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Remote Embedded System Design Jobs in Massachusetts

Senior Software Engineer - File System

Boston, MA · On-site +1

$133K - $175K/yr

Senior Software Engineer - File System Engineering | File System Team | Full-Time | US Boston ... Strong written communication skills for design docs, reviews, remote collaboration, and operational ...

Showing results 41-60

Remote Embedded System Design information

What is remote embedded system design?

Remote embedded system design involves creating and developing embedded systems—specialized computing hardware and software that perform dedicated functions—while working from a location outside of the traditional office or laboratory. Professionals in this field use remote collaboration tools to design, develop, test, and troubleshoot embedded hardware and firmware for devices like IoT gadgets, medical devices, automotive systems, and industrial controllers. This remote approach allows teams to work together across different geographic locations, leveraging cloud-based development environments and hardware simulation tools to ensure seamless integration and functionality.

What are the key skills and qualifications needed to thrive as a remote embedded system designer?

To thrive as a Remote Embedded System Designer, you need a solid background in electronics engineering, embedded programming (such as C/C++), and experience with microcontrollers or FPGA architectures, typically backed by a relevant degree. Familiarity with tools like MATLAB, Simulink, Altium Designer, and version control systems, along with certifications like Certified Embedded Systems Engineer, is often required. Strong problem-solving abilities, self-motivation, and effective remote communication skills help professionals excel in distributed teams. These capabilities ensure the efficient development, testing, and deployment of reliable embedded systems in a remote work environment.

What are some common challenges faced by remote embedded system design engineers, and how can they be addressed?

Remote embedded system design engineers often encounter challenges such as limited access to physical hardware for testing, communication barriers with cross-functional teams, and coordinating firmware updates across different environments. These can be addressed by utilizing remote access tools, simulation environments, and efficient project management platforms to facilitate collaboration and testing. Regular virtual meetings and clear documentation also help ensure alignment with hardware teams and smooth integration throughout the project lifecycle.

What is the difference between Remote Embedded System Design vs Remote Firmware Developer?

AspectRemote Embedded System DesignRemote Firmware Developer
CredentialsBachelor's in Electrical Engineering, Computer Engineering, or related fields; knowledge of hardware and software integrationBachelor's in Computer Science, Electrical Engineering, or related; proficiency in programming languages like C/C++
Work EnvironmentDesigning hardware-software systems, often collaborating with hardware teamsWriting and testing firmware code for embedded devices
Industry UsageElectronics, IoT, automotive, aerospaceConsumer electronics, IoT, medical devices

Remote Embedded System Design focuses on creating integrated hardware and software solutions, while Remote Firmware Developer primarily writes and tests firmware code. Both roles require technical skills but differ in their core responsibilities and work focus.

What job categories do people searching Remote Embedded System Design jobs in Massachusetts look for?

The top searched job categories for Remote Embedded System Design jobs in Massachusetts are:

Manufacturing Design Engineer - Remote

YO AI Labs

Boston, MA • Remote

$40 - $100/hr

Full-time

Posted 13 days ago


Job description

Manufacturing Design Engineer

Job Type: Contractor
Location: Remote

Job Overview

We are seeking experienced Manufacturing Design Engineers to contribute to an advanced mechanical design and manufacturing project. In this role, you will apply your engineering expertise to help improve next-generation AI systems through high-quality, real-world design input.

You will use FreeCAD or similar parametric CAD platforms to create, document, review, and validate production-ready mechanical components and assemblies. This opportunity is ideal for professionals with strong mechanical design, manufacturing, CAD validation, and technical documentation experience.

No prior AI experience is required—your engineering expertise and domain knowledge are what matter most.

Scope of Work
  1. Create and modify detailed parametric 3D CAD models of mechanical components and assemblies using FreeCAD or comparable CAD software.

  2. Develop comprehensive engineering drawings, including GD&T, dimensional requirements, and tolerance stack-ups, suitable for manufacturing handoff.

  3. Design components for manufacturing processes including CNC machining, sheet metal fabrication, plastics, and injection molding.

  4. Perform CAD validation and quality assurance reviews to verify model accuracy, design intent, and production readiness.

  5. Prepare clear technical documentation, design notes, and assembly instructions for use as high-quality reference materials.

  6. Review and incorporate feedback from technical reviewers to improve CAD models, drawings, and supporting documentation.

  7. Apply Design for Manufacturing (DFM) principles to ensure designs are practical, efficient, and manufacturable.

  8. Identify and resolve modeling, dimensional, assembly, and manufacturability issues before production handoff.

Required Skills
  • FreeCAD

  • Parametric CAD Modeling

  • Mechanical Design

  • 3D CAD Modeling

  • Assembly Design

  • Engineering Drawings

  • CAD Validation & Quality Assurance

  • Technical Documentation

  • Design for Manufacturing (DFM)

  • GD&T and tolerance analysis

  • Manufacturing design principles

Preferred Qualifications
  1. 2+ years of experience designing mechanical components for manufacturing environments.

  2. Strong proficiency in FreeCAD or similar parametric CAD software, including advanced modeling, assemblies, and drawing generation.

  3. Hands-on experience with manufacturing considerations for CNC machining, sheet metal, plastics, and injection molding.

  4. Strong understanding of GD&T, tolerance analysis, and DFM best practices.

  5. Demonstrated ability to create production-grade CAD models and validate designs against real-world manufacturability requirements.

  6. Experience interpreting engineering drawings, manufacturing specifications, and technical documentation.

  7. Strong attention to detail and ability to identify CAD and documentation inconsistencies.

  8. Excellent written and verbal communication skills for documenting technical decisions and collaborating with reviewers.

  9. Ability to work independently in a remote environment and meet project quality and delivery requirements