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As a Software Engineer - PET Data Acquisition, you will join a highly specialized team developing the real-time software stack at the core of our companys PET/CT imaging systems.
Our software directly impacts image quality and system reliability, enabling clinicians worldwide to provide accurate diagnoses and life-saving care.
You will work on a distributed, high-performance C++ system running on Linux, responsible for configuring detector hardware, processing high-throughput data streams, and enabling seamless integration across the scanner ecosystem.
Job Description
About the Team
Our team develops the data acquisition platform powering our companys PET/CT scanners.
This system:
Configures and interfaces with detector hardware
Receives high-rate event streams via UDP
Performs real-time sorting and time-stamping of coincidence events
Manages acquisition state and persistence
Exposes control and monitoring APIs to clinical applications
The platform is a distributed, multi-process, multi-threaded C++ system running on Linux, designed for deterministic, high-performance operation under demanding workloads.
Key Responsibilities
Design and develop end-to-end data acquisition features, from low-level UDP capture and event processing through service layers and client APIs
Optimize and maintain performance-critical code paths, including:
Lock-free / low-contention data structures
Thread affinity and NUMA optimization
Zero-copy buffer management
Deterministic real-time execution
Enhance and maintain inter-process communication mechanisms, including shared memory, message queues, and service interfaces
Work with embedded persistence layers (SQL-based) for configuration, metadata, and runtime state
Collaborate closely with hardware, physics, and system teams to integrate new detector and system components
Develop unit and integration tests, and actively participate in code and design reviews
Troubleshoot complex cross-process issues using advanced debugging and profiling tools (e.g., gdb, perf, tcpdump, strace).

This position refers to leading the design of parts and assemblies for the company imaging systems (PET, SPECT). The position includes working inside an NPI project or supporting the systems in the field (Install Base). The mechanical design of parts and assemblies includes working with multi-disciplinary teams including electronics, system engineering, service engineering and involves transfer of designs to production, support of high-level-assembly lines, etc. This position involves the writing of safety files, planning and execution of V&V tests, engineering calculations and FEA simulations, writing specifications and failure analysis.
Job Description
Essential responsibilities:
Mechanical design derived from specifications (as well as writing specifications), as part of a multi-disciplinary team of parts and assemblies while using off-the-shelf components, using 3D CREO CAD design package. Presenting the design in technical design reviews at the levels of concept and detail design is a part of this position,
Developing creative design solutions in response to the product requirements of functionality, reliability, cost, manufacturability, etc.,
Support of company products at hospital and customer sites via the Service Teams as needed,
Building safety files for products, including strength calculations, failure modes analysis (FMEA), compliance with safety and medical industrial standards as well as internal company standards,
Supporting transfer to production, defining basic assembly and service instructions, working with parts suppliers,
Defining verification and validation test procedure, tests execution and report writing.
Essential qualifications /requirements:
Mandatory: 1st degree in mechanical engineering
Mandatory: Good personal, teamwork and communication skills, enthusiasm from study, self-motivated, results oriented,
Work experience of 2 years in mechanical design, with experience in at least 2 of the following: design of motion systems, large welded or cast structures and frames, mechanisms, electronic packaging, large sculptured FRP covers, electrical design support (DXF, cables routing),
Experience in machining and sheet metal technologies,
Experience in prototype building (hands on), testing execution per test plan and failures troubleshooting
Fluent English at presentation level in technical design reviews, Zoom/Teams calls and in writing.
Desired Characteristics by priority:
Leading tasks from requirements to engineering change finalization,
System level understanding in multi-disciplinary project environment,
Definition of testing and report writing,
Experience in design for cost, reliability, serviceability and for manufacturability.
Ability to perform finite-element analysis and Excel level technical calculations,
we are a leading global medical technology and digital solutions innovator. Our mission is to improve lives in the moments that matter. Unlock your ambition, turn ideas into world-changing realities, and join an organization where every voice makes a difference, and every difference builds a healthier world.

