Industrial Noise Control Texas : Expert Solutions for Your Facility

Industrial noise control in Texas is essential for businesses to comply with OSHA standards and local ordinances while ensuring worker safety. DeWalls Acoustic Specialties offers comprehensive solutions including sound barriers, acoustic enclosures, vibration dampening, and HVAC noise control. Our services include professional noise assessments, custom engineering, and expert installation tailored to Texas industries. We help businesses mitigate hearing loss risks, reduce operational disruptions, avoid costly fines, and maintain both regulatory compliance and a productive work environment.

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Warehouse Noise Control Solutions Reduce Distractions and Risk

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Compressor Enclosures

Blower Enclosures

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DeWalls has protected Texas industrial operations for over 20 years with proven acoustic engineering solutions. We serve facilities across Dallas County, Tarrant County, Collin County, Parker County, Johnson County, and Rockwall County, from oil and gas operations to manufacturing plants, warehouses, and processing facilities. Our comprehensive approach combines professional noise assessment, custom-engineered solutions, and expert installation to eliminate noise problems at their source, ensuring your operations run smoothly.

Understanding Industrial Noise Pollution in Texas

Industrial noise originates from machinery, HVAC systems, compressors, production equipment, and processes that operate at sound levels exceeding safe limits. Texas facilities, particularly those in the Dallas-Fort Worth metroplex, the Houston industrial corridor, and the Permian Basin oil fields, face unique challenges from high-density operations combined with residential proximity.

Two distinct types create problems in facilities:

Airborne noise travels through the air from sources like machinery exhaust, equipment operation, diesel generators, and pneumatic tools.
Structure-borne noise transmits as vibrations through floors, walls, and connected equipment, often converting back to airborne noise far from the source.

Common Industrial Noise Sources in Texas Facilities

Industrial environments generate noise from multiple equipment types. Understanding typical decibel levels (dBA) helps identify problem areas requiring immediate attention:

Heavy Industrial Equipment:

Compressors: 81-110 dBA depending on size, type, and application.
Reciprocating compressors: 95-110 dBA (common in oil and gas).
Centrifugal compressors: 85-95 dBA (refineries and processing).
Pumps: 69-118 dBA across various applications and flow rates.
Centrifugal pumps: 78-92 dBA (water and chemical transfer).
Positive displacement pumps: 85-105 dBA (high-pressure applications).

Manufacturing and Fabrication:

Grinding operations: 78-106 dBA (metal finishing).
Stamping presses: 95-115 dBA (automotive and metal forming).
CNC machining: 75-95 dBA (precision manufacturing).
Metal cutting saws: 90-110 dBA (fabrication shops).
Welding operations: 85-100 dBA (assembly lines).
Impact tools: 95-115 dBA (pneumatic and electric).

Building Systems:

Blowers: 71-110 dBA (ventilation and material handling).
HVAC rooftop units: 63-85 dBA (commercial facilities).
Cooling towers: 80-100 dBA (large industrial installations).
Chillers: 75-95 dBA (process cooling).
Exhaust fans: 70-95 dBA (industrial ventilation).
Boilers: 80-100 dBA (steam generation).

Material Handling:

Forklifts: 75-90 dBA (warehouses and loading).
Conveyors: 70-95 dBA (continuous operations).
Packaging equipment: 75-95 dBA (distribution centers).
Sortation systems: 80-100 dBA (automated facilities).

Oil and Gas Specific:

Drilling rigs: 95-115 dBA (exploration operations).
Mud pumps: 100-110 dBA (drilling support).
Flare systems: 110-120 dBA (gas processing).
Diesel generators: 95-105 dBA (remote power).

The intensity matters because prolonged exposure to noise above 85 dBA causes permanent hearing damage, while anything exceeding 120 dBA creates immediate physical harm. Most Texas industrial environments produce noise ranging from 70 to 120 decibels depending on equipment and operations. This puts workers at serious risk without proper acoustic controls and noise mitigation strategies.

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Why Industrial Noise Control Matters in Dallas-Fort Worth and Texas

Federal law mandates action when workplace noise reaches specific thresholds. OSHA regulations apply to all Texas facilities, including those in Dallas, Fort Worth, Arlington, Irving, Plano, McKinney, Garland, Mesquite, and throughout the metroplex:

OSHA Regulatory Thresholds:

85 dBA action level triggers mandatory hearing conservation programs for workers.
90 dBA permissible exposure limit requires engineering controls to reduce noise.
Exposure limits decrease with higher noise levels using a 5-decibel exchange rate.
Engineering controls must be primary approach before administrative controls or PPE.
Personal protective equipment serves as supplemental protection only, not the primary solution.
Feasibility analysis required when controls cannot reduce exposure below limits.
Annual audiometric testing is mandatory for all workers who are exposed to hazardous noise levels.
Record-keeping requirements for exposure monitoring and medical surveillance.

The Scale of Industrial Noise Problems:

The scope of workplace noise exposure is staggering. An estimated 22 million American workers are exposed to potentially damaging noise levels each year. Manufacturing accounts for the largest share of noise exposure measurements, representing nearly 88% of OSHA permissible exposure limit assessments. Recent compliance data reveals serious gaps:

33% of measurements exceed the 90 dBA permissible exposure limit, requiring immediate engineering controls.
86% surpasses the 85 dBA action level, triggering hearing conservation program requirements.
Noise violations rank consistently among the top 10 OSHA citations across all industries.
Construction and manufacturing sectors show highest violation rates in Texas.
Oil and gas operations face unique challenges with remote locations and continuous operations.

Texas Municipal Noise Ordinances:

Texas facilities face additional pressure from local noise regulations protecting surrounding communities. Cities throughout the Dallas-Fort Worth metroplex and across Texas enforce strict limits:

Dallas Area Noise Limits:

Daytime limits: Typically 70 dBA measured at residential property boundaries (7 AM to 10 PM).
Nighttime limits: Typically 60 dBA at residential property boundaries (10 PM to 7 AM).
Commercial zone limits: Higher thresholds typically 75-80 dBA.
Industrial zone limits: Varies by proximity to residential areas and zoning classifications.
Property boundary measurements: Enforcement based on noise reaching adjacent properties.

Fort Worth Noise Control Ordinance:

Maximum 70 dBA daytime near residential zones.
Maximum 60 dBA nighttime near residential zones.
Exemptions for emergency equipment and public safety operations.
Special event permits are available for temporary situations.
Enforcement following complaints and verification by the code enforcement department.

