דרושים » מדעים מדוייקים » Advanced Composites & Manufacturing Technologies Expert

Required Composite Structures Engineer
Why this role exists
The airframe is not just a load path - it is part of the acoustic system. Every panel that vibrates radiates, every joint that transmits structure-borne energy undoes work the rest of the vehicle did to stay quiet. You will design and substantiate the composite structure of a novel lift and propulsion architecture where laminate stiffness, ply-level damping, and transmission-path isolation are traded as deliberately as mass and strength - because our roughly fourfold acoustic advantage survives only if the structure carries it.
What you'll own:
Design composite primary and secondary structure - laminate definitions, ply schedules, core selections, bonded and bolted joints - from concept layout through released engineering definition.
Build, run, and own detailed FEA models for static strength, buckling, and structural dynamics, and keep them correlated against coupon, element, and full-scale test evidence.
Drive vibro-acoustic behavior of the airframe: characterize panel modal density, radiation efficiency, and structure-borne transmission paths, and turn stiffness and damping into deliberate acoustic design levers.
Define and execute structural test campaigns - building-block coupon and element tests, modal surveys and ground vibration tests - including instrumentation plans, test readiness reviews, and post-test model correlation.
Develop material allowables and laminate design values with materials and process engineers, and document the basis for every margin you claim.
Write structural substantiation reports with traceable loads, methods, and margins of safety that will stand up to a certification authority, not just an internal review.
Trade mass against transmission loss and damping treatments directly with the Acoustics team, and defend the structural side of those trades at vehicle-level design reviews.
Support the build: assess layup and tooling feasibility, review first articles, and disposition manufacturing discrepancies on flight hardware.

We are seeking an experienced and multifaceted Mechanical NPI & Manufacturing Engineer to own mechanical systems engineering, manufacturing transfer, advanced packaging, and thermal/liquid cooling integration across our high-performance networking portfolio.
In this role, you will lead end-to-end mechanical execution from late-stage R&D through volume manufacturing at global EMS/ODM facilities. Your scope spans chassis-level systems up to full-rack scale integration, custom packaging/palletization design, and advanced data center liquid cooling architectures. You will serve as the technical authority for mechanical quality, supplier qualification, transit reliability, and production line optimization.
Key Responsibilities
NPI Transfer & Manufacturing Execution:
Lead seamless NPI-to-mass-production transfers, cataloging & verifying BOM completeness, 2D/3D drawing releases, and fabrication readiness for standalone switches and fully integrated rack systems.
Author, validate, and maintain detailed Mechanical Assembly & Process Instructions for global contract manufacturing lines.
Define together with R&D precision assembly parameters: torque specifications, fastening tooling, screw tightening sequences, and structural assembly guidelines.
Design, validate, and commission mechanical assembly jigs, alignment fixtures, and high efficiancy tooling to ensure repeatable line assembly.
Advanced Packaging, Palletization & Logistics Engineering:
Design and validate primary and secondary packaging solutions, including custom cushioning (EPE/EPP foam), corrugated structures, and chassis transit protection.
Define ESD shielding, Moisture Barrier Bags (MBB), and desiccant requirements for high-sensitivity optical and electronic assemblies.
Optimize palletization patterns, container cube utilization, stacking strength calculations, and pallet weight distribution for global freight.
Plan, execute, and certify transit/drop testing in accordance with international standards.
Manage day-to-day shipping deviations, packaging waivers, and disposition of in-transit damage.
Labeling & Regulatory Compliance Integration:
Design unit, carton, and pallet labels; select and qualify label substrates, adhesives, and print ribbons for environmental durability (abrasion, high temperature, humidity, UV resistance per UL standards).
Manage the physical integration and placement of global regulatory markings on chassis surfaces, rating plates, and packaging.
Thermal Management & Liquid Cooling Architecture:
Address mechanical-thermal integration challenges within high-power chassis and optical cages .
Oversee mechanical validation and assembly of Liquid Cooling systems for high-density compute/switching gear, including cold plates, manifolds, quick disconnects , hoses/piping routing, fluid loop integrity, and leak detection mechanisms.

