ArtUSA -- Noise Control Products, Inc.  
Noise Control Products , Inc. --  "The Name To Know In Noise Control"  

ArtUSA Noise Control Products Inc.
We are noise pollution solution providers. By offering engineering, fabrication and installation of the absolute best noise reduction and noise control products available our company has set the bar in the soundproofing industry. Sound-proofing is our passion. We design, fabricate and install acoustical panels, acoustical insulation, sound barriers, acoustical wall panels, sound-barriers, noise barrier, sound enclosures, acoustic insulation, noise barriers, sound proofing and sound barriers.

 ArtUSA Noise and Sound Control for Broadcasting - The Complete Solution For Professional Audio

Creating acoustically ideal rooms is challenging, particularly if existing spaces must be adapted. By absorbing, blocking and containing the areas of concern— flutter echo, near field reflection, room resonances, standing waves, exterior sounds—ArtUSA Industries professional solutions effectively and affordably solve acoustic control issues. The right sound is critical. That’s why ArtUSA Industries is dedicated to meeting the need of sound engineers and producers in every corner of the globe. We solve noise problems in television, radio and film studios as well as religious recording and audio test facilities such as ABC, DISNEY, CNN, TBS and many others. ArtUSA Industries affordable, fire-resistant and easy-to-install acoustical wall panels, ceiling tiles and barrier materials are designed to help deliver the right sound. Art-Barrier products help you isolate studios and listening rooms from outside sounds. Art-Tile Ceilings are perfect for control rooms, offices and lobbies, and offer aesthetics as well as one of the industry’s highest noise reduction ratings. Art-Tile metal ceiling tiles create a sleek, modern or high-tech look at an affordable price in offices, lobbies and conference rooms— without sacrificing acoustic control. Art-Fab wall panels are gaining popularity for their combination of sleek design and outstanding acoustic control in all frequencies.

 

Broadcasting

“Live end/dead end” acoustics are created in control room settings using foam to treat the wall behind the speakers and a portion of the two adjacent walls, leaving the listener area untreated or “live”.

  Acoustical Curtain Enclosures
  
Acoustical Foams & Barriers
  
Wall & Ceiling Products

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Broadcasting Studios

Broadcasting

Broadcasting

Broadcasting

We manufacture, package, sell, and install - Sound Enclosures - Equipment Enclosures - Personnel Enclosure - Barrier Walls -Thermal Enclosures - Audiometric Testing Rooms - Punch Press Enclosure - Test Cells - Clean Rooms - Diesel Generator & Positive Displacement Enclosures - Fiberglass Enclosure - In-plant Space - Curtain Enclosures - Acoustical Pipe and Duct Lagging - Sanitary Panels and Baffles - Portable Screens - Damping Compound - Industrial Ceiling Baffles - Class 1 Fire Rated Foams - Polyurethane Foams - Fiber-Free - Adhesive Backed - Facings and Barriers - SONEX - Sound Seal - Acoustical Curtains - Acoustical Foam - Rectangular Silencers - Round Silencers - Elbow Silencers - Dust Collectors - Fume Oxidizers - Oil Mist Collectors - Smoke Capture - Work Stations - Isolation Mounts - Pads - Levelers Architectural Noise Control / Noise Abatement - Fabric and Decorative Foam Panels - Baffles - Deflectors - Curtains - Banners Dosimeters - Calibrators - Real Time Analyzers - Software - Active Noise Canceling Muffs  - Noiseless Metals

Designing an acoustically ideal sound stage, studio, control room or listening room is a challenge under any conditions. In the real world, where such rooms must fit into an existing building, the acoustical challenges are even greater.

ArtUSA offers a wide variety of materials to improve sound quality in any home theater environment. We offer factory direct pricing and quick shipment from our extensive inventory. ArtUSA has been serving the broadcast and recording industry with SONEX® acoustic products since the the 1980s. Today ArtUSA audio applications range from TV, radio and recording studios to the test facilities of high-profile speaker and stereo manufacturers.In addition to the traditional convoluted SONEX acoustical foam, ArtUSA offers a number of other acoustical products for use in the broadcast/audio environment, such as metal wall panels, enclosures, acoustical ceiling tiles, fabric-wrapped wall panels, in-wall barriers, and metal ceiling tiles. All are made from Class 1 fire-rated willtec® foam, which meets ASTM E84 standards for flammability and smoke density.

