Microsoft’s Quantum Systems organization is a multidisciplinary organization advancing cutting-edge quantum technologies to address some of the world’s most complex challenges. We are seeking a Quantum Systems Mechanical and Cryogenics EngineeringManager to lead the development and testing efforts of a diverse, multi-disciplinary team spanning internal and external partners. This role is responsible for driving robust engineering practices across design, validation, and data analysis while fostering a culture of technical excellence, collaboration, and continuous improvement. The ideal candidate combines strong technical leadership with a passion for mentoring and empowering others, managing experts in Mechanical Engineering, Cryogenic Engineering (including cryofridge system design), and Physics. This is a unique opportunity to shape the future of quantum systems in a dynamic, mission-driven environment.
At Microsoft Quantum, we aim to empower science and scientists to solve the world’s biggest problems by realizing advanced computing platforms at the intersection of high-performance computing, artificial intelligence, and quantum information technology. Microsoft Quantum will change the world of computing and help solve some of humankind’s currently unsolvable problems. For more information about our team, visit https://www.microsoft.com/en-us/quantum.
Microsoft’s mission is to empower every person and every organization on the planet to achieve more. As employees we come together with a growth mindset, innovate to empower others, and collaborate to realize our shared goals. Each day we build on our values of respect, integrity, and accountability to create a culture of inclusion where everyone can thrive at work and beyond.
Responsibilities
- Lead and develop a multidisciplinary engineering organization spanning Mechanical Engineering, Cryogenic Engineering (including cryofridge system design), and Physics, including both internal and external contributors; foster a culture of accountability, technical excellence, and professional growth.
- Own the lifecycle, upgrades, reliability, and maintenance strategy for cryogenic refrigerator systems across global sites, ensuring high system availability, continuous performance improvement, and consistent operational standards worldwide.
- Establish and scale engineering infrastructure and toolchains, including mechanical/model shop facilities and standardized workflows for mechanical CAD, thermal and structural simulation, and product data management (PDM), enabling efficient and repeatable hardware development.
- Own mechanical engineering standards and governance, driving rigorous design reviews, configuration control, reliability engineering, and design-for-manufacturing practices across parts and assemblies.
- Drive robust mechanical architecture, modeling, and simulation in close collaboration with system partners across architecture, theory, experimental systems, instrumentation, readout, and control.
- Provide technical leadership, cross-team alignment, and strategic input by innovating test and validation methodologies, objectively resolving technical conflicts, communicating effectively across global teams, and contributing to program-level planning and execution.
Other:
Qualifications
Required Qualifications
- Bachelor's Degree in Mechanical Engineering, Cryogenics, Physics, or related field AND 8+ years industry experience in engineering, product/technical program management, or product development
- OR Master's Degree in Mechanical Engineering, Cryogenics, Physics, or related field AND 6+ years industry experience in engineering, product/technical program management, or product development
- OR Doctorate Mechanical Engineering, Cryogenics, Physics, or related field AND 3+ years industry experience in engineering, product/technical program management, or product development
- OR equivalent experience.
Other Qualifications
- Ability to meet Microsoft, customer and/or government security screening requirements are required for this role. These requirements include, but are not limited to the following specialized security screenings:
- Microsoft Cloud Background Check: This position will be required to pass the Microsoft Cloud Background Check upon hire/transfer and every two years thereafter.
- Citizenship & Citizenship Verification: This role will require access to information that is controlled for export under export control regulations, potentially under the U.S. International Traffic in Arms Regulations (ITAR) or Export Administration Regulations (EAR), the EU Dual Use Regulation, and/or other export control regulations. As a condition of employment, the successful candidate will be required to provide either proof of their country of citizenship or proof of their U.S. permanent residency or other protected status (e.g., under 8 U.S.C. § 1324b(a)(3)) for assessment of eligibility to access the export-controlled information. To meet this legal requirement, and as a condition of employment, the successful candidate’s citizenship will be verified with a valid passport. Lawful permanent residents, refugees, and asylees may verify status using other documents, where applicable.
- Ability to leverage AI tools to drive innovation and efficiency (e.g., performance modeling and analysis, research gathering, day to day task automation).
- Ability to work in an “AI-first” environment using modern AI tools to accelerate discovery through hardware development.
Preferred Qualifications
- 3+ years demonstrated technical leadership in complex hardware systems, including mechanical and/or cryogenic systems, experimental platforms, or precision instrumentation.
- 3+ year experience leading end-to-end engineering development cycles, including requirements definition, design reviews, prototyping, validation, and data-driven iteration.
- 5+ years people management experience, including hiring, performance management, mentoring, and building high-performing multidisciplinary teams.
- 5+ years experience with cryogenic systems and/or cryogenic refrigeration platforms, including integration, performance optimization, reliability, upgrades, or lifecycle management.
- 5+ years experience leading mechanical design in extreme environments, such as cryogenic, vacuum, vibration-sensitive, or high-precision systems.
- 3+ years experience with thermal and structural simulation tools, mechanical CAD, and product data management (PDM) systems.
- 5+ years experience driving design-for-manufacturing, reliability engineering, and scalable hardware deployment.
- 3+ years experience managing distributed teams and/or supporting multi-site laboratory or production operations.
- Familiarity with quantum systems, advanced research platforms, or highly complex experimental environments.
- 7+ years people management experience.
- Proven ability to lead experimental design, instrumentation, and analysis for thermal
#Quantum #QuantumCareers #MDQCareers
Quantum Engineering M5 - The typical base pay range for this role across the U.S. is USD $139,900 - $274,800 per year. There is a different range applicable to specific work locations, within the San Francisco Bay area and New York City metropolitan area, and the base pay range for this role in those locations is USD $188,000 - $304,200 per year.
