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Medical Image Processing Engineer Jobs in Texas (NOW HIRING)

Camera and Optical Engineer

Richardson, TX · On-site

$116K - $150K/yr

... medical devices. You must demonstrate excellent communication skills and be able to thrive in a ... Image Processing and ISP OptimizationOptimize Image Signal Processor (ISP) pipelines to enhance ...

Senior Algorithm Systems Engineer

Plano, TX · On-site

$100K - $137K/yr

Signal Processing Algorithms or Models, Image Processing Algorithms or Models, Detection Theory or ... Programming experience in C or C++, and hands on experience using MATLAB or Python for data ...

IOS Developer

Dallas, TX · On-site

$51.25 - $70.50/hr

... Swift Engineer with current experience and exposure to the languange Algorithm development for image or signal processing or other complex math problems Image processing such as filtering ...

... processes, e.g. medical, aerospace, or automotive. (Medical device preferred). A minimum of 10 ... image processing (e.g. GPU, FPGA). Design for Manufacturing. A Master's of Science degree in ...

Principal Electrical Engineer

San Antonio, TX · On-site

$125K - $153K/yr

... processes, e.g. medical, aerospace, or automotive. (Medical device preferred). A minimum of 10 ... image processing (e.g. GPU, FPGA). • Design for Manufacturing. A Master's of Science degree in ...

Showing results 21-40

Medical Image Processing Engineer information

What are some common challenges faced by medical image processing engineers when working with diverse imaging modalities?

Medical Image Processing Engineers often need to adapt algorithms and workflows to handle differences in data quality, resolution, and artifacts across modalities such as MRI, CT, and ultrasound. Managing large datasets and ensuring interoperability between imaging systems can also present technical hurdles. Additionally, maintaining compliance with healthcare regulations and ensuring patient data privacy adds complexity to their daily tasks. Collaboration with clinicians and radiologists is vital to accurately interpret results and validate software tools in real clinical settings.

What are the key skills and qualifications needed to thrive as a medical image processing engineer?

A Medical Image Processing Engineer should have a solid background in computer science, biomedical engineering, or a related field, with expertise in image analysis, machine learning, and signal processing. Familiarity with programming languages such as Python or C++, and experience with medical imaging software (e.g., MATLAB, ITK, or 3D Slicer), as well as relevant certifications, are highly valuable. Strong problem-solving skills, attention to detail, and effective communication are crucial soft skills for collaborating with multidisciplinary teams and translating clinical needs into technical solutions. These competencies are essential for developing accurate, efficient imaging solutions that support diagnosis, treatment, and research in healthcare.

What is the difference between Medical Image Processing Engineer vs Medical Software Developer?

AspectMedical Image Processing EngineerMedical Software Developer
Required CredentialsBachelor's or Master's in Biomedical Engineering, Computer Science, or related fields; knowledge of image processing and medical imaging standardsBachelor's or Master's in Software Engineering, Computer Science; programming skills; understanding of medical software regulations
Work EnvironmentHospitals, research labs, medical device companies, R&D departmentsHealthcare IT firms, medical device companies, hospitals, software development firms
Employer & Industry UsageDevelops algorithms for medical images like MRI, CT; focuses on image enhancement, segmentationCreates medical applications, electronic health records, clinical software solutions

The Medical Image Processing Engineer specializes in developing algorithms and software for analyzing and enhancing medical images, often working with imaging modalities like MRI and CT. In contrast, the Medical Software Developer designs broader healthcare applications, including electronic health records and clinical management systems. Both roles require programming skills and familiarity with medical standards but focus on different aspects of medical technology.

What does a medical image processing engineer do?

A Medical Image Processing Engineer develops and implements algorithms and software for analyzing medical images such as X-rays, MRIs, CT scans, and ultrasounds. Their work helps improve image quality, automate diagnosis, and assist healthcare professionals in interpreting medical data. They collaborate with radiologists, biomedical engineers, and software developers to create tools that enhance patient care and medical research. This role requires expertise in image processing, machine learning, and knowledge of medical imaging technologies.
What job categories do people searching Medical Image Processing Engineer jobs in Texas look for? The top searched job categories for Medical Image Processing Engineer jobs in Texas are:
Infographic showing various Medical Image Processing Engineer job openings in Texas as of July 2026, with employment types broken down into 1% As Needed, 81% Full Time, 14% Part Time, and 4% Contract. Highlights an 89% Physical, 1% Hybrid, and 10% Remote job distribution.