Performance Spaces

There are three basic types of performance spaces:

  • Single purpose rooms
  • Multipurpose rooms
  • Rehearsal rooms

Though these spaces vary widely, they share one fundamental acoustical requirement: silence, the elimination of background noise.

Single-purpose rooms

The single-purpose performance space is a delight. Spaces with a focused acoustical function, such as concert halls, recital halls, and dedicated lecture rooms, offer a real opportunity for a client with a limited budget to achieve acoustical excellence. Limit the size, exclude background noise, focus the design around acoustical function, and excellent acoustics comes well within reach.

In real life, the true single-purpose performance space is rare. Nearly all performance spaces are multi use in practice, if not by design. Even dedicated concert halls are used for a variety of purposes.

Multipurpose rooms

Multipurpose performance spaces are often built to save the money it would entail to build several dedicated spaces. A school, for instance, that might be better served by a music recital hall and a speech theatre, builds one large, multipurpose auditorium because of cost. Since they are built for reasons of economy, multipurpose spaces are often too large, with budgets too small to provide what is necessary to make them work. The large, multipurpose performance space is one of the most difficult acoustical challenges, even under the best of circumstances.

The most common multipurpose spaces are churches and synagogues.

Rehearsal rooms

Rehearsal rooms, unlike most performance spaces, are usually too small. Sometimes, a music group that is too large or too loud will simply overwhelm the space. For these rooms, one needs a combination of sound absorption and sound-diffusing geometry that makes the room act like a larger room. Sufficient height is critical. A rehearsal room that has sound-absorbing surfaces, but lacks sound-diffusing surfaces will sound dead and unresponsive and will pose difficulties for hearing amongst members of an ensemble.

Sound Isolation

Rehearsal rooms are often located near performance spaces or other rehearsal rooms, and so require good sound isolation from these other spaces.

Background noise

Although background noise may not be as critical in a rehearsal space as in a performance space, breakthrough from other practice rooms, choir, gym or  mechanical (HVAC) noise can make all the difference in the acoustics.

Adjustable acoustics

Relatively uncommon but very helpful is the use of adjustable acoustics for a rehearsal room utilized by different types of ensembles. A small vocal ensemble needs a room with some reverberation in order to blend its sound. A band, at the other extreme, requires maximum sound absorption. If both groups must share the same room, adjustable sound absorption is the means for satisfying both requirements.

 

Designing an acoustically ideal sound stage, studio, control room or listening room is a challenge under any conditions. In the real world, where such rooms must fit into an existing building, the acoustical challenges are even greater. Three problems face the designer or acoustic engineer:

 Sound isolation

Outside noise. Automobile traffic, airplanes, footsteps, and conversation in hallways or adjacent rooms make it difficult to record quiet, clear musical passages and voices without sacrificing dynamic range.

Building noise. Heat, ventilating and air-conditioning machinery generates sounds that range from a low-frequency rumble to a high-frequency hiss. Equipment noise. Cooling fans in PCs and studio equipment are another common source of unwanted sounds. With today's digital electronic recording equipment, subliminally audible vibration and noise are likely to be recorded along with the artist's performance

Room Acoustics

Slap and flutter echo High-frequency sound information can lose clarity due to reflective delays caused by parallel hard surfaces in a live recording or listening environment.

Near-field reflections. When hard surfaces are located close to the recording or listening position, reflected sound waves can have unpredictable effects on audio clarity imaging and frequency response.

Room resonance.  Room walls and floors often act as resonators or sounding boards at long wavelengths, causing amplification of bass fundamental frequencies and harmonics.

standing waves. When a sound's wavelength coincides with the length of a room boundary the wave "stands." This leads to boosting of certain frequencies and cancellation of others, especially at low frequencies where holes and spikes in frequency response are likely to occur.  

