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Mathematical Physics Jobs in Michigan (NOW HIRING)

Quality Black Belt Engineer

Auburn Hills, MI · On-site

$68K - $88K/yr

Minimum of a Bachelor's degree or higher in Engineering, manufacturing, Quality, Math, Physics, Chemistry or Statistics * Minimum of 8 years problem solving experience in manufacturing environment ...

... mathematical accuracy of all calculations using a system established by the medical physicist. • Plans intracavitary and interstitial brachytherapy procedures and in the subsequent manual and/or ...

New

A strong background in image processing, machine learning, and mathematics/physics is required, with familiarity in vehicle dynamics considered a plus. ESSENTIAL JOB FUNCTIONS * Develop (design ...

A strong background in image processing, machine learning, and mathematics/physics is required, with familiarity in vehicle dynamics considered a plus. ESSENTIAL JOB FUNCTIONS * Develop (design ...

Showing results 41-60

Mathematical Physics information

See Michigan salary details

$9.6K

$53.3K

$82.4K

How much do mathematical physics jobs pay per year?

As of Aug 10, 2026, the average yearly pay for mathematical physics in Michigan is $53,307.00, according to ZipRecruiter salary data. Most workers in this role earn between $40,100.00 and $56,200.00 per year, depending on experience, location, and employer.

What kinds of projects or research areas do mathematical physicists typically work on?

Mathematical Physicists often engage in projects that explore the mathematical foundations of physical theories, such as quantum mechanics, statistical mechanics, or general relativity. Their work can involve developing new theoretical models, simulating physical systems, or solving complex equations that describe real-world phenomena. Many Mathematical Physicists collaborate with other scientists or engineers on interdisciplinary teams, and may contribute to advances in fields like materials science, computational physics, or even finance. These roles offer opportunities to publish research, present at conferences, and sometimes to teach or mentor students, depending on the work environment.

What can I do with a mathematical physics degree?

A mathematical physics degree prepares individuals for careers in research, academia, data analysis, and engineering. Graduates often work as physicists, quantitative analysts, software developers, or in technical consulting, utilizing strong problem-solving, mathematical, and programming skills. Many roles require knowledge of advanced mathematics, programming languages, and scientific tools.

What is a mathematical physicist?

A Mathematical Physics job involves using advanced mathematical methods to solve complex problems in physics. Professionals in this field work on theoretical models, analyze physical systems, and develop mathematical frameworks to describe fundamental forces and particles. They may contribute to areas like quantum mechanics, relativity, statistical mechanics, or computational physics. Careers in mathematical physics can be found in academia, research institutions, technology companies, or financial industries where analytical modeling is essential.

What jobs can you do with mathematical physics?

Mathematical physics graduates can pursue careers as research scientists, data analysts, quantitative analysts, or computational physicists. They often work in academia, government labs, or industries such as aerospace, finance, or technology, utilizing skills in advanced mathematics, programming, and problem-solving.

Is mathematical physics a good degree?

Mathematical physics is a rigorous degree that combines advanced mathematics and physics, preparing graduates for research, academia, or roles in industries like engineering, data analysis, and technology. It develops strong problem-solving, analytical, and quantitative skills, which are highly valued in various scientific and technical careers.

What does a mathematical physicist do?

A mathematical physicist applies advanced mathematical methods to solve problems in physics, often working on theoretical models, quantum mechanics, or relativity. They develop mathematical frameworks, analyze complex systems, and may work in research institutions, academia, or industry using tools like differential equations and computational software.

What are the key skills and qualifications needed to thrive as a mathematical physicist?

Excelling in Mathematical Physics requires a robust background in advanced mathematics, theoretical physics, and typically a master's or Ph.D. in a related discipline. Familiarity with programming languages such as Python or MATLAB, experience with computational modeling, and data analysis tools are highly valuable. Strong problem-solving abilities, critical thinking, and effective communication help professionals explain complex concepts to both technical and non-technical audiences. These competencies are essential for developing innovative models, conducting rigorous research, and collaborating effectively with interdisciplinary teams.

What are the most commonly searched types of Mathematical Physics jobs in Michigan? The most popular types of Mathematical Physics jobs in Michigan are:
What are popular job titles related to Mathematical Physics jobs in Michigan? For Mathematical Physics jobs in Michigan, the most frequently searched job titles are:
What job categories do people searching Mathematical Physics jobs in Michigan look for? The top searched job categories for Mathematical Physics jobs in Michigan are:
Infographic showing various Mathematical Physics job openings in Michigan as of August 2026, with employment types broken down into 42% Full Time, and 58% Part Time. Highlights an 100% In-person job distribution, with an average salary of $53,307 per year, or $25.6 per hour.

Research Engineer / Scientist

Optimal Inc.

