Opportunities are available onsite in Wichita, Kansas and Falcon Hill, Utah, as well as remote ... Perform finite element analysis using ANSYS and/or Abaqus. Collaborate closely with Structural ...
Opportunities are available onsite in Wichita, Kansas and Falcon Hill, Utah, as well as remote ... Perform finite element analysis using ANSYS and/or Abaqus. Collaborate closely with Structural ...
Remote Abaqus information
What is a remote Abaqus?
A Remote Abaqus job refers to a position where professionals use Abaqus, a powerful engineering simulation software, to perform finite element analysis (FEA) tasks from a remote location. These roles typically involve modeling, analyzing, and interpreting engineering problems using Abaqus, often in fields such as mechanical, civil, or aerospace engineering. Remote Abaqus jobs allow specialists to collaborate with teams and clients online, providing flexibility while supporting product design, stress analysis, and research projects. Proficiency in Abaqus and a strong background in engineering principles are essential for these positions.
What are the key skills and qualifications needed to thrive as a remote Abaqus engineer?
To thrive as a Remote Abaqus Engineer, you need a strong background in mechanical engineering, finite element analysis (FEA), and proficiency with the Abaqus simulation software, often supported by a relevant degree and experience in structural or mechanical analysis. Familiarity with technical tools like CAE software (especially Abaqus), scripting languages (such as Python), and sometimes certifications in FEA or simulation are important. Strong problem-solving abilities, attention to detail, and effective remote communication skills help you excel in this position. These skills and qualities are essential for delivering accurate simulation results, collaborating with distributed teams, and meeting project goals efficiently.
What are some common challenges faced by remote Abaqus engineers, and how can they overcome them?
Remote Abaqus engineers often encounter challenges related to communication and collaboration, especially when working on complex simulation projects that require frequent input from team members or clients. To overcome these hurdles, it's important to establish clear communication channels, utilize collaborative platforms for sharing models and results, and schedule regular virtual meetings to align project goals. Additionally, remote engineers should ensure they have a reliable internet connection and access to necessary software licenses, as well as proactively seek feedback to stay aligned with project expectations.
What is the difference between Remote Abaqus vs Remote ANSYS?
| Aspect | Remote Abaqus | Remote ANSYS |
|---|---|---|
| Required Credentials | Engineering degree, Abaqus certification | Engineering degree, ANSYS certification |
| Work Environment | Remote, engineering firms, R&D | Remote, engineering firms, R&D |
| Industry Usage | Structural, crash, materials analysis | Structural, thermal, fluid dynamics |
| Common Search Intent | Compare simulation software roles | Compare simulation software roles |
Remote Abaqus and Remote ANSYS are both specialized engineering simulation roles that often require similar credentials and work environments. While Abaqus focuses on structural and materials analysis, ANSYS covers a broader range including thermal and fluid dynamics. Both roles are commonly found in engineering firms and R&D departments, with similar remote work opportunities. The main difference lies in the specific simulation software expertise required, making them distinct but related career paths in engineering simulation.
What are popular job titles related to Remote Abaqus jobs in Kansas?
For Remote Abaqus jobs in Kansas, the most frequently searched job titles are:
What job categories do people searching Remote Abaqus jobs in Kansas look for?
The top searched job categories for Remote Abaqus jobs in Kansas are:
What cities in Kansas are hiring for Remote Abaqus jobs?
Cities in Kansas with the most Remote Abaqus job openings:
Full-time
Posted 5 days ago
Job description
We are seeking experienced Structural Stress Engineers, Structural Design Engineers, and Systems Engineers to support advanced aerospace programs. Multiple opportunities are available across these engineering disciplines. Candidates do not need experience in all three areas; we are seeking engineers with strong expertise within their respective discipline.
The ideal candidates will bring hands-on aerospace experience supporting aircraft structures and/or systems, with experience working with metallic materials, composite materials, or both. Primary aircraft structure experience is strongly preferred.
Opportunities are available onsite in Wichita, Kansas and Falcon Hill, Utah, as well as remote positions depending on the specific program and engineering discipline.
Structural Design EngineeringStructural Design Engineers will support the development, modification, and integration of aircraft structural components and assemblies.
Design and develop aircraft structural components, assemblies, and installations.
Support metallic and composite aircraft structures, with primary structure experience preferred.
Develop and modify 3D models, assemblies, and engineering drawings.
Evaluate structural designs for manufacturability, installation, maintainability, and integration.
Support design changes, modifications, repairs, and engineering investigations.
Collaborate with Stress, Systems, Manufacturing, and other engineering organizations.
Utilize CATIA V5 and SolidWorks in support of design activities.
Structural Stress EngineeringStructural Stress Engineers will perform analysis and substantiation of aircraft structures supporting new designs, modifications, repairs, and program requirements.
Perform structural analysis of metallic and composite aircraft structures.
Evaluate primary structural components and assemblies.
Perform static strength, fatigue, durability, and damage-tolerance analysis as applicable.
Support structural sizing, design optimization, modifications, and repairs.
Develop engineering calculations, reports, and structural substantiation documentation.
Perform finite element analysis using ANSYS and/or Abaqus.
Collaborate closely with Structural Design Engineers to develop practical and structurally sound solutions.
Systems EngineeringSystems Engineers will support the development, integration, and verification of complex aircraft systems and their interfaces.
Support aircraft systems development, integration, installation, and verification.
Develop and manage system-level requirements and interfaces.
Evaluate system architecture and integration requirements.
Coordinate engineering activities across structural, electrical, mechanical, avionics, and other technical disciplines.
Support system-level design reviews, technical investigations, and engineering changes.
Identify and resolve interface and integration issues.
Develop engineering documentation supporting system design, integration, and verification.
Requirements
U.S. Citizenship is required.
Bachelor's degree in Aerospace Engineering, Mechanical Engineering, Electrical Engineering, or a related engineering discipline preferred.
Previous aerospace or defense engineering experience.
Expertise in Structural Stress, Structural Design, or Systems Engineering.
Experience supporting programs involving metallic structures, composite structures, or both.
Primary aircraft structure experience is strongly preferred for Structural Stress and Structural Design positions.
Experience with CATIA V5 and SolidWorks.
Structural Stress candidates should have experience with ANSYS and/or Abaqus.
Strong analytical, problem-solving, and technical communication skills.
Ability to collaborate effectively within multidisciplinary engineering teams.
Benefits
These positions provide an opportunity to apply your aerospace engineering expertise to technically challenging programs involving advanced aircraft structures and systems. Whether your specialty is Structural Stress, Structural Design, or Systems Engineering, we are interested in engineers who bring strong technical experience, practical problem-solving skills, and an understanding of real-world aerospace design and development.