 
 

Finding affordable solutions

Acoustic problems can be avoided by making intelligent decisions about wall and ceiling dimensions, designing rooms with non-parallel walls, and using structural materials that minimize room resonances and unwanted sound reflections. In practice, such drastic preventive measures are seldom' affordable in an existing building. Surface treatment with engineered acoustic materials is a more realistic alternative, especially for control of room acoustics. In sound studios and other locations where machinery may be present, sheets of acoustic barrier /foam composites can be used to line housings or enclosures at relatively little cost. When remodeling is planned, barrier materials can be threaded inside stud cavities (see diagram below) or laid above suspended ceilings for even more effective sound isolation and damping of noise or vibration.

                                          

Home Theater AcousticsImproving sound quality within a home theater environment is dependent on factors such as room size and composition of the floors, walls and ceiling materials. Dissipating excessive sound energy can be achieved through the proper amount and placement of decorative sound absorption surfaces. With expert advice from our acoustic consultants, you can greatly improve the sound quality of your theater while adding a unique finished appearance.

 

 

Significant Points
  • Job applicants will face keen competition for jobs in major metropolitan areas, where pay generally is higher; prospects are expected to be better in small cities and towns.
  • Technical school, community college, or college training in broadcast technology, electronics, or computer networking provides the best preparation.
  • About 30 percent work in broadcasting, mainly for radio and television stations, and 17 percent work in the motion picture, video, and sound recording industries.
  • Evening, weekend, and holiday work is common.

Broadcast and sound engineering technicians and radio operators set up, operate, and maintain a wide variety of electrical and electronic equipment involved in almost any radio or television broadcast, concert, play, musical recording, television show, or movie. With such a range of work, there are many specialized occupations within the field.

Audio and video equipment technicians set up and operate audio and video equipment, including microphones, sound speakers, video screens, projectors, video monitors, recording equipment, connecting wires and cables, sound and mixing boards, and related electronic equipment for concerts, sports events, meetings and conventions, presentations, and news conferences. They also may set up and operate associated spotlights and other custom lighting systems.

Broadcast technicians set up, operate, and maintain equipment that regulates the signal strength, clarity, and range of sounds and colors of radio or television broadcasts. These technicians also operate control panels to select the source of the material. Technicians may switch from one camera or studio to another, from film to live programming, or from network to local programming.

Sound engineering technicians operate machines and equipment to record, synchronize, mix, or reproduce music, voices, or sound effects in recording studios, sporting arenas, theater productions, or movie and video productions.

Radio operators mainly receive and transmit communications using a variety of tools. These workers also repair equipment, using such devices as electronic testing equipment, handtools, and power tools. One of their major duties is to help to maintain communication systems in good condition.

The transition to digital recording, editing, and broadcasting has greatly changed the work of broadcast and sound engineering technicians and radio operators. Software on desktop computers has replaced specialized electronic equipment in many recording and editing functions. Most radio and television stations have replaced videotapes and audiotapes with computer hard drives and other computer data storage systems. Computer networks linked to specialized equipment dominate modern broadcasting. This transition has forced technicians to learn computer networking and software skills. (See the statement on computer support specialists and systems administrators elsewhere in the Handbook.)

Broadcast and sound engineering technicians and radio operators perform a variety of duties in small stations. In large stations and at the networks, technicians are more specialized, although job assignments may change from day to day. The terms “operator,” “engineer,” and “technician” often are used interchangeably to describe these jobs. Workers in these positions may monitor and log outgoing signals and operate transmitters; set up, adjust, service, and repair electronic broadcasting equipment; and regulate fidelity, brightness, contrast, volume, and sound quality of television broadcasts.

Technicians also work in program production. Recording engineers operate and maintain video and sound recording equipment. They may operate equipment designed to produce special effects, such as the illusions of a bolt of lightning or a police siren. Sound mixers or re-recording mixers produce soundtracks for movies or television programs. After filming or recording is complete, these workers may use a process called “dubbing” to insert sounds. Field technicians set up and operate portable transmission equipment outside the studio. Because television news coverage requires so much electronic equipment and the technology is changing so rapidly, many stations assign technicians exclusively to news.

