• StandardStandard

Whitenair Technocrats Pvt Ltd damper is a valve or plate that stops or regulates the flow of air inside a duct, chimney, VAV box, air handler, or other air handling equipment. A damper may be used to cut off central air conditioning (heating or cooling) to an unused room, or to regulate it for room-by-room temperature and climate control. Its operation can be manual or automatic. Manual dampers are turned by a handle on the outside of a duct. Automatic dampers are used to regulate airflow constantly and are operated by electric or pneumatic motors, in turn controlled by a thermostat or building automation system.

• Brand NameRoyal
• Place of OriginHyderabad
• StandardStandard
• Model NumberREW02

• Brand NameRoyal
• Place of OriginHyderabad
• Deep BlueAluminium sections
• StandardStandard
• Model NumberREW03

• IvoryBroken white
• StandardStandard

• Brand NameBIOSAFETY CABINET

We are offering biosafety cabinet a biosafety cabinet (bsc) — also called biological safety cabinet or microbiological safety cabinet — is an enclosed, ventilated laboratory workspace for safely working with materials contaminated with (or potentially contaminated with) pathogens requiring a defined biosafety level. Several different types of bsc exist, differentiated by the degree of biocontainment required. Bscs first became commercially available in 1950, the primary purpose of a bsc is to serve as the primary means to protect the laboratory worker and the surrounding environment from pathogens. All exhaust air is hepa-filtered as it exits the biosafety cabinet, removing harmful bacteria and viruses.[2] this is in contrast to a laminar flow clean bench, which blows unfiltered exhaust air towards the user and is not safe for work with pathogenic agents.[3]:13[4] neither are most bscs safe for use as fume hoods.[2] likewise, a fume hood fails to provide the environmental protection that hepa filtration in a bsc would provide.[5] however, most classes of bscs have a secondary purpose to maintain the sterility of materials inside (the "product").

We are offering fume hood a fume hood or fume cupboard is a type of local[1] ventilation device that is designed to limit exposure to hazardous or toxic fumes, vapors or dusts. A fume hood is typically a large piece of equipment enclosing five sides of a work area, the bottom of which is most commonly located at a standing work height. two main types exist, ducted and recirculating. The principle is the same for both types: air is drawn in from the front (open) side of the cabinet, and either expelled outside the building or made safe through filtration and fed back into the room. other related types of local ventilation devices include: clean benches, biosafety cabinets, glove boxes and snorkel exhausts. All these devices address the need to control airborne hazards or irritants that are typically generated or released within the local ventilation device. All local ventilation devices are designed to address one or more of three primary goals: to protect the user (fume hoods, biosafety cabinets, glove boxes); to protect the product or experiment (biosafety cabinets, glove boxes); to protect the environment (recirculating fume hoods, certain biosafety cabinets, and any other type when fitted with appropriate filters in the exhaust airstream). secondary functions of these devices may include explosion protection, spill containment, and other functions necessary to the work being done within the device. a general but non-specific term for some of these local ventilation devices is laminar flow cabinet. This category may include clean benches, biosafety cabinets and other devices characterized simply by the laminar nature of their airflow. The term laminar flow cabinet, however, is insufficient to identify their actual design and use - some will protect the product but not the user, and others will protect both. Terminology for local ventilation devices has been, and remain, unclear and non-specific, and the reader is advised to take special care in their selection and specification based upon which of the three primary goals (listed above) are to be met. fume hoods typically protect only the user, and are most commonly used in laboratories where hazardous or noxious chemicals are released during testing, research, development or teaching. They are also used in industrial applications or other activities where hazardous or noxious vapors, gases or dusts are generated or released. because one side (the front) of a fume hood is open to the room occupied by the user, and the air within the fume hood is potentially contaminated, the proper flow of air from the room into the hood is critical to its function. Much of fume hood design and operation is focused on maximizing the proper containment of the air and fumes within the fume hood. as most fume hoods are designed to connect to exhaust systems that expel the air directly to the exterior of a building, large quantities of energy are required to run fans that exhaust the air, and to heat, cool, filter, control and move the air that will replace the air exhausted. Significant recent efforts in fume hood and ventilation system design have focused on reducing the energy used to operate fume hoods and their supporting ventilation systems.