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Biomedical Rf Engineer Jobs in San Francisco, CA

Senior Ultrasound Engineer

San Francisco, CA · On-site

$144K - $190K/yr

PhD in the fields of electrical engineering, biomedical engineering, computer science, medical ... Experience developing ultrasound sequences and reconstructing images from raw RF signals * In-depth ...

S. in Electrical Engineering (preferred) or related discipline (e.g., Biomedical Engineering ... Experience debugging systems where issues span multiple domains (analog, digital, RF, power) and ...

Work closely with other MR physicists, an RF coil engineer, our software, mechanical, and ... A degree in Electrical or Biomedical Engineering or similar engineering discipline * Strong signal ...

Work closely with other MR physicists, an RF coil engineer, our software, mechanical, and ... A degree in Electrical or Biomedical Engineering or similar engineering discipline * Strong signal ...

Biomedical Rf Engineer information

See San Francisco, CA salary details

$43.6K

$138.6K

$215.6K

How much do biomedical rf engineer jobs pay per year?

As of Sep 4, 2026, the average yearly pay for biomedical rf engineer in San Francisco, CA is $138,648.00, according to ZipRecruiter salary data. Most workers in this role earn between $114,900.00 and $163,800.00 per year, depending on experience, location, and employer.

What is a biomedical RF engineer?

Biomedical RF Engineers are professionals who design, develop, and maintain radio frequency (RF) systems used in biomedical applications. This can include medical imaging devices like MRI machines, wireless patient monitoring systems, and other medical instruments that utilize RF technology. They work closely with medical professionals and researchers to ensure devices operate safely and effectively, comply with regulations, and meet the unique requirements of healthcare environments. Their role often involves troubleshooting, testing, and optimizing RF performance to support advancements in medical technology.

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

To thrive as a Biomedical RF Engineer, you need a solid background in electrical engineering, RF circuit design, and a thorough understanding of biomedical applications, often supported by a relevant engineering degree. Familiarity with simulation tools like HFSS, CST, and MATLAB, as well as knowledge of FDA or ISO regulatory standards, is typically required. Strong problem-solving abilities, attention to detail, and effective collaboration skills help distinguish top performers in this field. These competencies are crucial for developing safe, innovative biomedical devices that meet stringent performance and regulatory requirements.

What are common challenges faced by biomedical RF engineers when integrating wireless technologies into medical devices?

Biomedical RF Engineers often encounter challenges such as ensuring electromagnetic compatibility, meeting strict regulatory standards, and minimizing interference with other medical equipment. These professionals must carefully design and test RF systems to operate reliably within the sensitive environment of healthcare facilities. Collaboration with multidisciplinary teams—such as clinicians, regulatory specialists, and device designers—is crucial to successfully address these issues and ensure patient safety.

What is the difference between Biomedical Rf Engineer vs Biomedical Signal Processing Engineer?

AspectBiomedical Rf EngineerBiomedical Signal Processing Engineer
Required CredentialsBachelor's or Master's in Biomedical Engineering, RF Engineering certificationsBachelor's or Master's in Biomedical Engineering, Signal Processing certifications
Work EnvironmentDesigning RF components, testing medical devices, working in labs or manufacturingAnalyzing medical signals, developing algorithms, working in research or clinical settings
Employer & Industry UsageMedical device companies, hospitals, research labsMedical device companies, research institutions, healthcare providers

The main difference between a Biomedical Rf Engineer and a Biomedical Signal Processing Engineer lies in their focus areas. The Biomedical Rf Engineer specializes in RF components and systems used in medical devices, while the Biomedical Signal Processing Engineer concentrates on analyzing and developing algorithms for medical signals. Both roles require a strong background in biomedical engineering but serve different functions within the healthcare technology industry.

What are popular job titles related to Biomedical Rf Engineer jobs in San Francisco, CA?

For Biomedical Rf Engineer jobs in San Francisco, CA, the most frequently searched job titles are:

What job categories do people searching Biomedical Rf Engineer jobs in San Francisco, CA look for?

The top searched job categories for Biomedical Rf Engineer jobs in San Francisco, CA are:

What cities near San Francisco, CA are hiring for Biomedical Rf Engineer jobs?

Cities near San Francisco, CA with the most Biomedical Rf Engineer job openings:

Infographic showing various Biomedical Rf Engineer job openings in San Francisco, CA as of August 2026, with employment types broken down into 96% Full Time, and 4% Contract. Highlights an 95% In-person, and 5% Remote job distribution, with an average salary of $138,648 per year, or $66.7 per hour.

Founding Sensing Research Engineer

Socket.dev

San Francisco, CA • On-site

$120 - $190/hr

Other

Posted 8 hours ago

Posted today


Job description

We are looking for someone to own the question at the center of Subvocal: what can we physically measure from the human body that contains enough information to recover internal articulation?

The broader technical design space includes RF sensing, EMG, EEG, mmWave, and other non-invasive physiological sensing methods. For competitive and IP reasons, we are not publicly disclosing the exact architecture of our current system yet, although we share much more during the interview process.

The signals we care about are extremely subtle. They are affected by anatomy, sensor geometry, device placement, motion, interference, and changes of only a few millimeters. A sensing configuration that looks excellent on one person can fail on another, and a configuration with the highest apparent signal strength is not necessarily the one that contains the most useful information for decoding language.

You will own the sensing system from first principles through a wearable implementation. That includes deciding what measurements matter, designing the experiments that answer those questions, and working closely with ML to evaluate configurations based on actual cross-user decoding performance rather than isolated signal metrics.

Some of the problems you will work on include:

  • Designing and evaluating new sensing geometries, modalities, channels, and frequency configurations.
  • Understanding how anatomy and articulator movement affect the measured signal.
  • Improving signal-to-noise ratio while preserving the information needed to distinguish similar phonemes.
  • Building multi-channel systems and determining what genuinely independent information each channel adds.
  • Modeling and measuring the interaction between sensors, electronics, mechanical design, and the body.
  • Developing calibration and normalization methods that make measurements comparable across people, sessions, and devices.
  • Translating a laboratory sensing setup into a compact, low-power wearable.
  • Working with external RF, fabrication, simulation, and regulatory partners where useful.

You might be a great fit if you have deep expertise in RF engineering, antennas, radar, electromagnetics, biomedical sensing, applied physics, signal processing, or a related area. We are especially interested in people with a PhD or equivalent research depth who are also extremely hands-on. You should be comfortable moving between simulation, mathematical reasoning, benchtop experiments, custom hardware, and data analysis.

This is not a pure simulation or advisory role. You will spend a lot of time building things, testing them on real people, discovering that reality does not match the model, and deciding what experiment to run next. You will also help build the sensing team around you and shape the fundamental architecture of the product.

This is a full-time, in-person role in San Francisco.

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