Fire Protection Engineering in Sleepy Hollow Chicago

Contact Us!

In search of Commercial & Residential Fire Sprinkler Systems Design in Sleepy Hollow Chicago Illinois? The one to go to is NY Engineers. Not only for Fire Sprinkler Plumbing Design Experts but also Construction Engineering and HVAC Firms near Chicago. Contact us at (312) 767-6877

Contact Us!
Electrical Engineering Subjects

Solicit any general contractor or developer anywhere from Greektown Chicago to North Lawndale, and have them recommend you a dependable HVAC Engineering in Chicago, and the majority will say call New York Engineers. What’s not very well known is that New York Engineers also your best option for anyone looking for a fire sprinkler system engineering in Sleepy Hollow Chicago. The truth is there is no shortage of architectural engineering or protection engineering firms in Sleepy Hollow Chicago. However, when it comes to meeting deadlines is always best to choose a from like NY Engineers.

In case you are able to plan the construction of a building, one of the first professionals that you ought to check with is called a fire protection engineer. These are generally individuals who are knowledgeable about design safeguards and threats that should be considered. They might help with the design of any building, making sure you will probably have the opportunity to control, and also prevent, fires which can be catastrophic. They generally assist architects, building owners, and developers that are responsible for the construction of a fresh home or building. Plenty good reason exist for getting a fire protection engineer that you should consider.

Good reasons to hire one of those professionals – Here are the two premiere factors behind working with a fire protection engineer. First of all, you must guarantee the well-being of everybody that may eventually enter that house regularly. Finally, you should have a lot of possible safeguards in position just in case a fire starts. Exactly what they propose is going to be considered by investors, and then included in the actual building. If locating a fire protection engineer is the next step of the project, you can easily find many of them which can help you.

Just What Is The Meaning Of Fire Protection Engineer in Sleepy Hollow Chicago?

The meaning of fire protection engineer is just the study of fire in terms of our built-up environment and the way architectural design influences the causes and spread of fire. Moreover, this task of engineering has to do with working with engineering principles (mechanical, chemical, electrical, and civil engineering), physics, material science, chemistry, technology to implement underlying fire suppression system which protects both humans and also the property under consideration.

In connection with this, fire protection engineering is actually a field and study that is involved in saving lives and property from disaster way before fire emerges. Fire protection engineers apply their experience and knowledge to effect the way the fire suppression system inside a building works. To the end, they will likely have input in the appearance of a building, the materials used in the building of your building, and the building layout. Essentially, a fire protection engineer can have input regarding fire detection and suppression technology used.

Their efforts make certain that whenever a fire happens, the suppression system works to control the fire effectively, giving time for anyone from the building to run to to safety. Moreover, the suppression system they choose should stop the spread of fire, nullifying the potential of the fire spreading a lot more. Even with all of this information you would like more details on fire sprinkler design engineering services in Sleepy Hollow Chicago by New York Engineers you should take a look at our Chicago Building Commissioning blog.

New Fire Protection Engineering Related Post

Architectural Engineers Detail Ventilation System Configurations

How To Become A Fire Protection Engineer

Human activity generates a broad range of compounds that become dangerous in high-enough concentrations, and pollutants from outdoor sources can also degrade indoor air quality. Architectural engineers are often charged with the job of preventing this from occurring as much as possible.

Ventilation systems keep these substances at low levels by constantly renewing indoor air, and they also contribute to keeping moisture within the range of 30 to 60 percent as recommended by ASHRAE. Without ventilation, it would not be possible to keep indoor environments comfortable and healthy.

Natural ventilation relies on wind currents, outdoor temperature and other weather conditions to supply fresh air. The advantage of natural ventilation is that it comes for free, and in new buildings it is possible to optimize architectural design to maximize its effects. However, natural ventilation is uncontrollable, and generally insufficient to fully meet the requirements of modern buildings.

Normally, to meet ASHRAE standards and local building codes, mechanical ventilation must be deployed. Depending on their configuration, whole-house ventilation systems can be classified into three main types:

  • Exhaust ventilation systems, which only use extractor fans.
  • Supply ventilation systems, which only use injector fans.
  • Balanced ventilation systems, which use both injector and extractor fans.

Balanced systems can be enhanced with energy-recovery ventilation, a technology that exchanges energy between the supply and exhaust airflows to maximize performance and minimize the overall running cost of the system.

Exhaust Ventilation Systems

As implied by their name, exhaust ventilation systems only deploy extractor fans. When the system starts to run, it creates a negative pressurization effect in occupied spaces, drawing in fresh outdoor air to renew that which is exhausted. It is important to note, however, that exhaust ventilation is not possible in air-tight buildings, since outdoor air must be allowed to leak in. If the building envelope has been tightened with caulking and weather stripping, exhaust ventilation must be complemented with intake vents.

Exhaust ventilation systems have a single set of fans and ducts, which makes them affordable while reducing their installation time and cost. Energy expenses are relatively low because there is only one set of fans in operation, and maintenance is simplified as well. The system layout can be designed to target specific areas where pollutants are generated, ensuring they are removed before they spread indoors.

Exhaust ventilation generally achieves the best results in cold and dry climates, where outdoor air does not require dehumidification. It is not recommended for tropical and mixed climates, because warm and humid outdoor air is drawn in without control, driving up cooling and dehumidification expenses. Also, keep in mind that depressurization draws air from all surrounding spaces, with little control over pollutant content. In general, architectural engineers recommend exhaust ventilation for cold weather, and when outdoor air pollution is low.

