Job description

Additional Location(s): N/A Diversity - Innovation - Caring - Global Collaboration - Winning Spirit - High Performance At Boston Scientific, we’ll give you the opportunity to harness all that’s within you by working in teams of diverse and high-performing employees, tackling some of the most important health industry challenges. With access to the latest tools, information and training, we’ll help you in advancing your skills and career. Here, you’ll be supported in progressing – whatever your ambitions. About the role Boston Scientific is seeking a highly motivated, experienced Senior Mechanical R&D Engineer to help develop a novel Joule-Thomson (JT) cryoablation platform within the Interventional Oncology and Embolization (IO&E) division. This role provides technical leadership and hands-on engineering support across the mechanical, thermal-fluid, cryogenic, and device elements of a complex medical device system. The successful candidate will apply first-principles engineering to understand and optimize the relationships among gas-supply conditions, fluid-path architecture, pressure drop and expansion, thermodynamic state, mass flow, available refrigeration, device heat transfer, tissue heat extraction, and ablation performance. The role requires an engineer who can move fluidly among analytical modeling, benchtop experimentation, mechanical design, system-level problem-solving, and design-control documentation. This platform-development role involves significant technical ambiguity. Success requires identifying governing physics, developing testable hypotheses, designing efficient experiments, correlating models with physical data, and translating technical insights into robust product requirements, system architecture, risk controls, and design decisions. Responsibilities: • Lead mechanical and thermal-fluid engineering for the development and commercialization of a novel JT cryoablation platform, including capital equipment, gas-delivery and pressure-control subsystems, disposable devices, and patient-contacting components. • Design and optimize fluid-path architectures—including regulators, valves, tubing, fittings, manifolds, restrictions, capillaries or orifices, treatment regions, and exhaust or return paths—while balancing pressure, flow, cooling capacity, size, manufacturability, reliability, and safety. • Partner with systems, electrical, software, clinical, quality, manufacturing, sustaining, supply-chain, and supplier teams to manage the integrated cryoablation platform, including the console, gas source, controls, sensors, disposable device, patient interface, and tissue interaction. • Define instrumentation and experimental methods for accurate pressure, temperature, and flow measurement, including sensor selection and placement, dynamic response, calibration, uncertainty, sampling, and measurement-system effects. • Apply design-of-experiments and parameter-sensitivity methods to characterize efficiently the relationships among inlet conditions, restrictions, flow, geometry, cooling capacity, device temperature, and ablation performance. • Support design for manufacturability, assembly, serviceability, and reliability, as well as manufacturing transfer, supplier development, and sustained production. • Lead structured root-cause investigations into insufficient or inconsistent cooling, unstable flow, excessive pressure drop, blockages, leaks, icing, material or seal failures, and variable ablation performance. • Translate technical uncertainty and platform insights into system and subsystem requirements, risk analyses, design controls, verification strategies, and traceable engineering evidence. • Design mechanical components and assemblies for high-pressure and cryogenic service, accounting for stored energy; proof and burst margins; relief strategies; sealing; temperature-dependent material behavior; differential thermal expansion; embrittlement; condensation and icing; and thermal cycling. • For catheter-based architectures, support the design of shafts, lumens, reinforced structures, joints, distal assemblies, and interfaces to meet dimensional, mechanical, fluidic, and thermal performance requirements. Required qualifications: • Bachelor’s degree in mechanical engineering or a related technical discipline. • At least 5 years of engineering experience with a bachelor’s degree, 3 years with a master’s degree, or 2 years with a doctoral degree. • Experience developing complex medical devices, electromechanical systems, thermal-fluid systems, pressure systems, or other highly regulated products. • Experience developing analytical engineering models and using experimental data to validate, refine, or challenge their assumptions. • Strong experimental problem-solving skills, including hypothesis development, test-method design, instrumentation, data analysis, and root-cause investigation. • Strong mechanical design fundamentals, including materials selection, tolerance analysis, assembly design, and design for manufacturability and reliability. • Proficiency with SolidWorks or equivalent CAD software. • Ability to navigate technical ambiguity, identify high-impact parameters, communicate technical rationale clearly, and drive data-based decisions across cross-functional teams. • Strong analytical, communication, and technical leadership skills. Preferred qualifications: • Advanced degree in mechanical, aerospace, biomedical, or chemical engineering, or a related discipline, with an emphasis on thermodynamics, fluid mechanics, heat transfer, or cryogenic systems. • Hands-on experience with Joule-Thomson refrigeration, cryogenic systems, real-gas thermodynamics, refrigeration cycles, or high-pressure gas systems. • Experience with compressible or two-phase flow, throttling devices, capillaries or orifices, valves, regulators, or fluid-control architectures. • Experience with cryogenic materials, seals, polymers, adhesives, coatings, insulation, condensation/icing mitigation, and repeated thermal cycling. • Experience with thermal-fluid simulation, computational fluid dynamics (CFD), and finite element analysis (FEA). • Experience with precision pressure, temperature, and flow instrumentation, measurement uncertainty, sensor dynamics, and calibration. • Experience with catheter-based medical devices, including shafts, lumens, braid/coil reinforcement, torqueability, pushability, kink resistance, joints, and distal assemblies. • Experience designing high-pressure systems with appropriate safety margins, pressure-relief provisions, proof and burst testing, and failure-mode considerations. • Experience applying statistical methods and design of experiments to complex, multivariable development problems. • Experience working within design controls and quality management systems that comply with FDA regulations and ISO 13485. • Demonstrated proficiency with SolidWorks and EPDM. • Demonstrated proficiency in geometric dimensioning and tolerancing (GD&T). Requisition ID: 634407 Minimum Salary: $ 85000 Maximum Salary: $ 161500 The anticipated compensation listed above and the value of core and optional employee benefits offered by Boston Scientific (BSC) – see www.bscbenefitsconnect.com— will vary based on actual location of the position and other pertinent factors considered in determining actual compensation for the role. Compensation will be commensurate with demonstrable level of experience and training, pertinent education including licensure and certifications, among other relevant business or organizational needs. At BSC, it is not typical for an individual to be hired near the bottom or top of the anticipated salary range listed above. Compensation for non-exempt (hourly), non-sales roles may also include variable compensation from time to time (e.g., any overtime and shift differential) and annual bonus target (subject to plan eligibility and other requirements). Compensation for exempt, non-sales roles may also include variable compensation, i.e., annual bonus target and long-term incentives (subject to plan eligibility and other requirements). For MA positions : It is unlawful to require or administer a lie detector test for employment. Violators are subject to criminal penalties and civil liability. Boston Scientific transforms lives through innovative medical technologies that improve the health of patients around the world. As a global medical technology leader for more than 45 years, we advance science for life by providing a broad range of high-performance solutions that address unmet patient needs and reduce the cost of healthcare. Our portfolio of devices and therapies helps physicians diagnose and treat complex cardiovascular, respiratory, digestive, oncological, neurological and urological diseases and conditions. Learn more at  www.bostonscientific.com  and follow us on  LinkedIn . Boston Scientific Corporation has been and will continue to be an equal opportunity employer. To ensure full implementation of its equal employment policy, the Company will continue to take steps to assure that recruitment, hiring, assignment, promotion, compensation, and all other personnel decisions are made and administered without regard to race, religion, color, national origin, citizenship, sex, sexual orientation, gender identity, gender expression, veteran status, age, mental or physical disability, genetic information or any other protected class. Please be advised that certain US based positions, including without limitation field sales and service positions that call on hospitals and/or health care centers, require acceptable proof of COVID-19 vaccination status. Candidates will be notified during the interview and selection process if the role(s) for which they have applied require proof of vaccination as a condition of employment. Boston Scientific continues to evaluate its policies and protocols regarding the COVID-19 vaccine and will comply with all applicable state and federal law and healthcare credentialing requirements. As employees of the Company, you will be expected to meet the ongoing requirements for your roles, including any new requirements, should the Company’s policies or protocols change with regard to COVID-19 vaccination. Among other requirements, Boston Scientific maintains specific prohibited substance test requirements for safety-sensitive positions. This role is deemed safety-sensitive and, as such, candidates will be subject to a prohibited substance test as a requirement. The goal of the prohibited substance testing is to increase workplace safety in compliance with the applicable law.