Surrounding Cities and Counties:

Arlington, Irving, Garland, Mesquite, Richardson: Similar daytime/nighttime limits.
Plano, McKinney, Frisco, Allen (Collin County): Growing enforcement in rapidly developing areas.
Smaller municipalities: Often adopt model ordinances based on larger city standards.
County unincorporated areas: May have different standards or rely on state regulations.

Oil and Gas Specific Considerations:

Many Texas municipalities provide drilling exemptions with conditions attached.
Production operations may have different standards from temporary drilling.
The distinctions between temporary drilling operations and permanent facilities are important.
Notification requirements for nearby residents prior to drilling commencement.
Sound management plans are required for drilling permits in many jurisdictions.
Exemptions are not universal across all Texas jurisdictions—verify local requirements.

Facilities must maintain dual compliance with both worker safety standards and community noise regulations, or risk permit problems, stop-work orders, and legal action from neighboring properties.

The Hidden Financial Costs of Uncontrolled Industrial Noise

The financial impact of ignoring industrial noise extends far beyond obvious regulatory fines. Smart facility managers in Dallas, Fort Worth, and across Texas understand the true cost of inaction:

Direct Financial Costs and Penalties:

Workers' compensation claims for occupational hearing loss cost American businesses approximately $60 million annually nationwide.
Individual hearing loss claims average $4,000 to $15,000 in medical costs and lost wages per worker.
OSHA penalties, adjusted for inflation after 2025, can reach up to $16,131 per serious violation.
Repeat violations carry penalties up to $161,323 per incident.
Willful violations can result in penalties up to $161,323 per violation with potential criminal prosecution.
Multiple simultaneous violations compound penalties when facilities have numerous issues.
Legal defense costs for contesting citations or defending against lawsuits.
Expert witness fees and consultants during litigation or appeals.

Productivity and Operational Impacts:

Efficiency drops of 10-15% documented in high-noise industrial environments.
Communication difficulties lead to increased errors, rework, and waste.
Mental fatigue reduces worker performance throughout shifts, particularly in 12-hour operations.
Increased employee turnover as workers avoid noisy conditions for quieter opportunities.
Higher recruitment and training expenses are rarely able to replace departing experienced workers.
Absenteeism increases in excessively noisy facilities.
Difficulty attracting skilled workers to facilities with poor acoustic environments.
Lower employee morale is affecting overall facility performance.

Legal and Community Relations:

Community complaints trigger enforcement investigations by municipal code officers.
Nuisance lawsuits from neighboring residents seeking damages and injunctions.
Blocked facility expansions due to noise concerns from planning commissions.
Forced expensive retrofits after complaints arise rather than proactive design.
Damaged reputation affecting customer relationships and investor confidence.
Property value depreciation of surrounding properties leading to liability claims.
Zoning challenges when seeking permits for new operations or modifications.
Environmental impact studies are required before expansions can proceed.

Equipment and Maintenance Consequences:

Excessive vibration indicates a mechanical problem that requires urgent attention.
Reduced machinery lifespan from uncontrolled operation and lack of maintenance.
Increased maintenance frequency and costs as equipment degrades faster.
Damage to sensitive electronics from vibration in control rooms and instrumentation.
Accelerated wear on moving parts, including bearings, seals, and coupling components.
Energy waste occurs when equipment operates inefficiently at excessive noise levels.
Premature equipment replacement due to vibration-related failures.

Insurance and Risk Management:

Higher workers' compensation insurance premiums for facilities with noise violations.
Increased general liability insurance costs due to community noise complaints.
Reduced insurability for facilities with poor safety records.
Self-insured retention increases when underwriters assess a higher risk.

The cost of reactive noise control—implemented after complaints and citations—typically runs three to five times higher than proactive solutions designed during planning stages. Texas facility managers who address noise early protect both their workers and their budgets.

Professional Noise Assessment: The Foundation of Effective Control

Guesswork wastes money in industrial noise control and acoustic engineering. Every facility has a unique noise signature determined by the types of equipment, building construction, layout, and operations. Professional noise assessment identifies exactly where noise originates, how it propagates, who gets exposed, and which solutions deliver the best return on investment.

The DeWalls Comprehensive Noise Survey and Acoustic Analysis Process

Our evaluation provides the detailed data necessary for effective noise control engineering in Dallas-Fort Worth industrial facilities:

Baseline Sound Level Measurements:

Industrial hygienists use calibrated sound level meters meeting ANSI S1.4 Type 1 standards.
Time-weighted averages (TWA) represent cumulative exposure over the entire work shift.
Documentation of existing noise levels in all work areas and process zones.
Peak level measurements identifying intermittent hazards from impact noise.
Octave-band frequency analysis for precise material selection and solution design.
One-third octave band measurements are required when detailed frequency analysis is required.
C-weighted measurements capturing low-frequency noise from large equipment.
Measurement locations were strategically selected to represent all work positions.

Worker Exposure Dosimetry Assessment:

Personal noise dosimeters attached to individual workers track actual exposure.
Full-shift measurements during normal operations capture real working conditions.
Multiple job functions were assessed separately, recognizing different exposure patterns.
Task-based exposure for different work activities, including maintenance and setup.
Shift-length monitoring meeting OSHA 29 CFR 1910.95 requirements.
Worst-case and typical scenarios are both documented for a comprehensive understanding.
Multiple workers in the same role to verify consistency and identify outliers.
Documentation supporting hearing conservation programs and OSHA compliance.

Comprehensive Noise Source Identification:

Individual machinery is measured separately to isolate primary contributors.
HVAC systems were evaluated for their impact on the building's overall background noise.
Compressed air leaks located and quantified using ultrasonic leak detectors.
Material handling operations, including conveyors, forklifts, and loading, were assessed.
Process equipment was analyzed for noise generation during normal cycles.
Building systems, including lighting ballasts and electrical transformers, were checked.
Outdoor equipment, such as cooling towers and generators, was evaluated.
Contribution analysis, determining which sources create the most exposure.

Detailed Frequency Analysis:

Determines whether noise concentrates in low (under 250 Hz), mid (250-2000 Hz), or high (above 2000 Hz) frequency ranges.
Critical information for selecting appropriate control materials and methods.
Identifies resonance problems requiring specific damping treatments.
Guides barrier material selection for optimal Sound Transmission Class (STC) performance.
Informs silencer design for exhaust systems and ventilation.
Low-frequency noise (typical of compressors, large fans, diesel engines) requires different treatment than high-frequency noise.
Speech interference analysis identifying frequencies affecting communication.
Hearing damage risk assessment focusing on frequencies most damaging to hearing.