We are looking for an NPI Engineer for the R&D team. The NPI Engineer will own the end-to-end transition of multidisciplinary medical devices from R&D prototypes to stable, scalable serial production, serving as the bridge between product development and Operations.
If you want to work in an innovative, international environment and help push the boundaries of healthcare, well-being, and energy-based technology, this is your opportunity
Key responsibilities:
Lead the full NPI and design-transfer process from R&D handoff through pilot builds, qualification, production ramp-up, and stabilization.
Build and drive transfer plans, schedules, risk and action tracking, production-readiness criteria, and release gates.
Create and maintain the manufacturing package, including BOM/DMR content, drawings, work instructions, test methods, acceptance criteria, tooling, and training materials.
Lead DFM, DFA, and DFT reviews and drive design and process improvements that support quality, manufacturability, serviceability, and cost.
Define, develop, and qualify manufacturing processes, fixtures, equipment, and test setups; prepare and execute validation protocols where applicable.
Lead ECOs and configuration changes, and provide hands-on support for production, yield, quality, field, and obsolescence issues using structured root-cause and corrective-action methods.
Serve as the technical focal point across R&D, Operations, QA/RA, Supply Chain, Service, suppliers, subcontractors, and contract manufacturers.

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.

This is a unique opportunity to join a company at a pivotal growth stage and help shape its products, culture, and future.

DART is an autonomous counter-drone system: a standalone system and a radar-cued ground station launch small interceptor drones that acquire an airborne target with a thermal seeker and defeat it by direct impact. The interceptor is built on a COTS high-agility racer platform, with Betaflight closing the inner rate loop and a mission computer running perception and outer-loop guidance.

You will own the two disciplines that determine whether the interceptor actually hits: guidance and control law design, and the simulation environment used to develop, validate, and regression-test those laws before anything flies. This is a hands-on leadership role - you are expected to write and tune code, sit in front of flight logs, and stand in the field on test days, while also setting technical direction for a small team.

Key Responsibilities
Own outer-loop guidance (image-based thermal aim, pursuit/proportional-navigation, latency-compensated LOS, and throttle management) and manage end-to-end latency and stability budgets.
Implement and tune controllers (from PID/PI to adaptive/MPC), define flight controller interfaces (MSP/CRSF/SBUS injection), and govern the flight-mode state machine, failsafes, and safety envelope.
Deliver the 6-DOF simulation product (interceptor/target dynamics, thermal seeker), maintain SIL/HIL rigs for unmodified production code, validate models against flight data, and run automated regression suites and KPIs.
Lead and mentor the control and simulation team, set test-progression gates (sim to full-envelope flight), collaborate closely with Vision and Systems Engineering, and produce all required technical artifacts.

we are looking for a Senior Mechanical Engineer.
In this role, you will lead all mechanical aspects of the product in R&D projects, taking it from concept to full scale development while working with multidisciplinary teams that include system engineering, physics, electronics, software, project managers, and others. You will serve as a technical focal point for mechanical design decisions, balancing performance, manufacturability, reliability, and cost.
Your role:
Lead the mechanical design including 3D models, drawings, prototype manufacturing, and production transfer.
Provide solutions that optimize performance, service, manufacturability, and cost.
Perform required analysis, testing, troubleshooting, and documentation.
Work with local and global teams inside and outside Philips to answer design, service, and production challenges.
Own mechanical risk identification, mitigation plans, and design reviews
Operate in a multidisciplinary environment under conflicting constraints of performance, reliability, cost, and development schedule.