Requirements

Must-haves

Additional Location(s): N/A
Diversity - Innovation - Caring - Global Collaboration - Winning Spirit - High Performance
Support design for manufacturability, assembly, serviceability, and reliability, as well as manufacturing transfer, supplier development, and sustained production.
Lead structured root-cause investigations into insufficient or inconsistent cooling, unstable flow, excessive pressure drop, blockages, leaks, icing, material or seal failures, and variable ablation performance.
Translate technical uncertainty and platform insights into system and subsystem requirements, risk analyses, design controls, verification strategies, and traceable engineering evidence.
For catheter-based architectures, support the design of shafts, lumens, reinforced structures, joints, distal assemblies, and interfaces to meet dimensional, mechanical, fluidic, and thermal performance requirements.
Bachelor’s degree in mechanical engineering or a related technical discipline.
At least 5 years of engineering experience with a bachelor’s degree, 3 years with a master’s degree, or 2 years with a doctoral degree.
Experience developing complex medical devices, electromechanical systems, thermal-fluid systems, pressure systems, or other highly regulated products.
Experience developing analytical engineering models and using experimental data to validate, refine, or challenge their assumptions.
Strong experimental problem-solving skills, including hypothesis development, test-method design, instrumentation, data analysis, and root-cause investigation.
Strong mechanical design fundamentals, including materials selection, tolerance analysis, assembly design, and design for manufacturability and reliability.

Nice-to-haves

Advanced degree in mechanical, aerospace, biomedical, or chemical engineering, or a related discipline, with an emphasis on thermodynamics, fluid mechanics, heat transfer, or cryogenic systems.
Hands-on experience with Joule-Thomson refrigeration, cryogenic systems, real-gas thermodynamics, refrigeration cycles, or high-pressure gas systems.
Experience with compressible or two-phase flow, throttling devices, capillaries or orifices, valves, regulators, or fluid-control architectures.
Experience with cryogenic materials, seals, polymers, adhesives, coatings, insulation, condensation/icing mitigation, and repeated thermal cycling.
Experience with thermal-fluid simulation, computational fluid dynamics (CFD), and finite element analysis (FEA).
Experience with precision pressure, temperature, and flow instrumentation, measurement uncertainty, sensor dynamics, and calibration.
Experience with catheter-based medical devices, including shafts, lumens, braid/coil reinforcement, torqueability, pushability, kink resistance, joints, and distal assemblies.
Experience designing high-pressure systems with appropriate safety margins, pressure-relief provisions, proof and burst testing, and failure-mode considerations.
Experience applying statistical methods and design of experiments to complex, multivariable development problems.
Experience working within design controls and quality management systems that comply with FDA regulations and ISO 13485.
Demonstrated proficiency with SolidWorks and EPDM.
Demonstrated proficiency in geometric dimensioning and tolerancing (GD&T).

Application prep

Use the role’s language and application details while tailoring your materials.

Platform: career-feeds
Effort: medium

Benefits

Benefits detected in the listing.

Vision