Certain roles may be eligible for benefits and other compensation. Find additional benefits and pay information here:
https://careers.microsoft.com/us/en/us-corporate-pay
This position will be open for a minimum of 5 days, with applications accepted on an ongoing basis until the position is filled.
Microsoft is an equal opportunity employer. All qualified applicants will receive consideration for employment without regard to age, ancestry, citizenship, color, family or medical care leave, gender identity or expression, genetic information, immigration status, marital status, medical condition, national origin, physical or mental disability, political affiliation, protected veteran or military status, race, ethnicity, religion, sex (including pregnancy), sexual orientation, or any other characteristic protected by applicable local laws, regulations and ordinances. If you need assistance with religious accommodations and/or a reasonable accommodation due to a disability during the application process, read more about requesting accommodations.
TECHNICAL & MARKET ANALYSIS | Appended by Quantum.Jobs
The transition of quantum computing from laboratory-scale experiments to utility-grade platforms necessitates a structural shift toward industrial-grade hardware engineering and systems integration. As the industry moves toward fault-tolerant architectures, the role of a Systems Mechanical and Cryogenics Engineering Manager serves as a critical bridge between theoretical physics and robust physical infrastructure. This role type is instrumental in overcoming the thermal and mechanical bottlenecks that currently limit qubit coherence and system scalability. By institutionalizing rigorous design and validation protocols, this function ensures that the underlying physical environment can support the increasing complexity of multi-qubit processors. Market signals indicate that the ability to harmonize cryogenic environments with complex mechanical interfaces is a primary determinant for achieving the next stage of hardware maturity. Current industry focus lies on bridging classical and quantum capabilities at scale by ensuring the reliability of the enabling physical infrastructure.
The global quantum hardware ecosystem is currently navigating a significant transition from Technology Readiness Level (TRL) 3-4 to TRL 6-7, where the primary constraints shift from basic research to systems engineering and manufacturability. Within this landscape, the mechanical and cryogenic support systems represent the foundational layer of the quantum stack. The scalability of superconducting and topological modalities is fundamentally tethered to the advancement of cryogenic cooling capacity and the mitigation of mechanical vibrations. As qubit counts increase, the thermal load on dilution refrigerators and the density of input/output wiring create unprecedented integration challenges that require specialized technical leadership.
Macro-level analysis of the quantum workforce highlights a persistent "engineering gap," where there is a high demand for experts who can translate high-level system requirements into stable, manufacturable hardware. This role type addresses this scarcity by providing the architectural oversight necessary to coordinate diverse technical streams. Organizations are increasingly adopting a "systems-first" approach to mitigate the risks associated with vendor fragmentation and supply chain dependencies in the specialized cryogenic market. This strategic emphasis is essential for maintaining the operational uptime required for the emerging hybrid classical-quantum cloud infrastructure.
Furthermore, the integration of quantum systems into high-performance computing (HPC) environments demands a new tier of mechanical standardization. This trend favors the development of modular hardware interfaces that can facilitate the rapid swap-out of components while maintaining strict environmental controls. As the industry matures, the focus is pivoting toward establishing benchmarks for cryo-mechanical performance that ensure long-term stability and reduce the total cost of ownership for commercial-grade quantum datacenters.
The capability architecture for this role type centers on the synthesis of ultra-low temperature thermodynamics and high-precision mechanical design. At the foundational layer, mastery of cryogenic cycle optimization and vibration isolation is essential for ensuring the noiseless environments required for high-fidelity qubit operations. This technical proficiency is coupled with a deep understanding of materials science, specifically regarding the thermal contraction and electromagnetic properties of components at millikelvin temperatures. These capabilities are critical for the structural throughput of hardware development, as they directly influence the stability and reproducibility of experimental results across the R&D lifecycle.
Beyond purely technical execution, the role facilitates a high-level coupling between physical research and scalable engineering blueprints. This interface ensures that breakthroughs in qubit control are supported by a physical architecture capable of handling the associated thermal and mechanical stresses. By standardizing validation and data analysis workflows, these experts enable a level of operational readiness that allows organizations to scale their quantum machines without compromising system integrity. This strategic alignment is vital for navigating the transition from proof-of-concept prototypes to standardized, mission-critical quantum processors in a dynamic environment.
Accelerates the deterministic progression of hardware technology readiness levels for utility-scale quantum systems
Mitigates systemic risks associated with mechanical instability and thermal noise in large-scale qubit processors
Facilitates the transition from custom laboratory setups to standardized industrial-grade cryogenic infrastructures
Reduces integration friction between quantum processing units and classical environmental control systems
Strengthens the long-term reliability of quantum hardware through the institutionalization of robust engineering practices
Harmonizes complex mechanical design requirements with the rigorous constraints of low-temperature physics
Optimizes the lifecycle of cryogenic systems through the implementation of data-driven validation and maintenance protocols
Supports the scaling of multi-qubit architectures by identifying and resolving thermal load bottlenecks
Shortens the iteration cycles for hardware experiments by streamlining the design and testing of mechanical interfaces
Improves the technical throughput of multidisciplinary teams through the application of expert architectural oversight
Protects capital-intensive investments in quantum R\&D by providing technical validation of external hardware partnerships
Enables the strategic orchestration of development efforts across global networks of internal and external engineering partners
Industry Tags: Quantum Hardware, Cryogenic Engineering, Mechanical Systems, Systems Integration, Fault Tolerance, Thermal Management, Vibration Isolation, Technology Readiness Level, Infrastructure Scaling
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