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3D Rendering Medical Imaging Jobs in Tennessee (NOW HIRING)

Enjoy access to state-of-the-art technology, such as 3D cone beam imaging and an innovative on-site ... Full medical, dental, and supplemental insurance * 401k w a company match * 24 Days of paid time ...

... imaging services. The hospital also has a robust array of outpatient options, including 3D ... Note to International Medical Graduates (IMGs): Please be advised that while the State of Tennessee ...

Radiation Oncologist

Greeneville, TN · On-site

$177/hr

... imaging options. Additionally, the hospital provides a variety of outpatient services, such as 3D ... Important Note for International Medical Graduates (IMGs): Please be aware that recent legislation ...

Radiation Oncologist

Afton, TN

$175.75/hr

Greeneville Community Hospital Greeneville Community Hospital provides a full range of medical ... imaging services. The hospital also has a robust array of outpatient options, including 3D ...

Showing results 41-60

3D Rendering Medical Imaging information

What is 3D rendering in medical imaging?

3D rendering in medical imaging is the process of creating three-dimensional visual representations of structures inside the body, using data collected from imaging techniques such as CT scans or MRIs. This technique allows healthcare professionals to view anatomical features from different angles and to better understand complex structures, which can improve diagnosis, treatment planning, and patient communication. 3D rendering can also be used in surgical planning, education, and research, making it a valuable tool in modern medicine.

What are some common challenges faced when working with 3D rendering in medical imaging, and how can they be addressed?

Professionals in 3D rendering for medical imaging often encounter challenges such as processing large, complex datasets and ensuring accurate representation of anatomical structures. These challenges can be addressed by staying updated with the latest software advancements, collaborating closely with radiologists for clinical validation, and maintaining strong attention to detail. Additionally, effective communication with multidisciplinary teams is crucial to ensure that rendered images meet diagnostic and educational needs. Regular training and participation in workshops can also help in mastering new tools and techniques.

What are the key skills and qualifications needed to thrive as a 3d rendering medical imaging specialist, and why are they important?

To thrive as a 3D Rendering Medical Imaging Specialist, you need expertise in medical imaging modalities (such as CT, MRI), anatomy, and image post-processing, typically supported by a degree in radiology, biomedical engineering, or a related field. Familiarity with advanced visualization software (like OsiriX, 3D Slicer, or Mimics), DICOM standards, and possibly certifications in radiologic technology are crucial. Strong attention to detail, problem-solving abilities, and effective communication with healthcare teams set top performers apart. These skills ensure accurate, high-quality visualizations that aid clinical decision-making and improve patient outcomes.

What is the difference between 3D Rendering Medical Imaging vs Medical Illustrator?

Aspect3D Rendering Medical ImagingMedical Illustrator
CredentialsOften requires degrees in radiology, medical imaging, or related fields; certifications in imaging softwareTypically holds degrees in medical illustration, art, or related fields; certifications in graphic design or illustration
Work EnvironmentHospitals, imaging centers, medical device companiesMedical publishing, educational institutions, healthcare marketing
Industry UsageUsed for diagnostic visualization, surgical planning, and medical device developmentUsed for educational materials, patient information, and medical publications

While both roles involve visual representation of medical concepts, 3D Rendering Medical Imaging focuses on creating detailed, accurate 3D visualizations from medical scans for diagnostic and planning purposes. Medical Illustrators produce educational and promotional visuals, often combining artistic skills with medical knowledge. The key difference lies in their primary application and technical focus.

How to become a 3D rendering medical imaging specialist?

To become a 3D rendering medical imaging specialist, individuals typically need a bachelor's degree in medical imaging, radiologic technology, computer graphics, or a related field. Developing skills in 3D modeling software, medical imaging technologies, and understanding anatomy are essential, along with gaining experience through internships or certifications such as those in medical imaging or 3D visualization. Continuous learning about new imaging tools and software updates is important for career advancement.

What are popular job titles related to 3D Rendering Medical Imaging jobs in Tennessee?

For 3D Rendering Medical Imaging jobs in Tennessee, the most frequently searched job titles are:

What job categories do people searching 3D Rendering Medical Imaging jobs in Tennessee look for?

The top searched job categories for 3D Rendering Medical Imaging jobs in Tennessee are:

What cities in Tennessee are hiring for 3D Rendering Medical Imaging jobs?

Cities in Tennessee with the most 3D Rendering Medical Imaging job openings:

Infographic showing various 3D Rendering Medical Imaging job openings in Tennessee as of August 2026, with employment types broken down into 80% Full Time, 13% Part Time, and 7% Contract. Highlights an 93% In-person, and 7% Remote job distribution.

