glove replacement, antechamber seal check), troubleshooting (leak / O2 rising (glove tear (replace), gasket/seal worn (replace), antechamber door not closed (close), acrylic crack (inspect, repair/replace), gas supply empty (refill), pressure too low (increase flow) - identify and fix), poor visibility / acrylic cloudy (chemical attack (crazing - irreversible, replace panel), scratches (polish with acrylic polish), condensation (dry chamber, purge with dry gas), clean with mild soap), glove difficult to use (wrong size (replace), pressure too high (reduce), glove stiff/degraded (replace), gloves falling off (clamp loose (tighten)), gas not flowing (cylinder empty (refill), regulator closed (open), tubing kinked (straighten), filter clogged (replace)), and safety (CHEMICAL HAZARD (glove box contains hazardous materials - know SDS of all chemicals inside; some chemicals can permeate gloves (use appropriate glove material (nitrile for most, butyl rubber for solvents, neoprene); double-glove if needed; do not rely solely on box gloves - wear lab gloves underneath), ACRYLIC COMPATIBILITY (acrylic is attacked by acetone, toluene, benzene, chlorinated solvents (CH2Cl2, chloroform), THF, strong bases (NaOH at high conc) - these can craze, cloud, or crack acrylic; use only compatible chemicals; if working with incompatible solvents, use glass/stainless steel glove box or fume hood; do not clean acrylic with acetone/alcohol (use mild soap/water or dedicated acrylic cleaner)), PRESSURE (do not overpressurize (can crack acrylic, blow gloves off); use pressure relief valve; maintain slight positive pressure only (1-5 inches H2O); do not use vacuum on acrylic chamber (can implode - acrylic is not for high vacuum; use vacuum chamber if needed)), BIOLOGICAL (if handling pathogens: acrylic glove box without HEPA is NOT a biosafety cabinet; for BSL-2 aerosol work, use Class II BSC; glove box can be used for non-aerosol work with proper PPE and decontamination; follow BMBL and IBC approval), INERT ATMOSPHERE (for air-sensitive work: acrylic glove box with continuous purge can reach ~10-100 ppm O2, NOT ppm levels; for strict inert (<1 ppm O2/H2O), use stainless steel glove box with gas purifier (H2O/O2 catalyst); monitor O2 with sensor; use dry, oxygen-free gas; purge antechamber before transfer), FIRE/EXPLOSION (if using flammable solvents/powders: ensure ventilation (purge to fume hood), no ignition sources, ground chamber if handling flammable powders (static); acrylic can build static charge - use antistatic acrylic or grounding for flammable powders), do not use acrylic glove box for highly pyrophoric materials (e.g., tert-butyllithium, potassium metal) without strict inert atmosphere (acrylic purge may not be sufficient; use stainless steel box), do not use for high vacuum (acrylic implodes), do not clean with abrasive or solvent (scratches/crazes acrylic), for pharmaceutical potent compounds: verify containment with surrogate testing (OEL compliance), decontaminate between products, for disposal: decontaminate chamber before opening/disposal, acrylic is recyclable (PMMA), dispose of contaminated gloves as hazardous waste, do not modify chamber (drilling holes compromises integrity; use factory ports) are critical for safe glove box operation.
Q5: What is the typical lead-time for order delivery?
A: Standard models require 7-30 working days. In-stock units can ship within 3-7 working days. Custom configurations or large built-to-order systems may require additional time, and we confirm the exact schedule before order confirmation.
Q6: Is regular calibration required? What is the recommended calibration cycle?