We are looking for a Mechanical Design Engineer to join our Electronic Warfare R&D team and work on mechanical development of advanced counter-UAV detection and jamming systems.

Key Responsibilities
Lead full-cycle mechanical design of electronic and RF system assemblies - from initial architectural concept, thermal and structural analysis, and PCB integration to volume serial production
Perform structural, thermal, and modal analyses.
Select suitable materials, components, and manufacturing technologies.
Manage development and engineering processes end-to-end: from concept, through prototyping, to full production implementation, ensuring quality and supply chain standards.
Prepare drawings, production files, and BOMs according to ISO standards.
Develop mechanical solutions for multidisciplinary systems (mechanics, RF, electronics, aeronautics).
Define and design cable assemblies, including cable routing and integration within the system
Conduct verification and validation testing.
Work with advanced CAD tools: SolidWorks for design and PDM for production document management.

The successful applicant will perform advanced structural, stress, and fatigue analyses to ensure the safety, durability, and compliance of aerospace components. You will bridge the gap between initial concepts and final, certified designs by validating both metallic and composite structures using a mix of traditional hand calculations and modern finite element modeling (FEM) software.

Required Quality & Reliability Lead
What we are looking for:
The Quality & Reliability Engineer is responsible for driving product quality, manufacturing excellence, and reliability performance across our products and operations.
Working closely with Engineering, Manufacturing, Supply Chain, Service, and R&D teams, this role leads quality and reliability initiatives that improve process capability, manufacturing yields, product robustness, and customer satisfaction through data-driven decision making, structured problem solving, and continuous improvement methodologies.
The role is also expected to leverage AI and advanced analytics tools to accelerate insights, improve decision making, and enhance operational effectiveness.
Responsibilities
What will you be doing:
Responsibilities - Quality:
Lead quality improvement initiatives focused on yield enhancement, defect reduction, process stability, and continuous improvement across DMD operations.
Establish and maintain Statistical Process Control (SPC) and drive process capability analysis using statistical methods and data-driven quality metrics.
Lead root cause investigations utilizing methodologies such as 8D, 5 Why, Fishbone Analysis, Pareto Analysis, DOE, and FMEA.
Drive NCR, CAPA, and corrective action processes, identify trends, prioritize actions using evidence-based analysis, and verify effectiveness of implemented solutions.
Partner with Manufacturing, Engineering, Service, and Customer Support teams to resolve product quality issues, customer complaints, field incidents, and escalations.
Collaborate with suppliers to improve quality performance, drive supplier corrective actions, and reduce supplier-related quality risks.
Conduct supplier audits and assessments, including evaluation of manufacturing controls, process capability, inspection methods, and process discipline.
Review supplier quality documentation including CoC, CoT, ATR, inspection records, and quality reports to identify risks, trends, and improvement opportunities.
Lead internal and external audits, ensuring compliance and effective corrective actions.
Responsibilities - Reliability:
Partner with Engineering and R&D teams to define reliability qualification plans, test strategies, acceptance criteria, and reliability requirements for new and existing products.
Ensure reliability testing programs are properly executed and that test results are systematically reviewed, analyzed, and translated into actionable improvements.
Partner with Service and analyze reliability, field performance, MTBF, and MTTR data to identify trends, emerging risks, and improvement opportunities.
Lead investigations of reliability failures and support identification of physical, mechanical, electrical, optical, material, and process-related failure mechanisms.

