Lead the design and development of precision mechanical and optomechanical subsystems for advanced semiconductor metrology and inspection systems.
Compensation
Base Salary Range: $115,200.00 - $172,800.00, offered in good faith and based on experience, location, and qualifications. Additional Rewards: Annual bonus opportunities and potential long-term incentives tied to both company and individual success.
Responsibilities
Lead design, analysis, and validation of advanced precision mechanical and optomechanical systems
Mechanical Engineer focused on analysis, design, integration, and qualification of complex mechanical and electromechanical hardware for directed energy systems.
Responsibilities
Perform mechanical engineering analysis supporting the design and development of directed energy systems and subsystems.
Develop, review, and validate analytical models for static and dynamic structural performance, vibration, shock, acoustic environments, modal response, thermal management, thermomechanical behavior, fatigue, fracture, durability, loads, stiffness, structural margins, mechanisms, joints, mounts, and precision alignment features.
Use finite element analysis and other engineering tools to evaluate component and system performance.
Define analysis assumptions, boundary conditions, material properties, load cases, and acceptance criteria.
Correlate analytical predictions with test data and update models based on observed hardware performance.
Requirements
Bachelor’s degree in Mechanical Engineering, Aerospace Engineering, or a related technical discipline
Lead and advance Laser Powder Bed Fusion (LPBF) additive manufacturing processes, materials, and production capabilities for critical aerospace and defense applications.
Compensation
Every role at Beehive Industries is bonus eligible and will also receive equity in the company.
Responsibilities
Serve as a technical authority for LPBF additive manufacturing processes, materials development, and production readiness initiatives
Define technical strategies and roadmaps for additive manufacturing capabilities, process optimization, and production scalability
Lead development and implementation of advanced LPBF process parameters for complex materials and geometries
Establish and improve additive manufacturing standards, specifications, process controls, and technical documentation
Drive resolution of the most complex challenges related to powder metallurgy, laser-material interaction, melt pool behavior, thermal management, and part performance
Requirements
Bachelor’s degree in Engineering, Metallurgy, Materials Engineering, Mechanical Engineering, or a related technical field; or equivalent combination of education and experience
Nice to have: Master’s degree or PhD in Engineering, Metallurgy, Materials Engineering
Nice to have: lead production LPBF implementation for aerospace or defense
Design precision mechanical devices, machines, mechanisms, tooling, molds, fixtures, positioning assemblies and alignment equipment from initial concepts through detailed, production-ready designs.
Define critical dimensions, datum strategies, fits, tolerance stacks, surface finishes, material choices, stiffness and thermal stability requirements; evaluate mechanical interfaces, assembly sequences, serviceability and production repeatability.
Produce and release complete engineering packages: 3D CAD models, detailed manufacturing and assembly drawings, GD&T, bills of materials, inspection requirements and technical specifications; conduct design reviews and apply DFM/DFA principles.
Own the technical manufacturing interface from prototype to finished parts: select suitable processes such as CNC milling and turning, grinding, EDM, precision finishing and heat treatment; work with suppliers on feasibility, quotations, fabrication, first-article inspection and nonconformities.
Plan and support precision fitting, assembly, adjustment and alignment; verify dimensions and functional performance, resolve build issues, and lead or support installation, acceptance testing, commissioning and technical handover.
Requirements
Bachelor’s or Master’s degree in Mechanical Engineering, Precision Engineering, Mechatronics, Manufacturing Engineering or a related discipline.
Simulation engineer for thermal and structural analysis for compact, high-density consumer electronics such as smart wearables using CFD and FEA.
Responsibilities
Build and run conjugate heat transfer (CHT) simulations at system, board and component level, including natural convection, forced convection and radiation.
Model the thermal behavior of SoCs, PMICs, batteries, displays, cameras and other heat-dissipating parts in tight enclosures.
Run transient analyses of power profiles and use cases and support thermal throttling and power budget strategy.