Mechanical & Aerospace

Acoustic Engineer

SOC 17-2199.03 · ESCO 2149 · OSCA 243931

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Role snapshot

Overview

Measures, models, and controls sound and vibration in buildings, outdoor environments, and products. Designs noise barriers, advises on room acoustics, and ensures developments comply with noise regulations. Applies scientific principles to solve noise and vibration challenges across various industries.

Contributes to public health and comfort by reducing unwanted noise, improves product quality through vibration control, and ensures compliance with environmental regulations.

On the job

  • Conduct acoustic measurements and analyses in various environments.
  • Develop and simulate acoustic models for buildings, products, and outdoor spaces.
  • Design and recommend noise control solutions, such as barriers, insulation, and vibration isolators.
  • Advise architects and engineers on room acoustics and soundproofing techniques.
  • Prepare technical reports and ensure projects comply with relevant noise and vibration standards.
Acoustic Engineer at work

Tools & technology

Sound Level MetersVibration AnalyzersAcoustic Simulation Software (e.g., Odeon, CATT-Acoustic, EASE)CAD Software (e.g., AutoCAD, Revit)Data Analysis Software (e.g., MATLAB, Python)

Average salary

$95K
MEDIAN SALARY Annual · USD
$70K Bottom 10%
$130K Top 10%

Job outlook

Stable

Demand is steady. This is an established role with consistent hiring across sectors.

Education & training

Bachelor's degree in Acoustics, Mechanical Engineering, Electrical Engineering, or Physics with a specialization in acoustics.

AI impact outlook

AI can streamline acoustic modeling and design recommendations, while human judgment remains essential for complex environmental interpretation and bespoke client solutions.

Note — this is our current view. AI is moving fast, so we revisit these ratings.

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Why this role received this rating

Core task exposure

high

How much of the role’s important work could AI perform?

Simulation, data analysis, initial design generation, and report writing for acoustic solutions are highly exposed to AI automation.

End-to-end automation

moderate

Can AI complete the work without substantial human involvement?

AI can model and suggest solutions, but onsite validation, complex problem-solving in unique environments, and nuanced client advice are far from automated.

Adoption pressure

high

How likely are employers to introduce AI into this work?

High potential for efficiency gains in simulation, design iterations, and compliance checks, making adoption likely in cost-sensitive and regulated industries.

Human dependence

moderate

How much does success depend on human judgement, relationships and accountability?

Success hinges on interpreting complex real-world acoustic environments, advising on nuanced trade-offs, and ensuring regulatory compliance, placing significant reliance on human expertise and accountability.

Protective — a higher rating lowers the overall score.

Role adaptability

strong

How easily can the role evolve as AI takes on more tasks?

The role's core scientific principles are transferable across diverse applications, from architectural acoustics to product design and environmental impact assessment.

Shown for context — not part of the score.

What AI may take on

These are the parts of the role most likely to be automated or significantly accelerated.

  • Conducting initial acoustic measurements and automated analysis in various environments
  • Developing and simulating standard acoustic models for buildings or products
  • Generating preliminary noise control solution designs and options
  • Drafting technical reports based on established templates and data
  • Checking designs against standard noise and vibration compliance regulations

Where people remain essential

These parts continue to depend heavily on human judgement, relationships and accountability.

  • Interpreting ambiguous real-world acoustic data with contextual understanding
  • Advising architects and engineers on complex, unique room acoustic challenges
  • Designing novel noise control solutions for unprecedented problems
  • Ensuring project compliance with regulations where human liability is paramount
  • Negotiating and communicating with clients and stakeholders on design trade-offs
  • Troubleshooting unexpected acoustic issues on-site

How the role may evolve

Data analysis becomes automated; nuanced problem definition and advisory become central.

The role shifts from extensive manual data processing and routine simulation to higher-value activities centered on interpreting complex results, providing expert advice, and engaging with diverse stakeholders to solve unique challenges.

Strengthen your future fit

  • Mastering advanced acoustic simulation and AI design tools
  • Developing strong communication and advisory skills for diverse clients
  • Specializing in complex environmental noise or cutting-edge material acoustics
  • Cultivating critical thinking for novel problem diagnosis and solution integration
  • Understanding regulatory frameworks and liability in acoustic engineering
Assessment horizon
3–7 years
Confidence
Medium
Last reviewed
August 2026
Methodology
v1.0

This assessment reflects current AI capabilities and expected adoption patterns. Actual impacts will vary by industry, employer and the way each role is performed.

Career pathways

WHERE YOU COULD GO

Senior Acoustic Engineer
Acoustics Consultant
Research Scientist (Acoustics)

CURRENT ROLE

Acoustic Engineer

Mechanical & Aerospace

ADJACENT MOVES

Noise Control Specialist
Audio Engineer
Junior Acoustic Engineer
Mechanical Engineer
Physics Research Assistant

STARTING POINTS

Who thrives here

Interest profile

R

realistic · RIC

Individuals who enjoy hands-on technical work, scientific investigation, and systematic problem-solving in a structured environment often thrive in acoustic engineering.

Personality characteristics

Curious

Driven to understand the underlying principles of sound and vibration and explore innovative solutions.

Methodical

Approaches complex problems with systematic analysis, attention to detail, and a focus on accuracy in measurements and models.

Reserved

Prefers to focus on technical tasks and data analysis, often working independently or in small, focused teams.

Collaborative

Works effectively with other engineers, architects, and clients to integrate acoustic solutions into broader projects.