The Jerusalem Manufacturing Engineering function supports reliable, compliant, and efficient production of medical devices. The team partners with Operations, Quality, Maintenance, Supply Chain, and other engineering functions to sustain manufacturing processes, introduce equipment, expand capacity, and drive continuous improvement. This position follows a hybrid work model, with onsite presence required to support manufacturing activities.
The Manufacturing Engineer will provide hands-on engineering support for production processes and equipment. The role monitors process performance, leads equipment and capacity projects, investigates manufacturing failures, prepares and maintains engineering documentation, and ensures that processes comply with applicable medical-device manufacturing requirements. The successful candidate will help improve process stability, productivity, quality, and manufacturing readiness through data-driven problem solving and effective cross-functional collaboration.
This is a temporary, 9-month contract position.
Primary Responsibilities:
Monitor manufacturing processes using statistical process control and develop effective process-monitoring techniques
Lead small to medium projects for the selection, installation, qualification, and implementation of new manufacturing equipment
Investigate process and equipment failures using structured root-cause analysis and support nonconformance, corrective action, and preventive action activities
Create and maintain engineering change orders, work instructions, equipment files, validation protocols, and validation reports
Manage manufacturing equipment and capacity requirements in accordance with production demand. Ensure manufacturing processes and procedures comply with applicable regulations and quality-system requirements for medical devices
Collaborate with Operations, Quality, Maintenance, Supply Chain, and other stakeholders to resolve production issues and implement sustainable improvements
Prioritize engineering deliverables based on business needs, project criticality, product quality, and production continuity.

a leading defense-tech startup, developing advanced electro-optical systems for real-world defense applications, is looking for a senior mechanical design engineer to join the r&d team and take a hands-on role in designing and developing mechanical systems and assemblies, from concept through production. the role offers significant ownership and involvement in solving complex engineering challenges.
responsibilities:
lead end-to-end mechanical development, from concept and design through production and field support.
design, prototype, TEST, and validate mechanical systems and components.
design cameras, lenses, enclosures, and electromechanical assemblies.
optimize designs for performance, reliability, and manufacturability.
create and maintain technical drawings, specifications, and TEST procedures.
own multiple projects and independently drive solutions to complex mechanical challenges.
collaborate with multidisciplinary teams to deliver integrated, production-ready solutions.
work with manufacturing technologies including cnc, sheet metal, molding, and 3d printing.
design mechanisms and enclosures for harsh environmental conditions.
support vibration and shock testing and qualification.

We are looking for a talented Mechanical Design Engineer to join our dexterous hands development team. You will work alongside senior engineers who lead this field and bring extensive experience in miniature mechanisms.
This is a highly hands-on position in a fast-moving, multidisciplinary environment. You will take mechanisms from early concepts through detailed design, prototyping, testing, iteration, and preparation for production.
Responsibilities:
Design compact, high-performance mechanisms for dexterous robotic hands, fingers, and wrists.
Develop joints, transmissions, actuation systems, tendon or cable-driven mechanisms, and sensor-integrated components.
Perform kinematic, force, tolerance, and structural analyses.
Create detailed 3D CAD models, assemblies, production drawings, and bills of materials.
Build and assemble prototypes and conduct hands-on mechanical testing.
Design test fixtures and define practical validation procedures.
Investigate failures, identify root causes, and rapidly implement design improvements.
Select materials, bearings, fasteners, springs, cables, actuators, sensors, and manufacturing processes.
Work closely with controls, electronics, software, industrial design, and manufacturing engineers.
Collaborate with suppliers and support the transition from prototypes to repeatable production.

In this role, you will: Lead mechanical development projects from system requirements and concept selection through detailed design, design reviews, prototype builds, verification, product release, and lifecycle support. Design precision mechanical and optomechanical assemblies, rugged electronic enclosures, and interfaces for PCBs, connectors, cabling/fibers, seals, and thermal paths. Develop solutions for vibration and shock environments while addressing strength, stiffness, thermal performance, sealing, EMI/EMC constraints, assembly, and serviceability. Deliver 3D models, production drawings with GD&T, BOMs, interface drawings, specifications, TEST requirements, and engineering change documentation. Select materials, finishes, manufacturing processes, fasteners, and commercial components; drive DFA, design-to-cost, reliability, and maintainability. Support procurement, prototype assembly, system integration, environmental and qualification testing, and the resolution of production and field issues.