A: Acrylic glove boxes are containment equipment - no analytical calibration, but performance verification recommended: leak/integrity test (pressure decay or soap bubble test) every 3-6 months (or per SOP), glove integrity check (visual + inflate test) before each use or daily, and O2 sensor calibration (if inert atmosphere monitor) every 6-12 months per sensor manufacturer. Routine checks: glove inspection (before each use - tears, cracks, degradation), pressure check (if inert, daily), and acrylic inspection (weekly - cracks, crazing). If gloves replaced, gaskets changed, chamber moved, or leak suspected, re-test integrity. For GMP/pharma/containment applications, follow applicable schedules and maintain records (leak test results, glove lot/expiry, O2 calibration, decontamination logs). For cleanroom use, particle count verification periodically (ISO 14644). For biological use, decontamination validation (if used for pathogens). No ISO 17025 calibration needed for the box itself, but O2 sensor and any monitoring equipment should be calibrated. Glove replacement is based on condition (not just schedule) - replace immediately if torn, cracked, or permeated.
Q7: Are supporting consumables universal?
A: Gloves (replacement - specific to port size (8 inch, 10 inch diameter); materials: latex, nitrile, neoprene, butyl rubber, Hypalon; universal from lab supply (Bel-Art, Cole-Parmer, North) but must match port size and clamp type), gaskets/seals (specific to chamber/antechamber - use OEM or certified compatible), gas tubing/regulators (universal lab supply), O2 sensor (if equipped - specific to monitor), HEPA filters (if equipped - specific to unit), and acrylic cleaner/polish (universal) are available from lab supply companies, though gloves must match port size and gaskets are chamber-specific (use OEM or certified compatible to maintain containment). Long-term consumable cost includes gloves (regular replacement, $10-$50/pair), gaskets (periodic), and gas (if inert purge, continuous N2/Ar consumption - can be significant).
Q8: Can I customize parameters or supporting accessories?
A: Customization includes chamber size (small (60x40x40 cm, single user), medium (90x60x60 cm), large (120x80x80 cm, multi-user, 4-6 gloves)), acrylic type (clear (standard), antistatic (for flammable powders/electronics), UV blocking (for light-sensitive materials), colored), number/size of glove ports (2 ports (single user), 4 ports (two users or extra), 6+ ports; port diameter 8 or 10 inch), antechamber (single or double, size, with purge), gas system (inert gas purge (N2/Ar), O2 monitor, pressure gauge/relief, vacuum (limited - acrylic not for high vacuum)), filtration (HEPA inlet/outlet (for biological/clean), charcoal filter (for solvent vapors)), features (built-in light, power port inside (for balances, stirrers), pass-through, vacuum gauge, antistatic flooring, work surface (stainless steel, plastic), accessories (replacement gloves (various materials/sizes), gas regulator/flowmeter, O2 sensor/monitor, HEPA filters, acrylic cleaner/polish, long-handle tools, antistatic kit, leak test kit, certification (leak test, cleanroom ISO 14644), certifications (CE, ISO 9001, OSHA-compliant), language and accessories. Additional gloves, gas supplies, and accessories can be ordered separately.
Q9: Does the purchase include on-site installation and commissioning service?
A: Standard delivery includes acrylic glove box (chamber, gloves, antechamber, ports), and instruction manual (gas regulator, O2 sensor often NOT included - order separately). On-site installation is not required for standard acrylic glove boxes (unbox, place on bench, install gloves, connect gas (if needed), use). On-site training is not included for standard orders but can be arranged at additional cost (for chemistry/biology teams on inert atmosphere technique, containment, glove maintenance, decontamination). Remote guidance provided. Always inspect gloves and seals, perform leak test, and (if inert) purge before first use. For large/custom or containment-certified units: on-site installation/commissioning may be recommended.
Q10: What types of samples are compatible with this equipment?