Facility-Wide Acoustic Mapping:

Visual representations of noise zones throughout your entire facility.
Color-coded maps showing areas by exposure level (green, yellow, red zones).
Identification of hotspots requiring immediate attention and engineering controls.
Areas approaching compliance limits flagged for monitoring and preventive action.
Buffer zones between high-noise operations and sensitive areas delineated.
Projection of noise levels at property boundaries for community impact assessment.
3D modeling when vertical noise propagation matters in multi-story facilities.
Traffic pattern analysis showing worker movement through various noise zones.

Regulatory Compliance Gap Analysis:

Comparison of all measurements against OSHA 29 CFR 1910.95 standards.
Evaluation against local noise ordinances specific to your municipality.
Identification of specific compliance violations requiring immediate remediation.
Calculation of exposure reductions needed to achieve compliance targets.
Projection of effectiveness for various control strategies before implementation.
Cost-benefit analysis of different solution approaches.
Timeline recommendations for phased implementation based on priority.
Documentation supporting permit applications and regulatory submissions.

Why Professional Assessment Prevents Costly Mistakes

Industrial noise behaves in counterintuitive ways that confuse non-experts and lead to wasted investments:

Complex Acoustic Principles Requiring Professional Expertise:

Reflected sound bounces off hard surfaces and amplifies, rather than dissipating naturally.
Multiple noise sources combine logarithmically, not arithmetically—fundamental acoustic math.
Two 85 dBA sources combined create 88 dBA, not 170 dBA, as linear addition would suggest.
Low-frequency noise penetrates barriers that effectively stop high frequencies.
Structure-borne vibration transmits through buildings via floors, walls, and structural steel.
Vibration converts back to airborne noise far from the original source through radiation.
Flanking paths around barriers compromise effectiveness if not identified and sealed.
Resonance amplifies specific frequencies unpredictably, depending on the room's dimensions.
Reverberation time in large facilities has a significant impact on perceived loudness.
Near-field versus far-field measurements require different approaches and interpretations.

Limitations of DIY Assessment Approaches:

Smartphone apps lack calibration and accuracy for regulatory compliance measurements.
Consumer-grade meters often miss critical frequency data necessary for effective solution design.
Improper measurement locations yield misleading results that do not accurately represent actual exposure.
Incorrect timing fails to capture peak exposures during full production cycles.
A lack of knowledge about standards leads to the misinterpretation of data and incorrect conclusions.
Missing documentation creates compliance problems during OSHA inspections or audits.
No baseline for comparison when future changes or complaints arise.
Inability to predict solution effectiveness without acoustic modeling expertise.

Professional assessment typically pays for itself by preventing wasted spending on ineffective solutions. The detailed data guides precise interventions targeting actual problems rather than guessed-at issues. Texas facilities served by DeWalls receive comprehensive reports supporting both compliance and cost-effective solution selection.

Comprehensive Noise Control Solutions and Acoustic Engineering

Effective industrial noise control follows a proven hierarchy maximizing results while controlling costs. The most successful approach addresses problems in order of effectiveness:

The Noise Control Hierarchy for Texas Industrial Facilities

OSHA and acoustic engineering best practices establish this order of implementation:

Elimination or reduction at source: Most effective and economical long-term approach.
Engineering controls along the path: Block or absorb sound transmission between source and receiver.
Administrative controls: Worker rotation and limiting exposure time supplement technical solutions.
Personal protective equipment (PPE): Last line of defense, never the primary strategy under OSHA requirements.

Source Control: Quieting Noise at Its Origin

Addressing noise where it starts provides the most effective and economical control for Dallas-Fort Worth industrial operations:

Industrial Silencers and Acoustic Mufflers:

Installed on equipment exhaust systems reducing discharge noise from compressors and engines.
Passive devices using absorptive materials (fiberglass, mineral wool) and expansion chambers.
Typical noise reduction of 15-30 dBA depending on design, length, and frequency content.
Reactive silencers for low-frequency noise using tuned chambers and expansion.
Absorptive silencers for broadband noise using sound-absorbing packings.
Combination designs addressing both low and high frequencies.
Applications include compressor exhausts, ventilation discharges, and pressure relief systems.
Custom designs for high-temperature (up to 1200°F) or corrosive environments.
Inline duct silencers for HVAC systems reducing fan noise transmission.
Critical silencers meeting stringent pressure drop and insertion loss requirements.
Vent silencers for steam and gas releases in processing facilities.

Equipment Selection and Buy-Quiet Programs:

Modern machinery operates 10-20 dBA quieter than equivalents from 20-30 years ago.
Low-noise equipment specifications during purchasing decisions prevent problems before installation.
Sound power level data (LwA) requested from manufacturers for comparison shopping.
Incremental purchase cost recovered through reduced noise control needs and better resale value.
Buy-quiet programs preventing problems before installation saves 3-5X compared to retrofits.
Variable frequency drives (VFDs) reducing motor and fan noise by 5-15 dBA.
Enclosed motor designs versus open-frame reducing radiated noise.
Precision-balanced rotating equipment minimizing vibration and noise.
Hydraulic versus pneumatic systems where noise reduction justifies different technology.
Equipment placement considerations during facility design maximizing natural attenuation.

Predictive Maintenance and Mechanical Improvements:

Worn bearings increasing noise levels by 5-15 dBA signaling impending failure.
Loose components creating impact noise and dangerous vibration.
Imbalanced fans generating excessive noise and accelerated wear on bearings and shafts.
Damaged mufflers losing effectiveness over time from corrosion or impact damage.
Regular inspection programs preventing noise escalation and catching problems early.
Proper lubrication reducing friction noise from moving parts.
Precision alignment eliminating vibration sources in coupled equipment.
Belt tension optimization reducing whine from over-tensioned or slapping from loose belts.
Gasket replacement preventing exhaust leaks that bypass mufflers.
Resonance elimination through structural modifications or damping treatments.

Process Modification and Operational Changes:

Replacing impact processes with gradual operations where technically feasible.
Using hydraulic instead of pneumatic tools achieving 10-20 dBA reduction in assembly areas.
Substituting welding for riveting in assembly operations reducing impact noise.
Reducing material drop heights in handling systems and chutes.
Eliminating compressed air leaks wasting energy and creating high-frequency noise.
Optimizing equipment speeds for quieter operation within design parameters.
Batch processing instead of continuous when acoustically advantageous.
Remote operation moving workers away from noise sources entirely.
Automation placing equipment in isolated areas away from occupied spaces.