Calm under pressure

Maintains composure when facing technical challenges, unexpected site conditions, or tight deadlines.

Best for

  • Individuals passionate about physics, sound, and engineering applications.
  • Problem-solvers who enjoy translating complex scientific data into practical solutions.
  • Those who prefer a blend of analytical work, field measurements, and design implementation.

Watch out for

  • Requires significant technical depth and continuous learning to stay updated with new technologies and regulations.
  • Can involve working in varied environments, including construction sites or industrial settings, which may be noisy or require specific safety protocols.

A week in the life

A representative working week for an Acoustic Engineer — where the deep work, meetings, and admin actually land.

8am9am10am11am12pm1pm2pm3pm4pm5pm6pm
Mon
Project Planning Meeting
Acoustic Model Development
Data Analysis & Report Writing
Tue
Site Visit (Measurements)
Client Consultation
Research & Literature Review
Wed
Vibration Analysis & Design
Technical Document Review
Software Tool Training
Thu
Noise Barrier Design & Simulation
Team Design Review
Regulatory Compliance Assessment
Fri
Final Report Preparation
Project Closeout Meeting
Professional Development & Admin
Deep work Meeting External Social Admin

Real people. Real results.

Thousands of people
can't be wrong.

4.88
★★★★★
Rating
Image-based assessment that doesn't drain your energy
Science-backed — Big Five + RIASEC research models
A report that tells you why — not just which box you fit in
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Frequently asked questions about Acoustic Engineer roles

What does an Acoustic Engineer do?

An Acoustic Engineer measures, models, and controls sound and vibration in buildings, outdoor environments, and products. Designs noise barriers, advises on room acoustics, and ensures developments comply with noise regulations. Applies scientific principles to solve noise and vibration challenges across various industries. Contributes to public health and comfort by reducing unwanted noise, improves product quality through vibration control, and ensures compliance with environmental regulations.

How much does an Acoustic Engineer earn?

An Acoustic Engineer earns a median of $95,000 per year in the US, typically ranging from $70,000 to $130,000.

What qualifications do you need to become an Acoustic Engineer?

To become an Acoustic Engineer, bachelor's degree in Acoustics, Mechanical Engineering, Electrical Engineering, or Physics with a specialization in acoustics.

What personality suits an Acoustic Engineer?

Acoustic Engineer roles tend to suit people who are highly conscientious — precise, organised and strong on follow-through (Conscientiousness 80/100) and steady under pressure — deadlines and setbacks do not rattle them easily (Emotional Stability 70/100). The traits that matter most in the role are Curious, Methodical, Reserved and Collaborative. Driven to understand the underlying principles of sound and vibration and explore innovative solutions. On interests, Acoustic Engineer maps to a RIC Holland Code profile — individuals who enjoy hands-on technical work, scientific investigation, and systematic problem-solving in a structured environment often thrive in acoustic engineering.

Who does an Acoustic Engineer role suit?

An Acoustic Engineer role is usually a strong fit for these reasons. Strong Realistic and Investigative alignment: the role demands technical expertise, hands-on problem-solving, and scientific inquiry. Involves detailed analysis and systematic approaches to design, appealing to those with a high Conscientiousness trait. Offers opportunities to work on diverse projects, from architectural acoustics to product noise control.

What are the downsides of being an Acoustic Engineer?

Acoustic Engineer roles come with trade-offs worth weighing up. Requires significant technical depth and continuous learning to stay updated with new technologies and regulations. Can involve working in varied environments, including construction sites or industrial settings, which may be noisy or require specific safety protocols.

What is the work environment like for an Acoustic Engineer?

Work as an Acoustic Engineer is mostly mixed-based with hybrid arrangements common, semi-structured — a mix of set processes and self-directed work, a moderate pace and high exposure to clients or stakeholders. Around 68% of the week is focused deep work.

What skills do you need to be an Acoustic Engineer?

Core skills for an Acoustic Engineer include Acoustic Measurement and Analysis, Vibration Control, Architectural Acoustics, Noise Modeling and Simulation, Regulatory Compliance (Noise) and Technical Report Writing.

How do you become an Acoustic Engineer?

Common entry routes into Acoustic Engineer roles include Junior Acoustic Engineer, Mechanical Engineer and Physics Research Assistant.

What career progression is there for an Acoustic Engineer?

From an Acoustic Engineer role, common next steps include Senior Acoustic Engineer, Acoustics Consultant and Research Scientist (Acoustics); lateral moves include Noise Control Specialist and Audio Engineer.

What is the job outlook for Acoustic Engineer roles?

The outlook for Acoustic Engineer roles is currently rated stable. Demand is steady. This is an established role with consistent hiring across sectors.

Will AI replace Acoustic Engineer roles?

Traitstack rates automation risk for Acoustic Engineer roles at 60 out of 100, which is moderate. AI can streamline acoustic modeling and design recommendations, while human judgment remains essential for complex environmental interpretation and bespoke client solutions. AI is most likely to take on conducting initial acoustic measurements and automated analysis in various environments, developing and simulating standard acoustic models for buildings or products and generating preliminary noise control solution designs and options. Interpreting ambiguous real-world acoustic data with contextual understanding, advising architects and engineers on complex, unique room acoustic challenges and designing novel noise control solutions for unprecedented problems stay with people. Data analysis becomes automated; nuanced problem definition and advisory become central. That score measures how much of the work could change, not the likelihood the job disappears. It is Traitstack's current view, revisited as AI capability moves.