Dearborn, MI • On-site

Full-time

Posted 12 days ago


Job description

Job Title:Research Engineer / ScientistPosition Description:Prognostics Research Engineer: Own the process for prognostic feature development from conceptual to feature deployment to our production vehicles. Pioneer Physics-Informed Machine Learning (PIML): Fuse first-principles physics modeling with advanced machine learning to develop hybrid, high-fidelity prognostic models that capture complex degradation behaviors across both EV and ICE powertrains. Architect Prognostics & RUL Frameworks: Design and deploy state-of-the-art prognostics models to accurately estimate the Remaining Useful Life (RUL) of critical vehicle subsystems, transforming noisy fleet data into actionable maintenance alerts. Deploy Edge Models in C++: Translate complex predictive models into highly optimized, low-latency C++ code, bridging the gap between cloud-based data science and resource-constrained on-board vehicle electronic control units (ECUs). Harness High-Frequency Signal Processing: Architect custom Digital Signal Processing (DSP) pipelines and time-series analytics to extract clean, high-frequency physical signatures from multi-sensor vehicle networks, isolating early-stage wear patterns before they manifest as failures. Design Multi-Sensor Fault Detection & Isolation (FDI): Develop and validate intelligent, multi-sensor anomaly detection frameworks capable of real-time Fault Detection and Isolation (FDI) to ensure vehicle safety, system redundancy, and fault-tolerant control. Apply Statistical Causal Inference: Leverage advanced statistical methods (including causal inference, multivariate analysis, ANOVA, and PCA) to differentiate between mere correlation and true physical root causes of component degradation across massive, connected vehicle fleets. Own the End-to-End Pipeline (HIL to Production): Direct the entire prognostic lifecycle-moving seamlessly from mathematical conceptualization and simulation in MATLAB/Simulink to physical validation on Hardware-in-the-Loop (HIL) benches, prototype vehicles, and ultimately to production vehicle deployment. Synthesize Deep Subsystem Domain Knowledge: Partner closely with EV and ICE component subject matter experts to translate deep physical domain knowledge (thermal, mechanical, chemical, and electrical) into robust on-board and off-board diagnostics. Build Scale with Big Data & Calibration Tools: Ingest and process large-scale telemetry data using Python, SQL, Spark, and Hadoop, while leveraging industry-standard calibration tools (such as ATI and ETAS) to fine-tune algorithms for real-world driving environments. Interact with subject matter experts to understand component/system functions, leverage existing connected vehicle data to model on-board and off-board prognostics algorithms. Operate cross-functionally to ensure successful code implementation on production vehicles.Skills Required:C++, ALGORITHMS, Data Science, Google Cloud Platform, Python, SQL, MATLAB modeling the ideal candidate would have leveraged the tools like SQL, data science methods and tools like python on our cloud platform (GCP) or any cloud platform to do modeling.Experience Required:Master's in Mechanical, Electrical, Computer Science, Computer engineering, Physics, Mathematics or related fields or a combination of education and equivalent experience 4+ years of experience of practicing statistical methods and their accurate application e.g. ANOVA, principal component analysis, correspondence analysis, k-means clustering, factor analysis, multi-variate analysis, Neural Networks, causal inference, Gaussian regression, etc. 3+ Experience with Python (and related modules), SQL Experience with embedded controls, onboard Diagnostic, Sensor Processing, General First Principles Physics Modeling and simulation using numerical computational tool (e.g. MATLAB, ATI, Simulink) Experience with Digital Signal Processing (DSP) data structures, algorithms, and software engineering principles Self-motivated, strong analytical, excellent interpersonal and communication skills requiredExperience Preferred:PhD in Mechanical, Electrical, Computer Science, Computer engineering, Physics, Mathematics or related fields or a combination of education and equivalent experience Experience in Dynamic Systems, Control, Robotics, Prognostics and Health Management Familiarity working with Automotive prognostics feature development using connected vehicle data. 2+ Experience in application of statistical and machine learning methods e.g., ANOVA, PCA, clustering methods, causal inference, time series forecasting, random forest, multi-variate analysis, neural networks, etc. Expertise in open-source data science technologies such as Python, R, Spark, Hadoop, etc. acquired through college course work, online training and certification or project development. Experience in software development for automotive controls with hands on experience using MATLAB for large scale data and understanding of programming fundamentals and experience with C++ programming in embedded environments. ATI and ETAS calibration tool familiarity Excellent verbal and written skills. Highly credible in organizational, time management, decision making, and problem-solving skills.Education Required:Master's DegreeEducation Preferred:DoctorateAdditional Safety Training/Licensing/Personal Protection Requirements:Additional Information :***HYBRID / 4 days per week in the office*** Are you passionate about leveraging modern day data science methodologies/tools to study and predict the degradation or occurrence of a problem in a vehicle component/system? Would you love to accelerate our efforts to build amazing experiences and software products in the Connected Vehicles space - with data? We are seeking top-tier Applied Data Science professionals who are data driven, self - motivated and detail oriented to help develop and deliver breakthrough Prognostic Features.