Acoustic Barriers, Sound Walls, and Noise Enclosures

When source control can't achieve sufficient noise reduction, barriers interrupt sound transmission between source and receiver:

Industrial Sound Barrier Walls and Partitions:

Block line-of-sight noise paths between source and receiver using mass law principles.
Typical noise reduction of 15-25 dBA depending on height, mass, construction, and frequency.
Height, mass, and construction determining overall performance and effectiveness.
Sound Transmission Class (STC) ratings from 25 to 50+ depending on construction.
Modular barrier systems offering flexibility for changing facility layouts.
Temporary barriers for construction, drilling operations, or seasonal activities.
Permanent installations for property boundary protection and community noise control.
Floor-to-ceiling barriers in manufacturing areas creating acoustic zones.
Partial-height barriers when visual supervision or airflow required across spaces.

Barrier Performance Factors and Acoustic Design:

Mass Law: Heavier materials perform better than lightweight alternatives—doubling mass adds approximately 6 dBA reduction.
Height prevents diffraction: Sound waves bend over barriers requiring adequate height (typically 1.5X source-to-receiver line-of-sight).
Placement matters critically: Close to either source or protected area works better than midway positions (inverse square law).
Sealing is absolutely critical: Even small openings (1% of area) drastically reduce effectiveness by 10+ dBA.
Surface treatment prevents reflection: Absorptive facing prevents reflection back to source or onto adjacent surfaces.
Ground effects matter: Barrier extension to ground surface eliminates gaps allowing sound passage.
Edge diffraction: Sound bends around top and sides requiring consideration in design.
Transmission versus absorption: Barriers must both block and absorb for maximum effectiveness.

Total Equipment Acoustic Enclosures:

Surrounding entire machines providing maximum noise reduction for problem equipment.
Typical performance of 30-40 dBA reduction depending on construction and frequency content.
Multiple layers of mass-loaded vinyl (MLV), decoupling airspace, and sound-absorptive materials.
Vibration isolation preventing structure-borne transmission through enclosure connections.
Custom-engineered structures designed for specific equipment geometry and access needs.
Ventilation systems maintaining proper temperature preventing equipment overheating in enclosures.
Access panels, doors, and removable sections for daily operation and maintenance access.
Electrical and control system integration with feed-throughs and sealed penetrations.
Safety interlocks ensuring proper operation and preventing equipment damage.
Lighting and visibility with windows or internal illumination for operator monitoring.
Fire suppression integration meeting NFPA standards for enclosed equipment.

Partial Acoustic Enclosures and Machine Guards:

Balance noise reduction with operational accessibility and material flow requirements.
Surround noisiest components (exhaust ports, gear boxes, impact points) while leaving service points accessible.
Performance ranging from 15-25 dBA depending on percentage of source enclosed and treatment of openings.
Effectiveness depends on percentage of source enclosed—80% coverage provides less than 80% reduction.
Treatment of openings with acoustic louvers, baffles, or curtains maintaining reduction.
Flexible designs accommodating material flow in production environments.
Hinged or removable panels for quick access during tool changes or maintenance.
Operator viewing windows with acoustic glazing maintaining visibility.

Operator Acoustic Control Rooms and Cabins:

Create quiet refuges within noisy environments protecting specific work positions.
Protect specific work positions instead of treating entire facility—cost-effective for control rooms.
Interior noise levels of 65-70 dBA achievable even when external noise exceeds 100 dBA.
Effective even when external noise exceeds 100 dBA through proper construction and sealing.
Prefabricated modular units for quick installation with minimal facility disruption.
Custom-built structures for unique space requirements or challenging locations.
Climate control integration for comfort during long shifts in controlled environments.
Windows providing visibility with acoustic laminated glass (STC 35-45).
Acoustic door seals maintaining performance despite frequent opening/closing.
HVAC integration with inline silencers preventing flanking through ductwork.
Elevated designs providing visual oversight of production floor when required.

Sound Absorption Materials and Reverberation Control

Hard reflective surfaces in Texas industrial facilities cause sound to bounce repeatedly, building up noise levels far beyond what machinery itself creates:

Industrial Acoustic Panel Systems:

Mounted on walls and ceilings absorbing sound energy preventing reflection.
Prevent reflection back into the space reducing reverberant buildup by 3-8 dBA.
Porous materials like fiberglass (density 3-6 PCF), mineral wool (density 4-8 PCF), or specialized acoustic foam.
Noise Reduction Coefficient (NRC) ratings from 0.65 to 1.05 indicating absorption effectiveness.
Frequency-specific performance requiring proper specification matching noise signature.
Low frequencies require thicker materials (4-6 inches) than high frequencies (1-2 inches).
Industrial-grade construction resisting harsh manufacturing environments.
Fabric-wrapped panels for aesthetic finished appearance in offices or control rooms.
Perforated metal facings for impact resistance in production areas.
Typical reverberation time reduction of 30-60% improving speech intelligibility.
Class A fire-rated materials meeting building codes and insurance requirements.

Hanging Acoustic Baffle Systems:

Suspended vertically from ceiling in high-bay manufacturing and warehouse spaces.
Intercept sound from multiple angles providing absorption in both vertical and horizontal planes.
Provide absorption on both faces maximizing effectiveness per unit investment.
Particularly effective where wall treatment alone can't reach enough surface area.
Strategic placement optimizing performance based on noise source locations and ceiling height.
Non-combustible materials meeting fire codes for industrial applications.
Spacing typically 50-75% of ceiling height for optimal acoustic performance.
Various sizes available from 2x4 feet to 4x8 feet depending on space and aesthetic.
Cable suspension systems allowing adjustment for equipment or layout changes.
Cleanable surfaces for food processing, pharmaceutical, or other sensitive environments.

Acoustic Ceiling Treatment Systems:

Provide absorption overhead complementing wall treatments for comprehensive reverberation control.
Critical in facilities with hard concrete floors reflecting sound upward into ceiling areas.
Specialized industrial versions resistant to moisture, humidity, and impact damage.
Temperature tolerance for environments from freezing to 150°F+ in hot manufacturing areas.
Easy-clean surfaces for food processing, pharmaceutical clean rooms, and sensitive applications.
Suspended grid systems allowing access to utilities, HVAC, electrical, and plumbing.
Direct-mount options for spaces without suspended ceilings or low clearance areas.
Combination systems integrating lighting, sprinklers, and HVAC with acoustic treatment.

