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Remote Biomedical Engineering Jobs in Melbourne, FL

Remote Biomedical Engineering information

See Melbourne, FL salary details

$38K

$87.9K

$129.8K

How much do remote biomedical engineering jobs pay per year?

As of Aug 9, 2026, the average yearly pay for remote biomedical engineering in Melbourne, FL is $87,879.00, according to ZipRecruiter salary data. Most workers in this role earn between $69,100.00 and $107,500.00 per year, depending on experience, location, and employer.

What is the difference between Remote Biomedical Engineering vs Remote Clinical Engineering?

AspectRemote Biomedical EngineeringRemote Clinical Engineering
CredentialsBiomedical Engineering degree, certifications like CBETBiomedical Engineering or Clinical Engineering degree, certifications like CBET
Work EnvironmentDesign, research, and development remotely; some on-site for testingEquipment maintenance, troubleshooting, often remote support with some on-site visits
Employer & IndustryMedical device companies, research institutionsHospitals, healthcare facilities, medical equipment vendors
Search & Comparison IntentUnderstanding roles in medical device design and R&DSupporting and maintaining medical equipment remotely

Remote Biomedical Engineering focuses on designing and developing medical devices, often working remotely in research or development roles. In contrast, Remote Clinical Engineering involves supporting, maintaining, and troubleshooting medical equipment, typically with some on-site presence. Both roles require biomedical engineering credentials but differ in daily tasks and work environments.

What is remote biomedical engineering?

Remote biomedical engineering refers to the practice of designing, developing, and maintaining medical devices, software, and technologies from a location outside of a traditional healthcare or research facility. Professionals in this role often collaborate virtually with teams, use digital tools for diagnostics and analysis, and may provide remote support for medical equipment. This setup allows for greater flexibility and access to a wider range of expertise while still ensuring patient safety and device effectiveness.

Is there a high demand for remote biomedical engineers?

Remote biomedical engineering is experiencing increasing demand due to advancements in telehealth, medical device development, and digital health technologies. Employers seek professionals with skills in software, electronics, and regulatory compliance, making remote work opportunities more available in this field.

What are some unique challenges of working as a remote biomedical engineer, and how can they be managed?

Remote biomedical engineers often face challenges such as limited hands-on access to medical devices and equipment, which can make troubleshooting and testing more complex. To manage these challenges, many professionals rely on virtual collaboration tools, remote monitoring software, and detailed documentation to communicate with on-site teams. Regular video conferences and clear communication protocols help ensure that remote engineers remain aligned with project goals and timelines. Building strong relationships with local staff and staying proactive in seeking updates can also help overcome the distance barrier.

What are the key skills and qualifications needed to thrive as a remote biomedical engineer?

To thrive as a Remote Biomedical Engineer, a solid background in biomedical engineering principles, mathematics, and physiology, often supported by a relevant degree, is essential. Familiarity with technical tools such as CAD software, medical device regulations, telecommunication platforms, and possibly certifications like CBET are typically required. Strong problem-solving skills, effective communication, and self-motivation are crucial soft skills for collaborating virtually and managing projects independently. These abilities ensure the successful design, implementation, and support of medical devices and solutions while maintaining regulatory compliance and effective teamwork in a remote setting.

Can you work remotely as a biomedical engineer?

Remote biomedical engineering jobs are available, especially in roles involving software development, data analysis, or remote diagnostics. However, many positions require on-site work for equipment installation, maintenance, or clinical collaboration. The availability of remote work depends on the specific employer and job responsibilities.
What are the most commonly searched types of Biomedical Engineering jobs in Melbourne, FL? The most popular types of Biomedical Engineering jobs in Melbourne, FL are:
What are popular job titles related to Remote Biomedical Engineering jobs in Melbourne, FL? For Remote Biomedical Engineering jobs in Melbourne, FL, the most frequently searched job titles are:
What cities near Melbourne, FL are hiring for Remote Biomedical Engineering jobs? Cities near Melbourne, FL with the most Remote Biomedical Engineering job openings:
Infographic showing various Remote Biomedical Engineering job openings in Melbourne, FL as of August 2026, with employment types broken down into 88% Full Time, 7% Part Time, 4% Contract, and 1% Nights. Highlights an 89% Physical, 3% Hybrid, and 8% Remote job distribution, with an average salary of $87,879 per year, or $42.2 per hour.