Another risk of exhaust ventilation is backdraft, which occurs when a combustion-based appliance suddenly draws in a lot of air, potentially causing a flashover. Since exhaust ventilation causes negative pressurization and does not control air supply, there is an increased chance of backdraft.

Supply Ventilation Systems

Supply ventilation only uses injector fans, pressurizing rooms and causing indoor air to leak out constantly. The main advantage of supply ventilation is control, since outdoor air can be filtered, humidified or dried as needed. In addition, the pressurization effect prevents the inflow of pollutants from surrounding spaces or from outdoors.

Another benefit of supply ventilation is that it eliminates the risk of backdraft from combustion appliances due to positive pressurization. Installation, operation and maintenance expenses are also reduced thanks to the simple system configuration.

Supply ventilation is better suited for tropical or mixed climate conditions, where dehumidification and filtering are often required. This configuration tends to cause trouble in cold weather, since the pressurization effect can cause condensation of indoor air humidity, leading to moisture accumulation and its common side-effects: furniture damage and the proliferation of mold, bacteria and dust mites.

Balanced Ventilation Systems

A balanced ventilation system is the result of combining exhaust and supply ventilation: both airflows can be controlled, providing the benefits of both system configurations. Of course, this comes at a higher installation and operation cost, since there are now two sets of fans and ducts.

Balanced ventilation is suitable for all weather conditions, and airflows can be adjusted to provide any pressurization effect as required – positive, negative or neutral. The recommended locations for each set of ducts are the following:

  • Supply ducts should focus on areas where occupants spend most of their time, including living rooms and bedrooms. This ensures that these areas always have a supply of fresh and clean air.
  • Exhaust ducts should focus on areas where moisture and humidity are released frequently, such as kitchens, bathrooms, laundries and boiler rooms.

Of course, it is possible to install supply and exhaust rooms for every room, but system costs are increased significantly. With the approach presented above, system costs are optimized without compromising performance.

Energy-Recovery Ventilation: Architectural Engineers Improve the
Efficiency of Balanced Ventilation

Energy-recovery ventilation consists on exchanging energy between the supply and exhaust air, so that overall HVAC costs are minimized. These systems can be classified into two main types:

  • Heat-Recovery Ventilation (HRV)systems only exchange heat between the supply and exhaust airflows.
  • Enthalpy-Recovery Ventilation (ERV)systems exchange both heat and moisture.

Summer Operation

In the summer, outdoor air typically requires cooling and dehumidification. However, when air is exhausted, it is still cooler and drier than the supply air; therefore, a part of the energy used for cooling and dehumidification is lost.

  • The use of a heat exchanger (HRV) can improve energy efficiency: the exhaust air is used to precool the supply air without mixing both airstreams.
  • If an ERV system is used, moisture is also transferred from the supply air to the exhaust air, further improving air-conditioning efficiency because there is less moisture to remove.

Winter Operation

During the winter, HVAC needs are reversed because outdoor air typically requires heating and humidification. The operating principle of HRV and ERV is the same, but the direction in which heat and humidity are transferred is inverted.

  • The exhaust air is warmer, and the heat exchanger captures a part of that thermal energy to preheat the supply air.
  • If ERV is used, moisture is also retrieved from the exhaust air and provided to the supply air.

General Recommendations for HRV and ERV

It is important to note that HRV and ERV systems are significantly more complex than the ventilation systems presented before. They can only be installed and serviced by qualified personnel, which increases their cost of ownership. Compared with a basic balanced ventilation system, HRV and ERV systems have a higher running cost, but overall HVAC expenses are reduced.

HRV and ERV systems increase in effectiveness where temperature  and moisture extremes are reached during the summer or winter, or when heating fuel costs are high. Their benefits are diminished under moderate weather conditions, where the added running cost may be higher than the savings achieved – balanced ventilation is a better alternative in these cases.

Spot Ventilation: A Complement for Whole-House Ventilation

Spot ventilation consists on using exhaust fans to extract pollutants and humidity at the room where they are released, preventing them from being spread throughout other indoor spaces. In residential settings, spot ventilation is most commonly used in bathrooms and kitchens to meet the minimum exhaust air levels established in both the area mechanical codes and ASHRAE standards:

  • Bathrooms require 50 cfm of intermittent ventilation or 20 cfm of continuous ventilation.
  • Kitchens require 100 cfm or intermittent ventilation or 25 cfm of continuous ventilation.

Spot ventilation can be a great complement for supply ventilation systems, removing pollutants from key areas. This combination provides many of the benefits of a balanced ventilation system without having to install a full set of exhaust fans and ducts. According to experienced architectural engineers, the only disadvantage of this combination is that HRV and ERV systems are unfeasible, since there is no point where heat or moisture can be exchanged between airflows.

Top searches related to Sprinkler Engineering in Sleepy Hollow Chicago

Is There A Demand For Mechanical Engineers In The Future

Fire Protection Engineering Sleepy Hollow Chicago

Fire Protection Engineer in Sleepy Hollow Chicago When you're searching for a reliable Fire Sprinkler Systems Design Services in Sleepy Hollow Chicago Illinois? The one to go to is New York Engineers. Not only for Commercial & Residential Fire Sprinkler Systems Design but also Value Engineering and HVAC Firms near Chicago. Contact us at (312) 767-6877 Today if you approach any general contractor or developer form Albany Park to Oak Park [...]

2018-11-05T14:21:58+00:00