Industrial Sound Curtains, Acoustic Blankets, and Flexible Barriers:

Flexible solutions for temporary installations or facilities with changing layouts.
Repositionable as operations change maximizing long-term value and adaptability.
Quilted barriers combining mass (1-2 lb/sq ft) for blocking with absorptive materials for damping.
Hung from tracks, stands, or ceiling-mounted systems for easy installation and relocation.
Effective for dividing spaces or enclosing specific work areas temporarily.
Industrial-grade materials resisting wear, contamination, and industrial environments.
Grommets and reinforced edges with hardware for easy installation and durability.
Typical performance STC 20-30 providing 15-25 dBA reduction depending on construction.
Transparent acoustic curtains available when visual supervision required across barriers.
Welding curtains with acoustic properties serving dual purpose in fabrication shops.

Vibration Isolation and Dampening Systems

Structure-borne noise often surprises Texas facility managers. Machinery vibration transmits through floor slabs and structural connections, traveling hundreds of feet and converting back to airborne noise throughout the building:

Vibration Isolation Mounts and Spring Isolators:

Place resilient materials between equipment and foundation breaking transmission path.
Absorb vibration before it enters the building structure preventing propagation.
Multiple types for different applications: springs, rubber, neoprene, or engineered composites.
Spring isolators for heavy machinery: Compressors, large fans, generators, pumps over 5 HP.
Deflection typically 1-2 inches for effective isolation of low-frequency vibration.
Rubber pads for lighter equipment: Small pumps, fans under 5 HP, simple applications.
Neoprene mounts for weather resistance in outdoor installations common in Texas.
Engineered composite materials for specific frequency ranges and load requirements.
Air springs for precision isolation of sensitive equipment or very low frequencies.
Housed spring isolators with rubber elements providing both spring and damping.

Isolation System Selection Considerations:

Equipment weight and center of gravity determining load capacity requirements.
Operating frequency of machinery (RPM) determining required natural frequency.
Required deflection for effective isolation—rule of thumb: natural frequency should be 1/3 of operating frequency.
Environmental conditions affecting material performance (temperature, chemicals, weather).
Load distribution across multiple mounts ensuring balanced support and preventing rocking.
Static and dynamic loading scenarios including startup, shutdown, and operating conditions.
Seismic restraints in areas requiring lateral stability during earthquakes.
Installation ease and maintenance accessibility over equipment lifespan.

Inertia Bases and Structural Foundations:

Massive concrete blocks mounted on isolators providing additional mass to absorb energy.
Provide mass to absorb vibration energy from reciprocating equipment like compressors.
Particularly effective for reciprocating compressors and generators with unbalanced forces.
Prevent dynamic forces from transmitting to the building structure and connected systems.
Reduce vibration amplitude through increased mass (more inertia resisting motion).
Custom design for specific equipment requirements considering all forcing frequencies.
Typical mass 1.5-3X equipment weight depending on application and vibration levels.
Reinforced concrete construction with embedded anchor bolts for equipment mounting.
Grouted housekeeping pads creating continuous surface for mounting spring isolators.

Flexible Piping and Duct Connections:

Prevent vibration transmission through connected piping, ductwork, and utility systems.
Flexible couplings isolating pumps and fans from downstream piping and ducts.
Braided stainless steel expansion joints for high-pressure applications in process piping.
Rubber expansion joints for HVAC ductwork and low-pressure applications.
Break the structural path for vibration transmission through building systems.
Accommodate thermal expansion and equipment movement during operation.
Reduce noise wherever pipes contact walls or pass through floors without proper isolation.
Length requirements typically 6-12 inches for adequate flexibility and decoupling.
Pressure and temperature ratings must match system requirements for safety.
Installation orientation critical for proper function and avoiding premature failure.

Viscoelastic Damping Treatments and Constrained Layer Systems:

Applied to resonant sheet metal panels and equipment covers reducing ringing and radiation.
Constrained-layer treatments converting vibration energy into trace amounts of heat through shearing.
Prevent surfaces from acting as loudspeakers amplifying machinery noise through radiation.
Particularly effective on ductwork, machine guards, enclosure panels, and structural elements.
Applications include chutes, hoppers, conveyor systems, and material handling equipment.
Free-layer damping for complex shapes where constrained layer difficult to apply.
Constrained-layer damping for maximum performance on flat or gently curved surfaces.
Temperature-dependent performance requiring proper material selection for environment.
Typical damping materials include viscoelastic polymers with constraining layers of metal or composite.
Performance is measured by the loss factor, which indicates the percentage of vibration energy converted into heat.

Texas Industries DeWalls Serves With Acoustic Expertise

Oil and Gas Operations: Permian Basin, Eagle Ford Shale, and Texas Gulf Coast

Texas leads the nation in oil and gas production, with facilities facing unique noise challenges:

Drilling Operations:

Mud pumps: 100-110 dBA continuously during drilling.
Diesel generators: 95-105 dBA running 24/7 at remote sites.
24/7 operations requiring sustained noise control for crew exposure.
Proximity to residential development driving stricter enforcement.

Production Facilities:

Compressor stations: 95-110 dBA at gathering and transmission stations.
Flare systems: 110-120 dBA creating extreme noise events.
Processing equipment: Heater treaters, stabilizers, and dehydrators.

DeWalls Oil and Gas Solutions:

Modular barrier systems deploying quickly around drilling operations.
Relocatable designs moving with rig mobilization.
Acoustic enclosures for compressors with maintenance access.
Explosion-proof electrical integration meeting NEC Class I requirements.
Flare system silencers reducing noise without restricting gas flow.
Dual compliance addressing worker and community noise simultaneously.
Weather-resistant materials for harsh Texas climate.

Manufacturing and Assembly Facilities: Dallas-Fort Worth Industrial Corridor

Texas manufacturing creates distinct acoustic signatures requiring targeted solutions:

Metal Fabrication:

Stamping presses: 100-115 dBA impact noise.
Cutting operations: Plasma (95-105 dBA), laser (75-85 dBA), sawing (90-110 dBA).
Grinding operations: 85-106 dBA affecting communication.

Assembly Operations:

Pneumatic tools: 95-110 dBA used extensively in assembly lines.
Paint booth ventilation: 80-95 dBA for VOC control.
Testing equipment: Dynamometers and acoustic chambers.

DeWalls Manufacturing Solutions:

Strategic acoustic barriers between workstations limiting sound propagation.
Ceiling and wall treatments preventing reverberation buildup (3-8 dBA reduction).
Acoustic zoning separating quiet work areas from noisy machining.
Equipment enclosures for noisiest processes like stamping and grinding.
Integration with production flow ensuring efficiency and safety.

