Ventilating Stocks List

Related ETFs - A few ETFs which own one or more of the above listed Ventilating stocks.

Ventilating Stocks Recent News

Date Stock Title
Jun 16 BMI Those who invested in Badger Meter (NYSE:BMI) five years ago are up 235%
Jun 14 FIX Comfort Systems USA: The Market Has Overpriced Its Growth
Jun 14 BMI Badger Meter (BMI) Surges 22.1% YTD: Will the Rally Continue?
Jun 13 LMB Limbach Holdings Elects David Gaboury to Board of Directors
Jun 13 BMI 3 Buy Rated Stocks Flexing Robust Growth: ANF, BMI, CHWY
Jun 13 BMI Broadcom (AVGO) Q2 Earnings Beat Estimates, Revenues Rise Y/Y
Jun 13 BMI SONY's Subsidiary SPE Buys Alamo Drafthouse Cinema Chain
Jun 13 CARR Carrier's Ambitious Climate and Net Zero Targets Validated by the Science Based Target Initiative
Jun 12 BMI Vishay (VSH) Expands Semiconductor Portfolio With SiC MOSFETs
Jun 12 BMI Adobe (ADBE) Q2 Earnings to Gain From Digital Media Strength
Jun 12 BMI NETGEAR (NTGR) Adds Two New Products to Wi-Fi 7 Portfolio
Jun 12 CARR Carrier is Developing Next-Generation Heat Pump Rooftop Units Through DOE Accelerator
Jun 12 BMI Descartes (DSGX) Acquires England-based BoxTop for $13M
Jun 11 BMI Badger Meter (BMI) Ascends But Remains Behind Market: Some Facts to Note
Jun 11 TATT Those who invested in TAT Technologies (NASDAQ:TATT) five years ago are up 157%
Jun 11 GHM Buffett partner Charlie Munger kept these rules about investing and life that you can use too
Jun 11 GHM Sidoti Events, LLC's Virtual June Small-Cap Conference
Jun 11 BMI WIX's AI Website Builder Now Available in Several Languages
Jun 11 JCI Sensormatic Solutions Network of Service Bureaus Enables End-to-End RFID Solutions Worldwide
Jun 11 CARR Bull Market Buys: 3 Outstanding Growth Stocks to Own for the Long Run
Ventilating

Ventilation is the intentional introduction of ambient air into a space and is mainly used to control indoor air quality by diluting and displacing indoor pollutants; it can also be used for purposes of thermal comfort or dehumidification. The correct introduction of ambient air will help to achieve desired indoor comfort levels although the measure of an ideal comfort level varies from individual to individual.
The intentional introduction of subaerial air can be categorized as either mechanical ventilation, or natural ventilation. Mechanical ventilation uses fans to drive the flow of subaerial air into a building. This may be accomplished by pressurization (in the case of positively pressurized buildings), or by depressurization (in the case of exhaust ventilation systems). Many mechanically ventilated buildings use a combination of both, with the ventilation being integrated into the HVAC system. Natural ventilation is the intentional passive flow of subaerial air into a building through planned openings (such as louvers, doors, and windows). Natural ventilation does not require mechanical systems to move subaerial air, it relies entirely on passive physical phenomena, such as diffusion, wind pressure, or the stack effect. Mixed mode ventilation systems use both mechanical and natural processes. The mechanical and natural components may be used in conjunction with each other or separately at different times of day or season of the year. Since the natural component can be affected by unpredictable environmental conditions it may not always provide an appropriate amount of ventilation. In this case, mechanical systems may be used to supplement or to regulate the naturally driven flow.
In many instances, ventilation for indoor air quality is simultaneously beneficial for the control of thermal comfort. At these times, it can be useful to increase the rate of ventilation beyond the minimum required for indoor air quality. Two examples include air-side economizer strategies and ventilation pre-cooling. In other instances, ventilation for indoor air quality contributes to the need for - and energy use by - mechanical heating and cooling equipment. In hot and humid climates, dehumidification of ventilation air can be a particularly energy intensive process.
Ventilation should be considered for its relationship to "venting" for appliances and combustion equipment such as water heaters, furnaces, boilers, and wood stoves. Most importantly, the design of building ventilation must be careful to avoid the backdraft of combustion products from "naturally vented" appliances into the occupied space. This issue is of greater importance in new buildings with more air tight envelopes. To avoid the hazard, many modern combustion appliances utilize "direct venting" which draws combustion air directly from outdoors, instead of from the indoor environment.
Natural ventilation can also be achieved through the use of operable windows, this has largely been removed from most current architecture buildings due to the mechanical system continuously operating. The United States current strategy for ventilating buildings is to rely solely on mechanical ventilation. In Europe designers have experimented with design solutions that will allow for natural ventilation with minimal mechanical interference. These techniques include: building layout, facade construction, and materials used for inside finishes. European designers have also switched back to the use of operable windows to solve indoor air quality issues. "In the United States, the elimination of operable windows is one of the greatest losses in contemporary architecture."

Browse All Tags