Chief engineers, transmission engineers, and broadcast field supervisors oversee other technicians and maintain broadcasting equipment.

Broadcast and sound engineering technicians and radio operators generally work indoors in pleasant surroundings. However, those who broadcast news and other programs from locations outside the studio may work outdoors in all types of weather. Technicians doing maintenance may climb poles or antenna towers, while those setting up equipment do heavy lifting.

Technicians at large stations and the networks usually work a 40-hour week under great pressure to meet broadcast deadlines, and may occasionally work overtime. Technicians at small stations routinely work more than 40 hours a week. Evening, weekend, and holiday work is usual because most stations are on the air 18 to 24 hours a day, 7 days a week. Even though a technician may not be on duty when the station is broadcasting, some technicians may be on call during nonwork hours; these workers must handle any problems that occur when they are on call.

Technicians who work on motion pictures may be on a tight schedule and may work long hours to meet contractual deadlines.

The best way to prepare for a broadcast and sound engineering technician job is to obtain technical school, community college, or college training in broadcast technology, electronics, or computer networking. In the motion picture industry, people are hired as apprentice editorial assistants and work their way up to more skilled jobs. Employers in the motion picture industry usually hire experienced freelance technicians on a picture-by-picture basis. Reputation and determination are important in getting jobs.

When starting out, broadcast and sound engineering technicians learn skills on the job from experienced technicians and supervisors. These beginners often start their careers in small stations and, once experienced, move on to larger ones. Large stations usually hire only technicians with experience. Experienced technicians can become supervisory technicians or chief engineers. A college degree in engineering is needed in order to become chief engineer at a large television station. Many employers pay tuition and expenses for courses or seminars to help technicians keep abreast of developments in the field.

Audio and video equipment technicians generally need a high school diploma. Many recent entrants have a community college degree or other forms of postsecondary degrees, although they are not always required. These technicians may substitute on-the-job training for formal education requirements. Working in a studio as an assistant is a great way of gaining experience and knowledge.

Radio operators usually are not required to complete any formal training. This is an entry-level position that generally requires on-the-job training.

Licensing is not required for broadcast technicians. However, certification by the Society of Broadcast Engineers is a mark of competence and experience. The certificate is issued to experienced technicians who pass an examination.

Prospective technicians should take high school courses in math, physics, and electronics. Building electronic equipment from hobby kits and operating a “ham,” or amateur, radio are good experience, as is working in college radio and television stations.

Broadcast and sound engineering technicians and radio operators must have manual dexterity and an aptitude for working with electrical, electronic, and mechanical systems and equipment.

Broadcast and sound engineering technicians and radio operators held about 95,000 jobs in 2004. Their employment was distributed among the following detailed occupations:

Audio and video equipment technicians 46,000
Broadcast technicians 34,000
Sound engineering technicians 13,000
Radio operators 2,000

About 30 percent worked in broadcasting (except Internet) and 17 percent worked in the motion picture, video, and sound recording industries. About 7 percent were self-employed. Television stations employ, on average, many more technicians than radio stations. Some technicians are employed in other industries, producing employee communications, sales, and training programs. Technician jobs in television and radio are located in virtually all cities; jobs in radio also are found in many small towns. The highest paying and most specialized jobs are concentrated in New York City, Los Angeles, Chicago, and Washington, DC—the originating centers for most network or news programs. Motion picture production jobs are concentrated in Los Angeles and New York City.


 

People seeking entry-level jobs as technicians in broadcasting are expected to face keen competition in major metropolitan areas, where pay generally is higher and the number of qualified jobseekers typically exceeds the number of openings. Prospects for entry-level positions are expected to be better in small cities and towns for beginners with appropriate training.