Required Power and Signal Integrity Engineer
About the job
Be part of a team that pushes boundaries, developing custom silicon solutions that power the future of our direct-to-consumer products. You'll contribute to the innovation behind products loved by millions worldwide. Your expertise will shape the next generation of hardware experiences, delivering unparalleled performance, efficiency, and integration.
Our mission is to organize the world's information and make it universally accessible and useful. Our team combines the best of AI, Software, and Hardware to create radically helpful experiences. We research, design, and develop new technologies and hardware to make computing faster, seamless, and more powerful. We aim to make people's lives better through technology.
As a Power and Signal Integrity Engineer, you will be responsible for the design and characterization of signal and power integrity of our IC designs. You will design the external electrical interfaces of the device, from their Signal/Power-integrity and electrical usage perspectives.
You'll set up methodologies, perform simulations, silicon characterization and correlations to ensure our IC designs meet systems design budgets and achieve the highest performance. You will work with systems architects, ASIC design, systems engineers, and partner cross-functionally with teams and external vendors/partners.
The ML, Systems, & Cloud AI (MSCA) organization designs, implements, and manages the hardware, software, machine learning, and systems infrastructure for all services (Search, YouTube, etc.) and Cloud.
We prioritize security, efficiency, and reliability across everything we do - from developing our latest TPUs to running a global network, while driving towards shaping the future of hyperscale computing. Our global impact spans software and hardware, including Clouds Vertex AI, the leading AI platform for bringing Gemini models to enterprise customers.
Responsibilities:
Design and optimize power distribution networks (PDN) across chip, package, and board levels. This includes managing power/ground planes, decoupling capacitors, and power gating strategies.
Conduct both pre-layout and post-layout power integrity simulations to analyze power and ground noise (SSN/SSO), voltage drops (IR drop), and electromagnetic interference (EMI).
Implement and verify low-power design methodologies, such as multi-voltage designs and clock gating, using power intent formats like UPF/CPF.
Generate precise electrical models (e.g., S-parameters, SPICE models) for components such as packages, PCBs, and connectors for use in simulations.
Execute lab measurements utilizing test equipment like oscilloscopes, Vector Network Analyzers (VNA), Time Domain Reflectometers (TDR), Spectrum analyzers to validate simulation outcomes and debug signal and power-related issues on silicon prototypes and boards.

As an R&D Mechanical Engineer at Augury, you will own the design of new parts and assemblies, design parts for machining and injection molding, perform analytical calculations and V&V tests.

Youll work closely with mechanical, hardware, V&V, sustain, manufacturing, and external sub contractors, to deliver innovative, reliable, and scalable IoT devices.

A Day In Your Life
Design mechanical parts and mechanisms, for highly challenging environments, from initial concepts, through all design phases, until transfer to production.
Master 3D CAD models and drawings for mechanical components, assemblies, jigs, and fixtures (including release management and GD&T).
Design for plastics: mostly parts for injection molding, compression and other classical manufacturing methods.
Run prototype validation: mechanical inspection, stress testing, sealing, field testing and support high level system validation procedures.
Cooperate with multidisciplinary teams (HW, V&V, FW, Algo), utilizing analytical thinking and strong theoretical background.
Transfer parts for production, in collaboration with the engineering team, and following product lifecycle methodologies.
Work with subcontractors and vendors in Israel and internationally.

We're a global team of creative experts, bringing our unique backgrounds and bold ideas to push boundaries and help each other grow. Because full product development-from design to qualification to production-is within our team, were able to think differently, experiment more, and work quickly. Join us to power the future of the digital world.


YOUR IMPACT

Build, lead, and mentor a team of mechanical design engineers responsible for Engineering Validation Board (EVB) mechanical development.

Define team priorities, project plans, and resource allocation in collaboration with Hardware Program Managers and cross-functional engineering teams.

Lead the mechanical design of complex EVBs, including board-level mechanics, fixtures, thermal solutions, structural components, and lab infrastructure.

Drive Design for Manufacturing (DFM), Design for Assembly (DFA), and Design for Test (DFT) to ensure efficient prototype builds and engineering validation.

Develop innovative mechanical concepts to support aggressive product development schedules and multiple concurrent programs.

Partner closely with Electrical Engineering, PCB Layout, Signal Integrity (SI), Power Integrity (PI), Thermal Engineering, Packaging, and Contract Manufacturers throughout the product lifecycle.

Support prototype assembly, debugging, validation, and bring-up activities, ensuring rapid issue resolution.

Lead root cause investigations, failure analysis, and corrective actions for mechanical and assembly-related issues.

Perform design reviews, risk assessments, and implement mitigation plans to improve product quality, reliability, and execution.

Define and continuously improve mechanical design methodologies, engineering processes, and best practices for EVB development.

Work closely with external suppliers and contract manufacturers to ensure manufacturability, quality, cost optimization, and schedule execution.