Under some conditions, a large partition system that extends from the ground to the ceiling is desirable to regulate the noise in a company environment. You will find certain problems that must be addressed before investing in this partition system.
One issue is fire safety. A high system that blocks the exit signs, fire extinguishers, sprinkler system or audible alarm noise could be deemed unsafe by the local fire marshall. This may require its removal or modification to meet the local fire codes, per the Fire Marshalls demands.
One assumption that’s dangerous, is thinking that you realize your ceiling height. You might think that you realize the ceiling height, but a careful measurement is required. Ceilings have a tendency to sag in unsupported areas, and could vary by an inch or maybe more in a variety of places. It is essential to assess the distance from the ground to the ceiling, wheresoever the panels will meet with the ceiling, to make certain that the panels will fit. In cases where you’ve an average “drop ceiling” the height could be adjusted upward, by twisting the support wires holding the ceiling framework. In the event of a solid ceiling, you don’t have this option. The panels must certanly be slightly shorter compared to the ceiling height, or they’ll not fit.
Then there’s the matter of air flow. Office environments will most likely have some kind of ventilation provided by the air conditioning equipment or heater, or maybe just windows. Enclosing a proposed office using a floor to ceiling partition system could impede the airflow to that section and require venting. Venting by means of low and high vents can accommodate some minor amount of convection. As hot air rises, it can flow out from the propose office through the high vents and thus develop a slightly lower air pressure in the bottom, where cooler air can flow to the proposed office through the reduced vent divisoria piso teto. A qualified panel manufacturer should have the ability to provide the vents, built to the panel system to support airflow into each office.
Lighting is another concern. Panel systems are normally opaque, so they really block light. If a company has its own lighting then the problem is mostly solved. However, in case a propose office does not have lighting, then some kind of window arrangement built to the panel system would be needed to offer some light for the reason that office. It’s recommended to take advantage of natural lighting that comes through skylights, or windows facing outside. In case a partition system has built in windows in strategic locations that accommodate the use of outside natural lighting, then this may reduce amount of time where in actuality the electric lights are switched on during the day, thus reducing your time consumption.
One valid reason that tall partition systems are used is always to supremely control the noise. Short panel systems are not so with the capacity of this, as sound travels as a “wave”, and simply goes over the top of the panel systems and travels through the entire office, until absorbed by soft treatments, such as carpet, drapes, and other absorbing structures. However, sound waves can transfer through a panel system too. The materials used inside a panel is of concern to those seeking maximum noise reduction. Think about this: Sound travels most efficiently through dense, hard mediums. Thus, sound travels better (and faster) through water, than air. Hard mediums can transfer sound much better than soft mediums. Another example of that is considering ballistic plastics. A glass surface is hardly bullet resistant because it’s hard, and brittle. It cannot withstand the kinetic energy of a bullet, as it cannot flex enough to absorb the energy without breaking. Polycarbonate is an application of clear flexible plastic. Polycarbonate is more bullet resistant than glass, because it’s more flexible, and can absorb the impact bette, without breaking. For that matter, Kevlar fabric is bullet resistant largely because of it’s combination of great flexibility and high tensile strength.