Warehouses and Distribution Centers: E-Commerce and Logistics Hubs

Modern distribution facilities run 24/7 with constant activity:

Common Noise Sources:

Loading dock operations: Truck traffic, dock levelers, roll-up doors.
Conveyor systems: Continuous mechanical noise from motors and rollers.
Forklifts and pallet jacks: 75-90 dBA operating simultaneously.
Sortation equipment: Repeated impacts as items are diverted.

Acoustic Challenges:

Severe reverberation: 3-6 second reverberation times in large open spaces.
Sound travels hundreds of feet, reflecting off hard surfaces.
High ceilings (30-40 feet) make treatment challenging.
24/7 operations are creating community noise concerns.

DeWalls Warehouse Solutions:

Ceiling-mounted absorption panels: 30-50% coverage, achieving 4-6 dBA reduction.
Hanging acoustic baffles to treat vertical sound paths in high-bay spaces.
Barrier walls around dock areas and sortation containing sound at source.
Loading dock treatments help reduce the impact of exterior noise.
Improved communication and safety through 5-8 dBA ambient noise reduction.

HVAC Systems and Power Generation: Building Systems Noise Control

Climate control in Texas requires substantial equipment generating significant noise:

HVAC Noise Sources:

Rooftop HVAC units: 70-90 dBA with compressors and supply fans.
Cooling towers: 80-100 dBA from fan noise and water cascade.
Ductwork: Transmitting noise throughout buildings.

Power Generation:

Emergency generators: 95-110 dBA from diesel engines and exhaust.
Continuous operation during peak Texas heat (May-September).
Community impact from rooftop equipment and nighttime operation.

DeWalls HVAC and Generator Solutions:

Acoustic louvers: 10-25 dBA reduction allowing airflow.
Duct lining and wrap absorb fan noise before it reaches the radiation.
Vibration isolation prevents rooftop equipment from shaking buildings.
Custom generator enclosures with weatherproof construction.
Critical-grade industrial silencers for exhaust systems.
Barrier walls protecting adjacent properties.
Computational modeling predicting community noise levels before treatment.

Understanding Regulatory Requirements for Texas Industrial Facilities

Federal OSHA Noise Standards

The Occupational Safety and Health Administration (OSHA) establishes mandatory noise exposure limits under 29 CFR 1910.95:

Key OSHA Thresholds:

90 dBA (8-hour TWA): Permissible Exposure Limit requiring engineering controls.
85 dBA (8-hour TWA): Action level triggering hearing conservation programs.
Exchange rate: Permitted time halves for each 5 dBA increase (95 dBA = 4 hours, 100 dBA = 2 hours).
Dual protection required when exposure exceeds 105 dBA.

Mandatory Requirements at 85 dBA:

Hearing conservation program for all exposed workers.
Annual audiometric testing tracks hearing changes.
Free hearing protection and employee training.
Record-keeping for the duration of employment plus 30 years.

OSHA Penalties (2025):

Serious violations: Up to $16,131 per citation.
Repeat violations: Up to $161,323 per incident.
Willful violations: Up to $161,323 with potential criminal prosecution.

Texas Local Noise Ordinances

Municipal noise ordinances protect communities throughout Dallas-Fort Worth:

Typical Texas Limits:

Daytime (7 AM-10 PM): 70 dBA at residential property lines.
Nighttime (10 PM-7 AM): 60 dBA at residential property lines.
Industrial zones: 70-85 dBA depending on proximity to residential areas.

Fort Worth and Dallas Standards:

70 dBA daytime / 60 dBA nighttime near residential areas.
Enforcement following complaints by code officers with calibrated meters.
Fines $50-$2,000 per violation, with each day constituting a separate violation.
Injunctions are possible for persistent violations, which can prevent operations.

Oil and Gas Considerations:

Many municipalities offer drilling exemptions, but these are typically accompanied by strict conditions.
Sound management plans are required for permits in most jurisdictions.
Notification requirements apply to nearby residents (typically 300-600 feet).
Always verify local requirements before operations begin.

Proactive Compliance Strategy

Smart facility managers address noise before citations or complaints:

Benefits of Proactive Approach:

Design-in noise control costs 1/3 to 1/5 of retrofit expenses.
Prevents permit delays and community objections during expansions.
Establishes baseline conditions for future reference.
Demonstrates good corporate citizenship supporting community relations.

Essential Documentation:

Baseline noise surveys before changes or new operations.
Post-installation verification confirming compliance achieved.
Annual monitoring tracking changes as equipment ages.
Records for inspections and permit applications.

DeWalls Compliance Support:

Assessment against all OSHA and local standards.
Dual compliance solutions addressing worker and community noise simultaneously.
Documentation for permits and regulatory submissions.
Expert testimony if disputes arise.
Ongoing monitoring as operations evolve.

The DeWalls Process: From Assessment to Solution

Step 1: Free Initial Consultation

Every project starts with understanding your noise challenges:

We Discuss:

Worker complaints and OSHA concerns.
Community noise issues or citations.
Facility expansions requiring assessment.
Budget and timeline requirements.

You Get:

Clear understanding of your noise problems.
Ballpark costs and implementation timeline.
Expert recommendations on next steps.
No-pressure, honest assessment.

Contact DeWalls:

Same-day response throughout Dallas-Fort Worth.

Step 2: Professional Noise Assessment

Comprehensive testing provides the foundation for effective solutions:

Our Survey Includes:

Calibrated measurements meeting ANSI standards.
Full-shift worker exposure monitoring.
Individual equipment noise source identification.
Octave-band frequency analysis.
Property boundary measurements for community compliance.
Color-coded facility acoustic mapping.

Detailed Analysis:

OSHA and local ordinance compliance evaluation.
Identification of specific violations.
Exposure reduction calculations.
Cost-benefit analysis of solution options.

Deliverable: Comprehensive report with measurements, compliance gaps, recommended solutions, and cost estimates.

Step 3: Custom Solution Design

Tailored engineering for your specific needs:

Design Approach:

Solutions matched to your noise signature and frequencies.
Multi-solution approach: source control, barriers, absorption, vibration isolation.
Work within space, operational, and budget constraints.
Phased implementation options available.

Performance Prediction:

Computer acoustic modeling forecasting results.
Expected noise reductions at each location.
Compliance verification before construction.
Performance guarantees with verification methods.

Documentation: Engineering drawings, material specifications, installation procedures, and project timeline.

Step 4: Expert Installation

Professional implementation with minimal disruption:

Installation Features:

Coordination with your production schedule.
Off-shift work options for 24/7 operations.
Trained industrial acoustic technicians.
Proper sealing and acoustic decoupling.
Full safety protocols and insurance.

Project Management:

Daily progress updates.
Transparent change order management.
Clean, organized work areas.
As-built documentation.