Postdoctoral Fellow - Radiation Physics - Research

MD Anderson Cancer Center

Houston, TX • On-site

$46K - $63K/yr

Full-time

Re-posted 29 days ago


MD Anderson Cancer Center rating

8.4

Company rating: 8.4 out of 10

Based on 170 frontline employees who took The Breakroom Quiz

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Job description

A postdoctoral fellowship position is available in Dr. Jingwei Duan's laboratory within the Department of Radiation Physics, Division of Radiation Oncology, focusing on Medical Physics, Imaging Analysis, and Artificial Intelligence. We are seeking a highly motivated individual to join a collaborative team of scientists and physicians. As part of the team, the fellow will present findings at project meetings and national/international conferences and publish in top-tier peer-reviewed journals.
Our program integrates quantitative imaging, automation, and rigorous safety science to enhance care quality and outcomes. Our laboratory is engaged in several exciting projects, including:
• Designing and translating AI-driven methods for medical image registration, synthetic imaging, segmentation, and treatment planning to advance radiotherapy.
• Investigating breakthrough AI technologies (e.g., LLMs, generative AI) to evaluate their potential in reducing clinician burden and improving patient safety across radiation-oncology workflows.
• Developing automated QA/QC methodologies for the safe implementation and monitoring of AI systems in radiation therapy.
• Creating decision-support systems for online adaptive radiotherapy (oART) on MR-linacs and CT/CBCT-linacs.
Additionally, the candidate will have opportunities to contribute to other high-impact clinical projects, such as Spatially Fractionated Radiotherapy (SFRT), Stereotactic Body Radiation Therapy (SBRT), Intraoperative Radiation Therapy (IORT), and Brachytherapy. Successful candidates are also eligible to enroll in our CAMPEP-accredited didactic medical physics certificate program, which covers the essential medical physics courses for individuals to enter the medical physics residency to become a professional medical physicist in the US.
LEARNING OBJECTIVES
The successful candidate will gain experience with state-of-the-art AI methods and practical AI safety frameworks specific to radiation oncology; QA/QC tool development for AI systems; and decision-support strategies for offline/online adaptive treatment. The fellow will also gain hands-on exposure to radiation physics and radiotherapy workflows, spanning simulation, contouring, treatment planning, QA, and treatment delivery.
ELIGIBILITY REQUIREMENTS
Candidates must hold a recent Ph.D. in physics, electrical engineering, biomedical engineering, computer science, applied mathematics, or a related discipline. Strong programming skills are essential. Prior experience with programming (MATLAB, Python, C/C++) and image processing is preferred. Familiarity with machine/deep learning and high-performance computing is a plus but not required. A background in medical physics is NOT required. The candidate should demonstrate excellent written and verbal communication skills.
ADDITIONAL APPLICATION INFORMATION
The University of Texas MD Anderson Cancer Center is one of the world's premier comprehensive cancer centers-internationally recognized for research and training and nationally acclaimed for the quality of cancer care delivered across its hospitals and clinics in the Texas Medical Center. MD Anderson is ranked #1 in the nation for cancer care in U.S. News & World Report's 2025-2026 "Best Hospitals," and has been among the top two since the survey began in 1990.
The Division of Radiation Oncology and Department of Radiation Physics maintain a broad suite of advanced radiotherapy and imaging platforms that enable cutting-edge clinical innovation and data-driven research, including multiple scanners (CT, MR, PET-CT, and SPECT), simulators, and an extensive fleet of linear accelerators with resources for adaptive radiation therapy (hybrid MR-linac, Ethos CBCT-guided adaptive platforms, and CT-on-rails Linac). These capabilities provide an exceptional environment for data collection, analysis, and translational innovation in image-guided and adaptive radiotherapy.
Please submit curriculum vitae to Dr. Jingwei Duan at jduan@mdanderson.org.
For more information on our program, or medical physics as a field and profession, please refer to:
https://www.mdanderson.org/research/departments-labs-institutes/departments-divisions/radiation-physics.html
https://gsbs.uth.edu/medphys/
https://www.aapm.org
https://www.campep.org/
POSITION INFORMATION
Offsite work arrangements are subject to approval and may be modified or revoked at any time based on business needs, performance considerations, or regulatory requirements.
This position may be responsible for maintaining the security and integrity of critical infrastructure, as defined in Section 113.001(2) of the Texas Business and Commerce Code and therefore may require routine reviews and screening. The ability to satisfy and maintain all requirements necessary to ensure the continued security and integrity of such infrastructure is a condition of hire and continued employment.
It is the policy of The University of Texas MD Anderson Cancer Center to provide equal employment opportunity without regard to race, color, religion, age, national origin, sex, gender, sexual orientation, gender identity/expression, disability, protected veteran status, genetic information, or any other basis protected by institutional policy or by federal, state or local laws unless such distinction is required by law. http://www.mdanderson.org/about-us/legal-and-policy/legal-statements/eeo-affirmative-action.html

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