Overall employment of broadcast and sound engineering technicians and radio operators is expected to grow about as fast as average for all occupations through the year 2014. Job growth in radio and television broadcasting will be limited by consolidation of ownership of radio and television stations and by labor-saving technical advances, such as computer-controlled programming and remotely controlled transmitters. The Federal Communications Commission (FCC) is required to examine its media ownership rules quadrennially. Thus, the rules can change periodically. In 2005, FCC regulations stated that a single owner could own up to eight radio stations in a single large market and that a single owner could not own television stations that would reach more than 39 percent of households. Revisions to these rules have been passed by the FCC, but have not been implemented because of legal challenges. When broader common ownership is allowed, stations often are consolidated and operated from a single location, reducing employment because one or a few technicians can provide support to multiple stations. Technicians who know how to install transmitters will be in demand as television stations install digital transmitters. Although most television stations are broadcasting in both analog and digital formats and plan to switch entirely to digital, radio stations are only beginning to broadcast digital signals.

Employment of broadcast and sound engineering technicians in the cable and pay television portion of the broadcasting industry is expected to grow as the range of products and services expands, including cable Internet access and video-on-demand. Employment of these workers in the motion picture industry is expected to grow rapidly. However, job prospects are expected to remain competitive because of the large number of people who are attracted by the glamour of working in motion pictures.

Projected job growth varies among detailed occupations in this field. Employment of audio and video equipment technicians and sound engineering technicians is expected to grow faster than the average for all occupations. Not only will these workers have to set up audio and video equipment, but they will have to maintain and repair it as well. Employment of broadcast technicians is expected to grow about as fast as the average for all occupations through 2014, as advancements in technology enhance the capabilities of technicians to produce higher quality radio and television programming. Employment of radio operators, on the other hand, is projected to decline as more stations control programming and operate transmitters remotely.

In addition to employment growth, job openings also will result from the need to replace experienced technicians who leave this field. Some of these workers leave for other jobs that require knowledge of electronics, such as computer repairer or industrial machinery repairer.


 

Television stations usually pay higher salaries than radio stations; commercial broadcasting usually pays more than public broadcasting; and stations in large markets pay more than those in small markets.

Median annual earnings of audio and video equipment technicians in May 2004 were $32,570. The middle 50 percent earned between $24,180 and $44,290. The lowest 10 percent earned less than $19,110, and the highest 10 percent earned more than $58,620. Median annual earnings in motion picture and video industries, which employed the largest number of audio and video equipment technicians, were $33,670.

Median annual earnings of broadcast technicians in May 2004 were $28,010. The middle 50 percent earned between $19,240 and $42,760. The lowest 10 percent earned less than $14,960, and the highest 10 percent earned more than $62,850. Median annual earnings in radio and television broadcasting, which employed the largest number of broadcast technicians, were $25,220.

Median annual earnings of sound engineering technicians in May 2004 were $38,110. The middle 50 percent earned between $25,470 and $56,320. The lowest 10 percent earned less than $19,180, and the highest 10 percent earned more than $80,450.

Median annual earnings of radio operators in May 2004 were $32,720. The middle 50 percent earned between $23,960 and $43,850. The lowest 10 percent earned less than $17,960, and the highest 10 percent earned more than $57,420.


 

Broadcast and sound engineering technicians and radio operators need the electronics training necessary to operate technical equipment, and they generally complete specialized postsecondary programs. Occupations with similar characteristics include engineering technicians, science technicians, and electrical and electronics installers and repairers. Broadcast and sound engineering technicians also may operate computer networks, as do computer support specialists and systems administrators. Broadcast technicians on some live radio and television programs screen incoming calls; these workers have responsibilities similar to those of communications equipment operators.

For career information and links to employment resources, contact:

  • National Association of Broadcasters, 1771 N St. NW., Washington, DC 20036. Internet: http://www.nab.org

For information on certification, contact:

  • Society of Broadcast Engineers, 9247 North Meridian St., Suite 305, Indianapolis, IN 46260. Internet: http://www.sbe.org

For more information on audio and video equipment technicians, contact:

27-4011.00, 27-4012.00, 27-4013.00, 27-4014

 

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