Step 5: Verification and Support

Confirming performance and ensuring long-term success:

Post-Installation:

Performance testing at same locations as initial survey.
Before-and-after comparison confirming results.
Compliance documentation for OSHA and local authorities.

Ongoing Support:

Maintenance staff training on system care.
Written warranties on materials and workmanship.
Rapid response for any issues.
Consultation for future facility changes.

Long-Term Success: Maintaining Your Acoustic Investment

System Maintenance and Inspection

Noise control systems require periodic attention to maintain long-term effectiveness:

Acoustic Barriers and Enclosures:

Annual seal inspection at all seams, joints, and connections.
Weather-stripping replacement on access doors maintaining acoustic seal.
Panel integrity checks for damage, corrosion, or degradation.
Outdoor installation maintenance including cleaning and repainting.

Absorptive Materials:

Vacuuming or washing per manufacturer specifications restoring performance.
Material replacement when contamination excessive or cleaning ineffective.
Inspection schedules based on environment severity (quarterly to annually).

Vibration Isolation Systems:

Deflection verification ensuring continued isolation effectiveness.
Component replacement when rubber or springs worn or failed.
Load distribution checking across multiple mounts ensuring balanced support.
Re-balancing when equipment changes occur.

DeWalls Maintenance Programs:

Professional inspections are available on an annual or semi-annual basis.
Performance verification with measurements and testing.
Early problem identification prevents costly failures.
Budget planning supports forecasting replacement needs.

Hearing Conservation Program Integration

Engineering controls reduce noise, but comprehensive programs remain essential:

Annual Audiometric Testing:

Baseline hearing tests for all exposed workers within six months.
Annual testing tracking changes identifying standard threshold shifts.
Early intervention when hearing loss detected.
Record-keeping for duration of employment plus 30 years per OSHA.

Hearing Protection Devices:

Properly fitted earplugs or earmuffs at no cost to workers.
Multiple styles accommodating individual preferences.
Training on correct use ensuring protection actually achieved.
NRR selection appropriate for exposure levels and frequencies.

Employee Training:

Annual training on noise hazards required by OSHA.
Proper hearing protection use demonstrated with hands-on fitting.
Reporting procedures for excessive noise or equipment problems.
Long-term hearing health emphasizing personal stakes in compliance.

Program Documentation:

Noise measurements from initial and periodic assessments.
Audiometric test results maintained 30 years minimum.
Hearing protection tracking by employee and date.
Training records documented annually for OSHA compliance.

Planning for Facility Changes

Industrial facilities evolve constantly, requiring acoustic planning:

Key Questions for Changes:

Will new equipment push areas over OSHA limits?
Does expansion affect property line noise compliance?
Can equipment selection reduce noise control costs?
What permits require noise assessments before approval?

Pre-Change Consultation Benefits:

Design-in solutions preventing problems at a fraction of retrofit cost (3-5X savings).
Equipment location optimization for acoustic performance.
Barrier placement is designed into expansions, not retrofitted.
Permit acquisition support with noise studies and predictions.

Periodic Reassessment Schedule:

Every 3-5 years as baseline practice.
When major equipment is added or replaced.
After facility expansions or reconfigurations.
If worker complaints increase, it indicates changing conditions.
When regulations change, ensure continued compliance.

DeWalls Change Management:

Consultation before major changes integrating acoustic considerations early.
Updated assessments showing impact of proposed changes.
Solution design integrated with expansion projects from concept stage.
Long-term partnership supporting clients through decades of growth.

Why Dallas-Fort Worth Texas Facilities Choose DeWalls

Two Decades of Proven Industrial Acoustic Expertise

DeWalls has served Texas industrial clients for over 20 years, building unmatched experience in acoustic engineering and noise control:

Experience Translates to Better Results:

Understanding of the impact of Texas climate on materials, performance, and installation techniques.
Work in extreme heat (100°F+) on rooftops and outdoor installations common in Texas summers.
Coordination of installations around continuous 24/7 production schedules without disruption.
Navigation of complex OSHA and local noise ordinance relationships across multiple jurisdictions.
Established relationships with suppliers for fast material procurement and competitive pricing.
Proven solutions refined through hundreds of successful projects in real Texas conditions.
Knowledge of local building codes across Dallas, Tarrant, Collin, and surrounding counties.
Relationships with building officials expediting permit processes and inspections.

Diverse Project Portfolio Across Texas:

Oil and gas operations across Permian Basin, Eagle Ford Shale, and Barnett Shale regions.
Manufacturing facilities throughout Dallas-Fort Worth metroplex industrial corridors.
Distribution centers requiring 24/7 operation continuity serving national logistics networks.
Processing plants with stringent community noise limits in mixed-use developments.
HVAC systems for industrial, commercial, and institutional buildings.
Automotive assembly and parts manufacturing supporting major OEMs.
Food processing and packaging facilities meeting sanitation and acoustic requirements.
Data centers requiring precise acoustic environments for equipment protection.
Healthcare facilities requiring quiet environments meeting stringent standards.
Educational institutions including universities and technical colleges.

Each project builds our expertise in what works in real-world Texas industrial environments, not just academic theory or laboratory conditions. Don't let noise control problems threaten your operations, worker safety, community relations, or regulatory compliance. Contact DeWalls today for your free consultation and discover how professional acoustic solutions protect your workers, your facility, and your bottom line for years to come.

The DeWalls Difference in Industrial Acoustics

Specialized Acoustic Engineering Expertise:

Advanced degrees and certifications in acoustical engineering and industrial hygiene.
Understanding of physics and mathematics is required to predict sound behavior and control effectiveness.
Experience with complex industrial environments, including hazardous locations and extreme conditions.
Custom solutions addressing unique facility challenges not found in textbooks or catalogs.
Technical depth that general contractors don't possess prevents costly mistakes and rework.
Member of professional organizations, including the National Council of Acoustical Consultants (NCAC).
Continuing education on the latest technologies, materials, and regulatory requirements.
Peer-reviewed designs for critical applications ensuring optimal performance.

Industrial-Grade Materials and Construction:

Products designed for harsh manufacturing environments, not residential applications.
Temperature extremes, ranging from freezing to 150°F+, are common in Texas industrial facilities.
Humidity resistance for facilities with wash-down or high moisture processes.
Chemical exposure tolerance for processing facilities and refineries.
Physical abuse resistance from forklift traffic, material handling, and impacts.
UV-stable materials for outdoor Texas installations resisting sun degradation.
Long-term durability reduces replacement frequency and lifecycle costs.
Corrosion-resistant hardware, including stainless steel fasteners and galvanized frames.
Fire-rated materials meeting building codes and insurance requirements.
NSF-rated options for food processing and pharmaceutical applications.

