Fireproof Acid & Alkali Resistant Chemical Laboratory Ductless Bench-Top Fume Hood with Explosion Proof

• Customization: Available
• Material: Stainless Steel
• Type: Slit Type
• Model NO.: WJ-DM1600
• Function: Exhaust, Velocity Control
• Feature: Corrosion Resistance, Heat Resistant, Acid & Alkali Resistant, Fireproof, Explosion Proof
• Hood Type: Standard
• Color: Grey
• Customized: Customized
• Condition: New
• Product Name: Ductless Fume Hood
• Worktop: 20+6 mm Ceramic
• Liner Material: Ceramic Fiber Board
• Sash: Tempered Glass
• Filter: 370*395*50mm
• Input Power: 110V-240V
• Face Velocity: 0.4-0.6 M/S
• Application: Environment/Institute/Biology Lab/Chemical Lab
• Transport Package: Standard Export Wooden Case Packing
• Specification: 1600*620*1245 MM
• Trademark: Ample
• Origin: Chengdu, China
• HS Code: 8414809090
• Production Capacity: 200 Set/Month
• Package Size: 1900.00cm * 900.00cm * 2100.00cm
• Package Gross Weight: 360.000kg

Product Description

Product Description

A ductless fume hood is a stand alone, compact workstation that provides a continuous flow of air that filters hazardous fume vapors out, recirculating clean air back into your working environment. Because the air is recirculated, no exterior ducting or makeup air is necessary. These air filtration systems are designed to keep harmful airborne contaminants away from the operator's respiratory zone while they work within the hood.

Also referred to as exhaust hoods, these containment systems are used for a variety of applications including chemical fume control, powder and dust removal, solvent vapor control, pharmaceutical powder filling, light grinding, acid gas fumes, anesthesia gas containment, epoxy fume control and other applications that produce hazardous particulates and fumes.

Ductless fume hoods offer several key advantages when weighing your options versus a ducted fume hood:

-No costly ducting or venting
-No permitting issues for venting outside of the building 
-Adaptable (mobility and ease in change of layout)
-Environmentally friendly
-Significant energy cost saving

Product Parameters

  

Model Parameters	YT-1500A	YT-1500B	YT-1500C	YT-1800A	YT-1800B	YT-1800C
Size (mm)	1500(W)*865(D)*2400(H)			1800(W)*1205(D)*2400(H)
Worktop Size (mm)	1260(W1)*795(D1)*1100(H1)			1560(W1)*795(D1)*1100(H1)
Worktop	20+6mm Ceramic	20+6mm Ceramic	12.7mm Solid Physiochemical Board	20+6mm Ceramic	20+6mm Ceramic	12.7mm Solid Physiochemical Board
Liner	5mm Ceramic Fibre	5mm Compact Laminate	5mm Compact Laminate	5mm Ceramic Fibre	5mm Compact Laminate	5mm Compact Laminate
Diversion Structure	Back Absorption
Control System	Touch-Tone Control Panel (LED Screen)
Input Power	220V/32A
Fan Power	Less than 2.8 A
Socket Max. Load	5KW
Faucet	1 Set
Drainage Mode	Natural Fall
Storage	Double-Lock, Corrosion-Resistant, Damp-proof, Multi-layer Solid Wood with Mobile Wheel
Application	Indoor No-blast, 0-40 ºC
Application Field	Organic Chemical Experiment
Face Velocity Control	Manual Control
Average Face Velocity	0.3-0.5 m/s  Exhaust: 720-1200m³/h			0.3-0.5 m/s  Exhaust:900- 1490m³/h
Face Velocity Deviation	Less than 10%
Average Illumination	Less than 500  Lux
Noise	Within 55 dB
Exhaust Air	No Residue
Safety Test	In Accord with International Standard
Resistance	Less than 70Pa
Add Air Function	Distinctive Structure (Need Exclusive Add Air System)
Air Flow Control Valve	Dia. 250mm Flange Type Anti-Corrosion Control Valve			Dia. 315mm Flange Type Anti-Corrosion Control Valve

More About the Fume Hood

In the event that satisfactory responses cannot be provided to ensure the safe usage of a recirculating fume hood, a decision should certainly be made in favour of selecting a ducted fume hood. Without a doubt, safety must remain the first priority when making this decision. Whether the lab is in a school or a blue-chip organisation, this is vital. However, while ducted enclosures have been the industry standard for containment of toxic gases for years, their tremendous infrastructure, usage, and environmental costs cannot be ignored any longer.

At the same time, some ductless fume hood manufacturers have recently emerged with safety services and product evolutions, which, under the right circumstances, can provide a viable solution in the laboratory. In today's world, the decision between the two styles needs to be made with a careful eye on safety, the environment, and energy consumption, and a conclusion can be made that it is worthwhile to try and determine where both products have their place. Given the extreme rise in energy costs and the benefits of using green technologies, taking the time to figure out which system is best where, and determining the applications most suitable to each can have a significant impact on one's budget and on the environment.

Detailed Photos

                  

 

 

Certifications

 

 

FAQ

What Is a Fume Hood?

A fume hood is a piece of laboratory equipment designed to minimize a person's exposure to hazardous chemicals. The fume hood draws away harmful vapors so lab employees can work with chemicals without the risk of accidental exposure. The air is extracted from the fume hood and filtered to remove dangerous vapors, and then either exhausted outside of the building or recirculated back into the lab.

How Does a Fume Hood Work?

The fume hood works by using a sash (a window that opens or closes to protect the user) to contain the vapor and keep it away from the user's face or to prevent it from drifting out into the rest of the laboratory. Blowers draw in air from the room, through a filter or number of filters within the fume hood and towards an exhaust area.

To safely work in a fume hood, keep all work at least six inches away from the plane of the sash. This will ensure fumes are pulled away from the user. Also, make sure the hood sash remains closed as much as possible and keep the hood slots and baffles free of any obstructions by containers or equipment. Never place your head inside the fume hood when working with chemicals.

The airflow will differ depending on the type of hood you use. For a constant air volume (CAV) hood, the fan has only one speed, providing a stable and continuous airflow. A variable air volume (VAV) hood allows users to adjust the velocity of the exhaust for added versatility, while reduced air volume (RAV) hoods offer lower airflow performance, making them ideal for working with less harmful compounds.

Why do fume hoods use so much energy?
It's the air being sucked through the fume hood, not the fume hood itself that consumes so much energy. For health and safety reasons, labs use 100% outside air which must be heated or cooled for comfort before it is brought into the lab. In addition to the energy required to condition the air, a significant amount of additional electricity is required to run large fans to move the air through the building and through the fume hoods.

How does shutting the sash save energy?
Most fume hoods at Stanford are variable air volume (VAV), meaning that the fume hoods are designed to vary the air flow based on how wide open the sash height is. Sash position is connected to the building's ventilation system so that a building's fan speed and the volume of air moved is reduced when the sash is lowered.

Is it safe to shut the sash?
The sash is an important safety barrier between the fume hood interior and the laboratory, protecting the lab user. Sashes should be opened only to set up or modify an experiment. At all other times, shutting the sash is safest. When the sash is shut there is still some air flow through the hood to remove any fumes.

How do I remind myself and my roommates to close the sash?
You can post a sticker, like the one shown in the picture below, to remind yourself and your lab mates to close the sash when not in use. The sticker also educates new fume hood users tha a lower sash is safer, and that the sash should only be open when setting up and modifying experiments.
 

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