Faculty Position, Department of Radiology - Pediatric Body Radiology

St. Jude Children's Research Hospital

Memphis, TN • On-site

$310K - $388K/yr

Full-time

Re-posted 14 days ago


St. Jude Children's Research Hospital rating

8.6

Company rating: 8.6 out of 10

Based on 12 frontline employees who took The Breakroom Quiz

43rd of 1,060 rated hospitals


Job description

SJCRH
Position Overview:
St. Jude Children's Research Hospital invites applications for a full-time faculty position in the Department of Radiology for an ABR-certified or eligible radiologist with subspecialty training in Pediatric, Body, Chest, Abdominal, or Oncologic Radiology. The ideal candidate will be a clinician scientist whose career goals include both outstanding clinical service and innovative data science research that advances the field of pediatric oncologic and catastrophic disease imaging. Academic rank will be commensurate with experience and qualifications.
Our Mission and Vision:
The mission of St. Jude Radiology is to advance cures and understanding of pediatric cancer and catastrophic diseases through excellence in radiology research, innovation, clinical practice, education, and administration. Our vision is to lead the world in radiology for pediatric cancer and catastrophic diseases.
Department Overview:
The department is composed of seven sections: Body Radiology, Neuroradiology, Interventional Radiology, Nuclear Medicine, Intelligent Imaging Informatics (I3), Research, and Physics. The Body Radiology section focuses primarily on pediatric cancer imaging and also serves patients with hematologic, infectious, and rare neurologic diseases. Many of our patients are on clinical trials, providing rich opportunities for collaboration and for developing and validating imaging biomarkers and endpoints.
Clinician Scientists:
Clinician scientists at St. Jude are provided with exceptional support to build and sustain productive academic careers. Faculty on this track receive dedicated research time, typically 50% of their effort, along with full-time research staff (one, two, or three dedicated and permanent staff members for assistant, associate, and full members, respectively). Each clinician scientist is provided with a recurring research cost center (budget) that is renewed annually in perpetuity. In addition, faculty may receive a startup package (e.g., equipment or laboratory purchases) to launch their research lab. These resources are complemented by robust institutional support, including access to biostatistics, image processing, data science, software engineering, and grant-writing expertise. Clinician scientists are expected to obtain extramural funding, and our infrastructure is specifically designed to foster success in this area through mentorship, collaboration, and technical and administrative assistance.
Clinical:
Clinical responsibilities are manageable and designed to complement academic pursuits. The Body Radiology reading room is staffed by two radiologists on weekdays, with light call on evenings and weekends, taken from home and consisting mainly of peer review of teleradiology cases. There is no trauma or emergency room coverage and no intussusception reductions. The section supports a 3D and virtual reality (VR) imaging lab, a tumor metrics (response evaluation) lab, and receives assistance from three physicists who provide expertise across all imaging modalities. Body Radiologists interpret MRI, CT, ultrasound, DEXA, and radiographs, with optional opportunities to participate in cardiac MRI and nuclear imaging. We employ the latest imaging technologies, including four state-of-the-art MRI systems (a fifth planned for 2026) and a photon-counting CT scanner coming online in early 2026. For those with an interest in nuclear medicine, we have a dedicated cyclotron and an extended field-of-view PET/CT scanner, the first installed in a dedicated pediatric hospital in North America.
Artificial Intelligence:
The department is deeply engaged in advancing artificial intelligence (AI) and quantitative imaging to improve both patient care and research. Some clinician scientists are also members of Intelligent Imaging Informatics (I3), an expanding section that harnesses the power of imaging informatics and AI to accelerate research, clinical care, and translational efforts in pediatric radiology, advancing the St. Jude Mission. The Image Quantification and Artificial Intelligence (IQAI) Co-Laboratory is a dedicated research and development team for biomedical informatics and AI. This interdisciplinary team serves the Department of Radiology by building and maintaining the advanced data infrastructure that fuels faculty-led research, performing collaborative projects with clinicians and scientists and conducting core biomedical informatics research. The IQAI team recently developed a Radiology Data Center (RDC) for data science that supports de-identified radiologic and pathology data, electronic medical records, and other institutional datasets.
Research:
Research is at the core of the St. Jude mission, and the Department of Radiology offers an extraordinary ecosystem for investigator-initiated science. Faculty benefit from access to IQAI and the Radiology Data Center for data science and quantitative imaging research, as well as support from dedicated staff for grant writing, IRB management, clinical research coordinators, image processing, and biostatistics. Faculty are encouraged to pursue both independent and collaborative projects that leverage the department's integration with research programs in MRI and multimodal imaging, Molecular Imaging, Oncology, Surgery, Pathology, Data Science, Imaging Sciences, and St. Jude Global. Opportunities exist to develop novel imaging biomarkers and AI tools that impact patient care, clinical trials, population science, and research. In addition to internal institutional funding opportunities, faculty are supported through mentorship and infrastructure aimed at securing extramural grants from agencies such as the NIH, foundations, and industry partners. This environment provides a powerful foundation for faculty to pursue transformative imaging research that directly impacts patient care, clinical trials, and global pediatric initiatives.
Education:
Education is an important component of our mission. Faculty have the opportunity to teach and mentor radiology fellows, radiology residents, medical students, graduate students, and postdoctoral fellows. St. Jude supports professional development by providing travel funds for faculty presentations at national and international conferences. The department hosts an annual international educational conference and a separate scientific symposium. In February 2026, St. Jude will co-host a Pediatric Oncologic Imaging Course with the Society for Pediatric Radiology (SPR). Faculty actively participate in institutional and national educational initiatives.
Compensation and Environment:
St. Jude is an Equal Opportunity Employer. St. Jude does not discriminate on the basis of race, national origin, sex, genetic information, age, religion, disability, sexual orientation, gender identity, transgender status, veteran's status or disabled veteran's status with respect to employment opportunities. All qualified applicants will be considered for employment. We value different perspectives and intellectual discourse. We are committed to building an intellectually diverse community.
Requirements:
Candidates must have an MD, DO or equivalent degree, be board certified or eligible by the American Board of Radiology and have experience in pediatric radiology or oncologic imaging. Applicants must qualify for medical licensure in the State of Tennessee.
To Apply:
Please submit a CV directly online at https://talent.stjude.org/careers:
For more information:
Andrew Smith, MD PhD
Chair of the Department Radiology and Body Radiologist
Endowed Chair of Diagnostic Imaging
St. Jude Children's Research Hospital
andrew.smith@stjude.org
St. Jude is an Equal Opportunity Employer
No Search Firms
St. Jude Children's Research Hospital does not accept unsolicited assistance from search firms for employment opportunities. Please do not call or email. All resumes submitted by search firms to any employee or other representative at St. Jude via email, the internet or in any form and/or method without a valid written search agreement in place and approved by HR will result in no fee being paid in the event the candidate is hired by St. Jude.

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