Custom Engineering Approach vs. Cookie-Cutter Solutions:

Solutions fit your specific noise signature and frequency content.
Working within space limitations and existing structural constraints.
Accommodation of maintenance access requirements preserving operational efficiency.
Integration with current systems including HVAC, electrical, and process equipment.
Respect for operational needs and production schedules during installation.
No cookie-cutter approaches that fail in real industrial conditions.
3D modeling and visualization showing solutions before construction.
Acoustic predictions using industry-standard software (CadnaA, SoundPLAN, etc.).
Performance guarantees backed by post-installation verification.

Quality Installation Standards and Craftsmanship:

Trained technicians understand acoustic principles, not just follow blueprints.
Sealing of all gaps and penetrations, preventing acoustic flanking paths.
Proper acoustic decoupling was maintained throughout the installation, preventing short circuits.
Verification of vibration isolation performance using instrumentation and testing.
Attention to detail is what separates effective solutions from wasted investment.
Poor installation wastes money on high-quality materials that fail to deliver the predicted results.
Quality control inspections at critical stages prevent problems.
As-built documentation showing actual installation for future reference.
Punch-list completion, ensuring every detail is finished to specifications.

Project Management Excellence:

Single point of contact, eliminating coordination hassles and communication gaps.
Clear communication throughout project lifecycle from design through completion.
Realistic scheduling and timeline commitments avoiding overpromising and underdelivering.
Efficient work minimizing production disruption through planning and coordination.
Safety protocols are in place to protect your workforce and ours during installation.
Documentation for compliance and warranty purposes supporting regulatory requirements.
Manage change orders with transparent pricing when conditions differ from the expected.
Progress reporting keeps stakeholders informed on schedule, budget, and quality.

Frequently Asked Questions About Industrial Noise Control

How do I know if my Dallas-Fort Worth facility needs professional noise control?

Several indicators suggest you need a professional acoustic assessment:

Workers complain about noise, hearing problems, or communication difficulty.
OSHA citations received or anticipated based on industry violations.
Neighbors complained about facility noise to municipal code enforcement.
Facility expansion planned requiring permit approvals and noise studies.
High noise industry (manufacturing, oil and gas, processing operations).
Audiometric testing shows employees developing hearing loss or threshold shifts.
Equipment operates louder than normal indicating mechanical problems.
Growing residential area with increased community noise sensitivity.

If any apply, professional assessment determines exact problems and cost-effective solutions, preventing wasted investment on ineffective treatments.

Can noise control be installed without shutting down Dallas operations?

Absolutely. DeWalls specializes in retrofit installations, working around production schedules:

Most work happens outside operating equipment, allowing installation during production.
Off-shift or weekend options available for 24/7 operations.
Phased projects never interrupt critical operations.
Equipment enclosures are prefabricated off-site, minimizing downtime.
Clear communication ensures smooth coordination without surprises.

How much noise reduction can be achieved in Texas facilities?

Substantial improvements are typical in industrial applications:

Performance By Solution:

Industrial silencers: 15-30 dBA reduction.
Total acoustic enclosures: 30-40 dBA reduction.
Acoustic barrier walls: 15-25 dBA.
Absorption treatments: 3-8 dBA.
Comprehensive approaches: 20-35 dBA total reduction combining multiple strategies.

Example: A facility reduced exposure from 95 dBA to 82 dBA through equipment enclosures (20 dBA), barriers (10 dBA), and ceiling absorption (5 dBA).

The professional noise survey predicts specific reductions for your Dallas-Fort Worth facility with accurate performance guarantees.

Will noise control interfere with equipment access and maintenance?

Properly designed solutions preserve operational efficiency and accessibility:

Access panels at all maintenance points with acoustic seals.
Removable sections for full equipment access during major service.
Hinged or sliding panels maintaining seal during operation.
Barriers positioned avoiding material flow or emergency egress blockage.
Modular designs allowing repositioning as needs change.
Quick-release hardware speeding maintenance activities.

DeWalls' engineers understand that inaccessible equipment serves no purpose, regardless of acoustic performance.

How long does noise control installation take in Dallas-Fort Worth?

Project duration varies with scope, but DeWalls provides realistic timelines:

Typical Durations:

Small installations: 2-5 days (silencers, localized barriers).
Medium projects: 2-4 weeks (comprehensive treatments).
Large enclosures: 4-8 weeks (including fabrication).
Phased implementations: Extended timeline with minimal disruption.
Rush services available for urgent situations.

DeWalls coordinates scheduling around your operations with clear milestones throughout the project.

What's the first step to get started with DeWalls in Texas?

Contact DeWalls today for a free consultation:

What Happens Next:

Discussion of your challenges and objectives.
Honest answers about process, costs, and timelines.
Determine if a comprehensive assessment is needed.
Schedule site visits within days throughout Dallas-Fort Worth.
No obligation—just straightforward discussion.

Don't wait for OSHA citations or community complaints. Take control of your acoustic environment now with DeWalls' proven expertise.

Protect Your Texas Operations With Expert Noise Control

Our Proven Four-Step Approach Delivers Guaranteed Results

1. Professional Assessment:

Identifies your specific noise challenges and compliance gaps with precision.
Provides accurate data for informed decision-making and budget planning.
Prevents wasted spending on ineffective solutions or wrong approaches.

2. Custom-Engineered Solutions:

Targets your facility's unique conditions and noise signature specifically.
Works within your operational constraints, budget, and timeline requirements.
Combines multiple technologies for maximum effectiveness and ROI.

3. Expert Installation:

Trained industrial acoustics technicians with decades of experience.
Minimal operational disruption during implementation through careful planning.
Quality workmanship ensuring predicted performance actually achieved.

4. Verification Testing:

Confirms results meet OSHA requirements and local ordinances with measurements.
Provides documentation for compliance files and regulatory submissions.
Peace of mind knowing problems actually solved, not just treated.

Contact DeWalls Acoustic Specialties Today

Your workers deserve a safe acoustic environment. Your community deserves a good neighbor. Your business deserves compliance confidence. DeWalls delivers all three.

Get Started Today

Transform your living or working space into a peaceful sanctuary with De-Walls Acoustic Specialties. Say goodbye to noisy distractions and hello to uninterrupted tranquility. Contact us today to schedule a consultation with one of our soundproofing experts and take the first step towards a quieter environment. Experience the De-Walls difference today!