A: The acrylic glove box handles various materials including chemicals (air-sensitive compounds (moderate), toxic/carcinogenic powders, reactive intermediates, solvents (compatible only - not acetone/toluene/CH2Cl2 which attack acrylic)), biological samples (pathogens (non-aerosol), cell cultures, allergens, infectious materials), materials (nanoparticles, battery materials (Li, electrodes), semiconductor powders, carbon nanotubes), pharmaceutical (APIs, potent compounds, hormones, cytotoxics, sterile powders), and general hazardous/powder materials requiring containment. NOT compatible with: Chemicals that attack acrylic (acetone, toluene, benzene, chlorinated solvents (CH2Cl2, chloroform), THF, strong bases at high concentration - these craze/crack acrylic; use glass/stainless steel glove box or fume hood for these), highly pyrophoric/air-sensitive materials requiring <1 ppm O2 (acrylic purge only reaches ~10-100 ppm; use stainless steel glove box with gas purifier for t-BuLi, K metal, etc.), high vacuum applications (acrylic implodes - use vacuum chamber/desiccator), high pressure (acrylic can crack - use pressure vessel), aerosol-generating biological procedures with BSL-2+ agents (use Class II biosafety cabinet with HEPA; acrylic glove box without HEPA is not a BSC), radioactive materials (acrylic provides some beta shielding but not gamma; use appropriate shielding and licensed facility), and large equipment that does not fit through antechamber (measure before purchase). For solvent work: verify acrylic compatibility (use only alcohols, water, dilute acids; avoid ketones, aromatics, chlorinated, ethers). For flammable powders: use antistatic acrylic and grounding. For biological: decontaminate with compatible disinfectant (ethanol is OK on acrylic? Actually ethanol can haze some acrylics; use quaternary ammonium or bleach (dilute) - verify; do not use acetone). IMPORTANT: Acrylic glove box fundamentals: (1) What is it? A transparent chamber (acrylic/PMMA) with glove ports for manipulating materials while isolating user from hazards or samples from environment. Cheaper/lighter than stainless steel, but less gas-tight and solvent-sensitive. (2) Acrylic (PMMA) properties: - Transparent (excellent visibility). - Lightweight, easy to fabricate. - Chemical resistance: OK with water, dilute acids, alcohols (ethanol/methanol - some hazing), salts. - NOT resistant: acetone, toluene, benzene, chlorinated solvents (CH2Cl2, chloroform), THF, strong bases (crazes/cracks). - Scratches easily (use microfiber, mild soap/water). - Yellows with UV/age. - Not for high vacuum (implodes). - Static charge buildup (use antistatic for powders). (3) vs stainless steel glove box: - Acrylic: cheaper, transparent, lighter, but less gas-tight (10-100 ppm O2 with purge), solvent-sensitive, not for high vacuum. - Stainless steel: gas-tight (<1 ppm O2 with purifier), solvent-resistant, can do vacuum/pressure, but expensive, not transparent (has windows), heavier. - Choose acrylic for moderate containment/basic inert; stainless for strict inert atmosphere/hazardous chemicals. (4) Key components: - Chamber (acrylic panels, bonded). - Glove ports (8/10 inch, with gloves). - Antechamber (pass-through, with purge). - Gas inlet/outlet (for inert purge). - Optional: HEPA, O2 monitor, lights, power ports. (5) Inert atmosphere: - Purge with N2/Ar (3-5 volume exchanges). - Can reach ~10-100 ppm O2 (not ppm). - Maintain slight positive pressure. - For <1 ppm: need stainless box + gas purifier. (6) Safety: - Chemical compatibility (no acetone/toluene on acrylic). - Glove integrity (check before use). - Pressure (no overpressure/vacuum). - Biological (not a BSC without HEPA). - Flammable (antistatic, ventilation). (7) Common errors: - Using acetone/toluene inside (crazes acrylic). - Overpressurizing (cracks, blows gloves). - Using for strict inert atmosphere (not sufficient). - Not checking gloves (tears = exposure). - Cleaning with solvent (damages acrylic). - Using for BSL-2 aerosols (not a BSC). (8) Choosing: - Moderate hazard, basic inert, budget: Acrylic glove box. - Strict inert (<1 ppm), hazardous solvents, vacuum: Stainless steel glove box. - Biological aerosols: Biosafety cabinet (Class II). - Pharmacy sterile compounding: Isolator (cGMP).
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