$95K/yr

Full-time

Medical, Dental, Vision, Life, Retirement, PTO

Posted 6 days ago


Job description

Johnson & Johnson Innovative Medicine is seeking a Translational Post Doctoral Researcher – Agentic AI for Neurodegeneration for a 2‐year fixed‐term position. This position can be located in either Raritan, New Jersey; Titusville, New Jersey; Spring House, Pennsylvania; San Diego, California or Cambridge, Massachusetts (no fully remote option). Location: Cambridge, Massachusetts; Raritan, New Jersey; Titusville, New Jersey; Spring House, Pennsylvania; San Diego, California. Role Overview The role will be embedded in the Machine Intelligence (MI) team at J&J Innovative Medicine, working in partnership with the c-brAIn academic network. The researcher will engage with multi‐modal neuroscience data—understanding each modality, building evaluation frameworks, and partnering with translational and experimental teams at Washington University in St. Louis and other partner institutions. Mentorship is designed to develop leaders at the intersection of Multi‐Modal Data, AI Evaluation, and Neurodegeneration. Key Responsibilities Multi‐Modal Data Integration: Characterize and integrate biomedical data modalities—including digital pathology, neuroimaging, omics, and longitudinal clinical data—to develop specialized, domain‐specific models for neurodegeneration. Multi‐Modal Data Integration: Build and refine data engineering pipelines that harmonize heterogeneous modalities—reconciling differences in spatial resolution, temporal scale, and dimensionality—into unified analytical frameworks. Multi‐Modal Data Integration: Identify where cross‐modal integration produces genuine insight versus where it introduces noise or artifact, establishing ground truth for downstream AI evaluation. Agentic AI Evaluation: Critically assess AI‐driven literature synthesis and automated "third reviewer" capabilities for detecting methodological weaknesses, logical gaps, and unsupported claims across data modalities. Agentic AI Evaluation: Establish standards for how agentic systems incorporate overlooked or contradictory evidence such as negative findings or failed clinical trials and evaluate whether these integrations generate genuinely novel hypotheses. Agentic AI Evaluation: Design evaluation frameworks for agentic AI systems operating across neuroscience data modalities—assessing whether models can reason credibly across imaging, omics, and clinical evidence. Agentic AI Evaluation: Develop benchmarks using synthetic and real‐world multi‐modal datasets that probe AI co‐scientist capabilities under realistic research conditions, testing for robustness, reproducibility, and alignment with expert‐level biomedical reasoning. Research & Communication: Serve as a neurodegeneration domain expert within the AI/ML team, ensuring that model outputs remain anchored to clinically relevant disease questions. Research & Communication: Translate evaluation findings into actionable guidance for AI system development, bridging computational and experimental perspectives. Research & Communication: Publish evaluation methodologies and findings in leading journals and conferences (e.g., AD/PD, AAIC, NeurIPS). Research & Communication: Articulate emerging AI/ML approaches—causal reasoning, intent classification, agentic planning—to diverse audiences with clear framing of practical applications in drug discovery. Research & Communication: Co‐author manuscripts, concept papers, and translational strategy documents. Required Qualifications Ph.D. (or M.D./Ph.D.) in neuroscience, neurobiology, computational neuroscience, biomedical informatics, or a closely related field (degree completed within the last three years or to be completed within the next six months). Deep knowledge of neurodegenerative disease biology (Alzheimer's, Parkinson's, etc.) including disease mechanisms, experimental models, and translational challenges. Hands‐on experience working with at least two of the following data modalities in a research context: neuroimaging (PET, MRI), digital pathology, omics, longitudinal clinical data. Familiarity with large language model architectures and agentic AI frameworks (e.g., LangGraph, DSPy, or equivalent orchestration tools). Proficiency in Python and common machine‐learning/data‐engineering frameworks. Excellent scientific communication skills and comfort working across computational, translational, and experimental teams. Self‐directed, with the ability to work both independently and within a diverse, multi‐disciplinary team. Preferred Qualifications Experience building data pipelines that integrate heterogeneous biomedical data types. Familiarity with evaluation or benchmarking methodologies for AI/ML systems. Experience with natural language processing techniques: named entity recognition, natural language inference, knowledge graph construction. Knowledge of graph data structures, graph analytics, and graph platforms (Neo4j, Neptune). Familiarity with cloud infrastructure (AWS and/or Azure) for scalable pipelines. Compensation and Benefits Base pay range: $79,000 – $127,650 for positions in the United States. Eligible for an annual performance bonus in accordance with the applicable plan. Health, dental, vision, life insurance, short‐ and long‐term disability, and business accident insurance. Group legal insurance and consolidated retirement plan (401(k)). Time‐off benefits: up to 120 hours of vacation per calendar year, up to 40 hours of sick time, up to 13 days of holiday pay (including floating holidays), up to 40 hours of work, personal and family time per calendar year. Equal Opportunity Employer Johnson & Johnson is an Equal Opportunity Employer. All qualified applicants will receive consideration for employment without regard to race, color, religion, sex, sexual orientation, gender identity, age, national origin, disability, protected veteran status or other characteristics protected by federal, state or local law. Johnson & Johnson is committed to providing an interview process that is inclusive of our applicants' needs. If you are an individual with a disability and would like to request an accommodation, external applicants may contact us via the company's contact page and internal employees contact the accommodation resource. #J-18808-Ljbffr